*   any exception that we're seeing here is from a descendant, which naturally has a parent.
       *   I think.
       *
       * Still, if this can happen somehow (a weird filesystem implementation that lets callers
       * change its working directly concurrently with a call to deleteDirectoryContents?), it makes
       * more sense for us to fall back to a generic FileSystemException (by returning null here)

       *   any exception that we're seeing here is from a descendant, which naturally has a parent.
       *   I think.
       *
       * Still, if this can happen somehow (a weird filesystem implementation that lets callers
       * change its working directly concurrently with a call to deleteDirectoryContents?), it makes
       * more sense for us to fall back to a generic FileSystemException (by returning null here)

# bundled together into a single .so for deployment.
build:android --dynamic_mode=off
# TODO(belitskiy): Remove once on Clang 20.
build:android --define=xnn_enable_avxvnniint8=false

# Sets the default Apple platform to macOS.
build:macos --apple_platform_type=macos

# gRPC on MacOS requires this #define
build:macos --copt=-DGRPC_BAZEL_BUILD

# Avoid hitting command line argument limit

## ORMs（对象关系映射）

**FastAPI**可与任何数据库在任何样式的库中一起与 数据库进行通信。

一种常见的模式是使用“ORM”：对象关系映射。

ORM 具有在代码和数据库表（“*关系型”）中的**对象**之间转换（“*映射*”）的工具。

使用 ORM，您通常会在 SQL 数据库中创建一个代表映射的类，该类的每个属性代表一个列，具有名称和类型。

例如，一个类`Pet`可以表示一个 SQL 表`pets`。

该类的每个*实例对象都代表数据库中的一行数据。*

又例如，一个对象`orion_cat`（`Pet`的一个实例）可以有一个属性`orion_cat.type`, 对标数据库中的`type`列。并且该属性的值可以是其它，例如`"cat"`。

这些 ORM 还具有在表或实体之间建立关系的工具（比如创建多表关系）。

"wat", "mijn", "men", "dit", "zo", "door", "over", "ze", "zich", "bij", "ook", "tot", "je", "mij", "uit", "der", "daar", "haar", "naar", "heb", "hoe", "heeft", "hebben", "deze", "u", "want", "nog", "zal", "me", "zij", "nu", "ge", "geen", "omdat", "iets", "worden", "toch", "al", "waren", "veel", "meer", "doen", "toen", "moet", "ben", "zonder", "kan", "hun", "dus", "alles", "onder", "ja", "eens", "hier", "wie", "werd", "altijd", "doch", "wordt", "wezen", "kunnen", "ons", "zelf", "tegen", "na", "reeds",...

"wat", "mijn", "men", "dit", "zo", "door", "over", "ze", "zich", "bij", "ook", "tot", "je", "mij", "uit", "der", "daar", "haar", "naar", "heb", "hoe", "heeft", "hebben", "deze", "u", "want", "nog", "zal", "me", "zij", "nu", "ge", "geen", "omdat", "iets", "worden", "toch", "al", "waren", "veel", "meer", "doen", "toen", "moet", "ben", "zonder", "kan", "hun", "dus", "alles", "onder", "ja", "eens", "hier", "wie", "werd", "altijd", "doch", "wordt", "wezen", "kunnen", "ons", "zelf", "tegen", "na", "reeds",...

 * {@code CaffeinatedGuava} adapter class</a>, which lets you build a Guava {@code Cache} or a Guava
 * {@code LoadingCache} backed by a Guava {@code CacheLoader}.
 *
 * <p>Caffeine's API for asynchronous operations uses {@code CompletableFuture}: <a
 * href="https://www.javadoc.io/doc/com.github.ben-manes.caffeine/caffeine/latest/com.github.benmanes.caffeine/com/github/benmanes/caffeine/cache/AsyncLoadingCache.html#get(K)">{@code

		}
	case *dwarf.StructType:
		for _, f := range dt.Field {
			p.recordTypedefs1(f.Type, pos, visited)
		}
	}
}

// prepareNames finalizes the Kind field of not-type names and sets
// the mangled name of all names.
func (p *Package) prepareNames(f *File) {
	for _, n := range f.Name {
		if n.Kind == "not-type" {
			if n.Define == "" {
				n.Kind = "var"
			} else {
				n.Kind = "macro"

The extra functions here are stubs to satisfy the references in the C
code generated for gcc. The build process links this stub, along with
_cgo_export.c and *.cgo2.c, into a dynamic executable and then lets
cgo examine the executable. Cgo records the list of shared library
references and resolved names and writes them into a new file
_cgo_import.go, which looks like:

	//go:cgo_dynamic_linker "/lib64/ld-linux-x86-64.so.2"

valueFn; public final String key(); public final Object value(); private boolean isSet(); private String get(); public String toString(); public void PropImpl(String, scala.Function1); } scala/sys/PropImpl$$anonfun$get$1.class package scala.sys; public final synchronized class PropImpl$$anonfun$get$1 extends scala.runtime.AbstractFunction0 implements scala.Serializable { public void PropImpl$$anonfun$get$1(); } scala/sys/Prop.class package scala.sys; public abstract interface Prop { public abstract String...