Selection guide
How to Choose a Wire Cutting and Stripping Machine
Select a wire cutting and stripping machine by conductor size, cable construction, strip geometry, length tolerance, batch size and downstream process.
Read engineering guide →Engineering knowledge base
Use these guides to define the material, choose an equipment architecture, diagnose defects and write an acceptance plan. Product specifications describe what a machine can be configured to do; sample trials confirm how your actual material behaves.
Select by material construction, geometry and feed behavior.
Cutting & Stripping machines →Match the terminal, applicator, wire and acceptance method.
Terminal Crimping machines →Control preparation, flux, heat, depth and dwell.
Twisting & Tinning machines →Choose by coil geometry, material handling and binding method.
Winding & Binding machines →Match tape, branch geometry, overlap and operator handling.
Tape Wrapping machines →Choose the process architecture before comparing individual models.
Selection guide
Select a wire cutting and stripping machine by conductor size, cable construction, strip geometry, length tolerance, batch size and downstream process.
Read engineering guide →Selection guide
Choose a terminal crimping machine by terminal presentation, wire range, applicator standard, required process steps, inspection method and production mix.
Read engineering guide →Selection guide
Compare automatic lines and semi-automatic wire-processing cells using batch size, changeover, process integration, inspection and labor content.
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Choose cable coiling equipment by cable construction, finished coil geometry, length control, binding method, product handling and batch mix.
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Choose harness taping equipment by harness geometry, tape material, overlap, branch handling, wrap length, tension control and production mix.
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Choose a coaxial cable stripping machine by layer construction, cable diameter, strip sequence, cut-depth control, end geometry and production architecture.
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Choose wire twisting and tinning equipment by conductor construction, strip condition, tinning specification, flux control, finished-end geometry and automation level.
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Choose heat shrink equipment by sleeve material, recovered dimensions, adhesive requirement, harness geometry, heating method, takt time and validation plan.
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Choose harness testing equipment by circuit count, continuity limits, insulation and withstand requirements, connector fixtures, traceability and production workflow.
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Choose ultrasonic wire welding equipment by conductor material, gathered cross-section, splice geometry, weld power, tooling, recipe control and acceptance testing.
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Choose tube and pipe cutting equipment by material, diameter, wall thickness, rigidity, cut mechanism, tolerance, end quality and chip-control requirements.
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Choose a wire prefeeder or pay-off system by reel mass, line speed, acceleration, allowable tension, accumulation, dereeling control and downstream interface.
Read engineering guide →Start from the failure pattern, isolate one variable and verify the correction against written acceptance criteria.
Troubleshooting guide
Diagnose conductor nicks, incomplete strips, pulled strands, insulation stretch, length variation and feed marks in wire stripping operations.
Read engineering guide →Troubleshooting guide
Troubleshoot low pull force, incorrect crimp height, strand loss, bellmouth defects, insulation support problems and inconsistent terminal feeding.
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Diagnose poor solder wetting, excessive wicking, solder bridges, uneven tin length, oxidation and strand deformation in wire tinning.
Read engineering guide →Troubleshooting guide
Troubleshoot inconsistent coil diameter, crossed loops, stored twist, unstable lead length, loose binding and cable surface damage.
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Troubleshoot tape gaps, excessive overlap, wrinkles, lifted edges, bundle deformation, tension variation and unstable start or finish positions.
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Troubleshoot cut braid strands, torn foil, marked dielectric, nicked centre conductors, incomplete pull-off and inconsistent strip length.
Read engineering guide →Troubleshooting guide
Troubleshoot incomplete recovery, wrinkles, splits, scorching, sleeve movement, trapped air, uneven adhesive flow and heat damage.
Read engineering guide →Troubleshooting guide
Diagnose open circuits, shorts, high resistance, insulation failures, intermittent contacts, wrong cavity insertion and unstable harness test fixtures.
Read engineering guide →Troubleshooting guide
Troubleshoot weak wire splices, cut strands, excessive flash, incomplete bonding, unstable weld energy, tool marking and conductor contamination.
Read engineering guide →Troubleshooting guide
Troubleshoot non-wetting, excessive solder wicking, bridging, burnt insulation, unstable tinning depth, residue and contaminated wire solder joints.
Read engineering guide →Troubleshooting guide
Troubleshoot angled cuts, crushed tube, burrs, stringing, length drift, corrugated-tube splitting errors and feed slippage.
Read engineering guide →Troubleshooting guide
Troubleshoot cable tension spikes, reel overrun, loops, jerking, twist, feed slip, encoder mismatch and downstream cut-length variation.
Read engineering guide →See complete production sequences in our application pages and evidence-controlled results in the case library.