Want to understand a term? Use the Field Guide explainer linked in each pillar. Want to discuss a technology? Submit a capability. Want to partner on production? Talk to Helicon Manufacturing.
01
Counter-UXS / Counter-UAS / Electronic Warfare
In plain terms: lower-cost ways to detect, locate, and protect against hostile drones and the radio links that control them.
Unmanned Systems (UxS) and Unmanned Aircraft Systems (UAS) have changed the cost and tempo of conflict. This pillar covers compact RF and EW (Electronic Warfare) payloads for detecting, locating, and responding to hostile unmanned-system control nodes — framed as detection, location, and protection.
Warfighter problem
Cheap, mass unmanned systems saturate defenses and put forces at risk across air, ground, and maritime domains.
Operational effect
Detect, locate, identify, and counter hostile unmanned systems through layered, non-kinetic and kinetic means.
Relevant domain
Air, ground, and maritime; spectrum-dependent and fiber-optic threats.
Current maturity
Mix of fielded and emerging systems; framework shown, specifics handled privately.
Evidence from operational use
Ukrainian operational use and testing inform layered counter-UAS approaches.
SWaP-C
Size, Weight, Power, and Cost (SWaP-C) favoring man-portable and vehicle-mounted form factors.
Manufacturing readiness
Assessed against trusted electronics and RF production.
Trusted bill of materials
Trusted sourcing for RF and processing components.
Export / import / IP status
Reviewed for ITAR/EAR posture and IP ownership before any pathway.
Demonstration plan
Structured against a realistic counter-UAS operational problem.
Low-rate production timeline
Scoped per capability and customer pathway.
Sustainment model
Field repair, spares, and spectrum-update support.
02
All-Domain Battlefield Awareness
In plain terms: pulling many sensors and data sources into one clear, timely picture so commanders see and understand the battlefield first.
Seeing and understanding the battlefield first reduces exposure and accelerates decisions. This pillar covers sensor fusion, RF detection, and ISR (Intelligence, Surveillance, and Reconnaissance) across contested environments.
Warfighter problem
Fragmented sensors and stovepiped data leave commanders without a timely, coherent picture.
Operational effect
Fuse multi-source data into actionable awareness while managing the risk that emitters can be located and targeted.
Relevant domain
Air, land, sea, space, and cyber; commercial and military sensing.
Current maturity
Spans commercial and military-grade sensing and fusion.
Evidence from operational use
Ukraine has shown commercial imagery and crowdsourced intelligence can generate operationally relevant awareness.
SWaP-C
Edge-deployable sensing and processing with tactical SWaP-C (Size, Weight, Power, and Cost).
Manufacturing readiness
Assessed for trusted sensing and compute supply.
Trusted bill of materials
Trusted sensors, compute, and communications components.
Export / import / IP status
Reviewed for export posture and data-handling requirements.
Demonstration plan
Awareness improvement shown against a defined mission picture.
Low-rate production timeline
Scoped per integration burden.
Sustainment model
Software updates, calibration, and field support.
03
Helicon Labs: Edge AI & Human-Centered Decision Support
In plain terms: AI that helps a person decide faster and better, and always leaves the consequential decision with the human — never autonomous lethal action.
AI that helps warfighters make better decisions faster — not AI that replaces human judgment. This pillar emphasizes memory, provenance, confidence-scoring, and explicit uncertainty, with the human in the loop for consequential actions. It does not cover autonomous targeting or lethal decision-making.
Warfighter problem
Operators face overwhelming data and compressed timelines that strain human decision-making.
Operational effect
Compress decision cycle time with decision support, while preserving meaningful human judgment for consequential actions.
Relevant domain
Intelligence fusion, course-of-action analysis, and staff support; human-in-the-loop only.
Current maturity
Edge and enterprise decision-support patterns; not autonomous weapons.
Evidence from operational use
AI is used for guidance and target-recognition assistance, with human operators authorizing action.
SWaP-C
Edge-deployable compute with tactical SWaP-C where required.
Manufacturing readiness
Primarily software and compute integration.
Trusted bill of materials
Trusted compute and secure data handling.
Export / import / IP status
Reviewed for export posture and assurance requirements.
Demonstration plan
Decision-support value shown with provenance and confidence made explicit.
Low-rate production timeline
Software-led; scoped per integration.
Sustainment model
Model governance, updates, and assurance over time.
04
Contested Logistics & Sustainment
In plain terms: keeping forces moving, repaired, and resupplied even while under attack — the unglamorous work that decides who can keep fighting.
Future conflicts will be won not only by platforms, but by the ability to move, repair, resupply, and sustain capability under attack. Helicon looks for Ukrainian and allied technologies that improve distributed logistics, autonomous resupply, field repair, energy resilience, and sustainment in contested environments. This pillar is central to Indo-Pacific planning and to the security agenda at the Ukraine Recovery Conference (URC) 2026.
Sub-theme — Energy & critical-infrastructure resilience. Within this pillar Helicon tracks technologies that keep power, fuel, communications, and critical infrastructure operating under attack. Energy and critical-infrastructure resilience is a cross-cutting sub-theme of contested logistics and a focus area of the security and defense agenda at the Ukraine Recovery Conference (URC) 2026 in Gdansk. Helicon treats this as a tracking and evaluation area, not a standalone capability claim.
Warfighter problem
There are no truly safe rear areas; every logistical node can be observed and targeted.
Operational effect
Keep distributed forces supplied, repaired, and sustained when the supply chain itself is under threat.
Relevant domain
Distributed logistics, autonomous resupply, field repair, and energy resilience.
Current maturity
Spans autonomous resupply, repair, and logistics-information systems.
Evidence from operational use
Ukraine has improvised resilient logistics under constant surveillance and enemy fire.
SWaP-C
Field-deployable, repairable systems with sustainable SWaP-C.
Manufacturing readiness
Assessed for repairability and trusted spares.
Trusted bill of materials
Trusted components and field-replaceable parts.
Export / import / IP status
Reviewed per capability and pathway.
Demonstration plan
Sustainment value shown under contested conditions.
Low-rate production timeline
Scoped per capability.
Sustainment model
Distributed repair, spares, and energy resilience.
05
Resilient PNT / Anti-Jam / Electronic Maneuver
In plain terms: knowing where you are and what time it is when GPS is jammed or spoofed — so weapons, sensors, and networks keep working.
Positioning, Navigation, and Timing (PNT) underpins almost every modern system. This pillar covers resilient PNT under jamming and GPS-denied conditions, anti-jam techniques, and electronic maneuver.
Warfighter problem
GPS jamming and spoofing degrade navigation, timing, and precision across the force.
Operational effect
Maintain accurate positioning, navigation, and timing when GPS is jammed, spoofed, or denied.
Relevant domain
Navigation, timing, precision effects, and spectrum maneuver.
Current maturity
Spans inertial, visual, terrain-relative, and signals-of-opportunity approaches.
Evidence from operational use
Russian jamming has degraded GPS-guided systems in Ukraine, driving alternative-PNT work.
SWaP-C
Compact, manufacturable form factors with tactical SWaP-C.
Manufacturing readiness
Assessed for trusted sensing and processing supply.
Trusted bill of materials
Trusted inertial, RF, and processing components.
Export / import / IP status
Reviewed for export posture and IP ownership.
Demonstration plan
Resilience shown in a denied or degraded environment.
Low-rate production timeline
Scoped per form factor.
Sustainment model
Calibration, updates, and field support.
06
Trusted Manufacturing & Adaptive Production
In plain terms: being able to actually build a capability at scale, from trusted parts, in trusted places — not just prove it works once in a demo.
Capability at scale depends on trusted, manufacturable supply chains. This pillar covers trusted sourcing, quality systems, and the path from qualified prototype toward low-rate production. It links directly to the Helicon Manufacturing page.
Warfighter problem
A capability that cannot be built, sourced, and sustained at trusted standards is not fieldable at scale.
Operational effect
Move a qualified prototype toward manufacturable, sustainable production.
Relevant domain
Electronics, RF, drone components, additive manufacturing, assembly, and test.
Current maturity
Building and partnering; not a claim of turnkey ownership.
Evidence from operational use
Manufacturability assessed against trusted production standards.
SWaP-C
Designed against producible SWaP-C targets.
Manufacturing readiness
The core focus of this pillar.
Trusted bill of materials
Trusted sourcing and restricted-source mitigation.
Export / import / IP status
Reviewed for production and export posture.
Demonstration plan
Production readiness shown through pilot builds.
Low-rate production timeline
Low-Rate Initial Production (LRIP (Low-Rate Initial Production)) planned per capability.
Sustainment model
Spares, repair, and supply-chain qualification.