IoT Energy & Utilities

IoT Energy & Utilities

IoT Energy & Utilities meter telemetry for water, gas and power across distributed estates, including basements, underground chambers and remote sites where cellular is unreliable.

Meter telemetry control panel: 433.868 MHz low-power active RFID cadence, gateway routing, and accurate reads from long-life battery devices, with no SIM on the meter, built for shielded and below-ground infrastructure.

IoT Energy & Utilities

433.868 MHz active RFID tags, gateway relays, and operator acknowledgements across district meters.

RUNNING01:22
RFID 10,199/minTrackers 726Noise floor 44 dBLink margin 20 dBPRV Normal
Threshold 65
LOWHIGH
PUMP STATIONPRV CHAMBERMETER DISTRICTSTREET CABINETOPS HUB433.868 receive
Focus
Overview
District-wide health and cadence
BASELINE433.868RFID
Deterministic, no randomness.
Hover previews. Click zones to lock focus.

Meter telemetry

Primary: Baseline
Risk
18
Flow
100.0 m³/h
Pressure
4.19 bar
Consumption
1893 m³/day
Leak index
24
Battery margin
437 days
Link margin20 dB
Response SLA03:00
Trend
Flow + pressure
RSSI -77 dBm, Noise 44 dB
RF rings show 433.868 cadence. Packets appear only when traffic happens. Downlink acks prove command capability.

Recent events

00:00:41info
DMA: loss model stable, leak index low
00:00:33info
Pump station: flow within band, vibration baseline set
Reduced-motion stops continuous ticks. Buttons still work.

IoT Energy & Utilities

Operational visibility built for IoT Energy & Utilities estates

IoT Energy & Utilities operators manage infrastructure that must work continuously under harsh conditions: substations, pump stations, valve chambers, depots, treatment assets, and distributed sites with limited access. The operational challenge is maintaining dependable visibility into what is happening across these estates between inspections and planned maintenance windows, while ensuring safety, compliance, and resilience under real-world constraints.

Traditional monitoring covers part of the picture, but gaps remain where assets are remote, power is constrained, and access is infrequent. Incidents often begin as small signals: abnormal heat, moisture ingress risk, vibration drift, unexpected access, and equipment movement. When visibility is fragmented or delayed, operators lose time in triage and spend more on reactive callouts. A workable solution must be low power, coverage-first, and designed for field conditions rather than ideal connectivity.

Squared Technologies provides a network-first sensing layer built for real estates. Gateways establish dependable coverage and low-power tags and sensors deliver predictable observations with practical cadence. This adds an operational layer across distributed infrastructure: asset presence, state change cues, and environmental conditions where independent telemetry improves response. The goal is consistent signals that help engineers and operations teams act earlier and with more certainty.

High-value outcomes come from exception signals. Abnormal access patterns, unexpected movement, and state changes outside defined windows are surfaced immediately. Environmental cues can highlight thermal drift, humidity exposure, or conditions that correlate with failure before alarms escalate. By focusing on high-signal exceptions, teams reduce alert fatigue and prioritise interventions that protect safety and continuity of service across large footprints.

Evidence matters in energy and utilities. When incidents occur, operators need defensible narratives for investigation, regulatory assurance, and contractor accountability: what happened, when it started, and what was observed before and after. Evidence-grade telemetry provides timestamps, provenance, and context that reduce dispute resolution time and strengthen governance. This supports both operational decision-making and long-term resilience planning.

Deployment must match infrastructure reality. Installations need to be practical in remote sites, serviceable, and capable of long-life operation with low overhead. Integration is treated as mandatory: signals should support existing maintenance and response workflows without tool sprawl. Once stable, thresholds and reporting can be standardised across regions and asset classes to create repeatable assurance and measurable improvement.

IoT Energy & Utilities deployments begin with a representative pilot across a selection of remote and accessible sites. Constraints are captured, coverage and cadence validated, and acceptance criteria agreed. Once proven, scaling becomes systematic: extend coverage, tag priority assets, add sensors where they drive outcomes, and tune alerts around operational rhythms. The result is continuous, evidence-backed visibility that reduces time-to-triage and strengthens resilience across energy and utilities estates.

Remote estate coverageEarly fault cuesAccess anomaliesEvidence trailsLow-power sensing

IoT Energy & Utilities

Key benefits of IoT Energy & Utilities

  • IoT Energy & Utilities signals engineered for operations, not noise.
  • Evidence-grade telemetry to support investigation, assurance, and audit.
  • Exception-first alerts aligned to dispatch and maintenance workflows.
  • Coverage-first design for remote sites with constrained access and power.
  • Predictable cadence tuned to asset criticality, not data vanity.
  • Time-aligned evidence trails for contractors and incident analysis.
  • Standardised reporting once stable across regions and asset classes.
  • Practical integration into response workflows without tool sprawl.

IoT Energy & Utilities

Make an IoT Energy & Utilities enquiry

Share the environment, failure modes, and outcome. We will propose a practical approach and a pilot plan.

  • Engineer-led feasibility review
  • Coverage and power sanity-check
  • Pilot plan with acceptance criteria