Drones

Niyotek treats unmanned aircraft as a systems problem: airframe class, propulsion, avionics, datalink, payloads, and ground control must agree on mass, power, thermal, and EMI budgets before you commit tooling or flight hours. We help teams translate mission profiles into requirements that survive design review, then trace those requirements through integration and test so evidence lines up with what operators actually fly.

Whether you are proving a new VTOL concept, hardening a logistics route, or standing up survey pipelines, we align engineering artifacts with regulatory and safety expectations in your jurisdiction. That means explicit CONOPS, hazard analyses, link budgets, and maintenance access paths - not generic slide decks that leave gaps at certification or field acceptance.

Our work spans platform families, sensing packages, and operations: fixed-wing endurance, multirotor precision, VTOL transitions, EO/IR integration, survey planning, BVLOS programs, GCS interoperability, training, and lifecycle sustainment. Each thread shares the same discipline: named interfaces, versioned configurations, and test results you can hand to internal teams or external reviewers.

Start from any entry point below. If you already know your mission class and constraints, we can propose a phased plan - prototype risk reduction, qualification scope, and operational handover - with clear decision gates and documentation your program office can own.

Successful UAV programs rarely fail on a single component; they fail where assumptions drift between disciplines. We keep mass properties, power timelines, and datalink margins visible across mechanical, electrical, and software work so trade-offs stay explicit.

When programs move toward broader operations - beyond visual line of sight, over people, or in shared airspace - documentation and test traceability matter as much as the airframe. We help teams structure evidence so updates to configuration, software, or payloads stay governable across releases.