# API compatibility checking
mvn clirr:check
```

### Architecture Overview

The library follows a layered architecture:

- **Context Layer**: `CIFSContext` interface provides the main entry point
- **Resource Layer**: `SmbResource` interface represents SMB network resources  
- **Protocol Layers**: Separate SMB1 (`jcifs.internal.smb1/`) and SMB2/3 (`jcifs.internal.smb2/`) implementations

  var longestRunOffset = -1
  var longestRunLength = 0
  run {
    var i = 0
    while (i < address.size) {
      val currentRunOffset = i
      while (i < 16 && address[i].toInt() == 0 && address[i + 1].toInt() == 0) {
        i += 2
      }
      val currentRunLength = i - currentRunOffset
      if (currentRunLength > longestRunLength && currentRunLength >= 4) {
        longestRunOffset = currentRunOffset

In the DNS server(s) you would configure a record (an "`A record`") to point **your domain** to the public **IP address of your server**.

You would probably do this just once, the first time, when setting everything up.

/// tip

/// info

The important point is that your app will be able to produce each line in turn, while the client consumes the previous lines.

///

/// note | Technical Details

/** Benchmarks for the hashing of UTF-8 strings. */
@NullUnmarked
public class HashStringBenchmark {
  static class MaxCodePoint {
    final int value;

    /**
     * Convert the input string to a code point. Accepts regular decimal numerals, hex strings, and
     * some symbolic names meaningful to humans.
     */
    private static int decode(String userFriendly) {
      try {
        return Integer.decode(userFriendly);

/// tip | Astuce

Tout cela peut ne pas sembler très utile avec ces exemples simples.

Mais vous verrez à quel point c'est utile dans les chapitres sur la **sécurité**.

Et vous verrez aussi la quantité de code que cela vous fera économiser.

* et l’application n’a aucun mécanisme d’authentification, elle part du principe que toute requête provenant du même réseau est fiable.

## Exemple d’attaque { #example-attack }

Imaginez que vous mettiez au point un moyen d’exécuter un agent IA local.

Il expose une API à l’adresse

```
http://localhost:8000/v1/agents/multivac
```

Il y a aussi un frontend à l’adresse

```
http://localhost:8000
```

explicit New{{.P}}Point // calls get inlined, letting the allocations live on the stack. var table = {{.p}}Table{New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point(), New{{.P}}Point()} table[0].Set(q) for i := 1; i < 15; i += 2 { table[i].Double(table[i/2]) table[i+1].Add(table[i], q) } // Instead of doing...

```bash
mvn formatter:format    # Format code
mvn license:format      # Add license headers
```

## Directory Structure

```
src/main/java/org/codelibs/fess/
├── FessBoot.java              # Application entry point
├── Constants.java             # Central application constants
├── app/
│   ├── web/                   # Controllers (Actions)
│   │   ├── base/              # Base action classes (FessBaseAction, FessAdminAction)

```

## Canceling a decommission

Stop an on-going decommission in progress, mainly used in situations when the load may be too high and you may want to schedule the decommission at a later point in time.

`mc admin decommission cancel` without an argument, lists out any on-going decommission in progress.

```
λ mc admin decommission cancel alias/