People always ask: “What insulation material is best for high heat applications?"
The simple answer: There is no single “best" insulation. The right choice depends on your priority:
| Material | Temperature Range | Best Feature | Trade-Off |
|---|---|---|---|
| Silicone | -60°C to +200°C | Superior flexibility – remains soft and pliable at extreme low and high temperatures | Poor oil/fuel resistance; low abrasion resistance; moderate cost |
| PTFE | -65°C to +260°C | Highest temperature rating + excellent chemical inertness | Very stiff (poor flexibility); high cost; difficult to strip |
| XLPE | -40°C to +125°C | Excellent electrical properties + moisture resistance + lower cost | Lowest temperature rating; moderate flexibility |
| PVC (reference) | -10°C to +105°C | Lowest cost | Poor high-temp performance; stiff at low temps |
Quick Selection Guide:
| If Your Priority Is... | Choose... |
|---|---|
| Maximum flexibility (robotics, cable track, cold environments) | Silicone |
| Highest temperature rating (200-260°C, chemical plants, furnaces) | PTFE (or PFA) |
| Electrical properties + moisture resistance + cost-effectiveness (power cables, wet locations) | XLPE |
| Lowest cost (mild temperatures, dry indoor) | PVC |
At Dingzun Cable, we manufacture high temperature cables with all four insulation types – Silicone, PTFE, XLPE, and PVC. Our engineering team helps you select the optimal material based on your specific temperature, flexibility, chemical, and budget requirements – not just what we have in stock.
(Dingzun Cable Rich Experience in high temperature cables)
Temperature rating is the most critical selection factor for high temperature cables.
Table 1: Temperature Rating Comparison – Silicone vs PTFE vs XLPE vs PVC
| Material | Continuous Temp Rating | Peak/Surge Temp | Low-Temp Flexibility | Best Application |
|---|---|---|---|---|
| PVC | -10°C to +105°C | +120°C | Poor (stiff below -10°C) | Indoor, dry, low-cost, mild temperatures |
| XLPE | -40°C to +125°C | +150°C | Fair (stiff below -20°C) | Power cables, wet locations, moderate heat |
| Silicone | -60°C to +200°C | +250°C | Excellent (remains flexible) | High-flex, robotics, wide temperature swing |
| PTFE | -65°C to +260°C | +300°C | Poor (very stiff) | Extreme heat, chemical exposure, static installations |
| PFA (reference) | -65°C to +260°C | +300°C | Good (better than PTFE) | Extreme heat + flexibility needed |
Temperature Range Visualization:
| Material | -65°C | -40°C | -10°C | 0°C | 105°C | 125°C | 200°C | 260°C |
|---|---|---|---|---|---|---|---|---|
| PVC | X | X | √ | √ | √ | X | X | X |
| XLPE | X | √ | √ | √ | √ | √ | X | X |
| Silicone | √ | √ | √ | √ | √ | √ | √ | X |
| PTFE | √ | √ | √ | √ | √ | √ | √ | √ |
Key Insight: For applications with temperatures between 125°C and 200°C, Silicone is the only flexible option (PTFE is stiff; XLPE has exceeded its rating). For temperatures above 200°C, PTFE or PFA is required.
At Dingzun Cable, we offer all four temperature grades. Our engineering team helps you select based on your actual measured cable surface temperature + 20°C safety margin – not guessing.
Flexibility is critical for cable tracks, robotics, and applications with tight bend radii or vibration.
Table 2: Flexibility & Mechanical Comparison
| Material | Flexibility (Subjective) | Minimum Bend Radius (Dynamic) | Abrasion Resistance | Cut-Through Resistance | Flex Life (Cycles) |
|---|---|---|---|---|---|
| PVC | Fair | 10-12* OD | Fair | Fair | <1 million |
| XLPE | Fair-Good | 8-10* OD | Good | Good | 1-3 million |
| Silicone | Superior | 5-7* OD | Poor (soft, easily abraded) | Poor | 10-20+ million |
| PTFE | Poor (stiff) | 12-15* OD | Good | Good | <1 million (static recommended) |
Flexibility Ranking (Best to Worst):
| Rank | Material | Why |
|---|---|---|
| 1 (Best) | Silicone | Low modulus of elasticity – extremely soft and pliable |
| 2 | XLPE | Moderate – stiffer than silicone but better than PTFE |
| 3 | PVC | Stiff at room temperature; very stiff in cold |
| 4 (Worst) | PTFE | Very stiff – like a solid rod; difficult to bend |
Practical Implications:
| Application | Recommended Material | Why |
|---|---|---|
| Cable track (continuous flex) | Silicone | Superior flex life (10M+ cycles); low bending force |
| Robotic arm | Silicone | Remains flexible through full range of motion |
| Cold environment (-40°C to -60°C) | Silicone | Only material that stays flexible at extreme cold |
| Tight bend radius (<8* OD) | Silicone | Can achieve 5-7* OD vs 12-15* for PTFE |
| Abrasive environment (sharp edges, dragging) | XLPE or PTFE | Silicone is soft and easily damaged |
At Dingzun Cable, our silicone cables are designed for high-flex applications with Class 5/6 tinned copper stranding and optimized silicone compounds – delivering 10+ million flex cycles for demanding robotics and cable track installations.
Chemical exposure, oil, moisture, and UV radiation can degrade cable insulation over time.
Table 3: Chemical & Environmental Resistance Comparison
| Material | Oil / Fuel | Acids / Solvents | Ozone / UV | Moisture / Water | Halogen Content |
|---|---|---|---|---|---|
| PVC | Poor (swells, plasticizer leaches) | Poor-Fair | Poor (UV cracks in 1-2 years) | Fair | Contains halogens (chlorine) |
| XLPE | Good | Fair-Good | Good | Excellent (low water absorption) | Halogen-free |
| Silicone | Poor (swells in oils/fuels) | Poor-Fair | Excellent | Good (hydrophobic surface) | Halogen-free |
| PTFE | Excellent | Excellent (chemically inert) | Excellent | Excellent | Halogen-free |
Chemical Resistance Ranking:
| Chemical Environment | Best Material | Why |
|---|---|---|
| Oil / fuel exposure | PTFE or XLPE | Silicone swells and fails; PVC softens |
| Acid / solvent exposure | PTFE | Chemically inert – no reaction |
| Outdoor / UV exposure | PTFE or Silicone | Both resist UV degradation; PVC fails |
| Moisture / direct burial | XLPE | Lowest water absorption (<0.1%) |
| Ozone (electrical discharge, motors) | Silicone or PTFE | PVC and XLPE degrade in ozone |
Important Note on Silicone and Oil:
| Scenario | Silicone Behavior | Recommendation |
|---|---|---|
| Occasional oil splash | Minor swelling – may be acceptable for short term | Monitor; consider PTFE or PUR jacket |
| Continuous oil immersion | Swells significantly – insulation integrity compromised | Do NOT use silicone – use PTFE or oil-resistant XLPE |
| Hydraulic fluid exposure | Similar to oil – degrades | Do NOT use silicone |
At Dingzun Cable, we recommend PTFE for chemical plants, refineries, and any application with oil or solvent exposure. For outdoor or UV-exposed installations, both Silicone and PTFE are excellent choices; PVC should be avoided.
For instrumentation and signal applications, dielectric constant and insulation resistance are critical.
Table 4: Electrical Properties Comparison
| Material | Dielectric Constant (εᵣ at 1 MHz) | Dielectric Strength (kV/mm) | Insulation Resistance (Ω·cm) | Dissipation Factor (tan δ) |
|---|---|---|---|---|
| PVC | 3.5-4.5 (high) | 10-15 | 10¹²-10¹⁴ | 0.01-0.02 (high loss) |
| XLPE | 2.3 (low) | 15-20 | 10¹⁴-10¹⁵ | 0.0003-0.0005 |
| Silicone | 3.0-3.5 | 15-20 | 10¹⁴-10¹⁵ | 0.001-0.005 |
| PTFE | 2.1 (lowest) | 20-30 | >10¹⁶ | <0.0002 (lowest loss) |
Electrical Performance Ranking:
| Priority | Best Material | Why |
|---|---|---|
| Lowest capacitance (longest distance for RS485/4-20mA) | PTFE (εᵣ=2.1) or XLPE (εᵣ=2.3) | PVC (εᵣ=3.5-4.5) has 50-100% higher capacitance |
| Highest insulation resistance (minimal leakage) | PTFE (>10¹⁶ Ω·cm) | Critical for high-impedance sensors |
| Lowest signal loss at high frequencies | PTFE (<0.0002 tan δ) | Best for RF, high-speed digital |
| Good enough for most instrumentation | XLPE (low cost, good electricals) | Balance of performance and cost |
Practical Implication for Instrumentation:
| Application | Recommended Material | Why |
|---|---|---|
| Long-distance RS485 (1,200m) | PTFE or XLPE | Low capacitance enables longer runs |
| Thermocouple extension (accuracy critical) | PTFE or XLPE | High insulation resistance prevents leakage |
| General 4-20mA (moderate distance) | XLPE or PVC | XLPE preferred; PVC acceptable for short runs |
| High-frequency sensor (>1 MHz) | PTFE | Lowest dielectric loss |
At Dingzun Cable, we use PTFE and XLPE insulation for instrumentation cables where electrical performance matters. PVC is reserved for general-purpose, non-critical applications.
Cost is often a deciding factor, but upfront price is only part of the equation.
Table 5: Cost Comparison – Silicone vs PTFE vs XLPE vs PVC
| Material | Relative Cost (vs PVC) | Typical Service Life (Harsh Environment) | 10-Year TCO (Relative) |
|---|---|---|---|
| PVC | 1.0* (baseline) | 1-3 years | High (frequent replacement) |
| XLPE | 1.2-1.5* | 5-10 years | Low-Moderate |
| Silicone | 2.0-2.5* | 5-10 years (flex applications) | Moderate (good for high-flex) |
| PTFE | 3.0-4.0* | 15-25 years | Lowest (very long life) |
Cost-Performance Summary:
| If You Need... | Recommended Material | Rationale |
|---|---|---|
| Lowest upfront cost, mild environment | PVC | Adequate for low temperatures, dry indoor |
| Good electricals + moisture resistance + moderate cost | XLPE | Best value for power and general instrumentation |
| High flexibility + wide temperature range | Silicone | Premium for flex applications; worth the cost |
| Extreme heat + chemical resistance + longest life | PTFE | Highest upfront but lowest TCO for harsh conditions |
At Dingzun Cable, we help customers calculate total cost of ownership – not just upfront price. In many cases, the higher cost of PTFE or Silicone is rapidly justified by longer service life and reduced downtime.
Use this quick-reference table to select the right insulation for your application.
Table 6: Application-Based Selection Matrix
| Application | Temperature | Flexibility Required | Chemical Exposure | Recommended Material |
|---|---|---|---|---|
| General building wire (indoor) | <90°C | Low | None | PVC or XLPE |
| Control cabinet (warm plant) | <105°C | Low | None | PVC (105°C rated) or XLPE |
| Power cable (wet location, direct burial) | <125°C | Low | Moisture | XLPE |
| Machine tool wiring (oil exposure) | <125°C | Moderate | Oil | XLPE (oil-resistant grade) |
| Robotic arm / cable track | -40°C to +150°C | High (continuous flex) | Low (clean) | Silicone |
| Robotic arm with oil exposure | -40°C to +150°C | High | Oil | Silicone + PUR jacket (or PTFE) |
| Oven / furnace wiring (interior) | 200-260°C | Low | None | PTFE or PFA |
| Chemical plant instrumentation | 150-200°C | Low-Moderate | Acids, solvents | PTFE |
| Thermocouple extension (accuracy critical) | -40°C to +200°C | Low | None | PTFE or XLPE |
| Outdoor / solar (UV exposure) | -40°C to +125°C | Low | UV | XLPE or PTFE |
| Medical equipment (sterilization) | -60°C to +150°C | Moderate | Cleaning agents | Silicone (FDA grade available) |
| Aerospace (engine compartment) | -65°C to +260°C | Low-Moderate | Fuels, oils | PTFE |
At Dingzun Cable, we manufacture custom high temperature cables for all these applications – with the right insulation, conductor, shielding, and jacketing for your specific environment.
About Dingzun Cable: Your High Temperature Cable Engineering Partner
With 20+ years of specialized manufacturing experience, Dingzun Cable is a trusted partner for global industrial, robotics, aerospace, and energy companies requiring high-quality high temperature cables – with Silicone, PTFE, XLPE, and PVC insulation options. We combine deep materials science expertise with extreme customizability to deliver cables that match your exact temperature, flexibility, chemical, and budget requirements.
(Dingzun Cable high temperature cable samples)
Our High Temperature Cable Capabilities:
| Capability | Dingzun Specification |
|---|---|
| Insulation materials | PVC (105°C), XLPE (125°C), Silicone (-60°C to +200°C) , PTFE (-65°C to +260°C) , PFA, FEP |
| Temperature range | -65°C to +260°C (PTFE/PFA); -60°C to +200°C (Silicone) |
| Conductor options | Bare copper, Tinned copper, Silver-plated (SPC), Nickel-plated (NPC) |
| Conductor stranding | Solid, 7-strand, 19-strand, Class 5/6 (high flex) |
| Shielding | Foil, braid (70-95%), composite |
| Jacket options | Bare insulation or over-jacket (PUR, LSZH, PVC, FEP) |
| Flex life (silicone) | 10+ million cycles (with Class 5/6 stranding) |
| Chemical resistance (PTFE) | Excellent – inert to nearly all chemicals |
| Certifications | ISO 9001:2015, UL, CE, RoHS, REACH |
| Testing | 100% electrical testing on every reel |
Why Dingzun Cable for Your High Temperature Cable Needs:
Need help selecting between Silicone, PTFE, XLPE, or PVC for your high temperature application?
[Contact our technical team today for a free material selection consultation and custom quote].
People always ask: “What insulation material is best for high heat applications?"
The simple answer: There is no single “best" insulation. The right choice depends on your priority:
| Material | Temperature Range | Best Feature | Trade-Off |
|---|---|---|---|
| Silicone | -60°C to +200°C | Superior flexibility – remains soft and pliable at extreme low and high temperatures | Poor oil/fuel resistance; low abrasion resistance; moderate cost |
| PTFE | -65°C to +260°C | Highest temperature rating + excellent chemical inertness | Very stiff (poor flexibility); high cost; difficult to strip |
| XLPE | -40°C to +125°C | Excellent electrical properties + moisture resistance + lower cost | Lowest temperature rating; moderate flexibility |
| PVC (reference) | -10°C to +105°C | Lowest cost | Poor high-temp performance; stiff at low temps |
Quick Selection Guide:
| If Your Priority Is... | Choose... |
|---|---|
| Maximum flexibility (robotics, cable track, cold environments) | Silicone |
| Highest temperature rating (200-260°C, chemical plants, furnaces) | PTFE (or PFA) |
| Electrical properties + moisture resistance + cost-effectiveness (power cables, wet locations) | XLPE |
| Lowest cost (mild temperatures, dry indoor) | PVC |
At Dingzun Cable, we manufacture high temperature cables with all four insulation types – Silicone, PTFE, XLPE, and PVC. Our engineering team helps you select the optimal material based on your specific temperature, flexibility, chemical, and budget requirements – not just what we have in stock.
(Dingzun Cable Rich Experience in high temperature cables)
Temperature rating is the most critical selection factor for high temperature cables.
Table 1: Temperature Rating Comparison – Silicone vs PTFE vs XLPE vs PVC
| Material | Continuous Temp Rating | Peak/Surge Temp | Low-Temp Flexibility | Best Application |
|---|---|---|---|---|
| PVC | -10°C to +105°C | +120°C | Poor (stiff below -10°C) | Indoor, dry, low-cost, mild temperatures |
| XLPE | -40°C to +125°C | +150°C | Fair (stiff below -20°C) | Power cables, wet locations, moderate heat |
| Silicone | -60°C to +200°C | +250°C | Excellent (remains flexible) | High-flex, robotics, wide temperature swing |
| PTFE | -65°C to +260°C | +300°C | Poor (very stiff) | Extreme heat, chemical exposure, static installations |
| PFA (reference) | -65°C to +260°C | +300°C | Good (better than PTFE) | Extreme heat + flexibility needed |
Temperature Range Visualization:
| Material | -65°C | -40°C | -10°C | 0°C | 105°C | 125°C | 200°C | 260°C |
|---|---|---|---|---|---|---|---|---|
| PVC | X | X | √ | √ | √ | X | X | X |
| XLPE | X | √ | √ | √ | √ | √ | X | X |
| Silicone | √ | √ | √ | √ | √ | √ | √ | X |
| PTFE | √ | √ | √ | √ | √ | √ | √ | √ |
Key Insight: For applications with temperatures between 125°C and 200°C, Silicone is the only flexible option (PTFE is stiff; XLPE has exceeded its rating). For temperatures above 200°C, PTFE or PFA is required.
At Dingzun Cable, we offer all four temperature grades. Our engineering team helps you select based on your actual measured cable surface temperature + 20°C safety margin – not guessing.
Flexibility is critical for cable tracks, robotics, and applications with tight bend radii or vibration.
Table 2: Flexibility & Mechanical Comparison
| Material | Flexibility (Subjective) | Minimum Bend Radius (Dynamic) | Abrasion Resistance | Cut-Through Resistance | Flex Life (Cycles) |
|---|---|---|---|---|---|
| PVC | Fair | 10-12* OD | Fair | Fair | <1 million |
| XLPE | Fair-Good | 8-10* OD | Good | Good | 1-3 million |
| Silicone | Superior | 5-7* OD | Poor (soft, easily abraded) | Poor | 10-20+ million |
| PTFE | Poor (stiff) | 12-15* OD | Good | Good | <1 million (static recommended) |
Flexibility Ranking (Best to Worst):
| Rank | Material | Why |
|---|---|---|
| 1 (Best) | Silicone | Low modulus of elasticity – extremely soft and pliable |
| 2 | XLPE | Moderate – stiffer than silicone but better than PTFE |
| 3 | PVC | Stiff at room temperature; very stiff in cold |
| 4 (Worst) | PTFE | Very stiff – like a solid rod; difficult to bend |
Practical Implications:
| Application | Recommended Material | Why |
|---|---|---|
| Cable track (continuous flex) | Silicone | Superior flex life (10M+ cycles); low bending force |
| Robotic arm | Silicone | Remains flexible through full range of motion |
| Cold environment (-40°C to -60°C) | Silicone | Only material that stays flexible at extreme cold |
| Tight bend radius (<8* OD) | Silicone | Can achieve 5-7* OD vs 12-15* for PTFE |
| Abrasive environment (sharp edges, dragging) | XLPE or PTFE | Silicone is soft and easily damaged |
At Dingzun Cable, our silicone cables are designed for high-flex applications with Class 5/6 tinned copper stranding and optimized silicone compounds – delivering 10+ million flex cycles for demanding robotics and cable track installations.
Chemical exposure, oil, moisture, and UV radiation can degrade cable insulation over time.
Table 3: Chemical & Environmental Resistance Comparison
| Material | Oil / Fuel | Acids / Solvents | Ozone / UV | Moisture / Water | Halogen Content |
|---|---|---|---|---|---|
| PVC | Poor (swells, plasticizer leaches) | Poor-Fair | Poor (UV cracks in 1-2 years) | Fair | Contains halogens (chlorine) |
| XLPE | Good | Fair-Good | Good | Excellent (low water absorption) | Halogen-free |
| Silicone | Poor (swells in oils/fuels) | Poor-Fair | Excellent | Good (hydrophobic surface) | Halogen-free |
| PTFE | Excellent | Excellent (chemically inert) | Excellent | Excellent | Halogen-free |
Chemical Resistance Ranking:
| Chemical Environment | Best Material | Why |
|---|---|---|
| Oil / fuel exposure | PTFE or XLPE | Silicone swells and fails; PVC softens |
| Acid / solvent exposure | PTFE | Chemically inert – no reaction |
| Outdoor / UV exposure | PTFE or Silicone | Both resist UV degradation; PVC fails |
| Moisture / direct burial | XLPE | Lowest water absorption (<0.1%) |
| Ozone (electrical discharge, motors) | Silicone or PTFE | PVC and XLPE degrade in ozone |
Important Note on Silicone and Oil:
| Scenario | Silicone Behavior | Recommendation |
|---|---|---|
| Occasional oil splash | Minor swelling – may be acceptable for short term | Monitor; consider PTFE or PUR jacket |
| Continuous oil immersion | Swells significantly – insulation integrity compromised | Do NOT use silicone – use PTFE or oil-resistant XLPE |
| Hydraulic fluid exposure | Similar to oil – degrades | Do NOT use silicone |
At Dingzun Cable, we recommend PTFE for chemical plants, refineries, and any application with oil or solvent exposure. For outdoor or UV-exposed installations, both Silicone and PTFE are excellent choices; PVC should be avoided.
For instrumentation and signal applications, dielectric constant and insulation resistance are critical.
Table 4: Electrical Properties Comparison
| Material | Dielectric Constant (εᵣ at 1 MHz) | Dielectric Strength (kV/mm) | Insulation Resistance (Ω·cm) | Dissipation Factor (tan δ) |
|---|---|---|---|---|
| PVC | 3.5-4.5 (high) | 10-15 | 10¹²-10¹⁴ | 0.01-0.02 (high loss) |
| XLPE | 2.3 (low) | 15-20 | 10¹⁴-10¹⁵ | 0.0003-0.0005 |
| Silicone | 3.0-3.5 | 15-20 | 10¹⁴-10¹⁵ | 0.001-0.005 |
| PTFE | 2.1 (lowest) | 20-30 | >10¹⁶ | <0.0002 (lowest loss) |
Electrical Performance Ranking:
| Priority | Best Material | Why |
|---|---|---|
| Lowest capacitance (longest distance for RS485/4-20mA) | PTFE (εᵣ=2.1) or XLPE (εᵣ=2.3) | PVC (εᵣ=3.5-4.5) has 50-100% higher capacitance |
| Highest insulation resistance (minimal leakage) | PTFE (>10¹⁶ Ω·cm) | Critical for high-impedance sensors |
| Lowest signal loss at high frequencies | PTFE (<0.0002 tan δ) | Best for RF, high-speed digital |
| Good enough for most instrumentation | XLPE (low cost, good electricals) | Balance of performance and cost |
Practical Implication for Instrumentation:
| Application | Recommended Material | Why |
|---|---|---|
| Long-distance RS485 (1,200m) | PTFE or XLPE | Low capacitance enables longer runs |
| Thermocouple extension (accuracy critical) | PTFE or XLPE | High insulation resistance prevents leakage |
| General 4-20mA (moderate distance) | XLPE or PVC | XLPE preferred; PVC acceptable for short runs |
| High-frequency sensor (>1 MHz) | PTFE | Lowest dielectric loss |
At Dingzun Cable, we use PTFE and XLPE insulation for instrumentation cables where electrical performance matters. PVC is reserved for general-purpose, non-critical applications.
Cost is often a deciding factor, but upfront price is only part of the equation.
Table 5: Cost Comparison – Silicone vs PTFE vs XLPE vs PVC
| Material | Relative Cost (vs PVC) | Typical Service Life (Harsh Environment) | 10-Year TCO (Relative) |
|---|---|---|---|
| PVC | 1.0* (baseline) | 1-3 years | High (frequent replacement) |
| XLPE | 1.2-1.5* | 5-10 years | Low-Moderate |
| Silicone | 2.0-2.5* | 5-10 years (flex applications) | Moderate (good for high-flex) |
| PTFE | 3.0-4.0* | 15-25 years | Lowest (very long life) |
Cost-Performance Summary:
| If You Need... | Recommended Material | Rationale |
|---|---|---|
| Lowest upfront cost, mild environment | PVC | Adequate for low temperatures, dry indoor |
| Good electricals + moisture resistance + moderate cost | XLPE | Best value for power and general instrumentation |
| High flexibility + wide temperature range | Silicone | Premium for flex applications; worth the cost |
| Extreme heat + chemical resistance + longest life | PTFE | Highest upfront but lowest TCO for harsh conditions |
At Dingzun Cable, we help customers calculate total cost of ownership – not just upfront price. In many cases, the higher cost of PTFE or Silicone is rapidly justified by longer service life and reduced downtime.
Use this quick-reference table to select the right insulation for your application.
Table 6: Application-Based Selection Matrix
| Application | Temperature | Flexibility Required | Chemical Exposure | Recommended Material |
|---|---|---|---|---|
| General building wire (indoor) | <90°C | Low | None | PVC or XLPE |
| Control cabinet (warm plant) | <105°C | Low | None | PVC (105°C rated) or XLPE |
| Power cable (wet location, direct burial) | <125°C | Low | Moisture | XLPE |
| Machine tool wiring (oil exposure) | <125°C | Moderate | Oil | XLPE (oil-resistant grade) |
| Robotic arm / cable track | -40°C to +150°C | High (continuous flex) | Low (clean) | Silicone |
| Robotic arm with oil exposure | -40°C to +150°C | High | Oil | Silicone + PUR jacket (or PTFE) |
| Oven / furnace wiring (interior) | 200-260°C | Low | None | PTFE or PFA |
| Chemical plant instrumentation | 150-200°C | Low-Moderate | Acids, solvents | PTFE |
| Thermocouple extension (accuracy critical) | -40°C to +200°C | Low | None | PTFE or XLPE |
| Outdoor / solar (UV exposure) | -40°C to +125°C | Low | UV | XLPE or PTFE |
| Medical equipment (sterilization) | -60°C to +150°C | Moderate | Cleaning agents | Silicone (FDA grade available) |
| Aerospace (engine compartment) | -65°C to +260°C | Low-Moderate | Fuels, oils | PTFE |
At Dingzun Cable, we manufacture custom high temperature cables for all these applications – with the right insulation, conductor, shielding, and jacketing for your specific environment.
About Dingzun Cable: Your High Temperature Cable Engineering Partner
With 20+ years of specialized manufacturing experience, Dingzun Cable is a trusted partner for global industrial, robotics, aerospace, and energy companies requiring high-quality high temperature cables – with Silicone, PTFE, XLPE, and PVC insulation options. We combine deep materials science expertise with extreme customizability to deliver cables that match your exact temperature, flexibility, chemical, and budget requirements.
(Dingzun Cable high temperature cable samples)
Our High Temperature Cable Capabilities:
| Capability | Dingzun Specification |
|---|---|
| Insulation materials | PVC (105°C), XLPE (125°C), Silicone (-60°C to +200°C) , PTFE (-65°C to +260°C) , PFA, FEP |
| Temperature range | -65°C to +260°C (PTFE/PFA); -60°C to +200°C (Silicone) |
| Conductor options | Bare copper, Tinned copper, Silver-plated (SPC), Nickel-plated (NPC) |
| Conductor stranding | Solid, 7-strand, 19-strand, Class 5/6 (high flex) |
| Shielding | Foil, braid (70-95%), composite |
| Jacket options | Bare insulation or over-jacket (PUR, LSZH, PVC, FEP) |
| Flex life (silicone) | 10+ million cycles (with Class 5/6 stranding) |
| Chemical resistance (PTFE) | Excellent – inert to nearly all chemicals |
| Certifications | ISO 9001:2015, UL, CE, RoHS, REACH |
| Testing | 100% electrical testing on every reel |
Why Dingzun Cable for Your High Temperature Cable Needs:
Need help selecting between Silicone, PTFE, XLPE, or PVC for your high temperature application?
[Contact our technical team today for a free material selection consultation and custom quote].
청원하세요 :
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