Files
simple/frontend/tests/capmem.test.js
T
catarrh 18e0db75a9 feat: approximate NVRAM requirement from the CAP analysis (v3.5.15)
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.
2026-09-27 02:14:49 +03:00

154 lines
6.6 KiB
JavaScript

const { test } = require('node:test');
const assert = require('node:assert');
const fs = require('node:fs');
const path = require('node:path');
const html = fs.readFileSync(path.join(__dirname, '..', 'index.html'), 'utf8');
function extractBlock(startMarker, endMarker) {
const start = html.indexOf(startMarker);
const end = html.indexOf(endMarker, start);
if (start < 0 || end < 0) throw new Error('block not found: ' + startMarker);
return html.slice(start, end);
}
function extractFunc(src, name, asyncFn) {
const re = new RegExp('function\\s+' + name + '\\s*\\([^)]*\\)\\s*\\{');
const m = re.exec(src);
if (!m) throw new Error('function ' + name + ' not found');
let i = m.index + m[0].length - 1;
let depth = 0;
for (; i < src.length; i++) {
if (src[i] === '{') depth++;
else if (src[i] === '}') {
depth--;
if (depth === 0) break;
}
}
return (asyncFn ? 'async ' : '') + src.slice(m.index, i + 1);
}
// Rewrite the top-level const so it leaks out of sloppy-mode eval.
eval(extractBlock('const _capAnalysis = {', 'function capFileKey').replace(/^const /gm, 'var '));
eval(extractFunc(html, 'capFileKey'));
eval(extractFunc(html, 'capGateOk'));
eval(extractFunc(html, 'capMemBytes'));
eval(extractFunc(html, 'capMemHtml'));
eval(extractFunc(html, 'capAnalyzeFile', true));
globalThis.esc = s => s;
globalThis.t = s => s;
globalThis.capRenderAnalysis = () => {};
globalThis.pysimApplyAvailability = () => {};
function resetState() {
_capAnalysis.ram = { key: null, status: 'idle', memory: null, error: null, token: 0 };
_capAnalysis.scripts = { key: null, status: 'idle', memory: null, error: null, token: 0 };
}
function memFixture() {
return {
code: { method_component: 2048, load_file: 3000 },
nvram: { static_image: 12, array_init: 4, install_objects: 100, header_overhead: 12, ref_storage: 8, total: 136, runtime: 0, requirement: 3136 },
ram: { transient_arrays: 16, runtime_transient: 0, peak_frame: 8, total: 24 },
suggested: { c6: 3000, c7: 272, c8: 136 },
warnings: [],
};
}
test('capMemBytes formats bytes and kilobytes', () => {
assert.strictEqual(capMemBytes(0), '0 B');
assert.strictEqual(capMemBytes(1023), '1023 B');
assert.strictEqual(capMemBytes(1024), '1.0 kB');
assert.strictEqual(capMemBytes(1587), '1.5 kB');
assert.strictEqual(capMemBytes(null), '0 B');
});
test('capMemHtml renders the NVRAM requirement, breakdown and warnings', () => {
const mem = memFixture();
mem.warnings = ['method class[0].token[1]: unknown opcode 0xAA, scan stopped'];
const out = capMemHtml(mem);
assert.ok(out.includes('CAP requirements (estimate)'), out);
// C6+C8-style total: load file + persistent data
assert.ok(out.includes('NVRAM requirement ≈ 3.1 kB (code image 2.9 kB + data 136 B)'), out);
assert.ok(out.includes('RAM (volatile): 24 B'), out);
assert.ok(out.includes('Code image (load file): 2.9 kB'), out);
assert.ok(out.includes('bytecode (Method.cap): 2.0 kB'), out);
assert.ok(out.includes('other components: 952 B'), out);
assert.ok(out.includes('Persistent data (NVRAM): 136 B'), out);
assert.ok(out.includes('Static image: 12 B'), out);
assert.ok(out.includes('Reference storage: 8 B'), out);
assert.ok(out.includes('Peak method frame: 8 B'), out);
assert.ok(out.includes('C6=3000 C7=0x0110 C8=0x0088'), out);
assert.ok(out.includes('Table 11-48'), out);
assert.ok(out.includes('Estimate only'), out);
assert.ok(out.includes('unknown opcode 0xAA'), out);
assert.strictEqual(capMemHtml(null), '');
});
test('capMemHtml falls back to the bytecode size on older server responses', () => {
const mem = memFixture();
delete mem.code.load_file;
delete mem.nvram.requirement;
const out = capMemHtml(mem);
assert.ok(out.includes('NVRAM requirement ≈ 2.1 kB (code image 2.0 kB + data 136 B)'), out);
});
test('capGateOk gates the RAM install op and the scripts form', () => {
resetState();
globalThis.document = { getElementById: id => (id === 'ram-op' ? { value: 'install-cap' } : null) };
assert.strictEqual(capGateOk('ram'), false);
_capAnalysis.ram.status = 'ok';
assert.strictEqual(capGateOk('ram'), true);
_capAnalysis.scripts.status = 'error';
assert.strictEqual(capGateOk('scripts'), false);
// other RAM ops (explore/delete) are not gated
globalThis.document = { getElementById: id => (id === 'ram-op' ? { value: 'explore' } : null) };
assert.strictEqual(capGateOk('ram'), true);
});
test('capAnalyzeFile stores the estimate and ignores stale responses', async () => {
resetState();
const pending = [];
globalThis.ramReadFileHex = async f => f.name + 'hex';
globalThis.pysimFetch = (url, body) => new Promise(resolve => pending.push(resolve));
const f1 = { name: 'a.cap', size: 1, lastModified: 1 };
const f2 = { name: 'b.cap', size: 2, lastModified: 2 };
const p1 = capAnalyzeFile(f1, 'ram');
const p2 = capAnalyzeFile(f2, 'ram');
assert.strictEqual(_capAnalysis.ram.status, 'analyzing');
// let both file reads settle so the fetches are in flight
for (let i = 0; i < 10 && pending.length < 2; i++) await Promise.resolve();
// resolve the first (stale) response after the second selection
pending[0]({ ok: true, memory: { code: { method_component: 111 } } });
pending[1]({ ok: true, memory: { code: { method_component: 222 } } });
await Promise.all([p1, p2]);
assert.strictEqual(_capAnalysis.ram.status, 'ok');
assert.strictEqual(_capAnalysis.ram.memory.code.method_component, 222);
assert.strictEqual(_capAnalysis.ram.key, capFileKey(f2));
globalThis.pysimFetch = undefined;
});
test('capAnalyzeFile records server and network failures', async () => {
resetState();
globalThis.ramReadFileHex = async () => '00';
globalThis.pysimFetch = async () => ({ ok: false, error: 'cap parse failed: File is not a zip file' });
await capAnalyzeFile({ name: 'bad.cap', size: 1, lastModified: 1 }, 'scripts');
assert.strictEqual(_capAnalysis.scripts.status, 'error');
assert.ok(_capAnalysis.scripts.error.includes('not a zip file'), _capAnalysis.scripts.error);
globalThis.pysimFetch = async () => { throw new Error('boom'); };
await capAnalyzeFile({ name: 'net.cap', size: 1, lastModified: 1 }, 'scripts');
assert.strictEqual(_capAnalysis.scripts.status, 'error');
assert.strictEqual(_capAnalysis.scripts.error, 'boom');
});
test('the CAP inputs and their action buttons are wired', () => {
assert.match(html, /id="ram-cap-file"[^>]*onchange="ramCapFileChanged\(\)"/);
assert.match(html, /id="scripts-cap-file"[^>]*onchange="scriptsCapFileChanged\(\)"/);
assert.match(html, /data-cap-gate="ram"/);
assert.match(html, /data-cap-gate="scripts"/);
assert.match(html, /id="ram-cap-info"/);
assert.match(html, /id="scripts-cap-info"/);
assert.match(html, /\/api\/cap-info/);
});