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Standards development teams at SAE International in Warrendale, Pa., have issued 11 new technical documents and revised or reaffirmed another 54 technical reports focused on mobility engineering across the aerospace, automotive, and commercial transportation communities. The new documents, issued throughout June 2018, cover a variety of technical subject areas, including: diagnostic link connector security, mitigation strategies against illumination effects, data dictionary for quantities used in cyber physical exams, requirements for production of metal powder feedstock for use in additive manufacturing of aerospace parts, and laser powder bed fusion process.

Jun 13, 2018 - The Aerospace Material Specification committee on Additive Manufacturing (AMS-AM) at SAE International in Warrendale, Pennsylvania, has released its first suite of Aerospace Material Specifications (AMS) additive manufacturing materials and process specifications. The new aerospace technical standards, now available from SAE, support the certification of critical aircraft and spacecraft parts, providing both a framework to protect the integrity of material property data and traceability within the aerospace supply chain.

The 3D printing materials market will experience high double-digit growth in the aerospace industry through 2024, as manufacturers of aircraft and spacecraft vehicles and components increasingly adopt and reap the benefits of additive manufacturing, market analysts at Frost & Sullivan in Mountain View, California, predict.

Girish Parvate-Patil, works for Caterpillar Inc. as an Engineering Team Leader on marine propulsion systems. He is accountable for overall leadership and direction on engineering-related activities of marine products with respect to supply chain, design, documentation, time, and cost.

Equispheres will use the investment to conduct the research and development needed to build reactors that will produce powders of higher-strength materials, such as steels, cobalt, chrome, and Inconel.

Last month, Boeing announced that it had entered a definitive agreement to acquire major independent aerospace parts provider KLX Inc.

The first BelugaXL aircraft has landed at Toulouse-Blagnac, France at 14:41 hours local time after successfully completing its first flight.

Last week, Aurora Flight Sciences’s Autonomous Aerial Cargo Utility System (AACUS) achieved a major operational milestone when it successfully delivered cargo to US Marines in the Integrated Training Exercise at the Marine Corps Air Ground Combat Center Twentynine Palms in California.

NASA Science Mission Directorate officials in Washington are funding three new projects selected from a pool of 25 received in response to the NASA Earth Science Technology Office’s (ESTO’s) solicitation for the In-Space Validation of Earth Science Technologies (InVEST) program element A.49 of ROSES (Research Opportunities in Space and Earth Sciences) 2017, supporting the Earth Science Division (Solicitation NNH17ZDA001N).

Parker Aerospace and GKN Aerospace sign development agreement for integrated thermal management technologies in next-generation aircraft engines.

“We originally thought solar cells would be standard on the airplane’s wings,” says George E. Bye, founder and CEO of Bye Aerospace Bye. “However, with eFlyer’s primary markets being flight training and air taxi services, it makes more sense to make the price of the airplane as reasonable as possible.”

Chicago-based Boeing recently completed a “demo flight” of a 737 MAX 7 narrow-body airliner equipped with updated Maneuvering Characteristics Augmentation System (MCAS) software.

Goodfellow’s process involves breaking methane gas – a very potent greenhouse gas – into hydrogen and elemental carbon atoms in a plasma reactor. The carbon atoms recombine into graphene sheets in the hydrogen atmosphere.

AeroVonics LLC, an aerospace startup based in Albuquerque, New Mexico, has received Federal Aviation Administration (FAA) certification for its initial launch product: a two-inch, twelve-function flight avionics instrument for light general aviation aircraft.

Collins Aerospace, a subsidiary of United Technologies Corporation (UTC), has laid out its plans for what is calling “The Grid” – an 25,000-square-foot advanced electric power systems laboratory for designing and testing next-generation, more-electric aircraft technologies for commercial, military, and business aviation.

Future airspace will be filled with unmanned aircraft systems (UAS) or drones, commercial aircraft, helicopters, and more. Several prototypes are currently targeting urban air mobility (UAM) platforms, such as air taxis, and revolutionary aircraft models like next-generation commercial supersonic aircraft. Add to this autonomous swarm technologies, enabling manned-unmanned teaming, and systems for future vertical lift and it’s clear that the technology wave can easily become overwhelming.

AdaCore, which focuses on portable, reliable, and efficient code, will provide leadership and direction for the FACE Consortium’s mission to standardize an open avionics environment for military aircraft.

The yet-to-be-named modular system prototype will feature an updated proprietary control system, triple redundancy capabilities, improved flight time, increases speed and payload capacity, and a new battery management system.

In contrast to the stiff, rigid wings found on most commercial aircraft, flexible wing technology is considered essential to next generation, fuel efficient aircraft. However, flexible wings are susceptible to “flutter,” or highly destructive aeroelastic instability. To better understand and mitigate flutter, engineers at NASA’s Armstrong Flight Research Center (AFRC) equipped the X-56 with fiber optic sensing (FOS) technology.

The new Advanced Technology and Training Center (ATTC), which opened yesterday after a ribbon-cutting ceremony, will focus on breakthroughs in condition-based maintenance and the intersection of artificial intelligence (AI), robotics, and automation within that domain.