Maargin is building a multi-shell multi-orbit space communication network — a constellation of satellites in LEO interconnected via OISL — providing connectivity and integrated computing facility to enterprises, government agencies, aircrafts and maritime businesses, fellow satellites and deep-space missions.
The next generation of communication will not be tethered to towers, islands of coverage, or single-orbit constellations. It will move fluidly between ground, sky and space — routing packets across a continuously reconfiguring mesh. Maargin is building that highly connected mesh: a standards-compliant space network of satellites in LEO.
That same mesh — an ideal substrate for compute — is configured to form a micro data center grid. Every satellite is already solar-powered, radiatively cooled, and one hop from its neighbours, turning each node into a micro data centre. The sub-constellation becomes a highly connected compute grid in orbit, where workloads move as fluidly as packets.
Resilient, low-latency connectivity for operations that cannot afford a dead zone — fleets, field operations, remote sites and critical infrastructure.
Seamless in-flight and maritime connectivity — a continuous signal from gate to gate, port to port, built on multi-orbit handover.
A highly connected dynamic grid of satellites together form a micro data center fabric enabling AI inferencing and onboard processing.
Front/Mid/Backhaul connectivity for terrestrial cellular network extending the network beyond fiber reach and improving coverage.
A packet leaves its source — a user device, an enterprise gateway, an aircraft terminal, or an orbiting satellite.
It is acquired by the nearest layer of the network — UAV, HAPS, or a satellite in the optimal orbit — using 3GPP-compliant waveforms.
Inter-satellite links carry the packet through space itself — bypassing terrestrial bottlenecks and geographic limits.
As relative positions shift, the routing plane seamlessly hands over between orbits and layers with zero perceptible disruption.
The packet arrives at its endpoint — on Earth, in the air, or in orbit — delivered with carrier-grade integrity.
Our space networks combines satellites across multiple shells in LEO — connected via optical inter-satellite links form a low-latency routing plane that reaches anywhere on or above Earth.
Our services are built against recognized, interoperable standards — not walled gardens — so devices, operators and spacecraft can integrate cleanly
Ku, Ka and S-band operation with dynamic allocation across the constellation
Near-infrared optical inter-satellite links built on a roadmap toward an open standard for ISL-as-a-service
Packets traverse space directly — shorter paths, lower latency, fewer terrestrial hops
High-altitude pseudo-satellites and unmanned aerial vehicles give the network an elastic layer — deployed to extend capacity, fill coverage gaps, or support critical operations on short notice
A single architectural fabric serves user devices on the ground, commercial and defense aircraft, maritime vessels, earth-observation satellites, space telescopes, and deep-space entities with both communication and compute
Instead of optimizing for a single shell, we compose across shells in LEO — plus HAPS and UAVs — so each workload rides the layer that suits it best
We are working toward a standardized protocol for inter-satellite links — unlocking ISL-as-a-service for fellow operators and their spacecraft
Every service layer complies with 3GPP NTN, cellular and IoT standards — devices, networks and missions interoperate without bespoke integration
Maargin is led by a team with a decade-plus of work in the trenches of global wireless — contributions to IEEE, 3GPP and Wi-Fi standards; research at the University of Cambridge; engineering at Samsung and Qualcomm; and deep roots in the Indian space ecosystem.
To build an inclusive, standards-native space network that provides reliable communication services to every user, enterprise, aircraft, satellite and deep-space mission that needs one.
A future where satellites and space platforms connect to each other the way computers connect to the internet — over open, interoperable links — and where coverage is defined by intent, not geography.
We believe the most valuable networks are the ones that play well with others. Our infrastructure is designed to interoperate with existing terrestrial and space systems — not to replace them.
Headquartered in Bengaluru — India's space and deep-tech capital — with research lineage from the University of Cambridge and the IITs, and partnerships across the global standards community.
Communications engineer turned founder. Leading the design of Maargin's space network architecture and standards work.
Leads RF, payload and inter-satellite link engineering across the multi-orbit constellation.
Translates orbital capability into services — for enterprise, aviation, maritime and space-to-space customers.

Technology Advisor — CEO & Co-founder, GAIUS Networks. Former Director, Networking for Development Research Group, University of Cambridge. Pioneer in bridging the global digital divide.

Space & Orbital Mechanics — Senior advisor on constellation architecture, orbital dynamics and mission design. Profile to be confirmed publicly.

3GPP NTN · ITU — Expertise in non-terrestrial network standards, spectrum coordination and regulatory strategy across markets. Profile to be confirmed publicly.

Connected Mobility — Decades of leadership in in-flight and maritime connectivity, advising on commercial strategy and integration. Profile to be confirmed publicly.
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