High-efficiency design and aluminum housing ensure stable heat dissipation during high-power operation.
The SLB 65MX motor is available with multiple anodized colors, allowing manufacturers and riders to match performance components with their vehicle design. Each finish is precision-machined and anodized to ensure long-term durability while maintaining the structural integrity of the motor assembly.
Finish Type
Precision Anodized Aluminum
Corrosion Resistance
High
Thermal Engineering
Thermal Stability
High-efficiency electromagnetic design combined with aluminum housing allows stable heat dissipation during high-power operation and aggressive riding conditions.
Working Temperature
80°C ~ 120°C
Peak Temp
140°C
Mechanical Design
Rugged Motor Construction
Sealed motor housing engineered for electric dirt bikes and high-vibration riding environments
Protection Rating
IP67
Housing
High-Strength Aluminum Alloy (6063)
Weight
12 kg
Thermal Engineering
SLB 65MX Motor System
A high-performance electric motor system engineered for lightweight electric motorcycles. The SLB65MX delivers high torque density, efficient power delivery, and reliable thermal performance for demanding off-road riding conditions.
High Torque Density Motor
Optimized electromagnetic motor design delivers strong torque output while maintaining high electrical efficiency across the operating range.
Direct-Drive Motor Architecture
Direct-drive architecture enables efficient power transfer with minimal mechanical losses, improving overall reliability and performance.
Rugged Motor Construction
Rugged Motor ConstructionReinforced motor housing and sealed components ensure durability under vibration, impacts, dust, and off-road environments.
High-Current Electrical Architecture
Supports high current levels for stable power delivery, rapid throttle response, and strong acceleration performance.
High-Resolution Motor Feedback
High-resolution sensor feedback enables precise motor control, smooth acceleration, and stable performance across the full speed range.
Thermal Performance Optimization
Efficient thermal management design ensures consistent performance and prevents overheating during sustained high-load operation.
Technical Specifications
SLB 65MX Motor Technical Specifications
Detailed electrical and mechanical specifications of the SLB 65MX high-performance electric motor platform designed for lightweight electric motorcycles.
Rated Voltage
72-108 V
Operating voltage range designed for high-performance EV systems.
Rated Power
25 kW
Continuous rated output power under normal operating conditions.
Peak Power
65 kW
Maximum peak output during acceleration or high load.
Max Phase Current
1200 A Peak
Maximum supported motor phase current during peak performance operation.
Peak Torque
96 Nm
Continuous torque output for sustained performance.
Base Speed
7000 RPM
Nominal output shaft speed during standard operation.
Maximum Speed
12,000 RPM
Maximum achievable output speed under field-weakening conditions.
Protection Rating
IP67
Fully sealed design for dust and water resistance.
Efficiency
95%
High efficiency power conversion for improved energy utilization.
Cooling Method
Passive Air Cooling
Passive cooling architecture with finned aluminum housing.
Weight
12 kg
Optimized weight for mid-drive EV applications.
Sensor System
High-Resolution Position Sensors
Precision feedback sensor for accurate rotor position detection.
Pole Pairs
5
Application Platforms
Applications
Designed for lightweight high-performance electric mobility platforms.
Electric Dirt Bikes
High-torque electric motor optimized for lightweight off-road motorcycles requiring strong acceleration and durable performance.
Performance EV Builds
Ideal for electric enduro and trail bikes requiring sustained torque, efficient power delivery, and reliable thermal performance.
Go Kart
High-efficiency motor platform suitable for electric go-kart systems requiring rapid acceleration and compact powertrain integration.
Racing Platforms
Designed for high-performance electric motorcycles where torque response, efficiency, and durability are critical.