Place of Origin：GuangDong, China Material Introduction This heating disk is made from Aluminum Nitride Ceramic (AlN), a high thermal conductivity ceramic material for precision heating and thermal control applications. It provides efficient heat transfer while maintaining reliable electrical insulation. Learn more about Aluminum Nitride Ceramic. Key Features High thermal conductivity Reliable electrical insulation Good thermal stability Suitable for vacuum and clean heating systems Custom holes, grooves, thickness, and surface finish available Precision machining based on customer drawings Explore our custom ceramic components. Application Industries Semiconductor equipment Vacuum heating systems Electronic packaging Power electronics LED thermal management Precision thermal control modules Lead Time Lead time depends on size, tolerance, machining details, and quantity. Please send drawings and requirements to contact us for a quotation.

Place of Origin: Guangdong, China Material Introduction:This MCH alumina ceramic heating core is made with an alumina ceramic substrate and an integrated heating circuit. It is designed for fast heat-up, stable thermal output, and reliable electrical insulation in compact heating applications. For more related products, you can view our ceramic heating core series. Key Features:Fast heating response, compact size, stable temperature performance, good insulation, low power consumption, and flexible customization for size, shape, voltage, resistance, lead wire position, and connection method. Application Industries:Suitable for beauty devices, hair straighteners, curling irons, household appliances, electronic heating modules, medical heating devices, laboratory equipment, and compact temperature control systems. Delivery Time:Sample and bulk order lead time depends on the drawing, size, voltage, resistance, lead wire design, and order quantity. Please contact us for a project-based evaluation.

Place of Origin：Guangdong, ChinaBrand: CERAMPROMaterial Introduction This ring-shaped heating element is made from Aluminum Nitride (AlN) ceramic, a material known for fast heat transfer, good electrical insulation, and stable thermal performance. Its ring-shaped structure is suitable for circular or localized heating around holes, tubes, shafts, and compact thermal assemblies. Functional Features Aluminum Nitride ceramic for fast and stable heat transfer Ring-shaped design for circular or localized heating Good electrical insulation for compact heater assemblies Suitable for heating around holes, tubes, shafts, and fixtures Custom inner diameter, outer diameter, thickness, and electrode layout Available for drawing-based ceramic heating element customization Application Industries Semiconductor equipment Vacuum heating modules Electronic packaging Sensor and testing equipment Precision thermal control systems Laboratory and industrial heating equipment Delivery Time Sample production usually takes 15–25 working days. Batch lead time depends on the final size, quantity, and electrode design. For custom requirements, please contact CERAMPRO with your drawing or application details.

Place of Origin：guangdong, China Material Introduction Made from Silicon Nitride (Si3N4) ceramic, this liquid heating element is designed for water, fluid, and immersion-style heating applications. It offers good electrical insulation, stable heating performance, and strong resistance to thermal shock during repeated heating and cooling. Functional Features Designed for water and liquid heating applications Suitable for immersion-style heater structures Fast heating response with stable performance Good electrical insulation Strong thermal shock resistance Custom sizes and structures available based on application needs Application Industries Water heaters Coffee and beverage machines Steam generators Industrial fluid heating systems Laboratory liquid heating equipment Cleaning and disinfection equipment Delivery Time Lead time depends on size, tolerance, machining details, and quantity. Please contact us with your drawings and requirements for a quotation.

Product Name:High-Performance Metal Ceramic Heating Element (MCH / Ceramic Heater) Product Material:92%-96% High-purity Alumina (Al_2O_3) or Silicon Nitride (Si_3N_4) as ceramic substrate; Internal heating circuit made of refractory metals such as Tungsten (W) or Molybdenum-Manganese (Mo-Mn); Lead wires made of Nickel or silver-plated copper. Material Characteristics:High power density with rapid thermal response, Integrated co-firing structure (Heating circuit protected from oxidation), Exceptional insulation resistance ($>10^{12} \Omega$), Acid and alkali corrosion resistance, High mechanical strength, Small footprint with customizable shapes (Rod, Tube, Plate), Environmentally friendly (Lead and cadmium free). Application Fields:Electronic cigarette atomizers, Instant water heaters, Hair straighteners/curlers, Oxygen sensors, Soldering iron heating cores, Mold heating, Precision laboratory instruments, 3D printer nozzles. Application Industries:Biomedical (Blood analyzers), Advanced Machinery (Miniature heaters), New Energy (Battery pre-heating), Fluid Control (Gas temperature stabilization), Electronic Engineering (Soldering tools), Aerospace (Sensor heating), Petrochemical (Viscosity testers), Broad Semiconductor (Component baking). Processing Difficulties:Ensuring resistance consistency during high-temperature co-firing (Shrinkage control), Achieving high-strength brazing between lead wires and internal electrodes, Preventing ceramic micro-cracks under rapid thermal cycling, Managing multi-layer circuit alignment for complex geometries. Processing Flow:Ceramic powder preparation → Tape casting (Green sheets) → Heating circuit screen printing → Multi-layer lamination → High-temperature co-firing ($1600^\circ\text{C}+$) → Precision grinding and cutting → Lead wire brazing → Insulation and resistance sorting → Power-on aging test → Packaging. Delivery Period:Standard rod/tube elements: 20-35 days, Customized complex geometries: 40-60 days.

Product Name: High-Thermal Conductivity Aluminum Nitride (AlN) Ceramic Heater Product Material: High-Purity Aluminum Nitride Ceramic (AlN), internal tungsten (W) or molybdenum (Mo) heating circuits Material Characteristics: Ultra-high thermal conductivity (180-230 W/m·K), High electrical resistivity even at elevated temperatures, Coefficient of thermal expansion (CTE) matching Silicon (4.5×10⁻⁶/°C), Excellent plasma resistance and chemical stability, Superior temperature uniformity across the heating surface, High mechanical strength and dielectric properties Application Fields: Wafer heating and processing, Vacuum deposition systems (CVD/PVD), Rapid Thermal Processing (RTP), Analytical instrumentation, High-temperature testing stages, Power module baseplates with heating functions, Medical sterilization equipment Application Industries: Broad Semiconductor (wafer baking, etching), Aerospace (thermal management), Biomedical (PCR thermal cyclers), Fluid Control (gas pre-heaters), Advanced Machinery (precision hot plates), New Energy (battery testing thermal stages), Petrochemical (high-temp sensors), Electronic Engineering (MEMS packaging) Processing Difficulties: Achieving high-reliability co-firing of ceramic and refractory metal circuits, Maintaining ultra-flat surface accuracy (micron-level) after high-temperature sintering, Managing precise temperature uniformity across large surface areas, Controlling the purity and grain boundaries to optimize thermal paths, Designing durable electrical lead attachments for high-temperature vacuum environments Processing Flow: AlN powder preparation and slurry casting → Internal circuit screen printing → Multi-layer lamination and co-firing → High-temperature pressureless or hot-press sintering → Precision CNC grinding and laser shaping → Ultra-precision surface polishing → Terminal metallization and lead welding → Thermal imaging and uniformity testing → Insulation and reliability screening → Cleanroom packaging Delivery Period: Standard geometry heaters: 60-90 days, Customized multi-zone/high-precision heaters: 90-120 days

Place of Origin：GuangDong, China Material Introduction This air heating element is made with Silicon Nitride Ceramic (Si3N4), a durable ceramic material suitable for high-temperature heating and repeated thermal cycling. It offers good strength, thermal shock resistance, and stable performance in hot air heating environments. Key Features Fast heating response Good resistance to thermal shock High-strength ceramic body Stable performance during repeated heating cycles Suitable for hot air, ignition, and industrial heating applications Custom size, shape, resistance value, and terminal design available For drawing-based projects, CERAMPRO supports custom ceramic components according to application requirements. Application Industries Industrial hot air heating systems Burner and ignition equipment Diesel heater and automotive heating systems Drying and thermal processing equipment Laboratory heating devices Custom ceramic heating assemblies Lead Time Lead time depends on the size, heating structure, resistance value, terminal design, and order quantity. Please send your drawings, specifications, or working conditions to contact us for a quick review and quotation.

Product Name: High-Temperature Silicon Carbide (SiC) Heating Element Product Material: Recrystallized Silicon Carbide (RSiC), Reaction Bonded Silicon Carbide (RBSiC), or Sintered Silicon Carbide (SSiC) Material Characteristics: High maximum operating temperature (up to 1600°C in air), High thermal conductivity and emissivity, Excellent chemical stability and oxidation resistance, High mechanical strength at elevated temperatures, Low thermal expansion coefficient, Superior creep resistance, Precise resistance control for stable power output Application Fields: High-temperature industrial furnaces (shuttle kilns, tunnel kilns), Wafer heat treatment (Diffusion, Oxidation, Annealing), Glass and ceramic melting, Non-ferrous metal smelting, Radiant tube heating systems, Laboratory muffle furnaces, Sintering of electronic components Application Industries: Broad Semiconductor (thermal processing), Aerospace (thermal simulation testing), Biomedical (dental zirconia sintering), Fluid Control (high-temperature gas heaters), Advanced Machinery (heat treatment kilns), New Energy (lithium battery material sintering), Petrochemical (catalyst heating), Electronic Engineering (thick film firing) Processing Difficulties: Controlling electrical resistivity consistency during high-temperature recrystallization, Designing "Cold-End" technology to prevent terminal overheating, Achieving uniform coating for enhanced oxidation resistance, Managing material brittleness during large-scale precision shaping, Ensuring tight tolerances for complex radiant tube structures Processing Flow: High-purity SiC powder grading → Mixing with binders → Extrusion or slip casting → High-temperature vacuum/gas-pressure sintering → Cold-end spraying (Al/Si coating) → Precise resistance grouping and calibration → High-temperature aging and stability testing → Surface anti-oxidation treatment → Final inspection and vibration-proof packaging Delivery Period: Standard rod/U-shape elements: 20-35 days, Customized high-precision/radiant tube structures: 45-70 days

Product Name: Precision Alumina Ceramic Heating Element (MCH) Product Material: High-Purity Alumina Ceramic (92% - 96% Al_2O_3), Internal Tungsten (W) or Manganese (Mn) heating circuit Material Characteristics: Excellent electrical insulation (Volume resistivity >$10^{14}$ Ω·cm), High mechanical strength and hardness, Acid and alkali corrosion resistance, Uniform surface heating with consistent temperature control, Rapid heat-up (reaches 200°C in seconds), Safe and eco-friendly (No lead, cadmium, or toxic substances) Application Fields: Instant water heating, Electronic cigarette atomizers, Hair straighteners and curlers, Oxygen sensors, Soldering iron tips, Mold heating, Precision analytical instruments, 3D printer heating blocks Application Industries: Broad Semiconductor (small component baking), Aerospace (sensor heating), Biomedical (blood analyzers, infusion warmers), Fluid Control (gas flow temperature stabilization), Advanced Machinery (plastic machinery, hot melt), New Energy (lithium battery pre-heating), Petrochemical (oil viscosity testers), Electronic Engineering (SMT reflow heating) Processing Difficulties: Controlling the precision of internal circuit screen printing to ensure resistance consistency, Managing high-temperature co-firing shrinkage to prevent warping or cracking, Ensuring high-strength lead wire attachment at the electrode contact points, Achieving vacuum-tight integrity for encapsulated heating elements Processing Flow: Alumina powder processing → Tape casting (green sheets) → Heating circuit screen printing → Multi-layer lamination → High-temperature co-firing (1600°C+) → Precision grinding and cutting → Lead wire brazing or soldering → Insulation and resistance testing → Surface glazing (optional) → Quality inspection and packaging

Product Name: Ultra-High Performance Silicon Nitride (Si_3N_4) Ceramic Heater Product Material: Hot-Pressed Silicon Nitride (HPSN) or Gas-Pressure Sintered Silicon Nitride (GPSN), Tungsten (W) heating circuit Material Characteristics: Outstanding thermal shock resistance (survives rapid quenching), High mechanical strength and fracture toughness, Maximum operating temperature (up to 1200°C), Exceptional resistance to molten metal corrosion (e.g., molten Aluminum), Low coefficient of thermal expansion (3.2×10⁻⁶/°C), Excellent electrical insulation at high temperatures, Non-wetting properties with many non-ferrous alloys Application Fields: Molten aluminum and non-ferrous metal immersion heating, Glow plugs for diesel engines, Gas and wood pellet ignition, Plastic injection molding nozzles, Vacuum evaporation sources, Rapid fluid heating, Specialized chemical reactors, 3D printing nozzle heaters Application Industries: Broad Semiconductor (thermal testing), Aerospace (combustion initiation), Biomedical (rapid sterilization), Fluid Control (high-pressure gas heating), Advanced Machinery (die casting), New Energy (hydrogen fuel pre-heating), Petrochemical (corrosive liquid heating), Electronic Engineering (vacuum soldering) Processing Difficulties: Achieving precise internal electrode burial within a high-toughness matrix, Controlling the uniformity of hot-pressing to ensure isotropic thermal properties, Managing high-cost diamond machining for complex shapes, Ensuring leak-proof performance for immersion applications, Optimization of electrical terminals for reliable long-term contact at 1000°C+ Processing Flow: High-purity $Si_3N_4$ powder mixing → Cold isostatic pressing or molding → Internal circuit integration → High-temperature gas-pressure sintering or hot-pressing → Diamond precision grinding → Ultrasonic micro-drilling (if required) → Surface metallization and electrode brazing → Thermal shock cycle testing → Insulation and power-on inspection → Cleanroom packaging Delivery Period:

Place of Origin：GuangDong, China Material Introduction This alumina ceramic hot air gun heater core is made from high-purity alumina ceramic with metal connection terminals. As a compact ceramic heating component, it is designed for heat guns, hot air guns, plastic welding tools, hot air stations, and other small heating equipment, providing excellent electrical insulation, heat resistance, and stable heating performance Key Features Good heat resistance for hot air gun and heat gun heating applications Stable ceramic insulation performance during continuous operation Compact cylindrical structure for hot air gun heating element replacement Suitable for heat guns, plastic welding tools, hot air stations, and repair equipment Custom ceramic heater core options are available based on drawings, samples, voltage, power, and terminal design Application Industries This ceramic heater core is commonly used in hot air guns, heat guns, plastic welding guns, hot air soldering stations, heat shrink tools, repair equipment, and small industrial hot air heating devices. It is suitable for users looking for a reliable heat gun heating element or hot air gun heating element replacement. Delivery Time For standard or similar hot air gun ceramic heater core structures, samples can usually be arranged after the size, voltage, power, and terminal details are confirmed. For customized ceramic heating elements, delivery time depends on the drawing, quantity, and processing requirements. To confirm a custom project, please send your details through our contact page.

Place of Origin: Guangdong, China Material Introduction:This MCH alumina ceramic heating core is made with an alumina ceramic substrate and an integrated heating circuit. It is designed for fast heat-up, stable thermal output, and reliable electrical insulation in compact heating applications. For more related products, you can view our ceramic heating core series. Key Features:Fast heating response, compact size, stable temperature performance, good insulation, low power consumption, and flexible customization for size, shape, voltage, resistance, lead wire position, and connection method. Application Industries:Suitable for beauty devices, hair straighteners, curling irons, household appliances, electronic heating modules, medical heating devices, laboratory equipment, and compact temperature control systems. Delivery Time:Sample and bulk order lead time depends on the drawing, size, voltage, resistance, lead wire design, and order quantity. Please contact us for a project-based evaluation.

Product Name:Original Internal Heating Ceramic Soldering Core Product Material:High-purity Alumina ($Al_2O_3$) ceramic matrix, Integrated Tungsten (W) co-fired heating circuit, High-temperature resistant Nickel-chromium leads or Nickel terminals Material Characteristics:Superior thermal conductivity for internal heat transfer, Ultra-fast ramp-up speed, Exceptional insulation resistance ($>100 \text{ M}\Omega$), Resistant to high-temperature oxidation and chemical flux erosion, High mechanical strength, Precision-controlled resistance (TCR stability) Application Fields:Original equipment manufacturer (OEM) soldering irons, High-end soldering stations, Lead-free soldering systems, Micro-soldering tools, Automated robotic soldering arms, Precision rework equipment Application Industries:Biomedical (Medical electronics assembly), Advanced Machinery (Precision instrumentation), New Energy (BMS and EV electronics), Fluid Control (Sensors soldering), Electronic Engineering (SMT/PCB assembly), Aerospace (Avionics repair), Petrochemical (Field tool maintenance), Broad Semiconductor (Package testing tools) Processing Difficulties:Achieving perfect concentricity for internal tip fitment, Controlling the micro-shrinkage during $1600^\circ\text{C}$ co-firing to maintain resistance tolerance, Ensuring high-reliability brazing between internal tungsten and external leads, Preventing micro-cracking during rapid $25^\circ\text{C}$ to $400^\circ\text{C}$ thermal cycling Processing Flow:Ceramic slurry preparation → High-precision tape casting → Internal circuit screen printing → Multi-layer micro-lamination → High-temperature vacuum sintering → Precision diamond grinding (Outer diameter) → Terminal brazing → Power-on aging and stability testing → Insulation leakage detection → Final inspection and original packaging Delivery Period:Standard original series: 15-25 days, Customized high-precision series: 30-50 days

Place of Origin:guangdong.China Material:Made from high alumina ceramic, these heating beads are designed for ceramic heating core applications, especially flexible ceramic heater pads. They are used as insulation and support parts to help keep heating wires securely in place during high-temperature operation. Key Features:High temperature resistance | Good electrical insulation | Stable wire support | Reliable thermal stability | Wear-resistant ceramic surface | Suitable for heater pad assembly | Custom sizes and hole designs available Application Industries:These alumina ceramic heating beads are commonly used in flexible ceramic heater pads, welding preheating, post-weld heat treatment, pipeline heating, pressure vessel heating, industrial maintenance, and custom electric heating assemblies. For more material options, you can also explore our alumina ceramics. Delivery Time:Standard alumina ceramic heating beads can be supplied according to stock availability. For custom bead size, hole diameter, shape, or heater pad assembly requirements, please contact CERAMPRO after confirming drawings, samples, or specifications.

Place of Origin: Guangdong, China Material Introduction:This ceramic bobbin heater core is made from high-temperature ceramic material and used as a support body for resistance heating wires in industrial furnace heater assemblies. The ceramic structure helps keep the heating wire in position while providing insulation and heat resistance during high-temperature operation. For more furnace-related heating products, you can view our Ceramic Heating Core series. Key Features:Designed for industrial furnace heating systems, this ceramic bobbin heater core offers good electrical insulation, stable wire support, heat resistance, and reliable performance under repeated heating cycles. The length, diameter, hole layout, wire arrangement, and terminal connection can be adjusted according to the furnace structure. Application Industries:Commonly used in industrial furnaces, heat treatment equipment, radiant tube heaters, kilns, drying ovens, annealing furnaces, and other high-temperature electric heating systems. Delivery Time:Lead time depends on the ceramic material, product size, heater structure, resistance wire layout, terminal design, and order quantity. Please contact us with your drawing, sample, or furnace heater requirements for evaluation.

Product Name: High-Performance Ceramic Heating Core for Soldering Applications Product Material: High-Purity Alumina Ceramic (96% $Al_2O_3$) or Silicon Nitride ($Si_3N_4$), with Co-fired Refractory Metal (Tungsten/Molybdenum) circuits Material Characteristics: Ultra-fast thermal response (reaches 350°C in $10^{13}$ Ω·cm), Superior dielectric strength (>15 kV/mm), High mechanical strength and vibration resistance, Excellent thermal shock resistance, Zero electromagnetic interference (EMI), Oxidation-resistant internal encapsulation Application Fields: Precision soldering irons, Industrial soldering robots, Constant temperature desoldering stations, Plastic welding tools, Hot air rework stations, Pre-heating modules for PCB assembly, Handheld soldering pens Application Industries: Broad Semiconductor (component rework), Aerospace (precision circuit repair), Biomedical (medical device assembly), Fluid Control (automated valve soldering), Advanced Machinery (wiring harness assembly), New Energy (BMS soldering), Petrochemical (field instrument maintenance), Electronic Engineering (SMT/PCB production) Processing Difficulties: Achieving precise internal resistance tolerance (±5%) for accurate PID temperature control, Maintaining structural integrity under rapid thermal cycling (25°C to 500°C), Ensuring high-reliability lead wire attachment (brazing) at high temperatures, Controlling ceramic surface flatness to optimize heat transfer to the soldering tip Processing Flow: Alumina/Silicon Nitride powder preparation → Ceramic tape casting → Internal heating circuit screen printing → Multi-layer micro-lamination → High-temperature vacuum co-firing → Precision diamond grinding → Nickel/Gold plating of terminals → Lead wire brazing → Thermal imaging uniformity test → High-voltage insulation testing → Secure packaging Delivery Period: Standard rod/tube heating cores: 25-40 days, Customized industrial-grade/large-zone heaters: 50-75 days

Product Name:Industrial Metal Heating Core (Sheathed Resistance Heating Element) Product Material:Heating Resistor: Nickel-Chromium ($NiCr$) or Iron-Chromium-Aluminum ($FeCrAl$) alloy; Insulation: High-purity compressed Magnesium Oxide ($MgO$) powder; Outer Sheath: Stainless Steel (304/316L/310S), Incoloy, or Titanium. Material Characteristics:Superior mechanical impact resistance, High surface power density, Wide operating voltage range, Excellent ductile properties for custom shaping, Oxidation resistance at high temperatures, Stable electrical resistivity. Application Fields:Industrial immersion heaters, Injection molding manifolds, Packaging sealing bars, Oven heating elements, Large-scale solder pots, Oil and gas pre-heaters, Space heating systems, Defrosting modules. Application Industries:Biomedical (Sterilization equipment), Advanced Machinery (Plastic processing), New Energy (BMS thermal management), Fluid Control (Heavy oil heating), Electronic Engineering (Wave soldering pots), Aerospace (Environmental control systems), Petrochemical (Pipeline heat tracing), Broad Semiconductor (Chamber heating). Processing Difficulties:Achieving high-density MgO compaction to prevent dielectric breakdown, Ensuring precise centering of the resistance wire within the sheath, Managing moisture control during sealing to prevent insulation degradation, Precision bending of the metal sheath without compromising the internal circuit. Processing Flow:Resistance wire coiling → Metal tube cutting and cleaning → Automatic filling of MgO powder → Tube reduction (swaging) for densification → High-temperature annealing → Terminal welding and sealing → Insulation resistance and hi-pot testing → Final bending and shaping → Quality inspection → Packaging. Delivery Period:Standard tubular elements: 10-20 days, Customized industrial-scale assemblies: 25-40 days.

Product Name: High-Power Ceramic Heating Core for Hot Air Rework Station Product Material: High-purity Alumina ($Al_2O_3$) or Silicon Nitride ($Si_3N_4$) substrate, Co-fired Tungsten (W) or Molybdenum (Mo) internal heating circuit, High-temperature Alloy terminals Material Characteristics: Extreme temperature resistance (up to 800°C), Rapid airflow heating capability, Exceptional thermal shock resistance, High dielectric strength, Corrosion-resistant internal encapsulation, Long service life under continuous high-flow operation Application Fields: BGA rework stations, Handheld hot air guns, Plastic welding torches, Heat shrink tubing tools, Industrial drying and curing modules, Desoldering systems, Automated heat-sealing machinery Application Industries: Biomedical (Medical plastic sealing), Advanced Machinery (Component pre-heating), New Energy (Battery pack insulation), Fluid Control (High-temperature gas heaters), Electronic Engineering (SMT/BGA rework), Aerospace (Circuit board repair), Petrochemical (Heat tracing), Broad Semiconductor (Wafer drying) Processing Difficulties: Achieving high power density without ceramic fatigue during rapid airflow cooling, Managing precision resistance tolerance for accurate PID air-temperature control, Ensuring structural integrity of the honeycomb or spiral airflow channels, Controlling electrode reliability at sustained high temperatures Processing Flow: Ceramic powder preparation → Precision extrusion or tape casting → Internal circuit screen printing → Multi-layer spiral lamination → High-temperature co-firing (1600°C+) → Airflow channel precision machining → Terminal brazing → High-voltage insulation testing → Airflow thermal response calibration → Packaging Delivery Period:Standard specifications: 20-35 days, Customized high-power/special-shaped cores: 45-60 days

Product Name: High-Efficiency Ceramic Heating Core for Soldering Irons Product Material: High-Purity Alumina Ceramic (96% Al_2O_3) or Silicon Nitride ($Si_3N_4$), internal Tungsten (W) heating circuit Material Characteristics: Extreme heat-up speed (reaches 350°C in 100MΩ at high temperatures), High dielectric strength (1250V/min without breakdown), Acid and alkali corrosion resistance, Oxidation-free encapsulated circuit, Ultra-compact dimensions with high power density, Stable temperature coefficient of resistance (TCR) Application Fields: Adjustable temperature soldering irons, Portable USB/battery soldering pens, Lead-free soldering stations, Desoldering pumps, Constant temperature plastic welding, Precision soldering robots, Rework stations Application Industries: Electronic Engineering (SMT/PCB assembly), Broad Semiconductor (package repair), Advanced Machinery (wire harness processing), New Energy (BMS maintenance), Aerospace (on-site electronics repair), Biomedical (medical device assembly) Processing Difficulties: Achieving ultra-miniature co-firing while maintaining circuit integrity, Ensuring precise resistance tolerance (±5% or less) for accurate temperature control, Controlling the strength of silver-plated lead attachments to prevent fracture, Managing thermal expansion matching to prevent ceramic cracking during rapid cycling Processing Flow: Ceramic slurry processing → Precision circuit screen printing (internal) → Multi-layer micro-lamination → High-temperature vacuum co-firing → Precision OD/ID grinding → Lead wire terminal brazing → Power-on aging test → Insulation and leakage current detection → Visual inspection under magnification → ESD-safe packaging Delivery Period:

Product Name:60W Internal Heating Ceramic Soldering Core Product Material:High-purity Alumina ($Al_2O_3$) ceramic substrate, Integrated Tungsten (W) co-fired internal heating circuit, High-temperature resistant Nickel-plated lead wires Material Characteristics:High power density (60W optimized), Rapid thermal response (reaches 350°C in $>100$ M$\Omega$), Excellent thermal shock resistance, Acid and alkali corrosion resistance, Long service life with zero surface oxidation Application Fields:Professional constant temperature soldering irons, 60W soldering stations, Lead-free soldering tools, Precision electronic repair pens, Automated soldering robot heads Application Industries:Biomedical (Device assembly), Advanced Machinery (Industrial wiring), New Energy (BMS soldering), Fluid Control (Automated soldering), Electronic Engineering (PCB assembly), Aerospace (Circuit maintenance), Petrochemical (Field instrument repair), Broad Semiconductor (Package rework) Processing Difficulties:Controlling the precise resistance value to ensure exact 60W power output, Managing thermal stress at 60W high-load operation to prevent ceramic fatigue, Achieving high-reliability brazing of lead wires to withstand high-frequency vibrations Processing Flow:Alumina powder preparation → Tape casting → 60W-optimized heating circuit printing → Multi-layer lamination → High-temperature co-firing (1600°C+) → Precision outer diameter grinding → Lead wire terminal welding → High-voltage and insulation testing → Power-on aging test → Packaging Delivery Period:Standard specifications: 15-30 days, Customized dimensions/leads: 35-50 days

Product Name:Flexible Plastic Pen Holder with Zirconia Ceramic Nib Tip High Hardness Industrial Ceramic Rods Product Material:High-purity Zirconia Ceramic (ZrO₂ 95%-99%) for nib tips, Durable industrial-grade plastic for pen holder body Material Characteristics:Exceptional hardness (Mohs hardness 8-8.5), Excellent wear resistance, High fracture toughness, Chemical corrosion resistance, High thermal stability, Precise dimensional stability, Smooth surface finish for accurate fluid delivery, Long-term durability under repetitive writing or industrial use Application Fields:Precision writing instruments, Industrial marking pens, Laboratory dosing pens, Technical drawing and design pens, Repetitive fluid dispensing applications Application Industries:Electronics manufacturing, Biomedical laboratories, Chemical processing, Automotive component marking, Aerospace manufacturing, Educational and design tools, New energy battery labeling Processing Difficulties:Achieving defect-free sintering of small-diameter zirconia ceramic rods, Maintaining dimensional tolerance within ±0.02 mm for nib tip accuracy, Surface polishing to nano-level smoothness (Ra < 0.05 µm), Ensuring secure bonding between ceramic nib and plastic pen holder, Avoiding micro-cracks during high-temperature sintering Processing Flow:Material selection → Powder homogenization → Precision molding of zirconia rods → High-temperature sintering → Surface grinding and polishing → Dimensional inspection → Bonding to plastic pen holder → Final quality control and packaging Delivery Period:Standard individual pen nibs: 25–40 daysCustomized pen assemblies: 50–80 days