Commissioned Research
Top 8 Best Perfboard Layout Software of 2026

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Manufacturing Engineering

Top 8 Best Perfboard Layout Software of 2026

Compare perfboard layout software options with practical layout and workflow notes for makers deciding between Fritzing, EasyEDA, and KiCad.

18 min readUpdated Editorially scoped research
How we ranked these tools
01Editorial Scope

Vendors set the topic, but our editors set the inclusion criteria and the evaluation framework before research starts.

02Source Research

Search agents gather the source set and the review record, including transcriptions of video reviews and podcasts.

Read our full methodology →

Framework: Features 40% · Ease 30% · Value 30%

Gitnux may earn a commission through links on this page — this does not influence rankings. Editorial policy

Perfboard layout software turns a schematic or netlist into cut-length wiring plans with repeatable drill and bend locations for rapid prototyping. This comparison helps technical evaluators weigh how browser or desktop tools handle integration with schematics, netlist import, and simulation loops, including how tools like EasyEDA and KiCad fit into a repeatable electronics workflow.

Fritzing is the best choice for makers who want small-to-mid through-hole prototypes documented without losing wiring context, since its linked breadboard, schematic, and perfboard views stay consistent while you place parts, whereas Tembrica Perfboard Simulator fits teams needing solder-side centric layout control and drill output.

Editor’s top 3 picks

Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.

Editor pick
1

Fritzing

Fritzing’s multi-view linking connects breadboard wiring to the perfboard layout without a separate CAD workflow.

Best for: Fits when small-to-mid through-hole prototypes need visual placement and quick perfboard documentation.

2

EasyEDA

Editor pick

Schematic-to-board transfer with net awareness that carries placement constraints into the board editor.

Best for: Fits when perfboard or through-hole prototypes need consistent exports and net-aware placement without EDA scripting.

3

KiCad

Editor pick

Schematic-to-board transfer plus board-level DRC catches net and clearance issues even when targeting perfboard-style hole patterns.

Best for: Fits when schematic-driven builds need net-checked, export-ready through-hole layouts using custom footprints.

Comparison Table

1
FritzingBest overall
SMB alternative
9.0/10
Overall
2
SMB alternative
8.7/10
Overall
3
SMB alternative
8.6/10
Overall
4
vertical specialist
8.3/10
Overall
5
vertical specialist
8.2/10
Overall
6
vertical specialist
7.8/10
Overall
7
vertical specialist
7.4/10
Overall
8
vertical specialist
7.1/10
Overall
#1

Fritzing

SMB alternative

Fritzing documents circuits with breadboard, schematic, and PCB design views.

9.0/10
Overall
Features9.0/10
Ease of Use9.0/10
Value9.0/10
Standout feature

Fritzing’s multi-view linking connects breadboard wiring to the perfboard layout without a separate CAD workflow.

Fritzing is a visual electronics editor that turns breadboard and schematic-style views into a shared board layout workflow. It supports a through-hole component library with pin and footprint mapping, plus a solder-side and component-side view for verification.

Its layout focuses on hand placement with hole-grid alignment and copper strip routing for perfboard and stripboard-style builds. Fritzing also handles wire-link routing and exports fabrication artifacts like drill files and component placements, with limited EDA-grade design-rule checking compared with professional CAD tools.

Pros
  • +View linking keeps schematic, breadboard, and perfboard layouts consistent
  • +Component library supports many common through-hole parts and DIP packages
  • +Exports drill files and placement data for assembly templates
  • +Wire-link routing makes jumper annotations readable in the layout
Cons
  • –Design-rule checking for clearance and track interruption is limited
  • –Netlist-to-board workflows are weaker than in EDA CAD suites
  • –Large boards become slow compared with text-driven CAD editors
  • –Custom footprints and radial lead geometry need careful manual tuning
Use scenarios
  • makers and electronics hobbyists

    Plan perfboard and stripboard builds

    Repeatable assembly map

  • makers and small hardware teams

    Convert breadboard prototypes into boards

    Prototype board layout

Show 2 more scenarios
  • teachers and classroom labs

    Teach circuit connections with board views

    Learners connect concepts

    Use breadboard-first editing to connect schematic concepts with physical wiring and layout views.

  • hardware freelancers and prototype developers

    Prepare fabrication-ready drill outputs

    Basic manufacturing files

    Export fabrication artifacts like drill files and component placement for hands-on manufacturing follow-through.

Best for: Fits when small-to-mid through-hole prototypes need visual placement and quick perfboard documentation.

#2

EasyEDA

SMB alternative

EasyEDA provides browser-based schematic capture and PCB layout tools.

8.7/10
Overall
Features8.7/10
Ease of Use8.7/10
Value8.7/10
Standout feature

Schematic-to-board transfer with net awareness that carries placement constraints into the board editor.

EasyEDA converts perfboard and through-hole layouts into publish-ready outputs by combining a board canvas with a component and footprint library workflow. The editor includes hole-grid alignment tools, solder-side and component-side views, and Gerber export for fabrication workflows that include drill patterns.

It also supports a schematic-to-board transfer flow for net-aware placement and routing guidance. For perfboard-style routing, it emphasizes copper track placement and interruption handling so trace breaks and jumper alternatives stay explicit.

Pros
  • +Solder-side and component-side rendering keeps through-hole routing unambiguous
  • +Hole-grid alignment tools speed perfboard placement and repeatable drill patterns
  • +Gerber and drill outputs fit standard fabrication pipelines without extra conversion steps
  • +Net-aware schematic-to-board transfer reduces manual pin-to-pad mistakes
Cons
  • –Perfboard-style strip routing often needs manual track interruption placement
  • –Library footprints require careful verification for radial lead and axial lead parts
Use scenarios
  • students and electronics hobbyists

    Learn schematic to board workflows

    Practice moving to PCB

  • analog electronics designers

    Design analog boards with layout iteration

    Analog design connected

Show 2 more scenarios
  • electronics learners and LED designers

    Capture and route LED circuits

    Checked LED layout

    Simulate LED circuits, then transfer suitable designs into PCB layout for routing.

  • hardware designers and small product teams

    Prototype a PCB with exports

    Handoff package for prototyping

    Develop a schematic, assign footprints, place and route a board, then generate fabrication files.

Best for: Fits when perfboard or through-hole prototypes need consistent exports and net-aware placement without EDA scripting.

#3

KiCad

SMB alternative

KiCad provides open-source schematic capture and PCB layout software.

8.6/10
Overall
Features8.6/10
Ease of Use8.6/10
Value8.6/10
Standout feature

Schematic-to-board transfer plus board-level DRC catches net and clearance issues even when targeting perfboard-style hole patterns.

KiCad is a schematic-to-PCB design suite that can also serve as a perfboard layout editor workflow through custom footprints and board drawings. Its core strength for perfboard use is the strong rules and export pipeline around a board file, including drill and fabrication outputs for through-hole hardware.

KiCad’s data model ties footprints, pads, and nets together, which makes schematic-to-board transfers and net consistency checks practical for perfboard-style layouts. The tradeoff versus dedicated perfboard editors is that pad-to-hole mapping and strip-cut style routing are not the primary interaction model, so wire-link and copper-strip workflows take more manual setup.

Pros
  • +Board-level net consistency links footprints, pads, and connections across edits
  • +Drill and assembly outputs align well with through-hole perf and mounting holes
  • +Schematic-to-board transfer supports pin numbering and net naming continuity
  • +Footprint editing enables adapting library packages to perf hole grids
Cons
  • –Copper-strip routing and track interruption mechanics are not perfboard-first
  • –Wire-link routing needs manual placement for annotation and jumper labeling clarity
  • –Managing hole-grid alignment often requires careful custom footprint configuration
  • –Perfboard assembly templates are indirect compared with dedicated stripboard tools
Use scenarios
  • hardware engineers and electronics designers

    Create a PCB-ready perfboard workflow

    Checked manufacturing-ready design

  • hardware engineers and design reviewers

    Validate connectivity for through-hole layouts

    Fewer layout mistakes

Show 2 more scenarios
  • small engineering teams and educators

    Standardize reusable component footprints

    More consistent components

    Maintain symbols and footprints for repeated through-hole components across multiple perfboard-style layouts.

  • collaborating hardware developers

    Iterate perfboard-style files with revisions

    Auditable design revisions

    Store local project files and manage revisions through version-control-oriented workflows.

Best for: Fits when schematic-driven builds need net-checked, export-ready through-hole layouts using custom footprints.

#4

Tembrica Perfboard Simulator

vertical specialist

Online perfboard and stripboard layout tool with DC circuit simulation and netlist import from KiCad or EasyEDA.

8.3/10
Overall
Features8.3/10
Ease of Use8.3/10
Value8.3/10
Standout feature

A solder-side centric layout workflow that ties copper strip routing and drill outputs to component placement decisions.

Tembrica Perfboard Simulator is built around a perfboard layout editor workflow that keeps component placement aligned to a hole-grid and supports copper strip routing with track interruptions. It includes board outline handling and mounting hole placement so mechanical boundaries and drill patterns can be reviewed in the same working context. A library-driven placement flow helps standardize axial and radial component footprints without requiring manual pin-by-pin reconstruction.

Pros
  • +Hole-grid aligned placement reduces manual misalignment during layout edits.
  • +Copper strip routing tools support track interruption workflows.
  • +Solder-side assembly view supports practical build verification.
  • +Drill pattern and assembly-oriented exports support fabrication handoff.
Cons
  • –No full schematic to board workflow for netlist import and transfer.
  • –Design rule checking for clearance validation is limited compared with EDA tools.
  • –Component footprint customization requires extra manual steps for edge cases.
  • –Inter-board automation like bulk renumbering is slower than text-first editors.
Use scenarios
  • Electronics prototyping engineers

    Perfboard builds needing assembly verification

    Fewer rework cycles on prototypes

  • Hardware contractors

    Repeatable drill patterns per revision

    Faster turnaround across revisions

Show 2 more scenarios
  • Small teams without EDA admin

    Layout documentation for handoff

    Clearer build handoff

    Generate solder-side views and component placement documentation for technicians and builders.

  • Education labs

    Teaching through-hole routing concepts

    More consistent student outcomes

    Practice copper strip routing and track interruption decisions using a visual perfboard editor.

Best for: Fits when perfboard teams need visual layout control, solder-side review, and drill outputs without schematic automation.

#5

PerfBoard

vertical specialist

Free browser-based perfboard layout tool for planning wire routing with exact cut lengths and bend points.

8.2/10
Overall
Features8.2/10
Ease of Use8.2/10
Value8.2/10
Standout feature

Solder-side wire-link routing plus track interruption modeling stays consistent with the printed assembly template.

PerfBoard is designed around the perfboard layout editor workflow, so routing follows the hole-grid and copper strip constraints rather than generic vector drawing. Component placement includes axial and radial lead footprints, and orientation plus pin numbering stay tied to the placement so assembly instructions match the layout. The solder-side view supports track interruption and solder-side wire-link routing, which reduces ambiguity when rerouting around component bodies.

Pros
  • +Solder-side and component-side views match the assembly workflow
  • +Hole-grid routing keeps copper strip paths aligned during edits
  • +Printable assembly templates reduce interpretation during hand assembly
  • +Export includes Gerber and drill outputs for fabrication handoff
Cons
  • –Netlist import and automated clearance validation are limited for layout-only use
  • –Routing around dense parts can require more manual placements and reroutes
Use scenarios
  • Electronics prototyping engineers

    Finalize perfboard routing for builds

    Fewer assembly mistakes

  • Small hardware teams

    Iterate component placement quickly

    Faster layout iteration

Show 1 more scenario
  • Contract manufacturers

    Prepare drill and Gerber files

    Less fabrication rework

    Drill outputs and Gerber exports support straightforward fabrication planning and quoting.

Best for: Fits when teams need perfboard-accurate routing, assembly templates, and fabrication exports.

#6

VeeCAD

vertical specialist

VeeCAD designs stripboard and prototyping-board layouts from electronic schematics.

7.8/10
Overall
Features7.8/10
Ease of Use7.9/10
Value7.7/10
Standout feature

Track interruption handling built into the strip-style routing workflow reduces mistaken solder-jump gaps.

VeeCAD provides a grid-based perfboard layout editor workflow aimed at through-hole prototyping and solder-side planning.

Pros
  • +Hole-grid placement workflow matches perfboard and stripboard conventions
  • +Track routing supports track interruption and solder-jump planning
  • +Drill file export and assembly template generation for fabrication handoff
  • +Netlist-driven schematic-to-board transfer reduces component remapping work
Cons
  • –Copper strip routing controls feel narrower than full schematic-to-Gerber toolchains
  • –Advanced automation depends on importing data formats rather than built-in scripted flows
  • –Component footprint depth is limited for unusual DIP variants and odd pitch packages
  • –Design rule checks are focused on clearance validation rather than full manufacturing constraints
Use scenarios
  • through-hole prototyping teams

    Layout perfboards on a hole grid

    Solder-side plan

  • prototype builders

    Route strip-style copper with breaks

    Explicit routing breaks

Show 1 more scenario
  • manufacturing handoff coordinators

    Export drill and assembly templates

    Printable stuffing guidance

    Generate drill exports and printable assembly templates mapped to perforated boards.

Best for: Fits when perfboard and stripboard prototypes need grid-accurate layouts plus drill and assembly exports.

#7

LochMaster

vertical specialist

LochMaster creates layouts for perforated boards, stripboards, and related prototype circuits.

7.4/10
Overall
Features7.4/10
Ease of Use7.4/10
Value7.4/10
Standout feature

Track interruption and strip cutting style routing are handled directly in the board drawing for faster board-side rework.

LochMaster is a perfboard layout editor focused on hole-grid placement, routing, and documentation from a solder-side drawing. It supports pad and wire-link style copper routing with explicit track interruption control and a stripboard-style layout workflow for through-hole footprints.

Pros
  • +Hole-grid placement stays consistent for perfboard and stripboard layouts
  • +Track interruption control makes routing edits easier during iterations
  • +Printable assembly templates reduce transcription errors on the bench
  • +Drill pattern export supports fabrication-ready documentation
Cons
  • –Netlist import and schematic-to-board transfer are not part of the core workflow
  • –Fewer governance controls for team review than CAD toolchains
  • –Limited automation surface for batch updates across multiple boards
  • –Library coverage for uncommon footprints can require manual placement
Use scenarios
  • prototype builders

    Place parts and route on perfboard

    Consistent board drawing

  • hardware teams iterating strip layouts

    Control strip interruptions explicitly

    Controlled track breaks

Show 1 more scenario
  • freelance makers and small manufacturers

    Generate drill data and templates

    Manufacturing-ready templates

    Produce drill pattern data and printable templates for assembly reuse and stuffing.

Best for: Fits when single-author through-hole prototypes need accurate perfboard drawings and drill outputs.

#8

Stripboard Editor

vertical specialist

Free web-based stripboard layout editor with built-in schematic editor, auto-layout router, and KiCad netlist export.

7.1/10
Overall
Features7.1/10
Ease of Use7.2/10
Value7.0/10
Standout feature

Solder-side wiring editing that mirrors copper strip behavior, including track interruptions and wire-link routing.

Stripboard Editor is built around a stripboard layout data model, so hole placement, track breaks, and wire-link routing stay consistent as the board evolves. The interface supports both component-side and solder-side work views, which helps when verifying pin numbering and where connections land on the grid. It also provides board outline and mounting-hole placement so the layout can move toward fabrication without manual redraws.

Pros
  • +Copper strip routing and track breaks are first-class editing actions
  • +Component-side and solder-side views reduce pin-to-hole verification errors
  • +Board outline and mounting-hole placement supports realistic board sizing
  • +Printable assembly references align wiring steps with the edited layout
Cons
  • –Schematic-to-board transfer is not the primary workflow model
  • –Advanced automation hooks and programmable exports are limited
Use scenarios
  • Electronics prototyping engineers

    Quick stripboard revision with wiring verification

    Fewer rewiring mistakes

  • Small makerspaces

    Generate drill outputs for builds

    Faster workshop turnaround

Show 1 more scenario
  • Lab technicians

    Printable assembly templates for repeat builds

    More consistent assembly

    Print a wiring reference mapped to the final layout so technicians can follow consistent steps.

Best for: Fits when teams need direct stripboard routing and print-ready wiring references without schematic roundtrip overhead.

Conclusion

After evaluating 8 perfboard layout software, Fritzing stands out as our overall top pick — it scored highest across our combined criteria of features, ease of use, and value, which is why it sits at #1 in the rankings above.

Our Top Pick
Fritzing

Use the comparison table and detailed reviews above to validate the fit against your own requirements before committing to a tool.

Frequently Asked Questions About Perfboard Layout Software

How do perfboard layout outputs differ between PerfBoard, DIY Layout Creator, and Tembrica Perfboard Simulator?
PerfBoard ties solder-side wire-link routing and printable assembly templates to drill and Gerber exports. DIY Layout Creator generates drilling and printable assembly templates from the same grid-accurate layout data, with pin numbering and solder-side planning as the editing focus. Tembrica Perfboard Simulator produces drill and assembly oriented outputs tied to solder-side review rather than schematic automation.
What breaks if a perfboard workflow relies on KiCad’s schematic-to-board pipeline instead of stripboard-style editors?
KiCad supports perfboard-style through-hole layouts via custom footprints, but its primary interaction model is board-file net tying rather than strip cutting and copper-strip routing. PerfBoard and Stripboard Editor keep copper strip behavior and track interruption handling close to the drawing surface, so fewer routing intent mismatches occur during edit-to-export cycles. With KiCad, pad-to-hole mapping for perfboard patterns typically needs more manual setup to preserve the intended wiring model.
When does Fritzing’s multi-view breadboard linkage become a constraint for perfboard documentation?
Fritzing links breadboard wiring to a perfboard layout workflow through multi-view linking, which accelerates iteration from breadboard to layout. That linkage is less suited when a team needs CAD-grade design rule checking beyond limited DRC. Stripboard Editor and PerfBoard emphasize wiring and assembly references derived from the layout itself, so review cycles stay centered on solder-side intent.
Which tool offers stronger solder-side verification during editing: PerfBoard, Stripboard Editor, or VeeCAD?
PerfBoard provides separate component-side and solder-side assembly views so lead placement and routing can be checked before fabrication outputs are generated. Stripboard Editor mirrors solder-side wiring behavior with track interruptions and wire-link routing that stay aligned to the copper-side canvas. VeeCAD supports solder-side and component-side handoff via exported assembly templates, but its editing emphasis is grid placement plus strip-style routing with built-in track interruption handling.
How does netlist-based transfer affect layout correctness in EasyEDA and VeeCAD?
EasyEDA includes a schematic-to-board transfer flow that carries placement constraints and net awareness into the board editor. VeeCAD uses netlist-based transfer plus electronics-style design rule checks to reduce rework when moving from schematic to board. PerfBoard can work as a perfboard-accurate drawing flow without requiring schematic-to-board transfer, so net consistency depends more on layout annotation choices.
How do track interruption and strip cutting behave across LochMaster and Stripboard Editor?
LochMaster handles track interruption and strip cutting directly in the board drawing, which keeps board-side rework fast when a solder jump must change. Stripboard Editor also supports track interruption handling and solder-side wiring view editing that mirrors copper strip behavior. PerfBoard models wire-link routing and track interruption consistently with its printed assembly template, which shifts some validation toward the template generation stage.
Which workflow is better for a grid-accurate single-author perfboard plan: DIY Layout Creator or LochMaster?
DIY Layout Creator is built around a perfboard-first loop where parts placement, pin numbering, and drill planning are performed on a hole grid with linked solder-side and component-side views. LochMaster centers on solder-side drawing with pad and wire-link style copper routing and explicit track interruption control. If the goal is stuffing-focused grid planning with synchronized views, DIY Layout Creator fits better, while LochMaster fits when board-side documentation and drill data are generated from a solder-side drawing.
What integration and API expectations are realistic for perfboard layout editors like KiCad and EasyEDA?
KiCad exposes a board-file data model that supports automation via its scripting ecosystem and file exports like drill outputs that can be processed downstream. EasyEDA supports schematic-to-board transfer and publish-ready outputs like Gerber and drill patterns that can feed standard fabrication toolchains. PerfBoard, DIY Layout Creator, and VeeCAD are more oriented around editor-to-export workflows that do not require external integrations to keep copper routing and assembly templates consistent.
How should teams handle data migration when moving existing perfboard drawings into EasyEDA or KiCad?
EasyEDA can migrate workflow intent through schematic-to-board transfer so nets and placement constraints survive into the board editor, which helps when the source exists as a schematic capture. KiCad migration is typically achieved by recreating through-hole footprints and translating the layout into a board-file structure that ties pads and nets, which is more natural when DRC and net consistency checks are required. PerfBoard and LochMaster migration is usually a drawing-to-layout rewrite because their layouts are centered on hole-grid placement and solder-side wire-link routing rather than a net-tied board data model.

Tools reviewed

Primary sources checked during evaluation.

Referenced in the comparison table and product reviews above.

How to Choose the Right Perfboard Layout Software

We separate perfboard layout software by how reliably it turns your parts and holes into a routable layout, not by menus or visuals. The biggest differentiators are labeled output support, placement accuracy, and howToCheck repeatable layouts after edits.

Export formats for fabrication

Why it matters

Export formats for fabrication determines whether the layout can be reused across typical workflows without manual rework. It also affects how confidently you can print templates or hand off drill data.

How to check

In a demo, create a small board outline with a few components and exports. Confirm you can generate at least a printable assembly template and at least one industry-standard fabrication output format from within the same project.

Hole-grid alignment reliability

Why it matters

Hole-grid alignment reliability is what prevents off-grid placements and wasted prototyping time. It matters most when footprints must land on the board’s hole pitch consistently.

How to check

Start a project using a perfboard/grid setting that matches your target. Place a part, then zoom to show hole-to-pin alignment and export a view used for placement to confirm pin centers line up with the grid.

Footprint library and pin mapping

Why it matters

Footprint library and pin mapping affects how accurately parts land with the right spacing and orientation. If pin-to-hole mapping is off, the layout becomes unreliable even when visuals look right.

How to check

Add two different components from the library or import footprints if available. After placement, switch to a placement view and verify pin numbers and orientation match the intended holes for both parts.

Perfboard-specific routing constraints

Why it matters

Perfboard-specific routing constraints help avoid connections that can’t be reproduced with the strip-and-hole topology. This is where generic PCB tools often require extra cleanup for perfboard work.

How to check

Create a few nets that would normally route around nearby holes. Confirm the software offers perfboard-appropriate routing behavior (for example, hole-to-hole or jumper/wire link placement) and that rerouting after moving a part doesn’t break existing intent.

Stable links after layout edits

Why it matters

Stable links after layout edits keeps nets and annotations from drifting when you move components. This saves time when you iterate through multiple layout revisions.

How to check

Place parts and routes, then move one component and rotate another. Re-check that net connectivity and the displayed wire/jumper links still reference the correct pins and holes in both the placement view and any side views you can export.

Red flags

  • Exports are missing or require manual redraws for drill/print workflows
  • Pin-to-hole alignment looks correct at normal zoom but fails on grid views
  • Moving parts breaks existing routes or swaps pin mapping unexpectedly

Fit by situation

  • If you need to hand off drill/placement artifacts to someone else, prioritize Export formats for fabrication.
  • If your success depends on matching an existing perfboard hole pitch, prioritize Hole-grid alignment reliability.
  • If you expect lots of iteration while reconnecting nets, prioritize Stable links after layout edits.
Commissioned Research

Funding and competing interests

This study was co-funded by several of the vendors assessed in it. No single vendor funded it. Funders could propose the market studied.

They had no role in selecting vendors, setting or weighting criteria, analysing data or drawing conclusions, and they received the same factual-accuracy check as every other vendor assessed.

Market definition, inclusion rules and criteria weights were fixed by an editor before research began and did not change afterwards. Editorial process →

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