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Java bindings for libayatana-appindicator in 100% pure Java
// Generated by jextract
package org.purejava.appindicator;
import java.lang.invoke.*;
import java.lang.foreign.*;
import java.nio.ByteOrder;
import java.util.*;
import java.util.function.*;
import java.util.stream.*;
import static java.lang.foreign.ValueLayout.*;
import static java.lang.foreign.MemoryLayout.PathElement.*;
/**
* {@snippet lang=c :
* struct _GInputStreamClass {
* GObjectClass parent_class;
* gssize (*read_fn)(GInputStream *, void *, gsize, GCancellable *, GError **);
* gssize (*skip)(GInputStream *, gsize, GCancellable *, GError **);
* gboolean (*close_fn)(GInputStream *, GCancellable *, GError **);
* void (*read_async)(GInputStream *, void *, gsize, int, GCancellable *, GAsyncReadyCallback, gpointer);
* gssize (*read_finish)(GInputStream *, GAsyncResult *, GError **);
* void (*skip_async)(GInputStream *, gsize, int, GCancellable *, GAsyncReadyCallback, gpointer);
* gssize (*skip_finish)(GInputStream *, GAsyncResult *, GError **);
* void (*close_async)(GInputStream *, int, GCancellable *, GAsyncReadyCallback, gpointer);
* gboolean (*close_finish)(GInputStream *, GAsyncResult *, GError **);
* void (*_g_reserved1)(void);
* void (*_g_reserved2)(void);
* void (*_g_reserved3)(void);
* void (*_g_reserved4)(void);
* void (*_g_reserved5)(void);
* }
* }
*/
public class _GInputStreamClass {
_GInputStreamClass() {
// Should not be called directly
}
private static final GroupLayout $LAYOUT = MemoryLayout.structLayout(
_GObjectClass.layout().withName("parent_class"),
app_indicator_h.C_POINTER.withName("read_fn"),
app_indicator_h.C_POINTER.withName("skip"),
app_indicator_h.C_POINTER.withName("close_fn"),
app_indicator_h.C_POINTER.withName("read_async"),
app_indicator_h.C_POINTER.withName("read_finish"),
app_indicator_h.C_POINTER.withName("skip_async"),
app_indicator_h.C_POINTER.withName("skip_finish"),
app_indicator_h.C_POINTER.withName("close_async"),
app_indicator_h.C_POINTER.withName("close_finish"),
app_indicator_h.C_POINTER.withName("_g_reserved1"),
app_indicator_h.C_POINTER.withName("_g_reserved2"),
app_indicator_h.C_POINTER.withName("_g_reserved3"),
app_indicator_h.C_POINTER.withName("_g_reserved4"),
app_indicator_h.C_POINTER.withName("_g_reserved5")
).withName("_GInputStreamClass");
/**
* The layout of this struct
*/
public static final GroupLayout layout() {
return $LAYOUT;
}
private static final GroupLayout parent_class$LAYOUT = (GroupLayout)$LAYOUT.select(groupElement("parent_class"));
/**
* Layout for field:
* {@snippet lang=c :
* GObjectClass parent_class
* }
*/
public static final GroupLayout parent_class$layout() {
return parent_class$LAYOUT;
}
private static final long parent_class$OFFSET = 0;
/**
* Offset for field:
* {@snippet lang=c :
* GObjectClass parent_class
* }
*/
public static final long parent_class$offset() {
return parent_class$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* GObjectClass parent_class
* }
*/
public static MemorySegment parent_class(MemorySegment struct) {
return struct.asSlice(parent_class$OFFSET, parent_class$LAYOUT.byteSize());
}
/**
* Setter for field:
* {@snippet lang=c :
* GObjectClass parent_class
* }
*/
public static void parent_class(MemorySegment struct, MemorySegment fieldValue) {
MemorySegment.copy(fieldValue, 0L, struct, parent_class$OFFSET, parent_class$LAYOUT.byteSize());
}
/**
* {@snippet lang=c :
* gssize (*read_fn)(GInputStream *, void *, gsize, GCancellable *, GError **)
* }
*/
public class read_fn {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
long apply(MemorySegment _x0, MemorySegment _x1, long _x2, MemorySegment _x3, MemorySegment _x4);
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.of(
app_indicator_h.C_LONG,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER,
app_indicator_h.C_LONG,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER
);
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(read_fn.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(read_fn.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static long invoke(MemorySegment funcPtr,MemorySegment _x0, MemorySegment _x1, long _x2, MemorySegment _x3, MemorySegment _x4) {
try {
return (long) DOWN$MH.invokeExact(funcPtr, _x0, _x1, _x2, _x3, _x4);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout read_fn$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("read_fn"));
/**
* Layout for field:
* {@snippet lang=c :
* gssize (*read_fn)(GInputStream *, void *, gsize, GCancellable *, GError **)
* }
*/
public static final AddressLayout read_fn$layout() {
return read_fn$LAYOUT;
}
private static final long read_fn$OFFSET = 136;
/**
* Offset for field:
* {@snippet lang=c :
* gssize (*read_fn)(GInputStream *, void *, gsize, GCancellable *, GError **)
* }
*/
public static final long read_fn$offset() {
return read_fn$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* gssize (*read_fn)(GInputStream *, void *, gsize, GCancellable *, GError **)
* }
*/
public static MemorySegment read_fn(MemorySegment struct) {
return struct.get(read_fn$LAYOUT, read_fn$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* gssize (*read_fn)(GInputStream *, void *, gsize, GCancellable *, GError **)
* }
*/
public static void read_fn(MemorySegment struct, MemorySegment fieldValue) {
struct.set(read_fn$LAYOUT, read_fn$OFFSET, fieldValue);
}
/**
* {@snippet lang=c :
* gssize (*skip)(GInputStream *, gsize, GCancellable *, GError **)
* }
*/
public class skip {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
long apply(MemorySegment _x0, long _x1, MemorySegment _x2, MemorySegment _x3);
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.of(
app_indicator_h.C_LONG,
app_indicator_h.C_POINTER,
app_indicator_h.C_LONG,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER
);
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(skip.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(skip.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static long invoke(MemorySegment funcPtr,MemorySegment _x0, long _x1, MemorySegment _x2, MemorySegment _x3) {
try {
return (long) DOWN$MH.invokeExact(funcPtr, _x0, _x1, _x2, _x3);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout skip$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("skip"));
/**
* Layout for field:
* {@snippet lang=c :
* gssize (*skip)(GInputStream *, gsize, GCancellable *, GError **)
* }
*/
public static final AddressLayout skip$layout() {
return skip$LAYOUT;
}
private static final long skip$OFFSET = 144;
/**
* Offset for field:
* {@snippet lang=c :
* gssize (*skip)(GInputStream *, gsize, GCancellable *, GError **)
* }
*/
public static final long skip$offset() {
return skip$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* gssize (*skip)(GInputStream *, gsize, GCancellable *, GError **)
* }
*/
public static MemorySegment skip(MemorySegment struct) {
return struct.get(skip$LAYOUT, skip$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* gssize (*skip)(GInputStream *, gsize, GCancellable *, GError **)
* }
*/
public static void skip(MemorySegment struct, MemorySegment fieldValue) {
struct.set(skip$LAYOUT, skip$OFFSET, fieldValue);
}
/**
* {@snippet lang=c :
* gboolean (*close_fn)(GInputStream *, GCancellable *, GError **)
* }
*/
public class close_fn {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
int apply(MemorySegment _x0, MemorySegment _x1, MemorySegment _x2);
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.of(
app_indicator_h.C_INT,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER
);
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(close_fn.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(close_fn.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static int invoke(MemorySegment funcPtr,MemorySegment _x0, MemorySegment _x1, MemorySegment _x2) {
try {
return (int) DOWN$MH.invokeExact(funcPtr, _x0, _x1, _x2);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout close_fn$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("close_fn"));
/**
* Layout for field:
* {@snippet lang=c :
* gboolean (*close_fn)(GInputStream *, GCancellable *, GError **)
* }
*/
public static final AddressLayout close_fn$layout() {
return close_fn$LAYOUT;
}
private static final long close_fn$OFFSET = 152;
/**
* Offset for field:
* {@snippet lang=c :
* gboolean (*close_fn)(GInputStream *, GCancellable *, GError **)
* }
*/
public static final long close_fn$offset() {
return close_fn$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* gboolean (*close_fn)(GInputStream *, GCancellable *, GError **)
* }
*/
public static MemorySegment close_fn(MemorySegment struct) {
return struct.get(close_fn$LAYOUT, close_fn$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* gboolean (*close_fn)(GInputStream *, GCancellable *, GError **)
* }
*/
public static void close_fn(MemorySegment struct, MemorySegment fieldValue) {
struct.set(close_fn$LAYOUT, close_fn$OFFSET, fieldValue);
}
/**
* {@snippet lang=c :
* void (*read_async)(GInputStream *, void *, gsize, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public class read_async {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
void apply(MemorySegment _x0, MemorySegment _x1, long _x2, int _x3, MemorySegment _x4, MemorySegment _x5, MemorySegment _x6);
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.ofVoid(
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER,
app_indicator_h.C_LONG,
app_indicator_h.C_INT,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER
);
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(read_async.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(read_async.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static void invoke(MemorySegment funcPtr,MemorySegment _x0, MemorySegment _x1, long _x2, int _x3, MemorySegment _x4, MemorySegment _x5, MemorySegment _x6) {
try {
DOWN$MH.invokeExact(funcPtr, _x0, _x1, _x2, _x3, _x4, _x5, _x6);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout read_async$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("read_async"));
/**
* Layout for field:
* {@snippet lang=c :
* void (*read_async)(GInputStream *, void *, gsize, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public static final AddressLayout read_async$layout() {
return read_async$LAYOUT;
}
private static final long read_async$OFFSET = 160;
/**
* Offset for field:
* {@snippet lang=c :
* void (*read_async)(GInputStream *, void *, gsize, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public static final long read_async$offset() {
return read_async$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* void (*read_async)(GInputStream *, void *, gsize, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public static MemorySegment read_async(MemorySegment struct) {
return struct.get(read_async$LAYOUT, read_async$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* void (*read_async)(GInputStream *, void *, gsize, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public static void read_async(MemorySegment struct, MemorySegment fieldValue) {
struct.set(read_async$LAYOUT, read_async$OFFSET, fieldValue);
}
/**
* {@snippet lang=c :
* gssize (*read_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public class read_finish {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
long apply(MemorySegment _x0, MemorySegment _x1, MemorySegment _x2);
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.of(
app_indicator_h.C_LONG,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER
);
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(read_finish.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(read_finish.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static long invoke(MemorySegment funcPtr,MemorySegment _x0, MemorySegment _x1, MemorySegment _x2) {
try {
return (long) DOWN$MH.invokeExact(funcPtr, _x0, _x1, _x2);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout read_finish$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("read_finish"));
/**
* Layout for field:
* {@snippet lang=c :
* gssize (*read_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public static final AddressLayout read_finish$layout() {
return read_finish$LAYOUT;
}
private static final long read_finish$OFFSET = 168;
/**
* Offset for field:
* {@snippet lang=c :
* gssize (*read_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public static final long read_finish$offset() {
return read_finish$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* gssize (*read_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public static MemorySegment read_finish(MemorySegment struct) {
return struct.get(read_finish$LAYOUT, read_finish$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* gssize (*read_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public static void read_finish(MemorySegment struct, MemorySegment fieldValue) {
struct.set(read_finish$LAYOUT, read_finish$OFFSET, fieldValue);
}
/**
* {@snippet lang=c :
* void (*skip_async)(GInputStream *, gsize, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public class skip_async {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
void apply(MemorySegment _x0, long _x1, int _x2, MemorySegment _x3, MemorySegment _x4, MemorySegment _x5);
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.ofVoid(
app_indicator_h.C_POINTER,
app_indicator_h.C_LONG,
app_indicator_h.C_INT,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER
);
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(skip_async.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(skip_async.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static void invoke(MemorySegment funcPtr,MemorySegment _x0, long _x1, int _x2, MemorySegment _x3, MemorySegment _x4, MemorySegment _x5) {
try {
DOWN$MH.invokeExact(funcPtr, _x0, _x1, _x2, _x3, _x4, _x5);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout skip_async$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("skip_async"));
/**
* Layout for field:
* {@snippet lang=c :
* void (*skip_async)(GInputStream *, gsize, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public static final AddressLayout skip_async$layout() {
return skip_async$LAYOUT;
}
private static final long skip_async$OFFSET = 176;
/**
* Offset for field:
* {@snippet lang=c :
* void (*skip_async)(GInputStream *, gsize, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public static final long skip_async$offset() {
return skip_async$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* void (*skip_async)(GInputStream *, gsize, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public static MemorySegment skip_async(MemorySegment struct) {
return struct.get(skip_async$LAYOUT, skip_async$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* void (*skip_async)(GInputStream *, gsize, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public static void skip_async(MemorySegment struct, MemorySegment fieldValue) {
struct.set(skip_async$LAYOUT, skip_async$OFFSET, fieldValue);
}
/**
* {@snippet lang=c :
* gssize (*skip_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public class skip_finish {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
long apply(MemorySegment _x0, MemorySegment _x1, MemorySegment _x2);
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.of(
app_indicator_h.C_LONG,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER
);
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(skip_finish.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(skip_finish.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static long invoke(MemorySegment funcPtr,MemorySegment _x0, MemorySegment _x1, MemorySegment _x2) {
try {
return (long) DOWN$MH.invokeExact(funcPtr, _x0, _x1, _x2);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout skip_finish$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("skip_finish"));
/**
* Layout for field:
* {@snippet lang=c :
* gssize (*skip_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public static final AddressLayout skip_finish$layout() {
return skip_finish$LAYOUT;
}
private static final long skip_finish$OFFSET = 184;
/**
* Offset for field:
* {@snippet lang=c :
* gssize (*skip_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public static final long skip_finish$offset() {
return skip_finish$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* gssize (*skip_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public static MemorySegment skip_finish(MemorySegment struct) {
return struct.get(skip_finish$LAYOUT, skip_finish$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* gssize (*skip_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public static void skip_finish(MemorySegment struct, MemorySegment fieldValue) {
struct.set(skip_finish$LAYOUT, skip_finish$OFFSET, fieldValue);
}
/**
* {@snippet lang=c :
* void (*close_async)(GInputStream *, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public class close_async {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
void apply(MemorySegment _x0, int _x1, MemorySegment _x2, MemorySegment _x3, MemorySegment _x4);
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.ofVoid(
app_indicator_h.C_POINTER,
app_indicator_h.C_INT,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER
);
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(close_async.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(close_async.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static void invoke(MemorySegment funcPtr,MemorySegment _x0, int _x1, MemorySegment _x2, MemorySegment _x3, MemorySegment _x4) {
try {
DOWN$MH.invokeExact(funcPtr, _x0, _x1, _x2, _x3, _x4);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout close_async$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("close_async"));
/**
* Layout for field:
* {@snippet lang=c :
* void (*close_async)(GInputStream *, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public static final AddressLayout close_async$layout() {
return close_async$LAYOUT;
}
private static final long close_async$OFFSET = 192;
/**
* Offset for field:
* {@snippet lang=c :
* void (*close_async)(GInputStream *, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public static final long close_async$offset() {
return close_async$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* void (*close_async)(GInputStream *, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public static MemorySegment close_async(MemorySegment struct) {
return struct.get(close_async$LAYOUT, close_async$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* void (*close_async)(GInputStream *, int, GCancellable *, GAsyncReadyCallback, gpointer)
* }
*/
public static void close_async(MemorySegment struct, MemorySegment fieldValue) {
struct.set(close_async$LAYOUT, close_async$OFFSET, fieldValue);
}
/**
* {@snippet lang=c :
* gboolean (*close_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public class close_finish {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
int apply(MemorySegment _x0, MemorySegment _x1, MemorySegment _x2);
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.of(
app_indicator_h.C_INT,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER,
app_indicator_h.C_POINTER
);
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(close_finish.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(close_finish.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static int invoke(MemorySegment funcPtr,MemorySegment _x0, MemorySegment _x1, MemorySegment _x2) {
try {
return (int) DOWN$MH.invokeExact(funcPtr, _x0, _x1, _x2);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout close_finish$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("close_finish"));
/**
* Layout for field:
* {@snippet lang=c :
* gboolean (*close_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public static final AddressLayout close_finish$layout() {
return close_finish$LAYOUT;
}
private static final long close_finish$OFFSET = 200;
/**
* Offset for field:
* {@snippet lang=c :
* gboolean (*close_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public static final long close_finish$offset() {
return close_finish$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* gboolean (*close_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public static MemorySegment close_finish(MemorySegment struct) {
return struct.get(close_finish$LAYOUT, close_finish$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* gboolean (*close_finish)(GInputStream *, GAsyncResult *, GError **)
* }
*/
public static void close_finish(MemorySegment struct, MemorySegment fieldValue) {
struct.set(close_finish$LAYOUT, close_finish$OFFSET, fieldValue);
}
/**
* {@snippet lang=c :
* void (*_g_reserved1)(void)
* }
*/
public class _g_reserved1 {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
void apply();
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.ofVoid();
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(_g_reserved1.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(_g_reserved1.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static void invoke(MemorySegment funcPtr) {
try {
DOWN$MH.invokeExact(funcPtr);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout _g_reserved1$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("_g_reserved1"));
/**
* Layout for field:
* {@snippet lang=c :
* void (*_g_reserved1)(void)
* }
*/
public static final AddressLayout _g_reserved1$layout() {
return _g_reserved1$LAYOUT;
}
private static final long _g_reserved1$OFFSET = 208;
/**
* Offset for field:
* {@snippet lang=c :
* void (*_g_reserved1)(void)
* }
*/
public static final long _g_reserved1$offset() {
return _g_reserved1$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* void (*_g_reserved1)(void)
* }
*/
public static MemorySegment _g_reserved1(MemorySegment struct) {
return struct.get(_g_reserved1$LAYOUT, _g_reserved1$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* void (*_g_reserved1)(void)
* }
*/
public static void _g_reserved1(MemorySegment struct, MemorySegment fieldValue) {
struct.set(_g_reserved1$LAYOUT, _g_reserved1$OFFSET, fieldValue);
}
/**
* {@snippet lang=c :
* void (*_g_reserved2)(void)
* }
*/
public class _g_reserved2 {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
void apply();
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.ofVoid();
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(_g_reserved2.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(_g_reserved2.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static void invoke(MemorySegment funcPtr) {
try {
DOWN$MH.invokeExact(funcPtr);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout _g_reserved2$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("_g_reserved2"));
/**
* Layout for field:
* {@snippet lang=c :
* void (*_g_reserved2)(void)
* }
*/
public static final AddressLayout _g_reserved2$layout() {
return _g_reserved2$LAYOUT;
}
private static final long _g_reserved2$OFFSET = 216;
/**
* Offset for field:
* {@snippet lang=c :
* void (*_g_reserved2)(void)
* }
*/
public static final long _g_reserved2$offset() {
return _g_reserved2$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* void (*_g_reserved2)(void)
* }
*/
public static MemorySegment _g_reserved2(MemorySegment struct) {
return struct.get(_g_reserved2$LAYOUT, _g_reserved2$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* void (*_g_reserved2)(void)
* }
*/
public static void _g_reserved2(MemorySegment struct, MemorySegment fieldValue) {
struct.set(_g_reserved2$LAYOUT, _g_reserved2$OFFSET, fieldValue);
}
/**
* {@snippet lang=c :
* void (*_g_reserved3)(void)
* }
*/
public class _g_reserved3 {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
void apply();
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.ofVoid();
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(_g_reserved3.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(_g_reserved3.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static void invoke(MemorySegment funcPtr) {
try {
DOWN$MH.invokeExact(funcPtr);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout _g_reserved3$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("_g_reserved3"));
/**
* Layout for field:
* {@snippet lang=c :
* void (*_g_reserved3)(void)
* }
*/
public static final AddressLayout _g_reserved3$layout() {
return _g_reserved3$LAYOUT;
}
private static final long _g_reserved3$OFFSET = 224;
/**
* Offset for field:
* {@snippet lang=c :
* void (*_g_reserved3)(void)
* }
*/
public static final long _g_reserved3$offset() {
return _g_reserved3$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* void (*_g_reserved3)(void)
* }
*/
public static MemorySegment _g_reserved3(MemorySegment struct) {
return struct.get(_g_reserved3$LAYOUT, _g_reserved3$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* void (*_g_reserved3)(void)
* }
*/
public static void _g_reserved3(MemorySegment struct, MemorySegment fieldValue) {
struct.set(_g_reserved3$LAYOUT, _g_reserved3$OFFSET, fieldValue);
}
/**
* {@snippet lang=c :
* void (*_g_reserved4)(void)
* }
*/
public class _g_reserved4 {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
void apply();
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.ofVoid();
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(_g_reserved4.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(_g_reserved4.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static void invoke(MemorySegment funcPtr) {
try {
DOWN$MH.invokeExact(funcPtr);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout _g_reserved4$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("_g_reserved4"));
/**
* Layout for field:
* {@snippet lang=c :
* void (*_g_reserved4)(void)
* }
*/
public static final AddressLayout _g_reserved4$layout() {
return _g_reserved4$LAYOUT;
}
private static final long _g_reserved4$OFFSET = 232;
/**
* Offset for field:
* {@snippet lang=c :
* void (*_g_reserved4)(void)
* }
*/
public static final long _g_reserved4$offset() {
return _g_reserved4$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* void (*_g_reserved4)(void)
* }
*/
public static MemorySegment _g_reserved4(MemorySegment struct) {
return struct.get(_g_reserved4$LAYOUT, _g_reserved4$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* void (*_g_reserved4)(void)
* }
*/
public static void _g_reserved4(MemorySegment struct, MemorySegment fieldValue) {
struct.set(_g_reserved4$LAYOUT, _g_reserved4$OFFSET, fieldValue);
}
/**
* {@snippet lang=c :
* void (*_g_reserved5)(void)
* }
*/
public class _g_reserved5 {
/**
* The function pointer signature, expressed as a functional interface
*/
public interface Function {
void apply();
}
private static final FunctionDescriptor $DESC = FunctionDescriptor.ofVoid();
/**
* The descriptor of this function pointer
*/
public static FunctionDescriptor descriptor() {
return $DESC;
}
private static final MethodHandle UP$MH = app_indicator_h.upcallHandle(_g_reserved5.Function.class, "apply", $DESC);
/**
* Allocates a new upcall stub, whose implementation is defined by {@code fi}.
* The lifetime of the returned segment is managed by {@code arena}
*/
public static MemorySegment allocate(_g_reserved5.Function fi, Arena arena) {
return Linker.nativeLinker().upcallStub(UP$MH.bindTo(fi), $DESC, arena);
}
private static final MethodHandle DOWN$MH = Linker.nativeLinker().downcallHandle($DESC);
/**
* Invoke the upcall stub {@code funcPtr}, with given parameters
*/
public static void invoke(MemorySegment funcPtr) {
try {
DOWN$MH.invokeExact(funcPtr);
} catch (Throwable ex$) {
throw new AssertionError("should not reach here", ex$);
}
}
}
private static final AddressLayout _g_reserved5$LAYOUT = (AddressLayout)$LAYOUT.select(groupElement("_g_reserved5"));
/**
* Layout for field:
* {@snippet lang=c :
* void (*_g_reserved5)(void)
* }
*/
public static final AddressLayout _g_reserved5$layout() {
return _g_reserved5$LAYOUT;
}
private static final long _g_reserved5$OFFSET = 240;
/**
* Offset for field:
* {@snippet lang=c :
* void (*_g_reserved5)(void)
* }
*/
public static final long _g_reserved5$offset() {
return _g_reserved5$OFFSET;
}
/**
* Getter for field:
* {@snippet lang=c :
* void (*_g_reserved5)(void)
* }
*/
public static MemorySegment _g_reserved5(MemorySegment struct) {
return struct.get(_g_reserved5$LAYOUT, _g_reserved5$OFFSET);
}
/**
* Setter for field:
* {@snippet lang=c :
* void (*_g_reserved5)(void)
* }
*/
public static void _g_reserved5(MemorySegment struct, MemorySegment fieldValue) {
struct.set(_g_reserved5$LAYOUT, _g_reserved5$OFFSET, fieldValue);
}
/**
* Obtains a slice of {@code arrayParam} which selects the array element at {@code index}.
* The returned segment has address {@code arrayParam.address() + index * layout().byteSize()}
*/
public static MemorySegment asSlice(MemorySegment array, long index) {
return array.asSlice(layout().byteSize() * index);
}
/**
* The size (in bytes) of this struct
*/
public static long sizeof() { return layout().byteSize(); }
/**
* Allocate a segment of size {@code layout().byteSize()} using {@code allocator}
*/
public static MemorySegment allocate(SegmentAllocator allocator) {
return allocator.allocate(layout());
}
/**
* Allocate an array of size {@code elementCount} using {@code allocator}.
* The returned segment has size {@code elementCount * layout().byteSize()}.
*/
public static MemorySegment allocateArray(long elementCount, SegmentAllocator allocator) {
return allocator.allocate(MemoryLayout.sequenceLayout(elementCount, layout()));
}
/**
* Reinterprets {@code addr} using target {@code arena} and {@code cleanupAction) (if any).
* The returned segment has size {@code layout().byteSize()}
*/
public static MemorySegment reinterpret(MemorySegment addr, Arena arena, Consumer cleanup) {
return reinterpret(addr, 1, arena, cleanup);
}
/**
* Reinterprets {@code addr} using target {@code arena} and {@code cleanupAction) (if any).
* The returned segment has size {@code elementCount * layout().byteSize()}
*/
public static MemorySegment reinterpret(MemorySegment addr, long elementCount, Arena arena, Consumer cleanup) {
return addr.reinterpret(layout().byteSize() * elementCount, arena, cleanup);
}
}