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Archive for the ‘ISR’ Category

Zapata AI to Deliver Real-Time Intelligence for Warfighters

Wednesday, August 14th, 2024

The collaboration aims to enhance real-time intelligence and decision support for USSOCOM’s Hyper-Enabled Operator and Force programs with state-of-the-art AI on the edge

BOSTON, Aug. 13, 2024 — Zapata Computing Holdings Inc. (“Zapata AI”) (Nasdaq: ZPTA), a leading provider of industrial-grade software for enterprise AI, has entered a Cooperative Research and Development Agreement (CRADA) with the U.S. Special Operations Command (“USSOCOM”).

Key Highlights of the CRADA include:

• Empowering USSOCOM with advanced AI tools to enhance situational awareness, real-time decision-making, and operational readiness in challenging environments and contested spaces.

• Accelerating USSOCOM’s ability plan, create, and deliver AI-driven advantage to align closely with specific mission objectives and parameters.

• Deepening Zapata AI’s existing relationship across the United States Department of Defense innovation ecosystem.

Under the terms of the CRADA, Zapata AI will leverage its Orquestra® platform to speed up the model development lifecycle (MDLC) and create AI and ML applications that enhance mission performance for USSOCOM’s Hyper-Enabled Force (HEF) initiatives. The decision-support capabilities developed by the partnership will run on the edge in low connectivity environments on ruggedized high-performance computing (HPC) hardware.

“We are proud to support the brave men and women of USSOCOM in defending our national security around the world,” said Christopher Savoie, CEO and co-founder of Zapata AI. “Our battle-tested Orquestra platform, our ability to ingest and process vast amounts of streaming data in real-time, and our experience in rapidly deploying AI solutions in challenging environments will enhance USSOCOM’s operational readiness with cutting-edge intelligence capabilities.”

The collaboration with USSOCOM builds on Zapata AI’s success in supporting Andretti Global’s complex race intelligence and advanced analytics needs. In both cases, Zapata AI deploys an ensemble of small, specialized AI models at the edge, providing real-time analytics and decision support in environments with limited or unpredictable connectivity. Zapata has proven in its production solutions that deploying an ensemble of targeted models, rather than a single large, generalized AI model, delivers superior performance for mission-critical applications where speed and accuracy are paramount.

The CRADA deepens Zapata AI’s existing relationships across the United States Department of Defense landscape. As the only company participating across all tracks of the Defense Advanced Research Projects Agency (DARPA) Quantum Benchmarking program, Zapata AI has led the groundbreaking work to estimate the economic utility and resource requirements for high-value quantum computing applications. In June 2024, Zapata AI and its collaboration partners published the findings from Phase II of the program.

For more information on Zapata AI, visit our website or follow us on LinkedIn or X.

MI History: Army Security Agency Establishes DARRS Detachments

Sunday, August 4th, 2024

I love military history and in particular SOF and SI history, having served in both communities. I especially appreciate the MI stuff since so little has been published. The US Army’s Military Intelligence Soldier Heritage Learning Center recently shared this post:


Photo: Personnel of the 1st ASTD, one of the ARVN units supported by the DARRS detachments

On 31 July 1970, the Army Security Agency (ASA) established Division Advisors Radio Research Support (DARRS) Detachments in South Vietnam. The DARRS detachments were an effort to further the overall “Vietnamization” of the war as well as provide direct support to the American advisors with Army of Republic of Vietnam (ARVN) divisions.

In early 1969, President Richard Nixon’s administration began a program to end American involvement in Vietnam, which involved expanding, equipping, and training South Vietnamese military forces so they could take an increased combat role while reducing the number of American forces. As part of this broader program, the ARVN began to organize their SIGINT effort. To support their divisions, they organized ARVN Special Technical Detachments (ASTDs) consisting of four officers and fifty-six enlisted personnel. Modeled on the ASA’s highly successful direct support units attached to American divisions and separate brigades, the ASTDs provided SIGINT support to combat divisions and passed information up the South Vietnamese cryptologic chain of command. On 1 July 1969, two ARVN divisions received the first ASTDs.

Under the terms of the Vietnamese Improvement and Modernization Program, ASA’s 509th Radio Research (RR) Group, under Col. William W. Higgins, would assist the ASTDs by providing mission equipment and logistical support and by instructing the South Vietnamese on how to perform their own maintenance. All the while, ASA leaders continued to take every opportunity to press the ARVN to focus upon voice intercept and even offered on-the-job training by temporarily assigning Vietnamese to the 509th RR Group’s own low-level voice intercept teams.

Over the next year, Higgins and his group informally supported the ARVN’s nascent SIGINT efforts. Under Project SCREWDRIVER, 509th RR soldiers regularly visited South Vietnamese elements to pass on maintenance tips and to ensure they were receiving necessary supplies. These visits also proved an excellent means to monitor overall operational progress.

At the same time, intelligence support for American advisors became more critical. Consequently, the 509th RR Group field-tested the concept of a team dedicated to specifically support the senior American advisor for the 1st ARVN Division. This test proved so successful that the U.S. Military Assistance Command, Vietnam (MACV) approved the concept for all of the ASTDs. On 31 July 1970, MACV and ASA established the DARRS detachments.

The DARRS detachments’ primary function was to pass SIGINT information to senior American personnel advising the South Vietnamese divisions and to provide a sanitized version for the ARVN commanders. In addition, DARRS personnel provided the ASTDs with constant support and advice. Their impact was immediately evident and began to assure that the ARVN detachments were operationally functional.

As one advisor noted, “For a long time we had a shortage of hard intelligence…The 9th DARRS has given us the ability to make estimates and allow the commander to make decisions.”

?Michael E. Bigelow

IP Video Technology: The Changes and Challenges Within Critical ISR Workflows

Wednesday, July 17th, 2024

The intelligence, surveillance and reconnaissance (ISR) community faces new challenges as an exponential increase of information—including real-time data and video streams—is shared with a growing community of stakeholders.

A new approach to system architecture is needed to deliver critical information to a more diverse set of collaborators, whether they are located in the last tactical mile or they are coalition partners sitting in headquarters.

For ISR missions that depend on video, the challenges are many, including securing communication, overcoming bandwidth limitations, and implementing end-to-end encryption when transmitting across multiple networks.

Here, Mark Rushton, a defence and security specialist and Business Development Director at VITEC: a global technology leader in the IPTV space, shares his insights on what is at stake.

How have critical ISR workflows evolved in recent years?

One significant change is the increased amount of information being processed and shared. With what seems like a universal need for real-time data and video streams, the dissemination imperative has expanded beyond traditional platforms and operational command centers. ISR intelligence must now reach a much wider range of collaborators.

This expansion has made the system architecture more complex. Leaders in dynamic and unpredictable environments must ensure secure communication and overcome bandwidth challenges while maintaining encryption. Additionally, the broad mix of radio networks used by drones — and other vehicles that carry ISR payloads — introduces variations in quality that must be managed to deliver high-fidelity images to end-users.

The types of devices receiving and processing video data have also become more complex. ISR equipment is no longer limited to control rooms and large screens in operation centers. Video intelligence must also be delivered to portable devices in remote locations where users—who may need this information the most—often have limited access to bandwidth.

How is the use of IP Video in ISR evolving?

In a word, quickly. This is due to technological advances, higher demands for real-time data, and the need for better interoperability and security.

For instance, IP Video technology allows for the seamless sharing of real-time video feeds across various platforms and devices. This is crucial for ISR operations, enabling timely decision-making and coordination among military units, intelligence agencies, and coalition partners.

Advancements in video compression algorithms like H.264, H.265, and VVC have improved video quality while reducing bandwidth needs. This means high-resolution video can be sent over various networks, even those with limited bandwidth capacity, without losing quality.

On a different vector altogether, it is important to observe that ISR has not been immune to the forces driving the adoption of artificial intelligence. Integrating IP Video with AI and machine learning enhances ISR capabilities because it can analyze video feeds in real-time to detect anomalies, identify objects or individuals, and provide actionable insights, reducing the workload on human analysts.

As IP Video use expands, there is a greater focus on security. Advanced encryption and secure transmission protocols protect sensitive video data from being intercepted or accessed without authorization, ensuring the integrity and confidentiality of ISR operations.

How is the community managing this growing complexity?

Standards are essential for supporting the ISR mission. It is the only way that everyone—including system architects, platform vendors, signal integrators, ISR commanders and third-party collaborators—can ensure that systems are compatible and can work together.

A standards-based approach to interoperability also prevents the ISR community from being locked into proprietary technologies that can limit future options.

While a standards-based approach to interoperability prevents the ISR community from being locked into proprietary technologies that limit future options, it must also be coupled with utilizing commercial off-the-shelf (COTS) products that offer access to the latest and greatest technology without the need to develop something from scratch.

This ensures everyone can leverage commonly used technology, facilitating compatibility and interoperability.

It is important for decision-makers to choose options with an upgradable path that can be utilized in the future. By allowing for flexibility as the ISR environment evolves, standards-based COTS solutions offer the best way to optimize operational effectiveness while maximizing return on investment.

How is quality control managed across different categories of networks?

Managing video quality in ISR workflows across different networks involves several key measures. One revolves around ensuring that image and video quality stays high throughout transmission. This is critical because clear visuals are essential for accurate decision-making in ISR missions. Depending on the mission’s needs, different networks, such as satellite links, radio mesh networks, or 4G LTE towers, are chosen based on factors like bandwidth, reliability, and latency.

The advanced compression technologies help maintain high video quality while minimizing bandwidth use. The best codecs allow for efficient compression, ensuring quality visuals even in low-bandwidth situations.

Compatibility with various devices, including portable ones with limited bandwidth, is vital. Ensuring the video format and resolution match the capabilities of the receiving devices helps maintain quality across different endpoints.

Finally, data security is also critical in ISR workflows. Implementing encryption protocols and rigorous security measures that protect video data’s integrity and confidentiality during transmission is the key to preventing unauthorized access or interception.

Author Mark Rushton a defence and security specialist and Business Development Director at VITEC.

VITEC is a global technology leader in the IPTV space, working within the Intelligence, Surveillance, Target Acquisition and Reconnaissance (ISTAR) arena for over 20 years.

72nd ISRS In Line With SPAFORGEN model

Tuesday, May 28th, 2024

PETERSON SPACE FORCE BASE, Colo. (AFNS) —  

The 72nd Intelligence, Surveillance and Reconnaissance Squadron held a readiness exercise at Peterson Space Force Base, May 8. The exercise focused on practicing mission-essential tasks, training Guardians in a low-threat environment and validating unit readiness for deployments.

“Our Guardians will be able to go through the entire deployment process, from required training to using equipment, as they exercise our mission essential tasks,” said 1st Lt. Wyatt Packard, 72nd ISRS operations flight commander. “This will validate the previous training they undertook in their ‘Prepare Phase’ of [Space Force Generation].”

A framework that the USSF is using to present forces to combatant commands, SPAFORGEN provides force element packaging tailored to meet combatant commander’s requirements.

“SPAFORGEN is the model we use to build readiness. It is based on the straightforward observation that day-to-day space operations do not prepare Guardians for the challenges they will face in a high-intensity combat environment… Under SPAFORGEN, the force elements that comprise combat squadrons and detachments rotate through three phases. During the Prepare Phase, Guardians build expertise in assigned roles. Next comes the Ready Phase where Guardians participate in advanced training to equip them for high-intensity conflict. Guardians then rotate into the Commit Phase as part of a combat squadron or combat detachment. Once complete, they rotate back into the Prepare Phase and begin the process again,” according to Chief of Space Operations Gen. Chance Saltzman in his 26th CSO Notice to Guardians published April 19.

Tech. Sgt. Matthew Hahnrauch, exercise lead and 72nd ISRS operations flight chief, discussed the organizational structure of how the units are designed to operate.

“The goal is to collect radio frequencies, provide electromagnetic support and then conduct reporting,” Hahnrauch said. “The six-person crew is designed with mobility and survivability as a priority. This team structure is designed for 24/7 operations and minimal support from other military forces to accomplish the designed tasks.”

The 72nd ISRS uses Deployed ISR Support Crews, which are modular, agile teams designed for worldwide deployment and operations, Hahnrauch said. They are composed of five components.

“These components are collection apertures, processors, communication suites, data relay and temporary Secure Compartmentalized Information Facilities,” Hahnrauch said. “Each variation of DISC is trained on slightly different equipment and DISCs are scaled up or down depending on the systems they are operating.”

Communication technologies have rapidly advanced in the last 20 years and the need to advance U.S. collection systems has increased.

In cyberspace, the barriers to entry are continually reduced and more actors can enter the domain with relative ease, Hahnrauch said. Military systems are increasingly disconnected and do not rely on communications and when over-the-horizon communications are required, dedicated military satellite communications are leveraged. This presents opportunities for cyberspace, electromagnetic warfare and space operations.

“Failure to field and employ expeditionary, mobile collection systems will place the joint force at a disadvantage in cyberspace operations, electromagnetic warfare and space operations and degrade our ability to produce the intelligence necessary to drive operations across the spectrum of competition and conflict,” Packard said. “We will continue to execute iterations of this training event with the intent of mission rehearsal for contested environment operations. In the future, we’ll be incorporating more austere components into the exercise to provide a dynamic and mobile collection with the ability to rapidly deploy, maneuver and communicate in a high-end fight. Our capabilities continue to grow and expand.”

The 72nd ISRS is a unit within Space Delta 7, with the mission to provide expeditionary ISR in addition to electromagnetic support to joint and allied partners worldwide.

By Keefer Patterson

Space Base Delta 1 Public Affairs

Bounce Imaging Releases New TSM-Enabled 360° Cameras Powered by TrellisWare; Part of $11M in New Contracts with DoD

Tuesday, May 7th, 2024

Several Hundred Mesh-Radio-Enabled 360° Cameras to Fill Situational Awareness Capabilities Gap for US and NATO Allies

BUFFALO, N.Y., May 07, 2024 (GLOBE NEWSWIRE) — Bounce Imaging and TrellisWare Technologies, Inc. are pleased to announce the release of two new camera systems integrating TrellisWare’s Mobile Ad Hoc Network (MANET) radio modules into Bounce Imaging’s 360° tactical cameras for a longer-range and more inter-operable situational awareness solution. An order for several hundred of these systems to U.S. special operations units represents the largest part of $11 million in new DoD contracts awarded to Bounce Imaging, with shipments beginning this month.

By integrating Bounce Imaging’s Recce360TW throwable camera and its Land Shark TW K9 camera with TrellisWare’s robust TW-650 TSM Shadow® Core Board Module, operators can continue to leverage the combat-proven cameras to maintain situational awareness, now with enhanced resilience against electronic warfare. The incorporation of this communication pathway facilitates seamless collaboration with other unmanned aerial systems (UAS) and unmanned ground vehicle (UGV) platforms as a long-range payload. Deployable by tossing, tethering, or mounting, warfighters can evaluate environmental circumstances from all angles simultaneously before engaging.

“We’re proud to offer cutting-edge tools that easily fit into an operator’s drop pouch, rapidly deploy in even the most contested environments and deliver crucial context on field conditions directly to ATAK devices, supporting our servicemen with the decision quality necessary to execute successful operations,” said Mark Fargason, Bounce Imaging COO. “We remain committed to delivering systems at low cost and high inter-operability with existing platforms like TrellisWare to provide intelligence that keeps soldiers safer.”

“TrellisWare is proud to team with Bounce Imaging on the integration of our TW-650 TSM Shadow Core Board Module into their Recce360 TW Ball camera system,” said George Roesch, director of Global SOF for TrellisWare. “The Recce 360 TW Ball is one of the most unique solutions to leverage our TSM® waveform to deliver a highly impactful capability to our combined users. It is great to have Bounce Imaging join the powerful TSM Ecosystem!”

In addition to the above contracts, the company has also recently delivered its first shipment of TrellisWare-enabled K9 cameras to one of several NATO allies pursuing Bounce Imaging technology deployments, and its cameras are in active use by U.S. partners in conflict zones.

The company recently won $5M in development contracts with the U.S. Air Force (USAF) to continue to address the most pressing challenges faced by the USAF and broader DoD. This includes next-generation systems that incorporate fully panoramic thermal video and 5G communications modules.

Over the last four years, Bounce Imaging’s technology has been extensively validated in the Army Expeditionary Warrior Equipment (AEWE) and 10X Platoon exercises, as well as multiple U.S. and NATO ally deployments abroad. Bounce Imaging tactical cameras support domestic operations every day with over 600 federal, state, and local law enforcement agencies such as the FBI, CBP, NYPD and others across the United States.

Meet with OKSI at SOF Week

Wednesday, May 1st, 2024

GA-ASI Adding AESA Antenna to EagleEye Radar

Tuesday, April 30th, 2024

New Antenna Will Double Range and Enable Additional Radar Enhancements

SAN DIEGO – 24 April 2024 – General Atomics Aeronautical Systems, Inc. (GA-ASI) is continuing its support of EagleEye multi-mode radar development with a company investment to add an Active Electronically Scanned Array (AESA) antenna and associated software that will increase range and deliver significant mode enhancements. AESA will be a “drop-in” hardware upgrade to the existing EagleEye radar and could be an option for the new Gray Eagle 25M (GE 25M) aircraft assembly when ready.

“We expect the AESA antenna to more than double the range for EagleEye,” said Jeff Hettick, GA-ASI vice president of Agile Mission Systems. “The increased range and optimized multi-mode performance of the radar are perfectly tailored to provide deep sensing capability in Multi-Domain Operations (MDO). That will allow the aircraft to operate well outside Weapons Effects Zone of most threat systems adding a layer of survivability supporting the Stand-Off survivability with Stand-In effects of long-range sensors. This is a key component of the Gray Eagle 25M Unmanned Aircraft System being developed for the U.S. Army.”

AESA antennas replace the mechanically steered dish antennas of earlier-generation radars with a solid-state, all-electronic emitter. In addition to enhancing the radar’s performance, by replacing the motor and other components that physically move the radar dish, AESA greatly improves repairability and reliability.

As part of the EagleEye development, GA-ASI will improve target detection range using Artificial Intelligence/Machine Learning (AI/ML). GA-ASI expects to have a working lab prototype of the new AESA component by the end of this year, with plans to conduct flight tests in 2025 and operational demonstrations on GE 25M after that.

EagleEye is a multi-mode radar that builds on years of pioneering expertise by GA-ASI. Using Synthetic Aperture Radar (SAR), Eagle Eye enables operators to look in detail through clouds, smoke, dust, haze, or other conditions that might obscure a purely visual sensor. And for the first time on the Gray Eagle platform, EagleEye delivers radar-based Full Motion Video (FMV) called “Video SAR,” which enables live visual tracking of moving targets via the radar system.

The EagleEye radar performs Moving Target Indication (MTI), detects changes, builds strip maps, and yields other precise insights to analysts, commanders, and operators. With its Maritime Wide Area Search (MWAS) mode, EagleEye also provides a dedicated maritime MTI mode for tracking and targeting vessels and further supports the MDO mission set of the U.S. Army, particularly in support of the U.S. Indo-Pacific Command (INDOPACOM) mission, but also in Europe, Africa and the Middle East where there is an increased need for maritime reconnaissance, surveillance and target acquisition, which is critical to achieve information dominance and overmatch.

Saab Signs GlobalEye Support Contract with UAE

Thursday, January 25th, 2024

Saab and the United Arab Emirates (UAE) Ministry of Defence have signed a contract and Saab has received an order regarding in-service support for the GlobalEye Airborne Early Warning and Control (AEW&C) solution. The order value is approximately USD 190 million with a three-year contract period that runs until 2026.

The contract includes maintenance and logistics support, as well as training services.

“This agreement solidifies Saab’s role in ensuring that GlobalEye remains mission-ready. We look forward to further strengthening our partnership with the UAE Air Force and Air Defence and providing long-term local support,” says Carl-Johan Bergholm, head of Saab’s business area Surveillance. 

GlobalEye is an advanced multi-domain AEW&C solution with an array of active and passive sensors that provide long-range detection and identification of objects in the air, at sea and over land.

By providing real-time information to units in air forces, armies and navies, GlobalEye enables enhanced situational awareness of the surrounding areas and early detection of threats.