Rigid PCB
Rigid PCB
Top-Notch Quality Rigid PCB Circuit Boards
- Can manufacture Rigid PCBs up to 20 layers (Standard) and up to 40 layers (Advanced).
- Quick turnaround for all Rigid PCB prototype.
- Finished board thickness available from 0.2mm to 10mm.
- Base material available like FR408, Shengyi, Rogers, KB, Taconic and more.
- Can manufacture IPC Class 1, 2, and 3 rigid PCBs depending on your needs.
Rigid PCBs serve as the backbone of countless electronic devices, offering exceptional mechanical strength, reliability, and performance. Designed to maintain their shape under stress and deliver stable electrical connections, these boards are ideal for high-density, long-term applications. On this product page, we will explore the key features, manufacturing process, surface finishes, and material options of rigid PCBs. Whether you’re working with single-layer or complex multilayer designs, SMTFAB provides dependable fabrication services tailored to meet your requirements.
What is Rigid PCB?
A rigid circuit board is the most common type of PCB. It’s solid. It doesn’t bend or fold. That’s why it’s called “rigid.” You’ll see it in computers, phones, TVs, and even medical machines. It gives shape, structure, and power to your electronics.
A rigid PCB is made from layers. These include a copper layer, a solder mask, and a silkscreen. All of these sit on top of a strong base. That base is often FR4. FR4 is a hard, fire-resistant fiberglass with good electrical strength. It handles heat well, so it’s used in most rigid boards.
A rigid circuit board is reliable. It’s strong. It handles heat. It’s cheaper to make than flexible ones. That’s why it’s used so much. For almost any non-bendable device, this board is the standard.
Features and Characteristics of a Rigid PCB
Features and Characteristics of a Rigid PCB Cannot be reshaped after production – Once a rigid PCB is made, you can’t twist or change its form—it stays fixed for life.
- More affordable than flexible PCBs – Rigid PCBs cost less to make. They’re used in most standard electronics, including consumer gadgets and industrial tools.
- Common in many devices – You’ll find them in phones, laptops, TVs, and medical gear where bending isn’t needed.
- Offers higher thermal resistance – Rigid PCBs perform well even under heat. This makes them good for power-heavy devices.
- Excellent dimensional stability – They hold their shape over time, even in high-stress environments.
- Provides good electrical insulation – The board insulates well, which helps avoid signal loss and keeps performance steady.
- Handles high voltage and current – Rigid PCBs are strong enough to manage demanding loads without failing.
Types of Rigid PCB
Single-Sided PCBs
This is the most basic type of rigid PCB. You only get copper on one side of the board. There are no plated-through holes. Everything sits on one side—super simple. It’s used in things like power PCBs, LED boards, and small appliances.
Double-Sided PCBs
This one’s a bit more advanced. Copper layers go on both sides of the board. They’re connected by tiny holes filled with metal. You can place parts on the top and bottom. That gives you more space and more functions. Things like power supply PCBs, amplifier boards, energy meters, and control systems often use this type.
Multilayer PCBs
Here’s where it gets more complex. A multilayer PCB has more than two copper layers stacked together. They’re separated by insulating sheets and pressed tight with heat. This lets you pack in a lot more circuits without taking up much space. You’ll see these boards in phones, tablets, laptops, GPS trackers, and anything that needs a powerful, compact board.
These rigid PCBs use extra thick copper traces. That means they can carry more current without getting too hot. They’re great when your design needs to handle high power. You’ll see them in industrial tools or heavy-duty electronics.
High TG PCBs
“Tg” stands for glass transition temperature. High-Tg PCBs can take more heat before they start to soften. This helps during soldering and in high-temp environments. If your device heats up a lot, this kind of PCB is a good pick.
High Frequency PCBs
These PCBs are made for fast signal speeds. They use special materials like Rogers, Teflon, or Arlon. That helps reduce signal loss. You’ll want this kind of board in antennas, 5G devices, or radio systems where clean, fast signals matter.
Metal Core PCBs
This one’s built to handle heat. It has a metal core—usually aluminum or copper—inside the board. That metal spreads heat out fast. These PCBs are mostly used in high-power LED lights and other heat-sensitive applications. They stay cool and reliable even under stress.
Manufacturing Process of Rigid PCBs
- Board Cutting – Large copper boards are trimmed into smaller panels, making them manageable for further processing.
- Drilling – Holes are precisely drilled to match the circuit design and allow for electrical connections between layers.
- PTH / Panel Plating – A thin copper layer is deposited into the drilled holes, ensuring connectivity between different board layers.
- Dry Film – A dry film is applied to define circuit patterns and protect areas from copper removal.
- Etching – Unwanted copper is chemically removed, leaving behind the desired circuit traces.
- AOI (Automated Optical Inspection) – The board is optically scanned to catch defects or misalignments before moving forward.
- Brown Oxide – A brown oxide layer is added to improve inner-layer bonding during lamination.
- Lay-up – Layers are stacked in order, ready to be fused into a multilayer PCB.
- Lamination – Heat and pressure permanently bond the layers into a single, rigid board.
- Resin Scrubbing – Residual resin is removed to clean the surface before imaging and finishing.
- Protective Film – A temporary film is added to shield the PCB from damage during handling.
- Dry Film / Etching – Dry film is reapplied for outer-layer patterning, followed by another etching step.
- CCD Targeting – Cameras align drill and routing points with high precision for further processing.
- Soldermask – A protective soldermask is applied to insulate copper traces and prevent shorting.
- Legend – Component labels and markers are printed on the board for easier assembly and troubleshooting.
- Drilling – Additional component holes are drilled, aligned precisely with the final design.
- Profiling – The board is cut into its final shape using CNC equipment.
- Open / Short Test – Electrical testing confirms that there are no unwanted breaks or connections.
- Hi-Pot Test – Insulation strength is verified under high voltage to ensure long-term safety.
- Surface Finish – A finish is applied to exposed copper pads to protect and ease soldering.
- FQC (Final Quality Control) – Visual and functional checks are performed to confirm the board meets all specifications.
- FQA (Final Quality Assurance) – A final review ensures compliance with customer and industry standards.
- Packaging – Boards are packed securely to avoid damage during transit.
- Shipment – Finished PCBs are dispatched, ready for integration into final products.
Surface Finish Choices for Rigid PCBs
When selecting a surface finish for your rigid PCB, the right choice affects solderability, shelf life, and overall performance. HASL, available in vertical or horizontal formats, remains a standard. Lead Free HASL delivers similar protection without the lead content.
OSP finishes offer a clean, flat surface ideal for SMT assembly. For more demanding requirements, ENIG (Electroless Nickel/Immersion Gold) is a popular choice. Compatible with fine-pitch components and BGA layouts. Immersion Silver provides strong solderability and good signal integrity, especially in high-frequency applications.
Where wear resistance is critical, Electrolytic Hard Gold ensures long-term contact durability. Electrolytic Soft Gold, on the other hand, is better for bonding and wire applications. If gold is only required on specific areas, Selective Gold allows for precision placement, reducing cost while maintaining performance.
Rigid PCB Soldermask Parameters
When building a rigid PCB, the soldermask isn’t just for looks. It protects the copper, helps with soldering, and plays a role in board performance. You’ve got three main finish types: semi-glossy, glossy, and matte. Semi-glossy is a common go-to—just enough shine without too much glare. Glossy gives a smoother, more reflective surface, which helps in visual inspections. Matte cuts down on reflections, making it ideal when you need better contrast or camera-based inspection.
Soldermask color also matters more than most people think. Green is the classic choice—it’s reliable and easy to work with. Black, blue, and red add variety, but each reacts differently to light and heat. White and bright white are popular in LED boards because they reflect light well. Yellow, clear, and even purple offer unique visual styles for specialized builds.
Rigid PCB Common Applications
- Consumer Electronics
- Computers
- Keyboards
- GPS devices
- Sensors
- Telecommunications Industry
- Wireless products
- Memory modules
- 5G networks
- TV LED backlights
- Amplifiers
SMTFAB Capabilities in Rigid PCB Manufacturing
SMTFAB offers a wide range of capabilities for manufacturing rigid PCBs, from standard to advanced specifications. We can produce up to 40-layer PCBs, with various base and PCB types with options for blind and buried vias, laser drilling, and embedded components.
For thickness, we handle board dimensions from 0.2mm to 10mm and copper thicknesses from 1/3 oz to 10 oz. We support advanced drilling techniques, including backdrilling and laser drilling, with minimum hole sizes starting at 4 mils. Our precision tolerances ensure minimal gaps between hole walls and conductors, and we can work with various plating and surface finishes like ENIG, HASL, and immersion gold.
We also provide V-scoring and slot cutting, with precise tolerances and the ability to handle thin board materials down to 0.3mm. Our lamination capabilities include both mechanical and laser-etched vias, with a focus on maintaining high-quality standards for complex rigid multilayer boards.
As a professional rigid PCB manufacturer with more than 20 years of production experience. SMTFAB strictly follows IPC standards and provides one-stop solutions from 24-hour rapid prototyping to volume production for global customers.
In addition, our experienced engineers can provide you with a free DFM check to avoid production risks from the design side. Upload your Gerber file today or contact us for a free quote.
Related Products
Get an Instant Online Quote Today
At SMTFAB, we specialize in delivering reliable and durable Rigid PCB solutions tailored to meet the demands of modern electronic applications. Our Rigid PCBs are engineered with precision, offering superior mechanical stability and consistent performance across a wide range of industries. Whether you require standard multilayer boards or complex high-frequency configurations, our advanced manufacturing capabilities ensure exceptional quality and fast turnaround. With materials sourced from trusted suppliers and compliance with IPC standards, SMTFAB is your trusted partner for Rigid PCB fabrication.
Frequently Asked Questions
At SMTFAB, we mostly work with Gerber files. That’s the one you really need. It shows us your board’s shape, layers, and everything else. We also ask for a BOM, or bill of materials. That one tells us what parts go where. Just make sure your files are clear. If something’s missing, we’ll reach out. We can read other formats too, but Gerber files work best. They’re kind of the gold standard in PCB production. So if you’re unsure what to send, just go with Gerber and a clean BOM.
At SMTFAB, we don’t have a minimum order quantity (MOQ) for new customers. You can order as many or as few boards as you need. Whether it’s a small prototype or a larger batch, we’ve got you covered. We want to make it easy for you to get started, no matter the size of your order. Just reach out with your specs, and we’ll take care of the rest.
Rigid PCBs and Flex PCBs are both types of circuit boards, but they serve different purposes. Rigid PCBs are solid and inflexible. They’re made from materials like FR-4, providing stability and durability. This makes them ideal for computers, vehicles, and other applications where strength matters.
Flex PCBs are designed to be flexible. They are built from materials like polyimide or polyester, which allow them to bend or fold easily. This flexibility makes them perfect for wearable electronics and medical devices, where space and adaptability are key.
One key difference is that rigid PCBs can’t be bent, while flex PCBs easily adapt to tight spaces. Also, flex PCBs tend to cost more because the flexible materials used are more expensive. When it comes to design, rigid PCBs require the device to be built around them. But with flex PCBs, you can design the board to fit the device itself.
IPC standards play a crucial role in ensuring rigid PCBs meet quality and performance requirements. The two main standards for rigid PCBs are IPC-6012 and IPC-6013. IPC-6012 sets the guidelines for the design, manufacture, and testing of rigid printed boards. It focuses on materials, dimensional tolerances, electrical testing, and environmental testing. IPC-6013, on the other hand, specifically addresses copper-clad laminates used in rigid PCBs. It covers the materials and processes needed for these laminates to ensure durability and performance.
The minimum rigid PCB thickness is usually 0.2mm—that’s super thin. You’ll see this size in stuff like SIM cards or sensor cards. But honestly, most boards are thicker. The standard is around 1.5mm, sometimes 1.6mm. That size works for a lot of builds and keeps costs down. Need something in between? You’ve got options. 0.4mm, 0.6mm, 0.8mm, even up to 2.0mm—they’re all on the table. It just depends on your design and how much space you’ve got.
It mostly comes down to cost and space. Rigid PCBs are cheaper most of the time. They’re strong and steady. You’ll find them in laptops, TVs, toys, and similar gear. They’re great when space isn’t a big issue.
But flex PCBs can actually save you money in other ways. You might not need connectors or wires. That cuts material and labor costs. It also means fewer parts to mess up. Fewer parts mean less waste too.
You’ll usually see flex PCBs in tight spaces. Think phones, cameras, wearables, tablets. Even small GPS units. Sometimes even basic stuff like LED strips use them. Why? Because they’re easy to fit and install.
Rigid PCB
Top-Notch Quality Rigid PCB Circuit Boards
- Can manufacture Rigid PCBs up to 20 layers (Standard) and up to 40 layers (Advanced).
- Quick turnaround for all Rigid PCB prototype.
- Finished board thickness available from 0.2mm to 10mm.
- Base material available like FR408, Shengyi, Rogers, KB, Taconic and more.
- Can manufacture IPC Class 1, 2, and 3 rigid PCBs depending on your needs.
Rigid PCBs serve as the backbone of countless electronic devices, offering exceptional mechanical strength, reliability, and performance. Designed to maintain their shape under stress and deliver stable electrical connections, these boards are ideal for high-density, long-term applications. On this product page, we will explore the key features, manufacturing process, surface finishes, and material options of rigid PCBs. Whether you’re working with single-layer or complex multilayer designs, SMTFAB provides dependable fabrication services tailored to meet your requirements.
What is Rigid PCB?
A rigid circuit board is the most common type of PCB. It’s solid. It doesn’t bend or fold. That’s why it’s called “rigid.” You’ll see it in computers, phones, TVs, and even medical machines. It gives shape, structure, and power to your electronics.
A rigid PCB is made from layers. These include a copper layer, a solder mask, and a silkscreen. All of these sit on top of a strong base. That base is often FR4. FR4 is a hard, fire-resistant fiberglass with good electrical strength. It handles heat well, so it’s used in most rigid boards.
A rigid circuit board is reliable. It’s strong. It handles heat. It’s cheaper to make than flexible ones. That’s why it’s used so much. For almost any non-bendable device, this board is the standard.
Features and Characteristics of a Rigid PCB
Features and Characteristics of a Rigid PCB Cannot be reshaped after production – Once a rigid PCB is made, you can’t twist or change its form—it stays fixed for life.
- More affordable than flexible PCBs – Rigid PCBs cost less to make. They’re used in most standard electronics, including consumer gadgets and industrial tools.
- Common in many devices – You’ll find them in phones, laptops, TVs, and medical gear where bending isn’t needed.
- Offers higher thermal resistance – Rigid PCBs perform well even under heat. This makes them good for power-heavy devices.
- Excellent dimensional stability – They hold their shape over time, even in high-stress environments.
- Provides good electrical insulation – The board insulates well, which helps avoid signal loss and keeps performance steady.
- Handles high voltage and current – Rigid PCBs are strong enough to manage demanding loads without failing.
Types of Rigid PCB
Single-Sided PCBs
This is the most basic type of rigid PCB. You only get copper on one side of the board. There are no plated-through holes. Everything sits on one side—super simple. It’s used in things like power PCBs, LED boards, and small appliances.
Double-Sided PCBs
This one’s a bit more advanced. Copper layers go on both sides of the board. They’re connected by tiny holes filled with metal. You can place parts on the top and bottom. That gives you more space and more functions. Things like power supply PCBs, amplifier boards, energy meters, and control systems often use this type.
Multilayer PCBs
Here’s where it gets more complex. A multilayer PCB has more than two copper layers stacked together. They’re separated by insulating sheets and pressed tight with heat. This lets you pack in a lot more circuits without taking up much space. You’ll see these boards in phones, tablets, laptops, GPS trackers, and anything that needs a powerful, compact board.
These rigid PCBs use extra thick copper traces. That means they can carry more current without getting too hot. They’re great when your design needs to handle high power. You’ll see them in industrial tools or heavy-duty electronics.
High TG PCBs
“Tg” stands for glass transition temperature. High-Tg PCBs can take more heat before they start to soften. This helps during soldering and in high-temp environments. If your device heats up a lot, this kind of PCB is a good pick.
High Frequency PCBs
These PCBs are made for fast signal speeds. They use special materials like Rogers, Teflon, or Arlon. That helps reduce signal loss. You’ll want this kind of board in antennas, 5G devices, or radio systems where clean, fast signals matter.
Metal Core PCBs
This one’s built to handle heat. It has a metal core—usually aluminum or copper—inside the board. That metal spreads heat out fast. These PCBs are mostly used in high-power LED lights and other heat-sensitive applications. They stay cool and reliable even under stress.
Manufacturing Process of Rigid PCBs
- Board Cutting – Large copper boards are trimmed into smaller panels, making them manageable for further processing.
- Drilling – Holes are precisely drilled to match the circuit design and allow for electrical connections between layers.
- PTH / Panel Plating – A thin copper layer is deposited into the drilled holes, ensuring connectivity between different board layers.
- Dry Film – A dry film is applied to define circuit patterns and protect areas from copper removal.
- Etching – Unwanted copper is chemically removed, leaving behind the desired circuit traces.
- AOI (Automated Optical Inspection) – The board is optically scanned to catch defects or misalignments before moving forward.
- Brown Oxide – A brown oxide layer is added to improve inner-layer bonding during lamination.
- Lay-up – Layers are stacked in order, ready to be fused into a multilayer PCB.
- Lamination – Heat and pressure permanently bond the layers into a single, rigid board.
- Resin Scrubbing – Residual resin is removed to clean the surface before imaging and finishing.
- Protective Film – A temporary film is added to shield the PCB from damage during handling.
- Dry Film / Etching – Dry film is reapplied for outer-layer patterning, followed by another etching step.
- CCD Targeting – Cameras align drill and routing points with high precision for further processing.
- Soldermask – A protective soldermask is applied to insulate copper traces and prevent shorting.
- Legend – Component labels and markers are printed on the board for easier assembly and troubleshooting.
- Drilling – Additional component holes are drilled, aligned precisely with the final design.
- Profiling – The board is cut into its final shape using CNC equipment.
- Open / Short Test – Electrical testing confirms that there are no unwanted breaks or connections.
- Hi-Pot Test – Insulation strength is verified under high voltage to ensure long-term safety.
- Surface Finish – A finish is applied to exposed copper pads to protect and ease soldering.
- FQC (Final Quality Control) – Visual and functional checks are performed to confirm the board meets all specifications.
- FQA (Final Quality Assurance) – A final review ensures compliance with customer and industry standards.
- Packaging – Boards are packed securely to avoid damage during transit.
- Shipment – Finished PCBs are dispatched, ready for integration into final products.
Surface Finish Choices for Rigid PCBs
When selecting a surface finish for your rigid PCB, the right choice affects solderability, shelf life, and overall performance. HASL, available in vertical or horizontal formats, remains a standard. Lead Free HASL delivers similar protection without the lead content.
OSP finishes offer a clean, flat surface ideal for SMT assembly. For more demanding requirements, ENIG (Electroless Nickel/Immersion Gold) is a popular choice. Compatible with fine-pitch components and BGA layouts. Immersion Silver provides strong solderability and good signal integrity, especially in high-frequency applications.
Where wear resistance is critical, Electrolytic Hard Gold ensures long-term contact durability. Electrolytic Soft Gold, on the other hand, is better for bonding and wire applications. If gold is only required on specific areas, Selective Gold allows for precision placement, reducing cost while maintaining performance.
Rigid PCB Soldermask Parameters
When building a rigid PCB, the soldermask isn’t just for looks. It protects the copper, helps with soldering, and plays a role in board performance. You’ve got three main finish types: semi-glossy, glossy, and matte. Semi-glossy is a common go-to—just enough shine without too much glare. Glossy gives a smoother, more reflective surface, which helps in visual inspections. Matte cuts down on reflections, making it ideal when you need better contrast or camera-based inspection.
Soldermask color also matters more than most people think. Green is the classic choice—it’s reliable and easy to work with. Black, blue, and red add variety, but each reacts differently to light and heat. White and bright white are popular in LED boards because they reflect light well. Yellow, clear, and even purple offer unique visual styles for specialized builds.
Rigid PCB Common Applications
- Consumer Electronics
- Computers
- Keyboards
- GPS devices
- Sensors
- Telecommunications Industry
- Wireless products
- Memory modules
- 5G networks
- TV LED backlights
- Amplifiers
SMTFAB Capabilities in Rigid PCB Manufacturing
SMTFAB offers a wide range of capabilities for manufacturing rigid PCBs, from standard to advanced specifications. We can produce up to 40-layer PCBs, with various base and PCB types with options for blind and buried vias, laser drilling, and embedded components.
For thickness, we handle board dimensions from 0.2mm to 10mm and copper thicknesses from 1/3 oz to 10 oz. We support advanced drilling techniques, including backdrilling and laser drilling, with minimum hole sizes starting at 4 mils. Our precision tolerances ensure minimal gaps between hole walls and conductors, and we can work with various plating and surface finishes like ENIG, HASL, and immersion gold.
We also provide V-scoring and slot cutting, with precise tolerances and the ability to handle thin board materials down to 0.3mm. Our lamination capabilities include both mechanical and laser-etched vias, with a focus on maintaining high-quality standards for complex rigid multilayer boards.
As a professional rigid PCB manufacturer with more than 20 years of production experience. SMTFAB strictly follows IPC standards and provides one-stop solutions from 24-hour rapid prototyping to volume production for global customers.
In addition, our experienced engineers can provide you with a free DFM check to avoid production risks from the design side. Upload your Gerber file today or contact us for a free quote.
Related Products
Get an Instant Online Quote Today
At SMTFAB, we specialize in delivering reliable and durable Rigid PCB solutions tailored to meet the demands of modern electronic applications. Our Rigid PCBs are engineered with precision, offering superior mechanical stability and consistent performance across a wide range of industries. Whether you require standard multilayer boards or complex high-frequency configurations, our advanced manufacturing capabilities ensure exceptional quality and fast turnaround. With materials sourced from trusted suppliers and compliance with IPC standards, SMTFAB is your trusted partner for Rigid PCB fabrication.
Frequently Asked Questions
At SMTFAB, we mostly work with Gerber files. That’s the one you really need. It shows us your board’s shape, layers, and everything else. We also ask for a BOM, or bill of materials. That one tells us what parts go where. Just make sure your files are clear. If something’s missing, we’ll reach out. We can read other formats too, but Gerber files work best. They’re kind of the gold standard in PCB production. So if you’re unsure what to send, just go with Gerber and a clean BOM.
At SMTFAB, we don’t have a minimum order quantity (MOQ) for new customers. You can order as many or as few boards as you need. Whether it’s a small prototype or a larger batch, we’ve got you covered. We want to make it easy for you to get started, no matter the size of your order. Just reach out with your specs, and we’ll take care of the rest.
Rigid PCBs and Flex PCBs are both types of circuit boards, but they serve different purposes. Rigid PCBs are solid and inflexible. They’re made from materials like FR-4, providing stability and durability. This makes them ideal for computers, vehicles, and other applications where strength matters.
Flex PCBs are designed to be flexible. They are built from materials like polyimide or polyester, which allow them to bend or fold easily. This flexibility makes them perfect for wearable electronics and medical devices, where space and adaptability are key.
One key difference is that rigid PCBs can’t be bent, while flex PCBs easily adapt to tight spaces. Also, flex PCBs tend to cost more because the flexible materials used are more expensive. When it comes to design, rigid PCBs require the device to be built around them. But with flex PCBs, you can design the board to fit the device itself.
IPC standards play a crucial role in ensuring rigid PCBs meet quality and performance requirements. The two main standards for rigid PCBs are IPC-6012 and IPC-6013. IPC-6012 sets the guidelines for the design, manufacture, and testing of rigid printed boards. It focuses on materials, dimensional tolerances, electrical testing, and environmental testing. IPC-6013, on the other hand, specifically addresses copper-clad laminates used in rigid PCBs. It covers the materials and processes needed for these laminates to ensure durability and performance.
The minimum rigid PCB thickness is usually 0.2mm—that’s super thin. You’ll see this size in stuff like SIM cards or sensor cards. But honestly, most boards are thicker. The standard is around 1.5mm, sometimes 1.6mm. That size works for a lot of builds and keeps costs down. Need something in between? You’ve got options. 0.4mm, 0.6mm, 0.8mm, even up to 2.0mm—they’re all on the table. It just depends on your design and how much space you’ve got.
It mostly comes down to cost and space. Rigid PCBs are cheaper most of the time. They’re strong and steady. You’ll find them in laptops, TVs, toys, and similar gear. They’re great when space isn’t a big issue.
But flex PCBs can actually save you money in other ways. You might not need connectors or wires. That cuts material and labor costs. It also means fewer parts to mess up. Fewer parts mean less waste too.
You’ll usually see flex PCBs in tight spaces. Think phones, cameras, wearables, tablets. Even small GPS units. Sometimes even basic stuff like LED strips use them. Why? Because they’re easy to fit and install.
Top-Notch Quality Rigid PCB Circuit Boards
- Can manufacture Rigid PCBs up to 20 layers (Standard) and up to 40 layers (Advanced).
- Quick turnaround for all Rigid PCB prototype.
- Finished board thickness available from 0.2mm to 10mm.
- Base material available like FR408, Shengyi, Rogers, KB, Taconic and more.
- Can manufacture IPC Class 1, 2, and 3 rigid PCBs depending on your needs.
Rigid PCBs serve as the backbone of countless electronic devices, offering exceptional mechanical strength, reliability, and performance. Designed to maintain their shape under stress and deliver stable electrical connections, these boards are ideal for high-density, long-term applications. On this product page, we will explore the key features, manufacturing process, surface finishes, and material options of rigid PCBs. Whether you’re working with single-layer or complex multilayer designs, SMTFAB provides dependable fabrication services tailored to meet your requirements.
Top-Notch Quality Rigid PCB Circuit Boards
- Can manufacture Rigid PCBs up to 20 layers (Standard) and up to 40 layers (Advanced).
- Quick turnaround for all Rigid PCB prototype.
- Finished board thickness available from 0.2mm to 10mm.
- Base material available like FR408, Shengyi, Rogers, KB, Taconic and more.
- Can manufacture IPC Class 1, 2, and 3 rigid PCBs depending on your needs.
Rigid PCBs serve as the backbone of countless electronic devices, offering exceptional mechanical strength, reliability, and performance. Designed to maintain their shape under stress and deliver stable electrical connections, these boards are ideal for high-density, long-term applications. On this product page, we will explore the key features, manufacturing process, surface finishes, and material options of rigid PCBs. Whether you’re working with single-layer or complex multilayer designs, SMTFAB provides dependable fabrication services tailored to meet your requirements.
Top-Notch Quality Rigid PCB Circuit Boards
- Can manufacture Rigid PCBs up to 20 layers (Standard) and up to 40 layers (Advanced).
- Quick turnaround for all Rigid PCB prototype.
- Finished board thickness available from 0.2mm to 10mm.
- Base material available like FR408, Shengyi, Rogers, KB, Taconic and more.
- Can manufacture IPC Class 1, 2, and 3 rigid PCBs depending on your needs.
Rigid PCBs serve as the backbone of countless electronic devices, offering exceptional mechanical strength, reliability, and performance. Designed to maintain their shape under stress and deliver stable electrical connections, these boards are ideal for high-density, long-term applications. On this product page, we will explore the key features, manufacturing process, surface finishes, and material options of rigid PCBs. Whether you’re working with single-layer or complex multilayer designs, SMTFAB provides dependable fabrication services tailored to meet your requirements.
Top-Notch Quality Rigid PCB Circuit Boards
- Can manufacture Rigid PCBs up to 20 layers (Standard) and up to 40 layers (Advanced).
- Quick turnaround for all Rigid PCB prototype.
- Finished board thickness available from 0.2mm to 10mm.
- Base material available like FR408, Shengyi, Rogers, KB, Taconic and more.
- Can manufacture IPC Class 1, 2, and 3 rigid PCBs depending on your needs.
Rigid PCBs serve as the backbone of countless electronic devices, offering exceptional mechanical strength, reliability, and performance. Designed to maintain their shape under stress and deliver stable electrical connections, these boards are ideal for high-density, long-term applications. On this product page, we will explore the key features, manufacturing process, surface finishes, and material options of rigid PCBs. Whether you’re working with single-layer or complex multilayer designs, SMTFAB provides dependable fabrication services tailored to meet your requirements.
Top-Notch Quality Rigid PCB Circuit Boards
- Can manufacture Rigid PCBs up to 20 layers (Standard) and up to 40 layers (Advanced).
- Quick turnaround for all Rigid PCB prototype.
- Finished board thickness available from 0.2mm to 10mm.
- Base material available like FR408, Shengyi, Rogers, KB, Taconic and more.
- Can manufacture IPC Class 1, 2, and 3 rigid PCBs depending on your needs.
Top-Notch Quality Rigid PCB Circuit Boards
- Can manufacture Rigid PCBs up to 20 layers (Standard) and up to 40 layers (Advanced).
- Quick turnaround for all Rigid PCB prototype.
- Finished board thickness available from 0.2mm to 10mm.
- Base material available like FR408, Shengyi, Rogers, KB, Taconic and more.
- Can manufacture IPC Class 1, 2, and 3 rigid PCBs depending on your needs.
- Can manufacture Rigid PCBs up to 20 layers (Standard) and up to 40 layers (Advanced).
- Quick turnaround for all Rigid PCB prototype.
- Finished board thickness available from 0.2mm to 10mm.
- Base material available like FR408, Shengyi, Rogers, KB, Taconic and more.
- Can manufacture IPC Class 1, 2, and 3 rigid PCBs depending on your needs.
Rigid PCBs serve as the backbone of countless electronic devices, offering exceptional mechanical strength, reliability, and performance. Designed to maintain their shape under stress and deliver stable electrical connections, these boards are ideal for high-density, long-term applications. On this product page, we will explore the key features, manufacturing process, surface finishes, and material options of rigid PCBs. Whether you’re working with single-layer or complex multilayer designs, SMTFAB provides dependable fabrication services tailored to meet your requirements.
Rigid PCBs serve as the backbone of countless electronic devices, offering exceptional mechanical strength, reliability, and performance. Designed to maintain their shape under stress and deliver stable electrical connections, these boards are ideal for high-density, long-term applications. On this product page, we will explore the key features, manufacturing process, surface finishes, and material options of rigid PCBs. Whether you’re working with single-layer or complex multilayer designs, SMTFAB provides dependable fabrication services tailored to meet your requirements.
What is Rigid PCB?
A rigid circuit board is the most common type of PCB. It’s solid. It doesn’t bend or fold. That’s why it’s called “rigid.” You’ll see it in computers, phones, TVs, and even medical machines. It gives shape, structure, and power to your electronics.
A rigid PCB is made from layers. These include a copper layer, a solder mask, and a silkscreen. All of these sit on top of a strong base. That base is often FR4. FR4 is a hard, fire-resistant fiberglass with good electrical strength. It handles heat well, so it’s used in most rigid boards.
A rigid circuit board is reliable. It’s strong. It handles heat. It’s cheaper to make than flexible ones. That’s why it’s used so much. For almost any non-bendable device, this board is the standard.
What is Rigid PCB?
A rigid circuit board is the most common type of PCB. It’s solid. It doesn’t bend or fold. That’s why it’s called “rigid.” You’ll see it in computers, phones, TVs, and even medical machines. It gives shape, structure, and power to your electronics.
A rigid PCB is made from layers. These include a copper layer, a solder mask, and a silkscreen. All of these sit on top of a strong base. That base is often FR4. FR4 is a hard, fire-resistant fiberglass with good electrical strength. It handles heat well, so it’s used in most rigid boards.
A rigid circuit board is reliable. It’s strong. It handles heat. It’s cheaper to make than flexible ones. That’s why it’s used so much. For almost any non-bendable device, this board is the standard.
What is Rigid PCB?
A rigid circuit board is the most common type of PCB. It’s solid. It doesn’t bend or fold. That’s why it’s called “rigid.” You’ll see it in computers, phones, TVs, and even medical machines. It gives shape, structure, and power to your electronics.
A rigid PCB is made from layers. These include a copper layer, a solder mask, and a silkscreen. All of these sit on top of a strong base. That base is often FR4. FR4 is a hard, fire-resistant fiberglass with good electrical strength. It handles heat well, so it’s used in most rigid boards.
A rigid circuit board is reliable. It’s strong. It handles heat. It’s cheaper to make than flexible ones. That’s why it’s used so much. For almost any non-bendable device, this board is the standard.
What is Rigid PCB?
A rigid circuit board is the most common type of PCB. It’s solid. It doesn’t bend or fold. That’s why it’s called “rigid.” You’ll see it in computers, phones, TVs, and even medical machines. It gives shape, structure, and power to your electronics.
A rigid PCB is made from layers. These include a copper layer, a solder mask, and a silkscreen. All of these sit on top of a strong base. That base is often FR4. FR4 is a hard, fire-resistant fiberglass with good electrical strength. It handles heat well, so it’s used in most rigid boards.
A rigid circuit board is reliable. It’s strong. It handles heat. It’s cheaper to make than flexible ones. That’s why it’s used so much. For almost any non-bendable device, this board is the standard.
A rigid circuit board is the most common type of PCB. It’s solid. It doesn’t bend or fold. That’s why it’s called “rigid.” You’ll see it in computers, phones, TVs, and even medical machines. It gives shape, structure, and power to your electronics.
A rigid PCB is made from layers. These include a copper layer, a solder mask, and a silkscreen. All of these sit on top of a strong base. That base is often FR4. FR4 is a hard, fire-resistant fiberglass with good electrical strength. It handles heat well, so it’s used in most rigid boards.
A rigid circuit board is reliable. It’s strong. It handles heat. It’s cheaper to make than flexible ones. That’s why it’s used so much. For almost any non-bendable device, this board is the standard.
A rigid circuit board is the most common type of PCB. It’s solid. It doesn’t bend or fold. That’s why it’s called “rigid.” You’ll see it in computers, phones, TVs, and even medical machines. It gives shape, structure, and power to your electronics.
A rigid PCB is made from layers. These include a copper layer, a solder mask, and a silkscreen. All of these sit on top of a strong base. That base is often FR4. FR4 is a hard, fire-resistant fiberglass with good electrical strength. It handles heat well, so it’s used in most rigid boards.
A rigid circuit board is reliable. It’s strong. It handles heat. It’s cheaper to make than flexible ones. That’s why it’s used so much. For almost any non-bendable device, this board is the standard.
Features and Characteristics of a Rigid PCB
Features and Characteristics of a Rigid PCB Cannot be reshaped after production – Once a rigid PCB is made, you can’t twist or change its form—it stays fixed for life.
- More affordable than flexible PCBs – Rigid PCBs cost less to make. They’re used in most standard electronics, including consumer gadgets and industrial tools.
- Common in many devices – You’ll find them in phones, laptops, TVs, and medical gear where bending isn’t needed.
- Offers higher thermal resistance – Rigid PCBs perform well even under heat. This makes them good for power-heavy devices.
- Excellent dimensional stability – They hold their shape over time, even in high-stress environments.
- Provides good electrical insulation – The board insulates well, which helps avoid signal loss and keeps performance steady.
- Handles high voltage and current – Rigid PCBs are strong enough to manage demanding loads without failing.
Features and Characteristics of a Rigid PCB
Features and Characteristics of a Rigid PCB Cannot be reshaped after production – Once a rigid PCB is made, you can’t twist or change its form—it stays fixed for life.
- More affordable than flexible PCBs – Rigid PCBs cost less to make. They’re used in most standard electronics, including consumer gadgets and industrial tools.
- Common in many devices – You’ll find them in phones, laptops, TVs, and medical gear where bending isn’t needed.
- Offers higher thermal resistance – Rigid PCBs perform well even under heat. This makes them good for power-heavy devices.
- Excellent dimensional stability – They hold their shape over time, even in high-stress environments.
- Provides good electrical insulation – The board insulates well, which helps avoid signal loss and keeps performance steady.
- Handles high voltage and current – Rigid PCBs are strong enough to manage demanding loads without failing.
Features and Characteristics of a Rigid PCB
Features and Characteristics of a Rigid PCB Cannot be reshaped after production – Once a rigid PCB is made, you can’t twist or change its form—it stays fixed for life.
- More affordable than flexible PCBs – Rigid PCBs cost less to make. They’re used in most standard electronics, including consumer gadgets and industrial tools.
- Common in many devices – You’ll find them in phones, laptops, TVs, and medical gear where bending isn’t needed.
- Offers higher thermal resistance – Rigid PCBs perform well even under heat. This makes them good for power-heavy devices.
- Excellent dimensional stability – They hold their shape over time, even in high-stress environments.
- Provides good electrical insulation – The board insulates well, which helps avoid signal loss and keeps performance steady.
- Handles high voltage and current – Rigid PCBs are strong enough to manage demanding loads without failing.
Features and Characteristics of a Rigid PCB
Features and Characteristics of a Rigid PCB Cannot be reshaped after production – Once a rigid PCB is made, you can’t twist or change its form—it stays fixed for life.
- More affordable than flexible PCBs – Rigid PCBs cost less to make. They’re used in most standard electronics, including consumer gadgets and industrial tools.
- Common in many devices – You’ll find them in phones, laptops, TVs, and medical gear where bending isn’t needed.
- Offers higher thermal resistance – Rigid PCBs perform well even under heat. This makes them good for power-heavy devices.
- Excellent dimensional stability – They hold their shape over time, even in high-stress environments.
- Provides good electrical insulation – The board insulates well, which helps avoid signal loss and keeps performance steady.
- Handles high voltage and current – Rigid PCBs are strong enough to manage demanding loads without failing.
Features and Characteristics of a Rigid PCB
Features and Characteristics of a Rigid PCB Cannot be reshaped after production – Once a rigid PCB is made, you can’t twist or change its form—it stays fixed for life.
- More affordable than flexible PCBs – Rigid PCBs cost less to make. They’re used in most standard electronics, including consumer gadgets and industrial tools.
- Common in many devices – You’ll find them in phones, laptops, TVs, and medical gear where bending isn’t needed.
- Offers higher thermal resistance – Rigid PCBs perform well even under heat. This makes them good for power-heavy devices.
- Excellent dimensional stability – They hold their shape over time, even in high-stress environments.
- Provides good electrical insulation – The board insulates well, which helps avoid signal loss and keeps performance steady.
- Handles high voltage and current – Rigid PCBs are strong enough to manage demanding loads without failing.
Features and Characteristics of a Rigid PCB Cannot be reshaped after production – Once a rigid PCB is made, you can’t twist or change its form—it stays fixed for life.
- More affordable than flexible PCBs – Rigid PCBs cost less to make. They’re used in most standard electronics, including consumer gadgets and industrial tools.
- Common in many devices – You’ll find them in phones, laptops, TVs, and medical gear where bending isn’t needed.
- Offers higher thermal resistance – Rigid PCBs perform well even under heat. This makes them good for power-heavy devices.
- Excellent dimensional stability – They hold their shape over time, even in high-stress environments.
- Provides good electrical insulation – The board insulates well, which helps avoid signal loss and keeps performance steady.
- Handles high voltage and current – Rigid PCBs are strong enough to manage demanding loads without failing.
Cannot be reshaped after production – Once a rigid PCB is made, you can’t twist or change its form—it stays fixed for life.
Types of Rigid PCB
Single-Sided PCBs
This is the most basic type of rigid PCB. You only get copper on one side of the board. There are no plated-through holes. Everything sits on one side—super simple. It’s used in things like power PCBs, LED boards, and small appliances.
Double-Sided PCBs
This one’s a bit more advanced. Copper layers go on both sides of the board. They’re connected by tiny holes filled with metal. You can place parts on the top and bottom. That gives you more space and more functions. Things like power supply PCBs, amplifier boards, energy meters, and control systems often use this type.
Multilayer PCBs
Here’s where it gets more complex. A multilayer PCB has more than two copper layers stacked together. They’re separated by insulating sheets and pressed tight with heat. This lets you pack in a lot more circuits without taking up much space. You’ll see these boards in phones, tablets, laptops, GPS trackers, and anything that needs a powerful, compact board.
These rigid PCBs use extra thick copper traces. That means they can carry more current without getting too hot. They’re great when your design needs to handle high power. You’ll see them in industrial tools or heavy-duty electronics.
High TG PCBs
“Tg” stands for glass transition temperature. High-Tg PCBs can take more heat before they start to soften. This helps during soldering and in high-temp environments. If your device heats up a lot, this kind of PCB is a good pick.
High Frequency PCBs
These PCBs are made for fast signal speeds. They use special materials like Rogers, Teflon, or Arlon. That helps reduce signal loss. You’ll want this kind of board in antennas, 5G devices, or radio systems where clean, fast signals matter.
Metal Core PCBs
This one’s built to handle heat. It has a metal core—usually aluminum or copper—inside the board. That metal spreads heat out fast. These PCBs are mostly used in high-power LED lights and other heat-sensitive applications. They stay cool and reliable even under stress.
Types of Rigid PCB
Single-Sided PCBs
This is the most basic type of rigid PCB. You only get copper on one side of the board. There are no plated-through holes. Everything sits on one side—super simple. It’s used in things like power PCBs, LED boards, and small appliances.
Double-Sided PCBs
This one’s a bit more advanced. Copper layers go on both sides of the board. They’re connected by tiny holes filled with metal. You can place parts on the top and bottom. That gives you more space and more functions. Things like power supply PCBs, amplifier boards, energy meters, and control systems often use this type.
Multilayer PCBs
Here’s where it gets more complex. A multilayer PCB has more than two copper layers stacked together. They’re separated by insulating sheets and pressed tight with heat. This lets you pack in a lot more circuits without taking up much space. You’ll see these boards in phones, tablets, laptops, GPS trackers, and anything that needs a powerful, compact board.
These rigid PCBs use extra thick copper traces. That means they can carry more current without getting too hot. They’re great when your design needs to handle high power. You’ll see them in industrial tools or heavy-duty electronics.
High TG PCBs
“Tg” stands for glass transition temperature. High-Tg PCBs can take more heat before they start to soften. This helps during soldering and in high-temp environments. If your device heats up a lot, this kind of PCB is a good pick.
High Frequency PCBs
These PCBs are made for fast signal speeds. They use special materials like Rogers, Teflon, or Arlon. That helps reduce signal loss. You’ll want this kind of board in antennas, 5G devices, or radio systems where clean, fast signals matter.
Metal Core PCBs
This one’s built to handle heat. It has a metal core—usually aluminum or copper—inside the board. That metal spreads heat out fast. These PCBs are mostly used in high-power LED lights and other heat-sensitive applications. They stay cool and reliable even under stress.
Types of Rigid PCB
Single-Sided PCBs
This is the most basic type of rigid PCB. You only get copper on one side of the board. There are no plated-through holes. Everything sits on one side—super simple. It’s used in things like power PCBs, LED boards, and small appliances.
Double-Sided PCBs
This one’s a bit more advanced. Copper layers go on both sides of the board. They’re connected by tiny holes filled with metal. You can place parts on the top and bottom. That gives you more space and more functions. Things like power supply PCBs, amplifier boards, energy meters, and control systems often use this type.
Multilayer PCBs
Here’s where it gets more complex. A multilayer PCB has more than two copper layers stacked together. They’re separated by insulating sheets and pressed tight with heat. This lets you pack in a lot more circuits without taking up much space. You’ll see these boards in phones, tablets, laptops, GPS trackers, and anything that needs a powerful, compact board.
These rigid PCBs use extra thick copper traces. That means they can carry more current without getting too hot. They’re great when your design needs to handle high power. You’ll see them in industrial tools or heavy-duty electronics.
High TG PCBs
“Tg” stands for glass transition temperature. High-Tg PCBs can take more heat before they start to soften. This helps during soldering and in high-temp environments. If your device heats up a lot, this kind of PCB is a good pick.
High Frequency PCBs
These PCBs are made for fast signal speeds. They use special materials like Rogers, Teflon, or Arlon. That helps reduce signal loss. You’ll want this kind of board in antennas, 5G devices, or radio systems where clean, fast signals matter.
Metal Core PCBs
This one’s built to handle heat. It has a metal core—usually aluminum or copper—inside the board. That metal spreads heat out fast. These PCBs are mostly used in high-power LED lights and other heat-sensitive applications. They stay cool and reliable even under stress.
Types of Rigid PCB
Single-Sided PCBs
This is the most basic type of rigid PCB. You only get copper on one side of the board. There are no plated-through holes. Everything sits on one side—super simple. It’s used in things like power PCBs, LED boards, and small appliances.
Double-Sided PCBs
This one’s a bit more advanced. Copper layers go on both sides of the board. They’re connected by tiny holes filled with metal. You can place parts on the top and bottom. That gives you more space and more functions. Things like power supply PCBs, amplifier boards, energy meters, and control systems often use this type.
Multilayer PCBs
Here’s where it gets more complex. A multilayer PCB has more than two copper layers stacked together. They’re separated by insulating sheets and pressed tight with heat. This lets you pack in a lot more circuits without taking up much space. You’ll see these boards in phones, tablets, laptops, GPS trackers, and anything that needs a powerful, compact board.
These rigid PCBs use extra thick copper traces. That means they can carry more current without getting too hot. They’re great when your design needs to handle high power. You’ll see them in industrial tools or heavy-duty electronics.
High TG PCBs
“Tg” stands for glass transition temperature. High-Tg PCBs can take more heat before they start to soften. This helps during soldering and in high-temp environments. If your device heats up a lot, this kind of PCB is a good pick.
High Frequency PCBs
These PCBs are made for fast signal speeds. They use special materials like Rogers, Teflon, or Arlon. That helps reduce signal loss. You’ll want this kind of board in antennas, 5G devices, or radio systems where clean, fast signals matter.
Metal Core PCBs
This one’s built to handle heat. It has a metal core—usually aluminum or copper—inside the board. That metal spreads heat out fast. These PCBs are mostly used in high-power LED lights and other heat-sensitive applications. They stay cool and reliable even under stress.
Single-Sided PCBs
This is the most basic type of rigid PCB. You only get copper on one side of the board. There are no plated-through holes. Everything sits on one side—super simple. It’s used in things like power PCBs, LED boards, and small appliances.
Double-Sided PCBs
This one’s a bit more advanced. Copper layers go on both sides of the board. They’re connected by tiny holes filled with metal. You can place parts on the top and bottom. That gives you more space and more functions. Things like power supply PCBs, amplifier boards, energy meters, and control systems often use this type.
Multilayer PCBs
Here’s where it gets more complex. A multilayer PCB has more than two copper layers stacked together. They’re separated by insulating sheets and pressed tight with heat. This lets you pack in a lot more circuits without taking up much space. You’ll see these boards in phones, tablets, laptops, GPS trackers, and anything that needs a powerful, compact board.
These rigid PCBs use extra thick copper traces. That means they can carry more current without getting too hot. They’re great when your design needs to handle high power. You’ll see them in industrial tools or heavy-duty electronics.
High TG PCBs
“Tg” stands for glass transition temperature. High-Tg PCBs can take more heat before they start to soften. This helps during soldering and in high-temp environments. If your device heats up a lot, this kind of PCB is a good pick.
High Frequency PCBs
These PCBs are made for fast signal speeds. They use special materials like Rogers, Teflon, or Arlon. That helps reduce signal loss. You’ll want this kind of board in antennas, 5G devices, or radio systems where clean, fast signals matter.
Metal Core PCBs
This one’s built to handle heat. It has a metal core—usually aluminum or copper—inside the board. That metal spreads heat out fast. These PCBs are mostly used in high-power LED lights and other heat-sensitive applications. They stay cool and reliable even under stress.
This is the most basic type of rigid PCB. You only get copper on one side of the board. There are no plated-through holes. Everything sits on one side—super simple. It’s used in things like power PCBs, LED boards, and small appliances.
This one’s a bit more advanced. Copper layers go on both sides of the board. They’re connected by tiny holes filled with metal. You can place parts on the top and bottom. That gives you more space and more functions. Things like power supply PCBs, amplifier boards, energy meters, and control systems often use this type.
Here’s where it gets more complex. A multilayer PCB has more than two copper layers stacked together. They’re separated by insulating sheets and pressed tight with heat. This lets you pack in a lot more circuits without taking up much space. You’ll see these boards in phones, tablets, laptops, GPS trackers, and anything that needs a powerful, compact board.
These rigid PCBs use extra thick copper traces. That means they can carry more current without getting too hot. They’re great when your design needs to handle high power. You’ll see them in industrial tools or heavy-duty electronics.
“Tg” stands for glass transition temperature. High-Tg PCBs can take more heat before they start to soften. This helps during soldering and in high-temp environments. If your device heats up a lot, this kind of PCB is a good pick.
These PCBs are made for fast signal speeds. They use special materials like Rogers, Teflon, or Arlon. That helps reduce signal loss. You’ll want this kind of board in antennas, 5G devices, or radio systems where clean, fast signals matter.
This one’s built to handle heat. It has a metal core—usually aluminum or copper—inside the board. That metal spreads heat out fast. These PCBs are mostly used in high-power LED lights and other heat-sensitive applications. They stay cool and reliable even under stress.
Manufacturing Process of Rigid PCBs
- Board Cutting – Large copper boards are trimmed into smaller panels, making them manageable for further processing.
- Drilling – Holes are precisely drilled to match the circuit design and allow for electrical connections between layers.
- PTH / Panel Plating – A thin copper layer is deposited into the drilled holes, ensuring connectivity between different board layers.
- Dry Film – A dry film is applied to define circuit patterns and protect areas from copper removal.
- Etching – Unwanted copper is chemically removed, leaving behind the desired circuit traces.
- AOI (Automated Optical Inspection) – The board is optically scanned to catch defects or misalignments before moving forward.
- Brown Oxide – A brown oxide layer is added to improve inner-layer bonding during lamination.
- Lay-up – Layers are stacked in order, ready to be fused into a multilayer PCB.
- Lamination – Heat and pressure permanently bond the layers into a single, rigid board.
- Resin Scrubbing – Residual resin is removed to clean the surface before imaging and finishing.
- Protective Film – A temporary film is added to shield the PCB from damage during handling.
- Dry Film / Etching – Dry film is reapplied for outer-layer patterning, followed by another etching step.
- CCD Targeting – Cameras align drill and routing points with high precision for further processing.
- Soldermask – A protective soldermask is applied to insulate copper traces and prevent shorting.
- Legend – Component labels and markers are printed on the board for easier assembly and troubleshooting.
- Drilling – Additional component holes are drilled, aligned precisely with the final design.
- Profiling – The board is cut into its final shape using CNC equipment.
- Open / Short Test – Electrical testing confirms that there are no unwanted breaks or connections.
- Hi-Pot Test – Insulation strength is verified under high voltage to ensure long-term safety.
- Surface Finish – A finish is applied to exposed copper pads to protect and ease soldering.
- FQC (Final Quality Control) – Visual and functional checks are performed to confirm the board meets all specifications.
- FQA (Final Quality Assurance) – A final review ensures compliance with customer and industry standards.
- Packaging – Boards are packed securely to avoid damage during transit.
- Shipment – Finished PCBs are dispatched, ready for integration into final products.
Manufacturing Process of Rigid PCBs
- Board Cutting – Large copper boards are trimmed into smaller panels, making them manageable for further processing.
- Drilling – Holes are precisely drilled to match the circuit design and allow for electrical connections between layers.
- PTH / Panel Plating – A thin copper layer is deposited into the drilled holes, ensuring connectivity between different board layers.
- Dry Film – A dry film is applied to define circuit patterns and protect areas from copper removal.
- Etching – Unwanted copper is chemically removed, leaving behind the desired circuit traces.
- AOI (Automated Optical Inspection) – The board is optically scanned to catch defects or misalignments before moving forward.
- Brown Oxide – A brown oxide layer is added to improve inner-layer bonding during lamination.
- Lay-up – Layers are stacked in order, ready to be fused into a multilayer PCB.
- Lamination – Heat and pressure permanently bond the layers into a single, rigid board.
- Resin Scrubbing – Residual resin is removed to clean the surface before imaging and finishing.
- Protective Film – A temporary film is added to shield the PCB from damage during handling.
- Dry Film / Etching – Dry film is reapplied for outer-layer patterning, followed by another etching step.
- CCD Targeting – Cameras align drill and routing points with high precision for further processing.
- Soldermask – A protective soldermask is applied to insulate copper traces and prevent shorting.
- Legend – Component labels and markers are printed on the board for easier assembly and troubleshooting.
- Drilling – Additional component holes are drilled, aligned precisely with the final design.
- Profiling – The board is cut into its final shape using CNC equipment.
- Open / Short Test – Electrical testing confirms that there are no unwanted breaks or connections.
- Hi-Pot Test – Insulation strength is verified under high voltage to ensure long-term safety.
- Surface Finish – A finish is applied to exposed copper pads to protect and ease soldering.
- FQC (Final Quality Control) – Visual and functional checks are performed to confirm the board meets all specifications.
- FQA (Final Quality Assurance) – A final review ensures compliance with customer and industry standards.
- Packaging – Boards are packed securely to avoid damage during transit.
- Shipment – Finished PCBs are dispatched, ready for integration into final products.
Manufacturing Process of Rigid PCBs
- Board Cutting – Large copper boards are trimmed into smaller panels, making them manageable for further processing.
- Drilling – Holes are precisely drilled to match the circuit design and allow for electrical connections between layers.
- PTH / Panel Plating – A thin copper layer is deposited into the drilled holes, ensuring connectivity between different board layers.
- Dry Film – A dry film is applied to define circuit patterns and protect areas from copper removal.
- Etching – Unwanted copper is chemically removed, leaving behind the desired circuit traces.
- AOI (Automated Optical Inspection) – The board is optically scanned to catch defects or misalignments before moving forward.
- Brown Oxide – A brown oxide layer is added to improve inner-layer bonding during lamination.
- Lay-up – Layers are stacked in order, ready to be fused into a multilayer PCB.
- Lamination – Heat and pressure permanently bond the layers into a single, rigid board.
- Resin Scrubbing – Residual resin is removed to clean the surface before imaging and finishing.
- Protective Film – A temporary film is added to shield the PCB from damage during handling.
- Dry Film / Etching – Dry film is reapplied for outer-layer patterning, followed by another etching step.
- CCD Targeting – Cameras align drill and routing points with high precision for further processing.
- Soldermask – A protective soldermask is applied to insulate copper traces and prevent shorting.
- Legend – Component labels and markers are printed on the board for easier assembly and troubleshooting.
- Drilling – Additional component holes are drilled, aligned precisely with the final design.
- Profiling – The board is cut into its final shape using CNC equipment.
- Open / Short Test – Electrical testing confirms that there are no unwanted breaks or connections.
- Hi-Pot Test – Insulation strength is verified under high voltage to ensure long-term safety.
- Surface Finish – A finish is applied to exposed copper pads to protect and ease soldering.
- FQC (Final Quality Control) – Visual and functional checks are performed to confirm the board meets all specifications.
- FQA (Final Quality Assurance) – A final review ensures compliance with customer and industry standards.
- Packaging – Boards are packed securely to avoid damage during transit.
- Shipment – Finished PCBs are dispatched, ready for integration into final products.
Manufacturing Process of Rigid PCBs
- Board Cutting – Large copper boards are trimmed into smaller panels, making them manageable for further processing.
- Drilling – Holes are precisely drilled to match the circuit design and allow for electrical connections between layers.
- PTH / Panel Plating – A thin copper layer is deposited into the drilled holes, ensuring connectivity between different board layers.
- Dry Film – A dry film is applied to define circuit patterns and protect areas from copper removal.
- Etching – Unwanted copper is chemically removed, leaving behind the desired circuit traces.
- AOI (Automated Optical Inspection) – The board is optically scanned to catch defects or misalignments before moving forward.
- Brown Oxide – A brown oxide layer is added to improve inner-layer bonding during lamination.
- Lay-up – Layers are stacked in order, ready to be fused into a multilayer PCB.
- Lamination – Heat and pressure permanently bond the layers into a single, rigid board.
- Resin Scrubbing – Residual resin is removed to clean the surface before imaging and finishing.
- Protective Film – A temporary film is added to shield the PCB from damage during handling.
- Dry Film / Etching – Dry film is reapplied for outer-layer patterning, followed by another etching step.
- CCD Targeting – Cameras align drill and routing points with high precision for further processing.
- Soldermask – A protective soldermask is applied to insulate copper traces and prevent shorting.
- Legend – Component labels and markers are printed on the board for easier assembly and troubleshooting.
- Drilling – Additional component holes are drilled, aligned precisely with the final design.
- Profiling – The board is cut into its final shape using CNC equipment.
- Open / Short Test – Electrical testing confirms that there are no unwanted breaks or connections.
- Hi-Pot Test – Insulation strength is verified under high voltage to ensure long-term safety.
- Surface Finish – A finish is applied to exposed copper pads to protect and ease soldering.
- FQC (Final Quality Control) – Visual and functional checks are performed to confirm the board meets all specifications.
- FQA (Final Quality Assurance) – A final review ensures compliance with customer and industry standards.
- Packaging – Boards are packed securely to avoid damage during transit.
- Shipment – Finished PCBs are dispatched, ready for integration into final products.
Manufacturing Process of Rigid PCBs
- Board Cutting – Large copper boards are trimmed into smaller panels, making them manageable for further processing.
- Drilling – Holes are precisely drilled to match the circuit design and allow for electrical connections between layers.
- PTH / Panel Plating – A thin copper layer is deposited into the drilled holes, ensuring connectivity between different board layers.
- Dry Film – A dry film is applied to define circuit patterns and protect areas from copper removal.
- Etching – Unwanted copper is chemically removed, leaving behind the desired circuit traces.
- AOI (Automated Optical Inspection) – The board is optically scanned to catch defects or misalignments before moving forward.
- Brown Oxide – A brown oxide layer is added to improve inner-layer bonding during lamination.
- Lay-up – Layers are stacked in order, ready to be fused into a multilayer PCB.
- Lamination – Heat and pressure permanently bond the layers into a single, rigid board.
- Resin Scrubbing – Residual resin is removed to clean the surface before imaging and finishing.
- Protective Film – A temporary film is added to shield the PCB from damage during handling.
- Dry Film / Etching – Dry film is reapplied for outer-layer patterning, followed by another etching step.
- CCD Targeting – Cameras align drill and routing points with high precision for further processing.
- Soldermask – A protective soldermask is applied to insulate copper traces and prevent shorting.
- Legend – Component labels and markers are printed on the board for easier assembly and troubleshooting.
- Drilling – Additional component holes are drilled, aligned precisely with the final design.
- Profiling – The board is cut into its final shape using CNC equipment.
- Open / Short Test – Electrical testing confirms that there are no unwanted breaks or connections.
- Hi-Pot Test – Insulation strength is verified under high voltage to ensure long-term safety.
- Surface Finish – A finish is applied to exposed copper pads to protect and ease soldering.
- FQC (Final Quality Control) – Visual and functional checks are performed to confirm the board meets all specifications.
- FQA (Final Quality Assurance) – A final review ensures compliance with customer and industry standards.
- Packaging – Boards are packed securely to avoid damage during transit.
- Shipment – Finished PCBs are dispatched, ready for integration into final products.
- Board Cutting – Large copper boards are trimmed into smaller panels, making them manageable for further processing.
- Drilling – Holes are precisely drilled to match the circuit design and allow for electrical connections between layers.
- PTH / Panel Plating – A thin copper layer is deposited into the drilled holes, ensuring connectivity between different board layers.
- Dry Film – A dry film is applied to define circuit patterns and protect areas from copper removal.
- Etching – Unwanted copper is chemically removed, leaving behind the desired circuit traces.
- AOI (Automated Optical Inspection) – The board is optically scanned to catch defects or misalignments before moving forward.
- Brown Oxide – A brown oxide layer is added to improve inner-layer bonding during lamination.
- Lay-up – Layers are stacked in order, ready to be fused into a multilayer PCB.
- Lamination – Heat and pressure permanently bond the layers into a single, rigid board.
- Resin Scrubbing – Residual resin is removed to clean the surface before imaging and finishing.
- Protective Film – A temporary film is added to shield the PCB from damage during handling.
- Dry Film / Etching – Dry film is reapplied for outer-layer patterning, followed by another etching step.
- CCD Targeting – Cameras align drill and routing points with high precision for further processing.
- Soldermask – A protective soldermask is applied to insulate copper traces and prevent shorting.
- Legend – Component labels and markers are printed on the board for easier assembly and troubleshooting.
- Drilling – Additional component holes are drilled, aligned precisely with the final design.
- Profiling – The board is cut into its final shape using CNC equipment.
- Open / Short Test – Electrical testing confirms that there are no unwanted breaks or connections.
- Hi-Pot Test – Insulation strength is verified under high voltage to ensure long-term safety.
- Surface Finish – A finish is applied to exposed copper pads to protect and ease soldering.
- FQC (Final Quality Control) – Visual and functional checks are performed to confirm the board meets all specifications.
- FQA (Final Quality Assurance) – A final review ensures compliance with customer and industry standards.
- Packaging – Boards are packed securely to avoid damage during transit.
- Shipment – Finished PCBs are dispatched, ready for integration into final products.
Surface Finish Choices for Rigid PCBs
When selecting a surface finish for your rigid PCB, the right choice affects solderability, shelf life, and overall performance. HASL, available in vertical or horizontal formats, remains a standard. Lead Free HASL delivers similar protection without the lead content.
OSP finishes offer a clean, flat surface ideal for SMT assembly. For more demanding requirements, ENIG (Electroless Nickel/Immersion Gold) is a popular choice. Compatible with fine-pitch components and BGA layouts. Immersion Silver provides strong solderability and good signal integrity, especially in high-frequency applications.
Where wear resistance is critical, Electrolytic Hard Gold ensures long-term contact durability. Electrolytic Soft Gold, on the other hand, is better for bonding and wire applications. If gold is only required on specific areas, Selective Gold allows for precision placement, reducing cost while maintaining performance.
Surface Finish Choices for Rigid PCBs
When selecting a surface finish for your rigid PCB, the right choice affects solderability, shelf life, and overall performance. HASL, available in vertical or horizontal formats, remains a standard. Lead Free HASL delivers similar protection without the lead content.
OSP finishes offer a clean, flat surface ideal for SMT assembly. For more demanding requirements, ENIG (Electroless Nickel/Immersion Gold) is a popular choice. Compatible with fine-pitch components and BGA layouts. Immersion Silver provides strong solderability and good signal integrity, especially in high-frequency applications.
Where wear resistance is critical, Electrolytic Hard Gold ensures long-term contact durability. Electrolytic Soft Gold, on the other hand, is better for bonding and wire applications. If gold is only required on specific areas, Selective Gold allows for precision placement, reducing cost while maintaining performance.
Surface Finish Choices for Rigid PCBs
When selecting a surface finish for your rigid PCB, the right choice affects solderability, shelf life, and overall performance. HASL, available in vertical or horizontal formats, remains a standard. Lead Free HASL delivers similar protection without the lead content.
OSP finishes offer a clean, flat surface ideal for SMT assembly. For more demanding requirements, ENIG (Electroless Nickel/Immersion Gold) is a popular choice. Compatible with fine-pitch components and BGA layouts. Immersion Silver provides strong solderability and good signal integrity, especially in high-frequency applications.
Where wear resistance is critical, Electrolytic Hard Gold ensures long-term contact durability. Electrolytic Soft Gold, on the other hand, is better for bonding and wire applications. If gold is only required on specific areas, Selective Gold allows for precision placement, reducing cost while maintaining performance.
Surface Finish Choices for Rigid PCBs
When selecting a surface finish for your rigid PCB, the right choice affects solderability, shelf life, and overall performance. HASL, available in vertical or horizontal formats, remains a standard. Lead Free HASL delivers similar protection without the lead content.
OSP finishes offer a clean, flat surface ideal for SMT assembly. For more demanding requirements, ENIG (Electroless Nickel/Immersion Gold) is a popular choice. Compatible with fine-pitch components and BGA layouts. Immersion Silver provides strong solderability and good signal integrity, especially in high-frequency applications.
Where wear resistance is critical, Electrolytic Hard Gold ensures long-term contact durability. Electrolytic Soft Gold, on the other hand, is better for bonding and wire applications. If gold is only required on specific areas, Selective Gold allows for precision placement, reducing cost while maintaining performance.
Surface Finish Choices for Rigid PCBs
When selecting a surface finish for your rigid PCB, the right choice affects solderability, shelf life, and overall performance. HASL, available in vertical or horizontal formats, remains a standard. Lead Free HASL delivers similar protection without the lead content.
OSP finishes offer a clean, flat surface ideal for SMT assembly. For more demanding requirements, ENIG (Electroless Nickel/Immersion Gold) is a popular choice. Compatible with fine-pitch components and BGA layouts. Immersion Silver provides strong solderability and good signal integrity, especially in high-frequency applications.
Where wear resistance is critical, Electrolytic Hard Gold ensures long-term contact durability. Electrolytic Soft Gold, on the other hand, is better for bonding and wire applications. If gold is only required on specific areas, Selective Gold allows for precision placement, reducing cost while maintaining performance.
When selecting a surface finish for your rigid PCB, the right choice affects solderability, shelf life, and overall performance. HASL, available in vertical or horizontal formats, remains a standard. Lead Free HASL delivers similar protection without the lead content.
OSP finishes offer a clean, flat surface ideal for SMT assembly. For more demanding requirements, ENIG (Electroless Nickel/Immersion Gold) is a popular choice. Compatible with fine-pitch components and BGA layouts. Immersion Silver provides strong solderability and good signal integrity, especially in high-frequency applications.
Where wear resistance is critical, Electrolytic Hard Gold ensures long-term contact durability. Electrolytic Soft Gold, on the other hand, is better for bonding and wire applications. If gold is only required on specific areas, Selective Gold allows for precision placement, reducing cost while maintaining performance.
Rigid PCB Soldermask Parameters
When building a rigid PCB, the soldermask isn’t just for looks. It protects the copper, helps with soldering, and plays a role in board performance. You’ve got three main finish types: semi-glossy, glossy, and matte. Semi-glossy is a common go-to—just enough shine without too much glare. Glossy gives a smoother, more reflective surface, which helps in visual inspections. Matte cuts down on reflections, making it ideal when you need better contrast or camera-based inspection.
Soldermask color also matters more than most people think. Green is the classic choice—it’s reliable and easy to work with. Black, blue, and red add variety, but each reacts differently to light and heat. White and bright white are popular in LED boards because they reflect light well. Yellow, clear, and even purple offer unique visual styles for specialized builds.
Rigid PCB Soldermask Parameters
When building a rigid PCB, the soldermask isn’t just for looks. It protects the copper, helps with soldering, and plays a role in board performance. You’ve got three main finish types: semi-glossy, glossy, and matte. Semi-glossy is a common go-to—just enough shine without too much glare. Glossy gives a smoother, more reflective surface, which helps in visual inspections. Matte cuts down on reflections, making it ideal when you need better contrast or camera-based inspection.
Soldermask color also matters more than most people think. Green is the classic choice—it’s reliable and easy to work with. Black, blue, and red add variety, but each reacts differently to light and heat. White and bright white are popular in LED boards because they reflect light well. Yellow, clear, and even purple offer unique visual styles for specialized builds.
Rigid PCB Soldermask Parameters
When building a rigid PCB, the soldermask isn’t just for looks. It protects the copper, helps with soldering, and plays a role in board performance. You’ve got three main finish types: semi-glossy, glossy, and matte. Semi-glossy is a common go-to—just enough shine without too much glare. Glossy gives a smoother, more reflective surface, which helps in visual inspections. Matte cuts down on reflections, making it ideal when you need better contrast or camera-based inspection.
Soldermask color also matters more than most people think. Green is the classic choice—it’s reliable and easy to work with. Black, blue, and red add variety, but each reacts differently to light and heat. White and bright white are popular in LED boards because they reflect light well. Yellow, clear, and even purple offer unique visual styles for specialized builds.
Rigid PCB Soldermask Parameters
When building a rigid PCB, the soldermask isn’t just for looks. It protects the copper, helps with soldering, and plays a role in board performance. You’ve got three main finish types: semi-glossy, glossy, and matte. Semi-glossy is a common go-to—just enough shine without too much glare. Glossy gives a smoother, more reflective surface, which helps in visual inspections. Matte cuts down on reflections, making it ideal when you need better contrast or camera-based inspection.
Soldermask color also matters more than most people think. Green is the classic choice—it’s reliable and easy to work with. Black, blue, and red add variety, but each reacts differently to light and heat. White and bright white are popular in LED boards because they reflect light well. Yellow, clear, and even purple offer unique visual styles for specialized builds.
Rigid PCB Soldermask Parameters
When building a rigid PCB, the soldermask isn’t just for looks. It protects the copper, helps with soldering, and plays a role in board performance. You’ve got three main finish types: semi-glossy, glossy, and matte. Semi-glossy is a common go-to—just enough shine without too much glare. Glossy gives a smoother, more reflective surface, which helps in visual inspections. Matte cuts down on reflections, making it ideal when you need better contrast or camera-based inspection.
Soldermask color also matters more than most people think. Green is the classic choice—it’s reliable and easy to work with. Black, blue, and red add variety, but each reacts differently to light and heat. White and bright white are popular in LED boards because they reflect light well. Yellow, clear, and even purple offer unique visual styles for specialized builds.
When building a rigid PCB, the soldermask isn’t just for looks. It protects the copper, helps with soldering, and plays a role in board performance. You’ve got three main finish types: semi-glossy, glossy, and matte. Semi-glossy is a common go-to—just enough shine without too much glare. Glossy gives a smoother, more reflective surface, which helps in visual inspections. Matte cuts down on reflections, making it ideal when you need better contrast or camera-based inspection.
Soldermask color also matters more than most people think. Green is the classic choice—it’s reliable and easy to work with. Black, blue, and red add variety, but each reacts differently to light and heat. White and bright white are popular in LED boards because they reflect light well. Yellow, clear, and even purple offer unique visual styles for specialized builds.
Rigid PCB Common Applications
- Consumer Electronics
- Computers
- Keyboards
- GPS devices
- Sensors
- Telecommunications Industry
- Wireless products
- Memory modules
- 5G networks
- TV LED backlights
- Amplifiers
Rigid PCB Common Applications
- Consumer Electronics
- Computers
- Keyboards
- GPS devices
- Sensors
- Telecommunications Industry
- Wireless products
- Memory modules
- 5G networks
- TV LED backlights
- Amplifiers
Rigid PCB Common Applications
- Consumer Electronics
- Computers
- Keyboards
- GPS devices
- Sensors
- Telecommunications Industry
- Wireless products
- Memory modules
- 5G networks
- TV LED backlights
- Amplifiers
Rigid PCB Common Applications
- Consumer Electronics
- Computers
- Keyboards
- GPS devices
- Sensors
- Telecommunications Industry
- Wireless products
- Memory modules
- 5G networks
- TV LED backlights
- Amplifiers
Rigid PCB Common Applications
- Consumer Electronics
- Computers
- Keyboards
- GPS devices
- Sensors
- Telecommunications Industry
- Wireless products
- Memory modules
- 5G networks
- TV LED backlights
- Amplifiers
- Consumer Electronics
- Computers
- Keyboards
- GPS devices
- Sensors
- Telecommunications Industry
- Wireless products
- Memory modules
- 5G networks
- TV LED backlights
- Amplifiers
SMTFAB Capabilities in Rigid PCB Manufacturing
SMTFAB offers a wide range of capabilities for manufacturing rigid PCBs, from standard to advanced specifications. We can produce up to 40-layer PCBs, with various base and PCB types with options for blind and buried vias, laser drilling, and embedded components.
For thickness, we handle board dimensions from 0.2mm to 10mm and copper thicknesses from 1/3 oz to 10 oz. We support advanced drilling techniques, including backdrilling and laser drilling, with minimum hole sizes starting at 4 mils. Our precision tolerances ensure minimal gaps between hole walls and conductors, and we can work with various plating and surface finishes like ENIG, HASL, and immersion gold.
We also provide V-scoring and slot cutting, with precise tolerances and the ability to handle thin board materials down to 0.3mm. Our lamination capabilities include both mechanical and laser-etched vias, with a focus on maintaining high-quality standards for complex rigid multilayer boards.
As a professional rigid PCB manufacturer with more than 20 years of production experience. SMTFAB strictly follows IPC standards and provides one-stop solutions from 24-hour rapid prototyping to volume production for global customers.
In addition, our experienced engineers can provide you with a free DFM check to avoid production risks from the design side. Upload your Gerber file today or contact us for a free quote.
SMTFAB Capabilities in Rigid PCB Manufacturing
SMTFAB offers a wide range of capabilities for manufacturing rigid PCBs, from standard to advanced specifications. We can produce up to 40-layer PCBs, with various base and PCB types with options for blind and buried vias, laser drilling, and embedded components.
For thickness, we handle board dimensions from 0.2mm to 10mm and copper thicknesses from 1/3 oz to 10 oz. We support advanced drilling techniques, including backdrilling and laser drilling, with minimum hole sizes starting at 4 mils. Our precision tolerances ensure minimal gaps between hole walls and conductors, and we can work with various plating and surface finishes like ENIG, HASL, and immersion gold.
We also provide V-scoring and slot cutting, with precise tolerances and the ability to handle thin board materials down to 0.3mm. Our lamination capabilities include both mechanical and laser-etched vias, with a focus on maintaining high-quality standards for complex rigid multilayer boards.
As a professional rigid PCB manufacturer with more than 20 years of production experience. SMTFAB strictly follows IPC standards and provides one-stop solutions from 24-hour rapid prototyping to volume production for global customers.
In addition, our experienced engineers can provide you with a free DFM check to avoid production risks from the design side. Upload your Gerber file today or contact us for a free quote.
SMTFAB Capabilities in Rigid PCB Manufacturing
SMTFAB offers a wide range of capabilities for manufacturing rigid PCBs, from standard to advanced specifications. We can produce up to 40-layer PCBs, with various base and PCB types with options for blind and buried vias, laser drilling, and embedded components.
For thickness, we handle board dimensions from 0.2mm to 10mm and copper thicknesses from 1/3 oz to 10 oz. We support advanced drilling techniques, including backdrilling and laser drilling, with minimum hole sizes starting at 4 mils. Our precision tolerances ensure minimal gaps between hole walls and conductors, and we can work with various plating and surface finishes like ENIG, HASL, and immersion gold.
We also provide V-scoring and slot cutting, with precise tolerances and the ability to handle thin board materials down to 0.3mm. Our lamination capabilities include both mechanical and laser-etched vias, with a focus on maintaining high-quality standards for complex rigid multilayer boards.
As a professional rigid PCB manufacturer with more than 20 years of production experience. SMTFAB strictly follows IPC standards and provides one-stop solutions from 24-hour rapid prototyping to volume production for global customers.
In addition, our experienced engineers can provide you with a free DFM check to avoid production risks from the design side. Upload your Gerber file today or contact us for a free quote.
SMTFAB Capabilities in Rigid PCB Manufacturing
SMTFAB offers a wide range of capabilities for manufacturing rigid PCBs, from standard to advanced specifications. We can produce up to 40-layer PCBs, with various base and PCB types with options for blind and buried vias, laser drilling, and embedded components.
For thickness, we handle board dimensions from 0.2mm to 10mm and copper thicknesses from 1/3 oz to 10 oz. We support advanced drilling techniques, including backdrilling and laser drilling, with minimum hole sizes starting at 4 mils. Our precision tolerances ensure minimal gaps between hole walls and conductors, and we can work with various plating and surface finishes like ENIG, HASL, and immersion gold.
We also provide V-scoring and slot cutting, with precise tolerances and the ability to handle thin board materials down to 0.3mm. Our lamination capabilities include both mechanical and laser-etched vias, with a focus on maintaining high-quality standards for complex rigid multilayer boards.
As a professional rigid PCB manufacturer with more than 20 years of production experience. SMTFAB strictly follows IPC standards and provides one-stop solutions from 24-hour rapid prototyping to volume production for global customers.
In addition, our experienced engineers can provide you with a free DFM check to avoid production risks from the design side. Upload your Gerber file today or contact us for a free quote.
SMTFAB Capabilities in Rigid PCB Manufacturing
SMTFAB offers a wide range of capabilities for manufacturing rigid PCBs, from standard to advanced specifications. We can produce up to 40-layer PCBs, with various base and PCB types with options for blind and buried vias, laser drilling, and embedded components.
For thickness, we handle board dimensions from 0.2mm to 10mm and copper thicknesses from 1/3 oz to 10 oz. We support advanced drilling techniques, including backdrilling and laser drilling, with minimum hole sizes starting at 4 mils. Our precision tolerances ensure minimal gaps between hole walls and conductors, and we can work with various plating and surface finishes like ENIG, HASL, and immersion gold.
We also provide V-scoring and slot cutting, with precise tolerances and the ability to handle thin board materials down to 0.3mm. Our lamination capabilities include both mechanical and laser-etched vias, with a focus on maintaining high-quality standards for complex rigid multilayer boards.
As a professional rigid PCB manufacturer with more than 20 years of production experience. SMTFAB strictly follows IPC standards and provides one-stop solutions from 24-hour rapid prototyping to volume production for global customers.
In addition, our experienced engineers can provide you with a free DFM check to avoid production risks from the design side. Upload your Gerber file today or contact us for a free quote.
SMTFAB offers a wide range of capabilities for manufacturing rigid PCBs, from standard to advanced specifications. We can produce up to 40-layer PCBs, with various base and PCB types with options for blind and buried vias, laser drilling, and embedded components.
For thickness, we handle board dimensions from 0.2mm to 10mm and copper thicknesses from 1/3 oz to 10 oz. We support advanced drilling techniques, including backdrilling and laser drilling, with minimum hole sizes starting at 4 mils. Our precision tolerances ensure minimal gaps between hole walls and conductors, and we can work with various plating and surface finishes like ENIG, HASL, and immersion gold.
We also provide V-scoring and slot cutting, with precise tolerances and the ability to handle thin board materials down to 0.3mm. Our lamination capabilities include both mechanical and laser-etched vias, with a focus on maintaining high-quality standards for complex rigid multilayer boards.
As a professional rigid PCB manufacturer with more than 20 years of production experience. SMTFAB strictly follows IPC standards and provides one-stop solutions from 24-hour rapid prototyping to volume production for global customers.
In addition, our experienced engineers can provide you with a free DFM check to avoid production risks from the design side. Upload your Gerber file today or contact us for a free quote.
Related Products
Related Products
Related Products
Get an Instant Online Quote Today
At SMTFAB, we specialize in delivering reliable and durable Rigid PCB solutions tailored to meet the demands of modern electronic applications. Our Rigid PCBs are engineered with precision, offering superior mechanical stability and consistent performance across a wide range of industries. Whether you require standard multilayer boards or complex high-frequency configurations, our advanced manufacturing capabilities ensure exceptional quality and fast turnaround. With materials sourced from trusted suppliers and compliance with IPC standards, SMTFAB is your trusted partner for Rigid PCB fabrication.
Get an Instant Online Quote Today
At SMTFAB, we specialize in delivering reliable and durable Rigid PCB solutions tailored to meet the demands of modern electronic applications. Our Rigid PCBs are engineered with precision, offering superior mechanical stability and consistent performance across a wide range of industries. Whether you require standard multilayer boards or complex high-frequency configurations, our advanced manufacturing capabilities ensure exceptional quality and fast turnaround. With materials sourced from trusted suppliers and compliance with IPC standards, SMTFAB is your trusted partner for Rigid PCB fabrication.
Get an Instant Online Quote Today
At SMTFAB, we specialize in delivering reliable and durable Rigid PCB solutions tailored to meet the demands of modern electronic applications. Our Rigid PCBs are engineered with precision, offering superior mechanical stability and consistent performance across a wide range of industries. Whether you require standard multilayer boards or complex high-frequency configurations, our advanced manufacturing capabilities ensure exceptional quality and fast turnaround. With materials sourced from trusted suppliers and compliance with IPC standards, SMTFAB is your trusted partner for Rigid PCB fabrication.
Get an Instant Online Quote Today
At SMTFAB, we specialize in delivering reliable and durable Rigid PCB solutions tailored to meet the demands of modern electronic applications. Our Rigid PCBs are engineered with precision, offering superior mechanical stability and consistent performance across a wide range of industries. Whether you require standard multilayer boards or complex high-frequency configurations, our advanced manufacturing capabilities ensure exceptional quality and fast turnaround. With materials sourced from trusted suppliers and compliance with IPC standards, SMTFAB is your trusted partner for Rigid PCB fabrication.
Get an Instant Online Quote Today
At SMTFAB, we specialize in delivering reliable and durable Rigid PCB solutions tailored to meet the demands of modern electronic applications. Our Rigid PCBs are engineered with precision, offering superior mechanical stability and consistent performance across a wide range of industries. Whether you require standard multilayer boards or complex high-frequency configurations, our advanced manufacturing capabilities ensure exceptional quality and fast turnaround. With materials sourced from trusted suppliers and compliance with IPC standards, SMTFAB is your trusted partner for Rigid PCB fabrication.
At SMTFAB, we specialize in delivering reliable and durable Rigid PCB solutions tailored to meet the demands of modern electronic applications. Our Rigid PCBs are engineered with precision, offering superior mechanical stability and consistent performance across a wide range of industries. Whether you require standard multilayer boards or complex high-frequency configurations, our advanced manufacturing capabilities ensure exceptional quality and fast turnaround. With materials sourced from trusted suppliers and compliance with IPC standards, SMTFAB is your trusted partner for Rigid PCB fabrication.
Frequently Asked Questions
At SMTFAB, we mostly work with Gerber files. That’s the one you really need. It shows us your board’s shape, layers, and everything else. We also ask for a BOM, or bill of materials. That one tells us what parts go where. Just make sure your files are clear. If something’s missing, we’ll reach out. We can read other formats too, but Gerber files work best. They’re kind of the gold standard in PCB production. So if you’re unsure what to send, just go with Gerber and a clean BOM.
At SMTFAB, we don’t have a minimum order quantity (MOQ) for new customers. You can order as many or as few boards as you need. Whether it’s a small prototype or a larger batch, we’ve got you covered. We want to make it easy for you to get started, no matter the size of your order. Just reach out with your specs, and we’ll take care of the rest.
Rigid PCBs and Flex PCBs are both types of circuit boards, but they serve different purposes. Rigid PCBs are solid and inflexible. They’re made from materials like FR-4, providing stability and durability. This makes them ideal for computers, vehicles, and other applications where strength matters.
Flex PCBs are designed to be flexible. They are built from materials like polyimide or polyester, which allow them to bend or fold easily. This flexibility makes them perfect for wearable electronics and medical devices, where space and adaptability are key.
One key difference is that rigid PCBs can’t be bent, while flex PCBs easily adapt to tight spaces. Also, flex PCBs tend to cost more because the flexible materials used are more expensive. When it comes to design, rigid PCBs require the device to be built around them. But with flex PCBs, you can design the board to fit the device itself.
IPC standards play a crucial role in ensuring rigid PCBs meet quality and performance requirements. The two main standards for rigid PCBs are IPC-6012 and IPC-6013. IPC-6012 sets the guidelines for the design, manufacture, and testing of rigid printed boards. It focuses on materials, dimensional tolerances, electrical testing, and environmental testing. IPC-6013, on the other hand, specifically addresses copper-clad laminates used in rigid PCBs. It covers the materials and processes needed for these laminates to ensure durability and performance.
The minimum rigid PCB thickness is usually 0.2mm—that’s super thin. You’ll see this size in stuff like SIM cards or sensor cards. But honestly, most boards are thicker. The standard is around 1.5mm, sometimes 1.6mm. That size works for a lot of builds and keeps costs down. Need something in between? You’ve got options. 0.4mm, 0.6mm, 0.8mm, even up to 2.0mm—they’re all on the table. It just depends on your design and how much space you’ve got.
It mostly comes down to cost and space. Rigid PCBs are cheaper most of the time. They’re strong and steady. You’ll find them in laptops, TVs, toys, and similar gear. They’re great when space isn’t a big issue.
But flex PCBs can actually save you money in other ways. You might not need connectors or wires. That cuts material and labor costs. It also means fewer parts to mess up. Fewer parts mean less waste too.
You’ll usually see flex PCBs in tight spaces. Think phones, cameras, wearables, tablets. Even small GPS units. Sometimes even basic stuff like LED strips use them. Why? Because they’re easy to fit and install.
Frequently Asked Questions
At SMTFAB, we mostly work with Gerber files. That’s the one you really need. It shows us your board’s shape, layers, and everything else. We also ask for a BOM, or bill of materials. That one tells us what parts go where. Just make sure your files are clear. If something’s missing, we’ll reach out. We can read other formats too, but Gerber files work best. They’re kind of the gold standard in PCB production. So if you’re unsure what to send, just go with Gerber and a clean BOM.
At SMTFAB, we don’t have a minimum order quantity (MOQ) for new customers. You can order as many or as few boards as you need. Whether it’s a small prototype or a larger batch, we’ve got you covered. We want to make it easy for you to get started, no matter the size of your order. Just reach out with your specs, and we’ll take care of the rest.
Rigid PCBs and Flex PCBs are both types of circuit boards, but they serve different purposes. Rigid PCBs are solid and inflexible. They’re made from materials like FR-4, providing stability and durability. This makes them ideal for computers, vehicles, and other applications where strength matters.
Flex PCBs are designed to be flexible. They are built from materials like polyimide or polyester, which allow them to bend or fold easily. This flexibility makes them perfect for wearable electronics and medical devices, where space and adaptability are key.
One key difference is that rigid PCBs can’t be bent, while flex PCBs easily adapt to tight spaces. Also, flex PCBs tend to cost more because the flexible materials used are more expensive. When it comes to design, rigid PCBs require the device to be built around them. But with flex PCBs, you can design the board to fit the device itself.
IPC standards play a crucial role in ensuring rigid PCBs meet quality and performance requirements. The two main standards for rigid PCBs are IPC-6012 and IPC-6013. IPC-6012 sets the guidelines for the design, manufacture, and testing of rigid printed boards. It focuses on materials, dimensional tolerances, electrical testing, and environmental testing. IPC-6013, on the other hand, specifically addresses copper-clad laminates used in rigid PCBs. It covers the materials and processes needed for these laminates to ensure durability and performance.
The minimum rigid PCB thickness is usually 0.2mm—that’s super thin. You’ll see this size in stuff like SIM cards or sensor cards. But honestly, most boards are thicker. The standard is around 1.5mm, sometimes 1.6mm. That size works for a lot of builds and keeps costs down. Need something in between? You’ve got options. 0.4mm, 0.6mm, 0.8mm, even up to 2.0mm—they’re all on the table. It just depends on your design and how much space you’ve got.
It mostly comes down to cost and space. Rigid PCBs are cheaper most of the time. They’re strong and steady. You’ll find them in laptops, TVs, toys, and similar gear. They’re great when space isn’t a big issue.
But flex PCBs can actually save you money in other ways. You might not need connectors or wires. That cuts material and labor costs. It also means fewer parts to mess up. Fewer parts mean less waste too.
You’ll usually see flex PCBs in tight spaces. Think phones, cameras, wearables, tablets. Even small GPS units. Sometimes even basic stuff like LED strips use them. Why? Because they’re easy to fit and install.
Frequently Asked Questions
At SMTFAB, we mostly work with Gerber files. That’s the one you really need. It shows us your board’s shape, layers, and everything else. We also ask for a BOM, or bill of materials. That one tells us what parts go where. Just make sure your files are clear. If something’s missing, we’ll reach out. We can read other formats too, but Gerber files work best. They’re kind of the gold standard in PCB production. So if you’re unsure what to send, just go with Gerber and a clean BOM.
At SMTFAB, we don’t have a minimum order quantity (MOQ) for new customers. You can order as many or as few boards as you need. Whether it’s a small prototype or a larger batch, we’ve got you covered. We want to make it easy for you to get started, no matter the size of your order. Just reach out with your specs, and we’ll take care of the rest.
Rigid PCBs and Flex PCBs are both types of circuit boards, but they serve different purposes. Rigid PCBs are solid and inflexible. They’re made from materials like FR-4, providing stability and durability. This makes them ideal for computers, vehicles, and other applications where strength matters.
Flex PCBs are designed to be flexible. They are built from materials like polyimide or polyester, which allow them to bend or fold easily. This flexibility makes them perfect for wearable electronics and medical devices, where space and adaptability are key.
One key difference is that rigid PCBs can’t be bent, while flex PCBs easily adapt to tight spaces. Also, flex PCBs tend to cost more because the flexible materials used are more expensive. When it comes to design, rigid PCBs require the device to be built around them. But with flex PCBs, you can design the board to fit the device itself.
IPC standards play a crucial role in ensuring rigid PCBs meet quality and performance requirements. The two main standards for rigid PCBs are IPC-6012 and IPC-6013. IPC-6012 sets the guidelines for the design, manufacture, and testing of rigid printed boards. It focuses on materials, dimensional tolerances, electrical testing, and environmental testing. IPC-6013, on the other hand, specifically addresses copper-clad laminates used in rigid PCBs. It covers the materials and processes needed for these laminates to ensure durability and performance.
The minimum rigid PCB thickness is usually 0.2mm—that’s super thin. You’ll see this size in stuff like SIM cards or sensor cards. But honestly, most boards are thicker. The standard is around 1.5mm, sometimes 1.6mm. That size works for a lot of builds and keeps costs down. Need something in between? You’ve got options. 0.4mm, 0.6mm, 0.8mm, even up to 2.0mm—they’re all on the table. It just depends on your design and how much space you’ve got.
It mostly comes down to cost and space. Rigid PCBs are cheaper most of the time. They’re strong and steady. You’ll find them in laptops, TVs, toys, and similar gear. They’re great when space isn’t a big issue.
But flex PCBs can actually save you money in other ways. You might not need connectors or wires. That cuts material and labor costs. It also means fewer parts to mess up. Fewer parts mean less waste too.
You’ll usually see flex PCBs in tight spaces. Think phones, cameras, wearables, tablets. Even small GPS units. Sometimes even basic stuff like LED strips use them. Why? Because they’re easy to fit and install.
Frequently Asked Questions
Frequently Asked Questions
At SMTFAB, we mostly work with Gerber files. That’s the one you really need. It shows us your board’s shape, layers, and everything else. We also ask for a BOM, or bill of materials. That one tells us what parts go where. Just make sure your files are clear. If something’s missing, we’ll reach out. We can read other formats too, but Gerber files work best. They’re kind of the gold standard in PCB production. So if you’re unsure what to send, just go with Gerber and a clean BOM.
At SMTFAB, we don’t have a minimum order quantity (MOQ) for new customers. You can order as many or as few boards as you need. Whether it’s a small prototype or a larger batch, we’ve got you covered. We want to make it easy for you to get started, no matter the size of your order. Just reach out with your specs, and we’ll take care of the rest.
Rigid PCBs and Flex PCBs are both types of circuit boards, but they serve different purposes. Rigid PCBs are solid and inflexible. They’re made from materials like FR-4, providing stability and durability. This makes them ideal for computers, vehicles, and other applications where strength matters.
Flex PCBs are designed to be flexible. They are built from materials like polyimide or polyester, which allow them to bend or fold easily. This flexibility makes them perfect for wearable electronics and medical devices, where space and adaptability are key.
One key difference is that rigid PCBs can’t be bent, while flex PCBs easily adapt to tight spaces. Also, flex PCBs tend to cost more because the flexible materials used are more expensive. When it comes to design, rigid PCBs require the device to be built around them. But with flex PCBs, you can design the board to fit the device itself.
IPC standards play a crucial role in ensuring rigid PCBs meet quality and performance requirements. The two main standards for rigid PCBs are IPC-6012 and IPC-6013. IPC-6012 sets the guidelines for the design, manufacture, and testing of rigid printed boards. It focuses on materials, dimensional tolerances, electrical testing, and environmental testing. IPC-6013, on the other hand, specifically addresses copper-clad laminates used in rigid PCBs. It covers the materials and processes needed for these laminates to ensure durability and performance.
The minimum rigid PCB thickness is usually 0.2mm—that’s super thin. You’ll see this size in stuff like SIM cards or sensor cards. But honestly, most boards are thicker. The standard is around 1.5mm, sometimes 1.6mm. That size works for a lot of builds and keeps costs down. Need something in between? You’ve got options. 0.4mm, 0.6mm, 0.8mm, even up to 2.0mm—they’re all on the table. It just depends on your design and how much space you’ve got.
It mostly comes down to cost and space. Rigid PCBs are cheaper most of the time. They’re strong and steady. You’ll find them in laptops, TVs, toys, and similar gear. They’re great when space isn’t a big issue.
But flex PCBs can actually save you money in other ways. You might not need connectors or wires. That cuts material and labor costs. It also means fewer parts to mess up. Fewer parts mean less waste too.
You’ll usually see flex PCBs in tight spaces. Think phones, cameras, wearables, tablets. Even small GPS units. Sometimes even basic stuff like LED strips use them. Why? Because they’re easy to fit and install.
At SMTFAB, we mostly work with Gerber files. That’s the one you really need. It shows us your board’s shape, layers, and everything else. We also ask for a BOM, or bill of materials. That one tells us what parts go where. Just make sure your files are clear. If something’s missing, we’ll reach out. We can read other formats too, but Gerber files work best. They’re kind of the gold standard in PCB production. So if you’re unsure what to send, just go with Gerber and a clean BOM.
At SMTFAB, we mostly work with Gerber files. That’s the one you really need. It shows us your board’s shape, layers, and everything else. We also ask for a BOM, or bill of materials. That one tells us what parts go where. Just make sure your files are clear. If something’s missing, we’ll reach out. We can read other formats too, but Gerber files work best. They’re kind of the gold standard in PCB production. So if you’re unsure what to send, just go with Gerber and a clean BOM.
At SMTFAB, we mostly work with Gerber files. That’s the one you really need. It shows us your board’s shape, layers, and everything else. We also ask for a BOM, or bill of materials. That one tells us what parts go where. Just make sure your files are clear. If something’s missing, we’ll reach out. We can read other formats too, but Gerber files work best. They’re kind of the gold standard in PCB production. So if you’re unsure what to send, just go with Gerber and a clean BOM.
At SMTFAB, we don’t have a minimum order quantity (MOQ) for new customers. You can order as many or as few boards as you need. Whether it’s a small prototype or a larger batch, we’ve got you covered. We want to make it easy for you to get started, no matter the size of your order. Just reach out with your specs, and we’ll take care of the rest.
At SMTFAB, we don’t have a minimum order quantity (MOQ) for new customers. You can order as many or as few boards as you need. Whether it’s a small prototype or a larger batch, we’ve got you covered. We want to make it easy for you to get started, no matter the size of your order. Just reach out with your specs, and we’ll take care of the rest.
At SMTFAB, we don’t have a minimum order quantity (MOQ) for new customers. You can order as many or as few boards as you need. Whether it’s a small prototype or a larger batch, we’ve got you covered. We want to make it easy for you to get started, no matter the size of your order. Just reach out with your specs, and we’ll take care of the rest.
Rigid PCBs and Flex PCBs are both types of circuit boards, but they serve different purposes. Rigid PCBs are solid and inflexible. They’re made from materials like FR-4, providing stability and durability. This makes them ideal for computers, vehicles, and other applications where strength matters.
Flex PCBs are designed to be flexible. They are built from materials like polyimide or polyester, which allow them to bend or fold easily. This flexibility makes them perfect for wearable electronics and medical devices, where space and adaptability are key.
One key difference is that rigid PCBs can’t be bent, while flex PCBs easily adapt to tight spaces. Also, flex PCBs tend to cost more because the flexible materials used are more expensive. When it comes to design, rigid PCBs require the device to be built around them. But with flex PCBs, you can design the board to fit the device itself.
Rigid PCBs and Flex PCBs are both types of circuit boards, but they serve different purposes. Rigid PCBs are solid and inflexible. They’re made from materials like FR-4, providing stability and durability. This makes them ideal for computers, vehicles, and other applications where strength matters.
Flex PCBs are designed to be flexible. They are built from materials like polyimide or polyester, which allow them to bend or fold easily. This flexibility makes them perfect for wearable electronics and medical devices, where space and adaptability are key.
One key difference is that rigid PCBs can’t be bent, while flex PCBs easily adapt to tight spaces. Also, flex PCBs tend to cost more because the flexible materials used are more expensive. When it comes to design, rigid PCBs require the device to be built around them. But with flex PCBs, you can design the board to fit the device itself.
Rigid PCBs and Flex PCBs are both types of circuit boards, but they serve different purposes. Rigid PCBs are solid and inflexible. They’re made from materials like FR-4, providing stability and durability. This makes them ideal for computers, vehicles, and other applications where strength matters.
Flex PCBs are designed to be flexible. They are built from materials like polyimide or polyester, which allow them to bend or fold easily. This flexibility makes them perfect for wearable electronics and medical devices, where space and adaptability are key.
One key difference is that rigid PCBs can’t be bent, while flex PCBs easily adapt to tight spaces. Also, flex PCBs tend to cost more because the flexible materials used are more expensive. When it comes to design, rigid PCBs require the device to be built around them. But with flex PCBs, you can design the board to fit the device itself.
IPC standards play a crucial role in ensuring rigid PCBs meet quality and performance requirements. The two main standards for rigid PCBs are IPC-6012 and IPC-6013. IPC-6012 sets the guidelines for the design, manufacture, and testing of rigid printed boards. It focuses on materials, dimensional tolerances, electrical testing, and environmental testing. IPC-6013, on the other hand, specifically addresses copper-clad laminates used in rigid PCBs. It covers the materials and processes needed for these laminates to ensure durability and performance.
IPC standards play a crucial role in ensuring rigid PCBs meet quality and performance requirements. The two main standards for rigid PCBs are IPC-6012 and IPC-6013. IPC-6012 sets the guidelines for the design, manufacture, and testing of rigid printed boards. It focuses on materials, dimensional tolerances, electrical testing, and environmental testing. IPC-6013, on the other hand, specifically addresses copper-clad laminates used in rigid PCBs. It covers the materials and processes needed for these laminates to ensure durability and performance.
IPC standards play a crucial role in ensuring rigid PCBs meet quality and performance requirements. The two main standards for rigid PCBs are IPC-6012 and IPC-6013. IPC-6012 sets the guidelines for the design, manufacture, and testing of rigid printed boards. It focuses on materials, dimensional tolerances, electrical testing, and environmental testing. IPC-6013, on the other hand, specifically addresses copper-clad laminates used in rigid PCBs. It covers the materials and processes needed for these laminates to ensure durability and performance.
The minimum rigid PCB thickness is usually 0.2mm—that’s super thin. You’ll see this size in stuff like SIM cards or sensor cards. But honestly, most boards are thicker. The standard is around 1.5mm, sometimes 1.6mm. That size works for a lot of builds and keeps costs down. Need something in between? You’ve got options. 0.4mm, 0.6mm, 0.8mm, even up to 2.0mm—they’re all on the table. It just depends on your design and how much space you’ve got.
The minimum rigid PCB thickness is usually 0.2mm—that’s super thin. You’ll see this size in stuff like SIM cards or sensor cards. But honestly, most boards are thicker. The standard is around 1.5mm, sometimes 1.6mm. That size works for a lot of builds and keeps costs down. Need something in between? You’ve got options. 0.4mm, 0.6mm, 0.8mm, even up to 2.0mm—they’re all on the table. It just depends on your design and how much space you’ve got.
The minimum rigid PCB thickness is usually 0.2mm—that’s super thin. You’ll see this size in stuff like SIM cards or sensor cards. But honestly, most boards are thicker. The standard is around 1.5mm, sometimes 1.6mm. That size works for a lot of builds and keeps costs down. Need something in between? You’ve got options. 0.4mm, 0.6mm, 0.8mm, even up to 2.0mm—they’re all on the table. It just depends on your design and how much space you’ve got.
It mostly comes down to cost and space. Rigid PCBs are cheaper most of the time. They’re strong and steady. You’ll find them in laptops, TVs, toys, and similar gear. They’re great when space isn’t a big issue.
But flex PCBs can actually save you money in other ways. You might not need connectors or wires. That cuts material and labor costs. It also means fewer parts to mess up. Fewer parts mean less waste too.
You’ll usually see flex PCBs in tight spaces. Think phones, cameras, wearables, tablets. Even small GPS units. Sometimes even basic stuff like LED strips use them. Why? Because they’re easy to fit and install.
It mostly comes down to cost and space. Rigid PCBs are cheaper most of the time. They’re strong and steady. You’ll find them in laptops, TVs, toys, and similar gear. They’re great when space isn’t a big issue.
But flex PCBs can actually save you money in other ways. You might not need connectors or wires. That cuts material and labor costs. It also means fewer parts to mess up. Fewer parts mean less waste too.
You’ll usually see flex PCBs in tight spaces. Think phones, cameras, wearables, tablets. Even small GPS units. Sometimes even basic stuff like LED strips use them. Why? Because they’re easy to fit and install.
It mostly comes down to cost and space. Rigid PCBs are cheaper most of the time. They’re strong and steady. You’ll find them in laptops, TVs, toys, and similar gear. They’re great when space isn’t a big issue.
But flex PCBs can actually save you money in other ways. You might not need connectors or wires. That cuts material and labor costs. It also means fewer parts to mess up. Fewer parts mean less waste too.
You’ll usually see flex PCBs in tight spaces. Think phones, cameras, wearables, tablets. Even small GPS units. Sometimes even basic stuff like LED strips use them. Why? Because they’re easy to fit and install.
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