Rigiflex concentrate on creating the most advanced tools and technology in flexible printed circuit board manufacturing.
Rigiflex Technology is ITAR registered and manufactures Rigid-Flex PCB in compliance with all industry standards.
Rigiflex is one of the foremost companies in the design and manufacturing of rigid printed circuit boards.
Rapid prototyping in PCB manufacturing has emerged as an innovative approach, enabling engineers and designers to create functional prototypes at an accelerated pace. This technique leverages advanced technologies such as 3D printing, CNC machining, and laser processing to produce high-quality PCB assemblies in significantly reduced timelines. The main purpose of rapid prototyping is to streamline
Micro-vias are small, laser-drilled holes in printed circuit boards (PCBs) that connect different layers, ensuring seamless electrical conductivity in high-density interconnect (HDI) designs. Widely used in advanced electronics, such as smartphones, wearables, and automotive systems, micro-vias enable compact designs while maintaining optimal performance. Hence, it is imperative to create and strengthen these interlayer connections. Sintered
As technology evolves, the demand for innovative and flexible electronics is growing across industries, including automotive, healthcare, and consumer products. These sectors often need circuits that feature increased flexibility, better thermal stability, and improved electrical performance, handle frequent bending, and withstand harsh application environments. This is where thermoformed flex PCBs come in—an advanced solution that
As technology advances, rigid-flex printed circuit boards have emerged as an ideal solution for industries demanding compact, lightweight, and exceptionally durable electronic components. These PCBs are widely chosen for aerospace, medical technology, consumer electronics, and automotive, making them a critical component for sophisticated electronics. The importance of rigid-flex PCBs lies in their ability to combine
Printed circuit board (PCB) assembly is critical step in manufacturing electronic devices. The manufacturing and assembly costs of PCBs can vary widely based on several factors. Understanding these factors is essential. The cost varies based on design elements like board size, layers, components, surface finishes, and production speed. There are also hidden costs, such as
Radio frequency (RF) and microwave circuit boards are significant in mission-critical applications. This is because of their ability to carry signals with varied and especially higher frequencies compared to standard PCBs. Designing these PCBs is expensive and complex; therefore, only military and aerospace industries used them earlier. However, they are now used in wireless networks,
Flex PCBs, also known as flexible PCBs, have transformed the medical industry by integrating innovative digital technologies into medical devices. These flexible boards offer the required bendability, versatility, adaptability and space-saving attributes in modern medical devices. Commonly used in medical monitors, these PCBs play a crucial role in compact and complex devices where traditional rigid
When it comes to high-speed PCB Design, signal integrity plays a crucial role in achieving reliable and efficient performance. Signal integrity means the preservation of quality and reliability of the electrical signals as they travel through the circuit so that they are free from distortion and work properly. However, several factors can influence signal integrity
With rising complexities pertaining to the functionality and features of electronic devices and their shrinking size and flexibility, a 10-layer PCB stack-up is often preferred by designers to meet various complex criteria such as placement of multiple and sensitive components, signal and power integrity, routing of wires, EMI mitigation, a robust power plane management, and
Printed circuit boards (PCBs) are the backbone of electrical and electromechanical devices in electronics manufacturing. From smartphones to industrial machinery, all devices are driven by PCBs. Ensuring PCBs function safely and reliably in the respective application is crucial. This is where certifications and standards make a significant difference. Adhering to industry- recognized standards, such as
Soldering is a crucial process in electronics that involves joining components to a printed circuit board (PCB) using a fusible metal alloy called solder. This method ensures electrical connectivity and mechanical support for the components, contributing to a reliable and efficient electronic circuit. A solder mask, or solder resist, is a critical layer applied to
Rigid-flex circuit boards, as you are aware, have features of rigid and flexible boards, resulting in a versatile and robust solution for many modern electronic applications. These boards incorporate rigid sections for component mounting and flexible areas for making reliable interconnections, enabling intricate designs and patterns. One of the popular types of rigid-flex boards that
The rapid evolution of technology and its integration into various sectors have necessitated advancements in printed circuit board designs as well. Today, PCB designs are getting even more complex owing to the demand from their application segments for high-speed data transmission, small form factor of devices, flexibility and stretchability required in wearable devices, and more.
The electronics industry is undergoing a transformative shift towards sustainability, marked by the widespread adoption of green PCB technologies. This pivot to environmentally friendly manufacturing is basically changing the production processes of electronic devices, prioritizing ecological responsibility. Green PCBs have emerged as an ideal solution to the issues of electronic waste and hazardous substances typically
The Printed circuit board (PCB) host several common passive and active components that perform complex functionalities. The passive components and their importance and selection tips were discussed in the previous blog post in this series. This post focuses on active components that serve as the heart of the electronic hearts. Overview of Common Active Circuit
Fast turn turn Printed Circuit Boards (PCBs) production follows a series of steps and streamlined processes, which allow manufacturers to boost their time-to-market capabilities and maintain a competitive edge. The earlier post discussed the benefits and steps involved in fast turnaround rigid flex PCB manufacturing; however, this post will delve into other things you must
Printed circuit boards, commonly referred as PCBs or circuit boards, serve as the backbone for most electronic devices. They offer a platform for mounting and connecting active and passive electronic components, which work together to perform complex tasks needed to drive the device or equipment where they may be used. This two- part post introduces
Fast turn PCB manufacturing is a process where the manufacturer completes the assembling of printed circuit boards (PCBs) in a quick turnaround time to meet the demands of the marketplace. This process is traditionally and most commonly used for prototype PCBs and low-volume production. The PCBs under this category are designed, fabricated, assembled, and tested
Printed Wire Board (PWB) and Printed Circuit Board (PCB) are two commonly exchanged terms in the electronics industry. While both PWB and PCB are imperative elements in electronic devices, they differ in terms of characteristics and applications. This post gives you insights on the key differences between PWBs and PCBs, and thus helps you gain
With the demand for miniature, high-speed, and performance-driven electronic devices, the requirement for complex and conventional PCBs has risen. Being an integral part of most electronic devices, these boards have positively impacted the industry and continue contributing to technological advancements and automation in different segments. This demands adequate research, innovation, and continuous development. These enhancements
5G technology is revolutionizing the way we communicate and connect by promising faster speeds, lower latency, and greater connectivity. As the world becomes increasingly connected, 5G is expected to revolutionize several industries, including PCB the way is designed and manufactured. With the potential to completely transform the way PCBs are developed and integrated into devices,
As the technology continues to advance, the demand for complex electronic circuits and printed circuit boards is on the rise. From smartphones to medical devices, these intricate designs require advanced PCB assembly techniques to ensure reliable and high-performance operation. The PCB assembly techniques have evolved over the years for complex circuits, which you must be
When it comes to the design of printed circuit boards, layer stack-up becomes one of the critical aspects that determine the reliability and performance of the board. This is particularly true for large and dense PCBs, where the importance of the high-density interconnect (HDI) layer stack-up cannot be ignored. As technological advancements continue to shape
Light emitting diodes or LEDs have gained immense traction and are the most preferred lighting solution in domestic, commercial, and industrial spheres. This is owing to their beneficial features such as energy efficiency, durability, and so on. On the other hand, printed circuit boards (PCBs) have become integral to electronics and electromechanical applications. Today, PCBs
Electronic and electromechanical systems and equipment are used in many residential, commercial, and industrial facilities. Advents in electronics has revolutionized industrial processes at large. These systems’ performance and shelf life depend entirely on embedded circuit board assemblies and more so, their type, properties, and so on. Printed circuit boards (PCBs) and to some extent breadboards