| Image | Part Number | Description / PDF | Quantity | Rfq |
|---|---|---|---|---|
 |
Tronex (Menda/EasyBraid/Tronex) |
MEDIUM TAPER HEAD CUTTERS - ERGO |
233 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, EXTRA LARGE OVAL RAZOR F |
910 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, HEAVY DUTY LONG OVAL SEM |
0 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, 50 DEGREE SMALL TAPER FL |
11 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, 90 DEGREE STANDOFF, 0.5 |
0 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, LARGE OVAL RELIEF RAZOR |
4 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
MEDIUM TAPER HEAD RELIEF CUTTERS |
116 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, TUNGSTEN ALLOY BODY 50 D |
0 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
MEDIUM OVAL HEAD CUTTERS - STAND |
143 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, RUGGED LONG JAW RAZOR FL |
5 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, MEDIUM TAPER SEMI-FLUSH |
31 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, LARGE TAPER SEMI-FLUSH L |
5 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, MINIATURE TAPER FLUSH LO |
0 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, 45 DEGREE STANDOFF, 0.5 |
1 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
MEDIUM OVAL HEAD CUTTERS - STAND |
31 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, MINIATURE TAPER RELIEF F |
19 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, LARGE TAPER SEMI-FLUSH S |
0 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, LARGE OVAL FLUSH LONG |
3 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, LARGE OVAL SEMI-FLUSH LO |
14 |
|
 |
Tronex (Menda/EasyBraid/Tronex) |
CUTTER, LARGE OVAL RELIEF SEMI-F |
2 |
|
Wire cutters are specialized hand or power tools designed to cut wires, cables, and other conductive materials. As essential components in electrical engineering and manufacturing, they enable precise material separation while maintaining safety standards. Modern advancements have integrated ergonomic designs, composite materials, and smart control systems to enhance cutting efficiency and operator safety.
| Type | Functional Characteristics | Application Examples |
|---|---|---|
| Manual Wire Cutters | Mechanical leverage-based cutting with replaceable blades | Electrical panel assembly |
| Hydraulic Wire Cutters | Fluid pressure amplification for high-force cutting | Power grid cable maintenance |
| Electric Rotary Cutters | Motor-driven rotating blades for continuous cutting | Automated wire processing lines |
| Laser Cutting Systems | Non-contact precision cutting using focused light beams | Microelectronics manufacturing |
Typical configurations include: - Cutting head assembly (tungsten carbide blades) - Force transmission mechanism (gears/levers/hydraulic cylinders) - Ergonomic handle with non-conductive coating - Safety guard and material clamping system - For powered models: motor/controller interface and power supply module
| Parameter | Value Range | Importance |
|---|---|---|
| Cutting Capacity | 0.5-500mm | Determines material compatibility |
| Blade Hardness | 55-65 HRC | Affects durability and precision |
| Operating Force | 50-5000N | Impacts user fatigue and efficiency |
| Cutting Speed | 0.1-10m/s | Dictates production throughput |
| Dielectric Strength | 1000-10000V | Ensures electrical safety |
| Manufacturer | Country | Representative Product |
|---|---|---|
| Knipex GmbH | Germany | Cobra Plier-Cutter 70 01 160 |
| Greenlee Textron | USA | Hydraulic Cutter 1011-PC |
| Klein Tools | USA | Electronic Pocket Wire Cutter 11046 |
| Yamawa Mfg. Co. | Japan | NC Servo Driven Cutting System |
Key considerations: - Material type and cross-sectional area - Production volume requirements - Workplace ergonomics and safety standards - Maintenance accessibility - Cost-benefit analysis between manual and automated systems
Current development trends include: - Integration of IoT-enabled smart cutting systems - Adoption of diamond-coated blades for ultra-hard materials - Miniaturization for microelectronics applications - Battery-powered cordless models with 30% energy efficiency improvement - AI-powered cutting parameter optimization systems