



Coreless motors are used in the medical field, where high reliability is required, because they are cogging-free and highly responsive.
Coggingless, Responsiveness, Reliability
View this Application ExampleUtilizing its compact, lightweight design and low power consumption, it is incorporated into handheld devices to drive machinery.
Shock Resistance, Power Consumption, Small
View this Application ExampleIt is used in high-performance cameras that require high responsiveness, taking advantage of its excellent mobility.
Responsiveness, Coggingless, Compact
View this Application ExampleThe small size and ability to operate at low voltage make it suitable for use in security doors (Electronic key).
Low-Voltage Startup, Small, Long service life
View this Application ExampleDue to its long lifespan, the motor is used in situations where stable output is required.
Long service life, Low vibration, Customization Capabilities
View this Application ExampleDue to its compact and lightweight design, it is installed in portable devices and used not only for driving purposes but also for vibration alerts.
Explosion-proof, Lightweight, Current Consumption
View this Application Example
STEP 01 Please consult about the desired product specifications and characteristics through the inquiry form on our company website.
Although the required request items are listed below, we will support you from the development stage even if you are unsure about the desired characteristics.
Please fill in the information to the extent you know on the inquiry page and contact us.
・Quantity, approximate price, launch timing
・Application, usage environment
・Motor type (coreless brush, coreless brushless, geared, with encoder)
・Motor diameter, length
・Voltage, starting torque, no-load speed
・Rated torque, rated speed
STEP 02We will ask you to provide your specific requirements by phone or online and conduct a detailed consultation. We will share the information gathered during the consultation with our technical staff to determine whether we can develop the product. Even if it is difficult to develop a motor that fully meets your requirements, we will propose a solution that we can provide. (Depending on your requirements, it may not always be possible to propose a solution.)
STEP 03 After you accept the technical documentation and the quotation, we will send the developed sample to you.
You will conduct testing and evaluation of the sample, and based on your feedback, we will make necessary improvements to finalize a product that meets your requirements.
STEP 04 After agreeing to the quotation and specification document for the mass-produced items, we will begin mass production of the products. We ensure strict quality control before delivering the products to you.
Even after delivery, we will assist not only with quality consultations but also with any new inquiries, aiming to build a long-term trust relationship.

C.I. Takiron Corporation leverages the quality control standards characteristic of Japanese manufacturers and the design expertise cultivated over many years to provide Micromotors that deliver high-precision and stable operation. Furthermore, the company is thoroughly committed to achieving low vibration and low noise, and its products are widely adopted in a variety of fields—such as the medical and industrial sectors—where quality and reliability are paramount.

With a diverse lineup that includes coreless, brushless, geared, and encoder-integrated motors, we can provide optimal solutions tailored to our customers’ specific applications and requirements. These motors offer an excellent balance of size, performance, and characteristics, contributing to both space-saving designs and enhanced functionality. We are also actively engaged in the development of new products, such as high-torque coreless motors and dynamos, to support the creation of next-generation equipment.

With our technical support system designed to cover everything from initial consultations to prototyping and mass production, we help our customers improve their development efficiency. We go beyond simply supplying parts; we contribute as a partner dedicated to enhancing the value of your products together. Furthermore, with a network of distributors across Europe and Asia, we have established a support system capable of responding quickly and attentively to requests from both within Japan and overseas.

Motor carbon brushes are components that transmit electric current through sliding contact with the commutator (or slip ring); in DC motors, they work in conjunction with the commutator to maintain rotation. They are used in a wide range of equipment, from industrial motors to power tools. If carbon brushes wear out or commutation becomes unstable, it can lead to sparking or damage to the commutator, making them critical from the perspective of maintenance and downtime risks. Carbon brush materials include electrographite, natural graphite, and metal graphite, among others, and selecting the appropriate material based on the application and operating conditions is essential. Understanding how to assess lifespan and replacement timing based on brush wear, as well as how to diagnose…

While a motor is rotating, the torque it outputs is not entirely constant. Instantaneous torque undergoes slight periodic fluctuations, manifesting as variations in rotational force. These periodic torque fluctuations are known as “torque ripple.” Significant torque ripple adversely affects equipment performance, leading to vibration, noise, reduced positioning accuracy, and degraded controllability.This is a technical challenge that cannot be ignored, particularly in fields where smooth operation and precision are directly linked to quality, such as medical equipment, optical equipment, and industrial robots. In this article, after clarifying the basic meaning of torque ripple and its difference from cogging torque, we will explain the main causes of its occurrence and methods for reducing it from the perspectives of design, control, and motor…

The ability to accurately measure and control a motor’s rotational speed is critical, as it directly impacts equipment performance and stable operation (required specifications). “I want to know the formula for calculating rotational speed.” “I want to understand how voltage and torque affect rotational speed” “I want to explore methods for achieving precise speed control” To address these technical challenges, this article provides a technically grounded explanation—ranging from the basic calculation formula for DC motor rotational speed to the factors affecting rotational speed, how to interpret T-N characteristics (torque characteristics) and how to use PWM control and feedback control for practical speed control. We provide information that will be useful to engineers in fields where reducing speed fluctuations and maintaining…