Brake Pads Dynanometer Test Machine

Dual-Inertia Synergy for Real-World Braking Simulation

  • Combines mechanical and electrical inertia technologies to deliver comprehensive testing for assembled brake systems, covering both brake performance verification and NVH (Noise, Vibration, Harshness) analysis.
  • Accurately replicates real-road braking scenarios across a wide range of vehicle models, ensuring test data closely aligns with actual on-vehicle performance.
  • Fu Chun Jiang Innov Brake Pads Machines has optimized this dual-inertia integration, achieving an ideal balance between test authenticity and operational flexibility to meet diverse brake system testing requirements.

High-Precision Inertia Simulation Performance

  • The dynamometer’s inertia simulation system features high precision and strong adaptability, with its drive motor enabling accurate testing of vehicle inertia points.
  • Energy input is adjusted by adding to or subtracting from the rotating system, effectively simulating the inertia characteristics of real vehicles under different working conditions.
  • Refined by Fu Chun Jiang Innov Brake Pads Machines, this inertia simulation technology ensures consistent and reliable performance across all test scenarios.

Efficiency Enhancement & Cost Optimization

  • Requires fewer mechanical inertia discs compared to traditional dynamometers, significantly reducing users’ initial investment costs.
  • Shorter downtime for inertia disc replacement improves overall test efficiency, while adjustable inertia values during operation enhance testing flexibility.
  • Eliminates mechanical operation losses to improve test accuracy, all in line with the high-performance standards of Fu Chun Jiang Innov Brake Pads Machines.

Host & Main Drive System Configuration

  • Adopts a split-type host structure, separating the main unit from the test platform to simplify installation, routine maintenance, and overhaul processes.
  • Motor power: 160 KW; speed range: 0 to 2000 rpm (constant torque: 0 to 990 rpm; constant power: 991 to 2000 rpm).
  • Speed control accuracy: ± 0.2%FS; speed measurement accuracy: ± 0.1%FS; overload capacity: 150%.

Control System Design

  • Core components: PC + PLC; control software based on Windows XP, boasting wide compatibility and user-friendly operation.
  • Real-time on-screen display includes test program status, test data, curves, text information, input windows, step results, and alarm notifications.
  • Test programs are coded in VC++ and editable via Windows text editor for readability; test reports can be exported to Microsoft® Excel®.

Inertia System Specifications

  • Dual inertia integration (mechanical + electrical) enables flexible and accurate simulation to meet diverse testing needs.
  • Base inertia: 10 kgm²; minimum mechanical inertia: 10 kgm²; dynamic flywheel configuration: 4×40kgm² + 2×20kgm² = 200kgm².
  • Maximum mechanical inertia: 210 kgm²; maximum electrical simulation inertia: 40 kgm²; total simulation range: 10-250 kgm²; control accuracy: +/- 2kgm².

Hydraulic Brake System Parameters

  • Maximum braking pressure: 21MPa; maximum pressure rising rate: 1600 bar/sec; brake fluid flow: 55 ml.
  • Pressure control linearity: < 0.25%; supports programmable dynamic pressure control to adapt to customized test scenarios.

Multi-Dimensional Measuring System

  • Temperature: Measuring range -25 – 1000 ℃, accuracy ± 1% FS, equipped with K-type thermocouple compensation.
  • Pressure: Measuring range 25 MPa, accuracy ± 1% FS; speed: Pulse channel #1 (5000 pulses/turn).
  • Torque: Full scale 5000 N.m, measurement accuracy ± 1% FS.