TECHNOLOGY · RIVVOR FABRIC

Make physical connectivity programmable

RIVVOR separates mechanical attachment from the high-speed data path. Modules remain securely mounted while data connections are established through controlled electromagnetic interfaces.

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Ultra-low latency

Single-hop, node-to-node, no switch buffers.

800+GBPS

Per-link throughput

Scales to more than 1 Tb/s at THz frequencies.

<5PJ/BIT

Power efficiency

Comparable to the most efficient optical I/O, with nothing to plug in.

10,000

Links per system

Self-healing multi-path mesh, with no connector to age.

Design targets, not measured production results. Feasibility is grounded in published sub-THz research, including IEEE Std 802.15.3d-2017 (100 Gb/s point-to-point PHY at 252–322 GHz).

Four RIVVOR compute racks with the fabric links inside each rack highlighted

Conventional

RIVVOR Fabric

Data interface

ConventionalMechanically mated high-speed connectors and cables.

RIVVOR FabricA controlled electromagnetic interface across a controlled gap.

Topology change

ConventionalManual recabling.

RIVVOR FabricChanged in software where the installed hardware supports multiple paths.

Module replacement

ConventionalTrace cables, disturb neighboring hardware, reseat connectors.

RIVVOR FabricReplace the module; the fabric detects, establishes and monitors its links.

Service

ConventionalHands-on routing, inspection and troubleshooting.

RIVVOR FabricLink-health monitoring and physical-path management.

Alongside

Every alternative still relies on a cable, fiber or physical mating interface. RIVVOR can operate alongside copper, optics and CPO as an additional bandwidth layer.

THE PRINCIPLE

Attachment and data, separated.

On the selected paths, high-speed data no longer depends on mechanically mated interfaces.

Compute enclosure with stacked modules and glowing electromagnetic corridors guiding signals between them

ARCHITECTURE · 01 / GUIDED

Electromagnetic corridors

Bounded Electromagnetic Corridors guide sub-THz signals through structural paths within compute pods and, where engineered for the deployment, between pods or racks. Modules couple to these paths across a controlled gap.

WITHIN PODS · POD-TO-POD · RACK-TO-RACK

Row of compute racks with directional sub-THz links shown as light paths between modules

02 / DIRECTIONAL

Spatial links

Directional sub-THz links establish direct or alternate spatial paths through an engineered enclosure, where geometry and endpoints are known.

DIRECT PATHS · ALTERNATE PATHS · ENGINEERED ENCLOSURES

A laptop displaying a dark-themed technical dashboard with charts and data metrics for telecommunications or network monitoring.

03 / MANAGED

Fabric control

Software establishes, calibrates and monitors available paths. Where the installed hardware supports multiple paths, connectivity can change without manual recabling.

ESTABLISH · CALIBRATE · MONITOR

Next step

See the fabric in your system.

Request a technology brief for detailed specifications, integration options and pilot terms.