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ORBITSYNC is CLIICXNET's system for how a ground terminal automatically finds, scores, and switches between satellites — without a person touching a dial. This page walks through how it actually works, using real, live satellite positions tracked in your browser right now.
This is a live 3D render — every satellite below comes from real orbital data, propagated in your browser via SGP4. Covers CLIICXNET's own Iridium/GPS/GEO reference tiers plus Starlink, Amazon Kuiper, Eutelsat OneWeb, SES, and Intelsat for broader context — mega- constellations (Starlink especially, 10,000+ satellites) are sampled rather than fully rendered, for performance; positions shown are still real. Drag to rotate, scroll to zoom, hover any satellite or the ground marker for details. LIVE DATA
Ground reference auto-detects your browser location (with your permission), or falls back to Pune, or pick any state/UT and area type above — the camera flies to face wherever it's set, and hovering the ground marker itself shows its name and lat/lon. Live auto-switch directly on this map and the PNT triangulation math are next.
When the radio needs to change frequency — say, to talk to a different satellite — the antenna re-points and re-configures itself in the same instant, automatically. Today, on most terminals, a person does this by hand, and the antenna and the radio are two separate jobs. ORBITSYNC treats them as one.
The terminal always knows, from downloaded orbital almanac data, roughly where every relevant satellite is right now and where it's going next. A representative example: three LEO satellites identified simultaneously in proximity — shown on the right. This shortlisting works across every tier combination the claim names: LEO-to-LEO, MEO-to-LEO, MEO-to-MEO, and LEO-to-GEO.
Each shortlisted candidate is scored on five live parameters named in the claim:
| Candidate | SNR | Latency | BER | Lock | Capacity |
|---|---|---|---|---|---|
| LEO-A | 18 dB | 32 ms | 1e-4 | Yes | Low |
| LEO-B | 27 dB | 24 ms | 1e-7 | Yes | High |
| LEO-C | 15 dB | 38 ms | 1e-3 | No | Low |
Orbit is chosen first — the frequency band follows as a consequence, not the other way around.
The new link is confirmed and locked before the old one is dropped — like crossing to a new stepping stone before lifting your foot off the last one. Shown here: LEO-B (the winner) handing over to a GEO satellite — the LEO-to-GEO combination the claim explicitly names. No connectivity gap during the switch.
Illustrative example — not live data (see the live demonstration above, and the physics-modeled Auto Switch section below, for real satellite data).
The closest everyday analogy: this is your phone silently handing you off between cell towers as you drive — except the "towers" are satellites moving at thousands of kilometres per hour across three different orbital altitudes.
Ground reference point: CLIICXNET, Pune (default) — see the live demonstration above, where this updates to your detected or selected location. Elevation angle, range, and one-way propagation delay below are calculated directly from each satellite's real position relative to that point. Signal quality (SNR / BER / link score) is a physics-based model — derived from real geometry and standard free-space path-loss formulas — since no physical ORBITSYNC terminal exists yet to source live hardware telemetry from. PHYSICS-MODELED
Every Stage 1 candidate (see the Shortlist panel above) is scored automatically, in real time, on elevation, range, and the physics-based link model below — nothing here is triggered by hand. AUTOMATIC · LIVE
| Satellite | Tier | Elevation | Range | Prop. delay | Link score | Status |
|---|
Both links run simultaneously — L-band (LEO) and Ku-band (GEO) are independent, so degrading one doesn't affect the other. Watch Auto Switch trigger a real handover on whichever band you degrade.
This is a simplified summary of ORBITSYNC's capabilities, intended for general understanding rather than as a complete technical specification.