The compatibility test now runs in the same operation modal as the installs
(live progress from the server's ram_progress, Close disabled until done) and
its result gains a per-AID detail block instead of the comma list:
- the probe summary (probe: 2 imports -> 0.0 . +1 appended);
- the import list as tested (ramCompatImportRows): the CAP's imports with the
version the card was asked for and the CAP's own version when the probe
lowered it, appended synthetic entries and unmatched lines - each with the
resolved library name (jcAidName), so a raw AID list becomes readable rows;
- on a rejection, the failure analysis (ramCompatFailureHtml): which CAP
section the failing block covers (load-file byte range and component names,
'completes Import'), what the card checks at that point (JC VM spec 4.5.2)
or that the import list already passed, the remote status word with its
name, and what the probe state implies (every import at 0.0 -> a missing
package or another load-file check is the cause; otherwise lower the
versions and bisect).
ramCompatVerdict names the remote SW; the inline result keeps the verdict +
short probe note and the modal carries the escaped step lines + the detail
HTML (ramOpModalFinish gained an asHtml mode); the server reports
probe_unmatched as [{'aid', 'version'}] (_probe_unmatched), documented in
docs/api.md. The same failure block for the real install is the next step.
sw cache simple-v325; tests: 550 Python / 703 Node.
The compact (legacy) GET STATUS entry is <aid_len><AID><life cycle>
<privileges> + (P1=10) <module count> (<len><module AID>)*, cross-checked
against GlobalPlatformPro's populate_legacy (the 4th byte is privileges;
0x00 is required for load files). The parser read it as a 'version' one
byte late, so ELF rows showed the module count / the next entry's length as
Version: 00/10 - the compact listing has no version at all; it now comes
from the expanded CE tag (ramFmtVersion: 2 bytes -> major.minor, GP Table
11-37 Note 1) and merges (the bogus compact value no longer blocked it).
New data exposed:
- EA SCP Registry Data (TS 102 226 8.2.1.6) -> 80 Menu Parameters -> the
applet's STK menu entries: STK menu entry: 0x80 (position 1, Enabled)
- unknown registry objects are preserved (rawTlvs) and shown as
'Other registry data: 8F=752B . 90=012D ...' instead of being dropped
- 84 parses the GP coding (one Executable Module AID per TLV, repeated; the
concatenated 4F<len><aid> form stays as fallback) and the ELF expanded
queries add 84 to the tag list (with a tag list the card returns only the
listed tags - the fallback path would otherwise lose the module lists and
their Install buttons)
- life cycle names decode per object kind (GP Tables 11-3..11-6: ISD/card,
app, SD - detected via the Security Domain privilege - and ELF), with
multi-byte 9F70 (02 0700 on live cards) decoding the first byte and
surfacing non-zero extras; the R-APDU parser's LIFECYCLE_MAP labels were
aligned with the same tables
/api/ram-install measures the NV footprint: a silent GET DATA FF21 read
before and after the chain (also on failure) returns nv_before/nv_after/
nv_delta; the reads never fail the operation (no FF21 -> no fields) and the
PWA shows 'NV used: ~N B (free A -> B)' in the install result.
sw cache simple-v324; tests: 548 Python / 698 Node.
Review of v3.6.48 found six issues; the two that matter in use:
- ramProbeParse('') errored, so the basic 'is this CAP compatible with
this card at all?' run (no overrides) was refused by an alert. An empty
list is valid now: the test runs with the CAP's own versions.
- ramCompatVerdict said 'Import list rejected' for every failure. It now
distinguishes: a request error (no steps), a failed format probe (the
card not answering), an INSTALL [for load] refusal, and only then the
import list - each with its own headline.
Plus:
- the result line shows the applied probe (ramCompatProbeNote: 'probe:
7 imports -> 0.0 · +1 appended', unmatched AIDs included);
- #ram-compat-block validates 1..240 like the install's block size;
- the server reports probe_unmatched (override AIDs matching no entry,
previously silent when another override matched) and logs them;
- tests: the endpoint's probe-400 path (a mini CAP + a dummy scc),
_cap_import_aids, the verdict cases and the probe note.
sw cache simple-v322; tests: 540 Python / 687 Node.
The import probe no longer lives in 'Install Package (.cap file)': a
diagnostic that can leave a LOADED-only package does not belong in the
operation meant to produce a working applet. /api/ram-install no longer
takes probe_imports; the install form's probe fieldset is gone.
New RAM operation CAP compatibility test (POST /api/cap-compat): the
server runs the format check, INSTALL [for load] and the LOAD blocks only
up to the block that completes the Import component (_cap_import_end +
_cap_compat_blocks, computed from the load file and the C4 TLV framing),
then stops - no last-block flag, no INSTALL [for install], so nothing is
committed and nothing needs deleting. The verdict (imports_ok,
boundary_block/total_blocks) states it covers the LOAD/import gate only;
the link gate stays the real install's business. Verified on the real
RemMobileID CAP: the boundary is LOAD 1/64, 2/128, 3/240 for 240/120/64 B
blocks - exactly the blocks where the live cards rejected the load.
_probe_import_versions(load_file, overrides, additions) now supports
append-only synthetic imports: +AID=version appends a new entry, the
Import component's size field and the Directory's Import size are patched,
and existing entries keep their positions (constant-pool import indices
stay valid); an AID that is already imported becomes a version override.
This is the card-capability query ('does this card export package X at
>= Y?') without building a probe applet.
PWA: new op section (CAP file + analysis + the version list + block size),
ramCompatTest with inline results and ramCompatVerdict, ramProbeParse
understands +AID=version; help EN/RU documents the operation, the two-step
bisect and the gate scope.
sw cache simple-v321; tests: 538 Python / 686 Node.
The install modal's progress bar froze around 70% and jumped to 100% at
the end: not a math bug - the UI's other polls (/api/stk-status,
/api/poll-status, /api/proactive-log, /api/menu, ...) were card-locked in
do_GET even though they only read cached state, queued behind the install
and exhausted the browser's 6-connections-per-host budget, starving
/api/status. _CARD_FREE_GET lists every card-free GET (status, version,
stk-status, poll-status, proactive-log, menu, events, terminal-profile,
pli-*, commands, net-state, mcc-mnc, scp81/bip status|script|log);
/api/cardinfo and /api/esim/* stay locked (they touch the card).
tests/test_fetch_routes.py holds _CARD_LOCK and asserts the cached
endpoints still answer - verified to time out on the pre-fix list.
The install modal is wider (max-w-3xl) and successful step lines are
compact: '✅ Step 3: LOAD (1/240) - 6101 · 274 B / 3 SMS' (no verbose SW
name, B instead of bytes, the SMS count only when >1); failed steps keep
the full detail and the hint.
sw cache simple-v320; tests: 533 Python / 684 Node.
The CAP details' Platform row named only the Java Card level; it now also
shows the ETSI/3GPP release the UICC API imports come from, with its basis
in brackets, e.g. 'Java Card >= 2.2.2 - ETSI REL-7 (uicc.toolkit 1.4) -
CAP format 2.1'.
capmem.ETSI_TOOLKIT_RELEASE maps the uicc.toolkit export version to the
release, sourced from the workspace corpus: sim-tools/ETSI-REL.md for the
prepared trees (api21_rel7_export_files carries uicc.toolkit 1.4 = the
REL-7 jar, api21_export_files 1.11 = the REL-12 jar) and
sim-tools/etsi/102241/README.md's package-version table for the rest
(1.0 -> REL-6/7, 1.3 -> REL-8, 1.5 -> REL-9, 1.12-1.14 -> REL-15..18; the
1.11 spec range is 13.01-14.02 but the tree the builds use is REL-12).
Exposed as requires_etsi_release/requires_etsi_basis in /api/cap-info and
the CLI; SIM-only CAPs (no uicc.toolkit) get no label.
Verified: RemMobileID -> REL-7 (uicc.toolkit 1.4), AlfaDSA -> REL-12
(uicc.toolkit 1.11). sw cache simple-v317; tests: 531 Python / 677 Node.
Cards that cannot satisfy the CAP's import list reject the LOAD as soon
as the Import component is complete (live 2026-09-29: 6438/6985 in the
block containing its last byte, on several cards incl. an eUICC profile
whose ISD is not the default AID and which does not answer GET DATA 0066 -
no direct platform-version readout exists).
_probe_import_versions (pure) rewrites the Import component's two version
bytes per entry in the assembled load file: same length, component sizes,
Directory and offsets untouched; unknown AIDs and bad versions are
rejected. /api/ram-install takes probe_imports ({'all': '0.0'} or
per-AID), echoes the applied changes in the response and logs them. The
PWA's RAM install form gains a collapsed Import probe fieldset (checkbox,
AID=version lines prefilled from the CAP analysis, 'Set all 0.0') and the
result line reports the applied changes. Diagnostic only - never used for
a real install.
Also verified _cap_parse's component order against the reference TCA load
trace (Header, Directory, Import, Applet, Class, Method, StaticField,
ConstantPool, RefLocation, Descriptor - Import before Applet, not
ascending tag order), so the order is correct and the import list remains
the prime suspect.
sw cache simple-v315; tests: 530 Python / 676 Node.
pysimFetch() sends POST whenever a body is passed, but /api/test/run,
/api/test/stop and /api/test/clear were registered in _do_GET (since the
phase-1 commit 3a4a098): every Start fell through to the catch-all
404 {'error': 'Not found'} and the feature had never been exercised over
HTTP (a browser GET would not carry the JSON body either).
The three branches moved into _do_POST; safe under the RLock-based
_CARD_LOCK because _test_run_start re-acquires it before spawning the
worker.
New tests/test_fetch_routes.py:
- a PWA<->server route/method matrix (every body-carrying pysimFetch needs
a POST route, body-less calls a GET/POST route; routes are extracted from
_do_GET/_do_POST incl. the 'self.path in (...)' and startswith forms) -
verified to fail on the pre-fix routing with exactly the three endpoints;
- an HTTP smoke test on the real handler: POST /api/test/run {} -> 400,
POST stop/clear -> 200, GET /api/test/run -> 404.
sw cache simple-v314; tests: 527 Python / 675 Node.
The TERMINAL PROFILE chain parsed the SET UP MENU title with 'tag == 0x05'
only, so the live Alfa card's title (CR-set 0x85, 'Alfa Mobile') was
dropped: /api/menu returned items without a title and the PWA showed
'No menu set by the card' - card-specific only because cards pick the tag
variant (this one sends plain 0x8F items and a CR-set title in the same
command).
- _parse_setup_menu_command (pure, tested with the live FETCH bytes)
replaces the inline parse; the PWA shows a title-less menu as 'STK: Menu'
instead of 'No menu set by the card' (stkMenuLabel, pure).
- _cmd_tlv is now the single lookup helper: exact tag, then tag ^ 0x80
(bit 8 is the CR flag, TS 101 220 7.1.1); the old '| 0x80'-only helper and
the duplicate _cmd_tlv_any are gone.
- Remaining single-style checks fixed: _parse_setup_menu_items (0x8F/0x0F),
_parse_select_item title (0x85/0x05), _find_sms_tpdu (0x8B/0x0B - the
plain variant lost the SEND SHORT MESSAGE PoR TPDU), the response
scripting parsers (R-APDU 0x23/0xA3, executed count 0x80/0x00) and the
FF21 resource tags (0x81-0x83/0x01-0x03).
- tests/test_tag_variants.py flips the CR flag on every top-level tag of
real command fixtures and asserts identical parse results for all
parsers (verified to fail when a single-style lookup is reintroduced).
sw cache simple-v313; tests: 524 Python / 675 Node.
__main__ built a plain HTTPServer (single-threaded): during a RAM install
POST every other request waited in the accept queue, including the 2 s
/api/status poll that feeds the operation modal - its bar and step
headline never moved and the whole result appeared only at the end (live
2026-09-29).
_build_http_server() now returns a ThreadingHTTPServer (daemon threads).
Card access is unchanged: it is serialized by _CARD_LOCK, not by the
server - every POST is blanket-wrapped in do_POST, every /api/ GET except
/api/status and /api/test/status is wrapped in do_GET, and the background
threads (STATUS poll, _bip_data_available, test runner) take the lock;
the audit found no card-access holes. do_GET also lets non-/api (static
PWA) paths bypass the lock, so page assets stay answerable during long
operations.
Regression test tests/test_http_concurrency.py: a fast request must
complete while a slow one is in flight (fails on HTTPServer with exactly
the reported symptom: 1.01 s vs 0.20 s); test_startup_cardless patches
the new factory.
sw cache simple-v312; tests: 519 Python / 674 Node.
The menu chain paused only for DISPLAY TEXT / SELECT ITEM / SET UP MENU,
so a GET INPUT was auto-answered with a bare success TR and no Text
string - the live RemMobileID PIN prompt got an empty answer.
Server: _parse_get_inkey/_parse_get_input read the prompt, qualifier
flags (digits-only, UCS2, Yes/No, immediate, hidden, packed, help),
Response length 91 and Default Text 9D; the fetch handler pauses with
them; _menu_send_response(..., text=) validates the answer (digits set,
min/max, one char for GET INKEY) and builds the Text string TLV 8D in the
requested coding (SMS unpacked 04 / UCS2 08 / packed 00 via _pack_gsm7),
Yes/No as 01/00, empty input as the null text string, help as result 13
and the variable-timeout Duration echoed (6.8.4). /api/menu-respond
takes text; /api/stk-status carries pending_data so a card-initiated
prompt opens the panel; _decode_cmd decodes both commands.
PWA: stkInputHtml/stkInputHint/stkInputValidate render the constrained
panel (password field for hidden entry, numeric keyboard, default text,
Yes/No buttons, help, immediate-digit auto-submit); OK submits through
stkMenuOk; the poll opens the panel for card-initiated prompts.
sw cache simple-v311; tests: 517 Python / 674 Node.
_send_envelope defined its SEND SHORT MESSAGE capture handler inside the
91xx branch, but the 'STATUS poll (PoR not captured)' path used it: a
packet whose ENVELOPE answered 9000 and whose late PoR arrived on the
STATUS poll raised UnboundLocalError, returned 500 and aborted the RAM
operation mid-packet with the card's command left pending (live
2026-09-29, 120-byte LOAD blocks). The handler is now defined for every
path, and the late-PoR poll runs only after a packet's last segment
(poll_status from _send_secured_packet) - a concatenated download makes
no spurious mid-packet STATUS exchanges.
The PWA annotates every LOAD step with the CAP components its block
covers (ramStepComponents: 'completes Import' / 'inside Method' /
'Header...Import') and ramInstallFailHint names the component the failing
block completed - the live import-verification rejection lands in the
block completing Import (6438/6985 at both 240 B and 64 B blocks).
sw cache simple-v310; tests: 509 Python / 672 Node.
capmem derives the minimum platform from the CAP's Import component
(javacard.framework -> Java Card level via the SDK-kit corpus, int flag)
and /api/cap-info exposes it; the CAP details show it as a Platform row
('Java Card >= 2.2.2 - CAP format 2.1 - int support').
A failed RAM install at a LOAD / INSTALL [for load] step now appends a
hint naming the import requirement and the smaller-block fallback
(ramInstallFailHint, pure): JC VM spec 4.5.2 makes every import a
'>= version' demand on the card's own packages checked while the load
file is verified - live 2026-09-29, a CAP requiring Java Card 2.2.2 was
rejected exactly at the block containing the end of Import (6438 at
240 B blocks, 6985 at 64 B), not at a step count.
sw cache simple-v309; tests: 507 Python / 670 Node.
A CAP install is a long chain of LOAD commands whose progress and results
were only visible at the bottom of a large form - and an interrupted
install can leave a half-loaded package.
- Server: _RAM_PROGRESS (+ _ram_progress_begin/step/end) records the live
step of the running RAM operation; /api/ram-install and
/api/ram-install-app wrap their chains in it (total = steps + 1 for the
format check) and /api/status carries it as ram_progress - lock-free, so
the 2 s poll works while the request holds _CARD_LOCK.
- PWA: #ram-op-modal (the STK panel pattern) blocks everything while a RAM
operation runs: title, spinner, status line, progress bar, per-step
result lines, Close disabled until it finishes; a beforeunload guard
protects the window during the run. install-cap, install-app /
make-selectable and Explore all use the shared helpers
(ramOpModalBegin/Status/Finish); the install results stay in the form
area as before once the modal is closed. The status poll feeds the modal
via ramOpProgress (headline from the pure ramOpProgressText).
- Tests: ramOpProgressText (JS) + the progress lifecycle (Python); the
card-state and capmem suites stub the DOM-bound hooks.
- Stylesheet rebuilt; version 3.6.34; sw simple-v307.
Comparing the new TCA vendor traces (Explore_EP/ET/NC/NP/SE) with our flow
showed why only one card works:
- The PoR capture was gated on SPI2 bit 0x20. The traced cards deliver the
PoR as a proactive SEND SHORT MESSAGE; with our ISD/memory queries
(SPI2=0x01) the fetched TPDU was thrown away - the Explore died with
"no data" and the RAM install steps silently degraded to an unverified
"no_por". The capture is now unconditional (inline ENVELOPE responses and
proactive submits both work), and the STATUS-poll fallback is enabled for
every card.
- `_ram_next_cntr` still wrapped at 32 bits (`% (2 ** 32)`): a 10-digit
counter like 10000AAAC8 came back as 00000AAAC9 after a RAM/Explore step -
the server-side half of the v3.6.23 counter report. It now advances the
full 40 bits.
- RAM command format (TS 102 226 5.2.1: compact C-APDU vs the expanded
`AA` > `22` form) is detected per operation and never stored:
/api/ram-install and /api/ram-install-app always probe, /api/send-ota
probes when the caller passes `ram_format`. The probe is a read-only
GET STATUS [ISD] as the first step (compact, then wrapped) and every
command of the operation uses the detected format. `_wrap_expanded_apdu`
is pinned to the reference bytes `AA0A220880F24000024F0000`; responses
carry `ram_format` and `final_cntr` (accepted probes consume counters, so
the views use the server's next counter). Applet-directed payloads stay
byte-exact; only RAM views (and RAM/GP chain packs) opt in.
504 Python / 653 frontend green; version 3.6.24; sw simple-v297.
The event list tables carried labels like
"12 Reserved for 3GPP - Network rejection (TS 31.111 7.5.2)". The phrase is
an ETSI-to-3GPP document pointer, not a usage restriction, and it is not
what a user needs - the event name is.
- EVENT_NAMES (PWA + server mirror): the 3GPP-assigned codings carry their
plain TS 31.111 7.5 name ((I-)WLAN access status, Network rejection, CSG
cell selection, IMS registration, Incoming IMS data, Data connection
status change, CAG cell selection, Slices status change).
- 0x20-0x22: "Reserved (future usage)" (no attribution).
- 0x0B/0x14: the spec's full "(single access technology)" / "(multiple
access technologies)" wording instead of the cryptic "(single)/(multiple)".
- tests pin the exact names and that no name contains the cross-reference.
652 frontend / 500 Python green; version 3.6.22; sw simple-v295.
`_ram_send_gp_apdu` (the shared step sender of /api/ram-install and
/api/ram-install-app) now logs every step's plaintext APDU and packed
packet, like /api/send-ota's unconditional lines:
RAM C-APDU (INSTALL [for load]): 80E602000C07F0414C4641610100000000
RAM SECURED-PACKET (INSTALL [for load]): 00281516212525000000...
No flag - the step name keeps the sequence readable, and --apdu-trace stays
the card-level (ENVELOPE) trace. Tests: the logging pinned with stubbed
packet builders.
498 Python / 650 frontend green; version 3.6.19; sw simple-v292.
Iterating the final install step no longer needs a delete + re-load of the
.cap:
- `POST /api/ram-install-app` runs INSTALL [for install] (`mode: "install"`,
P1 0x0C/0x04 by make_selectable) or INSTALL [for make selectable]
(`mode: "make_selectable"`, GP 11.5.2.3.3 Table 11-44) for an already
loaded package. The APDU builders are shared with `_cap_apdu_sequence`
(`_cap_install_apdu`, `_cap_make_selectable_apdu` - one builder, no drift)
and the per-step send/PoR/counter logic is the extracted shared
`_ram_send_gp_apdu` (used by /api/ram-install too).
- PWA: the RAM op selector gains "INSTALL [for install] (loaded package)"
and "INSTALL [for make selectable]" with Load File / Module / Instance AID
inputs (instance defaults to the module AID); the result renders through
the shared `ramShowInstallResult` and `final_cntr` keeps the preset in
sync.
- Explore: an **Install** button on a package's module AIDs that have no
instance yet, and a **Make selectable** button on INSTALLED (0x03)
instances - both switch the op and pre-fill the AIDs.
- tests: the install APDU pinned to the live no-STK packet and to the
sequence tail, the make-selectable APDU, ramHasInstance, the Explore
buttons and the op wiring; docs/api.md updated.
650 frontend / 498 Python green; version 3.6.18; sw simple-v291.
INSTALL [for load]/LOAD/INSTALL [for install] carried a trailing Le and an
explicit ISD AID in the Security Domain field; the card executed the extra
byte as a second (phantom) command, so the compact response reported count=2
with SW 6700 - which the v3.6.2 remote-SW check correctly treated as a
failure, aborting at step 1.
Decrypted from the live trace (KIc/KID 25/25, 3DES): ours was
80E6020014 07F0414C46416101 08A000000003000000 00 00 00 00
the reference tool sends
80E602000C 07<aid> 00 00 00 00 (empty SD, no Le)
and its response is count=1 / 9000 while ours was count=2 / 6700.
- `_cap_apdu_sequence`: the SD AID is only sent when a custom one was
supplied (empty -> '00', the card defaults to the ISD; GP 11.5.2.3.1
Table 11-42) and all three RAM install APDUs are case 3 (no Le).
- tests: the expected INSTALL bytes updated, a no-Le assertion for every
APDU in the sequence, and a custom-SD-AID case.
615 frontend / 496 Python green; version 3.6.8; sw simple-v281.
Explore still missed the F0414C46416101 package on a card whose responses
wrap the R-APDU in the TS 102 226 5.2.2 Response Scripting template
(`AB <len> 80 <count> 23 <len> <R-APDU>`): `_decode_por` parsed that as a
compact response, so the frontend got `last_status_word` 81d0/7680 and data
starting `80 01 01 23 ...` instead of the listing.
- server: `_parse_response_scripting()` (AB definite / AF 80 ... 00 00
indefinite) extracts the executed-command count and the last R-APDU's SW
and data; `_decode_por` exposes it as `response_type: scripting` in the
same `decoded` shape as compact, so the RAM explore paging and the RAM
install `por_sw` see the real 9000/6310.
- frontend: the compact listing walk is deterministic on the AID length
(`len AID life ver`; P1=10 adds `module_count (len module_AID)*`).
`_parseRawAppEntry` no longer guesses `rawLen-1` for >8-byte AIDs (16-byte
A113 applet AIDs were truncated), and `_parseRawElfEntry` no longer scans
for `0x10` (a length/AID byte equal to 0x10 derailed the walk: a live page
parsed to 1 entry with no F0414C46416101).
- tests: exact trace fixtures - the ELF page lists F0414C46416101 (11
entries), the P1=10 page attaches its F0414C4641610101 module, the app page
keeps the 16-byte A113 AIDs; Python covers the scripting template
(definite/indefinite) against the live `AB 12` ISD and listing vectors.
610 frontend / 495 Python green; version 3.6.5; sw simple-v278.
Explore returned partial data (no ELF/module entries, the installed package
missing) and then failed with cntr_low. Two causes, both in the
actual-response SMS-SUBMIT path the card uses for big listings:
- `_find_sms_tpdu` read TLV lengths as a single byte; the FETCH carries
`8B 81 97 ...` (BER long form) for the big pages, so it returned a
corrupted, truncated TPDU.
- `_calc_ud_offset` treated the SMS-SUBMIT relative validity period (VPF=10)
as 7 bytes instead of 1, shifting the UD offset: `_parse_sms_concat` then
read a bogus UDH and reported no concatenation, so the segments never
assembled and the PoR/data was dropped ("RAM RESPONSE-PACKET: empty").
The step was marked failed, the counter did not advance, the same counter
was retried and the card answered `cntr_low`, which also blocked P1=10
(modules) where the installed package appears.
- the captured segments now always store the assembled UD (`submit_ud_hex`);
`_sms_submit_por()` rebuilds the DELIVER-style packet (`02 71 00` + UD) for
`_decode_por`. Verified against the live capture: por_ok, remote SW 6310,
438 hex chars of listing data (the exact bytes of the P1=20 page).
- `spPorAccepted` counts `actual_response_sms_submit` (0x0B) as accepted, so
the counter advances when the data follows via SMS-SUBMIT.
Explore queries follow GP Card Spec v2.3.1 11.4.2.2: compact listings
(P2.b2=0) with the chained GET RESPONSE (`ramGetStatusApdu`, paging P2=00 ->
P2=01), the malformed P2=02 attempt is gone, and the ISD-only query (P1=80)
never pages with next-occurrence (the card shall reject it).
Tests: Python SmsSubmitCaptureTest with the live FETCH bytes (TPDU length,
UD offset, concat reassembly, 027100+UD decode); ram.test.js checks the APDU
builder and the missing P2=02 attempt; cards_counter covers 0x0B.
608 frontend / 492 Python green; version 3.6.4; sw simple-v277.
The SCP80/RAM forms hold a copy of the preset (counter, keys, TAR, SPI).
Editing the preset on the Cards tab saved correctly, but the form kept the
old copy: the operation sent the stale counter (the card answers cntr_low)
and the post-send sync wrote the stale value back over the preset - the
saved counter silently reverted. Reproduced in a real DOM:
after select in SCP80: preset=0000000001 sp=0000000001
after Cards edit+save: preset=00000000AA sp=0000000001
after a sync: preset=0000000001 (edit lost)
- `cardsApply()` split into `cardsApplyFields()` (field copy, no packet) and
`cardsApply()` = fields + genSp; new `spRefreshFromPreset(selId)` re-reads
the selected preset from `sp-card-sel` / `ram-card-sel` and re-applies it.
- `pysimSendOta()` and `ramExecute()` call it before starting, so every
SCP80/RAM operation uses the preset as it is now.
- A rejected send no longer advances the counter: new `spPorAccepted(por)`
gates the advance+write-back in `pysimSendOta`, the Explore pagination and
its GET DATA step, and the server's RAM install (`_ram_next_cntr`: advance
only for `por_ok`/`no_por` steps). A failed install still returns
`final_cntr` (the accepted prefix) and the PWA persists it, so a retry
never replays a counter the card already consumed.
- tests: cards_counter.test.js (the stale-form regression, RAM selector,
fields-without-genSp, spPorAccepted) and `_ram_next_cntr` cases; the
cards_form/ram harnesses updated for the split.
- docs/api.md counter semantics; AGENTS preset-source-of-truth rule.
607 frontend / 488 Python green; version 3.6.3; sw simple-v276.
The RAM installer read `por['decoded']['response_status']`, but the compact
response decoder's `decoded` only carries {number_of_commands,
last_status_word, last_response_data} - so the suffix was always empty and
every step showed the useless `por_error_`, even when the PoR was por_ok.
The PoR verdict is the top-level `response_status`.
With that fixed, the decoded details also show that the remote command's own
status word was the real verdict all along: a captured live install returned
por_ok with `last_status_word` 6700/6F00 (the card rejected every RAM APDU)
while the installer reported success.
- new `_ram_step_result()`/`_por_remote_sw()`/`_ram_remote_sw_ok()`: a step
fails on a non-por_ok PoR, on a remote SW outside the success set (9000,
61xx more data, 62xx/63xx warnings, CAFE GP "more data"), or on an
undecodable PoR (a 9000 transport SW with no PoR at all is `no_por`, not a
failure). A decoded 61xx is explicitly success, per GP/ISO.
- step records gain por_sw/por_type/por_cntr/por_data/por_raw and
`por_error`; the response carries `failed_step` and a detailed error such
as `LOAD (1/9): remote SW 6700`; the log line now prints
`status=por_ok remote_sw=6700`.
- PWA: new pure `ramStepLine()` renders e.g.
`❌ Шаг 2: LOAD (1/9) — PoR ok · remote SW 6700 (Wrong length in Lc) · 274 B / 3 SMS`
(SW meaning via the existing lookupSw decoder) and the transport SW only
when it is not 9000.
- tests: tests/test_ota_helpers.py RamPorStepTest (success set incl. 61xx,
the captured 6700 failure, no-PoR/undecodable, expanded responses);
ram.test.js ramStepLine cases.
- docs/api.md RAM install step fields + failure semantics; AGENTS updated.
603 frontend / 487 Python green; version 3.6.2; sw simple-v275.
BIP was only reachable through the SCP81 listener; cards that use TCP for
other purposes (an applet's OPEN CHANNEL, a push trigger without HTTP OTA)
now get a generic control surface, independent of SCP81.
Server:
- /api/bip/control starts a plain BIP session in three modes: sink
(default; a local TcpDumpServer that accepts the card's channels and only
logs conn/sink-rx/conn-close, never answering; port 0 = ephemeral, the
bound port is reported), passthru (dial the OPEN CHANNEL destination, TCP
client only) and redirect (fixed host:port).
- /api/bip/status returns {owner, bip, listener}; /api/bip/log and
/api/bip/log-clear share the BIP event log with /api/scp81/log.
- The session state is shared with the SCP81 listener and only one session
runs at a time: _bip_session_stop() stops whichever control started it
and the control responses report it as `replaced` (both directions,
SCP81 <-> BIP). State renamed _SCP81_MODE/_TARGET/_LISTENER/_LINK_EVENTS
-> _BIP_* plus _BIP_OWNER.
- TcpDumpServer logs conn-close and counts accepted connections; stop()
joins the accept thread so the port is really free on restart.
- The new control endpoints are blocked during test-script runs.
PWA:
- New Simulator pill BIP (after TR Config): mode select with notes,
Host/Port rules, Start/Stop with a "replaced" notice, status line (mode,
bound address, owner, channels), a Channels box and the shared BIP log
(reuses the SCP81 log renderer, now showing `peer`).
- The SCP81 status line marks a session owned by the BIP pill.
Help EN/RU 8.10, docs/api.md, AGENTS; CAT_TP/UDP recorded as not
implemented.
Tests: tests/test_bip.py (9) and frontend/tests/bip.test.js (6).
600 frontend / 482 Python green; version 3.6.0; sw simple-v273.
The Import component (JC VM spec 6.6) is now exposed by /api/cap-info and
rendered in the CAP analysis box:
- imports: the libraries the CAP is linked against with the export-file
versions and the number of distinct constant-pool references (6.7),
displayed as "name >= version" (a card resolves an import only with the
same major and a minor >= the recorded one, 4.5.2). Standard names come
from the AID table; each gets a family label (Oracle JavaCard / ETSI SIM
2G / ETSI UICC / 3GPP USIM-ISIM / GlobalPlatform) and, for
javacard.framework, a Java Card SDK release hint derived from the local
Oracle SDK kit corpus (jc211..jc305u4 exports; unknown versions stay
unhinted). Vendor/applet AIDs stay bare.
- Header package flags (Table 6-4: int / exports / applet package) and the
optional JC 2.2 package_name (absent in all CAP 2.1 files).
- components: every archive entry in load-file order with its size and
share of the load file (including the Directory/Export entries capmem
does not parse); the sizes sum to load_file_bytes.
- The PWA box leads with "Requires: ..." when imports exist, keeps the
compiled-against line (Java Card hint + CAP format), the package/applet
identity, the import details (family, refs, AID) and the component
breakdown in Details; a memory-only response still renders.
Tests: Python +2 (imports/flags/name/components; header flags + package
name) with the synthetic CAP builder extended; frontend +2 renderer cases
(unknown AIDs, no-import responses) plus jcAidNorm/jcAidFamily tests; the
jcAidNorm extraction added to the ram/scp81 harnesses.
Help EN/RU, docs/api.md, AGENTS.
591 frontend / 473 Python green; version 3.5.16; sw simple-v269.
GlobalPlatform models this explicitly (GP Card Spec v2.3.1 Table 11-48,
load parameters): C6 = non-volatile code, C7 = volatile data, C8 =
non-volatile data, and 11.5.2.3.7 - when the card makes no code/data
distinction the required minimum is C6 + C8. The analysis now reports it:
- capmem.memory_json() accepts the load file size (all CAP components -
the package image the card stores) and returns code.load_file,
nvram.requirement = load_file + persistent data, and sets the suggested
C6 to the load file (the bytecode-only Method.cap figure stays in
code.method_component); _cap_info_body passes the size it already
computed.
- The CAP estimate box (both the RAM installer and the SCP81
Install-from-.cap form) leads with "NVRAM requirement ≈ code image +
data" plus the RAM estimate, keeps the bytecode/other-component split and
the full data breakdown in Details, and carries the GP citation with the
caveats (card memory management, allocation rounding and the registry
entry are not included; the static field image appears in both parts).
- An older server response without code.load_file still renders (the
bytecode size is used as the fallback).
Tests: Python +1 (load-file semantics) with extended cap-info assertions,
frontend +1 (renderer + fallback). Help EN/RU, docs/api.md, AGENTS.
587 frontend / 472 Python green; version 3.5.15; sw simple-v268.
- The SCP80 counter write-back resolves the preset by NAME first (the run
snapshot prefers the name) and only falls back to an ICCID-looking
value: presets with digits in their names are found after a page reload
(the previous fallback ran cardsNormIccid on the name and gave up).
- testScriptProblem validates the *selected* SCP80 source (like the form
and the server), so source=apdu with only sp filled is caught locally
instead of failing with a server 400.
- _test_run_start cleans up (_TEST_RUNNING=False, run state error) when
the worker thread cannot be created/started, and the endpoint answers
500 with a clear error instead of leaving the card blocked behind a run
that never started.
- The 5 s poll writes the counter back whenever a run is finished
(idempotent), so a reloaded page saves it without visiting the pill.
- Mask wildcards ('?') are stripped from the hex fields that cannot carry
a mask (APDU, secured packet, event/file data, TAR/SPI overrides, DCS,
extra TLVs); check values keep them.
Tests: frontend +3 (write-back by name / by ICCID, mask-free fields,
source-aware script check), Python +1 (failed thread start unblocks).
586 frontend / 471 Python green; version 3.5.14; sw simple-v267.
PWA:
- The SCP80 "Source" switch sticks: the choice is stored in
`params.source`, switching keeps both values (the server honors the
explicit source when both are present, and the form validates only the
selected one).
- The SW check field is empty by default (placeholder "default: 9000
(91?? when polling)"), so the server defaults apply - previously the
pre-filled 9000 defeated the polling STATUS default and a card that
announced a command made the step fail with "expected 9000".
- Item text checks offer contains/exact only (the mask mode was rejected
by the server validation).
- The SCP80 counter is written back to the preset even when the run is
observed after a page reload or was started elsewhere (resolved by
ICCID or preset name from the run snapshot).
Server:
- Step-entry mutations happen under `_TEST_LOCK`
(`_test_entry_update`/`_test_finish_entry`): the status endpoint
serializes the state with json.dumps, so entries must not change while
it iterates them.
- The pending-command drains (unexpected command, error, stop) hold
`_CARD_LOCK` like every other card conversation.
- `_int` accepts plain decimals with leading zeros and 0x hex.
- The scripted TERMINAL RESPONSE text string uses the CR-set tag `8D`
(consistent with the other TR TLVs; both are legal).
- A script-driven menu selection mirrors `server.menu_active`.
Tests: frontend +4 (source switch/round-trip, status SW default, render
checks, item modes), Python +3 (integer parsing, menu_active, source
selection). Help/docs unaffected beyond api.md's `source` note.
583 frontend / 470 Python green.
A test script drives a deterministic dialogue with the card: action steps
(ENVELOPE event / Menu Selection, raw APDU, SCP80 secured packet with a
card-preset, file update/read, STATUS) with SW/data/PoR checks, and
proactive-command expectations that fetch, check (command type, qualifier,
text/item/raw) and answer with a scripted TERMINAL RESPONSE.
- pysim_simple_server/testscript.py: pure engine (validation, exact/mask
matchers with '?' nibble wildcards, item/text checks, TERMINAL RESPONSE
building).
- server.py: worker thread + state, /api/test/run|status|stop|clear, the
card-endpoint guard (409 while running), background STATUS polling
suspended, 'error terminates / warning continues', a pending command is
drained with a cancel TR on stop/error, no-drain modes for the ENVELOPE
and SCP80 senders (the pending command belongs to the next expectation).
- Expectations never poll: a command must be pending (91XX) from the
previous step, otherwise it is an error (TS 102 221 7.4.2.1 / TS 102 223
6.3); scripts add an explicit `status` action (attempts/interval) when
the card delivers on poll.
- SCP80 steps require a complete card preset, may override TAR/SPI1/SPI2
only, and the counter is advanced per send and reported
(`scp80_counter`) for the PWA to write back.
- tests/test_testscript.py (26 tests: engine, matchers, TR building, the
STK menu dialogue, error/warning termination, status polling,
unexpected-command drain, SCP80 preset/counter, file actions, guards).
- docs/api.md endpoint reference.
467 Python / 573 frontend green.
- Background STATUS polling is enabled by default, per the spec's idle
polling rule (TS 102 221 14.6.2): `_POLL_ENABLED = True`, __main__ runs
`_poll_enable()` regardless of card presence (--poll-interval 0 still
disables) and `_do_status_poll` keeps ticking while enabled even without
a session, so a cardless start resumes as soon as a card appears.
- A new card session clears a POLLING OFF from the previous card in
`_apply_equipped_card` before re-enabling polling.
- The Phone-tab toggle now shows the *effective* state: OFF in amber
("card disabled polling (POLLING OFF)") while the card suspended
proactive polling, back to ON on the next POLL INTERVAL. The 5 s
background poll now passes `card_disabled` through (it was dropped, so
an autonomously received POLLING OFF never reached the UI).
- Tests: poll_ui updated (button OFF while suspended, warning path),
test_poll +2 (cardless ticking, module default via a subprocess check).
- Help EN/RU, docs/api.md, AGENTS; version 3.5.10; sw cache simple-v263.
573 frontend / 441 Python green.
- EVENT_NAMES (server + PWA) corrected against TS 102 223 v18.3.0 8.25:
0x14 is "Access technology change (multiple)" (not Change of UICC
Access), 0x19 Profile container, 0x1A Void, 0x1B Secured profile
container, 0x1C Poll interval negotiation, 0x20-0x22 reserved. Values
the CAT spec leaves "Reserved for 3GPP" now carry the concrete TS 31.111
event name + clause (0x11 (I-)WLAN access status, 0x12 Network
rejection, 0x15 CSG cell selection, 0x17 IMS registration, 0x18 Incoming
IMS data, 0x1D Data connection status change, 0x1E CAG cell selection,
0x1F Slices status change).
- Poll Interval Negotiation (0x1C) in the Phone tab: the form proposes a
Duration (unit + interval) and the UICC's answer (TS 102 223 8.97
accepted / rejected / modified + optional Duration) is decoded and
shown; a "modified" duration becomes the background poll interval. The
form appears when the card subscribed to the event, like every other.
- Polling emulation is card-driven: a POLL INTERVAL adopts its Duration
(minutes/seconds/tenths -> 1..255 s, logged) for the background poll,
is echoed in the TERMINAL RESPONSE (6.8.4) and clears a POLLING OFF
suspension; POLLING OFF (6.4.14) suspends proactive polling until a new
POLL INTERVAL - the manual Send STATUS button and presence detection are
unaffected. /api/poll-status and /api/poll-toggle report card_disabled
(+ a warning when enabling while suspended); the PWA shows it in amber.
- Tests: tests/test_poll.py +7, test_proactive_names.py +3, frontend
event_forms +2 and poll_ui (4). Help EN/RU, docs/api.md, AGENTS.
573 frontend / 439 Python green; version 3.5.9; sw cache simple-v262.
Selecting a .cap in the RAM installer or the SCP81 "Install from .cap"
template now runs a read-only analysis (POST /api/cap-info) before any
APDU is built: the archive is validated structurally (a corrupt or
wrong-format file fails here) and the bundled capmem analyzer estimates
the code size and the persistent (NVRAM) / volatile (RAM) requirements,
with the tool's suggested C6/C7/C8 quotas shown as information. The
form's action button (Execute / Generate) stays disabled until the
analysis succeeds - pressing it is the user's confirmation to continue.
- pysim_simple_server/capmem.py: bundled analyzer (component parsers +
JCVM opcode table + method-bytecode allocation scan), adapted to take
the CAP archive as bytes and return report/memory dicts; output
verified byte-identical to the workspace tool on 21 real CAPs.
- _cap_info_body + POST /api/cap-info (read-only; the install endpoints
stay unchanged and self-sufficient).
- PWA: shared capAnalyzeFile/capMemHtml/capGateOk helpers, estimate box
under both CAP inputs (reusing the idle #ram-cap-info div, new
#scripts-cap-info), data-cap-gate gating in pysimApplyAvailability,
stale-response guard, Retry, EN/RU strings.
- Tests: tests/test_cap_memory.py (synthetic CAPs: new/newarray/
makeTransientByteArray/static fields/unknown-opcode warnings/corrupt
input), frontend capmem.test.js (renderer, gate, analyze flow).
- help EN/RU, docs/api.md, AGENTS; version 3.5.8; sw cache simple-v261.
567 frontend / 429 Python green.
Code-review follow-ups for v3.5.2/v3.5.1, plus a test flake found while
re-running the suites:
- F1: a half-initialized equip is no longer reported as success. cmd2
swallows exceptions raised inside the equip command (and prints no
traceback by default), while PysimApp.equip() assigns card/rs before it
registers the command sets - so app.card alone once let the "CommandSet ...
is already installed" abort pass as done while /api/tree stayed broken.
The auto-equip attempt now captures the output with cmd2 debug on (a
swallowed error prints a traceback), requires the new profile's command-set
instances to be installed (_app_equip_complete), and the manual
/api/command equip branch applies the post-equip refresh only when that
check passes (and reports it in the output when it does not).
- F3: SCARD_E_SHARING_VIOLATION is recoverable (a rebuild cannot free another
process's claim) instead of transport-fatal.
- F4: SPI1 b2b1 = 11 (Digital Signature) is refused instead of building an
unsigned packet; help notes RC is CRC-32 only (KID CRC-16 not offered).
- F5: _clear_app_card_state removes the muted stdout again when the app object
had no stdout attribute.
- F7: the watchdog re-arm keeps its rate-limit window when the trigger is
busy/disabled instead of consuming it.
- F2: stale docstring in _auto_equip_attempt.
- tests: equip-state units, half-equip and captured-traceback failures,
unequip-on-failure, busy trigger, sharing violation, DS refusal.
- bonus: the MCC/MNC random-pick test could fail because a dict keyed by
(mcc, mnc) keeps one of two entries (the bundled list carries both a real
and an MVNO entry for 234/18 and 234/28); the picker was correct - the
assertion now checks the pair against the non-MVNO pairs.
549 frontend / 421 Python green; version 3.5.4; sw cache simple-v256.
SET UP MENU / SELECT ITEM items carry an optional Items Next Action Indicator
(TS 102 223 8.24, tag '18'): one byte per item, in list order, coded with the
Table 9.4 values marked "Used for Next Action Indicator". The decoder ignored
it, so neither the proactive log nor the STK menu showed what the card would
do when an item is selected.
- server: NAI_TYPES whitelist (the ToC-only values - e.g. '26', '27', '47' -
are reserved there and are ignored, as are '00' and unlisted values),
_nai_name(), _attach_nai() (a short NAI list leaves the tail without an
indicator, extra bytes are ignored); _parse_select_item() and
_parse_setup_menu_items() plus the TERMINAL PROFILE SET UP MENU walk attach
nai/nai_name to the items; _decode_cmd() renders '1. Menu -> SET UP MENU'.
- PWA: stkMenuNaiSuffix() adds a small gray '<name>' suffix to STK menu items
that carry an NAI; the proactive log picks the decode up via cmd_decoded.
- tests: SET UP MENU / SELECT ITEM vectors with NAIs, a reserved value that is
ignored, a short NAI list, and the stkMenuNaiSuffix unit test.
- docs: UICC_SPECS 6.5 gained the '18' Items next action indicator row
(8.24/9.4); help EN/RU mention the menu suffix; AGENTS files updated.
548 frontend / 413 Python green; version 3.5.3; sw cache simple-v255.
Equip was broken after a card swap: auto-equip (and manual Equip) failed with
"Failed to transmit with protocol T0. Card was removed. (0x80100069)" until
the server was restarted.
Chain (v3.1.2 regression):
- _handle_card_disconnect() cleared server.card/scc but not pySim's
app.card/app.rs/app.lchan, so the removed card - and with it the old PC/SC
link and its exclusive card handle - stayed referenced; handlers using
app.rs (e.g. the PWA's /api/tree poll) kept transmitting over the dead card.
- those errors carry hresult=0x80100069 (SCARD_W_REMOVED_CARD), but
_is_pcsc_error() treated any PC/SC error as a dead service and set
_TRANSPORT_STALE; the next auto-equip then called _ensure_transport(),
which built a second PcscSimLink while the old one was still connected -
the new link inherited the removed card's handle and failed on its first
APDU. No retry existed, so every later equip repeated the failure.
Fixes:
- _is_transport_fatal(): only service/context hresults rebuild the transport
(E_NO_SERVICE, E_SERVICE_STOPPED, E_NO_READERS_AVAILABLE, E_INVALID_HANDLE,
...); card-level states (W_REMOVED_CARD, E_NO_SMARTCARD, W_RESET_CARD,
W_UNRESPONSIVE_CARD, W_UNPOWERED_CARD) reconnect on the existing link.
All 8 disconnect call sites pass the new verdict.
- _clear_app_card_state(): unequip through pySim's own equip(None, None)
before clearing app.card/app.rs/app.lchan. Nulling them alone would make
the next equip abort with "CommandSet ... is already installed"
(PysimApp.equip() unregisters the previous profile's command sets from
self.rs), which left /api/tree broken after a swap. A failed auto-equip
attempt unequips the half-initialized shell as well. Handlers now answer
"no card" instead of transmitting over the dead card, and the old link
becomes collectable.
- _ensure_transport(): disconnects the old link before building the new one
(restoring it if the factory fails) - the rebuild path is now safe for the
real pcscd-restart case.
- auto-equip: _auto_equip_attempt()/_auto_equip_attempts() retry up to 3
times, 1 s apart (fatal failures mark the transport so the retry rebuilds);
the watchdog re-arms it (_auto_equip_rearm) every 5 s while a card is
present and the session is down, with exponential backoff to 60 s for a
card that cannot be initialized at all.
- fastinit.init_card_fast(): also retries once after a PC/SC link error
(CardConnectionException/NoCardException), not only after SW mismatches.
Tests: transport-fatal classification, app-state clearing, shell unequip,
old-link release, auto-equip retry/backoff/re-arm, fastinit link retry.
547 frontend / 410 Python green; version 3.5.2; sw cache simple-v254.
Three fixes found while filling the ETSI/3GPP registry gaps against the
SIMalliance Stepping Stones R7:
- SCP80 builder/verification parity (TS 31.115 Table 1 NOTE / 4.2 / 4.3):
the CPL is now transmitted whenever the packet is ciphered or carries
RC/CC/DS - it is part of their input - and whenever the packet needs SMS
concatenation; a single unprotected SM keeps pySim's CHL-first form.
Before, the JS dropped the CPL for every unciphered packet while the
server reference re-added it, so "Verify vs pySim" reported a false
MISMATCH for every unciphered RC/CC packet (SPI1 01/02/0A/12/1A...).
All ten offered SPI1 values now match the server reference byte-for-byte.
- RC (SPI1 b2b1 = 01) was offered but not built: the JS now computes CRC-32
(TS 102 225 5.1.3.2, pySim zlib.crc32 parity) over the same CPL frame as
the CC; the packet no longer silently omits the 4-byte RC field.
- Server: _build_secured_packet/_ota_reference add the CPL to a concatenated
unprotected packet too (Table 1 NOTE / 4.3).
- fcpLifeCycle: unlisted values with b8 clear are RFU, b8 set is proprietary
(Table 11.7b); previously all unmatched values were labelled proprietary.
- EF.ARR decoder now decodes the expanded format (AM_DO/SC_DO per ISO 7816-4
5.4.3.2 + TS 102 221 9.2.7): operation bit masks, INCREASE/RESIZE AM_DO
0x84, OR/AND/NOT templates, PIN key references with usage qualifiers.
- FCP 'C6' PS template DO decoded (PS_DO bitmap + key references + usage
qualifiers, TS 102 221 11.1.1.4.10/9.5.2) with a shared key-reference map.
Tests: sp.test.js (CPL/RC vectors + crc32 known answer), ef_decode.test.js
(expanded-format ARR vectors), profiler.test.js (LCSI RFU/proprietary, C6),
test_ota_helpers.py (RC reference, unprotected single-SM vs concatenated).
Help EN/RU and READMEs: CPL size 2 (SMS), RC/CC/DS 4-8, RC bullet, CPL rule.
547 frontend / 397 Python green; version 3.5.1; sw cache simple-v253.
The SELECT rows (compact RFM chains and the Expanded Script C-APDU picker,
which shares the row editor) now have a file picker instead of typing FIDs,
paths or chains by hand.
Data:
- `pysim_simple_server/uicc_files.py` builds the standard file list cardless
from pySim's profiles and application classes (CardProfileUICC + CardProfileSIM
for the MF tree, every concrete CardApplication subclass for the ADFs) and
writes `frontend/uicc_files.json` (490 entries: canonical FID path, symbolic
name, fid, kind, root, ADF AID). `tests/test_uicc_files.py` regenerates it
and fails when pySim adds or renames files. The asset is precached by the
service worker, so the builders keep working offline.
Picker:
- Sources merged per canonical path: the loaded file-manager tree (card names
and probed presence; probed-absent files hidden), custom files, and the
shipped standard list (specs-default until "Probe all files" has run).
- Default list shows what the current method can express; "all files" reveals
the rest, and picking one auto-switches the method - preferring path (one
SELECT) over chain - with a note line explaining the switch. A "starts in"
selector sets the implicit current DF (UICC shared-FS RFM app starts in MF,
an ADF RFM app in its ADF, TS 102 226 7.2/7.3 - the TAR decides; default per
builder, overridable per row).
- Fill rules: by FID only for direct children of the current DF; path = FID
sequence from MF without the MF identifier (ISO 7816-4) or the relative tail
(USIM P1=09); chain stays relative and follows the TS 102 221 11.1.1.2 FID
search order (children, parent, siblings), so no hop to the common ancestor.
ADF roots are not pickable (selection is by AID; TS 102 226 7.1 forbids
P1=04 for RFM) - the By AID method stays manual.
Tests/docs: frontend/tests/uicc_files.test.js (asset shape, merge/priority/
exclusion, fill matrix, relative chains, session-context tracking, option
grouping); help 2.1/2.2 EN+RU, READMEs, AGENTS. sw cache -> simple-v242.
Packets longer than one SMS now go out as concatenated SMS-PP downloads
per TS 31.115 4.3 and the UI shows how many SMS a packet needs.
Server:
- `_split_secured_packet` cuts the command packet at the exact SMS
user-data capacities (first SM 132 octets: concat IE 5 + CPI IE 2;
following ones 134; a single-SM packet may be 137 with the CPI IE) and
`_build_sms_tpdu` tags every segment with the fixed concatenation
reference 01; `_build_sms_tpdu` also enforces the 140-octet budget.
- `_send_secured_packet` (shared by /api/send-ota and /api/ram-install)
sends one ENVELOPE per segment in order, refuses more than
MAX_ENVELOPE_SEGMENTS (5, the card's concatenation buffer) and reports
`bytes`/`segments` in the response (RAM install per step as well).
- `_build_secured_packet`/`_encode_cmd_unlimited`: our own TS 102 225
5.1.1 encoder on pySim's keyset/header constructors, byte-identical to
pySim for packets <= 140 octets (tests) and not limited to one SMS
(pySim refuses the longer ones, which is why they never went out).
- RAM LOAD blocks are no longer clamped to one SMS: 1-240 bytes of
payload with the default 240 (the GP maximum); `load_block_size_auto`
replaces `load_block_size_clamped`.
PWA:
- `scp80SegmentInfo` / `spSizeInfoText` show "N bytes . M SMS
(concatenated)" under the packet field, turn red past 5 SMS and report
size/SMS in the send result and the RAM step log; LOAD block hints and
placeholders updated; EN/RU.
Tests/docs: Python +2 cases incl. segment order/capacities and byte
identity with pySim; Node drift guard against the server constants and
UI text tests; README/README_RUS, help EN/RU, docs/api.md, AGENTS.
After pcscd restarted (or the reader re-enumerated) the server stayed
permanently cardless:
- pyscard's presence-monitor thread stops itself on SCARD_E_NO_SERVICE
and pyscard never starts it again, so card insertions were no longer
noticed and auto-equip was dead;
- PCSCCardConnection.connect() reuses the context handle captured when
the reader was opened, so the old connection could not be revived and
every APDU kept failing with 'Service not available'.
- _start_card_watchdog(): a daemon that every 5 s checks whether
CardMonitor().rmthread.instance is alive and recreates the stopped
thread (CardMonitoringThread.instance = None + a fresh rmthread); the
new thread reports already-present cards as inserted, which triggers
auto-equip. start_card_monitor() starts the watchdog.
- _is_pcsc_error(): pyscard exceptions carry an hresult, card-level
errors do not; the disconnect paths (AUTO-STATUS, status poll, timer
expiration, net-sim, tree, event send, OTA send) pass the verdict to
_handle_card_disconnect(stale=...), which marks the transport stale.
- _ensure_transport(): builds a fresh transport via
server.transport_factory (installed by __main__ as
mod.init_reader(opts, **tracer_kwargs)) and installs it into
app.sl/server.sl; called by the auto-equip worker, the /api/command
equip branch and _esim_reinit.
- tests: watchdog tick, transport recreation (fresh/stale/failure/no
factory), PC/SC classification, stale disconnect flag.
- docs: AGENTS card-behavior section, README troubleshooting (EN/RU);
version 3.1.2, sw.js simple-v237.
The GSMTAP stream sent logical APDUs, so a receiver (SIMtrace Analyser,
Wireshark) flagged almost every packet: case-4 commands carried their Le
byte ('length_mismatch: excessive') and responses were headerless packets
decoded as bogus commands ('truncated'). The ATR also arrived in the
middle of the stream.
- gsmtap.py: the tracer now emits wire-shaped TPDUs, matching a hardware
sniffer capture: case 4 -> the command without Le plus the 61XX 'bytes
available' SW (derived from the real response length), then the data as
a GET RESPONSE TPDU (00C00000<len> + data + SW, chunked at 255); case
1/2/3 -> one packet cmd + data + SW; unparseable APDUs fall back to raw
command/response packets.
- No ATR/VCC/RST/PPS events at all (no line-level access over PC/SC);
the ATR sending helper and the server-side plumbing were removed.
- Verified by replaying the bad capture's exchanges through the new
tracer: 116 packets, zero decoder warnings (previously nearly all).
- tests: the per-case wire forms, chunking, fallbacks; README/AGENTS
document the wire shape and its limits; version 3.1.1, sw simple-v236.
Streams every APDU the server sends or receives as GSMTAP-SIM UDP packets,
so a live capture can be followed in Wireshark or the SIMtrace Analyser
without a hardware sniffer. CLI-only: --gsmtap [HOST[:PORT]], default
target 127.0.0.1:4729; no UI or API.
- pysim_simple_server/gsmtap.py: 16-byte big-endian GSMTAP-SIM header
(type 0x04, sub_type 0x00 = APDU / 0x01 = ATR) + raw APDU bytes, a
fire-and-forget non-blocking sender that never raises into card I/O, an
ApduTracer (a response is sent as data + SW1SW2, the wire form) and a
fan-out tracer. The packet layout is byte-identical to
sigrok-iso7816-stream / simtrace2-sniff (verified against the sigrok
module) and is what the analyser's GSMTAP receiver expects.
- __main__.py: --gsmtap option, tracer installed on the shared transport
before the first APDU, combined with --apdu-trace via the fan-out and
re-attached across equips (pySim nulls the tracer on every equip); one
ATR packet per equip from _apply_equipped_card/_send_gsmtap_atr.
- start.sh/start.bat: forward their extra arguments to the server, so
./start.sh --gsmtap works.
- tests: packet layout, loopback UDP delivery, tracer mapping, target
parsing, fan-out; docs (READMEs, help EN/RU, AGENTS); version 3.1.0,
sw.js simple-v235.
After a profile switch the shell was unusable: every file select failed
with 'Attribute already exists: do_decode_hex (ShellCommands)' and even
equipping did not help - only a server restart recovered it.
pySim's equip() unregisters only the command sets of the file that is
selected at that moment, then re-registers everything while selecting
MF/EF.ICCID and MF with the app as cmd_app. esim._select_isdr() selected
the ISD-R ADF without cmd_app, so MF's sets (ShellCommands, ...) stayed
registered while the selection moved to the ADF; the equip after the
profile switch then died re-registering them (cmd2 raises
CommandSetRegistrationError), leaving the app broken.
- _select_isdr() passes the shell app as cmd_app, so the old file's sets
are unregistered and the ADF's (none) registered.
- _restore() passes it to soft_reset() too, so the MF re-selection updates
the bookkeeping on both the success and the failure path.
- _esim_reinit() probes select('MF', app) after the equip and reports
reinitialized: false on a registration error (a card-level select
failure, e.g. no active profile, is tolerated).
- tests assert the cmd_app plumbing on the ISD-R select and the restore
(profiles, chip and both switch paths).
The switch refactor dropped the ISD-R selection that the old
_transceive/_run wrapper performed, so the STORE DATA went to whatever
application was selected (MF after a preceding ES10 call) and the card
answered 6D00 ('instruction not supported') without ever reaching the
switch flow.
- esim.switch_profile() now takes the app, selects the ISD-R before
sending the raw STORE DATA and restores the selection in a finally,
like the other ES10 functions.
- tests assert the selection and the restore for the 9000 and 91XX
paths (the FakeLchan/rs already track both).
ListNotification showed 'pmo' as the operation for every notification:
pySim's ProfileMgmtOperation is a Struct whose first (ignored) byte is
the padding-bits octet, so a TLV parsed from the card nests the flags
under 'pmo' while an object built from decoded flags (the unit-test path)
does not. The mapping iterated the outer dict and reported the nested
dict as a truthy key.
- esim._profile_operations() accepts both shapes and returns the set
flags in spec/bit order (install, enable, disable, delete).
- tests: a notification parsed from the card-shaped raw TLV (padding
octet included) plus the helper's both-shapes/multi-flag cases.
- docs: /api/esim/notifications and the repo AGENTS note.
pySim already requests the Icon tag (0x94) together with the other
ProfileInfo tags; the mapping dropped it, so the PWA only had the icon
type.
- esim.profiles(): each profile now carries `icon` (the image bytes as
hex) and `icon_size` (byte count), null when the card sent no image.
- PWA: esimIconDataUrl() builds a data: URL (png/jpg -> image/png|jpeg)
and the profile card shows the image unscaled to the left of the
metadata rows; the Icon row keeps the type and adds the data size
(e.g. 'png · 1234 B').
- tests: profiles icon/icon_size mapping (+ the absent case) and the
frontend data URL / row / render checks; docs and sw simple-v231.
Disabling a profile failed with 6985 and left the card stuck until an
equip. pySim's send_apdu_checksw auto-handler keeps flushing proactive
commands after the REFRESH TERMINAL RESPONSE; the card is then mid-switch
and answers 6985 to the next FETCH, which propagated as a 500 and skipped
the re-initialization. Per SGP.22 v2.6 5.7.16/5.7.17 a 91XX answer is
the ISD-R's 'result OK before REFRESH' (step 6) and the switch completes
on the TERMINAL RESPONSE or the following RESET (step 8) - lpac treats
91XX the same way and never retries.
- esim.py: build_switch_apdu/parse_switch_response/switch_profile split
out of set_profile_state; the switch is one raw STORE DATA via
scc._tp.send_apdu, a 91XX runs our own FETCH/TR chain (status_poll=False)
and is reported as ok, the STORE DATA is never retried and a chain
failure still counts the accepted switch.
- server.py: /api/esim/profile answers the REFRESH with our chain, then
re-initializes the card and re-reads the profile list, returning
verified/state_after; _handle_proactive_chain grew status_poll.
- /api/status and /api/select: FCP metadata via _fcp_value - an ADF or a
failed select (card with the active profile disabled) has no
file_descriptor and used to crash the request handler; _get_file_type
no longer raises either.
- esim._restore logs a failed selection restore instead of swallowing it.
- PWA: esimSwitchStatus shows the verified state / not-confirmed warning.
- tests: the switch flow (9000 / 91XX / error SW / chain failure), the
FCP guards and the status helper; docs and sw simple-v230.
The chip endpoint returned pySim's flattened EuiccInfo dict, whose classes
are incomplete: the capability fields are raw GreedyBytes, extCardResource
is raw bytes and several SGP.22 TLVs are missing from the class, so cards
showed 'unknown_ber_tlv_ie_99' and raw hex instead of decoded values.
- request the EUICCInfo1/2 and configured-address TLVs raw and decode them
in esim.py per SGP.22 v2.6 5.7.8, cross-checked against lpac's
es10c_ex.c: extended card resource, UICC/RSP capability bit lists (first
octet = unused bits, MSB-first), CI PKI lists, category (both the
implicit 0x8B and explicit 0xAB tag encodings), forbidden profile policy
rules (0x99), ppVersion (0x04), sasAcreditationNumber (0x0C) and the
optional certification data object / TRE fields; undecoded TLVs stay in
raw_tlvs instead of being dropped.
- add the ES10b GetRat rules authorisation table (PPR ids, allowed
operators, consent flag) to the chip response.
- PWA: label every new field, map nested labels per path component (the
old code only matched whole keys), group the view into EUICCInfo1 /
EUICCInfo2 / Addresses / RAT sections, render arrays of objects with
index labels and translate the labels (RU).
- tests: decoders against a real card's values (077F3E1F80, 0490, 0640,
81010082040006B32C83022646, the RAT fixture) and the frontend label
mapping; sw.js simple-v229.
The three eSIM GET routes were inserted after the POST-only
/api/verify-adm branch, i.e. into the _do_POST chain, so GET
/api/esim/chip|profiles|notifications fell through to the 404 handler
(only POST /api/esim/profile was reachable).
- Moved /api/esim/chip|profiles|notifications into _do_GET (after
/api/status); /api/esim/profile stays in _do_POST.
- Regression test: inspect the handler sources and assert each route is
in the right chain.
- Version 3.0.0 (eSIM support is a major update): server/pyproject/PWA
header, sw.js simple-v227.
With an eUICC in the reader the fast init raised SwMatchError twice and
fell back to the stock pysim init: pick_profile_no_reset() disables the
physical resets that CardProfile.match_with_card() normally performs, so
the successful SGP.22 probe leaves the ISD-R ADF selected. RuntimeState
then selects MF by FID (00 A4 00 04 02 3F00) from within the ADF, which
this card answers with 6A82.
- _restore_mf_after_probe() re-selects MF after the profile pick: the
cheap select keeps the reset-free path for normal cards, a physical
reset covers cards that refuse the MF select from an ADF.
- The EID read restores with rs.reset() (soft reset, escalating to a
physical reset) instead of rs.soft_reset(), which had the same trap.
- tests: FakeScc mf_select_error mode + two _restore_mf_after_probe
cases (no reset / exactly one physical reset).
New eSIM pill (Phone simulator) for SGP.22/32 cards, built on pySim's
ES10 static API — no lpac, no new dependencies, no pysim patches, no
SM-DP+ interaction:
- Chip: EID, EUICCInfo1/2, configured addresses (ES10a/b).
- Profiles: GetProfilesInfo with metadata (state, nickname, provider,
ICCID, ISD-P AID, class, owner, icon).
- Notifications: read-only ListNotification viewer.
- Switch: Enable/DisableProfile with RefreshFlag=1; the card's REFRESH
(fetched/answered/logged by the transport's proactive handler) or an ok
result triggers _esim_reinit() — reset + equip + _apply_equipped_card —
so the ICCID, network state and cached views are re-read.
- Server: pysim_simple_server/esim.py, GET /api/esim/chip|profiles|
notifications, POST /api/esim/profile (all under _CARD_LOCK; 400
not_an_euicc), euicc/eid in /api/status.
- Tests: tests/test_esim.py (fake scc, monkeypatched store_data_tlv),
frontend/tests/esim.test.js; help EN/RU, docs/api.md, AGENTS.
catarrh