| Attribute | Value |
|---|---|
| Product Category: | |
| Manufacturer: | Cinch Connectivity Solutions |
| Manufacturer Part Number: | Cinch Connectivity Solutions MS24264R14T4S8 L/C |
| Military Specification: | MIL-C-26500 |
| Series: | Omega |
| Gender: | Female |
| Housing Material: | Aluminum |
| Number of Contacts: | 4 |
| Mount Type: | Panel Mount |
| Termination Method: | Crimp |
| Maximum Operating Temperature: | 200 °C |
| Minimum Operating Temperature: | -55 °C |
| Shell Size: | 14 |
| Contact Type: | Socket |
| Mating Type: | Threaded |
| Seal Material: | Fluorosilicone, Silicone Rubber |
| Shell Size - Insert Arrangement: | 14-4 |
| Shell Material: | Aluminum |
| Mating Cycles: | 200 cycle |
| Shell Type: | Square Flange Receptacle |
| Shell Finish: | Anodized |
| Current Rating: | 23 A |
| Voltage Rating: | 1500 VAC |
| Insert Arrangement: | 14-4 |
| Locking Mechanism: | Threaded |
| Without Contacts: | Yes |
| SKU: | CIMMS24264R14T4S8 L/C |
MS24264R14T4S8 L/C
| Heilind Number: | CIMMS24264R14T4S8 L/C |
| Manufacturer: | Cinch Connectivity Solutions |
| Manufacturer Number: | MS24264R14T4S8 L/C |
| ECAD Model: | |
Specifications
Detailed Description
Introducing the MS24264R14T4S8LC Omega series female circular connector, meticulously crafted to meet stringent military specification MIL-DTL-26500 for unparalleled performance in high-reliability applications. Constructed with durable aluminum housing material and featuring a panel mount design, this connector ensures secure and robust connectivity in demanding environments. With 4 crimp termination contacts, it offers a reliable solution for power and signal transmission, rated for a maximum operating temperature of 200°C and a minimum of -55°C. The shell size 14, with a threaded mating type and silicone rubber/fluorosilicone seal material, guarantees superior environmental sealing and protection. Please note, this assembly does not ship with contacts, allowing for customization based on specific requirements. Trust in the MS24264R14T4S8LC for uncompromising quality in critical systems.
