Technical Document
Specifications
Brand
MolexGender
Male
For Use With
MLX Connector Housing
Series
MLX
Minimum Wire Size mm²
0.5mm²
Minimum Wire Size (mm²)
0.5mm²
Termination Method
Crimp
Maximum Wire Size mm²
2mm²
Maximum Wire Size (mm²)
2mm²
Minimum Wire Size AWG
20AWG
Contact Plating
Tin
Minimum Wire Size (AWG)
20AWG
Maximum Wire Size AWG
14AWG
Contact Material
Brass
Maximum Wire Size (AWG)
14AWG
Series Number
42023
Minimum Operating Temperature
-55°C
Maximum Operating Temperature
+105°C
Product details
Molex MLX Crimp Terminals, 42024 and 42043 Series
Male pin and female receptacle crimp terminals for use in MLX series plug and socket housings. These terminals have a circular design and the male contacts have a split pin design for a reduction in mating force
Molex MLX Series (0.084in./2.13mm Ø)
Stock information temporarily unavailable.
Please check again later.
BD 0.035
Each (Supplied in a Bag) (Exc. Vat)
BD 0.039
Each (Supplied in a Bag) (inc. VAT)
Production pack (Bag)
1000
BD 0.035
Each (Supplied in a Bag) (Exc. Vat)
BD 0.039
Each (Supplied in a Bag) (inc. VAT)
Production pack (Bag)
1000
Buy in bulk
quantity | Unit price | Per Bag |
---|---|---|
1000 - 2900 | BD 0.035 | BD 3.500 |
3000 - 7400 | BD 0.035 | BD 3.500 |
7500 - 14900 | BD 0.035 | BD 3.500 |
15000+ | BD 0.030 | BD 3.000 |
Technical Document
Specifications
Brand
MolexGender
Male
For Use With
MLX Connector Housing
Series
MLX
Minimum Wire Size mm²
0.5mm²
Minimum Wire Size (mm²)
0.5mm²
Termination Method
Crimp
Maximum Wire Size mm²
2mm²
Maximum Wire Size (mm²)
2mm²
Minimum Wire Size AWG
20AWG
Contact Plating
Tin
Minimum Wire Size (AWG)
20AWG
Maximum Wire Size AWG
14AWG
Contact Material
Brass
Maximum Wire Size (AWG)
14AWG
Series Number
42023
Minimum Operating Temperature
-55°C
Maximum Operating Temperature
+105°C
Product details
Molex MLX Crimp Terminals, 42024 and 42043 Series
Male pin and female receptacle crimp terminals for use in MLX series plug and socket housings. These terminals have a circular design and the male contacts have a split pin design for a reduction in mating force