There is no need to scrap a product that doesn't work properly or is obsolete. Give it new life with reverse engineering. Reverse engineering is a way to duplicate a product, subassembly, or component and find out what once made it tick. This is especially handy when you don't have documentation or original drawings for your PCB assembly.
Levison Enterprises Blog
It is sometimes said that PCB design is 90% placement and 10% routing. That may be the case, but both beginners and experienced designers can get caught off guard by simple oversight. It doesn't take much to turn a successful design of a printed circuit board into a high-tech disaster. It is best to know what to watch out for in order to avoid potential problems. Here are some tips to help you avoid function and reliability problems in your PCB design.
You’ve worked hard all year, but there is no rest for the weary. No doubt you are already looking toward projects that need tackling in the new year. Give yourself a gift and find an electronic assembly and manufacturing partner to take some of the workload off your shoulders while still making your electronic project a success.
Have you ever thought of a product redesign as a cost-saving process? Typically, we think of redesign as a way to fix a problem or improve a product’s functionality. With rapid advancements in technology and manufacturing processes, a redesign can also mean cost savings.
If you're using an electronic contract manufacturer for your PCB assembly, then you will need to provide a thoroughly defined set of instructions for your board fabrication and PCB assembly, including the selection of components to be used based on the equipment capabilities of your electronic contract manufacturer. Your choice of components will have an impact on the final quality of the assembly as well as the efficiency of the assembly. Keeping that in mind, the following are a few tips on how to select components for PCB assembly optimization:
Printed circuit boards (PCBs) are right in the center of the rapidly growing and changing world of electronics. The push for faster, lighter, and more robust electronics products has given birth to multiple ways to use PCBs in order to meet those demands. One way that printed circuit boards have been shown to help increase these capabilities is by use of the multi-layer printed circuit board.
Flexible electronics. A generation ago, we thought that a flexible electronic meant you could hoist your boombox up on your shoulder and carry it around. Although this idea of flexibility produced the iconic look of the 1980s, it comes nowhere near what modern flexible electronics can do.
Prior to 2006, most of the metallic components in electronic devices were created using tin or lead solder. These materials were reliable, easy to observe and understand and readily available. Assemblies were designed specifically for use with tin/lead solder, including the temperatures required to work with these materials.
If you have held a TV remote control in your hand, punched a button on a microwave or adjusted a digital thermostat, you have interacted with surface mount technology, or SMT. Since the 1980s, nearly all mass-produced electronics are now manufactured using SMT.
When you hear the term “PCB,” what do you think of? Most people probably imagine a rigid PCB (printed circuit board) with traditional copper pads and wiring harnesses. More and more, however, PCB can also refer to a flexible PCB, also known as a flexible printed circuit board. With the growth in small electronics, the possibilities for shaping, twisting, and folding a flexible PCB have increased its popularity.
When you’re manufacturing a product, there are usually three considerations you need to meet by the time it’s finished. The product needs to meet your desired level of quality, it needs to meet your performance standards, and it needs to be able to be priced competitively.