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Nexus Observatory

Digital twins: a real site and its live twin side by side, updated from the same telemetry. The loop, step by step: 1. A site and its twin, kept in step. 2. Sensors on the real tower report its state. 3. Each reading is stamped with time and place. 4. The state reaches the twin’s edge. 5. Relays carry the packets without reading them. 6. The edge verifies every signature first. 7. The twin updates and runs a what-if. 8. Only a confirmed result leaves the edge. 9. A storm forecast raises the wind load. 10. The twin warns of the load on the mast. 11. The console shows the evidence with the alert. 12. The team tightens a guy wire in advance. 13. Sensors check that the response worked. 14. Record, proof and action are archived together. 15. Everything settles back to idle.

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A site and its twin, kept in step

Nexus Observatory

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Digital twins and simulation
Model the site before you build it.

Site twins measured in 3D, network twins that predict coverage, power and timing, Earth twins on real elevation and live observations, and scenario simulation that tests a plan against flood, heat, load and failure before a contract is signed.

Plan with usReference architectureThe open protocol

At a glance

Model the site before you build it

Digital twins and simulation delivers site twins measured in 3D, network twins that predict coverage, power and timing, Earth twins on real terrain and live observations, and scenario simulation before a contract is signed. The twin is built from measurements and kept current by the network it helped to design.

The problem

Plans tested before the flood

Networks and infrastructure are usually designed on maps and assumptions, then tested by a real flood, heatwave or failure. By then the money is spent. Testing a design against flood, heat and failure in a model costs a fraction of discovering its weaknesses in the field.

Components

  • Pole-mounted edge gateway node
  • Radar stream gauge on a road bridge
  • Automatic weather station (AWS) to WMO siting practice
  • Groundwater monitoring well
  • Water-quality monitoring station
  • Private LTE mast on a solar skid
  • "AI tower in a box"
  • Data hall row pair with cold-aisle containment

Interfaces

Instruments
SDI-12 · RS-485 / Modbus RTU · 4–20 mA
Radio
Ethernet · LTE-M / NB-IoT · LoRaWAN
Time and position
GNSS 1PPS
Security
TPM 2.0
Publishing
MQTT

Where it works

  • Coverage, capacity, power and timing, simulated

In the story below

  1. The system, part by part
  2. Assembly
  3. Installation
  4. Deployment
  5. Connections
  6. Operation
  7. Failure and recovery
  8. Scale and federation
  9. What you get

Scenes · 16

Next steps

Open the Field Deployment StudioPlan a deploymentTalk to salesSee Site twins
  1. The problem

    Plans tested before the flood

    Networks and infrastructure are usually designed on maps and assumptions, then tested by a real flood, heatwave or failure. By then the money is spent. Testing a design against flood, heat and failure in a model costs a fraction of discovering its weaknesses in the field.

  2. What it does

    Model the site before you build it

    Digital twins and simulation delivers site twins measured in 3D, network twins that predict coverage, power and timing, Earth twins on real terrain and live observations, and scenario simulation before a contract is signed. The twin is built from measurements and kept current by the network it helped to design.

  3. Installation

    Digital twins and simulation: installed on site

    The crew brings the tested digital twins and simulation kit: foundation, mast raised and guyed, instruments mounted, cables in conduit, the site commissioned.

  4. Deployment

    Digital twins and simulation: site after site, one design

    The same digital twins and simulation station goes in at every site on the plan, each commissioned against the same checklist.

  5. Wiring

    Digital twins and simulation: signal, power and time, wired

    Inside one digital twins and simulation site, the signal pair runs to the logger, solar charges the battery, GNSS time reaches the clock.

  6. Network twins

    Coverage, capacity, power and timing, simulated

    Radio coverage, link budgets, power autonomy and timing budgets are simulated for each candidate design, so the plan is chosen on predicted performance. The predictions are checked against measurements after installation, and the twin is corrected where it was wrong.

    See Network twins
  7. Connections

    Digital twins and simulation: backhaul, time and power

    The relay carries every digital twins and simulation site to the edge, the grandmaster time reaches every clock, and each site keeps its power through the night.

  8. Earth twins

    Terrain and water on live observations

    Terrain, hydrology and atmosphere are modelled on the real ground and kept current by live observations from the network, so the twin drifts with reality instead of away from it. Model results are checked against what the network observes, and the differences become the next improvement.

    See Earth twins
  9. Planning

    From the twin to a plan you can tender

    The chosen design is exported as drawings, bills of materials and acceptance criteria a contractor can build from and be measured against. Acceptance criteria come from the same model, so a contractor knows exactly what will be measured at handover.

    See Planning
  10. Operations

    The twin as the operating picture

    Once built, the network feeds the twin, and the twin becomes the operating picture: what is happening, what the model expected, and where they disagree. Operators see the predicted and the observed side by side, so a divergence is noticed before it becomes a problem.

  11. Scenario simulation

    Floods, heat, load and failure, run first

    Scenarios stress the design: a flood that cuts a road, a heatwave that drains batteries, a link that fails at the worst moment. Weak points are fixed in the model, not on the night. Each scenario is recorded with its assumptions, so the decision it informed can be reviewed later.

    See Scenario simulation
  12. Site twins

    The site in 3D, measured

    Drone and ground surveys produce a measured model of the site, so masts, cables and access are planned on the real ground rather than on a sketch. Every measurement in the twin has a date and a source, so it is clear which parts are surveyed and which are assumed.

    See Site twins
  13. Keeping it current

    A twin that is updated like software

    Survey updates, new observations and model improvements are released to the twin as versions, each with its inputs and its validation recorded. Users can compare any two versions, see what changed and why, and roll back to the last validated twin if a new input turns out to be wrong.

  14. How it scales

    One site, a catchment, a region

    Twins compose: a site twin sits in a catchment twin, which sits in a regional one. Adding a site adds detail where it matters without rebuilding the whole. Each layer is updated by the observations made inside it, so the twin stays current as the network grows and the region changes.

  15. What you get

    Studies and twins, under contract

    Simulation methods with worked examples and open terrain and grid layers are public. Drone survey and 3D site twins, network planning studies and scenario studies are contracted. Studies are priced per site and per scenario, and the models remain yours after delivery.

    Talk to sales
  16. Next step

    Start in the Field Deployment Studio

    Model coverage, power and timing on real terrain in the Field Deployment Studio, or bring us the site and the scenarios that worry you. The first study comes back with the twin, the scenarios tested and the design they recommend, and it builds the twin your network will run on.

    Open the Field Deployment StudioPlan a deployment

01 · What this platform covers

Digital twins and simulation, area by area.

Choose an area for its systems, standards, the industries it serves and how we deliver it.

01

Site twins

The site in 3D, measured to scale.
02

Network twins

Coverage, capacity, power and timing, simulated.
03

Earth twins

Terrain, hydrology and atmosphere, on live observations.
04

Scenario simulation

Floods, heat, load and failure, run before they happen.
05

Planning

From the twin to a plan you can tender.

02 · Built on the open protocol

One protocol under every platform.

Marked: the functions this platform leans on hardest. The protocol itself is open, so what you build here runs anywhere the protocol runs.

01 JOIN

02 ADMIT

03 DESCRIBE

04 TIME

05 OBSERVE

06 QUALIFY

07 FEDERATE

08 ORCHESTRATE

03 · Open and enterprise

Open by default. Enterprise by contract.

The open layer lives on the main site, free to use and build on. Enterprise services are delivered under contract by Nexus Observatory Inc.

Open, on the main site

  • Simulation methods with worked examples
  • Open terrain and grid layers

Enterprise, on this site

  • Drone survey and 3D site twins
  • Network planning studies
  • Scenario studies

04 · Industries served

The industries that build on digital twins and simulation.

Each industry has its own site: its use cases, its community and the enterprise path, with this platform among the systems behind it.

Industry CitiesThe city, measured block by block.Industry WaterEvery catchment, gauged.Industry NatureHabitat, measured without disturbing it.Industry AgricultureFarm decisions on measured ground.Industry EnergyThe grid edge, observed.Industry InfrastructureAssets that report their own condition.Industry MiningThe mine, measured from pit to tailings.Industry ResearchInstruments for science, run like infrastructure.Industry Insurance and financeIndependent measurements for risk transfer.

05 · Every platform

Every platform, one architecture.

One platform for each technical area of our work, on the same protocol, the same data and the same design.

Protocol & GridSoftwareHardware & powerSensors & instrumentsConnectivityEdge compute & AIEarth observation & GeoAIField servicesData & licensingSpace and satellite systemsPositioning, navigation and timingSecurity and trustDigital twins and simulationDesign and integrationTest and qualificationOperations centreTraining and enablementFrontier labs

Bring us the site.

We bring the survey, the design and the crew. Nexus Observatory Inc. The form names who receives your details.

Talk to usCreate account

More presentations

See it from every side.

Each opens as a full-screen presentation: deeper pages on the same subject, explainers, stories, guided tours of the places, network scenes and the observatories that came before.

All presentations for this page

In depth

Use case Utility grid-edge private LTE and wildfire weatherUse case Mine site private 5G and environmental monitoringISIC section · ISIC E Water supply; sewerage, waste management and remediation activitiesUse case Methane fenceline observatory

Explainers

Explainer · Environment and climate Environment and climate — SectorsMethane fencelines, acoustic biodiversity grids, flux towers, river sondes and smoke networks: an interactive explainer with the method behind every number.Explainer · Cities CitiesHybrid air-quality calibration, street-flood and heat sensing, privacy-first traffic counts and the city-wide radio layer.
Nexus Observatory/

Model the site before you build it.

Site twins measured in 3D, network twins that predict coverage, power and timing, Earth twins on real elevation and live observations, and scenario simulation that tests a plan against flood, heat, load and failure before a contract is signed.

false

Model the site before you build it

Digital twins and simulation delivers site twins measured in 3D, network twins that predict coverage, power and timing, Earth twins on real terrain and live observations, and scenario simulation before a contract is signed. The twin is built from measurements and kept current by the network it helped to design.

false

Plans tested before the flood

Networks and infrastructure are usually designed on maps and assumptions, then tested by a real flood, heatwave or failure. By then the money is spent. Testing a design against flood, heat and failure in a model costs a fraction of discovering its weaknesses in the field.

false

  • Pole-mounted edge gateway node
  • Radar stream gauge on a road bridge
  • Automatic weather station (AWS) to WMO siting practice
  • Groundwater monitoring well
  • Water-quality monitoring station
  • Private LTE mast on a solar skid
  • "AI tower in a box"
  • Data hall row pair with cold-aisle containment

false

false
SDI-12 · RS-485 / Modbus RTU · 4–20 mA
false
Ethernet · LTE-M / NB-IoT · LoRaWAN
false
GNSS 1PPS
false
TPM 2.0
false
MQTT

false

  • Coverage, capacity, power and timing, simulated

false

  1. false
  2. false
  3. false
  4. false
  5. false
  6. false
  7. false
  8. false
  9. false

false · 16

01 · What this platform covers

Choose an area for its systems, standards, the industries it serves and how we deliver it.

02 · Built on the open protocol

One protocol under every platform.

Marked: the functions this platform leans on hardest. The protocol itself is open, so what you build here runs anywhere the protocol runs.

03 · Open and enterprise

Open by default. Enterprise by contract.

The open layer lives on the main site, free to use and build on. Enterprise services are delivered under contract by Nexus Observatory Inc.

Open, on the main site
    Enterprise, on this site
      04 · Industries served

      Each industry has its own site: its use cases, its community and the enterprise path, with this platform among the systems behind it.

      05 · Every platform

      One platform for each technical area of our work, on the same protocol, the same data and the same design.

      Bring us the site.

      We bring the survey, the design and the crew. Nexus Observatory Inc. The form names who receives your details.