Wait a second!
More handpicked essays just for you.
More handpicked essays just for you.
The Invention Of Aeroplane
Historical development of aircraft
WWI and Early Cold Aviation
Don’t take our word for it - see why 10 million students trust us with their essay needs.
Recommended: The Invention Of Aeroplane
Tristan Gilliland
Mr. Bynum and Mrs. Silva
Networking AM
29 October 2014
Swain’s Aerospace Contribution
Introduction
“Aviation is proof that given, the will, we have the capacity to achieve the impossible” (Brainyquote.com). Eddie Rickenbacker describes the ability of the human mind to achieve the impossible by creating the means to fly. This statement epitomizes David O. Swain –Aerospace Engineer and former Senior Vice President of Boeing- and the contributions to technology, aviation, and the world he helped provide. Without the revolutionary technology he was a part of today’s military would not be the same.
Biographical Information
David O. Swain was born July 30th, 1942, in the town of Liston, Indiana. His parents were owners of
…show more content…
a farm, which was their small business, Swain states, “[They] taught me good values and a spirit of competiveness” (Purdue). He grew up and attended High school in Liston. He states in an interview from his alma mater Purdue, “I decided to study aeronautics and astronautics at Purdue because of two things. First was the Soviets' launching of Sputnik in 1957, which prompted people to come around to my high school to encourage us to consider careers in science and technology.” He attended Purdue University and graduated with a Bachelor’s of Science in Aerospace Engineering. He joined McDonnell Douglas right out of college in 1964, he started as an engineer for the Gemini Project. In 1972 he switched to the Tactical Missiles program and was a part of the creation of the Tomahawk and Harpoon/Standoff Land Attack Missile (NASA). He was married sometime in between and had his first daughter, Alexis, in 1978. His second daughter, who is now an actress, Dominique on August 12, 1980. Finally, his third daughter, Chelsea, in 1982 (Dominique Swain). “In 1987 he became vice president and general manager for strategic business development at McDonnell Douglas Astronautics Company. In 1991 he became senior vice president and the program manager for C-17 programs (NASA). McDonnell Douglas was bought and merged with Boeing on December 15, 1996. Swain would become the president of Phantom Works, which is the experimental military technology division of the Boeing Aerospace Company. Not long after, he would become Senior Vice President of Engineering and Technology for all of Boeing (NASA). Just prior to this in 1993, Swain received the Distinguished Engineering Alumnus Award from Purdue University (Purdue). Six years later in 1999, he received the Outstanding Aerospace Engineer Award from Purdue as well (NASA). According to the Industrial Research Institute, Swain became Chief Operating Officer of Integrated Defense Systems for Boeing in 2002, and later retired in October of 2004, this prompted the Industrial Research Institute to award Swain the 2006 IRI Medal, which, “recognizes and honors leaders of technology for their outstanding accomplishments in technological innovation which contribute broadly to the development of industry and to the benefit of society.” Key Invention David O.
Swain was senior vice president at McDonnell Douglas at the time of the merger with Boeing, during this time development and research had been started on a new type of jet fighter for the U.S. Military, called the F-18 Super Hornet (Boeing: F/A-18E/F Super Hornet). However, the history of jets stretches back to the experimental jet engines of World War II, and the first combat operational jet fighter belonged to the German Luftwaffe; it was called the Messerschmitt 262 or ME 262. According to Kennedy Hickman, the Messerschmitt’s development truly began in 1939 before the war and was code named Projekt P.1065. The development was met with mixed reviews as many of the veteran Luftwaffe officers believed that the classic piston engine planes would be the planes to win the Second World War, not experimental jet engines. The first test flight was the 18th of April, 1941, the Me 262 was running a Junkers Jumo 210 Prop Engine because the flight was only to test the airframe of the plane, it also gave time for the finishing of the BMW 003 turbojets and their fitting (Me-262). Testing continued for just over a year and the final “pure” jet Me 262 was flown on July 18th, 1942. The jet was operational still 9 months earlier than any other jet. The Me 262 was a major threat to the allies during World War II, they claimed a total of 509 Allied kills, while reporting only 100 loses. After the war the Allies researched the planes technology after capturing the rest after their victory, the Me 262 had direct connection to future fighters as its elements were incorporated into them, and example is the U.S. F-86 Sabre which was used in action during the Vietnam war. It was also used in high speed testing and research, and the same plane was mimicked by Czechoslovakian government as the Avia S-92 and the CS-92 (Hickman). The development of the German Messerschmitt 262 led to the development of jet engine technology that has led to the jet fighters we know to this
day. Creation of Subsequent Technology due to the application of Key Invention As the President of Phantom Works and Senior Vice President of Engineering and Tech David Swain, oversaw designs and development for the F-18 Hornet which was improved to the F/A-18 Super Hornet E/F. E designation means it is a single pilot craft, while F designation means it contains two seats for pilot and co-pilot. The plane was developed as an all-purpose military aircraft, it can be used for maritime strikes from aircraft carriers, fight in day or night, provide reconnaissance, fighter escort, and perform well in air to air combat. The plane was designed to carry all aspects of military armament, it has a massive 11 weapons systems, and supports, “full complement of smart weapons, including laser-guided bombs” (Boeing: F/A-18E/F Super Hornet). The Super Hornet boasts two General Electric F414-GE-400 engines, the engines themselves boast a sleek design to reduce the planes signature on radar, provide increased airflow, and have 22,000 pounds of thrust per engine. The development began in 1992, with a production cap of $4.8 Billion. The planes first flight was November 29, 1995, and testing continued until it was put into full production on February 15, 2000. As technology has developed over the 21st century, the Super Hornet has adapted. With new types of radar and weapons systems, like smart weapons and laser-guided bombs, the plane has been upgraded to implement these systems and technology (Boeing: F/A-18E/F Super Hornet). Additionally, alongside the development of the Super Hornet, two more prominent aircraft were being developed, the F-35 Lightning II in 1997, and the F-22 Raptor also in 1997. The Lightning II was developed as a multi-role fighter just like the Super Hornet, however, it specializes in Advanced Electronic Warfare. This means that the pilot can jam enemy radar, and track enemy forces from within the cockpit, with less reliability on communication with ground command. The Lightning II’s stealth capabilities allow it to enter airspace flying low, and not be detected by radar, where other fighters would be (F-35 Program Timeline). On the other hand, the F-22 Raptor was developed to be a high-altitude, stealth, air dominance fighter. It uses supercruise engines, which allows it to reach speeds in excess of Mach 1.5 and altitudes of up to 50,000 ft. and maintain maneuverability (F-22 Raptor). It specializes in modern visual dogfights, which is air to air fighter combat where fighters are in sight of each other while in combat. These aircraft are the technology that came about based off the same ideas as the F-18 Super Hornet, and they all stem from the original Me 262 German fighter. New Technology Based on Application of Subsequent Technology The new technology being developed by the US government but, due to the sensitivity of the technological information to concrete details have been released. The fighters are 6th generation and have been dubbed the Next Generation TACAIR, they are not planned to reach service until possibly 2025-2030, as the F-22 and F-35 have only been in active service since 2005. Some conceptual designs have been released by Lockheed Martin with the goals of “greater speeds and self-healing structures.” On the other side, Boeing’s Phantom Works –David Swain’s former division – is focusing on developing the successors to be of the F-35, F-22, and F-18 fighters, with a new F/A-XX concept to possibly replace the Super Hornet in 2030. These concepts are the only released information for the future technology in the field of 6th generation jet fighters (Sixth Generation Fighter Aircraft: Rise of the F/A-XX). Conclusion David O. Swain is an Aerospace Engineer and former Chief Operating Officer of Integrated Defense Systems for Boeing. He took lead in development of the F/A-18 Super Hornet jet fighter. The development of all jets has been based off the initial design of the German Messerschmitt 262 from World War II, as technology advanced so did jet fighters and aviation. The Super Hornet was born in 1992 and the other jets of its generation, the F-22 and F-35 were born five years later. Now the 6th Generation of US Jet fighters are beginning to be developed and technology continues its never ceasing advance into the future. The impact of the jet fighter on combat and how wars are fought has been monumental, in fact changing all aspects of combat forever. Works Cited "Boeing: F/A-18E/F Super Hornet." Defense, Space, Security. Boeing Company, n.d. Web. 21 Oct. 2014. Industrial Research Institute. "David O. Swain, 2006 IRI Medalist." Iriweb.org. Industrial Research Institute, 23 May 2006. Web. 20 Oct. 2014. Purdue. "David O. Swain." College of Engineering. Purdue.edu, n.d. Web. 20 Oct. 2014. NASA. "David O. Swain." Speaker Biographies. NASA, 2001. Web. 22 Oct. 2014. "Dominique Swain." IMDb. IMDb.com, n.d. Web. 20 Oct. 2014. "F-22 Raptor." F-22raptor.com. F-22 Raptor Team, 11 Apr. 2012. Web. 21 Oct. 2014. "F-35 Program Timeline." Www.f35.com. Lockheed Martin, n.d. Web. 20 Oct. 2014. Hickman, Kennedy. "World War II: Messerschmitt Me 262." About.com. About Education, n.d. Web. 21 Oct. 2014. "Me-262." Collingsfoundation.org. The Collings Foundation, n.d. Web. 21 Oct. 2014. "Sixth Generation Fighter Aircraft: Rise of the F/A-XX." Airforce-Technology.com. Air force Technology, 21 Aug. 2012. Web. 21 Oct. 2014.
Tom Wolfe writes in the book “The Right Stuff” about early jet pilots that demonstrated extreme bravery, and behaviorisms that enabled them to be part of a furtive group of individuals. It has been said that these men usually assemble in groups among themselves in a way that solicited the men to be a part of a privileged membership. It is these pilots with proven courage, and abilities that will go forward testing the next barrier: space. These tried and tested men have willingly placed themselves in danger day in and day out, yearning for the spot up the ladder to the top of the pyramid. It was not just a job for these pilots to break the sound barrier and beyond, but rather an obsession to become the next man at the top.
A SWOTT analysis is used to present a detailed picture of the health of a company. This tool can be used to tune up or diagnose and repair issues that are worn or in the process of becoming faulty. Managers have access to a tool that will allow them to effectively evaluate and make decisions. The SWOTT analysis can ensure that issues are identified and classified so they may be prioritized properly. The problem is shown so managers can see the answer.
The name General Carl ‘Tooey’ Andrew Spaatz has become synonymous with the phrase air power and strategist. Air power has come along way since Wilbur and Orville launched the first airplane in 1902 in the city of Kitty Hawk. Famous engineers have taken the Wright-Brothers design and made great improvements to them while slowly integrating these new powerful means of transportation, weaponry and communication aids into the military. Since the onset of World War I there has been a debate on how to most effectively use these new airplanes in the Army’s collection. Most individuals believed that airplanes should be under control of the Army theater commander, while very few felt that these airplanes should be a separate entity from the Army. One of these few people who believed that the Air Force should be separate is General Spaatz. General Spaatz possessed perseverance, leadership attributes and military knowledge; all factors leading him becoming a substantial proponent of a separate Air Force. Spaatz legacy continues to live on; his leadership skills continue to influence people today as General Spaatz is still able to impact air power in the 21st century.
Armies and Navies have clashed since antiquity, but the airplane that enables aerial combat is barely a century old. Airplanes saw widespread combat in the First World War, and, despite the doubts and financial concerns of military leaders of the time, the brave men who fly them have gained their own dedicated military division, the United States Air Force. Billy Mitchell, through his charisma and an image that endeared him in American culture, was an instrumental figure in developing the modern Air Force.
“I cut the emergency switch just in time to keep ‘Winnie Mae’ from making an exhibition of herself by standing on her nose. That would have been fatal to our hopes.” –Wiley Post Throughout his incredible career, Mr. Wiley H. Post unceasingly strived for excellence and continuously pushed the envelope in aviation. Despite several hardships and the obstacles he faced, he never knew the meaning of giving up. He made numerous breakthroughs during the era of the Golden Age of Aviation. In these following paragraphs you will see several “snapshots” of the amazing life of a one-eyed pilot who drastically changed aviation. Wiley H. Post, the pilot who put it all on the line to fly not only a little faster, at a little higher altitude, but a little farther than everyone else, just one more time.
Heppenheimer, T. (2001). A Brief History Of Flight: From Balloons to Mach 3 and Beyond. Canada: John Wiley & Sons, Inc.
What would the world be like without flight? Today we take aircraft for granted but for centuries man could only dream of flight. It was not until the late nineteenth century that human flight started to become a reality. During this time people started to see flight as a possibility, and enthusiastic inventors began working on and experimenting with many different types of flying machines. Although there were many determined people trying to develop an airplane, the Wrights were the first because of their good methods of testing, and their focus on understanding and developing lift and control.
Leonardo provided innovative thought in the study of flight. He focused on aviation for over 23 years. Credited for using the scientific method for the first time to study flight, he observed how birds fly and then applied that knowledge to try to achieve human flight (Cooper 53). Leonardo devoted much energy into making a flying machine utilizing manually powered wings attached to a person (Kallen 55-57). Over the years, he added more and more devices to help control the plane, such as landing gear, wing slots, and a tail for steering (Cooper 53). However, he never got the flying machine to work because it weighed too much and humans could not provide enough power (53). He also made sketches for an “aerial screw” that were the basis for the design of the modern day helicopter (Hart 328). Leonardo derived the sketches from a Chinese toy that whirled rapidly (Byrd 28). The lack of a powerful enough engine to rotat...
There are many pioneers who carved the way for the modern aviation industry that we see today. This essay is about the aviation pioneer named Howard Hughes. Howard was raised in a wealthy household. As a young man, he was fascinated with aviation. Instead of sitting in a classroom, he preferred tinkering away on mechanical objects. He was a playboy billionaire who spent a majority of his wealth innovating within the aviation industry and film making. His contributions to aviation seemed boundless. He produced films, set flying records, and was an innovator to some of the world’s first aircraft. He was truly one of the greatest aviators in world history.
As a conclusion, I hope these previous paragraphs have given you the knowledge that everyone dealing with physics or airplanes should possess. These factors may not show all that physics has to contribute in the flight of an aircraft but they do show the major contributions. After reading these paragraphs, you should now have greater respect for physics, not just in airplanes, but in the world, because it is all around you and nothing can exist or work without it.
Flight is one of the most important achievements of mankind. We owe this achievement to the invention of the airfoil and understanding the physics that allow it to lift enormous weights into the sky.
Travelling at a speed twice that of sound might seem to be futuristic; however, this feat was already achieved almost 40 years ago by the world’s only supersonic passenger aircraft, the Concorde. Concorde brought a revolution in the aviation industry by operating transatlantic flights in less than four hours. The slick and elegant aircraft with one of the most sophisticated engineering was one of the most coveted aircraft of its time. However, this was all destined to end when Air France Flight 4590 was involved in a tragic disaster just outside the city of Paris on July 25, 2000. The crash killed 113 people, but more disastrous was its impact.
Wise, J. (2006, June 05). Introducing the airplane of the future. Popular Mechanics. Retrieved from http://www.popularmechanics.com/technology/aviation/news/2932316
Ever since I was little I was amazed at the ability for a machine to fly. I have always wanted to explore ideas of flight and be able to actually fly. I think I may have found my childhood fantasy in the world of aeronautical engineering. The object of my paper is to give me more insight on my future career as an aeronautical engineer. This paper was also to give me ideas of the physics of flight and be to apply those physics of flight to compete in a high school competition.
Flying thousands of feet up in the sky is a dream of many young children, but very few actually end up as a pilot when they grow up. Commercial airline pilots will always be needed, but many people do not even think about choosing this as a career. Pilots have extremely important jobs. They must fly people place to place with no problems while at the controls of thousands of pounds of metal and flammable fuel, not to mention the many passengers. A pilot’s job is very risky, but it is also very rewarding.