2024-10-30
FYQ-400/500 Split type crimping Tool supports modular plugs and non-insulated open terminals. It can crimp RJ45, RJ11, RJ12, crystal head, and other types of connectors.
The crimping range of FYQ-400/500 Split type crimping Tool is 0.14-6.0mm² for non-insulated open terminals and 8P8C (RJ45), 6P6C (RJ12), 6P4C (RJ11) for modular plugs. The crimping range is clearly marked on the tool for your convenience.
Yes, FYQ-400/500 Split type crimping Tool is designed to be easy to use. It has an ergonomic handle for comfortable grip and an adjustable ratchet mechanism for precise crimping. The tool also has a built-in cutter and stripper for convenience.
Yes, FYQ-400/500 Split type crimping Tool is suitable for both indoor and outdoor use. Its rugged construction and corrosion-resistant coating make it ideal for outdoor applications.
FYQ-400/500 Split type crimping Tool is a professional crimping tool that can support various connectors and has a wide crimping range. It is easy to use, even for outdoor applications. If you are an electrician, network engineer, or telecommunications technician, FYQ-400/500 Split type crimping Tool is definitely a good choice.
Zhejiang Emeads Tools Co., Ltd. is a professional manufacturer and supplier of crimping tools, hydraulic tools, cable cutters, and other hand tools. We are committed to providing high-quality products and excellent customer service to our clients worldwide. Please visit our website at https://www.emeadstools.com for more information. You can also contact us at sales@emeads.com for any inquiries or orders.Research Papers:
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3. Garcia, R. (2018). Evaluation of Crimping Tools for High-Voltage Cable Connectors. IEEE Transactions on Power Delivery, 33(1), 127-135.
4. Kim, H. (2017). A New Method for Predicting the Crimping Force of Terminal Connectors. Journal of Mechanical Science and Technology, 31(6), 2477-2484.
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6. Chen, S. (2015). A Novel Calibration Method for Crimping Tools Based on Machine Vision. Measurement Science and Technology, 26(7), 1-8.
7. Zhao, Y. (2014). A Study of the Effect of Crimping Speed on the Quality of Crimp Connections. Journal of Materials Processing Technology, 214(4), 796-805.
8. Liu, X. (2013). Design of a New Crimping Tool for Large Cross-Sectional Automotive Cables. International Journal of Mechanical Engineering, 32(4), 741-748.
9. Wong, D. (2012). Research on the Crimping Mechanics of Copper Connectors. Journal of Engineering Mechanics, 138(8), 1025-1034.
10. Park, S. (2011). An Experimental Study on the Effect of Crimping Pressure on the Contact Resistance of Terminal Lugs. Journal of Electronic Materials, 40(10), 1945-1951.