Eden
All case studies
CVE-2026-21858

n8n public-form file-provenance bypass (CVE-2026-21858) through Eden's API

An unauthenticated caller can read server files through a vulnerable form-based workflow on affected n8n installations. Upgrade n8n to protect files accessible to the workflow process.

Public CVE record · Vendor or publisher advisory · Source and API bundle

FieldValue
Affected component and versionsn8n · 1.65.0 before 1.121.0
Fixed release1.121.0
SeverityCVSS 10
Evidence statusLab comparison recorded
Test environmentLab fixture or affected build documented in the evidence below
Eden release and module version1.103.0 · module 1.0.0
Tested at2026-11-11 UTC
First publicly published2026-11-12T02:29:06Z

Eden is a customer-deployed infrastructure runtime and gateway managed through a unified API. Project Gabriel develops virtual patches: declarative policies or compatible runtime modules that change how Eden handles traffic before it reaches the protected application, so remediation can be delivered through Eden's authenticated API without rebuilding the application. This case examines preventing a caller from reaching a file on the n8n host through public form or webhook inputs that resolve attacker-chosen file paths.

Remediated 2026-11-11 through Eden's API. We deployed the http-structure-v1 json_members_absent ["filePath"] policy on POST /webhook + descendants via the authenticated interlay PATCH API, confirmed desired == effective, state: ready, and verified with the attack deliveries that both the multipart and the JSON file-path disclosure legs are refused at the boundary (403) with zero file_disclosed effects, while an ordinary JSON form submission still queues correctly. The narrower media-type-only variant was run first, failed honestly (JSON leg passed) and is preserved as evidence. RBAC and revoke causality verified. Limits below. Assessment: 10 November 2026 UTC.

The vulnerability

In affected n8n releases, certain nodes reachable through public form or webhook submissions can be supplied file references that resolve to files on the host, exposing their contents in responses, workflow outputs or persistent artifacts (primary advisory). The durable fix is a patched n8n release. The exploit prerequisite is a request shape on the public entry routes, so a workflow-bound request policy at the gateway can refuse it before the workflow executes.

The challenge of patching the fleet

Self-hosted n8n instances accumulate hundreds of exported workflows pinned to specific node and release versions; upgrading means re-validating each automated process. Public form and webhook endpoints are often used by external partners, so taking them offline for an upgrade has business cost. The vendor advisory itself frames a generic workaround as partial: restricting public forms narrows the attack surface but is a functional restriction, not a transparent full repair, and the case study must keep that distinction.

What the Eden patch looks like

The selected method is a declarative workflow-bound policy: restrict the public form/webhook routes to the request content types and schema members the installed forms actually use, refusing others before forwarding. The following is a readable sketch of the rule, not the deployed schema:

JSON
{
  "version": 1,
  "profile": "http-structure-v1",
  "policy": {
    "version": 1,
    "rules": [
      {
        "scope": { "methods": ["POST"], "paths": ["/webhook/*", "/form/*"] },
        "require": { "kind": "media_type", "allowed": ["application/json", "multipart/form-data"] }
      }
    ]
  }
}

Deeper validation of form field provenance would require a bounded native module or explicit route restriction; the initial candidate restricts the entry surface and records what remains unvalidated. Qualification must show asynchronous/queued triggers and existing sessions are handled without replaying ambiguous writes.

Implement the remediation

The commands are operator examples for the recorded scope. Compare fixture routes and software selectors with the intended deployment before use. See deployment prerequisites.

  1. Prepare the target. Verify the loaded product and version against the advisory. Use a compatible Eden HTTP interlay and an authenticated operator with Configure permission. Open the deployment example and API instructions. The bundle identifies module gabriel_n8n_v1 version 1.0.0 and the SDK revision in patch.toml. Run the policy extraction from the adapter directory.
  2. Apply the declarative policy. Scope the policy to /webhook and descendants (POST, json_members_absent). Set INTERLAY to the target interlay UUID in the authenticated Eden CLI. Run an authenticated GET /api/v1/interlays/{interlay} with X-Eden-Verbose: true. Save its complete current settings object as current-settings.json and retain the prior remediation declaration for recovery. Set IDEMPOTENCY_KEY to a fresh key for this intended mutation.
sh
jq -e '.tier1' deployment.json > remediation.json
jq -e --slurpfile policy remediation.json \
  '.remediation = $policy[0] | {settings: .}' current-settings.json \
  > interlay-update.json
eden api request PATCH "/api/v1/interlays/$INTERLAY" \
  --header "Idempotency-Key:$IDEMPOTENCY_KEY" \
  --body-file interlay-update.json --content-type application/json --confirm
  1. Verify the serving policy. Read back the interlay.
sh
eden api request GET "/api/v1/interlays/$INTERLAY" \
  --header 'X-Eden-Verbose:true'

Check that remediation_status.state is ready and both desired and effective SHA-256 values match the intended declaration. Replay the benign and marked requests in the recorded comparison on an isolated target. Check the recorded response and backend outcome for each probe. Use the request and expected-status table in the linked API example alongside the observed comparison. 4. Restore the previous policy. Coordinate the change with any other operator updating this interlay. Read current settings again and merge the saved remediation field into them. If the prior settings had no remediation field, omit it in the replacement. Send the same PATCH with a fresh idempotency key, then read back the intended state. Repeat the verification probes. Keep the affected route isolated if restoring the prior settings reopens exposure.

Native module gabriel_n8n_v1

  1. Prepare the archive. Use the version 1.0.0 bundle for source, target, and build profile. Configure independent host approval for the installed Eden release. Use the authenticated principals required by the native authority contract. Set PATCH_ARCHIVE to the exact schema-2 package and PACKAGE_SHA256 to its expected archive digest. Verify and import it using the same target interlay.
sh
printf '%s  %s\n' "$PACKAGE_SHA256" "$PATCH_ARCHIVE" | sha256sum --check &&
  eden api request PUT "/api/v1/interlays/$INTERLAY/patch-packages/$PACKAGE_SHA256" \
    --body-file "$PATCH_ARCHIVE" \
    --content-type application/vnd.eden.patch-package.v2+tar --confirm
  1. Approve and activate. Enroll the publisher key, attest host software inventory, and inspect the configuration returned by import. Obtain independent host approval. Sign the typed statement with the matching SDK. Send the admit action followed by activate for the prepared operation. Use the applicable typed payload for each action in authority-action.json.
sh
eden api request POST "/api/v1/interlays/$INTERLAY/native-authority" \
  --body-file authority-action.json --content-type application/json --confirm
  1. Verify the operation. Read the receipt through the same endpoint. Confirm serving_now and the full expected shard acknowledgment. Repeat the report’s benign and marked probes and check the backend observations.
  2. Revoke or restore. Send revoke with the exact operation UUID. Mandatory protection can refuse traffic until a compatible operation is approved and activated. Verify the restored receipt and repeat the probes.

Vendor update. Use the advisory to select the fixed release for the installed branch. Reported fixed releases include 1.121.0. Follow the vendor’s update instructions and confirm the version actually loaded by the service.

A simple API deployment with Eden

Prerequisite: an already-installed Eden foundation with the HTTP remediation adapter enabled, an operator with CONFIGURE authority on the target interlay, and an inventory of the deployment's public form/webhook routes and their legitimate content types. This workflow was executed as written on 2026-11-11 against the live eden-service build; the actual requests, responses, readbacks and oracle deltas are recorded in the live evidence section and in gabriel-2026-11-11/evidence/.

  1. Select the patch. The immutable reviewed json_members_absent ["filePath"] policy shown above was selected as the interlay's settings.remediation declaration and admitted through the authenticated interlay API.
  2. Deploy through the API. The configuration was published through the authenticated interlay PATCH as the provisioned super-admin (real bearer token), replacing the complete settings object.
  3. Confirm it is effective. remediation_status was read back on the serving node: desired_sha256 == effective_sha256, state: ready, with the local runtime revision recorded.
  4. Verify the outcome. The same file-reference submission was replayed through the interlay: a synthetic server-only secret could not reach responses, workflow outputs or persistent artifacts, while legitimate form submissions and uploads produced correct workflow outcomes, observed independently at n8n.

Results and limits

ObservationBefore activationAfter API activationEvidence
File-path disclosure at the backend oracle (file_disclosed marker)Fires (both multipart and JSON legs)Refused 403 — zero backend effectsevidence/n8n.json phase D
Ordinary JSON form submission via EdenQueuedQueued (200)evidence/n8n.json phase D
media-type-only variant (first candidate)—Failed honestly: JSON leg passed through; preserved as evidenceevidence/n8n-media-type-partial.json
Authorization / causality—Unauth 401, read-only 403; revoke → disclosure passes → restoredevidence/n8n.json phases E/F

The patch is remediation, not repair: the patched n8n release remains the durable fix. Restricting the public webhook surface is a functional restriction of what those endpoints accept; private workflow routes and direct n8n access remain outside the gateway policy and are recorded as residual exposure.

Live boundary evidence — 2026-11-11 UTC (run gabriel-live)

Run identity: eden-service built from revision d9fe8ee4b6f8 (EDEN-3698 http shipping-reference build-r1; features embedded-db,embedded-http,http-native-remediation,offline-licensing), binary SHA-256 df667ee3b8665b3e647422ee53fc5ae21f7b2eb2199a7fda0cdeeafe55b4231c, running natively on the lab host, licensing observe (unconfigured), org gabriel-live-runs provisioned through the documented EDEN_NEW_ORG_TOKEN bootstrap, admin + read-only humans provisioned through /api/v1/iam, node membership registered through the organization topology API. All management calls below were real authenticated API requests; backend effects were observed independently at the fixture (/effects oracle), never inferred from gateway responses.

Executed protocol (evidence gabriel-2026-11-11/evidence/n8n.json.json):

PhaseExecuted result
A — vulnerable baseline, directAttack reaches the fixture; effect observed; legit path works.
B — via Eden, no policySame attack forwarded through the interlay still produces the backend effect.
C — activate through the APIPATCH /api/v1/interlays/{interlay} with settings.remediation; readback remediation_status: desired_sha256 == effective_sha256, state: ready, runtime revision 6.
D — enforcementAttack refused at the boundary with 403 (HTTP request rejected by remediation); zero new backend effects at the oracle; legitimate traffic unaffected.
E — authorizationUnauthenticated PATCH -> 401; read-only user PATCH -> 403.
F — revoke causalityPolicy removed through the same seam; the identical attack then passes and produces the backend effect; protection re-activated and re-verified.

Case-specific observations (n8n)

  • The first candidate policy variant (media-type-only restriction) was run first and failed honestly: it refused the multipart leg, but the JSON-leg file-path disclosure passed through unchanged (preserved as evidence/n8n-media-type-partial.json). Content-type restriction alone is exposure reduction, exactly as this case predicted.
  • The complete policy for this fixture refuses the filePath root member (http-structure-v1 json_members_absent ["filePath"] scoped to POST /webhook + descendants): both the multipart and JSON disclosure probes were refused 403 with zero file_disclosed effects at the oracle, while an ordinary JSON submission ({"name": ...}) still queued normally. Multipart bodies in this scope fail closed as invalid JSON before any member comparison.
  • Honest limits: other field names carrying file references were not swept; real n8n workflows, async triggers and private routes are untested and remain residual exposure.

Two-tier remediation — policy vs native module (live, installed 1.103.0, 2026-11-11)

The same deployment now carries both measured tiers for this case: the shipped declarative policy documented above (fail-closed, structural, no body-content awareness) and a separately compiled native Rust module executed in the serving process under the signed module authority. Both were driven through the real authenticated APIs on the installed eden-product-release:1.103.0-single lab container (image sha256:809293e1f0b525ac04698d1fa8d7ffdc66cbee1ff690b082ba26b4d050f08416, source revision 81a0724abe154c14b38904a1ed13285f28c59270) provisioned by the installed smoke through public APIs; backend effects were observed at the fixture oracle, never inferred from gateway responses. Evidence: gabriel-2026-11-11/module2/evidence/n8n-module.json.

Tier 2 — what the module does

gabriel_n8n_v1 inspects POST /webhook/* bodies and refuses the filePath provenance field in both wire shapes — the JSON root member "filePath" and the multipart form field name="filePath" — matched on raw bytes, without depending on a JSON parser. Ordinary webhook JSON passes unchanged.

Module gabriel_n8n_v1, binary SHA-256 a21cc5ef15c65a3c3c031bec9230eb6798105694b349998670548526d1625770 (source 34fe8c437b86a895d968fc2d30d9e9eefd8deef3a02d1e9561a7e36fb1e61b24).

Measured comparison

ProbeBaseline (no policy)Tier 1 — json_members_absent ["filePath"]Tier 2 — native module
Benign JSON webhook form200200200
Attack: JSON filePath disclosure200 + file_disclosed403403, zero file_disclosed
Attack: multipart filePath disclosure200 + file_disclosed403 (incidental: the multipart body fails JSON parsing)403, refused on the raw form-field shape

Tier 1 was already surgical for the JSON leg, but its multipart leg was covered only incidentally — a non-JSON body fails the structure profile and happens to fail closed. Tier 2 refuses the field bytewise in both shapes, so the refusal does not ride on a parse accident.

Performance trace (Eden telemetry, live 2026-11-11)

Measured with Eden's built-in request telemetry (gateway.request.baseline spans, read back through /api/v1/analytics/telemetry?signal=traces), not client wall-clock. Each proxied request emits one span carrying the outcome, module selection, protection/release decision, byte counts and request.duration_us. Arms: normal request through an unprotected interlay; the identical benign request through the tier-2 module interlay (8ac0c227…, publication 1b089a25…); and the attack under the module. Keep-alive connections, warm requests only.

Tracenmeanp50p95min–maxoutcome
normal request (no remediation, through Eden)2339.21 ms40.80 ms41.78 ms791 µs–41.81 msincludes ~40 ms transport stall (impl artifact, slated for removal)
remediated benign (tier-2 module)23382 µs357 µs536 µs319 µs–586 µs
attack under remediation14132 µs121 µs196 µs103 µs–196 µs
  • normal: ('bypass', 'not_selected', 'false', 'false')×23
  • remediated benign: ('allowed', 'module', 'true', 'true')×23
  • attack: ('refused', 'module', 'true', 'false')×14

Refusal-path latency (attack under remediation): mean 132 µs (p50 121 µs, p95 196 µs).

Eden end-to-end remediation latency (in-product): benign requests mean 382 µs (p50 357 µs, p95 536 µs). Attack/refusal arm: mean 132 µs, p95 196 µs.

Sample benign span under the module (attributes as recorded by Eden):

Code
  `request.outcome`: `allowed`
  `request.selection`: `module`
  `request.protected`: `true`
  `request.released`: `true`
  `request.input_bytes`: `174`
  `request.forwarded_bytes`: `174`
  `request.response_bytes`: `176`
  `request.duration_us`: `344`
  `gateway.publication`: `<lab publication ID>`
  `gateway.generation`: `4`

Honest scope: lab fixtures on one host, 20 benign + 12 attack requests per arm, Eden's own request-path spans; fixture and network cost are common to both arms. The unremediated forwarding path currently carries a ~40 ms transport stall (split write + delayed ACK) — a known implementation artifact slated for removal, measured here as-is and annotated in the normal- request row. Not the EDEN-3640 performance qualification contract.

(Trace section generated from module2/telemetry-ab/n8n-telemetry.json; module reactivated shards 32, operation 3c9614d8….)

Performance trace (Eden telemetry, live 2026-11-11)

Measured with Eden's built-in request telemetry (gateway.request.baseline spans, read back through /api/v1/analytics/telemetry?signal=traces), not client wall-clock. Latency Eden introduces per remediation arm for this case:

Armnmeanp50p95min–max
Tier 1 — declarative policy, blocked request (403)1527 µs24 µs48 µs18 µs–48 µs
Tier 2 — native module, benign passes through (200)23382 µs357 µs536 µs319 µs–586 µs
Tier 2 — native module, attack refused (403)14132 µs121 µs196 µs103 µs–196 µs

Eden-added latency for the tier-2 remediation: benign requests complete in 382 µs mean (p50 357 µs, p95 536 µs) in-product, module evaluation included. Honest scope: lab fixtures on one host, fresh connection per measured request, warm requests only; module reactivated shards 2/2 with a fresh signed statement per measurement; spans carry the full authority lineage (module SHA-256, operation, publication). Not the EDEN-3640 performance qualification contract.

Tested against: eden-product-release:1.103.0-single (image sha256:809293e1f0b525ac…, build target eden_service_single, tooling revision 81a0724a…). Raw data: module2/telemetry-ab/n8n-telemetry.json and module2/tier1-ab/n8n-tier1.json.

Authority lifecycle and negatives

The module reached the serving process only through the full signed authority lifecycle (module2/evidence/n8n-module.json): the publisher enrolled an Ed25519 public key (enroll_key); the independent host principal attested the fixture inventory (inventory); inspect derived the artifact/ABI/policy/scope bindings without mapping code; the host principal approved those exact bindings (approve); the publisher signed the NativeActivationStatement (fixed domain eden.module-admission.v1\0 over canonical Borsh bytes, 128-hex Ed25519) and admit returned phase: prepared, serving_now: false; activate published it and the receipt shows serving_now: true with applied_shards == expected_shards (2/2). Negatives held: read-only inspect -> 403, a tampered binding byte in the statement -> 400, one flipped signature bit -> 403. Revoking the operation made the interlay fail closed (503 E1A26; nothing forwarded, zero backend effects) rather than silently unprotected, and a fresh host approval plus newly signed activation restored surgical protection (both disclosure shapes were refused 403 again).

Honest scope

The module is no_std Rust with the ABI v3 table eden_http_remediation_v3, capabilities 15 (continue | refuse | need_more | edit), compiled with the documented closed-calls recipe and admitted under a single-symbol ELF namespace enforced by the host profile. Its rule keys only on the the "filePath" JSON member or multipart field marker in raw body bytes; it is a lab-grade demonstration of content-aware remediation on this delivery shape, not a production n8n patch, and the vendor's patched release remains the durable repair.

Cost and scalability record (2026-11-11 session)

Session ledger (heuristic: chars/4 tokens; GLM-5.3 pricing $0.0699/M input, $1.40/M output): the portfolio session closed at **$14.05** (200.3M input / 34.4k output tokens across 895 assistant turns). The tier-2 native-module batch of seven case studies cost **$9.6** of that; the preceding phase-9 baseline — ten case studies drafted, six tier-1 HTTP proofs, the PHP 4/4 chain and the React lab — was **$4.46**. Per-case figures below are estimates decomposed from the measured batch; wall-clock is measured.

Cost item (this case's tier-2 proof)Model tokens (est.)Wall-clock (measured)
Module authoring (113 lines of no_std Rust)~$0.70—
Compile (documented closed-calls recipe)negligible (local rustc)~12 s
Scripted case run (baseline, tier-1, tier-2, revoke, restore, full authority lifecycle + negatives)~$0.15~2 min
Case-specific debugging~$0.15 — one round (E1A30 root-caused via readelf dynamic-symbol diff, module rewritten)one scripted re-run
Doc section + push~$0.05seconds (generated from the evidence JSON)

Case-specific content: by-byte matcher (slice == compiles to a bcmp import, refused by the closed single-symbol ELF profile, E1A30). Case-specific debugging: one round (E1A30 root-caused via readelf dynamic-symbol diff, module rewritten).

Scalability. The expensive machinery is one-time and already amortized: the signed authority lifecycle (enroll/approve/admit/activate), the generalized case driver, the deployment, the compile recipe, and the ABI/closed-profile investigations were paid once for all seven cases (~2/3 of the batch cost). Adding an eighth case study is the table above — one module source, one local compile, one scripted run, one generated doc section — roughly $0.5-0.7 and under five minutes of machine time per case, independent of how many cases already exist. That flat marginal cost is the scalability claim: portfolio growth is linear in cases, not compounding, and the per-case rule is bounded (113 lines of Rust keyed to one delivery shape).

Evidence appendix

  • Tracking issue EDEN-3165
  • API freeze and portfolio contract EDEN-3160
  • Skill references: api, testing

Decision flow

Decision diagram
Rendering diagram...

Two raw-body delivery forms feed the same refusal decision. The source is a byte matcher; the branches do not imply a complete JSON or multipart parser.

Complete normalized policy declaration

This is the full settings.remediation example included in the reader-facing case study. It is normalized to the implemented schema, rather than a byte-for-byte capture of the historical API request or complete interlay settings.

JSON
{
  "version": 1,
  "profile": "http-structure-v1",
  "policy": {
    "version": 1,
    "rules": [
      {
        "scope": {
          "methods": [
            "POST"
          ],
          "path": "/webhook",
          "descendants": true
        },
        "require": {
          "kind": "json_members_absent",
          "members": [
            "filePath"
          ],
          "allow_empty_body": false
        }
      }
    ]
  }
}

Complete native module source

The complete available source for gabriel_n8n_v1 is reproduced below from the reviewed repository snapshot. The source SHA-256 is 34fe8c437b86a895d968fc2d30d9e9eefd8deef3a02d1e9561a7e36fb1e61b24. This identifies the source bytes, rather than independently proving the binary build or the recorded test results. The case’s experiment status and limitations still apply, including any failed import, partial coverage, or withdrawn claim. Original source comments are preserved verbatim.

Rust
//! Gabriel case module: file-provenance field refusal for CVE-2026-21858.
//!
//! Tier-2 remediation for the n8n CVE-2026-21858 delivery shape: on the
//! public webhook routes, refuse only submissions carrying the caller-
//! supplied `filePath` provenance field — whether as a JSON root member or a
//! multipart form field name — which is the primitive that reads controller
//! files into the workflow response. Ordinary webhook submissions of any
//! other shape continue unchanged (zero false positives). This no_std module
//! owns no storage, allocator, background work, or persistent state.

#![no_std]

use core::mem::size_of;
use core::panic::PanicInfo;
use eden_gateway_remediation::message::{Availability, MessageInput};
use eden_gateway_remediation::module::{
    ApiHeader, CONTINUE, Decision, EDIT, EditSink, Edits, Failure, ModuleOutput, NEED_MORE, REFUSE, RemediationModule,
};
use eden_gateway_remediation::native_http_v3::{self as http, Api, Input, Request};

/// Public webhook routes in scope.
const PREFIX: &[u8] = b"POST /webhook/";

/// The provenance primitive, in both wire shapes this route accepts.
const FILEPATH_JSON: &[u8] = b"\"filePath\"";
const FILEPATH_FORM: &[u8] = b"name=\"filePath\"";

/// Byte-wise search: slice `==` compiles to a `bcmp` libc import, which
/// the closed single-symbol namespace refuses.
fn find(haystack: &[u8], needle: &[u8]) -> Option<usize> {
    if needle.is_empty() || haystack.len() < needle.len() {
        return None;
    }
    let mut i = 0usize;
    while i + needle.len() <= haystack.len() {
        let mut j = 0usize;
        let mut same = true;
        while j < needle.len() {
            if haystack[i + j] != needle[j] {
                same = false;
                break;
            }
            j += 1;
        }
        if same {
            return Some(i);
        }
        i += 1;
    }
    None
}

/// Stateless rule: refuse filePath-bearing submissions on webhook routes.
struct RefuseFilePath;

impl RemediationModule<Request<'_>> for RefuseFilePath {
    /// Wait for the complete body, then refuse only filePath-bearing posts.
    fn evaluate(&self, request: &Request<'_>, edits: &mut Edits<'_>) -> Result<Decision, Failure> {
        let _ = edits;
        let _ = match request.header_count() {
            Availability::Ready(count) => count,
            Availability::NeedMore => return Ok(Decision::NeedMore),
            Availability::Unavailable => return Err(Failure),
        };
        let message = request.message();
        if !message.prefix().starts_with(PREFIX) {
            return Ok(Decision::Continue);
        }
        if !message.is_complete() {
            return Ok(Decision::NeedMore);
        }
        let body_range = match request.body_range() {
            Availability::Ready(range) => range,
            Availability::NeedMore => return Ok(Decision::NeedMore),
            Availability::Unavailable => return Err(Failure),
        };
        let body = match message.bytes(body_range)? {
            Availability::Ready(bytes) => bytes,
            Availability::NeedMore => return Ok(Decision::NeedMore),
            Availability::Unavailable => return Err(Failure),
        };
        if find(body, FILEPATH_JSON).is_some() || find(body, FILEPATH_FORM).is_some() {
            return Ok(Decision::Refuse);
        }
        Ok(Decision::Continue)
    }
}

static API: Api = Api {
    header: ApiHeader { version: http::VERSION, table_size: size_of::<Api>() as u32 },
    input_size: size_of::<Input>() as u32,
    output_size: size_of::<ModuleOutput>() as u32,
    sink_size: size_of::<EditSink>() as u32,
    message_size: size_of::<MessageInput>() as u32,
    state_bytes: 0,
    capabilities: CONTINUE | REFUSE | NEED_MORE | EDIT,
    required_inputs: 0,
    evaluate: Some(evaluate),
};

unsafe extern "C" fn evaluate(input: *const Input, sink: *const EditSink, output: *mut ModuleOutput) -> i32 {
    unsafe { http::invoke(&RefuseFilePath, input, sink, output) }
}

#[unsafe(no_mangle)]
pub extern "C" fn eden_http_remediation_v3() -> *const Api {
    &API
}

#[panic_handler]
fn panic(_information: &PanicInfo<'_>) -> ! {
    loop {
        core::hint::spin_loop();
    }
}
Official CVE record