The MBE diamond is a graphical representation of how Boeing operates in a MBE ecosystem and reflects the relationship between the virtual product and the physical product from needs to solution leveraging the potential of the digital thread.
Note: This content does not modify any contract with Boeing or serve as guidance on contractual requirements. Any questions regarding contractual performance should be submitted in accordance with the terms of the contract.
Q. Why is Model Based Engineering (MBE) important to Boeing? Will MBE be mandated to be a supplier for Boeing? A. Our business is leveraging the full capability of digital and our supply base is integral to that journey. We are adapting to take advantage of these capabilities as they are foundational for our future programs and we encourage our suppliers to continue to grow their digital competencies.
Q. Is Boeing going to dictate the use of particular tools and/or tool suites? A. In the vast majority of cases Boeing does not plan to mandate any particular tools or tool suites. Rather our emphases will be for supplier models and data to seamlessly integrate with our Boeing MBE environment through standardized interactions and data specifications.
Q. When can I expect to see requirements for MBE in your Request for Quote (RFQ)/Request for Proposal (RFP)? A. New program activity will always guide our efforts. That said, we are developing User Stories, Source Control Drawing, Product Specification, Statement of Work and Engineering Administrative Agreement strategies and enhancements that will convey our model based requirements and identify the data standards which enable model-based interoperability. As always, we will want your comments.
After several years of testing, the Model 299 went into production as the B-17 Flying Fortress. By the end of World War II, 12,731 B-17 Flying Fortresses had been built by Boeing, Douglas and Lockheed Vega.
First Lieutenant Robert K. Giovannoli, a test pilot assigned to the Material Division at Wright Field, saw the crash and immediately went to help. He made two trips into the burning wreck to rescue Hill and Tower, though later they both died of their injuries.
Hill Air Force Base, north of Salt Lake City, Utah, was named in honor of Major Ployer Peter Hill, U.S. Army Air Corps. The co-pilot, Lieutenant Putt, remained in the service and eventually achieved the rank of Lieutenant General, U.S. Air Force. He died in 1988.
Robert Kinnaird Giovannoli was born at Washington, D.C., 13 March 1904, the second of two sons of Harry Giovannoli, a newspaper editor, and Carrie Kinnaird Giovanolli. His mother died when he was six years old.
Giovannoli graduated from Lexington High School at Lexington, Kentucky, in 1920 and then attended the University of Kentucky, where, in 1925, he earned a Bachelor of Science degree in Mechanical Engineering (B.S.M.E.). He was a member of the Phi Delta Theta (ΦΔΘ) and Tau Beta Phi (ΤΒΦ) fraternities, treasurer of the sophomore class, and president of the American Institute of Electrical Engineers. He was employed by the General Electric Company at Schenectady, New York.
Giovannoli enlisted in the United States Army in 1927. After completing the Air Corps Primary Flying School at Brooks Field, and the Advanced Flying School at Kelly Field, both in San Antonio, Texas, he was commissioned as a second lieutenant in the Air Corps Reserve, 20 October 1928. Lieutenant Giovannoli was called to active duty 8 May 1930. In 1933, he was assigned to a one year Engineering School at Wright Field. He then was assigned to observe naval aircraft operations aboard USS Ranger (CV-4) in the Pacific Ocean.
On 8 March 1936, just a few days after returning from his temporary assignment with the Navy, Lieutenant Giovannoli was killed when the right wing of his Boeing P-26 pursuit, serial number 32-414, came off in flight over Logan Field, near Baltimore, Maryland.
First Lieutenant Robert Kinnaird Giovannoli, Air Corps, United States Army, was buried at the Bellevue Cemetery, Danville, Kentucky. In 1985, the Robert Kinnaird Giovannoli Scholarship was established to provide scholarships for students in mechanical engineering at the University of Kentucky College of Engineering.
The Boeing Model 299 was a four-engine bomber operated by a crew of eight. It was designed to meet a U.S. Army Air Corps proposal for a multi-engine bomber that could carry a 2,000 pound (907 kilogram) bomb load a distance of 2,000 miles (3,219 kilometers) at a speed greater than 200 miles per hour (322 kilometers per hour). Design of the prototype began in June 1934 and construction was started 16 August 1934. The Air Corps designated it B-299, and later, XB-17. It did not carry a military serial number, being marked with civil experimental registration X13372.
Designated XB-17 by the Army Air Corps, this airplane and the YB-17 pre-production models that followed would undergo several years of testing and improvement before entering production as the B-17 Flying Fortress, a legendary airplane of World War II. By the end of the war 12,731 B-17s had been built by Boeing, Douglas and Lockheed Vega.
Leslie Ralph Tower was born at Sisseton, South Dakota, 21 January 1903. He was the first of three children of Ralph R. Tower, a farmer who would later serve as a state senator for Montana, and Mayme Amanda Johnson Tower, a Swedish immigrant.
In 1925 Tower started working for Boeing as a draftsman, but soon began test flying new airplanes, which included the B-9 bomber and the Model 247 commercial airliner. He also demonstrated and delivered Boeing airplanes around the world.
Les Tower was aboard the XB-17 as an observer during the 30 October flight. He saw that the control locks had not been released and tried to reach them, but was unable. In the fire that followed the crash, Tower suffered severe burns to his face, right arm and both legs.
Leslie Ralph Tower died of his injuries 19 November 1935 at Miami Valley Hospital in Dayton. His remains were transported by train, escorted by Army airplanes, and were buried at Lakeview Cemetery, Polson, Montana.
SEATTLE, May 17, 2023 /PRNewswire/ -- In support of commercial aviation's path toward net zero carbon emissions, Boeing (NYSE: BA) today released the Boeing Cascade Climate Impact Model for public use. Cascade, a data modeling tool that identifies the effects of a range of sustainability solutions to reduce aviation's carbon emissions, is accessible on Boeing's new Sustainable Aerospace Together hub, www.sustainabilitytogether.aero.
"We created Cascade to serve as an industry tool that creates a common framework among aviation, energy, finance and policy," said Boeing Chief Sustainability Officer Chris Raymond. "By putting data first and sharing this model with the public, we are enabling collaboration, feedback and alignment across industry, government and others who work together to achieve a more sustainable aerospace future."
"Cascade helps airline operators, industry partners and policymakers see when, where and how different fuel sources affect their sustainability goals," said Neil Titchener, Cascade Program Leader. "Our industry has really hard questions ahead of us, we're going to have to make difficult choices. Cascade can be the conversation starter for how each decarbonization pathway can help us reach a more sustainable future."
Boeing announced the public release of Cascade at its first Sustainable Aerospace Together Forum, a conference convening leaders from commercial aviation, government and the energy and finance sectors. The event was streamed by FT Live and recorded sessions will be made available following the event.
Boeing also introduced the Cascade User Community, a working group that will provide feedback on new features, functionalities and application programming interfaces. The founding members of the Community are IATA, NASA, University of Cambridge's Aviation Impact Accelerator and the MIT Laboratory for Aviation and the Environment.
"The Cascade User Community will ensure the tool and data sources continue to get feedback and evolve for informed and effective discussions towards achieving net zero emissions by 2050," said Raymond.
In addition to hosting Cascade, the Sustainable Aerospace Together website provides resources and industry insights on aviation pathways to decarbonization. Try Cascade at www.sustainabilitytogether.aero.
As a leading global aerospace company, Boeing develops, manufactures and services commercial airplanes, defense products and space systems for customers in more than 150 countries. As a top U.S. exporter, the company leverages the talents of a global supplier base to advance economic opportunity, sustainability and community impact. Boeing's diverse team is committed to innovating for the future, leading with sustainability, and cultivating a culture based on the company's core values of safety, quality and integrity. Join our team and find your purpose at boeing.com/careers.
MegaHobby.com has many model airliners. MegaHobby.com also stocks many great aircraft update and detail sets in our aircraft and updates section to help make your model airplane a real show winner! If you are building a model aircraft diorama scene, be sure to check out the diorama details section for ground crew, pilot figures, diorama bases, and airfield and vehicles.
The 737-900ER, the largest version of the prior generation 737 model that predated the MAX, has the same door plug design as the larger MAXs. That door plug is a panel that fills a space that some airlines use as an emergency exit.
On Jan. 5, on an Alaska Airlines flight operating a Boeing 737 MAX 9, the door plug on one side of the plane blew out at 16,000 feet in the air, causing the cabin to rapidly depressurize and leaving a gaping hole in the plane. The flight landed safely back at Portland International Airport, where some passengers reported non-life-threatening injuries.
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