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OPTIC: Transforming Mission Planning with Safety, Efficiency, and Innovation for the U.S. Army Corps of Engineers

Thursday, May 15th, 2025

The proliferation of Unmanned Aircraft Systems (UAS) in civil works, emergency response, and military applications is the primary driver for development of the Operator’s Tool for Information Collection (OPTIC). Designed to meet operational needs, OPTIC leverages decades of experience to improve mission planning, operational tracking, and data-driven decisions for the U.S. Army Corps of Engineers (USACE).

“OPTIC is the direct result of real-world challenges to UAS operations in demanding environments,” said Brian Ellis, OPTIC Program Manager for the USACE Aviation Program Office (APO). “The design of the software is built with the end-user in mind, ensuring they have the tools necessary to execute missions safely, efficiently, and with greater confidence.” OPTIC streamlines data collection, reduces operational costs, and strengthens mission outcomes. OPTIC sets the conditions for UAS operators, even those with minimal aviation training, to safely and effectively collect survey data in all aspects of the National Airspace System.

From Paper to Digital

Mission planning once relied on manual processes and paper-based systems, such as the Army Mission Planning System (AMPS). While effective, these methods were labor-intensive and lacked adaptability. In response to that, the APO developed the Management Information System for Aviation and Remote Systems (MARS). It transitioned mission planning to a web-based platform that integrated personnel management, fleet tracking, and mission coordination.

“MARS marked a critical shift to digital mission planning, enhancing efficiency and situational awareness for USACE UAS operators,” Ellis said. “OPTIC builds upon this foundation, delivering a more advanced, feedback-driven solution tailored for today’s complex operational environments.” By continuing to refine and expand the mission-planning capabilities of OPTIC, the APO is committed to equipping UAS operators with the most advanced tools available.

Safety First

Safety is the primary consideration in all phases of UAS operations. The APO emphasizes rigorous protocols, adhering to both Federal Aviation Administration (FAA) and Army regulations. OPTIC plays a critical role in this effort by reducing the need for personnel in high-risk environments and equipping operators with comprehensive risk assessment tools to enhance mission safety and decision-making.

“The safe operation of aircraft is our highest priority,” Ray Illman, USACE APO Aviation Safety Officer said, “With the UAS program, we can execute critical tasks in hazardous environments while significantly reducing risk to personnel, property, and mission objectives.”

Efficiency and Precision in Action

OPTIC will take mission planning to new heights by integrating real-time data collection, predictive analytics, and in later phases, Artificial Intelligence (AI). These advancements will provide field UAS operators and mission planners with the ability to monitor projects with greater accuracy, optimize decision-making, and improve overall operational effectiveness.

“OPTIC reduces the barriers to entry for aerial data collection in even the busiest airspace,” Ellis said. “With multi-faceted aerial collection capabilities, users can gather data faster with enhanced precision and reduce operational risks.”

OPTIC’s development is structured in three phases, with foundational modules for personnel, fleet, and mission planning. Future phases will introduce a repository for processing, storage and dissemination of actionable data, expanded safety planning for larger UAS groups, advanced data consolidation, approved mobile device accessibility, and AI-driven tools to further optimize mission planning, execution, and decision making.

Maximizing Value Across USACE Districts

OPTIC’s capabilities directly translate into value for USACE by reducing timelines, improving outcomes, and optimizing resources. Its scalability ensures that it meets the needs of both military and civilian operations.

“The capabilities of UAS’ add significant value by driving down risk to personnel and improving fidelity through more accurate and detailed survey data, while reducing costs,” Ellis said. “By minimizing risk to personnel and providing highly detailed, accurate survey data, we can improve decision-making, reduce costs, and drive better project outcomes.”

Innovation and Collaboration

The development of OPTIC reflects the APO’s focus on continuous improvement, innovation, and cost-effective solutions. By leveraging in-house expertise, the APO is advancing mission planning capabilities while ensuring efficiency and adaptability. Additionally, collaboration with other federal agencies strengthens resource sharing and strategic partnerships, further enhancing UAS operations.

“We’re committed to incorporating the most innovative technology to maximize the safety and effectiveness of aerial survey data collection,” Ellis said. “Through investments in research and partnerships with industry leaders, we’re shaping the future of UAS mission planning and operational tracking.”

A Future-Focused Platform

By integrating real-time metrics, advanced analytics, and a Commander’s Dashboard, OPTIC equips UAS operators and leadership with a comprehensive operational view that enhances situational awareness and decision-making. This platform reflects the APO’s commitment to enabling safe, effective, and efficient UAS operations while maximizing resources.

“OPTIC is not just a tool; it’s the culmination of decades of expertise,” Ellis said. “It paves the way for smarter, faster, and more informed decision-making, ensuring mission success across the full scope of USACE UAS missions.”

With a phased development approach and a strong emphasis on safety, collaboration, and efficiency, OPTIC is set to transform UAS operations across USACE and beyond, providing UAS operators and decision-makers at all levels with enhanced capabilities to meet the demands of modern engineering challenges with confidence and precision.

OPTIC Development Phases

Phase 1: Direct Replacement of MARS (Q2 FY25)

Phase 1 will focus on developing three foundational modules to serve as a direct replacement for MARS:

  • Personnel Module: Tracks crewmember status, qualifications, currency, and regulatory compliance.
  • Fleet Module: Monitors the operational status, configuration compliance, and readiness of aviation assets.
  • Mission Planning Module: Facilitates mission airspace coordination, risk assessments, and compliance tracking.

These modules maintain the core functionality of MARS and incorporate automated alerts during the planning process to prevent regulatory or safety violations. Another Phase 1 feature will be the Leader’s Dashboard to provide situational awareness to decision makers on their UAS operator and system operational readiness to make more informed decisions for mission execution.

Phase 2: System Alerts and Notifications (Q1 FY26)

Phase 2 will enhance OPTIC’s functionality by incorporating a data repository to store and share data amongst other organizations in OPTIC. This phase will include:

  • Sensor-agnostic data repository to store and share collected data.
  • Email and text message notifications for upcoming deadlines, training requirements, and maintenance schedules.
  • Access via approved mobile devices to improve accessibility in field environments.
  • Dropdown menus to assist in personnel and equipment module ease of use.
  • Data consolidation and trend analysis of equipment issues and failure rates to improve UAS acquisition decisions.
  • Integration of software for regulatory compliance for mission planning and safety assessments for larger UAS.

These enhancements will ensure that all personnel and equipment remain in compliance with published regulatory requirements and postured to support USACE and its partner organizations.

Phase 3: AI Integration (Q2 FY27)

Phase 3 will focus on integrating advanced AI-driven features to further elevate OPTIC’s capabilities. These features will include:

  • Predictive analytics to identify potential risks and optimize mission planning.
  • AI-enhanced data processing to provide actionable insights in real time.
  • Advanced decision-support tools to assist commanders in making data-driven operational decisions.

By completing Phase 3, OPTIC will fully realize its potential as a cutting-edge platform for mission planning, operational tracking, and decision-making support.

By Amanda Rae Moreno

Roark Aerospace Announce Production of “Canens” a Portable Device That Effectively Targets Fiber Optic UAV’s

Thursday, May 15th, 2025

Roark Aerospace have today announced the commencement of production for their “Canens” C-UAS system.

The Canens system is designed to specifically target and neutralize UAV’s operating on fiber optic communications.

Fiber optic link based UAV’s were first discovered operating in the Ukranian conflict towards the end of 2024. They had previously been deemed impervious to traditional C-UAS solutions such as High Energy Microwaves with tactics reverting back to more archaic methods involving nets and small arms fire.

The Canens system has two operational functions that work in tandem to deliver a direct C-UAS solution for fiber optic link UAV’s.

The first element of the system is the use of Hyper Spectral and IR imaging to detect “in-use” optical cables. The combination of HSI and IR helps differentiate in real-time between cables that are deployed and are cables that are redundant from previous operations. In addition, the use of HSI can also allow operators to determine the likely distance that the UAV has flown at the point of identification, this can provide onward operational solutions for targeting operators.

The second element of the system is the use of a steerable and adjustable electrohydraulic shockwave to massively increase interferometric noise around the fiber optic cable. The increase in interferometric noise disrupts the signal between the UAV and the operator which, in the case of fiber optics, results in the UAV losing power and control, it will simply crash to the ground.

The electrohydraulic shockwave is created by thousands of electrohydraulic transducers that are formed of miniscule, 3D printed titanium microelectrodes embedded in epoxy and set in a basin based design. The shockwave is adjustable and steerable either by a manual operator or by the Plexus automated targetting system built by Roark.

Canens will be available in Q3 of 2025 with pre-orders being taken currently. Canens will initially be available in portable and sentry units as well as vehicle mounted, a hand-held variant is due for release in Q4 2025.

roark-aerospace.com

Soldier-Driven Tactical Innovation: Empowering the Warfighter and Shaping Modern Warfare

Wednesday, May 14th, 2025

Introduction

In an era of rapid technological advancement and evolving global threats, the ability of military forces to adapt swiftly and effectively is paramount. Soldier-driven tactical innovation—where ideas and solutions are sourced directly from the warfighters on the ground—has emerged as a critical mechanism for maintaining a strategic edge. Unlike top-down approaches that often prioritize long-term, large-scale modernization, Soldier-driven innovation focuses on immediate, practical solutions to real-world challenges faced in the field. This approach emphasizes enhancing operational effectiveness, fostering adaptability, and bridging the gap between military needs and technological development.

The Importance of Soldier-Driven Tactical Innovation

Soldier-driven tactical innovation is rooted in the unique perspective of those closest to the fight. Soldiers possess intimate knowledge of the operational environment, equipment limitations, and tactical demands—insights that higher echelons or distant research institutions may overlook. This ground-up approach empowers warfighters to identify problems and propose solutions tailored to their immediate needs., In doing so, it fosters a culture of adaptability, encouraging creativity and problem-solving at all ranks.

The strategic imperative of this approach is evident in modern warfare, where adversaries leverage low-cost, rapidly deployable technologies—such as commercial drones—to challenge conventional military advantages. Soldier-driven innovation counters this by enabling rapid prototyping and deployment of countermeasures, often at a fraction of the cost and time required by established systems. Moreover, it enhances morale and ownership among troops, as they see their ideas directly impacting mission success. This democratization of innovation ensures that the military remains agile, responsive, and capable of addressing asymmetrical threats in real-time.

Case Study: 5th SFG(A) and Partner Force Operational Needs

The 5th Special Forces Group’s (5th SFG(A)) Innovation Detachment showcased Soldier-driven tactical innovation by addressing the limitations of existing drone systems—cost-prohibitive, inflexible, and unrepairable in the field. Needing a capable platform to use with Partner Nation forces that could be configured for various mission sets, 5th SFG(A)’s Innovation Detachment partnered with the Civil-Military Innovation Institute (CMI2) and U.S. Combat Capabilities Development Command (DEVCOM)’s Catalyst-Pathfinder program, who sought out a key innovator in unmanned systems to assist in facilitating the prototype.

EchoMAV emerged as a linchpin in this effort, bringing specialized expertise to address the Soldiers’ identified pain points. Rather than adapting existing platforms, EchoMAV crafted a unique sUAS from the ground up, leveraging additive manufacturing to prioritize agility and mission-specific functionality. Labeled the MONARK (Modular Observational Networked Aerial Robotics Kit), this system includes impressive features, like a 40-minute flight time and compatibility with the Android Team Awareness Kit (ATAK), a vital tool for real-time battlefield awareness.

Tailored to handle short-range reconnaissance for conventional and Special Operations units, the MONARK provides a lightweight, affordable option for short range reconnaissancethat boosts tactical adaptability, allowing units to conductvarious missions more efficiently. While 3D printing is not the most efficient manufacturing option for the body of a drone, the ability of Soldiers to fix their drones in theater at minimal cost makes this decision superior to alternatives. The modular design also allows for National Defense Authorization Act (NDAA) compliance and American-made parts, while simultaneously offering an alternative, non-NDAA-compliant cheaper alternative based on the unit’s needs.

A key facet of the Catalyst-Pathfinder program is scalability. Tactical innovation, by its definition, is the solving of problems directly related to warfighters, and although each unit faces different missions around the world, many share commonalities in purpose. The MONARK initiative began as a U.S. Special Operations Forces (USSOF) need for a versatile, rapidly deployable sUAS to enhance USSOF and Partner Nation Forces operations overseas. The idea began to proliferate across the force through the Catalyst-Pathfinder’s work with conventional and USSOF elements. Now, units like the 101st Airborne Division have embraced the concept, acquiring MONARK to fulfill their short-range reconnaissance requirements. The modular drones are now being integrated into exercises such as Operation Lethal Eagle, a 21-day Division field training exercise, and mark a critical step forward in revolutionizing battlefield reconnaissance. This partnership and collaboration not only accelerate the development and fielding of cutting-edge technology but also strengthens the interoperability between conventional and USSOF units, setting a precedent for future collaborative efforts.

The project’s rapid timeline—spanning just six months from concept to production—underscores the power of Soldier-driven innovation when paired with the right partners. 5th SFG(A) provided operational insights, CMI2 facilitated collaboration, and DEVCOMCatalyst-Pathfinder program supplied the framework for the Soldier-academic-industry partnership.

The Role of Supporting Institutions

The success of such initiatives relies heavily on collaborative ecosystems that connect Soldiers with technical expertise and resources. CMI2 and DEVCOM’s Catalyst-Pathfinder program played pivotal roles in this process.

CMI2, a nonprofit organization based in Morgantown, WV, facilitates direct collaboration between service members, academia, and industry by bridging the gap between Soldier-identified problems and actionable solutions by providing infrastructure and contractor support. In the case of the 3D-manufactured drones, CMI2’s involvement through its partnership with EagleWerx and the 5th SFG(A)’s Innovation Detachment as part of the Catalyst-Pathfinder ecosystem, ensured that Soldiers’ ideas were paired with advanced manufacturing capabilities and external expertise, accelerating development timelines.

The Catalyst-Pathfinder program, a congressional initiative managed by DEVCOM’s Army Research Laboratory, connects Soldiers with academic institutions and industry partners to co-develop technologies. Launched in FY21, the program has empowered units, like the 101st, to work with universities and small industries, producing innovations like the Soldier Assistive Bionic Exosuit for Resupply (SABER) and the Advanced Dynamic Spectrum Reconnaissance Sensor Network (ADSR – SN). For the 3D-printed drones, Catalyst-Pathfinder provides a framework for Soldier-researcher teams to refine designs, leveraging cutting-edge research to meet operational needs. This structured yet flexible approach ensures that Soldier-driven ideas are conceptualized, scaled, and fielded effectively.

DEVCOM ARL is the scientific backbone of these efforts. ARL’s expertise in materials science, additive manufacturing, and unmanned systems supports the technical feasibility of programs like Catalyst-Pathfinder. By operationalizing science, ARL enables tactical units to transition prototypes into deployable assets, ensuring they meet rigorous military standards. ARL’s role in Catalyst-Pathfinder amplifies its impact, creating a partnership that transforms Soldier ingenuity into tangible battlefield advantages.

Eaglewerx, one of the Catalyst-Pathfinder program’s innovation labs, is located at Fort Campbell, Kentucky, and serves all units on post, including both the 5th SFG(A) and the 101st Airborne Division. This lab is home to full-time CMI2 staff, including project managers and innovation engineers to support tactical innovation and modernization efforts for Soldiers. In addition, there is a team of Army officers and non-commissioned officers who work at Eaglewerx full-time to both source and manage Soldier’s innovative ideas from curation to completion. This central hub for innovation is pivotal in the innovative process, providing expertise, equipment, and resources for Soldier’s to prototype their ideas. On top of more than 60 ongoing projects, Eaglewerx coordinated the procurement and Soldier-assembly of 100 NDAA-compliant MONARK drones in just four months.

EchoMAV Technologies Inc. is a U.S.-based company specializing in advanced UAS and is known for its innovativeavionics and edge computing solutions and its MK1 group II aircraft. Designed for simplicity and durability, the MK1leverages a unique hybrid power plant and caters to defense, security, and large-area mapping and surveillance needs.EchoMAV has demonstrated a commitment to cutting-edge, American-made UAS technology. Their ability to rapidly shift focus solely from the MK1 to a 3D-printed sUAS showcases the company’s flexibility and their desires to support the warfighter.

Broader Implications and Future Directions

The 5th SFG(A) 3D-printed drone initiative illustrates the transformative potential of Soldier-driven tactical innovation. It demonstrates how empowering warfighters to design and refine their tools can yield agile, cost-effective solutions that enhance lethality and adaptability. The involvement and collaboration of Soldiers, industry and researchers underscores the importance of institutional support in scaling these efforts, ensuring that grassroots ideas reach operational maturity.

Looking forward, this model could reshape military modernization. As threats evolve—exemplified by the proliferation of cheap drones in current conflicts —the ability to innovate at the tactical level will be a decisive factor. Expanding innovation hubs like EagleWerx and 5th SFG(A)’s Innovation Detachment and increased investment in programs like Catalyst-Pathfinder could institutionalize this approach across the Army. However, challenges remain, including balancing rapid prototyping with safety and testing standards, all the while seeking to integrate these innovations into broader doctrinal frameworks. Addressing these will require continued collaboration between Soldiers, researchers, and policymakers.

Conclusion

Soldier-driven tactical innovation is not merely a supplement to traditional military research and development but a strategic necessity. By harnessing the insights of those on the front lines, as seen with EchoMAV’s 3D-printed drones, the military can respond swiftly to emerging challenges. The Catalyst-Pathfinder program provides the critical support needed to turn Soldierideas into reality, fostering a culture of innovation that keeps pace with modern warfare. This powerful example exemplifies how empowering warfighters can drive meaningful change, ensuring the U.S. Army remains poised for success in a world of disruption.

Robert Leach currently works for the Civil-Military Innovation Institute as an innovation chief on DEVCOM’s Catalyst-Pathfinder program. He served twenty-one years in the United States Army, retiring as a master sergeant from 5th Special Forces Group in 2023, with three combat deployments and seven additional operational deployments throughout the Middle East.

The views and opinions expressed in this document are solely those of the author and do not necessarily reflect the official position or policy of the Civil-Military Innovation Institute, the Combat Capability Development Command Army Research Laboratory, the Department of Defense or the U.S. Government.

SOF Week 25 – Defendtex Optical Fiber Drone Guidance

Monday, May 12th, 2025

Australia’s DefendTex has been keeping a close eye on drone operations in Ukraine and introduced a fiber optic cable guidance kit for their family of Vengeance FPV drones.

Here you can see the canister mounted to a Vengeance drone sitting atop their Banshee robot.

SOF Week 25 – Boresight

Friday, May 9th, 2025

From Australia comes Boresight and their family of target drones. Designed to be used as an aerial target, the BQ400 quadcopter is a low-cost drone. It has a flight duration of 25 minutes and can fly over 2500m at speed of up to 17.5 m/s.

Using the ground control system, routes are preprogrammed and fly consistently sortie after sortie for live fire gunnery (both kinetic and non-kinetic) training. The one to many control allows one operator to fly up to 10 drones on the same route to mimic swarm scenarios.

Boresight also has a US footprint in Huntsville, Alabama. They are introducing new target drones including a larger quadcopter and Class 1 fixed wing model.

www.boresightuas.com

UK Certifies Protector As First of Its Kind Remotely Piloted Aircraft

Thursday, May 8th, 2025

SAN DIEGO – 08 May 2025 – The UK’s Military Aviation Authority has issued a Military Type Certificate to the Royal Air Force’s Protector RG Mk1 uncrewed aircraft, also designated the MQ-9B, certifying that it has passed a rigorous airworthiness assessment and verifying it’s safe to operate without geographic restrictions, including over populous areas. This April 29 decision was a first-of-its-kind milestone for a large, unmanned aircraft system. It’s a huge accomplishment for the UK and a technological watershed in the history of unmanned aircraft systems. GA-ASI is the first manufacturer of large, unmanned aircraft to receive an MTC based on rigorous compliance with STANAG 4671, the NATO standard for unmanned aircraft system airworthiness.

Obtaining the MTC has been a goal of GA-ASI since the inception of the MQ-9B in January 2014. The company took its proven UAS platform, the MQ-9A, and added performance enhancing features while ensuring that the design was capable of meeting NATO’s STANAG 4671 Edition 2 airworthiness requirements. To meet those rigorous requirements, the aircraft incorporates numerous enhancements not found on other large UAS. These include lightning protection, fire protection, anti-icing systems and a fatigue-and-damage-tolerant building block design approach. All flight critical software was designed in compliance with the rigor of Do-178/254. Mission software is rigidly separated from flight critical software. These features not only address the aircraft’s airworthiness but also enhance its reliability and operational flexibility to levels unmatched by other UAS.

“Earning an MTC for MQ-9B was a herculean effort and a seminal achievement for our company,” said GA-ASI CEO Linden Blue. “We invested over $500 million as part of an 11-year effort to develop an unmanned aircraft that meets NATO’s rigorous airworthiness standards. This included three flight test aircraft, full component and system-level environmental testing to Do-160 and Mil-Standards (system level environmental testing at Elgin and Pax River), full scale static test airframe test to ultimate ground and flight loads, bird strike, hail protection and full-scale fatigue testing to three lifetimes (3x 40,000 notional aircraft flight hours = 120,000 hours total). Our engineers developed over 140,000 pages of detailed technical data verifying that the MQ-9B met those demanding requirements. I congratulate our team for this outstanding accomplishment, and I know our customers need this type certification, which will open civil airspace for their flight operations.”

The Royal Air Force continues to take delivery of new Protector aircraft at their home in the North of England at RAF Waddington. The UK has 10 aircraft of the 16 it has ordered.

“Achieving the award of a first in class Military Type Certificate has required years of dedication and perseverance and is a testament to the hard work of all involved. It is a privilege to be the first to be awarded an MTC for the Protector Air System,” said Gp. Capt. Neil Venables, Type Airworthiness Authority and holder of the Protector Type Certificate.

MQ-9B is the world’s most advanced medium altitude, long endurance UAS. MQ-9B includes the SkyGuardian® and SeaGuardian® models as well as the Protector operated by the RAF.

In addition to the UK, GA-ASI has MQ-9B orders from Belgium, Canada, Poland, Japan Coast Guard, Japan Maritime Self-Defense Force, Taiwan, India, and the U.S. Air Force in support of the Special Operations Command. MQ-9B has also supported various U.S. Navy exercises, including Northern Edge, Integrated Battle Problem, RIMPAC, and Group Sail.

For more information, visit www.ga-asi.com

US Army Conducts Live-Fire Test of High-Powered Microwave for Exercise Balikatan 2025

Thursday, May 8th, 2025

The 1MDTF soldiers were joined by members of the Philippine Air Force, 960th Air and Missile Defense Group, who participated alongside their partners as part of the Subject Matter Expert Exchange (SMEE) program, and U.S. Marines with the 3rd Littoral Anti-Air Battalion’s Ground-Based Air Defense Battery who employed the Marine Air Defense Integrated System (MADIS) during this multi-day live-fire event.

“This is a great opportunity for joint training alongside our short-range air defense counterparts from the U.S. Marines,” said U.S. Army Capt. Bray McCollum, battery commander of 1-51 ADA’s Integrated Fires Protection Capability (IFPC) battery.

This is the first time the Army’s IFPC-HPM has been employed in the Indo-Pacific and tested in a tropical environment. This advanced equipment supports the U.S.-Philippine Alliance through enhancing combined military cooperation and advancing our shared commitment to a secure, stable, and free Indo-Pacific region for all.

The IFPC-HPM is a Directed Energy (DE) weapon system that emits a beam of microwave energy that can disrupt, disable, or destroy Unmanned Aerial Systems (UAS). The IFPC-HPM is the first material released DE weapon system specifically designed to counter groups and swarms of drones. The 1st MDTF was the first unit to field the HPMs in February 2024 and has since been conducting tests across a range of environments.

In another first for the Indo-Pacific region, the IFPC-HPM and FS-LIDS were used together in a complementary system. FS-LIDS is another counter-UAS capability that has been operationally deployed in the middle east for the past decade. Together with the IFPC-HPM it can be used for the sensing, tracking, and disabling of UAS while allowing IFPC-HPM operators to gain positive identification of the UAS target using its electro-optical infrared camera. Both systems can be used to disable the targets. This creates a layered defense of non-kinetic effects to defeat small UAS.

“During this test, we were able to demonstrate that we can successfully defeat drone swarms in a tropical environment using layered effects,” said McCollum.

The results of the test will be analyzed by the Rapid Capabilities and Critical Technologies Office (RCCTO) who manage the development, prototyping, and testing of the Army’s Directed Energy weapons. The results will be used to improve the effectiveness in countering UAS swarms and help inform the Army’s future force requirements.

Members of the Armed Forces of the Philippines learned about the IFPC-HPM and FS-LIDS as part of the SMEE program, strengthening their partnership with the U.S. and giving them the skills that could enhance their role in national defense.

“This is a great opportunity to show our Philippine Allies the cutting-edge capabilities that the U.S. Army has in development,” said McCollum, “This training demonstrates our commitment to strengthening our ties with our Indo-Pacific allies and partners.”

As a theater-level unit and joint force enabler, assigned to the Indo-Pacific, the 1st MDTF plays a vital role in synchronizing long-range precision fires layered with long-range precision effects to create multiple dilemmas and neutralize adversary anti-access and area denial networks. The MDTF’s proven innovation, agility, and lethality have led the Army to direct five full MDTFs in strategically significant locations worldwide.

Balikatan is a longstanding annual exercise between the U.S. and Philippine armed forces designed to strengthen the alliance, showcase the capable combined force, and demonstrate the commitment to regional security and stability.

By MAJ Ian Sandall, 1st Multi-Domain Task Force

US Army Trains with Latest Maritime Domain Awareness Capabilities Alongside Philippine Partners During Balikatan 25

Wednesday, May 7th, 2025

SAN ANTONIO, Zambales, Philippines — The 1st Multi-Domain Effects Battalion from the 1st Multi-Domain Task Force conducted drone, high altitude balloon, and electromagnetic warfare training alongside Philippine counterparts at Palawan and Naval Station Leovigildo Gantioqui during the annual 2025 Balikatan exercise.

The battalion is honing its skills on reconnaissance, surveillance, target acquisition and non-kinetic effects using ground-based EW systems, ultra-long endurance, solar powered Unmanned Aerial Systems (UAS), and High-Altitude Balloons (HABs).

A key highlight of the training includes extending network communications for retransmission of signals between multiple aerial capabilities.

“These long-range high endurance UAS are capable of establishing network connectivity between multiple aircraft at long distances,” said Maj. Malcolm Royer, Electronic Warfare Sensing Company commander. “We’re continuing work to extend that range.”

Prior to Balikatan 2025, the unit was at Yakima Training Center in Washington, conducting Static Focus 3, the Army’s first battalion-level All-Domain Home Station Training exercise. This training, held from March 3-14, 2025, was the first time Soldiers were able to operate all MDEB capabilities in a completely live environment. The soldiers were able to bring this knowledge with them to Balikatan 25.

“Static Focus is our annual training and risk reduction exercise to build multidomain teams with capabilities for all domain operations from every company across the MDEB,” said U.S. Army Lt. Col. Joe Mroszczyk, 1st Multi-Domain Effects Battalion Commander, “Our Soldiers are identifying best practices and training our headquarters elements to operate at dispersed locations ahead of doing the same in the Philippines.”

During Exercise Balikatan 25, the unit trained alongside members of the Philippine Air Force, conducting multiple training balloon launches and UAS sorties. They also coordinated with PAF airspace controllers to deconflict airspace for both Philippine and U.S. air traffic, supporting reconnaissance for the HIMARS live-fire operations conducted by their sister Long Range Fires Battalion. This seamless coordination supports the combined U.S.-Philippine force land-based counter maritime capabilities.

As part of the training, the unit mounted a UAS launch cradle onto the roof of a Philippine Air Force vehicle, showcasing the potential for future collaboration with the PAF in conducting fixed-wing launches from an airstrip.

This type of collaboration with the Armed Forces of the Philippines during Balikatan 25 enhances our interoperability and helps strengthen our partnership and commitment to peace and security in the Indo-Pacific.

Balikatan is a longstanding annual exercise between the U.S. and Philippine armed forces designed to strengthen the alliance, showcase the capable combined force, and demonstrate the commitment to regional security and stability.

By MAJ Ian Sandall