ARIDA-Dead Center Detector
ARIDA
8462109000
Microcomputer Bottom Dead Center Detector
Copper, metal materials
Local Service/Online Service
High Speed Punch Machine
Electricity
GS, CE, RoHS, ISO 9001
12 months
Crank Press
Standard Export Packing
ARIDA
China
High precision
Worldwide
Yes
Yes
Availability: | |
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Quantity: | |
The Microcomputer Bottom Dead Center Detector is a precision measurement device designed to accurately determine and monitor the bottom dead center (BDC) position of reciprocating components in mechanical systems, such as engines, presses, and hydraulic cylinders. Utilizing advanced microcomputer technology, it provides real-time, high-precision measurements to ensure optimal performance and reliability. This device is essential for maintaining the efficiency and safety of various industrial and automotive applications by ensuring that moving parts reach their lowest point of travel accurately and consistently.
![]() | Prouduct Display-Press Matched Devices |
Engine Performance: Ensuring precise BDC detection in engine pistons to optimize combustion efficiency, reduce wear, and improve overall engine performance.
Component Testing: Used in the testing and evaluation of engine components, such as connecting rods and crankshafts, to ensure they meet design specifications.
Presses and Stamping Machines: Monitoring the BDC position in presses and stamping machines to maintain consistent and high-quality production, preventing overtravel and damage to the machinery.
Machine Tools: Ensuring accurate BDC detection in machine tools to optimize cutting and forming processes, reducing tool wear and improving part quality.
Hydraulic Cylinders: Ensuring precise BDC detection in hydraulic cylinders to prevent overtravel and damage, and to maintain the efficiency and safety of hydraulic systems.
Pumps and Actuators: Monitoring the BDC position in hydraulic pumps and actuators to ensure they operate within safe and efficient parameters.
Aviation Engines: Ensuring precise BDC detection in aviation engines to optimize performance and reliability, which is critical for safety in aerospace applications.
Hydraulic Systems: Monitoring the BDC position in hydraulic systems used in aircraft and defense equipment to ensure they function reliably and efficiently.
Pumping Systems: Ensuring accurate BDC detection in pumping systems used in oil and gas, water treatment, and other energy-related applications to maintain efficiency and prevent equipment failure.
Power Generation: Monitoring the BDC position in reciprocating engines and compressors used in power generation to optimize performance and reduce downtime.
Mechanical Testing: Used in R&D labs to test and evaluate the performance of mechanical systems and components, ensuring they meet design specifications and performance standards.
Material Testing: Monitoring the BDC position during material testing to evaluate the behavior of materials under dynamic loads.
Troubleshooting: Aiding in the maintenance and repair of mechanical systems by providing accurate BDC measurements for troubleshooting and calibration.
Preventive Maintenance: Used in preventive maintenance programs to monitor the condition of reciprocating components and identify potential issues before they cause failures.
Appliance Manufacturing: Ensuring precise BDC detection in components of household appliances, such as washing machines and dishwashers, to improve reliability and reduce noise and vibration.
Power Tools: Monitoring the BDC position in power tools to ensure they operate safely and efficiently.
Precision Equipment: Ensuring precise BDC detection in medical devices that use reciprocating mechanisms, such as surgical tools and diagnostic equipment, to maintain accuracy and reliability.
Imaging Systems: Monitoring the BDC position in imaging systems, such as MRI and CT scanners, to ensure precise movement and image quality.
Robotics: Ensuring precise BDC detection in robotic systems that use reciprocating components, such as linear actuators, to maintain accuracy and efficiency.
Conveyor Systems: Monitoring the BDC position in conveyor systems to ensure smooth and reliable operation.
High Precision Measurement: Utilizes high-resolution sensors and advanced algorithms to achieve precise BDC detection, typically within ±0.01mm.
Digital Display: Features a clear and easy-to-read digital display that shows the BDC position in real-time, allowing operators to make quick and accurate adjustments.
Microcomputer Control: Equipped with a microcomputer for data processing, storage, and real-time monitoring, ensuring consistent and reliable performance.
User-Friendly Interface: Intuitive controls and a user-friendly interface make it simple for operators to set up and use the device.
Data Logging and Analysis: Capable of logging and storing measurement data, which can be exported via USB or RS-232 interfaces for further analysis and quality control.
Real-Time Monitoring: Provides continuous monitoring of the BDC position during operation, alerting operators to any deviations or issues.
Durable Construction: Built with robust materials to withstand the harsh conditions of industrial environments, ensuring long-term reliability and performance.
Safety Features: Includes safety features such as emergency stop buttons and obstruction detection sensors to ensure operator safety.
High Precision and Accuracy
Advanced Sensors: Utilizes high-resolution sensors to achieve precise BDC detection, typically within ±0.01mm.
Microcomputer Processing: Advanced microcomputer technology processes data in real-time, ensuring high accuracy and reliability.
Real-Time Monitoring
Continuous Monitoring: Provides continuous, real-time monitoring of the BDC position, allowing for immediate detection of any deviations or issues.
Alert System: Features an alert system that notifies operators of any problems, enabling prompt corrective action.
User-Friendly Interface
Digital Display: Equipped with a clear and easy-to-read digital display that shows the BDC position in real-time.
Intuitive Controls: User-friendly controls and a simple interface make it easy for operators to set up and use the device with minimal training.
Data Logging and Analysis
Data Logging: Capable of logging and storing measurement data, which can be exported via USB or RS-232 interfaces for further analysis and quality control.
Data Export: Supports data export to computers and other devices for detailed analysis and reporting.
Versatility and Flexibility
Wide Application Range: Suitable for a variety of mechanical systems, including engines, presses, hydraulic cylinders, and more.
Customizable Settings: Allows for customization of settings to accommodate different materials and production requirements, enhancing its adaptability.
Durability and Reliability
Robust Construction: Built with high-quality materials to withstand the harsh conditions of industrial environments, ensuring long-term reliability and performance.
Protection Rating: Often rated for dust and splash resistance (e.g., IP65), protecting the device from environmental factors that could affect performance.
Safety Features
Emergency Stop Button: Includes an emergency stop button for immediate shutdown in case of emergencies, ensuring operator safety.
Overload Protection: Equipped with overload protection to prevent damage to the machine and ensure safe operation.
Obstruction Detection: Sensors detect obstructions and automatically stop the machine to prevent damage and ensure safety.
Ease of Maintenance
Low-Maintenance Design: Designed with accessible components for routine checks and cleaning, reducing maintenance time and costs.
Simple Calibration: Easy and straightforward calibration procedures ensure ongoing accuracy and reliability.
Integration with Modern Systems
Communication Protocols: Supports standard communication protocols, allowing for seamless integration with other manufacturing systems and automation processes.
Automation Compatibility: Can be easily integrated into existing production lines and automated systems, enhancing overall plant efficiency.
Cost-Effective
Preventive Maintenance: Helps in identifying potential issues early, reducing the need for costly repairs and downtime.
Improved Efficiency: Ensures optimal performance of mechanical systems, leading to increased productivity and reduced operating costs.
Engines: Detecting the bottom dead center (BDC) position of engine pistons to optimize combustion efficiency, reduce wear, and improve overall engine performance.
Pistons and Connecting Rods: Ensuring that pistons and connecting rods operate within design specifications, maintaining engine reliability and longevity.
Presses and Stamping Machines: Monitoring the BDC position of press slides and stamping tools to maintain consistent and high-quality production, preventing overtravel and damage to the machinery.
Machine Tools: Ensuring accurate BDC detection in machine tools such as lathes and milling machines to optimize cutting and forming processes, reducing tool wear and improving part quality.
Hydraulic Cylinders: Detecting the BDC position in hydraulic cylinders to prevent overtravel and damage, ensuring the efficiency and safety of hydraulic systems.
Pumps and Actuators: Monitoring the BDC position in hydraulic pumps and actuators to ensure they operate within safe and efficient parameters.
Aviation Engines: Ensuring precise BDC detection in aviation engines to optimize performance and reliability, which is critical for safety in aerospace applications.
Hydraulic Systems: Monitoring the BDC position in hydraulic systems used in aircraft and defense equipment to ensure they function reliably and efficiently.
Pumping Systems: Detecting the BDC position in pumping systems used in oil and gas, water treatment, and other energy-related applications to maintain efficiency and prevent equipment failure.
Power Generation: Monitoring the BDC position in reciprocating engines and compressors used in power generation to optimize performance and reduce downtime.
Mechanical Testing: Used in R&D labs to test and evaluate the performance of mechanical systems and components, ensuring they meet design specifications and performance standards.
Material Testing: Monitoring the BDC position during material testing to evaluate the behavior of materials under dynamic loads.
Troubleshooting: Aiding in the maintenance and repair of mechanical systems by providing accurate BDC measurements for troubleshooting and calibration.
Preventive Maintenance: Used in preventive maintenance programs to monitor the condition of reciprocating components and identify potential issues before they cause failures.
Appliance Manufacturing: Ensuring precise BDC detection in components of household appliances, such as washing machines and dishwashers, to improve reliability and reduce noise and vibration.
Power Tools: Monitoring the BDC position in power tools to ensure they operate safely and efficiently.
Precision Equipment: Ensuring precise BDC detection in medical devices that use reciprocating mechanisms, such as surgical tools and diagnostic equipment, to maintain accuracy and reliability.
Imaging Systems: Monitoring the BDC position in imaging systems, such as MRI and CT scanners, to ensure precise movement and image quality.
Robotics: Ensuring precise BDC detection in robotic systems that use reciprocating components, such as linear actuators, to maintain accuracy and efficiency.
Conveyor Systems: Monitoring the BDC position in conveyor systems to ensure smooth and reliable operation.
Housing: Aluminum alloy, anodized for enhanced durability and corrosion resistance.
Sensor Arm: High-grade stainless steel, precision-machined for accuracy.
Sensor Element: Ceramic or quartz, chosen for its high precision and stability.
PCB: FR-4 glass epoxy, with gold-plated contacts for reliable connections.
Display: 4-inch LCD screen, with an ITO-coated glass touchscreen.
Cables: Shielded cables with PVC insulation, terminated with industrial-grade connectors.
Seals: Silicone rubber, providing IP65 protection against dust and water.
Batteries: Rechargeable lithium-ion batteries, with built-in protection circuits.
Mounting Hardware: Stainless steel screws and bolts, with nylon washers to prevent loosening
What is the accuracy of the Microcomputer Bottom Dead Center Detector?
The accuracy is typically ±0.01mm, ensuring high precision and reliability.
Is the detector easy to use?
Yes, it features a user-friendly digital display and intuitive controls, making it easy to set up and use with minimal training.
Can it be used in harsh industrial environments?
Yes, it is built with durable materials and often rated for dust and water resistance (IP65), making it suitable for harsh industrial environments.
Does it have data logging capabilities?
Yes, it can log and store measurement data, which can be exported via USB or RS-232 interfaces for further analysis.
What safety features does it include?
It includes an emergency stop button, overload protection, and obstruction detection sensors to ensure safe operation and protect both the machine and the operator.
The Microcomputer Bottom Dead Center Detector is a precision measurement device designed to accurately determine and monitor the bottom dead center (BDC) position of reciprocating components in mechanical systems, such as engines, presses, and hydraulic cylinders. Utilizing advanced microcomputer technology, it provides real-time, high-precision measurements to ensure optimal performance and reliability. This device is essential for maintaining the efficiency and safety of various industrial and automotive applications by ensuring that moving parts reach their lowest point of travel accurately and consistently.
![]() | Prouduct Display-Press Matched Devices |
Engine Performance: Ensuring precise BDC detection in engine pistons to optimize combustion efficiency, reduce wear, and improve overall engine performance.
Component Testing: Used in the testing and evaluation of engine components, such as connecting rods and crankshafts, to ensure they meet design specifications.
Presses and Stamping Machines: Monitoring the BDC position in presses and stamping machines to maintain consistent and high-quality production, preventing overtravel and damage to the machinery.
Machine Tools: Ensuring accurate BDC detection in machine tools to optimize cutting and forming processes, reducing tool wear and improving part quality.
Hydraulic Cylinders: Ensuring precise BDC detection in hydraulic cylinders to prevent overtravel and damage, and to maintain the efficiency and safety of hydraulic systems.
Pumps and Actuators: Monitoring the BDC position in hydraulic pumps and actuators to ensure they operate within safe and efficient parameters.
Aviation Engines: Ensuring precise BDC detection in aviation engines to optimize performance and reliability, which is critical for safety in aerospace applications.
Hydraulic Systems: Monitoring the BDC position in hydraulic systems used in aircraft and defense equipment to ensure they function reliably and efficiently.
Pumping Systems: Ensuring accurate BDC detection in pumping systems used in oil and gas, water treatment, and other energy-related applications to maintain efficiency and prevent equipment failure.
Power Generation: Monitoring the BDC position in reciprocating engines and compressors used in power generation to optimize performance and reduce downtime.
Mechanical Testing: Used in R&D labs to test and evaluate the performance of mechanical systems and components, ensuring they meet design specifications and performance standards.
Material Testing: Monitoring the BDC position during material testing to evaluate the behavior of materials under dynamic loads.
Troubleshooting: Aiding in the maintenance and repair of mechanical systems by providing accurate BDC measurements for troubleshooting and calibration.
Preventive Maintenance: Used in preventive maintenance programs to monitor the condition of reciprocating components and identify potential issues before they cause failures.
Appliance Manufacturing: Ensuring precise BDC detection in components of household appliances, such as washing machines and dishwashers, to improve reliability and reduce noise and vibration.
Power Tools: Monitoring the BDC position in power tools to ensure they operate safely and efficiently.
Precision Equipment: Ensuring precise BDC detection in medical devices that use reciprocating mechanisms, such as surgical tools and diagnostic equipment, to maintain accuracy and reliability.
Imaging Systems: Monitoring the BDC position in imaging systems, such as MRI and CT scanners, to ensure precise movement and image quality.
Robotics: Ensuring precise BDC detection in robotic systems that use reciprocating components, such as linear actuators, to maintain accuracy and efficiency.
Conveyor Systems: Monitoring the BDC position in conveyor systems to ensure smooth and reliable operation.
High Precision Measurement: Utilizes high-resolution sensors and advanced algorithms to achieve precise BDC detection, typically within ±0.01mm.
Digital Display: Features a clear and easy-to-read digital display that shows the BDC position in real-time, allowing operators to make quick and accurate adjustments.
Microcomputer Control: Equipped with a microcomputer for data processing, storage, and real-time monitoring, ensuring consistent and reliable performance.
User-Friendly Interface: Intuitive controls and a user-friendly interface make it simple for operators to set up and use the device.
Data Logging and Analysis: Capable of logging and storing measurement data, which can be exported via USB or RS-232 interfaces for further analysis and quality control.
Real-Time Monitoring: Provides continuous monitoring of the BDC position during operation, alerting operators to any deviations or issues.
Durable Construction: Built with robust materials to withstand the harsh conditions of industrial environments, ensuring long-term reliability and performance.
Safety Features: Includes safety features such as emergency stop buttons and obstruction detection sensors to ensure operator safety.
High Precision and Accuracy
Advanced Sensors: Utilizes high-resolution sensors to achieve precise BDC detection, typically within ±0.01mm.
Microcomputer Processing: Advanced microcomputer technology processes data in real-time, ensuring high accuracy and reliability.
Real-Time Monitoring
Continuous Monitoring: Provides continuous, real-time monitoring of the BDC position, allowing for immediate detection of any deviations or issues.
Alert System: Features an alert system that notifies operators of any problems, enabling prompt corrective action.
User-Friendly Interface
Digital Display: Equipped with a clear and easy-to-read digital display that shows the BDC position in real-time.
Intuitive Controls: User-friendly controls and a simple interface make it easy for operators to set up and use the device with minimal training.
Data Logging and Analysis
Data Logging: Capable of logging and storing measurement data, which can be exported via USB or RS-232 interfaces for further analysis and quality control.
Data Export: Supports data export to computers and other devices for detailed analysis and reporting.
Versatility and Flexibility
Wide Application Range: Suitable for a variety of mechanical systems, including engines, presses, hydraulic cylinders, and more.
Customizable Settings: Allows for customization of settings to accommodate different materials and production requirements, enhancing its adaptability.
Durability and Reliability
Robust Construction: Built with high-quality materials to withstand the harsh conditions of industrial environments, ensuring long-term reliability and performance.
Protection Rating: Often rated for dust and splash resistance (e.g., IP65), protecting the device from environmental factors that could affect performance.
Safety Features
Emergency Stop Button: Includes an emergency stop button for immediate shutdown in case of emergencies, ensuring operator safety.
Overload Protection: Equipped with overload protection to prevent damage to the machine and ensure safe operation.
Obstruction Detection: Sensors detect obstructions and automatically stop the machine to prevent damage and ensure safety.
Ease of Maintenance
Low-Maintenance Design: Designed with accessible components for routine checks and cleaning, reducing maintenance time and costs.
Simple Calibration: Easy and straightforward calibration procedures ensure ongoing accuracy and reliability.
Integration with Modern Systems
Communication Protocols: Supports standard communication protocols, allowing for seamless integration with other manufacturing systems and automation processes.
Automation Compatibility: Can be easily integrated into existing production lines and automated systems, enhancing overall plant efficiency.
Cost-Effective
Preventive Maintenance: Helps in identifying potential issues early, reducing the need for costly repairs and downtime.
Improved Efficiency: Ensures optimal performance of mechanical systems, leading to increased productivity and reduced operating costs.
Engines: Detecting the bottom dead center (BDC) position of engine pistons to optimize combustion efficiency, reduce wear, and improve overall engine performance.
Pistons and Connecting Rods: Ensuring that pistons and connecting rods operate within design specifications, maintaining engine reliability and longevity.
Presses and Stamping Machines: Monitoring the BDC position of press slides and stamping tools to maintain consistent and high-quality production, preventing overtravel and damage to the machinery.
Machine Tools: Ensuring accurate BDC detection in machine tools such as lathes and milling machines to optimize cutting and forming processes, reducing tool wear and improving part quality.
Hydraulic Cylinders: Detecting the BDC position in hydraulic cylinders to prevent overtravel and damage, ensuring the efficiency and safety of hydraulic systems.
Pumps and Actuators: Monitoring the BDC position in hydraulic pumps and actuators to ensure they operate within safe and efficient parameters.
Aviation Engines: Ensuring precise BDC detection in aviation engines to optimize performance and reliability, which is critical for safety in aerospace applications.
Hydraulic Systems: Monitoring the BDC position in hydraulic systems used in aircraft and defense equipment to ensure they function reliably and efficiently.
Pumping Systems: Detecting the BDC position in pumping systems used in oil and gas, water treatment, and other energy-related applications to maintain efficiency and prevent equipment failure.
Power Generation: Monitoring the BDC position in reciprocating engines and compressors used in power generation to optimize performance and reduce downtime.
Mechanical Testing: Used in R&D labs to test and evaluate the performance of mechanical systems and components, ensuring they meet design specifications and performance standards.
Material Testing: Monitoring the BDC position during material testing to evaluate the behavior of materials under dynamic loads.
Troubleshooting: Aiding in the maintenance and repair of mechanical systems by providing accurate BDC measurements for troubleshooting and calibration.
Preventive Maintenance: Used in preventive maintenance programs to monitor the condition of reciprocating components and identify potential issues before they cause failures.
Appliance Manufacturing: Ensuring precise BDC detection in components of household appliances, such as washing machines and dishwashers, to improve reliability and reduce noise and vibration.
Power Tools: Monitoring the BDC position in power tools to ensure they operate safely and efficiently.
Precision Equipment: Ensuring precise BDC detection in medical devices that use reciprocating mechanisms, such as surgical tools and diagnostic equipment, to maintain accuracy and reliability.
Imaging Systems: Monitoring the BDC position in imaging systems, such as MRI and CT scanners, to ensure precise movement and image quality.
Robotics: Ensuring precise BDC detection in robotic systems that use reciprocating components, such as linear actuators, to maintain accuracy and efficiency.
Conveyor Systems: Monitoring the BDC position in conveyor systems to ensure smooth and reliable operation.
Housing: Aluminum alloy, anodized for enhanced durability and corrosion resistance.
Sensor Arm: High-grade stainless steel, precision-machined for accuracy.
Sensor Element: Ceramic or quartz, chosen for its high precision and stability.
PCB: FR-4 glass epoxy, with gold-plated contacts for reliable connections.
Display: 4-inch LCD screen, with an ITO-coated glass touchscreen.
Cables: Shielded cables with PVC insulation, terminated with industrial-grade connectors.
Seals: Silicone rubber, providing IP65 protection against dust and water.
Batteries: Rechargeable lithium-ion batteries, with built-in protection circuits.
Mounting Hardware: Stainless steel screws and bolts, with nylon washers to prevent loosening
What is the accuracy of the Microcomputer Bottom Dead Center Detector?
The accuracy is typically ±0.01mm, ensuring high precision and reliability.
Is the detector easy to use?
Yes, it features a user-friendly digital display and intuitive controls, making it easy to set up and use with minimal training.
Can it be used in harsh industrial environments?
Yes, it is built with durable materials and often rated for dust and water resistance (IP65), making it suitable for harsh industrial environments.
Does it have data logging capabilities?
Yes, it can log and store measurement data, which can be exported via USB or RS-232 interfaces for further analysis.
What safety features does it include?
It includes an emergency stop button, overload protection, and obstruction detection sensors to ensure safe operation and protect both the machine and the operator.