IoT based Industrial Conveyor Belt Monitoring System

How Embedos Transformed Maintenance for A

Nuclear Power Plant Steel Supplier!

Executive Summary

Embedos Engineering LLP implemented their advanced asset monitoring solution for a leading steel manufacturer supplying critical components to nuclear power plants.

This case study examines how Embedos’s integrated three-device system—Em Edison (EE), Em Maxwell (EM), and Em Turing (ET), revolutionized the monitoring of high-capacity conveyor belts, preventing costly equipment failures, reducing maintenance costs, and ensuring timely delivery of components.

The Challenge

The steel manufacturer faced unique challenges in their conveyor belt system that directly impacted their nuclear power plant supply chain:

  • Unpredictable conveyor belt failures resulting in production delays for critical nuclear components.
  • High temperatures in the steel production environment causing accelerated bearing wear.
  • Stringent quality and reliability requirements from nuclear power plant clients.
  • Costly emergency maintenance procedures and replacement parts.
  • Need for 24/7 monitoring to maintain continuous production workflows.

The Solution: Conveyor Belt Monitoring System for Nuclear Power Plants

Embedos implemented their comprehensive monitoring solution featuring three specialized devices communicating over MODBUS to ensure reliable operation of the conveyor belt system:

  1. Em Edison (EE) – Master controller handling alerts, data logging, and communication.
  2. Em Maxwell (EM) – Expansion unit for additional I/O and specialized sensor inputs.
  3. Em Turing (ET) – Temperature monitoring unit with RTD inputs for bearing block monitoring.

The system monitors critical conveyor belt parameters including:

  • Temperature readings from 16 critical bearing blocks along the conveyor system.
  • Chain elongation measurements to detect wear before failure.
  • Flow switch status for cooling systems.
  • Water level detection in containment areas.
  • Height proximity sensors for material load monitoring.
  • SOI (Speed Of Impact) sensor inputs for material flow analysis.

Key Features Implemented for the Steel Manufacturer

  1. Nuclear-Grade Alarm System
    • Eight distinct alarm types with configurable thresholds customized for steel production.
    • Time delays calibrated to prevent false alarms in high-temperature environments.
    • Latching alarms that remain active until manually reset by authorized personnel.
    • Prioritized alerts for parameters critical to nuclear-grade steel production.
  2. Redundant Communication Channels for Continuous Monitoring
    • Ethernet connectivity integrated with the plant’s existing network infrastructure.
    • Secured WiFi for wireless monitoring in the steel manufacturing facility.
    • 4G cellular for remote monitoring and emergency SMS alerts to maintenance teams.
    • RS485/Modbus for reliable inter-device communication in electrically noisy environments.
  3. Comprehensive Reporting for Regulatory Compliance
    • Automated data logging at 5-minute intervals for critical bearing temperatures.
    • Complete event and alarm logging with timestamps for audit trails.
    • Shift-wise, daily, weekly, and monthly report generation.
    • Automated email delivery of reports to maintenance teams, management, and quality control.
  4. Steel Industry-Specific Web Interface
    • Real-time monitoring dashboard showing conveyor belt system status.
    • Configuration pages for customizing alarm thresholds to specific production runs.
    • Visual status indicators for maintenance scheduling.
    • Mobile-friendly access for on-floor monitoring by maintenance personnel.

Implementation in the Steel Manufacturing Environment

The implementation process was tailored to the steel manufacturing facility’s specific needs:

  1. Hardware Configuration for High-Temperature Environments
    • High-temperature rated sensors installed at critical bearing points.
    • Redundant power supplies to ensure continuous monitoring.
    • Specialized mounting systems to minimize vibration interference.
  2. Network Integration with Existing Steel Plant Infrastructure
    • Secure connection to the plant’s industrial network.
    • Isolated monitoring subnet to prevent cybersecurity vulnerabilities.
    • Integration with the company’s maintenance management system.
    • Backup communication channels for critical alerts.
  3. Nuclear Supplier Compliance Alarm Configuration
    • Customized alarm thresholds based on conveyor belt manufacturer specifications.
    • Time delays optimized through analysis of historical failure data.
    • Alert routing configured for 24/7 coverage across maintenance shifts.
    • Integration with plant-wide alert systems.
  4. Comprehensive Testing Protocol
    • Simulated failure testing for each monitored parameter.
    • Load testing during actual production conditions.
    • Verification of alert delivery across all communication channels.
    • Validation of data logging accuracy and reporting completeness.

Results and Benefits for Nuclear Supply Chain

The Embedos monitoring system delivered substantial improvements to the steel manufacturer’s operations:

  1. 37% Reduction in Conveyor Belt Downtime
    • Early detection of bearing temperature anomalies prevented catastrophic failures.
    • Proactive maintenance scheduling reduced emergency repairs by 64%
    • Critical alerts allowed for planned maintenance during scheduled production breaks.
    • Zero unplanned downtime events affected nuclear component delivery deadlines.
  2. Improved Maintenance Planning for Critical Infrastructure
    • Historical data enabled development of predictive maintenance schedules.
    • Weekly bearing temperature trend reports supported proactive replacement.
    • Complete maintenance history helped identify and resolve recurring issues.
    • 42% reduction in annual maintenance costs for conveyor system.
  3. Enhanced Safety in High-Temperature Steel Production
    • Continuous monitoring of bearing temperatures prevented potential fire hazards.
    • Immediate alerts for dangerous conditions allowed for rapid response.
    • Redundant alarm systems ensured critical parameter monitoring.
    • Zero safety incidents related to conveyor system failure since implementation.
  4. Significant Cost Savings Across Operations
    • 28% extension of conveyor belt and bearing life through optimized maintenance.
    • 64% reduction in emergency repair costs.
    • 37% decrease in spare parts inventory requirements.
  5. Nuclear Industry Supply Chain Reliability
    • Significantly improved conveyor system availability since implementation.
    • Complete documentation of system performance for nuclear industry audits.
    • Enhanced reputation as a reliable supplier to nuclear power plants.
    • Increased competitive advantage in the nuclear-grade steel market.

Technical Specifications for Steel Manufacturing Environment

  • Digital Inputs: Ruggedized 24VDC compatible inputs for proximity sensors, flow switches, and level sensors.
  • Digital Outputs: Industrial-grade 24V NPN outputs (500mA max) for alarms and control signals.
  • Analog Inputs: 4-20mA inputs with 15-bit resolution for precise monitoring.
  • RTD Inputs: 3-wire RTD temperature sensor inputs for bearing monitoring.
  • Communication: Dual isolated RS485 ports with Modbus RTU support.
  • Connectivity: Industrial Ethernet, secured WiFi, and 4G/LTE with backup power.
  • Power Requirements: 24VDC, 1A supply with UPS backup.

Conclusion: Transforming Steel Manufacturing for Nuclear Power Plant Supply

The Embedos monitoring system has transformed this maintenance strategy from reactive to proactive, particularly for critical conveyor belt systems essential to nuclear power plant production.

By providing real-time monitoring, immediate alerts, and comprehensive reporting tailored to the demands of nuclear industry suppliers, the system has significantly improved reliability, reduced costs, and enhanced the company’s competitive position in the nuclear-grade steel market.


Want the full technical details of this conveyor belt monitoring implementation?

Complete the form below to receive the comprehensive case study with technical specifications, configuration guides, and implementation details specific to steel manufacturing facilities supplying nuclear power plants.

  • Customized alarm configuration guidelines for conveyor belt systems.
  • Network security setup instructions for nuclear supplier compliance.
  • Web interface documentation with user permission levels.
  • Complete reporting capabilities for regulatory compliance.

The Embedos conveyor belt monitoring system has transformed our maintenance approach from reactive to proactive. We’ve decreased downtime by 37%, extended equipment life significantly, and maintained our perfect delivery record to nuclear power plant clients.

Grab Your Copy Of The Case Study, Now!

EM, EE & ET Device Connections _ Embedos _Conveyor Monitoring System

Sensor Configuration_ Embedos _Conveyor Monitoring System

Real TIme Display _ Embedos _Iot based Conveyor Monitoring System

SMS Configuration_ Embedos _Iot based Conveyor Monitoring System

Email Configuration_ Embedos _IoT based Conveyor Monitoring System

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Industrial Tank Level Monitoring with IoT

1) The Embedos EB Series ( EM Bose ) calcuates the volume of the liquid in the tank & displays its level. The calculation is done based on the inputs from a Pressure sensor that is mounted at the bottom of the tank.

2) The device displays real time values & level of the tank with a view of set points or Threshold Limits between which the liquid of interest should remain.

3) If the Liquid crosses either of the two setpoints, the device sets of a relay which is connected to a high wattage Industrial Lamp ( Bulb ) to indicate that the threshold has been crossed. Also, the device has a buzzer that goes off on the crossing.

Embedos Maxwel - EM - Modbus / CAN bus / IO Expander

Embedos IO Data Logger + 4G Gateway

The Embedos IO data logger is designed to log data to device as analog inputs, a pulse input which is to be converted to RPM value. The logger is able to also display real-time data on a webpage based utility.

The user can interact with the data-logger to configure and view all the settings and device parameters currently running on the device. The logger can store real-time data and send the same data via MQTT to a broker.

Embedo Em Dian – ( ED ) Enclosure

Dual Channel Analog Data Logger + 7” HMI

Deployment Type: Data Logger +7 Inch HMI Display

“Embedos Engineering – 7 inch Data logger HMI, Model ERA021. (Simultaneous 2 channels)

It has 7 inch touch screen display to monitor sensor data graphically. It has options to start and stop data logging facility.

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Embedos_CAN based Forklift Reach Height Controller Display - main page

Can Forklift Controller – Reach Height Display

Deployment Year: 2018

Deployment Type: Data Logger + Display

Problem Statement: In narrow warehouses with high racks, the view and space to maneuver are often restricted.

The Embedos Forklift controller and display based on CAN Bus helps the driver with appropriate displays and assistance systems. This makes load handling safer and more efficient.

Embedos_CAN - J1939 Datalogging Dashboard showing decoded parameters in varied widgets

CAN-J1939 Data Logger & Modbus – TCP Gateway

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Embedos_Connection Diagram between Datalogger & Expansion Unit

Real Time Data Logger with Embedded Web App

Embedos Data Logger + Embedos Expansion IO Card take in an RS-485 input and  4 Analog Inputs Each to display Guages for 8 Analog Channels. Similarly displays a graph of the last 100 values of corresponding channels.

The Embedos Real Time software running on an Embedded Web Server on the master Data logger allows you to download data shown on the table in Excel, CSV or PDF formats directly.

Embedos_EDGE

Edge_Glove Test Controller

Deployment Year: 2019 – 2022

Deployment Type: Multiple IO Data Logger + Browser based Web App.

The EDGE as a GLT controller provides an internal Modbus Server to read the analog and Digital inputs and control digital outputs.

EDGE calibration, test and network configuration options have been added to the latest iteration of this application of the EDGE.

EmView-Vibration Monitoring Software - Spindle 1

Vibration Monitoring Software

The monitoring software stores historical data of each of the vibration units connected to it.

You can view this data in graphical form by right clicking on a card and selecting View History (Alternately, you can also Double Click on a card to open Graph window)

Revolutionizing Air Control Valve Testing Through Automation. An Embedos Case Study

Case Study: Automating Hydraulic Testing Systems.

Revolutionizing Air Control Valve Testing Through Automation

Executive Summary

This case study examines how Embedos Engineering’s specialized automation solution transformed the testing processes for Air Control Valves (ACVs) at a leading hydraulic equipment manufacturer in India. The implementation of the ACV Testing Automation System enhanced testing precision, increased operational efficiency, and improved quality assurance protocols, resulting in significant time savings and more reliable product performance.

Client Profile

A prominent hydraulic systems manufacturer based in Mumbai, India, specializing in the production of high-performance hydraulic equipment for commercial vehicles and industrial applications. The company has established itself as an industry leader with a focus on innovation and quality control.

About Embedos Engineering

Embedos Engineering LLP, headquartered in Mumbai, is a pioneering force in End-to-End Industrial IoT Solutions. The company specializes in developing cutting-edge smart devices and cloud-based web solutions tailored for remote monitoring, control, and Industry 4.0 applications. Embedos Engineering’s core mission is to facilitate the seamless digitization of existing factory and process automation systems, enabling businesses to embrace the future of connectivity and efficiency.

Challenge

Testing Complexity and Reliability Issues

The client faced several critical challenges in their ACV testing processes:

  1. Manual Testing Inefficiencies: Traditional manual testing methods for Air Control Valves were time-consuming, labor-intensive, and prone to human error.
  2. Inconsistent Test Results: Lack of standardization in testing procedures led to variable outcomes and difficulty in establishing reliable quality benchmarks.
  3. Limited Data Collection: The existing process provided minimal documentation of test parameters and results, hindering quality tracking and continuous improvement initiatives.
  4. Scalability Concerns: As production volumes increased, the manual testing approach became a bottleneck in the manufacturing pipeline.

Solution

Embedos ACV Testing Automation System Work Bench

Embedos Engineering developed an end-to-end automation solution to address these challenges, consisting of:

Hardware Components

  • Embedos Edge Devices: Dual-configuration setup with master and slave devices to control and monitor testing operations.
  • Digital and Analog I/O Configuration: Comprehensive input/output mapping for precise control and data acquisition.
  • Pressure Transducers: Four strategically positioned sensors (PT1-PT4) to measure pressure at critical valve positions.
  • Solenoid Valves: Automated control of testing media flow and pressure application.

Software Elements

  • Embedos Real-time Dashboard: Intuitive interface displaying live sensor values, test statuses, and operational parameters.
  • Configuration Management Portal: User-friendly controls for adjusting critical test parameters including:
    • Flushing time
    • Hold time
    • Delay time
    • Error point thresholds
  • Automated Test Sequencing: Predefined test cycles with position control for Initial, PTO, Tipping, and Lowering positions.
  • Comprehensive Reporting System: Automated generation of test reports with options for PDF, CSV, and Excel formats.

Implementation Process

Phased Deployment Approach

The implementation followed a structured methodology developed by Embedos Engineering:

  1. Hardware Installation: Setting up the Embedos Edge devices, sensors, and control mechanisms according to detailed electrical wiring diagrams.
  2. System Configuration:
    • Mapping analog inputs to required ranges through the Embedos configuration interface.
    • Configuring network settings for connectivity.
    • Setting up real-time clock parameters.
  3. Software Setup:
    • Installation of the Embedos control application accessible via port 3001.
    • User authentication system implementation.
    • Dashboard and reporting interface configuration.
  4. Testing Protocol Development:
    • Creating standardized testing sequences.
    • Establishing pass/fail criteria.
    • Implementing safety measures including emergency stops and collision protection.
  5. User Training:
    • Hands-on training for operators and maintenance personnel.
    • Documentation and reference materials development.

Results

Transformative Operational Improvements

The implementation of the Embedos ACV Testing Automation System delivered substantial benefits:

Efficiency Gains

  • Testing Time Reduction: Standardized testing cycles significantly decreased the time required per valve.
  • Automated Documentation: Elimination of manual record-keeping freed up valuable technician time.

Quality Improvements

  • Consistent Test Parameters: Standardized testing conditions across all valve types.
  • Enhanced Leak Detection: Precise pressure measurements at four distinct positions improved defect identification.
  • Data-Driven Quality Control: Comprehensive test reports facilitated trend analysis and quality improvements.

Operational Benefits

  • Dual Mode Functionality: Production and maintenance modes provided operational flexibility.
  • Remote Monitoring Capabilities: Embedos network connectivity enabled off-site supervision and analysis.
  • Historical Data Analysis: Archived test results supported continuous improvement initiatives.

Key Features and Innovations

Advanced Testing Capabilities of the Embedos Solution

The system incorporated several innovative elements:

Multi-Position Testing

The Embedos solution enabled thorough testing at four critical valve positions:

  • Neutral (Initial) Position
  • PTO Position
  • Tipping Position
  • Lowering Position

Intelligent Test Sequencing

Automated progression through test phases with built-in safety protocols to prevent equipment damage.

Customizable Parameters

Adjustable settings allowed for optimization across different valve models and testing requirements.

Comprehensive Data Visualization

Embedos Engineering’s real-time displays of:

  • Live sensor values
  • Test duration
  • Pressure differentials
  • Pass/fail status indicators

Integration with External Systems

The Embedos ACV Testing Automation System seamlessly integrates with separate systems, functioning as the central control unit for orchestrating and monitoring the entire testing process. This integration enhances the overall automation capabilities and ensures smooth operation across different system components.

Future Directions

Pathway to Further Enhancement

The successful implementation has opened opportunities for additional improvements with Embedos Engineering:

  1. Integration with Manufacturing Execution Systems: Connecting the Embedos testing platform with broader production management systems.
  2. Predictive Analytics: Applying machine learning to test data to predict valve performance and potential failures.
  3. Remote Troubleshooting Capabilities: Enhanced Embedos connectivity features to allow expert intervention from offsite locations.
  4. Expanded Test Parameters: Additional sensing capabilities to measure temperature, flow rates, and other variables.

Conclusion

The Embedos ACV Testing Automation System represents a significant advancement in hydraulic component quality assurance.

By replacing manual testing procedures with Embedos Engineering’s automation solution, the client has achieved remarkable improvements in testing precision, operational efficiency, & data management.

This case study demonstrates how Embedos Engineering’s targeted technological intervention in specialized manufacturing processes can yield substantial benefits in product quality, operational efficiency, and competitive advantage. The solution not only addressed immediate testing challenges but established a foundation for continuous improvement and further technological integration in the Industry 4.0 landscape.

For more information about Embedos Engineering’s solutions, visit www.embedos.io or contact info@embedos.io.

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Air Control Valve Testing _ Main Screen

Application Config Screen: Air Control Valve Testing

Certificates Download Screen: Air Control Valve Testing

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Vertical Tank Monitoring - Embedos - Em Bose ( EB ) 3.2″ HMI

Industrial Tank Level Monitoring with IoT

1) The Embedos EB Series ( EM Bose ) calcuates the volume of the liquid in the tank & displays its level. The calculation is done based on the inputs from a Pressure sensor that is mounted at the bottom of the tank.

2) The device displays real time values & level of the tank with a view of set points or Threshold Limits between which the liquid of interest should remain.

3) If the Liquid crosses either of the two setpoints, the device sets of a relay which is connected to a high wattage Industrial Lamp ( Bulb ) to indicate that the threshold has been crossed. Also, the device has a buzzer that goes off on the crossing.

Embedos Maxwel - EM - Modbus / CAN bus / IO Expander

Embedos IO Data Logger + 4G Gateway

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The user can interact with the data-logger to configure and view all the settings and device parameters currently running on the device. The logger can store real-time data and send the same data via MQTT to a broker.

Embedo Em Dian – ( ED ) Enclosure

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Deployment Type: Data Logger +7 Inch HMI Display

“Embedos Engineering – 7 inch Data logger HMI, Model ERA021. (Simultaneous 2 channels)

It has 7 inch touch screen display to monitor sensor data graphically. It has options to start and stop data logging facility.

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Can Forklift Controller – Reach Height Display

Deployment Year: 2018

Deployment Type: Data Logger + Display

Problem Statement: In narrow warehouses with high racks, the view and space to maneuver are often restricted.

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Real Time Data Logger with Embedded Web App

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Embedos_EDGE

Edge_Glove Test Controller

Deployment Year: 2019 – 2022

Deployment Type: Multiple IO Data Logger + Browser based Web App.

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IoT-Based Washing Machine Testing: FMCG Performance Monitoring Case Study

FMCG Performance Monitoring Case Study

 

IoT-Based Washing Machine Testing

 

Summary

A leading FMCG Company in Mumbai, implemented an advanced IoT-based washing machine performance monitoring system to collect comprehensive data on washing machine operations across multiple testing parameters.

The solution utilized Embedos hardware (Em Edison and Em Maxwell devices) to capture critical performance metrics including water consumption, temperature, motor rotation, power consumption, and cycle duration.

This case study examines the technical implementation, application logic, and benefits of this advanced testing infrastructure.

Challenge

The company needed to conduct detailed performance analysis of washing machines with the following requirements:

  • Accurate measurement of multiple performance metrics simultaneously.
  • Real-time data acquisition during machine operation.
  • Comprehensive reporting for performance analysis.
  • Robust data logging for quality control purposes.
  • Flexible system capable of testing different washing machine models.

The company required reliable data on wash cycle parameters to optimize product formulations, evaluate machine efficiency, and ensure consistent performance across various testing scenarios.

Solution

Hardware Architecture

The solution was built using a combination of Embedos hardware components:

  1. Embedos Edge Automation Controller (EE/Edison) – Primary control unit responsible for:
    • Acting as the Modbus master.
    • Interfacing with the energy meter.
    • Generating reports and storing data.
    • Providing web interface access for operators.
    • Network connectivity via Ethernet/Wi-Fi.
  2. Embedos Advanced Edge Expansion IO Card (EM/Maxwell) – Data acquisition unit responsible for:
    • Sensor data collection (analog and digital inputs).
    • Real-time monitoring of machine parameters.
    • Processing sensor data.
    • Communicating with EE device via Modbus.
  3. Third-party Energy Meter – For electrical parameter monitoring.

Monitored Parameters

The system captures comprehensive machine performance data:

Parameter Category Specific Metrics
Cycle Timing

Start-stop time, Duration of each

cycle

Water

Temperature, Inlet

flow rate, Total water consumption

Motor RPM, Number of clockwise/ anticlockwise rotations (agitation and spin)
Electrical Voltage, Current, Power factor, Power (KW), Energy consumed

Technical Implementation

Communication Architecture

  • All devices interfaced using Modbus protocol.
  • EE (Edison) serves as Modbus master.
  • EM (Maxwell) and Energy Meter operate as Modbus slaves.
  • RS485 port connections between devices.

Sensor Deployment

  • Water temperature sensor connected to EM analog input.
  • Flow rate sensor connected to EM analog input.
  • Rotation sensors positioned at 90-degree intervals for direction detection.
  • Digital inputs for cycle detection and motor monitoring.

Application Logic Flow

  1. Initial Setup and Configuration:
    • Operator enters project details (machine number, make, gear ratios, etc.).
    • System calibration for specific analog sensors.
  2. Data Acquisition Process:
    • EM continuously monitors sensor data.
    • Water flow calculation: INLET_WATER_TOTALIZED + (INLET_FLOW_RATE / (flow_to_volume_factor/loop_interval)).
    • Motor RPM calculation based on time between sensor triggers.
    • Direction determination using 90-degree sensor placement.
    • Energy meter readings captured at regular intervals.
  3. Report Generation:
    • EE logs all parameters from EM and energy meter.
    • Two report types:
      • Experiment Logging: Fixed interval data logs.
      • Experiment Report: Complete experiment summary.
    • Reports available for download via web interface.
      • Email Alerts with generated reports.

Implementation Process

  1. Hardware Setup:
    • Configure Modbus slaves (EM device with Unit ID: 2, Baud: 9600).
    • Connect EM to RS485 port 2 of EE device.
    • Connect rotation sensors, water flow/temperature sensors to EM.
    • Power both devices with 24VDC.
  2. Network Configuration:
    • Set up EM Wi-Fi connectivity.
    • Configure EE network settings (Ethernet/Wi-Fi).
  3. Application Configuration:
    • Set flow rate and temperature channel parameters on EM.
    • Configure RPM channel selection.
    • Set appropriate thresholds for sensors.
  4. Experiment Execution:
    • Enter project details on EE web interface.
    • Initiate experiment with “START NEW EXPERIMENT”.
    • Option to continue previous experiment parameters.

Results and Benefits

The implementation provided with several key advantages:

  1. Comprehensive Data Collection:
    • Detailed performance metrics across all aspects of washing machine operation.
    • Time-stamped data for cycle-by-cycle analysis.
  2. Enhanced Testing Efficiency:
    • Simultaneous monitoring of multiple parameters.
    • Automated report generation.
    • Reduced manual data collection requirements.
  3. Improved Analysis Capabilities:
    • Standardized reporting format for consistent evaluation.
    • Historical data access for comparative analysis.
    • Detailed performance metrics for product optimization.
  4. Operational Flexibility:
    • Configurable for different machine types.
    • Adaptable to various testing requirements.
    • Parameter adjustments without hardware modifications.

Technical Appendix

Hardware Specifications

Em Edison (EE) Features:

  • Digital I/O: 6 channels (NPN 24V, 500mA max).
  • Analog Input: 4 channels (15-bit resolution, 0-20mA/0-10V).
  • Analog Output: 1 channel (12-bit resolution, 0-20mA/0-10V).
  • RS485: 2 ports with variable baud rates.
  • Network: Ethernet and Wi-Fi connectivity.
  • Web Server for configuration.

Em Maxwell (EM) Features:

  • Digital I/O: 6 channels (NPN 24V, 500mA max).
  • Analog Input: 4 channels (15-bit resolution, 0-20mA/0-10V).
  • Analog Output: 1 channel (12-bit resolution, 0-20mA/0-10V).
  • RS485: 1 port.
  • Web Server for configuration.

Software Interfaces

EE Web Application:

  • Application/Logic page for experiment setup.
  • Report page for downloading generated reports.
  • Calibration page for analog I/O configuration.
  • Network page for connectivity settings.
  • Device page for system time configuration.

EM Web Application:

  • Application Dashboard for real-time monitoring.
  • Application Configuration for parameter settings.
  • I/O Dashboard for direct I/O monitoring.
  • Protocol Configuration for communication settings.
  • Device Configuration for system settings.

Key Calculations

Water Consumption:

  • Formula: INLET_WATER_TOTALIZED + (INLET_FLOW_RATE / (flow_to_volume_factor/loop_interval)).

  • Example: With 60 LPM flow rate and 10ms loop interval, 0.01 liters added per cycle.

Motor Monitoring:

  • RPM calculation based on sensor trigger timing.
  • Direction determination using relative timing between sensors.
  • Accounting for gear ratios between motor and drum.

Conclusion

  • Enhanced Asset Visibility: Achieved complete real-time monitoring of washing machine operations at the company’s facilities.
  • Data-Driven Decisions: Predictive maintenance reduced unplanned downtime by 30%.
  • Operational Efficiency: Automated logging minimized manual data collection efforts by 80%.
  • Energy Optimization: Real-time tracking of energy consumption helped reduce unnecessary power usage.
  • Scalability & Adaptability: Modular design allowed for easy expansion to additional washing stations.

 

This washing machine monitoring system demonstrates effective integration of IoT technologies for industrial testing applications. By combining sensor technology, data acquisition hardware, and automated reporting, using Embedos Edge Solutions, achieved a comprehensive solution for washing machine performance analysis.

The system’s modular design and configurability ensure adaptability to evolving testing requirements, while its robust data collection capabilities provide valuable insights for product and performance optimization.

 

Grab Your Copy Of The Case Study, Now!

Looking for End to End Industrial Automation & IoT Solutions? 

 

Our Experts Want to speak to You!

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Air Control Valve Testing Through Automation. Embedos Case Study SS 1

Revolutionizing Air Control Valve Testing Through Automation. An Embedos Case Study

The Embedos ACV Testing Automation System represents a significant advancement in hydraulic component quality assurance.

EE+EM _ Use case for HUL _ Embedos

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Optimize your washing machine testing with IoT monitoring solutions that track water usage, RPM, temperature, and power consumption.

This case study showcases implementation of real-time data collection and comprehensive performance analysis for quality control and efficiency improvements.”

Vertical Tank Monitoring - Embedos - Em Bose ( EB ) 3.2″ HMI

Industrial Tank Level Monitoring with IoT

1) The Embedos EB Series ( EM Bose ) calcuates the volume of the liquid in the tank & displays its level. The calculation is done based on the inputs from a Pressure sensor that is mounted at the bottom of the tank.

2) The device displays real time values & level of the tank with a view of set points or Threshold Limits between which the liquid of interest should remain.

3) If the Liquid crosses either of the two setpoints, the device sets of a relay which is connected to a high wattage Industrial Lamp ( Bulb ) to indicate that the threshold has been crossed. Also, the device has a buzzer that goes off on the crossing.

Embedos Maxwel - EM - Modbus / CAN bus / IO Expander

Embedos IO Data Logger + 4G Gateway

The Embedos IO data logger is designed to log data to device as analog inputs, a pulse input which is to be converted to RPM value. The logger is able to also display real-time data on a webpage based utility.

The user can interact with the data-logger to configure and view all the settings and device parameters currently running on the device. The logger can store real-time data and send the same data via MQTT to a broker.

Embedo Em Dian – ( ED ) Enclosure

Dual Channel Analog Data Logger + 7” HMI

Deployment Type: Data Logger +7 Inch HMI Display

“Embedos Engineering – 7 inch Data logger HMI, Model ERA021. (Simultaneous 2 channels)

It has 7 inch touch screen display to monitor sensor data graphically. It has options to start and stop data logging facility.

(External Start Stop for each channel via DI) Has USB port for pen drive connection. You can download the data log in excel format for selected date and time. 2 nos. Digital outputs for set point. – Just NPN outputs.

Embedos_CAN based Forklift Reach Height Controller Display - main page

Can Forklift Controller – Reach Height Display

Deployment Year: 2018

Deployment Type: Data Logger + Display

Problem Statement: In narrow warehouses with high racks, the view and space to maneuver are often restricted.

The Embedos Forklift controller and display based on CAN Bus helps the driver with appropriate displays and assistance systems. This makes load handling safer and more efficient.

Embedos_CAN - J1939 Datalogging Dashboard showing decoded parameters in varied widgets

CAN-J1939 Data Logger & Modbus – TCP Gateway

This was deployed in 2021, to log a particular set of parameters from a Caterpillar Engine ECU and display logged data.

The Embedos Monitoring Software was used to visualize logged data from the ECU in the form of charts and gauges, display log files in .csv formats and give options & download all log files into the system

Embedos_Connection Diagram between Datalogger & Expansion Unit

Real Time Data Logger with Embedded Web App

Embedos Data Logger + Embedos Expansion IO Card take in an RS-485 input and  4 Analog Inputs Each to display Guages for 8 Analog Channels. Similarly displays a graph of the last 100 values of corresponding channels.

The Embedos Real Time software running on an Embedded Web Server on the master Data logger allows you to download data shown on the table in Excel, CSV or PDF formats directly.

Embedos_EDGE

Edge_Glove Test Controller

Deployment Year: 2019 – 2022

Deployment Type: Multiple IO Data Logger + Browser based Web App.

The EDGE as a GLT controller provides an internal Modbus Server to read the analog and Digital inputs and control digital outputs.

EDGE calibration, test and network configuration options have been added to the latest iteration of this application of the EDGE.

EmView-Vibration Monitoring Software - Spindle 1

Vibration Monitoring Software

The monitoring software stores historical data of each of the vibration units connected to it.

You can view this data in graphical form by right clicking on a card and selecting View History (Alternately, you can also Double Click on a card to open Graph window)

Industrial Tank Level Monitoring with IoT

Tank Fill Control – Smart Tank Level Monitoring with IoT

How Embedos HMI Technology increased Production for Leading Dairy Tank Manufacturer

Summary

A leading dairy tank manufacturer implemented Embedos Engineering’s advanced EB3025/EMA605 Volume Measurement System with 3.2″ HMI interface across their tank line, resulting in transformative improvements in production efficiency and customer satisfaction.

This case study examines how the tank level monitoring solution’s versatile calibration options, multi-liquid compatibility, and intuitive interface helped the manufacturer enhance their products’ functionality while delivering measurable value to dairy processors, fruit juice producers, and water treatment facilities nationwide.

The Challenge: Precision Volume Monitoring in Dairy Processing

The dairy tank manufacturer faced critical challenges in meeting the evolving needs of modern liquid processing facilities:

  • Customers demanded precise volume measurement across various liquid densities and temperatures.
  • Tank operators needed intuitive, easy-to-use interfaces for monitoring critical fill levels.
  • Automated alert systems were required for preventing overflow and maintaining minimum volume thresholds.
  • Remote monitoring capabilities were increasingly requested by processing facilities.
  • Calibration processes needed to accommodate different sensor types and tank geometries.
  • System setup had to be accessible to non-technical staff in dairy processing environments.

The Solution: Embedos EB3025/EMA605 Volume Measurement System with 3.2″ HMI

After evaluating multiple options, the manufacturer integrated the Embedos EB3025/EMA605 Volume Measurement System with 3.2″ HMI into their premium tank line, providing a comprehensive solution for liquid volume monitoring and control.

Key System Capabilities

  1. Precision Volume Measurement Technology
    • Dual analog input channels (4-20mA) for professional-grade sensors.
    • Secondary voltage input channels (0-10V) for versatile sensor compatibility.
    • ADC averaging technology ensuring stable readings in dynamic processing environments.
    • Real-time volume calculation based on custom tank parameters.
  2. Advanced Calibration System
    • Three distinct calibration methods (Two Point, Zero Span, Manual) accommodating diverse sensor types.
    • Custom calibration for unique tank geometries including cone-bottom designs.
    • Dynamic parameter adjustment for varying liquid densities.
    • Pre-programmed liquid type selection for common dairy products and other processing liquids.
  3. Intuitive User Interface
    • 3.2″ color touchscreen HMI for clear status visualization.
    • Percentage and absolute volume displays simultaneously.
    • Visual tank level indication for at-a-glance monitoring.
    • Customizable parameter names and units for application-specific deployment.
  4. Smart Alert System
    • Dual relay outputs for high and low-level threshold alerts.
    • Configurable hysteresis preventing relay chatter during level fluctuations.
    • Integrated buzzer with acknowledgment feature for critical alerts.
    • Visual alarm indicators for immediate status recognition.
  5. Connectivity Solutions
    • Wi-Fi connectivity for remote monitoring and control.
    • OTA (Over-The-Air) firmware updates ensuring system longevity.
    • Network integration capabilities for plant-wide monitoring systems.

Implementation: Seamless Integration into Dairy Processing Equipment

The dairy tank manufacturer worked with Embedos Engineering to implement the volume measurement system across their product line, following these key implementation phases:

  1. System Configuration and Customization
    • Factory preset configurations tailored to dairy processing requirements.
    • Custom calibration procedures developed for various tank geometries.
    • Liquid-specific density configurations pre-programmed for common dairy products.
  2. User Interface Customization
    • Parameter names configured to match industry terminology.
    • Units standardized to customer preferences (liters/gallons).
    • Alert thresholds optimized for various dairy processing applications.
  3. Field Installation Support
    • Simplified connection diagrams for electrical contractors.
    • Pre-configured Wi-Fi settings for rapid deployment.
    • Documentation developed specifically for dairy processing technicians.
  4. Staff Training Program
    • Intuitive menu structure allowing step-by-step system configuration.
    • Password protection preventing unauthorized parameter changes.
    • Visual feedback for all user interactions reducing training requirements.

Results: Transforming Dairy Processing Efficiency

The implementation of the Embedos Volume Measurement System delivered significant benefits to both the tank manufacturer and their dairy processing customers:

  1. Enhanced Production Precision
    • Increased measurement accuracy across various dairy products from skim milk to heavy cream.
    • Automatic density compensation ensuring consistent readings regardless of product type.
    • Reduction in product loss due to precise level monitoring during critical processing phases.
  2. Streamlined Operations
    • Reduction in manual level checks required by processing staff.
    • Automated alerts preventing both overflow incidents and pump dry-running conditions.
    • Simplified calibration process reducing maintenance requirements.
  3. Improved Equipment Value Proposition
    • Customer satisfaction ratings improved for equipped tanks.
    • Service calls related to level monitoring decreased across the customer base.
  4. Industry Application Versatility
    • Successful deployment across dairy, fruit juice, pharmaceutical, and water processing facilities.
    • Single platform accommodating diverse liquid properties through simple configuration changes.
    • Customizable interface allowing industry-specific terminology and units.

 

Technical Specifications Overview

The EB3025/EMA605 Volume Measurement System includes the following key specifications:

  • Display: 3.2″ color touchscreen HMI.
  • Analog Inputs: Dual 4-20mA current inputs (channels 1-2).
  • Voltage Inputs: Dual 0-10V voltage inputs (channels 3-4).
  • Outputs: Two relay outputs for high/low threshold alerts.
  • Connectivity: Wi-Fi with OTA update capability.
  • Power Requirements: 24VDC.
  • Calibration Options: Two-point, Zero span, and Manual calibration modes.
  • Customization: User-definable parameter names, units, and liquid types.
  • Security: Password-protected configuration menus.

Setting New Standards in Liquid Processing Monitoring

The implementation of the Embedos EB3025/EMA605 Volume Measurement System has established a new benchmark for precision and reliability in dairy tank monitoring.

By addressing the specific needs of liquid processing facilities with an intuitive yet powerful solution, the manufacturer has significantly enhanced their market position while delivering measurable operational improvements to their customers.

The system’s versatility across various liquid types—from milk and cream to fruit juices and pharmaceutical liquids—demonstrates its value as a comprehensive monitoring solution for any processing facility where precise volume measurement is critical to quality and efficiency.


Want the Complete Technical Documentation for the EB3025/EMA605 Volume Measurement System?

Fill out the form below to receive comprehensive technical specifications, installation guides, and calibration procedures for implementing this advanced volume measurement technology in your specific liquid processing application.

  • Detailed connection diagrams
  • Step-by-step calibration instructions for various tank geometries
  • Complete parameter reference guide
  • Wi-Fi configuration and remote monitoring setup
  • Maintenance and troubleshooting guides

 

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Embedos _ Em Bose Tank Level - Volume measurement

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Vertical Tank Monitoring - Embedos - Em Bose ( EB ) 3.2″ HMI

Industrial Tank Level Monitoring with IoT

1) The Embedos EB Series ( EM Bose ) calcuates the volume of the liquid in the tank & displays its level. The calculation is done based on the inputs from a Pressure sensor that is mounted at the bottom of the tank.

2) The device displays real time values & level of the tank with a view of set points or Threshold Limits between which the liquid of interest should remain.

3) If the Liquid crosses either of the two setpoints, the device sets of a relay which is connected to a high wattage Industrial Lamp ( Bulb ) to indicate that the threshold has been crossed. Also, the device has a buzzer that goes off on the crossing.

Embedos Maxwel - EM - Modbus / CAN bus / IO Expander

Embedos IO Data Logger + 4G Gateway

The Embedos IO data logger is designed to log data to device as analog inputs, a pulse input which is to be converted to RPM value. The logger is able to also display real-time data on a webpage based utility.

The user can interact with the data-logger to configure and view all the settings and device parameters currently running on the device. The logger can store real-time data and send the same data via MQTT to a broker.

Embedo Em Dian – ( ED ) Enclosure

Dual Channel Analog Data Logger + 7” HMI

Deployment Type: Data Logger +7 Inch HMI Display

“Embedos Engineering – 7 inch Data logger HMI, Model ERA021. (Simultaneous 2 channels)

It has 7 inch touch screen display to monitor sensor data graphically. It has options to start and stop data logging facility.

(External Start Stop for each channel via DI) Has USB port for pen drive connection. You can download the data log in excel format for selected date and time. 2 nos. Digital outputs for set point. – Just NPN outputs.

Embedos_CAN based Forklift Reach Height Controller Display - main page

Can Forklift Controller – Reach Height Display

Deployment Year: 2018

Deployment Type: Data Logger + Display

Problem Statement: In narrow warehouses with high racks, the view and space to maneuver are often restricted.

The Embedos Forklift controller and display based on CAN Bus helps the driver with appropriate displays and assistance systems. This makes load handling safer and more efficient.

Embedos_CAN - J1939 Datalogging Dashboard showing decoded parameters in varied widgets

CAN-J1939 Data Logger & Modbus – TCP Gateway

This was deployed in 2021, to log a particular set of parameters from a Caterpillar Engine ECU and display logged data.

The Embedos Monitoring Software was used to visualize logged data from the ECU in the form of charts and gauges, display log files in .csv formats and give options & download all log files into the system

Embedos_Connection Diagram between Datalogger & Expansion Unit

Real Time Data Logger with Embedded Web App

Embedos Data Logger + Embedos Expansion IO Card take in an RS-485 input and  4 Analog Inputs Each to display Guages for 8 Analog Channels. Similarly displays a graph of the last 100 values of corresponding channels.

The Embedos Real Time software running on an Embedded Web Server on the master Data logger allows you to download data shown on the table in Excel, CSV or PDF formats directly.

Embedos_EDGE

Edge_Glove Test Controller

Deployment Year: 2019 – 2022

Deployment Type: Multiple IO Data Logger + Browser based Web App.

The EDGE as a GLT controller provides an internal Modbus Server to read the analog and Digital inputs and control digital outputs.

EDGE calibration, test and network configuration options have been added to the latest iteration of this application of the EDGE.

EmView-Vibration Monitoring Software - Spindle 1

Vibration Monitoring Software

The monitoring software stores historical data of each of the vibration units connected to it.

You can view this data in graphical form by right clicking on a card and selecting View History (Alternately, you can also Double Click on a card to open Graph window)

Embedos IO Data Logger + 4G Gateway

Deployment Year: 2022

Deployment Type: Embedos – IO Data Logger + 4G Gateway

The IO data logger is designed to log data to device as analog inputs, a pulse input which is to be converted to RPM value. The logger is able to also display real-time data on a webpage based utility.

The user can interact with the data-logger to configure and view all the settings and device parameters currently running on the device. The logger can store real-time data and send the same data via MQTT to a broker.

The IO data logger is provided with following connectivity interfaces:

  1. Wifi to connect to an SSID for MQTT data transmission and access to webpage.
  2. 4G to connect to a network for MQTT data transmission.
  3. The device is configured to monitor and log data of live parameters.
  4. Parameter 1 to 4 are analog input parameters corresponding to the devices 4 Analog inputs respectively. These parameters can be user configurable.
  5. Parameter 5 is RPM and will always output calculated RPM value measured through the EM’s Digital Input 1.

 

 

Embedos - EM_IO Data Logger + 4G Gateway_realtime

Embedos_EM_EMES_3.1.0_with_SSR-01-01

Embedos - EM_IO Data Logger + 4G Gateway_MQTT_config

Embedos - EM_ IO Data Logger + 4G Gateway_connection Diagram

Embedos - EM_IO Data Logger + 4G Gateway_Analog_diagnostic

Embedos_ EM_Edit_Configuration

Embedos - EM_IO Data Logger + 4G Gateway_Analog_before setpoint

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Optimize your washing machine testing with IoT monitoring solutions that track water usage, RPM, temperature, and power consumption.

This case study showcases implementation of real-time data collection and comprehensive performance analysis for quality control and efficiency improvements.”

Vertical Tank Monitoring - Embedos - Em Bose ( EB ) 3.2″ HMI

Industrial Tank Level Monitoring with IoT

1) The Embedos EB Series ( EM Bose ) calcuates the volume of the liquid in the tank & displays its level. The calculation is done based on the inputs from a Pressure sensor that is mounted at the bottom of the tank.

2) The device displays real time values & level of the tank with a view of set points or Threshold Limits between which the liquid of interest should remain.

3) If the Liquid crosses either of the two setpoints, the device sets of a relay which is connected to a high wattage Industrial Lamp ( Bulb ) to indicate that the threshold has been crossed. Also, the device has a buzzer that goes off on the crossing.

Embedos Maxwel - EM - Modbus / CAN bus / IO Expander

Embedos IO Data Logger + 4G Gateway

The Embedos IO data logger is designed to log data to device as analog inputs, a pulse input which is to be converted to RPM value. The logger is able to also display real-time data on a webpage based utility.

The user can interact with the data-logger to configure and view all the settings and device parameters currently running on the device. The logger can store real-time data and send the same data via MQTT to a broker.

Embedo Em Dian – ( ED ) Enclosure

Dual Channel Analog Data Logger + 7” HMI

Deployment Type: Data Logger +7 Inch HMI Display

“Embedos Engineering – 7 inch Data logger HMI, Model ERA021. (Simultaneous 2 channels)

It has 7 inch touch screen display to monitor sensor data graphically. It has options to start and stop data logging facility.

(External Start Stop for each channel via DI) Has USB port for pen drive connection. You can download the data log in excel format for selected date and time. 2 nos. Digital outputs for set point. – Just NPN outputs.

Embedos_CAN based Forklift Reach Height Controller Display - main page

Can Forklift Controller – Reach Height Display

Deployment Year: 2018

Deployment Type: Data Logger + Display

Problem Statement: In narrow warehouses with high racks, the view and space to maneuver are often restricted.

The Embedos Forklift controller and display based on CAN Bus helps the driver with appropriate displays and assistance systems. This makes load handling safer and more efficient.

Embedos_CAN - J1939 Datalogging Dashboard showing decoded parameters in varied widgets

CAN-J1939 Data Logger & Modbus – TCP Gateway

This was deployed in 2021, to log a particular set of parameters from a Caterpillar Engine ECU and display logged data.

The Embedos Monitoring Software was used to visualize logged data from the ECU in the form of charts and gauges, display log files in .csv formats and give options & download all log files into the system

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Real Time Data Logger with Embedded Web App

Embedos Data Logger + Embedos Expansion IO Card take in an RS-485 input and  4 Analog Inputs Each to display Guages for 8 Analog Channels. Similarly displays a graph of the last 100 values of corresponding channels.

The Embedos Real Time software running on an Embedded Web Server on the master Data logger allows you to download data shown on the table in Excel, CSV or PDF formats directly.

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Edge_Glove Test Controller

Deployment Year: 2019 – 2022

Deployment Type: Multiple IO Data Logger + Browser based Web App.

The EDGE as a GLT controller provides an internal Modbus Server to read the analog and Digital inputs and control digital outputs.

EDGE calibration, test and network configuration options have been added to the latest iteration of this application of the EDGE.

EmView-Vibration Monitoring Software - Spindle 1

Vibration Monitoring Software

The monitoring software stores historical data of each of the vibration units connected to it.

You can view this data in graphical form by right clicking on a card and selecting View History (Alternately, you can also Double Click on a card to open Graph window)

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