GITNUXSOFTWARE ADVICE
Manufacturing EngineeringTop 10 Best Electronics Circuit Simulation Software of 2026
Ranked roundup of electronics circuit simulation software tools with criteria and tradeoffs for electronics students and engineers, including Proteus.
How we ranked these tools
Vendors set the topic, but our editors set the inclusion criteria and the evaluation framework before research starts.
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Framework: Features 40% · Ease 30% · Value 30%
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GeckoCIRCUITS is the best fit for teams iterating mixed-signal schematics with repeatable, parameterized simulation runs, while Proteus Design Suite suits schematic-centered mixed-signal verification with interactive waveform debugging, and if you want quick browser feedback for small analog schematics, Falstad Circuit Simulator is the budget pick.
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
GeckoCIRCUITS
Configuration-driven automation that reuses schematic-to-netlist settings across parameter sweeps.
Best for: Fits when teams iterate mixed-signal schematics with repeatable, parameterized simulation runs.
Proteus Design Suite
Editor pickIntegrated mixed-signal simulation workflow that stays anchored to schematic capture and device behavior.
Best for: Fits when teams need schematic-centered mixed-signal verification with interactive waveform debugging.
Falstad Circuit Simulator
Editor pickReal-time circuit edits drive updated results without a separate simulation project workflow.
Best for: Fits when small analog schematics need fast simulation feedback for learning and debugging.
Comparison Table
GeckoCIRCUITS
vertical specialistPower electronics circuit simulator for fast and accurate simulation.
Configuration-driven automation that reuses schematic-to-netlist settings across parameter sweeps.
GeckoCIRCUITS takes a schematic into a simulation-ready netlist workflow and then executes SPICE-style analyses for analog circuits. It supports transient analysis and parameterized runs so designers can compare outcomes across component values, not just a single operating point. Mixed-signal workflows are practical when models and interfaces are defined consistently across analog and digital boundaries.
A key tradeoff is that large-scale mixed-signal projects need careful model hygiene to avoid convergence issues during transient runs. The strongest usage situation is iterative schematic refinement where the same configuration is re-run many times for sensitivity checks and behavior validation.
- +Repeatable simulation runs from schematic-linked configurations
- +Strong mixed-signal workflow when models share consistent interfaces
- +Parameter-driven iterations for design-of-experiments style checking
- +Clear convergence tuning controls for transient behavior debugging
- –Convergence sensitivity increases with complex non-linear networks
- –Large schematic projects can slow down iteration cycles
Analog design engineers
Transient validation of non-linear subcircuits
Shorter debug loop
Mixed-signal verification engineers
Model-to-interface consistency checks
Fewer interface regressions
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Lab automation teams
Batch runs for sensitivity analysis
Higher throughput analysis
Automate many simulation configurations to map sensitivity without manual reconfiguration between runs.
Best for: Fits when teams iterate mixed-signal schematics with repeatable, parameterized simulation runs.
Proteus Design Suite
enterpriseSchematic capture and SPICE circuit simulation with PCB layout.
Integrated mixed-signal simulation workflow that stays anchored to schematic capture and device behavior.
Proteus Design Suite combines schematic capture with simulation runs that can include analog circuits, digital logic, and mixed-signal blocks in one environment. It is commonly used to inspect waveforms, verify control sequencing, and debug interface assumptions such as logic thresholds, timing relationships, and bus connectivity. For teams that iterate on schematics, it keeps changes close to the simulation setup so that test scenarios can be regenerated quickly.
A tradeoff is that Proteus simulation accuracy and convergence behavior depend heavily on the quality of the imported models and the consistency of how interfaces are represented. It fits best when a project has practical component models already available, or when the team can author and validate custom models for the specific analog and mixed-signal interfaces being studied. It is less ideal for teams that require a strictly text-first netlist and scripting-heavy verification flow without a schematic-centric workflow.
- +Mixed-signal workflow links schematic edits directly to behavioral checks
- +Waveform debugging supports fast iteration on timing and interface assumptions
- +Library-based device modeling reduces effort for common digital control patterns
- +Project-level organization keeps simulation setups near the schematics
- –Model quality strongly affects convergence and match to bench results
- –Automation via scripting and integration is less direct than netlist-first flows
- –Large mixed-signal projects can slow down when many events are modeled
- –Some advanced analysis tasks can require extra setup effort
Embedded electronics engineers
Debug analog front-end control loops
Fewer bench reruns
Hardware validation teams
Run pre-layout interface sanity checks
Earlier defect detection
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Small design teams
Iterate schematics with waveform tracing
Shorter iteration cycles
Modify schematics and re-run scenarios while inspecting key waveforms in the same project context.
Best for: Fits when teams need schematic-centered mixed-signal verification with interactive waveform debugging.
Falstad Circuit Simulator
open-sourceFree browser-based analog circuit simulator with interactive visualization.
Real-time circuit edits drive updated results without a separate simulation project workflow.
Falstad Circuit Simulator provides a drag-and-drop schematic canvas and a built-in simulation loop that updates results as the circuit changes. Simulations include common operating and frequency-domain views and generate readable waveforms tied directly to component terminals. The interface keeps net connectivity visible, which reduces time spent reconciling errors between a schematic and a results panel.
A key tradeoff is limited coverage of advanced simulation and model ecosystems compared with heavyweight SPICE environments and commercial mixed-signal suites. Falstad Circuit Simulator works best when the circuit stays within its supported component set and when quick iteration matters more than deep device physics. It is a strong fit for educational labs, design-by-observation debugging, and pre-commit checks on small analog blocks.
- +Browser-based schematic editing with immediate waveform updates
- +Clear terminal-centric visualization for quick node debugging
- +Straightforward parameter tweaking for iterative what-if checks
- +Good for small analog experiments and educational exercises
- –Limited mixed-signal coverage and fewer advanced device models
- –Convergence sensitivity can require manual simplification
Electronics students
Validate filter behavior from drawings
Fewer misconceptions, faster learning
Analog engineers
Debug node-level issues quickly
Shorter troubleshooting cycles
Show 1 more scenario
Test and verification teams
Sanity-check small blocks pre-integration
Lower integration risk
Teams run quick checks on small circuit fragments before moving to heavier simulation or lab setups.
Best for: Fits when small analog schematics need fast simulation feedback for learning and debugging.
PSpice
enterpriseCircuit simulation software for analog and mixed-signal design by Cadence.
Cadence flow integration that preserves consistent simulation settings and data handoff across team projects.
PSpice from Cadence is an electronics circuit simulation tool centered on classic netlist-driven SPICE workflows. It supports schematic capture linked to simulation runs for DC operating point, AC sweep, and transient analysis, with common device models such as BJT and MOSFET variants.
- +Tight schematic-to-simulation loop for DC operating point and AC sweep workflows
- +Strong convergence controls for challenging transistor-level circuits
- +Mature SPICE model coverage for BJT and MOSFET-based designs
- +Cadence ecosystem integration fits teams with existing EDA governance
- –Mixed-signal simulation often needs careful partitioning and model discipline
- –Throughput drops on large hierarchical netlists without tuning and staging
- –Some advanced analyses demand deeper SPICE familiarity to configure
- –Automation and API integration can lag modern mixed-signal verification flows
Best for: Fits when design teams already run SPICE-centric analog simulations and need dependable schematic-linked iterations.
TINA Design Suite
SMBCircuit simulation and PCB design software for analog, digital and mixed-signal circuits.
Interactive schematic-to-simulation workflow with detailed solver tuning controls, including convergence tolerance and timestep selection.
TINA Design Suite runs SPICE-based circuit simulation with schematic capture for analog and mixed-signal workflows in one authoring environment. It supports transient analysis, AC sweep, and DC operating point with control over solver behavior such as convergence tolerance and timestep selection.
- +Schematic capture stays tightly coupled to simulation runs
- +Solver controls include convergence tolerance and timestep behavior
- +Mixed-signal capability covers common analog plus digital interfacing
- +Repeatable workflows via netlist and model reuse
- –Automation depth and API surface are limited versus simulation platforms
- –Advanced research analyses like harmonic balance are not central for every workflow
- –Model interchange depends heavily on supported device formats
- –Large hierarchical designs can feel slower to iterate
Best for: Fits when teams need interactive schematic-driven SPICE simulation with practical mixed-signal modeling, not custom toolchain automation.
LTspice
enterpriseSPICE-based electronic circuit simulator from Analog Devices.
Native schematic-to-netlist editing with measurements embedded in the simulation netlist workflow.
LTspice from analog.com is a SPICE-based analog simulator that pairs schematics with a native netlist workflow for iterative circuit development. It supports transient analysis, AC sweep, and DC operating point studies for common analog debug loops.
- +Fast local simulations driven directly by editable schematic and netlist text
- +Strong device model coverage for analog primitives like MOSFET and BJT
- +Transmission line modeling supports distributed effects without external tools
- +Good instrumentation using probes and measurement directives inside the netlist
- –Automation and API access are limited versus design platforms with built-in services
- –Mixed-signal workflows often depend on external scripting or model co-simulation
Best for: Fits when engineers need tight schematic-to-netlist iteration for analog circuits and measurements.
KiCad
open-sourceOpen-source EDA suite with schematic capture, SPICE simulation and PCB layout.
SPICE netlist generation that reuses KiCad connectivity and component references across capture and PCB design.
KiCad differentiates itself from category alternatives by pairing schematic capture and PCB layout with SPICE netlist generation.
- +Tight linkage between schematic, symbols, and PCB connectivity
- +SPICE netlist generation keeps component and node naming consistent
- +Reusable subcircuit macromodels support library-based design iteration
- +Works well for teams that manage layout and simulation in one project
- –Simulation capability depends heavily on external engines and add-ons
- –Mixed-signal workflows need careful model and stimulus preparation
- –Advanced analysis coverage varies by the selected SPICE implementation
- –Convergence tuning often requires manual control of solver parameters
Best for: Fits when schematic-to-layout consistency matters more than built-in mixed-signal breadth.
EveryCircuit
SMBInteractive circuit simulator with animated current flow for mobile and web.
Drag-and-drop node probing with animated waveforms tied to the schematic view.
EveryCircuit is a browser-based electronics circuit simulation tool that pairs schematic-like building with interactive, animated signal behavior. It is designed for quick what-if iteration on analog circuits, where probes can be dragged onto nodes to visualize voltages and currents over time.
- +Interactive node probing shows waveforms as immediate visual feedback
- +Browser execution reduces setup steps compared with local SPICE installs
- +Rapid edit-and-simulate loop supports iterative analog tuning
- +Device library workflows fit common BJT and MOSFET learning tasks
- –Netlist-level control is limited compared with SPICE-first toolchains
- –Convergence knobs like transient step control are not exposed at SPICE depth
- –Advanced analysis coverage such as Monte Carlo requires workarounds
- –Large designs can become slow to simulate in the interactive view
Best for: Fits when designers need quick, visual feedback on analog schematics without deep SPICE tuning or automation.
CircuitVerse
open-sourceOpen-source digital logic circuit simulator running in the browser.
Interactive, shareable browser circuits that couple schematic edits with immediate simulation plots.
CircuitVerse provides a browser-based workflow for schematic capture and interactive circuit simulation, geared toward teaching and rapid experimentation. The tool focuses on SPICE-style analysis of drawn circuits, including time-domain and frequency-domain behaviors for common analog and digital components.
- +Browser-based schematic capture reduces simulator setup friction
- +Time-domain and frequency-domain plots update from the same schematic
- +Circuit sharing supports collaboration on a specific circuit state
- +Digital component building blocks support mixed-signal style workflows
- –Advanced SPICE control tuning is limited versus full desktop simulators
- –Model fidelity depends on what component models exist for a given device
- –Large netlists can feel constrained by web runtime performance
- –Automation depth for batch runs and CI is thin without add-on tooling
Best for: Fits when teams need quick schematic-to-plot iteration and shareable simulation states without local installs.
EasyEDA
SMBWeb-based EDA tool with schematic capture, SPICE simulation and PCB layout.
Direct schematic-to-netlist simulation workflow inside a single web project, linking edits to results without manual netlist rework.
EasyEDA focuses on schematic capture, board-oriented editing, and SPICE-based circuit simulation from the same web workspace. It generates netlists from schematic symbols and wiring, then runs analyses such as DC operating point, AC sweep, and transient analysis inside its simulation flow.
- +SPICE netlists are generated directly from the schematic wiring
- +AC sweep and transient analysis are usable from the same editing flow
- +Symbol and footprint libraries support quick reuse during iteration
- +Web-based project sharing reduces friction across distributed reviewers
- –Advanced mixed-signal workflows and co-simulation integrations are limited
- –Deep SPICE control and convergence tuning are less granular than desktop simulators
- –Large, component-heavy designs can hit responsiveness limits in-browser
- –Model interoperability beyond the built-in library set requires extra manual work
Best for: Fits when circuit teams need web schematic capture plus basic-to-intermediate SPICE analysis tied to library assets.
Conclusion
After evaluating 10 electronics circuit simulation software, GeckoCIRCUITS 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.
Use the comparison table and detailed reviews above to validate the fit against your own requirements before committing to a tool.
How to Choose the Right Electronics Circuit Simulation Software
Electronics circuit simulation software supports schematic-linked simulation workflows for SPICE-style analog analysis and mixed-signal verification in the same design loop. This guide covers GeckoCIRCUITS, Proteus Design Suite, and Qucs-adjacent alternatives through tool cards for desktop and browser execution paths.
GeckoCIRCUITS emphasizes configuration-driven automation that reuses schematic-to-netlist settings across parameter sweeps. Proteus Design Suite keeps mixed-signal work anchored to schematic capture and device behavior with interactive waveform debugging. The included lineup also covers Falstad Circuit Simulator, PSpice, TINA Design Suite, LTspice, KiCad, EveryCircuit, CircuitVerse, and EasyEDA for teams with different throughput, model coverage, and iteration styles.
Electronics Circuit Simulation Software for schematic-linked SPICE, mixed-signal, and mixed-iteration design workflows
Electronics circuit simulation software converts schematic connectivity into simulator-ready netlists and then runs analysis types such as DC operating point and AC sweep for analog correctness, plus mixed-signal simulation for timing and interface behavior. Many tools also generate and execute measurements directly from the design artifacts to keep probe points aligned with wiring changes.
GeckoCIRCUITS focuses on configuration-driven automation that reuses schematic-to-netlist settings across parameter sweeps, which is a practical fit for teams running repeated simulations on shared model interfaces. Proteus Design Suite stays schematic-centered for mixed-signal verification by linking schematic edits to behavioral checks and waveform debugging during iteration cycles.
Core capabilities that decide electronics circuit simulation outcomes
A circuit simulator must keep schematic edits and simulator behavior aligned through a controlled schematic-to-netlist path. That alignment determines whether DC operating point results, AC sweep plots, and timing checks stay consistent across iterations.
Mixed-signal workflows add extra risk because model quality, interface timing, and stimulus partitioning can drive convergence failures. Tools with configuration-driven automation or tight schematic-linked debugging reduce rework when the design changes frequently.
Configuration-driven automation for parameterized runs
GeckoCIRCUITS reuses schematic-to-netlist settings across parameter sweeps via configuration-driven automation. TINA Design Suite stays interactive on solver tuning, which suits manual iterations rather than repeatable sweep automation.
Mixed-signal verification anchored to schematic edits
Proteus Design Suite links schematic edits directly to behavioral checks and waveform debugging for timing and interface assumptions. GeckoCIRCUITS can be strong for mixed-signal workflows when models expose consistent interfaces, but convergence sensitivity can increase in complex non-linear networks.
Iteration speed from in-browser editing and immediate plots
Falstad Circuit Simulator updates waveforms immediately after real-time circuit edits in a browser workflow. CircuitVerse pairs shareable browser circuits with simultaneous time-domain and frequency-domain plots tied to schematic changes.
Schematic-to-simulation loop with team-consistent handoff
PSpice preserves consistent simulation settings and data handoff across team projects while maintaining a tight schematic-linked loop for DC operating point and AC sweep workflows. LTspice emphasizes fast local simulations through native schematic-to-netlist editing with embedded measurements, which can be less focused on cross-team settings governance.
Solver control knobs for convergence and transient behavior
TINA Design Suite exposes solver tuning controls such as convergence tolerance and timestep selection for interactive control during schematic-driven simulation. GeckoCIRCUITS can reuse automation across sweeps, but convergence sensitivity rises as non-linear networks become more complex.
SPICE netlist generation consistency across schematic and PCB connectivity
KiCad generates SPICE netlists that reuse KiCad connectivity and component references across capture and PCB design. EasyEDA provides a direct web schematic-to-netlist simulation workflow, but advanced mixed-signal co-simulation and deeper convergence tuning are limited compared with desktop simulators.
Pick the workflow shape that matches the design loop
The right choice depends on whether the primary loop is parameter sweep automation, schematic-centered mixed-signal debugging, or fast browser feedback for small circuits. Each loop maps to a different simulation setup burden and a different way of controlling convergence and measurement alignment.
Teams should also match tool behavior to their model discipline. Model quality and stimulus partitioning can determine whether mixed-signal results track bench observations or diverge due to convergence and integration differences.
Choose the simulation loop you will run most often
If repeated parameter sweeps are the dominant activity, GeckoCIRCUITS is built around configuration-driven automation that reuses schematic-to-netlist settings across runs. If mixed-signal verification relies on interactive waveform debugging while edits happen in the schematic, Proteus Design Suite stays anchored to schematic and device behavior.
Match control depth to circuit risk level
If transistor-level circuits routinely hit convergence issues, TINA Design Suite offers solver controls such as convergence tolerance and timestep behavior for interactive mitigation. If the workflow targets tight schematic-to-simulation iteration with strong convergence controls, PSpice provides convergence controls while keeping DC operating point and AC sweep workflows tied to schematic settings.
Decide between desktop integration and browser iteration
If local editing speed and measurement embedding in the netlist workflow matters, LTspice supports native schematic-to-netlist editing and fast local simulations with embedded measurements. If the priority is shareable browser circuits with immediate plots, CircuitVerse and Falstad Circuit Simulator provide browser-based schematic capture with live waveform updates.
Verify mixed-signal coverage beyond the “it runs” threshold
If the design includes mixed-signal interfaces, Proteus Design Suite’s behavioral debugging is directly tied to schematic edits and waveform checks. If the project relies on mixed-signal but automation and API surface must be repeatable across sweeps, GeckoCIRCUITS can fit when models share consistent interfaces, even though convergence sensitivity increases with complex non-linear networks.
Check how the tool handles netlist consistency with the rest of the design
If schematic-to-layout naming consistency drives downstream work, KiCad reuses connectivity and component references so SPICE netlist generation preserves node and component naming. If the design stays web-based and library asset workflows matter, EasyEDA generates SPICE netlists directly from schematic wiring while keeping AC sweep and transient analysis in the same editing flow.
Who benefits from these electronics circuit simulation workflows
Electronics circuit simulation software decisions land differently based on whether the team runs parameterized experiments, focuses on mixed-signal verification, or needs quick iteration and sharing without installs. The tools in this guide support those workflows with different schematic-to-netlist and plotting behaviors.
Model discipline also matters. Convergence results depend on how device models and interface stimuli are authored and applied during mixed-signal runs.
Analog and mixed-signal teams running repeatable parameter sweeps
GeckoCIRCUITS fits teams that reuse schematic-to-netlist settings across parameter sweeps and need repeatable runs tied to shared model interfaces. The configuration-driven automation reduces rework when only parameters change between iterations.
Designers who debug mixed-signal timing through schematic-linked waveforms
Proteus Design Suite suits teams that verify behavioral interfaces by linking schematic edits to waveform debugging. The workflow keeps mixed-signal verification anchored to the schematic and device behavior for faster timing iteration.
Engineers and educators who need fast feedback on small circuits in the browser
Falstad Circuit Simulator supports real-time circuit edits with immediate waveform updates, which shortens the loop for learning and debugging. CircuitVerse provides interactive plots and shareable simulation states without local install friction.
Organizations with existing SPICE-centric analog simulation habits
PSpice suits teams that already run SPICE-centric analog simulations and need dependable schematic-linked iterations with data handoff consistency. LTspice supports engineers who want fast local simulations driven directly by editable schematic and netlist text.
Teams aligning schematic connectivity with PCB design references
KiCad benefits teams that require schematic-to-layout consistency for node and component naming. Simulation depends on external engines, but the SPICE netlist generation keeps wiring identity aligned across capture and PCB connectivity.
Common buying and rollout mistakes for circuit simulation tools
Many failures come from mismatch between the design loop and the tool workflow. A simulator can be technically capable but still slow a team down if automation, convergence control, or schematic-linked measurement alignment do not match real usage.
Mixed-signal projects add failure modes because model quality and stimulus partitioning can dominate results. Selecting a tool without checking those behaviors often leads to time spent on model repair rather than design iteration.
Choosing a browser-first tool when the project needs deep mixed-signal control and convergence tuning
EveryCircuit and CircuitVerse provide immediate visual feedback, but advanced SPICE control tuning is limited compared with full desktop simulators. For mixed-signal verification where waveform debugging and convergence control matter, Proteus Design Suite or PSpice better match the workflow.
Assuming mixed-signal results will match bench observations without model quality checks
Proteus Design Suite notes that model quality strongly affects convergence and match to bench results. GeckoCIRCUITS can drive repeatable mixed-signal workflows when models share consistent interfaces, but convergence sensitivity increases in complex non-linear networks.
Relying on tool-level automation when the work is actually netlist-first and staging-heavy
PSpice throughput drops on large hierarchical netlists without tuning and staging, which can negate automation benefits. LTspice is optimized for fast local simulations with editable schematic and netlist text, which can avoid staging bottlenecks when the scope stays manageable.
Underestimating the impact of schematic-to-simulation settings consistency across a team
PSpice preserves consistent simulation settings and data handoff across team projects, which prevents silent drift between contributors. LTspice emphasizes local setup speed rather than cross-team settings governance, so shared consistency can require disciplined project setup.
Buying a schematic capture tool for simulation features without checking external engine dependencies
KiCad’s simulation capability depends heavily on external engines and add-ons, so mixed-signal depth is not guaranteed by the capture environment alone. EasyEDA supports direct schematic-to-netlist simulation in a single web project, but deep mixed-signal co-simulation integrations and convergence tuning are less granular than desktop simulators.
How We Selected and Ranked These Tools
We evaluated GeckoCIRCUITS, Proteus Design Suite, Falstad Circuit Simulator, PSpice, TINA Design Suite, LTspice, KiCad, EveryCircuit, CircuitVerse, and EasyEDA using feature depth at 40%, ease of achieving correct schematic-linked results at 30%, and value for the dominant workflow at 30%. The ranking prioritized configuration-driven automation that reuses schematic-to-netlist settings across parameter sweeps, because GeckoCIRCUITS ties repeatability directly to the design loop.
GeckoCIRCUITS also scored highest for workflow fit when mixed-signal models share consistent interfaces, which reduces rework across iterative runs. Proteus Design Suite ranked high because mixed-signal verification stays anchored to schematic edits with waveform debugging, while desktop SPICE tools ranked based on schematic-linked iteration speed and convergence control.
Frequently Asked Questions About Electronics Circuit Simulation Software
Which tool is most automation-friendly for repeated schematic-to-netlist simulation runs?
How does Proteus differ from GeckoCIRCUITS when the design loop depends on interactive debugging?
When does LTspice become a better fit than KiCad-based simulation setups?
What breaks if a team needs mixed-signal system integration beyond component-level modeling in a browser tool?
How does Falstad support iteration when a workflow requires instant visual feedback?
Which tool offers the most direct linkage between schematic changes and SPICE analyses like DC operating point and transient analysis?
Where does Qucs fall short compared with Proteus for timing-oriented mixed-signal debug?
How should model and convergence settings be handled when simulations fail to converge?
Which workflow supports shareable simulation states without requiring local simulator installation?
Tools reviewed
Primary sources checked during evaluation.
Referenced in the comparison table and product reviews above.
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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