Assess
Which asset needs attention? Compare status, indicators and trends.

edgeSV analyzes electrical signals directly at the edge to detect developing abnormalities early and support condition-based maintenance across motors and critical industrial equipment.
Spot developing issues before an unexpected stop.
Connect asset condition, indicators and trends.
Start with one asset. Connect lines and sites as you grow.
Six environments where a single motor, pump or transformer failure stops far more than one machine.
Process motors, conveyors, compressors and utilities behind the production line.
Explore this industry ↗HVAC, pumps, elevators and transformers in commercial and public buildings.
Explore this industry ↗Conveyors, sorters, AS/RS and cold-chain refrigeration in logistics hubs.
Explore this industry ↗Chillers, cooling pumps, CRAH fans and transformers behind the IT load.
Explore this industry ↗Feed pumps, draft fans, cooling water pumps and station transformers.
Explore this industry ↗Intake and booster pumps, aeration blowers and treatment plant motors.
Explore this industry ↗Fixed inspection intervals and manual rounds see a machine for a few minutes a month. Degradation happens in between, and it shows up first in how the machine draws power.
edgeSV combines complementary indicators instead of relying on a single sensor type, giving maintenance teams more context for abnormal behavior.
edgeSV brings the waveform, diagnostic finding and condition trend into the same context, so your team can understand what deserves attention.
Explore diagnostic indicatorsedgeSV reads the electrical signal where equipment is powered and analyzes it on the spot. Diagnosis happens at the panel in real time; the cloud or your server adds alerts, trends and fleet-wide insight across every asset and site.
CTs and voltage inputs sit in the power or control panel, not on the machine. Every motor, pump, inverter and transformer is already wired to a feeder, so that is where edgeSV listens.
That makes submerged pumps, fans at height and equipment in hot or hazardous zones as easy to monitor as anything else, and installation can be scheduled around panel maintenance.
SV500 samples three-phase waveforms at 8 kHz with 24-bit resolution and processes them on the device: FFT, power spectral density, Park vector and power quality indices, all computed locally.
Because nothing waits on a network round trip, abnormal behavior is flagged as it happens, and the device keeps diagnosing if the connection drops. It also acts as the site gateway: dual Ethernet with RSTP, an RS-485 master port for nearby meters and Modbus TCP/RTU upward.
A asset baseline model models how each machine behaves under its own voltage, load and operating states. Machine learning scores how far current behavior departs from that baseline and links the change to a component such as bearings, rotor, stator, windings or DC link.
Every alert carries the indicator behind it, such as a bearing defect frequency or even-order harmonic voltage, so engineers can verify the reasoning. The baseline is refined as operating patterns change over time.
Diagnostic results and measurement data flow from each SV500 to a central server, a private cloud or managed SaaS. There they are kept as long-term history, compared across similar assets and organized by site, facility and equipment group.
Users, roles and alarm routing are managed centrally, so headquarters, site managers and service partners each see what they need. Start with one site and add more without changing what runs at the edge.
The platform brings edge and cloud data together in one interface: status by asset, health scores, voltage and current trends, waveform and spectrum views, power quality events and alarm history.
Trend analysis and historical comparison show which machines need attention and when, so work is prioritized by condition rather than by calendar. The same UI is served by every SV500 and by the central server.
Current and voltage sensors on the feeder capture three-phase waveforms at 8 kHz. No sensor is mounted on the machine itself.
FFT, power spectral density, Park vector and power quality analysis run on the device, feeding a digital-twin model.
Machine learning scores deviation from normal behavior and maps it to components such as bearings, rotor, stator or windings.
Results reach the embedded web UI, your server or cloud, and SCADA over Modbus, so the team sees status, trends and alarms in one place.
Each SV500 serves its own web UI with no software to install. Connect several units to a central server and the same picture scales to a plant, then to a portfolio of plants.
| Asset | Health | Status | Finding |
|---|---|---|---|
| Chiller No.1 compressor motor Motor | 94 | Normal | — |
| Cooling water pump P-201 Pump | 71 | Caution | Bearing outer-race frequency |
| Cooling tower fan VFD VFD | 58 | Warning | DC link ripple rising |
| Main transformer TR-1 Transformer | 88 | Normal | — |
| RO high-pressure pump Pump | 36 | Critical | Current imbalance 9.4% |
Make the information useful to the people who keep your operation running.
Which asset needs attention? Compare status, indicators and trends.
Consider operational impact alongside the diagnostic finding.
Align the inspection window, people and parts before a stop.
Compare the condition history with inspection and maintenance records.
Explore how a diagnostic finding can become a maintenance plan. The following are illustrative scenarios.
Check the electrical indicators and trend, then schedule alignment and bearing inspection in a planned window.
Motors · pumps · fansExplore the scenario ↗Track chiller, pump and fan condition together to prioritize maintenance before the busiest operating period.
Chillers · VFDs · cooling towersExplore the scenario ↗Review load and torque trends and place maintenance outside the shipping window.
Conveyors · gearmotors · sortersExplore the scenario ↗Edge AI runs AI algorithms and models directly on the edge devices where data is created, such as sensors, gateways and industrial IoT equipment, so data is analyzed and acted on in real time.
Unlike approaches that send data to the cloud before analyzing it, edge AI processes data on site, the moment it is captured. That makes it effective wherever fast judgment and response matter: detecting equipment anomalies, predicting failures, predictive maintenance and industrial automation.
Edge AI processes data on site, enabling fast analysis and real-time decision-making.
It responds immediately without waiting on the network or cloud, which suits environments that demand quick action, such as equipment anomaly detection and industrial automation.
Processing data inside the edge device minimizes how often sensitive data is sent to external networks or a central cloud.
This lowers the risk of data leaks and raises the level of security and privacy protection.
Instead of sending all raw data to the cloud, only the necessary information and analysis results are transmitted, sharply reducing network traffic and data volume.
Bandwidth is used efficiently and the load on communication infrastructure goes down.
Running analysis locally reduces cloud computing usage and data transfer.
That cuts the cost of running cloud servers and communications, for a more efficient system overall.
Built on distributed computing, edge AI can deploy AI models across many sites and many edge devices.
That makes it well suited to extending AI-based monitoring and diagnostics across factories, buildings, data centers, power plants and other sites and equipment.
Deeper insight into each machine, more efficient operation and maintenance that is planned rather than reactive.
Developing faults are found early and made visible, so parts can be ordered and long lead times planned for before anything stops.
Acting on abnormal behavior before heavy wear sets in extends the life of motors, pumps, compressors and transformers.
Teams see which machines need attention and when, and plan work on measured condition instead of fixed intervals.
Earlier awareness means fewer surprises on the floor, fewer emergency decisions and steadier daily operations.
Analysis runs at the panel, so findings arrive immediately without waiting on cloud processing or manual review.
Insulation stress, ground faults and overheating are detected before they turn into incidents.
Tell us which asset matters most. We will review the measurement points, diagnostic goals and the best way to start a pilot with your team.