boeing's diffusion of commercial aircraft technolo
2022年考研考博-考博英语-国防科技大学考试全真模拟易错、难点剖析AB卷(带答案)试题号:59
2022年考研考博-考博英语-国防科技大学考试全真模拟易错、难点剖析AB卷(带答案)一.综合题(共15题)1.单选题The marketing of industrial products necessitated large-scale storage spaces, and enormous shops selling under one roof a wide variety of items.问题1选项A.identifiedB.replacedC.requiredD.supplied【答案】C【解析】考查动词辨析。
A项identify“确定,鉴定,识别”,B项replace“取代,代替,替换”,C项require“需要,要求”,D项supply“供给,提供”。
句意:工业产品的营销需要大规模的存储空间,以及一个可以销售各种各样商品的巨大商店。
necessitate在句中表示“需要”,四个选项中意思与之相近的是C项。
因此,该题选择C项。
2.单选题The building is a great success, ______ a triumph, for the designer.问题1选项lyB.or ratherC.andD.particularly【答案】B【解析】考查连词辨析。
A项namely“也就是,即是”,B项or rather“更精确地说,倒不如说”,C项and“和”,D项particularly“异乎寻常地,特别是”。
由success(成功)和triumph(胜利)可知,这两个意思相近,success强调结果,triumph强调过程和动作,所以空格处填入B项更符合句子语境。
句意:对于设计者来说,这座建筑是一个巨大的成功,或者更确切地说是一个胜利。
因此,该题选择B项。
3.单选题Proteins are composed of more than twenty amino acids that are liberated during digestion. 问题1选项A.congregatedB.multipliedC.freedD.conscripted【答案】C【解析】考查动词辨析。
关于商用飞机模型演变的介绍英语作文
关于商用飞机模型演变的介绍英语作文全文共5篇示例,供读者参考篇1Here's an essay about the evolution of commercial aircraft models, written in the tone of an elementary school student, in English with a length of around 2,000 words:The Amazing Journey of Airplanes!Hi there! My name is Sam, and I'm 10 years old. Today, I want to share with you the incredible story of how airplanes have changed over the years. Get ready for an exciting adventure as we soar through the skies of aviation history!A long time ago, people could only dream of flying like birds. They tried all sorts of crazy things, like strapping feathers to their arms or jumping off cliffs with makeshift wings. It wasn't until the Wright Brothers, Orville and Wilbur, came along that the first successful powered flight happened in 1903. Their airplane, the Wright Flyer, was a tiny wooden thing with a engine that was barely stronger than a lawnmower. But it flew, and that's what mattered!After that, airplanes started getting bigger and better. The early biplanes had two sets of wings, one above the other. They looked like giant bugs buzzing through the air. People used them for stunts and racing, but they weren't very comfortable or fast.Then, in the 1930s, something really cool happened – the first commercial airliners took to the skies! Companies like Boeing, Douglas, and Lockheed started building planes that could carry passengers on long trips. The Douglas DC-3 was one of the most famous. It had a sleek metal body and could fit around 20 people inside. Imagine going on vacation in one of those!World War II brought about a lot of changes in airplane design. Fighter jets became faster and more powerful, and bombers could carry huge loads of explosives. After the war, companies used what they learned to make better passenger planes.In 1958, the Boeing 707 took its first flight. It was agame-changer! This was the first really successful jet airliner, and it could fly much higher, faster, and farther than any plane before it. People could now travel across the whole country in just a few hours.But the 707 was just the beginning. In the 1960s and 70s, planes got even bigger with the introduction of the Boeing 747 –the iconic jumbo jet! This huge plane could carry over 400 passengers and had a distinctive hump on the front. It made air travel more affordable and accessible for everyone.As time went on, planes became more efficient andeco-friendly. The Boeing 787 Dreamliner, which first flew in 2009, is made from lightweight materials and burns a lot less fuel than older planes. It also has bigger windows and a more comfortable cabin for passengers.These days, companies are working on all sorts of crazy new designs. Some planes have double decks or maybe even no windows at all! There are also plans for supersonic jets that can fly faster than the speed of sound, and even hybrid planes that use both jet engines and electric motors.Who knows what the planes of the future will look like? Maybe they'll be able to take us to other planets or have virtual reality entertainment systems on board. One thing's for sure –the journey of aviation is far from over, and I can't wait to see where it goes next!Well, that's the story of how airplanes have evolved from those first rickety biplanes to the high-tech marvels of today.Isn't it amazing how much progress we've made in just over a century? I hope you found this little history lesson as exciting as I do. Keep reaching for the skies, and who knows? Maybe one day, you'll be the one designing the planes of tomorrow!篇2The Awesome Story of Airplanes Getting Bigger and Better!Do you like airplanes? I sure do! Airplanes are awesome machines that can fly high up in the sky and take people and cargo all over the world. But did you know that airplanes have changed a lot over time? The planes we have today are very different from the first ones invented a long time ago. Let me tell you the cool story of how airplanes got bigger and better!In the early 1900s, the Wright Brothers made the first successful airplane. It was a tiny thing called the Wright Flyer with two thin wings and a wooden body. It only had one engine and could barely fly for a few seconds! Can you imagine having to travel in that small plane today? It would be so cramped and uncomfortable.As time went on, airplane builders worked on making planes that could fly higher, faster, and farther. In the 1920s and 1930s, companies like Boeing, Douglas, and Lockheed started makingall-metal airplanes for carrying passengers. These planes had multiple engines and were a lot bigger than the Wright Flyer. The Douglas DC-3 was very popular and could fit around 20 people on board.Things really took off (get it?) in the years after World War 2. As engines got more powerful, planes could be built even larger to carry more people and cargo across the oceans. The first major jetliner was the Boeing 707, introduced in 1958. It could cruise at over 600 mph and fly non-stop across the United States. Wow!Jumping ahead a few decades, the iconic Boeing 747 "Jumbo Jet" came along in 1970. This was a monster of a plane with two levels and four huge engines. It could hold an unbelievable 366 passengers! The 747 really shrank the world by making air travel cheaper and more available to regular families. Lots of people got their first experience flying on these big birds.But airplane designers didn't stop there. They kept finding ways to build planes that were safer, more comfortable, and could fly even farther without refueling. In the 1990s, Boeing unveiled the 777 which had super-efficient new engines and an amazing range of over 9,000 miles! Around the same time, thedouble-decker Airbus A380 arrived as the biggest passenger jet ever made, carrying up to 853 people.The most recent cool new airplane is the Boeing 787 "Dreamliner" from 2011. This plane is made from lightweight composite materials instead of aluminum. It also has bigger windows, better air circulation, and lower cabins to help passengers feel less cramped on those ultra-long flights halfway across the planet.So in just over 100 years, we went from the tiny Wright Flyer to double-decker jumbo jets that can basically fly around the entire world without stopping! Airplanes these days are like flying hotels with all the comforts of home. They burn less fuel, produce less pollution, and give you more space to stretch out. I can't wait to see what amazing new airplanes they come up with next!Flying has truly become an incredible way to shrink the world and bring people together across vast distances. All thanks to those early aviation pioneers who dared to dream of building machines that could soar high above the clouds. When you take your next trip on a modern airliner, remember the awesome journey of how airplanes got bigger, faster, and better over the decades. The sky's no longer the limit!篇3The Amazing Journey of AirplanesHave you ever looked up at the sky and seen a giant metal bird soaring through the clouds? Those incredible machines are called airplanes, and they have gone through an amazing journey to become the modern marvels we see today!A long, long time ago, there were no airplanes at all. People could only travel by walking, riding horses or camels, or sailing on ships across the water. But some very clever people started dreaming about flying like the birds. They experimented with different designs, trying to create a machine that could leave the ground and soar through the air.The first successful airplane was invented by two brothers from America named Wilbur and Orville Wright. On December 17, 1903, they flew their small wooden plane for the first time near Kitty Hawk, North Carolina. It only flew for 12 seconds and traveled just 120 feet, but it was an incredible achievement!After the Wright Brothers showed it was possible, many other inventors and engineers began working on better airplane designs. In the early 1900s, airplanes were made of wood and fabric, and they looked like big boxy kites with propellers. Theywere very small, with room for just one or two people. The engines were loud and not very powerful, so the planes could only fly slowly and couldn't go very far.As the years went by, airplanes got bigger, faster, and could carry more passengers and cargo. During World War I in the 1910s, the military used planes as weapons, so engineers worked hard to make them stronger and more advanced. After the war, airplanes started being used to transport people and mail between cities.In the 1920s and 1930s, airplanes went through some big changes. They switched from wooden frames to metal, which made them sturdier and able to fly higher. The engines became more powerful too. Some of the most famous early passenger planes were the Ford Tri-Motor, the Douglas DC-3, and the Boeing 247.When World War II started in the 1940s, airplane technology advanced rapidly again due to military needs. Engineers figured out how to make planes go much faster using jet engines instead of propellers. The first successful jet fighter plane was the German Messerschmitt Me 262.After WWII ended in 1945, the jet engine technology was applied to create faster commercial passenger planes. The firstreally popular passenger jet was the Boeing 707, introduced in 1958. It could carry up to 189 passengers and fly much higher, faster and farther than previous propeller planes.Through the 1960s, 1970s and 1980s, jets got even bigger, with two or four powerful engines. Famous models included the Boeing 747 "Jumbo Jet", the Douglas DC-10, and the Lockheed L-1011 TriStar. These double-aisle "widebody" planes could carry 300-500 people at a time on long international flights.Jumbo jets are still very common today, but some smaller twin-engine models became popular for shorter flights, like the Boeing 737 and 757, the McDonnell Douglas MD-80, and the Airbus A320. These narrowbody jets hold between 120-240 passengers.In recent years, engineers have been working hard to create even bigger, more efficient planes to meet the demand for affordable air travel. The brand new Airbus A380 is adouble-decker widebody jet that can carry up to 853 passengers at a time!Some of the latest advancements have been made to increase fuel efficiency and reduce noise and pollution from airplanes. The new Boeing 787 Dreamliner is very fuel efficient thanks to its lightweight composite plastic construction.Someday, we may even see electric or solar-powered airplanes that don't need any fuel at all!From that first 12-second flight to the giant double-decker airliners of today, the journey of airplanes has been an exciting ride full of creativity and innovation. Who knows what amazing new designs the future will bring as we continue our quest to fly higher, faster and farther! The sky is the limit for these awesome gravity-defying machines and the brilliant engineers who create them.篇4The Awesome Story of Airplanes Getting Bigger and Better!Do you like airplanes? I sure do! Airplanes are awesome machines that can fly way up high in the sky. But did you know that airplanes haven't always looked the same? The airplanes we see today are really different from the first-ever airplanes a long time ago. Let me tell you the cool story of how airplanes have changed and evolved over the years to become the huge jets we have now!In the early 1900s, airplanes were just starting out. They looked very different back then - can you imagine? The first airplanes were small and made of wood and cloth. They only hadone engine and two little wings. Not like the big metal airplanes today at all! The Wright Brothers made the very first airplane that could fly with a person on it. That seemed amazing at the time!Those early planes were very basic. They could only fit one or two people and couldn't fly very far or very fast. But engineers kept working to make airplanes better and better. In the 1920s and 1930s, airplanes got bigger metal bodies and more powerful engines. Airlines started using these new planes to carry passengers on trips between cities. How exciting!During World War 2 in the 1940s, airplane technology improved a lot because countries needed planes for the war. Engineers invented ways to make planes fly higher, faster and farther. After the war, companies used this new technology to build even bigger passenger planes for airlines.In 1958, Boeing made a game-changing airplane called the 707. It could carry a lot more passengers than previous planes. It also had jet engines instead of older propeller engines, so it could fly much faster! The 707 helped make air travel really popular because it was affordable for regular people to fly on it, not just rich people.Other companies followed Boeing and started making their own big jet airliners in the 1960s. They kept getting bigger andbigger! Planes like the Boeing 747 jumbo jet had two huge levels and could carry over 300 passengers at one time. That's like a whole school fitting on one plane! Jumbo jets also had enough range to fly really long distances across oceans without stopping.As planes got bigger, airports had to get bigger too with longer runways and huge terminals. Flying became a very normal way to travel both short and long distances. Just think, not that long ago people could only travel by boat, train or car before airplanes made getting across the world much quicker.In more recent years, engineers have worked on making airplanes more comfortable, efficient and environmentally friendly. Newer planes have bigger windows, more space, and better entertainment systems. They also have advanced engines that use less fuel and make less noise and air pollution. Although airplanes have gotten enormous, engineers are incredibly smart about designing them to fly in the safest way possible.Who knows what airplanes will be like in the future! Maybe we'll see planes that can fly at supersonic speeds, or vertical take-off planes that don't need runways. Airplanes could even run on electricity or different eco-friendly fuel sources one day. With how quickly technology changes, it's exciting to imagine what new airplane designs might show up next.From their humble beginnings as little wood-and-cloth biplanes, to the giants of the sky we have today, airplanes have come an incredibly long way in a little over 100 years. Every redesign and new invention has made airplanes bigger, faster, and able to travel much further distances. It's awesome that these advances in aviation have made flying overseas no bigger deal than catching the bus to school! I can't wait to see what new amazing airplane models get dreamed up next. The sky is no limit for what airplanes can do!篇5Here's an introduction to the evolution of commercial aircraft models, written in a style aimed at elementary school students, approximately 2000 words long:The Amazing Journey of Airplanes!Have you ever looked up at the sky and seen a huge metal bird soaring high above? That's an airplane! Airplanes are incredible machines that can carry hundreds of people and fly across countries and even oceans. But do you know how these amazing flying machines have changed over time? Let me take you on a fascinating journey through the evolution of commercial aircraft models!A Long Time Ago...A really long time ago, airplanes didn't even exist! Can you imagine a world without them? People had to travel by ship, train, or horse-drawn carriages, which took forever. But then, in 1903, two brothers named Wilbur and Orville Wright built and flew the first successful airplane. It was a tiny thing made of wood, canvas, and wire, and it could only stay in the air for a few seconds. But this was just the beginning!The Early BirdsAfter the Wright brothers showed that powered flight was possible, other inventors and engineers started working on their own airplane designs. In the early 1900s, airplanes were small, open-cockpit biplanes (that's a plane with two wings, one above the other). They were made of wood and fabric, and they could only carry a few people at a time.One of the first commercial airplanes was the Ford Trimotor, introduced in 1925. It could carry up to eight passengers, which was a lot for that time! Imagine being one of those first brave passengers, flying in a noisy, drafty plane made of fabric and wood.The Jet Age BeginsFor many years, airplanes were powered by propellers, which spin around and push the plane through the air. But in the 1940s, a new kind of engine called a jet engine was invented. Jet engines work by sucking in air and then blasting it out the back, creating a powerful thrust that propels the plane forward.The first commercial jet airliner was the de Havilland Comet, which took its first flight in 1949. It could fly much faster and higher than propeller planes, and it had a sleek, aerodynamic design made of metal instead of fabric.The Jet Age had arrived, and it was the start of a revolution in air travel!The Age of GiantsAs jet engines became more powerful and efficient, aircraft designers started to think bigger. They wanted to build planes that could carry more and more passengers over longer distances. And that's exactly what they did!In 1958, Boeing introduced the 707, which could carry up to 189 passengers. It was the first really successful commercial jet airliner, and it made air travel more affordable and accessible to many people.But the 707 was just the beginning. In 1970, Boeing unveiled the gigantic 747, which became known as the "Jumbo Jet." This massive plane could carry over 400 passengers and had a distinctive hump at the front for a second deck. It was an engineering marvel and allowed more people than ever before to travel by air.Other manufacturers like Airbus, McDonnell Douglas, and Lockheed also started building big jets like the Airbus A300, the DC-10, and the L-1011 TriStar. Airports had to be expanded to handle these huge planes, and flying became a common way for people to travel long distances.The Modern MarvelsIn more recent years, aircraft design has focused on making planes even more efficient, comfortable, and environmentally friendly. Modern jets like the Boeing 787 Dreamliner and the Airbus A350 are made from lightweight composite materials and have advanced wings and engines that save fuel and reduce emissions.These planes also have more comfortable cabins with better air quality, bigger windows, and even special lighting that helps reduce jet lag. Some even have cameras that let you see outside from your seat!Airplanes have come a long way since the Wright brothers' first flight. From tiny wooden biplanes to gigantic metal jets that can circle the globe, the evolution of commercial aircraft models has been an incredible journey of human ingenuity and innovation.Who knows what the airplanes of the future will be like? Maybe they'll be able to fly even higher and faster, or maybe they'll be powered by new kinds of engines that don't use any fuel at all. One thing is for sure – the journey of aircraft design is far from over, and there are sure to be many more amazing flying machines to come!。
boeing波音介绍.pptx
Boeing 767
• The Boeing 767 is a mid- to largesize, long-range, wide-body twinengine jet airliner built by Boeing Commercial Airplanes.
Boeing 787 Dreamliner
the 777-8X and the 777-9X.
The 777X will feature new engines, new composite folding wings, and technologies from the Boeing 787. It is intended to compete with the Airbus A350.
Boeing 707
The Boeing 707 is a mid-size, long-range, narrow-body four-engine jet airliner built by Boeing Commercial Airplanes from 1958 to 1979.
Boeing 717
ห้องสมุดไป่ตู้
aircraft built by
Boeing
Commercial
Airplanes from
the early 1960s to
1984.
Champion Air Boeing 727-200
Boeing 737
• The Boeing 737 is a short- to medium-range twinjet narrow-body airliner. The 737 is Boeing's only narrow-body airliner in production.
考研英语阅读推荐:波音变废为宝 地沟油可做航空燃料
考研英语阅读推荐:波音变废为宝地沟油可做航空燃料Boeing and Commercial Aircraft Corp. of China today opened a demonstration facility that will turn waste cooking oil, commonly referred to as “gutter oil”in China, into sustainable aviation biofuel. The two companies estimate that 500 million gallons (1.8 billion liters) of biofuel could be made annually in China from used cooking oil.波音公司和中国商用飞机有限责任公司合作建立了一个航空生物示范项目,该项目将把废弃食用油,即人们常说的“地沟油”,转化为航空生物燃料。
两家公司预计该项目每年能将中国的“地沟油”转化成的生物燃料可达5亿加仑(约18亿升)。
“Strong and continuing teamwork between Boeing and COMAC is helping our industry make progress on environmental challenges that no single company or country can solve alone,”said Ian Thomas, President, Boeing China. “By working together for mutual benefit, we're finding innovative ways to support China's aviation industry and build a sustainable future.”“波音和中国商飞之间稳固持续的合作能够帮助我们企业更好地应对环境问题的挑战,这是任何一个公司或国家无法靠一己之力完成的。
专业英语八级(阅读)模拟试卷161含答案和解析
专业英语八级(阅读)模拟试卷161讲座会话听力大题型(1) Distant indeed seem the days when the two great rivals of commercial aviation, Boeing and Airbus, would use big air shows to trumpet hundreds of new orders. This year's Paris Air Show was a much more sombre affair, even if the Boeing-Airbus feud still took centre stage.(2) There were one or two bright spots. Airbus was able to boast of a firm order for ten of its wide-body A350s from AirAsia X. John Leahy, its top salesman, expects deliveries in 2009 to match the record 483 in 2008. Boeing, which was hit by a prolonged strike last year, will probably deliver more aircraft this year than last. Both firms built up huge backlogs in the fat years; each has orders for about 3,500 planes.(3) But many of those may soon evaporate. Giovanni Bisignani, the boss of IATA, the trade body that speaks for most airlines, gave warning earlier this month mat his members might defer as many as 30% of aircraft deliveries next year. He also almost doubled his forecast for the industry's cumulative losses in 2009, to$ 9 billion.(4) Both Mr. Leahy and Jim McNerney, the chief executive of Boeing,think that Mr. Bisignani is overdoing the gloom. But they concede that potential customers may find purchases hard to finance. Another issue is the cost of fuel. Mr. McNerney thinks the recent increase in the oil price should encourage carriers to replace elderly gas guzzlers with efficient new planes. But if the price \1.It can be inferred from Para. 1 that Boeing and Airbus______.(C)A. have not suffered from a reduction of new orders until this yearB. did not compete with each other intensely in the pastC. used to advertise their success in business at air showsD. would have to resolve their rivalry as early as possible解析:推断题。
高二英语航空强国作文
高二英语航空强国作文As an AI language model trained by OpenAI, I am able to assist you with the task of writing an English essay on the topic of "Aviation Powerhouse" for a high school English class. I will provide a comprehensive response in English, followed by a Chinese translation, without revealing the details of the prompt you have provided.English Response:Aviation has long been a symbol of human ingenuity and technological advancement, and it is undeniable thatcertain nations have emerged as true aviation powerhouses. These countries have not only made significant strides in developing cutting-edge aircraft and aerospace technologies but have also played a pivotal role in shaping the global aviation industry.One such aviation powerhouse is the United States of America. With its rich history in aviation, the US has consistently been at the forefront of technological innovation, producing some of the world's most advanced and influential aircraft. From the iconic Wright brothers'first powered flight to the development of the iconic Boeing 747 and the cutting-edge F-22 Raptor fighter jet, the US has consistently pushed the boundaries of what is possible in the realm of aviation.The success of the US aviation industry can beattributed to a multitude of factors, including a robust research and development ecosystem, a well-established network of aerospace companies, and a highly skilled workforce. The country's investment in cutting-edge technologies, such as artificial intelligence, automation, and advanced materials, has allowed its aviation industry to remain at the forefront of global competition.Another prominent aviation powerhouse is the European Union, which has emerged as a formidable force in the global aviation market. Countries like France, Germany, and the United Kingdom have long been leaders in the development of commercial and military aircraft, with companies like Airbus, Dassault, and BAE Systems playing a crucial role in shaping the industry.The European Union's success in aviation can be attributed to its commitment to research and development,as well as its ability to foster collaboration between various national and multinational entities. The creationof the European Aviation Safety Agency (EASA) has also helped to streamline regulations and ensure the highest standards of safety across the region.China, too, has emerged as a significant player in the global aviation industry. In recent years, the country has made substantial investments in the development of its domestic aviation capabilities, with the aim of reducingits reliance on foreign-made aircraft and becoming a self-sufficient aviation powerhouse.The Chinese government's strategic focus on the aviation sector has led to the rapid development of indigenousaircraft such as the Comac C919 and the Chengdu J-20fighter jet. Additionally, the country's ambitious plans to expand its aviation infrastructure, including the construction of new airports and the modernization of existing ones, have positioned China as a key player in the global aviation landscape.Other notable aviation powerhouses include Russia, Japan, and Canada, each of which has made significantcontributions to the advancement of aviation technology and the global aviation industry. These countries have developed innovative aircraft, pioneered new aviation concepts, and played a crucial role in shaping theindustry's evolution.In conclusion, the emergence of these aviation powerhouses has had a profound impact on the globalaviation landscape. These countries have not only pushed the boundaries of technological innovation but have also played a pivotal role in shaping the industry's future. As the world continues to grapple with the challenges of the 21st century, the contributions of these aviation powerhouses will undoubtedly continue to be of paramount importance.中文翻译:航空一直是人类智慧和技术进步的象征,毋庸置疑,某些国家已经成为真正的航空强国。
Boeing
Headquartered in Chicago, Boeing employs more than 158,000 people across the United States and in 70 countries. This represents one of the most diverse, talented and innovative workforces anywhere. More than 90,000 of our people hold college degrees--including nearly 29,000 advanced degrees--in virtually every business and technical field from approximately 2,700 colleges and universities worldwide. Our enterprise also leverages the talents of hundreds of thousands more skilled people working for Boeing suppliers worldwide.
高三英语培优外刊阅读学案航空话题
高三英语培优外刊阅读班级:____________学号:____________姓名:____________外刊精选|旧疾未愈又添新伤,波音乱象何时休?2024一开年,美国波音公司制造的飞机事故频发:阿拉斯加航空的一架波音737 MAX 9型客机发生高空舱门脱落,一架波音货运飞机在起飞后不久机身着火,甚至美国国务卿布林肯所乘坐的专机也发生了氧气泄露事故,一行人被迫下机。
当地时间1月23日,阿拉斯加航空CEO在接受采访时表示,在“多架”波音737 MAX 9上发现松动螺栓。
2019年波音就曾被爆出生产和监管问题,如今可谓是旧疾未愈再添新伤,再次深陷信任危机。
波音飞机如此频繁地发生事故,究竟是什么原因?波音公司如何表态?'This Has Been Going on for Years.' Inside Boeing's Manufacturing Mess.By Sharon Terlep and Andrew TangelLong before the harrowing Alaska Airlines blowout on Jan. 5, there were concerns within Boeing about the way the aerospace giant was building its planes. Boeing, like so many other American manufacturers, was outsourcing more and more of the ponents that went into its plex machines.Dozens of factories build key pieces of 737 and 787 jets before they are assembled by Boeing. One of them is a sprawling fuselage plant in Wichita, Kan., that Boeing owned until 2005. The factory is now run by a public pany called Spirit AeroSystems and it has been plagued by production problems and quality lapses since Boeing ceded so much responsibility for its work.Some Spirit employees said production problems were mon and internal plaints about quality were ignored. In a given month, at a production rate of two fuselages a day, there are 10 million holes that need to be filled with some bination of bolts, fasteners and rivets."We have planes all over the world that have issues that nobody has found because of the pressure Spirit has put on employees to get the job done so fast," said Cornell Beard, president of the International Association of Machinists and Aerospace Workers chapter representing workers at Spirit's Wichita factory.Boeing Chief Executive David Calhoun told staff that they were fortunate that the Alaska pilots were able to save the passengers and the pany needed to take responsibility for "our mistake." He made clear that whether the problem originated with work done by Spirit or Boeing, Boeing ultimately is responsible for checking planes that leave its plants.【词汇过关】请写出下面文单词在文章中的中文意思。
英语学习波音航空字典
航空无线电公司, 主要股东为美国定期的航空公司、航空运输公司、飞机
制造厂和外国领队航空公司的组织。其目的是制订并出版 电子设备和系统的规范。
AGILITY TUNING, The capability of the DME to alternately tune between two different DME stations in order to get two distance readings from one interrogator.
涡轮冷却器, 是装在同一根转轴上的压气机和涡轮,用于冷却空调系
统中的空气。空气经压气机压缩后,由热交换器移去热量, 然后经过涡轮,令涡轮带动压气机。通过涡轮之空气,温 度下降。
TECHNICAL DICTIONARY
4
英汉对照民用航空词典
BOEING
AIR DATA COMPUTER, A computer which produces air data information, such as altitude and airspeed, based on pressure and temperature measurements.
存储器(NO.2), 计算机中,一种与算术逻辑组件有关系的特别存储寄存
器,用来存放运算结果或数据传输。
ACMS, SEE - AIRCRAFT CONDITION MONITORING SYSTEM
飞机状态监控系统, 见 Aircraft Condition Monitoring System.
ACTUATOR, A mechanical device operated electrically, hydraulically, pneumatically or mechanically for transmitting motion between components.
航空工业的英语作文
航空工业的英语作文英文:As an aviation enthusiast, I have always been fascinated by the aerospace industry. The aviation industry plays a crucial role in connecting people and goods across the globe, and it has revolutionized the way we travel and do business. From commercial airlines to military aircraft, the aerospace industry encompasses a wide range of activities, including aircraft manufacturing, maintenance, and research and development.One of the most iconic companies in the aerospace industry is Boeing. Boeing has been a leader in commercial aviation for many years, and its aircraft, such as the 737 and 787, are renowned for their innovation and reliability. The company's contribution to the aviation industry is significant, and it has helped shape the future of air travel.In addition to commercial aviation, the aerospace industry also includes the production of military aircraft and defense systems. Companies like Lockheed Martin and Northrop Grumman are at the forefront of military aviation technology, developing advanced fighter jets and surveillance systems that are vital for national security.The aerospace industry is also a hotbed for innovation and technological advancement. For example, the development of supersonic aircraft, such as the Concorde in the past and the upcoming Boom Overture, has pushed the boundaries of what is possible in air travel. These advancements not only make air travel faster and more efficient but also open up new possibilities for international travel and trade.中文:作为一个航空爱好者,我一直对航空航天工业充满着兴趣。
Boeing和BRPH Architects-Engineers的BIM技术合作说明书
The Owner’s Pathway to BIM with Existing Buildings and SitesPresenter JJ JohnsonTitle CAD & BIM SupportCo-Presenter Mark MyersTitle BIM Manager---------------JJ JohnsonJJ has played an integral role at The Boeing Company for the last 22 years, with positions held in equipment engineering, project management for the Airport Security Program, and now as CAD/BIM Manager. Prior to joining Boeing, Johnson spent 10 years in the industrial heating and control industry, also serving as an electrician. JJ is MCSE Certified in network architecture as well.---------------BoeingBoeing is the world's largest aerospace company and leading manufacturer of commercial jetliners, defense, space and security systems, and service provider of aftermarket support. As America’s biggest manufacturing exporter, the company supports airlines and U.S. and allied government customers in more than 150 countries.---------------Mark Myers is the BIM Manager at BRPH Architects-Engineers, a multi-disciplinary firm based in Melbourne, Florida with other offices throughout the United States. With over 20 years of A/E experience, 11 of those with BRPH, he is responsible for company-wide BIM initiatives as well as managing the company’s BIM Managers and Coordinators tied to each market sector. Mark and the BIM team manage BIM-related software, evaluate and implement new BIM technology, perform project setups and clash detections and provide technical training company wide. He is also responsible for creating, maintaining and enforcing BIM standards throughout the company. With experience in multiple markets including Aerospace/Defense, Commercial, Education, Entertainment and Manufacturing, Mark is able to assist the company’s production staff with delivering well-collaborated designs in all market sectors.---------------BRPHBRPH is an architectural and engineering firm with all of its services in-house. More than simply designers, we solve engineering and architectural challenges. Our team has designed projects for a full spectrum of industries-from multi-million dollar launch pads to over a million square foot manufacturing facilities and everything in between. Some of our flagship clients include Boeing, NASA, Universal Studios and Walt Disney World. Think of something so unique, so extraordinary, something never tried anywhere in the world. This is where BRPH thrives. For more information, visit our website at---------------Boeing’s Everett Site is heralded as having the largest manufacturing building in the world, producing the 747, 767, 777, and the 787 airplanes. Thousands of aerospace employees in Everett support aircraft fabrication and production, product development, aviation safety and security and airplane certifications. Other production areas at the site include the paint hangars, flight line and delivery center. Originally built in 1967 to manufacture the 747, the main assembly building has grown to enclose 472 million cubic feet of space over 98.3 acres.Site:1000+ acresUp to 15 rail cars per day making deliveriesMore than 100 fork lifts300+ buildingsInternal support groupsFire DepartmentSecurity DepartmentTransportation and material handlingFacilities Engineering & MaintenanceEnvironmental HealthMedical FacilityFactory:Largest building in the world by volume as recognized by Guinness Book of WorldRecordsFour hangar doors are 300 feet x 81 feet (91 meters x 25 meters) and two hangarDoors are 350 feet x 81 feet (107 meters x 25 meters) – approximately the size of anAmerican football fieldLargest digital graphic in the world (mural) on the south side of the factory building,As recognized by Guinness Book of World Records – more than 100,000 square feet(9,290 square meters)Boeing Everett Tour is very worthwhile!BIM for a New BuildingEvery time we start a new project we have a conversation something like this:Architect: We can save you money if we design this job in BIMBoeing: How much money?Next is to address these issues:Are we ready to maintain BIM models?Better HardwareNew SoftwareMore TrainingProficiency in 1-2 years?Should we convert to AutoCAD at end of construction?Stay in BIM or convert back to AutoCAD – Either way BIM is a no brainer. BIM saves real money on the design and construction of a new building. We were able to document savings of more than 5.8% on our newest building.---------------Why do we want BIM?BIM for Facility ManagementPlanning/Visual Aid for those not able to “see” with 2D drawingsVisibility for maintenance crew – Ladder/look through ceiling, etc.Enhanced engineering evaluation with BIMEnhance visibility and understanding for non-engineersSpace ManagementBIM is DataData for budget planning – age, reliabilityCan query dataCan link with MaximoConsolidate visibility of data from different systems3d backgrounds as a visual aid for production tracking systems – ROI---------------BIM for Existing BuildingsStarting questionsHow do I get started?What Level of Detail should I ask for?What system are needed first?How do we maintain configuration control in AutoCAD and BIM during transition?What rules are needed?Which buildings get priority?How many buildings can I start at once?---------------Pathway to BIM optionsSet up a 3D TrialUse a large project that covers 20+ % of buildingRequire BIM models for all new workRead AutoCAD drawings and manually create BIM modelsScanner to BIMHire out to Architect and Engineering (A&E) firms---------------Boeing Everett Path to BIMProject to re-arrange part of our factoryScope spans 6 buildings and 5 yearsAEC Firms chosenArchitect: We can save you money if we design this job in BIMBoeing: How much money?---------------Next is to address these issues:Are we ready to maintain BIM models?Better HardwareNew SoftwareMore TrainingProficiency in 1-2 years?Should we convert to AutoCAD at end of construction?Issues with Conversion to AutoCADBIM Trial ConditionsWe agreed to a pilot BIM deliverable with conditionsProtect for converting back to AutoCADA&E to help train core BIM group (4 people) in converting back to AutoCADA&E to help develop a BIM Guide/Standard for BoeingA&E to help train core BIM group (4 people) in Revit and NavisWorksA&E to help train core BIM group in reconciling BIM to BIMA&E to create BIM templates that follow new standard and protect for AutoCAD conversion A&E to remain in advisory position through transition to BIM---------------Results of BIM TrialToday we are 3 years into the 5-year project. BIM has been very valuable in many instances. We now haveA Boeing BIM Guide/StandardTemplates that work for our goalsCore team trained in Revit to AutoCAD conversionRevit to AutoCAD conversion manual (500+ pages)A good working knowledge of RevitA good understanding of data fields required for Facility ManagementWe have 6 buildings with some Architectural, Structural, and Mechanical systems in BIMA good process for maintaining CAD files as linked backgroundsSome experience reconciling project models with master modelsA training plan that accommodates varying the number of BIM models---------------Next step – Move forward with purposeBring 4 factory buildings per year partially into BIMArchitecturalStructuralCompressed AirWaterReceptacles for production areasRefine ProcessesTrain additional engineers---------------Next is to address these issues:Are we ready to maintain BIM models?Better HardwareNew SoftwareMore TrainingProficiency in 1-2 years?---------------Train core groupTrain all engineers in Revit viewer and NavisWorksNavigation through browser tree to sheets or viewsPan zoom rotateHide componentDo not train engineers until there are models to be worked # of engineers with full training through Rand/Imaginit# of buildings in BIM 1 to 5Bldgs.6 to 10Bldgs.11 to 20Bldgs.Architects 1 1 2 Electrical 1 2 3 Mechanical 1 1 2 Structural 1 1 2---------------The Last StepAvoid becoming extinctEmbrace BIM.---------------SummaryBIM is good – new or existing –and you know why Be prepared to say or hear ….We can save you moneyAre you ready for BIM?Pathways to BIMTrial ProjectManually create models from drawings3D scan to BIMHire out to A&E firmMove forward with purposeTraining plan – Don’t over-train at beginning Embrace the dataJJ Johnson*********************** 425-931-7306Mark Myers***************321-751-3043。
我们这个世界的塑造者
我们这个世界的塑造者Unit4 迪特尔·拉姆斯:我们这个世界的塑造者1.迪特尔·拉姆斯的房⼦位于法兰克福城外的克龙贝格,⾮常⾮常整洁。
地板是由冷⾊调的⽩⾊瓷砖铺成的⼤⽅格,屋内的⼀应陈设也都遵循着这⼀格调。
长⽅形的桌⼦和搁架保持平⾏,桌上的⽂件与桌边线保持平⾏,镇纸与⼀摞摞纸保持平⾏,只有⼀个圆⼝⼤酒杯作为偶尔出现的陪衬物,打破了直⾓的严格标准。
在地下室的⼯作间,所有的⼯具排列整齐,如军事标准般精确到不差分毫。
2.这个家就是⼀件艺术品。
从平屋顶到门把⼿,基本上都是由拉姆斯⾃⼰设计的。
―还有那些盆景,‖他微笑着说,点头⽰意我们看院⼦⾥的树⽊,那些树⽊修剪得就像中⼠的发型。
3.我是跟⼀个摄制组⼀道来到这⾥的,这些⼈远谈不上整洁。
虽然我们如⼤象般踮着脚四下缓步⽽⾏,77岁的拉姆斯和与他相伴40年的妻⼦英格博格还是跟在我们后⾯,将我们弄错位超过l厘⽶的东西摆整齐。
在这位设计之神的家⾥,⼀切都不是想当然的样⼦。
4.拉姆斯深受尊崇,设计博物馆将于下周为他举⾏回顾展即是明证。
苹果公司的乔纳森·伊夫,以及贾斯珀·莫⾥森、菲利普·斯塔克都对他顶礼膜拜。
他是⽐苹果公司早出40年就做出苹果公司那⼀类的产品。
他发明我们⼈⼈渴求的消费电⼦产品时,伊夫——iPhone和iMac的设计者——甚⾄还没有出⽣。
拉姆斯的博朗SK4电唱机是世界上第⼀个真正意义上的⾼保真⾳响,酷酷的灰⽩⾊盒⼦,带着神秘的极简抽象风格,被⼈戏称为―⽩雪公主灵匣‖。
拉姆斯于1956年将它设计成形,这⽐披头⼠乐队的出现还早5年。
与其他1956年的⽇常消费品放在⼀起,SK4看起来就像外星球在向我们传送信号。
5.在拉姆斯之前,电⼦产品,⽐如电吹风、烤箱、电⽔壶、收⾳机、电话、电唱机等,都是傻⼤粗笨的东西。
这些⾯向⼤众市场的产品才有不到20年的历史。
―它们还没有⾃⼰的语⾔,‖拉姆斯说。
相反,它们借⽤的是其他物品的语⾔。
全国通用2023高中英语必修二Unit4HistoryandTraditions专项训练题
全国通用2023高中英语必修二Unit4HistoryandTraditions专项训练题单选题1、He fell over on the ground, with his teeth _________ and hands _________.A.being set; to trembleB.setting; tremblingC.to set; trembledD.set; trembling答案:D考查with复合结构。
句意:他摔倒在地上,牙关紧闭,手颤抖着。
根据句子结构和意思可知,这里考查with复合结构:with+宾语+宾补,宾语teeth 与动词 set 之间是被动关系,宾语hands 与动词 tremble 之间是主动关系,所以两空分别使用过去分词 set 表示被动和现在分词 trembling表示主动。
故选 D。
2、And when he saw the mists rising from the river and the soft clouds ________ the mountain tops, he was reduced to te ars.A.to surroundB.being surroundedC.surroundedD.surrounding答案:D考查非谓语动词。
句意:当他看到雾气从河上升起,轻柔的云朵环绕着山顶时,他泪流满面。
see sb./sth. doing sth表示“看见某人或某事物在做某事”,现在分词surrounding作宾语补足语,和宾语之间是主动进行的关系,符合句意。
故选D项。
3、Mr. Zhang has retired, but he still remembers the happy time________ with his students.A.to spendB.spendC.spendingD.spent答案:D考查非谓语动词。
波音公司环球飞机的英语美文
波音公司环球飞机的英语美文关于波音公司环球飞机的英语美文The spotlight is on the first Boeing 777—200LR Worldliner as it is presented to employees and press Tuesday,Feb。
15,2005 at the Boeing Co。
assembly facility in Everett,Wash。
(AP)Boeing Co。
unveiled a long—range version of its 777 commercial airliner on Tuesday, which the company said can fly from London to Sydney, making it the world"s longest—range commercial aircraft。
With the launch of the new 777—200LR "Worldliner," Boeing is hoping to attract airlines that will ferry passengers directly between multiple points。
The new, 301—passenger, long—range 777 is expected to make its first flight in March and will be delivered first to Pakistan International airlines, its launch customer for the new version of the 777, in January of 2006。
The twin—engine airplane,when equipped with three optional fuel tanks,will be capable of flying 9,420 nautical miles, enough to "connect any two cities in the world today," said Lars Andersen, Boeing"s vice president in charge of the 777 program at Boeing Commercial Airplanes。
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A RT I C L E SBoeing ’s Diffusion of Commercial Aircraft Technology to Japan:Surrendering the U.S.Industry for ForeignFinancial SupportAlan MacPherson &David PritchardPublished online:13August 2007#Springer Science +Business Media,LLC 2007Abstract Japanese firms have become increasingly important first-tier suppliers to the mercial aircraft industry (large passenger jets).Over time,this relationship has evolved from a simple “build to print ”subcontractor arrangement to a turnkey “design and build ”risk-sharing ing the Boeing 767,777,and 787as examples,we argue that the motives for Boeing ’s commercial outsourcing to Japan are to access the Japanese market,spread risk,gain access to capital,and lower U.S.spending on research and development (R&D).This has clear implications for U.S.trade and employment,in that Japanese-subcontracting boosts foreign imports and reduces the need for domestic production workers and U.S.suppliers.From a trade perspective,however,a troubling feature of allowing the Japanese to produce large commercial aircraft subassemblies is that major Japanese public financial supports are involved which contravene existing international agreements on production subsidies.We review the types of production contracts that Japanese companies have sought on the Boeing 767,777,and 787programs.These contracts have allowed the Japanese to develop new capabilities in terms of production capacity,tooling,design,and final assembly.Ultimately,these capabilities imply that Japan will eventually enter the market as a fully-fledged producer of commercial aircraft.This does not bode well for the mercial aerospace sector.Keywords Boeing .Commercial aircraft industry .Financial supportsIntroductionThe commercial aircraft industry has long served as a symbol of U.S.export leadership in product markets requiring high levels of design and engineering innovation (Hayward 2005;Niosi and Zhegu 2005).This industry has been the topJ Labor Res (2007)28:552–566DOI 10.1007/s12122-007-9005-2A.MacPherson :D.Pritchard (*)Canada –United States Trade Center,University at Buffalo,Buffalo,NY 14261,USAe-mail:davidjpritchard@A.MacPherson e-mail:geoadm@U.S.export sector for more than50years(U.S.Department of Commerce2004),and many of the advanced engineering procedures developed by this sector havebeen successfully adopted by other U.S.industries,e.g.,automotive,electronics,andmetal fabricating.For more than four decades,aerospace products and parts haveaccounted for7–10%of U.S.merchandise exports.In recent years,however,themercial aircraft industry(NAICS336400)has experienced substantialemployment decay,reduced export sales,and rising foreign competition.Over thelast10years,the industry lost more than120,000employees—moving from552,000jobs in1994to an estimated432,000jobs in2004.Contrast these employmentfigures with1990data,when the industry accounted for over840,000jobs.In thespace of only15years,this sector’s employment base has been cut in half.Significantly,the U.S.Bureau of Labor Statistics(2004)forecasts a further17%employment decline by2012.The export picture is equally disturbing:Overall trends for SITC792(aircraft andassociated equipment)have been downward since1998.For example,total exportsin2002were approximately$44billion,compared to$52billion in1998(a drop of15%,or$8billion).While part of the export and employment decline can be blamedon shrinking commercial aircraft orders in the post-9/11environment(as well asincreased competition from Airbus),the trend toward global outsourcing forcomponents and assemblies is also a factor.In recent years,for example,the soleremaining U.S.manufacturer of large passenger jets(Boeing)has opted for asystems-integration mode of production.Under this business model,key compo-nents and sub-assemblies are designed and manufactured by external suppliers.Japanese companies have been especially favored by Boeing for major subcontracts(Pritchard and MacPherson2004).Although this is a logical strategy from afinancial standpoint,a downside is that Japanese risk-sharing partners must receiveinfusions of tacit scientific knowledge from Boeing—otherwise the strategy wouldnot be effective.This technology transfer raises an important question for tradepolicy analysts who are concerned with national industrial competitiveness.Specifically,does technology transfer to Japanese companies portend a long-runthreat to the commercial prospects of U.S.aerospace firms?Set against this backdrop,our study is organized as follows.The“ResearchContext”section provides a research context for the discussion and reviews theevolution and development of industrial offset agreements and other types ofproduction-sharing arrangements with the Japanese aerospace industry.The “Japan’s Commercial Aircraft Industry National Project”section reviews the Japanese aircraft industry as a“National Project”that has evolved under Boeing’sindustrial offset programs.The“Boeing’s Growing Dependency on Japan”sectiondiscusses Boeing’s growing dependence on Japan’s composite technology due to alack of U.S.investment in materials-based research and development(R&D).The “Japan’s New Strategies for the Boeing787”section introduces a number of new strategic issues with regard to Boeing’s787aircraft launch.For the first time ever, Japanese companies will be selecting second-and third-tier suppliers for a Boeing aircraft program.The“Japan’s787Funding and WTO Issues”section reviews the Japanese funding on the Boeing787and World Trade Organization(WTO)issues which could delay the first delivery of the787in2008.We conclude with a brief discussion of the strategic issues that arise from these developments.We believethat the Japanese commercial aircraft industry will soon create its own standalone aircraft program while simultaneously developing a low-cost Asian supplier network. Research ContextThe term“industrial offset”refers to a compensatory trade arrangement in which the exporter grants concessions to the importer.In the commercial aircraft industry,these concessions typically take the form of production-sharing agreements.One of Boeing’s early offsets was with Japan in1974,when Mitsubishi was given contracts to produce inboard flaps for the Boeing747.Major sales of747s to Japan followed. In most of these cases,the goal has been to secure a sale that would not have taken place in the absence of compensatory provisions.Significantly,Boeing has become the nation’s largest corporation in terms of offset-related commitments(Pritchard 2001).In1960,imports of aircraft and parts amounted to only5%of aircraft exports by value.Today,that figure is44%.The foreign content of a Boeing727in the 1960s was only2%.For the777in the1990s,foreign content was nearly30%.In the case of the787“Dreamliner”(formerly called the7E7),foreign content might run as a high as70%(Pritchard and MacPherson2004).Not surprisingly,this possibility has alarmed several labor unions across the U.S.,including the Society of Professional Engineering Employees in Aerospace and the International Association of Machinists(Sorscher2004).Although Airbus also employs offset agreements to secure international orders, Airbus differs from Boeing in that the former more typically operates with“indirect offsets”(e.g.,granting landing rights to major EU airports such as Heathrow or Gatwick).In addition,Airbus tends to subcontract internationally on an arms-length basis(build-to-print)—rarely allocating full design responsibilities to foreign subcontractors(MacPherson and Pritchard2003).Contrast this with the787 program,in which Boeing expects foreign partners to design,develop,build,and deliver complex components and systems to the prime contractor for final assembly.As part of the launch process for the787,3Japanese companies are slated to create the manufacturing processes for final assembly of the wing.Boeing has never considered subcontracting wing production to external suppliers before.Given that Japan has incrementally acquired production competence for a wide range of airframe components via years of industrial offsets from Boeing(Pritchard2001),the transfer of wing manufacturing and assembly expertise to Japanese companies effectively gives Japan“total production competence”with regard to commercial airframes.Japan has already announced that it wants to produce commercial aircraft(Pritchard and MacPherson2004).In fact,Mitsubishi announced in2002that it was conducting a joint feasibility study with Boeing for a30-seat regional jet which would receive$206 million in financial support from the Japanese government(Seattle Post-Intelligencer 2002).This decision was changed in April2005,when Mitsubishi announced that50 billion yen($463million)was being sought to develop a regional jet with70–90seats. In this regard,Japan’s first airliner will likely be an all-composite regional jet based on a variety of new technologies—a competitor to Canada’s Bombardier and Brazil’s Embraer.Some experts believe that the next generation of the enormously successful Boeing737will be an all-composite airframe produced totally in Japan(Hayward2005).Clearly,Japan is no longer content to act as a subcontractor when it comes to commercial aircraft production.It is well known that labor costs for Japanese firms such as Mitsubishi are generally higher than those of U.S.aerospace companies such as Boeing or Lockheed-Martin(Pritchard2002).Consequently,recourse to Japanese suppliers is unlikely to reflect wage differentials between Boeing and its Japanese partners. Instead,Japan’s competitive advantage lies in its ability to quickly develop large-scale autoclaves to cure and fabricate the787’s wings.This reduces Boeing’s need to invest in complex capital equipment when the future market for the787is uncertain.A downside,however,is that Boeing could have been in a position to produce a composite wing in-house had the company invested in this technology prior to the 787launch.Given that this technology is widely expected to become state-of-the-art for the production of all large passenger jets from now on,the strategic implications are not difficult to envision.Specifically,Japan will soon establish itself as a global leader in this pivotal segment of the aircraft production chain.Having said this,there is nothing new about Japan’s desire to become a key player in the aerospace sector(Samuels1994).In1954,for example,the United States granted licenses to Japan for the production of F-86and T-33military aircraft—the two mainstays of the U.S.Air Force during the Korean War.Powered by a complex mix of political expediency,logistical need,and commercial self-interest,important strands of U.S.aerospace technology have been transferred to Japan since the early 1950s(Samuels1994).In1959,the U.S.decision to grant production licenses to Japan for the supersonic F-104Starfighter arguably positioned several Japanese companies on a path toward full competence in airframe engineering.Historically speaking,then,there is nothing intrinsically new about Boeing’s evolving technological relationship with its Japanese risk-sharing partners.Japan’s Commercial Aircraft Industry National ProjectThe Japanese Aircraft Development Corporation2005(JADC)is a consortium of Japanese industrial companies that seeks to introduce advanced commercial aircraft programs.The main partners are Mitsubishi Heavy Industries(40%),Kawasaki Heavy Industries(30%),Fuji Heavy Industries(20%),Nippi(5%),and ShinMaywa Industries(5%).JADC is responsible for the coordination of Japanese aerospace companies in international projects promoted by the Ministry of Economy,Trade and Industry(METI).An important national goal for METI and Japan’s corporate sector has been the revitalization of the domestic aeronautics industry,an industry now being aided by a METI-financed foundation—the International Aircraft Development Fund(IADF). This new foundation has offered the three-company consortium(Japan’s aircraft manufacturers)a$3billion low-interest loan to ensure Japan’s participation in the 787program(Sakai2004).The goals of JADC are to support civil aircraft production through applied R&D and other appropriate means so that a viable aeronautics industry might be developed on an internationally competitive basis.The JADC is a nonprofit foundation established to enhance Japan’s aircraft industry with the approval ofthe Japanese government and is managed by the top executives of the following Japanese companies:Mitsubishi Heavy Industries,Ltd.(MHI);Fuji Heavy Industries Ltd.(FHI);ShinMaywa Industries Ltd.(SMI);Japan Aircraft Manufac-turing Co.,Ltd.(JAMCO);Ishikawajima-Harima Heavy Industries Co.,Ltd.(IHI); Japan Airlines Co.,Ltd.(JAL);All Nippon Airways Co.,Ltd.(ANA);and Japan Air System Co.,Ltd.(JAS).The Boeing767was the first U.S.aircraft program that entailed substantial international cooperation in developing commercial transport.It can be inferred that there were four major reasons for cooperation between Boeing and companies in Japan at this time,including risk-sharing,enhanced capabilities through cooperation, participation in development and market entry,and mutual profit-taking.The next project was the international joint development of the Boeing777, which started in1991and continues today.For the B777’s development,Boeing and JADC constitute the core promoting organizations.Mitsubishi Heavy Industries, Kawasaki Heavy Industries,and Fuji Heavy Industries are taking part in airframe development and production,playing key roles as program partners.Besides airframe manufacturers,some30Japanese companies have also been involved in Boeing’s commercial transport programs as suppliers or subcontractors.In2004, JADC and Boeing agreed to the joint development of the Boeing787.The Japanese heavy firms Mitsubishi,Fuji,and Kawasaki are slated to build35%of the787 aircraft structure,which will include the design and manufacturing specifications in comparison to a build-to-print relationship on previous Boeing programs.In2003, The JADC received budgets for pre-development activity that supported sending140 Japanese engineers to Seattle before the program concept was finalized between Boeing and the Japanese companies.Thomas Pickering,Boeing’s senior vice president for international relations, recently stated that“Japan did less than10%of the(Boeing)767and20%of the 777”(Nihon Keizai Shimbun,April18,2004:2).From1978to1983,the Japanese government covered about half of the costs of developing parts built by the Japanese companies for the Boeing767(Belson2004).In the1990s,Japanese companies spent104.5billion yen($942million)to develop parts for the Boeing777,aided by a60billion yen loan from the Japanese government(Belson2004).Today,these three Japanese firms will have full responsibility for tooling their factories for wing production.“This is the first time we have ever put the full wing...into the hands of a partner,”said Thomas Pickering(Gibbs2004:3).He further stated,“We said (Boeing)let’s spread the risk and spread the benefit....They get the advantages but they also carry the burden.”Table1Outsourcing trends for Boeing airframesAirframe727767777787 Wing U.S.U.S.U.S.Japan Center wing box U.S.Japan Japan Japan Front fuselage U.S.Japan Japan Japan/U.S. Aft fuselage U.S.Japan Japan Italy Empennage U.S.U.S.U.S.Italy/U.S. Nose U.S.U.S.U.S.U.S.Boeing finalized its contracts with Japan’s first-tier/risk-sharing partners in May 2005(Table1).The first-tier suppliers will select,contract,and oversee the second-and third-tier suppliers in mid-2005.For the first time in mercial aviation history,the787program will allow a first-tier supplier to control the selection process for second-and third-tier suppliers.This initiative should alarm the U.S. supplier base,since the government of Japan will be subsidizing the787program up to$3billion(Pritchard and MacPherson2004).The aerospace infrastructure of Japan will likely be developed with new national suppliers being chosen for receptivity for the government funding.In an interview with Bill Lewandowski,Vice President of the Supplier Council for the Aerospace Industries Association,two concerns were raised:“the first being that upper-tier U.S.suppliers(sigma three group)would probably be only offered to quote against Japanese second-and third-tier suppliers,and,second the U.S.group would have difficulty communicating with the overseas first-tier suppliers”(Lewandowski2004).A snapshot of the evolution of Boeing’s outsourcing strategy is shown in Table1, which tracks the growth of international production-sharing for key aircraft components across four airplane programs.There has never been any significant foreign content for early models such as the727.From the767onwards,however, foreign partners have clearly become more important.Equally important is that Boeing’s outsourcing arrangements over the past30years have expanded from simple structure parts on the747to complex center-wing boxes for the777(Boeing2005).Below is a listing of major component subcontracts to Japan that covers six of Boeing’s commercial aircraft programs(717,737,747,757,767,and777): MHI(Mitsubishi)&Inboard TE Flaps747-400&Inboard Flap737-600/-700/-800/-900&Passenger Entry Doors777-200/-300&Fuselage Section46,47,48777-200&Bulk Cargo Door777-200,777-300&Pressure Dome Bulkhead777-200&Entry Service Doors767&Fuselage Section46767&Dorsal Fin767&Fuselage Section46,47777-300FHI(Fuji)&Inboard/Outboard Spoilers747-400&Inboard/Outboard Aileron747-400&Elevator737-600/-700/-800/-900&Wing Stub Sec11777-200&Wing Body Fairings777-200&Main Landing Gear Doors777-200&Body Fairing,Main Landing Gear Doors767,777-300&Wing Stub Sec11777-300&Outboard TE Flap757-200/-300KHI(Kawasaki)&Outboard TE Flaps747-400&Wing Ribs737-600/-700/-800/-900&Large/Small Cargo Door777-200,777-300&Fuselage Sec43,45777-200&Keel Beam777-200,777-300&Inspar Ribs777-200&Entry Service Doors767&Fuselage Section43,45767&Inspar Ribs767&Fuselage Section43,44,45777-300&Section48Pressure Dome Bulkhead777-300ShinMaywa Industries&Elevators717&Elevator Tabs717&Horizontal Stabilizer717&Pylon717Boeing’s Growing Dependency on JapanJapan’s technological leadership in composites is one reason that Boeing proposes to allocate35%of the787airframe structure to Japan.Paul Lagace,MIT Professor of Aeronautics and Astronautics and Engineering Systems,in an interview stated “the United States lags behind Japan,Spain and Russia in aircraft composite technology”(Lagace2004).Boeing’s airframes have changed very little since the introduction of the747.With Airbus introducing major technological advances over a relatively short corporate lifetime,Boeing has been forced to move into this all-composite aircraft.In the past,when Boeing was the world’s leader in commercial aircraft manufacturing,it rested on position in the industry and did not invest heavily in R&D for its commercial product line.With stiff competition from Airbus,notably over the last5years,Boeing urgently needs an innovative product based on cutting-edge technology.The787is just such a product,but it comes at a cost(discussed later).A related cause for concern is that Boeing has been trailing Airbus for many years with regard to R&D spending and capital investment(Figs.1and2).In 2003,for example,Airbus allocated9.5%of its total revenues toward R&D, compared to3.5%for Boeing.In the same year,Boeing allocated only0.97%of its total revenues to capital investment,compared to9.1%for Airbus.Although these percentages will no doubt increase as the A380and787programs unfold,the fact that Boeing has underinvested for so long suggests that the“catch-up”in technological and engineering terms will be difficult.This decline dismantles our technological and manufacturing communities from within,eroding the network of business relationships,expertise,and corporate authority developed over decades (Sorscher2004).Boeing is looking to leapfrog Airbus on composite technologies for the 787aircraft.The strategic goal of “low technological risk and low financial exposure ”makes partnering with JADC ’s composite leaders logical.For example,Boeing recently awarded a 12-year contract worth $3billion to the Japanese firm Toray for the carbon-fiber composite material to be used on the 787aircraft (Gates 2004).But this dependency on Japan should not be surprising.Recent developments reflect a continuation of the concerns that were discussed in a 1994monograph “High-Stakes Aviation ”by the National Research Council.We interviewed Charles Wessner,Director of Technology and Innovation,National Academy Sciences,in March 2004.Wessner ’s principal concern is that the 787wing technology and larger composite structures being sourced to Japan will ultimately curtail U.S.innovation capability and compromise U.S.security interests (Wessner 2004).Perhaps ironically,some of the advanced composite technologies and related processes developed by Boeing and McDonnell Douglas under 1989–1997NASA R&D funding (the $354million Composite Wing Development Program),as well as some $54million in NASA funding for the Composite Fuselage (1989–1996)along with funding under the Advanced Subsonic Program (1993–1998),will be delivered to the Japanese under the 787program.In short,U.S.tax dollars that were originally spent to promote U.S.technology development will likely soon upgrade the manufacturing and materials-handling capabilities of foreign companies.% of revenue 200120022003Fig.2Investment by Boeing.(Source:AnnualReports)% of revenue Fig.1Investment by Airbus.(Source:Annual Reports)A number of related concerns were recently voiced by Stan Sorscher of the Society of Professional Engineering Employees in Aerospace who,in an e-mail to the authors,stated that“My primary worry is that decisions are increasingly driven by short-term financial goals.As a result,too little value is placed on strategic factors based on human capital—communication,coordination and interaction that occur in integrated design and manufacturing communities.”Sorscher then stated that“Reliance on global supplier networks may be well suited to commodity items or consumer goods,but it is ill-suited to aerospace products”(Sorscher2005).His point,in essence,is that outsourcing complex systems ultimately implies an erosion of domestic technological capability via losses on the human-capital side of the production chain.Japan’s New Strategies for the Boeing787The technology and process improvements required for the787go far beyond raw material requirements(composites).Boeing’s partners in Japan will be building composite structures that are stuffed with sub-systems that are already certified, tested and ready for final assembly.There will be minimum work content for the less than1,000Boeing Everett workers on the787program.The economic impact for the Japanese aircraft industry will include major multiplier effects,with the three Japanese“heavies”in control of second-and third-tier supplier selection.The spread of subcontracts for the Japanese airframe manufacturers might add as many as75 Japanese sub-tier suppliers.This does not include the estimated60second-tier Japanese engine,equipment,and material suppliers,which could add a further100 third-tier Japanese suppliers.Prior to the777,almost all of these multiplier effects rippled through the U.S.economy.In a recent article,Eamonn Fingleton(2005:5)contends that in outsourcing the 787wings,Boeing is crossing an economic Rubicon...no Boeing plane has ever flown on a foreign wing.Fingleton was questioning Boeing’s judgment on transferring closely guarded wing-making technology to the Japanese.He further asserted that“wing-making is one of the most advanced sub-sectors of one of the world’s most advanced manufacturing industries”(p.6).Boeing responded to this criticism by stating that“when it came time to build the787wings,Boeing didn’t have the machines and tools to build the wing box out of the carbon-fiber composites that will make the majority of the wing”(Corliss2005:2).The flaw in Boeing’s argument is that Japan had neither the machines nor the tools to accomplish the job when the risk-sharing concept was initially crafted.In fact,the Japanese companies are only now spending hundreds of millions of dollars on composite automatic tape-layering machines,computer-numerically-controlled(CNC)tooling, and advanced autoclaves to meet the787structure sizes and production rate requirements.This reinforces existing fears that Boeing will not invest in its future with major upgrades in terms of capital equipment or infrastructure.Whereas the Japanese are building new facilities to produce the787wing and airframe,Boeing is simply reorganizing space inside its existing Everett facility to make room for the3-day787final assembly activity.Japan’s787Funding and WTO IssuesThe Japanese government’s funding package for the787has been delayed several times since the first framework was announced in March2004.The previous Japanese funding schemes for the Boeing767and777aircraft programs would be ruled illegal under today’s1994WTO Agreement on Subsidies and Countervailing Measures(SCM Agreement).We estimate that Japanese public support for the787 development program will be$1.588billion,which is likely to be split30%non-repayable grants and70%in repayable loans(Pritchard and MacPherson2004).The Japanese government-funding scheme is probably being delayed because of the introduction of a compulsory payment program(royalty)per ship set delivered from first production delivery instead of previous schemes that allowed the program to make a profit before making any payments(typically the delivery of the five-hundredth ship set on a2,000-unit production run).This proposed change would not allow the JADC companies time to recover their own funding before repaying the Japanese government loans.These companies might have to forgo the Japanese government-funding scheme and obtain bank loans,which would avert a possible WTO complaint from the EU and may be required to meet the master program contract for first-production article delivery to Boeing.Should the JADC elect to take the Japanese government funding scheme and the EU–US fail to agree on a revised framework for the1992EU–US aircraft agreement,the probability of the EU filing a WTO complaint on Japanese787subsidies seems high.This filing could have short-and long-term ramifications for Japan’s capabilities for producing composite aircraft.In the short term,the EU/WTO complaint on the 787could have two possible outcomes.First,the Japanese government could halt any future payment to the JADC which would delay the787first delivery by at least a year while the Japanese“heavies”search the financial community for$3billion to support the787program(Table2).Second,the787WTO case could take up to 4years to get resolved,during which time the Japanese government might continue to fund the787program and deal with the WTO decision after most of the money has been transferred to JADC.The longer term ramifications would be that a delayed 787program by an EU/WTO filing could cause787risk-sharing partners and suppliers to lose their appetite for this type of financial exposure.Table2Japan’s787investmentsCompanies Components Investment MHI Wing and engines$900FHI Airframe$400KHI Airframe and engines$650IHI Engines$350 ShinMaywa Airframe$150 Toray Composite material$250 Second tier suppliers Equipment and systems$300 Total investment(millions)$3,000 Source:Pritchard and MacPherson(2004).。