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Implements build-order step 7, the last (optional) item. Scoped to
Sniper only - one payload set, one §-marked position fuzzed at a time,
others held at their base value - since that covers most real Intruder
usage; battering ram / pitchfork / cluster bomb aren't implemented.
Sequential sending, capped at 1000 generated requests as a fixed safety
limit.
internal/proxy: repeat.go's Repeat() is refactored into a shared
sendRaw(..., source) primitive so Intrude can reuse the exact same
raw-byte send/record path with source="intruder" instead of
duplicating it. intrude.go adds ParseMarkers/buildRequest (marker
parsing and payload substitution, covered by intrude_test.go - this is
fiddly byte-splicing logic, worth locking down with real tests rather
than trusting it by inspection) and Intrude(), which walks positions ×
payloads calling sendRaw and streaming each result through a callback.
internal/ipc gains a dedicated streaming "intrude" connection (same
shape as Subscribe, but blocking sends rather than drop-on-slow-
consumer - each result is the attack's actual data, not a
notification). cmd/mitmux gains an Intruder view: editable request
template (ctrl+p inserts a § marker at the cursor - typing § directly
also works, ctrl+p just doesn't require a keyboard layout that can
produce it), editable payload list, and a live results table wired to
the existing detail view (selecting a row and hitting enter opens the
full request/response for that specific attack request).
Verified live against real external traffic: a Sniper attack against
httpbin.org/status/§200§ with payloads 200/404/500 produced exactly the
three corresponding real status codes back (not a canned/local result),
confirmed the three requests landed in history tagged source="intruder"
with the § markers correctly stripped from what was actually sent, and
confirmed opening a result row's full detail from the results table.
This closes out the full build order from PLAN.md (steps 1-7).
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Implements build-order step 6, scoped to headers only for this pass -
see PLAN.md for why bodies are a separate problem (request-body capture
currently depends on streaming straight through, which a body-rewriting
rule would have to interrupt; deciding what "exact" means for a
rule-modified request needs its own pass, not a rushed add-on to this
one).
internal/rules: Rule type and ApplyHeaders, which serializes a Header
map to a raw "Name: value\r\n" block, runs enabled rules' match/replace
over that text, and reparses it - operating on text rather than
per-value substitution is what lets a rule add or remove a header, not
just rewrite one, matching how Burp's header match/replace works.
Invalid rule output (bad regex, unparseable result) leaves the header
map untouched rather than corrupting the request.
internal/store: rules table + CRUD. internal/proxy: forward() fetches
enabled rules for each scope and applies them to outReq.Header /
resp.Header, positioned so the existing capture/history pipeline is
untouched - request_raw keeps showing what the client actually sent and
response_raw what the origin actually sent, while the wire itself
reflects the rules. Deliberate split: match-and-replace transforms
traffic, it doesn't rewrite the audit trail. internal/ipc gains
rules_list/rules_save/rules_delete/rules_toggle. cmd/mitmux gains a
rules view ('m' from history) with add/edit/delete/toggle and a small
form (name, match, replace, scope, regex).
Verified live against real external traffic, not just local echoes:
a request-scope rule rewriting User-Agent, confirmed via httpbin.org's
own header echo that the origin received the rewritten value while curl
sent the real one; a response-scope rule rewriting the Server header,
confirmed the client actually received the rewritten value; disabling a
rule confirmed via a follow-up request that it stops applying; and
throughout, history continued showing the pre-rule original on both
sides, confirming the capture/transform split holds.
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Implements build-order step 3. Adds:
- internal/store: SQLite (WAL, single-writer) history table, raw
request/response blobs plus metadata for the list view.
- internal/proxy: request/response capture wired into forward(). HTTP/1.1
legs are captured byte-exact via a teeConn that records wire bytes as
they're read, taken right after the message is fully drained (so no
manual re-reading/replaying is needed - RoundTrip's own streaming does
the draining). HTTP/2 legs (no meaningful "raw bytes" of their own -
multiplexed, HPACK-compressed framing) are reconstructed instead, and
marked as such in storage.
- internal/ipc: JSON-over-Unix-socket protocol between mitmuxd (owns the
proxy and the DB) and any client - list/get for queries, subscribe for
a live push stream of newly captured entries. Keeps the proxy engine
independent of the UI, per the architecture sketch.
- cmd/mitmux: Bubble Tea TUI - a live-updating history table and a
request/response detail view with raw bytes.
Two real bugs surfaced during testing and got fixed before commit:
1. http.Transport's HTTP/2 auto-dispatch does a literal *tls.Conn type
assertion on the dialed connection; wrapping it in a capturing teeConn
broke that silently, and HTTP/2 framing got parsed as HTTP/1.1 text.
Fixed by dropping http.Transport for the upstream leg entirely in
favor of an explicit per-protocol round trip (see PLAN.md stack note).
2. singleConnListener wrapped the client teeConn *inside* a
closeSignalConn, so ConnContext's type assertion for it silently
failed and HTTP/1.1 client-side capture never activated. Fixed the
wrap order; verified via direct SQLite inspection that request_exact
flips back to 1 and the stored bytes are genuinely wire-exact
(preserved chunked-encoding framing, original header casing/order).
Verified live: plain HTTP, HTTPS H1.1, HTTPS H2, and a POST with a body,
checked against the raw stored bytes directly in SQLite; IPC list/get/
subscribe against a throwaway client; and the TUI driven end-to-end in a
tmux session (list, detail view, tab between request/response, live
update on a new request while sitting on the list).
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Implements build-order step 1: headless proxy daemon (mitmuxd) with
plaintext HTTP passthrough and raw CONNECT tunneling, plus root CA
generation/persistence for later TLS interception. Verified live
against real HTTP and HTTPS requests through the proxy.
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