Single-Sided PCB Manufacturer
A single copper layer keeps construction simple only when routing, jumpers, holes, assembly and mechanical limits are resolved before production. LZJPCB reviews your single-layer PCB data as one manufacturable package—from copper-clad material and thickness to finish, inspection and repeat orders.
- Copper-clad material review
- Single-layer routing DFM
- 100% electrical test
- Prototype to repeat production
Single-Sided PCB Manufacturing Capabilities
The question is not whether a factory can make one copper layer—it is whether your material, geometry, holes, outline and finish can be released together. Use the published factory baseline for early screening, then confirm the exact single-layer construction against your files.
| Qualification item | Published / current baseline | Single-sided release decision |
|---|---|---|
| Material | Custom PCB material review available | 待补充 · supported FR-4, CEM and other single-sided laminate codes |
| Finished thickness | Overall PCB range: 0.20–17.50 mm | Available thickness and tolerance confirmed by actual single-sided material |
| Copper weight | Project-specific construction | 待补充 · base and finished copper options for single-layer boards |
| Trace / space | Overall published baseline: 3 / 3 mil | Qualified from copper, finish, board size and yield requirements |
| Mechanical drill / hole | Overall published baseline: 0.10 mm mechanical drill | PTH / NPTH, finished hole, tolerance and assembly purpose defined |
| Surface finish | Project-specific options | Selected for solderability, contact, storage and assembly process |
| Outline / dimensional tolerance | Project-specific review | Drawing, panel, tooling, routing / scoring and critical dimensions released |
| Prototype & production | Engineering sample through repeat production | Approved material, tooling, panel and inspection plan stay revision-linked |
Include Gerber / ODB++, material or performance requirement, finished thickness, copper, finish, hole / outline drawing, quantity and target schedule. The overall baseline is never treated as a promise that every minimum can be combined.
Single-Sided PCB Materials & Construction
A single-sided copper-clad board is one dielectric base with circuit copper on one face, but the final board also depends on mask, legend, holes, outline and surface finish. Select the material for electrical, mechanical, thermal and assembly needs—not from unit price alone.
The base carries the board mechanically and electrically; the copper forms the circuit; mask, finish and legend support assembly and use. A cost-sensitive appliance control and a dimensionally demanding industrial interface may both be single-layer yet require different material systems.
Material code, thickness, temperature and mechanical behavior
Base copper, etched geometry and finished requirement
Solder mask, legend and exposed feature definition
Surface finish, holes, outline and assembly contact
Single-Layer PCB Thickness
Finished thickness is a released dimension, not a casual “standard board” label. Base laminate availability, copper, coating, processing allowance, panel handling and accepted tolerance must match enclosure, connector and assembly conditions.
- State nominal finished thickness and accepted tolerance.
- Identify enclosure slots, connectors and critical mechanical interfaces.
- Confirm material code and available laminate thickness before layout freeze.
- Define bow / twist, panel handling and depanelization needs where critical.
This is a factory-wide reference, not the confirmed range for every single-sided material. Exact construction and tolerance: 待补充 / project review.
Single-Sided PCB Design & DFM Guidelines
When every circuit trace shares one face, component placement, jumper strategy and return paths compete for the same space. DFM decides whether the one-layer choice remains simpler after holes, assembly, clearances and mechanical constraints are included.
Orient parts and connectors so critical nets can route without avoidable crossings.
Count, locate and document crossings instead of adding them late in assembly.
Release geometry from current, voltage, soldering and process needs.
Separate PTH / NPTH intent, finished size, outline and fixture constraints.
Move to two layers when jumper count, density or return paths erase the one-layer benefit.
KiCad and Proteus operating tutorials belong in Resources; this commercial page covers manufacturing DFM.
Review PCB Design SupportSingle-Sided PCB Applications
Single-layer construction fits stable, lower-density circuits when routing, current paths, jumpers and assembly stay clear. Use the four patterns below to screen the fit, then let the actual schematic, placement and lifecycle requirements decide.
A good fit when connectors, switches, indicators and control nets can route clearly on one face.
Fit signal: low density + stable I/O
Possible when copper geometry, clearances and thermal conditions can be resolved without dense crossings.
Fit signal: simple topology + defined current path
Useful for mature, cost-sensitive functions whose component mix and assembly route remain compatible with one copper side.
Fit signal: repeat volume + low circuit complexity
Works when visual, switch or lighting circuits can preserve copper width, spacing and mechanical alignment on one layer.
Fit signal: repeated geometry + simple interconnect
Single-Sided PCB Quality Control
One circuit side reduces layer-to-layer complexity, not the need for control. Material identity, copper image, holes, dimensions, finish and every electrical net still need evidence tied to the released revision.
Laminate, copper and revision match the traveler.
Opens, shorts, geometry, pads and mask registration reviewed.
PTH / NPTH intent, finished size and critical dimensions checked.
Continuity and isolation verified against released net data.
Surface, marking, documents and packing closed to order.
Why Choose Us as Your Single-Sided PCB Manufacturer
A low-cost board becomes expensive when unclear materials, jumpers, holes or panelization create line stops and repeat-order changes. Engineering review and revision control keep the simple construction predictable from first sample through volume production.
Copper geometry, jumpers, holes, finish and assembly risks are surfaced early.
Samples use the proposed repeatable material and process route.
Approved construction, panel and acceptance inputs stay tied to reorder data.
Single-Sided PCB Case Studies
A useful single-layer example shows why one side was sufficient and records the material, copper, jumpers, holes, quantity and quality result. Until customer-authorized records are available, the evidence fields remain visible as “待补充”.
待补充：application、material、thickness、copper、jumper count、holes、finish、quantity、test and measurable result。
待补充
待补充
待补充
待补充：application、current requirement、material、copper、clearance、hole / outline、quantity、inspection evidence and result。
待补充
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Get a Single-Sided PCB Quote
A one-layer price changes when the material, thickness, copper, holes, finish, panel, quantity or schedule changes. Answer the four questions below so the quote reflects the same construction you intend to approve.
Frequently Asked Questions About Single-Sided PCB
Choose one copper layer only when it keeps routing, assembly and mechanical requirements clear. Open the relevant question to check the construction, layer-count and thickness decision before DFM.
What Is a Single-Layer PCB?
A single-layer PCB has patterned circuit copper on one side of a dielectric base. Components may be installed according to the approved assembly design, but all routed circuit copper remains on the same face; jumpers may cross nets when the layout needs them.
Single-Sided vs Double-Sided PCB
Choose single-sided when one copper face can complete the routing with a practical jumper and assembly strategy. Choose double-sided when the design needs copper on both faces and plated interconnection for more routing flexibility.
- Decision
- Single-Sided PCB
- Double-Sided PCB
- Conductor layers
- One circuit copper side
- Two circuit copper sides
- Interconnection
- No layer-to-layer via requirement
- PTH / vias connect selected features
- Routing density
- Lowest; crossings may require jumpers
- More routing and placement flexibility
- Cost decision
- Simpler route when the design truly fits
- Added process justified by routing / assembly needs