Products & Services

e-MCM Sensorless Condition Monitoring System

e-MCM Sensorless Condition Monitoring System

The e-MCM detects developing equipment faults in advance without the need for installing sensors on the machinery, it achieves this by continuously monitoring motor voltage and current, providing early fault diagnosis and actionable maintenance insights.

Product Overview

Engineer configuring a customised e-mcm condition monitoring panel

The e‑MCM is an AI-powered, sensorless condition monitoring system for the continuous monitoring of AC motors and connected equipment such as pumps, fans, compressors and gearboxes. Installed at the motor’s electrical supply, it analyses three-phase current and voltage data without requiring sensors to be mounted directly on the machinery.

Utilising a self-learning digital twin and a database of more than 10 million fault signatures, the e‑MCM identifies developing mechanical, electrical, and process-related faults and presents the results as clear, actionable maintenance insights. The system can also monitor pump performance, analyse energy efficiency and estimate the operational costs associated with inefficient equipment. It also detects abnormalities early, helping maintenance teams plan corrective work, reduce unplanned downtime, and improve the reliability and efficiency of motor-driven equipment.

Key Benefits

The e-MCM sensorless condition monitoring unit installed inside an industrial electrical control cabinet

Through continuous equipment monitoring and data analysis, the e-MCM system enables maintenance teams to identify emerging problems and intervene before they lead to failure. 

  1. More Time to Respond: Detect developing faults up to six months in advance, giving maintenance teams time to verify the problem, prepare resources and schedule corrective work before equipment performance deteriorates further.
  2. Broader Equipment Visibility: Monitor the condition of the motor and its connected machine train from a single electrical connection, extending coverage to equipment such as pumps, fans, compressors and gearboxes.
  3. Access Hard-to-Reach Assets: Monitor equipment located in inaccessible, hazardous, submerged or hygienically sensitive environments without installing monitoring devices directly on the machinery.
  4. Swifter Maintenance Decisions: Receive clear fault identification, severity levels, estimated time to failure and recommended corrective actions, helping teams determine what requires attention and how urgently they should respond.
  5. Fewer Unnecessary Alarms: Account for normal changes in operating speed and load, allowing maintenance teams to focus on genuine equipment abnormalities instead of investigating avoidable alerts.
  6. Better-Planned Maintenance: Use early diagnostic information to coordinate labour, spare parts and planned shutdowns more effectively, reducing emergency repairs and unnecessary routine maintenance.
  7. Lower Downtime Risk: Address mechanical, electrical and process-related problems before they develop into disruptive failures that affect production, safety or service continuity.
  8. Improved Operating Efficiency: Identify inefficient motor and pump operation, quantify energy losses and uncover opportunities to reduce energy consumption and operating costs.

How It Works?

The e‑MCM follows a continuous, model-based monitoring process that learns how the connected machinery normally operates across different loads and speeds. It then compares real-time electrical data with this established reference to identify abnormal behaviour, diagnose developing faults, and present the findings as practical maintenance information.

  1. Stage 1

    Connect to the Motor Supply

    The e-MCM is connected to the motor’s electrical supply, where it obtains three-phase voltage and current information while the motor-driven equipment continues operating.

  2. Stage 2

    Build a Digital Twin

    During the self-learning phase, system identification algorithms analyse the relationship between voltage and current to create a mathematical model of the machine’s normal behaviour across different speeds and loads.

  3. Stage 3

    Monitor Operating Data Continuously

    Once the learning phase is complete, the system continuously measures incoming voltage and the current drawn by the motor. These electrical signals reflect changes occurring within the motor and its connected machine train.

  4. Stage 4

    Compare Actual and Expected Behaviour

    The collected measurements are continuously compared with the digital twin. Deviations that cannot be explained by normal operating changes are evaluated to determine whether a mechanical, electrical or process-related fault is developing.

  5. Stage 5

    Diagnose and Present the Findings

    Detected conditions are translated into clear diagnostic results, including fault type, severity, estimated time to failure and recommended corrective action. For pump applications, the system can also track flow, head and duty-point performance.

Key Features

Within one monitoring platform, the e‑MCM system continuously evaluates the condition, performance, and energy usage of motor-driven equipment. From intelligent fault diagnosis and self-learning digital twin modelling to pump performance analysis, power monitoring, and plant-system integration, each feature is designed to support a more complete understanding of how a machinery is operating. Explore the principal features of the e‑MCM below:

  • Intelligent Fault Diagnosis

    Automatically detects and classifies mechanical, electrical and process-related faults using a model base containing more than 10 million fault signatures.

  • AI-Driven Digital Twin

    Creates a self-learning mathematical model that represents normal machine behaviour across different operating speeds and loads.

  • Complete Machine-Train Coverage

    Uses the motor as a sensor to monitor the motor, drivetrain and connected equipment from a single electrical measurement point.

  • Pump Performance Monitoring

    Estimates flow and pressure from motor power data, tracks the pump’s duty point and identifies deviations from its best efficiency point.

  • Energy Efficiency and Cost Analysis

    Identifies inefficient operating conditions, calculates energy-saving opportunities and provides motor-sizing and efficiency-class recommendations.

  • Electrical and Power Monitoring

    Measures and tracks motor voltage, current and power information to support equipment-condition, energy-consumption and performance analysis.

  • Automated Diagnostic Interface

    Displays equipment condition through traffic-light status indicators alongside fault severity, estimated time to failure and recommended corrective actions.

  • Flexible System Integration

    Supports on-premise or cloud deployment and connects with SCADA, DCS and other plant monitoring systems through standard industrial communication protocols.

Fault Detection Coverage

The e‑MCM system evaluates motor voltage and current patterns to detect abnormalities originating from the motor, connected equipment, and operating process. Its diagnostic coverage extends across three principal categories, enabling maintenance teams to distinguish between mechanical deterioration, electrical problems, and process-related conditions that may produce similar operating symptoms.

01

Mechanical Faults

  • Loose foundations
  • Unbalance
  • Misalignment
  • Belt-related faults
  • Gearbox faults
  • Bearing faults
  • Impeller faults
  • Fan-blade faults
02

Electrical Faults

  • Stator faults
  • Rotor faults
  • Winding insulation problems
  • Power-quality problems
  • Power-circuit faults
03

Process-Related Issues

  • Cavitation
  • Clogging
  • Overload
  • Low-efficiency operation
  • Plugged filters
  • Flow turbulence

Compatible Machinery and Equipment

A row of industrial motors and pumps, with a blue digital twin overlay at the first motor and pump

As sensors do not need to be mounted directly on the machinery, the e-MCM can monitor both readily accessible assets and equipment located in submerged, hazardous, hygienically controlled or hard-to-reach environments. Below are a range of compatible motor-driven machinery and equipment:

  • Electric Motors

    AC motors operating across different loads, speeds, sizes and voltage levels.

  • Pumps

    Centrifugal pumps, positive displacement pumps, process pumps and submerged pumping equipment.

  • Fans and Blowers

    Axial fans, centrifugal fans, ventilation fans and industrial blowers.

  • Compressors

    Motor-driven compressors used in compressed-air, refrigeration and industrial process systems.

  • Gearboxes and Transmissions

    Gearboxes, belt-driven systems, couplings and other motor-driven transmission components.

  • Conveyors

    Belt, screw and chain-driven conveyors used in production and material-handling systems.

  • Mixers and Agitators

    Motor-driven mixers, agitators and other equipment used for blending or process circulation.

  • Aerators and Clarifiers

    Motor-driven aeration and clarification equipment used in water and wastewater treatment operations.

  • Air-Handling Equipment

    Motor-driven ventilation and air-handling systems used in industrial, pharmaceutical and controlled environments.

Key Technical Specifications

Specification Capability
Supported Equipment Supports three-phase AC motors and generators, including fixed-speed and variable-speed applications.
Supported Starting Methods Compatible with direct-on-line, star-delta, soft-starter and variable-frequency-drive configurations.
Operating Power Supply Operates from a 100–240 V AC or 120–370 V DC power supply, with a power consumption of 5 W.
Voltage Measurement Input Supports direct measurement up to 690 V AC line-to-line. Higher-voltage systems can be monitored using suitable voltage transformers.
Current Measurement Input Measures currents up to 2,500 A using three CAT III current transformers, with a stated accuracy of 0.5%.
Frequency Supports a rated frequency of 50/60 Hz and a stated measurement-frequency range of 20–120 Hz.
Communications Supports RS-485 Modbus RTU for power monitoring and Ethernet communication using TCP/IP Modbus TCP.
Physical and Environmental Rating Measures 94 × 64 × 110 mm and weighs approximately 450 g. Designed for indoor front-panel mounting with an IP40 rating, an operating temperature of −10°C to 50°C and up to 80% relative humidity, non-condensing.

See the e-MCM in Action

The following video explains how the e‑MCM works, the equipment conditions it can detect, and how its diagnostic insights support maintenance planning, energy efficiency and motor reliability.

Applicable Industries

The e-MCM can be applied to industries that relies heavily on motor-driven equipment and often contain machinery that is critical, widely distributed, inaccessible, hazardous or difficult to monitor using directly mounted sensors. Unexpected failure in these equipment can interrupt production, compromise safety, increase energy consumption, or affect production quality. Below are some of those industries:

  • Water and Wastewater

  • Oil and Gas

  • Automotive

  • Energy and Power

  • Logistics and Transportation

  • Iron and Steel

  • Food and Beverage

  • Pharmaceutical

Request For A Product Consultation

The e-MCM sensorless condition monitoring system is developed by Artesis Technology Systems. Vibtech Genesis Pte Ltd is the official Singapore distributor for Artesis.

Complete the contact form below to arrange for a product consultation from a Vibtech Genesis representative.

Contact Form

Fill in your contact details below. A Vibtech Genesis representative will be in touch with you within 1 working day.

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