Research, Design
& Development

Kelvar R&D is the engine behind our autonomous systems, building at the intersection of machine intelligence, robotics, and real-world security.

At Kelvar Industries, innovation is not outsourced, it is engineered at the core.

Our RD&D division drives the continuous evolution of autonomous surveillance through rigorous research, precision design, and real-world testing.

We operate at the intersection of hardware, software, and intelligence, building systems that are not only functional, but adaptive, resilient, and future-ready. From early-stage concept modeling to full-scale deployment, every Kelvar platform is developed with a singular objective: operational superiority in dynamic environments.

Our process is iterative and uncompromising. We test in complexity, refine through data, and deploy with confidence, ensuring that every system performs when it matters most.

The intelligence layer behind every Kelvar platform.

Kelvar R&D is the engine behind our autonomous systems. Our research teams work at the intersection of machine intelligence, robotics, and real-world security — building the technologies that will define the next generation of autonomous surveillance.

01

Swarm Intelligence

Designing distributed coordination algorithms that allow multiple autonomous units to communicate, adapt, and act as a unified system without central control.

02

Computer Vision

Developing AI models that can classify threats, recognise behaviour patterns, and identify objects across infrared, thermal, and optical spectra in real time.

03

Autonomous Navigation

Building path-planning and obstacle-avoidance systems that operate reliably in GPS-denied, low-visibility, and high-interference environments.

04

Kelvar AI

Pushing intelligence to the device level, enabling drones and ground units to process, decide, and act without relying on cloud connectivity or remote computation.

Kelvar Stratos UAV Balloon Satellite modelling and design

Kelvar Stratos / Near-Space Infrastructure

Stratos

Solar-powered persistence with UAV-level control.

Kelvar Stratos is a solar-powered stratospheric platform delivering satellite-like persistence with UAV-level control for surveillance, connectivity, and economic security. A stratospheric balloon (also known as a high-altitude balloon) is an uncrewed or crewed balloon that travels into the Earth's stratosphere, typically reaching altitudes between 18 km and 37 km (11 to 23 miles). These platforms are used for weather monitoring, scientific research, and increasingly, as a low-carbon alternative for space tourism.

18-37 km

Stratospheric operating band

Weeks-months

Persistent mission endurance

UAV Balloon

Hybrid aerial architecture

What Kelvar Stratos is

Kelvar Stratos is a solar-powered stratospheric platform delivering satellite-like persistence with UAV-level control for surveillance, connectivity, and economic security. A stratospheric balloon (also known as a high-altitude balloon) is an uncrewed or crewed balloon that travels into the Earth's stratosphere, typically reaching altitudes between 18 km and 37 km (11 to 23 miles). These platforms are used for weather monitoring, scientific research, and increasingly, as a low-carbon alternative for space tourism.

Balloon lift. Solar UAV intelligence. Persistent near-space operations.

The Kelvar Kite StratoSolar System (SSV) is a hybrid stratospheric platform that combines a large high-altitude balloon with a solar-powered fixed-wing UAV to deliver persistent, near-space capabilities at a fraction of satellite cost; the balloon provides the primary lift and maintains altitude in the stratosphere for long durations, while the UAV acts as an intelligent control unit, using solar energy to power sensors, communications, and AI-driven stabilisation, enabling the system to remain over a target area for weeks or months while performing surveillance, telecom relay, environmental monitoring, and security operations, making it an adaptable, low-cost aerial infrastructure solution for applications across smart cities, remote connectivity, and national-scale monitoring in regions like Nigeria and across Africa.

Diagram of the Stratos UAV Balloon Satellite design structure and components

Component schematic

Hybrid System Logic

Lift, power, sensing, and stabilisation operate as one stack.

Stratospheric balloon

01

Primary lift and high-altitude persistence layer

Tether

02

Mechanical connection between lift system and aircraft body

Solar wings

03

Energy harvesting surface for sustained missions

Solar-powered UAV

04

Intelligent control, payload, sensing, and stabilisation unit

Different stratospheric platform architectures

There are several specialized designs depending on the mission duration and payload:

Zero-Pressure Balloons

Use an open vent to maintain internal pressure equal to the outside atmosphere. They are common for short-duration scientific missions (hours to days) and can carry several tons of equipment.

Superpressure Balloons

These are sealed and can maintain constant volume and pressure, allowing for much longer flights lasting weeks or even months.

Stratollite Balloons

These are high-altitude balloons designed to maintain position over a specific area for extended periods. By adjusting altitude to harness different wind currents, they enable persistent sensing, communications, observation, and monitoring missions.

From ground deployment to fleet-level persistence

The Kelvar Kite StratoSolar System combines balloon lift with a solar fixed-wing UAV to deliver persistent near-space coverage. The balloon sustains altitude while the UAV powers control, sensing, communications, and stabilisation for surveillance, relay, monitoring, and security missions.

Kelvar Stratos UAV Balloon Satellite on land in its docking station

01 / Ground Systems

Deployment infrastructure

Several Kelvar Stratos UAV Balloon Satellites in the air

02 / Fleet Surveillance

Operational deployment

Real-world missions for stratospheric platforms

Weather Monitoring

01

Stratospheric platforms provide continuous atmospheric data collection, supporting weather forecasting, climate research, environmental monitoring, and early warning systems for extreme weather events.

Intelligence, Surveillance & Reconnaissance (ISR)

02

Persistent high-altitude coverage enables long-duration observation of borders, critical infrastructure, maritime zones, and strategic assets, delivering real-time intelligence and situational awareness.

Communications & Connectivity

03

Acting as an aerial communications relay, stratospheric platforms can extend broadband, emergency communications, and network coverage to remote, underserved, or disaster-affected regions.

Satellite capability without satellite costs.

The cost difference between orbital and near-space platforms can be measured in millions of dollars. While satellites provide exceptional coverage, they require significant investment to build, launch, and operate. High-altitude UAV balloons offer a more accessible path to persistent monitoring and communications.

Orbital Satellite

$7.5M - $60M+

Upfront

Spacecraft manufacturing, payload development, launch services, insurance, licensing, and approvals.

Recurring

Ground station operations, mission control, maintenance, tracking, and future replacement missions.

Timeline

Months to years from design and testing to launch and operational deployment.

Constraint

Difficult to recover, repair, upgrade, or rapidly redeploy once in orbit.

Provides global coverage, but requires substantial capital investment and long deployment cycles.

High-Altitude UAV Balloon

$10k - $150K+

Upfront

Balloon envelope, lifting gas, payload systems, navigation equipment, and launch operations.

Recurring

Recovery, relaunch, replacement components, tracking support, and mission logistics.

Timeline

Can be deployed within days or weeks depending on payload and mission requirements.

Constraint

Mission duration, drift, recovery requirements, and continuity can limit long-term operations.

Far more affordable than satellites, making near-space missions accessible for research, monitoring, and communications.

Kelvar Stratos advantage

Where Kelvar Stratos Changes the Economics

Kelvar Stratos combines the affordability of high-altitude UAV balloons with the persistence traditionally associated with satellite systems. By leveraging solar-powered endurance, controlled station-keeping, and reusable infrastructure, Stratos delivers continuous regional coverage without the financial burden of orbital deployment.

No Rocket

Avoids orbital launch costs

Recoverable

Hardware can be serviced and reused

Persistent

Regional coverage for extended missions

Why the hybrid StratoSolar model matters

01

Satellite-like persistence

Operating in the stratosphere for weeks or months at a time, Kelvar Stratos provides continuous regional coverage without the launch cost, latency, or replacement cycle o f satellites.

02

UAV-level control

A solar-powered fixed-wing UAV acts as the system's intelligent control layer, steering stabilisation, payload operations, sensing, and communications while the balloon provides long-duration stratospheric lift.

03

Economic security infrastructure

Persistent stratospheric coverage helps monitor critical assets, extend connectivity, and give operators the real-time awareness needed to protect trade, borders, resources, and public infrastructure.

Intelligence
Built In.

Every system that emerges from our RD&D division is powered by our Autonomous A.I. Robotics layer, ensuring that research translates directly into deployable, intelligent platforms.

View Platforms
4
Active Platforms
3
Global Offices
Air · Land · Sea · Space
Operational Domains
Always On
System Availability

Built to
Outlast.

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