IN Brief:
- MANTECH has received a five-year, $345 million task order supporting Naval Surface Warfare Center Crane Division.
- Work covers C3I, cyber, electronic warfare, tactical networks, integration, testing, training, and field engineering.
- The programme links laboratory research with engineering and operational support for deployable naval and expeditionary systems.
MANTECH has secured a five-year, $345 million task order to support Naval Surface Warfare Center Crane Division with research, engineering, integration, and field support spanning cyber, command-and-control systems, electronic warfare, and expeditionary communications.
The award sits under the US Department of Defense Information Analysis Center Multiple Award Contract vehicle and supports the Expeditionary C3 and Cyber Division at NSWC Crane. MANTECH said the scope includes Command, Control, Communications and Intelligence, or C3I, together with cyber research and development, electronic warfare, tactical networks, mission assurance, and engineering support.
The task order extends beyond laboratory research. Published work areas include systems engineering, integration, testing, training, acquisition analysis, operational analysis, and field engineering, creating a route for technology to move from development into installed and deployed configurations rather than stopping at prototype level.
That breadth reflects the way naval cyber engineering now overlaps with communications and electronic warfare. Tactical networks combine radios, servers, software, sensors, encryption, gateways, and mission equipment distributed across ships, expeditionary units, and shore facilities. A weakness in one element can affect the availability or trustworthiness of information elsewhere in the network, even when the physical platform itself remains fully operational.
NSWC Crane already works across electronic warfare, communications, sensors, and strategic systems, so the new task order places cyber work inside an engineering environment that also deals with the electromagnetic and operational conditions surrounding those networks. Protecting a tactical system therefore involves more than blocking malicious traffic: engineers have to understand how it behaves when links are jammed, bandwidth is constrained, individual nodes disappear, or software is updated in the field.
Mission assurance is central to that problem. A network does not need every component to remain available at all times, but it does need the critical functions required by the mission to continue or recover predictably. That puts emphasis on redundancy, routing, authentication, configuration control, and the ability to isolate faults without creating a wider loss of service.
Electronic warfare adds another layer because communications and sensing increasingly share the same contested spectrum. Interference may be accidental, environmental, or deliberate, and systems have to distinguish between a cyber problem, a radio-frequency problem, and a normal loss of connectivity quickly enough for operators to respond. Engineering teams working across both disciplines can test those interactions earlier than programmes that treat cyber and EW as separate support functions.
The five-year term gives the programme room to address successive technical baselines rather than one fixed configuration. Software-defined radios, cyber tools, operating systems, and network applications change much faster than ships or expeditionary vehicles, yet each update still has to be tested against the hardware, interfaces, security controls, and mission procedures already in service.
Configuration management becomes difficult once several versions are operating across different units. A security update can alter latency, processing demand, or compatibility with another application, while a change intended to improve resilience in one environment may introduce an unexpected dependency elsewhere. Laboratory integration can expose some of those problems, but field engineering remains necessary when systems are installed on operational platforms and used with real communications paths.
MANTECH also plans to apply digital engineering and artificial intelligence within the programme. Those methods can support modelling, software development, analysis, and test planning, but the contract is not an AI acquisition in its own right. The declared workload remains centred on C3I, cyber, EW, tactical networks, and the engineering needed to move capability through integration and operational support.
The task order is being performed through the Defense Technical Information Center’s Information Analysis Center structure, which is intended to support applied research while making technical findings available across the wider defence research community. That gives the programme a dual role: addressing immediate NSWC Crane requirements while producing evidence that can inform later development and acquisition activity.
For industry, the $345 million ceiling provides a substantial multi-year engineering workload, but the more important measure will be how much of that work reaches deployable systems. Cyber resilience is often discussed as a software problem, yet naval and expeditionary networks depend on physical interfaces, antennas, processors, power supplies, and radio-frequency environments that software cannot abstract away.
MANTECH’s contract places those elements inside one programme spanning research, integration, testing, and field support. Its output will be tested in whether naval and expeditionary systems continue to exchange trusted information when networks are degraded, contested, or being modified faster than the platforms carrying them.
