feat(onboarding): artifact ingest + classifier + native tramiton + suite seams (#138)
CI / Check (push) Has been skipped
CI / Detect Changes (push) Successful in 3s
CI / Deploy Agent (push) Failing after 5s
CI / Deploy Dashboard (push) Failing after 5s
CI / Deploy Docs (push) Has been skipped
CI / Deploy MCP (push) Failing after 4s

This commit was merged in pull request #138.
This commit is contained in:
2026-07-10 16:00:51 +00:00
parent 675c4ef699
commit ef6ee3dcd1
18 changed files with 1661 additions and 6 deletions
+217
View File
@@ -0,0 +1,217 @@
//! Firmware classification via tramiton.
//!
//! tramiton is the company's firmware build/repro engine; we do not re-implement
//! its detection. We depend on `tramiton-core` directly (same-company IP) and run
//! its provider analysis in-process behind a [`FirmwareDetector`] port, mapping
//! tramiton's `BuildPlan` onto a [`TargetType`]. A deterministic
//! [`MockFirmwareDetector`] backs the tests so CI unit tests need neither the
//! tramiton sources nor a real firmware tree.
use std::path::Path;
use compliance_core::error::CoreError;
use compliance_core::models::{DetectedFact, TargetType};
use compliance_core::traits::ClassifierVerdict;
/// A minimal firmware-detection summary, mapped from tramiton's `BuildPlan`.
/// Kept small and tramiton-independent so the classifier and the test mock don't
/// need to construct a full tramiton plan.
#[derive(Debug, Clone, Default)]
pub struct FirmwareDetection {
/// The detecting provider (e.g. `zephyr`, `cmake`, `source-archaeology`).
pub provider: String,
/// Detection confidence: `low` | `medium` | `high`.
pub confidence: String,
/// Build-system label (e.g. `Zephyr`, `ESP-IDF`, `CMake`).
pub build_system: String,
/// Framework, when known (`zephyr`, `esp-idf`, `bare-metal`, ...).
pub framework: Option<String>,
/// Target board / MCU / arch.
pub target: FirmwareTarget,
/// Unresolved gaps in the plan.
pub gaps: Vec<String>,
}
/// The detected firmware target (board / MCU / arch).
#[derive(Debug, Clone, Default)]
pub struct FirmwareTarget {
/// Board name.
pub board: Option<String>,
/// MCU part.
pub mcu: Option<String>,
/// Architecture.
pub arch: Option<String>,
}
/// A source of tramiton firmware detection.
#[allow(async_fn_in_trait)]
pub trait FirmwareDetector: Send + Sync {
/// Run detection over a path, returning a firmware detection if tramiton
/// could form a build plan.
async fn detect(&self, path: &Path) -> Result<Option<FirmwareDetection>, CoreError>;
}
/// Uses `tramiton-core` in-process. The analysis is blocking (filesystem walk),
/// so it runs on a blocking thread to avoid stalling the async runtime. A path
/// with no recognizable build system yields `Ok(None)`.
pub struct TramitonNative;
impl FirmwareDetector for TramitonNative {
async fn detect(&self, path: &Path) -> Result<Option<FirmwareDetection>, CoreError> {
let path = path.to_path_buf();
let plan = tokio::task::spawn_blocking(move || {
let repo = tramiton_core::Repo::new(&path);
tramiton_core::provider::analyze(&repo)
})
.await
.map_err(|e| CoreError::Other(format!("tramiton detect task join error: {e}")))?
.map_err(|e| CoreError::Other(format!("tramiton analyze error: {e}")))?;
Ok(plan.map(|bp| detection_from_build_plan(&bp)))
}
}
/// Map tramiton's `BuildPlan` onto our minimal detection summary.
fn detection_from_build_plan(bp: &tramiton_core::BuildPlan) -> FirmwareDetection {
FirmwareDetection {
provider: bp.provider.clone(),
confidence: bp.confidence.to_string(),
build_system: bp.build_system.label().to_string(),
framework: bp.framework.clone(),
target: FirmwareTarget {
board: bp.target.board.clone(),
mcu: bp.target.mcu.clone(),
arch: bp.target.arch.clone(),
},
gaps: bp.gaps.clone(),
}
}
/// Map a firmware detection to a target type. Framework/build-system signals
/// distinguish RTOS from bare-metal from Yocto.
pub fn detection_to_target_type(det: &FirmwareDetection) -> TargetType {
let framework = det.framework.as_deref().unwrap_or("").to_lowercase();
let build_system = det.build_system.to_lowercase();
let signal = format!("{framework} {build_system} {}", det.provider.to_lowercase());
const RTOS: [&str; 6] = ["zephyr", "esp-idf", "freertos", "nuttx", "riot", "chibios"];
if signal.contains("bitbake") || signal.contains("yocto") || signal.contains("openembedded") {
TargetType::EmbeddedLinuxYocto
} else if RTOS.iter().any(|k| signal.contains(k)) {
TargetType::FirmwareRtos
} else {
TargetType::FirmwareBareMetal
}
}
/// Map tramiton's confidence label to a `[0,1]` score.
fn confidence_score(label: &str) -> f32 {
match label.to_lowercase().as_str() {
"high" => 0.9,
"medium" => 0.6,
"low" => 0.3,
_ => 0.4,
}
}
/// Turn a firmware detection into a classifier verdict, carrying the MCU / board
/// / build-system as facts.
pub fn detection_to_verdict(det: &FirmwareDetection) -> ClassifierVerdict {
let target_type = detection_to_target_type(det);
let mut facts = vec![DetectedFact::new(
"build_system",
det.build_system.clone(),
"tramiton",
)];
if let Some(fw) = &det.framework {
facts.push(DetectedFact::new("framework", fw.clone(), "tramiton"));
}
if let Some(mcu) = &det.target.mcu {
facts.push(DetectedFact::new("mcu", mcu.clone(), "tramiton"));
}
if let Some(board) = &det.target.board {
facts.push(DetectedFact::new("board", board.clone(), "tramiton"));
}
if let Some(arch) = &det.target.arch {
facts.push(DetectedFact::new("arch", arch.clone(), "tramiton"));
}
ClassifierVerdict {
target_type,
confidence: confidence_score(&det.confidence),
facts,
rationale: format!(
"tramiton detected build system '{}'{}",
det.build_system,
det.framework
.as_ref()
.map(|f| format!(" (framework {f})"))
.unwrap_or_default()
),
}
}
/// A deterministic [`FirmwareDetector`] for tests — returns a preset detection.
pub struct MockFirmwareDetector {
/// The detection to return (or `None` for "no detection").
pub detection: Option<FirmwareDetection>,
}
impl FirmwareDetector for MockFirmwareDetector {
async fn detect(&self, _path: &Path) -> Result<Option<FirmwareDetection>, CoreError> {
Ok(self.detection.clone())
}
}
#[cfg(test)]
#[allow(clippy::expect_used, clippy::unwrap_used)]
mod tests {
use super::*;
fn detection(build_system: &str, framework: Option<&str>) -> FirmwareDetection {
FirmwareDetection {
provider: build_system.to_string(),
confidence: "high".to_string(),
build_system: build_system.to_string(),
framework: framework.map(|s| s.to_string()),
target: FirmwareTarget {
mcu: Some("stm32f429".to_string()),
..Default::default()
},
gaps: Vec::new(),
}
}
#[test]
fn zephyr_maps_to_rtos() {
assert_eq!(
detection_to_target_type(&detection("zephyr", Some("zephyr"))),
TargetType::FirmwareRtos
);
}
#[test]
fn bare_cmake_maps_to_bare_metal() {
assert_eq!(
detection_to_target_type(&detection("cmake", Some("bare-metal"))),
TargetType::FirmwareBareMetal
);
}
#[test]
fn bitbake_maps_to_yocto() {
assert_eq!(
detection_to_target_type(&detection("bitbake", None)),
TargetType::EmbeddedLinuxYocto
);
}
#[test]
fn verdict_carries_mcu_fact_and_confidence() {
let v = detection_to_verdict(&detection("esp-idf", Some("esp-idf")));
assert_eq!(v.target_type, TargetType::FirmwareRtos);
assert!((v.confidence - 0.9).abs() < f32::EPSILON);
assert!(v
.facts
.iter()
.any(|f| f.key == "mcu" && f.value == "stm32f429"));
}
}
+357
View File
@@ -0,0 +1,357 @@
//! Heuristic target-type classification from artifact kinds and source markers.
//!
//! Complements the tramiton firmware detector: this handles web / backend /
//! mobile / desktop / PLC by sniffing manifest files and file extensions in the
//! ingested code trees, plus strong priors from the artifact kinds themselves
//! (a PLC-project artifact is a PLC target; an `.ipa` is an iOS app).
use std::collections::HashSet;
use std::fs;
use std::path::Path;
use compliance_core::error::CoreError;
use compliance_core::models::{ArtifactKind, DetectedFact, TargetType};
use compliance_core::traits::{ClassificationInput, ClassifierVerdict, TargetClassifier};
/// Max directory depth scanned for marker files.
const SCAN_DEPTH: usize = 2;
/// Markers collected from a code tree.
#[derive(Default)]
struct Markers {
files: HashSet<String>,
dirs: HashSet<String>,
exts: HashSet<String>,
}
impl Markers {
fn has_file(&self, name: &str) -> bool {
self.files.contains(name)
}
fn has_ext(&self, ext: &str) -> bool {
self.exts.contains(ext)
}
fn any_dir_ends_with(&self, suffix: &str) -> bool {
self.dirs.iter().any(|d| d.ends_with(suffix))
}
}
/// Recursively collect marker file/dir/extension names up to [`SCAN_DEPTH`].
fn collect_markers(root: &Path) -> Markers {
let mut m = Markers::default();
scan_dir(root, 0, &mut m);
m
}
fn scan_dir(dir: &Path, depth: usize, m: &mut Markers) {
let Ok(entries) = fs::read_dir(dir) else {
return;
};
for entry in entries.flatten() {
let path = entry.path();
let name = entry.file_name().to_string_lossy().to_lowercase();
if path.is_dir() {
m.dirs.insert(name);
if depth < SCAN_DEPTH {
scan_dir(&path, depth + 1, m);
}
} else {
if let Some(ext) = path.extension() {
m.exts.insert(ext.to_string_lossy().to_lowercase());
}
m.files.insert(name);
}
}
}
/// Whether a `package.json` at `root` looks like a front-end app.
fn package_json_is_frontend(root: &Path) -> bool {
let Ok(content) = fs::read_to_string(root.join("package.json")) else {
return false;
};
let c = content.to_lowercase();
["react", "next", "vue", "@angular", "svelte", "vite"]
.iter()
.any(|f| c.contains(f))
}
/// The heuristic classifier: artifact-kind priors + source-tree markers.
pub struct HeuristicClassifier;
impl HeuristicClassifier {
/// Verdicts from the artifact kinds alone (no filesystem needed).
fn kind_priors(&self, input: &ClassificationInput<'_>) -> Vec<ClassifierVerdict> {
let mut out = Vec::new();
for a in input.artifacts {
let lower = a.source_ref.to_lowercase();
match a.kind {
ArtifactKind::PlcProject => out.push(verdict(
TargetType::PlcSps,
0.85,
"PLC project artifact",
vec![],
)),
ArtifactKind::MobilePackage => {
let (tt, why) = if lower.ends_with(".ipa") {
(TargetType::IosApp, "iOS package (.ipa)")
} else {
(TargetType::AndroidApp, "Android package (.apk/.aab)")
};
out.push(verdict(tt, 0.85, why, vec![]));
}
ArtifactKind::ContainerImage => out.push(verdict(
TargetType::BackendService,
0.4,
"container image",
vec![],
)),
ArtifactKind::FirmwareImage => out.push(verdict(
TargetType::FirmwareBareMetal,
0.35,
"firmware image (pending tramiton detection)",
vec![],
)),
ArtifactKind::LiveUrl if input.artifacts.len() == 1 => {
out.push(verdict(TargetType::WebApp, 0.3, "live URL only", vec![]))
}
_ => {}
}
}
out
}
/// Verdicts from scanning the ingested code trees for manifest markers.
fn source_verdicts(&self, input: &ClassificationInput<'_>) -> Vec<ClassifierVerdict> {
let mut out = Vec::new();
for a in input.artifacts {
if !matches!(a.kind, ArtifactKind::GitRepo | ArtifactKind::SourceArchive) {
continue;
}
let Some(path) = input.working_paths.get(&a.id) else {
continue;
};
let m = collect_markers(path);
// Mobile (checked first — strongest signal).
if m.has_file("androidmanifest.xml") || m.has_ext("apk") || m.has_ext("aab") {
out.push(verdict(
TargetType::AndroidApp,
0.8,
"Android manifest / gradle",
facts_lang("kotlin/java"),
));
}
if m.any_dir_ends_with(".xcodeproj")
|| m.has_file("info.plist")
|| m.has_file("podfile")
|| m.has_ext("ipa")
{
out.push(verdict(
TargetType::IosApp,
0.8,
"Xcode project / Info.plist",
facts_lang("swift/objc"),
));
}
// Desktop.
if m.has_ext("sln")
|| m.has_ext("csproj")
|| m.has_ext("vcxproj")
|| m.has_ext("desktop")
{
out.push(verdict(
TargetType::DesktopApp,
0.7,
"desktop project files",
facts_lang("dotnet/native"),
));
}
// PLC.
if m.has_ext("st") {
out.push(verdict(
TargetType::PlcSps,
0.8,
"Structured Text sources",
facts_lang("iec-61131-3"),
));
}
// Web vs backend from package.json.
if m.has_file("package.json") {
if package_json_is_frontend(path) {
out.push(verdict(
TargetType::WebApp,
0.65,
"package.json with a front-end framework",
facts_lang("javascript"),
));
} else {
out.push(verdict(
TargetType::BackendService,
0.55,
"package.json (no front-end framework)",
facts_lang("javascript"),
));
}
}
// Backend languages.
for (file, lang) in [
("cargo.toml", "rust"),
("go.mod", "go"),
("pom.xml", "java"),
("requirements.txt", "python"),
("pyproject.toml", "python"),
] {
if m.has_file(file) {
out.push(verdict(
TargetType::BackendService,
0.6,
"backend build manifest",
facts_lang(lang),
));
}
}
// Container-only.
if m.has_file("dockerfile") && out.is_empty() {
out.push(verdict(
TargetType::BackendService,
0.4,
"Dockerfile",
facts_lang("container"),
));
}
}
out
}
}
impl TargetClassifier for HeuristicClassifier {
fn name(&self) -> &str {
"heuristic"
}
async fn classify(
&self,
input: &ClassificationInput<'_>,
) -> Result<Vec<ClassifierVerdict>, CoreError> {
let mut out = self.kind_priors(input);
out.extend(self.source_verdicts(input));
Ok(out)
}
}
fn verdict(
target_type: TargetType,
confidence: f32,
rationale: &str,
facts: Vec<DetectedFact>,
) -> ClassifierVerdict {
ClassifierVerdict {
target_type,
confidence,
facts,
rationale: rationale.to_string(),
}
}
fn facts_lang(lang: &str) -> Vec<DetectedFact> {
vec![DetectedFact::new("language", lang, "heuristic")]
}
#[cfg(test)]
#[allow(clippy::expect_used, clippy::unwrap_used)]
mod tests {
use super::*;
use compliance_core::models::Artifact;
use std::collections::HashMap;
use std::path::PathBuf;
struct Scratch(PathBuf);
impl Scratch {
fn new() -> Self {
let p = std::env::temp_dir().join(format!("cs-classify-{}", uuid::Uuid::new_v4()));
fs::create_dir_all(&p).expect("mkdir");
Self(p)
}
}
impl Drop for Scratch {
fn drop(&mut self) {
let _ = fs::remove_dir_all(&self.0);
}
}
async fn classify_tree(setup: impl FnOnce(&Path)) -> Vec<ClassifierVerdict> {
let scratch = Scratch::new();
setup(&scratch.0);
let artifact = Artifact::git_repo("https://git/x", "main");
let mut wp = HashMap::new();
wp.insert(artifact.id.clone(), scratch.0.clone());
let artifacts = vec![artifact];
let input = ClassificationInput {
artifacts: &artifacts,
working_paths: &wp,
description: None,
};
HeuristicClassifier
.classify(&input)
.await
.expect("classify")
}
#[tokio::test]
async fn frontend_package_json_is_webapp() {
let v = classify_tree(|root| {
fs::write(
root.join("package.json"),
r#"{"dependencies":{"react":"18"}}"#,
)
.unwrap();
})
.await;
assert!(v.iter().any(|x| x.target_type == TargetType::WebApp));
}
#[tokio::test]
async fn cargo_toml_is_backend() {
let v = classify_tree(|root| {
fs::write(root.join("Cargo.toml"), "[package]\nname='x'").unwrap();
})
.await;
assert!(v
.iter()
.any(|x| x.target_type == TargetType::BackendService));
}
#[tokio::test]
async fn android_manifest_is_android() {
let v = classify_tree(|root| {
fs::write(root.join("AndroidManifest.xml"), "<manifest/>").unwrap();
})
.await;
assert!(v.iter().any(|x| x.target_type == TargetType::AndroidApp));
}
#[tokio::test]
async fn structured_text_is_plc() {
let v = classify_tree(|root| {
fs::write(root.join("main.st"), "PROGRAM main END_PROGRAM").unwrap();
})
.await;
assert!(v.iter().any(|x| x.target_type == TargetType::PlcSps));
}
#[tokio::test]
async fn ipa_artifact_prior_is_ios() {
let artifacts = vec![Artifact::mobile_package("app.ipa")];
let wp = HashMap::new();
let input = ClassificationInput {
artifacts: &artifacts,
working_paths: &wp,
description: None,
};
let v = HeuristicClassifier
.classify(&input)
.await
.expect("classify");
assert!(v.iter().any(|x| x.target_type == TargetType::IosApp));
}
}
+226
View File
@@ -0,0 +1,226 @@
//! Target classification.
//!
//! Runs the classifier registry over a target's artifacts and their ingested
//! working paths, then merges and ranks the verdicts into a [`Classification`].
//! The registry is the heuristic classifier (artifact kinds + source markers)
//! plus the tramiton firmware detector (behind a [`FirmwareDetector`] port).
mod firmware;
mod language;
pub use firmware::{
FirmwareDetection, FirmwareDetector, FirmwareTarget, MockFirmwareDetector, TramitonNative,
};
pub use language::HeuristicClassifier;
use std::collections::HashMap;
use std::path::PathBuf;
use compliance_core::error::CoreError;
use compliance_core::models::{
ArtifactKind, Classification, DetectedFact, OnboardedTarget, TargetType, TargetTypeCandidate,
};
use compliance_core::traits::{ClassificationInput, ClassifierVerdict, TargetClassifier};
use firmware::detection_to_verdict;
/// Classify a target from its artifacts and their ingested working paths, using
/// the heuristic classifier plus the tramiton firmware detector. Verdicts are
/// merged (max confidence per target type) and ranked into a [`Classification`].
pub async fn classify_target<D: FirmwareDetector>(
target: &OnboardedTarget,
working_paths: &HashMap<String, PathBuf>,
firmware_detector: &D,
) -> Result<Classification, CoreError> {
let input = ClassificationInput {
artifacts: &target.artifacts,
working_paths,
description: target.description.as_deref(),
};
let mut verdicts = Vec::new();
let mut detected_by = Vec::new();
let heuristic = HeuristicClassifier.classify(&input).await?;
if !heuristic.is_empty() {
detected_by.push("heuristic".to_string());
}
verdicts.extend(heuristic);
// Tramiton firmware detection over firmware / code working paths.
let mut tramiton_used = false;
for artifact in &target.artifacts {
if !matches!(
artifact.kind,
ArtifactKind::FirmwareImage | ArtifactKind::GitRepo | ArtifactKind::SourceArchive
) {
continue;
}
let Some(path) = working_paths.get(&artifact.id) else {
continue;
};
if let Some(detection) = firmware_detector.detect(path).await? {
verdicts.push(detection_to_verdict(&detection));
tramiton_used = true;
}
}
if tramiton_used {
detected_by.push("tramiton".to_string());
}
Ok(rank(verdicts, detected_by, target.target_type))
}
/// Merge verdicts by target type (keeping the max confidence and its rationale),
/// dedupe facts, rank by descending confidence, and assemble a [`Classification`].
/// Falls back to the declared type when no verdict is produced.
fn rank(
verdicts: Vec<ClassifierVerdict>,
detected_by: Vec<String>,
fallback: TargetType,
) -> Classification {
let mut best: HashMap<TargetType, (f32, String)> = HashMap::new();
let mut facts: Vec<DetectedFact> = Vec::new();
for verdict in verdicts {
for fact in verdict.facts {
if !facts
.iter()
.any(|e| e.key == fact.key && e.value == fact.value)
{
facts.push(fact);
}
}
let entry = best
.entry(verdict.target_type)
.or_insert((0.0, String::new()));
if verdict.confidence > entry.0 {
*entry = (verdict.confidence, verdict.rationale);
}
}
let mut candidates: Vec<TargetTypeCandidate> = best
.into_iter()
.map(
|(target_type, (confidence, rationale))| TargetTypeCandidate {
target_type,
confidence,
rationale,
},
)
.collect();
// Descending confidence; ties broken by type name for deterministic ordering.
candidates.sort_by(|a, b| {
b.confidence
.partial_cmp(&a.confidence)
.unwrap_or(std::cmp::Ordering::Equal)
.then_with(|| a.target_type.to_string().cmp(&b.target_type.to_string()))
});
let suggested = candidates
.first()
.map(|c| c.target_type)
.unwrap_or(fallback);
Classification {
suggested,
candidates,
facts,
detected_by,
detected_at: chrono::Utc::now(),
confirmed: false,
}
}
#[cfg(test)]
#[allow(clippy::expect_used, clippy::unwrap_used)]
mod tests {
use super::*;
use compliance_core::models::Artifact;
use std::fs;
use std::path::Path;
struct Scratch(PathBuf);
impl Scratch {
fn new() -> Self {
let p = std::env::temp_dir().join(format!("cs-classify-mod-{}", uuid::Uuid::new_v4()));
fs::create_dir_all(&p).expect("mkdir");
Self(p)
}
}
impl Drop for Scratch {
fn drop(&mut self) {
let _ = fs::remove_dir_all(&self.0);
}
}
fn no_firmware() -> MockFirmwareDetector {
MockFirmwareDetector { detection: None }
}
#[tokio::test]
async fn backend_repo_classifies_as_backend() {
let scratch = Scratch::new();
fs::write(scratch.0.join("go.mod"), "module x").unwrap();
let artifact = Artifact::git_repo("https://git/x", "main");
let mut wp = HashMap::new();
wp.insert(artifact.id.clone(), scratch.0.clone());
let mut target = OnboardedTarget::new("x".to_string(), TargetType::WebApp);
target.artifacts.push(artifact);
let c = classify_target(&target, &wp, &no_firmware())
.await
.expect("classify");
assert_eq!(c.suggested, TargetType::BackendService);
assert!(c.detected_by.contains(&"heuristic".to_string()));
assert!(!c.confirmed);
}
#[tokio::test]
async fn firmware_detector_verdict_ranks_top() {
let scratch = Scratch::new();
fs::write(scratch.0.join("fw.bin"), b"x").unwrap();
let artifact =
Artifact::firmware_image(scratch.0.join("fw.bin").to_string_lossy().to_string());
let mut wp = HashMap::new();
wp.insert(artifact.id.clone(), scratch.0.clone());
let mut target = OnboardedTarget::new("fw".to_string(), TargetType::FirmwareBareMetal);
target.artifacts.push(artifact);
let detector = MockFirmwareDetector {
detection: Some(FirmwareDetection {
provider: "zephyr".to_string(),
confidence: "high".to_string(),
build_system: "zephyr".to_string(),
framework: Some("zephyr".to_string()),
target: FirmwareTarget {
mcu: Some("nrf52840".to_string()),
..Default::default()
},
gaps: vec![],
}),
};
let c = classify_target(&target, &wp, &detector)
.await
.expect("classify");
// tramiton's high-confidence RTOS verdict beats the weak firmware prior.
assert_eq!(c.suggested, TargetType::FirmwareRtos);
assert!(c.detected_by.contains(&"tramiton".to_string()));
assert!(c.facts.iter().any(|f| f.key == "mcu"));
}
#[tokio::test]
async fn no_signal_falls_back_to_declared_type() {
let scratch = Scratch::new();
let _ = Path::new(&scratch.0);
let target = OnboardedTarget::new("empty".to_string(), TargetType::DesktopApp);
let wp = HashMap::new();
let c = classify_target(&target, &wp, &no_firmware())
.await
.expect("classify");
assert_eq!(c.suggested, TargetType::DesktopApp);
assert!(c.candidates.is_empty());
}
}