株式会社がまかつ Product Lineup

In the sports equipment industry, materials with high resilience that directly contribute to improving athlete performance are in demand. Particularly in competitive gear, the ability to produce high rebound while being lightweight becomes a crucial factor that can determine the outcome of competitions. Insufficient resilience may hinder an athlete's ability to perform at their best and can impact competition results. Our hybrid material, which wraps carbon around a PET resin rod, contributes to improved resilience by combining the flexibility of the resin with the rigidity of carbon. 【Application Scenarios】 - Sports equipment such as bats and rackets that require flexibility and resilience - Competitive gear that aims to achieve both lightweight and high rigidity 【Effects of Implementation】 - Performance support through improved resilience of sports equipment - Realization of product design that balances lightweight and high rigidity

• Other machine elements

In the construction industry, effective reinforcement methods are required to enhance the safety and durability of structures. Particularly, to improve resistance against external forces such as earthquakes, materials that are lightweight yet possess high strength are essential. Traditional reinforcement materials have sometimes posed challenges in terms of weight and workability. Our hybrid material, which wraps carbon around PET resin rods, addresses these issues and contributes to the seismic performance enhancement of buildings. 【Application Scenarios】 - Reinforcement of columns and beams in existing buildings - Application in parts of seismic isolation and damping structures - Reinforcement of structures where weight reduction is necessary 【Benefits of Implementation】 - Exhibits high tensile strength and bending rigidity while being lightweight - The method of wrapping carbon allows for adjustment of required strength and flexibility - Ease of processing contributes to improved workability on site

• Other machine elements

In the drone industry, there is a demand for both lightweight construction and high flight performance. In particular, extending flight time and improving payload capacity require not only lightness but also sufficient rigidity. Traditional materials have faced the challenge that pursuing lightness results in a lack of rigidity, while increasing rigidity leads to an increase in weight. Our hybrid material, which consists of a PET resin core wrapped in carbon, addresses these challenges through the ease of processing the resin core and the property adjustments achieved by the wrapping of carbon. 【Application Scenarios】 - Lightweight drone frames - Improved rigidity of propeller arms - Enhanced flight stability 【Benefits of Implementation】 - Extended flight time - Increased payload capacity - Improved maneuverability

• Other machine elements

In the field of marine development, usage is always anticipated under harsh environments, making measures against corrosion and degradation due to saltwater particularly important. To extend the lifespan of equipment and reduce maintenance costs, selecting materials with excellent saltwater resistance is essential. Our hybrid material, which wraps carbon around PET resin rods, addresses these unique challenges of marine environments by combining the workability of PET resin with the properties of carbon. 【Application Scenarios】 - Components of marine structures - Parts for underwater robots - Components of various devices requiring saltwater resistance 【Benefits of Implementation】 - Improved durability in saltwater environments - Extended product lifespan - Reduced maintenance frequency

• Other machine elements

In the field of electronic devices, efficient heat dissipation resulting from increased performance is considered crucial for the stable operation and longevity of products. Particularly in devices that are becoming smaller, designing for heat dissipation in limited spaces can pose challenges. Our hybrid material, which consists of a PET resin rod wrapped in carbon, enables parts design that takes heat dissipation into account by combining the workability of the resin core material with the properties of carbon. 【Application Scenarios】 - Heat dissipation components for electronic device enclosures - Cooling fan components - Thermal conduction path components 【Benefits of Implementation】 - Suppression of temperature rise inside the device - Improved reliability of components - Contribution to the miniaturization of products

• Other machine elements

In the energy industry, materials that can withstand harsh environments are required. In particular, for components that may come into contact with highly corrosive substances, high corrosion resistance and the associated long-term reliability are essential. Material degradation can lead to equipment downtime, increased maintenance costs, and even safety issues. Our hybrid material, which wraps carbon around PET resin rods, combines the flexibility of resin with the rigidity of carbon, allowing for a design that also considers corrosion resistance. 【Application Scenarios】 - Piping components handling corrosive fluids - Structural materials within chemical plants - Protective covers for outdoor equipment 【Benefits of Implementation】 - Increased longevity due to corrosion resistance - Reduction in maintenance costs - Improved equipment reliability

• Other machine elements

In the field of infrastructure, stable performance maintenance over long-term use and under harsh environments is required. In particular, improving the durability of structures is essential for reducing maintenance costs and ensuring safety. It is important to prevent damage from aging deterioration and external influences, thereby achieving the longevity of infrastructure. Our hybrid material, which wraps carbon around PET resin rods, contributes to enhancing the durability of such infrastructure. 【Usage Scenarios】 - Reinforcement materials for structures - Application in areas requiring corrosion resistance - Parts that aim to achieve both lightweight and high strength 【Effects of Implementation】 - Increased longevity of structures due to improved durability - Reduced maintenance frequency - Improved weather resistance and chemical resistance

• Other machine elements

In the field of medical devices, the selection of materials prioritizing patient safety is essential. Particularly for components that are implanted in the body or devices that come into direct contact, biocompatibility becomes extremely important. Additionally, with the miniaturization and high performance of devices, there is an increasing demand for lightweight and high-strength materials. Our hybrid material, which wraps carbon around PET resin rods, offers a new option by combining the processability of resin with the properties of carbon to address these challenges. 【Usage Scenarios】 - Components of medical devices implanted in the body - Handles and shafts of surgical instruments - Structural components of diagnostic equipment - Parts for rehabilitation devices 【Benefits of Implementation】 - Improved safety through highly biocompatible materials - Enhanced ease of handling due to weight reduction - Assurance of durability and reliability through high strength - Increased design flexibility through property adjustments according to application

• Other machine elements

In the field of robotics, components that are lightweight, highly rigid, and responsive are required to achieve precise movements. Particularly in situations where complex movements or delicate operations are demanded, the deflection and twisting of components can affect operational accuracy. Therefore, selecting components that demonstrate high reliability and stable performance becomes crucial. Our hybrid material, which consists of a PET resin rod wrapped in carbon, meets these requirements. 【Application Scenarios】 - Lightweighting of robotic arms - Precision positioning mechanisms - Actuator components - Sensor mounts - Frames for small drones 【Benefits of Implementation】 - Improved responsiveness of operations - Achievement of high-precision control - Reduction in power consumption - Enhanced durability - Increased design flexibility

• Other machine elements

In the automotive industry, achieving a balance between lightweight and high strength is essential for improving fuel efficiency and ensuring safety. Particularly in structural and functional components of the vehicle body, high rigidity and durability are indispensable, making the selection of materials that meet these requirements crucial. Traditional materials may find it challenging to simultaneously achieve lightweight and high strength. Our hybrid material, which wraps carbon around PET resin rods, addresses these challenges and provides the characteristics required for high-strength automotive components. 【Application Scenarios】 - Vehicle body structural components - Suspension components - Drive system components - Reinforcement materials for interior and exterior 【Benefits of Implementation】 - Improved fuel efficiency through lightweight components - Enhanced safety and durability through increased strength - Pursuit of functionality and design flexibility through improved design freedom

• Other machine elements

In the aerospace field, reducing the weight of aircraft directly contributes to improved fuel efficiency and increased payload capacity, making lightweight structural components a constant requirement. In particular, reducing weight while maintaining high strength and rigidity is a critical challenge for performance enhancement. Our hybrid material, which consists of a PET resin core wrapped in carbon, is needed as it combines the processability of the resin core with the high strength and rigidity of carbon to meet these demands. 【Application Scenarios】 - Structural components inside and outside aircraft - Frames for drones and satellites - Various components requiring weight reduction 【Benefits of Implementation】 - Improved fuel efficiency due to reduced aircraft weight - Increased payload capacity - Maintenance of strength and rigidity in structural components

• Other machine elements

In the field of electronic devices, the efficient dissipation of heat generated by increased performance is considered crucial for the stable operation and longevity of products. This is particularly challenging in compact devices, where heat dissipation design must be addressed within limited space. Insufficient heat dissipation can lead to performance degradation or failure due to overheating of components. Our hybrid materials, combining metal's thermal conductivity with carbon's lightweight and high rigidity, contribute to improved heat dissipation. 【Application Scenarios】 - Heat dissipation components for electronic device enclosures - Cooling mechanism components such as CPU coolers - Heat dissipation materials for high-power devices 【Benefits of Implementation】 - Suppression of temperature rise inside devices - Improved reliability of components - Contribution to miniaturization and lightweight design of products

• Other machine elements

In the field of marine development, the durability of components under harsh salt damage environments is required. Particularly for structures and equipment that may be constantly exposed to seawater, measures against corrosion become crucial. Using metal alone increases the risk of corrosion, while using carbon alone can present challenges in adhesion and fixation in saltwater environments. Our hybrid material that combines metal and carbon offers new design possibilities that take salt resistance into account by leveraging the workability and ease of connection of metal along with the properties of carbon fibers. 【Application Scenarios】 - Components for marine structures - Parts for ships and fishing boats - Casings for underwater equipment - Mooring facilities 【Benefits of Implementation】 - Reduction of corrosion risk due to salt damage - Extended lifespan of components - Reduction of maintenance costs

• Other machine elements

In the infrastructure sector, long-term durability and reliability under harsh conditions are required. In particular, high corrosion resistance is essential for components used in corrosive environments. Traditional metal materials raise concerns about deterioration due to corrosion, while carbon materials present challenges in connection and processing. Our hybrid material, which combines metal and carbon, expands the possibilities for new designs in the infrastructure sector by balancing the workability and connectivity of metals with the properties of carbon. 【Application Scenarios】 - Reinforcement materials in structures such as bridges and tunnels - Equipment components used in coastal and humid environments - Piping and support materials in chemical plants and water treatment facilities 【Benefits of Implementation】 - Increased longevity due to improved corrosion resistance - Improved workability due to reduced weight - Enhanced design freedom leading to the pursuit of functionality and aesthetics

• Other machine elements

In the energy industry, the durability of components that can withstand harsh environments is essential. Particularly in situations where high strength and reliability are required, material selection becomes crucial. Pure metals can present challenges in terms of weight and corrosion resistance, while pure carbon can make it difficult to process joints and ensure strength. Our hybrid materials, which combine the workability and ease of connection of metals with the properties of carbon, address these challenges and provide new design options. 【Application Scenarios】 - Energy infrastructure components - Plant equipment components - Renewable energy-related devices 【Benefits of Implementation】 - Lightweight and high-strength components - Improved durability in harsh environments - Increased design flexibility

• Other machine elements

In the aerospace field, materials that are lightweight yet possess high strength are in demand. Particularly for structural components and propulsion systems, material designs that can maintain reliability even under extreme conditions are essential. Conventional metal materials may pose challenges due to weight, and carbon materials alone can make the design of joints difficult. Our hybrid materials combining metal and carbon offer new design options to address these challenges. 【Application Scenarios】 - Structural components of aircraft and spacecraft - Parts requiring weight reduction - Areas where high strength and workability must be balanced 【Benefits of Implementation】 - Improved fuel efficiency and increased payload due to weight reduction of components - Enhanced structural stability from high bending and torsional properties - Expanded design flexibility by combining the advantages of metal and carbon

• Other machine elements

In the construction industry, the selection of materials is emphasized not only for structural strength but also to enhance aesthetics. Particularly for rod-shaped components used in the exterior and interior of buildings, there is a demand for a balance between design freedom and functionality. Using metal alone can pose challenges related to weight and processing, while carbon alone can lead to issues at connection points. Our hybrid material combining metal and carbon offers new design options to address these challenges. 【Application Scenarios】 - Handrails and decorative components that prioritize aesthetics - Structural components that aim to achieve both lightweight and strength - Architectural elements with unique shapes and textures 【Benefits of Implementation】 - Expands design possibilities and enables innovative architectural expression - Improves workability through lightweight components - Provides functionality by leveraging the properties of both metal and carbon

• Other machine elements

In the field of robotics, precise movements and rapid responsiveness are required. In particular, for movable parts such as robotic arms and actuators, components that are lightweight yet possess high rigidity and can quickly respond to external inputs are essential. Traditional metal parts can pose challenges due to their weight, and carbon materials alone may raise concerns regarding the processing and strength of connection points. Our hybrid material, which combines metal and carbon, achieves a balance between the machinability and ease of connection of metal and the lightweight and high rigidity of carbon, contributing to improved responsiveness in robots. 【Application Scenarios】 - Lightweight and high rigidity of robotic arms - Improved responsiveness of actuator components - Application to movable parts of precision instruments 【Effects of Implementation】 - Increased speed of robot movements - Reduced energy consumption - Realization of more complex movements

• Other machine elements

In the medical device industry, the biocompatibility of materials used is essential to ensure patient safety and product reliability. Particularly for components that are implanted in the body or devices that come into direct contact with patients, selecting materials that do not cause allergic or rejection reactions is crucial. Additionally, properties such as lightweight, strength, and workability also impact the performance and usability of medical devices. Our hybrid materials made of metal and carbon provide a new design option that meets these demands. 【Application Scenarios】 - Medical device components implanted in the body - Structural components of medical devices that come into direct contact with patients - Medical devices requiring lightweight and high-strength materials 【Benefits of Implementation】 - Improved safety through the selection of highly biocompatible materials - Reduced burden on patients due to weight reduction - Enhanced durability of devices through increased strength - Expanded design flexibility due to good workability and connectivity

• Other machine elements

In the sports equipment industry, rebound properties that lead to performance enhancement are required. Particularly in competitive gear, materials that are lightweight yet generate high rebound force are emphasized. Insufficient rebound properties may hinder the ability of athletes to fully express their capabilities. Our hybrid material of metal and carbon allows for the adjustment of rebound characteristics by wrapping carbon fibers around a metal core. This provides new design options for components that are heavy when made of metal alone or difficult to connect when made of carbon alone. 【Application Scenarios】 - Core materials for competitive gear such as bats and rackets - Sports gear components requiring lightweight and rebound properties - Pursuit of performance that cannot be achieved with existing materials 【Benefits of Implementation】 - Improvement of rebound performance in competitive gear - Enhanced maneuverability due to weight reduction - New product development opportunities through increased design flexibility

• Other machine elements

In the automotive industry, there is a demand for lightweight components to improve fuel efficiency and driving performance. Particularly for rod-shaped components that require strength and durability, the weight of pure metals can be a challenge. On the other hand, using pure carbon can lead to limitations in connecting and processing with existing metal parts. Our hybrid material, which combines metal and carbon, balances the workability and ease of connection of metals with the lightweight nature and potential for property adjustment of carbon, providing new design options for automotive components. 【Application Scenarios】 - Lightweighting of automotive interior and exterior parts - Balancing strength and lightweighting of chassis components - Lightweighting of parts in the engine compartment 【Benefits of Implementation】 - Improved fuel efficiency through overall vehicle lightweighting - Enhanced dynamic performance - Increased design flexibility

• Other machine elements

It is a hybrid material with a PET resin rod as the core and carbon fibers wrapped around its exterior. While utilizing the shape and ease of processing of the resin core, the bending and twisting characteristics of the rod can be adjusted by the way the carbon is wrapped. It allows for designs tailored to various applications, from products that require lightness and flexibility to components that need rigidity.

• Other machine elements

This is a hybrid material with carbon fibers wrapped around a metal rod core. While utilizing the workability and ease of connection of metal, the characteristics against bending and twisting can be adjusted by the way the carbon fibers are wrapped. It provides new design options for rod-shaped components where weight is a concern when using metal alone, or for components that are difficult to connect with fittings when using carbon alone.

• Other machine elements

In the semiconductor manufacturing industry, jigs used for the assembly and transport of precise components require high dimensional accuracy and surface treatment. Particularly in situations where fine parts are handled, even slight irregularities or burrs on the jigs can affect the products. Therefore, precise processing of the materials and shapes of the jigs is essential for maintaining product quality. Our company responds to the needs for jigs in semiconductor manufacturing by providing end R processing for round wires made from a variety of materials such as steel, SUS, titanium, and tungsten, within the range of φ0.5 to 2.5mm and L: 50 to 150mm. 【Usage Scenarios】 - Parts for semiconductor manufacturing equipment - Jigs for precision assembly - Inspection jigs 【Benefits of Implementation】 - Improved dimensional accuracy of jigs - Reduced damage to fine parts - Enhanced reliability of the entire equipment

• Processing Contract

In the manufacturing of fishing hooks, the shape and strength of the hook point, as well as the selection of materials, are crucial for enhancing hooking performance and durability. In particular, smooth processing around the hook point is essential to avoid causing discomfort to the fish and to ensure a secure catch. Improper processing can lead to missed catches and accelerate wear on the hook point. Our company leverages the technology cultivated through years of fishing tackle manufacturing to provide precise tip R-edge processing required for fishing hook production. 【Usage Scenarios】 - Manufacturing of fishing hooks - Materials: Round wire (steel, SUS, titanium, tungsten) - Sizes: φ0.5 to 2.5mm, L: 50 to 150mm 【Benefits of Implementation】 - Improved performance of fishing hooks through high-precision grinding processing - A wide range of product development by accommodating various materials

• Processing Contract

In robot joint components, smooth operation and high durability are required. In particular, precise chamfering at the points where parts come into contact is essential, as it reduces friction, suppresses wear, and enables smooth movement. Inadequate chamfering can lead to awkward motion and premature deterioration of parts. Our R-chamfering processing for steel, SUS, titanium, and tungsten round wires addresses these challenges and contributes to the improvement of robot performance. 【Application Scenes】 - Joints of robot arms - Actuator components requiring precise movement - Movable parts that need durability 【Effects of Implementation】 - Improved smoothness of joint movements - Reduced wear of parts and extended lifespan - Enhanced overall performance of the robot

• Processing Contract

We would like to introduce a case study of "advanced grinding processing" conducted by our company. Materials: round wire (steel, SUS, titanium, tungsten) Sizes: φ0.5 to 2.5mm L: 50 to 150mm - High-precision grinding processing - Compatibility with various materials Please feel free to contact us when you need our services. *For more details, please download the PDF or feel free to inquire.

• Processing Contract

In the medical industry, particularly in surgical instruments, high precision and reliability are required. Fine processing and special shapes are directly linked to the safety and efficiency of surgeries, so meticulous attention is needed from material selection to processing methods. Improper processing can lead to instrument damage and risks to patients. Our advanced grinding technology introduces precise processing examples that meet the stringent demands of medical settings. 【Usage Scenarios】 - Precision processing of the tips of surgical instruments - Manufacturing of fine components - Responding to special shape needs 【Benefits of Implementation】 - Improved performance of surgical instruments - Ensured safety - Reduced burden on medical professionals

• Processing Contract

We would like to introduce an example of our efforts to utilize the precision machining know-how we have cultivated so far in the development of components for surgical medical needles. The components of surgical medical needles require high precision and stability in quality. For parts involving fine machining, it has been a challenge to suppress variations in the manufacturing process and consistently supply products of uniform quality. We are applying our unique precision machining technology, developed over 70 years of manufacturing fishing hooks, to the medical field. By leveraging the know-how in shape accuracy, machining quality, and quality control that we have pursued in fishing hook production, we are working on the development of medical needle components that can be supplied with stable quality. [Results and Effects] - The precision machining technology and quality management know-how cultivated in fishing hook manufacturing have been recognized and adopted for component development. - Technology developed in different fields has been applied to the medical sector. - This has led to new technological developments aimed at achieving high precision and stable quality. *For more details, please download the PDF or feel free to contact us.

• Contract manufacturing
• Processing Contract
• Other experimental equipment

In the aerospace field, the reduction of aircraft weight is directly linked to improved fuel efficiency and increased payload capacity, making material selection extremely important. In particular, for structural components and functional parts, it is essential to minimize weight while maintaining high strength. Our advanced thin-walled molding technology, developed through fishing rod manufacturing, can be applied to the production of CFRP (carbon fiber reinforced plastic) pipes that achieve high rigidity and resilience while being lightweight. This technology will contribute to product development that meets the needs for weight reduction in the aerospace sector. 【Application Scenarios】 - Aircraft interior and exterior parts - Satellite components - Drone airframe 【Benefits of Implementation】 - Improved fuel efficiency through reduced aircraft weight - Increased payload capacity - Maintenance of structural strength and durability

• Processing Contract

In the field of fitness equipment, particularly in training assistance, materials and structures that effectively support load and movement while considering the user's physical burden are required. Reducing instability and uncomfortable vibrations during training and supporting precise movements are essential for achieving safe and effective training. Our carbon technology contributes to product development that meets these needs. 【Application Scenarios】 - Development of parts for training equipment - Application in rehabilitation tools - Aids aimed at performance enhancement 【Benefits of Implementation】 - Increased design flexibility of equipment due to lightweight and high-strength materials - Improved user experience through vibration absorption - Development of highly durable products

• Processing Contract

In the medical and rehabilitation fields, equipment that can reproduce effective loads and movements while considering the physical burden on patients is required to support their functional recovery. In particular, precise control and safety are emphasized. Our carbon molding technology, cultivated through fishing rod manufacturing, achieves a balance of flexibility and strength, enabling the creation of movements and rebound forces as intended. This contributes to the development of rehabilitation equipment tailored to the patient's condition. 【Application Scenarios】 - Training equipment for rehabilitation - Parts for walking assistance devices - Aids aimed at restoring motor function 【Benefits of Implementation】 - Fine-tuned load adjustments tailored to the patient's condition - Improved operability due to lightweight and high-strength design - Long-term use with durable materials

• Processing Contract

In the sports equipment industry, there is a demand for golf shafts that are lightweight yet high-strength, capable of producing the desired flex and trajectory to enhance product performance and maximize golfer performance. Particularly, minimizing sway during the swing and achieving accurate impact is a crucial factor that directly affects scores. Our company responds to these needs by applying the extreme carbon molding technology and special coating techniques developed in fishing rod manufacturing to golf shaft OEM. 【Usage Scenarios】 - New development of golf shafts - Performance enhancement of existing products - Pursuit of unique brand feel 【Benefits of Implementation】 - Improved directionality by minimizing sway during the swing - Maximization of distance through desired flex and trajectory - Provision of products that balance durability and aesthetics

• Processing Contract

"Ultimate carbon molding and special coating technology cultivated in fishing rod manufacturing is concentrated into golf shafts." Withstanding the pull of fish and bending to the limit while accurately returning to its original shape—our company has honed its technology in the world of fishing rod manufacturing, where the most demanding carbon molding is required. The "extreme thin-walled molding technology" developed in fishing rod production provides an overwhelming advantage in golf shaft manufacturing by thoroughly suppressing swing wobble and creating the desired flex and trajectory. Furthermore, by applying the coating technology of fishing rods that endure harsh natural environments, we also offer "special design coatings" that combine beauty and durability. You can utilize this top-tier technological capability in creating products for your brand.

• Processing Contract

Gamakatsu Co., Ltd. was established as a fishing hook manufacturer in Nishiwaki City, Hyogo Prefecture, and currently handles a variety of products ranging from fishing rods to apparel. Additionally, the company actively pursues overseas expansion and has established ten locations worldwide to conduct its business. As a result, our products have received high praise not only from domestic users but also from users overseas. Please feel free to consult with us when needed. 【Business Activities】 ■ Manufacturing of fishing gear-related products ■ Manufacturing and sales of nursing care products *For more details, please download the PDF or feel free to contact us.

• Special Steel
• Processing Contract

We would like to introduce the wire processing conducted by Gamakatsu Co., Ltd. We possess straight cutting machines, point machines, forming machines for bending, rings, notches, holes, presses, etc., as well as heat treatment furnaces (atmospheric and vacuum) and chemical polishing continuous batch processors. For inspection equipment, we have various facilities including hardness testers, sample embedding machines, sample polishing machines, microscopes, 3D scanners, and dimensional measuring devices. Additionally, we also manufacture carbon blanks. 【Processed Steel Types】 ■ High Oxygen Steel ■ Stainless Steel ■ High-Speed Steel ■ Special Alloy Steel *For more details, please download the PDF or feel free to contact us.

• Special Steel
• Processing Contract

At Gamakatsu Co., Ltd., we are offering a collection of product processing case studies. We introduce examples such as CFRP pipes with outer diameters of 10, 20, and 32 mm, t1, and L = 1000 mm, as well as cases using sheet winding methods. Additionally, we also include examples of straight cutting processing of round wire (steel, stainless) and tip grinding processing. Please feel free to consult us regarding materials and sizes. 【Contents (partial)】 ■ CFRP carbon straight pipes ■ Ultra-fine CFRP carbon pipes ■ Decorative CFRP carbon pipes ■ Straight cutting processing ■ Tip grinding processing ■ Bending processing *For more details, please download the PDF or feel free to contact us.

• Processing Contract

This document explains the technologies and properties of carbon that can be processed by Gamakatsu Co., Ltd. It includes tables comparing the specific gravity, tensile strength, elasticity, thermal conductivity, and tactile feel of carbon, aluminum, titanium, and iron, as well as graphs showing the relationship between the tensile strength and elasticity of carbon fibers by grade. Additionally, it introduces specifications for carbon molding and painting processes as technologies that can be mass-produced by our company. [Contents] ■ Properties of carbon ■ Relationship between tensile strength and elasticity of carbon fibers by grade ■ Mass-producible technologies - Carbon molding - Painting process *For more details, please download the PDF or feel free to contact us.

• Processing Contract
• Special Steel

We propose a telescoping carbon pipe utilizing fishing rod production technology.

• Composite Materials
• Other polymer materials

We would like to introduce a processing example of our "ultra-fine CFRP carbon pipe." The processing method used is the sheet winding method. It is a CFRP pipe with an outer diameter of 1.5mm. Please feel free to consult us regarding the size. 【Case Overview】 ■ Material: CFRP ■ Processing Method: Sheet Winding Method *For more details, please download the PDF or feel free to contact us.

• Pipe and cable cutters

We would like to introduce a processing example of "CFRP Carbon Straight Pipe" that we conducted. The processing method is sheet winding. It is a CFRP pipe with an outer diameter of 10, 20, 32, thickness 1, and length of 1000mm. Please feel free to contact us when you need our services. 【Case Overview】 ■ Material: CFRP ■ Size: φ10 ■ Processing Method: Sheet Winding *For more details, please download the PDF or feel free to contact us.

• Pipe and cable cutters

We would like to introduce a processing example of "decorative CFRP carbon pipes" that we conducted. The material is CFRP, and the processing method is sheet winding. There are variations in appearance depending on the weaving pattern of the outermost layer of carbon. Please feel free to contact us when you need our services. 【Case Overview】 ■ Material: CFRP ■ Processing Method: Sheet Winding *For more details, please download the PDF or feel free to contact us.

• Pipe and cable cutters

We would like to introduce a case study of "advanced grinding processing" that we conducted. The materials used are round wire (copper, stainless steel), with sizes ranging from φ0.5 to 2.5 and lengths of 50 to 150. Please feel free to contact us when you need our services. 【Case Overview】 ■ Material: Round wire (copper, stainless steel) ■ Size: φ0.5 to 2.5, Length: 50 to 150 *For more details, please download the PDF or feel free to contact us.

• Processing Contract

We would like to introduce a case study of "bending processing" that we conducted. The materials are round wire (copper, stainless steel), and the sizes can be discussed separately. Please feel free to contact us when you need our services. 【Case Overview】 ■ Material: Round wire (copper, stainless steel) ■ Size: To be discussed separately *For more details, please download the PDF or feel free to contact us.

• Processing Contract

We would like to introduce an example of "press processing" conducted by our company. The material is round wire (copper, stainless steel), and the size can be discussed separately. Please feel free to contact us when you need our services. 【Case Overview】 ■ Material: Round wire (copper, stainless steel) ■ Size: To be discussed separately *For more details, please download the PDF or feel free to contact us.

• Processing Contract