`_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.
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.
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.
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.
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.
TERMINAL PROFILE:
- GET /api/terminal-profile returns the profile in effect + the CLI default;
POST /api/terminal-profile validates ({profile}, hex, even, 1-255 bytes),
stores it in memory and re-sends it, resetting the STK session like
/api/rescue (the shared _resend_terminal_profile helper; rescue now
delegates to it). __main__ keeps server.cli_terminal_profile.
- Phone tab: a TERMINAL PROFILE block next to STATUS and Polling with the
current hex/byte count, Send (re-send) and Configure. The Configure
dialog has a device-model preset selector, a hex field and a per-bit
form generated from a 264-entry table for TS 102 223 V18.3.0 5.2 bytes
1-33 (pySim's table as scaffold, later bytes/3GPP bits added from the
spec; beyond the table generic RFU labels). Form <-> hex sync both
ways, hex authoritative, bits preserved. Apply posts the new value.
- Presets: Xiaomi Mi A1 (project default), Quectel GSM module example.
In-memory only, no persistence.
Custom files:
- Canonical paths rooted at MF / ADF.USIM / ADF.ISIM; entries are
{path, name, kind}. The editor now uses root + parent-DF selector +
4-hex FID + alias, requires the parent DF to be defined first, rejects
duplicates, rewrites descendants when a DF's path changes and cascades
deletes after a confirmation.
- Legacy forms are normalized on load/import (3F00/... -> MF/..., relative
a153/4954 resolved against the custom DFs); unresolvable entries are
dropped and reported in the list.
- Tree injection matches by exact parent path via the new pysimFsNodePath
(same-FID DFs under different parents no longer collide);
profilerCustomNameForPath uses the same normalization.
SW cache otaman-v167; help EN/RU + docs/api.md + AGENTS updated.
Tests: 236 Python + 371 frontend.
SCP81:
- New listener mode "passthru": no local listener - the card's BIP
channels connect straight to a configured external platform
(host/port required), which terminates TLS and runs the dialog.
The status API reports mode/target (_SCP81_MODE/_SCP81_TARGET) and
clears them on stop. PWA mode select, hint, Start validation; TLS PSK
stays the default.
Proactive command decoding (Phone tab log):
- SEND SHORT MESSAGE (0x13) is now decoded: alpha, address (TON/NPI +
number), 3GPP-SMS TPDU (type, TP-MR, TP-DA, TP-PID 0x7F flagged as
SIM data download, TP-DCS, TP-VP, TP-UDL), UDH concatenation IEs, and
the TP-UD as text (GSM-7 with a septet unpacker, UCS2, 8-bit) or as a
TS 31.115 secured packet for PID 0x7F; malformed TPDUs fall back to
the raw hex line.
- PROVIDE LOCAL INFORMATION qualifier names completed per TS 102 223
V18.3.0: ESN (07), MEID (0B), Supported RATs (1A); 05 relabelled
"Reserved for GSM (Timing Advance)". Fixed in the server dict and
both frontend tables.
Header:
- Compact ADM badge next to the card indicator: "ADM ✓" green when
pySim's adm_verified is set, "ADM ✗" red otherwise, hidden without a
card session or when the server is down; updated ahead of the card
state-key early return so it never disturbs the connect/reset flow.
File manager:
- Sort pills (FID/Name), Probe all files button and progress line are
pinned above the tree instead of scrolling with it; the tree box cap
grows from 420px to 65vh.
SW cache otaman-v165; help EN/RU updated; tests 234 Python + 361 frontend.
Cards / SCP81:
- Cards is a top-level tab; presets gain PSK identity + key, HTTP-OTA
column, Edit/Update and a live PSK-map push into a running listener.
- SCP81 has Listener/Scripts pills; scripts are named local APDU lists
(Empty / Explore / Install from .cap / Delete templates), sent to the
server explicitly at start. The listener takes mode/host/port/script
only; PSK inputs and the .cap row are gone.
- Multi-PSK TLS listener: identity -> key lookup from the card presets
(POST /api/scp81/psk-map updates a running listener), unknown
identities log tls-psk-unknown and fail; handshake logs carry psk_match.
- Script engine: execution tracking (next/done/pending/results), a
resumed dialog sends only the unexecuted tail (unreported APDU is
resent), a fresh dialog restarts, listing continuation pages are
tracked separately (pending.pages/complete). Restart script button.
- POST /api/scp81/gen-install replaces the SCP81 ram-install queueing
(generation only; the .cap is never stored).
Profiler / snapshots:
- Snapshot comparison is always exact (mask checkboxes removed; the
first-4-bytes mask remains a profile-creation option).
- "matching records" line shows count + #record numbers.
- New Clone action: copy named "Copy of <profile>", opened in the editor.
- Matched-record count/numbers fix ("1 из 8 (#8)").
SCP80:
- Configurable / auto-fitted LOAD block size: each LOAD APDU encodes into
one SMS (pySim rejects secured packets above 140 octets, so a 240-byte
block could never be sent). Response reports the effective size and
clamps; encode failures are reported per step with the pySim message.
SW cache otaman-v161; docs/api.md, scp81-findings and help EN/RU updated.
Tests: 226 Python + 356 frontend.
The block slicer used the block number as a character offset
(loadfile_tlv[i * 2:(i + 240) * 2]), so every LOAD block after the first was
a 1-byte-shifted copy of the previous one - the cap header repeated every
239 bytes on the wire. A live install accepted three blocks, failed block 4
with SW 6400, then 6985, and INSTALL [for install] answered 6A88. The same
slicing was inherited by the SCP81 helper from the SCP80 path, so
multi-block caps could not install there either; both are fixed.
Tests: blocks are consecutive and reassemble the C4 TLV byte-for-byte
(200 python); findings updated; service worker v149.
- shared _cap_apdu_sequence helper (INSTALL [for load] -> 240-byte LOAD
blocks -> INSTALL [for install]); the SCP80 /api/ram-install path now uses
it too (one source of truth; byte-level tests pin the APDUs)
- POST /api/scp81/ram-install: parses the .cap server-side and queues the
APDU sequence as the SCP81 command script (one C-APDU per POST, runs on the
card's next push); refused while a script is mid-run unless force
- /api/scp81/script reports the script kind (explore/none/custom/ram-install)
- tab: RAM install row (CAP file + SD AID + Queue button); RU strings
- docs: api.md, findings, AGENTS; service worker v145
- scp81.py: PSK TLS listener (stdlib ssl PSK callbacks) speaking the GP
HTTP administration dialog; configurable framing (chunked/Content-Length,
TLS record split, Apache-style/compact headers, Connection header,
keep-alive, Next-URI template with %d, TLS version/cipher, answer delay,
keylog for capture decryption)
- server.py: script responder + Response Scripting parsing (AF/AB, 80/23
TLVs), memory decoder, SCP81 start options, terminal-side timer
management, background-mode BIP events, permissive OPEN CHANNEL
- BIP fix: the RECEIVE DATA channel-data TLV length is BER long form
(36 81 <len>) above 127 bytes; a raw length byte is mis-parsed on the
card, so the large TLS records never reached its stack (a live card
fetched the script response and silently never processed it - endless
resume). The card now executes scripts and returns R-APDUs: memory
(13 applets, 50646 B NV free, 2402 B volatile), ISD, stored HTTP OTA
parameters, ELF and application registries
- frontend: SCP81 tab (listener, script selection, HTTP OTA log), phone
event forms, i18n; service worker v141
- docs: api.md, scp81-findings.md (attempt matrix + root cause analysis);
tools/scp81_decrypt.py decrypts listener captures via the keylog
- tests: 187 python + 337 frontend
Incoming: _parse_sms_concat parses UDH for IEI 0x00 (8-bit ref) and
IEI 0x08 (16-bit ref). PoRSubmitHandler accumulates segments, sorts by
num, and reassembles complete payload when all parts arrive.
Outgoing: MAX_ENVELOPE_SEGMENTS=5 limits the secured packet to 5
ENVELOPE chunks (650B max at 130B/chunk).
10 new tests for concat parsing and reassembly.
- pysimSendOta: Response Parser filled strictly from decoded PoR
(por.decoded) for both SPI2 variants; envelope SW/failures no longer
leak into it — they render in a new inline result line (#sp-send-result)
next to Send to Card, always including SW on failure
- Default-level stderr tracing per send (no flags needed):
'OTA SEND: SPI .. KIc .. KID .. TAR .. CNTR .. LEN ..B CHUNKS N',
'OTA SEND FAILED: chunk N SW xxxx' and
'OTA PoR[envelope|sms-submit]: status=.. TAR=.. CNTR=.. PCNTR=..
RPL=.. RHL=..' (+ compact summary / undecodable raw / none fallbacks)
- _decode_por: surface every parsed PoR field verbatim (cntr, rpl, rhl,
cc_rc, raw) instead of status/tar/pcntr only
- genSp: CNTR normalization padEnd -> padStart so short input like '1'
becomes 0000000001, not 1000000000 (counter is big-endian 5 bytes)
- tests: TestDecodePor completeness + cntr_low field-report cases
Version 1.9.3 -> 1.9.4 everywhere; SW cache otaman-v14 -> otaman-v15
Server:
- Track all TERMINAL RESPONSEs (chain, TP, pySim auto-handler, menu-respond
link to paused entry) with shared _build_tr/_record_tr
- Log entry ids + cmd_num; server-side decode of fetched commands and TRs
(compact PLI port); Result CTLV extracted as tr_result/tr_result_name
- _LoggingApduTracer captures TR SW for pySim auto-handler responses
- _DefaultProactiveHandler answers PLI with editor data (no re-request)
- VERSION 1.8.0
Frontend:
- Expandable proactive log rows (click to expand, state survives re-render)
- Response section: Result name + hex, decoded fields, width-restrained
readonly hex inputs; no SW display
- Rename Expanded Script tab/pill/button/docs; proactive UICC view font
sizing increase; card reader pills text-sm
catarrh