One familiar network interface
Control, voice, telemetry, video and ordinary application traffic use a logical Layer-3 network.
Nexus Atlas separates applications from the communications complexity underneath. Operators define the outcome and traffic policy; the software measures and schedules compatible links from different technologies and vendors.
Control, voice, telemetry, video and ordinary application traffic use a logical Layer-3 network.
Atlas encrypts traffic, measures the path set and applies policy beneath applications.
Radio, cellular, satellite, Wi-Fi, mesh and wired paths remain independently owned and operated.
Atlas sits between applications and the available communications inventory. Applications keep using one logical network while Atlas changes which links, peers or relays contribute underneath.
These layers work together. More links improve path diversity; traffic policy protects what matters; multi-hop routing extends the useful network beyond direct reach.
Measure each path independently and use aggregation, best-path, duplication or gradual reweighting according to policy.
Give control, voice, position, telemetry, video and bulk data delivery behavior that reflects operational value.
Route through authenticated participating peers when a destination is not directly reachable and reform paths as nodes change.
Continue without a mandatory cloud controller while exposing local configuration, diagnostics and live path state.
Atlas works directly above compatible IP-capable links. Small adapters can expose specialist or serial radios and surface modem telemetry without changing the Atlas core.
Observe reachability, latency, loss, jitter and declared capacity instead of treating a link label as a promise.
Best-path, aggregation, duplication, priority, deadline-aware delivery and optional recovery policies serve different objectives.
Applications retain one logical connection while Atlas changes how the underlying paths and peers contribute.
The business view stays concise. Architecture, protocol behavior and implementation detail remain available through the engineering and Traversal websites.
Measure path quality repeatedly and change contribution before a binary failure threshold becomes the only available signal.
Use best-path, weighted distribution, duplication or adaptive redundancy across the available links.
Participating Atlas peers can forward traffic across a changing topology when endpoints are not directly connected.
Adopt authenticated endpoint changes and use direct discovery, CGNAT traversal or relay infrastructure where required.
Keep the data plane and local network functions operating without a mandatory internet, cloud-controller or licensing dependency.
Inspect link state, peers, topology, traffic policy and session health through local diagnostics, web tooling and APIs.
Not every message needs the same delivery behavior. Atlas can treat operational traffic according to urgency, freshness, reliability and available capacity.
Prioritise or duplicate bounded critical traffic so a large video or bulk transfer cannot silently become a control-plane problem.
Prefer fresh, timely information over retransmitting data that has already been replaced by a newer sample.
Use available capacity while dropping frames that can no longer meet their latency budget instead of stalling the complete stream.
Allow patient traffic to wait through an interruption and resume when a useful path returns.
The word “encrypted” should not hide which components participate in the trust model. Different path types have different forwarding boundaries.
Direct Atlas peers establish authenticated encrypted sessions, with key rotation and replay protection applied by the transport.
Nexus Atlas Traversal relays forward end-to-end encrypted frames without joining the inner Atlas mesh trust boundary.
An Atlas mesh relay decrypts one protected hop, makes the forwarding decision and re-encrypts toward the next hop. It is an authenticated participating node.
When installed on compatible existing compute, Atlas adds no dedicated enclosure, mounting, cabling or Atlas-specific hardware mass.
IP-capable links remain customer-selected. Adapters can bridge specialist radio and telemetry interfaces.
Additional independent paths strengthen the connection without replacing equipment that already works.
A programme can begin with its present compute and communications equipment, demonstrate the software boundary, then add links from other carriers, bearers or suppliers as the operational case requires.
These boundaries are part of the product case, not footnotes to hide after an evaluation starts.
The present daemon targets Linux compute. Android integration is an early implementation undergoing device validation.
Underlay endpoints can use IPv4 or IPv6, while the current inner logical data path remains IPv4.
Timing, throughput and recovery behavior depend on hardware, path conditions, policy and the impairment being tested.
These directions extend the current resilient overlay. They are not presented as generally available product capabilities.
An Android build exists and the core integration is underway. Device validation and operational testing remain before general availability.
Use Atlas’s global topology and mission objectives to advise compatible local mesh behavior through supported vendor interfaces.
Research GPS-synchronised—and eventually alternative-time-synchronised—airtime allocation and purpose-built IP mesh radios without weakening the vendor-neutral software core.
We will map the links, vendors, shared failure domains and integration boundary—and define what a useful demonstration or pilot should prove.