16 pin ZIF Socket

Specifications

• Pin Count: 16 Pins (Accommodates 8-pin, 14-pin, and 16-pin DIP ICs)
• Pin Pitch: Standard 2.54mm (0.1") spacing
• Socket Type: Zero Insertion Force (ZIF) Dual In-Line Package (DIP)
• Contact Material: Copper alloy with precision plating for low resistance
• Actuation Mechanism: Single-action locking lever
• Mounting: Through-hole PCB mount or standard breadboard compatible
• Dimensions: Approx. 35mm x 15mm x 11mm (excluding pins/lever)

Applications

• Custom Device Programmers: Build your own Arduino-based IC flashers.
• Production Test Jigs: Rapidly test microcontrollers on an assembly line.
• Educational Labs: Allow students to safely swap out chips without bending pins.
• Prototyping: Frequently swap EEPROMs or operational amplifiers during R&D.

Unlock New Capabilities

• Past Projects: You’ve likely spent hours using flathead screwdrivers to pry DIP chips out of standard sockets, occasionally sending them flying across the room.
• The Upgrade: Adding this ZIF socket to your custom shields or breadboards unlocks the ability to swap microcontrollers in under 2 seconds. It transforms a frustrating hardware task into a seamless workflow.
• Effort Level: Beginner. Simply solder it onto a perfboard or plug it directly into your breadboard!

Virtual Technician & Wiring Guide

• Pin 1 Indicator: The socket has a notch or indicator near the lever mechanism. Always align Pin 1 of your IC with the side closest to the lever.
• Insertion: DO NOT force the chip into the socket. If the lever is fully raised (90 degrees), the IC should drop in under its own weight.
• Breadboard Warning: The pins on ZIF sockets are slightly wider than standard jumper wires. They will fit into a standard breadboard, but inserting them requires even, downward pressure.

Package Includes:

• 1 x 16 pin ZIF Socket

Frequently Asked Questions (Technical FAQ)

• What does ZIF stand for and how does it work?
  ZIF stands for Zero Insertion Force. A mechanical lever opens the internal spring contacts, allowing the IC to drop in without any friction. Closing the lever clamps the contacts onto the IC pins.
• Will this socket fit on a standard 400 or 830 tie-point breadboard?
  Yes, the pin pitch is a standard 2.54mm (0.1"), making it perfectly compatible with standard breadboards.
• Can I program an 8-pin IC like an ATtiny85 in this 16-pin socket?
  Absolutely. You simply bottom-justify or top-justify the IC according to your programmer's specific wiring layout.
• Can I use this for Surface Mount (SMD) chips?
  No, this socket is exclusively designed for Through-Hole DIP (Dual In-line Package) Integrated Circuits.
• Are the contact points gold-plated?
  The internal contacts feature a high-quality conductive plating designed to minimize contact resistance, ensuring reliable data lines during high-speed SPI/I2C programming.
• How many insertion cycles is this lever mechanism rated for?
  While dependent on usage, high-quality ZIF sockets like this are generally rated for 10,000 to 25,000 actuation cycles under normal conditions.
• Can I solder this directly to a custom PCB?
  Yes, the pins are standard through-hole type and can be wave-soldered or hand-soldered to any standard PCB.
• Is the plastic body heat resistant?
  The body is made of durable thermoplastic that can withstand standard hand-soldering temperatures (approx. 300°C for 3-5 seconds).
• Can it hold both narrow (0.3") and wide (0.6") DIP chips?
  This specific 16-pin ZIF socket is designed for narrow (0.3" / 7.62mm) DIP packages.
• Do I need any tools to extract the IC?
  No tools are needed. Simply lift the lever to 90 degrees, and the IC can be lifted out with zero resistance.
• Will this work as a replacement socket for a TL866 MiniPRO programmer?
  The TL866 typically uses a 40-pin ZIF socket. This 16-pin version is ideal for custom, smaller-scale DIY programmers.
• What is the maximum voltage/current rating for the socket pins?
  ZIF sockets are generally rated for low voltage logic levels (up to 50V DC) and low current (typically under 1A per pin). They are for signals, not power distribution.