* `dict`

#### List { #list }

For example, let's define a variable to be a `list` of `str`.

Declare the variable, with the same colon (`:`) syntax.

As the type, put `list`.

As the list is a type that contains some internal types, you put them in square brackets:

{* ../../docs_src/python_types/tutorial006_py310.py hl[1] *}

/// info

Those internal types in the square brackets are called "type parameters".

    return (entry == ABSENT) ? null : keys[entry];
  }

  @CanIgnoreReturnValue
  @Override
  public @Nullable V put(@ParametricNullness K key, @ParametricNullness V value) {
    return put(key, value, false);
  }

  private @Nullable V put(@ParametricNullness K key, @ParametricNullness V value, boolean force) {
    int keyHash = smearedHash(key);
    int entryForKey = findEntryByKey(key, keyHash);

  /** Guard for waiting takes */
  private final Monitor.Guard notEmpty;

  /** Guard for waiting puts */
  private final Monitor.Guard notFull;

  // Internal helper methods

  /** Circularly increment i. */
  final int inc(int i) {
    return (++i == items.length) ? 0 : i;
  }

  /**
   * Inserts element at current put position, advances, and signals. Call only when occupying
   * monitor.
   */

  /** Guard for waiting takes */
  private final Monitor.Guard notEmpty;

  /** Guard for waiting puts */
  private final Monitor.Guard notFull;

  // Internal helper methods

  /** Circularly increment i. */
  final int inc(int i) {
    return (++i == items.length) ? 0 : i;
  }

  /**
   * Inserts element at current put position, advances, and signals. Call only when occupying
   * monitor.
   */

   *     been added to the filter. Note that {@code put(t)} always returns the <i>opposite</i>
   *     result to what {@code mightContain(t)} would have returned at the time it is called.
   * @since 12.0 (present in 11.0 with {@code void} return type})
   */
  @CanIgnoreReturnValue
  public boolean put(@ParametricNullness T object) {
    return strategy.put(object, funnel, numHashFunctions, bits);
  }

  /**

/// check | **FastAPI** uses it to

Handle all the data validation, data serialization and automatic model documentation (based on JSON Schema).

**FastAPI** then takes that JSON Schema data and puts it in OpenAPI, apart from all the other things it does.

///

### [Starlette](https://www.starlette.dev/) { #starlette }

      }

      @Override
      public boolean tryAdvance(Consumer<? super R> action) {
        if (fromSpliterator.tryAdvance(this)) {
          try {
            // The cast is safe because tryAdvance puts a T into `holder`.
            action.accept(function.apply(uncheckedCastNullableTToT(holder), index++));
            return true;
          } finally {
            holder = null;
          }
        }

      }

      @Override
      public boolean tryAdvance(Consumer<? super R> action) {
        if (fromSpliterator.tryAdvance(this)) {
          try {
            // The cast is safe because tryAdvance puts a T into `holder`.
            action.accept(function.apply(uncheckedCastNullableTToT(holder), index++));
            return true;
          } finally {
            holder = null;
          }
        }

            putResultDataWithTemplate(dataMap, key, value, scriptConfigMap.get(key), scriptType);
        });

        return processFieldConfigs(dataMap, fieldConfigs);
    }

    /**
     * Puts content data into the result data map.
     *
     * @param dataMap the data map to populate
     * @param responseData the response data from crawling
     * @param fessConfig the Fess configuration

    assertThat(recordedRequest.body?.utf8()).isEqualTo("def")
  }

  @Test
  fun put() {
    server.enqueue(MockResponse(body = "abc"))
    val request =
      Request
        .Builder()
        .url(server.url("/"))
        .put("def".toRequestBody("text/plain".toMediaType()))
        .build()
    executeSynchronously(request)
      .assertCode(200)