| Single-Sided PCB | One conductive copper layer on an insulating substrate; components are normally mounted on one side. | Simple controls, LED lighting, low-cost consumer products, basic power circuits. | Lowest manufacturing cost, simple design, fast production, easy visual inspection. | Limited routing density and less suitable for complex or high-speed circuits. | Approximately 3–7 working days, depending on finish, quantity, and testing. | Copper thickness, substrate quality, hole accuracy, solder-mask coverage, and edge condition. |
| Double-Sided PCB | Copper layers on both sides connected by plated through-holes or vias. | Industrial controls, small appliances, power supplies, instrumentation, and general electronics. | More routing space than a single-sided board while remaining economical and widely available. | Less routing capacity and electromagnetic control than multilayer designs. | Approximately 4–8 working days for standard prototypes. | Layer registration, plated-hole reliability, annular ring size, impedance requirements, and surface finish. |
| Multilayer Rigid PCB | Three or more copper layers separated by dielectric material and laminated into a rigid structure. | Computing equipment, networking devices, automotive electronics, medical equipment, and dense control systems. | High routing density, improved signal integrity, better power distribution, and compact assembly. | Higher cost, longer production time, and more demanding inspection and fabrication controls. | Approximately 7–15 working days for common prototype quantities. | Layer count, stack-up accuracy, controlled impedance, dielectric thickness, via structure, and lamination quality. |
| Flexible PCB | Flexible copper circuitry built on polyimide or another bendable dielectric film. | Wearable devices, cameras, displays, compact sensors, hinges, and space-constrained assemblies. | Lightweight, thin, bendable, and able to replace multiple wires or connectors. | More sensitive to bending radius, handling damage, connector design, and assembly stress. | Approximately 8–18 working days, depending on layer count and mechanical features. | Minimum bend radius, flex-cycle requirement, coverlay alignment, stiffener quality, and copper fatigue resistance. |
| Rigid-Flex PCB | Rigid PCB sections combined with flexible circuit sections in one laminated assembly. | Aerospace systems, medical instruments, robotics, high-reliability equipment, and compact electronics. | Reduces connectors and wiring while combining structural support with three-dimensional routing. | Complex design, higher tooling cost, difficult rework, and strict mechanical tolerances. | Approximately 12–25 working days for prototypes. | Bend-zone design, layer transition, material compatibility, dimensional tolerance, and repeated-flex testing. |
| HDI PCB | High-density multilayer construction using fine traces, microvias, and closely spaced pads. | Mobile electronics, compact computing products, high-speed modules, and miniaturized instruments. | Very high wiring density, smaller product size, and improved support for fine-pitch components. | Higher fabrication complexity, tighter process control, greater cost, and more demanding inspection. | Approximately 12–25 working days, depending on sequential lamination and microvia requirements. | Microvia reliability, trace and space capability, registration, sequential lamination, and electrical testing. |
| Metal-Core PCB | A metal base, commonly aluminum or copper, combined with an electrically insulating dielectric and copper circuit layer. | LED lighting, power converters, motor controls, automotive lighting, and heat-generating electronics. | Efficient heat dissipation, improved thermal stability, and strong mechanical support. | Limited routing flexibility, heavier construction, and special requirements for drilling and machining. | Approximately 6–12 working days for standard single-layer thermal designs. | Thermal conductivity, dielectric breakdown strength, flatness, insulation thickness, and thermal-interface design. |
| Ceramic PCB | Ceramic substrate, such as alumina or aluminum nitride, with conductive traces formed on or within the substrate. | High-temperature electronics, power modules, RF systems, sensors, and specialized lighting. | Excellent thermal performance, low moisture absorption, and strong high-temperature stability. | Brittle material, limited mechanical flexibility, specialized processing, and higher material cost. | Approximately 15–30 working days for prototypes, depending on metallization and testing. | Thermal expansion coefficient, dielectric performance, substrate flatness, metallization adhesion, and crack inspection. |