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FH-JL101
Feihong
The Electric Scooter Tire Road Condition Testing Machine is designed to evaluate the dynamic durability, wear resistance, and safety performance of wheels used on electric scooters, kick scooters, inline skates, and similar mobility products.
The machine reproduces real-world riding conditions through a large-diameter steel drum equipped with standard obstacle blocks. By applying controlled loads, speeds, and test durations, manufacturers can assess wheel reliability, tire wear characteristics, bearing durability, and overall rolling performance under repeated obstacle impacts.
The equipment is widely used in product development, quality control, certification testing, and reliability verification programs.
In real-world operation, scooter wheels repeatedly encounter:
Sidewalk joints
Road cracks
Small curbs
Rough pavement
Uneven surfaces
These impacts create cyclic stress on:
Tires
Wheels
Bearings
Axles
Fork assemblies
Road condition testing accelerates these conditions in a laboratory environment to identify potential failures before products reach the market.
The machine is designed to accommodate obstacle dimensions, loads, speeds, and test durations required by various scooter and wheel durability standards.
Typical applications include:
Electric Scooter Internal Reliability Testing
Product Durability Validation Programs
Wheel Endurance Testing
OEM Quality Verification Procedures
Certification Preparation Testing
Obstacle dimensions can be customized according to customer-specified standards and test requirements.
To evaluate the long-term durability of scooter wheels under repeated rolling conditions.
The wheel rotates continuously against the steel drum while carrying a specified load.
This simulates thousands or even millions of wheel revolutions that would occur during actual riding.
Wheel cracking
Hub deformation
Tire wear
Bearing failure
Axle damage
To evaluate wheel resistance against repeated impacts.
Obstacle blocks mounted on the drum periodically strike the wheel during operation.
This reproduces repeated encounters with road irregularities and accelerates fatigue accumulation.
Tire separation
Hub fractures
Bearing looseness
Structural fatigue damage
To analyze tread wear and service life.
The wheel operates continuously under controlled speed and load conditions.
After testing, engineers can compare tire wear patterns and material durability.
Wear rate
Surface damage
Material degradation
Tire lifespan
To verify bearing durability under dynamic loading.
Repeated wheel rotation combined with obstacle impacts subjects bearings to realistic service conditions.
The test helps evaluate:
Bearing wear
Heat generation
Lubrication effectiveness
Long-term reliability
To verify wheel performance under different rider weights.
Adjustable loads from 20 kg to 100 kg are applied during testing.
This allows engineers to compare performance under different operating conditions and identify load-related weaknesses.
Steel drum structure
Standard obstacle block design
Realistic road condition reproduction
Load adjustable from 20 kg to 100 kg
Programmable test duration
Controlled drum speed
Simulates long-term riding conditions
Reduces product development cycle
Improves reliability assessment efficiency
High-rigidity steel structure
Stable operation during long-duration testing
Suitable for laboratory and production environments
Item | Specification |
|---|---|
Drum Diameter | Φ700 mm |
Drum Material | Steel |
Obstacle Type | Trapezoidal Steel Block |
Drum Speed | 0.5 m/s ±5% |
Load Range | 20–100 kg |
Test Duration | 1 Minute – 99 Hours 59 Minutes |
Test Bench Size | 1700 × 880 × 2050 mm |
Control Cabinet Size | 370 × 350 × 910 mm |
Machine Weight | Approx. 1450 kg |
Power Supply | AC220V / 15A |
Installed Power | 4 kW |
Static strength testing evaluates maximum load capacity, while road condition testing evaluates durability under repeated impacts and cyclic loading. Most wheel failures occur due to fatigue accumulation rather than a single overload event.
Obstacle blocks reproduce the repeated impacts experienced during actual riding over rough surfaces. These impacts accelerate fatigue development and reveal weaknesses that may not be detected during smooth rolling tests.
The system can evaluate:
Tires
Wheel hubs
Bearings
Axles
Fork assemblies
Wheel mounting structures
The load is chosen based on the intended rider weight and product category. Different loads help manufacturers evaluate wheel performance under realistic operating conditions and safety margins.
Wheel fatigue testing often focuses on a specific component under controlled cyclic loading. Road simulation testing reproduces a combination of rolling, impact, vibration, and load conditions, providing a more realistic assessment of overall wheel reliability.
For a complete scooter wheel and durability testing laboratory, this machine is commonly paired with:
Scooter Folding Fatigue Testing Machine
Scooter Handlebar Fatigue Testing Machine
Scooter Horizontal Impact Testing Machine
Scooter Drop Testing Machine
Dual Drum Scooter Durability Testing Machine
Brake Performance Testing Machine
Wheel Radial Fatigue Testing Machine
Electric Scooter Battery Performance Testing System
Together, these systems provide comprehensive validation of wheel durability, product reliability, rider safety, and certification readiness.