Computer-Controlled High-Temperature Friction Tester

The Computer-Controlled High-Temperature Friction Tester is a precision tribology testing machine designed to measure friction, wear, and lubrication performance of metals, plastics, ceramics, rubber, and coatings under high-temperature and controlled environmental conditions. It supports various motion types, real-time data acquisition, and computer-controlled test parameters for accurate and reproducible results.

Application

This machine is mainly used for tribological and physical-chemical testing of metals, non-metals, plastics, glass, ceramics, rubber, and other materials. It can test friction and wear properties under a certain contact pressure and variable environmental conditions, such as vacuum, controlled gas atmosphere, or high-temperature environments. The friction force measurement has high precision.

With additional attachments, the machine can perform rolling, sliding, or combined rolling-sliding friction tests. It features a stepless speed regulation system, suitable for both low-speed and high-speed conditions to evaluate lubricants, metals, plastics, coatings, rubber, ceramics, etc. Examples of testing include pin-on-disk friction, ball-on-disk lubrication performance, and thrust washer wear performance.

All test parameters are computer-controlled, allowing measurement of friction force, calculation of friction coefficient, real-time data acquisition, and recording of friction force–time and friction coefficient–time curves.

Features

Computer-Controlled Operation: Enables precise automation of test parameters and data acquisition.

High-Temperature Capability: Can test materials at elevated temperatures to simulate extreme working conditions.

Adjustable Load and Speed: Allows control of normal force and sliding speed for versatile testing.

Real-Time Friction Measurement: Uses high-precision sensors to record friction coefficient continuously.

Wear Rate Analysis: Measures material loss for accurate wear evaluation.

Heating and Cooling System: Maintains consistent test temperatures with optional cooling for rapid stabilization.

Data Acquisition and Analysis Software: Records, visualizes, and analyzes test data for friction and wear.

Versatile Material Compatibility: Suitable for metals, ceramics, composites, polymers, and coatings.

Safety Protection: Includes thermal insulation and overload protection for safe operation.

Standard Compliance: Supports international standards such as ASTM, ISO, and GB/T for friction and wear testing.

Technical Specifications

Accessories

(1)Test Specimens and Holders: Standardized pins, discs, or blocks for high-temperature testing.

(2)Heating and Cooling Modules: High-precision furnaces or temperature-controlled platforms.

(3)Load and Force Sensors: For accurate measurement of applied load and frictional force.

(4)Data Acquisition System: Collects and stores real-time friction and wear data.

Test Procedures

Specimen Preparation: Clean and shape samples; ensure proper mounting in the holder.

Parameter Setup: Set load, speed, stroke, temperature, and test duration via software.

Test Execution: Run automated friction tests under controlled temperature, recording friction and wear continuously.

Data Analysis: Evaluate friction coefficient, wear rate, and surface changes after testing.

Maintenance Information

Daily Cleaning: Wipe specimen holders, heating surfaces, and removable parts after each test.

Calibration: Regularly check and calibrate sensors, load cells, and temperature controllers.

Lubrication: Apply grease or oil to moving parts to reduce mechanical wear.

Inspection and Storage: Check for damage, keep the tester dust-free, and store in a stable, dry environment.

FAQ

1. What materials can be tested with this instrument?

It can test metals, ceramics, polymers, composites, and coated materials under high-temperature conditions.

2. What is the maximum temperature range of the tester?

The tester is designed for high-temperature operation, typically up to 1000 °C or as specified by the model.

3. How is friction and wear measured?

Friction is recorded continuously using precision force sensors, while wear is measured by mass loss, dimensional changes, or surface analysis after testing.

4. Can the tester simulate real-world operating conditions?

Yes, it supports adjustable load, sliding speed, stroke, and temperature control to replicate extreme working environments.

5. How should the instrument be maintained?

Daily cleaning of holders and heating surfaces, regular calibration of sensors, lubrication of moving parts, and proper storage in a clean, dry environment are recommended.