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West Point’s Hypersonic Rocket Team Sets Record-Breaking Rocket Launch

Friday, May 2nd, 2025

WEST POINT, N.Y. — On Jan. 11, 2025, a team of eight cadets and their advisors prepared their equipment on a cold morning in the remote desert of Black Rock Playa, Nevada. The team was about to face a challenge that would test both their engineering skills and their resilience: to break the Karman Line, the boundary of space, 100 kilometers above Earth. But this was not just a mission to reach space; it was a journey of innovation and determination – built on the teamwork of six years of cadets designing, testing, failing, and succeeding to do something that few people have ever accomplished. It was a test of what they had been taught, their ability to adapt, and the courage to push past their limits. In alignment with the Academy’s annual intellectual theme, “The Human and the Machine: Leadership on the Emerging Battlefield”, this mission highlighted the powerful intersection of human determination and technological advancement.

That day, the SPEAR Hypersonic Rocket Team successfully launched a two-stage hypersonic rocket to an astonishing 149.556 km—surpassing the amateur rocketry altitude record by 6 km and the Karman Line (100 km), the internationally recognized boundary of space!

The day before the launch, the team huddled together, surrounded by planning documents and scattered components, making last minute decisions that would shape the outcome. At the heart of their strategy was simplicity – every decision driven by efficiency. That mindset paid off.

The next morning, as the countdown reached zero, the rocket ignited. The team watched in tense anticipation as it soared through the atmosphere. Every calculation, every design choice led to this very moment. As the vehicle soared beyond the Karman Line, the mission’s success depended on one final challenge – recovery.

Hiking through the rocky terrain, the team could hear the crunch of the desert crust beneath their boots as they trudged up the mountain in search of the rocket. The air was cold, their bodies were tired, and the uncertainty of the outcome loomed.

“We had a track on the rocket during flight, but we didn’t know the condition of the system after descent. It was unclear whether we would be able to recover anything”, Major Kevin Zander, Advisor and Instructor, Department of Civil and Mechanical Engineering recalled. The team pushed deeper into the mountains following a GPS signal, ascending 1,500 feet to reach over 6,000 feet in total altitude.

As the team surveyed the landscape, a glint of sunlight reflected off metal caught their eyes – Cadet Barrett Connor (‘25) spotted the payload amidst the rocks. The moment was surreal.

“We didn’t want this to be a case where the telemetry data says we made it, but there’s no physical evidence”, Cadet Ida McLaughlin (‘25) explained. “Now we can hold in our hands a part of the vehicle that actually touched space”.

After six years of development and perseverance, the team has set new records by crossing the Karman Line with precision and confidence.

Colonel Aaron Hill, Deputy Head, Department of Civil and Mechanical Engineering, reflected “It would be an understatement to say I’m proud of this team! This successful launch upholds the long legacy of excellence at West Point and proves that our graduates are prepared to design and implement solutions in complex environments as trusted Army professionals.”

The success of their mission was a validation of the decisions made over years of planning, testing, and refining. Every step, every choice, led them to this moment.

The team returned to Black Rock Playa in April to launch again, testing new capabilities, and laying the groundwork to guide the 2026 team to even more success. SPEAR Hypersonic Rocket Team continued to push the boundaries of what is possible, ensuring that West Point cadets remain at the forefront of innovation and leadership.

Born from a cadet-driven initiative in 2018, the Space Engineering and Applied Research program found early support from mentors within the Department of Physics and Nuclear Engineering, the United States Army Space and Missile Defense Command, and the Department of Civil and Mechanical Engineering. The SPEAR Hypersonic Rocket Team is now one of the most ambitious undergraduate rocketry programs in the Nation and a critical part of the Space Community of Practice at West Point that is developing Army officers who are capable of leading in emerging space operations, hypersonics, and cutting-edge rocket technology.

This historic launch would not have been possible without the support of many dedicated individuals and organizations. A special thank you to DEVCOM AvMC, the Office of Naval Research, Pyramid Lake Fire Department, Bureau of Land Management Black Rock Field Office, Gerlach Community, and FAA Western Service Area. Their guidance, support, and resources played a crucial role in making this mission a success!

SPEAR Hypersonic Rocket Team is administered by the Center for Applied Research in the Department of Civil and Mechanical Engineering, with contributions across West Point including the Departments of Systems Engineering, Physics and Nuclear Engineering, Chemistry and Life Sciences, and Electrical Engineering and Computer Science.

This project is part of West Point’s 26th annual Projects Day Research Symposium that showcases more than 350 cadet-led research projects. Learn more about the Department of Civil and Mechanical Engineering at bit.ly/WP_CME and check out more project features at www.westpoint.edu/werx

By Jana Scardigno Marketing Specialist, Department of Civil and Mechanical Engineering

Tech Connect – High-Performance PPE for Extreme Environments

Tuesday, February 18th, 2025

Do you have an innovative solution for next-generation personal protective equipment (PPE) that enhances comfort or communication in high-temperature, high-noise industrial environments? Tech Connect’s multinational client is looking for mature technologies ready for pilot-scale field testing by Q3/Q4 2025, focusing on:

Thermal Management Technologies
-Providing comfortable interior environments
-Maintaining user mobility and field of view
-Managing high ambient and radiant heat

Communication Systems
-Extended high-temperature durability
-Minimal impact on existing PPE
-Allowing person-to-person and group communication

Finalists will be invited to a virtual meeting in April 2025, where you will present your solution directly to their client’s team. Successful entrants may receive partnership opportunities, including demonstrations, consulting, contract research, or licensing agreements.

Submit by March 1 and tell them how your innovation can help shape the future of high-performance PPE.

Learn more at techconnect.org/2025-high-performance-ppe-for-extreme-environments-sprint

SOFWERX – SBIR 25.4 Pre-release: Aviation Goggle Mount & Operator Portable Oxygen Generation Device

Friday, February 7th, 2025

The USSOCOM Small Business Innovation Research (SBIR) program will soon be accepting submissions for the technology area of interest:

Special Areas of Interest
Phase I:
SOCOM254-003: Aviation Goggle Mount

The objective of this topic is to research and develop an innovative Aviation Goggle Mount capability that will be employed on various aviator helmets with various night vision goggle systems (i.e. AN/AVS-6 and Wide Field of View Aviation Goggles (WFOVAG) and shall interface with an Aviation Night Vision Imaging System (ANVIS) mount that is used by Special Operations Forces.

Direct to Phase II:
SOCOM254-D002: Operator Portable Oxygen Generation Device

The objective of this topic is to develop applied research toward an innovative capability to improve oxygen therapy at point-of-need in an austere pre-hospital environment. The goal is to develop a field instrument that is rugged, compact, and able to provide oxygen to patients and oxygen generation capabilities as far-forward as possible to reduce the need for oxygen cylinders.

SOFWERX will host a virtual Q&A session for the areas of interest on 18 February at 2:00 PM ET.

Click Here to RSVP (RSVP NLT 17 February 2025 11:59 PM ET)
Submit your proposal: (Submissions open 26 February 2025 12:00PM ET (Noon))

MRIGlobal Awarded GSA OASIS+ Contract Provides Government Customers with Vetted Contractor Access

Thursday, February 6th, 2025

Kansas City, Mo.: (Feb. 5, 2025) – MRIGlobal is pleased to announce its award of the General Services Administration (GSA) One Acquisition Solution for Integrated Services Plus (OASIS+) Indefinite Delivery, Indefinite Quantity (IDIQ) contract under the Research & Development domain. With more than 80 years of experience supporting the United States government, MRIGlobal is well-positioned to continue delivering integrated and multi-disciplinary solutions in defense, health surveillance, and health diagnostics.

“For more than eight decades, our scientific researchers and engineers have created breakthroughs to meet the needs of our customers and contribute to national security. Our expertise in global health surveillance, disease diagnostics, chemical and biological threat detection, and emerging infectious disease response has served as a critical asset to the United States government,” said Dr. Ian. M. Colrain, President & CEO, MRIGlobal. “This GSA OASIS+ contract award ensures that we will continue providing innovative solutions to these and other important challenges, and we are now able to do so more efficiently and effectively than ever.”

Administered by the GSA, OASIS+ is a government-wide, multi-award, IDIQ contract vehicle that supports federal agencies’ procurement requirements for services-based solutions. This contract is available for use by all Federal agencies. The contract provides Federal agencies with vetted, highly qualified contractors; a flexible, expandable domain-based structure; a 10-year order period; no contract dollar ceiling and no cap on awards, and price evaluation at the contract level. Requirements can be included that are performed in CONUS and/or OCONUS locations, for complex commercial or non-commercial services, and for any contract type.

“Having been vetted by the GSA as a highly qualified contractor means that we’ve demonstrated our capabilities and experience in serving our government customers,” said Michelle Rodrigues, Vice President, Government Business Development. “Receiving this OASIS+ award contract is recognition of the quality of scientific and engineering research our teams have performed for those customers, and the positive impact our solutions have had on society.”

Administered by the General Services Administration (GSA), OASIS+ is a government-wide, multiple award, IDIQ contract vehicle that allows government customers to acquire a range of non-IT services from government vendors. For easy access to MRIGlobal’s OASIS+ contract vehicle, including awarded CLINS, visit www.mriglobal.org/contract-vehicles.

Army Scientists Develop New Battery Treatment Process

Tuesday, February 4th, 2025

ADELPHI, Md. — U.S. Army scientists have developed a new surface treatment that could lead to more efficient and longer-lasting batteries for military applications.

The team at the U.S. Army Combat Capabilities Development Command Army Research Laboratory, known as DEVCOM ARL, created a process that treats multivalent metal electrodes with an acidic solution, creating an ultra-thin protective layer that improves overall battery performance.

“This quick, commercially viable treatment process creates a unique interphase layer that’s thinner than a human hair, yet significantly impacts how rechargeable zinc batteries perform,” said Dr. Travis Pollard, a chemist at DEVCOM ARL. “For Soldiers, this could eventually mean more reliable and longer-lasting power for their essential equipment.”

The research team’s work focuses on next-generation battery technology that goes beyond current lithium-ion capabilities. Their approach includes applying an acidic solution to the battery’s metal electrode, followed by a controlled drying process that creates a specialized thin protective layer.

Potential applications include:

  • Military energy storage systems
  • Portable electronics
  • Electric vehicles
  • Grid-scale energy storage
  • Advanced defense systems
  • Portable power solutions

The U.S. Patent and Trademark Office published the patent application (20240387882) on Nov. 21, 2024, following the team’s May 21, 2024, filing. The research team includes Drs. Lin Ma, Marshall A. Schroeder, Oleg A. Borodin, Travis P. Pollard and Kang Xu. The technology, as part of a growing portfolio of disclosures related to zinc/multivalent rechargeable batteries, will soon be available for licensing through the Army’s technology transfer program, offering opportunities for commercial development and broader applications beyond military use.

“We don’t just do research here; we try to make sure that our breakthroughs have the widest possible impact,” said AnnMarie Martin, team lead, Technology Transfer. “Through our technology transfer programs, we look for partners in industry, whether it’s big corporations or small startups, to take our ideas and develop them into commercial products.”

Martin said the new battery tech could be used in everything from military equipment to electric cars.

“This is a great way to ensure our taxpayer dollars have the biggest impact,” she said.

For information, visit the lab’s webpage on patent license agreements, or reach out to the laboratory via the contact us page.

By U.S. Army DEVCOM Army Research Laboratory Public Affairs

USSOCOM SBIR Pre-Release: Autonomous Precision Timing in Contested/Congested RF Environments

Tuesday, September 17th, 2024

The objective of this SBIR Open Topic is to develop applied research towards the development of an independent, autonomous precision timing source, such as an Atomic Clock, to enable precision timing in Radio Frequency (RF) contested and congested environments.

Existing systems depend on the Global Positioning System (GPS) for positioning, navigation, and timing (PNT) services. In environments where GPS is unavailable, RF communication systems relying on precision timing are impacted. The proposed technology should address how autonomous precision timing sources can integrate into current systems and mobility platforms, including chip-scale, modular, and fixed-based timing sources. The aim is to provide a reliable autonomous precision timing source to support mission success in contested and congested environments.

Tactical Information Systems (TIS) Technology Areas of Interest:

Mobility Applications: Technology for “advantaged” user applications 1.

Disadvantaged Applications: Timing update technology for ground users 2.

Enterprise Timing: Source and distribution technology 3.

Performance Requirements:

General:

Interface Requirements: Ethernet, RS-232, 1 Pulse per Second (PPS) output, 1 Have Quick Timing output, L1/L2 SAASM GPS Input.

Objective Requirement: Maintain a drift of 1 microsecond in 24 hours.

Threshold Requirement: Maintain a drift of 1 microsecond in 4 hours.

Mobility Platform:

Size: Approximately 150 cubic inches (in³)

Weight: Less than 5 pounds (lbs.)

Power: Must operate on 28DC

Application: Intended for aircraft, vehicular, and maritime subsystems.

Dismounted:

Size: Approximately 20 in³

Weight: Less than 1 lb.

Power: Runs on a rechargeable battery

Application: Intended for handheld and manpack radios, small unmanned aerial systems (sUAS), etc.

Timeline:

September 26, 2024: USSOCOM begins accepting proposals via DSIP

October 15, 2024: DSIP Topic Q&A closes to new questions at 12:00 p.m. ET

October 29, 2024: Deadline for receipt of proposals no later than 12:00 p.m. ET

Join SOFWERX for a virtual Q&A with their Technical Point of Contact on 20 September 2024 from 1000-1100 ET 

This is an ITAR Restricted topic.

Visit SOFWERX for more information.

BAE Systems Awarded $4 Million from DARPA for Tactical Autonomy Program

Thursday, September 12th, 2024

Artificial Intelligence Reinforcement (AIR) program to advance autonomous air combat

MERRIMACK, N.H., Sept. 10, 2024 — The Defense Advanced Research Projects Agency (DARPA) has awarded BAE Systems’ (LON:BA) FAST Labs™research and development organization a $4 millioncontract for Phase 1 of the Artificial Intelligence Reinforcements (AIR) program.

To overcome the fast-paced and uncertain environment that is inherent to air combat and presented a challenge for autonomous agents, the DARPA AIR program aims to advance dominant tactical autonomy for beyond visual range air combat missions. Autonomy solutions will be developed and demonstrated on F-16 testbeds.

“Generating reliable, consistent air combat performance requires a vast amount of data and rapid, robust testing cycles,” said Michael Planer, scientist and principal investigator at BAE Systems’ FAST Labs. “Using machine learning, we will train the models used to make dynamic decisions – ensuring that the Artificial Intelligence (AI) pilot is tested and trusted by human pilots.”

Under the AIR contract, BAE Systems will use machine learning (ML) to innovate simulation models of existing sensors, electronic warfare systems, and weapons within dynamic and operationally representative environments. ML techniques will also capture the underlying physics of aerial maneuvers and systems. The company will then create the processes needed to rapidly design, test, and deliver future iterations of AIR software products.

Work on the AIR program, which is part of BAE Systems’ autonomy portfolio, will take place in Arlington, Virginiaand Burlington, Massachusetts.

Revolutionary Advances in Ceramic Armor Systems: Adept Armor Founder Jake Ganor Publishes New Methodology

Thursday, June 27th, 2024

Jake Ganor’s latest research article, “A Facile Method for the Estimation of Ceramic Performance in Light Armor Systems,” has been recently published by The American Ceramic Society.

Tulsa, Okla. (June 2024) – Jake Ganor, the founder of Adept Armor, the most innovative company in leading performance body armor, has published a research article titled “A Facile Method for the Estimation of Ceramic Performance in Light Armor Systems” with The American Ceramic Society. This article introduces an innovative empirical equation that offers a significant advancement in the prediction of ballistic performance for ceramic armor materials. For professionals in law enforcement, military, security, and defense industries, this article presents a significant leap forward in the development of lightweight, high-performance ceramic armor.

Key Insights Include:

• Challenges with Traditional Methods: Traditional ballistic armor development has relied heavily on finite element models, which are computationally intensive and often fail to accurately predict the performance of ceramics, especially novel materials.

Novel Empirical Equation: The new methodology provides a simpler, more cohesive way to estimate ballistic performance from mechanical properties, addressing the limitations of previous models.

Performance Correlation: This approach successfully defines performance relations between different ceramic materials and identifies which mechanical properties correlate with ballistic efficacy.

Implications for Development: The novel equation enables rapid development and optimization of more effective ceramic armor materials, marking a pivotal shift in armor material science.

Understanding and applying this new methodology can lead to more effective protective gear, enhancing the safety and performance of personnel in the field. Read the full article here: ceramics.onlinelibrary.wiley.com/doi/10.1002/ces2.10227.

For more information on Adept Armor and its range of innovative protective solutions, visit its website.

Explore Adept Armor Body Armor plates:

Colossus™ – Beyond RF3 – Level IV Body Armor

Thunder – RF2