Manufacturers use flux to solder components on PCBs. Depending on the PCB components, flux also varies and is used to fix them on the board. It ensures uninterrupted and strong electrical connections between devices. However, it is crucial to remove excess flux so as not to blur signal traces or damage connections. In this article, we have introduced various methods and basic steps to remove flux from PCBs.
Designing a high-voltage PCB requires careful planning, adherence to specific guidelines, and a keen eye for safety. Whether you’re working on industrial equipment, power electronics, or consumer devices, the following tips and considerations will ensure you create efficient and safe high-voltage PCB designs.
PCB Panelization, also called PCB arrays, are composed of multiple small boards arranged to form a larger unit. These panels streamline manufacturing and assembly processes. After the components are mounted, a depaneling process separates individual PCBs from the array.
These outstanding characteristics of coated and resin PCBs emphasize the necessity of analyzing the system and requirements to make the right decision. Coatings have different functions and disadvantages. The same is true for resin PCBs. To complicate matters, some devices now adopt 2K coated PCBs due to their advanced characteristics.
Both types of circuit boards have their own advantages and disadvantages. Rigid-flex boards are more flexible than Fr4 rigid boards. Fr4 has a higher flame retardancy. Therefore, it is used according to the current situation. Rigid-flex boards have more industrial uses, which explains why they are more expensive, while Fr4 rigid boards have more universal uses and are therefore cost-effective.
FR-4 is one of the substrate materials of PCB. The colors of FR-4 board surface include yellow FR-4, white FR-4, black FR-4, blue FR-4, etc.FR-4 is not a material, but a material grade, which represents a material code of a fire resistance grade. It means that the resin material must be able to extinguish itself after burning.
In the era of smart manufacturing, industrial robots are transforming the production landscape with enhanced efficiency, precision, and safety. Central to this evolution is the indispensable role of printed circuit boards (PCBs). Acting as the “nervous system” of robots, PCBs support signal transmission, control functions, and intelligent decision-making. As robotics technology advances, so too does the design and functionality of PCBs.
Rigid-flex PCB boards are one of the most widely used printed circuit boards for industrial applications. Their versatility is one of the main reasons for their popularity. They are made of a mix of rigid board and flex circuits, which means that the manufacturing method is similar to that of rigid board, but the circuit has a flexible circuit layer running through it.
RF printed circuit boards are a highly complex but rapidly growing segment of the PCB manufacturing industry. In the PCB industry, boards that operate at frequencies above 100MHz are classified as RF PCBs. However, this standard stops at 2GHz. In addition, any board that operates at frequencies above 2GHz is called a microwave board.
The PCB design industry is one of the world’s leading industries. As the world develops, the importance of the PCB industry seems likely to continue to grow for the foreseeable future. Learning how to manage and track the heat of PCBs is essential to gaining widespread potential in related markets and achieving high-temperature PCBs