HAWK-W15
Mister
8463900090
CNC machining center
Iron
High-End CNC Machine Tools
High Rigidity and Precision
ISO, GS, RoHS, CE
One year
Forging
Gravity Casting
Standard exporting package
Mister HAWK
China
CNC precision
Brand new
Motor
Worldwide
yes
CNC
Availability: | |
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Quantity: | |
HAWK-W15 Swiss CNC Lathe
The HAWK-W15 Swiss CNC Lathe is an advanced machine tool designed to meet the demands of high-precision manufacturing. With its user-friendly interface, exceptional precision, and versatile capabilities, it is an ideal choice for industries requiring the production of small, intricate parts with tight tolerances. Whether you're looking to expand your manufacturing capabilities or improve existing processes, the HAWK-W15is a valuable investment that can significantly enhance your production efficiency and product quality.
Routine maintenance is essential to keep the machine running smoothly and to prolong its lifespan. Safety measures, such as guarding and emergency stop mechanisms, are implemented to protect operators. Operators must receive proper training to understand the machine's operation and safety procedures.
control system | HANBS self-innovate (yn 1.0 versions) |
Servo axis number | Standard 12 axis |
Programming method | 5-channels G code programming, each axis can be programmed separately |
The number of knives | Group 5 |
Maximum machining diameter | Φ15mm Φ20mm |
Maximum machining length(50mm in guide mode) | The walking knife mode is 50mm |
Maximum axial bore diameter (When the back shaft is 12mm and the handle is 10mm) | Φ6mm |
Drilling arm handle diameter | ∅5(Three)∅6(Two) |
Attack capability (spindle reversal mode) | M6 Copper |
Dental tapping ability (doraxial delivery) | M5 Copper |
Car thread function | Yes |
Multi-knife synchronous processing function | Yes |
Radial max bore diameter | Φ7mm |
Radial max bore tapping size | M5 |
Maximum clamping diameter of the back side spindle | ∅12mm |
Maximum bore diameter of the back-side spindle | ∅6mm |
Maximum tapping diameter of the back-side spindle | M6 |
Spindle power | 2KW(With the function of score) |
Backside platform axle power | 1.0KW |
Maximum spindle speed(For short use only)6000rpm | 6000rpm |
Back maximum speed (for short use only) | 6000rpm |
Maximum removal length of piece | 50mm |
Side power tool unit (optional) | 2 |
End face power tool unit (optional) | 1 |
Row knife ( 8 * 120 * 3)) | 3 |
Standard maximum number of tool installed (5 knives + 5 drill / boring) | 10 |
High maximum number of tool installed (5 + 5 drilling / boring + 1 back strong drill) | 11 |
Knife size | 8*8 |
Z1.2.3.4.5 axial stroke | 50mm |
X1.2.3.4.5 axial stroke | 30mm |
Backshaft itinerary | 150mm |
X1.2.3.4.5 axial power | 400W |
Z1.2.3.4.5 axial power | 400W |
Z1, Z2, Z3, Z4, Z5, and Z2 axis fast-forward speed | 30m/min |
X1, X2, X3, X4, X5 axis fast forward speed | 30m/min |
Center height of spindle | 1010mm |
High version input power | 7.6KW |
weight | 1800Kg |
Fuel tank storage | 50L |
size | 1550*1060*1650mm |
Type: Swiss-Type CNC Lathe
Maximum Workpiece Diameter: Typically around 15 mm (varies based on model)
Maximum Workpiece Length: Depends on the bar feeder capacity, often ranges from 1 meter to several meters
Spindle Diameter: Designed to handle workpieces within a specified diameter range, e.g., 15 mm
Spindle Speed Range: High-speed spindle, typically ranging from 1,000 to 12,000 RPM or higher
Spindle Power: Depending on the size and design, spindle power can range from 1 kW to 5 kW or more
Guide Bushing Diameter: Designed to support the workpiece and enhance rigidity, typically matches the maximum workpiece diameter
Number of Stations: Multiple tool stations (e.g., 6 to 12) to allow for various machining operations
Tool Post Type: May feature independent turrets for simultaneous operations
Tool Post Travel: X and Z-axis travel suitable for small parts machining
Controlled Axes: Generally includes X, Z, C (spindle rotation), Y (cross-slide), B (tool rotation), and potentially others for live tooling
Maximum Cutting Diameter: Typically around 15 mm or slightly larger
Bar Feeder Compatibility: Compatible with standard bar feeders for automatic loading of material
Bar Diameter Range: Usually from 1 mm to the maximum workpiece diameter the machine can handle
Live Tooling: Capability to perform operations such as milling and drilling with rotating tools
Coolant System: Integrated coolant delivery system for tool and part cooling
Electronics and Controls: Advanced CNC control system for programming and automation
Machine Dimensions (L x W x H): Varies depending on the exact model, but generally compact for workshop use
Weight: Relatively lightweight compared to conventional lathes, but still substantial for stability and precision
Programming Software: Usually comes with CAD/CAM integration software for easy part programming
Operator Interface: User-friendly graphical interface for easy operation and monitoring.
Read the Manual: Before operating the lathe, thoroughly read the user manual provided by the manufacturer. It contains critical information about setup, operation, and troubleshooting.
Environment Setup: Ensure the machine is placed in a stable, level, and clean environment free from excessive vibrations, dust, and temperature fluctuations.
Tooling Selection: Choose the right tools for the job. Ensure that the cutting tools are sharp and suited for the material being machined.
Workholding: Properly secure the workpiece using the appropriate workholding solution, such as collets or chucks, to ensure stability and repeatability.
Program Simulation: Before running a program on the actual workpiece, simulate the program to check for any errors or collisions.
Program Optimization: Optimize the CNC program for speed and efficiency without compromising on the quality of the part. Use the latest CAD/CAM software to generate efficient toolpaths.
Tool Offsets: Set the correct tool offsets in the CNC control to ensure accurate positioning of the tools relative to the workpiece.
Speeds and Feeds: Adjust the speeds and feeds based on the material and the tool being used. Incorrect settings can lead to poor surface finish, tool breakage, or suboptimal machining times.
Monitoring: Continuously monitor the machining process for any signs of tool wear, excessive vibration, or other issues that could affect the quality of the part.
Quality Control: Regularly inspect the parts being produced to ensure they meet the required specifications. Use measurement tools such as micrometers and calipers.
Daily Cleaning: Clean the machine daily to remove chips, dust, and oil residues. This helps maintain the machine's precision and extends its lifespan.
Lubrication: Regularly lubricate moving parts as recommended by the manufacturer to reduce wear and tear.
Coolant Maintenance: Check and change the coolant as needed to prevent corrosion and ensure proper cooling of the cutting tools and workpiece.
Filter Replacement: Replace air filters and coolant filters regularly to maintain the integrity of the machine's filtration system.
Scheduled Maintenance: Follow the manufacturer’s recommended maintenance schedule, which may include checking electrical connections, inspecting hydraulic systems, and calibrating sensors.
Personal Protective Equipment (PPE): Always wear appropriate PPE, such as safety glasses, hearing protection, and non-slip shoes.
Emergency Stops: Know the location and operation of the emergency stop buttons. Test them periodically to ensure they are functioning correctly.
Tool Security: Make sure that all tools are securely fastened before starting the machine to prevent accidental ejection during operation.
Training: Ensure that all operators are properly trained and understand the machine's capabilities and limitations. Continuous training can help operators stay updated with new features and techniques.
What is the maximum bar capacity of the HAWK-W15?
The maximum bar capacity of the HAWK-W15 can vary depending on the specific model and configuration. Typically, it can handle bars up to a certain diameter, which might be around 15mm (0.59 inches) or slightly less, depending on the design.
What kind of control system does the HAWK-W15 use?
The HAWK-W15 is equipped with a modern CNC control system, which could be from a reputable brand like Fanuc, Siemens, or Mitsubishi. The exact model and version will depend on the configuration chosen by the customer.
Can the HAWK-W15 perform live tooling operations?
Yes, the HAWK-W15 is capable of incorporating live tooling, which allows for milling, drilling, and other operations while turning. This feature enhances the versatility of the lathe.
What is the spindle speed range of the HAWK-W15?
The spindle speed range typically starts from a low RPM suitable for heavy cutting and goes up to high RPMs for finishing operations. The exact range might be from 500 to 10,000 RPM or higher, depending on the model.
Is the HAWK-W15 suitable for high-speed cutting?
Yes, the HAWK-W15 is designed to support high-speed cutting techniques, which can enhance productivity and reduce cycle times.
How easy is it to operate the HAWK-W15?
The HAWK-W15 is designed with a user-friendly interface and ergonomic controls to improve operator comfort and reduce setup times. Training is typically provided to ensure operators are comfortable with the machine.
What kind of materials can the HAWK-W15 machine?
The HAWK-W15 can machine a wide range of materials, including metals (such as steel, aluminum, and titanium), plastics, and composites.
Can the HAWK-W15 be customized?
Yes, the HAWK-W15 can be customized with various options and accessories to suit specific manufacturing needs, such as different tool turrets, sub-spindles, and coolant systems.
What is the footprint of the HAWK-W15?
The HAWK-W15 is designed with a compact footprint to maximize space efficiency in the workshop or factory. The exact dimensions will depend on the specific model and configuration.
Does the HAWK-W15 come with any warranty?
Yes, the HAWK-W15 typically comes with a warranty period, which covers defects in materials and workmanship. The length of the warranty and the coverage details will be specified by the manufacturer.
How is the HAWK-W15 packaged for shipping?
The HAWK-W15 is packaged in a custom-made wooden crate with protective materials to ensure safe transportation. Special care is taken to secure the lathe and prevent movement during transit.
What kind of maintenance is required for the HAWK-W15?
Regular maintenance is required to keep the HAWK-W15 in optimal condition. This includes cleaning, lubricating moving parts, and checking for wear. Detailed maintenance schedules and instructions are provided by the manufacturer.
Are there any training programs offered for the HAWK-W15?
Yes, training programs are typically offered to ensure operators are proficient in using the lathe. This can include on-site training, online tutorials, and manuals.
Can the HAWK-W15 be integrated into an automated production line?
Yes, the HAWK-W15 can be integrated into automated production lines with the appropriate peripheral equipment, such as bar feeders and part catchers.
What are the typical applications of the HAWK-W15?
The HAWK-W15 is suitable for a wide range of applications, including medical device manufacturing, aerospace, automotive, electronics, and instrumentation.
HAWK-W15 Swiss CNC Lathe
The HAWK-W15 Swiss CNC Lathe is an advanced machine tool designed to meet the demands of high-precision manufacturing. With its user-friendly interface, exceptional precision, and versatile capabilities, it is an ideal choice for industries requiring the production of small, intricate parts with tight tolerances. Whether you're looking to expand your manufacturing capabilities or improve existing processes, the HAWK-W15is a valuable investment that can significantly enhance your production efficiency and product quality.
Routine maintenance is essential to keep the machine running smoothly and to prolong its lifespan. Safety measures, such as guarding and emergency stop mechanisms, are implemented to protect operators. Operators must receive proper training to understand the machine's operation and safety procedures.
control system | HANBS self-innovate (yn 1.0 versions) |
Servo axis number | Standard 12 axis |
Programming method | 5-channels G code programming, each axis can be programmed separately |
The number of knives | Group 5 |
Maximum machining diameter | Φ15mm Φ20mm |
Maximum machining length(50mm in guide mode) | The walking knife mode is 50mm |
Maximum axial bore diameter (When the back shaft is 12mm and the handle is 10mm) | Φ6mm |
Drilling arm handle diameter | ∅5(Three)∅6(Two) |
Attack capability (spindle reversal mode) | M6 Copper |
Dental tapping ability (doraxial delivery) | M5 Copper |
Car thread function | Yes |
Multi-knife synchronous processing function | Yes |
Radial max bore diameter | Φ7mm |
Radial max bore tapping size | M5 |
Maximum clamping diameter of the back side spindle | ∅12mm |
Maximum bore diameter of the back-side spindle | ∅6mm |
Maximum tapping diameter of the back-side spindle | M6 |
Spindle power | 2KW(With the function of score) |
Backside platform axle power | 1.0KW |
Maximum spindle speed(For short use only)6000rpm | 6000rpm |
Back maximum speed (for short use only) | 6000rpm |
Maximum removal length of piece | 50mm |
Side power tool unit (optional) | 2 |
End face power tool unit (optional) | 1 |
Row knife ( 8 * 120 * 3)) | 3 |
Standard maximum number of tool installed (5 knives + 5 drill / boring) | 10 |
High maximum number of tool installed (5 + 5 drilling / boring + 1 back strong drill) | 11 |
Knife size | 8*8 |
Z1.2.3.4.5 axial stroke | 50mm |
X1.2.3.4.5 axial stroke | 30mm |
Backshaft itinerary | 150mm |
X1.2.3.4.5 axial power | 400W |
Z1.2.3.4.5 axial power | 400W |
Z1, Z2, Z3, Z4, Z5, and Z2 axis fast-forward speed | 30m/min |
X1, X2, X3, X4, X5 axis fast forward speed | 30m/min |
Center height of spindle | 1010mm |
High version input power | 7.6KW |
weight | 1800Kg |
Fuel tank storage | 50L |
size | 1550*1060*1650mm |
Type: Swiss-Type CNC Lathe
Maximum Workpiece Diameter: Typically around 15 mm (varies based on model)
Maximum Workpiece Length: Depends on the bar feeder capacity, often ranges from 1 meter to several meters
Spindle Diameter: Designed to handle workpieces within a specified diameter range, e.g., 15 mm
Spindle Speed Range: High-speed spindle, typically ranging from 1,000 to 12,000 RPM or higher
Spindle Power: Depending on the size and design, spindle power can range from 1 kW to 5 kW or more
Guide Bushing Diameter: Designed to support the workpiece and enhance rigidity, typically matches the maximum workpiece diameter
Number of Stations: Multiple tool stations (e.g., 6 to 12) to allow for various machining operations
Tool Post Type: May feature independent turrets for simultaneous operations
Tool Post Travel: X and Z-axis travel suitable for small parts machining
Controlled Axes: Generally includes X, Z, C (spindle rotation), Y (cross-slide), B (tool rotation), and potentially others for live tooling
Maximum Cutting Diameter: Typically around 15 mm or slightly larger
Bar Feeder Compatibility: Compatible with standard bar feeders for automatic loading of material
Bar Diameter Range: Usually from 1 mm to the maximum workpiece diameter the machine can handle
Live Tooling: Capability to perform operations such as milling and drilling with rotating tools
Coolant System: Integrated coolant delivery system for tool and part cooling
Electronics and Controls: Advanced CNC control system for programming and automation
Machine Dimensions (L x W x H): Varies depending on the exact model, but generally compact for workshop use
Weight: Relatively lightweight compared to conventional lathes, but still substantial for stability and precision
Programming Software: Usually comes with CAD/CAM integration software for easy part programming
Operator Interface: User-friendly graphical interface for easy operation and monitoring.
Read the Manual: Before operating the lathe, thoroughly read the user manual provided by the manufacturer. It contains critical information about setup, operation, and troubleshooting.
Environment Setup: Ensure the machine is placed in a stable, level, and clean environment free from excessive vibrations, dust, and temperature fluctuations.
Tooling Selection: Choose the right tools for the job. Ensure that the cutting tools are sharp and suited for the material being machined.
Workholding: Properly secure the workpiece using the appropriate workholding solution, such as collets or chucks, to ensure stability and repeatability.
Program Simulation: Before running a program on the actual workpiece, simulate the program to check for any errors or collisions.
Program Optimization: Optimize the CNC program for speed and efficiency without compromising on the quality of the part. Use the latest CAD/CAM software to generate efficient toolpaths.
Tool Offsets: Set the correct tool offsets in the CNC control to ensure accurate positioning of the tools relative to the workpiece.
Speeds and Feeds: Adjust the speeds and feeds based on the material and the tool being used. Incorrect settings can lead to poor surface finish, tool breakage, or suboptimal machining times.
Monitoring: Continuously monitor the machining process for any signs of tool wear, excessive vibration, or other issues that could affect the quality of the part.
Quality Control: Regularly inspect the parts being produced to ensure they meet the required specifications. Use measurement tools such as micrometers and calipers.
Daily Cleaning: Clean the machine daily to remove chips, dust, and oil residues. This helps maintain the machine's precision and extends its lifespan.
Lubrication: Regularly lubricate moving parts as recommended by the manufacturer to reduce wear and tear.
Coolant Maintenance: Check and change the coolant as needed to prevent corrosion and ensure proper cooling of the cutting tools and workpiece.
Filter Replacement: Replace air filters and coolant filters regularly to maintain the integrity of the machine's filtration system.
Scheduled Maintenance: Follow the manufacturer’s recommended maintenance schedule, which may include checking electrical connections, inspecting hydraulic systems, and calibrating sensors.
Personal Protective Equipment (PPE): Always wear appropriate PPE, such as safety glasses, hearing protection, and non-slip shoes.
Emergency Stops: Know the location and operation of the emergency stop buttons. Test them periodically to ensure they are functioning correctly.
Tool Security: Make sure that all tools are securely fastened before starting the machine to prevent accidental ejection during operation.
Training: Ensure that all operators are properly trained and understand the machine's capabilities and limitations. Continuous training can help operators stay updated with new features and techniques.
What is the maximum bar capacity of the HAWK-W15?
The maximum bar capacity of the HAWK-W15 can vary depending on the specific model and configuration. Typically, it can handle bars up to a certain diameter, which might be around 15mm (0.59 inches) or slightly less, depending on the design.
What kind of control system does the HAWK-W15 use?
The HAWK-W15 is equipped with a modern CNC control system, which could be from a reputable brand like Fanuc, Siemens, or Mitsubishi. The exact model and version will depend on the configuration chosen by the customer.
Can the HAWK-W15 perform live tooling operations?
Yes, the HAWK-W15 is capable of incorporating live tooling, which allows for milling, drilling, and other operations while turning. This feature enhances the versatility of the lathe.
What is the spindle speed range of the HAWK-W15?
The spindle speed range typically starts from a low RPM suitable for heavy cutting and goes up to high RPMs for finishing operations. The exact range might be from 500 to 10,000 RPM or higher, depending on the model.
Is the HAWK-W15 suitable for high-speed cutting?
Yes, the HAWK-W15 is designed to support high-speed cutting techniques, which can enhance productivity and reduce cycle times.
How easy is it to operate the HAWK-W15?
The HAWK-W15 is designed with a user-friendly interface and ergonomic controls to improve operator comfort and reduce setup times. Training is typically provided to ensure operators are comfortable with the machine.
What kind of materials can the HAWK-W15 machine?
The HAWK-W15 can machine a wide range of materials, including metals (such as steel, aluminum, and titanium), plastics, and composites.
Can the HAWK-W15 be customized?
Yes, the HAWK-W15 can be customized with various options and accessories to suit specific manufacturing needs, such as different tool turrets, sub-spindles, and coolant systems.
What is the footprint of the HAWK-W15?
The HAWK-W15 is designed with a compact footprint to maximize space efficiency in the workshop or factory. The exact dimensions will depend on the specific model and configuration.
Does the HAWK-W15 come with any warranty?
Yes, the HAWK-W15 typically comes with a warranty period, which covers defects in materials and workmanship. The length of the warranty and the coverage details will be specified by the manufacturer.
How is the HAWK-W15 packaged for shipping?
The HAWK-W15 is packaged in a custom-made wooden crate with protective materials to ensure safe transportation. Special care is taken to secure the lathe and prevent movement during transit.
What kind of maintenance is required for the HAWK-W15?
Regular maintenance is required to keep the HAWK-W15 in optimal condition. This includes cleaning, lubricating moving parts, and checking for wear. Detailed maintenance schedules and instructions are provided by the manufacturer.
Are there any training programs offered for the HAWK-W15?
Yes, training programs are typically offered to ensure operators are proficient in using the lathe. This can include on-site training, online tutorials, and manuals.
Can the HAWK-W15 be integrated into an automated production line?
Yes, the HAWK-W15 can be integrated into automated production lines with the appropriate peripheral equipment, such as bar feeders and part catchers.
What are the typical applications of the HAWK-W15?
The HAWK-W15 is suitable for a wide range of applications, including medical device manufacturing, aerospace, automotive, electronics, and instrumentation.