| Attribute | Value |
|---|---|
| Product Category: | |
| Manufacturer: | Sullins Connector Solutions |
| Manufacturer Part Number: | Sullins Connector Solutions AMM22DRSN-S328 |
| Amperage: | 3 A |
| Gender: | Female |
| Number of Contacts: | 44 |
| Number of Rows: | 2 |
| Mount Type: | No Mounting |
| Termination Method: | DIP, Solder |
| Contact Material: | Beryllium Copper |
| Contact Plating: | Gold |
| Pitch: | 0.156 in |
| Voltage: | 950 VAC |
| Contact Type: | Loop Bellow |
| Insulation Material: | Polyphenylene Sulfide |
| Orientation: | Straight |
| Number of Positions: | 44 |
| Tail Length: | .19 in, 4.83 mm |
| Operating Temperature Range: | -65 - 150 °C |
| Connector Height: | 15.49 mm, .61 in |
| Connector Width: | .37 in, 9.4 mm |
| Current Rating: | 3 A |
| Termination Plating: | Gold |
| Voltage Rating: | 950 VAC |
| Card Thickness: | 0.062 in |
| Operating Temperature: | -65 to 150 °C |
| Mounting Angle: | Straight |
| SKU: | SULAMM22DRSN-S328 |
AMM22DRSN-S328
Specifications
Detailed Description
Introducing the AMM22DRSN-S328, a high-performance board-to-board PCB connector designed for reliable power and signal transmission in demanding applications. With a pitch of 3.96mm (.156 in) and featuring PPS & Beryllium Copper construction, this female connector ensures robust connectivity in harsh environments. Rated for up to 950VAC and 3A, it offers excellent power handling capabilities. The straight orientation and loop bellow contact type make for easy and secure connections, while gold contact plating guarantees low contact resistance and superior signal integrity. With 44 positions and through-hole termination, this connector is ideal for use in a wide range of electronic systems. Its rugged design, operating temperature range of -65 to 150°C, and gold termination plating ensure long-term reliability, making it the perfect choice for critical applications in industries such as aerospace, automotive, and telecommunications. Upgrade your connectivity solution with the AMM22DRSN-S328 for uncompromising performance in mission-critical environments.

