A New Horizon For Maneuver Support Experimentation
The Final MSPIX and a Vision For The Future
By Captain Adam R.
Contributing Authors: Robinson, Ms. Sonya Taylor, Mr. Jarret Ellis, Major
Davin Harmon
Article published on:
January 26, 2026 in the 2026 e-Edition of Protection
Read Time:
< 6 mins
Soldiers Test Drive Autonomous Equipment Decontamination System at MSPIX
24.
(U.S. Army photo by Gabriella White)
The contents of this article do not represent the official views of, nor
are they endorsed by, the U.S. Army, the Department of War (DoW), or the
U.S. Government.
This article was edited with the assistance of artificial intelligence
(AI) tools. Final review and editing were conducted by authorized DoW
personnel to ensure accuracy, clarity, and compliance with DoW policies
and guidance.
May 2025 marked the conclusion of an era with the final Maneuver Support
Protection Integration Experiment (MSPIX). Hosted by the Maneuver Support
Capability Development Integration Directorate (MS CDID) at Fort Leonard
Wood, Missouri, this event transitioned from an Army-focused warfighting
experiment to the newly implemented Concept-Focused Warfighting
Experiments (CFWEs), which are set to begin in fiscal year 2026.
CFWEs are synchronized, integrated, and linked experimentation events
across the U.S. Army Futures Command that focus on learning about and
refining the critical components outlined in the Army Warfighting Concept.
While representing the culmination of years of valuable insights, this
year’s MSPIX served as a pivotal demonstration of a fundamentally new
approach to technology experimentation—one that promises to accelerate
innovation and better prepare the Army for the challenges of modern
warfare.
Autonomous Equipment Decontamination System demonstration at the recent
Maneuver Support Protection Integration Experiments (MSPIX) at Fort
Leonard Wood, Missouri in May 2024 and Chemical Biological Operational
Analysis event held at Camp Dawson, West Virginia in August 2023.
(U.S. Army photo by Gabriella White)
MSPIX 2025: A Final Chapter in Maneuver Support Experimentation
MSPIX 2025, the ninth and final annual MSPIX event, was held May 5-16,
2025. As with all previous MSPIX experiments, Soldier participants
operated and evaluated emerging technologies and capabilities—developed by
government laboratories and private industry—within a live operational
environment. Live experimentation is a crucial component of Army
modernization, providing a venue for examining military problems and
potential solutions in relevant operational scenarios. Data collected from
Soldier surveys, observations, and technology performance were analyzed to
build insights and recommendations concerning how each technology
addresses protection-based capability gaps, informs requirements
development, and meets user needs.
This year’s experiment successfully integrated Soldier touch points with
14 distinct technologies, ranging from advanced bridging solutions to
sophisticated chemical detection systems, remote breaching capabilities,
and deep terrain-shaping operations. Soldiers from the 36th Engineer
Brigade, 20th Engineer Brigade, 555th Engineer Brigade, 89th Military
Police Brigade, 173rd Infantry Brigade Combat Engineer Company (CEC), 48th
Chemical Brigade, and 20th Chemical, Biological, Nuclear, Radiological,
Explosive (CBRNE) Command operated the emerging prototype systems within
seven vignettes and across four ranges and training areas. All
technologies were teleoperated or operated remotely, adhering to the Army
robotics initiative and the requirement to keep Soldiers out of harm’s way
when possible.
Innovative Approaches to Experimentation
Military police Soldiers operated a capability that performed remote and
automated surveillance of breaching operations, facilitating comprehensive
analysis while minimizing disruption to operational flow. This included
advanced electro-optical/infrared sensors, multiple mobile platforms, and
long-range sensing systems to observe technologies at a distance and
across different spectrums, reflecting a potential technology-heavy future
battlefield.
To further enhance analytical capabilities, the U.S. Army Engineer
Research and Development Center (ERDC) developed operational simulation
tools that allowed engineer mission planners to rehearse missions and
digitally simulate the training area during MSPIX. These systems enabled
analysts to gather detailed performance data, assess system capabilities,
and monitor interactions between technologies without interfering with
engineers’ training exercises.
CBRNE Soldiers from reconnaissance platoons, decontamination companies,
and CBRNE response teams operated two separate capabilities. The first was
a pre-milestone prototype detection system designed to enhance chemical
identification in operational environments. During sensitive site
exploitation scenarios, Soldiers provided on-the-spot feedback to program
managers to refine system development. The second was a semi- autonomous
decontamination system intended as a critical area disinfectant for aerial
and seaport operations. Moving forward, the intent is for Soldiers to use
next-generation decontamination capabilities for continuous operations and
restore contaminated areas to enable sustainment and freedom of maneuver.
Transformative Collaboration with the AAL
The true significance of MSPIX 2025 lay in its innovative integration with
the Army Applications Lab (AAL). Lieutenant Colonel Nicholas Rinaldi, AAL,
summarized the event’s impact by stating the following in his executive
summary of the event:
From May 12–16 at Fort Leonard Wood as part of MSPIX 2025, four Combat
Engineer units (36th Engineer Brigade, 20th Engineer Brigade, 555th
Engineer Brigade, and Combat Engineer Company from the 173rd Infantry
Brigade) conducted a mission-focused technology demonstration using seven
emerging technologies comprised of ground and air autonomous systems,
payloads, decoys, and mesh communications. This event marked a shift from
traditional technical demos to operational use, with engineers employing
these tools in the framework of platoon collective training to execute
offensive breaching and defensive terrain-shaping maneuver support tasks.
Formations combined technologies in unique ways to accomplish mission sets
that government subject matter experts did not anticipate, which expanded
learning across the Doctrine, Organization, Training, Materiel, Leadership
and Education, Personnel, and Facilities (DOTMLPF) spectrum. For the first
time, engineer formations planned and executed deep terrain shaping using
an organic capability nested within a corps-level scheme of
maneuver—extending beyond the conventional joint targeting cycle and
request to air or naval support. This was a first step in thinking
differently about combat engineer formations and capabilities at
echelon.1
The partnership with AAL proved transformative, moving beyond isolated
technology demonstrations to a dynamic, operational environment. Engineers
did not simply test the technologies; they employed them within the
context of realistic platoon-level training, revealing unforeseen
applications and accelerating the learning process. This approach allowed
for a more holistic evaluation, extending the analysis across the full
spectrum of DOTMLPF and providing robust insights and recommendations.
Focus on Future Protection Areas
Beyond the AAL collaboration, MSPIX 2025 also emphasized critical future
protection areas, notably the evolving landscape of wet gap crossing. Over
the course of the experiment, two private companies presented remotely
controlled Bridge Erection Boat (BEB) solutions, demonstrating promising
potential for enhancing BEB operations while highlighting key areas for
further development. Crucially, both offerings were designed for retrofit
compatibility with existing Army assets, supporting a practical pathway
toward rapid integration and deployment of future capabilities.
Efficiencies and Lessons Learned
A significant best practice gleaned from executing MSPIX over the years is
the impressive efficiencies the team developed to plan, execute, and
document substantial learning events on a limited budget. Comparatively,
within the U.S. Army Futures Command, the MS CDID consumed a fraction of
the experimentation resources to examine an average of 15 technologies
annually in live experiments. Tenacious planners, knowledgeable
stakeholders, and talented analysts with innovative approaches and
creative ideas for utilizing available resources and assets provided the
best return on investment.
A Vision for the Future
The insights gained, efficiencies learned, and innovative methodologies
pioneered during MSPIX will undoubtedly shape the future of maneuver
support experimentation. The shift toward mission-focused, Soldier-driven
evaluations, coupled with experimentation proficiency and strategic
partnerships (such as the collaboration with AAL) represents a significant
step forward in ensuring that the MS CDID is poised to execute and support
evolving future experimentation events.
Moving forward, CFWE will focus on learning about and refining the
critical components outlined in the Army Warfighting Concept. CFWEs have
two primary functions: continued learning and refinement of the respective
critical component and risk reduction for the Project Convergence Capstone
events. These efforts ensure that emerging concepts are rigorously tested,
refined, and ready for integration into future force design and
operational planning.
Captain Robinson is the Experimentation Officer for the Maneuver Support
Capability Development Integration Directorate, Fort Leonard Wood,
Missouri. He holds a bachelor’s degree in entrepreneurship from Central
Michigan University and a master’s degree in business and organizational
security management from Webster University.
References
1.
Nicholas Rinaldi, email to author, May 20, 2025.
Author
Captain Robinson is the Experimentation Officer for the
Maneuver Support Capability Development Integration Directorate, Fort
Leonard Wood, Missouri. He holds a bachelor’s degree in entrepreneurship
from Central Michigan University and a master’s degree in business and
organizational security management from Webster University.