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Case Studies

Robotics Industry Parts Manufacturing with Taiga | Providing Lightweight, High-Precision Moving Parts with Quick Turnaround

We manufacture precision parts for robots with a quick turnaround. Offering lightweight yet highly rigid moving components, we ensure smooth operation and durability.

Prototyping of components for the robotics industry to you

Specializing in the manufacture of components for the robotics industry, our services create innovative design and manufacturing solutions through our ability to propose diverse processing technologies. We respond flexibly from the prototype stage to small-lot production, and our ISO 9001-certified system ensures that we can live up to your trust.

Taiga Applications in the Robotics Industry

✔
Arm and joint parts
We can manufacture major parts in robot manufacturing, such as arms and components.
✔
Cases for device protection
We are capable of manufacturing sensor cases and other parts that require high strength.
✔
Prototype Part Manufacturing
We are also flexible to manufacture parts for robots in the prototype stage.

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Other areas of usefulness include

Manufacture of durable parts

End effector (gripper) for robotic arm

Cable guides and covers for wiring

Key features and benefits of using the Taiga

Suitable for small-lot production

Large-scale production lines are not required. We specialize in flexible small-lot production.

Proposing state-of-the-art technology

It is compatible with multiple materials such as metals and CFRP, and enables precise and complex shapes.

Short delivery time from prototype

We help speed up product development by quickly producing prototypes and trial products.

In addition to ISO 9001 certification, the product meets manufacturing standards that require high reliability.

No information entry required!

Click here for registration and questions

Robotics Examples of technologies used in the industry

CFRP加工

CFRP

CFRP processing technology is utilized in the field of robotics to realize lightweight and highly rigid structures. In particular, CFRP is used for arms, links of moving parts, and basic frames of industrial robots and cooperative robots, enabling downsizing of drive motors and energy saving by reducing the overall weight of the equipment. CFRP also has excellent vibration damping properties, making it suitable for applications that require precision movements and high-precision control. It is also highly resistant to corrosion and fatigue, and can be considered a material that supports stable long-term operation of robots.

Learn more about our technology.

金属3Dプリント

Metal 3D Printing

Metal 3D printing is utilized for robot actuator parts and complex joint structures to create lightweight, rigid, and integrally molded parts. It is also ideal for research and development applications, as it can accommodate complex mechanisms within a limited space and can be used for prototyping and small-lot production.

Learn more about our technology.

樹脂3Dプリント

Resin 3D Printing

Resin 3D printing is used for sensor fixtures, exterior panels, covers, and other components, and its design freedom and lightweight properties increase the efficiency of robot design. Suitable for shortening development cycles and individualizing small and articulated robots, this technology has become indispensable for prototyping prior to mass production.

Learn more about our technology.

板金加工

Sheet Metal

Sheet metal processing technology is widely used in the field of robotics to manufacture structural parts such as robot body frames, exterior covers, and control panel housings. Mainly, metal sheets such as aluminum, stainless steel, and titanium are cut, bent, and welded, processed, and formed to realize lightweight and highly rigid parts. Another advantage is that they can be custom-designed according to component placement and wiring space inside the chassis to achieve both functionality and ease of maintenance. Because it can also be used to manufacture parts for industrial robots, which require durability and safety, it has been adopted in numerous situations.

Learn more about our technology.

切削加工

Machining

Cutting technology is an indispensable processing technology for manufacturing parts that require high precision in the field of robotics. It is mainly used to manufacture shafts and housings for robot joints, precision gears, bearing holders, and shafts for encoders. In addition to being able to handle a variety of materials such as aluminum, stainless steel, titanium, and resin, machining centers and lathes can be used to process parts with micron-level precision. This ensures smooth motion and repeatability of the robot, leading to stable operation over a long period of time.

Learn more about our technology.

射出成形

Injection Molding

Injection molding technology is a processing technique used to mass produce lightweight, high-precision plastic parts in the robotics field. It is mainly used to produce robot exterior covers, housings for sensors, covers for cable protection, connectors for wiring, and parts for control boxes. The use of engineering plastics such as ABS, PC, and POM as materials for robot parts has the advantage of ensuring impact resistance, heat resistance, and insulation while taking compatibility with electronic devices into consideration. Integral molding also reduces the number of parts, which leads to assembly efficiency and cost reduction.

Learn more about our technology.

冷間加工

Cold Forming Process

Cold working is a processing method that plastically deforms materials below their recrystallization temperature, and is widely used in the manufacture of parts for the robotics industry. The robotics industry requires high precision, strength, and durability, making cold working a good match for this processing technology. Cold working is important in increasing the strength of parts because work hardening increases the strength of the material. At the same time, it offers multiple advantages, such as precise dimensional accuracy and is suitable for manufacturing parts with complex shapes.

Learn more about our technology.

Welding Process
Grinding process
wire-cut electric discharge machining

We offer a diverse range of technologies, including

Robotics Examples of materials utilized in the industry

Titanium Alloys
Titanium alloys are utilized in the field of robotics as highly functional materials that combine light weight, high strength, and corrosion resistance. In particular, it is used for shafts of joints, links that are subject to high loads, and structural materials of moving parts, and its advantage is that it is less deformed and degraded even after long-term use. It is also suitable for robots used in harsh environments such as at sea or in chemical plants, and has excellent maintainability due to its resistance to rust and corrosion. Its extremely high specific strength also helps improve the accuracy of motion and energy efficiency.
aluminum alloy
Aluminum alloys are widely used in the field of robotics as lightweight materials with excellent workability. It is particularly suitable for robot arms, frames, brackets, sensor mounts, etc., where its light weight improves the responsiveness of moving parts and energy-saving performance. It also has excellent corrosion resistance and demonstrates stable performance outdoors and in humid environments. Another advantage is that it can be used for a variety of processes such as cutting, drilling, and bending, allowing for a high degree of freedom in design and making it suitable for manufacturing highly customizable robot parts.
CFRP (Carbon Fiber Reinforced Plastic)
CFRP (carbon fiber reinforced plastic) is one of the most important materials in the field of robotics because of its high rigidity and strength while being extremely lightweight. Specifically, CFRP is used for arms, links, and structural parts of moving parts in industrial robots, and can ensure excellent rigidity while significantly reducing weight. This improves the robot's operating speed and energy-saving performance, and also reduces the load on the drive unit. It also has excellent vibration absorption and corrosion resistance, and is attracting attention as a material for realizing high-precision operation and long life.

In addition to this, we can handle all kinds of materials.

Key to Successful Manufacturing of Components for the Robotics Industry

High-precision machining and tolerance control

High-precision machining and strict tolerance control are essential in the manufacture of parts for the robotics industry. Shafts and gears for joints and mounting parts for encoders require dimensional accuracy on the micron level, and the slightest error can cause misalignment of motion, vibration, and wear. Therefore, in addition to machining using machining centers and precision lathes, quality control using three-dimensional measuring machines and surface roughness measuring instruments is necessary. In addition, the coordination of tolerance setting at the design stage and control at the manufacturing site will make it possible to produce robot parts with stable motion and high repeatability.

Ensure durability and reliability

For parts for the robotics industry, it is important to ensure durability to withstand long-term operation and reliability to always demonstrate stable performance. Since moving parts and joints are subject to repetitive movements and impacts, materials that are resistant to wear and fatigue must be selected, and high-strength structural design is required. High-precision machining and thorough quality inspections are also required to minimize component variation.

Modularity and assemblability considerations

In the manufacture of components for the robotics industry, modularization and assembly considerations play a major role in improving the efficiency of product development and maintenance. Modularization refers to the construction of parts in functional units that can be exchanged and assembled as individual units. This simplifies on-site assembly work and allows maintenance and parts replacement to be performed in a shorter time. In addition, by designing components that take wiring space and fixing methods into consideration from the design stage, man-hours during assembly can be reduced and human errors can be prevented, thereby improving productivity and reliability.

Flow of using Taiga

1

Sign Up

Contact us to request a registration form, and our team will help you get started.

2

Upload Your Design

Submit your drawings and project requirements through the platform.

3

Get Technical Proposals

Receive detailed proposals from multiple companies with advanced technical expertise.

4

Compare and Collaborate

Use Taiga’s built-in chat and drawing tools to review and discuss proposals with each company.

5

Place Your Order

Once you’ve chosen the best proposal, place your order directly through Taiga and start production.

No information entry required!

Click here for registration and questions

Frequently Asked Questions

1 Can you manufacture joints and arm parts for robots? +

Yes, we can also manufacture parts that require high precision and smooth motion, such as joints and arm parts.

2 Can you handle design changes at the prototype stage? +

Yes, we can respond quickly to design changes and utilize 3D printing technology to improve prototypes in a short period of time.

3 Can you propose materials for lightweight robot parts? +

Yes, we can propose materials suitable for weight reduction, such as carbon fiber and lightweight aluminum.

4 Are you able to manufacture parts for robots in small quantities? +

Yes, we can manufacture parts for special applications and in small quantities.

Please feel free to contact us for consultation and questions.

No information entry required!

Click here for registration and questions

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