CNC Metal part
ARIDA
7318159090
CNC machining center
Stainless Steel
Cold Forging
High Rigidity and Precision
ISO, GS, RoHS, CE
One year
Forging
Standard exporting package
ARIDA
China
CNC precision
New
Motor
Worldwide
yes
CNC
Availability: | |
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Quantity: | |
All CNC Metal Parts are customizable, please contact customer service with photos.
Incubators: Heating platforms for incubators that maintain a constant temperature for neonatal care.
Thermal Cycler: Components in PCR (Polymerase Chain Reaction) machines that require precise temperature control for DNA amplification.
Hot Plates: Used in laboratories for heating solutions or samples to a specified temperature.
Stirrer Hot Plates: Platforms that combine stirring and heating functions for laboratory experiments.
Process Heaters: Platforms used in industrial processes that require heating substrates or materials.
Drying Stations: Components in drying stations where temperature control is critical for drying processes.
Coffee Machines: Heating elements in coffee machines that require a stable heating surface.
Cooktops: Elements in cooktops or stoves that distribute heat evenly across cooking surfaces.
Wafer Heating Stations: Platforms used in semiconductor fabrication processes where temperature control is essential.
Etching and Deposition Chambers: Components involved in etching and deposition processes that require controlled heating.
Engine Pre-heating Systems: Components in engine pre-heating systems that warm up engines before starting.
Battery Heating Systems: Elements in battery packs that keep batteries at optimal operating temperatures.
Thermal Conductivity: Al-6061-T6 has moderate thermal conductivity, making it suitable for applications where heat distribution is necessary but not overly conductive.
Corrosion Resistance: This alloy is known for its corrosion resistance, which is beneficial in environments where the heater plate might be exposed to moisture or chemicals.
Strength and Durability: The T6 temper increases the strength of the alloy, providing a durable base for heating elements.
Machinability: Al-6061-T6 is easily machined, allowing for the creation of complex shapes and designs that can optimize heat distribution.
Weight: Aluminum is relatively light, making it ideal for applications where weight is a concern.
Corrosion Resistance: Al-6061-T6 is known for its resistance to corrosion, which is particularly important in medical settings where cleaning and disinfection are routine.
Mechanical Strength: This alloy provides sufficient strength to withstand the rigors of repeated use and sterilization processes.
Ease of Machining: The alloy is easy to machine into complex shapes, allowing for the creation of heat sinks with intricate designs that maximize heat dissipation.
Biocompatibility: While not inherently biocompatible, the alloy can be treated or coated to make it suitable for medical applications where direct contact with bodily fluids might occur.
All CNC Metal Parts are customizable, please contact customer service with photos.
Incubators: Heating platforms for incubators that maintain a constant temperature for neonatal care.
Thermal Cycler: Components in PCR (Polymerase Chain Reaction) machines that require precise temperature control for DNA amplification.
Hot Plates: Used in laboratories for heating solutions or samples to a specified temperature.
Stirrer Hot Plates: Platforms that combine stirring and heating functions for laboratory experiments.
Process Heaters: Platforms used in industrial processes that require heating substrates or materials.
Drying Stations: Components in drying stations where temperature control is critical for drying processes.
Coffee Machines: Heating elements in coffee machines that require a stable heating surface.
Cooktops: Elements in cooktops or stoves that distribute heat evenly across cooking surfaces.
Wafer Heating Stations: Platforms used in semiconductor fabrication processes where temperature control is essential.
Etching and Deposition Chambers: Components involved in etching and deposition processes that require controlled heating.
Engine Pre-heating Systems: Components in engine pre-heating systems that warm up engines before starting.
Battery Heating Systems: Elements in battery packs that keep batteries at optimal operating temperatures.
Thermal Conductivity: Al-6061-T6 has moderate thermal conductivity, making it suitable for applications where heat distribution is necessary but not overly conductive.
Corrosion Resistance: This alloy is known for its corrosion resistance, which is beneficial in environments where the heater plate might be exposed to moisture or chemicals.
Strength and Durability: The T6 temper increases the strength of the alloy, providing a durable base for heating elements.
Machinability: Al-6061-T6 is easily machined, allowing for the creation of complex shapes and designs that can optimize heat distribution.
Weight: Aluminum is relatively light, making it ideal for applications where weight is a concern.
Corrosion Resistance: Al-6061-T6 is known for its resistance to corrosion, which is particularly important in medical settings where cleaning and disinfection are routine.
Mechanical Strength: This alloy provides sufficient strength to withstand the rigors of repeated use and sterilization processes.
Ease of Machining: The alloy is easy to machine into complex shapes, allowing for the creation of heat sinks with intricate designs that maximize heat dissipation.
Biocompatibility: While not inherently biocompatible, the alloy can be treated or coated to make it suitable for medical applications where direct contact with bodily fluids might occur.
Answer: Heater plate metal parts are often made from materials that offer good thermal conductivity, durability, and resistance to corrosion. Common materials include:
Aluminum: Known for its lightweight nature and excellent thermal conductivity.
Stainless Steel: Offers high durability and corrosion resistance, making it suitable for medical and industrial applications.
Copper: Has excellent thermal conductivity but is less common due to its cost and susceptibility to oxidation.
Brass: Offers good thermal conductivity and is resistant to corrosion.
Ceramic: Not a metal, but ceramics can be used in some heater plates for their thermal properties and resistance to high temperatures.
Answer: A heater plate in medical equipment is designed to maintain precise and uniform temperatures. Its functions include:
Warming Fluids: Heating blood, IV fluids, and other medical solutions to body temperature to prevent hypothermia.
Sample Preservation: Keeping biological samples at the correct temperature for storage and analysis.
Chemical Reactions: Facilitating chemical reactions in diagnostic assays and other laboratory procedures.
Therapeutic Treatments: Supporting treatments that require controlled heating, such as hyperthermia therapy.
Answer: Even heat distribution is achieved through:
Thermal Conductivity: Materials like aluminum and copper are chosen for their ability to conduct heat uniformly.
Design: The physical design of the heater plate, including the placement of heating elements, ensures that heat is spread evenly across the surface.
Temperature Control Systems: Electronic controls monitor and adjust the temperature to maintain uniformity.
Answer: Safety features typically include:
Overheat Protection: Thermal fuses or circuit breakers prevent the heater plate from overheating.
Emergency Shutdown: Manual or automatic switches to turn off the heater in case of malfunction.
Insulation: Proper insulation to protect users from burns and electrical hazards.
Alarms: Visual or audible alerts for temperature deviations or malfunctions.
Answer: Maintenance practices include:
Cleaning: Regular cleaning to remove contaminants that can affect temperature uniformity.
Inspection: Checking for signs of wear or damage to heating elements and connections.
Calibration: Ensuring that the temperature control system remains accurate.
Replacement: Periodically replacing seals, gaskets, or other components as needed.
Answer: Yes, heater plate metal parts can be customized to meet specific application needs. Customization options include:
Size and Shape: Tailoring the dimensions to fit different equipment or laboratory setups.
Power Output: Adjusting the wattage to meet the heating requirements of the application.
Materials: Selecting specific alloys or coatings to enhance performance or resistance to specific environments.
Answer: Environmental considerations include:
Recyclability: Choosing materials that can be recycled at the end of the product's life.
Emissions: Minimizing emissions during manufacturing and operation.
Energy Efficiency: Designing heaters to consume less energy while maintaining performance.
Toxicity: Ensuring that materials and manufacturing processes do not release harmful substances.
Answer: Energy efficiency is achieved through:
Precise Temperature Control: Reducing energy waste by maintaining the exact temperature needed.
Fast Heating Times: Rapid heating reduces the time the heater operates.
Low Power Consumption: Efficient designs that minimize energy use.
Smart Controls: Features like timers and programmable thermostats help manage energy usage.
Answer: Yes, heater plate metal parts must comply with various standards:
Medical Device Regulations: Compliance with standards such as FDA guidelines for medical devices.
Electrical Safety Standards: Adherence to standards like UL (Underwriters Laboratories) and CE (Conformité Européenne) for electrical safety.
ISO Certifications: Meeting quality management standards like ISO 9001 for manufacturing processes.
Answer: Troubleshooting steps include:
Check Connections: Ensure all electrical connections are secure and undamaged.
Test Heating Element: Use a multimeter to check the continuity of the heating element.
Inspect Controls: Verify that the temperature control system is functioning correctly.
Consult Manual: Refer to the manufacturer's troubleshooting guide for specific issues.
Contact Support: Reach out to the manufacturer or authorized service center for assistance.
Answer: Heater plate metal parts are often made from materials that offer good thermal conductivity, durability, and resistance to corrosion. Common materials include:
Aluminum: Known for its lightweight nature and excellent thermal conductivity.
Stainless Steel: Offers high durability and corrosion resistance, making it suitable for medical and industrial applications.
Copper: Has excellent thermal conductivity but is less common due to its cost and susceptibility to oxidation.
Brass: Offers good thermal conductivity and is resistant to corrosion.
Ceramic: Not a metal, but ceramics can be used in some heater plates for their thermal properties and resistance to high temperatures.
Answer: A heater plate in medical equipment is designed to maintain precise and uniform temperatures. Its functions include:
Warming Fluids: Heating blood, IV fluids, and other medical solutions to body temperature to prevent hypothermia.
Sample Preservation: Keeping biological samples at the correct temperature for storage and analysis.
Chemical Reactions: Facilitating chemical reactions in diagnostic assays and other laboratory procedures.
Therapeutic Treatments: Supporting treatments that require controlled heating, such as hyperthermia therapy.
Answer: Even heat distribution is achieved through:
Thermal Conductivity: Materials like aluminum and copper are chosen for their ability to conduct heat uniformly.
Design: The physical design of the heater plate, including the placement of heating elements, ensures that heat is spread evenly across the surface.
Temperature Control Systems: Electronic controls monitor and adjust the temperature to maintain uniformity.
Answer: Safety features typically include:
Overheat Protection: Thermal fuses or circuit breakers prevent the heater plate from overheating.
Emergency Shutdown: Manual or automatic switches to turn off the heater in case of malfunction.
Insulation: Proper insulation to protect users from burns and electrical hazards.
Alarms: Visual or audible alerts for temperature deviations or malfunctions.
Answer: Maintenance practices include:
Cleaning: Regular cleaning to remove contaminants that can affect temperature uniformity.
Inspection: Checking for signs of wear or damage to heating elements and connections.
Calibration: Ensuring that the temperature control system remains accurate.
Replacement: Periodically replacing seals, gaskets, or other components as needed.
Answer: Yes, heater plate metal parts can be customized to meet specific application needs. Customization options include:
Size and Shape: Tailoring the dimensions to fit different equipment or laboratory setups.
Power Output: Adjusting the wattage to meet the heating requirements of the application.
Materials: Selecting specific alloys or coatings to enhance performance or resistance to specific environments.
Answer: Environmental considerations include:
Recyclability: Choosing materials that can be recycled at the end of the product's life.
Emissions: Minimizing emissions during manufacturing and operation.
Energy Efficiency: Designing heaters to consume less energy while maintaining performance.
Toxicity: Ensuring that materials and manufacturing processes do not release harmful substances.
Answer: Energy efficiency is achieved through:
Precise Temperature Control: Reducing energy waste by maintaining the exact temperature needed.
Fast Heating Times: Rapid heating reduces the time the heater operates.
Low Power Consumption: Efficient designs that minimize energy use.
Smart Controls: Features like timers and programmable thermostats help manage energy usage.
Answer: Yes, heater plate metal parts must comply with various standards:
Medical Device Regulations: Compliance with standards such as FDA guidelines for medical devices.
Electrical Safety Standards: Adherence to standards like UL (Underwriters Laboratories) and CE (Conformité Européenne) for electrical safety.
ISO Certifications: Meeting quality management standards like ISO 9001 for manufacturing processes.
Answer: Troubleshooting steps include:
Check Connections: Ensure all electrical connections are secure and undamaged.
Test Heating Element: Use a multimeter to check the continuity of the heating element.
Inspect Controls: Verify that the temperature control system is functioning correctly.
Consult Manual: Refer to the manufacturer's troubleshooting guide for specific issues.
Contact Support: Reach out to the manufacturer or authorized service center for assistance.