package issue26213

/*
#include "jni.h"
*/
import "C"
import (
	"testing"
)

func Test26213(t *testing.T) {
	var x1 C.jobject = 0 // Note: 0, not nil. That makes sure we use uintptr for these types.
	_ = x1
	var x2 C.jclass = 0
	_ = x2
	var x3 C.jthrowable = 0
	_ = x3
	var x4 C.jstring = 0
	_ = x4
	var x5 C.jarray = 0
	_ = x5
	var x6 C.jbooleanArray = 0
	_ = x6

// slice after free may result in a fault, but this fault is also not guaranteed.
func MakeSlice[T any](a *Arena, len, cap int) []T {
	var sl []T
	runtime_arena_arena_Slice(a.a, &sl, cap)
	return sl[:len]
}

// Clone makes a shallow copy of the input value that is no longer bound to any
// arena it may have been allocated from, returning the copy. If it was not
// allocated from an arena, it is returned untouched. This function is useful

well as the system-specific header locations and system-specific
pre-#defined macros. This is certainly possible to do, but it is an
enormous amount of work.

Cgo takes a different approach. It determines the meaning of C
identifiers not by parsing C code but by feeding carefully constructed
programs into the system C compiler and interpreting the generated

					add: (a, b) => a + b,
				},
				gojs: {
					// Go's SP does not change as long as no Go code is running. Some operations (e.g. calls, getters and setters)
					// may synchronously trigger a Go event handler. This makes Go code get executed in the middle of the imported
					// function. A goroutine can switch to a new stack if the current stack is too small (see morestack function).

	for i := 0; i < len(bufsizes); i++ {
		for j := 0; j < len(bufsizes); j++ {
			nwrite := bufsizes[i]
			bs := bufsizes[j]

			// Write nwrite bytes using buffer size bs.
			// Check that the right amount makes it out
			// and that the data is correct.

			w.Reset()
			buf := NewWriterSize(w, bs)
			context := fmt.Sprintf("nwrite=%d bufsize=%d", nwrite, bs)
			n, e1 := buf.Write(data[0:nwrite])

</p>

<p>
A new, initialized slice value for a given element type <code>T</code> is
made using the built-in function
<a href="#Making_slices_maps_and_channels"><code>make</code></a>,
which takes a slice type
and parameters specifying the length and optionally the capacity.
A slice created with <code>make</code> always allocates a new, hidden array
to which the returned slice value refers. That is, executing
</p>

pkg syscall (darwin-386), const SYS_FGETATTRLIST = 228
pkg syscall (darwin-386), const SYS_FGETXATTR = 235
pkg syscall (darwin-386), const SYS_FHOPEN = 248
pkg syscall (darwin-386), const SYS_FILEPORT_MAKEFD = 431
pkg syscall (darwin-386), const SYS_FILEPORT_MAKEPORT = 430
pkg syscall (darwin-386), const SYS_FLISTXATTR = 241
pkg syscall (darwin-386), const SYS_FLOCK = 131
pkg syscall (darwin-386), const SYS_FORK = 2

// license that can be found in the LICENSE file.

package issue27054

/*
#include "egl.h"
*/
import "C"
import (
	"testing"
)

func Test27054(t *testing.T) {
	var (
		// Note: 0, not nil. That makes sure we use uintptr for these types.
		_ C.EGLDisplay = 0
		_ C.EGLConfig  = 0
	)

	"sync"
	"syscall"
)

func init() {
	sysStat = statUnix
}

// userMap and groupMap caches UID and GID lookups for performance reasons.
// The downside is that renaming uname or gname by the OS never takes effect.
var userMap, groupMap sync.Map // map[int]string

func statUnix(fi fs.FileInfo, h *Header, doNameLookups bool) error {
	sys, ok := fi.Sys().(*syscall.Stat_t)
	if !ok {
		return nil
	}
	h.Uid = int(sys.Uid)

pkg syscall (linux-arm-cgo), type TCPInfo struct, Backoff uint8
pkg syscall (linux-arm-cgo), type TCPInfo struct, Ca_state uint8
pkg syscall (linux-arm-cgo), type TCPInfo struct, Fackets uint32
pkg syscall (linux-arm-cgo), type TCPInfo struct, Last_ack_recv uint32
pkg syscall (linux-arm-cgo), type TCPInfo struct, Last_ack_sent uint32
pkg syscall (linux-arm-cgo), type TCPInfo struct, Last_data_recv uint32