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TEDxBigApple - Robert Langer - Biomaterials for the 21st Century
Robert Langer gives us a fascinating look at his research in material science and biomaterials, areas he sees that have exciting potential for innovation and will transform our society in a positive way.
Robert is considered to be a founding father of numerous scientific fields such as anti-tumor therapy, controlled drug release, and tissue engineering. He is the David H. Koch Institute Professor
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Innovative Biomaterials
Your Proven Partner for Advanced Biomaterial Solutions
For more information about Invibio and our PEEK-OPTIMA polymers please visit http://www.invibio.com and follow us on our LinkedIn page http://bit.ly/InvibioLinkedIn
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Robert S. Langer: Biomaterials for the 21st Century || Radcliffe Institute
In this lecture, Robert S. Langer, the David H. Koch Institute Professor at the Massachusetts Institute of Technology, examines the enormous impact of biomaterials and biomaterial-based drug delivery systems on human health and how these new technologies might develop and be applied in the future.
Learn more about the people and programs of the Radcliffe Institute at www.radcliffe.harvard.edu.
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Biomaterials for medical applications
The research at the GKSS Centre of Biomaterial Development in Teltow is focussed on the development of innovative, polymer-based biomaterials for medical applications. The spectrum of our product developments extends from different types of plastics that can be used in regenerative medicine and in the field of tissue engineering to active implants for minimally invasive surgery, adsorber materials
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BIOMATERIALS ENGINEERING-CAREER GUIDANCE
TOPICS TO BE STUDIED ON INTERNET IN TEXTS AND IMAGES
Biomaterials science
Medicine, biology, chemistry, tissue engineering and materials science
Heart valves
Skin repair
Biomineralization
Compatibility
Biopolymers
Polymers, ceramics or composite materials.
Autograft, allograft or xenograft used as a transplant material
Atoms, molecules, colloids, micelles
Metallurgy and mineralogy
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Polymers & Biomaterials
Students: Stephanie Hebert, Geoffrey Maynard, Abdulmajid Binshelayl, Rasheed Alfaris
Instructor: Dr. Mary C. Arico
Course Overview: Biomaterials is the study of materials and their use in medical implants, including metal, ceramics, polymers, composites, and biological biomaterials. The course includes the study of material properties and the known interactions with the body. Additionally, stu
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Robert S. Langer (MIT) Part 3: Biomaterials for Drug Delivery Systems and Tissue Engineering
http://www.ibiology.org/ibioseminars/robert-langer-part-3.html
Talk Overview:
The traditional way of taking a drug, such as a pill or injection, often results in plasma drug levels that cycle between too high and too low. To better maintain drug levels in the effective range, scientists have developed a variety of systems that release drugs at a steady rate for days or even years. In his first
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Mod-01 Lec-01 Lecture-01-Introduction to Biomaterials
Introduction to Biomaterials by Prof. Bikramjit Basu,Prof.kantesh Balani, Department of Materials & Metallurgical Engineering, IIT Kanpur. For more details on NPTEL visit http://nptel.iitm.ac.in
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Polymers as Biomaterials
Chemistry at York, First year Macromolecules project.
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dental biomaterial Rev.1
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TEDxSanJoaquin - Craig Vierra - Spider Silk: A Next Generation Biomaterial
Dr. Craig Vierra, a professor of biology at University of the Pacific, has been given the University Distinguished Faculty Award in recognition of his work as "a scientist and scholar and his dedication to students and undergraduate research." Dr. Vierra, who is also co-chairman of the Department of Biological Sciences, joined Pacific as a visiting lecturer in the fall of 1994.
His research foc
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Remoção de Implante + Enxerto de Biomaterial ( Dr Thiago Albacete Castro )
Acompanharemos neste video a remocao de um implante osseointegrado, mais a realizacao de um enxerto de biomaterial.
Dr. Thiago Albacete
www.odontoalbacete.com
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BioEngineering Insights 2009 - BioMaterials Part 1
This yearly confab provides a platform for UCSB's faculty and collaborators to showcase the science and technology at UC Santa Barbara that's making a major global impact. [Science] [Show ID: 18601]
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Ecovative Biomaterial R&D;
Ecovative is a world leader in sustainable biomaterials. We use bio-adaptation, and inspiration from nature to develop cost and performance competitive sustainable materials. www.ecovativedesign.com
-
botiss biomaterials portfolio
botiss biomaterials http://www.botiss.com (Animation by Ole Jacob)
The Berlin-based company botiss biomaterials is the second largest provider of biomaterials for oral tissue regeneration in Europe. To its comprehensive range of high-quality, clinically proven solutions count membranes for guided tissue and bone regeneration, soft tissue reconstruction, as well as a full range of bovine, allogene
-
ebm-papst Biomaterial Fan
Energy-saving fans made of "epylen" wood/plastic composite material.
The global innovation "biomaterial fan" has been developed in accordance with the toughest of industrial standards with respect to service life, durability, stability and thermal fluctuation. The new fans benefit from improved damping characteristics and are resistant to corrosion even without being painted. Features such as a
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Biomaterials & Tissue Engineering -- Advanced applications through interdisciplinary research
This film showcases the interdisciplinary teams and specialist laboratories focused on biomaterials, tissue engineering and regenerative medicine at the University. This brings together clinicians, cell biologists, material scientists and tissue engineers to work on new clinical treatments for injury and disease.
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Dental implants - Surgery : Sinus lift and bone substitute biomaterial - SEPTEMBER 2011 DRIVE CASE
"Bone substitute biomaterial 'DRIVE BONE' to the "SINUS LIFT" technique"
Surgery carried out for an implantology training course organized by ESPACE 14 - Dental Academy of Implantology
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Biomaterials and Biotechnology
Biomaterials and Biotechnology: From the Discovery of Angiogenesis Inhibitors to the Development of Drug Delivery Systems and the Foundation of Tissue Engineering
Air date: Wednesday, January 29, 2014, 3:00:00 PM
Runtime: 01:04:13
Description: Wednesday Afternoon Lecture Series
The speaker in our Wednesday Afternoon Lecture Series is Dr. Robert Langer of MIT, winner of the 2014 Breakthrough
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Engineering a new biomaterial therapy for treating heart attacks
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Graduate Student Engineering Research: Orthopedic Biomaterials
Dartmouth Ph.D. Innovation Program candidate Steve Reinitz talks about his work developing new materials to improve joint replacements in the orthopedic biomaterials laboratory under Prof. Douglas Van Citters.
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Biomaterial Implant Testing - Pentagrit, India
Impact of Bio-material on both localized tissue and all organs can be tested in Zebrafish.
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The Remarkable Properties of InstaBone Biomaterial and Bone Cement - Part 2
InstaBone(TM) is a unique biomaterial based on calcium and phosphate nanoparticles that is suitable for use as a bone void filler and bone putty and has important applications in fracture repair, vertebroplasty and tissue engineering.
This video shows InstaBone bone cement admixed with morselized bone, marrow and sterile water, creating a bone paste that is moldable, adherent and self-hardening.
TEDxBigApple - Robert Langer - Biomaterials for the 21st Century
Robert Langer gives us a fascinating look at his research in material science and biomaterials, areas he sees that have exciting potential for innovation and wi...
Robert Langer gives us a fascinating look at his research in material science and biomaterials, areas he sees that have exciting potential for innovation and will transform our society in a positive way.
Robert is considered to be a founding father of numerous scientific fields such as anti-tumor therapy, controlled drug release, and tissue engineering. He is the David H. Koch Institute Professor at MIT and has received over 200 awards including the 2006 US National Medal of Science; the 2008 Millennium Prize; and the 2012 Priestley Medal. Dr. Langer has written nearly 1,130 articles, has nearly 800 issued and pending patents, and is known as the most cited engineer in history.
About TEDx, x=independently organize 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/Tedxbigapple Robert Langer Biomaterials For The 21St Century
Robert Langer gives us a fascinating look at his research in material science and biomaterials, areas he sees that have exciting potential for innovation and will transform our society in a positive way.
Robert is considered to be a founding father of numerous scientific fields such as anti-tumor therapy, controlled drug release, and tissue engineering. He is the David H. Koch Institute Professor at MIT and has received over 200 awards including the 2006 US National Medal of Science; the 2008 Millennium Prize; and the 2012 Priestley Medal. Dr. Langer has written nearly 1,130 articles, has nearly 800 issued and pending patents, and is known as the most cited engineer in history.
About TEDx, x=independently organize 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: 02 Mar 2012
- views: 26461
Innovative Biomaterials
Your Proven Partner for Advanced Biomaterial Solutions
For more information about Invibio and our PEEK-OPTIMA polymers please visit http://www.invibio.com and ...
Your Proven Partner for Advanced Biomaterial Solutions
For more information about Invibio and our PEEK-OPTIMA polymers please visit http://www.invibio.com and follow us on our LinkedIn page http://bit.ly/InvibioLinkedIn
wn.com/Innovative Biomaterials
Your Proven Partner for Advanced Biomaterial Solutions
For more information about Invibio and our PEEK-OPTIMA polymers please visit http://www.invibio.com and follow us on our LinkedIn page http://bit.ly/InvibioLinkedIn
- published: 05 Jul 2012
- views: 3819
Robert S. Langer: Biomaterials for the 21st Century || Radcliffe Institute
In this lecture, Robert S. Langer, the David H. Koch Institute Professor at the Massachusetts Institute of Technology, examines the enormous impact of biomateri...
In this lecture, Robert S. Langer, the David H. Koch Institute Professor at the Massachusetts Institute of Technology, examines the enormous impact of biomaterials and biomaterial-based drug delivery systems on human health and how these new technologies might develop and be applied in the future.
Learn more about the people and programs of the Radcliffe Institute at www.radcliffe.harvard.edu.
wn.com/Robert S. Langer Biomaterials For The 21St Century || Radcliffe Institute
In this lecture, Robert S. Langer, the David H. Koch Institute Professor at the Massachusetts Institute of Technology, examines the enormous impact of biomaterials and biomaterial-based drug delivery systems on human health and how these new technologies might develop and be applied in the future.
Learn more about the people and programs of the Radcliffe Institute at www.radcliffe.harvard.edu.
- published: 04 Feb 2014
- views: 8875
Biomaterials for medical applications
The research at the GKSS Centre of Biomaterial Development in Teltow is focussed on the development of innovative, polymer-based biomaterials for medical applic...
The research at the GKSS Centre of Biomaterial Development in Teltow is focussed on the development of innovative, polymer-based biomaterials for medical applications. The spectrum of our product developments extends from different types of plastics that can be used in regenerative medicine and in the field of tissue engineering to active implants for minimally invasive surgery, adsorber materials for filter systems, apheresis or other detoxification processes for use on bodily fluids outside the body, and intelligent drug delivery systems for the pharmaceutical industry. (Produced in June 2009)
wn.com/Biomaterials For Medical Applications
The research at the GKSS Centre of Biomaterial Development in Teltow is focussed on the development of innovative, polymer-based biomaterials for medical applications. The spectrum of our product developments extends from different types of plastics that can be used in regenerative medicine and in the field of tissue engineering to active implants for minimally invasive surgery, adsorber materials for filter systems, apheresis or other detoxification processes for use on bodily fluids outside the body, and intelligent drug delivery systems for the pharmaceutical industry. (Produced in June 2009)
- published: 09 Sep 2009
- views: 9008
BIOMATERIALS ENGINEERING-CAREER GUIDANCE
TOPICS TO BE STUDIED ON INTERNET IN TEXTS AND IMAGES
Biomaterials science
Medicine, biology, chemistry, tissue engineering and materials science
Heart val...
TOPICS TO BE STUDIED ON INTERNET IN TEXTS AND IMAGES
Biomaterials science
Medicine, biology, chemistry, tissue engineering and materials science
Heart valves
Skin repair
Biomineralization
Compatibility
Biopolymers
Polymers, ceramics or composite materials.
Autograft, allograft or xenograft used as a transplant material
Atoms, molecules, colloids, micelles
Metallurgy and mineralogy
Emulsions,
Structural hierarchy
Joint replacements
Bone plates
Bone cement
Artificial ligaments and tendons
Dental implants for tooth fixation
Blood vessel prostheses
Heart valves
Skin repair devices (artificial tissue)
Cochlear replacements
Contact lenses
Breast implants
Biocompatibility
Tissue Engineering
Immune response
Pacemaker or hip replacement
Prostheses
Cellulose and starch, proteins and peptides, and DNA and RNA
Sugars, amino acids, and nucleotides
Bionics
Nanotechnology
Synthetic biodegradable polymer
Protein Surface Modification of Biomaterials
Functionalization of Polymeric Surfaces
wn.com/Biomaterials Engineering Career Guidance
TOPICS TO BE STUDIED ON INTERNET IN TEXTS AND IMAGES
Biomaterials science
Medicine, biology, chemistry, tissue engineering and materials science
Heart valves
Skin repair
Biomineralization
Compatibility
Biopolymers
Polymers, ceramics or composite materials.
Autograft, allograft or xenograft used as a transplant material
Atoms, molecules, colloids, micelles
Metallurgy and mineralogy
Emulsions,
Structural hierarchy
Joint replacements
Bone plates
Bone cement
Artificial ligaments and tendons
Dental implants for tooth fixation
Blood vessel prostheses
Heart valves
Skin repair devices (artificial tissue)
Cochlear replacements
Contact lenses
Breast implants
Biocompatibility
Tissue Engineering
Immune response
Pacemaker or hip replacement
Prostheses
Cellulose and starch, proteins and peptides, and DNA and RNA
Sugars, amino acids, and nucleotides
Bionics
Nanotechnology
Synthetic biodegradable polymer
Protein Surface Modification of Biomaterials
Functionalization of Polymeric Surfaces
- published: 26 Apr 2013
- views: 2376
Polymers & Biomaterials
Students: Stephanie Hebert, Geoffrey Maynard, Abdulmajid Binshelayl, Rasheed Alfaris
Instructor: Dr. Mary C. Arico
Course Overview: Biomaterials is the study ...
Students: Stephanie Hebert, Geoffrey Maynard, Abdulmajid Binshelayl, Rasheed Alfaris
Instructor: Dr. Mary C. Arico
Course Overview: Biomaterials is the study of materials and their use in medical implants, including metal, ceramics, polymers, composites, and biological biomaterials. The course includes the study of material properties and the known interactions with the body. Additionally, students investigate the growing field of tissue engineering and the ethical decisions engineers face.
Project Overview: Students worked in groups to create a video that answered two questions: What are biomaterials? Why are biomaterials important? The goal of the video was to create something that would be relevant to an audience with minimal science/engineering education, but must also be 100% accurate and relevant in a collegiate introduction to biomaterials course.
wn.com/Polymers Biomaterials
Students: Stephanie Hebert, Geoffrey Maynard, Abdulmajid Binshelayl, Rasheed Alfaris
Instructor: Dr. Mary C. Arico
Course Overview: Biomaterials is the study of materials and their use in medical implants, including metal, ceramics, polymers, composites, and biological biomaterials. The course includes the study of material properties and the known interactions with the body. Additionally, students investigate the growing field of tissue engineering and the ethical decisions engineers face.
Project Overview: Students worked in groups to create a video that answered two questions: What are biomaterials? Why are biomaterials important? The goal of the video was to create something that would be relevant to an audience with minimal science/engineering education, but must also be 100% accurate and relevant in a collegiate introduction to biomaterials course.
- published: 20 Oct 2015
- views: 229
Robert S. Langer (MIT) Part 3: Biomaterials for Drug Delivery Systems and Tissue Engineering
http://www.ibiology.org/ibioseminars/robert-langer-part-3.html
Talk Overview:
The traditional way of taking a drug, such as a pill or injection, often results...
http://www.ibiology.org/ibioseminars/robert-langer-part-3.html
Talk Overview:
The traditional way of taking a drug, such as a pill or injection, often results in plasma drug levels that cycle between too high and too low. To better maintain drug levels in the effective range, scientists have developed a variety of systems that release drugs at a steady rate for days or even years. In his first talk, Bob Langer gives an overview of many of these controlled release technologies, including polymer and pump systems.
Langer begins Part 2 with the story of how he became interested in drug release technologies, which is also a story of the power of perseverance. As a post-doc with Judah Folkman, and after much trial and error, Langer developed a polymer system that provided a slow and constant release of an anti-angiogenesis factor. Initially, his results were met with skepticism, by both scientists and the patent office. Today, many, many companies have developed peptide delivery systems based on that original work. Langer also describes ongoing research in areas such as targeted drug delivery and externally controlled microchips designed for drug delivery.
In Part 3, Langer focuses on the materials used in drug delivery and medical devices. Many of the original materials used in medicine were adapted from completely unrelated uses and often generated their own problems. Langer describes work by his lab and others to make polymers designed for specific medical uses. For instance, a porous polymer can be shaped into an ear or nose and act as a scaffold onto which a patient’s cells can be seeded to grow a new structure. Different polymers have been successfully used as scaffolds to grow new blood vessels or artificial skin for burn victims.
Speaker Biography:
Robert Langer is the David H. Koch Institute Professor at the Massachusetts Institute of Technology. Research in Langer’s lab focuses on the development of polymers for use in drug delivery devices that will release molecules such as drugs, proteins, RNA or DNA at controlled rates and for extended periods of time. His lab also is working on methods to create new tissues such as cartilage, skin and liver for use in medicine.
Langer has written over 1250 articles and has over 1000 patents; he is the most cited engineer ever. He has been honored with numerous awards including being one of only seven people to receive both the US National Medal of Science and the National Medal of Technology and Innovation. He is also one of only a few people to be elected to the US National Academy of Sciences, Institute of Medicine and National Academy of Engineering. He is the only engineer to win the Gairdner Foundation International Award. In 2014, Langer received the Breakthrough Prize in Life Sciences and the Kyoto Prize.
Langer received his BS in Chemical Engineering from Cornell University and his ScD in Chemical Engineering from MIT.
wn.com/Robert S. Langer (Mit) Part 3 Biomaterials For Drug Delivery Systems And Tissue Engineering
http://www.ibiology.org/ibioseminars/robert-langer-part-3.html
Talk Overview:
The traditional way of taking a drug, such as a pill or injection, often results in plasma drug levels that cycle between too high and too low. To better maintain drug levels in the effective range, scientists have developed a variety of systems that release drugs at a steady rate for days or even years. In his first talk, Bob Langer gives an overview of many of these controlled release technologies, including polymer and pump systems.
Langer begins Part 2 with the story of how he became interested in drug release technologies, which is also a story of the power of perseverance. As a post-doc with Judah Folkman, and after much trial and error, Langer developed a polymer system that provided a slow and constant release of an anti-angiogenesis factor. Initially, his results were met with skepticism, by both scientists and the patent office. Today, many, many companies have developed peptide delivery systems based on that original work. Langer also describes ongoing research in areas such as targeted drug delivery and externally controlled microchips designed for drug delivery.
In Part 3, Langer focuses on the materials used in drug delivery and medical devices. Many of the original materials used in medicine were adapted from completely unrelated uses and often generated their own problems. Langer describes work by his lab and others to make polymers designed for specific medical uses. For instance, a porous polymer can be shaped into an ear or nose and act as a scaffold onto which a patient’s cells can be seeded to grow a new structure. Different polymers have been successfully used as scaffolds to grow new blood vessels or artificial skin for burn victims.
Speaker Biography:
Robert Langer is the David H. Koch Institute Professor at the Massachusetts Institute of Technology. Research in Langer’s lab focuses on the development of polymers for use in drug delivery devices that will release molecules such as drugs, proteins, RNA or DNA at controlled rates and for extended periods of time. His lab also is working on methods to create new tissues such as cartilage, skin and liver for use in medicine.
Langer has written over 1250 articles and has over 1000 patents; he is the most cited engineer ever. He has been honored with numerous awards including being one of only seven people to receive both the US National Medal of Science and the National Medal of Technology and Innovation. He is also one of only a few people to be elected to the US National Academy of Sciences, Institute of Medicine and National Academy of Engineering. He is the only engineer to win the Gairdner Foundation International Award. In 2014, Langer received the Breakthrough Prize in Life Sciences and the Kyoto Prize.
Langer received his BS in Chemical Engineering from Cornell University and his ScD in Chemical Engineering from MIT.
- published: 17 Feb 2015
- views: 3449
Mod-01 Lec-01 Lecture-01-Introduction to Biomaterials
Introduction to Biomaterials by Prof. Bikramjit Basu,Prof.kantesh Balani, Department of Materials & Metallurgical Engineering, IIT Kanpur. For more details on ...
Introduction to Biomaterials by Prof. Bikramjit Basu,Prof.kantesh Balani, Department of Materials & Metallurgical Engineering, IIT Kanpur. For more details on NPTEL visit http://nptel.iitm.ac.in
wn.com/Mod 01 Lec 01 Lecture 01 Introduction To Biomaterials
Introduction to Biomaterials by Prof. Bikramjit Basu,Prof.kantesh Balani, Department of Materials & Metallurgical Engineering, IIT Kanpur. For more details on NPTEL visit http://nptel.iitm.ac.in
- published: 04 Jul 2012
- views: 5531
Polymers as Biomaterials
Chemistry at York, First year Macromolecules project....
Chemistry at York, First year Macromolecules project.
wn.com/Polymers As Biomaterials
Chemistry at York, First year Macromolecules project.
- published: 19 Apr 2013
- views: 679
TEDxSanJoaquin - Craig Vierra - Spider Silk: A Next Generation Biomaterial
Dr. Craig Vierra, a professor of biology at University of the Pacific, has been given the University Distinguished Faculty Award in recognition of his work as "...
Dr. Craig Vierra, a professor of biology at University of the Pacific, has been given the University Distinguished Faculty Award in recognition of his work as "a scientist and scholar and his dedication to students and undergraduate research." Dr. Vierra, who is also co-chairman of the Department of Biological Sciences, joined Pacific as a visiting lecturer in the fall of 1994.
His research focuses on understanding the molecular mechanics of black widow spider silk and how these properties relate to the fiber's high tensile strength, elasticity and toughness. His work has been published in a variety of publications, including the Journal of Biological Chemistry, Cellular and Molecular Life Sciences and Biochemistry.
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/Tedxsanjoaquin Craig Vierra Spider Silk A Next Generation Biomaterial
Dr. Craig Vierra, a professor of biology at University of the Pacific, has been given the University Distinguished Faculty Award in recognition of his work as "a scientist and scholar and his dedication to students and undergraduate research." Dr. Vierra, who is also co-chairman of the Department of Biological Sciences, joined Pacific as a visiting lecturer in the fall of 1994.
His research focuses on understanding the molecular mechanics of black widow spider silk and how these properties relate to the fiber's high tensile strength, elasticity and toughness. His work has been published in a variety of publications, including the Journal of Biological Chemistry, Cellular and Molecular Life Sciences and Biochemistry.
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: 11 Nov 2011
- views: 3097
Remoção de Implante + Enxerto de Biomaterial ( Dr Thiago Albacete Castro )
Acompanharemos neste video a remocao de um implante osseointegrado, mais a realizacao de um enxerto de biomaterial.
Dr. Thiago Albacete
www.odontoalbacete.com...
Acompanharemos neste video a remocao de um implante osseointegrado, mais a realizacao de um enxerto de biomaterial.
Dr. Thiago Albacete
www.odontoalbacete.com
wn.com/Remoção De Implante Enxerto De Biomaterial ( Dr Thiago Albacete Castro )
Acompanharemos neste video a remocao de um implante osseointegrado, mais a realizacao de um enxerto de biomaterial.
Dr. Thiago Albacete
www.odontoalbacete.com
- published: 01 Dec 2014
- views: 212
BioEngineering Insights 2009 - BioMaterials Part 1
This yearly confab provides a platform for UCSB's faculty and collaborators to showcase the science and technology at UC Santa Barbara that's making a major glo...
This yearly confab provides a platform for UCSB's faculty and collaborators to showcase the science and technology at UC Santa Barbara that's making a major global impact. [Science] [Show ID: 18601]
wn.com/Bioengineering Insights 2009 Biomaterials Part 1
This yearly confab provides a platform for UCSB's faculty and collaborators to showcase the science and technology at UC Santa Barbara that's making a major global impact. [Science] [Show ID: 18601]
- published: 19 Nov 2010
- views: 2957
Ecovative Biomaterial R&D;
Ecovative is a world leader in sustainable biomaterials. We use bio-adaptation, and inspiration from nature to develop cost and performance competitive sustaina...
Ecovative is a world leader in sustainable biomaterials. We use bio-adaptation, and inspiration from nature to develop cost and performance competitive sustainable materials. www.ecovativedesign.com
wn.com/Ecovative Biomaterial R D
Ecovative is a world leader in sustainable biomaterials. We use bio-adaptation, and inspiration from nature to develop cost and performance competitive sustainable materials. www.ecovativedesign.com
- published: 28 Mar 2014
- views: 3935
botiss biomaterials portfolio
botiss biomaterials http://www.botiss.com (Animation by Ole Jacob)
The Berlin-based company botiss biomaterials is the second largest provider of biomaterials ...
botiss biomaterials http://www.botiss.com (Animation by Ole Jacob)
The Berlin-based company botiss biomaterials is the second largest provider of biomaterials for oral tissue regeneration in Europe. To its comprehensive range of high-quality, clinically proven solutions count membranes for guided tissue and bone regeneration, soft tissue reconstruction, as well as a full range of bovine, allogeneic and synthetic bone substitute materials. The products are used worldwide in leading dental clinics and are supported by many years of clinical experience. In addition to its soft tissue products, the company is especially proud of innovations such as the allogeneic maxgraft® bonering for bone augmentation with simultaneous implant placement and the patient-individualized bone block, maxgraft® bonebuilder. http://www.botiss.com
wn.com/Botiss Biomaterials Portfolio
botiss biomaterials http://www.botiss.com (Animation by Ole Jacob)
The Berlin-based company botiss biomaterials is the second largest provider of biomaterials for oral tissue regeneration in Europe. To its comprehensive range of high-quality, clinically proven solutions count membranes for guided tissue and bone regeneration, soft tissue reconstruction, as well as a full range of bovine, allogeneic and synthetic bone substitute materials. The products are used worldwide in leading dental clinics and are supported by many years of clinical experience. In addition to its soft tissue products, the company is especially proud of innovations such as the allogeneic maxgraft® bonering for bone augmentation with simultaneous implant placement and the patient-individualized bone block, maxgraft® bonebuilder. http://www.botiss.com
- published: 08 Oct 2014
- views: 1461
ebm-papst Biomaterial Fan
Energy-saving fans made of "epylen" wood/plastic composite material.
The global innovation "biomaterial fan" has been developed in accordance with the toughe...
Energy-saving fans made of "epylen" wood/plastic composite material.
The global innovation "biomaterial fan" has been developed in accordance with the toughest of industrial standards with respect to service life, durability, stability and thermal fluctuation. The new fans benefit from improved damping characteristics and are resistant to corrosion even without being painted. Features such as antibacterial or easy-to-clean coating are also possible.
Find out more in our Product News section on http://www.ebmpapst.com.au/en/products/product_news/product_news_3.html
wn.com/Ebm Papst Biomaterial Fan
Energy-saving fans made of "epylen" wood/plastic composite material.
The global innovation "biomaterial fan" has been developed in accordance with the toughest of industrial standards with respect to service life, durability, stability and thermal fluctuation. The new fans benefit from improved damping characteristics and are resistant to corrosion even without being painted. Features such as antibacterial or easy-to-clean coating are also possible.
Find out more in our Product News section on http://www.ebmpapst.com.au/en/products/product_news/product_news_3.html
- published: 14 Nov 2011
- views: 1811
Biomaterials & Tissue Engineering -- Advanced applications through interdisciplinary research
This film showcases the interdisciplinary teams and specialist laboratories focused on biomaterials, tissue engineering and regenerative medicine at the Univers...
This film showcases the interdisciplinary teams and specialist laboratories focused on biomaterials, tissue engineering and regenerative medicine at the University. This brings together clinicians, cell biologists, material scientists and tissue engineers to work on new clinical treatments for injury and disease.
wn.com/Biomaterials Tissue Engineering Advanced Applications Through Interdisciplinary Research
This film showcases the interdisciplinary teams and specialist laboratories focused on biomaterials, tissue engineering and regenerative medicine at the University. This brings together clinicians, cell biologists, material scientists and tissue engineers to work on new clinical treatments for injury and disease.
- published: 19 Dec 2011
- views: 3325
Dental implants - Surgery : Sinus lift and bone substitute biomaterial - SEPTEMBER 2011 DRIVE CASE
"Bone substitute biomaterial 'DRIVE BONE' to the "SINUS LIFT" technique"
Surgery carried out for an implantology training course organized by ESPACE 14 - Den...
"Bone substitute biomaterial 'DRIVE BONE' to the "SINUS LIFT" technique"
Surgery carried out for an implantology training course organized by ESPACE 14 - Dental Academy of Implantology
wn.com/Dental Implants Surgery Sinus Lift And Bone Substitute Biomaterial September 2011 Drive Case
"Bone substitute biomaterial 'DRIVE BONE' to the "SINUS LIFT" technique"
Surgery carried out for an implantology training course organized by ESPACE 14 - Dental Academy of Implantology
- published: 16 Sep 2011
- views: 2698
Biomaterials and Biotechnology
Biomaterials and Biotechnology: From the Discovery of Angiogenesis Inhibitors to the Development of Drug Delivery Systems and the Foundation of Tissue Engineeri...
Biomaterials and Biotechnology: From the Discovery of Angiogenesis Inhibitors to the Development of Drug Delivery Systems and the Foundation of Tissue Engineering
Air date: Wednesday, January 29, 2014, 3:00:00 PM
Runtime: 01:04:13
Description: Wednesday Afternoon Lecture Series
The speaker in our Wednesday Afternoon Lecture Series is Dr. Robert Langer of MIT, winner of the 2014 Breakthrough Prize in Life Sciences, described as "one of history's most prolific inventors in medicine" and the most cited engineer in history.
Advanced drug delivery systems are having an enormous impact on human health. Dr. Langer will begin the lecture by discussing his early research on developing the first controlled release systems for macromolecules and the isolation of angiogenesis inhibitors, noting how these advances have led to numerous new therapies. For example, new drug delivery technologies including nanoparticles and nanotechnology are now being studied for use treating cancer and other illnesses. Dr. Langer will next discuss ways of developing novel microchips for drug delivery, elucidating how approaches for creating new biomaterials are evaluated and providing examples where such materials are used in brain cancer and shape-memory applications. By combining mammalian cells, including stem cells, with synthetic polymers, new approaches for engineering tissues are being developed that may someday help in various disease, particularly in the fields of cartilage, skin, blood vessels, and spinal cord repair.
Robert S. Langer is the David H. Koch Institute Professor at the Massachusetts Institute of Technology. His work is at the interface of biotechnology and materials science. The major focus areas include the study and development of polymers to deliver drugs, particularly genetically engineered proteins, DNA and RNAi, continuously at controlled rates for prolonged periods of time. Dr. Langer has written more than 1,240 articles, and he also has 1,026 issued and pending patents worldwide. His many awards include the United States National Medal of Science, the United States National Medal of Technology and Innovation, 2014 Breakthrough Prize in Life Sciences, the Charles Stark Draper Prize, Albany Medical Center Prize, the Wolf Prize for Chemistry and the Lemelson-MIT prize, for being "one of history's most prolific inventors in medicine."
For more information go to http://wals.od.nih.gov
Author: Dr. Robert S. Langer, Massachusetts Institute of Technology
Permanent link: http://videocast.nih.gov/launch.asp?18256
wn.com/Biomaterials And Biotechnology
Biomaterials and Biotechnology: From the Discovery of Angiogenesis Inhibitors to the Development of Drug Delivery Systems and the Foundation of Tissue Engineering
Air date: Wednesday, January 29, 2014, 3:00:00 PM
Runtime: 01:04:13
Description: Wednesday Afternoon Lecture Series
The speaker in our Wednesday Afternoon Lecture Series is Dr. Robert Langer of MIT, winner of the 2014 Breakthrough Prize in Life Sciences, described as "one of history's most prolific inventors in medicine" and the most cited engineer in history.
Advanced drug delivery systems are having an enormous impact on human health. Dr. Langer will begin the lecture by discussing his early research on developing the first controlled release systems for macromolecules and the isolation of angiogenesis inhibitors, noting how these advances have led to numerous new therapies. For example, new drug delivery technologies including nanoparticles and nanotechnology are now being studied for use treating cancer and other illnesses. Dr. Langer will next discuss ways of developing novel microchips for drug delivery, elucidating how approaches for creating new biomaterials are evaluated and providing examples where such materials are used in brain cancer and shape-memory applications. By combining mammalian cells, including stem cells, with synthetic polymers, new approaches for engineering tissues are being developed that may someday help in various disease, particularly in the fields of cartilage, skin, blood vessels, and spinal cord repair.
Robert S. Langer is the David H. Koch Institute Professor at the Massachusetts Institute of Technology. His work is at the interface of biotechnology and materials science. The major focus areas include the study and development of polymers to deliver drugs, particularly genetically engineered proteins, DNA and RNAi, continuously at controlled rates for prolonged periods of time. Dr. Langer has written more than 1,240 articles, and he also has 1,026 issued and pending patents worldwide. His many awards include the United States National Medal of Science, the United States National Medal of Technology and Innovation, 2014 Breakthrough Prize in Life Sciences, the Charles Stark Draper Prize, Albany Medical Center Prize, the Wolf Prize for Chemistry and the Lemelson-MIT prize, for being "one of history's most prolific inventors in medicine."
For more information go to http://wals.od.nih.gov
Author: Dr. Robert S. Langer, Massachusetts Institute of Technology
Permanent link: http://videocast.nih.gov/launch.asp?18256
- published: 30 Jan 2014
- views: 5521
Graduate Student Engineering Research: Orthopedic Biomaterials
Dartmouth Ph.D. Innovation Program candidate Steve Reinitz talks about his work developing new materials to improve joint replacements in the orthopedic biomate...
Dartmouth Ph.D. Innovation Program candidate Steve Reinitz talks about his work developing new materials to improve joint replacements in the orthopedic biomaterials laboratory under Prof. Douglas Van Citters.
wn.com/Graduate Student Engineering Research Orthopedic Biomaterials
Dartmouth Ph.D. Innovation Program candidate Steve Reinitz talks about his work developing new materials to improve joint replacements in the orthopedic biomaterials laboratory under Prof. Douglas Van Citters.
- published: 27 Sep 2012
- views: 741
Biomaterial Implant Testing - Pentagrit, India
Impact of Bio-material on both localized tissue and all organs can be tested in Zebrafish....
Impact of Bio-material on both localized tissue and all organs can be tested in Zebrafish.
wn.com/Biomaterial Implant Testing Pentagrit, India
Impact of Bio-material on both localized tissue and all organs can be tested in Zebrafish.
- published: 10 May 2015
- views: 52
The Remarkable Properties of InstaBone Biomaterial and Bone Cement - Part 2
InstaBone(TM) is a unique biomaterial based on calcium and phosphate nanoparticles that is suitable for use as a bone void filler and bone putty and has importa...
InstaBone(TM) is a unique biomaterial based on calcium and phosphate nanoparticles that is suitable for use as a bone void filler and bone putty and has important applications in fracture repair, vertebroplasty and tissue engineering.
This video shows InstaBone bone cement admixed with morselized bone, marrow and sterile water, creating a bone paste that is moldable, adherent and self-hardening.
The resultant InstaBone-based biocomposite, containing living and viable cells from bone and marrow, is used directly to repair a large diaphyseal bone defect in an avian femur model.
The unique physicochemical properties of InstaBone biomaterial may allow for its use in a greatly improved modification of the Masquelet technique for the treatment of bone defects by enabling bone repair to be completed in one, rather than two surgical procedures. Furthermore a living InstaBone-based biocomposite is used as a bone graft rather than toxic polymethymethacrylate. The biocompatible InstaBone-bone graft is slowly resorbed and replaced over time with natural bone.
Background: The Masquelet technique for the reconstruction of diaphyseal bone defects combines induced membranes and cancellous autographs to regenerate bone loss and restore function.
The Masquelet reconstruction requires a two-staged approach. At the first operation, radical soft tissue and bone debridement is undertaken. Then a polymethylmethacrylate cement spacer is implanted at the site of the bone defect and the limb is stabilized with an external fixator. The inert PMMA cement spacer prevents fibrous tissue invasion of the recipient site and induces formation of a surrounding membrane. Finally, in the first stage of the Masquelet technique, the soft tissue envelope is repaired. At the second surgery, (~2 months later), the cement spacer is carefully removed ensuring that the formed induced membrane is minimally disturbed and the defect is filled with morselized bone graft and the bone is stabilized by fixation.
Living biocomposites of bone and cartilage can be grown on InstaBone and lay the foundation for ultimate replacing lost or damaged bone and cartilage due to injury or disease.. USA Patents on InstaBone technology have been issued to Dr. Brian Genge and University of South Carolina Research Foundation. The InstaBone technology has been licensed to Competitive Technology, Inc., Fairfield, CT.
wn.com/The Remarkable Properties Of Instabone Biomaterial And Bone Cement Part 2
InstaBone(TM) is a unique biomaterial based on calcium and phosphate nanoparticles that is suitable for use as a bone void filler and bone putty and has important applications in fracture repair, vertebroplasty and tissue engineering.
This video shows InstaBone bone cement admixed with morselized bone, marrow and sterile water, creating a bone paste that is moldable, adherent and self-hardening.
The resultant InstaBone-based biocomposite, containing living and viable cells from bone and marrow, is used directly to repair a large diaphyseal bone defect in an avian femur model.
The unique physicochemical properties of InstaBone biomaterial may allow for its use in a greatly improved modification of the Masquelet technique for the treatment of bone defects by enabling bone repair to be completed in one, rather than two surgical procedures. Furthermore a living InstaBone-based biocomposite is used as a bone graft rather than toxic polymethymethacrylate. The biocompatible InstaBone-bone graft is slowly resorbed and replaced over time with natural bone.
Background: The Masquelet technique for the reconstruction of diaphyseal bone defects combines induced membranes and cancellous autographs to regenerate bone loss and restore function.
The Masquelet reconstruction requires a two-staged approach. At the first operation, radical soft tissue and bone debridement is undertaken. Then a polymethylmethacrylate cement spacer is implanted at the site of the bone defect and the limb is stabilized with an external fixator. The inert PMMA cement spacer prevents fibrous tissue invasion of the recipient site and induces formation of a surrounding membrane. Finally, in the first stage of the Masquelet technique, the soft tissue envelope is repaired. At the second surgery, (~2 months later), the cement spacer is carefully removed ensuring that the formed induced membrane is minimally disturbed and the defect is filled with morselized bone graft and the bone is stabilized by fixation.
Living biocomposites of bone and cartilage can be grown on InstaBone and lay the foundation for ultimate replacing lost or damaged bone and cartilage due to injury or disease.. USA Patents on InstaBone technology have been issued to Dr. Brian Genge and University of South Carolina Research Foundation. The InstaBone technology has been licensed to Competitive Technology, Inc., Fairfield, CT.
- published: 09 May 2012
- views: 1789