IZUSHI Product Lineup

Have you ever been concerned about the deterioration of the tool holder you are currently using? In fact, did you know that even slight deterioration can significantly affect quality? Gently clean the most important and delicate part that comes into contact with the machine! The work is easy! The tool holder will shine! The developer's passionate commitment to the rubber grinding stone will solve your problems! *For more details on the case, you can view them through the related links. Please feel free to contact us for more information.

Introducing a rubber plate that allows you to distinguish granularity by color on a grip holder, designed to eliminate secondary burrs. By simply replacing the plate, it can be used for various applications. One holder can accommodate different plates, making it a cost-effective solution. We look forward to your inquiries. *For detailed case information, please refer to the related links. Feel free to contact us for more details.

Unlike the chucking type, the face driver offers: - Drive without the need for a tailstock due to workpiece end face centering - Reduction in processing time through process consolidation - No need to flip and re-grip the workpiece ⇒ No worries about misalignment - High-precision machining based on a center reference - Capable of turning, grinding, and milling operations Therefore, it is recommended for those who: - Want to machine large workpieces without flipping them, in a single process - Prefer to machine without chucking, as the areas held by the chuck cannot be processed - Want to improve machining accuracy for slender workpieces using a center reference In such cases, machining with a face driver can provide a solution! *For detailed case information, please refer to the related links. For more information, feel free to contact us.

This product eliminates the hassle by simply opening the valve, allowing you to create diluted water while maintaining the appropriate dilution concentration! Since the diluted water is fed into the machine through a hose, there’s no need to lift a pail! You won’t strain your back. Your hands won’t get dirty as you don’t have to touch the oil directly! There’s no risk of spills dirtying the floor! *For more details on the case, please refer to the related links. Feel free to contact us for more information.

5-axis machining machine 'i-TOOL Vice' Supported worldwide for its high precision and rigidity, made in Switzerland. Do you have any of these concerns about vices? - Chips getting stuck in the vice - Worrying about rigidity with small vices - Wasting gripping area - Taking too much time for setup All of these can be solved with the i-TOOL vice! *For detailed case studies, please refer to the related links. For more information, feel free to contact us.

A set file used for hand finishing fine details after machining. Even with regular maintenance after each use, it inevitably becomes clogged. As for conventional files, it was a given that clogging would occur, and the focus was on how to make maintenance easier. However, with the "Bright 900," clogging simply does not happen! *For detailed case information, please refer to the related links. For more information, feel free to contact us.

- Increasing the pressure of the coolant pump cannot be handled by the resin nozzle. - Despite taking time to adjust the nozzle position, it quickly became misaligned. - During unmanned operation, the nozzle became misaligned without notice, causing processing defects. - Chips were left on the base, resulting in poor seating. Are you having any issues with your coolant hose? Introducing the "i-TOOL Coolant Hose," which can supply coolant for long periods from a distance, at the necessary pressure to the required areas! *For detailed case information, please refer to the related links. For more information, feel free to contact us.

In the aerospace industry, there is a demand for the machining of complex-shaped parts to achieve weight reduction and high strength. Particularly for parts that require high precision machining, the stability of the workpiece during processing and the response to cutting resistance are crucial. Issues such as chip entanglement and insufficient rigidity of the vice can lead to decreased machining accuracy, shortened tool life, and even processing defects. Our i-TOOL vice addresses these challenges with Swiss-made high precision and rigidity, supporting our customers' advanced machining needs. 【Application Scenarios】 - Machining of complex shapes for aircraft parts - Precision machining of satellite components - Ensuring chip evacuation during processing - High rigidity machining in limited spaces 【Benefits of Implementation】 - Improved machining accuracy - Reduced setup time - Effective utilization of gripping area - Increased productivity

In the automotive industry, high-precision parts machining requires complex shapes and fine processing, making high accuracy and stable machining quality essential. Particularly in 5-axis machining, preventing tool interference while securely holding the workpiece is crucial for maintaining machining precision. Issues such as chip entrapment, loss of gripping allowance, and increased setup time can lead to decreased production efficiency and machining defects. Our i-TOOL vice has been developed to address these challenges and maximize the capabilities of 5-axis machining. 【Application Scenarios】 - 5-axis machining of complex-shaped parts - Manufacturing of automotive parts requiring high precision - Reduction of setup time and improvement of productivity 【Benefits of Implementation】 - Maintenance of machining precision through improved chip evacuation - Stable machining due to high rigidity in a compact design - Reduction of material loss through effective use of gripping allowance - Increased productivity through reduced setup time

In the field of semiconductor manufacturing equipment, high precision and stable processing are required in microfabrication. Particularly in the processing of parts with complex shapes or those that require precise tolerances, tool deflection and workpiece holding significantly affect processing accuracy. Chip entrapment and lack of rigidity can lead to processing defects and reduced tool life. The i-TOOL vice achieves excellent chip evacuation through its open design and provides high rigidity in a compact form, addressing these challenges in microfabrication. 【Application Scenarios】 - Precision machining of complex-shaped parts - 5-axis machining of parts requiring high precision - Machining where chip evacuation is crucial 【Benefits of Implementation】 - Improved processing accuracy - Extended tool life - Reduced setup time

In the machining of multi-joint components by robots, there is a demand for accommodating complex shapes and achieving high precision finishes. In particular, the handling of chips during cutting and reliable gripping in limited spaces significantly impact machining quality and productivity. The i-TOOL vice addresses these challenges by providing excellent chip evacuation through an open design while achieving high rigidity in a compact form, thereby supporting precision machining by robots. 【Application Scenarios】 - Machining of complex shapes of multi-joint components - Reliable gripping within the limited range of motion of robot arms - Reduction of machining defects caused by chip entrapment 【Benefits of Implementation】 - Improvement in machining accuracy - Reduction in setup time - Increase in productivity

In the optical equipment industry, particularly in lens polishing, high-precision processing is required. For achieving fine cutting and complex shapes, the chip evacuation during processing and the rigidity of the vice, which affects processing accuracy, are crucial. Chip entrapment can lead to processing defects, and insufficient rigidity may impact dimensional accuracy. Additionally, effectively utilizing limited gripping areas and reducing setup time are essential for improving productivity. The i-TOOL vice has been developed to address these challenges and maximize the capabilities of 5-axis machining. 【Application Scenes】 - Outer shape processing of lenses - Complex curved surface processing - Polishing of optical components requiring high precision 【Effects of Implementation】 - Reduction of processing defects due to improved chip evacuation - Stable high-precision processing due to high rigidity - Effective utilization of gripping areas and reduction of setup time

In the energy industry, particularly in the machining of turbine blades, 5-axis machining is essential for finishing complex shapes with high precision. The ability to effectively discharge chips generated during machining and the rigidity required to securely hold the workpiece significantly impact machining quality and productivity. Chip entrapment can lead to machining defects, and without sufficient rigidity, reproducing fine shapes becomes difficult. Our i-TOOL vice addresses these challenges and maximizes the capability for precision machining of components like turbine blades. 【Application Scenarios】 - Precision machining of turbine blades - 5-axis machining of complex-shaped workpieces - Machining requiring effective chip discharge 【Benefits of Implementation】 - Reduction of machining defects due to chip entrapment - Stable machining of high-precision shapes - Reduction of material waste through effective utilization of gripping areas

In the general industrial machinery sector, particularly in the manufacturing of custom parts, it is crucial to maximize the capabilities of 5-axis machining for processing that requires complex shapes and high precision. Challenges may arise regarding the discharge of cutting chips generated during processing and the need for high rigidity in limited spaces. Eliminating unnecessary gripping allowances and reducing setup time are also necessary for improving productivity. The "i-TOOL Vice" provides solutions to address these challenges and maximize the potential of 5-axis machining. [Usage Scenarios] - Machining of custom parts with complex shapes - 5-axis machining of parts requiring high precision - Processing that emphasizes the discharge of cutting chips [Benefits of Implementation] - Improved machining accuracy - Increased productivity - Reduced setup time - Effective use of materials

In the field of research and development, particularly in prototype manufacturing, there are many situations that require diverse shapes and complex processing, leading to an increased use of 5-axis machining centers that enable high precision and flexible processing. However, challenges such as chips getting stuck in the vice, insufficient rigidity with compact vices, and wasting gripping areas can arise. These issues can potentially affect the quality and efficiency of prototype production. The i-TOOL vice addresses these concerns and supports improvements in the accuracy and efficiency of prototype manufacturing in research and development. 【Application Scenarios】 - Processing of complex-shaped prototypes - Production of prototypes using various materials - Development of small quantities of diverse prototypes 【Benefits of Implementation】 - Maintenance of processing accuracy by reducing chip entrapment - Stable processing due to high rigidity despite compact size - Reduction of material waste through effective use of gripping areas - Acceleration of development cycles by shortening setup times

In the defense industry and the processing of special alloys, high precision and stable processing are required. In particular, when processing special alloys, which are considered difficult-to-cut materials, the removal of chips significantly affects processing accuracy and tool life. If chips get caught in the vice, it can lead to workpiece damage and a decrease in processing accuracy. Additionally, it is important to effectively utilize the limited gripping area and reduce setup time. 【Usage Scenarios】 - Precision processing of special alloys - Manufacturing of defense-related components - Stable gripping of complex-shaped workpieces 【Effects of Implementation】 - Improved processing stability due to reduced chip entrapment - Realization of precision processing with compact yet high rigidity - Effective utilization of gripping area and reduction of setup time

In the processing of automotive parts, precise deburring is required to ensure product quality and safety. This is especially important for parts with complex shapes and diverse materials, as uniform and reliable deburring is crucial to prevent defects in subsequent processes and reduce product lifespan. Inadequate deburring can lead to functional failures of parts and assembly issues. The deburring killer accommodates various work materials through plate replacement, achieving efficient deburring. 【Usage Scenarios】 - After cutting processing of automotive parts - Deburring after press processing - Finishing of cast parts 【Benefits of Implementation】 - Suppression of secondary burr generation - Capability to handle diverse materials - Improved work efficiency through plate replacement - Contribution to cost reduction

In semiconductor manufacturing's fine processing, maintaining the quality of precision parts is essential. In fine processing, the occurrence of unintended burrs can impact the performance and reliability of products. In particular, burrs that form in fine areas are difficult to remove and can lead to defects. The burr killer accommodates various work materials through plate replacement, achieving efficient burr removal while suppressing the occurrence of secondary burrs. ## Use Cases * Burr removal for fine semiconductor components * Compatibility with diverse work materials * Manufacturing lines for precision equipment ## Benefits of Implementation * Reduction of burrs in fine processing * Improvement in product quality * Enhancement of work efficiency

In mold manufacturing, high-precision processing that affects product quality is required. In particular, the occurrence of fine burrs can impact the fitting accuracy and functionality of the product. Burr removal is an essential process to ensure the reliability of the product. The Burr Killer accommodates various work materials through plate exchange and achieves high-precision burr removal. 【Application Scenarios】 - Precision burr removal for mold components - Burr removal for complex-shaped workpieces - Adaptation to diverse work materials 【Benefits of Implementation】 - Improvement in product accuracy - Reduction of burden in subsequent processes - Enhancement of work efficiency

In the construction machinery industry, maintaining the precision and longevity of parts under harsh operating conditions is essential. In particular, the removal of burrs after machining metal parts is crucial; inadequate removal can lead to decreased performance and premature wear of the components. Additionally, flexibility to accommodate various materials and the ability to work quickly on-site are highly valued. Our Burr Killer addresses burr removal for various materials with just a plate change, contributing to the maintenance of high-quality, durable construction machinery parts. 【Usage Scenarios】 - Manufacturing lines for construction machinery parts - Burr removal during maintenance work - Burr removal for various metal materials 【Benefits of Implementation】 - Maintenance of part precision and longevity - Improved work efficiency - Strengthened capability to handle diverse materials

In the movable parts of robots, precise movements are required, and even slight burrs can lead to malfunction or wear. Particularly in areas where complex shapes and different materials are combined, the occurrence of burrs and their removal become challenges. Our Burr Killer can accommodate various work materials through plate replacement, achieving efficient burr removal while suppressing the occurrence of secondary burrs. 【Usage Scenarios】 - Joint parts of robotic arms - Sliding parts of transport mechanisms - Movable components on assembly lines 【Benefits of Implementation】 - Maintaining smooth operation of robots - Extending the lifespan of components - Reducing maintenance labor hours

In the energy industry, there is a demand for the manufacturing of components that can withstand harsh environments. Particularly for parts that may come into contact with highly corrosive substances, the precision of surface treatment significantly affects the durability and safety of the product. Inadequate deburring can lead to premature deterioration or failure. The Burr Killer accommodates various materials through plate replacement and achieves efficient deburring while minimizing the occurrence of secondary burrs. 【Application Scenarios】 - Deburring of piping components handling corrosive fluids - Machining of parts for chemical plant equipment - Finishing of components used in marine structures 【Effects of Implementation】 - Improved durability of components - Ensured reliability of products - Reduced maintenance costs

In the railway industry, high safety standards are required in the manufacturing and maintenance of vehicles and track-related components. In particular, burrs on parts can lead to poor contact or damage, posing a risk of serious accidents. Therefore, reliable and efficient deburring operations are essential for ensuring safety. The Burr Killer addresses deburring of various materials simply by changing plates, while minimizing the occurrence of secondary burrs, thereby enhancing the reliability of parts and contributing to the safe operation of railways. 【Usage Scenarios】 - Deburring in the manufacturing process of vehicle parts - Deburring during the maintenance of track equipment-related components - Finishing of parts that require precise machining 【Benefits of Implementation】 - Ensured safety through improved reliability of parts - Improved work efficiency and cost reduction - High versatility by accommodating various materials

In the shipping industry, parts processing in harsh marine environments requires corrosion resistance and durability. In particular, the deterioration of metal parts due to salt damage can potentially affect safety and functionality. Therefore, even in the deburring process, it is important to consider the impact on the material and ensure efficient and reliable treatment. The Burr Killer can accommodate various materials with just a plate change, and since only one holder is needed, it contributes to reducing the burden on the site and cutting costs. 【Usage Scenarios】 - Deburring of hull components - Maintenance of marine equipment - Metal processing in salt-damaged environments 【Benefits of Implementation】 - Improved work efficiency - Reduced maintenance costs - Enhanced product durability

In the manufacturing field of optical equipment, the removal of fine burrs is crucial for ensuring precise clearance of components. Burrs can cause interference between parts and lead to performance degradation, making reliable burr removal essential. Our Burr Killer adapts to various materials through plate replacement and contributes to maintaining precise clearance while suppressing the occurrence of secondary burrs. 【Usage Scenarios】 - Precision machining of optical lenses and housings - Assembly processes of fine components - Burr removal for mechanism parts where clearance is critical 【Benefits of Implementation】 - Improved component accuracy - Reduced assembly defects - Enhanced work efficiency