mirror of
https://github.com/jmcorgan/fips.git
synced 2026-07-30 19:46:15 +00:00
Two runs on one host destroyed each other's containers, producing mid-test "No such container" failures that look like real defects. The automated builder runs a full local CI on the same box every few minutes, so the machine is contended almost always and this has red-ed both a hand run and an automated gate. Two independent causes are fixed here. Container names were hardcoded, and docker names are global rather than scoped by compose project, so two runs collided on the same name; every name now takes an optional suffix that the harness sets from the run id. And the cleanup sweep matched a label shared by every run, so one run's teardown force-removed another's containers; resources now also carry a per-run label and the sweep can be narrowed to it. A third hazard turned up that was not in the original report: the sidecar suite passes explicit compose project names, which override the run-scoped project and put it outside the shared prefix entirely. Its project names, network, and derived container references are now scoped too. Both are default-off. With the suffix unset, names render exactly as they do today and a bare compose invocation is unchanged, which is what keeps the hosted CI and the documentation correct. A cleanup run with no run id still reaps everything, which is what a manual "clear the box" wants. The literal-name sweep was not sufficient: six scripts build container names dynamically from node labels, and two suites create their own containers outside compose. Those are handled at their construction sites. Verified: syntax check on all modified scripts; compose validation on every modified file with the suffix both set and unset; and a synthetic two-run reproduction that shows the old cleanup destroying a bystander run and the new one leaving it alone. Known gap: subnets are still hardcoded, so two concurrent full runs will still collide on address-pool overlap. That fix reaches into topology configs, chaos scenarios, diagrams and production source, so it is left for its own change rather than half-done here.
457 lines
17 KiB
Bash
Executable File
457 lines
17 KiB
Bash
Executable File
#!/bin/bash
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# Gateway integration test: non-FIPS LAN client reaches mesh HTTP server.
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#
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# Topology:
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# gw-client (non-FIPS) → gw-gateway (fips + fips-gateway) → gw-server (fips + http)
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#
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# Usage:
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# ./scripts/gateway-test.sh [inject-config]
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#
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# Subcommands:
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# inject-config — post-process generated configs to add gateway section
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# (no args) — run the test (containers must be running)
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set -e
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trap 'echo ""; echo "Test interrupted"; exit 130' INT
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SCRIPT_DIR="$(cd "$(dirname "${BASH_SOURCE[0]}")" && pwd)"
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source "$SCRIPT_DIR/../../lib/wait-converge.sh"
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GENERATED_DIR="$SCRIPT_DIR/../generated-configs"
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ENV_FILE="$GENERATED_DIR/npubs.env"
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GATEWAY="fips-gw-gateway${FIPS_CI_NAME_SUFFIX:-}"
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SERVER="fips-gw-server${FIPS_CI_NAME_SUFFIX:-}"
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SERVER2="fips-gw-server-2${FIPS_CI_NAME_SUFFIX:-}"
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CLIENT="fips-gw-client${FIPS_CI_NAME_SUFFIX:-}"
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CLIENT2="fips-gw-client-2${FIPS_CI_NAME_SUFFIX:-}"
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# ── inject-config subcommand ─────────────────────────────────────────────
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inject_gateway_config() {
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local config_file="$GENERATED_DIR/gateway/node-a.yaml"
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if [ ! -f "$config_file" ]; then
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echo "Error: $config_file not found. Run generate-configs.sh gateway first." >&2
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exit 1
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fi
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echo "Injecting gateway config into $config_file"
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python3 -c "
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import yaml
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with open('$config_file') as f:
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cfg = yaml.safe_load(f)
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cfg['gateway'] = {
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'enabled': True,
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'pool': 'fd01::/112',
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# Docker assigns gateway-lan to eth1 (fips-net is eth0). The
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# LAN-side masquerade for inbound port forwards gates on this.
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'lan_interface': 'eth1',
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'dns': {
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'listen': '[::]:53',
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'ttl': 5,
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},
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'pool_grace_period': 5,
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'port_forwards': [
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{
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'listen_port': 18080,
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'proto': 'tcp',
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'target': '[fd02::20]:8080',
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},
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# 6B: second TCP forward — exercises multiple simultaneous TCP
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# rules sharing the same LAN backend on a different listen port.
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{
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'listen_port': 18082,
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'proto': 'tcp',
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'target': '[fd02::20]:8081',
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},
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# 6A: UDP forward — exercises the runtime UDP DNAT path (rule
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# shape + conntrack handling) end-to-end.
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{
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'listen_port': 18081,
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'proto': 'udp',
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'target': '[fd02::20]:8081',
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},
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],
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}
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with open('$config_file', 'w') as f:
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yaml.dump(cfg, f, default_flow_style=False, sort_keys=False)
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"
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echo " ✓ Gateway config injected"
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}
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if [ "${1:-}" = "inject-config" ]; then
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inject_gateway_config
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exit 0
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fi
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# ── Main test ────────────────────────────────────────────────────────────
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if [ ! -f "$ENV_FILE" ]; then
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echo "Error: $ENV_FILE not found. Run generate-configs.sh gateway first." >&2
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exit 1
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fi
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# shellcheck source=../generated-configs/npubs.env
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source "$ENV_FILE"
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PASSED=0
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FAILED=0
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check() {
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local label="$1"
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local result="$2"
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if [ "$result" -eq 0 ]; then
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echo " $label ... OK"
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PASSED=$((PASSED + 1))
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else
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echo " $label ... FAIL"
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FAILED=$((FAILED + 1))
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fi
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}
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echo "=== FIPS Gateway Integration Test ==="
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echo ""
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# Phase 1: Wait for mesh convergence (gateway ↔ server, gateway ↔ server-2)
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echo "Phase 1: Mesh convergence"
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wait_for_peers "$GATEWAY" 2 30 || true
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wait_for_peers "$SERVER" 1 30 || true
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wait_for_peers "$SERVER2" 1 30 || true
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# Phase 2: Wait for gateway DNS to respond
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echo ""
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echo "Phase 2: Gateway DNS readiness"
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DNS_READY=false
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for i in $(seq 1 30); do
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# Try resolving the server's npub via the gateway DNS from the client.
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# Match fd01:: specifically (the pool prefix) to avoid false-positive
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# matches on error messages containing fd02::10.
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local_result=$(docker exec "$CLIENT" dig +short AAAA "${NPUB_B}.fips" @fd02::10 2>/dev/null || true)
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if echo "$local_result" | grep -q "^fd01::"; then
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echo " Gateway DNS responding after ${i}s"
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DNS_READY=true
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break
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fi
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sleep 1
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done
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if [ "$DNS_READY" != true ]; then
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echo " WARNING: Gateway DNS did not respond within 30s, continuing anyway"
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fi
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# Phase 3: Client network setup — route virtual IP pool via gateway
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echo ""
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echo "Phase 3: Client network setup"
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docker exec "$CLIENT" ip -6 route add fd01::/112 via fd02::10 2>/dev/null || true
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echo " Added route fd01::/112 via fd02::10 on $CLIENT"
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docker exec "$CLIENT2" ip -6 route add fd01::/112 via fd02::10 2>/dev/null || true
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echo " Added route fd01::/112 via fd02::10 on $CLIENT2"
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# Phase 4: DNS resolution test — resolve server npub from both clients,
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# exercising concurrent multi-client mappings.
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echo ""
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echo "Phase 4: DNS resolution"
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VIRTUAL_IP=$(docker exec "$CLIENT" dig +short AAAA "${NPUB_B}.fips" @fd02::10 2>/dev/null | head -1)
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if [ -n "$VIRTUAL_IP" ] && echo "$VIRTUAL_IP" | grep -q "fd01"; then
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check "Resolve ${NPUB_B:0:20}...fips on $CLIENT → $VIRTUAL_IP" 0
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else
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check "Resolve ${NPUB_B:0:20}...fips on $CLIENT (got: '$VIRTUAL_IP')" 1
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fi
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VIRTUAL_IP_2=$(docker exec "$CLIENT2" dig +short AAAA "${NPUB_C}.fips" @fd02::10 2>/dev/null | head -1)
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if [ -n "$VIRTUAL_IP_2" ] && echo "$VIRTUAL_IP_2" | grep -q "fd01"; then
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check "Resolve ${NPUB_C:0:20}...fips on $CLIENT2 → $VIRTUAL_IP_2" 0
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else
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check "Resolve ${NPUB_C:0:20}...fips on $CLIENT2 (got: '$VIRTUAL_IP_2')" 1
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fi
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# Both clients must receive distinct virtual-IP mappings — this is the
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# core multi-client invariant: each LAN client gets its own pool entry.
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if [ -n "$VIRTUAL_IP" ] && [ -n "$VIRTUAL_IP_2" ] && [ "$VIRTUAL_IP" != "$VIRTUAL_IP_2" ]; then
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check "Distinct virtual IPs per client ($VIRTUAL_IP vs $VIRTUAL_IP_2)" 0
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else
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check "Distinct virtual IPs per client (got: '$VIRTUAL_IP' vs '$VIRTUAL_IP_2')" 1
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fi
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# Verify gateway show_mappings reports both client mappings. Mapping
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# allocation happens in the DNS response path, but the gateway control
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# socket serves a snapshot that is refreshed on a 10s tick (see
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# src/bin/fips-gateway.rs tick interval). Poll up to 15s so at least
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# one post-allocation snapshot tick is guaranteed to land.
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ACTIVE_COUNT="error"
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# Control socket protocol is line-delimited JSON ({"command": "..."});
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# bare "show_mappings" returns an "invalid request" error response with
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# no data field and the parse below counts that as 0 mappings.
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for _ in $(seq 1 15); do
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GW_MAPPINGS=$(docker exec "$GATEWAY" bash -c \
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'echo "{\"command\":\"show_mappings\"}" | nc -U -w1 /run/fips/gateway.sock 2>/dev/null' || echo "")
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ACTIVE_COUNT=$(echo "$GW_MAPPINGS" \
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| python3 -c "import sys,json; r=json.load(sys.stdin); print(len(r.get('data',{}).get('mappings',[])))" 2>/dev/null || echo "error")
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if [ "$ACTIVE_COUNT" = "2" ]; then
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break
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fi
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sleep 1
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done
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if [ "$ACTIVE_COUNT" = "2" ]; then
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check "Gateway reports 2 active mappings (multi-client)" 0
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else
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check "Gateway active mapping count (got: $ACTIVE_COUNT)" 1
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fi
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# Phase 5: End-to-end HTTP test from both clients in parallel
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echo ""
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echo "Phase 5: HTTP through gateway"
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# Use --resolve to bind the .fips hostname to the virtual IP for curl.
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# Run both client requests concurrently to exercise simultaneous flows
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# through distinct NAT mappings.
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RESP_FILE=$(mktemp)
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RESP_FILE_2=$(mktemp)
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trap 'rm -f "$RESP_FILE" "$RESP_FILE_2"' EXIT
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if [ -n "$VIRTUAL_IP" ]; then
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docker exec "$CLIENT" curl -6 -s --max-time 10 \
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--resolve "${NPUB_B}.fips:8000:[$VIRTUAL_IP]" \
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"http://${NPUB_B}.fips:8000/" >"$RESP_FILE" 2>&1 &
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PID1=$!
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else
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PID1=""
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fi
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if [ -n "$VIRTUAL_IP_2" ]; then
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docker exec "$CLIENT2" curl -6 -s --max-time 10 \
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--resolve "${NPUB_C}.fips:8000:[$VIRTUAL_IP_2]" \
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"http://${NPUB_C}.fips:8000/" >"$RESP_FILE_2" 2>&1 &
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PID2=$!
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else
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PID2=""
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fi
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[ -n "$PID1" ] && wait "$PID1" || true
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[ -n "$PID2" ] && wait "$PID2" || true
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RESPONSE=$(cat "$RESP_FILE")
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RESPONSE_2=$(cat "$RESP_FILE_2")
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if [ -n "$VIRTUAL_IP" ]; then
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if echo "$RESPONSE" | grep -q "Fuck IPs"; then
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check "HTTP GET from $CLIENT" 0
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else
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check "HTTP GET from $CLIENT (response: '${RESPONSE:0:80}')" 1
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fi
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else
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check "HTTP GET from $CLIENT (skipped — no virtual IP)" 1
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fi
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if [ -n "$VIRTUAL_IP_2" ]; then
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if echo "$RESPONSE_2" | grep -q "Fuck IPs"; then
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check "HTTP GET from $CLIENT2" 0
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else
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check "HTTP GET from $CLIENT2 (response: '${RESPONSE_2:0:80}')" 1
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fi
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else
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check "HTTP GET from $CLIENT2 (skipped — no virtual IP)" 1
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fi
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# Phase 6: Verify NAT state on gateway
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echo ""
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echo "Phase 6: Gateway NAT state"
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# Check that nftables rules were created
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NFT_RULES=$(docker exec "$GATEWAY" nft list table inet fips_gateway 2>/dev/null || echo "")
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if echo "$NFT_RULES" | grep -q "dnat"; then
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check "nftables DNAT rules present" 0
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else
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check "nftables DNAT rules" 1
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fi
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# Phase 7: Inbound port forwarding — UDP and a second simultaneous TCP forward.
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#
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# Three forwards exercised:
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# tcp 18080 → [fd02::20]:8080 (original — single TCP rule)
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# tcp 18082 → [fd02::20]:8081 (6B — second TCP rule, multiple forwards)
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# udp 18081 → [fd02::20]:8081 (6A — UDP DNAT runtime path)
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#
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# Mesh peer (gw-server) hits each gw-gateway fips0:<port> rule, which
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# DNATs into the LAN-side gw-client. Exercises the DNAT rules + LAN-side
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# masquerade installed by set_port_forwards().
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echo ""
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echo "Phase 7: Inbound port forwards"
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# Confirm all three port-forward DNAT rules are present on the gateway.
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# The distinctive listen ports identify our rules regardless of how nft
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# renders the l4proto/dport predicates.
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if echo "$NFT_RULES" | grep -q "18080"; then
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check "nftables port-forward DNAT rule (tcp 18080)" 0
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else
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check "nftables port-forward DNAT rule (tcp 18080)" 1
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fi
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if echo "$NFT_RULES" | grep -q "18082"; then
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check "nftables port-forward DNAT rule (tcp 18082)" 0
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else
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check "nftables port-forward DNAT rule (tcp 18082)" 1
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fi
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if echo "$NFT_RULES" | grep -q "18081"; then
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check "nftables port-forward DNAT rule (udp 18081)" 0
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else
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check "nftables port-forward DNAT rule (udp 18081)" 1
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fi
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# Start marker HTTP servers on the LAN-side client.
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# :8080 → "inbound-forward-ok" (target of tcp 18080)
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# :8081 → "inbound-forward-ok-2" (target of tcp 18082)
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# `docker exec -d` is required; `docker exec bash -c 'cmd &'` doesn't
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# keep the child alive past the exec session, even with nohup.
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docker exec "$CLIENT" sh -c '
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mkdir -p /tmp/inbound /tmp/inbound2
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echo "inbound-forward-ok" > /tmp/inbound/index.html
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echo "inbound-forward-ok-2" > /tmp/inbound2/index.html
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pkill -f "http.server 8080" 2>/dev/null || true
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pkill -f "http.server 8081" 2>/dev/null || true
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pkill -f "udp_echo.py" 2>/dev/null || true
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' >/dev/null 2>&1 || true
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docker exec -d "$CLIENT" python3 -m http.server 8080 --bind :: --directory /tmp/inbound \
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>/dev/null 2>&1 || true
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docker exec -d "$CLIENT" python3 -m http.server 8081 --bind :: --directory /tmp/inbound2 \
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>/dev/null 2>&1 || true
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# Start a UDP echo server on the LAN-side client at [::]:8081/udp.
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# This is the target of the udp 18081 forward. Stash the script as a
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# named file (`udp_echo.py`) so the cleanup pkill above can find it.
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docker exec "$CLIENT" sh -c 'cat > /tmp/udp_echo.py <<'\''PYEOF'\''
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import socket, sys
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s = socket.socket(socket.AF_INET6, socket.SOCK_DGRAM)
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s.bind(("::", 8081))
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while True:
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data, addr = s.recvfrom(2048)
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s.sendto(b"udp-forward-ok:" + data, addr)
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PYEOF' >/dev/null 2>&1 || true
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docker exec -d "$CLIENT" python3 /tmp/udp_echo.py >/dev/null 2>&1 || true
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# Give the servers a moment to bind.
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for _ in 1 2 3 4 5; do
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TCP_READY=$(docker exec "$CLIENT" ss -6lnt 2>/dev/null | grep -cE ':8080|:8081' || true)
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UDP_READY=$(docker exec "$CLIENT" ss -6lnu 2>/dev/null | grep -c ':8081' || true)
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if [ "$TCP_READY" -ge 2 ] && [ "$UDP_READY" -ge 1 ]; then
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break
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fi
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sleep 1
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done
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# Derive the gateway's mesh IPv6 (fd00::/8 address assigned to fips0).
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GW_MESH_IP=$(docker exec "$GATEWAY" bash -c \
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"ip -6 -o addr show fips0 | awk '/inet6 fd/ {print \$4}' | cut -d/ -f1 | head -1" \
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2>/dev/null || echo "")
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if [ -z "$GW_MESH_IP" ]; then
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check "Gateway fips0 IPv6 address" 1
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else
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echo " Gateway mesh IPv6: $GW_MESH_IP"
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# From the mesh side (gw-server), fetch through each TCP forward.
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FWD_RESPONSE=$(docker exec "$SERVER" curl -6 -s --max-time 10 \
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"http://[${GW_MESH_IP}]:18080/" 2>&1) || true
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# 8080 backend serves "inbound-forward-ok" (no -2 suffix) — distinct
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# from the 8081 backend so a misrouted response would be detectable.
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if echo "$FWD_RESPONSE" | grep -qE '^inbound-forward-ok$'; then
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check "Inbound HTTP via TCP forward 18080 → [fd02::20]:8080" 0
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else
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check "Inbound HTTP via TCP forward 18080 (response: '${FWD_RESPONSE:0:80}')" 1
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fi
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FWD_RESPONSE_2=$(docker exec "$SERVER" curl -6 -s --max-time 10 \
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"http://[${GW_MESH_IP}]:18082/" 2>&1) || true
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if echo "$FWD_RESPONSE_2" | grep -q "inbound-forward-ok-2"; then
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check "Inbound HTTP via TCP forward 18082 → [fd02::20]:8081 (6B)" 0
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else
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check "Inbound HTTP via TCP forward 18082 (response: '${FWD_RESPONSE_2:0:80}')" 1
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fi
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# 6A: UDP forward. Send a probe via a one-shot Python client on
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# gw-server; the LAN-side echo server prepends "udp-forward-ok:".
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UDP_RESPONSE=$(docker exec "$SERVER" python3 -c "
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import socket, sys
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s = socket.socket(socket.AF_INET6, socket.SOCK_DGRAM)
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s.settimeout(5)
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s.sendto(b'ping-via-udp-fwd', ('${GW_MESH_IP}', 18081))
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try:
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data, _ = s.recvfrom(2048)
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sys.stdout.write(data.decode('utf-8', 'replace'))
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except Exception as e:
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sys.stdout.write('ERR: ' + str(e))
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" 2>&1) || true
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if echo "$UDP_RESPONSE" | grep -q "udp-forward-ok:ping-via-udp-fwd"; then
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check "Inbound UDP via forward 18081 → [fd02::20]:8081 (6A)" 0
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else
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check "Inbound UDP via forward 18081 (response: '${UDP_RESPONSE:0:80}')" 1
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fi
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fi
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# Cleanup: stop the LAN-side responders so Phase 8's pool-reclamation
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# wait isn't interfered with by lingering sessions.
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docker exec "$CLIENT" sh -c '
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pkill -f "http.server 8080" 2>/dev/null || true
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pkill -f "http.server 8081" 2>/dev/null || true
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pkill -f "udp_echo.py" 2>/dev/null || true
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' >/dev/null 2>&1 || true
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# Phase 8: TTL expiration and pool reclamation
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echo ""
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echo "Phase 8: TTL expiration and pool reclamation"
|
|
# Flush conntrack so stale sessions from Phase 5 don't keep the mapping alive.
|
|
docker exec "$GATEWAY" conntrack -F 2>/dev/null || true
|
|
# Config uses ttl=5, pool_grace_period=5. Pool tick interval is 10s, so:
|
|
# tick 1 (~10s): TTL expired → Draining (sessions=0 after flush)
|
|
# tick 2 (~20s): grace expired → freed
|
|
# Wait 25s to ensure two full tick cycles have passed.
|
|
echo " Waiting 25s for TTL + grace period to expire (two tick cycles)..."
|
|
sleep 25
|
|
|
|
# Query gateway control socket for mapping count
|
|
MAPPING_COUNT=$(docker exec "$GATEWAY" bash -c \
|
|
'echo "{\"command\":\"show_mappings\"}" | nc -U -w1 /run/fips/gateway.sock 2>/dev/null' \
|
|
| python3 -c "import sys,json; r=json.load(sys.stdin); print(len(r.get('data',{}).get('mappings',[])))" 2>/dev/null || echo "error")
|
|
if [ "$MAPPING_COUNT" = "0" ]; then
|
|
check "Mapping reclaimed after TTL+grace" 0
|
|
else
|
|
check "Mapping reclaimed (count: $MAPPING_COUNT)" 1
|
|
fi
|
|
|
|
# Phase 9: SERVFAIL when daemon DNS is down
|
|
echo ""
|
|
echo "Phase 9: SERVFAIL when daemon DNS is down"
|
|
# Kill the fips daemon inside the gateway container (gateway stays running)
|
|
docker exec "$GATEWAY" pkill -f "^fips --config" 2>/dev/null || true
|
|
sleep 2
|
|
|
|
# Gateway upstream timeout is 5s, so dig must wait longer than that.
|
|
SERVFAIL_RESULT=$(docker exec "$CLIENT" dig +short +tries=1 +time=8 AAAA "test-servfail.fips" @fd02::10 2>&1 || true)
|
|
SERVFAIL_STATUS=$(docker exec "$CLIENT" dig +tries=1 +time=8 AAAA "test-servfail.fips" @fd02::10 2>&1 | grep -c "SERVFAIL" || true)
|
|
if [ "$SERVFAIL_STATUS" -ge 1 ]; then
|
|
check "SERVFAIL when daemon DNS is down" 0
|
|
else
|
|
check "SERVFAIL when daemon DNS down (got: '${SERVFAIL_RESULT:0:80}')" 1
|
|
fi
|
|
|
|
# Phase 10: Cleanup verification (nftables removed on shutdown)
|
|
echo ""
|
|
echo "Phase 10: Cleanup on shutdown"
|
|
# fips-gateway is PID 1 (exec in entrypoint), so SIGTERM stops the container.
|
|
# Verify cleanup by checking container logs for the shutdown sequence.
|
|
docker stop --time=10 "$GATEWAY" >/dev/null 2>&1 || true
|
|
sleep 1
|
|
|
|
LOGS=$(docker logs --tail=20 "$GATEWAY" 2>&1)
|
|
if echo "$LOGS" | grep -q "shutdown complete"; then
|
|
check "Gateway shutdown completed cleanly" 0
|
|
else
|
|
check "Gateway shutdown (no completion message in logs)" 1
|
|
fi
|
|
|
|
echo ""
|
|
echo "=== Results: $PASSED passed, $FAILED failed ==="
|
|
[ "$FAILED" -eq 0 ] && exit 0 || exit 1
|