Outline drawing

Customization Options (OEM / ODM)

Output RPM and torque can be customized to match your application by selecting the appropriate gear ratio & motor winding. We also support integration-focused changes:

• Output shaft: round / D-cut / threaded / custom length (per drawing)
• Cable & connector: type, length, routing, polarity marking
• Gear ratio / stages: optimized for speed, torque margin, efficiency and noise
• Optional: encoder, special mounting requirements (project-dependent)

Note: The table/specs shown are for reference only. Final configuration is confirmed by your load profile and duty cycle.

 

The basic parameters are for reference

Typical Applications

• Medical & lab automation modules (e.g., blood analyzers)
• Compact actuators requiring long life and stable torque output
• OEM devices where reliability, efficiency and controllability matter

Selection Notes (How to Specify the Correct Version)

To receive a comparable quote and correct samples, please provide:

1. Target output RPM (under load)
2. Required continuous torque and peak torque
3. Duty cycle (on/off time, starts/stops, reversals, any stall events)
4. Supply voltage range (min–max) + any current limit
5. Space limits (max OD/length) + shaft/mounting drawing (preferred)

We will recommend the suitable gear ratio and winding and confirm a working point aligned to your load profile—rather than sizing from stall torque only.

Engineering Deliverables & Validation Support (Available on Request)

To help your team validate the design faster, we can provide:

• Motor curve / torque–speed curve (current, efficiency, operating point reference)
• 3D STEP model and 2D outline drawings for mechanical integration
• Lifetime estimation based on your duty cycle, load profile and ambient conditions
  (including recommendations for torque margin, thermal limits and operating window)

Request motor curve & STEP & life estimation when you contact us for quotation.

FAQs

Q1: Hall sensors vs. sensorless—what should I choose?

A: For smart locks (high start torque, end-stops, frequent start/stop) and many medical pumps (stable low-speed control), Hall sensors are usually recommended for more reliable startup and repeatable performance. Sensorless is better suited to lighter-load, higher-speed cases.

Q2: How do I choose the gear ratio?

A: Start with Gear ratio ≈ motor RPM ÷ target output RPM (under load). Final selection must confirm continuous/peak torque, efficiency/noise trade-offs, and thermal margin under your duty cycle—share RPM + torque and we’ll propose the ratio/stages.

Q3: What inputs matter most for correct sizing (beyond “stall torque”)?

A: Output RPM under load, continuous & peak torque, duty cycle (run time, starts/day), and end-stop/stall behavior (duration & frequency). These decide heating and lifetime more than stall specs.

Q4: What do you need for a fast and correct quote?

A: Please send voltage range + target output RPM (under load) & required torque (continuous/peak) + duty cycle + space limit (OD/length) + shaft/mounting drawing. (For smart locks, include end-stop stall time/frequency.)

Q5: Can you provide motor curve and CAD files?

A: Yes. We can provide motor curve / torque–speed data and 3D STEP & 2D drawings for engineering validation and mechanical integration.

Q6: Do you provide lifetime estimation?

A: Yes. We can provide lifetime estimation based on your duty cycle, load profile, ambient temperature, and torque margin assumptions—useful for reliability planning and validation.