In the world of precision cutting and crafting, routers are indispensable tools that cater to various needs, from intricate designs to robust furniture production. If you're considering investing in a router for your business or workshop, it's crucial to understand the differences between the models available. In this blog, we'll break down the features, benefits, and applications of three popular router models: S, H, and ATC.

Introduction to Router Models

Routers are versatile machines used for cutting, carving, and shaping materials such as wood, plastic, and metal. They come in different models, each designed to cater to specific needs. The S, H, and ATC models represent a range of capabilities and features that can significantly impact the efficiency and quality of your work.

1. S Model: Speed Meets Affordability

Key Features:

• Max Speed: 5000 mm/min
• Spindle Power: 4.5 KW
• Tool Change Time: Manual Tool Change (MTC) - 5 to 10 minutes
• Dust Collection: Manual
• Auto stop : Not Available

Applications:

• Doors and Carving Bed
• Jali Cutting
• Toys and Games Products Manufacturing
• Musical Instrument Manufacturing
• Art and Craft and Home Temple

Overview: The S model is a cost-effective option for those starting out or with moderate production needs. It provides a respectable speed and spindle power, making it suitable for various applications like jali cutting, musical instruments, and toys. Its manual tool change system might be a bit slower, but it's perfect for applications where speed is not the primary concern.

2. H Model: Enhanced Performance for Complex Projects

Key Features:

• Speed: 16000 mm/min
• Spindle Power: 6 KW
• Tool Change Time: Manual Tool Change (MTC) - 3 to 5 minutes

Applications:

• 3D Doors and Carving Bed
• Modular Furniture
• Solid Wood Furniture

Overview: The H model steps up the game with a significantly higher speed and increased spindle power. It’s ideal for more complex and detailed work, such as 3D door carving and modular furniture. This model strikes a balance between performance and cost, making it a solid choice for professionals looking to enhance their production capabilities without breaking the bank.

3. ATC Model: Top-of-the-Line Versatility

Key Features:

• Speed: 16000 mm/min
• Spindle Power: 6 KW
• Tool Change Time: Automatic Tool Change (ATC) - 20 seconds, with 6 tools

Applications:

• All Applications Listed Above

Overview: The ATC model is the pinnacle of router technology, offering the highest speed and efficiency with an automatic tool change system. This feature reduces downtime and increases productivity, making it suitable for a wide range of applications, including all those mentioned above. The ATC model is perfect for businesses that require versatility and high performance, such as those involved in large-scale production or intricate designs.

Conclusion

Choosing the right router model depends on your specific needs, budget, and the type of work you perform. The S model is ideal for those starting out or working on simpler projects, while the H model offers enhanced capabilities for more complex work. For those who demand top-tier performance and versatility, the ATC model stands out as the ultimate choice. By understanding these options, you can make an informed decision that aligns with your production goals and business requirements.

Feel free to reach out if you have any questions or need further assistance in selecting the perfect router model for your needs!

Contact us :

Mail: info@jakmachinery.com Mobile : +91-6353531460

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Please don’t go on decision without any fact, choose ballscrew or rack and pinion. We would like to know most difference between these two methods of motion transmission.

If you have any query or doubt regarding choosing the correct type of motion transmission , feel free to write us back.

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Here are some potential aspects of automatic function change customization that JAK Machinery.

1. Programmable Logic Controller (PLC) Integration: The machinery equipped with a PLC that allows users to program specific sequences of operations, including automatic function changes. Users can define conditions or triggers for switching between functions, such as time intervals, sensor inputs, or feedback from other machinery or systems.
2. User Interface: The machinery feature a user-friendly interface that enables operators or technicians to customize and configure automatic function change settings. This interface could include options for setting parameters, defining sequences, and monitoring system status.
3. Adaptive Control Algorithms: Advanced control algorithms employed to optimize the automatic function change process based on dynamic factors such as production demand, energy efficiency goals, or material properties. These algorithms can adjust parameters in real-time to maximize performance and productivity.
4. Safety Features: Automatic function change systems should incorporate safety features to prevent accidents or malfunctions during operation. This include interlocks, emergency stop mechanisms, and fail-safe protocols to ensure safe operation at all times.
5. Remote Monitoring and Control: Systems offer remote monitoring and control capabilities, allowing users to access and modify function change settings from a central control room or mobile device. This remote access can enhance flexibility and convenience, especially in large-scale manufacturing facilities.

Overall, automatic function change customization can streamline production processes, improve efficiency, and enable greater flexibility in manufacturing operations. It's essential for machinery providers like JAK Machinery to offer robust, user-friendly solutions tailored to the

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1. Lubricant Reservoir: The system includes a central reservoir or container that holds the lubricating fluid, such as oil or grease. The reservoir is typically located in a convenient and accessible location near the equipment being lubricated.
2. Distribution Lines: From the reservoir, distribution lines or tubing carry the lubricant to the lubrication points on the machinery. These lines are routed strategically to reach bearings, gears, chains, slides, or other components requiring lubrication.
3. Injectors or Dispensers: At each lubrication point, injectors or dispensers deliver precise amounts of lubricant to the moving parts. These devices may be activated mechanically, pneumatically, or electronically, depending on the specific design of the lubrication system.
4. Timing and Control Mechanism: Automatic lubrication systems are equipped with a timing and control mechanism to regulate the frequency and duration of lubricant delivery. This mechanism may be programmable to adjust lubrication intervals based on factors such as operating conditions, temperature, or equipment usage.

By automating the lubrication process, automatic lubrication systems offer several advantages, including improved equipment reliability, reduced maintenance costs, increased productivity, and enhanced workplace safety. They are commonly used in industries such as manufacturing, mining, construction, agriculture, and transportation to ensure smooth and efficient operation of machinery and equipment.

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1. Dust Collection Points: Dust and debris are generated at various points within the machining or woodworking area, such as around cutting tools, sanding machines, or material handling equipment.
2. Hoods or Enclosures: Hoods or enclosures are placed strategically around these dust-generating points to capture airborne particles at the source. These hoods are designed to contain the dust and direct it towards the collection system.
3. Ductwork: A network of ducts connects the collection hoods to the central dust collection unit. The ductwork is typically made of metal or PVC and is sized appropriately to ensure efficient airflow and dust transport.
4. Central Dust Collector: The central dust collector is the heart of the system. It houses a powerful fan or blower that creates suction to draw dust-laden air through the ductwork and into the collection unit.
5. Filtration System: As the dust-laden air enters the central collector, it passes through a series of filters designed to capture and remove the airborne particles. These filters may include primary filters (such as cyclones or pleated filters) to remove larger particles and secondary filters (such as cartridge filters or bag filters) to capture finer particles.
6. Monitoring and Maintenance: Regular monitoring and maintenance are essential to ensure the continued effectiveness and safety of the dust collection system. This may include inspecting and cleaning filters, checking for leaks or obstructions in the ductwork, and servicing the fan or blower motor as needed.

Automatic dust collection systems help maintain a clean and healthy work environment by effectively capturing and removing airborne particles, reducing the risk of respiratory issues, fire hazards, and equipment damage associated with dust buildup.

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Functions:

• Automatic loading and unloading of wooden blocks
• Set the target quantity in the system; the machine will stop if the target is achieved.
• User-friendly one-time setting based on the size of the wood. This process takes approximately 3–5 minutes.

Timings

• Loading time: 10–15 seconds
• Unloading time: 5–10 seconds

Benifits

• Continuous production without any human intervention.
• No need to mark Center on each end.

Limitation

• Wood width range:
  • Option 1: 1 to 3 inches
  • Option 2: 2 to 4 inches
• Wood Length Range: 6 to 36 inches

Prerequisit

• Wood needs straightening; beding more than 2 mm is not allowed.
• Wood size can be very +/- 2 mm.
• Wood processed after thickness planes and planers gives assurance that wood will clamp at the exact center.

Video

Auto Center

Machine have fixture(Stand) to load the wood.

Once you set the fixture, you do not need to center mark on each similar wood. Loading and unloading manually, but machine take center automatically.

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Here's a brief description of how it works:

1. Tool Magazine: The ATC system typically includes a tool magazine that stores various cutting tools. These tools can vary in type, size, and shape depending on the machining requirements.
2. Tool Selection: The CNC program specifies which tool is needed for each machining operation. When it's time to change the tool, the CNC machine sends a signal to the ATC system indicating which tool is required next.
3. Tool Change Mechanism: The ATC system uses a mechanism, such as a rotary carousel or a linear rack, to retrieve the designated tool from the tool magazine.
4. Tool Exchange: Once the correct tool is positioned, the ATC system engages with the spindle and exchanges the current tool with the new one automatically.
5. Tool Verification: Some ATC systems include sensors or probes to verify that the correct tool has been loaded and that it is properly seated in the spindle.
6. Resume Machining: With the new tool in place, the CNC machine can resume the machining process without interruption.

ATC systems significantly enhance productivity in manufacturing environments by reducing setup time, minimizing human intervention, and allowing for continuous, uninterrupted machining operations

MTC - Manual Tool Change

Manual tool change refers to the process of physically replacing the cutting tool in a CNC (Computer Numerical Control) machine by the operator. Manual tool changes require human intervention.

Here's an overview of the typical steps involved in a manual tool change process:

1. Stop the Machine: The operator stops the CNC machine to ensure safety during the tool change process.
2. Retract the Current Tool: If the current tool is engaged with the workpiece, it needs to be retracted or moved to a safe position where it won't interfere with the tool change.
3. Release the Tool Holder: Depending on the type of tool holder used (e.g., collet, chuck), the locking mechanism is released to free the tool from the spindle.
4. Remove the Current Tool: The operator manually removes the tool from the spindle. This may involve using tools such as wrenches or keys to loosen the tool holder.
5. Insert the New Tool: The operator selects the appropriate tool for the upcoming machining operation and inserts it into the spindle. Care must be taken to ensure proper alignment and secure seating of the tool.
6. Secure the Tool Holder: Once the new tool is inserted, the operator secures the tool holder by tightening the locking mechanism.
7. Check Tool Length: Before resuming machining, it's crucial to verify that the length of the new tool is properly set to avoid collisions with the workpiece or fixtures.
8. Resume Machining: Once the new tool is securely in place and verified, the operator can resume machining operations.

Manual tool changes require careful attention to detail and precision to ensure that the correct tools are used and properly installed. While they may take longer than automatic tool changes, manual tool changes are still commonly used in certain applications, particularly in setups where tool changes are infrequent or where the cost of automatic tool changers is prohibitive.

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Here's how Auto Tool Zero generally works:

1. Probe Setup: The CNC machine is equipped with a probe or sensor that detects the tool's contact with a predefined surface or reference point on the workpiece.
2. Tool Measurement: When activated, the machine moves the tool to a designated position above the probing area.
3. Probe Contact: The tool makes contact with the surface or reference point, triggering the probe to send a signal indicating the exact position where the tool tip touches the workpiece.
4. Offset Calculation: Based on the probe signal and pre-programmed parameters, the machine calculates the difference between the actual tool length and the desired length, known as the tool length offset.
5. Offset Adjustment: The CNC controller automatically adjusts the tool length offset in the machine's control software to compensate for any variations, ensuring precise tool positioning during machining.

By automating the tool length offset setting process, Auto Tool Zero eliminates manual measurement errors and reduces setup time, leading to improved machining accuracy and efficiency in CNC operations.

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