KosmosOne

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KosmosGrid

KosmosGrid is KosmosOne’s flagship space-based power generation and distribution platform. It consists of a multi-orbit constellation of dedicated “power satellites” that collect solar energy and wirelessly transmit it to other spacecraft.

In-Orbit Power Sharing: Charge satellites in eclipse; extend life without oversizing batteries

Emergency Backup: Reroute power around faults or debris events

Orbital Data Centers: High, steady power for compute nodes

Technology

What we build

Phased-Array Transmission: Electronically steered microwave beams-instant re-pointing, no moving parts

Rectenna Receivers (~90% RF→DC lab efficiency): Modular, rad-hard arrays convert beam to clean DC

AI Beam Tracking & RL Control: Sub-degree pointing, dynamic power scheduling, orbital maneuver & docking optimizati

Safety First: Adaptive beam interlocks, auto cut-off, regulated bands, redundant sensing

Network & Security: Global coverage with <50 ms command latency; quantum-encrypted control links

Precision Nav: ±1 m class relative positioning for formation flying and RPO

Telemetry: Real-time health, predictive maintenance, live customer dashboards

About

Constellation

Layered mesh: LEO 12 • MEO 4 • GEO 3–6 for global reach

Orbit roles: LEO edge power, MEO relay, GEO baseload/orchestration

Real-time control: <50 ms beam steering and commands

Always-on: GEO→LEO handoffs keep power through eclipses

Resilient: N+1 redundancy with auto-reroute on faults

Smart routing: Multi-hop MWPT with policy/SLA scheduling

Scalable: Add tiles/nodes to grow kW and coverage

Precise & safe: ±1 cm formation nav + instant beam cut-off

Terrestrial Extension

Line-of-sight up to ~40 km, kW-class links; atmospheric compensation keeps beams tight in real weather

Architecture: Transmitting station → optional relay (for terrain/LoS) → rectenna field (rooftops/ground tiles)

Deployments: Disaster relief hubs, island grids, offshore/remote operations, grid resilience bridges

Safety & Compliance: Dynamic beam shaping, path monitoring, human/wildlife-safe power density, instant cut-off

Economics: Modular panels scale capacity; no wires/towers → rapid setup, lower maintenance

How MWPT Works

01
Transmit
02
Propagate
03
Receive
04
Control & Safety
05
Networked Routing (KosmosGrid)

1) Transmit
- • Phased-array transmitter combines many small RF elements to form a single, steerable beam (no moving parts)
- • Electronic beam steering locks onto the receiver in milliseconds
2) Propagate
- • The beam travels line-of-sight through space (or atmosphere for terrestrial links)
- • Frequency choice + aperture size keep the beam tight over distance
3) Receive
- • Rectenna (rectifying antenna) captures the microwave field and converts it to DC power
- • Modular receiver tiles mount on a satellite panel or a ground rectenna field
4) Control & Safety
- • AI + RL continuously correct pointing, schedule power, and predict handoffs
- • Multi-sensor path monitoring triggers instant cut-off if anything crosses the beam
- • Power density is kept within defined safe envelopes
5) Networked Routing (KosmosGrid)
- • LEO, MEO, and GEO nodes route energy like packets—who needs power, gets power
- • <50 ms control latency enables real-time beam steering and failover
- • Links can be split/queued to serve multiple receivers

Advantages

MICROWAVE (MWPT)

All-weather reliability – minimal loss in clouds, dust, smoke; works day/night

Wide capture + easy pointing – broader beam, lower jitter sensitivity; simpler tracking hardware

High RF→DC efficiency – rectennas reach ~80–90% lab conversion; passive, no cooling glass

Scalable apertures – modular phased arrays tile to higher power without delicate optics

Multi-beam / multi-user – digital beamforming can split and schedule power to many nodes

Safety-first envelope – controlled power density; automatic cut-off with path sensing

Spectrum-friendly – uses regulated microwave bands; mature RF components and supply chain

Lower thermal stress – no high-flux hot spots on receiver; gentle power density on surfaces

LASER BEAMING

Weather-sensitive – strong attenuation/scatter in fog, clouds, rain, dust

Tight pointing required – microradian alignment; sensitive to jitter and platform vibration

PV receiver losses – band-limited; conversion + thermal losses reduce end-to-end efficiency

Precision optics – large, high-quality mirrors/lenses; alignment and contamination risks

Single-beam bias – beam-splitting is possible but complex and less efficient

Eye & sensor safety – stringent exclusion zones; risk to optics and payload sensors

Export/ITAR-heavy optics – specialized components; higher unit cost risk

Local heating – high irradiance can warm/degrade receiver surfaces

About KosmosOne

Mission

Make power in space as flexible as data-route it, share it, scale it

What’s Different

• Dual-use stack (space ↔ terrestrial)

• Networked power as a service (KosmosGrid)

• AI-native control layer + modular hardware

Where We Operate

India HQ with UAE footprint for partnerships & operations

KosmosOne builds the wireless power grid of space

On-demand power, anywhere in orbit