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ProSense Solutions and Acrel in Australia for Data Center and Microgrid Power Monitoring

Aug 30
9 min read

Power monitoring is no longer a back-of-switchboard task. In data centres, renewable energy sites, microgrids, industrial plants, and medium-voltage networks, electrical data now shapes uptime, safety, energy cost, and maintenance planning.


ProSense Solutions and Instruments supports this shift by stocking, supplying, and engineering Acrel solutions for Australian projects. That role matters because electrical monitoring is rarely a single product purchase. A well-designed system needs the right meters, gateways, software, protection devices, power-quality equipment, and integration support so the site team can trust the data and act on it.


Acrel’s range covers low-voltage metering, circuit monitoring, power-quality analysis, harmonic correction, asset protection, data-centre monitoring, microgrid control, and medium-voltage monitoring packages. ProSense brings those components into practical Australian applications, from rack-level monitoring through to renewable energy integration.


Wide-angle view of electrical monitoring panels inside a data centre power room
Data centre power systems need clear visibility from incoming supply to final circuits.

Acrel components support the electrical layer behind modern data centres


A data centre electrical system is layered. It includes incoming mains, generator or backup systems, UPS distribution, switchboards, busways, rack PDUs, cooling plant, and supporting mechanical loads. Each layer creates data that helps operators understand load, capacity, risk, and power quality.


Acrel components fit across these layers through devices such as:


  • DIN-rail energy meters for compact circuit and distribution monitoring

  • Multifunction power meters for switchboards and main incomers

  • Power-quality analysers for harmonic, voltage, current, and event monitoring

  • Gateways for collecting field data and sending it to software platforms

  • Active harmonic filters for correcting harmonic distortion

  • Motor protectors for pumps, fans, and mechanical equipment

  • Wireless temperature monitoring for electrical joints, busbars, and cable connections

  • Software platforms for metering, reporting, alarms, and energy management


For Australian facilities, the value sits in the full package. A meter alone shows a reading. A designed monitoring system shows what is happening across the site, alerts the right team when limits are exceeded, and gives engineers the data needed to plan upgrades before capacity becomes a problem.


ProSense’s role is to help match the Acrel product set to the real electrical architecture on site. That includes selecting compatible meters, designing communications networks, supporting installation requirements, and helping shape the software view so the system reflects the way the facility is operated.


Circuit monitoring starts with the right meter in the right place


Circuit monitoring gives facility teams visibility at the level where many problems begin. A main incomer measurement is useful, but it does not explain which tenant, rack row, mechanical load, or distribution board is driving demand.


Acrel DIN-rail meters are well suited to panel-level and branch-circuit applications because they are compact and can be installed in distribution boards where space is limited. They are commonly used to monitor:


  • Final sub-circuits

  • Tenant supplies

  • Mechanical services boards

  • Lighting and small power boards

  • UPS output circuits

  • Renewable or storage connections


Multifunction meters suit larger switchboard positions where more detailed electrical information is needed. These meters can monitor key values such as voltage, current, power, energy, frequency, power factor, and demand. Depending on the project requirements and model selection, they may also support communication with wider monitoring systems.


The practical design question is not simply, “How many meters are needed?” It is, “Which circuits matter enough to measure?”


In a data centre, that may include UPS inputs and outputs, cooling plant, major distribution paths, and high-density rack zones. In a microgrid, it may include solar generation, battery inverter connections, grid import and export, generator supply, and critical load feeders.


ProSense can support that selection process by interpreting the single-line diagram, identifying metering points, and matching Acrel hardware to the electrical and communication requirements.


Close-up view of DIN-rail power meters installed in a low-voltage distribution board
DIN-rail meters make circuit-level monitoring practical in compact switchboards.

Site energy monitoring connects many meters into one clear system


A site-wide electrical monitoring system becomes useful when individual meters feed into a central platform. Acrel systems can combine multiple meters, an ANET gateway, and monitoring software to collect, organise, and display energy data.


The ANET gateway acts as the link between field devices and the upper-level software environment. In many electrical monitoring projects, meters communicate over industrial protocols such as RS-485 and Ethernet-based networks. The gateway helps collect that data and pass it to the software layer in a usable form.


A typical site energy monitoring arrangement may include:


  • Multiple DIN-rail and multifunction meters across switchboards

  • Current transformers matched to each load size

  • Communication cabling or network connections

  • ANET gateway hardware

  • Acrel or integrated monitoring software

  • Alarm settings for demand, power factor, voltage, or abnormal conditions

  • Trend screens and energy reports


This layout supports more than monthly billing checks. It helps operations teams see load changes over time, compare areas of the site, and spot unusual energy use. For example, a cooling load that rises outside normal operating patterns may point to control issues, dirty filters, equipment degradation, or seasonal changes that need attention.


For multi-building sites, industrial facilities, and data centres with staged expansion plans, this level of monitoring supports capacity management. Teams can see whether electrical infrastructure is being used evenly or whether one board, transformer, or UPS path is carrying more load than expected.


Power-quality analysis helps explain failures that energy data cannot


Energy meters show usage. Power-quality analysers explain the electrical conditions behind that usage.


Poor power quality can create nuisance tripping, overheating, transformer stress, capacitor bank issues, motor problems, UPS alarms, and reduced equipment life. In data centres and microgrids, these problems can be hard to diagnose because loads change quickly and many electronic devices inject harmonics into the system.


Acrel APView500 analysers support power-quality analysis by monitoring electrical parameters and helping identify conditions such as:


  • Harmonic distortion

  • Voltage dips and swells

  • Current imbalance

  • Frequency variations

  • Power factor issues

  • Transient or event-related disturbances, depending on configuration

  • Load behaviour during switching events


Harmonic monitoring is especially relevant where a site uses variable speed drives, UPS systems, rectifiers, inverters, LED lighting, EV chargers, or other non-linear loads. These loads can distort current waveforms and affect the wider electrical system.


For data centres, harmonic data can help engineering teams understand how UPS systems, power supplies, and cooling equipment interact with the distribution network. For renewable and microgrid sites, it helps assess inverter behaviour and the quality of supply delivered to critical loads.


ProSense can assist with the practical side of analysis, including where to place analysers, how long to monitor, which parameters need attention, and how results can guide correction equipment or design changes.


Power-quality correction reduces electrical stress


Finding a power-quality issue is only the first step. Correction equipment may be needed when harmonic distortion or poor power factor creates ongoing risk.


Acrel ANAPF active harmonic filters are designed to reduce harmonic currents in low-voltage electrical systems. They detect harmonic content and inject compensating current to help improve waveform quality. Compared with passive filtering, active harmonic filters can suit sites where load profiles change during the day or where multiple non-linear loads operate together.


Common applications include:


  • Data centre UPS and distribution systems

  • Variable speed drive installations

  • Industrial process lines

  • Commercial buildings with large electronic loads

  • Renewable energy and inverter-connected systems

  • Sites with sensitive electrical equipment


Power-quality correction can help reduce transformer heating, cable stress, nuisance alarms, and unwanted interaction between electrical devices. It can also support compliance goals where power-quality limits form part of utility or internal engineering requirements.


The best correction method depends on the measured problem. A site with harmonic distortion may need active filtering. A site with poor displacement power factor may need power factor correction. A site with voltage instability may need a different engineering response. This is where product supply and engineering support need to work together.


Eye-level view of an active harmonic filter cabinet connected to switchboard equipment
Active harmonic filters help manage harmonic distortion from modern electrical loads.

Electrical asset protection extends monitoring beyond energy use


Electrical monitoring should protect equipment as well as measure consumption. Acrel’s asset protection solutions include motor protection devices and wireless temperature monitoring systems that support early warning and fault prevention.


Motor protectors are valuable for loads such as:


  • Cooling pumps

  • Fans

  • Compressors

  • Conveyors

  • Water treatment equipment

  • Industrial process motors


These devices can help monitor current-related conditions and protect against common motor faults such as overload, phase loss, imbalance, and locked rotor conditions, depending on the device and settings. In facilities where mechanical services support critical operations, motor protection can reduce the chance of a minor electrical fault becoming an outage.


Wireless temperature monitoring targets another common risk area: heat at electrical connections. Loose joints, overloaded conductors, ageing terminals, and poor contact surfaces can create local temperature rise before a failure occurs.


Temperature sensors can be installed at high-risk points such as:


  • Busbar joints

  • Cable terminations

  • Circuit breaker contacts

  • Transformer connections

  • Switchgear compartments

  • Critical distribution boards


The benefit is early detection. Instead of relying only on scheduled thermal imaging, a wireless temperature system can provide ongoing monitoring and alarms. For data centres, industrial facilities, and medium-voltage systems, that can support safer maintenance planning and reduce unplanned shutdowns.


Data-centre power monitoring protects uptime and capacity


Data-centre power monitoring systems need to do more than report energy totals. They support uptime, capacity planning, redundancy checks, and operational accountability.


A well-designed Acrel-based data-centre monitoring system can help track:


  • Incoming supply quality

  • Generator and UPS paths

  • Main switchboard loading

  • Power factor and harmonics

  • Distribution board loads

  • Rack or row-level energy use

  • Cooling power consumption

  • Temperature risk in electrical equipment

  • Alarms for abnormal electrical conditions


This data helps answer practical operational questions.


Is one supply path carrying more than expected? Is there enough capacity for a new rack deployment? Did a cooling load change after a controls adjustment? Are harmonics increasing as IT load grows? Is a switchboard connection getting hotter over time?


Without clear monitoring, teams may rely on manual checks, isolated BMS points, or supplier reports that do not show the full electrical picture. With properly placed meters, gateways, software, and analysis equipment, the power system becomes visible from the service entrance down to key downstream circuits.


ProSense’s engineering role is valuable here because data-centre environments demand careful planning. Metering must fit into existing boards, communication networks need to be reliable, and alarms must be useful rather than noisy. The system should support operators, not bury them in readings.


Microgrid and renewable energy systems need coordinated visibility


Microgrids and renewable energy systems add new complexity to electrical monitoring. Power may come from the grid, solar PV, batteries, generators, or other distributed energy resources. Loads may shift between sources based on tariffs, weather, demand, resilience needs, or control strategies.


Acrel solutions, including ACREL-2000MG integration, can support microgrid monitoring and management by bringing electrical data into a coordinated software environment. The system can help monitor energy flow between generation, storage, grid connection, and loads.


Typical monitored points may include:


  • Grid import and export

  • Solar inverter output

  • Battery energy storage system input and output

  • Generator supply

  • Critical load feeders

  • Non-critical load groups

  • Power quality at the point of common coupling

  • Site demand and energy balance


For renewable-heavy sites, monitoring supports both performance and reliability. A solar system may generate well, but the site still needs to understand when power is exported, when batteries charge or discharge, and how critical loads behave during grid events.


ACREL-2000MG can form part of that visibility layer by helping present microgrid operating data in a way that engineering and operations teams can use. When paired with suitable meters, gateways, protection devices, and power-quality equipment, the platform can support day-to-day control decisions and longer-term planning.


For Australian sites with rising energy costs, resilience targets, and increasing renewable uptake, microgrid monitoring is becoming a core electrical requirement rather than an optional extra.


High-angle view of a microgrid control panel connected to solar inverter and battery equipment
Microgrid monitoring links generation, storage, grid supply, and site loads.

Medium-voltage monitoring completes the electrical picture


Many large facilities cannot stop their monitoring at low voltage. Data centres, industrial plants, renewable energy sites, and embedded networks often include medium-voltage infrastructure such as transformers, ring main units, protection equipment, and incoming feeders.


Acrel medium-voltage monitoring packages can support visibility across this higher-risk part of the network. These packages may include metering, protection, temperature monitoring, and communication equipment suited to the project design and switchgear arrangement.


Medium-voltage monitoring can help track:


  • Feeder load

  • Transformer operating conditions

  • Electrical parameters at incoming supply points

  • Switchgear temperature

  • Fault and alarm signals

  • Power-quality conditions upstream of low-voltage distribution

  • Energy use across large site sections


This level of monitoring helps connect the full electrical chain. If a power-quality issue appears at a low-voltage board, upstream medium-voltage data may help confirm whether the problem originates within the site or from the incoming supply. If transformer load rises over time, trend data can support upgrade planning before capacity becomes constrained.


For critical facilities, the ability to watch both low-voltage and medium-voltage assets in one monitoring strategy gives engineering teams a clearer view of risk.


ProSense’s value is in supply, stock, and engineering fit


Acrel manufactures a wide range of electrical monitoring and protection products. ProSense Solutions and Instruments helps make those products practical for Australian projects by supporting the full path from selection to engineered application.


That support can include:


  • Product supply from stocked Acrel ranges

  • Meter and device selection based on electrical drawings

  • Guidance on communication architecture

  • Support for gateway and software planning

  • Assistance with power-quality monitoring strategy

  • Selection of harmonic correction equipment

  • Advice on asset protection and temperature monitoring

  • Integration planning for data centres, microgrids, and medium-voltage systems


The result is a more complete approach to power monitoring. Instead of treating energy meters, power-quality analysers, harmonic filters, and asset protection devices as separate purchases, ProSense helps connect them into a system that reflects the site’s real operating needs.


For data centres, that means better visibility of uptime risk and capacity. For microgrids, it means clearer control of generation, storage, and loads. For medium-voltage systems, it means earlier warning of stress, faults, and abnormal conditions.


Electrical infrastructure is becoming more complex across Australia. Sites are adding more electronic loads, more renewable connections, more data requirements, and more pressure to reduce unplanned downtime. Acrel’s product range gives engineers the tools to measure, analyse, correct, and protect. ProSense helps turn those tools into working systems that suit Australian electrical projects.


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