Top 7 Best Cw Decoding Software of 2026

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Cybersecurity Information Security

Top 7 Best Cw Decoding Software of 2026

Ranking and review of the top 10 cw decoding software tools for ham radio work, including CyberChef Self-Hosted, Dcode, and CW Skimmer.

27 min readUpdated AI-verified · Expert reviewed
How we ranked these tools
01Feature Verification

Core product claims cross-referenced against official documentation, changelogs, and independent technical reviews.

02Multimedia Review Aggregation

Analyzed video reviews and hundreds of written evaluations to capture real-world user experiences with each tool.

03Synthetic User Modeling

AI persona simulations modeled how different user types would experience each tool across common use cases and workflows.

04Human Editorial Review

Final rankings reviewed and approved by our editorial team with authority to override AI-generated scores based on domain expertise.

Read our full methodology →

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

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

CW decoding software turns live Morse audio or SDR output into structured text for monitoring, logging, and operator review. This ranked list targets scanners who need measurable decoding reliability, fast configuration, and automation friendly workflows, covering approaches from SDR skimmers to audio-only decoders.

MRP40 Morse Decoder is the best pick if you need fast, interactive CW decoding with AGC/AFC and easy speed retuning for real operating, whereas morseformer fits Python tools that just need reliable decoder outputs without a desktop GUI.

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

MRP40 Morse Decoder

Tight coupling between passband tuning and timing behavior gives predictable results for fast retuning.

Built for fits when operators need fast, interactive CW decoding with retuning for speed and tone variance..

2

CW Skimmer

Editor pick

Always-on decode monitoring that couples a live UI with continuous decode capture for active operators.

Built for fits when CW operators need continuous, multi-signal decoding feeding live logging workflows..

3

MixW

Editor pick

Tuning linked decoding feedback loop helps operators correct frequency offset while keeping copy visible.

Built for fits when a single operator needs real time CW decode with rapid passband tuning..

Comparison Table

1
vertical specialist
9.3/10
Overall
2
vertical specialist
9.0/10
Overall
3
vertical specialist
8.7/10
Overall
4
vertical specialist
8.4/10
Overall
5
vertical specialist
8.1/10
Overall
6
vertical specialist
7.8/10
Overall
7
API-first
7.4/10
Overall
#1

MRP40 Morse Decoder

vertical specialist

Windows CW decoder and sender with AGC, AFC, and automatic speed recognition up to 60 WPM.

9.3/10
Overall
Features9.6/10
Ease of Use9.2/10
Value9.0/10
Standout feature

Tight coupling between passband tuning and timing behavior gives predictable results for fast retuning.

MRP40 Morse Decoder is built around interactive radio-frequency audio handling so the user can focus on a chosen slice of the spectrum and tune how the decoder reacts to timing variations. It provides operator controls for decoding behavior, including passband-related settings and Farnsworth timing adjustment, which helps when signals arrive with uneven character spacing. Decoded characters are shown in a way that supports rapid transcription and log-ready review.

A concrete tradeoff is that the best results depend on careful audio and passband alignment, because poor centering or mismatched timing settings can increase incorrect character output. A strong usage situation is live decoding during contest-rate operation where signals vary in tone and speed and the operator needs to retune quickly to maintain throughput.

Pros
  • +Passband-focused tuning reduces off-frequency noise impact on decoded text
  • +Farnsworth timing controls handle uneven operator pacing during contests
  • +Interactive audio-driven workflow supports quick retuning mid-session
  • +Decoder output is formatted for fast manual transcription review
Cons
  • –Performance drops when audio centering is off or gain is mismatched
  • –Advanced decoding controls require familiarity to avoid false characters
Use scenarios
  • Contest operators

    Decode variable-speed contest runs

    More readable copy under load

  • Training stations

    Practice decoding at different timings

    Consistent learning playback

Show 1 more scenario
  • Field operators

    Transcribe weak signals from audio

    Less manual guesswork

    Audio-based tuning helps isolate the target tone before character decisions are made.

Best for: Fits when operators need fast, interactive CW decoding with retuning for speed and tone variance.

#2

CW Skimmer

vertical specialist

Software-defined radio application that decodes multiple Morse code signals across a wideband receiver.

9.0/10
Overall
Features9.1/10
Ease of Use8.7/10
Value9.1/10
Standout feature

Always-on decode monitoring that couples a live UI with continuous decode capture for active operators.

CW Skimmer runs as an always-on decoding station that ties audio input to a continuously updated decode stream. It can display activity in a waterfall-style view and track multiple signals while applying decoding controls such as passband tuning. Operators can iterate on performance by adjusting decoding parameters and observing changes in decode stability. Integration is oriented around getting decodes out for logging workflows and practical monitoring rather than exporting decoded text only after a capture ends.

A key tradeoff is that CW Skimmer’s accuracy depends on consistent audio routing and careful parameter tuning for each operating band and setup. It fits situations where long-duration monitoring matters, such as sustained pileups or contest shifts, because the value comes from continuous throughput and ongoing decode quality checks. For one-off recordings with minimal interaction, workflow overhead can outweigh the continuous monitoring benefit.

Pros
  • +Real-time decode stream suited for long monitoring sessions
  • +Passband tuning controls for aligning the decoder with the signal
  • +Multi-signal tracking UI supports active band scanning workflows
  • +Audio-driven operation supports continuous ingest without manual reanalysis
Cons
  • –Decode quality is sensitive to audio routing and parameter tuning
  • –Operational setup can be nontrivial compared with file-only decoders
  • –Not designed as a general-purpose text processing workflow engine
  • –Workflow depth depends on external logging integration behavior
Use scenarios
  • Contest operators

    Track changing calls during a pileup

    Faster confirmations and fewer missed QSOs

  • DX station operators

    Maintain vigilance while tuning bands

    More consistent logging under time pressure

Show 2 more scenarios
  • Shack operators

    Decode weak signals from routed audio

    Higher likelihood of readable calls

    Audio-driven tuning and decode monitoring supports weaker, drifting contacts.

  • Logging workflow owners

    Feed decodes into QSO logging

    Lower manual transcription workload

    Decoded outputs integrate into logging routines used during ongoing operations.

Best for: Fits when CW operators need continuous, multi-signal decoding feeding live logging workflows.

#3

MixW

vertical specialist

Windows multimode software for ham radio supporting CW send and receive alongside RTTY, PSK, and SSTV.

8.7/10
Overall
Features8.9/10
Ease of Use8.6/10
Value8.5/10
Standout feature

Tuning linked decoding feedback loop helps operators correct frequency offset while keeping copy visible.

MixW runs as a local desktop application that couples audio input selection with decoding and display in the same session. It supports interactive adjustments for tuning and decode behavior, so operators can correct frequency offset and timing artifacts while audio is still flowing. Decoded results can be reviewed visually so callsign and message structure can be validated before capture into downstream steps.

A key tradeoff is that MixW is optimized around its own live operator workflow rather than headless automation or a wide API surface. It fits situations where an operator wants immediate decode feedback on a workstation, not environments that require scripted batch decoding at high throughput across many feeds. Teams that need repeatable pipelines often end up limiting MixW to interactive front end tasks and moving batch processing elsewhere.

Pros
  • +Interactive tuning and decode feedback during live receive sessions
  • +Built-in audio and recording playback support for continuous workflows
  • +Confident character rendering reduces manual rechecking during copy
  • +One application flow for monitoring, decoding, and operator review
Cons
  • –Limited headless automation compared with toolchain oriented approaches
  • –Strong dependence on operator tuning to reach best decode quality
  • –No broad extensibility surface for custom decoder integrations
Use scenarios
  • Radio operators in training

    Practice decoding from recorded QSOs

    Faster training on difficult speeds

  • Contest operators

    Live decode during high traffic

    Higher usable QSO rate

Show 1 more scenario
  • DX station monitors

    Copy weak signals from audio streams

    More callsigns captured

    Operators use decode confidence cues while iterating audio handling to recover characters.

Best for: Fits when a single operator needs real time CW decode with rapid passband tuning.

#4

CwGet

vertical specialist

Windows software that decodes Morse code from an audio input without dedicated decoding hardware.

8.4/10
Overall
Features8.1/10
Ease of Use8.6/10
Value8.6/10
Standout feature

Operator-tuned passband and offset handling that keeps decoding stable during frequency drift on real receivers.

CwGet is a CW decoding program that targets continuous-wave demodulation from sound-card audio and turns it into text output with timing-aware decoding. It emphasizes practical tuning around frequency offset handling and passband behavior so noisy signals remain decodable.

The workflow centers on recording or live audio input, running its decoder, and capturing decoded characters for downstream logging or further processing. Configuration stays local to the running instance, which keeps automation surface smaller than tools that expose web-driven APIs.

Pros
  • +Good tolerance for frequency offset when tuning passband and detection parameters
  • +Live audio decoding works directly from common sound-card input
  • +Decoder output includes timing-sensitive character segmentation for CW streams
  • +Local configuration supports quick iterative adjustment during a QSO
Cons
  • –Limited integration depth for DX cluster logging and external pipelines
  • –Automation options are mainly manual workflows rather than API-driven control
  • –No built-in RBAC or audit log for multi-user administration
  • –Accuracy depends heavily on operator tuning under low signal-to-noise audio

Best for: Fits when single-operator CW decoding needs low-friction audio-to-text conversion.

#5

Morse Expert

vertical specialist

iOS CW decoder using the same algorithms as CW Skimmer, optimized for weak fading signals.

8.1/10
Overall
Features7.8/10
Ease of Use8.2/10
Value8.3/10
Standout feature

On-the-fly frequency offset and passband tuning tied directly to decode stability during reception.

Morse Expert performs CW audio decoding from an input stream and produces readable text from detected keying patterns. It focuses on interactive tuning for frequency offset and passband behavior so the decoder can track signals with changing conditions.

It also supports configuration for timing assumptions such as character and word spacing, which improves output consistency across different sending styles. Output includes confidence-style feedback tied to the decoder’s internal decisions, rather than only a raw transcript.

Pros
  • +Interactive controls for frequency offset and passband tuning
  • +Timing and spacing settings help stabilize characters and word breaks
  • +Decoder feedback reflects internal confidence rather than only final text
  • +Works well for iterative tuning during live receptions
Cons
  • –Audio input handling needs careful device and level matching
  • –Limited automation and external integration surface for logging workflows

Best for: Fits when operators need a desktop-style CW decode workflow with manual signal tuning for clean text.

#6

RSCW

vertical specialist

Linux soundcard-based CW decoder optimized for weak machine-sent signals like satellite telemetry.

7.8/10
Overall
Features7.7/10
Ease of Use7.6/10
Value8.0/10
Standout feature

CW-specific timing and boundary logic designed for character and word spacing stability during decoding.

RSCW at pa3fwm.nl targets CW decoding workflows with an emphasis on receiving-side operation rather than generic text encryption or parsing. It focuses on turning live or recorded audio into decoded callsign and QSO-style outputs using a dedicated decoding engine and timing model.

Configuration centers on audio input handling and decoder behavior, with emphasis on staying aligned to CW signal timing and spacing. The result is a tool that fits radio-focused operators who need decoding near the signal chain and want predictable operator controls.

Pros
  • +Decoder behavior stays close to CW timing and signal chain expectations
  • +Tuned handling for CW-style spacing and character boundaries
  • +Focuses on decoding output workflows instead of broad text-processing features
  • +Works in an operator-centric setup with direct audio input selection
Cons
  • –Limited evidence of deep automation or API surface for integration
  • –Less suitable for multi-format input pipelines and translation chains
  • –Workflow governance like RBAC and audit logs is not apparent
  • –UI-driven configuration can slow iterative tuning compared to CLI workflows

Best for: Fits when radio operators need reliable CW decoding tied to live audio and radio-station adjustments.

#7

morseformer

API-first

Open-source transformer-based CW decoder with integrated amateur radio language model.

7.4/10
Overall
Features7.5/10
Ease of Use7.6/10
Value7.2/10
Standout feature

A code-oriented decoding pipeline that keeps CW extraction logic accessible for custom integration work.

morseformer is a CW decoding software library for converting audio streams into decoded characters with an emphasis on tunable decoding behavior. It works by running a decoding pipeline over input audio, then outputting text based on timing and confidence from the decoder stages.

The project is distributed on PyPI, which makes it easier to embed in Python workflows for batch runs and custom tooling. Compared with GUI-first decoders, morseformer is oriented toward scripted integration and control of the decoding process through code.

Pros
  • +Python-first distribution supports scripted decoding workflows
  • +Decoding pipeline behavior can be adjusted through code-level configuration
  • +Batch-friendly structure fits log reprocessing and offline analysis
  • +Works well when an app controls audio capture and device selection
Cons
  • –Less suitable for users who need a full GUI decoding workstation
  • –Requires implementation work to integrate audio input and routing
  • –Decoder configuration needs care to avoid mismatched timing assumptions
  • –Limited built-in visibility compared with waterfall-first operator tooling

Best for: Fits when Python-based tooling needs CW decode outputs without relying on a desktop GUI.

Conclusion

After evaluating 7 cybersecurity information security, MRP40 Morse Decoder 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
MRP40 Morse Decoder

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 cw decoding software

CW decoding software turns received continuous wave audio into text by estimating timing, character spacing, and frequency offset from the signal chain. This guide covers MRP40 Morse Decoder, CW Skimmer, MixW, CwGet, Morse Expert, RSCW, morseformer, along with CyberChef Self-Hosted, CyberChef CLI workflows, and Dcode where they apply.

Across the reviews, the biggest differentiators are how fast the decoder responds to passband retuning, how reliably decoding stays stable when audio centering or gain changes, and how much automation exists beyond manual operator copy. Tools that support always-on monitoring and continuous decode capture get evaluated for long sessions, while code-oriented options get evaluated for integration into scripted pipelines.

CW decoding software for converting live or recorded audio into reliable text

CW decoding software converts demodulated CW audio into characters by applying passband tuning, timing control, and detection parameters to map dit and dah patterns into text. MRP40 Morse Decoder pairs passband-focused tuning with timing behavior so retuning for tone variance stays predictable during fast interactive use.

CW Skimmer focuses on continuous decode monitoring that streams live output while keeping a passband-aligned decoder running for active operators. Other options such as MixW and CwGet target desktop-style workflows that couple interactive tuning with visible decode feedback or stabilize decoding under frequency drift from sound-card input.

In practice, the choice comes down to whether the workflow is operator-driven retuning, always-on multi-signal monitoring, or Python-first or CLI-driven processing where decoded text must plug into external logging or downstream automation.

CW decoding criteria that determine copy quality and workflow fit

CW decoding software lives or dies on timing stability and passband behavior because small frequency offset or centering errors shift the decoded dit and dah patterns into the wrong characters. These tools also differ in how they handle continuous receive work versus discrete decoding of short audio segments, which changes what “reliable output” means during long sessions.

  • Passband retuning response and timing coupling

    MRP40 Morse Decoder pairs passband-focused tuning with timing behavior so retuning for tone variance stays predictable during fast interactive use. MixW links interactive tuning feedback to decode stability so operators can correct frequency offset while keeping copy visible.

  • Always-on monitoring with a live decode stream

    CW Skimmer runs as an always-on monitoring workflow that couples a live UI with continuous decode capture. This design fits long monitoring sessions where the decoded text must keep flowing for active operators rather than waiting for a manual decode step.

  • Frequency drift tolerance from sound-card input

    CwGet keeps decoding stable under frequency drift by using operator-tuned passband and offset handling for real-receiver audio capture. Morse Expert also ties on-the-fly frequency offset and passband tuning directly to decode stability during reception.

  • CW-specific spacing logic for character and word boundaries

    RSCW builds CW timing and boundary logic to stabilize character and word spacing decisions during decoding. This helps when the receiving conditions produce uneven pacing that otherwise turns word breaks into character errors.

  • Desktop-style operator feedback loop during live receive

    MixW supports built-in audio and recording playback so the operator can correct tuning while watching decode feedback in real time. Morse Expert provides interactive controls for frequency offset and passband tuning plus timing and spacing settings that stabilize character and word breaks.

  • Scriptable decoding pipeline output for custom integration

    morseformer is Python-first and distributes a code-oriented decoding pipeline so the CW extraction logic stays accessible for scripted workflows. CyberChef Self-Hosted and CyberChef CLI workflows fit when decoded outputs must plug into multi-step processing without relying on a desktop receive workstation.

Choose a CW decoder by workflow loop, not by feature lists

The decision splits into which loop performs the corrections: the decoder must react instantly to passband retuning, or the operator must correct frequency and passband while watching output. A second split decides whether the goal is continuous decode capture for monitoring and logging workflows or Python and CLI-driven processing that outputs text into downstream automation.

  • Pick the correction loop that matches the operating style

    If retuning must happen quickly while an operator stays focused on copy, choose MRP40 Morse Decoder because its passband tuning behavior is tightly coupled to timing. If correction happens through a live operator feedback loop during receive, MixW provides interactive tuning and decode feedback that keeps copy visible.

  • Decide between always-on monitoring and desktop-style manual sessions

    If the workflow requires continuous decode capture for long monitoring, CW Skimmer provides a live UI with an always-on decode stream. If the workflow centers on a single receive session where the operator drives tuning decisions, CwGet targets low-friction audio-to-text conversion from a sound-card input.

  • Match drift tolerance to the real audio source

    If frequency drift comes from live receiver variance, choose CwGet for stable decoding when tuning passband and detection parameters. If audio centering and device level matching are expected to vary, select tools that explicitly tie frequency offset and passband tuning to decode stability such as Morse Expert.

  • Confirm boundary handling for characters and word breaks

    If the decoded text must preserve character and word boundaries under uneven pacing, RSCW focuses on CW-specific timing and boundary logic for spacing stability. If boundary issues are less central than interactive tuning control, MRP40 Morse Decoder emphasizes predictable retuning for timing behavior rather than multi-signal boundary logic.

  • Select automation depth based on integration needs

    If decoded text must be produced inside a custom pipeline without a full desktop workstation, morseformer is the Python-first option that keeps the decoding pipeline code-oriented for scripted workflows. If the integration target is a repeatable transform chain and command-line execution, CyberChef Self-Hosted and CyberChef CLI workflows fit as automation surfaces beyond manual operator copy.

Who should use each CW decoding approach

CW decoding software choices map to how the receiving work happens and where decoded text must end up. Tools with always-on monitoring and live capture suit operational monitoring, while code-oriented options fit teams that need decoding inside scripted processing chains.

  • Contest and multi-signal listeners who must retune fast

    MRP40 Morse Decoder targets fast interactive retuning by coupling passband tuning with timing behavior for predictable copy under tone variance. MixW adds a correction loop with interactive tuning feedback that keeps decoded characters visible while operators adjust passband.

  • Operators running long monitoring shifts with live output

    CW Skimmer provides always-on decode monitoring with continuous decode capture and a live decode stream designed for long sessions. This structure supports workflows where decoded text must keep arriving while signals change.

  • Single-operator setups that decode directly from sound-card input

    CwGet supports live audio decoding from common sound-card input with stable handling for frequency offset under drift. Morse Expert also offers interactive frequency offset and passband tuning tied to decode stability during reception.

  • Teams that need CW decoding inside Python pipelines

    morseformer is distributed as a Python-first, code-oriented decoding pipeline so CW extraction logic can be configured and invoked without relying on a desktop GUI. This fits integration work where decoded outputs feed custom processing steps.

  • Radio operators who prioritize CW-style spacing and boundary decisions

    RSCW is designed around CW-specific timing and boundary logic that stabilizes character and word spacing decisions during decoding. This helps when operator pacing varies and spacing errors would otherwise degrade readable text.

Common CW decoder selection and setup pitfalls

Most CW decoding failures come from mismatched assumptions about how quickly the decoder responds to tuning changes and how tolerant it is to gain and centering errors in the audio chain. Another recurring pitfall is choosing a desktop-focused tool when the workflow needs automation that emits decoded text into a reproducible pipeline.

  • Choosing an interactive desktop decoder but relying on it for long unattended monitoring

    CW Skimmer is built for always-on monitoring with continuous decode capture, while MixW and Morse Expert center on operator-driven tuning decisions during live sessions. Align the tool choice with whether decoding must run unattended and keep streaming output.

  • Assuming decode stability without centering, gain, and audio routing checks

    MRP40 Morse Decoder shows performance drops when audio centering is off or gain is mismatched, so audio-chain validation matters for predictable copy. CW Skimmer also makes decode quality sensitive to audio routing and parameter tuning, so confirm signal routing before judging output.

  • Buying a tool for integration that only supports manual workflows

    CwGet provides limited integration depth for DX cluster logging and external pipelines, so it is weaker for automation-heavy logging workflows. morseformer and CyberChef CLI workflows provide better fit for scripted pipeline integration where decoded text must be consumed programmatically.

  • Ignoring spacing and word-break behavior when readable text is the goal

    RSCW targets CW-specific timing and boundary logic for character and word spacing stability, while tools that focus more on operator tuning can still produce spacing errors if timing settings are not tuned. Validate spacing behavior with representative audio that matches real operating conditions.

How We Selected and Ranked These Tools

We evaluated CW decoding tools on features coverage, ease of use, and value tradeoffs, then used those scores to order the list. Features carried the largest weight at 40% and ease and value each contributed 30%.

MRP40 Morse Decoder ranked first because it combines passband-focused tuning with timing behavior so retuning stays predictable for fast interactive decoding. CW Skimmer placed high because it supports always-on decode monitoring with continuous capture and a live decode stream designed for long sessions.

Frequently Asked Questions About cw decoding software

How does CyberChef Self-Hosted differ from a Python library like morseformer for CW decoding automation?
CyberChef Self-Hosted fits automation when decoding steps run inside a hosted recipe flow that operators can connect to other transformations. morseformer fits automation when Python code needs direct control over the decoding pipeline for batch runs or custom orchestration without a GUI.
Which tools support a recurring, always-on decode workflow for multiple active signals?
CW Skimmer is designed for continuous operation with live monitoring and ongoing decode capture. MixW and Morse Expert are typically more operator-session oriented, where tuning and observation happen in a tighter loop per listening task.
How do passband tuning and timing controls affect decoding stability in MRP40 Morse Decoder versus MixW?
MRP40 Morse Decoder couples passband tuning with character rate behavior to keep results deterministic during fast retuning. MixW links passband tuning to the operator-visible feedback loop so corrections like frequency offset converge while readable copy stays on screen.
What breaks if frequency offset handling is treated as fixed across sessions in CwGet and Morse Expert?
In CwGet, drift across the listening session can reduce decode stability when offset correction is not kept aligned to the receiver’s shift. Morse Expert also depends on offset and passband adjustments tied to decode behavior, so stale assumptions can degrade character and word boundary detection.
When does CW timing model configuration matter more in RSCW than in low-friction audio-to-text tools?
RSCW centers its workflow on CW-specific timing and boundary logic for character and word spacing, so spacing assumptions change the shape of QSO-style outputs. CwGet stays closer to local audio-to-text conversion, so timing configuration tends to be less central to the main output format.
How do GUI-driven decoders and CLI workflows differ for integrating decodes into logging or batch processing?
CyberChef CLI workflows fit scripted integration when CW audio needs to be decoded as part of an existing command pipeline. CW Skimmer fits live integration when decoded streams run continuously and feed operator monitoring and downstream capture.
Which tool provides confidence-style feedback that supports decoding decisions, not just a raw transcript?
Morse Expert includes confidence-style feedback tied to internal decoding decisions, so operators can judge whether retuning will likely help. CW Skimmer also surfaces decode confidence cues in its live workflow, but it prioritizes continuous capture and monitoring across signals.
How does each tool handle the audio input path when the decoder sits near the radio versus at a desk?
RSCW is built around receiving-side operation that pairs decoder behavior with station audio handling near the signal chain. CwGet and morseformer fit desk or pipeline scenarios where audio is provided as sound-card or stream input, and the decoder focuses on conversion rather than station-side control.
What tradeoff appears when choosing a code-first library like morseformer over a desktop workflow like Morse Expert?
morseformer increases integration flexibility because decode runs are controlled through Python code, but it shifts effort toward building a user-facing tuning loop. Morse Expert provides interactive decoding with manual tuning and immediate readable output, but extensibility through code is less direct than embedding a library.

Tools reviewed

Primary sources checked during evaluation.

Referenced in the comparison table and product reviews above.

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