-
The Rumpler car (1924)
GAUMONT GRAPHIC NEWSREEL (REUTERS)
To license this film, visit https://www.britishpathe.com/video/VLVAJ7U2VZGT4SN2IBX6Z4ZJSW95-THE-RUMPLER-CAR
A unique motor car that is shaped like a falling drop of water
Full Description:
SLATE INFORMATION: A Unique Motor Car
UNKNOWN:
EXT
A unique motor car that is shaped like a falling drop of water
automobile, car, Edmund Rumpler, Rumpler Tropfenwagen, Rumpler drop car, mid-enginer design, swing axle suspension, transaxle, Metropolis film
Background: A unique motor car that is shaped like a falling drop of water
FILM ID: VLVAJ7U2VZGT4SN2IBX6Z4ZJSW95
To license this film, visit https://www.britishpathe.com/video/VLVAJ7U2VZGT4SN2IBX6Z4ZJSW95-THE-RUMPLER-CAR
Archive: Reuters
Archive managed by: British Pathé
published: 15 Oct 2020
-
Rumpler Tropfenwagen (1921 - 1925)
The Tropfenwagen did become famous thanks to the film Metropolis, in which Rumplers found a burning end.
Aerodynamiczny samochód z lat 20. XX wieku stworzony przez austriackiego inżyniera Edmunda Rumplera. Samochód pojawił się w filmie science fiction "Metropolis" z 1927 roku.
Kevin MacLeod: Airport Lounge - Disco Ultralounge – na licencji Creative Commons Attribution (https://creativecommons.org/licenses/by/4.0/)
Źródło: http://incompetech.com/music/royalty-free/index.html?isrc=USUAN1100806
Wykonawca: http://incompetech.com/
published: 23 Jan 2019
-
Rumpler Tropfwagen, el auto del futuro (1922)
En 1921 presentó el ingeniero austríaco Edmund Rumpler su modelo Rumpler Tropfwagen, que recibió su nombre en referencia a sus formas (Tropf significa gota en alemán).Una gota con la parte redondeada encarada hacia la dirección del viento es la forma volumétrica con la menor resistencia aerodinámica. Se le suele asociar un coeficiente de resistencia Cx en torno a 0.05. Los coches actuales tienen valores en torno a 0.30, y sólo en los mejores casos, de 0.25 ó 0.26.
El motivo es que la forma estilizada de la parte trasera de la gota facilita que la corriente de aire la rodee suavemente hasta su extremo. De esta manera se consigue que la presión en la parte trasera de la forma no sea mucho menor que en la parte delantera. Cuanto mayor sea esa diferencia de presiones, mayor será la resistenci...
published: 29 Nov 2012
-
Aristoteles-Schule München in der Edmund-Rumpler-Straße will das ANTENNE BAYERN Pausenhofkonzert
Votet für: Aristoteles-Schule München in der Edmund-Rumpler-Straße! ANTENNE BAYERN bringt die Stars auf unseren Pausenhof. Holt das ANTENNE BAYERN Pausenhofkonzert an unsere Schule und votet jetzt unter http://aby.fm/2306
published: 24 Sep 2014
-
The History of Mid-Engined Cars in Detail
Let's have a closer look at the history of mid-engined cars and answer the questions:
Where did the idea come from?
Which problems did first concepts face?
Which role played Rumpler, Daimler, Benz and Porsche?
What is the link to today's Audi architecture?
And we will answer the question why AUDI drivetrains are so popular for mid-engined cars.
Let me know your thoughts in the comments below!
#Audi #Daimler #Rumpler #Benz #Mercedes #DKW
Pictures:
www.auto-motor-und-sport.de
www.mercedes-benz.com
www.audi-mediacenter.com
published: 08 Feb 2021
-
Maxford USA 1/9 Scale Rumpler Taube RC ARF Plane -wing warping
The Taube was designed in 1909 by Igo Etrich of Austria-Hungary, and first flew in 1910. It was licensed for serial production by Lohner- Werke in Austria and by Edmund Rumpler in Germany. Like many contemporary aircraft, especially monoplanes, the Taube used wing warping rather than ailerons for roll control, and also warped the rear half of the stabilizer for use as an elevator control surface's function. Only the vertical, twinned triangular rudder surfaces were usually hinged.
Maxford USA radio controled Rumpler Taube is about 1/9 scale. It takes about 5 years from design and developing to production. It comes with full functioning of wing and elevator warping feature as well as shock absorbing landing gear. It is the first and only wing warping airplane in the RC hobby industry. It i...
published: 10 Sep 2015
-
SEAT: The Maths Behind Your Car with Professor David Calle
When you get into your vehicle you usually take your family or friends with you. But they are not the only occupants of the car. Similarly, mathematicians like Pythagoras or physicists like Newton are also travelling companions. SEAT’s Education and Youth Empowerment Ambassador David Calle, a communications engineer, YouTube star and 2017 Global Teacher Prize finalist, gives us an exclusive explanation of three formulas that enable our vehicles to function. A new way of teaching at the service of the automotive world.
Newton invites us to brake. Who would have anticipated that the apple that fell from a tree near Isaac Newton would trigger one of the most productive careers in physics? His first law, that of inertia, is what leads driving instructors to insist so much on the safety distan...
published: 01 Dec 2020
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Forração em carpete para fusca volkswagem
LINK DO PRODUTO 👉 https://lista.mercadolivre.com.br/_CustId_513896328
LINK DO VÍDEO 👉 https://youtu.be/FWtJYtWfmrg
O Volkswagen Typ 1, popularmente conhecido como Fusca (no Brasil) ou Carocha (em Portugal), foi o primeiro modelo de automóvel fabricado pela companhia alemã Volkswagen, sendo produzido entre 1938 e 2003.
Foi o carro mais vendido no mundo, ultrapassando em 1972 o recorde que pertencia até então ao Ford Modelo T, de origem estadunidense. Foi produzido até 2003, no México, onde era chamado de VW Sedan.
Ele era parte de uma edição comemorativa chamada Última Edición, limitada a 3 000 carros. O último exemplar marcou o fim da longa produção de 65 anos do Fusca, durante a qual foram fabricados 21 529 464 unidades, números que fazem dele o modelo único mais produzido do mundo ...
published: 03 Aug 2021
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Stahltaube - Steel Dove The First war airplane Pre WWI 1913 warbird replica
Stahltaube - Steel Dove The First war airplane Pre WWI 1913 warbird replica
Built by Joel Marketello
Note Wingwarp lateral control. Operated by 100HP Daimler engine
http://en.wikipedia.org/wiki/Etrich_Taube
The Taube was designed in 1909 by Igo Etrich of Austria-Hungary, and first flew in 1910. It was licensed for serial production by Lohner-Werke in Austria and by Edmund Rumpler in Germany, now called the Etrich-Rumpler-Taube.
...
The Taube was very popular prior to the First World War, and it was also used by the air forces of Italy and Austria-Hungary. Even the Royal Flying Corps operated at least one Taube in 1912. On November 1, 1911, Giulio Gavotti, an Italian aviator, dropped the world's first aerial bomb from his Taube monoplane over the Ain Zara oasis in Libya.
Wing of History...
published: 25 May 2014
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TIBENHAM VINTAGE RC WARBIRDS - BATTLE OF BRITAIN MEMORIAL FLY-IN - 2016
THE AMAZING VINTAGE MODEL FLYING IN THIS VIDEO IS BASED ON A REAL AIRCRAFT CALLED A ETRICH TAUBE FROM @ 1911
The Etrich Taube, also known by the names of the various later manufacturers who build versions of the type, such as the Rumpler Taube, was a pre-World War I monoplane aircraft. It was the first military aeroplane to be mass-produced in Germany.
the Royal Flying Corps operated at least one Taube in 1912. On November 1, 1911, Giulio Gavotti, an Italian aviator, dropped the world's first aerial bomb from his Taube monoplane over the Ain Zara oasis in Libya. Once the war began, it quickly proved inferior as a serious warplane and as a result was soon replaced by newer and more effective designs.
The Taube was designed in 1909 by Igo Etrich of Austria-Hungary, and first flew in 1910. I...
published: 14 Oct 2016
1:53
The Rumpler car (1924)
GAUMONT GRAPHIC NEWSREEL (REUTERS)
To license this film, visit https://www.britishpathe.com/video/VLVAJ7U2VZGT4SN2IBX6Z4ZJSW95-THE-RUMPLER-CAR
A unique motor ...
GAUMONT GRAPHIC NEWSREEL (REUTERS)
To license this film, visit https://www.britishpathe.com/video/VLVAJ7U2VZGT4SN2IBX6Z4ZJSW95-THE-RUMPLER-CAR
A unique motor car that is shaped like a falling drop of water
Full Description:
SLATE INFORMATION: A Unique Motor Car
UNKNOWN:
EXT
A unique motor car that is shaped like a falling drop of water
automobile, car, Edmund Rumpler, Rumpler Tropfenwagen, Rumpler drop car, mid-enginer design, swing axle suspension, transaxle, Metropolis film
Background: A unique motor car that is shaped like a falling drop of water
FILM ID: VLVAJ7U2VZGT4SN2IBX6Z4ZJSW95
To license this film, visit https://www.britishpathe.com/video/VLVAJ7U2VZGT4SN2IBX6Z4ZJSW95-THE-RUMPLER-CAR
Archive: Reuters
Archive managed by: British Pathé
https://wn.com/The_Rumpler_Car_(1924)
GAUMONT GRAPHIC NEWSREEL (REUTERS)
To license this film, visit https://www.britishpathe.com/video/VLVAJ7U2VZGT4SN2IBX6Z4ZJSW95-THE-RUMPLER-CAR
A unique motor car that is shaped like a falling drop of water
Full Description:
SLATE INFORMATION: A Unique Motor Car
UNKNOWN:
EXT
A unique motor car that is shaped like a falling drop of water
automobile, car, Edmund Rumpler, Rumpler Tropfenwagen, Rumpler drop car, mid-enginer design, swing axle suspension, transaxle, Metropolis film
Background: A unique motor car that is shaped like a falling drop of water
FILM ID: VLVAJ7U2VZGT4SN2IBX6Z4ZJSW95
To license this film, visit https://www.britishpathe.com/video/VLVAJ7U2VZGT4SN2IBX6Z4ZJSW95-THE-RUMPLER-CAR
Archive: Reuters
Archive managed by: British Pathé
- published: 15 Oct 2020
- views: 3829
5:02
Rumpler Tropfenwagen (1921 - 1925)
The Tropfenwagen did become famous thanks to the film Metropolis, in which Rumplers found a burning end.
Aerodynamiczny samochód z lat 20. XX wieku stworzony p...
The Tropfenwagen did become famous thanks to the film Metropolis, in which Rumplers found a burning end.
Aerodynamiczny samochód z lat 20. XX wieku stworzony przez austriackiego inżyniera Edmunda Rumplera. Samochód pojawił się w filmie science fiction "Metropolis" z 1927 roku.
Kevin MacLeod: Airport Lounge - Disco Ultralounge – na licencji Creative Commons Attribution (https://creativecommons.org/licenses/by/4.0/)
Źródło: http://incompetech.com/music/royalty-free/index.html?isrc=USUAN1100806
Wykonawca: http://incompetech.com/
https://wn.com/Rumpler_Tropfenwagen_(1921_1925)
The Tropfenwagen did become famous thanks to the film Metropolis, in which Rumplers found a burning end.
Aerodynamiczny samochód z lat 20. XX wieku stworzony przez austriackiego inżyniera Edmunda Rumplera. Samochód pojawił się w filmie science fiction "Metropolis" z 1927 roku.
Kevin MacLeod: Airport Lounge - Disco Ultralounge – na licencji Creative Commons Attribution (https://creativecommons.org/licenses/by/4.0/)
Źródło: http://incompetech.com/music/royalty-free/index.html?isrc=USUAN1100806
Wykonawca: http://incompetech.com/
- published: 23 Jan 2019
- views: 1822
2:02
Rumpler Tropfwagen, el auto del futuro (1922)
En 1921 presentó el ingeniero austríaco Edmund Rumpler su modelo Rumpler Tropfwagen, que recibió su nombre en referencia a sus formas (Tropf significa gota en a...
En 1921 presentó el ingeniero austríaco Edmund Rumpler su modelo Rumpler Tropfwagen, que recibió su nombre en referencia a sus formas (Tropf significa gota en alemán).Una gota con la parte redondeada encarada hacia la dirección del viento es la forma volumétrica con la menor resistencia aerodinámica. Se le suele asociar un coeficiente de resistencia Cx en torno a 0.05. Los coches actuales tienen valores en torno a 0.30, y sólo en los mejores casos, de 0.25 ó 0.26.
El motivo es que la forma estilizada de la parte trasera de la gota facilita que la corriente de aire la rodee suavemente hasta su extremo. De esta manera se consigue que la presión en la parte trasera de la forma no sea mucho menor que en la parte delantera. Cuanto mayor sea esa diferencia de presiones, mayor será la resistencia aerodinámica. Dicho de manera intuitiva: la mayor presión de la cara frontal "frena" al cuerpo en cuestión, mientras que la menor presión en la parte trasera "succiona" de él hacia atrás.
https://wn.com/Rumpler_Tropfwagen,_El_Auto_Del_Futuro_(1922)
En 1921 presentó el ingeniero austríaco Edmund Rumpler su modelo Rumpler Tropfwagen, que recibió su nombre en referencia a sus formas (Tropf significa gota en alemán).Una gota con la parte redondeada encarada hacia la dirección del viento es la forma volumétrica con la menor resistencia aerodinámica. Se le suele asociar un coeficiente de resistencia Cx en torno a 0.05. Los coches actuales tienen valores en torno a 0.30, y sólo en los mejores casos, de 0.25 ó 0.26.
El motivo es que la forma estilizada de la parte trasera de la gota facilita que la corriente de aire la rodee suavemente hasta su extremo. De esta manera se consigue que la presión en la parte trasera de la forma no sea mucho menor que en la parte delantera. Cuanto mayor sea esa diferencia de presiones, mayor será la resistencia aerodinámica. Dicho de manera intuitiva: la mayor presión de la cara frontal "frena" al cuerpo en cuestión, mientras que la menor presión en la parte trasera "succiona" de él hacia atrás.
- published: 29 Nov 2012
- views: 12579
1:32
Aristoteles-Schule München in der Edmund-Rumpler-Straße will das ANTENNE BAYERN Pausenhofkonzert
Votet für: Aristoteles-Schule München in der Edmund-Rumpler-Straße! ANTENNE BAYERN bringt die Stars auf unseren Pausenhof. Holt das ANTENNE BAYERN Pausenhofkonz...
Votet für: Aristoteles-Schule München in der Edmund-Rumpler-Straße! ANTENNE BAYERN bringt die Stars auf unseren Pausenhof. Holt das ANTENNE BAYERN Pausenhofkonzert an unsere Schule und votet jetzt unter http://aby.fm/2306
https://wn.com/Aristoteles_Schule_München_In_Der_Edmund_Rumpler_Straße_Will_Das_Antenne_Bayern_Pausenhofkonzert
Votet für: Aristoteles-Schule München in der Edmund-Rumpler-Straße! ANTENNE BAYERN bringt die Stars auf unseren Pausenhof. Holt das ANTENNE BAYERN Pausenhofkonzert an unsere Schule und votet jetzt unter http://aby.fm/2306
- published: 24 Sep 2014
- views: 160
9:41
The History of Mid-Engined Cars in Detail
Let's have a closer look at the history of mid-engined cars and answer the questions:
Where did the idea come from?
Which problems did first concepts face?
Whic...
Let's have a closer look at the history of mid-engined cars and answer the questions:
Where did the idea come from?
Which problems did first concepts face?
Which role played Rumpler, Daimler, Benz and Porsche?
What is the link to today's Audi architecture?
And we will answer the question why AUDI drivetrains are so popular for mid-engined cars.
Let me know your thoughts in the comments below!
#Audi #Daimler #Rumpler #Benz #Mercedes #DKW
Pictures:
www.auto-motor-und-sport.de
www.mercedes-benz.com
www.audi-mediacenter.com
https://wn.com/The_History_Of_Mid_Engined_Cars_In_Detail
Let's have a closer look at the history of mid-engined cars and answer the questions:
Where did the idea come from?
Which problems did first concepts face?
Which role played Rumpler, Daimler, Benz and Porsche?
What is the link to today's Audi architecture?
And we will answer the question why AUDI drivetrains are so popular for mid-engined cars.
Let me know your thoughts in the comments below!
#Audi #Daimler #Rumpler #Benz #Mercedes #DKW
Pictures:
www.auto-motor-und-sport.de
www.mercedes-benz.com
www.audi-mediacenter.com
- published: 08 Feb 2021
- views: 12033
4:39
Maxford USA 1/9 Scale Rumpler Taube RC ARF Plane -wing warping
The Taube was designed in 1909 by Igo Etrich of Austria-Hungary, and first flew in 1910. It was licensed for serial production by Lohner- Werke in Austria and b...
The Taube was designed in 1909 by Igo Etrich of Austria-Hungary, and first flew in 1910. It was licensed for serial production by Lohner- Werke in Austria and by Edmund Rumpler in Germany. Like many contemporary aircraft, especially monoplanes, the Taube used wing warping rather than ailerons for roll control, and also warped the rear half of the stabilizer for use as an elevator control surface's function. Only the vertical, twinned triangular rudder surfaces were usually hinged.
Maxford USA radio controled Rumpler Taube is about 1/9 scale. It takes about 5 years from design and developing to production. It comes with full functioning of wing and elevator warping feature as well as shock absorbing landing gear. It is the first and only wing warping airplane in the RC hobby industry. It is designed for electric for a more scale appearance, but can also be converted to glow with our glow conversion kit.
Specifications:
Wingspan: 64 inches
Length: 46 inches
Wing area: 653 square inches
Radio Required: Minimum of 5 channels, 1 micro servo, 1 standard servo and 2 high torque metal gear servos
Flying weight: Around 5 pounds (depending on power and radio systems)
Power System Required: 400W brushless motor
Propeller: 11x7 to 12x6
Special Features:
Unique design and true to scale appreance
Full functioning of wing and elevator warping, control wires are pre-installed at factory, this makes the complicated control system very easy to assemble
ARF comes with shock absorbing landing gear
Scale tail skid
Magnatic front and rear canopy for easy access to battery and electronics.
True to scale rear seat pilot stick will move with elevator
ARF comes with 2 cowls, one pre-cut for optional dummy engine, one no cutting for glow set up
Optional WWI pilot with installation kit, Vintage Spoked Wheels and dummy engine.
Optional glow conversion kit
www.maxfordusa.com
https://wn.com/Maxford_USA_1_9_Scale_Rumpler_Taube_Rc_Arf_Plane_Wing_Warping
The Taube was designed in 1909 by Igo Etrich of Austria-Hungary, and first flew in 1910. It was licensed for serial production by Lohner- Werke in Austria and by Edmund Rumpler in Germany. Like many contemporary aircraft, especially monoplanes, the Taube used wing warping rather than ailerons for roll control, and also warped the rear half of the stabilizer for use as an elevator control surface's function. Only the vertical, twinned triangular rudder surfaces were usually hinged.
Maxford USA radio controled Rumpler Taube is about 1/9 scale. It takes about 5 years from design and developing to production. It comes with full functioning of wing and elevator warping feature as well as shock absorbing landing gear. It is the first and only wing warping airplane in the RC hobby industry. It is designed for electric for a more scale appearance, but can also be converted to glow with our glow conversion kit.
Specifications:
Wingspan: 64 inches
Length: 46 inches
Wing area: 653 square inches
Radio Required: Minimum of 5 channels, 1 micro servo, 1 standard servo and 2 high torque metal gear servos
Flying weight: Around 5 pounds (depending on power and radio systems)
Power System Required: 400W brushless motor
Propeller: 11x7 to 12x6
Special Features:
Unique design and true to scale appreance
Full functioning of wing and elevator warping, control wires are pre-installed at factory, this makes the complicated control system very easy to assemble
ARF comes with shock absorbing landing gear
Scale tail skid
Magnatic front and rear canopy for easy access to battery and electronics.
True to scale rear seat pilot stick will move with elevator
ARF comes with 2 cowls, one pre-cut for optional dummy engine, one no cutting for glow set up
Optional WWI pilot with installation kit, Vintage Spoked Wheels and dummy engine.
Optional glow conversion kit
www.maxfordusa.com
- published: 10 Sep 2015
- views: 17943
3:27
SEAT: The Maths Behind Your Car with Professor David Calle
When you get into your vehicle you usually take your family or friends with you. But they are not the only occupants of the car. Similarly, mathematicians like ...
When you get into your vehicle you usually take your family or friends with you. But they are not the only occupants of the car. Similarly, mathematicians like Pythagoras or physicists like Newton are also travelling companions. SEAT’s Education and Youth Empowerment Ambassador David Calle, a communications engineer, YouTube star and 2017 Global Teacher Prize finalist, gives us an exclusive explanation of three formulas that enable our vehicles to function. A new way of teaching at the service of the automotive world.
Newton invites us to brake. Who would have anticipated that the apple that fell from a tree near Isaac Newton would trigger one of the most productive careers in physics? His first law, that of inertia, is what leads driving instructors to insist so much on the safety distance. “If you’re driving and a cat suddenly crosses your path, and you have no choice but to continue without swerving, the only thing you can do is brake”, says David. According to Newton’s first law of motion, every object will remain at rest or in a uniform motion in a straight line unless compelled to change its state by the action of an external force. “And this external force is your foot on the brake pedal”, jokes the teacher.
While reacting we do not yet step on the brake, so we continue to move forward. To calculate this reaction distance, a simple rule of three is enough: multiply speed by time. An average person takes 0.75 seconds to react so, if for example you are going at 120 km/h (33.33 m/s), you will have continued moving for 25 metres no less until you finally hit the brakes. That’s why it’s important not to exceed speed limits and to keep a safe distance, “so you can save the cat”, he laughs.
In these cases, the most important thing beyond braking in time is to detect obstacles on the road well in advance. This is why cars are increasingly giving better visibility, even on night-time trips. The fourth generation SEAT Leon features Full LED headlights that illuminate more brightly and with a range of up to 70 metres, compared to 50 in older models.
Exponential aerodynamics. When the Austrian inventor Edmund Rumpler conceived a car in the shape of a drop of water in 1921, it was foreseeable that aerodynamics would become an obsession for car manufacturers. This science that studies the movement of air is key to vehicle performance. “By optimising aerodynamics, the car will go faster, but it will also be safer and more efficient, since it will reduce consumption and CO2 emissions”, points out Calle.
Rumpler was not off track with his extravagant vehicle: “Indeed, cars with rounded, tapering volumes are more streamlined than those with more boxy shapes, because they enable you to get through the large wall of air in front of you”, says the professor. Even so, beneath the shapes and volumes chosen there must always be a formula to support these decisions: the formula of aerodynamics.
This law of physics basically states that when you double the front surface of an object, you double the resistance that the air exerts on it, but if you double the speed, the resistance quadruples. “This happens because surface and resistance have a linear relationship; while with speed, resistance is related exponentially”, explains the teacher. Therefore, the faster you go, the more difficult it is to fight against the force of air, so the surface and its forms must work in your favour.
Integrals, useful at last. Let’s be real; in our student days we all struggled more than once with integrals and their relatives, the derivatives. Seriously, what are these calculations good for in real life? “It’s a question I’ve been asked countless times”, admits Calle, “and the answer is on any racetrack.”
In the case of a race between two drivers, if you want to know who has taken a curve faster, the easiest thing to do is to measure the speed of each of the drivers at one or two points of the curve and take the average, “but this would only give us a static image of their speed”, says Calle. In order to take into account all the data from each and every point of the curve, the integral is the perfect operation, since it is just that: a continuous sum of infinite data.
Thanks to advanced telemetry systems, which measure different magnitudes in real time, nowadays obtaining speed data at each point on a curve or racetrack is simple. “With the data, far from having to add them up individually, we only have to take the integral of the whole and the average of the result of each driver will tell us who has won”, explains the professor. Outside the races, this speed monitoring system is also applied to safety. This is the case with the new SEAT Leon, which features adaptive cruise control (ACC) and a travel assistant that provides assisted driving at speeds of up to 210 km/h.
Driving by numbers. These are just three of the many examples of the mathematics behind a car.
https://wn.com/Seat_The_Maths_Behind_Your_Car_With_Professor_David_Calle
When you get into your vehicle you usually take your family or friends with you. But they are not the only occupants of the car. Similarly, mathematicians like Pythagoras or physicists like Newton are also travelling companions. SEAT’s Education and Youth Empowerment Ambassador David Calle, a communications engineer, YouTube star and 2017 Global Teacher Prize finalist, gives us an exclusive explanation of three formulas that enable our vehicles to function. A new way of teaching at the service of the automotive world.
Newton invites us to brake. Who would have anticipated that the apple that fell from a tree near Isaac Newton would trigger one of the most productive careers in physics? His first law, that of inertia, is what leads driving instructors to insist so much on the safety distance. “If you’re driving and a cat suddenly crosses your path, and you have no choice but to continue without swerving, the only thing you can do is brake”, says David. According to Newton’s first law of motion, every object will remain at rest or in a uniform motion in a straight line unless compelled to change its state by the action of an external force. “And this external force is your foot on the brake pedal”, jokes the teacher.
While reacting we do not yet step on the brake, so we continue to move forward. To calculate this reaction distance, a simple rule of three is enough: multiply speed by time. An average person takes 0.75 seconds to react so, if for example you are going at 120 km/h (33.33 m/s), you will have continued moving for 25 metres no less until you finally hit the brakes. That’s why it’s important not to exceed speed limits and to keep a safe distance, “so you can save the cat”, he laughs.
In these cases, the most important thing beyond braking in time is to detect obstacles on the road well in advance. This is why cars are increasingly giving better visibility, even on night-time trips. The fourth generation SEAT Leon features Full LED headlights that illuminate more brightly and with a range of up to 70 metres, compared to 50 in older models.
Exponential aerodynamics. When the Austrian inventor Edmund Rumpler conceived a car in the shape of a drop of water in 1921, it was foreseeable that aerodynamics would become an obsession for car manufacturers. This science that studies the movement of air is key to vehicle performance. “By optimising aerodynamics, the car will go faster, but it will also be safer and more efficient, since it will reduce consumption and CO2 emissions”, points out Calle.
Rumpler was not off track with his extravagant vehicle: “Indeed, cars with rounded, tapering volumes are more streamlined than those with more boxy shapes, because they enable you to get through the large wall of air in front of you”, says the professor. Even so, beneath the shapes and volumes chosen there must always be a formula to support these decisions: the formula of aerodynamics.
This law of physics basically states that when you double the front surface of an object, you double the resistance that the air exerts on it, but if you double the speed, the resistance quadruples. “This happens because surface and resistance have a linear relationship; while with speed, resistance is related exponentially”, explains the teacher. Therefore, the faster you go, the more difficult it is to fight against the force of air, so the surface and its forms must work in your favour.
Integrals, useful at last. Let’s be real; in our student days we all struggled more than once with integrals and their relatives, the derivatives. Seriously, what are these calculations good for in real life? “It’s a question I’ve been asked countless times”, admits Calle, “and the answer is on any racetrack.”
In the case of a race between two drivers, if you want to know who has taken a curve faster, the easiest thing to do is to measure the speed of each of the drivers at one or two points of the curve and take the average, “but this would only give us a static image of their speed”, says Calle. In order to take into account all the data from each and every point of the curve, the integral is the perfect operation, since it is just that: a continuous sum of infinite data.
Thanks to advanced telemetry systems, which measure different magnitudes in real time, nowadays obtaining speed data at each point on a curve or racetrack is simple. “With the data, far from having to add them up individually, we only have to take the integral of the whole and the average of the result of each driver will tell us who has won”, explains the professor. Outside the races, this speed monitoring system is also applied to safety. This is the case with the new SEAT Leon, which features adaptive cruise control (ACC) and a travel assistant that provides assisted driving at speeds of up to 210 km/h.
Driving by numbers. These are just three of the many examples of the mathematics behind a car.
- published: 01 Dec 2020
- views: 281
0:31
Forração em carpete para fusca volkswagem
LINK DO PRODUTO 👉 https://lista.mercadolivre.com.br/_CustId_513896328
LINK DO VÍDEO 👉 https://youtu.be/FWtJYtWfmrg
O Volkswagen Typ 1, popularmente conhecido...
LINK DO PRODUTO 👉 https://lista.mercadolivre.com.br/_CustId_513896328
LINK DO VÍDEO 👉 https://youtu.be/FWtJYtWfmrg
O Volkswagen Typ 1, popularmente conhecido como Fusca (no Brasil) ou Carocha (em Portugal), foi o primeiro modelo de automóvel fabricado pela companhia alemã Volkswagen, sendo produzido entre 1938 e 2003.
Foi o carro mais vendido no mundo, ultrapassando em 1972 o recorde que pertencia até então ao Ford Modelo T, de origem estadunidense. Foi produzido até 2003, no México, onde era chamado de VW Sedan.
Ele era parte de uma edição comemorativa chamada Última Edición, limitada a 3 000 carros. O último exemplar marcou o fim da longa produção de 65 anos do Fusca, durante a qual foram fabricados 21 529 464 unidades, números que fazem dele o modelo único mais produzido do mundo em todos os tempos.
História
A história do Fusca é uma das mais complexas e longas da história do automóvel. Diferente da maioria dos outros carros, o projeto do Fusca envolveu várias empresas e até mesmo o governo de seu país, e levaria à fundação de uma fábrica inteira de automóveis no processo.
Alguns pontos são obscuros ou mal documentados, já que o projeto inicialmente não teria tal importância histórica, e certos detalhes perderam-se com a devastação causada pela Segunda Guerra Mundial.
Grande parte dessa história pode ser condensada como se segue:
O "Volksauto"
No início da década de 1930, no ano de 1931, a Alemanha era assolada por uma dura recessão e tinha um dos piores índices de motorização da Europa.
A maioria de suas fábricas era especializada em carros de luxo, montados à mão, e ainda muito caros.
Desde 1925 um conceito básico muito semelhante ao que viria ser o Fusca já existia, obra do engenheiro Béla Barényi (famoso projetista, responsável por várias melhorias de segurança passiva).
Nos anos seguintes vários protótipos e modelos surgiam, como o Superior, da firma Standard, projetado pelo húngaro Joseph Ganz - este modelo inclusive era relativamente barato, cerca de 1 500 marcos.
Até mesmo fora da Alemanha a ideia ganhava forma, com os aerodinâmicos Tatras ganhando as ruas da então Checoslováquia - carros estes que o próprio Hitler conhecia e admirava.
Aerodinâmicos, resistentes e bonitos, possuíam motor traseiro refrigerado a ar, chassis com tubo central e eram obra do engenheiro austríaco Hanz Ledwinka, um conterrâneo e amigo do futuro projetista do Fusca.
Esta ideia cativou também o projetista de carros austríaco Ferdinand Porsche, um conceituado engenheiro da época, que desde 1931 abrira seu próprio escritório de desenho.
Ele também tinha os seus planos para o VolksAuto, planos estes que em breve começariam a ser postos em prática.
Logo assim que montou seu escritório, ele recebeu uma encomenda da Wanderer (parte da Auto Union, atualmente Audi) para uma linha de sedãs de luxo.
Apesar da proposta, o projeto resultante (que recebeu o n° 7, para dar a impressão de não ser o primeiro) era já um pouco semelhante no design ao Fusca.
Nesta época Adolf Hitler havia ascendido ao poder na Alemanha, estando comprometido com a modernização do país e a recuperação da economia, principalmente do emprego.
Entusiasta por carros desde a juventude, Hitler via com bons olhos a ideia do carro do povo desde os tempos em que esteve preso, quando leu sobre Henry Ford.
Para ele a ideia de um "carro do povo", feito por trabalhadores alemães e viajando por todo o país, era a exata realização da plataforma política de seu partido.
Decidido a financiar uma empresa estatal para produzir os automóveis que trafegariam por suas recém-inauguradas Autobahns, Hitler deu sinal verde para o projeto.
Três opções lhe foram oferecidas pelos engenheiros Josef Ganz, Edmund Rumpler e Ferdinand Porsche. Os primeiros dois eram judeus, e obviamente não agradaram a Hitler.
Já Porsche era famoso pelo seu trabalho na Daimler, carros dos quais Hitler gostava, e, talvez mais importante, era amigo de Jacob Werlin, amigo e assessor para assuntos automotivos de Hitler.
Em meados de 1933, Werlin, que conhecia Porsche dos tempos da Daimler-Benz, intermediou o encontro de Porsche com Hitler. Neste encontro, Hitler mostrou-se bem informado sobre os projetos de Porsche na NSU e com opinião formada sobre o "carro do povo".
Hitler tinha pronta uma lista de exigências a serem cumpridas por Porsche, caso o contrato fosse efetivamente firmado:
FONTE: https://pt.wikipedia.org/wiki/Volkswagen_Fusca
#fusca #volkswagen #vwfusca #fusquinha #fuscao
Ignore Tags:
console de fusca como fazer
como fazer console de fusca
console de fusca como fazer
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console de fusca usado
console central de fusca
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console de teto do fusca
console do fusca
5CEGq7zq
Aureo Marques
https://wn.com/Forração_Em_Carpete_Para_Fusca_Volkswagem
LINK DO PRODUTO 👉 https://lista.mercadolivre.com.br/_CustId_513896328
LINK DO VÍDEO 👉 https://youtu.be/FWtJYtWfmrg
O Volkswagen Typ 1, popularmente conhecido como Fusca (no Brasil) ou Carocha (em Portugal), foi o primeiro modelo de automóvel fabricado pela companhia alemã Volkswagen, sendo produzido entre 1938 e 2003.
Foi o carro mais vendido no mundo, ultrapassando em 1972 o recorde que pertencia até então ao Ford Modelo T, de origem estadunidense. Foi produzido até 2003, no México, onde era chamado de VW Sedan.
Ele era parte de uma edição comemorativa chamada Última Edición, limitada a 3 000 carros. O último exemplar marcou o fim da longa produção de 65 anos do Fusca, durante a qual foram fabricados 21 529 464 unidades, números que fazem dele o modelo único mais produzido do mundo em todos os tempos.
História
A história do Fusca é uma das mais complexas e longas da história do automóvel. Diferente da maioria dos outros carros, o projeto do Fusca envolveu várias empresas e até mesmo o governo de seu país, e levaria à fundação de uma fábrica inteira de automóveis no processo.
Alguns pontos são obscuros ou mal documentados, já que o projeto inicialmente não teria tal importância histórica, e certos detalhes perderam-se com a devastação causada pela Segunda Guerra Mundial.
Grande parte dessa história pode ser condensada como se segue:
O "Volksauto"
No início da década de 1930, no ano de 1931, a Alemanha era assolada por uma dura recessão e tinha um dos piores índices de motorização da Europa.
A maioria de suas fábricas era especializada em carros de luxo, montados à mão, e ainda muito caros.
Desde 1925 um conceito básico muito semelhante ao que viria ser o Fusca já existia, obra do engenheiro Béla Barényi (famoso projetista, responsável por várias melhorias de segurança passiva).
Nos anos seguintes vários protótipos e modelos surgiam, como o Superior, da firma Standard, projetado pelo húngaro Joseph Ganz - este modelo inclusive era relativamente barato, cerca de 1 500 marcos.
Até mesmo fora da Alemanha a ideia ganhava forma, com os aerodinâmicos Tatras ganhando as ruas da então Checoslováquia - carros estes que o próprio Hitler conhecia e admirava.
Aerodinâmicos, resistentes e bonitos, possuíam motor traseiro refrigerado a ar, chassis com tubo central e eram obra do engenheiro austríaco Hanz Ledwinka, um conterrâneo e amigo do futuro projetista do Fusca.
Esta ideia cativou também o projetista de carros austríaco Ferdinand Porsche, um conceituado engenheiro da época, que desde 1931 abrira seu próprio escritório de desenho.
Ele também tinha os seus planos para o VolksAuto, planos estes que em breve começariam a ser postos em prática.
Logo assim que montou seu escritório, ele recebeu uma encomenda da Wanderer (parte da Auto Union, atualmente Audi) para uma linha de sedãs de luxo.
Apesar da proposta, o projeto resultante (que recebeu o n° 7, para dar a impressão de não ser o primeiro) era já um pouco semelhante no design ao Fusca.
Nesta época Adolf Hitler havia ascendido ao poder na Alemanha, estando comprometido com a modernização do país e a recuperação da economia, principalmente do emprego.
Entusiasta por carros desde a juventude, Hitler via com bons olhos a ideia do carro do povo desde os tempos em que esteve preso, quando leu sobre Henry Ford.
Para ele a ideia de um "carro do povo", feito por trabalhadores alemães e viajando por todo o país, era a exata realização da plataforma política de seu partido.
Decidido a financiar uma empresa estatal para produzir os automóveis que trafegariam por suas recém-inauguradas Autobahns, Hitler deu sinal verde para o projeto.
Três opções lhe foram oferecidas pelos engenheiros Josef Ganz, Edmund Rumpler e Ferdinand Porsche. Os primeiros dois eram judeus, e obviamente não agradaram a Hitler.
Já Porsche era famoso pelo seu trabalho na Daimler, carros dos quais Hitler gostava, e, talvez mais importante, era amigo de Jacob Werlin, amigo e assessor para assuntos automotivos de Hitler.
Em meados de 1933, Werlin, que conhecia Porsche dos tempos da Daimler-Benz, intermediou o encontro de Porsche com Hitler. Neste encontro, Hitler mostrou-se bem informado sobre os projetos de Porsche na NSU e com opinião formada sobre o "carro do povo".
Hitler tinha pronta uma lista de exigências a serem cumpridas por Porsche, caso o contrato fosse efetivamente firmado:
FONTE: https://pt.wikipedia.org/wiki/Volkswagen_Fusca
#fusca #volkswagen #vwfusca #fusquinha #fuscao
Ignore Tags:
console de fusca como fazer
como fazer console de fusca
console de fusca como fazer
console de fusca personalizado
console de fusca usado
console central de fusca
console de bambu fusca
console fusca madeira
console fusca itamar
console fusca com dvd
console fusca cinza
console central fusca
console central fusca personalizado
console completo fusca
console cambio fusca
console de teto do fusca
console do fusca
5CEGq7zq
Aureo Marques
- published: 03 Aug 2021
- views: 13
2:55
Stahltaube - Steel Dove The First war airplane Pre WWI 1913 warbird replica
Stahltaube - Steel Dove The First war airplane Pre WWI 1913 warbird replica
Built by Joel Marketello
Note Wingwarp lateral control. Operated by 100HP Daimler...
Stahltaube - Steel Dove The First war airplane Pre WWI 1913 warbird replica
Built by Joel Marketello
Note Wingwarp lateral control. Operated by 100HP Daimler engine
http://en.wikipedia.org/wiki/Etrich_Taube
The Taube was designed in 1909 by Igo Etrich of Austria-Hungary, and first flew in 1910. It was licensed for serial production by Lohner-Werke in Austria and by Edmund Rumpler in Germany, now called the Etrich-Rumpler-Taube.
...
The Taube was very popular prior to the First World War, and it was also used by the air forces of Italy and Austria-Hungary. Even the Royal Flying Corps operated at least one Taube in 1912. On November 1, 1911, Giulio Gavotti, an Italian aviator, dropped the world's first aerial bomb from his Taube monoplane over the Ain Zara oasis in Libya.
Wing of History Museum San Martin CA
http://www.wingsofhistory.org/
TilTul http://tiltul.com LinksYouWantToRemember
CIMG7859 Stahltaube Steel Dove The First Warbird Pre WWI
https://wn.com/Stahltaube_Steel_Dove_The_First_War_Airplane_Pre_Wwi_1913_Warbird_Replica
Stahltaube - Steel Dove The First war airplane Pre WWI 1913 warbird replica
Built by Joel Marketello
Note Wingwarp lateral control. Operated by 100HP Daimler engine
http://en.wikipedia.org/wiki/Etrich_Taube
The Taube was designed in 1909 by Igo Etrich of Austria-Hungary, and first flew in 1910. It was licensed for serial production by Lohner-Werke in Austria and by Edmund Rumpler in Germany, now called the Etrich-Rumpler-Taube.
...
The Taube was very popular prior to the First World War, and it was also used by the air forces of Italy and Austria-Hungary. Even the Royal Flying Corps operated at least one Taube in 1912. On November 1, 1911, Giulio Gavotti, an Italian aviator, dropped the world's first aerial bomb from his Taube monoplane over the Ain Zara oasis in Libya.
Wing of History Museum San Martin CA
http://www.wingsofhistory.org/
TilTul http://tiltul.com LinksYouWantToRemember
CIMG7859 Stahltaube Steel Dove The First Warbird Pre WWI
- published: 25 May 2014
- views: 1128
6:32
TIBENHAM VINTAGE RC WARBIRDS - BATTLE OF BRITAIN MEMORIAL FLY-IN - 2016
THE AMAZING VINTAGE MODEL FLYING IN THIS VIDEO IS BASED ON A REAL AIRCRAFT CALLED A ETRICH TAUBE FROM @ 1911
The Etrich Taube, also known by the names of the v...
THE AMAZING VINTAGE MODEL FLYING IN THIS VIDEO IS BASED ON A REAL AIRCRAFT CALLED A ETRICH TAUBE FROM @ 1911
The Etrich Taube, also known by the names of the various later manufacturers who build versions of the type, such as the Rumpler Taube, was a pre-World War I monoplane aircraft. It was the first military aeroplane to be mass-produced in Germany.
the Royal Flying Corps operated at least one Taube in 1912. On November 1, 1911, Giulio Gavotti, an Italian aviator, dropped the world's first aerial bomb from his Taube monoplane over the Ain Zara oasis in Libya. Once the war began, it quickly proved inferior as a serious warplane and as a result was soon replaced by newer and more effective designs.
The Taube was designed in 1909 by Igo Etrich of Austria-Hungary, and first flew in 1910. It was licensed for serial production by Lohner-Werke in Austria and by Edmund Rumpler in Germany, now called the Etrich-Rumpler-Taube. Rumpler soon changed the name to Rumpler-Taube, and stopped paying royalties to Etrich, who subsequently abandoned his patent.
Despite its name, the Taube's unique wing form was not modeled after a dove, but was copied from the seeds of Zanonia macrocarpa, which can fly long distances from their parent tree. Similar wing shapes were also used by Karl Jatho and Frederick Handley Page. Etrich had tried to build a flying wing aircraft based on the Zanonia wing shape, but the more conventional Taube type, with tail surfaces, was much more successful.
THE OTHER WW1 MODEL IS A COPY OF THE REAL AIRCRAFT FOKKER DVIII -
The Fokker E.V was a German parasol-monoplane fighter aircraft designed by Reinhold Platz and built by Fokker-Flugzeugwerke. The E.V was the last Fokker design to become operational with the Luftstreitkräfte, entering service in the last months of World War I. After several fatal accidents due to wing failures, the aircraft was modified and redesignated Fokker D.VIII. Dubbed the Flying Razor by Allied pilots, the D.VIII had the distinction of scoring the last aerial victory of the war.
The first production E.V aircraft were shipped to Jasta 6 in late July. The new monoplane was also delivered to Jasta 1, Jasta 19, Jasta 24 and Jasta 36. Leutnant Emil Rolff scored the first kill in an E.V on August 17, 1918, but two days later he was killed when his aircraft's wing collapsed in flight. After another E.V of Jasta 19 crashed, Idflieg grounded all E.V aircraft. Pending the investigation of these wing failures, production ceased at the Fokker Flugzeugwerke. According to Fokker, the wing failures were caused by the army technical bureau, which had forced him to modify the original design by over-strengthening the rear main spar. This faulty design allegedly caused the wing to twist and fail. Fokker claimed that this defect was resolved by reverting to his original design.
According to most other accounts, the source of the wing failures lay not in the design, but in shoddy and rushed construction. Fokker had subcontracted construction of the E.V wings to the Gebrüder Perzina Pianoforte Fabrik factory. Due to poor quality control, inferior timber had been used and the spar "caps", forming the upper and lower members of each spar assembly, had been placed too far apart during the fabrication. Because the resulting spars were vertically too large to pass through the ribs, excess material was simply planed away from the exposed upper and lower surfaces of the cap pieces, leaving the assembled spars dangerously weak. Other problems included water damage to glued parts, and pins that splintered the spars, rather than securing them.
Tests showed that, when properly constructed, the original E.V wing had a considerable margin of safety. Satisfied that the basic design was safe, Idflieg authorized continued production, after personnel changes and improved quality control measures were introduced at the Perzina factory.
The D.VIII commenced operations on 24 October with Jasta 11. The aircraft proved to be agile and easy to fly. Allied pilots nicknamed it the Flying Razor, because of its sleek appearance and single wing.
Jasta 5 was issued a D.VIII. The famed ace Erich Lowenhardt used the aircraft for a short time and scored a few victories in it, but he continued to favour the Fokker D.VII.
A total of 381 aircraft were produced, but only some 85 aircraft reached frontline service before the Armistice.
PLEASE LIKE US ON FACEBOOK AND SUBSCRIBE TO OUR CHANNEL TBOBBORAP1 AND FOLLOW US ON TWITTER NOW AND KEEP UP TO DATE AND WATCH OUR HD QUALITY RC MODELS VIDEOS AND PICTURE UPDATES OF THE MAJOR UK RC SHOWS AND CLUB FLY-INS AT -
https://www.facebook.com/pages/Tbobbo...
https://twitter.com/TBOBBORAP1
https://www.youtube.com/user/tbobborap1
FILMED AT A BATTLE OF BRITAIN MEMORIAL FLY- IN AT THE SECOND WORLD WAR LIBERATOR BOMBER AIRBASE OF TIBENHAM IN NORFOLK ON 23-9-2016,
https://wn.com/Tibenham_Vintage_Rc_Warbirds_Battle_Of_Britain_Memorial_Fly_In_2016
THE AMAZING VINTAGE MODEL FLYING IN THIS VIDEO IS BASED ON A REAL AIRCRAFT CALLED A ETRICH TAUBE FROM @ 1911
The Etrich Taube, also known by the names of the various later manufacturers who build versions of the type, such as the Rumpler Taube, was a pre-World War I monoplane aircraft. It was the first military aeroplane to be mass-produced in Germany.
the Royal Flying Corps operated at least one Taube in 1912. On November 1, 1911, Giulio Gavotti, an Italian aviator, dropped the world's first aerial bomb from his Taube monoplane over the Ain Zara oasis in Libya. Once the war began, it quickly proved inferior as a serious warplane and as a result was soon replaced by newer and more effective designs.
The Taube was designed in 1909 by Igo Etrich of Austria-Hungary, and first flew in 1910. It was licensed for serial production by Lohner-Werke in Austria and by Edmund Rumpler in Germany, now called the Etrich-Rumpler-Taube. Rumpler soon changed the name to Rumpler-Taube, and stopped paying royalties to Etrich, who subsequently abandoned his patent.
Despite its name, the Taube's unique wing form was not modeled after a dove, but was copied from the seeds of Zanonia macrocarpa, which can fly long distances from their parent tree. Similar wing shapes were also used by Karl Jatho and Frederick Handley Page. Etrich had tried to build a flying wing aircraft based on the Zanonia wing shape, but the more conventional Taube type, with tail surfaces, was much more successful.
THE OTHER WW1 MODEL IS A COPY OF THE REAL AIRCRAFT FOKKER DVIII -
The Fokker E.V was a German parasol-monoplane fighter aircraft designed by Reinhold Platz and built by Fokker-Flugzeugwerke. The E.V was the last Fokker design to become operational with the Luftstreitkräfte, entering service in the last months of World War I. After several fatal accidents due to wing failures, the aircraft was modified and redesignated Fokker D.VIII. Dubbed the Flying Razor by Allied pilots, the D.VIII had the distinction of scoring the last aerial victory of the war.
The first production E.V aircraft were shipped to Jasta 6 in late July. The new monoplane was also delivered to Jasta 1, Jasta 19, Jasta 24 and Jasta 36. Leutnant Emil Rolff scored the first kill in an E.V on August 17, 1918, but two days later he was killed when his aircraft's wing collapsed in flight. After another E.V of Jasta 19 crashed, Idflieg grounded all E.V aircraft. Pending the investigation of these wing failures, production ceased at the Fokker Flugzeugwerke. According to Fokker, the wing failures were caused by the army technical bureau, which had forced him to modify the original design by over-strengthening the rear main spar. This faulty design allegedly caused the wing to twist and fail. Fokker claimed that this defect was resolved by reverting to his original design.
According to most other accounts, the source of the wing failures lay not in the design, but in shoddy and rushed construction. Fokker had subcontracted construction of the E.V wings to the Gebrüder Perzina Pianoforte Fabrik factory. Due to poor quality control, inferior timber had been used and the spar "caps", forming the upper and lower members of each spar assembly, had been placed too far apart during the fabrication. Because the resulting spars were vertically too large to pass through the ribs, excess material was simply planed away from the exposed upper and lower surfaces of the cap pieces, leaving the assembled spars dangerously weak. Other problems included water damage to glued parts, and pins that splintered the spars, rather than securing them.
Tests showed that, when properly constructed, the original E.V wing had a considerable margin of safety. Satisfied that the basic design was safe, Idflieg authorized continued production, after personnel changes and improved quality control measures were introduced at the Perzina factory.
The D.VIII commenced operations on 24 October with Jasta 11. The aircraft proved to be agile and easy to fly. Allied pilots nicknamed it the Flying Razor, because of its sleek appearance and single wing.
Jasta 5 was issued a D.VIII. The famed ace Erich Lowenhardt used the aircraft for a short time and scored a few victories in it, but he continued to favour the Fokker D.VII.
A total of 381 aircraft were produced, but only some 85 aircraft reached frontline service before the Armistice.
PLEASE LIKE US ON FACEBOOK AND SUBSCRIBE TO OUR CHANNEL TBOBBORAP1 AND FOLLOW US ON TWITTER NOW AND KEEP UP TO DATE AND WATCH OUR HD QUALITY RC MODELS VIDEOS AND PICTURE UPDATES OF THE MAJOR UK RC SHOWS AND CLUB FLY-INS AT -
https://www.facebook.com/pages/Tbobbo...
https://twitter.com/TBOBBORAP1
https://www.youtube.com/user/tbobborap1
FILMED AT A BATTLE OF BRITAIN MEMORIAL FLY- IN AT THE SECOND WORLD WAR LIBERATOR BOMBER AIRBASE OF TIBENHAM IN NORFOLK ON 23-9-2016,
- published: 14 Oct 2016
- views: 3379