It’s very encouraging that the end of the pandemic is hopefully in sight and once these wonderful vaccines are successfully rolled out then life can start to return to some normality. At which point travel and events such as ATW can safely recommence.
We therefore feel it is more prudent to reschedule ATW, one last time, to 3-4th November ’21 giving the vaccine roll out more time. The event will remain at the same Diagora venue in Toulouse, France.
We are very confident that our in-person event will be a great success and it’s even bigger than when it was originally scheduled pre-pandemic! The conference programmes are already in place https://lnkd.in/dmS7FSz and the exhibitions halls are nearly full https://lnkd.in/dTRjzTW.
The hiatus in our event schedule has ironically given us more time to use our new publication, ✈ Aerospace Tech REVIEW to share news and raise even greater awareness of the event for us all. Therefore we expect a significant take up from attendees which will create a much needed business platform for us all.
Thank you to all our loyal supporters and see you in Toulouse!
Green Hills Software, the worldwide leader in high-assurance operating systems, today announced that its INTEGRITY-178 Time-Variant Unified Multi-Processing (tuMP) RTOS running on a quad-core ARM Cortex-A53 CPU has been selected by Northrop Grumman Corporation for the Embedded Global Positioning System (GPS)/Inertial Navigation System (INS)-Modernization (EGI-M) program. Key factors in the selection of INTEGRITY-178 tuMP were:
the ability to run a DAL-A partition across multiple Cortex-A53 cores;
built-in DAL-A functionality and tools for mitigating multicore interference per CAST-32A;
certified conformance to the FACE 3.0 Technical Standard, including all the multicore requirements;
support for ARINC 653 Part 2 Multiple Module Schedules across multiple cores;
a proven Multiple Independent Levels of Security (MILS) service history and certification pedigree; and
flexible core assignment by the integrator, enabling optimal core utilization and maximum spare capacity for future growth
Based upon a modular, open-systems architecture, EGI-M supports rapid
insertion of new capabilities to enable robust, accurate, and reliable
positioning, navigation, and timing (PNT) information, even in
GPS-denied conditions. EGI-M incorporates a military code (M-code) GPS
receiver that adds robustness to interference of GPS signals. The lead
platforms for EGI-M are Northrop’s E-2D Hawkeye and Lockheed Martin’s
F-22 Raptor, but it is designed to be scalable to any manned platform
and larger unmanned vehicles.
“Green Hills Software is proud to be selected by Northrop Grumman for
the critical EGI-M Program,” said Dan O’Dowd, founder and chief
executive officer of Green Hills Software. “The INTEGRITY-178 tuMP RTOS
has an unequaled combination of safety and security in a single product
complete with support for open standards such as ARINC 653 and FACE.
Designed from the beginning to be a multicore RTOS, INTEGRITY-178 tuMP
is the only FACE-conformant RTOS that has ability to run a DAL-A
partition across multiple cores and mitigate multicore interference per
The INTEGRITY-178 tuMP safety- and security-critical RTOS is designed
to simultaneously meet DO-178B/C design assurance level (DAL) A and the
separation kernel protection profile (SKPP) as defined by the NSA.
INTEGRITY-178 tuMP is a multicore RTOS with support for running a
multi-threaded DAL A partition across multiple processor cores in
symmetric multi-processing (SMP) or bound multi-processing (BMP)
configurations. INTEGRITY-178 tuMP was the first RTOS to be certified
conformant to the FACE Technical Standard, edition 3.0, and remains the
only one conformant for all three avionics processor architectures: Arm,
Intel, and Power Architecture. The MILS capability of INTEGRITY-178
tuMP comes from its implementation as a true separation microkernel. The
INTEGRITY-178 RTOS is the only commercial operating system ever
certified to the Separation Kernel Protection Profile (SKPP) published
by the Information Assurance Directorate of the U.S. National Security
Agency (NSA). That certification was done by the National Information
Assurance Partnership (NIAP) to Common Criteria EAL 6+ “High
Physical Optics Corporation is using Ansys simulation software solutions to develop avionics for U.S. military aircraft. Ansys SCADE Solutions for ARINC 661 Applications (Ansys SCADE for ARINC 661), will enable POC to reduce development time and accelerate certification — integrating new functionality at a much lower cost and enabling a faster path to market.
U.S. Department of Defense legacy aircraft equipped with aging avionics and controls require upgrades to add new capabilities. As avionics software becomes increasingly sophisticated, complying with complex requirements, satisfying safety-critical standards and reducing costs present major development challenges. Efficient model-based software development with qualified code generation offers a more streamlined approach to decrease software cost and development while effectively managing highly complex designs.
“We selected Ansys SCADE for ARINC 661 with the hope of
significantly streamlining model-based software development and lowering
the risk path to certification,” said Omar Facory, vice president of
Mission Systems at POC. “Ansys SCADE 661 is instrumental for driving
interoperability and reusability — enabling our team to easily update
new functionality for military aircraft as it becomes available.”
Ansys SCADE for ARINC 661 provides model-based software development and automatic qualified code generation to create and certify avionics software. Development time can be reduced while adhering to ARINC 661, DO-178C and the FACE Technical Standard, the company says. Driving reusability across aircraft platforms, Ansys SCADE 661 expedites integration of new functionalities and reduces platform-specific design.
“Ansys SCADE for ARINC 661 provides the ability to rapidly generate avionics software in full compliance with ARINC 661 and enables alignment to the FACE Technical Standard,” said Eric Bantegnie, vice president and general manager at Ansys. “This delivers outstanding reliability, dramatically increases productivity, achieves a top-tier level of quality and swiftly expedites software certification, while fully qualifying with DO-178C.”
The United States Army, L3Harris Technologies and Ansys are advancing the performance and affordability of next generation aviation and missile system applications. The U.S. Army Combat Capabilities Development Command (CCDC) Aviation & Missile Center (AvMC) evaluated commercially available solutions to seamlessly support rapid integration of software aligned to the FACE Technical Standard through a joint Cooperative Research and Development Agreement (CRADA).
Technical Standard enables software on embedded military computing
systems to be more interoperable, portable and secure. The CRADA
utilized L3Harris and Ansys-developed software aligned to FACE Technical
Standard hosted on the Crew Mission System (CMS) platform for the
Cockpit Display Station (CDS). The CRADA represents significant progress
in showcasing how model-based development tools like Ansys SCADE®, along with L3Harris’ FliteScene®, can support rapid standards-based integration in support of the FACE Technical Standard and ARINC 661 standards.
“Adding new capabilities into our enduring platforms has been
costly in both time and money. With emerging threats and limited
resources, we simply have to provide more capabilities to our
warfighters faster with less funding,” said Joe Carter, U.S. Army
Program Executive Office Aviation G10 Tactical Branch Chief and FACE
Consortium Steering Committee chair. “Contributions from our industry
partners, including Ansys and L3Harris, help exercise and mature the
FACE Technical Standard allowing rapid integration of capabilities for
our warfighters. This enables us to provide our warfighters a wide
variety of new and improved capabilities from any number of technology
The Ansys SCADE software toolset efficiently enables a complete workflow ranging from FACE modeling through DO-178C
(up to DAL-A) certifiable code-level generation. Ansys tools support
software development aligned to the FACE Technical Standard at both the
model and generated code levels, providing users with an easy workflow
that passes the FACE Conformance Test Suite (CTS), a necessary test
process included in the FACE Technical Standard. This effectively
streamlines the development effort of embedded control/display/HMI
applications aligned to the FACE Technical Standard and is compliant to
the ARINC 661 standard.
“L3Harris is a leading supplier of current and emerging airborne
software applications,” said Matt Collins, general manager, Mission
Avionics, L3Harris Space and Airborne Systems. “Through the CRADA,
L3Harris will further speed innovations in background digital moving map
technology for CDS.”
Ansys SCADE Solutions for ARINC 661 compliant systems fully adhere
to the ARINC 661 standard, including the ARINC 661 Server, the User
Applications (UA), standard binary and XML Definition Files (DF), and
the communication code between Ansys SCADE UA models and any ARINC 661
Server. This ultimately saves time and reduces effort and cost when
developing cockpit display systems.
“The U.S. Army depends on the efficiency of safety-critical
software development and integration efforts to advance emerging
aviation and missile system capabilities while keeping program costs
down,” said Eric Bantegnie, vice president and general manager at Ansys.
“Ansys looks forward to providing next-generation solutions that are
aligned with the Army’s model-based systems engineering initiatives and
open system architecture standards.”
Abaco Systems today further expanded its growing range of video/graphics solutions with the launch of the rugged, high bandwidth NVP2102A XMC Graphics and GPGPU Card. Designed to complement the recently-announced NVP2102, the NVP2102A offers additional support for legacy interfaces and peripherals.
Based on the NVIDIA® Quadro Pascal (GP107) P2000 GPU architecture and providing up to 2.3 TeraFLOPS of peak performance, target applications for the new board include those that require very high-end graphics capabilities or CUDA® support when performing general purpose processing, and that require raw video capture and display. The NVP2102A is competitively advantaged by its provision of four 3G-SDI inputs – twice the number typically found. It also provides two NTSC/PAL video inputs as well as supporting two audio inputs. Video output is via two 3G-SDI and two DVI or DisplayPort interfaces.
Of particular note is the NVP2102A’s support for direct video capture to GPU memory. This significantly reduces latency, minimizing glass-to-glass time – enabling the delivery of actionable information in closer to real time. The input resolution of incoming video is automatically detected and raw video frames are transferred directly to GPU memory (or host memory). In GPU memory, processing such as image analysis, image enhancement, 360-degree video stitching, sensor fusion, target detection and so on takes advantage of the extraordinary capabilities of NVIDIA GPGPU (CUDA/OpenCL) technology to deliver output to the user far faster than would otherwise be possible. The captured data can also be encoded using the GPU-native H.265 (HEVC) or H.264 encoders directly in GPU memory. Windows® or Linux drivers and API are available for x86 systems.
“With the NVP2102A, we’re delivering the kind of performance and functionality on an XMC card that, until recently, would have required a full size card – occupying a valuable chassis slot,” said Peter Thompson, vice president, Product Management at Abaco Systems. “Not only does the NVP2102A minimize SWaP, but it also features the advanced capabilities of the latest NVIDIA GPU and no fewer than four video inputs. In addition, its architecture enables it to deliver reduced latency – addressing a significant challenge for developers of advanced video and graphics processing applications.”
The NVP2102A supports Abaco’s AXIS ImageFlex. AXIS ImageFlex is an image processing and visualization toolkit enabling rapid development of high performance image processing, visualization and autonomy applications aimed at size, weight and power (SWaP) sensitive platforms. It is focused on high performance GPU processing and graphics with interoperability with other programing paradigms such as OpenGL, OpenCL, CUDA and OpenCV.
The NVP2102A is offered in conduction cooled or air cooled variants with rear XMC I/O on Pn6. The rear XMC pin-out is compatible with VPX systems that follow VITA 46.9 x12d+x8d+24s. 3U VPX and PCIe form factors are supported with carrier boards.
Wind River has been honored with the Military & Aerospace Electronics Platinum Innovators Award for Wind River Helix Virtualization Platform (Helix Platform). The awards recognize companies offering important military, aerospace, and avionics design solutions.
“We are honored to be recognized once again with this top award for our innovations in the aerospace and defense sectors,” said Ray Petty, vice president, global aerospace and defense, Wind River. “Helix Platform supports open architectures and rapidly scales for new technology insertion, allowing suppliers to develop innovative, future-proof, software-defined systems that can deliver increasingly advanced capabilities in a cost-effective and low-risk manner.”
Introduced in February 2019, Wind River describes their Helix Platform as an adaptive software development environment for aerospace, defense, and other critical infrastructure systems. Leveraging industry-leading VxWorks 653 technology as its foundation, Helix Platform comprises of VxWorks along with virtualization technology, integrated with Wind River Linux and Wind River Simics for system simulation. It meets the stringent safety-certification requirements of the DO-178C, IEC 61508, and ISO 26262 safety standards, and is conformant to the latest Future Airborne Capability Environment (FACE) Technical Standard, Edition 3.0.
Helix Platform supports symmetric multiprocessing (SMP) and asymmetric multiprocessing (AMP) designs; and RTCA DO-297 Integrated Modular Avionics (IMA) considerations reduce safety certification costs and accelerate time to deployment. It offers POSIX and ARINC 653 support, including for ARINC 653 Part 1 Supplement 5; and Part 2, Supplement 3. The platform operates system-agnostic, providing the ability to run any unmodified guest operating system.
“On behalf of the Military & Aerospace Electronics Innovators Awards, I would like to congratulate Wind River on their Platinum-level honoree status,” said Military & Aerospace Electronics editor in chief John Keller. “This competitive program allows Military & Aerospace Electronics to celebrate and recognize the most innovative products impacting the aerospace and defense community this year.”
The judging panel consisted of an independent group of esteemed and experienced professionals in the aerospace and defense community. This is the fourth consecutive year that Wind River has been recognized with the Military & Aerospace Electronics Innovators Award. The company was also recognized earlier this year by Frost & Sullivan with the Avionics Software Platform Technology Leadership Award.
Sensor Open Systems Architecture™ (SOSA) Consortium, a consortium of
The Open Group, today announced its agreement with and support for the
recent Tri-Service acquisition memorandum signed
by the Secretaries of the U.S. military – the Army, Navy, and Air Force
– directing that Modular Open Systems (MOSA) standards should be
included in all requirements, programming and development activities for
future weapon system modifications and new start development programs
to the maximum extent possible. The memo, titled “Modular Open Systems
Approaches for our Weapon Systems is a Warfighting Imperative,”
specifically cites the SOSA Consortium, in addition to the Open Mission
Systems/Universal Command and Control Interface (OMS/UCI), Future
Airborne Capability Environment™ (FACE) and Vehicular Integration for
C4ISR/EW Interoperability (VICTORY) standards, “as vital to our
memo aligns with the mission of the SOSA Consortium to create a common
framework for transitioning sensor systems to an open systems
architecture, based on key interfaces and open standards established by
industry-government consensus. All of the standards cited in the
memorandum are embraced by the open system reference architectures being
developed by the SOSA Consortium.
SOSA Consortium is set to provide a fair and neutral environment for
cooperation between industry and government partners, resulting in a
collaborative effort across the Command, Control, Communications,
Computers, Intelligence, Surveillance and Reconnaissance (C4ISR)
community, Air Force and Department of Defense, and industry. The
architecture will incorporate both hardware and software components to
handle demanding processing and data requirements, ease system upgrades,
reduce total cost of ownership, and promote competitive acquisition
with minimal system reworks.
John C. Bowling, Technical Expert, Avionics Architectures and Interoperability, AFLCMC/EZAC
states,“The Tri-Service Secretaries memorandum clearly validates
the integrative approach to multi-function sensor open architecture by
the SOSA Consortium. This provides additional incentive for industry
collaboration in sensor standards development which, in turn, should
advance maturation and broaden acceptance of the emerging
SOSA Technical Standard”.
The FACE Consortium team has been proving the
FACE standard for over five years, primarily via outreach to US DoD customers
via FACE Technical Interchange Meetings (TIMs), to NATO partners, and BALSA
BITS integration events. These efforts, coupled
with over 30 FACE procurements under
way, are driving FACE adoption for the world’s most challenging next generation
Next spring will be the first public event in Europe for The
Open Group FACE™ Consortium. The event will take place on March 18-19, 2020 in
Toulouse, France. Over 20 FACE Consortium member companies are already planning
to exhibit. The inclusion of FACE
exhibitors at this event makes this the world’s leading avionics trade show for
commercial and military avionics.
Inevitably, we get the question of: “Wait, FACE is ITAR, right?” Wrong. Although the FACE Technical Standard and
Business Approach were created under a joint US government-industry standards
environment, all FACE standards documents are published on the Open Group
website and downloadable by anyone in the world for free with zero restrictions
on usage in any type of system. In addition, FACE is a standard-of-standards. The
FACE Technical Standard is based upon over 60 open standards, including ARINC
653, POSIX, OpenGL, DDS and more. And
all FACE Technical Interchange Meetings (TIMs) have been public events and open
to anyone in the world, so this is truly an open standard ready to be deployed in
global avionics systems.
This is our inaugural event for FACE Technical Standard and
Business Approach in Europe.
This unique event expands the FACE standard into NATO countries
and strengthens our relationships with our global coalition partners. For more information on this event, see Aerospace
Thanks! See you in Toulouse in March 2020!
Senior Market Development Director, RTI
Chair, FACE Outreach Subcommittee