Aerospace Medicine and Human Engineering

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Aerospace Medicine and Human Engineering

description

Aerospace Medicine and Human Engineering. Beginnings of Aerospace Medicine . Established in 1918 with the founding of the Army Aviation Medical Research Laboratory at Hazelhurst Field. Research was conducted to support flyers in WW I. STRESSES. P-38 Lightning. 1941. 410+ mph, 35,000’. - PowerPoint PPT Presentation

Transcript of Aerospace Medicine and Human Engineering

Page 1: Aerospace Medicine and Human Engineering

Aerospace Medicine and Human Engineering

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Beginnings of Aerospace Medicine

• Established in 1918 with the founding of the Army Aviation Medical Research Laboratory at Hazelhurst Field.

• Research was conducted to support flyers in WW I.

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STRESSES

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P-38 Lightning

1941

410+ mph, 35,000’

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P-47 Thunderbolt

1941

435+ mph, 42,000’

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P-80 Shooting Star

1944

550+ mph, 45,000’

1st Jet

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Air Supremacy• Theory that you must “control the skies” before you

can win on the ground– Bombers– Fighters– Anti-Aircraft Artillery (AAA, or Triple A)– Surface to Air Missiles (SAMs)

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http://www.history.com/media.do?id=dogfights_mpfernandez_broadband&action=clip

DOG FIGHTS require flying an aircraft

to it’s limits

CREATING

STRESSES!

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Beginnings of Aerospace Medicine

• The study of flight physiology started with the balloon ascension of Joseph and Etienne Montgolfier.

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Beginnings of Aerospace Medicine

• French physicist Jacques Charles

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Beginnings of Aerospace Medicine

• John Jeffries and Jean-Pierre Blanchard

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Beginnings of Aerospace Medicine

• Coxwell and Glaisher

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Beginnings of

Aerospace Medicine • The Father of Aviation

Medicine-Paul Bert• Conducted experiments

with barometric pressure• Proved the principle

effects of altitude on the body

• Made the first low-pressure altitude chamber

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Beginnings of Aerospace Medicine

• Sivel, Croce’-Spinelli and Tissandier• Conducted experiments by refraining from

oxygen.• Before they were aware that they were suffering

from oxygen starvation they became paralyzed. • Tissandier was the only survivor.

1875

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Beginnings of Aerospace Medicine • Schools of Aviation Medicine

• The Signal Corp established an Aeronautical Division in 1907.

• In 1917, General Theodore Charles Lyster was the first chief surgeon, Aviation Section, Signal Corps, United States Army.

• In 1953, General Harry G. Armstrong participated in the establishment of the Aeromedical Laboratory in Dayton, Ohio.

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Care of Flyers • The Armed Forces have doctors with

special training in the care of flyers.

• Flight surgeons perform periodic examinations on fliers to evaluate their physical and mental fitness.

• The flight surgeon is not only concerned about the pilot but also the conditions the pilot finds in the cockpit.

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Flight Physical• Every year• When sick, you’re put on DNIF:

– “Duty Not to Include Flying”• Drug testing at any time• “GROUNDED!” Not words you want to

hear!– $800/month extra pay on flight status– Sometimes $12,000/year bonus– The joy of flying

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Stress Test• 0-149 Low susceptibility

to stress-related illness• 150-299 Medium

susceptibility to stress-related illness.

• 300 + High susceptibility to stress-related illnessDaily practice of relaxationskills is very important for your wellness. Take care of itnow before a serious illness erupts or an affliction becomesworse.

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READ PP. 2-31 TO 2-37

COMPLETE WORKBOOK, P. 35 & 39-40 (PARTS A & D)

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Man and Machine • The matching of man and machine is constantly

under study by human engineering• Every control and instrument in the aircraft

must be developed with regard to the pilots needs

• The military has had standardization of the instrument panel since high-performance aircraft came into use

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• “Basic T” design of instrumentation

• attitude indicator is in top center, airspeed to the left, altitude to the right and heading indicator under the attitude indicator.

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Man and Machine • Servomechanisms are an important area of

interest to human engineering.• Another area of importance in human

engineering is in designing protective equipment for flight.

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Research on the Fringe of Space • Balloons - Valuable for collecting

physiological data.• In 1931, Auguste Piccard perfected the

oxygen-pressure gondola for balloons.• In 1935, Captains Anderson and Stevens

ascended to 72,395 feet.• In 1957 Major Simons ascended to 102,000

feet.

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Research on the Fringe of Space • The Excelsior balloon flights began in 1959

• Captain Kittinger rode in an open gondola protected only by his oxygen supply and pressure suit.

• On the first flight he jumped from the gondola at 76,400 feet.

• The second and third flights were completed successfully. On the third he ascended and jumped from a height of 102,800 feet.

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Research on the Fringe of Space • Research Aircraft: X-1

• The first U.S. rocket aircraft.• Chuck Yeager became the first man to fly faster

the speed of sound.

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Research on the Fringe of Space • Research Aircraft: X-2

• The X-2 was subjected to intense friction heating. • The pilot was protected with cooling equipment in

his pressure suit.

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Research on the Fringe of Space • Research Aircraft: X-15

• The X-15 reached a speed of 4,534 mph and an altitude of 354,200 feet.

• Several pilots received astronaut ratings.

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Research on the Fringe of Space • Research Aircraft: X-24B

• Wingless with a flat undersurface. • X-24B research program was conducted with

NASA.

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Research on the Fringe of Space • Animal Astronauts

• Scientists and engineers began experimenting with rockets following World War II.

• Medical researchers then sent animals into the upper atmosphere.

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Research on the Fringe of Space • Animal Astronauts

• Mice and other small animals were used for the early experiments.

• As rockets became more powerful, larger payloads could be sent into space.

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Research on the Fringe of Space • Before American astronauts were rocketed

into space, two chimpanzees were used to test the mercury spacecraft and the flight plan.

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Summary

1. Beginnings of Aviation Medicine2. Care of Flyers3. Man and Machine4. Research on the Fringe of Space