What Locata provides

Locata's flagship technology is LocataNet: a synchronized network of ground-based transceivers (called LocataLites) that broadcast GNSS-like ranging signals in unlicensed bands. Receivers compute position from time-of-arrival measurements against the LocataLite constellation in much the same way they would against GPS satellites, but with two structural advantages. First, the geometry is local and tunable, LocataLites can be placed to optimize dilution-of-precision for a specific site rather than accepting whatever satellite geometry is overhead. Second, the signals are far stronger at the receiver than satellite signals, which makes them robust against jamming and against the multipath environments that defeat GNSS in mines, ports, and dense industrial sites. The result is centimeter-class positioning under conditions where GPS delivers nothing usable.

The deployment model is site-specific by design. Each customer installation is a discrete LocataNet: surveyed transmitter locations, time-synchronized infrastructure, calibrated propagation environment, and Locata-maintained operations. Defense customers, most visibly the U.S. Air Force at White Sands Missile Range, operate LocataNets as GPS-denied test infrastructure. Commercial customers in mining and heavy industry operate LocataNets as production positioning for autonomous haul trucks and machine guidance. Selected indoor and infrastructure customers operate smaller LocataNets where GNSS will not penetrate. In every case, the precision lives inside the surveyed envelope of a specific deployment. Cross-site composition and cross-modality integration face friction at the site boundary because the boundary is structural to the architecture, not a software limitation.

Where the architectural axis differs

LocataNet's surveyed, per-site model is a deliberate engineering choice that buys its precision: known transmitter geometry and strong local signals are exactly what deliver centimeter-class fixes. The tradeoff, inherent to any operator-installed pseudolite network, is that precision lives inside the surveyed envelope of each deployment, and each site carries its own infrastructure: transmitter procurement, survey, installation, time-sync provisioning, and ongoing maintenance. A receiver that leaves LocataNet A and enters LocataNet B is, from the network's point of view, running two separate positioning sessions, because the LocataNet architecture does not, on its own, admit ranging contributions from passive markers, UWB anchors, optical features, or neighboring receivers into the same position solution. This is not a defect in Locata's engineering; it is a property of the pseudolite-network category.

Multi-modality cooperative ranging occupies a different point in the design space. Locata-class precision becomes one modality contribution rather than the entire positioning architecture. Cooperative ranging composes Locata with passive markers, UWB anchors, optical landmarks, inertial propagation, and peer receivers under a shared geometric framework. The result is positioning that retains Locata-precision inside the LocataNet envelope, degrades gracefully at the boundary instead of collapsing, and remains usable across sites that do not justify the capital expense of a full LocataNet. Locata's product trajectory benefits from architectural integration because integration is what extends its precision beyond the surveyed envelope without requiring Locata to install transmitters at every site that wants centimeter-class positioning.

How the architectural primitive composes with Locata

The mesh-coordinates primitive treats Locata as one credentialed precision modality alongside markers, UWB, optical features, and inertial propagation. The composition layer is geometric, not protocol-specific: any modality that can produce a ranged or bearing observation against a registered reference contributes to the position solution. LocataNet contributes its high-precision time-of-arrival observations where the receiver is inside the surveyed envelope; markers contribute survey-grade position fixes where they are visible; UWB anchors contribute short-range ranging; optical features contribute bearing constraints; peer receivers contribute relative range. The position solution composes whatever observations are available, weighted by their credentialed precision, into a single estimate. As disclosed in the filing, the primitive determines agent positions through multilateration from admitted range observations and anchor positions, propagates ranging covariance into per-position uncertainty, extends coverage transitively through neighbor references when direct-anchor ranging is insufficient, rejects spoofed or injected range observations before they enter the solution, and federates independently maintained coordinate systems into an aligned frame.

Locata's existing customer deployments continue unchanged under this model. The composition layer sits above the LocataNet, it consumes LocataNet observations as inputs rather than replacing the network, and extends positioning continuity across the site boundary. Defense customers gain a positioning fabric that does not collapse when a unit moves from a LocataNet-instrumented range into the surrounding terrain. Mining customers gain composition between LocataNet-instrumented pits and the haul roads, processing facilities, and adjacent operations that do not justify their own LocataNets. Multi-site industrial customers gain a single positioning architecture across sites with mixed instrumentation. Smart-infrastructure customers gain Locata-class precision through marker-based mesh in the segments where pseudolite installation is impractical.

Where the adoption path goes

Locata's competitive position benefits from adopting the composition as part of its product line rather than treating it as a parallel architecture. The pseudolite network remains the precision anchor; the composition layer extends that precision across the operating envelope of customers who increasingly need positioning that survives transitions between instrumented and uninstrumented terrain. Existing customers, mining, defense ranges, industrial yards, selected indoor, gain improved cross-site operations without replacing their LocataNets. Emerging customer bases, multi-site industrial, contested-environment defense, smart-infrastructure rollouts, gain Locata-class precision through composed mesh in segments where a full LocataNet is uneconomic.

The filing positions the cooperative composition at exactly where Locata's product roadmap and cross-site positioning needs converge. Defense operations gain Locata-class precision with multi-modality resilience against single-network compromise. Commercial operations gain a positioning architecture that scales by composition rather than by per-site capital expense. The architectural element above Locata is not a competitor to LocataNet; it is the layer that lets LocataNet precision travel beyond the boundary where the network ends.

The distinction is not transmitter quality, signal design, or survey precision; Locata is strong on those axes. The distinction is the architectural primitive that lets any credentialed precision modality participate in a composed position solution alongside other modalities, with cross-site continuity as a structural property of the coordinate frame rather than a per-deployment integration project. A pseudolite network alone, however well engineered, still addresses positioning inside a surveyed envelope; the mesh-coordinates primitive addresses positioning as a governed, credentialed frame that composes across modalities and sites. The two are complementary layers, and the natural adoption path treats a surveyed pseudolite network as one high-precision anchor within the composed frame.

Disclosure scope

The architectural approach described here, cooperative inter-agent and marker-based ranging, multilateration into a governed coordinate frame, per-position uncertainty propagation, transitive localization, adversarial-range rejection, evidential fusion with external positioning sources, and cross-system coordinate federation, is disclosed in U.S. Provisional Application No. 64/049,409. A skilled implementer can build this approach from that disclosure. Embodiments contemplated in the filing include, without limitation: radio-frequency, ultra-wideband, optical, acoustic, and inductive ranging modalities; passive markers, deployable reference nodes, UWB anchors, optical landmarks, inertial propagation, and peer receivers as observation sources; anchor-less relative-frame bootstrap where no anchors are available; on-demand reference-node densification (hand-placed, drone-positioned, airdropped, vehicle-deployed); and fusion with satellite navigation, inertial dead-reckoning, and visual-inertial odometry through a composite admissibility evaluator.

All statements in this article about Locata, LocataNet, LocataLites, and their deployments are external market and technical context based on publicly reported information about those products; they are not claims of the filing, and they are provided to situate the disclosed invention, not to characterize any third party's roadmap. The scope of the invention is defined by U.S. Provisional Application No. 64/049,409 and any application claiming priority to it.