import { Bash } from "just-bash";

const bash = new Bash();
await bash.exec('echo "Hello" > greeting.txt');
const result = await bash.exec("cat greeting.txt");
console.log(result.stdout); // "Hello\n"
console.log(result.exitCode); // 0

Each exec() call gets its own isolated shell state — environment variables, functions, and working directory reset between calls. The filesystem is shared across calls, so files written in one exec() are visible in the next.

Custom Commands

Extend just-bash with your own TypeScript commands using defineCommand:

import { Bash, decodeBytesToUtf8, defineCommand } from "just-bash";

const hello = defineCommand("hello", async (args, ctx) => {
  const name = args[0] || "world";
  return { stdout: `Hello, ${name}!\n`, stderr: "", exitCode: 0 };
});

const upper = defineCommand("upper", async (args, ctx) => {
  // ctx.stdin is a ByteString — decode to text before string ops.
  return {
    stdout: decodeBytesToUtf8(ctx.stdin).toUpperCase(),
    stderr: "",
    exitCode: 0,
  };
});

const bash = new Bash({ customCommands: [hello, upper] });

await bash.exec("hello Alice"); // "Hello, Alice!\n"
await bash.exec("echo 'test' | upper"); // "TEST\n"

Custom command callbacks receive a ResolvedCommandContext with fs, cwd, env, stdin, resolved limits, and exec (for subcommands), and work with pipes, redirections, and all shell features. The legacy CommandContext remains available for standalone context inputs; use createCommandContext({ fs }) when calling a command directly with a fully resolved context.

Host-provided commands preserve the legacy trusted default whether supplied to the Bash constructor, declared through defineCommand, loaded lazily, or added later with bash.registerCommand(). Set trusted: false (or use defineCommand(name, execute, { trusted: false })) to select the restricted extension boundary. Trusted commands run in the embedding process and should never execute guest-provided JavaScript.

Every invocation is bound by maxExecutionTimeMs. On cancellation, just-bash revokes the command context immediately; maxExtensionCleanupTimeMs only bounds how long it waits for the now-authority-free command promise to settle. A late continuation cannot use ctx.fs, ctx.env, ctx.exec, or other context capabilities. Cleanup work that must run at scope closure can be registered with ctx.executionScope.registerCleanup(). A cleanup failure is returned as a generic exit-126 shell result rather than rejecting Bash.exec() or exposing host error details. JavaScript cannot forcibly stop arbitrary host code, so extensions requiring a hard guarantee against external side effects must run in a terminable worker or process. Tests that invoke command objects directly can use createCommandContext({ fs }) to get a fully resolved context without duplicating internal defaults.

Supported Commands

File Operations

cat, cp, file, ln, ls, mkdir, mv, readlink, rm, rmdir, split, stat, touch, tree

Text Processing

awk, base64, column, comm, cut, diff, expand, fold, grep (+ egrep, fgrep), head, join, md5sum, nl, od, paste, printf, rev, rg, sed, sha1sum, sha256sum, sort, strings, tac, tail, tr, unexpand, uniq, wc, xargs

Data Processing

jq (JSON), sqlite3 (SQLite), xan (CSV), yq (YAML/XML/TOML/CSV)

Optional Runtimes

js-exec (JavaScript/TypeScript via QuickJS; requires javascript: true), python3/python (Python via CPython; requires python: true)

Compression & Archives

gzip (+ gunzip, zcat), tar

basename, cd, dirname, du, echo, env, export, find, hostname, printenv, pwd, tee

Shell Utilities

alias, bash, chmod, clear, date, expr, false, help, history, seq, sh, sleep, time, timeout, true, unalias, which, whoami

Network

curl, html-to-markdown (require network configuration)

All commands support --help for usage information.

Shell Features

Pipes: cmd1 | cmd2
Redirections: >, >>, 2>, 2>&1, <
Command chaining: &&, ||, ;
Variables: $VAR, ${VAR}, ${VAR:-default}
Positional parameters: $1, $2, $@, $#
Glob patterns: *, ?, [...]
If statements: if COND; then CMD; elif COND; then CMD; else CMD; fi
Functions: function name { ... } or name() { ... }
Local variables: local VAR=value
Loops: for, while, until
Symbolic links: ln -s target link
Hard links: ln target link

Configuration

const env = new Bash({
  files: { "/data/file.txt": "content" }, // Initial files
  env: { MY_VAR: "value" }, // Initial environment
  cwd: "/app", // Starting directory (default: /home/user)
  executionLimits: { maxCallDepth: 50 }, // See "Execution Protection"
  python: true, // Enable python3/python commands
  javascript: true, // Enable js-exec command
  // Or with bootstrap: javascript: { bootstrap: "globalThis.X = 1;" }
});

// Per-exec overrides
await env.exec("echo $TEMP", { env: { TEMP: "value" }, cwd: "/tmp" });

// Pass stdin to the script
await env.exec("cat", { stdin: "hello from stdin\n" });

// Start with a clean environment
await env.exec("env", { replaceEnv: true, env: { ONLY: "this" } });

// Pass arguments without shell escaping (like spawnSync)
await env.exec("grep", { args: ["-r", "TODO", "src/"] });

// Cancel long-running scripts
const controller = new AbortController();
setTimeout(() => controller.abort(), 5000);
await env.exec("while true; do sleep 1; done", { signal: controller.signal });

// Preserve leading whitespace (e.g., for heredocs)
await env.exec("cat <<EOF\n  indented\nEOF", { rawScript: true });

Timezone

date defaults to UTC (%Z=UTC, %z=+0000) regardless of the host clock, so the sandbox does not leak the host timezone. To opt into a specific zone, pass TZ as an initial env var:

const bash = new Bash({ env: { TZ: "America/New_York" } });
await bash.exec("date"); // Mon Jun  1 09:30:00 EDT 2026

-u always forces UTC; an unset or invalid $TZ falls back to UTC. Setting TZ exposes that timezone to scripts running in the sandbox, so only pass a value you are comfortable revealing — forwarding the host's real $TZ (e.g. process.env.TZ) reintroduces the disclosure that the UTC default exists to prevent.

exec() options:

Option	Type	Description
`env`	`Record<string, string>`	Environment variables for this execution only
`cwd`	`string`	Working directory for this execution only
`stdin`	`string`	Standard input passed to the script
`args`	`string[]`	Additional argv passed directly to the first command (bypasses shell parsing; does not change `$1`, `$2`, ...)
`replaceEnv`	`boolean`	Start with empty env instead of merging (default: `false`)
`signal`	`AbortSignal`	Cooperative cancellation; stops at next statement boundary
`rawScript`	`boolean`	Skip leading-whitespace normalization (default: `false`)

Filesystem Options

Four filesystem implementations:

InMemoryFs (default) - Pure in-memory filesystem, no disk access:

import { Bash } from "just-bash";

const env = new Bash({
  files: {
    "/data/config.json": '{"key": "value"}',
    // Lazy: called on first read, cached. Never called if written before read.
    "/data/large.csv": () => "col1,col2\na,b\n",
    "/data/remote.txt": async () => (await fetch("https://example.com")).text(),
  },
});

OverlayFs - Copy-on-write over a real directory. Reads come from disk, writes stay in memory:

import { Bash } from "just-bash";
import { OverlayFs } from "just-bash/fs/overlay-fs";

const overlay = new OverlayFs({
  root: "/path/to/project",
  // Copy-on-write data is bounded independently from real-file reads.
  maxMemoryBytes: 256 * 1024 * 1024,
});
const env = new Bash({ fs: overlay, cwd: overlay.getMountPoint() });

await env.exec("cat package.json"); // reads from disk
await env.exec('echo "modified" > package.json'); // stays in memory

maxMemoryBytes defaults to 1 GiB and covers aggregate files retained in the copy-on-write layer, including append chunks. Set it to the deployment's memory budget when an OverlayFs is reused across executions.

ReadWriteFs - Direct read-write access to a real directory. Use this if you want the agent to be able to write to your disk:

import { Bash } from "just-bash";
import { ReadWriteFs } from "just-bash/fs/read-write-fs";

const rwfs = new ReadWriteFs({ root: "/path/to/sandbox" });
const env = new Bash({ fs: rwfs });

await env.exec('echo "hello" > file.txt'); // writes to real filesystem

Keep ReadWriteFs pointed at a workspace directory, not at the installed just-bash package or any other trusted runtime code. Guest-writable roots should stay separate from trusted code.

ReadWriteFs uses normal in-place filesystem operations for private regular files. For multiply-linked regular files, it isolates append and metadata changes by copying the file and replacing only the sandbox directory entry, so a host-created hard link cannot carry those changes beyond the configured root. Implicit copies are limited by maxCopyOnWriteSize (100 MB by default; set it to 0 to disable the limit). Overwrite does not need to copy existing content. Explicit cp copies can be limited with the opt-in maxCopySize option (unlimited by default). The portable copy path may materialize sparse-file holes, so embeddings that require a disk-allocation bound should configure maxCopySize.

Shared-inode isolation has a few deliberate limitations:

Append, chmod, and utimes on a multiply-linked regular file require read access to the file and write access to its parent directory. They fail with EFBIG when the file exceeds maxCopyOnWriteSize.
Copies use O_NOATIME when the Node.js runtime exposes it and retry with normal read semantics if the kernel returns EPERM. Runtimes and platforms without O_NOATIME may update access-time metadata visible through another hard link.
Do not mutate a ReadWriteFs root concurrently through direct host filesystem APIs. Node.js does not expose the descriptor-relative operations needed to make pathname validation atomic against an external actor. A concurrent host append to a multiply-linked file may be lost when the isolated entry is replaced.
Mutations in overlapping ReadWriteFs roots are serialized within the process. Unrelated roots proceed independently. The queue is not cancellable or bounded, so a large mutation can delay later operations in overlapping roots even if the requesting script is subsequently aborted.
Content writes and appends to FIFOs, sockets, devices, and other special files are rejected. This avoids indefinitely occupying an overlapping-root mutation slot on a blocking special-file open. Metadata operations remain supported for single-link special files; multiply-linked special files are rejected because they cannot be isolated without changing their file type.
Private-file and single-link special-file metadata operations use pathname APIs to preserve normal host permission semantics. They are not atomic against a trusted host actor concurrently replacing that pathname with a symlink. With allowSymlinks: false, symlinks present during normal path validation are still rejected.
Copying a symlink preserves whether its guest target is absolute or relative. Only symlinks whose resolved targets remain inside the root are copied.
Regular-file copies replace the destination entry to prevent writes through hard links. Existing destinations must still be writable, and their parent directory must be writable so the isolated entry can be committed. Thus a writable destination in a non-writable directory cannot be copied over. Copying over a FIFO, socket, device, or other special entry is rejected.

MountableFs - Mount multiple filesystems at different paths. Combines read-only and read-write filesystems into a unified namespace:

import { Bash, MountableFs, InMemoryFs } from "just-bash";
import { OverlayFs } from "just-bash/fs/overlay-fs";
import { ReadWriteFs } from "just-bash/fs/read-write-fs";

const fs = new MountableFs({ base: new InMemoryFs() });

// Mount read-only knowledge base
fs.mount("/mnt/knowledge", new OverlayFs({ root: "/path/to/knowledge", readOnly: true }));

// Mount read-write workspace
fs.mount("/home/agent", new ReadWriteFs({ root: "/path/to/workspace" }));

const bash = new Bash({ fs, cwd: "/home/agent" });

await bash.exec("ls /mnt/knowledge"); // reads from knowledge base
await bash.exec("cp /mnt/knowledge/doc.txt ./"); // cross-mount copy
await bash.exec('echo "notes" > notes.txt'); // writes to workspace

You can also configure mounts in the constructor:

import { MountableFs, InMemoryFs } from "just-bash";
import { OverlayFs } from "just-bash/fs/overlay-fs";
import { ReadWriteFs } from "just-bash/fs/read-write-fs";

const fs = new MountableFs({
  base: new InMemoryFs(),
  mounts: [
    { mountPoint: "/data", filesystem: new OverlayFs({ root: "/shared/data" }) },
    { mountPoint: "/workspace", filesystem: new ReadWriteFs({ root: "/tmp/work" }) },
  ],
});

Optional Capabilities

Network Access

Network access is disabled by default. Enable it with the network option:

// Allow specific URLs with GET/HEAD only (safest)
const env = new Bash({
  network: {
    allowedUrlPrefixes: [
      "https://api.github.com/repos/myorg/",
      "https://api.example.com",
    ],
  },
});

// Allow specific URLs with additional methods
const env = new Bash({
  network: {
    allowedUrlPrefixes: ["https://api.example.com"],
    allowedMethods: ["GET", "HEAD", "POST"], // Default: ["GET", "HEAD"]
  },
});

// Inject credentials via header transforms (secrets never enter the sandbox)
const env = new Bash({
  network: {
    allowedUrlPrefixes: [
      "https://public-api.com", // plain string — no transforms
      {
        url: "https://ai-gateway.vercel.sh",
        transform: [{ headers: { Authorization: "Bearer secret" } }],
      },
    ],
  },
});

// Allow all URLs and methods (use with caution)
const env = new Bash({
  network: { dangerouslyAllowFullInternetAccess: true },
});

Note: The curl command only exists when network is configured. Without network configuration, curl returns "command not found".

Allow-List Security

The allow-list enforces:

Origin matching: URLs must match the exact origin (scheme + host + port)
Path prefix: Only paths starting with the specified prefix are allowed
HTTP method restrictions: Only GET and HEAD by default (configure allowedMethods for more)
Redirect protection: Redirects to non-allowed URLs are blocked
Header transforms: Firewall headers are injected at the fetch boundary and override any user-supplied headers with the same name, preventing credential substitution from inside the sandbox. Headers are re-evaluated on each redirect so credentials are never leaked to non-transform hosts

Using curl

# Fetch and process data
curl -s https://api.example.com/data | grep pattern

# Download and convert HTML to Markdown
curl -s https://example.com | html-to-markdown

# POST JSON data
curl -X POST -H "Content-Type: application/json" \
  -d '{"key":"value"}' https://api.example.com/endpoint

JavaScript Support

JavaScript and TypeScript execution via QuickJS is opt-in due to additional security surface. Enable with javascript: true:

const env = new Bash({
  javascript: true,
});

// Execute JavaScript code
await env.exec('js-exec -c "console.log(1 + 2)"');

// Run script files (.js, .mjs, .ts, .mts)
await env.exec('js-exec script.js');

// ES module mode with imports
await env.exec('js-exec -m -c "import fs from \'fs\'; console.log(fs.readFileSync(\'/data/file.txt\', \'utf8\'))"');

Bootstrap Code

Run setup code before every js-exec invocation with the bootstrap option:

const env = new Bash({
  javascript: {
    bootstrap: `
      globalThis.API_BASE = "https://api.example.com";
      globalThis.formatDate = (d) => new Date(d).toISOString();
    `,
  },
});

await env.exec('js-exec -c "console.log(API_BASE)"');
// Output: https://api.example.com

Node.js Compatibility

js-exec supports require() and import with these Node.js modules:

fs: readFileSync, writeFileSync, readdirSync, statSync, existsSync, mkdirSync, rmSync, fs.promises.*
path: join, resolve, dirname, basename, extname, relative, normalize
child_process: execSync, spawnSync
process: argv, cwd(), exit(), env, platform, version
Other modules: os, url, assert, util, events, buffer, stream, string_decoder, querystring
Globals: console, fetch, Buffer, URL, URLSearchParams

fs.readFileSync() returns a Buffer by default (matching Node.js). Pass an encoding like 'utf8' to get a string.

Note: The js-exec command only exists when javascript is configured. It is not available in browser environments. Execution runs in a QuickJS WASM sandbox with a 64 MB memory limit and configurable timeout (30 seconds in the default normal profile and 10 seconds in the opt-in hardened profile). Enabling network access does not extend the configured deadline.

Tool Invocation Hook

js-exec scripts can call host-defined tools through a global tools proxy when javascript.invokeTool is provided:

const bash = new Bash({
  javascript: {
    // path:     "math.add"  (dot-separated)
    // argsJson: '{"a":1,"b":2}'  (or "" for no args)
    // return:   JSON-stringified result, or "" for undefined
    // throw:    propagates as a sandbox exception
    invokeTool: async (path, argsJson) => {
      const args = argsJson ? JSON.parse(argsJson) : undefined;
      if (path === "math.add") {
        return JSON.stringify({ sum: args.a + args.b });
      }
      throw new Error(`Unknown tool: ${path}`);
    },
  },
});

await bash.exec(`js-exec -c 'console.log((await tools.math.add({a:3,b:4})).sum)'`);

The hook is generic — wire any tool framework through it (raw maps, MCP, Anthropic tool-use, etc.). For full GraphQL / OpenAPI / MCP discovery via @executor-js/sdk, plus auto-generated bash namespace commands, use the companion package @just-bash/executor.

Python Support

Python (CPython compiled to WASM) is opt-in due to additional security surface. Enable with python: true:

const env = new Bash({
  python: true,
});

// Execute Python code
await env.exec('python3 -c "print(1 + 2)"');

// Run Python scripts
await env.exec('python3 script.py');

Note: The python3 and python commands only exist when python: true is configured. Python is not available in browser environments.

SQLite Support

sqlite3 uses sql.js (SQLite compiled to WASM), sandboxed from the real filesystem:

const env = new Bash();

// Query in-memory database
await env.exec('sqlite3 :memory: "SELECT 1 + 1"');

// Query file-based database
await env.exec('sqlite3 data.db "SELECT * FROM users"');

Note: SQLite is not available in browser environments. Queries run in a worker thread with a configurable timeout (30 seconds in the default normal profile and 5 seconds in the opt-in hardened profile) to prevent runaway queries from blocking execution.

AST Transform Plugins

Parse bash scripts into an AST, transform them, and serialize back to bash. Good for instrumenting scripts (e.g., capturing per-command stdout/stderr) or extracting metadata before execution.

import { Bash, BashTransformPipeline, TeePlugin, CommandCollectorPlugin } from "just-bash";

// Standalone pipeline — output can be run by any shell
const pipeline = new BashTransformPipeline()
  .use(new TeePlugin({ outputDir: "/tmp/logs" }))
  .use(new CommandCollectorPlugin());
const result = pipeline.transform("echo hello | grep hello");
result.script;             // transformed bash string
result.metadata.commands;  // ["echo", "grep", "tee"]

// Integrated API — exec() auto-applies transforms and returns metadata
const bash = new Bash();
bash.registerTransformPlugin(new CommandCollectorPlugin());
const execResult = await bash.exec("echo hello | grep hello");
execResult.metadata?.commands; // ["echo", "grep"]

See src/transform/README.md for the full API, built-in plugins, and how to write custom plugins.

Integrations

AI SDK Tool

bash-tool wraps just-bash as an AI SDK tool:

npm install bash-tool

import { createBashTool } from "bash-tool";
import { generateText } from "ai";

const bashTool = createBashTool({
  files: { "/data/users.json": '[{"name": "Alice"}, {"name": "Bob"}]' },
});

const result = await generateText({
  model: "anthropic/claude-sonnet-4",
  tools: { bash: bashTool },
  prompt: "Count the users in /data/users.json",
});

See bash-tool for more.

Vercel Sandbox Compatible API

Sandbox is a drop-in replacement for @vercel/sandbox — same API, but runs entirely in-process with the virtual filesystem. Start with just-bash for development and testing, swap in a real sandbox when you need a full VM.

import { Sandbox } from "just-bash";

// Create a sandbox instance
const sandbox = await Sandbox.create({ cwd: "/app" });

// Write files to the virtual filesystem
await sandbox.writeFiles({
  "/app/script.sh": 'echo "Hello World"',
  "/app/data.json": '{"key": "value"}',
});

// Run commands and get results
const cmd = await sandbox.runCommand("bash /app/script.sh");
const output = await cmd.stdout(); // "Hello World\n"
const exitCode = (await cmd.wait()).exitCode; // 0

// Read files back
const content = await sandbox.readFile("/app/data.json");

// Create directories
await sandbox.mkDir("/app/logs", { recursive: true });

// Clean up (no-op for Bash, but API-compatible)
await sandbox.stop();

CLI

CLI Binary

Install globally (npm install -g just-bash) for a sandboxed CLI:

# Execute inline script
just-bash -c 'ls -la && cat package.json | head -5'

# Execute with specific project root
just-bash -c 'grep -r "TODO" src/' --root /path/to/project

# Pipe script from stdin
echo 'find . -name "*.ts" | wc -l' | just-bash

# Execute a script file
just-bash ./scripts/deploy.sh

# Get JSON output for programmatic use
just-bash -c 'echo hello' --json
# Output: {"stdout":"hello\n","stderr":"","exitCode":0}

The CLI uses OverlayFS — reads come from the real filesystem, but all writes stay in memory and are discarded after execution.

Important: The project root is mounted at /home/user/project. Use this path (or relative paths from the default cwd) to access your files inside the sandbox.

Options:

-c <script> - Execute script from argument
--root <path> - Root directory (default: current directory)
--cwd <path> - Working directory in sandbox
-e, --errexit - Exit on first error
--json - Output as JSON

Interactive Shell

pnpm shell

The interactive shell has full internet access by default. Disable with --no-network:

pnpm shell --no-network

Execution Protection

Bash protects against infinite loops and deep recursion with configurable limits:

const env = new Bash({
  // `normal` is the liberal, compatibility-oriented default. Use `hardened`
  // for tighter untrusted-workload policy, then override individual resources.
  executionLimitProfile: "hardened",
  executionLimits: {
    maxCallDepth: 100, // Max function recursion depth
    maxCommandCount: 20000, // Shared across nested execution
    maxSourceBytes: 8 * 1024 * 1024, // Shell source before parsing
    maxFileSystemBytes: 256 * 1024 * 1024, // Retained default-FS data
    maxOutputSize: 32 * 1024 * 1024, // Aggregate stdout + stderr bytes
    maxArchiveBytes: 256 * 1024 * 1024, // Expanded archive bytes
    maxDatabaseBytes: 128 * 1024 * 1024, // SQLite image bytes
    maxExecutionTimeMs: 30_000, // Whole execution wall-clock deadline
    maxExtensionCleanupTimeMs: 25, // Cancellation acknowledgement grace
  },
});

All resources remain bounded by default in both profiles. Explicit values override the selected profile; non-negative safe integers and the legacy Infinity spelling are accepted. Infinite deadlines omit the corresponding platform timer rather than overflowing it. Invalid values are rejected when Bash is constructed. Error messages identify the resource that was hit.

Security Model

The Node.js package requires Node >=20.18.1.

The shell only has access to the provided filesystem.
All execution happens without VM isolation. This does introduce additional risk. The code base was designed to be robust against prototype-pollution attacks and other break outs to the host JS engine and filesystem.
There is no network access by default. When enabled, requests are checked against URL prefix allow-lists and HTTP-method allow-lists.
Python and JavaScript execution are off by default as they represent additional security surface.
Execution is protected against infinite loops and deep recursion with configurable limits.
Host-realm defense-in-depth uses the strongest scoped controls available on each supported Node runtime. Where node:module.registerHooks() is present, builtin ESM imports can also be denied only for the untrusted async context; older runtimes retain best-effort scoped protection without failing existing applications. It never installs a process-global deny-all loader. Query the resolved capabilities with DefenseInDepthBox.getInstance().getStatus(). Audit mode reports level: "none" because it records violations without enforcing them.
Scoped defense uses reversible proxies for Reflect, JSON, and Math and restores their host descriptors on deactivation. This is reported as intrinsicProtection: "scoped-best-effort": same-realm JavaScript that cached an intrinsic or a mutation function before activation cannot be fully revoked (including the direct delete operator). The separately named processLifetimeIntrinsicHardening: true option permanently freezes those objects and locks selected well-known Symbol descriptors; use it only in a disposable or process-lifetime realm. Use an isolated worker/process when complete protection and reversible host state are both required.
Node worker resourceLimits do not reliably cap the WebAssembly linear memory used by CPython or sql.js. Queue, deadline, file, database, bridge, and payload limits reduce exposure, but strong memory containment for these opt-in runtimes requires process/container isolation or a WASM build with a lower hard maximum.
Use Vercel Sandbox if you need a full VM with arbitrary binary execution.

Browser Support

The core shell (parsing, execution, filesystem, and all built-in commands) works in browser environments. The following features require Node.js and are unavailable in browsers: python3/python, sqlite3, js-exec, and OverlayFs/ReadWriteFs (which access the real filesystem).

Default Layout

When created without options, Bash provides a Unix-like directory structure:

/home/user - Default working directory (and $HOME)
/bin - Contains stubs for all built-in commands
/usr/bin - Additional binary directory
/tmp - Temporary files directory

Commands can be invoked by path (e.g., /bin/ls) or by name.

AI Agent Instructions

For AI agents, bash-tool provides additional guidance in its AGENTS.md:

cat node_modules/bash-tool/dist/AGENTS.md

License

Apache-2.0

FAQs

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Package last updated on 22 Aug 2026

just-bash