01 / MOTOR FAMILY
Micro DC & brushless motors
Explore brushed, coreless, brushless and stepper motor options. Match motor construction to your load, supply and controller.
Compare this motor family ↗NEED FOR POWER / NFP MOTOR
Compact motion and tactile feedback for product integration.
Compare rotary drives, geared outputs and haptic actuators by their operating requirements. Start with a motor family, then check the exact model specifications and outline drawing.
Motor integration considerations ↓01 / MOTOR FAMILIES
Three routes into the catalogue, organised around the function of the drive.
01 / MOTOR FAMILY
Explore brushed, coreless, brushless and stepper motor options. Match motor construction to your load, supply and controller.
Compare this motor family ↗
02 / MOTOR FAMILY
Compare ERM vibration motors, brushless vibration motors and linear resonant actuators for alerts and tactile interfaces.
Compare this motor family ↗
03 / MOTOR FAMILY
Compare spur, planetary and worm gear motors for reduced output speed, load torque and compact transmission layouts.
Compare this motor family ↗02 / MOTOR SELECTION
Define the required motion and the conditions in the finished product. A no-load speed or a nominal voltage alone is not enough to select a drive.
| Design objective | Start with | Key inputs | Integration check |
|---|---|---|---|
| Rotary motion | Micro DC motors ↗ | Loaded speed and torque; available supply; motor body and shaft dimensions. | Check brushed or brushless construction and the required controller. |
| Reduced-speed output | DC gear motors ↗ | Output torque and speed; gear ratio; gearbox limits; backlash and shaft loads. | Check the motor and gearbox as one assembly at the intended duty cycle. |
| Alerts & tactile feedback | ERM motors / LRAs ↗ | Package size; mounting; vibration response; voltage and drive method. | Select the actuator and haptic driver together; ERM and LRA drive methods differ. |
03 / MICRO DRIVE INTEGRATION
Review the mechanical, electrical and control requirements together, rather than treating the motor as an isolated component.
Specify the required output speed and the running and starting loads. For gear motors, include gear ratio, backlash, duty cycle and allowable output-shaft loading.
Compare gear motor options ↗Check battery or supply variation, start-up current and controller limits. Confirm whether the selected brushless motor has integrated electronics or needs an external driver.
Brushless motor drivers ↗Use the full outline drawing, including shaft protrusion, eccentric-mass clearance, leads, connector and mounting features. Leave space for assembly and cable routing.
Motor mounting brackets ↗ERM actuators and LRAs require different drive methods. Evaluate vibration in the actual housing; mounting stiffness, enclosure mass and the user’s grip can affect perceived feedback.
ERM and LRA comparison ↗Define whether the application needs speed regulation, direction detection or positioning. Specify encoder output, resolution and the interface needed by your controller.
Gear motors with encoders ↗Record on/off timing, load changes, temperature, noise and the required service life. Evaluate the exact motor configuration in the intended assembly before fixing the design.
Motor selection questions ↗04 / DESIGN PATHWAYS
Use these starting points to explore the relevant drive architecture. Suitability depends on the exact model and application.
For small positioning mechanisms, instrument adjustments and compact drive assemblies. Start with output load and speed, then check gearhead and shaft constraints.
For products that need a small rotary motor coupled to a mechanism. Compare motor architecture, loaded operation, control method and the available installation space.
For wearable notifications, handheld instruments and interactive controls. Begin with the intended tactile effect, then choose package, mounting and drive electronics.
05 / APPLICATION ARCHIVE
Explore documented examples of tactile feedback in wearable devices, gaming interfaces and compact equipment. These are historical case studies.
WEARABLE NAVIGATION
Tactile patterns turn sonar information into feedback on the wrist. This case shows an LRA integrated into a compact wearable interface.
GAMING & INTERFACES
Force-sensitive clicks are paired with tactile confirmation. An LRA provides feedback when a configured deep-click action is activated.
COMPACT INSTRUMENTS
A compact actuator brings tactile feedback to a dive-computer interface. Review the case for its integration into the Shearwater device.
INTERACTIVE EQUIPMENT
Enclosed vibration motors give players tactile cues for game events. The case covers feedback in taggers and hit-sensor equipment.
SPORTS COMMUNICATION
A cylindrical pager motor provides a vibration alert in the RPS2156 referee communication system, bringing a tactile cue to a wearable receiver.
WEARABLE ALERTS
A PCB-mounted vibration motor fits into a compact ring assembly. Explore the documented motor and board integration for wearable feedback.
06 / TECHNICAL RESOURCES
Use the product drawing and model data together with the relevant application guidance.
Compare actuator construction and drive requirements for tactile feedback.
Read guide ↗TECHNICAL GUIDEReview SMD reflow and spring-contact approaches for vibration motor integration.
Read guide ↗TECHNICAL GUIDERead the current-measurement guide before comparing operating conditions.
Read guide ↗07 / NFP MOTOR
NFP Motor is the motor business of Need For Power Electronics Co., Limited. Our catalogue covers vibration actuators, micro DC motors and geared motor configurations.
Start with a catalogue model or discuss configuration requirements such as leads, connectors, shafts and mounting. Available options depend on the chosen model.
Company and product information ↗08 / COMPLETE CATALOGUE
Open the directory for all 33 product categories, drivers and mounting accessories.
01 / PRODUCT DIRECTORY
02 / PRODUCT DIRECTORY
03 / PRODUCT DIRECTORY