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Rogers 4350 pcb quote. Alcanta offer Multiple layers Rogers PCBs, blind via holes, buried via holes,Mixed press media Rogers 4350 PCB with fast lead time. We have made the Rogers Base PCBs from 2 layer to 30 layers.

Rogers 4350 PCB Quote
Rogers 4350 PCB Quote

In today’s rapidly developing technological era, Printed Circuit Board (PCB, printed circuit board) has become one of the core components of modern electronic equipment. And on the cutting edge of PCB technology, Rogers 4350 material is undoubtedly one of the leaders. This article will take an in-depth look at the Rogers 4350 PCB, revealing its importance and applications in the electronics industry.

What is Rogers 4350 PCB?

Rogers 4350 PCB is a high-performance composite material constructed of low-loss fiberglass and polytetrafluoroethylene (PTFE) resin. Its unique material combination gives PCB excellent electrical properties and stability, making it one of the preferred materials for high-frequency circuit design.

In the fields of modern wireless communications, radar systems, satellite communications and other fields, the design requirements for high-frequency circuits are becoming increasingly stringent. Traditional PCB materials may suffer from signal attenuation, fluctuation distortion and other problems in high-frequency environments, limiting the performance and reliability of electronic devices. Rogers 4350 PCB shines in solving these challenges with its excellent features.

The material composition of Rogers 4350 PCB gives it excellent dielectric properties, making signal transmission on the PCB more stable and efficient. Its low-loss glass fibers provide excellent mechanical strength and dimensional stability, while the PTFE resin ensures the material’s low dielectric loss and high-frequency performance. This combination enables Rogers 4350 PCB to reduce signal attenuation and fluctuation distortion in high-frequency environments, thereby ensuring circuit reliability and stability.

In PCB manufacturing, the wide application of Rogers 4350 material is not only limited to high-frequency circuit design, but also includes microwave antennas, radio frequency filters, power amplifiers and other fields. Its stable performance and reliability make it an ideal choice for wireless communications, radar systems, satellite communications and other fields.

In summary, Rogers 4350 PCB is unique in the field of high-frequency circuit design with its superior electrical characteristics and stability. As a groundbreaking material, it provides important support for the performance improvement and reliability guarantee of electronic equipment, and will surely play an increasingly important role in future technological development.

Rogers 4350 PCB design Reference Guide.

When designing a Rogers 4350 PCB, there are some key guidelines that must be kept in mind to ensure high performance and stability. Here are some design reference guidelines to help you take full advantage of Rogers 4350 material:

Avoid sharp corners and overextended signal paths

Due to the high-frequency nature of the Rogers 4350 PCB, signals travel faster, so sharp corners and overextended signal paths must be avoided. Sharp corners can cause signal reflections and losses, affecting circuit performance. In order to reduce signal loss, it is recommended to use arcs or bevels instead of right angles and ensure smoothness and continuity of the signal path.

Choose appropriate layer thickness and copper thickness

When designing a Rogers 4350 PCB, it is crucial to correctly select the appropriate layer thickness and copper thickness. Layer thickness affects the electrical properties of the PCB, while copper thickness directly affects the PCB’s conductivity and thermal management capabilities. Typically, thin layer thickness and appropriate copper thickness can improve the performance of signal transmission and effectively dissipate heat, thus ensuring the stability and reliability of the PCB.

Consider signal transmission and thermal management

When designing a Rogers 4350 PCB, both signal transmission and thermal management must be considered. Reasonable layout and wiring can reduce signal interference and loss, thereby improving circuit performance. Additionally, effective thermal management design ensures PCB stability under high-power applications and extends its service life. Therefore, designers should fully consider signal transmission and thermal management requirements during the PCB layout and routing process, and take appropriate measures to optimize the design.

Overall, designing a Rogers 4350 PCB requires considering several factors, including high-frequency characteristics, layer thickness, copper thickness, signal transmission, and thermal management. Following the above design reference guide can help designers take full advantage of Rogers 4350 material and design PCBs with high stability and superior performance.

What material is used in Rogers 4350 PCB?

As a high-performance printed circuit board material, the materials used in Rogers 4350 PCB play a vital role in its superior performance. Let’s take a closer look at the key materials used in the Rogers 4350 PCB.

First of all, the core material of Rogers 4350 PCB is PTFE (polytetrafluoroethylene) resin, a polymer material with excellent electrical properties. PTFE resin has a low dielectric constant and low losses, making it excellent in high-frequency applications. The material’s stability and reliability make Rogers 4350 PCB popular in high-frequency circuit designs.

Secondly, another important component in Rogers 4350 PCB is fiberglass. Glass fibers are often added to PTFE resins to enhance the material’s mechanical strength and stability. This makes the PCB more durable during the manufacturing process and able to withstand complex environmental conditions such as high temperature, high humidity, etc.

In addition to this, the Rogers 4350 PCB also includes a premium copper foil layer. As a conductive layer, copper foil is responsible for transmitting current and signals and is an integral part of PCB. By selecting the appropriate thickness and quality of copper foil, Rogers 4350 PCB can achieve good electrical conductivity, ensuring the stability and reliability of signal transmission.

To summarize, material selection for the Rogers 4350 PCB is one of the key factors to its success. The excellent electrical properties of PTFE resin, the reinforced mechanical properties of glass fiber and the high-quality copper foil layer ensure the high performance and stability of the PCB. Therefore, Rogers 4350 PCB is widely used in high-frequency applications such as wireless communications, satellite communications, radar systems, etc., providing strong support for the development of modern electronic equipment.

When selecting PCB materials, be sure to consider design requirements, performance needs, and budget constraints to ensure you select the most suitable material. Rogers 4350 PCB is a high-performance material that provides unparalleled advantages and reliability for your high-frequency circuit designs.

What size are Rogers 4350 PCB?

Rogers 4350 PCB is a versatile, high-performance material whose size customization is one of its compelling advantages. This flexibility allows the Rogers 4350 PCB to adapt to a variety of electronic devices and systems of varying sizes and shapes, from micro electronics to large communications systems.

Rogers 4350 PCBs are typically smaller in size for miniature electronic devices such as smartphones, tablets, and wearables. These devices require high-density, compact circuit board designs to accommodate a variety of components and implement complex functionality. The high frequency performance and dimensional stability of Rogers 4350 PCB make it ideal for these devices. Customizing sizes and layer thicknesses ensures PCB performance and reliability in space-constrained situations.

On the other hand, Rogers 4350 PCBs are typically larger in size for large communications systems and industrial equipment such as base stations, radar systems, and satellite communications equipment. These systems require larger circuit boards to accommodate complex circuit designs and multiple functional modules. The Rogers 4350 PCB’s customizable size allows it to meet the needs of these large systems while maintaining stability and high performance. By customizing the size and layer thickness of the PCB, you can ensure that the system’s electrical requirements are met while improving system reliability and stability.

Overall, the flexible size customization of the Rogers 4350 PCB makes it ideal for a variety of electronic devices and systems. Whether it is a miniature electronic device or a large communication system, Rogers 4350 PCB can meet different size and functional requirements, providing high performance and reliable solutions for various application scenarios.

The Manufacturer Process of Rogers 4350 PCB.

When a Rogers 4350 PCB is manufactured, it goes through a rigorous series of steps to ensure the quality and performance of the final product. Here are the key steps:

Design phase

The process of manufacturing a Rogers 4350 PCB begins with the design phase. At this stage, engineers use professional PCB design software to create the layout and electrical connections of the circuit board based on the customer’s requirements and design specifications. During the design process, engineers must consider factors such as circuit board size, layering, wiring, and signal integrity.

Material selection

Rogers 4350 PCB uses specific high-performance materials, including PTFE resin and fiberglass. During the manufacturing process, materials of appropriate quality and specification must be selected to ensure that the final product performs as expected.


Lamination of a PCB is a critical step that combines multiple layers of materials to form a complete circuit board. During the manufacturing process of the Rogers 4350 PCB, a laminator is used to bond layers of fiberglass and PTFE resin together as per the design requirements. This process requires strict control of temperature, pressure and time to ensure the integrity and stability of the laminate.

Hole machining

Holes on PCBs are typically used to mount components or make electrical connections. Hole machining is an important step when manufacturing a Rogers 4350 PCB. Engineers use drill presses or laser technology to drill holes in the appropriate locations and ensure the holes are precise and consistent.

Copper plating

Copper plating is done to create good electrical conductivity on the PCB surface. During the manufacturing process of Rogers 4350 PCB, a copper layer is formed on the surface of the circuit board through electroless copper plating or electroplating. This process improves the PCB’s electrical conductivity and corrosion resistance.


Patterning is the process of printing circuit patterns onto the surface of a PCB. In the manufacturing of Rogers 4350 PCB, designed circuit patterns are transferred to the board surface using photolithography or mask printing techniques. The unwanted copper layer is then removed through chemical etching or machining, leaving behind the required wires and connections.

The above are the key steps in the Rogers 4350 PCB manufacturing process. Each step requires precision workmanship and strict control to ensure the final product is of high quality, stability and reliability.

The Application area of Rogers 4350 PCB.

Rogers 4350 PCB is a high-performance material that is widely used in many fields. Its stability and excellent performance make it the first choice for many critical applications.

Wireless communication

In the field of wireless communications, the low loss characteristics and high frequency performance of Rogers 4350 PCB make it ideal for a variety of radio frequency (RF) and microwave applications. Wireless communication equipment, such as base station antennas, antenna arrays, RF filters, etc., usually require high-performance PCBs for signal transmission and processing, and Rogers 4350 PCB is one of the best materials to meet these requirements.

Satellite Communications

In satellite communication systems, Rogers 4350 PCB plays a vital role. Satellite communications equipment requires PCBs that can operate stably in extreme environments and enable high-speed data transmission. The high-frequency characteristics and superior dimensional stability of Rogers 4350 PCB make it the material of choice for satellite communication equipment, ensuring reliable transmission of signals and high-quality communication links.

Radar system

Radar systems have particularly stringent requirements for high-performance PCBs, as they need to be able to operate stably for long periods of time in extreme environments and achieve accurate signal detection and processing. The low loss and high frequency performance of Rogers 4350 PCB makes it one of the materials of choice for radar systems. Key components such as radar antennas, signal processing modules, and radar control units are usually manufactured using Rogers 4350 PCB to ensure the stability and high performance of the radar system.

Medical equipment

In the field of medical equipment, the high performance and reliability of Rogers 4350 PCB make it one of the preferred materials for a variety of medical equipment. Medical equipment usually needs to be able to operate stably and achieve accurate data transmission and processing in harsh medical environments. For example, medical imaging equipment, life monitoring instruments, medical communication systems, etc. all require high-performance PCBs to support their functions, and Rogers 4350 PCB is ideal for meeting these requirements.

To sum up, Rogers 4350 PCB has been widely used in many fields such as wireless communications, satellite communications, radar systems, and medical equipment. Its stability and high performance make it the material of choice for many critical applications, providing important support for the development of modern technology.

What are the advantages of Rogers 4350 PCB?

In modern electronic design, choosing the appropriate PCB material is critical, especially for high-frequency circuit designs. Rogers 4350 PCB exhibits a number of advantages over traditional FR-4 materials that make it ideal for high-frequency circuit designs.

First, the Rogers 4350 PCB has lower losses. Loss is a measure of the energy lost in an electrical signal during transmission, and low loss is critical for high-frequency circuit design. The low-loss nature of the Rogers 4350 PCB means signals are transmitted more efficiently, reducing system energy losses.

Secondly, Rogers 4350 PCB has a higher dielectric constant. Dielectric constant is the ability of a material to respond in an electric field. For high-frequency circuits, materials with a high dielectric constant can provide better signal isolation and transmission performance. The high dielectric constant of Rogers 4350 PCB enables it to perform well in high frequency applications, meeting stringent requirements for signal quality and stability.

Additionally, Rogers 4350 PCB offers better dimensional stability. In high-frequency circuit design, dimensional stability is critical because any small dimensional changes can have a significant impact on circuit performance. Rogers 4350 PCB has high dimensional stability and is able to maintain its geometry under different temperatures and environmental conditions, ensuring circuit stability and reliability.

Finally, the Rogers 4350 PCB offers higher frequency performance. High-frequency circuit design has very strict frequency requirements for signal transmission, and requires materials that can effectively support high-frequency signal transmission. Rogers 4350 PCB performs well at high frequencies, providing stable, reliable signal transmission performance, making it the material of choice for many high-frequency circuit designs.

To sum up, Rogers 4350 PCB has obvious advantages over traditional FR-4 materials in terms of loss, dielectric constant, dimensional stability and frequency performance. These advantages make it an ideal choice for high-frequency circuit design, which can meet the high requirements for signal quality, stability and performance, and promote the continuous development and innovation of modern electronic technology.


How is Rogers 4350 PCB different from other PCB materials?

Rogers 4350 PCB offers clear advantages over traditional FR-4 materials. First, it has lower losses, which means better signal transmission and lower signal distortion in high-frequency applications. Secondly, Rogers 4350 PCB has a higher dielectric constant, which makes it more advantageous in high-frequency circuit design. Additionally, Rogers 4350 PCB offers better dimensional stability and higher frequency performance than traditional materials.

How much does a Rogers 4350 PCB cost?

Because of its high performance and stability, Rogers 4350 PCB typically costs slightly more than traditional materials. However, considering its superior performance in high-frequency circuit designs and its significant impact on system performance and reliability, investing in a Rogers 4350 PCB is often worthwhile.

What is the maximum size of a Rogers 4350 PCB?

Rogers 4350 PCB dimensions can be customized to meet the customer’s specific needs. Typically, there is no strict maximum size limit as the material is flexible enough to accommodate a variety of size design needs. Whether it’s a miniature electronic device or a large communications system, Rogers 4350 PCB can meet a variety of size requirements.

What is the maximum temperature that a Rogers 4350 PCB can withstand?

Rogers 4350 PCBs are rigorously tested and verified during the design and manufacturing process and can typically operate at higher temperatures without performance degradation or damage. Its specific maximum temperature depends on the PCB design and environmental conditions, but it can generally withstand a higher temperature range, making it suitable for applications in various high-temperature environments.

Is the Rogers 4350 PCB recyclable?

Because Rogers 4350 PCBs contain a variety of materials, including composites and copper foil, there may be some limitations on their recycling feasibility. However, appropriate disposal and recycling measures are still possible to reduce environmental impact. For mass-produced PCBs, recycling can also be an important way to reduce resource waste and reduce production costs.



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