Le MEILLEUR AS de la BATAILLE DE VERDUN fut OUBLIÉ pendant UN SIÈCLE !
Il s’appelait Maxime Lenoir. Les combattants allemands le connaissaient comme le loup blanc. Ses exploits furent cités dans la presse française et étrangère. Il était l’aviateur tourangeau le plus célèbre en 1916.
Vous pouvez taper “Maxime Lenoir”, ou “une autre histoire de l’aviation” dans la recherche sur Amazon.
Le livre en résumé:
Régulièrement, on nous sert une histoire de l’aviation différente d’un pays à l’autre, qu’on soit en France, au Japon, en Allemagne, en Angleterre ou aux États-Unis.
Connaît-on vraiment l’œuvre de Clément Ader?
Pourquoi maintient-on que les frères Wright ont volé les premiers, et ont même tout inventé de l’aviation (pourquoi pas, tant qu’on y est!) alors que Gustave Whitehead aurait volé bien avant eux?
Pourquoi la première montgolfière fut un événement aussi important que l’alunissage d’Apollo 11?
Quel est ce génie qui faisait voler des drones électriques (oui, oui, vous avez bien lu!) en Indre-et-Loire au XIXe siècle?
Pourquoi Léonard de Vinci aurait-il été ravi d’assister à un spectacle en mai 1914 près d’Amboise, lieu de sa dernière résidence?
Pourquoi Maxime Lenoir, le meilleur pilote de chasse de la bataille de Verdun est-il resté si peu connu pendant un siècle?
Ces questions et bien d’autres vont être abordées dans une autre vision de l’histoire de l’aéronautique. Des toutes premières tentatives relatées dans le monde, aux ballons à air chaud à l’aube de la Révolution française, jusqu’à ces merveilleux fous volants dans leurs drôles de machines. Il s’agit de retracer ce qui a fait que l’homme vole depuis l’antiquité jusqu’à 1916. La seconde partie est consacrée à l’as Maxime Lenoir et l’importance de la guerre aérienne lors de la Première Guerre mondiale, au dessus des tranchées dans le ciel de Verdun.
Cet ouvrage s’adresse à un large public: aux curieux, aux passionnés, aux chercheurs et aux étudiants du BIA (Brevet d’Initiation Aéronautique) et CAEA (Certificat d’Aptitude à l’Enseignement Aéronautique) pour lesquels un module du cursus est consacré à l’histoire de l’aviation et de l’espace. De nombreuses images, vieilles photos et cartes postales anciennes illustrent cet ouvrage pour témoigner de cette fabuleuse épopée, cette aventure humaine qui finira au bout d’un long périple par conquérir l’air et même par guerroyer dans le ciel.
A few days after he succeeded in crossing the Channel, I thought it was time to show who and what gave Yves Rossy the incentive to perform such breathtaking feats. Let’s have a look at this hero’s career.
When he was a child, he said “When I am older, I will be pilots” – with an S ! This became his motto from the day he got unable to go down from a tree by himself. The child has now become “Fusionman”. In order to understand what motivated this pilot, watch and listen to Yves Rossy’s comments (in French) on the video below:
As he explained, Yves Rossy has always admired the first pioneers. Every attempt used to end by death or breakthrough. Yves Rossy has now become “Fusionman”, the first man flushed in a jet-engine-propelled wing, flying as if he were Icarus.
Yves Rossy was born on the 27th of August 1959 in Neufchatel – Switzerland. Both gazing skywards, and having his feet firmly planted on the ground, he was taught technical education and passed a mechanics baccalauréat. Natural-born sportsman, he has practised everything that glides, slides, or flies – surfing, waterskiing, wakeboarding, skysurfing, parachuting, aerobatics, motorcycling, rafting, hang-gliding, etc. Flying with a jet-powered wing is the crowning of a 30-year career and numerous stunts, feats, and premieres.
Certainly one of the most intense periods in his career. Yves Rossy flew the supersonic Mirage III for 15 years. During this period, he flew some historical aircraft such as the Hunter or the Venom, one of the first English jet-engine fighters. He got the idea of going round Switzerland throughout several activities within a day. He carried out this feat on the 3rd of July 1991. During his trip, he flew a DC-9, went motorcycling, skiing, snowboarding, mountaineering, paragliding, mountain-biking, bungee-jumping, he flew a helicopter, went skydiving, rafting, hydrospeeding, canoeing, drove a sportscar, went hang-gliding, horse-riding, barefooting, waterskiing, wakeboarding, and finally speedboating – that’s enough… 25 vehicles were used this day along 1,000 km for 15 hours and a half! Yves Rossy is a Swiss Air Force retiree, and keeps flying the two-seater Hunter belonging to the association Amici del Hunter. He works as a captain at Swiss Airlines, and his spare-time is dedicated to his passion. He has been supported since February 2007 by Jean-Claude BIVER, HUBLOT watches’ CEO.
HE FANCIES DOING WHAT NEVER HAPPENED BEFORE
Yves Rossy is used to venturing off the beaten tracks. He devotes all his hobbies to flight in all its forms. He multiplies the tests on contrivances that change with the passing experiments. An inflatable wing made him get over the 12-kilometer distance between the two shores of Lake Geneva. Many stunts were reported such as hang-gliding over the huge Geneva spray to surf on top of it, then land on the lake to grab a waterskiing handle, and get to the shore without getting wet! Another feat – he skydived on a disk over the Matterhorn. As Yves Rossy whished to get beyond his feats and dreams, he wanted to fly with as little instrumentation as possible – like a bird with the ability to move and steer into space, he got the idea of adding scale model jet engines under a wing.
The first attempt occurred in March, 2003. The German Jet-Cat company supplied the engines which were added under an inflatable wing, but this trial was a failure for lacking of rigidity. He developed a rigid spreadable carbon wing built-up at ACT Composites’ in 2004. It made an indifferent start. He spun and had to drop his wing at Al-Ain airshow. The wing parachute tore, and the device was damaged. From that time, the pilot worked hard to improve the spreading of the wing and aerodynamics at the wing tips in order to provide more stability. He achieved two flights with a two-jet-engine-propelled wing in 2005. He had a narrow shave a month later: an uncontrollable sway led him to drop his wing which crashed. After a long year and two extra jet engines added, the wing became more secure. As a matter of fact, the 5’40” over Bex – Switzerland – came up as an awaken dream for this pioneer. Since then, Yves Rossy has relentlessly been training to optimize his wing. Yves was compelled again to drop his prototype wing while in a new test flight in April 2007. The wing was seriously damaged and took a few months to be repaired. In the aftermath of this failure, Yves Rossy decided to build up a new, more reliable, higher-performance wing. Since early 2008, his wings have become more and more sophisticated.
Finally, Yves “Fusionman” “Rocketman” “Jetman” Rossy found his place in Aviation History on the 26th of September 2008, having joined Calais – France – to Dover – England. Congratulations to Yves Rossy and thanks to MEDIA IMPACT and its staff which supplied me with materials and information to write a post about Yves Rossy.
A program conducted between 1979 and 1982 at the NASA Dryden Flight Research Center, Edwards, Calif., successfully demonstrated an aircraft wing that could be pivoted obliquely from zero to 60 degrees during flight. The unique wing was demonstrated on a small, subsonic jet-powered research aircraft called the AD-1 (Ames Dryden -1). The aircraft was flown 79 times during the research program, which evaluated the basic pivot-wing concept and gathered information on handling qualities and aerodynamics at various speeds and degrees of pivot.
The oblique wing concept originated with Robert T. Jones, an aeronautical
engineer at NASA’s Ames Research Center, Moffett Field, Calif.
Analytical and wind tunnel studies Jones initiated at Ames indicated that a transport-size oblique-wing aircraft, flying at speeds up to Mach 1.4 (1.4 times the speed of sound), would have substantially better aerodynamic performance than aircraft with more conventional wings. At high speeds, both subsonic and supersonic, the wing would be pivoted at up to 60 degrees to the aircraft’s fuselage for better high-speed performance. The studies showed these angles would decrease aerodynamic drag, permitting increased speed and longer range with the same fuel expenditure. At lower speeds, during takeoffs and landings, the wing would be perpendicular to the fuselage like a conventional wing to provide maximum lift and control qualities. As the aircraft gained speed, the wing would be pivoted to increase the oblique angle, thereby reducing the drag and decreasing fuel consumption. The wing could only be swept in one direction, with the right wingtip moving forward.
The AD-1 aircraft was delivered to Dryden in February 1979. The Ames Industrial Co., Bohemia, N.Y., constructed it, under a $240,000 fixed-price contract. NASA specified the overall vehicle design using a geometric configuration studied by the Boeing Commercial Airplane Company, Seattle, Wash. The Rutan Aircraft Factory, Mojave, Calif., provided the detailed design and load analysis for the intentionally low-speed, low-cost airplane. The low speed and cost of course limited the complexity of the vehicle and the scope of its technical objectives.
Piloting the aircraft on its first flight Dec. 21, 1979, was NASA research pilot Thomas C. McMurtry, who was also the pilot on the final flight Aug. 7, 1982. Powered by two small turbojet engines, each producing 220 pounds of static thrust at sea level, the aircraft was limited for reasons of safety to a speed of about 170 mph. The AD-1 was 38.8 feet in length and had a wingspan of 32.3 feet unswept. It was constructed of plastic reinforced with fiberglass, in a sandwich with the skin separated by a rigid foam core. It had a gross weight of 2,145 pounds, and an empty weight of 1,450 pounds. A fixed tricycle landing gear, mounted close to the fuselage to lessen aerodynamic drag, gave the aircraft a very “squatty” appearance on the ground. It was only 6.75 feet high. The wing was pivoted by an electrically driven gear mechanism located inside the fuselage, just forward of the engines.