Buildings & HVAC
Temperature, humidity, indoor conditions and equipment status support building-management workflows. Identify the BMS interface, local controls and required trends.
Connected infrastructure
Bring buildings, utilities, mobility and energy into a clear monitoring architecture—from field measurements to the operations centre.
Explore tagged equipment across building services, utilities and communications. Select an instrument, drag through its trend and compare readings at the same moment.
AHU-201 · Building A. Select a sensor to inspect its trend. Filter pressure, fan demand and room conditions are separate points, not control commands.
Drag across the chart or move the time slider. Use arrow keys for precise selection.
TT-201 · Supply-air temperature sensor · 12:00 · 16.2 °C
Example maintenance advisory: review the filter differential pressure and the equipment maintenance schedule. Alarm limits and response procedures belong to the selected installation.
TR-101 · 400 V distribution board and PV-101 solar array. kW is instantaneous power; kWh is cumulative imported energy. Voltage peak is calculated as √2 × RMS for an ideal sine wave, not a measured transient.
Drag across the chart or move the time slider. Use arrow keys for precise selection.
PM-101 · Power analyzer · active demand · 12:00 · 128 kW
An example demand event helps an operator inspect the trend and connected load. It does not demonstrate savings, meter accuracy or an automatic load-control function.
Utility station 01 · From the booster pump through filtration to distribution. Flow, line pressure, filter DP and tank level retain separate tags and units.
Drag across the chart or move the time slider. Use arrow keys for precise selection.
FIT-101 · Electromagnetic flow meter · 12:00 · 12.6 m³/h
This example links a tank-level trend with an operator review. Sensor range, process suitability, alarm limits and independent protective functions are selected for the actual site.
District 01 · Separate cellular, LoRaWAN and NB-IoT links report to the operations center. Device 25 has a delayed report from 10:30. Network paths shown here are illustrative, not a claim of universal interoperability.
Drag across the chart or move the time slider. Use arrow keys for precise selection.
GW-101 · Cellular / GSM gateway · RSSI · 12:00 · -77 dBm
The example highlights a missing report for investigation. Check device power, time stamps and network coverage. NB-IoT, cellular and LoRaWAN require their own compatible device and network selection.
Example values only; this interface is not connected to equipment and does not issue control commands.
Define what each asset measures, how its readings travel and who needs to act on them. Select devices and integration around the operating requirement.
Temperature, humidity, indoor conditions and equipment status support building-management workflows. Identify the BMS interface, local controls and required trends.
Electricity meters and power analyzers track selected electrical parameters. Solar monitoring combines inverter, meter and site data through supported interfaces.
Parking occupancy sensors and gateway coverage provide the input for availability monitoring. Define detection method, reporting intervals and integration needs.
Flow, pressure, tank level and leak-detection requirements connect utility assets to the monitoring view. Match the device to the medium and installation.
NB-IoT, LTE-M, cellular/GSM and LoRaWAN are different connectivity options. Check operator support, coverage, bands, power and payload needs; select compatible gateways and data loggers.
Consolidate authorised readings into dashboards, trends and alerts. Define device identities, retention, access roles, network segmentation and BMS/platform interfaces.
Monitoring links do not replace local safety controls. Protocols, gateways and platforms must be checked together for the selected devices and network.
Coordinate the compressor, treatment train and distribution network around actual demand, pressure and required air quality.
Compressor, aftercooler, water separator and receiver sized for demand and duty.
Select particulate and coalescing protection for the dryer and downstream process.
Choose refrigerated or desiccant drying for the required pressure dew point and operating conditions.
Where required, remove dryer dust and select final filtration for the process.
Ring main, isolation valves, drops, drains, couplings and hoses matched to pressure, flow and installation.
Confirm local pressure and air-quality requirements for each machine, tool and process.
Illustrative arrangement; the final filter sequence, receiver locations and treatment depend on equipment instructions and the application. Collect and treat condensate separately. Food-contact air requires a defined and verified purity specification.
System design considerations
Meters and sensors measure electricity, water, flow, pressure and level. Measurement principle, process conditions and configuration define the starting point.
Metering · Sensing · Process interfaces
Devices transfer readings through an appropriate interface or gateway. NB-IoT, LTE-M, cellular/GSM and LoRaWAN are connectivity options whose suitability depends on the device, network and site.
Interfaces · Gateways · Network coverage
The receiving system organises device identities, readings and integration interfaces. Data ownership, access and the required connection to other systems belong in the design brief.
IoT / IIoT · Integration · Data management
Dashboards, trends, alerts and analytics turn the available measurements into useful operational information. Asset visualisation and digital-twin requirements need a defined data and system scope.
Dashboards · Alerts · Analytics
Application guidance describes system requirements. Exact compatibility, approvals and deliverables depend on the selected equipment and agreed project scope.
Application context
Connect flow and utility water metering with pressure, level and leak-detection requirements. Define the medium, installation, reading interval, power source and communications path. Metering technology and network design remain separate selections.
Bring electrical measurement into a monitoring architecture. Identify the electrical system, measurement point, required parameters and transformer inputs, then define the interface and destination for the readings.
Water and power networks, meters, sensors and gateways form the field layer of connected buildings and city systems. A useful brief identifies each measurement point and follows its information through communications to the platform and operator view.
Combine process measurements with plant context. Pressure, temperature, flow and level signals may serve different systems, so process suitability, communications and access requirements must be checked for the actual devices and installation.
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