Pogo pins and pogo connectors, also known as spring loaded pins electronics, are incredibly useful in electronic manufacturing. When it comes to electronic devices, the material used to make these devices are very small in size and requires some way of being held together before use.
In many cases, these devices can be held together with screws, which can be extremely challenging to align if you’re looking to create something small enough to fit inside of cell phones or other handheld devices; this is where pogo pins come into play.
What are Pogo Pins?
Pogo pins are spring-loaded metal contacts that are used to provide a low contact resistance point. They are often used in pogo, which is a type of connector that has two or more metal contacts at the end.
The word pogo comes from the kind of toy; the first pogo stick was patented in 1918 by George Hans burg as an exercise device to help him regain his health following World War I. It’s not clear how this became associated with a term for spring loaded connectors.
What are the benefits of using Pogo Pins?
The benefits of using Pogo Pins are that they are a convenient solution to many problems with spring loaded electronics.
Pogo pins can be used to create a temporary connection between two parts without soldering or welding.
The design of the pin allows it to be inserted into tight spaces, making it perfect for use with microcircuits.
It is also able to withstand high levels of vibration, which makes them an ideal replacement for metal contacts in some applications.
The installation time is low and the manufacturing costs are relatively low as well.
There are no adverse effects on electromagnetic interference (EMI) because there is no direct contact between the pogo pin and circuit board. Lastly, they can be customized according to customer needs.
How can I use Pogo Pins in my electronic designs?
Dongguan Promax designs, manufactures, and sells pogo pins, pogo connectors, and pogo test pins to meet the needs of today’s industry. These versatile little components are perfect for spring-loaded electronics designs. If you’re using a PCB design that needs to have a connector between two boards or an external device, then you can use a pogo pin connector.
Or if you need to create an anchor point on your board that will help with assembly or vibration testing, then you can use our pogo test pin. No matter which one of these product offerings is best suited for your application, we invite you to contact us today!
What are some of the challenges of working with Pogo Pins?
There are many challenges to working with pogo pins. Many people find it difficult to know the diameter of a pogo pin, the tolerance of a pogo pin, or even how much force is needed to press a pogo pin. One way this can be avoided is by taking measurements beforehand so you know what you’re dealing with. Another challenge is knowing what type of connector best suits your needs, such as whether you need a female connector or male connector.
This will depend on the type of application that you are using the connector for and who is providing power to the device. Dongguan Promax offers a variety of connectors including male, female, short head female, long head female and short head male connectors.
How do I choose the right Pogo Pin for my application?
Choosing the right pogo pin is an important decision. It can determine whether your product succeeds or not. There are many different factors that go into choosing the right pogo pin, such as voltage, size, material and application. Read on to find out more about which factors to consider when choosing the right pogo pin for your application.
The first thing you should do is choose the right type of pogo pin (beaded versus non-beaded) depending on the type of spring mechanism. If you need a pogo pin with a plunger or thumbscrew action, then a non-beaded pogo connector will be required.
You also need to take care in choosing your wire gauge because if it’s too thin it could break during use. Wire gauge choice is dependent on the strength needed and current carrying capability. Thicker gauges carry higher current loads with greater resistance to breaking.
