Question 1

What is PowerGuard AI?

Accepted Answer

PowerGuard AI is an AI-driven electrical condition-monitoring platform that transforms switchboard maintenance from periodic inspection and corrective repair into continuous monitoring and predictive maintenance. It combines RFID thermal sensing, AI analytics, cloud dashboards, alerts, and a conversational AI assistant.

Question 2

What problem does PowerGuard AI solve?

Accepted Answer

It addresses the limitation of traditional switchboard maintenance, where issues are often discovered only during periodic inspections or after faults occur. Its objective is to inform Australian building operators before a power outage or electrical failure happens — not after the incident.

Question 3

Where can PowerGuard AI be applied?

Accepted Answer

Commercial buildings, government buildings, hospitals and healthcare, airports and transport, data centres, universities, industrial facilities, strata residential, capacitor banks and major electrical assets across Australia.

Question 4

What are the main benefits for owners and facility managers?

Accepted Answer

Earlier fault detection; reduced risk of unplanned outage; enhanced electrical and public safety; better maintenance prioritisation; visibility of asset condition; faster emergency response; support for ESG and NABERS reporting; scalable monitoring across building portfolios.

Question 5

Is PowerGuard AI tailored to Australian conditions?

Accepted Answer

Yes. BES adapts deployments for Australian climate (extreme heat, storms, cyclonic regions), AS/NZS standards, and the operating practices of local facility-management and electrical-contracting teams.

Question 6

What electrical assets can be monitored?

Accepted Answer

Busbar joints, ACB terminals, MCCB terminals, cable terminations, incomers, outgoing feeders, capacitor banks, neutral conductors and connection points inside LV switchboards. Passive RFID thermal tags are installed at key electrical connection points to capture internal switchboard temperature data.

Question 7

What makes RFID thermal sensing different from thermal imaging?

Accepted Answer

RFID thermal sensing provides continuous internal temperature monitoring at specific electrical connection points inside the switchboard. Thermal imaging is usually inspection-based and depends on manual scanning. PowerGuard AI supports ongoing online monitoring and early fault detection.

Question 8

Are the RFID thermal sensors wired?

Accepted Answer

No. PowerGuard AI uses wireless passive RFID thermal sensors with energy harvesting from UHF radio waves emitted by the RFID antenna installed inside the switchboard.

Question 9

Is PowerGuard AI suitable for existing buildings?

Accepted Answer

Yes. It is purpose-built for retrofit. Wireless sensors install at critical switchboard locations without rewiring, and the platform integrates with existing BMS/SCADA infrastructure.

Question 10

How does PowerGuard AI detect early electrical faults?

Accepted Answer

It learns the normal thermal behaviour of each sensing point and identifies abnormal temperature patterns — indicators of loose connections, phase imbalance, neutral stress, overload, poor ventilation or other developing switchboard issues.

Question 11

What is the Health Index?

Accepted Answer

A condition score combining multiple thermal and diagnostic indicators into a practical health assessment for sensing points, devices, switchboards or sites — helping engineers prioritise inspection and maintenance instead of relying on raw temperature alone.

Question 12

What indicators does PowerGuard AI use?

Accepted Answer

Measured temperature, ambient-adjusted temperature rise, expected temperature, residual temperature, abnormality score and risk-forecast probability — supporting early-fault detection, diagnosis and maintenance prioritisation.

Question 13

Does PowerGuard AI predict exact failure dates?

Accepted Answer

No. Its risk forecast estimates the probability of entering a high-risk condition within defined horizons (1, 6 or 12 months), rather than predicting a specific failure date.

Question 14

Is PowerGuard AI only a temperature-monitoring system?

Accepted Answer

No. Temperature monitoring is the sensing layer. PowerGuard AI also includes AI-based early fault detection, Health Index analytics, risk forecasting, cloud monitoring, alert notification, conversational AI with RAG, water-ingress monitoring and energy-management integration through EnergyOS.

Question 15

What alerts does PowerGuard AI provide?

Accepted Answer

Live dashboard alerts, email/SMS notifications, historical analytics and abnormal-condition notifications to designated technical staff.

Question 16

Does it support water-ingress monitoring?

Accepted Answer

Yes. PowerGuard AI includes integrated water-ingress/seepage monitoring for switchboards, reducing the risk of outage from leaks above or near electrical panels — relevant for Australian buildings exposed to severe storms and ageing hydraulic systems.

Question 17

What is the conversational AI feature?

Accepted Answer

PowerGuard AI includes a RAG-powered assistant that lets users ask natural-language questions, retrieve site-specific data, generate incident records and receive step-by-step emergency-handling advice.

Question 18

Can PowerGuard AI support smart loading control?

Accepted Answer

Yes. It can signal high-energy equipment such as chillers to reduce loading when high temperature is detected at relevant busbars or terminals — preventing fault escalation.

Question 19

Can PowerGuard AI integrate with existing BMS or SCADA systems?

Accepted Answer

Yes. PowerGuard AI is cloud-native and provides open APIs for integration with existing BMS, SCADA and IoT platforms commonly used in Australian buildings.

Question 20

Does it support multi-site monitoring?

Accepted Answer

Yes. The platform handles building portfolios and displays building-level condition information across multiple sites and states.

Question 21

How does it work with EnergyOS?

Accepted Answer

PowerGuard AI focuses on electrical safety, switchboard condition monitoring and predictive maintenance. EnergyOS focuses on energy analytics, abnormal consumption detection, opportunity identification and ESG support. Together they form an integrated smart-building intelligence platform.

Question 22

What is BES Passive Cooling technology?

Accepted Answer

It is a radiative cooling paint that passively rejects solar heat and emits thermal energy back into the atmosphere — without any energy input. Unlike conventional reflective paints, it operates across UV, visible and near-infrared (NIR) spectra while enabling mid-infrared emission for true sub-ambient cooling.

Question 23

How does it differ from conventional reflective paint?

Accepted Answer

Conventional reflective paints mainly target visible-light reflectance. BES Passive Cooling uses advanced radiative cooling principles to also reject UV and NIR, and to emit heat in the mid-IR atmospheric window — achieving surface temperatures below ambient even under direct sunlight.

Question 24

What performance can be expected?

Accepted Answer

Typical project benchmarks include around 95% solar reflectance, surface temperature reductions in the order of 40 °C versus uncoated substrates, and a Solar Reflectance Index (SRI) around 128 — translating into meaningful HVAC load reduction in Australian summer conditions.

Question 25

What is the TiO₂ nano coating for windows?

Accepted Answer

A nano-engineered titanium-dioxide coating applied to glazing that provides self-cleaning properties (photocatalytic + hydrophilic action) and additional solar control — reducing cleaning costs while improving thermal comfort and energy performance.

Question 26

Where can these technologies be applied?

Accepted Answer

Roofs and facades of commercial, industrial, healthcare, education and residential buildings; cool storage; transport infrastructure; and any glazing where reduced solar gain, lower cleaning frequency and improved occupant comfort are valued.

Question 27

Do these solutions require energy or maintenance?

Accepted Answer

No active energy input is required — cooling is passive. Coatings are highly durable and the nano window layer provides ongoing self-cleaning, significantly reducing manual maintenance compared with conventional surfaces.

Question 28

Can PowerGuard AI reduce unplanned downtime?

Accepted Answer

Yes. Early detection of abnormal switchboard conditions allows maintenance to be arranged before issues escalate into equipment failure, power interruption or safety incidents.

Question 29

Does PowerGuard AI replace maintenance staff?

Accepted Answer

No. It provides continuous monitoring, early warning, analytics and decision support so maintenance teams can act earlier, faster, and with better evidence.

Question 30

Does PowerGuard AI replace regular inspection?

Accepted Answer

No. Statutory inspection and testing under AS/NZS 3000 and AS/NZS 3019 must still be carried out. PowerGuard AI strengthens maintenance practice by adding continuous online monitoring and predictive analytics between inspections.

Frequently Asked Questions

Overview & Benefits

RFID Thermal Sensing & Assets

AI Analytics & Fault Detection

Features & Capabilities

Integration & Ecosystem

Passive Cooling & Nano Coating

Operations, Safety & Maintenance