Cimco 187700 kaksoisjohdinpääteholkki 0,25 mm² osittain eristetty turkoosi 100 kpl

With a conductor cross-section of 0.25 mm², this twin wire ferrule is engineered for precise crimping of two fine-stranded conductors. Its partially insulated design features a turquoise polypropylene collar and a tin-plated electrolytic copper sleeve, ensuring reliable electrical connections in compact terminal spaces.

Overview

The Cimco 187700 is a twin wire ferrule designed for use with two fine-stranded conductors of 0.25 mm² cross-section. The ferrule is partially insulated with a turquoise polypropylene collar, providing a secure grip and easy identification. The sleeve is made of electrolytic copper with a tin-plated surface for excellent conductivity and corrosion resistance. Total length is 12 mm with a sleeve length of 6 mm, making it suitable for standard terminal blocks.

What stands out

• Accommodates two 0.25 mm² conductors in a single crimp
• Partially insulated with turquoise polypropylene collar for easy colour coding
• Tin-plated electrolytic copper sleeve for reliable, low-resistance connections
• Compact dimensions: 12 mm total length, 6 mm sleeve length
• Compliant with DIN 46228 Part 4 for consistent quality
• Supplied in a pack of 100 pieces

Technical details

• Conductor cross-section: 0.25 mm²
• Ferrule type: Twin / double
• Insulation: Partially insulated, polypropylene (PP), turquoise
• Sleeve material: Electrolytic copper, tin-plated
• Total length (L1): 12 mm
• Sleeve length (L2): 6 mm
• Inner diameter (sleeve): 0.8 mm
• Outer diameter (sleeve): 1.3 mm
• Insulation collar diameter: 2.5 mm
• Temperature range: -40°C to +105°C
• Maximum voltage: 300 V
• Standard compliance: DIN 46228 Part 4
• Connection method: Crimp
• Packaging quantity: 100 pieces

Our verdict

A dependable choice for professionals who need to crimp two fine-stranded conductors into a single terminal. The turquoise colour coding and partial insulation streamline installation, while the tin-plated copper construction ensures long-term performance.