From Civilian Technology to Defence: A Positioning Framework for Dual-Use Companies

Many technology companies entering defence already have a working product.

The technology may have been developed for logistics, energy, mobility, telecommunications, industrial automation, analytics, robotics or another civilian market. It may already have customers, investment and a mature engineering team.

The defence challenge begins when that product has to operate inside a military mission.

A civilian technology can create defence value, but the transition requires more than changing the customer segment. The company has to understand the mission, operational environment, integration constraints, security requirements, procurement logic and industrial structure around the capability.

For dual-use companies, the most useful question is therefore:

Where does our existing technology create a credible military advantage, and what has to change before a defence customer can use it?

Overview

1. 1Start With the Mission
2. 2Map the Operational Environment
3. 3Define the Capability Contribution
4. 4Adapt the Architecture
5. 5Build Resilience and Security
6. 6Validate With End-Users
7. 7Understand Integration
8. 8Choose the Right Entry Route
9. 9Prepare for Industrial Adoption
10. 10Practical Company Action Plan

Start With the Mission

A civilian product usually begins with a market problem.

A defence product begins with a mission problem.

That difference changes the way the technology should be positioned.

A company developing computer vision, for example, may describe its product through detection accuracy, processing speed and model performance.

A military user may ask different questions:

• What mission does this improve?

• What happens when GNSS is unavailable?

• Can the system operate with poor connectivity?

• Can it work at night, in dust, smoke or rain?

• How does it integrate with the existing command chain?

• How quickly can an operator learn to use it?

• What happens when the system is jammed, damaged or partially degraded?

  
  

The first step is therefore to define one concrete defence use case.

Avoid starting with a very broad statement such as “AI for defence” or “autonomous systems for military applications.”

A stronger starting point is specific:

• automated target recognition for short-range air defence;

• GNSS-denied navigation for unmanned systems;

• predictive maintenance for armoured vehicle fleets;

• secure communications for dispersed units;

• autonomous last-mile resupply;

• battlefield damage assessment.

  
  

The more concrete the mission, the easier it becomes to identify users, requirements, partners and programmes.

Map the Operational Environment

Civilian technologies are usually optimised for predictable operating conditions.

Defence environments can introduce very different constraints.

Depending on the system, these can include:

• electronic warfare;

• GNSS denial;

• intermittent communications;

• cyber threats;

• extreme temperatures;

• vibration;

• dust and moisture;

• limited power;

• rapid deployment;

• maintenance in field conditions;

• operator stress;

• loss of infrastructure;

• intentional attempts to disrupt the product.

  
  

This does not mean every dual-use product requires a complete redesign.

It means the company needs an operational gap analysis.

A useful internal exercise is to compare three columns:

Current Civilian Environment	Where and how the technology works today.
Target Defence Environment	The mission conditions in which the technology would have to operate.
Adaptation Gap	The hardware, software, security, interface, testing or production changes required to close the difference.

This turns “dual-use potential” into a concrete engineering roadmap.

Define the Capability Contribution

Defence customers buy capabilities and systems.

Your technology may represent only one layer of that capability.

That is perfectly acceptable.

A smaller company may contribute:

• a sensor;

• software;

• a navigation module;

• an AI model;

• a communication component;

• a propulsion subsystem;

• a manufacturing technology;

• testing capability;

• specialist engineering.

  
  

The strategic task is to understand where that contribution sits inside the larger system.

For example:

Technology: computer vision.

Defence capability: autonomous navigation.

Platform: UAV.

System dependencies: cameras, onboard compute, autopilot, mission software.

Operational user: UAV crew.

Potential industrial customer: UAV manufacturer or system integrator.

This mapping helps a company understand who the real partner or customer may be.

In many cases, the first defence customer will be another company rather than a ministry of defence.

Adapt the Architecture

Defence adaptation often changes product architecture.

A civilian system may rely on:

• continuous cloud access;

• commercial GPS;

• standard mobile networks;

• centralised data processing;

• frequent software updates;

• commercial components;

• infrastructure that cannot be guaranteed in military operations.

  
  

The defence version may need:

• edge processing;

• offline functionality;

• alternative navigation;

• encrypted communications;

• restricted external dependencies;

• open interfaces;

• integration with military C2;

• redundant components;

• different power and packaging solutions.

  
  

Architecture decisions also affect consortium positioning.

A company offering a modular subsystem with clear interfaces can often integrate into a European collaborative project more easily than a closed product requiring the rest of the system to adapt around it.

For this reason, interoperability should be considered early.

Build Resilience and Security

Military users evaluate failure differently.

For many civilian products, temporary service degradation creates inconvenience.

In defence, the same failure can affect mission execution.

Companies should therefore examine:

• cybersecurity;

• data protection;

• communications security;

• component origin;

• supply-chain dependencies;

• software dependencies;

• access control;

• data ownership;

• resilience against jamming and spoofing;

• recovery after partial system failure.

  
  

European defence programmes increasingly pay attention to security of supply and control over critical technology.

For a dual-use SME, this means technical due diligence can extend beyond product performance.

Investors, primes and public customers may also want to understand who controls the company, where critical components originate and whether the technology can be produced without unacceptable external dependencies.

Validate With End-Users

Early access to military users is one of the most valuable assets a dual-use company can obtain.

A military user can expose assumptions that remain invisible in a laboratory.

The objective is to understand:

• how the product fits into the mission;

• who operates it;

• how it is transported;

• how it is configured;

• what information it receives;

• what output the user needs;

• what creates workload;

• what failure modes are acceptable;

• what would prevent deployment.

  
  

Testing should gradually move from technical validation towards operational validation.

Useful environments can include:

• simulation;

• test ranges;

• military exercises;

• structured experimentation;

• end-user trials;

• field demonstrations.

  
  

European programmes increasingly create routes into these environments.

The EUDIS Business Accelerator combines business support with defence-specific training, testing, validation and interaction with military end-users.

NATO DIANA provides selected dual-use companies with accelerator support and access to a network of more than 200 test centres across the Alliance.

The European Defence Agency’s HEDI activities also connect defence innovation with experimentation and capability development.

These programmes are valuable when they match the maturity and needs of the company.

Understand Integration

A strong standalone technology may still be difficult to adopt if integration costs are high.

Before approaching defence partners, prepare clear answers to:

• What interfaces does the product use?

• What data does it need?

• What data does it generate?

• Where does processing happen?

• What are the power requirements?

• How does it communicate with other systems?

• Can it integrate with existing platforms?

• Which standards are relevant?

• What has already been tested?

• What remains to be validated?

  
  

System integrators need to understand the cost and risk of adding your technology to a larger capability.

Reducing that uncertainty improves positioning.

Choose the Right Entry Route

Dual-use companies have several possible routes into European defence.

The best route depends on maturity.

EUDIS	Useful for start-ups and SMEs that need defence-market knowledge, end-user access, testing, matchmaking and early-stage validation.
NATO DIANA	Relevant for companies developing emerging and disruptive dual-use technologies that fit NATO challenge areas. DIANA combines accelerator support, funding, mentoring, end-user access and testing.
HEDI	Useful for understanding how innovation connects with military experimentation and capability development through the European Defence Agency.
EDF	Relevant when the technology fits a collaborative European defence R&D topic and the company can contribute a credible role inside a multinational consortium.
National Programmes and Procurement	Many of the fastest routes to defence adoption remain national. Defence ministries, innovation agencies, armed forces, national accelerators and procurement authorities can provide routes to validation or first contracts.

A good strategy can combine several routes over time.

Prepare for Industrial Adoption

A successful demonstration creates the next set of questions.

Can the company deliver?

Defence adoption can require:

• repeatable manufacturing;

• quality assurance;

• reliable suppliers;

• configuration control;

• documentation;

• after-sales support;

• training;

• maintenance;

• secure software updates;

• spare parts.

  
  

A company should therefore build an industrial roadmap alongside the technology roadmap.

For early-stage companies, the goal does not have to be immediate mass production.

The objective is to understand what scale would require and where the bottlenecks would appear.

This also improves discussions with primes, investors and public customers.

Practical Company Action Plan

Select One Defence Use Case	Write the military problem in one sentence. Identify the user and the mission.
Build an Adaptation Gap Map	Compare current product capability with the target operational environment. Separate gaps into: hardware; software; security; integration; testing; production; regulatory or procurement requirements.
Identify the System Around You	Map the: platform; integrator; operator; procurement authority; other technologies your product depends on.
Find End-User Access	Identify realistic routes to testing through: national programmes; EUDIS; DIANA; HEDI; defence partners; military testing environments.
Create an Evidence Package	Prepare: technical performance data; test results; TRL; integration interfaces; production capacity; supply-chain information; IP ownership; clear explanation of operational value.
Select the Ecosystem Route	Decide whether the next move is: testing; an accelerator; an EDF consortium; a prime contractor; national procurement; an investor; a joint development partner.
Build a 12-Month Roadmap	Set concrete milestones for: validation; adaptation; partnerships; programme applications; industrial readiness;market entry.

Dual-use positioning becomes much easier once the company stops presenting a generic technology story and starts presenting a credible capability role.

Defence positioning begins when the company can connect that technology to a mission, a system, an end-user and a realistic route to adoption.