- published: 09 Dec 2013
- views: 175017
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View full lesson: http://ed.ted.com/lessons/how-to-sequence-the-human-genome-mark-j-kiel
Your genome, every human's genome, consists of a unique DNA sequence of A's, T's, C's and G's that tell your cells how to operate. Thanks to technological advances, scientists are now able to know the sequence of letters that makes up an individual genome relatively quickly and inexpensively. Mark J. Kiel takes an in-depth look at the science behind the sequence.
Lesson by Mark J. Kiel, animation by Marc Christoforidis.
Using fruit flies and small plants, USC professor researches the route from genotype to phenotype to understand more about disease states in humans.
- published: 03 May 2010
- views: 47048
View full lesson: http://ed.ted.com/lessons/the-race-to-sequence-the-human-genome-tien-nguyen
This video was created with support from the U.S. Office of Research Integrity: http://ori.hhs.gov.
In 1990, The Human Genome Project proposed to sequence the entire human genome over 15 years with $3 billion of public funds. Then, seven years before its scheduled completion, a private company called Celera announced that they could accomplish the same goal in just three years at a fraction of the cost. Tien Nguyen details the history of this race to sequence the human genome.
Lesson by Tien Nguyen, animation by Boico Visual House.
- published: 12 Oct 2015
- views: 113536
(Visit: http://www.uctv.tv/) Three fascinating talks on unraveling the mystery of the genome are presented here. Dr. Eric Green, the director of the National Human Genome Research Institute offers an update on the human genome and medical genomics; Dr. Gary Firestein, director of UC San Diego’s Clinical and Translational Research Institute explains how we are more than our genes; and Dr. Razelle Kurzrock, the director of the Center for Personalized Cancer Therapy at the Moores Cancer Center looks ahead to the future of genomics and cancer medicine. This program is presented by the Center for Ethics in Science and Technology in San Diego.
Recorded on 10/21/2014. Series: "Exploring Ethics" [11/2014] [Public Affairs] [Science] [Show ID: 28379]
- published: 07 Nov 2014
- views: 18854
A dynamic 3D computer animated video takes you "inside" for a close-up look at how we're made. Watch as the mysteries of the Human Genome are literally "unraveled." 3D modeling and animation created by Bill Baker, Bakedmedia, Inc. and Mike Fisher for the National Human Genome Research Institute.
As public domain media, the animation is free to use.
Please use the following credit: Courtesy: National Human Genome Research Institute. 3D animation by Bill Baker, Bakedmedia and Mike Fisher.
- published: 17 Aug 2007
- views: 237879
Hank tells us three surprises about human DNA which we learned because of the Human Genome Project.
Like SciShow on Facebook: http://www.facebook.com/scishow
Follow SciShow on Twitter: http://www.twitter.com/scishow
Find out more about the Human Genome Project at www.ornl.gov/hgmis and about the National Human Genome Research Institute at http://www.genome.gov
- published: 24 Jul 2012
- views: 427522
My Deepcool Genome Case Mod Project Link, http://mnpctech.com/deepcool-genome-gamerstorm-mid-tower-atx-gaming-case-review.html
Subscribe to our Mod Zoo YouTube Channel! https://www.youtube.com/channel/UC31i9d5-tLB-Jzd0MmU5U9w
Listen to our Mod Zoo Podcast, http://themodzoo.com/category/podcast/
Hello everyone! This is another custom modification for Deepcool that I will be documenting. Before I get into modifying portions of this unique case, I want to clarify that I had no involvement with the design of this case. Some people are presuming I created this case for Deepcool. They asked if I would modify their retail case for events this year. If you're new to my website, Mnpctech customizes retail PC cases for companies marketing new products or need to draw people to their booths at PC gaming or hardware industry related shows.
Before I start sharing stages of my modifications, I'll start with an overview Gamerstorm Genome Mid Tower ATX case. The Genome case supports ATX or MATX motherboard with seven PCI slots, and allows graphics cards up to 330mm long. It includes two vertical PCI slots for mounting a video card at ninety degrees. This is a great for showing off your video card or sexy water block. It does require using a PCI-E cable which is sold separately from Deepcool for $16.95. The chassis doesn't include mounting for 5.25 drives, but does allow two 3.5" hard drives and four 2.5" SSD on the back of the motherboard. Deepcool will be offering three color variations of the Genome. white with blue tubing, as well as black with green or red spiral tubing in the reservoir.
Like me, my PC modder friends will sacrifice elements of their case to suit personal vision or implementing their own cooling. Typically the optical drive bays are removed first to create space for radiators or reservoirs. The Genome saves you time by eliminating these bays and integrating a liquid cooling system for your processor. The system consists of a block/pump combo, 360mm radiator, three PWM controlled 120mm fans, and a reservoir. The block has a pulsing blue LED in the core of its reactor. The reservoir is LED-backlit with a controllable breathing effect. The loop is based on the "Gamer Storm Captain" CPU cooler from Deepcool. You can't remove the tubing on the radiator or water block, but the reservoir has G-1/4 threaded barbs, so you could swap it out. The 1/2" O.D. black rubber tubing would need to be cut. It's permanently attached to all of the barb connections in the loop. The Genome's radiator is aluminum, so it's not advised to incorporate bare copper components into this loop and risk any galvanic corrosion. I will be keeping the factory loop stock by their request, but may add 2nd custom loop for a vertical graphics card. It would be nice if Deepcool considered adding an optional kit for consumers interested in adding a second liquid loop to their graphics cards.
The PSU is located in the basement of the chassis with PSU window visible through the case's side window. I'd imagine this is for showing off your PSU branding. The PSU resides on noise isolating rubber pads and includes a removable dust filter. Deepcool used SGCC steel to build the frame of the chassis. The removable front bezel and top cover are ABS plastic. The Genome comes with a factory 120mm rear exhaust fan and three 120mm PWM fans mounted to the 360mm radiator. The case measures 506mm x 210mm x 505mm, and it weighs 9.77 kg.
The Deepcool Genome's MSRP is $249.99 with a release date aimed at February 2016. I'm sure your reaction is negative about the price, but take into account the cost if you were to DIY your own. The average Mid Tower with space for the same cooling configuration range from $69.00 - $90.00. The cheapest price options for decent quality liquid components will be around $50.00 for 360mm radiator, $40.00 for a CPU water block, $65.00 for comparable design reservoir, $69.00 for a reliable water pumpIf you consider $224.00 in liquid components alone, plus $69.00 for the case, then $249.99 isn't unreasonable for this "out of the box ready" setup.
My vision for "MNPC1" will be reminiscent of my "Phenom" case mod for AMD in 2006 with new inspiration from the Star Citizen game. The sides will be re-designed to look like reinforced spaceship hull doors. I haven't decided which ship manufacturer from SC to focus on yet, but I'm leaning toward Musashi Industrial & Starflight Concern. I think their spaceship designs are the most unique. Bookmark this page, I'll be posting updates of my progress of my case mod over the coming weeks. Thank you! Bill Owen
- published: 18 Jan 2016
- views: 7417
This two-hour special, hosted by ABC "Nightline" correspondent Robert Krulwich, chronicles the fiercely competitive race to capture one of the biggest scientific prizes ever: the complete letter-by-letter sequence of genetic information that defines human life—the human genome. NOVA tells the story of the genome triumph and its profound implications for medicine and human health.
- published: 06 Sep 2014
- views: 196257
The deadly scourge of cancer has confounded doctors since ancient Egypt. Now, The Cancer Genome Atlas (modeled after the Human Genome Project) promises a new and powerful approach in this age-old battle. We joined a discussion including Eric Lander, Mary-Claire King and other leaders in the field as they described how and why the balance of power in the war on cancer may finally be shifting.
Subscribe to our YouTube Channel for all the latest from WSF.
Visit our Website: http://www.worldsciencefestival.com/
Like us on Facebook: https://www.facebook.com/worldsciencefestival
Follow us on twitter: https://twitter.com/WorldSciFest
Participants: Mary-Claire King, Eric Lander, Siddhartha Mukherjee, Olufunmilayo Olopade
Original Program Date: June 2, 2011
A closer look at cancer. 00:11
Richard Besser's introduction. 3:32
Participant Introductions. 4:06
What is the cancer genome project? 6:04
Where does the understanding of genomics put us today? 13:42
What were the misconception of the past? 15:55
Is the more is better idea really better? 23:05
Imputing some numbers into the cancer equation. 28:03
Will there be more payoff with the human genome project or the cancer genome project? 32:10
Mary-Claire King's discoveries and breakthroughs. 37:35
Does collaboration always produce better results? 44:40
Should there be a shift in global health? 51:48
Can we classify cancers by their mutations. 56:30
When you understand the genetics then what? 1:02:37
Being able to predict addictions. 1:09:27
The death of drug companies. 1:15:00
As we understand genomics better how do you market these drugs? 1:20:05
What drives you to do this work? 1:24:18
- published: 12 Jan 2015
- views: 10498
This video is about whole genome sequencing. What is a genome? What are the basics of how whole genome sequencing works? What can you find out about yourself from getting your genome sequenced? And what are the potential benefits and risks? You might be considering getting your genome sequenced for clinical, research or personal reasons. Or you might just be curious and want to learn a bit more about this technology. This video was developed to help you understand a bit more about what whole genome sequencing is, and what it could mean for you. It was developed by researchers at Mount Sinai's Department of Genetics and Genomic Sciences and Department of Emergency Medicine with funding from the Charles Bronfman Institute for Personalized Medicine, with valuable input from several community consultants, patients and others from around the Mount Sinai community.
• Visit the Department of Genetics and Genomic Sciences: http://ow.ly/f8saW
• Visit the Department of Emergency Medicine: http://ow.ly/f8sfq
• Visit the Charles Bronfman Institute for Personalized Medicine: http://ow.ly/f8sjU
- published: 08 Nov 2012
- views: 30763
http://www.ibiology.org/ibiomagazine/jennifer-doudna-genome-engineering-with-crispr-cas9-birth-of-a-breakthrough-technology.html
Talk Overview:
Jennifer Doudna tells the story of how studying the way bacteria fight viral infection turned into a genomic engineering technology that has transformed molecular biology research. In 2013, Doudna and her colleagues developed the CRISPR-Cas9 gene expression system that, when introduced into animal cells, makes site-specific changes to intact genomes. CRISPR-Cas9 is more precise, more efficient, and less expensive than other genome editing tools and, as a result, has facilitated a wide range of studies that were previously unachievable.
Speaker Biography:
Jennifer Doudna is Professor of the Departments of Chemistry and of Molecular and Cell Biology at University of California, Berkeley, and an Investigator of the Howard Hughes Medical Institute. Early in her career, she studied the structure and mechanism of ribozymes (enzymatic RNA molecules) and RNA-protein complexes, such as the signal recognition particle. Now her research focuses on understanding how RNA molecules control gene expression in bacteria, through the CRISPR-Cas9 system, and eukaryotic cells, through RNA interference and microRNA-mediated translational control. For her outstanding scientific contributions, she was elected into the American Academy of Arts and Sciences in 2002 and the National Academy of Sciences in 2003, and was awarded the 2015 Breakthrough Prize in the Life Sciences.
- published: 23 Mar 2015
- views: 128891
In modern molecular biology and genetics, the genome is the entirety of an organism's hereditary information. It is encoded either in DNA or, for many types of virus, in RNA. The genome includes both the genes and the non-coding sequences of the DNA/RNA.
The term was adapted in 1920 by Hans Winkler, Professor of Botany at the University of Hamburg, Germany. The Oxford English Dictionary suggests the name to be a blend of the words gene and chromosome. A few related -ome words already existed, such as biome and rhizome, forming a vocabulary into which genome fits systematically.
Some organisms have multiple copies of chromosomes, diploid, triploid, tetraploid and so on. In classical genetics, in a sexually reproducing organism (typically eukarya) the gamete has half the number of chromosomes of the somatic cell and the genome is a full set of chromosomes in a gamete. In haploid organisms, including cells of bacteria, archaea, and in organelles including mitochondria and chloroplasts, or viruses, that similarly contain genes, the single or set of circular and/or linear chains of DNA (or RNA for some viruses), likewise constitute the genome. The term genome can be applied specifically to mean that stored on a complete set of nuclear DNA (i.e., the "nuclear genome") but can also be applied to that stored within organelles that contain their own DNA, as with the "mitochondrial genome" or the "chloroplast genome". Additionally, the genome can comprise nonchromosomal genetic elements such as viruses, plasmids, and transposable elements.
This page contains text from Wikipedia, the Free Encyclopedia -
http://en.wikipedia.org/wiki/Genome
This article is licensed under the Creative Commons Attribution-ShareAlike 3.0 Unported License, which means that you can copy and modify it as long as the entire work (including additions) remains under this license.
This article is licensed under the Creative Commons Attribution-ShareAlike 3.0 Unported License, which means that you can copy and modify it as long as the entire work (including additions) remains under this license.
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5:05How to sequence the human genome - Mark J. Kiel
How to sequence the human genome - Mark J. KielHow to sequence the human genome - Mark J. Kiel
View full lesson: http://ed.ted.com/lessons/how-to-sequence-the-human-genome-mark-j-kiel Your genome, every human's genome, consists of a unique DNA sequence of A's, T's, C's and G's that tell your cells how to operate. Thanks to technological advances, scientists are now able to know the sequence of letters that makes up an individual genome relatively quickly and inexpensively. Mark J. Kiel takes an in-depth look at the science behind the sequence. Lesson by Mark J. Kiel, animation by Marc Christoforidis. -
3:16What is a Genome?
What is a Genome?What is a Genome?
Using fruit flies and small plants, USC professor researches the route from genotype to phenotype to understand more about disease states in humans. -
5:00The race to sequence the human genome - Tien Nguyen
The race to sequence the human genome - Tien NguyenThe race to sequence the human genome - Tien Nguyen
View full lesson: http://ed.ted.com/lessons/the-race-to-sequence-the-human-genome-tien-nguyen This video was created with support from the U.S. Office of Research Integrity: http://ori.hhs.gov. In 1990, The Human Genome Project proposed to sequence the entire human genome over 15 years with $3 billion of public funds. Then, seven years before its scheduled completion, a private company called Celera announced that they could accomplish the same goal in just three years at a fraction of the cost. Tien Nguyen details the history of this race to sequence the human genome. Lesson by Tien Nguyen, animation by Boico Visual House. -
114:13Genome: Unlocking Life’s Code
Genome: Unlocking Life’s CodeGenome: Unlocking Life’s Code
(Visit: http://www.uctv.tv/) Three fascinating talks on unraveling the mystery of the genome are presented here. Dr. Eric Green, the director of the National Human Genome Research Institute offers an update on the human genome and medical genomics; Dr. Gary Firestein, director of UC San Diego’s Clinical and Translational Research Institute explains how we are more than our genes; and Dr. Razelle Kurzrock, the director of the Center for Personalized Cancer Therapy at the Moores Cancer Center looks ahead to the future of genomics and cancer medicine. This program is presented by the Center for Ethics in Science and Technology in San Diego. Recorded on 10/21/2014. Series: "Exploring Ethics" [11/2014] [Public Affairs] [Science] [Show ID: 28379] -
3:41The Human Genome Project, 3D Animation
The Human Genome Project, 3D AnimationThe Human Genome Project, 3D Animation
A dynamic 3D computer animated video takes you "inside" for a close-up look at how we're made. Watch as the mysteries of the Human Genome are literally "unraveled." 3D modeling and animation created by Bill Baker, Bakedmedia, Inc. and Mike Fisher for the National Human Genome Research Institute. As public domain media, the animation is free to use. Please use the following credit: Courtesy: National Human Genome Research Institute. 3D animation by Bill Baker, Bakedmedia and Mike Fisher. -
3:343 Sad Surprises: The Human Genome Project
3 Sad Surprises: The Human Genome Project3 Sad Surprises: The Human Genome Project
Hank tells us three surprises about human DNA which we learned because of the Human Genome Project. Like SciShow on Facebook: http://www.facebook.com/scishow Follow SciShow on Twitter: http://www.twitter.com/scishow Find out more about the Human Genome Project at www.ornl.gov/hgmis and about the National Human Genome Research Institute at http://www.genome.gov -
10:55Deepcool Genome Mid Tower AIO Case Overview by Mnpctech.com
Deepcool Genome Mid Tower AIO Case Overview by Mnpctech.comDeepcool Genome Mid Tower AIO Case Overview by Mnpctech.com
My Deepcool Genome Case Mod Project Link, http://mnpctech.com/deepcool-genome-gamerstorm-mid-tower-atx-gaming-case-review.html Subscribe to our Mod Zoo YouTube Channel! https://www.youtube.com/channel/UC31i9d5-tLB-Jzd0MmU5U9w Listen to our Mod Zoo Podcast, http://themodzoo.com/category/podcast/ Hello everyone! This is another custom modification for Deepcool that I will be documenting. Before I get into modifying portions of this unique case, I want to clarify that I had no involvement with the design of this case. Some people are presuming I created this case for Deepcool. They asked if I would modify their retail case for events this year. If you're new to my website, Mnpctech customizes retail PC cases for companies marketing new products or need to draw people to their booths at PC gaming or hardware industry related shows. Before I start sharing stages of my modifications, I'll start with an overview Gamerstorm Genome Mid Tower ATX case. The Genome case supports ATX or MATX motherboard with seven PCI slots, and allows graphics cards up to 330mm long. It includes two vertical PCI slots for mounting a video card at ninety degrees. This is a great for showing off your video card or sexy water block. It does require using a PCI-E cable which is sold separately from Deepcool for $16.95. The chassis doesn't include mounting for 5.25 drives, but does allow two 3.5" hard drives and four 2.5" SSD on the back of the motherboard. Deepcool will be offering three color variations of the Genome. white with blue tubing, as well as black with green or red spiral tubing in the reservoir. Like me, my PC modder friends will sacrifice elements of their case to suit personal vision or implementing their own cooling. Typically the optical drive bays are removed first to create space for radiators or reservoirs. The Genome saves you time by eliminating these bays and integrating a liquid cooling system for your processor. The system consists of a block/pump combo, 360mm radiator, three PWM controlled 120mm fans, and a reservoir. The block has a pulsing blue LED in the core of its reactor. The reservoir is LED-backlit with a controllable breathing effect. The loop is based on the "Gamer Storm Captain" CPU cooler from Deepcool. You can't remove the tubing on the radiator or water block, but the reservoir has G-1/4 threaded barbs, so you could swap it out. The 1/2" O.D. black rubber tubing would need to be cut. It's permanently attached to all of the barb connections in the loop. The Genome's radiator is aluminum, so it's not advised to incorporate bare copper components into this loop and risk any galvanic corrosion. I will be keeping the factory loop stock by their request, but may add 2nd custom loop for a vertical graphics card. It would be nice if Deepcool considered adding an optional kit for consumers interested in adding a second liquid loop to their graphics cards. The PSU is located in the basement of the chassis with PSU window visible through the case's side window. I'd imagine this is for showing off your PSU branding. The PSU resides on noise isolating rubber pads and includes a removable dust filter. Deepcool used SGCC steel to build the frame of the chassis. The removable front bezel and top cover are ABS plastic. The Genome comes with a factory 120mm rear exhaust fan and three 120mm PWM fans mounted to the 360mm radiator. The case measures 506mm x 210mm x 505mm, and it weighs 9.77 kg. The Deepcool Genome's MSRP is $249.99 with a release date aimed at February 2016. I'm sure your reaction is negative about the price, but take into account the cost if you were to DIY your own. The average Mid Tower with space for the same cooling configuration range from $69.00 - $90.00. The cheapest price options for decent quality liquid components will be around $50.00 for 360mm radiator, $40.00 for a CPU water block, $65.00 for comparable design reservoir, $69.00 for a reliable water pumpIf you consider $224.00 in liquid components alone, plus $69.00 for the case, then $249.99 isn't unreasonable for this "out of the box ready" setup. My vision for "MNPC1" will be reminiscent of my "Phenom" case mod for AMD in 2006 with new inspiration from the Star Citizen game. The sides will be re-designed to look like reinforced spaceship hull doors. I haven't decided which ship manufacturer from SC to focus on yet, but I'm leaning toward Musashi Industrial & Starflight Concern. I think their spaceship designs are the most unique. Bookmark this page, I'll be posting updates of my progress of my case mod over the coming weeks. Thank you! Bill Owen -
115:42Cracking the Code Of Life | PBS Nova | 2001
Cracking the Code Of Life | PBS Nova | 2001Cracking the Code Of Life | PBS Nova | 2001
This two-hour special, hosted by ABC "Nightline" correspondent Robert Krulwich, chronicles the fiercely competitive race to capture one of the biggest scientific prizes ever: the complete letter-by-letter sequence of genetic information that defines human life—the human genome. NOVA tells the story of the genome triumph and its profound implications for medicine and human health. -
16:12The Secret of Our Lives: The Human Genome Project
The Secret of Our Lives: The Human Genome ProjectThe Secret of Our Lives: The Human Genome Project
-
92:39Cancer’s Last Stand? The Genome Solution
Cancer’s Last Stand? The Genome SolutionCancer’s Last Stand? The Genome Solution
The deadly scourge of cancer has confounded doctors since ancient Egypt. Now, The Cancer Genome Atlas (modeled after the Human Genome Project) promises a new and powerful approach in this age-old battle. We joined a discussion including Eric Lander, Mary-Claire King and other leaders in the field as they described how and why the balance of power in the war on cancer may finally be shifting. Subscribe to our YouTube Channel for all the latest from WSF. Visit our Website: http://www.worldsciencefestival.com/ Like us on Facebook: https://www.facebook.com/worldsciencefestival Follow us on twitter: https://twitter.com/WorldSciFest Participants: Mary-Claire King, Eric Lander, Siddhartha Mukherjee, Olufunmilayo Olopade Original Program Date: June 2, 2011 A closer look at cancer. 00:11 Richard Besser's introduction. 3:32 Participant Introductions. 4:06 What is the cancer genome project? 6:04 Where does the understanding of genomics put us today? 13:42 What were the misconception of the past? 15:55 Is the more is better idea really better? 23:05 Imputing some numbers into the cancer equation. 28:03 Will there be more payoff with the human genome project or the cancer genome project? 32:10 Mary-Claire King's discoveries and breakthroughs. 37:35 Does collaboration always produce better results? 44:40 Should there be a shift in global health? 51:48 Can we classify cancers by their mutations. 56:30 When you understand the genetics then what? 1:02:37 Being able to predict addictions. 1:09:27 The death of drug companies. 1:15:00 As we understand genomics better how do you market these drugs? 1:20:05 What drives you to do this work? 1:24:18 -
10:41Whole Genome Sequencing and You
Whole Genome Sequencing and YouWhole Genome Sequencing and You
This video is about whole genome sequencing. What is a genome? What are the basics of how whole genome sequencing works? What can you find out about yourself from getting your genome sequenced? And what are the potential benefits and risks? You might be considering getting your genome sequenced for clinical, research or personal reasons. Or you might just be curious and want to learn a bit more about this technology. This video was developed to help you understand a bit more about what whole genome sequencing is, and what it could mean for you. It was developed by researchers at Mount Sinai's Department of Genetics and Genomic Sciences and Department of Emergency Medicine with funding from the Charles Bronfman Institute for Personalized Medicine, with valuable input from several community consultants, patients and others from around the Mount Sinai community. • Visit the Department of Genetics and Genomic Sciences: http://ow.ly/f8saW • Visit the Department of Emergency Medicine: http://ow.ly/f8sfq • Visit the Charles Bronfman Institute for Personalized Medicine: http://ow.ly/f8sjU -
16:42Jennifer Doudna (UC Berkeley / HHMI): Genome Engineering with CRISPR-Cas9
Jennifer Doudna (UC Berkeley / HHMI): Genome Engineering with CRISPR-Cas9Jennifer Doudna (UC Berkeley / HHMI): Genome Engineering with CRISPR-Cas9
http://www.ibiology.org/ibiomagazine/jennifer-doudna-genome-engineering-with-crispr-cas9-birth-of-a-breakthrough-technology.html Talk Overview: Jennifer Doudna tells the story of how studying the way bacteria fight viral infection turned into a genomic engineering technology that has transformed molecular biology research. In 2013, Doudna and her colleagues developed the CRISPR-Cas9 gene expression system that, when introduced into animal cells, makes site-specific changes to intact genomes. CRISPR-Cas9 is more precise, more efficient, and less expensive than other genome editing tools and, as a result, has facilitated a wide range of studies that were previously unachievable. Speaker Biography: Jennifer Doudna is Professor of the Departments of Chemistry and of Molecular and Cell Biology at University of California, Berkeley, and an Investigator of the Howard Hughes Medical Institute. Early in her career, she studied the structure and mechanism of ribozymes (enzymatic RNA molecules) and RNA-protein complexes, such as the signal recognition particle. Now her research focuses on understanding how RNA molecules control gene expression in bacteria, through the CRISPR-Cas9 system, and eukaryotic cells, through RNA interference and microRNA-mediated translational control. For her outstanding scientific contributions, she was elected into the American Academy of Arts and Sciences in 2002 and the National Academy of Sciences in 2003, and was awarded the 2015 Breakthrough Prize in the Life Sciences. -
4:13Genome Editing with CRISPR-Cas9
Genome Editing with CRISPR-Cas9Genome Editing with CRISPR-Cas9
This animation depicts the CRISPR-Cas9 method for genome editing – a powerful new technology with many applications in biomedical research, including the potential to treat human genetic disease. Feng Zhang, a leader in the development of this technology, is a faculty member at MIT, an investigator at the McGovern Institute for Brain Research, and a core member of the Broad Institute. Further information can be found on Prof. Zhang’s website at http://zlab.mit.edu . Images and footage courtesy of Sputnik Animation, the Broad Institute of MIT and Harvard, Justin Knight and pond5. -
4:41The Story of You: ENCODE and the human genome
The Story of You: ENCODE and the human genomeThe Story of You: ENCODE and the human genome
Ever since a monk called Mendel started breeding pea plants we've been learning about our genomes. In 1953, Watson, Crick and Franklin described the structure of the molecule that makes up our genomes: the DNA double helix. Then, in 2001, scientists wrote down the entire 3-billion letter code contained in the average human genome. Now they're trying to interpret that code; to work out how it's used to make different types of cells and different people. The ENCODE project, as it's called, is the latest chapter in the story of you. To read the ENCODE research papers and more, visit http://www.nature.com/ENCODE
- Amoeboid
- Apis mellifera
- Arabidopsis thaliana
- Archaea
- Archaeogenetics
- Aspergillus nidulans
- Autosome
- Bacteria
- Bacteriophage
- Bacteriophage MS2
- Bacterium
- Base pair
- Belgium
- Bibcode
- Biome
- Bombyx mori
- Botany
- Bryophyte
- Buchnera aphidicola
- C-value paradox
- Carsonella ruddii
- Cell nucleus
- Chloroplast
- Chloroplasts
- Chromosome
- Chromosomes
- Classical genetics
- Codon usage bias
- Diploid
- DNA
- DNA sequencing
- Ecological genetics
- Escherichia coli
- Eukarya
- Eukaryote
- Eukaryotes
- Evolution
- Fish
- Flowering plant
- Fred Sanger
- Fungus
- Gamete
- GC-content
- Gene
- Gene duplication
- Genetic code
- Genetic diversity
- Genetic engineering
- Genetic monitoring
- Genetic variation
- Geneticist
- Genetics
- Genlisea margaretae
- Genome
- Genome project
- Genome size
- Genomics
- Germany
- Hans Winkler
- Haploid
- Hereditary
- Heredity
- History of genetics
- HIV
- Homo sapiens
- Human genome
- Human Genome Project
- Illumina (company)
- Immunogenetics
- In silico
- In vivo
- Insect
- James D. Watson
- Jean Weissenbach
- Karyotype
- Lambda phage
- Mammal
- Measurement
- Medical genetics
- Megavirus
- Microbe
- Microsatellites
- Mitochondria
- Mitochondrial genome
- Molecular biology
- Molecular evolution
- Molecular genetics
- Moss
- Mus musculus
- Mutation
- Nematoda
- Non-coding DNA
- Nuclear genome
- Nucleotide
- Organelles
- Organism
- Outline of genetics
- Paris japonica
- Phi-X174 phage
- Plant
- Plasmid
- Plastome
- Polychaos dubium
- Polyploidy
- Poplar
- Population genetics
- Portal Biology
- Pratylenchus coffeae
- Prokaryotes
- Protozoan
- PubMed Central
- PubMed Identifier
- Puffer fish
- Repetitive DNA
- Retrotransposons
- Reverse genetics
- Rhizome
- Rice
- RNA
- RNA virus
- Satellite DNA
- Science (journal)
- Sequencing
- Sex chromosome
- Sexual reproduction
- Short tandem repeats
- Solenopsis invicta
- Solibacter usitatus
- Somatic cell
- Species
- SV40
- Tandem repeats
- Template Genetics
- Template Genetics2
- Template Genomics
- Tetraploid
- Transposable element
- Trichomoniasis
- Triploid
- University of Ghent
- Virus
- Virus (biology)
- Walter Fiers
- Yeast
-
How to sequence the human genome - Mark J. Kiel
View full lesson: http://ed.ted.com/lessons/how-to-sequence-the-human-genome-mark-j-kiel Your genome, every human's genome, consists of a unique DNA sequence of A's, T's, C's and G's that tell your cells how to operate. Thanks to technological advances, scientists are now able to know the sequence of letters that makes up an individual genome relatively quickly and inexpensively. Mark J. Kiel takes an in-depth look at the science behind the sequence. Lesson by Mark J. Kiel, animation by Marc Christoforidis. -
What is a Genome?
Using fruit flies and small plants, USC professor researches the route from genotype to phenotype to understand more about disease states in humans. -
The race to sequence the human genome - Tien Nguyen
View full lesson: http://ed.ted.com/lessons/the-race-to-sequence-the-human-genome-tien-nguyen This video was created with support from the U.S. Office of Research Integrity: http://ori.hhs.gov. In 1990, The Human Genome Project proposed to sequence the entire human genome over 15 years with $3 billion of public funds. Then, seven years before its scheduled completion, a private company called Celera announced that they could accomplish the same goal in just three years at a fraction of the cost. Tien Nguyen details the history of this race to sequence the human genome. Lesson by Tien Nguyen, animation by Boico Visual House. -
Genome: Unlocking Life’s Code
(Visit: http://www.uctv.tv/) Three fascinating talks on unraveling the mystery of the genome are presented here. Dr. Eric Green, the director of the National Human Genome Research Institute offers an update on the human genome and medical genomics; Dr. Gary Firestein, director of UC San Diego’s Clinical and Translational Research Institute explains how we are more than our genes; and Dr. Razelle Kurzrock, the director of the Center for Personalized Cancer Therapy at the Moores Cancer Center looks ahead to the future of genomics and cancer medicine. This program is presented by the Center for Ethics in Science and Technology in San Diego. Recorded on 10/21/2014. Series: "Exploring Ethics" [11/2014] [Public Affairs] [Science] [Show ID: 28379] -
The Human Genome Project, 3D Animation
A dynamic 3D computer animated video takes you "inside" for a close-up look at how we're made. Watch as the mysteries of the Human Genome are literally "unraveled." 3D modeling and animation created by Bill Baker, Bakedmedia, Inc. and Mike Fisher for the National Human Genome Research Institute. As public domain media, the animation is free to use. Please use the following credit: Courtesy: National Human Genome Research Institute. 3D animation by Bill Baker, Bakedmedia and Mike Fisher. -
3 Sad Surprises: The Human Genome Project
Hank tells us three surprises about human DNA which we learned because of the Human Genome Project. Like SciShow on Facebook: http://www.facebook.com/scishow Follow SciShow on Twitter: http://www.twitter.com/scishow Find out more about the Human Genome Project at www.ornl.gov/hgmis and about the National Human Genome Research Institute at http://www.genome.gov -
Deepcool Genome Mid Tower AIO Case Overview by Mnpctech.com
My Deepcool Genome Case Mod Project Link, http://mnpctech.com/deepcool-genome-gamerstorm-mid-tower-atx-gaming-case-review.html Subscribe to our Mod Zoo YouTube Channel! https://www.youtube.com/channel/UC31i9d5-tLB-Jzd0MmU5U9w Listen to our Mod Zoo Podcast, http://themodzoo.com/category/podcast/ Hello everyone! This is another custom modification for Deepcool that I will be documenting. Before I get into modifying portions of this unique case, I want to clarify that I had no involvement with the design of this case. Some people are presuming I created this case for Deepcool. They asked if I would modify their retail case for events this year. If you're new to my website, Mnpctech customizes retail PC cases for companies marketing new products or need to draw people to their booths at PC gaming or hardware industry related shows. Before I start sharing stages of my modifications, I'll start with an overview Gamerstorm Genome Mid Tower ATX case. The Genome case supports ATX or MATX motherboard with seven PCI slots, and allows graphics cards up to 330mm long. It includes two vertical PCI slots for mounting a video card at ninety degrees. This is a great for showing off your video card or sexy water block. It does require using a PCI-E cable which is sold separately from Deepcool for $16.95. The chassis doesn't include mounting for 5.25 drives, but does allow two 3.5" hard drives and four 2.5" SSD on the back of the motherboard. Deepcool will be offering three color variations of the Genome. white with blue tubing, as well as black with green or red spiral tubing in the reservoir. Like me, my PC modder friends will sacrifice elements of their case to suit personal vision or implementing their own cooling. Typically the optical drive bays are removed first to create space for radiators or reservoirs. The Genome saves you time by eliminating these bays and integrating a liquid cooling system for your processor. The system consists of a block/pump combo, 360mm radiator, three PWM controlled 120mm fans, and a reservoir. The block has a pulsing blue LED in the core of its reactor. The reservoir is LED-backlit with a controllable breathing effect. The loop is based on the "Gamer Storm Captain" CPU cooler from Deepcool. You can't remove the tubing on the radiator or water block, but the reservoir has G-1/4 threaded barbs, so you could swap it out. The 1/2" O.D. black rubber tubing would need to be cut. It's permanently attached to all of the barb connections in the loop. The Genome's radiator is aluminum, so it's not advised to incorporate bare copper components into this loop and risk any galvanic corrosion. I will be keeping the factory loop stock by their request, but may add 2nd custom loop for a vertical graphics card. It would be nice if Deepcool considered adding an optional kit for consumers interested in adding a second liquid loop to their graphics cards. The PSU is located in the basement of the chassis with PSU window visible through the case's side window. I'd imagine this is for showing off your PSU branding. The PSU resides on noise isolating rubber pads and includes a removable dust filter. Deepcool used SGCC steel to build the frame of the chassis. The removable front bezel and top cover are ABS plastic. The Genome comes with a factory 120mm rear exhaust fan and three 120mm PWM fans mounted to the 360mm radiator. The case measures 506mm x 210mm x 505mm, and it weighs 9.77 kg. The Deepcool Genome's MSRP is $249.99 with a release date aimed at February 2016. I'm sure your reaction is negative about the price, but take into account the cost if you were to DIY your own. The average Mid Tower with space for the same cooling configuration range from $69.00 - $90.00. The cheapest price options for decent quality liquid components will be around $50.00 for 360mm radiator, $40.00 for a CPU water block, $65.00 for comparable design reservoir, $69.00 for a reliable water pumpIf you consider $224.00 in liquid components alone, plus $69.00 for the case, then $249.99 isn't unreasonable for this "out of the box ready" setup. My vision for "MNPC1" will be reminiscent of my "Phenom" case mod for AMD in 2006 with new inspiration from the Star Citizen game. The sides will be re-designed to look like reinforced spaceship hull doors. I haven't decided which ship manufacturer from SC to focus on yet, but I'm leaning toward Musashi Industrial & Starflight Concern. I think their spaceship designs are the most unique. Bookmark this page, I'll be posting updates of my progress of my case mod over the coming weeks. Thank you! Bill Owen -
Cracking the Code Of Life | PBS Nova | 2001
This two-hour special, hosted by ABC "Nightline" correspondent Robert Krulwich, chronicles the fiercely competitive race to capture one of the biggest scientific prizes ever: the complete letter-by-letter sequence of genetic information that defines human life—the human genome. NOVA tells the story of the genome triumph and its profound implications for medicine and human health. -
The Secret of Our Lives: The Human Genome Project
-
Cancer’s Last Stand? The Genome Solution
The deadly scourge of cancer has confounded doctors since ancient Egypt. Now, The Cancer Genome Atlas (modeled after the Human Genome Project) promises a new and powerful approach in this age-old battle. We joined a discussion including Eric Lander, Mary-Claire King and other leaders in the field as they described how and why the balance of power in the war on cancer may finally be shifting. Subscribe to our YouTube Channel for all the latest from WSF. Visit our Website: http://www.worldsciencefestival.com/ Like us on Facebook: https://www.facebook.com/worldsciencefestival Follow us on twitter: https://twitter.com/WorldSciFest Participants: Mary-Claire King, Eric Lander, Siddhartha Mukherjee, Olufunmilayo Olopade Original Program Date: June 2, 2011 A closer look at cancer. 00:11 Richard Besser's introduction. 3:32 Participant Introductions. 4:06 What is the cancer genome project? 6:04 Where does the understanding of genomics put us today? 13:42 What were the misconception of the past? 15:55 Is the more is better idea really better? 23:05 Imputing some numbers into the cancer equation. 28:03 Will there be more payoff with the human genome project or the cancer genome project? 32:10 Mary-Claire King's discoveries and breakthroughs. 37:35 Does collaboration always produce better results? 44:40 Should there be a shift in global health? 51:48 Can we classify cancers by their mutations. 56:30 When you understand the genetics then what? 1:02:37 Being able to predict addictions. 1:09:27 The death of drug companies. 1:15:00 As we understand genomics better how do you market these drugs? 1:20:05 What drives you to do this work? 1:24:18 -
Whole Genome Sequencing and You
This video is about whole genome sequencing. What is a genome? What are the basics of how whole genome sequencing works? What can you find out about yourself from getting your genome sequenced? And what are the potential benefits and risks? You might be considering getting your genome sequenced for clinical, research or personal reasons. Or you might just be curious and want to learn a bit more about this technology. This video was developed to help you understand a bit more about what whole genome sequencing is, and what it could mean for you. It was developed by researchers at Mount Sinai's Department of Genetics and Genomic Sciences and Department of Emergency Medicine with funding from the Charles Bronfman Institute for Personalized Medicine, with valuable input from several community consultants, patients and others from around the Mount Sinai community. • Visit the Department of Genetics and Genomic Sciences: http://ow.ly/f8saW • Visit the Department of Emergency Medicine: http://ow.ly/f8sfq • Visit the Charles Bronfman Institute for Personalized Medicine: http://ow.ly/f8sjU -
Jennifer Doudna (UC Berkeley / HHMI): Genome Engineering with CRISPR-Cas9
http://www.ibiology.org/ibiomagazine/jennifer-doudna-genome-engineering-with-crispr-cas9-birth-of-a-breakthrough-technology.html Talk Overview: Jennifer Doudna tells the story of how studying the way bacteria fight viral infection turned into a genomic engineering technology that has transformed molecular biology research. In 2013, Doudna and her colleagues developed the CRISPR-Cas9 gene expression system that, when introduced into animal cells, makes site-specific changes to intact genomes. CRISPR-Cas9 is more precise, more efficient, and less expensive than other genome editing tools and, as a result, has facilitated a wide range of studies that were previously unachievable. Speaker Biography: Jennifer Doudna is Professor of the Departments of Chemistry and of Molecular and Cell Biology at University of California, Berkeley, and an Investigator of the Howard Hughes Medical Institute. Early in her career, she studied the structure and mechanism of ribozymes (enzymatic RNA molecules) and RNA-protein complexes, such as the signal recognition particle. Now her research focuses on understanding how RNA molecules control gene expression in bacteria, through the CRISPR-Cas9 system, and eukaryotic cells, through RNA interference and microRNA-mediated translational control. For her outstanding scientific contributions, she was elected into the American Academy of Arts and Sciences in 2002 and the National Academy of Sciences in 2003, and was awarded the 2015 Breakthrough Prize in the Life Sciences. -
Genome Editing with CRISPR-Cas9
This animation depicts the CRISPR-Cas9 method for genome editing – a powerful new technology with many applications in biomedical research, including the potential to treat human genetic disease. Feng Zhang, a leader in the development of this technology, is a faculty member at MIT, an investigator at the McGovern Institute for Brain Research, and a core member of the Broad Institute. Further information can be found on Prof. Zhang’s website at http://zlab.mit.edu . Images and footage courtesy of Sputnik Animation, the Broad Institute of MIT and Harvard, Justin Knight and pond5. -
The Story of You: ENCODE and the human genome
Ever since a monk called Mendel started breeding pea plants we've been learning about our genomes. In 1953, Watson, Crick and Franklin described the structure of the molecule that makes up our genomes: the DNA double helix. Then, in 2001, scientists wrote down the entire 3-billion letter code contained in the average human genome. Now they're trying to interpret that code; to work out how it's used to make different types of cells and different people. The ENCODE project, as it's called, is the latest chapter in the story of you. To read the ENCODE research papers and more, visit http://www.nature.com/ENCODE -
How to Sequence a Genome: Introduction
Animated and narrated segments presenting all the essential steps in sequencing a genome. From the NHGRI's Online Education Kit: Understanding the Human Genome Project. -
Explaining the Human Genome Project
-
[Infinite Challenge] 무한도전 - Dancing genome - I'm so sexy, 댄싱게놈 - I'm so sexy 20150822
Dancing genome - I'm so sexy Playlist for THIS episodes → https://www.youtube.com/playlist?list=PLtqYizcPqxZTEcyxrNw3EFG1PgQiN9Gdb Click below for the latest "Infinite challenge” clips ↓↓↓↓↓↓↓↓↓↓↓↓ 【Infinite Challenge】. This variety show concept is making what's impossible to possible anyway! While top Korean Comedians face unexpected situations and physical challenges that ordinary people hardly experienced before, they try to re-define the meaning of impossible! Every SAT 6:25PM, please stay tuned for updated “Infinite challenge” episodes. Members: Haha, Junha Jung, Jae Seok Yoo, Myeong Soo Park, Hyung Don Jeong, Gwang hee Hwang ★★★More "Infinite Challenges" clips are available★★★ YouTube https://www.youtube.com/MBCentertainment Facebook https://www.facebook.com/mbcentertain Naver http://tvcast.naver.com/challenge Daum http://tvpot.daum.net/mypot/View.do?ownerid=45x1okb1If50&playlistid;=3569737 Homepage http://www.imbc.com/broad/tv/ent/challenge -
DeepCool Genome PC Case @ CES 2016
DeepCool Genome PC Case @ CES 2016, more information on http://www.ThinkComputers.org Our CES 2016 coverage is powered by be quiet! http://www.bequiet.com Support us by using Amazon: http://amzn.to/1n1jqnZ Check out all of our CES 2016 Coverage: http://bit.ly/thinkces2016 "Like" us on Facebook! http://www.facebook.com/ThinkComputers Follow us on Twitter! http://twitter.com/thinkcomps Circle us on Google+ http://gplus.to/thinkcomputers -
【nami@＊なみりん】 Daidai Genome -「橙ゲノム」を歌ってみた [Thank you for 2000+ subs!]
oh look its a song that sounds like usotsuki lol XD Hello again~ This time i sang mezameP/tsunamaru's daidai genome. Im guessing its supposed to be some sort of answer song for usotsuki?? Not sure OTL Its the return of the フトモモ～ Anyways, thank you very much for 2000+ subs ;A; I never would've imagined to get this much when I first started! mp3: https://www.box.com/s/4433cel8srd05l3cg3lq ＊なみりんです！ニコニコ動画でも歌ってみたを投稿しています！nicovideo.jp/mylist/25602314 ツイッターはこちらです @namirin_2525. 日本語も英語もおkです！！ Credits: Vocals: Nami (follow me @namirin_2525) Original Vocals: Hatsune Miku (Append) Producer: mezameP/tsunamaru/めざめP Mixing: やっち （ニコから） Encode: Kenji （ニコから） ニコニコ動画にもうｐしてます： http://www.nicovideo.jp/watch/sm18832508 Copyright Disclaimer Under Section 107 of the Copyright Act 1976, allowance is made for "fair use" for purposes such as criticism, comment, news reporting, teaching, scholarship, and research. Fair use is a use permitted by copyright statute that might otherwise be infringing. Non-profit, educational or personal use tips the balance in favor of fair use. -
Miracle Cure ? A Decade of the Human Genome - BBC Documentary
Miracle Cure? A Decade of the Human Genome Horizon, 2010-2011 Episode 5 of 15 A decade ago, scientists announced that they had produced the first draft of the human genome, the 3.6 billion letters of our genetic code. It was seen as one of the greatest scientific achievements of our age, a breakthrough that would usher in a new age of medicine. A decade later, Horizon finds out how close we are to developing the life-changing treatments that were hoped for. Horizon follows three people, each with a genetic disease, as they go behind the scenes at some of Britain's leading research labs to find out what the sequencing of the human genome has done for them - and the hope this remarkable project offers all of us. -
Code For Life: The Human Genome
http://www.facebook.com/ScienceReason ... Code For Life (Chapter 1): The Human Genome - The Cassiopeia Project. --- Please SUBSCRIBE to Science & Reason: • http://www.youtube.com/FFreeThinker • http://www.youtube.com/ScienceTV • http://www.youtube.com/Best0fScience • http://www.youtube.com/RationalHumanism --- The Cassiopeia Project is an effort to make high quality science videos available to everyone. If you can visualize it, then understanding is not far behind. Code for Life: Beginning more than three and a half billion years ago, a tiny, primitive molecule encoded instructions deep within itself. Then it passed these instructions on to its children, who passed it to their children and so on - all the way down through time to all living things today. The human genome, written in a code of just four letters, tells us who we really are - and that generates many questions! Is this process of natural selection coming to an end? Should we choose the best that is in us for our children? If so, who gets to decide what is meant by "the best that is in us"? From amino acids in space to human genes in corn ... THIS is the story. http://www.cassiopeiaproject.com . -
Sasquatch Genome Project Press Conference
SasquatchGenomeProject.org On October 1, 2013, the Sasquatch Genome Project held a news conference in Dallas to show exclusive footage from the long-awaited Erickson Project. Dr. Ketchum spoke about the DNA Study and other participants in the genome project presented their field experience and answered questions from reporters. Speakers: Dr. Melba Ketchum Adrian Erickson Dennis Pfohl Troy Hudson Rich Germeau J.C. Johnson Samuel Webb Sentell -
Richard Resnick: Welcome to the genomic revolution
http://www.ted.com In this accessible talk from TEDxBoston, Richard Resnick shows how cheap and fast genome sequencing is about to turn health care (and insurance, and politics) upside down. TEDTalks is a daily video podcast of the best talks and performances from the TED Conference, where the world's leading thinkers and doers give the talk of their lives in 18 minutes. Featured speakers have included Al Gore on climate change, Philippe Starck on design, Jill Bolte Taylor on observing her own stroke, Nicholas Negroponte on One Laptop per Child, Jane Goodall on chimpanzees, Bill Gates on malaria and mosquitoes, Pattie Maes on the "Sixth Sense" wearable tech, and "Lost" producer JJ Abrams on the allure of mystery. TED stands for Technology, Entertainment, Design, and TEDTalks cover these topics as well as science, business, development and the arts. Closed captions and translated subtitles in a variety of languages are now available on TED.com, at http://www.ted.com/translate.
How to sequence the human genome - Mark J. Kiel
- Order: Reorder
- Duration: 5:05
- Updated: 09 Dec 2013
- views: 175017
View full lesson: http://ed.ted.com/lessons/how-to-sequence-the-human-genome-mark-j-kiel
Your genome, every human's genome, consists of a unique DNA sequence o...
View full lesson: http://ed.ted.com/lessons/how-to-sequence-the-human-genome-mark-j-kiel
Your genome, every human's genome, consists of a unique DNA sequence of A's, T's, C's and G's that tell your cells how to operate. Thanks to technological advances, scientists are now able to know the sequence of letters that makes up an individual genome relatively quickly and inexpensively. Mark J. Kiel takes an in-depth look at the science behind the sequence.
Lesson by Mark J. Kiel, animation by Marc Christoforidis.
wn.com/How To Sequence The Human Genome Mark J. Kiel
View full lesson: http://ed.ted.com/lessons/how-to-sequence-the-human-genome-mark-j-kiel
Your genome, every human's genome, consists of a unique DNA sequence of A's, T's, C's and G's that tell your cells how to operate. Thanks to technological advances, scientists are now able to know the sequence of letters that makes up an individual genome relatively quickly and inexpensively. Mark J. Kiel takes an in-depth look at the science behind the sequence.
Lesson by Mark J. Kiel, animation by Marc Christoforidis.
- published: 09 Dec 2013
- views: 175017
What is a Genome?
- Order: Reorder
- Duration: 3:16
- Updated: 03 May 2010
- views: 47048
Using fruit flies and small plants, USC professor researches the route from genotype to phenotype to understand more about disease states in humans.
Using fruit flies and small plants, USC professor researches the route from genotype to phenotype to understand more about disease states in humans.
wn.com/What Is A Genome
Using fruit flies and small plants, USC professor researches the route from genotype to phenotype to understand more about disease states in humans.
- published: 03 May 2010
- views: 47048
The race to sequence the human genome - Tien Nguyen
- Order: Reorder
- Duration: 5:00
- Updated: 12 Oct 2015
- views: 113536
View full lesson: http://ed.ted.com/lessons/the-race-to-sequence-the-human-genome-tien-nguyen
This video was created with support from the U.S. Office of Resea...
View full lesson: http://ed.ted.com/lessons/the-race-to-sequence-the-human-genome-tien-nguyen
This video was created with support from the U.S. Office of Research Integrity: http://ori.hhs.gov.
In 1990, The Human Genome Project proposed to sequence the entire human genome over 15 years with $3 billion of public funds. Then, seven years before its scheduled completion, a private company called Celera announced that they could accomplish the same goal in just three years at a fraction of the cost. Tien Nguyen details the history of this race to sequence the human genome.
Lesson by Tien Nguyen, animation by Boico Visual House.
wn.com/The Race To Sequence The Human Genome Tien Nguyen
View full lesson: http://ed.ted.com/lessons/the-race-to-sequence-the-human-genome-tien-nguyen
This video was created with support from the U.S. Office of Research Integrity: http://ori.hhs.gov.
In 1990, The Human Genome Project proposed to sequence the entire human genome over 15 years with $3 billion of public funds. Then, seven years before its scheduled completion, a private company called Celera announced that they could accomplish the same goal in just three years at a fraction of the cost. Tien Nguyen details the history of this race to sequence the human genome.
Lesson by Tien Nguyen, animation by Boico Visual House.
- published: 12 Oct 2015
- views: 113536
Genome: Unlocking Life’s Code
- Order: Reorder
- Duration: 114:13
- Updated: 07 Nov 2014
- views: 18854
(Visit: http://www.uctv.tv/) Three fascinating talks on unraveling the mystery of the genome are presented here. Dr. Eric Green, the director of the National Hu...
(Visit: http://www.uctv.tv/) Three fascinating talks on unraveling the mystery of the genome are presented here. Dr. Eric Green, the director of the National Human Genome Research Institute offers an update on the human genome and medical genomics; Dr. Gary Firestein, director of UC San Diego’s Clinical and Translational Research Institute explains how we are more than our genes; and Dr. Razelle Kurzrock, the director of the Center for Personalized Cancer Therapy at the Moores Cancer Center looks ahead to the future of genomics and cancer medicine. This program is presented by the Center for Ethics in Science and Technology in San Diego.
Recorded on 10/21/2014. Series: "Exploring Ethics" [11/2014] [Public Affairs] [Science] [Show ID: 28379]
wn.com/Genome Unlocking Life’S Code
(Visit: http://www.uctv.tv/) Three fascinating talks on unraveling the mystery of the genome are presented here. Dr. Eric Green, the director of the National Human Genome Research Institute offers an update on the human genome and medical genomics; Dr. Gary Firestein, director of UC San Diego’s Clinical and Translational Research Institute explains how we are more than our genes; and Dr. Razelle Kurzrock, the director of the Center for Personalized Cancer Therapy at the Moores Cancer Center looks ahead to the future of genomics and cancer medicine. This program is presented by the Center for Ethics in Science and Technology in San Diego.
Recorded on 10/21/2014. Series: "Exploring Ethics" [11/2014] [Public Affairs] [Science] [Show ID: 28379]
- published: 07 Nov 2014
- views: 18854
The Human Genome Project, 3D Animation
- Order: Reorder
- Duration: 3:41
- Updated: 17 Aug 2007
- views: 237879
A dynamic 3D computer animated video takes you "inside" for a close-up look at how we're made. Watch as the mysteries of the Human Genome are literally "unravel...
A dynamic 3D computer animated video takes you "inside" for a close-up look at how we're made. Watch as the mysteries of the Human Genome are literally "unraveled." 3D modeling and animation created by Bill Baker, Bakedmedia, Inc. and Mike Fisher for the National Human Genome Research Institute.
As public domain media, the animation is free to use.
Please use the following credit: Courtesy: National Human Genome Research Institute. 3D animation by Bill Baker, Bakedmedia and Mike Fisher.
wn.com/The Human Genome Project, 3D Animation
A dynamic 3D computer animated video takes you "inside" for a close-up look at how we're made. Watch as the mysteries of the Human Genome are literally "unraveled." 3D modeling and animation created by Bill Baker, Bakedmedia, Inc. and Mike Fisher for the National Human Genome Research Institute.
As public domain media, the animation is free to use.
Please use the following credit: Courtesy: National Human Genome Research Institute. 3D animation by Bill Baker, Bakedmedia and Mike Fisher.
- published: 17 Aug 2007
- views: 237879
3 Sad Surprises: The Human Genome Project
- Order: Reorder
- Duration: 3:34
- Updated: 24 Jul 2012
- views: 427522
Hank tells us three surprises about human DNA which we learned because of the Human Genome Project.
Like SciShow on Facebook: http://www.facebook.com/scishow
F...
Hank tells us three surprises about human DNA which we learned because of the Human Genome Project.
Like SciShow on Facebook: http://www.facebook.com/scishow
Follow SciShow on Twitter: http://www.twitter.com/scishow
Find out more about the Human Genome Project at www.ornl.gov/hgmis and about the National Human Genome Research Institute at http://www.genome.gov
wn.com/3 Sad Surprises The Human Genome Project
Hank tells us three surprises about human DNA which we learned because of the Human Genome Project.
Like SciShow on Facebook: http://www.facebook.com/scishow
Follow SciShow on Twitter: http://www.twitter.com/scishow
Find out more about the Human Genome Project at www.ornl.gov/hgmis and about the National Human Genome Research Institute at http://www.genome.gov
- published: 24 Jul 2012
- views: 427522
Deepcool Genome Mid Tower AIO Case Overview by Mnpctech.com
- Order: Reorder
- Duration: 10:55
- Updated: 18 Jan 2016
- views: 7417
My Deepcool Genome Case Mod Project Link, http://mnpctech.com/deepcool-genome-gamerstorm-mid-tower-atx-gaming-case-review.html
Subscribe to our Mod Zoo YouTube...
My Deepcool Genome Case Mod Project Link, http://mnpctech.com/deepcool-genome-gamerstorm-mid-tower-atx-gaming-case-review.html
Subscribe to our Mod Zoo YouTube Channel! https://www.youtube.com/channel/UC31i9d5-tLB-Jzd0MmU5U9w
Listen to our Mod Zoo Podcast, http://themodzoo.com/category/podcast/
Hello everyone! This is another custom modification for Deepcool that I will be documenting. Before I get into modifying portions of this unique case, I want to clarify that I had no involvement with the design of this case. Some people are presuming I created this case for Deepcool. They asked if I would modify their retail case for events this year. If you're new to my website, Mnpctech customizes retail PC cases for companies marketing new products or need to draw people to their booths at PC gaming or hardware industry related shows.
Before I start sharing stages of my modifications, I'll start with an overview Gamerstorm Genome Mid Tower ATX case. The Genome case supports ATX or MATX motherboard with seven PCI slots, and allows graphics cards up to 330mm long. It includes two vertical PCI slots for mounting a video card at ninety degrees. This is a great for showing off your video card or sexy water block. It does require using a PCI-E cable which is sold separately from Deepcool for $16.95. The chassis doesn't include mounting for 5.25 drives, but does allow two 3.5" hard drives and four 2.5" SSD on the back of the motherboard. Deepcool will be offering three color variations of the Genome. white with blue tubing, as well as black with green or red spiral tubing in the reservoir.
Like me, my PC modder friends will sacrifice elements of their case to suit personal vision or implementing their own cooling. Typically the optical drive bays are removed first to create space for radiators or reservoirs. The Genome saves you time by eliminating these bays and integrating a liquid cooling system for your processor. The system consists of a block/pump combo, 360mm radiator, three PWM controlled 120mm fans, and a reservoir. The block has a pulsing blue LED in the core of its reactor. The reservoir is LED-backlit with a controllable breathing effect. The loop is based on the "Gamer Storm Captain" CPU cooler from Deepcool. You can't remove the tubing on the radiator or water block, but the reservoir has G-1/4 threaded barbs, so you could swap it out. The 1/2" O.D. black rubber tubing would need to be cut. It's permanently attached to all of the barb connections in the loop. The Genome's radiator is aluminum, so it's not advised to incorporate bare copper components into this loop and risk any galvanic corrosion. I will be keeping the factory loop stock by their request, but may add 2nd custom loop for a vertical graphics card. It would be nice if Deepcool considered adding an optional kit for consumers interested in adding a second liquid loop to their graphics cards.
The PSU is located in the basement of the chassis with PSU window visible through the case's side window. I'd imagine this is for showing off your PSU branding. The PSU resides on noise isolating rubber pads and includes a removable dust filter. Deepcool used SGCC steel to build the frame of the chassis. The removable front bezel and top cover are ABS plastic. The Genome comes with a factory 120mm rear exhaust fan and three 120mm PWM fans mounted to the 360mm radiator. The case measures 506mm x 210mm x 505mm, and it weighs 9.77 kg.
The Deepcool Genome's MSRP is $249.99 with a release date aimed at February 2016. I'm sure your reaction is negative about the price, but take into account the cost if you were to DIY your own. The average Mid Tower with space for the same cooling configuration range from $69.00 - $90.00. The cheapest price options for decent quality liquid components will be around $50.00 for 360mm radiator, $40.00 for a CPU water block, $65.00 for comparable design reservoir, $69.00 for a reliable water pumpIf you consider $224.00 in liquid components alone, plus $69.00 for the case, then $249.99 isn't unreasonable for this "out of the box ready" setup.
My vision for "MNPC1" will be reminiscent of my "Phenom" case mod for AMD in 2006 with new inspiration from the Star Citizen game. The sides will be re-designed to look like reinforced spaceship hull doors. I haven't decided which ship manufacturer from SC to focus on yet, but I'm leaning toward Musashi Industrial & Starflight Concern. I think their spaceship designs are the most unique. Bookmark this page, I'll be posting updates of my progress of my case mod over the coming weeks. Thank you! Bill Owen
wn.com/Deepcool Genome Mid Tower Aio Case Overview By Mnpctech.Com
My Deepcool Genome Case Mod Project Link, http://mnpctech.com/deepcool-genome-gamerstorm-mid-tower-atx-gaming-case-review.html
Subscribe to our Mod Zoo YouTube Channel! https://www.youtube.com/channel/UC31i9d5-tLB-Jzd0MmU5U9w
Listen to our Mod Zoo Podcast, http://themodzoo.com/category/podcast/
Hello everyone! This is another custom modification for Deepcool that I will be documenting. Before I get into modifying portions of this unique case, I want to clarify that I had no involvement with the design of this case. Some people are presuming I created this case for Deepcool. They asked if I would modify their retail case for events this year. If you're new to my website, Mnpctech customizes retail PC cases for companies marketing new products or need to draw people to their booths at PC gaming or hardware industry related shows.
Before I start sharing stages of my modifications, I'll start with an overview Gamerstorm Genome Mid Tower ATX case. The Genome case supports ATX or MATX motherboard with seven PCI slots, and allows graphics cards up to 330mm long. It includes two vertical PCI slots for mounting a video card at ninety degrees. This is a great for showing off your video card or sexy water block. It does require using a PCI-E cable which is sold separately from Deepcool for $16.95. The chassis doesn't include mounting for 5.25 drives, but does allow two 3.5" hard drives and four 2.5" SSD on the back of the motherboard. Deepcool will be offering three color variations of the Genome. white with blue tubing, as well as black with green or red spiral tubing in the reservoir.
Like me, my PC modder friends will sacrifice elements of their case to suit personal vision or implementing their own cooling. Typically the optical drive bays are removed first to create space for radiators or reservoirs. The Genome saves you time by eliminating these bays and integrating a liquid cooling system for your processor. The system consists of a block/pump combo, 360mm radiator, three PWM controlled 120mm fans, and a reservoir. The block has a pulsing blue LED in the core of its reactor. The reservoir is LED-backlit with a controllable breathing effect. The loop is based on the "Gamer Storm Captain" CPU cooler from Deepcool. You can't remove the tubing on the radiator or water block, but the reservoir has G-1/4 threaded barbs, so you could swap it out. The 1/2" O.D. black rubber tubing would need to be cut. It's permanently attached to all of the barb connections in the loop. The Genome's radiator is aluminum, so it's not advised to incorporate bare copper components into this loop and risk any galvanic corrosion. I will be keeping the factory loop stock by their request, but may add 2nd custom loop for a vertical graphics card. It would be nice if Deepcool considered adding an optional kit for consumers interested in adding a second liquid loop to their graphics cards.
The PSU is located in the basement of the chassis with PSU window visible through the case's side window. I'd imagine this is for showing off your PSU branding. The PSU resides on noise isolating rubber pads and includes a removable dust filter. Deepcool used SGCC steel to build the frame of the chassis. The removable front bezel and top cover are ABS plastic. The Genome comes with a factory 120mm rear exhaust fan and three 120mm PWM fans mounted to the 360mm radiator. The case measures 506mm x 210mm x 505mm, and it weighs 9.77 kg.
The Deepcool Genome's MSRP is $249.99 with a release date aimed at February 2016. I'm sure your reaction is negative about the price, but take into account the cost if you were to DIY your own. The average Mid Tower with space for the same cooling configuration range from $69.00 - $90.00. The cheapest price options for decent quality liquid components will be around $50.00 for 360mm radiator, $40.00 for a CPU water block, $65.00 for comparable design reservoir, $69.00 for a reliable water pumpIf you consider $224.00 in liquid components alone, plus $69.00 for the case, then $249.99 isn't unreasonable for this "out of the box ready" setup.
My vision for "MNPC1" will be reminiscent of my "Phenom" case mod for AMD in 2006 with new inspiration from the Star Citizen game. The sides will be re-designed to look like reinforced spaceship hull doors. I haven't decided which ship manufacturer from SC to focus on yet, but I'm leaning toward Musashi Industrial & Starflight Concern. I think their spaceship designs are the most unique. Bookmark this page, I'll be posting updates of my progress of my case mod over the coming weeks. Thank you! Bill Owen
- published: 18 Jan 2016
- views: 7417
Cracking the Code Of Life | PBS Nova | 2001
- Order: Reorder
- Duration: 115:42
- Updated: 06 Sep 2014
- views: 196257
This two-hour special, hosted by ABC "Nightline" correspondent Robert Krulwich, chronicles the fiercely competitive race to capture one of the biggest scientifi...
This two-hour special, hosted by ABC "Nightline" correspondent Robert Krulwich, chronicles the fiercely competitive race to capture one of the biggest scientific prizes ever: the complete letter-by-letter sequence of genetic information that defines human life—the human genome. NOVA tells the story of the genome triumph and its profound implications for medicine and human health.
wn.com/Cracking The Code Of Life | Pbs Nova | 2001
This two-hour special, hosted by ABC "Nightline" correspondent Robert Krulwich, chronicles the fiercely competitive race to capture one of the biggest scientific prizes ever: the complete letter-by-letter sequence of genetic information that defines human life—the human genome. NOVA tells the story of the genome triumph and its profound implications for medicine and human health.
- published: 06 Sep 2014
- views: 196257
The Secret of Our Lives: The Human Genome Project
- Order: Reorder
- Duration: 16:12
- Updated: 13 Oct 2013
- views: 48608
- published: 13 Oct 2013
- views: 48608
Cancer’s Last Stand? The Genome Solution
- Order: Reorder
- Duration: 92:39
- Updated: 12 Jan 2015
- views: 10498
The deadly scourge of cancer has confounded doctors since ancient Egypt. Now, The Cancer Genome Atlas (modeled after the Human Genome Project) promises a new an...
The deadly scourge of cancer has confounded doctors since ancient Egypt. Now, The Cancer Genome Atlas (modeled after the Human Genome Project) promises a new and powerful approach in this age-old battle. We joined a discussion including Eric Lander, Mary-Claire King and other leaders in the field as they described how and why the balance of power in the war on cancer may finally be shifting.
Subscribe to our YouTube Channel for all the latest from WSF.
Visit our Website: http://www.worldsciencefestival.com/
Like us on Facebook: https://www.facebook.com/worldsciencefestival
Follow us on twitter: https://twitter.com/WorldSciFest
Participants: Mary-Claire King, Eric Lander, Siddhartha Mukherjee, Olufunmilayo Olopade
Original Program Date: June 2, 2011
A closer look at cancer. 00:11
Richard Besser's introduction. 3:32
Participant Introductions. 4:06
What is the cancer genome project? 6:04
Where does the understanding of genomics put us today? 13:42
What were the misconception of the past? 15:55
Is the more is better idea really better? 23:05
Imputing some numbers into the cancer equation. 28:03
Will there be more payoff with the human genome project or the cancer genome project? 32:10
Mary-Claire King's discoveries and breakthroughs. 37:35
Does collaboration always produce better results? 44:40
Should there be a shift in global health? 51:48
Can we classify cancers by their mutations. 56:30
When you understand the genetics then what? 1:02:37
Being able to predict addictions. 1:09:27
The death of drug companies. 1:15:00
As we understand genomics better how do you market these drugs? 1:20:05
What drives you to do this work? 1:24:18
wn.com/Cancer’S Last Stand The Genome Solution
The deadly scourge of cancer has confounded doctors since ancient Egypt. Now, The Cancer Genome Atlas (modeled after the Human Genome Project) promises a new and powerful approach in this age-old battle. We joined a discussion including Eric Lander, Mary-Claire King and other leaders in the field as they described how and why the balance of power in the war on cancer may finally be shifting.
Subscribe to our YouTube Channel for all the latest from WSF.
Visit our Website: http://www.worldsciencefestival.com/
Like us on Facebook: https://www.facebook.com/worldsciencefestival
Follow us on twitter: https://twitter.com/WorldSciFest
Participants: Mary-Claire King, Eric Lander, Siddhartha Mukherjee, Olufunmilayo Olopade
Original Program Date: June 2, 2011
A closer look at cancer. 00:11
Richard Besser's introduction. 3:32
Participant Introductions. 4:06
What is the cancer genome project? 6:04
Where does the understanding of genomics put us today? 13:42
What were the misconception of the past? 15:55
Is the more is better idea really better? 23:05
Imputing some numbers into the cancer equation. 28:03
Will there be more payoff with the human genome project or the cancer genome project? 32:10
Mary-Claire King's discoveries and breakthroughs. 37:35
Does collaboration always produce better results? 44:40
Should there be a shift in global health? 51:48
Can we classify cancers by their mutations. 56:30
When you understand the genetics then what? 1:02:37
Being able to predict addictions. 1:09:27
The death of drug companies. 1:15:00
As we understand genomics better how do you market these drugs? 1:20:05
What drives you to do this work? 1:24:18
- published: 12 Jan 2015
- views: 10498
Whole Genome Sequencing and You
- Order: Reorder
- Duration: 10:41
- Updated: 08 Nov 2012
- views: 30763
This video is about whole genome sequencing. What is a genome? What are the basics of how whole genome sequencing works? What can you find out about yourself...
This video is about whole genome sequencing. What is a genome? What are the basics of how whole genome sequencing works? What can you find out about yourself from getting your genome sequenced? And what are the potential benefits and risks? You might be considering getting your genome sequenced for clinical, research or personal reasons. Or you might just be curious and want to learn a bit more about this technology. This video was developed to help you understand a bit more about what whole genome sequencing is, and what it could mean for you. It was developed by researchers at Mount Sinai's Department of Genetics and Genomic Sciences and Department of Emergency Medicine with funding from the Charles Bronfman Institute for Personalized Medicine, with valuable input from several community consultants, patients and others from around the Mount Sinai community.
• Visit the Department of Genetics and Genomic Sciences: http://ow.ly/f8saW
• Visit the Department of Emergency Medicine: http://ow.ly/f8sfq
• Visit the Charles Bronfman Institute for Personalized Medicine: http://ow.ly/f8sjU
wn.com/Whole Genome Sequencing And You
This video is about whole genome sequencing. What is a genome? What are the basics of how whole genome sequencing works? What can you find out about yourself from getting your genome sequenced? And what are the potential benefits and risks? You might be considering getting your genome sequenced for clinical, research or personal reasons. Or you might just be curious and want to learn a bit more about this technology. This video was developed to help you understand a bit more about what whole genome sequencing is, and what it could mean for you. It was developed by researchers at Mount Sinai's Department of Genetics and Genomic Sciences and Department of Emergency Medicine with funding from the Charles Bronfman Institute for Personalized Medicine, with valuable input from several community consultants, patients and others from around the Mount Sinai community.
• Visit the Department of Genetics and Genomic Sciences: http://ow.ly/f8saW
• Visit the Department of Emergency Medicine: http://ow.ly/f8sfq
• Visit the Charles Bronfman Institute for Personalized Medicine: http://ow.ly/f8sjU
- published: 08 Nov 2012
- views: 30763
Jennifer Doudna (UC Berkeley / HHMI): Genome Engineering with CRISPR-Cas9
- Order: Reorder
- Duration: 16:42
- Updated: 23 Mar 2015
- views: 128891
http://www.ibiology.org/ibiomagazine/jennifer-doudna-genome-engineering-with-crispr-cas9-birth-of-a-breakthrough-technology.html
Talk Overview:
Jennifer Doudna...
http://www.ibiology.org/ibiomagazine/jennifer-doudna-genome-engineering-with-crispr-cas9-birth-of-a-breakthrough-technology.html
Talk Overview:
Jennifer Doudna tells the story of how studying the way bacteria fight viral infection turned into a genomic engineering technology that has transformed molecular biology research. In 2013, Doudna and her colleagues developed the CRISPR-Cas9 gene expression system that, when introduced into animal cells, makes site-specific changes to intact genomes. CRISPR-Cas9 is more precise, more efficient, and less expensive than other genome editing tools and, as a result, has facilitated a wide range of studies that were previously unachievable.
Speaker Biography:
Jennifer Doudna is Professor of the Departments of Chemistry and of Molecular and Cell Biology at University of California, Berkeley, and an Investigator of the Howard Hughes Medical Institute. Early in her career, she studied the structure and mechanism of ribozymes (enzymatic RNA molecules) and RNA-protein complexes, such as the signal recognition particle. Now her research focuses on understanding how RNA molecules control gene expression in bacteria, through the CRISPR-Cas9 system, and eukaryotic cells, through RNA interference and microRNA-mediated translational control. For her outstanding scientific contributions, she was elected into the American Academy of Arts and Sciences in 2002 and the National Academy of Sciences in 2003, and was awarded the 2015 Breakthrough Prize in the Life Sciences.
wn.com/Jennifer Doudna (Uc Berkeley Hhmi) Genome Engineering With Crispr Cas9
http://www.ibiology.org/ibiomagazine/jennifer-doudna-genome-engineering-with-crispr-cas9-birth-of-a-breakthrough-technology.html
Talk Overview:
Jennifer Doudna tells the story of how studying the way bacteria fight viral infection turned into a genomic engineering technology that has transformed molecular biology research. In 2013, Doudna and her colleagues developed the CRISPR-Cas9 gene expression system that, when introduced into animal cells, makes site-specific changes to intact genomes. CRISPR-Cas9 is more precise, more efficient, and less expensive than other genome editing tools and, as a result, has facilitated a wide range of studies that were previously unachievable.
Speaker Biography:
Jennifer Doudna is Professor of the Departments of Chemistry and of Molecular and Cell Biology at University of California, Berkeley, and an Investigator of the Howard Hughes Medical Institute. Early in her career, she studied the structure and mechanism of ribozymes (enzymatic RNA molecules) and RNA-protein complexes, such as the signal recognition particle. Now her research focuses on understanding how RNA molecules control gene expression in bacteria, through the CRISPR-Cas9 system, and eukaryotic cells, through RNA interference and microRNA-mediated translational control. For her outstanding scientific contributions, she was elected into the American Academy of Arts and Sciences in 2002 and the National Academy of Sciences in 2003, and was awarded the 2015 Breakthrough Prize in the Life Sciences.
- published: 23 Mar 2015
- views: 128891
Genome Editing with CRISPR-Cas9
- Order: Reorder
- Duration: 4:13
- Updated: 05 Nov 2014
- views: 410527
This animation depicts the CRISPR-Cas9 method for genome editing – a powerful new technology with many applications in biomedical research, including the potent...
This animation depicts the CRISPR-Cas9 method for genome editing – a powerful new technology with many applications in biomedical research, including the potential to treat human genetic disease. Feng Zhang, a leader in the development of this technology, is a faculty member at MIT, an investigator at the McGovern Institute for Brain Research, and a core member of the Broad Institute. Further information can be found on Prof. Zhang’s website at http://zlab.mit.edu .
Images and footage courtesy of Sputnik Animation, the Broad Institute of MIT and Harvard, Justin Knight and pond5.
wn.com/Genome Editing With Crispr Cas9
This animation depicts the CRISPR-Cas9 method for genome editing – a powerful new technology with many applications in biomedical research, including the potential to treat human genetic disease. Feng Zhang, a leader in the development of this technology, is a faculty member at MIT, an investigator at the McGovern Institute for Brain Research, and a core member of the Broad Institute. Further information can be found on Prof. Zhang’s website at http://zlab.mit.edu .
Images and footage courtesy of Sputnik Animation, the Broad Institute of MIT and Harvard, Justin Knight and pond5.
- published: 05 Nov 2014
- views: 410527
The Story of You: ENCODE and the human genome
- Order: Reorder
- Duration: 4:41
- Updated: 10 Sep 2012
- views: 134515
Ever since a monk called Mendel started breeding pea plants we've been learning about our genomes. In 1953, Watson, Crick and Franklin described the structure o...
Ever since a monk called Mendel started breeding pea plants we've been learning about our genomes. In 1953, Watson, Crick and Franklin described the structure of the molecule that makes up our genomes: the DNA double helix. Then, in 2001, scientists wrote down the entire 3-billion letter code contained in the average human genome. Now they're trying to interpret that code; to work out how it's used to make different types of cells and different people. The ENCODE project, as it's called, is the latest chapter in the story of you.
To read the ENCODE research papers and more, visit http://www.nature.com/ENCODE
wn.com/The Story Of You Encode And The Human Genome
Ever since a monk called Mendel started breeding pea plants we've been learning about our genomes. In 1953, Watson, Crick and Franklin described the structure of the molecule that makes up our genomes: the DNA double helix. Then, in 2001, scientists wrote down the entire 3-billion letter code contained in the average human genome. Now they're trying to interpret that code; to work out how it's used to make different types of cells and different people. The ENCODE project, as it's called, is the latest chapter in the story of you.
To read the ENCODE research papers and more, visit http://www.nature.com/ENCODE
- published: 10 Sep 2012
- views: 134515
How to Sequence a Genome: Introduction
- Order: Reorder
- Duration: 2:33
- Updated: 24 Dec 2009
- views: 53650
Animated and narrated segments presenting all the essential steps in sequencing a genome. From the NHGRI's Online Education Kit: Understanding the Human Genome ...
Animated and narrated segments presenting all the essential steps in sequencing a genome. From the NHGRI's Online Education Kit: Understanding the Human Genome Project.
wn.com/How To Sequence A Genome Introduction
Animated and narrated segments presenting all the essential steps in sequencing a genome. From the NHGRI's Online Education Kit: Understanding the Human Genome Project.
- published: 24 Dec 2009
- views: 53650
Explaining the Human Genome Project
- Order: Reorder
- Duration: 5:53
- Updated: 23 Mar 2012
- views: 13319
- published: 23 Mar 2012
- views: 13319
[Infinite Challenge] 무한도전 - Dancing genome - I'm so sexy, 댄싱게놈 - I'm so sexy 20150822
- Order: Reorder
- Duration: 3:57
- Updated: 22 Aug 2015
- views: 1778281
Dancing genome - I'm so sexy
Playlist for THIS episodes → https://www.youtube.com/playlist?list=PLtqYizcPqxZTEcyxrNw3EFG1PgQiN9Gdb
Click below for the latest "I...
Dancing genome - I'm so sexy
Playlist for THIS episodes → https://www.youtube.com/playlist?list=PLtqYizcPqxZTEcyxrNw3EFG1PgQiN9Gdb
Click below for the latest "Infinite challenge” clips ↓↓↓↓↓↓↓↓↓↓↓↓
【Infinite Challenge】.
This variety show concept is making what's impossible to possible anyway! While top Korean Comedians face unexpected situations and physical challenges that ordinary people hardly experienced before, they try to re-define the meaning of impossible!
Every SAT 6:25PM, please stay tuned for updated “Infinite challenge” episodes.
Members: Haha, Junha Jung, Jae Seok Yoo, Myeong Soo Park, Hyung Don Jeong, Gwang hee Hwang
★★★More "Infinite Challenges" clips are available★★★
YouTube https://www.youtube.com/MBCentertainment
Facebook https://www.facebook.com/mbcentertain
Naver http://tvcast.naver.com/challenge
Daum http://tvpot.daum.net/mypot/View.do?ownerid=45x1okb1If50&playlistid;=3569737
Homepage http://www.imbc.com/broad/tv/ent/challenge
wn.com/Infinite Challenge 무한도전 Dancing Genome I'm So Sexy, 댄싱게놈 I'm So Sexy 20150822
Dancing genome - I'm so sexy
Playlist for THIS episodes → https://www.youtube.com/playlist?list=PLtqYizcPqxZTEcyxrNw3EFG1PgQiN9Gdb
Click below for the latest "Infinite challenge” clips ↓↓↓↓↓↓↓↓↓↓↓↓
【Infinite Challenge】.
This variety show concept is making what's impossible to possible anyway! While top Korean Comedians face unexpected situations and physical challenges that ordinary people hardly experienced before, they try to re-define the meaning of impossible!
Every SAT 6:25PM, please stay tuned for updated “Infinite challenge” episodes.
Members: Haha, Junha Jung, Jae Seok Yoo, Myeong Soo Park, Hyung Don Jeong, Gwang hee Hwang
★★★More "Infinite Challenges" clips are available★★★
YouTube https://www.youtube.com/MBCentertainment
Facebook https://www.facebook.com/mbcentertain
Naver http://tvcast.naver.com/challenge
Daum http://tvpot.daum.net/mypot/View.do?ownerid=45x1okb1If50&playlistid;=3569737
Homepage http://www.imbc.com/broad/tv/ent/challenge
- published: 22 Aug 2015
- views: 1778281
DeepCool Genome PC Case @ CES 2016
- Order: Reorder
- Duration: 1:51
- Updated: 08 Jan 2016
- views: 2665
DeepCool Genome PC Case @ CES 2016, more information on http://www.ThinkComputers.org
Our CES 2016 coverage is powered by be quiet! http://www.bequiet.com
Su...
DeepCool Genome PC Case @ CES 2016, more information on http://www.ThinkComputers.org
Our CES 2016 coverage is powered by be quiet! http://www.bequiet.com
Support us by using Amazon: http://amzn.to/1n1jqnZ
Check out all of our CES 2016 Coverage: http://bit.ly/thinkces2016
"Like" us on Facebook!
http://www.facebook.com/ThinkComputers
Follow us on Twitter!
http://twitter.com/thinkcomps
Circle us on Google+
http://gplus.to/thinkcomputers
wn.com/Deepcool Genome Pc Case Ces 2016
DeepCool Genome PC Case @ CES 2016, more information on http://www.ThinkComputers.org
Our CES 2016 coverage is powered by be quiet! http://www.bequiet.com
Support us by using Amazon: http://amzn.to/1n1jqnZ
Check out all of our CES 2016 Coverage: http://bit.ly/thinkces2016
"Like" us on Facebook!
http://www.facebook.com/ThinkComputers
Follow us on Twitter!
http://twitter.com/thinkcomps
Circle us on Google+
http://gplus.to/thinkcomputers
- published: 08 Jan 2016
- views: 2665
【nami@＊なみりん】 Daidai Genome -「橙ゲノム」を歌ってみた [Thank you for 2000+ subs!]
- Order: Reorder
- Duration: 3:41
- Updated: 09 Sep 2012
- views: 101787
oh look its a song that sounds like usotsuki lol XD
Hello again~ This time i sang mezameP/tsunamaru's daidai genome. Im guessing its supposed to be some sort ...
oh look its a song that sounds like usotsuki lol XD
Hello again~ This time i sang mezameP/tsunamaru's daidai genome. Im guessing its supposed to be some sort of answer song for usotsuki?? Not sure OTL Its the return of the フトモモ～
Anyways, thank you very much for 2000+ subs ;A; I never would've imagined to get this much when I first started!
mp3: https://www.box.com/s/4433cel8srd05l3cg3lq
＊なみりんです！ニコニコ動画でも歌ってみたを投稿しています！nicovideo.jp/mylist/25602314
ツイッターはこちらです @namirin_2525. 日本語も英語もおkです！！
Credits:
Vocals: Nami (follow me @namirin_2525)
Original Vocals: Hatsune Miku (Append)
Producer: mezameP/tsunamaru/めざめP
Mixing: やっち （ニコから）
Encode: Kenji （ニコから）
ニコニコ動画にもうｐしてます： http://www.nicovideo.jp/watch/sm18832508
Copyright Disclaimer Under Section 107 of the Copyright Act 1976, allowance is made for "fair use" for purposes such as criticism, comment, news reporting, teaching, scholarship, and research. Fair use is a use permitted by copyright statute that might otherwise be infringing. Non-profit, educational or personal use tips the balance in favor of fair use.
wn.com/【Nami ＊なみりん】 Daidai Genome 「橙ゲノム」を歌ってみた Thank You For 2000 Subs
oh look its a song that sounds like usotsuki lol XD
Hello again~ This time i sang mezameP/tsunamaru's daidai genome. Im guessing its supposed to be some sort of answer song for usotsuki?? Not sure OTL Its the return of the フトモモ～
Anyways, thank you very much for 2000+ subs ;A; I never would've imagined to get this much when I first started!
mp3: https://www.box.com/s/4433cel8srd05l3cg3lq
＊なみりんです！ニコニコ動画でも歌ってみたを投稿しています！nicovideo.jp/mylist/25602314
ツイッターはこちらです @namirin_2525. 日本語も英語もおkです！！
Credits:
Vocals: Nami (follow me @namirin_2525)
Original Vocals: Hatsune Miku (Append)
Producer: mezameP/tsunamaru/めざめP
Mixing: やっち （ニコから）
Encode: Kenji （ニコから）
ニコニコ動画にもうｐしてます： http://www.nicovideo.jp/watch/sm18832508
Copyright Disclaimer Under Section 107 of the Copyright Act 1976, allowance is made for "fair use" for purposes such as criticism, comment, news reporting, teaching, scholarship, and research. Fair use is a use permitted by copyright statute that might otherwise be infringing. Non-profit, educational or personal use tips the balance in favor of fair use.
- published: 09 Sep 2012
- views: 101787
Miracle Cure ? A Decade of the Human Genome - BBC Documentary
- Order: Reorder
- Duration: 52:09
- Updated: 08 Jun 2015
- views: 1356
Miracle Cure? A Decade of the Human Genome Horizon, 2010-2011 Episode 5 of 15 A decade ago, scientists announced that they had produced the first draft of the h...
Miracle Cure? A Decade of the Human Genome Horizon, 2010-2011 Episode 5 of 15 A decade ago, scientists announced that they had produced the first draft of the human genome, the 3.6 billion letters of our genetic code.
It was seen as one of the greatest scientific achievements of our age, a breakthrough that would usher in a new age of medicine. A decade later, Horizon finds out how close we are to developing the life-changing treatments that were hoped for.
Horizon follows three people, each with a genetic disease, as they go behind the scenes at some of Britain's leading research labs to find out what the sequencing of the human genome has done for them - and the hope this remarkable project offers all of us.
wn.com/Miracle Cure A Decade Of The Human Genome BBC Documentary
Miracle Cure? A Decade of the Human Genome Horizon, 2010-2011 Episode 5 of 15 A decade ago, scientists announced that they had produced the first draft of the human genome, the 3.6 billion letters of our genetic code.
It was seen as one of the greatest scientific achievements of our age, a breakthrough that would usher in a new age of medicine. A decade later, Horizon finds out how close we are to developing the life-changing treatments that were hoped for.
Horizon follows three people, each with a genetic disease, as they go behind the scenes at some of Britain's leading research labs to find out what the sequencing of the human genome has done for them - and the hope this remarkable project offers all of us.
- published: 08 Jun 2015
- views: 1356
Code For Life: The Human Genome
- Order: Reorder
- Duration: 10:30
- Updated: 22 Apr 2009
- views: 79885
http://www.facebook.com/ScienceReason ... Code For Life (Chapter 1): The Human Genome - The Cassiopeia Project.
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http://www.facebook.com/ScienceReason ... Code For Life (Chapter 1): The Human Genome - The Cassiopeia Project.
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The Cassiopeia Project is an effort to make high quality science videos available to everyone. If you can visualize it, then understanding is not far behind.
Code for Life: Beginning more than three and a half billion years ago, a tiny, primitive molecule encoded instructions deep within itself. Then it passed these instructions on to its children, who passed it to their children and so on - all the way down through time to all living things today.
The human genome, written in a code of just four letters, tells us who we really are - and that generates many questions!
Is this process of natural selection coming to an end? Should we choose the best that is in us for our children? If so, who gets to decide what is meant by "the best that is in us"?
From amino acids in space to human genes in corn ... THIS is the story.
http://www.cassiopeiaproject.com
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wn.com/Code For Life The Human Genome
http://www.facebook.com/ScienceReason ... Code For Life (Chapter 1): The Human Genome - The Cassiopeia Project.
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---
The Cassiopeia Project is an effort to make high quality science videos available to everyone. If you can visualize it, then understanding is not far behind.
Code for Life: Beginning more than three and a half billion years ago, a tiny, primitive molecule encoded instructions deep within itself. Then it passed these instructions on to its children, who passed it to their children and so on - all the way down through time to all living things today.
The human genome, written in a code of just four letters, tells us who we really are - and that generates many questions!
Is this process of natural selection coming to an end? Should we choose the best that is in us for our children? If so, who gets to decide what is meant by "the best that is in us"?
From amino acids in space to human genes in corn ... THIS is the story.
http://www.cassiopeiaproject.com
.
- published: 22 Apr 2009
- views: 79885
Sasquatch Genome Project Press Conference
- Order: Reorder
- Duration: 133:09
- Updated: 04 Oct 2014
- views: 11029
SasquatchGenomeProject.org
On October 1, 2013, the Sasquatch Genome Project held a news conference in Dallas to show exclusive footage from the long-awaited E...
SasquatchGenomeProject.org
On October 1, 2013, the Sasquatch Genome Project held a news conference in Dallas to show exclusive footage from the long-awaited Erickson Project. Dr. Ketchum spoke about the DNA Study and other participants in the genome project presented their field experience and answered questions from reporters.
Speakers:
Dr. Melba Ketchum
Adrian Erickson
Dennis Pfohl
Troy Hudson
Rich Germeau
J.C. Johnson
Samuel Webb Sentell
wn.com/Sasquatch Genome Project Press Conference
SasquatchGenomeProject.org
On October 1, 2013, the Sasquatch Genome Project held a news conference in Dallas to show exclusive footage from the long-awaited Erickson Project. Dr. Ketchum spoke about the DNA Study and other participants in the genome project presented their field experience and answered questions from reporters.
Speakers:
Dr. Melba Ketchum
Adrian Erickson
Dennis Pfohl
Troy Hudson
Rich Germeau
J.C. Johnson
Samuel Webb Sentell
- published: 04 Oct 2014
- views: 11029
Richard Resnick: Welcome to the genomic revolution
- Order: Reorder
- Duration: 11:03
- Updated: 15 Sep 2011
- views: 159921
http://www.ted.com In this accessible talk from TEDxBoston, Richard Resnick shows how cheap and fast genome sequencing is about to turn health care (and insuran...
http://www.ted.com In this accessible talk from TEDxBoston, Richard Resnick shows how cheap and fast genome sequencing is about to turn health care (and insurance, and politics) upside down.
TEDTalks is a daily video podcast of the best talks and performances from the TED Conference, where the world's leading thinkers and doers give the talk of their lives in 18 minutes. Featured speakers have included Al Gore on climate change, Philippe Starck on design, Jill Bolte Taylor on observing her own stroke, Nicholas Negroponte on One Laptop per Child, Jane Goodall on chimpanzees, Bill Gates on malaria and mosquitoes, Pattie Maes on the "Sixth Sense" wearable tech, and "Lost" producer JJ Abrams on the allure of mystery. TED stands for Technology, Entertainment, Design, and TEDTalks cover these topics as well as science, business, development and the arts. Closed captions and translated subtitles in a variety of languages are now available on TED.com, at http://www.ted.com/translate.
wn.com/Richard Resnick Welcome To The Genomic Revolution
http://www.ted.com In this accessible talk from TEDxBoston, Richard Resnick shows how cheap and fast genome sequencing is about to turn health care (and insurance, and politics) upside down.
TEDTalks is a daily video podcast of the best talks and performances from the TED Conference, where the world's leading thinkers and doers give the talk of their lives in 18 minutes. Featured speakers have included Al Gore on climate change, Philippe Starck on design, Jill Bolte Taylor on observing her own stroke, Nicholas Negroponte on One Laptop per Child, Jane Goodall on chimpanzees, Bill Gates on malaria and mosquitoes, Pattie Maes on the "Sixth Sense" wearable tech, and "Lost" producer JJ Abrams on the allure of mystery. TED stands for Technology, Entertainment, Design, and TEDTalks cover these topics as well as science, business, development and the arts. Closed captions and translated subtitles in a variety of languages are now available on TED.com, at http://www.ted.com/translate.
- published: 15 Sep 2011
- views: 159921
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Daidai Genome - Tsunamaru [Normal] (HR,HD,FL)
osu! bitches. -
The Story of You ENCODE and the human genome
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Sweeping Review of Human Genome IDs Stroke Risk Genes
Largest Study of Its Kind Targets Debilitating and Often Fatal Ischemic Strokes Researchers seeking to better understand how our genes contribute to stroke risk have completed what is believed to be the largest and most comprehensive review of the human genome to identify genes that predispose people to ischemic stroke, the cause of approximately 85 percent of all stroke cases. The research has confirmed the role of the handful of genes previously suspected, ruled out others and identified a new gene that may become a drug target for doctors seeking to prevent this potentially deadly and often debilitating condition. Massive Collaboration Stroke is the No. 2 killer worldwide, and risk factors such as smoking, high blood pressure, diabetes and high cholesterol are well established. Our genes, however, also play an important role in determining our stroke risk, but relatively little is known about the inheritable risk for ischemic stroke. (Ischemic strokes are caused by blood clots, while other forms of stroke are caused by the rupturing of blood vessels.) To advance the understanding of ischemic stroke, a massive study has been conducted by researchers with the National Institute of Neurological Disorders and Stroke’s Stroke Genetics Network (SiGN) and the International Stroke Genetics Consortium (ISGC). The project is believed to be roughly twice as large as any previous study investigating the genetic factors contributing to ischemic stroke. The project examined the genomes of tens of thousands of stroke patients and far more control subjects. It represents the work of researchers around the world, including doctors and scientists at the University of Virginia Health System. “We have started to alter the mortality from stroke, which is great and exciting,” said Bradford Worrall, MD, a top stroke expert at UVA and a leader of the project. “However, if you look at all the known risk factors, they are fairly poor at predicting an individual’s risk. There’s some statistics that suggest as much as 50 percent of the residual risk is unexplained, which is why understanding the underlying genetic contributors is so important.” -
Closing Genomes with Long Span NGS Reads for Research and Clinical Applications
This webinar will focus on a range of research and clinical applications enabled by improvements in mate pair technology for whole genome sequencing. Speakers will discuss their use of Lucigen's NxSeq long mate pair library kit for a number of applications, including closing and finishing microbial genomes, resolving complex plant organelle genomes, and characterizing genetic alterations in cancer. Mark Liles, associate professor at Auburn University, will describe his use of the technology to finish multiple bacterial genomes using a single 10-20 kb mate pair library in conjunction with a conventional 600 bp paired end fragment library. His presentation will address the implications of this approach for assembling repeat-rich, complex genomes from fungi, mitochondria, chloroplasts, plants, and animals. Bob Klein, research geneticist at the US Department of Agriculture's Agricultural Research Service, will share details of a project to sequence and assemble the mitochondrial and chloroplast genomes of sorghum. De novo sequence assembly of these large, repeat-rich interrelated genomes is complicated by significant lateral gene transfer between the organelles, but his team was able to use a new long span mate pair library construction strategy to unambiguously assemble both genomes. Finally, David Smith, professor of laboratory medicine and pathology at the Mayo Clinic, will discuss the use of next-generation sequencing in cancer management In particular, he will focus on the use of mate pair sequencing to characterize genomic alterations in an individual cancer and how this knowledge can be used to both monitor the cancer through treatment regimens and to develop the most appropriate clinical regimen for that cancer. -
Using Whole Genome Sequencing and Social Network Analysis to Track Disease
Using a novel methodology combining whole genome DNA sequencing and social network analysis, public health officials are able to solve a tuberculosis outbreak that was an absolute mystery by traditional epidemiologic methods. Jennifer Gardy, British Columbia Centre for Disease Control, Vancouver, BC, Canada -
Eliminate Bias in Single Cell Whole Genome Amplification with the TruePrime™ System - Sygnis Webinar
Single cell whole genome amplification using MDA (multiple displacement amplification) relies on priming by random hexamers, which can result in amplification bias. Sygnis’s revolutionary TruePrime™ technology uses a combination of Phi29 DNA polymerase and the recently discovered primase/polymerase TthPrimPol to uniformly amplify across the genome. TthPrimPol synthesizes the DNA primers needed for Phi29 DNA pol, allowing for the exponential amplification of genomic DNA without primer artefacts. Analyses on genomic DNA amplified from single Hek293 cells in comparison to non-amplified DNA reveal superior genome coverage with little bias, excellent SNV recovery and minimal introduction of error such as allelic dropout or chimera formation. Lucigen is an official United States distributor of Sygnis products, including TruePrime technology. -
Evil genome
Evil genome -
The Human Genome, Systems Biology and the Future of Medicine
Institute for Functional Medicine Annual Conference, 2015 -
Zika virus genome mapped amid new warning
Zika virus genome mapped amid new warning -
IRENE CAESAR OF WAVE GENOME EVOLVE EXPO PART 1
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STI Genome
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Bio Systems: Genome Editing with engineered nucleases
This video is collected from channel Thermo Fisher Scientific. Thanks for authors. Newest Education & Healthcare will update in here: https://www.youtube.com/channel/UChfEeKpOHgBDj2G2baTawTQ From mega-nucleases, to zinc fingers, to TALENs, and now CRISPR-Cas, the use of engineered nucleases for genome editing has been gathering pace. This video outlines these four basic genome editing technologies and gives examples of how edited genomes may benefit us all in the future. For more information, visit: - www.thermofisher.com - www.thermofisher.com/genomeediting - www.thermofisher.com/genomeeditposters VIDEO TRANSCRIPT Genome editing with engineered nucleases Genome editing inserts, replaces, or removes DNA using artificially engineered nucleases, or “molecular scissors.” There are four families of designer engineered nucleases: - Engineered mega-nuclease re-engineered homing endonucleases; - Zinc finger nucleases; - Transcription activator-like effector nucleases; and - Clustered regularly interspaced short palindromic repeats, or the CRISPR-Cas system. Genome editing with engineered nucleases begins with DNA-specific double-stranded breaks at the target sequence, catalyzed by the engineered nucleases. These double-stranded breaks can be repaired one of two ways. The first is non-homologous end joining, which occurs when no homologous DNA is present. Non-homologous end joining leads to insertions, deletions, inversions, and gene disruption, as DNA is ligated randomly. When homologous DNA is added, the double-stranded breaks are repaired with homology-directed repair. This targeted repair allows for precise gene additions or corrections. Nuclease-mediated genome editing can be applied in a diverse set of species, including: - Human cell lines and stem cells; - Drosophila; - C. elegans; - Mice and rats - Plants; - Monkeys; - Zebrafish; - And many more. Genome editing has been a growing field since 1969, with over 21,000 publications in the genome editing space. Genome editing has the potential to profoundly change the field of genetics. From stem cell engineering and gene therapy to disease-resistant transgenic plants, genome editing is bringing exciting changes to the scientific community. To learn more about genome editing and request a free genome engineering poster for your lab, visit thermofisher.com/genomeeditposters. -
DNA Technologies: Increase efficiency of genome editing with the Alt-R™ CRISPR-Cas9 System
This video is collected from channel Integrated DNA Technologies. Thanks for authors. Newest DNA Technologies will update in here: https://www.youtube.com/channel/UChfEeKpOHgBDj2G2baTawTQ The CRISPR/Cas9 system has emerged as one of the leading tools for modifying genomes of organisms ranging from E. coli to humans. In a recent webinar, "New RNA Tools for Optimized CRISPR/Cas 9 Genome Editing", we presented how we developed the Alt-R™ CRISPR-Cas9 System for genome editing. Here, we take a look at designing your target sequences and ordering them as Alt-R CRISPR crRNA. We review the other components of the system and walk through the experimental process step by step, from design to evaluation of editing potency. We also discuss challenges and potential pitfalls and provide tips and guidance towards successful genome editing experiments. Learn more: http://www.idtdna.com/crispr -
Bio Systems: Genome editing with GeneArt® Precision TALs
This video is collected from channel Thermo Fisher Scientific. Thanks for authors. Newest Education & Healthcare will update in here: https://www.youtube.com/channel/UChfEeKpOHgBDj2G2baTawTQ Learn more here: http://www.lifetechnologies.com/tal Jon talks about the TAL effector proteins that were first identified as bacterial plant pathogens. Based on this, Life Technologies developed a new and powerful way to edit genomes and control gene function. The service GeneArt® Precision TALs provide custom DNA-binding proteins fused to a range of customer-designated effector domains that enable you to target the genome exactly where you want high precision and flexibility. ------ [Audio transcript:] A new technology has been developed in the last few years that enables you to target the genome exactly where you want with high precision. These tools, called TAL effector proteins were originally identified as bacterial plant pathogens. In nature TAL proteins are delivered to the plant host cell by the bacterium and are coded to bind to the genomic DNA at certain promoter elements, activating genes and facilitating infection. Based on this technology we have developed a service that produces synthetically engineered versions of TAL binding proteins that enable you to target the genome exactly where you want. Let's have a detailed look at this: The GeneArt Precision TAL effectors are made up of two parts. One part binds the DNA. You can design that to recognize just about any sequence you want. This binding part consists of 18 or 24 repeat modules. Each repeat is responsible for binding a specific base in the DNA and the repeats are not thought to interfere with each other. That allows us to engineer these molecules to bind any stretch of the DNA that you desire. To the DNA binding part we fuse a second part: For example TALs with nuclease domains are used to generate double-stranded breaks by using two TAL effectors to each cleave a single strand. The space between the two individual TAL DNA binding sites is an important parameter for effective cleavage. Usually, a spacer of about 15 bp works well. With this technique you can create gene knock-outs. The DNA ends formed by the clevage are repaired by the cell, often leaving deletions or small insertions. In these cases, two thirds of the repair events would alter the reading frame of a gene and create a knock-out. Another option is to insert DNA sequences into the cut DNA. This process uses small ares of homology in the new 'donor' DNA to correct the DNA sequence or insert new DNA sequences. Ideally the insert sequence has overlapping homologous sequences on each side of about 300 to 500 bp. We also offer an activator domain to control function of genes. That allows you to introduce these molecules into cells, whether it is a plant cell or an animal cell, and activate a gene specifically at the locus you want. Additionally you can choose a repressor. If you are looking at novel methods of genome modification and regulation and want to use your own effector you can choose the MCS vector and insert a protein-coding sequence of interest which allows you to create a TAL effector of your choice. Examples for applications in both plant and animals can be; elucidating the basic function and regulation of a gene, studying metabolic pathways, embryonic stem cell research and research on disease models. It is a powerful way to edit genomes and control gene function. It's easy: Go to the TAL web page or into the GeneArt online order portal. Download the excel order form, fill in your binding sequences and effector choice and send the form to geneartsupport@lifetech.com Within 2 weeks we will create a set of TAL effectors that bind to your specific target. The GeneArt Precision TALs are delivered it to you as Gateway® entry clones, ready for you to target the genome exactly where you want. -
FireCloud: The Future of Cancer Genome Analysis
On January 20, 2016, Dr. Gad Getz, Associate Professor of Pathology at Harvard Medical School, presented “FireCloud: The Future of Cancer Genome Analysis” to the NCI CBIIT Speaker Series. -
IMPREZA WRX STI GENOME
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genome
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A Primer of Genome Science, Third Edition
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From genome sequence to systems models of Mycobacterium tuberculosis... by Nagasuma Chandra
Winter School on Quantitative Systems Biology 2015 URL : http://www.icts.res.in/program/qsb2015 DATES : Saturday 05 Dec, 2015 - Saturday 19 Dec, 2015 VENUE : Ramanujan Lecture Hall, ICTS Bangalore Description: The International Centre for Theoretical Sciences (ICTS) and the Abdus Salam International Centre for Theoretical Physics (ICTP), are organizing a Winter School on Quantitative Systems Biology from 8 to 19 December 2015 (QSB2015), as part of the ICTP- ICTS Programme in Biology. This is the fourth school in the series on Quantitative Systems Biology, held alternately at Trieste and Bangalore. QSB2015 will be hosted in the ICTS campus in Bangalore. The School is targeted towards young researchers, particularly those at the PhD and post -doctoral level with backgrounds in the physical and mathematical sciences and engineering, who are working in biology or hope to do so. It will give participants a broad introduction to open problems in modern biology, and provide pedagogical instruction on new quantitative approaches being used to address those problems. The main school will be preceded by an intensive three-day pre-school (5-7 December, 2015) targeted to non-biologists. QSB2015 is centered around bacteria, the simplest known forms of life. The focus is on the basics of cellular life and the principles thereof. The emphasis is on the structures and processes that allow bacteria to survive, reproduce, evolve and form communities in their environment. This is a setting that is fertile for quantitative work, both theoretical and experimental, and for grasping some universals in biology. Lecture courses on different topics are envisaged for the school by an array of distinguished lecturers. The courses will provide an intensive background to the specific topics before turning towards cutting edge research. Subjects include Bacterial cell physiology and growth Metabolism, regulation and response to the environment Structure and dynamics of biochemical networks Bacterial ecology Evolution Energy, information and computation in cells ORGANIZING COMMITTEE Antonio Celani (ICTP) Sanjay Jain (Delhi) Sandeep Krishna (NCBS) Vijay Krishnamurthy (ICTS) Pankaj Mehta (Boston) Matthew Scott (Waterloo) SCIENTIFIC ADVISORY COMMITTEE Vijay Balasubramanian (UPenn) Nagasuma Chandra (IISc) Matteo Marsili (ICTP) Anirvan Sengupta (Rutgers) Mukund Thattai (NCBS) Michele Vendruscolo (Cambridge) SPEAKERS:- LECTURE COURSES: 1.Mathias Heinemann (Groningen) 2.Suckjoon Jun (UCSD) 3.Tom Kuhlman (UIUC) 4.Pankaj Mehta (Boston) 5.Yitzhak Pilpel (Weizmann) 6.Nathan Price (ISB Seattle) 7.Matthew Scott (Waterloo) 8.Gary Stormo (Washington) RESEARCH TALKS: 1.Nagasuma Chandra (IISc, Bangalore) 2.Kunihiko Kaneko (Tokyo) 3.Andreas Wagner (Zurich) PRE-SCHOOL COURSES: Dec 5 & 6: Basic biology for non-biologists: physiology of cells, gene expression and regulation, metabolism, cell-cell communication, ecology and evolution Instructors: 1.Mukund Thattai (NCBS), 2.Supreet Saini (IITB), 3.Deepa Agashe (NCBS) Dec 7: Basic mathematical methods for biologists: dynamical systems, network analysis, genomic data analysis Instructors: 1.Sandeep Krishna (NCBS), 2.Nagasuma Chandra (IISc) -
Personalized Medicine and the Human Genome
Dr. Craig Mackinnon talks personalized medicine at MCW and Discovery World’s “Genome: Unlocking Life’s Code.” 2/15/16
Daidai Genome - Tsunamaru [Normal] (HR,HD,FL)
- Order: Reorder
- Duration: 3:08
- Updated: 23 Feb 2016
- views: 0
osu! bitches.
osu! bitches.
wn.com/Daidai Genome Tsunamaru Normal (Hr,Hd,Fl)
osu! bitches.
- published: 23 Feb 2016
- views: 0
The Story of You ENCODE and the human genome
- Order: Reorder
- Duration: 4:41
- Updated: 22 Feb 2016
- views: 0
- published: 22 Feb 2016
- views: 0
Glitter Goose | Tsunamaru - Daidai Genome [Insane] | HDDTHR 98.79% 504pp
- Order: Reorder
- Duration: 2:00
- Updated: 22 Feb 2016
- views: 118
Player: https://osu.ppy.sh/u/2580750
Map: https://osu.ppy.sh/b/519080
Skin: http://puu.sh/mDvGL/914f1cda43.osk (I stole Reese's)
Feedback is welcome!
Player: https://osu.ppy.sh/u/2580750
Map: https://osu.ppy.sh/b/519080
Skin: http://puu.sh/mDvGL/914f1cda43.osk (I stole Reese's)
Feedback is welcome!
wn.com/Glitter Goose | Tsunamaru Daidai Genome Insane | Hddthr 98.79 504Pp
Sweeping Review of Human Genome IDs Stroke Risk Genes
- Order: Reorder
- Duration: 3:40
- Updated: 22 Feb 2016
- views: 4
Largest Study of Its Kind Targets Debilitating and Often Fatal Ischemic Strokes
Researchers seeking to better understand how our genes contribute to stroke ris...
Largest Study of Its Kind Targets Debilitating and Often Fatal Ischemic Strokes
Researchers seeking to better understand how our genes contribute to stroke risk have completed what is believed to be the largest and most comprehensive review of the human genome to identify genes that predispose people to ischemic stroke, the cause of approximately 85 percent of all stroke cases.
The research has confirmed the role of the handful of genes previously suspected, ruled out others and identified a new gene that may become a drug target for doctors seeking to prevent this potentially deadly and often debilitating condition.
Massive Collaboration
Stroke is the No. 2 killer worldwide, and risk factors such as smoking, high blood pressure, diabetes and high cholesterol are well established. Our genes, however, also play an important role in determining our stroke risk, but relatively little is known about the inheritable risk for ischemic stroke. (Ischemic strokes are caused by blood clots, while other forms of stroke are caused by the rupturing of blood vessels.)
To advance the understanding of ischemic stroke, a massive study has been conducted by researchers with the National Institute of Neurological Disorders and Stroke’s Stroke Genetics Network (SiGN) and the International Stroke Genetics Consortium (ISGC). The project is believed to be roughly twice as large as any previous study investigating the genetic factors contributing to ischemic stroke. The project examined the genomes of tens of thousands of stroke patients and far more control subjects. It represents the work of researchers around the world, including doctors and scientists at the University of Virginia Health System.
“We have started to alter the mortality from stroke, which is great and exciting,” said Bradford Worrall, MD, a top stroke expert at UVA and a leader of the project. “However, if you look at all the known risk factors, they are fairly poor at predicting an individual’s risk. There’s some statistics that suggest as much as 50 percent of the residual risk is unexplained, which is why understanding the underlying genetic contributors is so important.”
wn.com/Sweeping Review Of Human Genome Ids Stroke Risk Genes
Largest Study of Its Kind Targets Debilitating and Often Fatal Ischemic Strokes
Researchers seeking to better understand how our genes contribute to stroke risk have completed what is believed to be the largest and most comprehensive review of the human genome to identify genes that predispose people to ischemic stroke, the cause of approximately 85 percent of all stroke cases.
The research has confirmed the role of the handful of genes previously suspected, ruled out others and identified a new gene that may become a drug target for doctors seeking to prevent this potentially deadly and often debilitating condition.
Massive Collaboration
Stroke is the No. 2 killer worldwide, and risk factors such as smoking, high blood pressure, diabetes and high cholesterol are well established. Our genes, however, also play an important role in determining our stroke risk, but relatively little is known about the inheritable risk for ischemic stroke. (Ischemic strokes are caused by blood clots, while other forms of stroke are caused by the rupturing of blood vessels.)
To advance the understanding of ischemic stroke, a massive study has been conducted by researchers with the National Institute of Neurological Disorders and Stroke’s Stroke Genetics Network (SiGN) and the International Stroke Genetics Consortium (ISGC). The project is believed to be roughly twice as large as any previous study investigating the genetic factors contributing to ischemic stroke. The project examined the genomes of tens of thousands of stroke patients and far more control subjects. It represents the work of researchers around the world, including doctors and scientists at the University of Virginia Health System.
“We have started to alter the mortality from stroke, which is great and exciting,” said Bradford Worrall, MD, a top stroke expert at UVA and a leader of the project. “However, if you look at all the known risk factors, they are fairly poor at predicting an individual’s risk. There’s some statistics that suggest as much as 50 percent of the residual risk is unexplained, which is why understanding the underlying genetic contributors is so important.”
- published: 22 Feb 2016
- views: 4
Closing Genomes with Long Span NGS Reads for Research and Clinical Applications
- Order: Reorder
- Duration: 61:03
- Updated: 22 Feb 2016
- views: 1
This webinar will focus on a range of research and clinical applications enabled by improvements in mate pair technology for whole genome sequencing.
Speakers...
This webinar will focus on a range of research and clinical applications enabled by improvements in mate pair technology for whole genome sequencing.
Speakers will discuss their use of Lucigen's NxSeq long mate pair library kit for a number of applications, including closing and finishing microbial genomes, resolving complex plant organelle genomes, and characterizing genetic alterations in cancer.
Mark Liles, associate professor at Auburn University, will describe his use of the technology to finish multiple bacterial genomes using a single 10-20 kb mate pair library in conjunction with a conventional 600 bp paired end fragment library. His presentation will address the implications of this approach for assembling repeat-rich, complex genomes from fungi, mitochondria, chloroplasts, plants, and animals.
Bob Klein, research geneticist at the US Department of Agriculture's Agricultural Research Service, will share details of a project to sequence and assemble the mitochondrial and chloroplast genomes of sorghum. De novo sequence assembly of these large, repeat-rich interrelated genomes is complicated by significant lateral gene transfer between the organelles, but his team was able to use a new long span mate pair library construction strategy to unambiguously assemble both genomes.
Finally, David Smith, professor of laboratory medicine and pathology at the Mayo Clinic, will discuss the use of next-generation sequencing in cancer management In particular, he will focus on the use of mate pair sequencing to characterize genomic alterations in an individual cancer and how this knowledge can be used to both monitor the cancer through treatment regimens and to develop the most appropriate clinical regimen for that cancer.
wn.com/Closing Genomes With Long Span Ngs Reads For Research And Clinical Applications
This webinar will focus on a range of research and clinical applications enabled by improvements in mate pair technology for whole genome sequencing.
Speakers will discuss their use of Lucigen's NxSeq long mate pair library kit for a number of applications, including closing and finishing microbial genomes, resolving complex plant organelle genomes, and characterizing genetic alterations in cancer.
Mark Liles, associate professor at Auburn University, will describe his use of the technology to finish multiple bacterial genomes using a single 10-20 kb mate pair library in conjunction with a conventional 600 bp paired end fragment library. His presentation will address the implications of this approach for assembling repeat-rich, complex genomes from fungi, mitochondria, chloroplasts, plants, and animals.
Bob Klein, research geneticist at the US Department of Agriculture's Agricultural Research Service, will share details of a project to sequence and assemble the mitochondrial and chloroplast genomes of sorghum. De novo sequence assembly of these large, repeat-rich interrelated genomes is complicated by significant lateral gene transfer between the organelles, but his team was able to use a new long span mate pair library construction strategy to unambiguously assemble both genomes.
Finally, David Smith, professor of laboratory medicine and pathology at the Mayo Clinic, will discuss the use of next-generation sequencing in cancer management In particular, he will focus on the use of mate pair sequencing to characterize genomic alterations in an individual cancer and how this knowledge can be used to both monitor the cancer through treatment regimens and to develop the most appropriate clinical regimen for that cancer.
- published: 22 Feb 2016
- views: 1
Using Whole Genome Sequencing and Social Network Analysis to Track Disease
- Order: Reorder
- Duration: 43:03
- Updated: 22 Feb 2016
- views: 3
Using a novel methodology combining whole genome DNA sequencing and social network analysis, public health officials are able to solve a tuberculosis outbreak t...
Using a novel methodology combining whole genome DNA sequencing and social network analysis, public health officials are able to solve a tuberculosis outbreak that was an absolute mystery by traditional epidemiologic methods.
Jennifer Gardy, British Columbia Centre for Disease Control, Vancouver, BC, Canada
wn.com/Using Whole Genome Sequencing And Social Network Analysis To Track Disease
Using a novel methodology combining whole genome DNA sequencing and social network analysis, public health officials are able to solve a tuberculosis outbreak that was an absolute mystery by traditional epidemiologic methods.
Jennifer Gardy, British Columbia Centre for Disease Control, Vancouver, BC, Canada
- published: 22 Feb 2016
- views: 3
Eliminate Bias in Single Cell Whole Genome Amplification with the TruePrime™ System - Sygnis Webinar
- Order: Reorder
- Duration: 47:11
- Updated: 22 Feb 2016
- views: 12
Single cell whole genome amplification using MDA (multiple displacement amplification) relies on priming by random hexamers, which can result in amplification b...
Single cell whole genome amplification using MDA (multiple displacement amplification) relies on priming by random hexamers, which can result in amplification bias. Sygnis’s revolutionary TruePrime™ technology uses a combination of Phi29 DNA polymerase and the recently discovered primase/polymerase TthPrimPol to uniformly amplify across the genome. TthPrimPol synthesizes the DNA primers needed for Phi29 DNA pol, allowing for the exponential amplification of genomic DNA without primer artefacts. Analyses on genomic DNA amplified from single Hek293 cells in comparison to non-amplified DNA reveal superior genome coverage with little bias, excellent SNV recovery and minimal introduction of error such as allelic dropout or chimera formation. Lucigen is an official United States distributor of Sygnis products, including TruePrime technology.
wn.com/Eliminate Bias In Single Cell Whole Genome Amplification With The Trueprime™ System Sygnis Webinar
Single cell whole genome amplification using MDA (multiple displacement amplification) relies on priming by random hexamers, which can result in amplification bias. Sygnis’s revolutionary TruePrime™ technology uses a combination of Phi29 DNA polymerase and the recently discovered primase/polymerase TthPrimPol to uniformly amplify across the genome. TthPrimPol synthesizes the DNA primers needed for Phi29 DNA pol, allowing for the exponential amplification of genomic DNA without primer artefacts. Analyses on genomic DNA amplified from single Hek293 cells in comparison to non-amplified DNA reveal superior genome coverage with little bias, excellent SNV recovery and minimal introduction of error such as allelic dropout or chimera formation. Lucigen is an official United States distributor of Sygnis products, including TruePrime technology.
- published: 22 Feb 2016
- views: 12
Evil genome
- Order: Reorder
- Duration: 1:01
- Updated: 22 Feb 2016
- views: 0
Evil genome
Evil genome
wn.com/Evil Genome
The Human Genome, Systems Biology and the Future of Medicine
- Order: Reorder
- Duration: 68:53
- Updated: 22 Feb 2016
- views: 8
Zika virus genome mapped amid new warning
- Order: Reorder
- Duration: 0:48
- Updated: 21 Feb 2016
- views: 7
Zika virus genome mapped amid new warning
Zika virus genome mapped amid new warning
wn.com/Zika Virus Genome Mapped Amid New Warning
IRENE CAESAR OF WAVE GENOME EVOLVE EXPO PART 1
- Order: Reorder
- Duration: 17:57
- Updated: 21 Feb 2016
- views: 0
- published: 21 Feb 2016
- views: 0
IRENE CAESAR OF WAVE GENOME EVOLVE EXPO PART 2
- Order: Reorder
- Duration: 21:15
- Updated: 21 Feb 2016
- views: 0
STI Genome
- Order: Reorder
- Duration: 0:17
- Updated: 20 Feb 2016
- views: 18
- published: 20 Feb 2016
- views: 18
Bio Systems: Genome Editing with engineered nucleases
- Order: Reorder
- Duration: 2:14
- Updated: 20 Feb 2016
- views: 1
This video is collected from channel Thermo Fisher Scientific. Thanks for authors.
Newest Education & Healthcare will update in here: https://www.youtube.com/c...
This video is collected from channel Thermo Fisher Scientific. Thanks for authors.
Newest Education & Healthcare will update in here: https://www.youtube.com/channel/UChfEeKpOHgBDj2G2baTawTQ From mega-nucleases, to zinc fingers, to TALENs, and now CRISPR-Cas, the use of engineered nucleases for genome editing has been gathering pace. This video outlines these four basic genome editing technologies and gives examples of how edited genomes may benefit us all in the future.
For more information, visit:
- www.thermofisher.com
- www.thermofisher.com/genomeediting
- www.thermofisher.com/genomeeditposters
VIDEO TRANSCRIPT
Genome editing with engineered nucleases
Genome editing inserts, replaces, or removes DNA using artificially engineered nucleases, or “molecular scissors.”
There are four families of designer engineered nucleases:
- Engineered mega-nuclease re-engineered homing endonucleases;
- Zinc finger nucleases;
- Transcription activator-like effector nucleases; and
- Clustered regularly interspaced short palindromic repeats, or the CRISPR-Cas system.
Genome editing with engineered nucleases begins with DNA-specific double-stranded breaks at the target sequence, catalyzed by the engineered nucleases. These double-stranded breaks can be repaired one of two ways.
The first is non-homologous end joining, which occurs when no homologous DNA is present.
Non-homologous end joining leads to insertions, deletions, inversions, and gene disruption, as DNA is ligated randomly.
When homologous DNA is added, the double-stranded breaks are repaired with homology-directed repair. This targeted repair allows for precise gene additions or corrections.
Nuclease-mediated genome editing can be applied in a diverse set of species, including:
- Human cell lines and stem cells;
- Drosophila;
- C. elegans;
- Mice and rats
- Plants;
- Monkeys;
- Zebrafish;
- And many more.
Genome editing has been a growing field since 1969, with over 21,000 publications in the genome editing space.
Genome editing has the potential to profoundly change the field of genetics. From stem cell engineering and gene therapy to disease-resistant transgenic plants, genome editing is bringing exciting changes to the scientific community.
To learn more about genome editing and request a free genome engineering poster for your lab, visit thermofisher.com/genomeeditposters.
wn.com/Bio Systems Genome Editing With Engineered Nucleases
This video is collected from channel Thermo Fisher Scientific. Thanks for authors.
Newest Education & Healthcare will update in here: https://www.youtube.com/channel/UChfEeKpOHgBDj2G2baTawTQ From mega-nucleases, to zinc fingers, to TALENs, and now CRISPR-Cas, the use of engineered nucleases for genome editing has been gathering pace. This video outlines these four basic genome editing technologies and gives examples of how edited genomes may benefit us all in the future.
For more information, visit:
- www.thermofisher.com
- www.thermofisher.com/genomeediting
- www.thermofisher.com/genomeeditposters
VIDEO TRANSCRIPT
Genome editing with engineered nucleases
Genome editing inserts, replaces, or removes DNA using artificially engineered nucleases, or “molecular scissors.”
There are four families of designer engineered nucleases:
- Engineered mega-nuclease re-engineered homing endonucleases;
- Zinc finger nucleases;
- Transcription activator-like effector nucleases; and
- Clustered regularly interspaced short palindromic repeats, or the CRISPR-Cas system.
Genome editing with engineered nucleases begins with DNA-specific double-stranded breaks at the target sequence, catalyzed by the engineered nucleases. These double-stranded breaks can be repaired one of two ways.
The first is non-homologous end joining, which occurs when no homologous DNA is present.
Non-homologous end joining leads to insertions, deletions, inversions, and gene disruption, as DNA is ligated randomly.
When homologous DNA is added, the double-stranded breaks are repaired with homology-directed repair. This targeted repair allows for precise gene additions or corrections.
Nuclease-mediated genome editing can be applied in a diverse set of species, including:
- Human cell lines and stem cells;
- Drosophila;
- C. elegans;
- Mice and rats
- Plants;
- Monkeys;
- Zebrafish;
- And many more.
Genome editing has been a growing field since 1969, with over 21,000 publications in the genome editing space.
Genome editing has the potential to profoundly change the field of genetics. From stem cell engineering and gene therapy to disease-resistant transgenic plants, genome editing is bringing exciting changes to the scientific community.
To learn more about genome editing and request a free genome engineering poster for your lab, visit thermofisher.com/genomeeditposters.
- published: 20 Feb 2016
- views: 1
DNA Technologies: Increase efficiency of genome editing with the Alt-R™ CRISPR-Cas9 System
- Order: Reorder
- Duration: 15:00
- Updated: 20 Feb 2016
- views: 3
This video is collected from channel Integrated DNA Technologies. Thanks for authors.
Newest DNA Technologies will update in here: https://www.youtube.com/chan...
This video is collected from channel Integrated DNA Technologies. Thanks for authors.
Newest DNA Technologies will update in here: https://www.youtube.com/channel/UChfEeKpOHgBDj2G2baTawTQ The CRISPR/Cas9 system has emerged as one of the leading tools for modifying genomes of organisms ranging from E. coli to humans. In a recent webinar, "New RNA Tools for Optimized CRISPR/Cas 9 Genome Editing", we presented how we developed the Alt-R™ CRISPR-Cas9 System for genome editing. Here, we take a look at designing your target sequences and ordering them as Alt-R CRISPR crRNA. We review the other components of the system and walk through the experimental process step by step, from design to evaluation of editing potency. We also discuss challenges and potential pitfalls and provide tips and guidance towards successful genome editing experiments. Learn more: http://www.idtdna.com/crispr
wn.com/Dna Technologies Increase Efficiency Of Genome Editing With The Alt R™ Crispr Cas9 System
This video is collected from channel Integrated DNA Technologies. Thanks for authors.
Newest DNA Technologies will update in here: https://www.youtube.com/channel/UChfEeKpOHgBDj2G2baTawTQ The CRISPR/Cas9 system has emerged as one of the leading tools for modifying genomes of organisms ranging from E. coli to humans. In a recent webinar, "New RNA Tools for Optimized CRISPR/Cas 9 Genome Editing", we presented how we developed the Alt-R™ CRISPR-Cas9 System for genome editing. Here, we take a look at designing your target sequences and ordering them as Alt-R CRISPR crRNA. We review the other components of the system and walk through the experimental process step by step, from design to evaluation of editing potency. We also discuss challenges and potential pitfalls and provide tips and guidance towards successful genome editing experiments. Learn more: http://www.idtdna.com/crispr
- published: 20 Feb 2016
- views: 3
Bio Systems: Genome editing with GeneArt® Precision TALs
- Order: Reorder
- Duration: 3:59
- Updated: 20 Feb 2016
- views: 0
This video is collected from channel Thermo Fisher Scientific. Thanks for authors.
Newest Education & Healthcare will update in here: https://www.youtube.com/c...
This video is collected from channel Thermo Fisher Scientific. Thanks for authors.
Newest Education & Healthcare will update in here: https://www.youtube.com/channel/UChfEeKpOHgBDj2G2baTawTQ Learn more here: http://www.lifetechnologies.com/tal
Jon talks about the TAL effector proteins that were first identified as bacterial plant pathogens. Based on this, Life Technologies developed a new and powerful way to edit genomes and control gene function. The service GeneArt® Precision TALs provide custom DNA-binding proteins fused to a range of customer-designated effector domains that enable you to target the genome exactly where you want high precision and flexibility.
------
[Audio transcript:]
A new technology has been developed in the last few years that enables you to target the genome exactly where you want with high precision. These tools, called TAL effector proteins were originally identified as bacterial plant pathogens.
In nature TAL proteins are delivered to the plant host cell by the bacterium and are coded to bind to the genomic DNA at certain promoter elements, activating genes and facilitating infection.
Based on this technology we have developed a service that produces synthetically engineered versions of TAL binding proteins that enable you to target the genome exactly where you want.
Let's have a detailed look at this:
The GeneArt Precision TAL effectors are made up of two parts.
One part binds the DNA. You can design that to recognize just about any sequence you want. This binding part consists of 18 or 24 repeat modules. Each repeat is responsible for binding a specific base in the DNA and the repeats are not thought to interfere with each other. That allows us to engineer these molecules to bind any stretch of the DNA that you desire.
To the DNA binding part we fuse a second part: For example TALs with nuclease domains are used to generate double-stranded breaks by using two TAL effectors to each cleave a single strand. The space between the two individual TAL DNA binding sites is an important parameter for effective cleavage. Usually, a spacer of about 15 bp works well.
With this technique you can create gene knock-outs. The DNA ends formed by the clevage are repaired by the cell, often leaving deletions or small insertions. In these cases, two thirds of the repair events would alter the reading frame of a gene and create a knock-out.
Another option is to insert DNA sequences into the cut DNA. This process uses small ares of homology in the new 'donor' DNA to correct the DNA sequence or insert new DNA sequences. Ideally the insert sequence has overlapping homologous sequences on each side of about 300 to 500 bp.
We also offer an activator domain to control function of genes. That allows you to introduce these molecules into cells, whether it is a plant cell or an animal cell, and activate a gene specifically at the locus you want.
Additionally you can choose a repressor.
If you are looking at novel methods of genome modification and regulation and want to use your own effector you can choose the MCS vector and insert a protein-coding sequence of interest which allows you to create a TAL effector of your choice.
Examples for applications in both plant and animals can be; elucidating the basic function and regulation of a gene, studying metabolic pathways, embryonic stem cell research and research on disease models.
It is a powerful way to edit genomes and control gene function.
It's easy: Go to the TAL web page or into the GeneArt online order portal. Download the excel order form, fill in your binding sequences and effector choice and send the form to geneartsupport@lifetech.com
Within 2 weeks we will create a set of TAL effectors that bind to your specific target. The GeneArt Precision TALs are delivered it to you as Gateway® entry clones, ready for you to target the genome exactly where you want.
wn.com/Bio Systems Genome Editing With Geneart® Precision Tals
This video is collected from channel Thermo Fisher Scientific. Thanks for authors.
Newest Education & Healthcare will update in here: https://www.youtube.com/channel/UChfEeKpOHgBDj2G2baTawTQ Learn more here: http://www.lifetechnologies.com/tal
Jon talks about the TAL effector proteins that were first identified as bacterial plant pathogens. Based on this, Life Technologies developed a new and powerful way to edit genomes and control gene function. The service GeneArt® Precision TALs provide custom DNA-binding proteins fused to a range of customer-designated effector domains that enable you to target the genome exactly where you want high precision and flexibility.
------
[Audio transcript:]
A new technology has been developed in the last few years that enables you to target the genome exactly where you want with high precision. These tools, called TAL effector proteins were originally identified as bacterial plant pathogens.
In nature TAL proteins are delivered to the plant host cell by the bacterium and are coded to bind to the genomic DNA at certain promoter elements, activating genes and facilitating infection.
Based on this technology we have developed a service that produces synthetically engineered versions of TAL binding proteins that enable you to target the genome exactly where you want.
Let's have a detailed look at this:
The GeneArt Precision TAL effectors are made up of two parts.
One part binds the DNA. You can design that to recognize just about any sequence you want. This binding part consists of 18 or 24 repeat modules. Each repeat is responsible for binding a specific base in the DNA and the repeats are not thought to interfere with each other. That allows us to engineer these molecules to bind any stretch of the DNA that you desire.
To the DNA binding part we fuse a second part: For example TALs with nuclease domains are used to generate double-stranded breaks by using two TAL effectors to each cleave a single strand. The space between the two individual TAL DNA binding sites is an important parameter for effective cleavage. Usually, a spacer of about 15 bp works well.
With this technique you can create gene knock-outs. The DNA ends formed by the clevage are repaired by the cell, often leaving deletions or small insertions. In these cases, two thirds of the repair events would alter the reading frame of a gene and create a knock-out.
Another option is to insert DNA sequences into the cut DNA. This process uses small ares of homology in the new 'donor' DNA to correct the DNA sequence or insert new DNA sequences. Ideally the insert sequence has overlapping homologous sequences on each side of about 300 to 500 bp.
We also offer an activator domain to control function of genes. That allows you to introduce these molecules into cells, whether it is a plant cell or an animal cell, and activate a gene specifically at the locus you want.
Additionally you can choose a repressor.
If you are looking at novel methods of genome modification and regulation and want to use your own effector you can choose the MCS vector and insert a protein-coding sequence of interest which allows you to create a TAL effector of your choice.
Examples for applications in both plant and animals can be; elucidating the basic function and regulation of a gene, studying metabolic pathways, embryonic stem cell research and research on disease models.
It is a powerful way to edit genomes and control gene function.
It's easy: Go to the TAL web page or into the GeneArt online order portal. Download the excel order form, fill in your binding sequences and effector choice and send the form to geneartsupport@lifetech.com
Within 2 weeks we will create a set of TAL effectors that bind to your specific target. The GeneArt Precision TALs are delivered it to you as Gateway® entry clones, ready for you to target the genome exactly where you want.
- published: 20 Feb 2016
- views: 0
FireCloud: The Future of Cancer Genome Analysis
- Order: Reorder
- Duration: 62:02
- Updated: 19 Feb 2016
- views: 2
On January 20, 2016, Dr. Gad Getz, Associate Professor of Pathology at Harvard Medical School, presented “FireCloud: The Future of Cancer Genome Analysis” to th...
On January 20, 2016, Dr. Gad Getz, Associate Professor of Pathology at Harvard Medical School, presented “FireCloud: The Future of Cancer Genome Analysis” to the NCI CBIIT Speaker Series.
wn.com/Firecloud The Future Of Cancer Genome Analysis
On January 20, 2016, Dr. Gad Getz, Associate Professor of Pathology at Harvard Medical School, presented “FireCloud: The Future of Cancer Genome Analysis” to the NCI CBIIT Speaker Series.
- published: 19 Feb 2016
- views: 2
IMPREZA WRX STI GENOME
- Order: Reorder
- Duration: 0:55
- Updated: 18 Feb 2016
- views: 8
- published: 18 Feb 2016
- views: 8
genome
- Order: Reorder
- Duration: 0:55
- Updated: 17 Feb 2016
- views: 2
- published: 17 Feb 2016
- views: 2
A Primer of Genome Science, Third Edition
- Order: Reorder
- Duration: 1:11
- Updated: 16 Feb 2016
- views: 0
- published: 16 Feb 2016
- views: 0
The Mysterious World of the Human Genome by Frank Ryan
- Order: Reorder
- Duration: 0:16
- Updated: 16 Feb 2016
- views: 0
From genome sequence to systems models of Mycobacterium tuberculosis... by Nagasuma Chandra
- Order: Reorder
- Duration: 95:03
- Updated: 15 Feb 2016
- views: 6
Winter School on Quantitative Systems Biology 2015
URL : http://www.icts.res.in/program/qsb2015
DATES : Saturday 05 Dec, 2015 - Saturday 19 Dec, 2015
VENUE :...
Winter School on Quantitative Systems Biology 2015
URL : http://www.icts.res.in/program/qsb2015
DATES : Saturday 05 Dec, 2015 - Saturday 19 Dec, 2015
VENUE : Ramanujan Lecture Hall, ICTS Bangalore
Description:
The International Centre for Theoretical Sciences (ICTS) and the Abdus Salam International Centre for Theoretical Physics (ICTP), are organizing a Winter School on Quantitative Systems Biology from 8 to 19 December 2015 (QSB2015), as part of the ICTP- ICTS Programme in Biology. This is the fourth school in the series on Quantitative Systems Biology, held alternately at Trieste and Bangalore. QSB2015 will be hosted in the ICTS campus in Bangalore.
The School is targeted towards young researchers, particularly those at the PhD and post -doctoral level with backgrounds in the physical and mathematical sciences and engineering, who are working in biology or hope to do so. It will give participants a broad introduction to open problems in modern biology, and provide pedagogical instruction on new quantitative approaches being used to address those problems. The main school will be preceded by an intensive three-day pre-school (5-7 December, 2015) targeted to non-biologists.
QSB2015 is centered around bacteria, the simplest known forms of life. The focus is on the basics of cellular life and the principles thereof. The emphasis is on the structures and processes that allow bacteria to survive, reproduce, evolve and form communities in their environment. This is a setting that is fertile for quantitative work, both theoretical and experimental, and for grasping some universals in biology. Lecture courses on different topics are envisaged for the school by an array of distinguished lecturers. The courses will provide an intensive background to the specific topics before turning towards cutting edge research.
Subjects include
Bacterial cell physiology and growth
Metabolism, regulation and response to the environment
Structure and dynamics of biochemical networks
Bacterial ecology
Evolution
Energy, information and computation in cells
ORGANIZING COMMITTEE
Antonio Celani (ICTP)
Sanjay Jain (Delhi)
Sandeep Krishna (NCBS)
Vijay Krishnamurthy (ICTS)
Pankaj Mehta (Boston)
Matthew Scott (Waterloo)
SCIENTIFIC ADVISORY COMMITTEE
Vijay Balasubramanian (UPenn)
Nagasuma Chandra (IISc)
Matteo Marsili (ICTP)
Anirvan Sengupta (Rutgers)
Mukund Thattai (NCBS)
Michele Vendruscolo (Cambridge)
SPEAKERS:-
LECTURE COURSES:
1.Mathias Heinemann (Groningen)
2.Suckjoon Jun (UCSD)
3.Tom Kuhlman (UIUC)
4.Pankaj Mehta (Boston)
5.Yitzhak Pilpel (Weizmann)
6.Nathan Price (ISB Seattle)
7.Matthew Scott (Waterloo)
8.Gary Stormo (Washington)
RESEARCH TALKS:
1.Nagasuma Chandra (IISc, Bangalore)
2.Kunihiko Kaneko (Tokyo)
3.Andreas Wagner (Zurich)
PRE-SCHOOL COURSES:
Dec 5 & 6: Basic biology for non-biologists: physiology of cells, gene expression and regulation, metabolism, cell-cell communication, ecology and evolution
Instructors:
1.Mukund Thattai (NCBS),
2.Supreet Saini (IITB),
3.Deepa Agashe (NCBS)
Dec 7: Basic mathematical methods for biologists: dynamical systems, network analysis, genomic data analysis
Instructors:
1.Sandeep Krishna (NCBS),
2.Nagasuma Chandra (IISc)
wn.com/From Genome Sequence To Systems Models Of Mycobacterium Tuberculosis... By Nagasuma Chandra
Winter School on Quantitative Systems Biology 2015
URL : http://www.icts.res.in/program/qsb2015
DATES : Saturday 05 Dec, 2015 - Saturday 19 Dec, 2015
VENUE : Ramanujan Lecture Hall, ICTS Bangalore
Description:
The International Centre for Theoretical Sciences (ICTS) and the Abdus Salam International Centre for Theoretical Physics (ICTP), are organizing a Winter School on Quantitative Systems Biology from 8 to 19 December 2015 (QSB2015), as part of the ICTP- ICTS Programme in Biology. This is the fourth school in the series on Quantitative Systems Biology, held alternately at Trieste and Bangalore. QSB2015 will be hosted in the ICTS campus in Bangalore.
The School is targeted towards young researchers, particularly those at the PhD and post -doctoral level with backgrounds in the physical and mathematical sciences and engineering, who are working in biology or hope to do so. It will give participants a broad introduction to open problems in modern biology, and provide pedagogical instruction on new quantitative approaches being used to address those problems. The main school will be preceded by an intensive three-day pre-school (5-7 December, 2015) targeted to non-biologists.
QSB2015 is centered around bacteria, the simplest known forms of life. The focus is on the basics of cellular life and the principles thereof. The emphasis is on the structures and processes that allow bacteria to survive, reproduce, evolve and form communities in their environment. This is a setting that is fertile for quantitative work, both theoretical and experimental, and for grasping some universals in biology. Lecture courses on different topics are envisaged for the school by an array of distinguished lecturers. The courses will provide an intensive background to the specific topics before turning towards cutting edge research.
Subjects include
Bacterial cell physiology and growth
Metabolism, regulation and response to the environment
Structure and dynamics of biochemical networks
Bacterial ecology
Evolution
Energy, information and computation in cells
ORGANIZING COMMITTEE
Antonio Celani (ICTP)
Sanjay Jain (Delhi)
Sandeep Krishna (NCBS)
Vijay Krishnamurthy (ICTS)
Pankaj Mehta (Boston)
Matthew Scott (Waterloo)
SCIENTIFIC ADVISORY COMMITTEE
Vijay Balasubramanian (UPenn)
Nagasuma Chandra (IISc)
Matteo Marsili (ICTP)
Anirvan Sengupta (Rutgers)
Mukund Thattai (NCBS)
Michele Vendruscolo (Cambridge)
SPEAKERS:-
LECTURE COURSES:
1.Mathias Heinemann (Groningen)
2.Suckjoon Jun (UCSD)
3.Tom Kuhlman (UIUC)
4.Pankaj Mehta (Boston)
5.Yitzhak Pilpel (Weizmann)
6.Nathan Price (ISB Seattle)
7.Matthew Scott (Waterloo)
8.Gary Stormo (Washington)
RESEARCH TALKS:
1.Nagasuma Chandra (IISc, Bangalore)
2.Kunihiko Kaneko (Tokyo)
3.Andreas Wagner (Zurich)
PRE-SCHOOL COURSES:
Dec 5 & 6: Basic biology for non-biologists: physiology of cells, gene expression and regulation, metabolism, cell-cell communication, ecology and evolution
Instructors:
1.Mukund Thattai (NCBS),
2.Supreet Saini (IITB),
3.Deepa Agashe (NCBS)
Dec 7: Basic mathematical methods for biologists: dynamical systems, network analysis, genomic data analysis
Instructors:
1.Sandeep Krishna (NCBS),
2.Nagasuma Chandra (IISc)
- published: 15 Feb 2016
- views: 6
Personalized Medicine and the Human Genome
- Order: Reorder
- Duration: 0:43
- Updated: 12 Feb 2016
- views: 25
Dr. Craig Mackinnon talks personalized medicine at MCW and Discovery World’s “Genome: Unlocking Life’s Code.” 2/15/16
Dr. Craig Mackinnon talks personalized medicine at MCW and Discovery World’s “Genome: Unlocking Life’s Code.” 2/15/16
wn.com/Personalized Medicine And The Human Genome
Dr. Craig Mackinnon talks personalized medicine at MCW and Discovery World’s “Genome: Unlocking Life’s Code.” 2/15/16
- published: 12 Feb 2016
- views: 25
-
Genome sequencing
This genomics tutorial explains different methods of human genome sequencing like bac to bac sequencing and shotgun sequencing and the application of genome sequencing. For more information, log on to- http://shomusbiology.weebly.com/ Download the study materials here- http://shomusbiology.weebly.com/bio-materials.html -
Introduction to genome assembly
Broad overview of genome assembly -
Destiny and DNA: Our Pliable Genome
Our genes strictly dictate our personalities, appearance and diseases. Or do they? Research has revealed that genes can turn on and off; they can be expressed for years and then silenced. Sometimes, they are never activated. And these genetic instructions—how and when DNA is read—can be determined by the experiences of one’s ancestors, even those several generations back. Epigenetics studies these instructions, the biological markers along our DNA that regulate gene expression in response to features like age or environment, and which can influence the traits we pass onto our children. Glimpse into the future with scientists at the forefront of this emerging field as they reveal the role our genetic markers play in steering our biological destiny. Subscribe to our YouTube Channel for all the latest from WSF. Visit our Website: http://www.worldsciencefestival.com/ Like us on Facebook: https://www.facebook.com/worldscience... Follow us on twitter: https://twitter.com/WorldSciFest PARTICIPANTS: Frances A. Champagne, Randy L. Jirtle, Jean-Pierre Issa Original Program Date: June 1, 2013 Bill Blakemore's Introduction. 00:06 Participant Introductions. 1:55 A brief history of Epigenetics. 3:16 What is Epigenetics? 4:30 Can your DNA be effected by the natural world? 6:05 Why do identical twins end up being different people? 9:17 The mechanics of the physical genome. 14:05 Humans wouldn't be here without variation. 18:35 Three breakthrough studies. 21:41 What is cold mother syndrome? 33:30 The measuring of Epigenetics. 41:05 What are the risks to treat neurological disorders with Epigenetics? 47:24 Is there any denial to the insights of Epigenetics? 53:44 Will we sue our genealogical past? 59:30 The eugenics movement today. 1:05:50 Will there be pills that can change our DNA? 1:10:00 Can this therapy revert metastasis process? 1:15:14 Does what extent does bacteria in the body effect metastasis?1:15:55 What is the effect of culture on Epigenetics? 1:18:49 -
DNA Genesis - Scientific Adam - National Geographic Documentary Films - Full HD Documentaries 2015
This new documentary film from National Geographic explains the Human Genome Project. Studies of the genetic markers within our DNA have uncovered the true story of our ancestry. Every human being alive on the planet today is descended from a single father and mother. Our ancient parents lived about 50,000 years ago in East Africa and their arrival signalled a new chapter in the planets history. Endowed with the power of conceptual thought - they would quickly multiply and spread to dominate all corners of the planet, developing the skills and technology necessary to thrive in every environment on earth. This new documentary film follows the trail of their amazing journey. 49:13 O men! Behold, We have created you all out of a male and a female, ["We have created every one of you out of a father and a mother" - implying that this equality of biological origin is reflected in the equality of the human dignity common to all.] 49:13 - and have made you into nations and tribes, so that you might come to know one another. [i.e. know that all belong to one human family, without any inherent superiority of one over another. This connects with the exhortation in the preceding verses to respect and safeguard each other's dignity. In other words, our evolution into "nations and tribes" is meant to foster rather than to diminish our mutual desire to understand and appreciate the essential human oneness underlying our outward differentiations; and, correspondingly, all racial, national or tribal prejudice ('as abiyyah) is condemned - implicitly in the Quran - and most explicitly by the Prophet. Speaking of people's boasting of their national or tribal past, the Prophet said: "Behold, God has removed from you the arrogance of pagan ignorance (jahiliyyah) with its boast of ancestral glories. Man is but a God-conscious believer or an unfortunate sinner. All people are children of Adam, and Adam was created out of dust." (Fragment of a hadith quoted by Tirmidhi and Abu Dawud, on the authority of Abu Hurayrah.) 28:15 And one day he entered the city at a time when most of its people were resting in their houses, unaware of what was going on in the streets; and there he encountered two men fighting with one another - one of his own people, and the other of his enemies. And the one who belonged to his own people cried out to him for help against him who was of his enemies - whereupon Moses struck him down with his fist, and thus brought about his end. But then he said to himself: "This is of Satan's doing! Verily, he is an open foe, leading [man] astray!" [These verses seem to indicate that it was the Israelite, and not the Egyptian, who had been in the wrong. Apparently, Moses had come to the assistance of the Israelite out of an instinctive sense of racial kinship without regard to the rights and wrongs of the case; but immediately afterwards he realized that he had committed a grave sin not only by killing, however inadvertently, an innocent person, but also by basing his action on a mere tribal - or, as we would describe it today, racial or national prejudice. Evidently, this is the lesson of the above Quranic segment of the story of Moses. Its moral has been stressed and explained by the Prophet on many occasions: his famous saying: "He is not of us who proclaims the cause of tribal partisanship (asabiyyah); and he is not of us who fights in the cause of tribal partisanship; and he is not of us who dies in the cause of tribal partisanship" (Abu Dawud, on the authority of Jubayr ibn Mut'im). When he was asked to explain the meaning of "tribal partisanship", the Prophet answered, "It means helping thine own people in an unjust cause" https://asadullahali.files.wordpress.com/2010/09/the-message-of-the-quran.pdf -
Mendel - From the Garden to the Genome
Film biography of Gregor Mendel (1822-1884), the Moravian monk who became the father of modern genetics through his study of pea plants. One of a series of medical history films by J. Lee Sedwick, M.D., F.A.C.S., Clinical Professor of Surgery, East Carolina University, and Larry Gardner, President of Digifonics, Inc. -
6. Genome Assembly
MIT 7.91J Foundations of Computational and Systems Biology, Spring 2014 View the complete course: http://ocw.mit.edu/7-91JS14 Instructor: David Gifford Prof. Gifford talks about two different ways to assemble a genome de novo. The first approach is overlap layout consensus assemblers, as exemplified by string graph assemblers. The second approach is de Bruijn graph-based assemblers. License: Creative Commons BY-NC-SA More information at http://ocw.mit.edu/terms More courses at http://ocw.mit.edu -
Eukaryotic genome organization 1 | chromosome, nucleosome
This eukaryotic genome organization lecture explains about nucleosome and eukaryotic chromosome. For more info log on to- http://www.shomusbiology.com Get the video materials (powerpoint/ script) here- http://www.shomusbiology.com/bio-materials -
CRISPR-Cas genome surveillance: From basic biology to transformative technology
CRISPR-Cas genome surveillance: From basic biology to transformative technology Air date: Wednesday, March 11, 2015, 3:00:00 PM Category: WALS - Wednesday Afternoon Lectures Runtime: 01:05:13 Description: Wednesday Afternoon Lecture Series Margaret Pittman Lecture Dr. Doudna, who specializes in the study of RNA, will present a brief history of the bacterial RNA-guided CRISPR biology from its initial discovery through the elucidation of the CRISPR-Cas9 enzyme mechanism. Using CRISPR-Cas "clustered regularly interspaced short palindromic repeats" technology provides the foundation for remarkable developments in modifying, regulating, or marking genomic loci in a wide variety of cells and organisms. These results highlight a new era in which genomic manipulation is no longer a bottleneck to experiments, paving the way to fundamental discoveries in biology with applications in all branches of biotechnology, and strategies for human therapeutics. Dr. Doudna will discuss recent findings regarding the molecular mechanism of Cas9 and its use for targeted cell-based therapies. About the annual Margaret Pittman Lecture: This annual lecture honors Dr. Margaret Pittman, NIH’s first female lab chief, who made significant contributions to microbiology and vaccine development, particularly in the areas of pertussis and tetanus, during her long career at the National Institute of Allergy and Infectious Diseases. For more information go to http://wals.od.nih.gov Author: Jennifer Doudna, Ph.D., Li Ka Shing Chancellor's Chair in Biomedical Sciences and Professor, Department of Molecular and Cell Biology and Department of Chemistry at the University of California, Berkeley; Investigator, Howard Hughes Medical Institute Permanent link: http://videocast.nih.gov/launch.asp?18890 -
Titus Brown - How to interpret your own genome using (mostly) Python. - PyCon 2015
"Speaker: Titus Brown We’ve entered the era of the $1000 human genome, and soon it will be straightforward to get your own genome sequenced by a commercial company. But what does the data mean? What information can you get out of your genomic sequence? And what are the barriers to deeper analysis? What kinds of algorithms and databases are used in genomic analysis? All this, and more, will be revealed in this talk. Slides can be found at: https://speakerdeck.com/pycon2015 and https://github.com/PyCon/2015-slides" -
Human Genome Announcement at the White House (2000)
On June 26, 2000, the Human Genome Project (HGP) public consortium announced, in a briefing at the White House, that it assembled a working draft of the sequence of the human genome. Remarks made by Bill Clinton, Tony Blair (via satellite), Francis Collins, and Craig Venter. Transcript: http://www.genome.gov/10001356 Press Release: http://www.genome.gov/10001457 -
Prof. Eric Lander Secrets of the Human Genome I Biology - Technion Lecture
"Secrets of the Human Genome I - Biology" by Prof. Eric S. Lander at Technion-Israel Institute of Technology. April 30, 2013 Prof. Lander is the 2012 Harvey Prize Laureate In Human Health. -
The Human Genome Project
The goal of the Human Genome Project was to decipher all of the genes in the human species. It was achieved in 2001. This program takes you inside an automated gene sequencing laboratory where some of the HGP was done. Controversial ethical issues are also addressed -
The Multi-dimensional Genome--impossible for Darwinism to account for-- by Dr Robert Carter.mp4
The human genome is an incredibly complex computer program that operates in at least four dimensions. This includes the 1-D linear string of DNA, the 2-D interactions between different parts of the 1-D string, the 3-D conformation of the DNA in the nucleus, and the changes to the 1st, 2nd and 3rd dimensions over time (making the genome 4-D). The complexity of the genome was not predicted by evolutionary theorists and their resistance to an increased understanding of this complexity has hindered scientific advancement. Not only that, but the level of complexity, even as currently understood, is extremely difficult for evolution to explain, and our knowledge of this complexity is increasing daily. In The Origin of Species, Darwin famously said, "If it could be demonstrated that any complex organ existed, which could not possibly have been formed by numerous, successive, slight modifications, my theory would absolutely break down." My challenge to the evolutionist is to explain the origin of the genome using a workable scenario that includes the source of informational changes, an account of the amount of mutation necessary, and a description of the selective forces necessary, all within the proper time frame. I claim the genome could not have arisen through naturalistic processes and, therefore, Darwin's theory absolutely breaks down. Presented by Dr Robert Carter Dr. Carter also deals with the claim that humans and chimps are 99% identical, the myth of the 1%(starting near ~33:00). The facts are that: --Chimp genomes are 13% larger. --6.4% of our genes are not shared (689 extra genes in humans) --There are 35 million base pair changes --Chimp Y chromosome only 70% --tens of thousands of rearrangements See also these articles: New Human-Chimp Chromosome 2 Data Challenge Common Ancestry Claims by Jeffrey Tomkins, Ph.D. (Tomkins is a Research Associate and received his Ph.D. in Genetics from Clemson University. He published another article on this topic "Telomeres: implications for aging and evidence for intelligent design") http://www.icr.org/article/new-human-chimp-chromosome-2-data-challenge/ Dr http://scienceray.com/biology/chromosome-two-fusion-no-proof-for-evolution/ http://www.ideacenter.org/contentmgr/showdetails.php/id/1392 -
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The Noncoding Genome: Finding Treasures in our Junk DNA
The sequencing of the human genome provided a template with encrypted sequences within that are the code for life. The genome sequence has allowed us to map which regions of our genome associated with human disease. Surprisingly, the efforts to map human genetic diversity have pointed to many regions of DNA previously considered "junk DNA" as critical for human health. Junk DNA comprises approximately 95% of our genome that doesn't encode for protein genes that have been the predominant focus of modern medicine. Yet more recently profound new clues to human health and disease have arisen from the junk DNA. Here we will discuss the biological treasures that have been identified in the noncoding genome in a historical context. John L. Rinn is an assistant professor of Stem Cell and Regenerative Biology at Harvard University and Medical School and Senior Associate Member of the Broad Institute. -
Ancestral ghosts in your genome | Michael Skinner | TEDxRainier
This talk was given at a local TEDx event, produced independently of the TED Conferences. This fascinating and consequential talk shares research that is changing and expanding what we know about genomics to include the factors that are collectively known as epigenetics. These factors show a form of biological inheritance that is new to our theories of evolution and is shifting the understanding of how our environments influence the genes of future generations. Michael Skinner’s research has demonstrated that environmental toxicants promote epigenetic transgenerational inheritance of adult onset diseases. This non-genetic form of inheritance has a role in disease etiology and areas such as evolution. Skinner established the Washington State University and University of Idaho Center for Reproductive Biology (CRB), one of the world's largest reproductive sciences research centers. Dr. Skinner also established and was the founding Director of the Center for Integrated Biotechnology (CIB). His research has been highlighted in BBC, Smithsonian, and PBS documentaries. About TEDx, x = independently organized event In the spirit of ideas worth spreading, TEDx is a program of local, self-organized events that bring people together to share a TED-like experience. At a TEDx event, TEDTalks video and live speakers combine to spark deep discussion and connection in a small group. These local, self-organized events are branded TEDx, where x = independently organized TED event. The TED Conference provides general guidance for the TEDx program, but individual TEDx events are self-organized.* (*Subject to certain rules and regulations) -
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PROJECT CAMELOT : SECRETS BEHIND THE HUMAN GENOME PROJECT
A PRELIMINARY INVESTIGATION INTO THE CLAIMS OF CYNTHIA MARIE BREWER Cynthia Marie Brewer claims her DNA was taken and used as the original fully sequenced DNA for the Human Genome Project against her will. From there on her story, if she is to be believed, has tentacles in nearly every aspect of human endeavor on the planet. Ultimately the trail leads to the purpose behind the Illuminati obsession with bloodlines and the emphasis they have on blending what is called in occult circles "the red" with "the black". This involves the "red" being blue-eyed redheads who descend from the Neanderthal... and have a tendency to be non-violent and more empathetic as well has having a proclivity for telepathy (see Graham Hancock's recent book "Entangled" for more on this)... What are called "blacks" in occult cirlces -- are the blond haired, or other hair color, with blue/green eyes of Celtic descendants from the Anunnaki bloodline, who tend to be more aggressive, highly intelligent, ruler of people also with psychic sensitivity.. (also known as the Illuminati bloodline). From there on it gets wildly convoluted. Listen to this preliminary investigation into the secrets regarding the sequencing of human DNA and to where it may lead.... The Definition according to Wikipedia: The Human Genome Project (HGP) is an international scientific research project with a primary goal of determining the sequence of chemical base pairs which make up DNA, and of identifying and mapping the approximately 20,000--25,000 genes of the human genome from both a physical and functional standpoint. --- Wikipedia Additional note: Some of you may remember when Benjamin Fulford went into the hospital for a spinal operation. What they discovered at the base of his spine sounds like a very similar kind of 'creature' or chimera (see Rense.com article re Benjamin Fulford's "creature") to the one that Cynthia Brewer refers to in this audio interview. Once they removed it, Benjamin asked to have the photos of it. All evidence of it disappeared from the hospital. Considering Benjamin is also from an illuminati bloodline this follows along with the same idea as mentioned here. That is, that these implanted organisms take on the genetics of the host and then are removed and used in genetic experiments and possibly future cloning procedures. Kerry Cassidy Project Camelot July 18, 2011 http://projectcamelotproductions.com/interviews/cynthiamariebrewer/cynthia_brewer.html
Genome sequencing
- Order: Reorder
- Duration: 30:16
- Updated: 11 Dec 2013
- views: 8845
This genomics tutorial explains different methods of human genome sequencing like bac to bac sequencing and shotgun sequencing and the application of genome seq...
This genomics tutorial explains different methods of human genome sequencing like bac to bac sequencing and shotgun sequencing and the application of genome sequencing.
For more information, log on to-
http://shomusbiology.weebly.com/
Download the study materials here-
http://shomusbiology.weebly.com/bio-materials.html
wn.com/Genome Sequencing
This genomics tutorial explains different methods of human genome sequencing like bac to bac sequencing and shotgun sequencing and the application of genome sequencing.
For more information, log on to-
http://shomusbiology.weebly.com/
Download the study materials here-
http://shomusbiology.weebly.com/bio-materials.html
- published: 11 Dec 2013
- views: 8845
Introduction to genome assembly
- Order: Reorder
- Duration: 32:57
- Updated: 24 Mar 2015
- views: 812
Broad overview of genome assembly
Broad overview of genome assembly
wn.com/Introduction To Genome Assembly
Destiny and DNA: Our Pliable Genome
- Order: Reorder
- Duration: 84:33
- Updated: 31 Oct 2014
- views: 12603
Our genes strictly dictate our personalities, appearance and diseases. Or do they? Research has revealed that genes can turn on and off; they can be expressed f...
Our genes strictly dictate our personalities, appearance and diseases. Or do they? Research has revealed that genes can turn on and off; they can be expressed for years and then silenced. Sometimes, they are never activated. And these genetic instructions—how and when DNA is read—can be determined by the experiences of one’s ancestors, even those several generations back. Epigenetics studies these instructions, the biological markers along our DNA that regulate gene expression in response to features like age or environment, and which can influence the traits we pass onto our children. Glimpse into the future with scientists at the forefront of this emerging field as they reveal the role our genetic markers play in steering our biological destiny.
Subscribe to our YouTube Channel for all the latest from WSF.
Visit our Website: http://www.worldsciencefestival.com/
Like us on Facebook: https://www.facebook.com/worldscience...
Follow us on twitter: https://twitter.com/WorldSciFest
PARTICIPANTS: Frances A. Champagne, Randy L. Jirtle, Jean-Pierre Issa
Original Program Date: June 1, 2013
Bill Blakemore's Introduction. 00:06
Participant Introductions. 1:55
A brief history of Epigenetics. 3:16
What is Epigenetics? 4:30
Can your DNA be effected by the natural world? 6:05
Why do identical twins end up being different people? 9:17
The mechanics of the physical genome. 14:05
Humans wouldn't be here without variation. 18:35
Three breakthrough studies. 21:41
What is cold mother syndrome? 33:30
The measuring of Epigenetics. 41:05
What are the risks to treat neurological disorders with Epigenetics? 47:24
Is there any denial to the insights of Epigenetics? 53:44
Will we sue our genealogical past? 59:30
The eugenics movement today. 1:05:50
Will there be pills that can change our DNA? 1:10:00
Can this therapy revert metastasis process? 1:15:14
Does what extent does bacteria in the body effect metastasis?1:15:55
What is the effect of culture on Epigenetics? 1:18:49
wn.com/Destiny And Dna Our Pliable Genome
Our genes strictly dictate our personalities, appearance and diseases. Or do they? Research has revealed that genes can turn on and off; they can be expressed for years and then silenced. Sometimes, they are never activated. And these genetic instructions—how and when DNA is read—can be determined by the experiences of one’s ancestors, even those several generations back. Epigenetics studies these instructions, the biological markers along our DNA that regulate gene expression in response to features like age or environment, and which can influence the traits we pass onto our children. Glimpse into the future with scientists at the forefront of this emerging field as they reveal the role our genetic markers play in steering our biological destiny.
Subscribe to our YouTube Channel for all the latest from WSF.
Visit our Website: http://www.worldsciencefestival.com/
Like us on Facebook: https://www.facebook.com/worldscience...
Follow us on twitter: https://twitter.com/WorldSciFest
PARTICIPANTS: Frances A. Champagne, Randy L. Jirtle, Jean-Pierre Issa
Original Program Date: June 1, 2013
Bill Blakemore's Introduction. 00:06
Participant Introductions. 1:55
A brief history of Epigenetics. 3:16
What is Epigenetics? 4:30
Can your DNA be effected by the natural world? 6:05
Why do identical twins end up being different people? 9:17
The mechanics of the physical genome. 14:05
Humans wouldn't be here without variation. 18:35
Three breakthrough studies. 21:41
What is cold mother syndrome? 33:30
The measuring of Epigenetics. 41:05
What are the risks to treat neurological disorders with Epigenetics? 47:24
Is there any denial to the insights of Epigenetics? 53:44
Will we sue our genealogical past? 59:30
The eugenics movement today. 1:05:50
Will there be pills that can change our DNA? 1:10:00
Can this therapy revert metastasis process? 1:15:14
Does what extent does bacteria in the body effect metastasis?1:15:55
What is the effect of culture on Epigenetics? 1:18:49
- published: 31 Oct 2014
- views: 12603
DNA Genesis - Scientific Adam - National Geographic Documentary Films - Full HD Documentaries 2015
- Order: Reorder
- Duration: 71:17
- Updated: 23 Jan 2015
- views: 38582
This new documentary film from National Geographic explains the Human Genome Project. Studies of the genetic markers within our DNA have uncovered the true stor...
This new documentary film from National Geographic explains the Human Genome Project. Studies of the genetic markers within our DNA have uncovered the true story of our ancestry. Every human being alive on the planet today is descended from a single father and mother. Our ancient parents lived about 50,000 years ago in East Africa and their arrival signalled a new chapter in the planets history. Endowed with the power of conceptual thought - they would quickly multiply and spread to dominate all corners of the planet, developing the skills and technology necessary to thrive in every environment on earth. This new documentary film follows the trail of their amazing journey.
49:13 O men! Behold, We have created you all out of a male and a female,
["We have created every one of you out of a father and a mother" - implying that this equality of biological origin is reflected in the equality of the human dignity common to all.]
49:13 - and have made you into nations and tribes, so that you might come to know one another.
[i.e. know that all belong to one human family, without any inherent superiority of one over another. This connects with the exhortation in the preceding verses to respect and safeguard each other's dignity. In other words, our evolution into "nations and tribes" is meant to foster rather than to diminish our mutual desire to understand and appreciate the essential human oneness underlying our outward differentiations; and, correspondingly, all racial, national or tribal prejudice ('as abiyyah) is condemned - implicitly in the Quran - and most explicitly by the Prophet. Speaking of people's boasting of their national or tribal past, the Prophet said:
"Behold, God has removed from you the arrogance of pagan ignorance (jahiliyyah) with its boast of ancestral glories. Man is but a God-conscious believer or an unfortunate sinner. All people are children of Adam, and Adam was created out of dust." (Fragment of a hadith quoted by Tirmidhi and Abu Dawud, on the authority of Abu Hurayrah.)
28:15 And one day he entered the city at a time when most of its people were resting in their houses, unaware of what was going on in the streets; and there he encountered two men fighting with one another - one of his own people, and the other of his enemies. And the one who belonged to his own people cried out to him for help against him who was of his enemies - whereupon Moses struck him down with his fist, and thus brought about his end. But then he said to himself: "This is of Satan's doing! Verily, he is an open foe, leading [man] astray!"
[These verses seem to indicate that it was the Israelite, and not the Egyptian, who had been in the wrong. Apparently, Moses had come to the assistance of the Israelite out of an instinctive sense of racial kinship without regard to the rights and wrongs of the case; but immediately afterwards he realized that he had committed a grave sin not only by killing, however inadvertently, an innocent person, but also by basing his action on a mere tribal - or, as we would describe it today, racial or national prejudice. Evidently, this is the lesson of the above Quranic segment of the story of Moses. Its moral has been stressed and explained by the Prophet on many occasions: his famous saying:
"He is not of us who proclaims the cause of tribal partisanship (asabiyyah); and he is not of us who fights in the cause of tribal partisanship; and he is not of us who dies in the cause of tribal partisanship" (Abu Dawud, on the authority of Jubayr ibn Mut'im). When he was asked to explain the meaning of "tribal partisanship", the Prophet answered, "It means helping thine own people in an unjust cause"
https://asadullahali.files.wordpress.com/2010/09/the-message-of-the-quran.pdf
wn.com/Dna Genesis Scientific Adam National Geographic Documentary Films Full Hd Documentaries 2015
This new documentary film from National Geographic explains the Human Genome Project. Studies of the genetic markers within our DNA have uncovered the true story of our ancestry. Every human being alive on the planet today is descended from a single father and mother. Our ancient parents lived about 50,000 years ago in East Africa and their arrival signalled a new chapter in the planets history. Endowed with the power of conceptual thought - they would quickly multiply and spread to dominate all corners of the planet, developing the skills and technology necessary to thrive in every environment on earth. This new documentary film follows the trail of their amazing journey.
49:13 O men! Behold, We have created you all out of a male and a female,
["We have created every one of you out of a father and a mother" - implying that this equality of biological origin is reflected in the equality of the human dignity common to all.]
49:13 - and have made you into nations and tribes, so that you might come to know one another.
[i.e. know that all belong to one human family, without any inherent superiority of one over another. This connects with the exhortation in the preceding verses to respect and safeguard each other's dignity. In other words, our evolution into "nations and tribes" is meant to foster rather than to diminish our mutual desire to understand and appreciate the essential human oneness underlying our outward differentiations; and, correspondingly, all racial, national or tribal prejudice ('as abiyyah) is condemned - implicitly in the Quran - and most explicitly by the Prophet. Speaking of people's boasting of their national or tribal past, the Prophet said:
"Behold, God has removed from you the arrogance of pagan ignorance (jahiliyyah) with its boast of ancestral glories. Man is but a God-conscious believer or an unfortunate sinner. All people are children of Adam, and Adam was created out of dust." (Fragment of a hadith quoted by Tirmidhi and Abu Dawud, on the authority of Abu Hurayrah.)
28:15 And one day he entered the city at a time when most of its people were resting in their houses, unaware of what was going on in the streets; and there he encountered two men fighting with one another - one of his own people, and the other of his enemies. And the one who belonged to his own people cried out to him for help against him who was of his enemies - whereupon Moses struck him down with his fist, and thus brought about his end. But then he said to himself: "This is of Satan's doing! Verily, he is an open foe, leading [man] astray!"
[These verses seem to indicate that it was the Israelite, and not the Egyptian, who had been in the wrong. Apparently, Moses had come to the assistance of the Israelite out of an instinctive sense of racial kinship without regard to the rights and wrongs of the case; but immediately afterwards he realized that he had committed a grave sin not only by killing, however inadvertently, an innocent person, but also by basing his action on a mere tribal - or, as we would describe it today, racial or national prejudice. Evidently, this is the lesson of the above Quranic segment of the story of Moses. Its moral has been stressed and explained by the Prophet on many occasions: his famous saying:
"He is not of us who proclaims the cause of tribal partisanship (asabiyyah); and he is not of us who fights in the cause of tribal partisanship; and he is not of us who dies in the cause of tribal partisanship" (Abu Dawud, on the authority of Jubayr ibn Mut'im). When he was asked to explain the meaning of "tribal partisanship", the Prophet answered, "It means helping thine own people in an unjust cause"
https://asadullahali.files.wordpress.com/2010/09/the-message-of-the-quran.pdf
- published: 23 Jan 2015
- views: 38582
Mendel - From the Garden to the Genome
- Order: Reorder
- Duration: 30:24
- Updated: 26 Apr 2007
- views: 132083
Film biography of Gregor Mendel (1822-1884), the Moravian monk who became the father of modern genetics through his study of pea plants. One of a series of me...
Film biography of Gregor Mendel (1822-1884), the Moravian monk who became the father of modern genetics through his study of pea plants. One of a series of medical history films by J. Lee Sedwick, M.D., F.A.C.S., Clinical Professor of Surgery, East Carolina University, and Larry Gardner, President of Digifonics, Inc.
wn.com/Mendel From The Garden To The Genome
Film biography of Gregor Mendel (1822-1884), the Moravian monk who became the father of modern genetics through his study of pea plants. One of a series of medical history films by J. Lee Sedwick, M.D., F.A.C.S., Clinical Professor of Surgery, East Carolina University, and Larry Gardner, President of Digifonics, Inc.
- published: 26 Apr 2007
- views: 132083
6. Genome Assembly
- Order: Reorder
- Duration: 68:14
- Updated: 20 Jan 2015
- views: 5066
MIT 7.91J Foundations of Computational and Systems Biology, Spring 2014
View the complete course: http://ocw.mit.edu/7-91JS14
Instructor: David Gifford
Prof. G...
MIT 7.91J Foundations of Computational and Systems Biology, Spring 2014
View the complete course: http://ocw.mit.edu/7-91JS14
Instructor: David Gifford
Prof. Gifford talks about two different ways to assemble a genome de novo. The first approach is overlap layout consensus assemblers, as exemplified by string graph assemblers. The second approach is de Bruijn graph-based assemblers.
License: Creative Commons BY-NC-SA
More information at http://ocw.mit.edu/terms
More courses at http://ocw.mit.edu
wn.com/6. Genome Assembly
MIT 7.91J Foundations of Computational and Systems Biology, Spring 2014
View the complete course: http://ocw.mit.edu/7-91JS14
Instructor: David Gifford
Prof. Gifford talks about two different ways to assemble a genome de novo. The first approach is overlap layout consensus assemblers, as exemplified by string graph assemblers. The second approach is de Bruijn graph-based assemblers.
License: Creative Commons BY-NC-SA
More information at http://ocw.mit.edu/terms
More courses at http://ocw.mit.edu
- published: 20 Jan 2015
- views: 5066
Eukaryotic genome organization 1 | chromosome, nucleosome
- Order: Reorder
- Duration: 20:25
- Updated: 04 Jul 2012
- views: 9035
This eukaryotic genome organization lecture explains about nucleosome and eukaryotic chromosome.
For more info log on to-
http://www.shomusbiology.com
Get the ...
This eukaryotic genome organization lecture explains about nucleosome and eukaryotic chromosome.
For more info log on to-
http://www.shomusbiology.com
Get the video materials (powerpoint/ script) here-
http://www.shomusbiology.com/bio-materials
wn.com/Eukaryotic Genome Organization 1 | Chromosome, Nucleosome
This eukaryotic genome organization lecture explains about nucleosome and eukaryotic chromosome.
For more info log on to-
http://www.shomusbiology.com
Get the video materials (powerpoint/ script) here-
http://www.shomusbiology.com/bio-materials
- published: 04 Jul 2012
- views: 9035
CRISPR-Cas genome surveillance: From basic biology to transformative technology
- Order: Reorder
- Duration: 65:13
- Updated: 16 Mar 2015
- views: 4187
CRISPR-Cas genome surveillance: From basic biology to transformative technology
Air date: Wednesday, March 11, 2015, 3:00:00 PM
Category: WALS - Wednesday Aft...
CRISPR-Cas genome surveillance: From basic biology to transformative technology
Air date: Wednesday, March 11, 2015, 3:00:00 PM
Category: WALS - Wednesday Afternoon Lectures
Runtime: 01:05:13
Description: Wednesday Afternoon Lecture Series
Margaret Pittman Lecture
Dr. Doudna, who specializes in the study of RNA, will present a brief history of the bacterial RNA-guided CRISPR biology from its initial discovery through the elucidation of the CRISPR-Cas9 enzyme mechanism. Using CRISPR-Cas "clustered regularly interspaced short palindromic repeats" technology provides the foundation for remarkable developments in modifying, regulating, or marking genomic loci in a wide variety of cells and organisms. These results highlight a new era in which genomic manipulation is no longer a bottleneck to experiments, paving the way to fundamental discoveries in biology with applications in all branches of biotechnology, and strategies for human therapeutics. Dr. Doudna will discuss recent findings regarding the molecular mechanism of Cas9 and its use for targeted cell-based therapies.
About the annual Margaret Pittman Lecture:
This annual lecture honors Dr. Margaret Pittman, NIH’s first female lab chief, who made significant contributions to microbiology and vaccine development, particularly in the areas of pertussis and tetanus, during her long career at the National Institute of Allergy and Infectious Diseases.
For more information go to http://wals.od.nih.gov
Author: Jennifer Doudna, Ph.D., Li Ka Shing Chancellor's Chair in Biomedical Sciences and Professor, Department of Molecular and Cell Biology and Department of Chemistry at the University of California, Berkeley; Investigator, Howard Hughes Medical Institute
Permanent link: http://videocast.nih.gov/launch.asp?18890
wn.com/Crispr Cas Genome Surveillance From Basic Biology To Transformative Technology
CRISPR-Cas genome surveillance: From basic biology to transformative technology
Air date: Wednesday, March 11, 2015, 3:00:00 PM
Category: WALS - Wednesday Afternoon Lectures
Runtime: 01:05:13
Description: Wednesday Afternoon Lecture Series
Margaret Pittman Lecture
Dr. Doudna, who specializes in the study of RNA, will present a brief history of the bacterial RNA-guided CRISPR biology from its initial discovery through the elucidation of the CRISPR-Cas9 enzyme mechanism. Using CRISPR-Cas "clustered regularly interspaced short palindromic repeats" technology provides the foundation for remarkable developments in modifying, regulating, or marking genomic loci in a wide variety of cells and organisms. These results highlight a new era in which genomic manipulation is no longer a bottleneck to experiments, paving the way to fundamental discoveries in biology with applications in all branches of biotechnology, and strategies for human therapeutics. Dr. Doudna will discuss recent findings regarding the molecular mechanism of Cas9 and its use for targeted cell-based therapies.
About the annual Margaret Pittman Lecture:
This annual lecture honors Dr. Margaret Pittman, NIH’s first female lab chief, who made significant contributions to microbiology and vaccine development, particularly in the areas of pertussis and tetanus, during her long career at the National Institute of Allergy and Infectious Diseases.
For more information go to http://wals.od.nih.gov
Author: Jennifer Doudna, Ph.D., Li Ka Shing Chancellor's Chair in Biomedical Sciences and Professor, Department of Molecular and Cell Biology and Department of Chemistry at the University of California, Berkeley; Investigator, Howard Hughes Medical Institute
Permanent link: http://videocast.nih.gov/launch.asp?18890
- published: 16 Mar 2015
- views: 4187
Titus Brown - How to interpret your own genome using (mostly) Python. - PyCon 2015
- Order: Reorder
- Duration: 44:42
- Updated: 11 Apr 2015
- views: 1559
"Speaker: Titus Brown
We’ve entered the era of the $1000 human genome, and soon it will be straightforward to get your own genome sequenced by a commercial com...
"Speaker: Titus Brown
We’ve entered the era of the $1000 human genome, and soon it will be straightforward to get your own genome sequenced by a commercial company. But what does the data mean? What information can you get out of your genomic sequence? And what are the barriers to deeper analysis? What kinds of algorithms and databases are used in genomic analysis? All this, and more, will be revealed in this talk.
Slides can be found at: https://speakerdeck.com/pycon2015 and https://github.com/PyCon/2015-slides"
wn.com/Titus Brown How To Interpret Your Own Genome Using (Mostly) Python. Pycon 2015
"Speaker: Titus Brown
We’ve entered the era of the $1000 human genome, and soon it will be straightforward to get your own genome sequenced by a commercial company. But what does the data mean? What information can you get out of your genomic sequence? And what are the barriers to deeper analysis? What kinds of algorithms and databases are used in genomic analysis? All this, and more, will be revealed in this talk.
Slides can be found at: https://speakerdeck.com/pycon2015 and https://github.com/PyCon/2015-slides"
- published: 11 Apr 2015
- views: 1559
Human Genome Announcement at the White House (2000)
- Order: Reorder
- Duration: 40:59
- Updated: 29 Aug 2012
- views: 8408
On June 26, 2000, the Human Genome Project (HGP) public consortium announced, in a briefing at the White House, that it assembled a working draft of the sequenc...
On June 26, 2000, the Human Genome Project (HGP) public consortium announced, in a briefing at the White House, that it assembled a working draft of the sequence of the human genome. Remarks made by Bill Clinton, Tony Blair (via satellite), Francis Collins, and Craig Venter.
Transcript: http://www.genome.gov/10001356
Press Release: http://www.genome.gov/10001457
wn.com/Human Genome Announcement At The White House (2000)
On June 26, 2000, the Human Genome Project (HGP) public consortium announced, in a briefing at the White House, that it assembled a working draft of the sequence of the human genome. Remarks made by Bill Clinton, Tony Blair (via satellite), Francis Collins, and Craig Venter.
Transcript: http://www.genome.gov/10001356
Press Release: http://www.genome.gov/10001457
- published: 29 Aug 2012
- views: 8408
Prof. Eric Lander Secrets of the Human Genome I Biology - Technion Lecture
- Order: Reorder
- Duration: 52:51
- Updated: 09 May 2013
- views: 4593
"Secrets of the Human Genome I - Biology" by Prof. Eric S. Lander at Technion-Israel Institute of Technology. April 30, 2013
Prof. Lander is the 2012 Harvey Pri...
"Secrets of the Human Genome I - Biology" by Prof. Eric S. Lander at Technion-Israel Institute of Technology. April 30, 2013
Prof. Lander is the 2012 Harvey Prize Laureate In Human Health.
wn.com/Prof. Eric Lander Secrets Of The Human Genome I Biology Technion Lecture
"Secrets of the Human Genome I - Biology" by Prof. Eric S. Lander at Technion-Israel Institute of Technology. April 30, 2013
Prof. Lander is the 2012 Harvey Prize Laureate In Human Health.
- published: 09 May 2013
- views: 4593
The Human Genome Project
- Order: Reorder
- Duration: 34:31
- Updated: 13 Mar 2015
- views: 1411
The goal of the Human Genome Project was to decipher all of the genes in the human species. It was achieved in 2001. This program takes you inside an automated ...
The goal of the Human Genome Project was to decipher all of the genes in the human species. It was achieved in 2001. This program takes you inside an automated gene sequencing laboratory where some of the HGP was done. Controversial ethical issues are also addressed
wn.com/The Human Genome Project
The goal of the Human Genome Project was to decipher all of the genes in the human species. It was achieved in 2001. This program takes you inside an automated gene sequencing laboratory where some of the HGP was done. Controversial ethical issues are also addressed
- published: 13 Mar 2015
- views: 1411
The Multi-dimensional Genome--impossible for Darwinism to account for-- by Dr Robert Carter.mp4
- Order: Reorder
- Duration: 76:24
- Updated: 02 Aug 2012
- views: 12187
The human genome is an incredibly complex computer program that operates in at least four dimensions. This includes the 1-D linear string of DNA, the 2-D intera...
The human genome is an incredibly complex computer program that operates in at least four dimensions. This includes the 1-D linear string of DNA, the 2-D interactions between different parts of the 1-D string, the 3-D conformation of the DNA in the nucleus, and the changes to the 1st, 2nd and 3rd dimensions over time (making the genome 4-D).
The complexity of the genome was not predicted by evolutionary theorists and their resistance to an increased understanding of this complexity has hindered scientific advancement. Not only that, but the level of complexity, even as currently understood, is extremely difficult for evolution to explain, and our knowledge of this complexity is increasing daily. In The Origin of Species, Darwin famously said, "If it could be demonstrated that any complex organ existed, which could not possibly have been formed by numerous, successive, slight modifications, my theory would absolutely break down."
My challenge to the evolutionist is to explain the origin of the genome using a workable scenario that includes the source of informational changes, an account of the amount of mutation necessary, and a description of the selective forces necessary, all within the proper time frame. I claim the genome could not have arisen through naturalistic processes and, therefore, Darwin's theory absolutely breaks down.
Presented by Dr Robert Carter
Dr. Carter also deals with the claim that humans and chimps are 99% identical, the myth of the 1%(starting near ~33:00). The facts are that:
--Chimp genomes are 13% larger.
--6.4% of our genes are not shared (689 extra genes in humans)
--There are 35 million base pair changes
--Chimp Y chromosome only 70%
--tens of thousands of rearrangements
See also these articles:
New Human-Chimp Chromosome 2 Data Challenge Common Ancestry Claims
by Jeffrey Tomkins, Ph.D. (Tomkins is a Research Associate and received his Ph.D. in Genetics from Clemson University. He published another article on this topic
"Telomeres: implications for aging and evidence for intelligent design")
http://www.icr.org/article/new-human-chimp-chromosome-2-data-challenge/ Dr
http://scienceray.com/biology/chromosome-two-fusion-no-proof-for-evolution/
http://www.ideacenter.org/contentmgr/showdetails.php/id/1392
wn.com/The Multi Dimensional Genome Impossible For Darwinism To Account For By Dr Robert Carter.Mp4
The human genome is an incredibly complex computer program that operates in at least four dimensions. This includes the 1-D linear string of DNA, the 2-D interactions between different parts of the 1-D string, the 3-D conformation of the DNA in the nucleus, and the changes to the 1st, 2nd and 3rd dimensions over time (making the genome 4-D).
The complexity of the genome was not predicted by evolutionary theorists and their resistance to an increased understanding of this complexity has hindered scientific advancement. Not only that, but the level of complexity, even as currently understood, is extremely difficult for evolution to explain, and our knowledge of this complexity is increasing daily. In The Origin of Species, Darwin famously said, "If it could be demonstrated that any complex organ existed, which could not possibly have been formed by numerous, successive, slight modifications, my theory would absolutely break down."
My challenge to the evolutionist is to explain the origin of the genome using a workable scenario that includes the source of informational changes, an account of the amount of mutation necessary, and a description of the selective forces necessary, all within the proper time frame. I claim the genome could not have arisen through naturalistic processes and, therefore, Darwin's theory absolutely breaks down.
Presented by Dr Robert Carter
Dr. Carter also deals with the claim that humans and chimps are 99% identical, the myth of the 1%(starting near ~33:00). The facts are that:
--Chimp genomes are 13% larger.
--6.4% of our genes are not shared (689 extra genes in humans)
--There are 35 million base pair changes
--Chimp Y chromosome only 70%
--tens of thousands of rearrangements
See also these articles:
New Human-Chimp Chromosome 2 Data Challenge Common Ancestry Claims
by Jeffrey Tomkins, Ph.D. (Tomkins is a Research Associate and received his Ph.D. in Genetics from Clemson University. He published another article on this topic
"Telomeres: implications for aging and evidence for intelligent design")
http://www.icr.org/article/new-human-chimp-chromosome-2-data-challenge/ Dr
http://scienceray.com/biology/chromosome-two-fusion-no-proof-for-evolution/
http://www.ideacenter.org/contentmgr/showdetails.php/id/1392
- published: 02 Aug 2012
- views: 12187
15 Genome structure of virus
- Order: Reorder
- Duration: 23:23
- Updated: 15 Mar 2014
- views: 1466
This virology tutorial explains the genome structure of viruses and the replication process.
For more information, log on to-
http://shomusbiology.weebly.com/
D...
This virology tutorial explains the genome structure of viruses and the replication process.
For more information, log on to-
http://shomusbiology.weebly.com/
Download the study materials here-
http://shomusbiology.weebly.com/bio-materials.html
wn.com/15 Genome Structure Of Virus
The Noncoding Genome: Finding Treasures in our Junk DNA
- Order: Reorder
- Duration: 46:49
- Updated: 06 Aug 2014
- views: 7554
The sequencing of the human genome provided a template with encrypted sequences within that are the code for life. The genome sequence has allowed us to map whi...
The sequencing of the human genome provided a template with encrypted sequences within that are the code for life. The genome sequence has allowed us to map which regions of our genome associated with human disease. Surprisingly, the efforts to map human genetic diversity have pointed to many regions of DNA previously considered "junk DNA" as critical for human health. Junk DNA comprises approximately 95% of our genome that doesn't encode for protein genes that have been the predominant focus of modern medicine. Yet more recently profound new clues to human health and disease have arisen from the junk DNA.
Here we will discuss the biological treasures that have been identified in the noncoding genome in a historical context.
John L. Rinn is an assistant professor of Stem Cell and Regenerative Biology at Harvard University and Medical School and Senior Associate Member of the Broad Institute.
wn.com/The Noncoding Genome Finding Treasures In Our Junk Dna
The sequencing of the human genome provided a template with encrypted sequences within that are the code for life. The genome sequence has allowed us to map which regions of our genome associated with human disease. Surprisingly, the efforts to map human genetic diversity have pointed to many regions of DNA previously considered "junk DNA" as critical for human health. Junk DNA comprises approximately 95% of our genome that doesn't encode for protein genes that have been the predominant focus of modern medicine. Yet more recently profound new clues to human health and disease have arisen from the junk DNA.
Here we will discuss the biological treasures that have been identified in the noncoding genome in a historical context.
John L. Rinn is an assistant professor of Stem Cell and Regenerative Biology at Harvard University and Medical School and Senior Associate Member of the Broad Institute.
- published: 06 Aug 2014
- views: 7554
Ancestral ghosts in your genome | Michael Skinner | TEDxRainier
- Order: Reorder
- Duration: 20:19
- Updated: 05 Jan 2015
- views: 2425
This talk was given at a local TEDx event, produced independently of the TED Conferences. This fascinating and consequential talk shares research that is changi...
This talk was given at a local TEDx event, produced independently of the TED Conferences. This fascinating and consequential talk shares research that is changing and expanding what we know about genomics to include the factors that are collectively known as epigenetics. These factors show a form of biological inheritance that is new to our theories of evolution and is shifting the understanding of how our environments influence the genes of future generations.
Michael Skinner’s research has demonstrated that environmental toxicants promote epigenetic transgenerational inheritance of adult onset diseases. This non-genetic form of inheritance has a role in disease etiology and areas such as evolution. Skinner established the Washington State University and University of Idaho Center for Reproductive Biology (CRB), one of the world's largest reproductive sciences research centers. Dr. Skinner also established and was the founding Director of the Center for Integrated Biotechnology (CIB). His research has been highlighted in BBC, Smithsonian, and PBS documentaries.
About TEDx, x = independently organized event In the spirit of ideas worth spreading, TEDx is a program of local, self-organized events that bring people together to share a TED-like experience. At a TEDx event, TEDTalks video and live speakers combine to spark deep discussion and connection in a small group. These local, self-organized events are branded TEDx, where x = independently organized TED event. The TED Conference provides general guidance for the TEDx program, but individual TEDx events are self-organized.* (*Subject to certain rules and regulations)
wn.com/Ancestral Ghosts In Your Genome | Michael Skinner | Tedxrainier
This talk was given at a local TEDx event, produced independently of the TED Conferences. This fascinating and consequential talk shares research that is changing and expanding what we know about genomics to include the factors that are collectively known as epigenetics. These factors show a form of biological inheritance that is new to our theories of evolution and is shifting the understanding of how our environments influence the genes of future generations.
Michael Skinner’s research has demonstrated that environmental toxicants promote epigenetic transgenerational inheritance of adult onset diseases. This non-genetic form of inheritance has a role in disease etiology and areas such as evolution. Skinner established the Washington State University and University of Idaho Center for Reproductive Biology (CRB), one of the world's largest reproductive sciences research centers. Dr. Skinner also established and was the founding Director of the Center for Integrated Biotechnology (CIB). His research has been highlighted in BBC, Smithsonian, and PBS documentaries.
About TEDx, x = independently organized event In the spirit of ideas worth spreading, TEDx is a program of local, self-organized events that bring people together to share a TED-like experience. At a TEDx event, TEDTalks video and live speakers combine to spark deep discussion and connection in a small group. These local, self-organized events are branded TEDx, where x = independently organized TED event. The TED Conference provides general guidance for the TEDx program, but individual TEDx events are self-organized.* (*Subject to certain rules and regulations)
- published: 05 Jan 2015
- views: 2425
Learn How to Use Genome Compiler's Essential Tools
- Order: Reorder
- Duration: 65:43
- Updated: 17 Aug 2015
- views: 278
PROJECT CAMELOT : SECRETS BEHIND THE HUMAN GENOME PROJECT
- Order: Reorder
- Duration: 65:26
- Updated: 19 Jul 2011
- views: 90826
A PRELIMINARY INVESTIGATION INTO THE CLAIMS OF CYNTHIA MARIE BREWER
Cynthia Marie Brewer claims her DNA was taken and used as the original fully sequenced DN...
A PRELIMINARY INVESTIGATION INTO THE CLAIMS OF CYNTHIA MARIE BREWER
Cynthia Marie Brewer claims her DNA was taken and used as the original fully sequenced DNA for the Human Genome Project against her will. From there on her story, if she is to be believed, has tentacles in nearly every aspect of human endeavor on the planet. Ultimately the trail leads to the purpose behind the Illuminati obsession with bloodlines and the emphasis they have on blending what is called in occult circles "the red" with "the black".
This involves the "red" being blue-eyed redheads who descend from the Neanderthal... and have a tendency to be non-violent and more empathetic as well has having a proclivity for telepathy (see Graham Hancock's recent book "Entangled" for more on this)... What are called "blacks" in occult cirlces -- are the blond haired, or other hair color, with blue/green eyes of Celtic descendants from the Anunnaki bloodline, who tend to be more aggressive, highly intelligent, ruler of people also with psychic sensitivity.. (also known as the Illuminati bloodline).
From there on it gets wildly convoluted. Listen to this preliminary investigation into the secrets regarding the sequencing of human DNA and to where it may lead....
The Definition according to Wikipedia:
The Human Genome Project (HGP) is an international scientific research project with a primary goal of determining the sequence of chemical base pairs which make up DNA, and of identifying and mapping the approximately 20,000--25,000 genes of the human genome from both a physical and functional standpoint. --- Wikipedia
Additional note: Some of you may remember when Benjamin Fulford went into the hospital for a spinal operation. What they discovered at the base of his spine sounds like a very similar kind of 'creature' or chimera (see Rense.com article re Benjamin Fulford's "creature") to the one that Cynthia Brewer refers to in this audio interview. Once they removed it, Benjamin asked to have the photos of it. All evidence of it disappeared from the hospital. Considering Benjamin is also from an illuminati bloodline this follows along with the same idea as mentioned here. That is, that these implanted organisms take on the genetics of the host and then are removed and used in genetic experiments and possibly future cloning procedures.
Kerry Cassidy
Project Camelot
July 18, 2011
http://projectcamelotproductions.com/interviews/cynthiamariebrewer/cynthia_brewer.html
wn.com/Project Camelot Secrets Behind The Human Genome Project
A PRELIMINARY INVESTIGATION INTO THE CLAIMS OF CYNTHIA MARIE BREWER
Cynthia Marie Brewer claims her DNA was taken and used as the original fully sequenced DNA for the Human Genome Project against her will. From there on her story, if she is to be believed, has tentacles in nearly every aspect of human endeavor on the planet. Ultimately the trail leads to the purpose behind the Illuminati obsession with bloodlines and the emphasis they have on blending what is called in occult circles "the red" with "the black".
This involves the "red" being blue-eyed redheads who descend from the Neanderthal... and have a tendency to be non-violent and more empathetic as well has having a proclivity for telepathy (see Graham Hancock's recent book "Entangled" for more on this)... What are called "blacks" in occult cirlces -- are the blond haired, or other hair color, with blue/green eyes of Celtic descendants from the Anunnaki bloodline, who tend to be more aggressive, highly intelligent, ruler of people also with psychic sensitivity.. (also known as the Illuminati bloodline).
From there on it gets wildly convoluted. Listen to this preliminary investigation into the secrets regarding the sequencing of human DNA and to where it may lead....
The Definition according to Wikipedia:
The Human Genome Project (HGP) is an international scientific research project with a primary goal of determining the sequence of chemical base pairs which make up DNA, and of identifying and mapping the approximately 20,000--25,000 genes of the human genome from both a physical and functional standpoint. --- Wikipedia
Additional note: Some of you may remember when Benjamin Fulford went into the hospital for a spinal operation. What they discovered at the base of his spine sounds like a very similar kind of 'creature' or chimera (see Rense.com article re Benjamin Fulford's "creature") to the one that Cynthia Brewer refers to in this audio interview. Once they removed it, Benjamin asked to have the photos of it. All evidence of it disappeared from the hospital. Considering Benjamin is also from an illuminati bloodline this follows along with the same idea as mentioned here. That is, that these implanted organisms take on the genetics of the host and then are removed and used in genetic experiments and possibly future cloning procedures.
Kerry Cassidy
Project Camelot
July 18, 2011
http://projectcamelotproductions.com/interviews/cynthiamariebrewer/cynthia_brewer.html
- published: 19 Jul 2011
- views: 90826
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5:05
How to sequence the human genome - Mark J. Kiel
View full lesson: http://ed.ted.com/lessons/how-to-sequence-the-human-genome-mark-j-kiel
...
published: 09 Dec 2013
How to sequence the human genome - Mark J. Kiel
How to sequence the human genome - Mark J. Kiel
- Report rights infringement
- published: 09 Dec 2013
- views: 175017
3:16
What is a Genome?
Using fruit flies and small plants, USC professor researches the route from genotype to ph...
published: 03 May 2010
What is a Genome?
What is a Genome?
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- published: 03 May 2010
- views: 47048
5:00
The race to sequence the human genome - Tien Nguyen
View full lesson: http://ed.ted.com/lessons/the-race-to-sequence-the-human-genome-tien-ngu...
published: 12 Oct 2015
The race to sequence the human genome - Tien Nguyen
The race to sequence the human genome - Tien Nguyen
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- published: 12 Oct 2015
- views: 113536
114:13
Genome: Unlocking Life’s Code
(Visit: http://www.uctv.tv/) Three fascinating talks on unraveling the mystery of the geno...
published: 07 Nov 2014
Genome: Unlocking Life’s Code
Genome: Unlocking Life’s Code
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- published: 07 Nov 2014
- views: 18854
3:41
The Human Genome Project, 3D Animation
A dynamic 3D computer animated video takes you "inside" for a close-up look at how we're m...
published: 17 Aug 2007
The Human Genome Project, 3D Animation
The Human Genome Project, 3D Animation
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- published: 17 Aug 2007
- views: 237879
3:34
3 Sad Surprises: The Human Genome Project
Hank tells us three surprises about human DNA which we learned because of the Human Genome...
published: 24 Jul 2012
3 Sad Surprises: The Human Genome Project
3 Sad Surprises: The Human Genome Project
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- published: 24 Jul 2012
- views: 427522
10:55
Deepcool Genome Mid Tower AIO Case Overview by Mnpctech.com
My Deepcool Genome Case Mod Project Link, http://mnpctech.com/deepcool-genome-gamerstorm-m...
published: 18 Jan 2016
Deepcool Genome Mid Tower AIO Case Overview by Mnpctech.com
Deepcool Genome Mid Tower AIO Case Overview by Mnpctech.com
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- published: 18 Jan 2016
- views: 7417
115:42
Cracking the Code Of Life | PBS Nova | 2001
This two-hour special, hosted by ABC "Nightline" correspondent Robert Krulwich, chronicles...
published: 06 Sep 2014
Cracking the Code Of Life | PBS Nova | 2001
Cracking the Code Of Life | PBS Nova | 2001
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- published: 06 Sep 2014
- views: 196257
16:12
The Secret of Our Lives: The Human Genome Project
published: 13 Oct 2013
The Secret of Our Lives: The Human Genome Project
The Secret of Our Lives: The Human Genome Project
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- published: 13 Oct 2013
- views: 48608
92:39
Cancer’s Last Stand? The Genome Solution
The deadly scourge of cancer has confounded doctors since ancient Egypt. Now, The Cancer G...
published: 12 Jan 2015
Cancer’s Last Stand? The Genome Solution
Cancer’s Last Stand? The Genome Solution
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- published: 12 Jan 2015
- views: 10498
10:41
Whole Genome Sequencing and You
This video is about whole genome sequencing. What is a genome? What are the basics of ho...
published: 08 Nov 2012
Whole Genome Sequencing and You
Whole Genome Sequencing and You
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- published: 08 Nov 2012
- views: 30763
16:42
Jennifer Doudna (UC Berkeley / HHMI): Genome Engineering with CRISPR-Cas9
http://www.ibiology.org/ibiomagazine/jennifer-doudna-genome-engineering-with-crispr-cas9-b...
published: 23 Mar 2015
Jennifer Doudna (UC Berkeley / HHMI): Genome Engineering with CRISPR-Cas9
Jennifer Doudna (UC Berkeley / HHMI): Genome Engineering with CRISPR-Cas9
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- published: 23 Mar 2015
- views: 128891
4:13
Genome Editing with CRISPR-Cas9
This animation depicts the CRISPR-Cas9 method for genome editing – a powerful new technolo...
published: 05 Nov 2014
Genome Editing with CRISPR-Cas9
Genome Editing with CRISPR-Cas9
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- published: 05 Nov 2014
- views: 410527
4:41
The Story of You: ENCODE and the human genome
Ever since a monk called Mendel started breeding pea plants we've been learning about our ...
published: 10 Sep 2012
The Story of You: ENCODE and the human genome
The Story of You: ENCODE and the human genome
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- published: 10 Sep 2012
- views: 134515
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3:08
Daidai Genome - Tsunamaru [Normal] (HR,HD,FL)
osu! bitches.
published: 23 Feb 2016
Daidai Genome - Tsunamaru [Normal] (HR,HD,FL)
Daidai Genome - Tsunamaru [Normal] (HR,HD,FL)
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- published: 23 Feb 2016
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4:41
The Story of You ENCODE and the human genome
published: 22 Feb 2016
The Story of You ENCODE and the human genome
The Story of You ENCODE and the human genome
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- published: 22 Feb 2016
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2:00
Glitter Goose | Tsunamaru - Daidai Genome [Insane] | HDDTHR 98.79% 504pp
Player: https://osu.ppy.sh/u/2580750
Map: https://osu.ppy.sh/b/519080
Skin: http://puu.sh/...
published: 22 Feb 2016
Glitter Goose | Tsunamaru - Daidai Genome [Insane] | HDDTHR 98.79% 504pp
3:40
Sweeping Review of Human Genome IDs Stroke Risk Genes
Largest Study of Its Kind Targets Debilitating and Often Fatal Ischemic Strokes
Researche...
published: 22 Feb 2016
Sweeping Review of Human Genome IDs Stroke Risk Genes
Sweeping Review of Human Genome IDs Stroke Risk Genes
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- published: 22 Feb 2016
- views: 4
61:03
Closing Genomes with Long Span NGS Reads for Research and Clinical Applications
This webinar will focus on a range of research and clinical applications enabled by improv...
published: 22 Feb 2016
Closing Genomes with Long Span NGS Reads for Research and Clinical Applications
Closing Genomes with Long Span NGS Reads for Research and Clinical Applications
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- published: 22 Feb 2016
- views: 1
43:03
Using Whole Genome Sequencing and Social Network Analysis to Track Disease
Using a novel methodology combining whole genome DNA sequencing and social network analysi...
published: 22 Feb 2016
Using Whole Genome Sequencing and Social Network Analysis to Track Disease
Using Whole Genome Sequencing and Social Network Analysis to Track Disease
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- published: 22 Feb 2016
- views: 3
47:11
Eliminate Bias in Single Cell Whole Genome Amplification with the TruePrime™ System - Sygnis Webinar
Single cell whole genome amplification using MDA (multiple displacement amplification) rel...
published: 22 Feb 2016
Eliminate Bias in Single Cell Whole Genome Amplification with the TruePrime™ System - Sygnis Webinar
Eliminate Bias in Single Cell Whole Genome Amplification with the TruePrime™ System - Sygnis Webinar
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- published: 22 Feb 2016
- views: 12
68:53
The Human Genome, Systems Biology and the Future of Medicine
Institute for Functional Medicine Annual Conference, 2015
published: 22 Feb 2016
The Human Genome, Systems Biology and the Future of Medicine
The Human Genome, Systems Biology and the Future of Medicine
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- published: 22 Feb 2016
- views: 8
0:48
Zika virus genome mapped amid new warning
Zika virus genome mapped amid new warning
published: 21 Feb 2016
Zika virus genome mapped amid new warning
Zika virus genome mapped amid new warning
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- published: 21 Feb 2016
- views: 7
17:57
IRENE CAESAR OF WAVE GENOME EVOLVE EXPO PART 1
published: 21 Feb 2016
IRENE CAESAR OF WAVE GENOME EVOLVE EXPO PART 1
IRENE CAESAR OF WAVE GENOME EVOLVE EXPO PART 1
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- published: 21 Feb 2016
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21:15
IRENE CAESAR OF WAVE GENOME EVOLVE EXPO PART 2
IRENE CAESAR OF WAVE GENOME EVOLVE EXPO PART 2
published: 21 Feb 2016
IRENE CAESAR OF WAVE GENOME EVOLVE EXPO PART 2
IRENE CAESAR OF WAVE GENOME EVOLVE EXPO PART 2
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- published: 21 Feb 2016
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0:17
STI Genome
published: 20 Feb 2016
STI Genome
STI Genome
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- published: 20 Feb 2016
- views: 18
2:14
Bio Systems: Genome Editing with engineered nucleases
This video is collected from channel Thermo Fisher Scientific. Thanks for authors.
Newest...
published: 20 Feb 2016
Bio Systems: Genome Editing with engineered nucleases
Bio Systems: Genome Editing with engineered nucleases
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30:16
Genome sequencing
This genomics tutorial explains different methods of human genome sequencing like bac to b...
published: 11 Dec 2013
Genome sequencing
Genome sequencing
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- published: 11 Dec 2013
- views: 8845
32:57
Introduction to genome assembly
Broad overview of genome assembly
published: 24 Mar 2015
Introduction to genome assembly
Introduction to genome assembly
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- published: 24 Mar 2015
- views: 812
84:33
Destiny and DNA: Our Pliable Genome
Our genes strictly dictate our personalities, appearance and diseases. Or do they? Researc...
published: 31 Oct 2014
Destiny and DNA: Our Pliable Genome
Destiny and DNA: Our Pliable Genome
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- published: 31 Oct 2014
- views: 12603
71:17
DNA Genesis - Scientific Adam - National Geographic Documentary Films - Full HD Documentaries 2015
This new documentary film from National Geographic explains the Human Genome Project. Stud...
published: 23 Jan 2015
DNA Genesis - Scientific Adam - National Geographic Documentary Films - Full HD Documentaries 2015
DNA Genesis - Scientific Adam - National Geographic Documentary Films - Full HD Documentaries 2015
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- published: 23 Jan 2015
- views: 38582
30:24
Mendel - From the Garden to the Genome
Film biography of Gregor Mendel (1822-1884), the Moravian monk who became the father of mo...
published: 26 Apr 2007
Mendel - From the Garden to the Genome
Mendel - From the Garden to the Genome
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- published: 26 Apr 2007
- views: 132083
68:14
6. Genome Assembly
MIT 7.91J Foundations of Computational and Systems Biology, Spring 2014
View the complete ...
published: 20 Jan 2015
6. Genome Assembly
6. Genome Assembly
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- published: 20 Jan 2015
- views: 5066
20:25
Eukaryotic genome organization 1 | chromosome, nucleosome
This eukaryotic genome organization lecture explains about nucleosome and eukaryotic chrom...
published: 04 Jul 2012
Eukaryotic genome organization 1 | chromosome, nucleosome
Eukaryotic genome organization 1 | chromosome, nucleosome
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- published: 04 Jul 2012
- views: 9035
65:13
CRISPR-Cas genome surveillance: From basic biology to transformative technology
CRISPR-Cas genome surveillance: From basic biology to transformative technology
Air date:...
published: 16 Mar 2015
CRISPR-Cas genome surveillance: From basic biology to transformative technology
CRISPR-Cas genome surveillance: From basic biology to transformative technology
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- published: 16 Mar 2015
- views: 4187
44:42
Titus Brown - How to interpret your own genome using (mostly) Python. - PyCon 2015
"Speaker: Titus Brown
We’ve entered the era of the $1000 human genome, and soon it will b...
published: 11 Apr 2015
Titus Brown - How to interpret your own genome using (mostly) Python. - PyCon 2015
Titus Brown - How to interpret your own genome using (mostly) Python. - PyCon 2015
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- published: 11 Apr 2015
- views: 1559
40:59
Human Genome Announcement at the White House (2000)
On June 26, 2000, the Human Genome Project (HGP) public consortium announced, in a briefin...
published: 29 Aug 2012
Human Genome Announcement at the White House (2000)
Human Genome Announcement at the White House (2000)
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- published: 29 Aug 2012
- views: 8408
52:51
Prof. Eric Lander Secrets of the Human Genome I Biology - Technion Lecture
"Secrets of the Human Genome I - Biology" by Prof. Eric S. Lander at Technion-Israel Insti...
published: 09 May 2013
Prof. Eric Lander Secrets of the Human Genome I Biology - Technion Lecture
Prof. Eric Lander Secrets of the Human Genome I Biology - Technion Lecture
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- published: 09 May 2013
- views: 4593
34:31
The Human Genome Project
The goal of the Human Genome Project was to decipher all of the genes in the human species...
published: 13 Mar 2015
The Human Genome Project
The Human Genome Project
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- published: 13 Mar 2015
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The Multi-dimensional Genome--impossible for Darwinism to account for-- by Dr Robert Carter.mp4
The human genome is an incredibly complex computer program that operates in at least four ...
published: 02 Aug 2012
The Multi-dimensional Genome--impossible for Darwinism to account for-- by Dr Robert Carter.mp4
The Multi-dimensional Genome--impossible for Darwinism to account for-- by Dr Robert Carter.mp4
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- published: 02 Aug 2012
- views: 12187
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15 Genome structure of virus
This virology tutorial explains the genome structure of viruses and the replication proces...
published: 15 Mar 2014
15 Genome structure of virus
15 Genome structure of virus
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- published: 15 Mar 2014
- views: 1466
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photo: AP / David Goldman
[VIDEO]: Tens Of Thousands Visit Website Offering Alternative To U.S. Should Trump Win
Edit WorldNews.com 22 Feb 2016
RT.com reports on the new venture. – WN.com, Jack Durschlag....
photo: AP / Carlos Osorio
Prosecutor Says Uber Driver Admitted To Fatal Shooting Spree
Edit WorldNews.com 22 Feb 2016
An Uber driver charged in the fatal shootings of six people in Michigan has admitted to carrying out the attacks, a prosecutor said Monday, The Associated Press reports. Jason Dalton waived his right against self-incrimination before making the statement to authorities, Kalamazoo County Prosecutor Jeff Getting said ... Dalton appeared in court via video to hear the charges ... The murder charges carry a mandatory life sentence ... Saturday....
photo: NASA/JPL-Caltech file
Laser-propelled spacecraft to reach Mars in 3 days?
Edit The Times of India 23 Feb 2016
WASHINGTON. NASA researchers are working on a technology that could harness the power of light and may be the key to cutting down travel time to Mars from months to as little as three days. Philip Lubin, from the University of California, Santa Barbara, is developing the 'photonic propulsion' system where lasers can propel spacecraft with giant sails to the Red Planet ... "There is no known reason why we can not do this," he said ... ....
photo: AP
U.S., Russia Agree To Syrian Ceasefire At UN, Await Warring Parties To Sign Accord By Friday
Edit WorldNews.com 22 Feb 2016photo: Creative Commons / brittanyanyon
Kesha’s legal battle with her producer Dr Luke has taken an ugly twist that has let us down severely!
Edit Bollywood Life 23 Feb 2016
Tue, February 23, 2016 10.29am IST by Aarti Iyengar. comments. Lady Gaga Makes Love With Fiancé Taylor Kinney For V Magazine. No justice! And irrespective of the sexual assault charges filed against him, the court stated that she cannot break the contract!. Popstar Kesha, who has been gone missing for a long time now has a big reason behind the missing status ... “Then came Dr. Luke’s threats....
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Feb 26, 2016 - IGF - Genome 35
Edit Sherdog 23 Feb 2016
Inoki Genome Federation on February 23, 2016. IGF - Genome 35 (Inoki Genome Federation) on 2/26/16 ... ....
Peanut had its origin in Bolivia: Icrisat scientist part of groundnut gene sequencing
Edit The Times of India 23 Feb 2016
In a scientific breakthrough that promises accelerated gene discovery and development of improved peanut (also known as groundnut) cultivars, researchers have completed high quality sequencing of the ancestral genomes of the crop ... Because its ancestors were two different species, today's peanut is a tetraploid, meaning it carries two separate genomes which are designated A and B sub-genomes....
Virtual ‘toolset’ frees researchers from IT stress (The University of Queensland)
Edit Public Technologies 23 Feb 2016
Professor David Abramson won the award for the Genomics Virtual Lab, a cloud-based analysis toolset designed to allow scientists to focus on their research rather than on information technology. 'The infrastructure we build makes genomics and biology researchers more efficient because they can focus on their science,' Professor Abramson said. 'The award is really a tribute to the work of the Genomics Virtual Lab team....
Diversigen Announces Strategic Partnership With Baylor Miraca Diversigen to offer both metagenomic/microbiome analysis and host genetics for customers interested in a broader understanding of health and disease in the whole human.
Edit PR Newswire 23 Feb 2016
23, 2016 /PRNewswire/ -- Diversigen, Inc., the leading provider of comprehensive microbiome analysis services, today announced a strategic partnership with Baylor Miraca Genetics Laboratories (BMGL), a global leader in genetic testing, to provide their customers access to a broad range of targeted genomics and metabolomics services....
When humans split from the apes (UNSW - The University of New South Wales)
Edit Public Technologies 23 Feb 2016
When it comes to studying Great Ape evolution, especially chimpanzees, we have so little to go on from the fossil record that we have no choice but reply heavily on genomic evidence. As it turns out, everything we know about chimp evolution has been garnered from their genomes ... Pan troglodytes) had its genome sequenced in 2005, while the bonobo (species.Pan paniscus) only had its genetic code fully read in 2012....
Chinese scientists decode gene sequence of imported Zika virus
Edit CNTV 23 Feb 2016
Chinese scientists have sequenced the genome of the country's first imported Zika virus on Tuesday. They got the sample from the urine of one of the three confirmed Zika patients in China ... ....
Researchers Develop Tool to Detect HIV Drug Resistance
Edit All Africa 23 Feb 2016
[GroundUp] Three-dimensional images of HIV superimposed on electron micrographs of the virus. Constructed by Stephen Fuller, Centre for Human Genomics, Oxford University and taken from front cover of Equal Treatment March 2006 ... ....
Illumina to Webcast Live Presentation at the Cowen and Company Annual Health Care Conference
Edit Stockhouse 23 Feb 2016Illumina to Webcast Live Presentation at the Cowen and Company Annual Health Care Conference (Illumina ...
Edit Public Technologies 23 Feb 2016
(Source. Illumina Inc). SAN DIEGO--(BUSINESS WIRE)--Feb. 23, 2016-- Illumina, Inc. (NASDAQ. ILMN) today announced that it will webcast the company's presentation at the Cowen and Company 36th Annual Health Care Conference in Boston, Massachusetts on March 8, 2016 ... About Illumina. Illumina is improving human health by unlocking the power of the genome ... Source ... Investors.....
Philips and Hitachi Data Systems to deliver next-generation data management solution for healthcare organization-wide access ...
Edit Public Technologies 23 Feb 2016
(Source ... Amsterdam, The Netherlands - Royal Philips (NYSE. PHG; AEX ... An even greater data explosion is on the horizon as digital pathology and genomics data storage become more widely adopted ... It is designed to be future-proof with the aim to integrate and store data coming from other sources such as EMRs, patient monitoring systems, and emerging technologies such as digital pathology and genomics ... Original Document ... (noodl. 32241641) ....
Exam Hack:Tips for HSC Chemistry and Biology
Edit DNA India 23 Feb 2016
... Photosynthesis; Respiration; Reproduction in Plants; Animal Husbandry; Circulation, Excretion and Osmoregulation; Control and Coordination; and Human Reproduction have more weight than Microbes in Human Welfare; Chromosomal Basis of Inheritance; Genetic Engineering and Genomics; Human Health and Diseases; and Organism and Environment I & II....
Bats' 'super immunity' could help humans fight deadly diseases
Edit Sydney Morning Herald 23 Feb 2016
They're easily dismissed as dirty, smelly and noisy. But it turns out bats are masters at living disease-free. And scientists say they can teach us a thing or two about fighting off some of the deadliest viruses known to humans. There is so much we can learn from bats. Michelle Baker. Take Ebola. A virtual death sentence for humans, Ebola's fatality rate is an ominous 90 per cent ... The bat genome was only sequenced in 2013 ... ... ....
First rapid detection Zika test now available through collaboration with Texas Children's Hospital and Houston Methodist Hospital
Edit PR Newswire 23 Feb 2016
HOUSTON, Feb. 23, 2016 /PRNewswire-USNewswire/ -- Collaboration between two Texas Medical Center institutions has resulted in today's release of the country's first hospital-based rapid tests for the Zika virus ... Musser,M.D., Ph.D., Chair of the Department of Pathology and Genomic Medicine at Houston Methodist Hospital and leader of the Houston Methodist test development team along with Randall J ... Jenn Jacome ... 832-824-2679 ... ....
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