/// <summary>
/// Converts Timespec to DateTime.
/// Timespec needs to be of type GPRClockType.Realtime and needs to represent a legal value.
/// DateTime has lower resolution (100ns), so rounding can occurs.
/// Value are always rounded up to the nearest DateTime value in the future.
///
/// For Timespec.InfFuture or if timespec is after the largest representable DateTime, DateTime.MaxValue is returned.
/// For Timespec.InfPast or if timespec is before the lowest representable DateTime, DateTime.MinValue is returned.
///
/// Unless DateTime.MaxValue or DateTime.MinValue is returned, the resulting DateTime is always in UTC
/// (DateTimeKind.Utc)
/// </summary>
public DateTime ToDateTime()
{
Preconditions.CheckState(tv_nsec >= 0 && tv_nsec < NanosPerSecond);
Preconditions.CheckState(clock_type == GPRClockType.Realtime);
// fast path for InfFuture
if (this.Equals(InfFuture))
{
return(DateTime.MaxValue);
}
// fast path for InfPast
if (this.Equals(InfPast))
{
return(DateTime.MinValue);
}
try
{
// convert nanos to ticks, round up to the nearest tick
long ticksFromNanos = tv_nsec / NanosPerTick + ((tv_nsec % NanosPerTick != 0) ? 1 : 0);
long ticksTotal = checked (tv_sec.ToInt64() * TicksPerSecond + ticksFromNanos);
return(UnixEpoch.AddTicks(ticksTotal));
}
catch (OverflowException)
{
// ticks out of long range
return(tv_sec.ToInt64() > 0 ? DateTime.MaxValue : DateTime.MinValue);
}
catch (ArgumentOutOfRangeException)
{
// resulting date time would be larger than MaxValue
return(tv_sec.ToInt64() > 0 ? DateTime.MaxValue : DateTime.MinValue);
}
}
private byte* Align(IntPtr buf, uint alignTo)
{
//This makes an aligned buffer linux needs this.
//The buffer must originally be at least one alignment bigger!
var diff = alignTo - (buf.ToInt64() % alignTo);
var aligned = (IntPtr)(buf.ToInt64() + diff);
return (byte*)aligned;
}
} // End Function LoadSharedObject
// wkHtmlToPdfSharp.NotwkHtmlToPdfSharp.OS.SharedLibrary.Unload(library);
public static bool Unload(System.IntPtr hSO)
{
bool bError = true;
if (hSO == IntPtr.Zero)
{
throw new ArgumentNullException("hSO");
} // End if (hSO == IntPtr.Zero)
try
{
if (Environment.OSVersion.Platform == PlatformID.Unix)
{
// If the referenced object was successfully closed, dlclose() shall return 0.
// If the object could not be closed, or if handle does not refer to an open object,
// dlclose() shall return a non-zero value.
// More detailed diagnostic information shall be available through dlerror().
// http://stackoverflow.com/questions/956640/linux-c-error-undefined-reference-to-dlopen
if (dlclose(hSO) == 0)
{
bError = false;
}
if (bError)
{
throw new ApplicationException("Error unloading handle " + hSO.ToInt64().ToString() + Environment.NewLine + "System error message: " + dlerror());
}
}
else
{
// FreeLibrary: If the function succeeds, the return value is nonzero.
// If the function fails, the return value is zero.
// To get extended error information, call the GetLastError function.
bError = !FreeLibrary(hSO);
if (bError)
{
throw new System.ComponentModel.Win32Exception(System.Runtime.InteropServices.Marshal.GetLastWin32Error());
}
} // End if (Environment.OSVersion.Platform == PlatformID.Unix)
} // End Try
catch (Exception ex)
{
System.Diagnostics.Debug.WriteLine(ex.Message);
} // End Catch
if (bError)
{
throw new ApplicationException("Cannot unload handle " + hSO.ToInt64().ToString());
} // End if (hExe == IntPtr.Zero)
return(bError);
} // End Function Unload
static IntPtr GetReadSize(IntPtr pointer, IntPtr endPointer, int bufferSize)
{
if (endPointer.ToInt64() < IntPtr.Add(pointer, bufferSize).ToInt64())
{
return (IntPtr)(endPointer.ToInt64() - pointer.ToInt64());
}
else
{
return new IntPtr(bufferSize);
}
}
/// <summary>
/// Read a hardware independent dictionary of language and code page identifier tables.
/// </summary>
/// <param name="lpRes">Pointer to the beginning of data.</param>
/// <returns>Pointer to the end of data.</returns>
internal override IntPtr Read(IntPtr lpRes)
{
_vars.Clear();
IntPtr pChild = base.Read(lpRes);
while (pChild.ToInt64() < (lpRes.ToInt64() + _header.wLength))
{
VarTable res = new VarTable(pChild);
_vars.Add(res.Key, res);
pChild = ResourceUtil.Align(pChild.ToInt64() + res.Header.wLength);
}
return new IntPtr(lpRes.ToInt64() + _header.wLength);
}
/// <summary>
/// Read a table of language and code page identifier pairs.
/// </summary>
/// <param name="lpRes">Pointer to the beginning of the data.</param>
/// <returns></returns>
internal override IntPtr Read(IntPtr lpRes)
{
_languages.Clear();
IntPtr pVar = base.Read(lpRes);
while (pVar.ToInt64() < (lpRes.ToInt64() + _header.wLength))
{
Kernel32.VAR_HEADER var = (Kernel32.VAR_HEADER) Marshal.PtrToStructure(
pVar, typeof(Kernel32.VAR_HEADER));
_languages.Add(var.wLanguageIDMS, var.wCodePageIBM);
pVar = new IntPtr(pVar.ToInt64() + Marshal.SizeOf(var));
}
return new IntPtr(lpRes.ToInt64() + _header.wLength);
}
public static PyType? GetEveObjectType(IntPtr intptr, bool isDerived = false)
{
PyType? returnType;
if (!_pythontypesLoaded)
{
PopulatePythonTypes();
}
if (intptr == IntPtr.Zero)
{
return PyType.Invalid;
}
IntPtr key = Marshal.ReadIntPtr(((IntPtr)intptr.ToInt64() + 4)); // Points to the type
if (!_pythonTypes.TryGetValue(key, out returnType) && !isDerived)
{
returnType = GetEveObjectType(key, true);
_pythonTypes.Add(key, returnType);
return returnType;
}
if (isDerived)
{
string str = returnType.ToString();
returnType = (PyType)Enum.Parse(typeof(PyType), "Derived" + str);
}
return returnType;
}
static void Initialize (IntPtr ptr, IntPtr data)
{
IntPtr ifaceptr = new IntPtr (ptr.ToInt64 () + class_offset);
AtkHyperlinkImplIface native_iface = (AtkHyperlinkImplIface) Marshal.PtrToStructure (ifaceptr, typeof (AtkHyperlinkImplIface));
native_iface.GetHyperlink = iface.GetHyperlink;
Marshal.StructureToPtr (native_iface, ifaceptr, false);
}
internal IntPtr make_offset(IntPtr base_ptr, int offset)
{
if(IntPtr.Size == 8)
return new IntPtr( (long)offset + base_ptr.ToInt64() );
else
return new IntPtr( offset + base_ptr.ToInt32() );
}
/// <summary>
/// Assemble the specified assembly code at a base address.
/// </summary>
/// <param name="asm">The assembly code.</param>
/// <param name="baseAddress">The address where the code is rebased.</param>
/// <returns>An array of bytes containing the assembly code.</returns>
public byte[] Assemble(string asm, IntPtr baseAddress)
{
// Rebase the code
asm = String.Format("use32\norg 0x{0:X8}\n", baseAddress.ToInt64()) + asm;
// Assemble and return the code
return FasmNet.Assemble(asm);
}
/// <summary>
/// Constructor for WLAN_INTERFACE_INFO_LIST.
/// Constructor is needed because the InterfaceInfo member varies based on how many adapters are in the system.
/// </summary>
/// <param name="pointerToWlanInterfaceInfoList">the unmanaged pointer containing the list.</param>
public WLAN_INTERFACE_INFO_LIST(IntPtr pointerToWlanInterfaceInfoList)
{
// The first 4 bytes are the number of WLAN_INTERFACE_INFO structures.
this.dwNumberOfItems = Marshal.ReadInt32(pointerToWlanInterfaceInfoList, (0 * Marshal.SizeOf(typeof(int))));
// The next 4 bytes are the index of the current item in the unmanaged API.
this.dwIndex = Marshal.ReadInt32(pointerToWlanInterfaceInfoList, (1 * Marshal.SizeOf(typeof(int))));
// Construct the array of WLAN_INTERFACE_INFO structures.
this.InterfaceInfo = new WLAN_INTERFACE_INFO[this.dwNumberOfItems];
// start pointer
long start = pointerToWlanInterfaceInfoList.ToInt64() + (2 * Marshal.SizeOf(typeof(int))); // we skip 8 for the first and second int in the structure
// get the size of WLAN_INTERFACE_INFO
int sizeOfWlanInterfaceInfo = Marshal.SizeOf(typeof (WLAN_INTERFACE_INFO));
// we know there are dwNumberOfItems in the struct
// so we can take each of those memory pieces and marshal them to WLAN_INTERFACE_INFO
for (int i = 0; i <= this.dwNumberOfItems - 1; i++)
{
var pItemList = new IntPtr(start + (i * sizeOfWlanInterfaceInfo));
this.InterfaceInfo[i] = (WLAN_INTERFACE_INFO) Marshal.PtrToStructure(pItemList, typeof (WLAN_INTERFACE_INFO));
}
}
static void Initialize (IntPtr ptr, IntPtr data)
{
IntPtr ifaceptr = new IntPtr (ptr.ToInt64 () + class_offset);
GFileDescriptorBasedIface native_iface = (GFileDescriptorBasedIface) Marshal.PtrToStructure (ifaceptr, typeof (GFileDescriptorBasedIface));
native_iface.GetFd = iface.GetFd;
Marshal.StructureToPtr (native_iface, ifaceptr, false);
}
/// <summary>
/// Creates <see cref="KeyEventArgsExt"/> from Windows Message parameters, based upon
/// a local application hook.
/// </summary>
/// <param name="wParam">The first Windows Message parameter.</param>
/// <param name="lParam">The second Windows Message parameter.</param>
/// <returns>A new KeyEventArgsExt object.</returns>
private static KeyEventArgsExt FromRawDataApp(int wParam, IntPtr lParam)
{
//http://msdn.microsoft.com/en-us/library/ms644984(v=VS.85).aspx
const uint maskKeydown = 0x40000000; // for bit 30
const uint maskKeyup = 0x80000000; // for bit 31
int timestamp = Environment.TickCount;
uint flags = 0u;
#if IS_X64
// both of these are ugly hacks. Is there a better way to convert a 64bit IntPtr to uint?
// flags = uint.Parse(lParam.ToString());
flags = Convert.ToUInt32(lParam.ToInt64());
#else
flags = (uint)lParam;
#endif
//bit 30 Specifies the previous key state. The value is 1 if the key is down before the message is sent; it is 0 if the key is up.
bool wasKeyDown = (flags & maskKeydown) > 0;
//bit 31 Specifies the transition state. The value is 0 if the key is being pressed and 1 if it is being released.
bool isKeyReleased = (flags & maskKeyup) > 0;
Keys keyData = (Keys)wParam;
bool isKeyDown = !wasKeyDown && !isKeyReleased;
bool isKeyUp = wasKeyDown && isKeyReleased;
return new KeyEventArgsExt(keyData, timestamp, isKeyDown, isKeyUp);
}
/// <summary>
/// Read the accelerator.
/// </summary>
/// <param name="lpRes">Address in memory.</param>
internal IntPtr Read(IntPtr lpRes)
{
_accel = (User32.ACCEL) Marshal.PtrToStructure(
lpRes, typeof(User32.ACCEL));
return new IntPtr(lpRes.ToInt64() + Marshal.SizeOf(_accel));
}
public HotKeyEventArgs(IntPtr hotKeyParam, IntPtr wParam)
{
uint param = (uint)hotKeyParam.ToInt64();
Key = (Keys)((param & 0xffff0000) >> 16);
Modifiers = (KeyModifiers)(param & 0x0000ffff);
this.ID = (int)wParam;
}
internal static IntPtr WndProc(IntPtr hwnd, int msg, IntPtr wParam, IntPtr lParam, ref bool handled)
{
if (msg != CUSTOM_MESSAGE) {
return IntPtr.Zero;
}
handled = true;
long fileNumber = wParam.ToInt64();
long openEvenIfProjectIsOpened = lParam.ToInt64();
LoggingService.Info("Receiving custom message...");
if (openEvenIfProjectIsOpened == 0 && ProjectService.OpenSolution != null) {
return new IntPtr(RESULT_PROJECT_IS_OPEN);
} else {
try {
SD.MainThread.InvokeAsyncAndForget(delegate {
var win32Window = PresentationSource.FromVisual(SD.Workbench.MainWindow) as System.Windows.Interop.IWin32Window;
if (win32Window != null) {
NativeMethods.SetForegroundWindow(win32Window.Handle);
}
});
string tempFileName = Path.Combine(Path.GetTempPath(), "sd" + fileNumber + ".tmp");
foreach (string file in File.ReadAllLines(tempFileName)) {
SD.MainThread.InvokeAsyncAndForget(delegate {
SharpDevelop.FileService.OpenFile(file);
});
}
} catch (Exception ex) {
LoggingService.Warn(ex);
}
return new IntPtr(RESULT_FILES_HANDLED);
}
}
/// <summary>
/// Primitive patching. Inserts a jump to 'target' at 'site'. Works even if both methods'
/// callers have already been compiled.
/// </summary>
/// <param name="site"></param>
/// <param name="target"></param>
public static RedirectCallsState PatchJumpTo(IntPtr site, IntPtr target)
{
RedirectCallsState state = new RedirectCallsState();
// R11 is volatile.
unsafe
{
byte* sitePtr = (byte*)site.ToPointer();
state.a = *sitePtr;
state.b = *(sitePtr + 1);
state.c = *(sitePtr + 10);
state.d = *(sitePtr + 11);
state.e = *(sitePtr + 12);
state.f = *((ulong*) (sitePtr + 2));
*sitePtr = 0x49; // mov r11, target
*(sitePtr + 1) = 0xBB;
*((ulong*)(sitePtr + 2)) = (ulong)target.ToInt64();
*(sitePtr + 10) = 0x41; // jmp r11
*(sitePtr + 11) = 0xFF;
*(sitePtr + 12) = 0xE3;
}
return state;
}
internal void WriteAndPositionByRow <T>(T[] data, int count, int offset = 0) where T : struct
{
Debug.Assert(count <= m_dataBox.RowPitch);
Utilities.Write(m_dataPointer, data, offset, count);
m_dataPointer += m_dataBox.RowPitch;
Debug.Assert((m_dataPointer.ToInt64() - m_dataBox.DataPointer.ToInt64()) <= m_bufferSize);
}
public static UInt32 NtWriteFile(
IntPtr FileHandle,
IntPtr Event,
IntPtr ApcRoutine,
IntPtr ApcContext,
IntPtr IoStatusBlock,
IntPtr Buffer,
UInt32 Length,
UInt32 ByteOffset,
UInt32 Key)
{
if (DetourBlock.IsDetouring) {
return OriginalFn(FileHandle, Event, ApcRoutine, ApcContext, IoStatusBlock,
Buffer, Length, ByteOffset, Key);
}
using (var block = new DetourBlock())
{
var result = OriginalFn(FileHandle, Event, ApcRoutine, ApcContext, IoStatusBlock,
Buffer, Length, ByteOffset, Key);
if (result == 0 /* STATUS_SUCCESS */)
{
Remoting.Scribe.DocumentFileWrite(Process.GetCurrentProcess().Id, FileHandle.ToInt64());
}
return result;
}
}
/// <summary>
/// Assemble the specified assembly code at a base address.
/// </summary>
/// <param name="asm">The assembly code.</param>
/// <param name="baseAddress">The address where the code is rebased.</param>
/// <returns>An array of bytes containing the assembly code.</returns>
public byte[] Assemble(string asm, IntPtr baseAddress)
{
// Rebase the code
asm = $"use32\norg 0x{baseAddress.ToInt64():X8}\n" + asm;
// Assemble and return the code
return FasmNet.Assemble(asm);
}
internal UVStream(Loop loop, IntPtr handle)
: base(loop, handle)
{
read_cb_unix = read_callback_u;
read_cb_win = read_callback_w;
stream = (uv_stream_t *)(handle.ToInt64() + Handle.Size(HandleType.UV_HANDLE));
}
private static void DeviceAdded(System.IntPtr context, System.IntPtr res, System.IntPtr sender, System.IntPtr device)
{
if (MacNative.IOHIDDeviceOpen(device, IntPtr.Zero) == IntPtr.Zero)
{
if (MacNative.IOHIDDeviceConformsTo(device, HIDDesktop, HIDJoystick) ||
MacNative.IOHIDDeviceConformsTo(device, HIDDesktop, HIDGamePad) ||
MacNative.IOHIDDeviceConformsTo(device, HIDDesktop, HIDMultiAxis) ||
MacNative.IOHIDDeviceConformsTo(device, HIDDesktop, HIDWheel))
{
System.IntPtr product = MacNative.IOHIDDeviceGetProperty(device, MacNative.CFString("Product"));
string productName = MacNative.CString(product);
int index = 0;
foreach (Engine.Joystick joystick in engine.joysticks)
{
if (joystick == null)
{
engine.joysticks [index] = new Engine.Joystick();
engine.joysticks [index].index = index;
engine.joysticks [index].id = device.ToInt64();
engine.joysticks [index].name = productName;
MacNative.IOHIDDeviceRegisterInputValueCallback(device, DeviceInputCallback, device);
MacNative.IOHIDDeviceScheduleWithRunLoop(device, runLoop, defaultLoopMode);
return;
}
index++;
}
}
MacNative.IOHIDDeviceClose(device, IntPtr.Zero);
}
}
private static byte[] IntPtrToBytes(IntPtr p, long offset, long length)
{
byte[] buffer = new byte[0x10 + IntPtr.Size];
for (int i = 0; i < 8; i++)
{
buffer[i] = (byte) ((offset >> (8 * i)) & 0xffL);
}
for (int j = 0; j < 8; j++)
{
buffer[8 + j] = (byte) ((length >> (8 * j)) & 0xffL);
}
if (IntPtr.Size == 4)
{
int num3 = p.ToInt32();
for (int m = 0; m < 4; m++)
{
buffer[0x10 + m] = (byte) ((num3 >> (8 * m)) & 0xff);
}
return buffer;
}
long num5 = p.ToInt64();
for (int k = 0; k < 8; k++)
{
buffer[0x10 + k] = (byte) ((num5 >> (8 * k)) & 0xffL);
}
return buffer;
}
/// <summary>
/// Read the resource.
/// </summary>
/// <param name="hModule">Module handle.</param>
/// <param name="lpRes">Pointer to the beginning of a resource.</param>
/// <returns>Pointer to the end of the resource.</returns>
internal override IntPtr Read(IntPtr hModule, IntPtr lpRes)
{
byte[] data = new byte[_size];
Marshal.Copy(lpRes, data, 0, data.Length);
_bitmap = new DeviceIndependentBitmap(data);
return new IntPtr(lpRes.ToInt64() + _size);
}
/// <summary>Initializes a new instance of the <see cref="Object"/> class.
/// Internal usage: Constructor to actually call the native library constructors. C# subclasses
/// must use the public constructor only.</summary>
/// <param name="baseKlass">The pointer to the base native Eo class.</param>
/// <param name="managedType">The managed type of the public constructor that originated this call.</param>
/// <param name="parent">The Efl.Object parent of this instance.</param>
/// <param name="file">Name of the file from where the constructor is called.</param>
/// <param name="line">Number of the line from where the constructor is called.</param>
protected EoWrapper(IntPtr baseKlass, System.Type managedType, Efl.Object parent,
[CallerFilePath] string file = null,
[CallerLineNumber] int line = 0)
{
inherited = ((object)this).GetType() != managedType;
IntPtr actual_klass = baseKlass;
if (inherited)
{
actual_klass = Efl.Eo.ClassRegister.GetInheritKlassOrRegister(baseKlass, ((object)this).GetType());
}
// Creation of the unfinalized Eo handle
Eina.Log.Debug($"Instantiating from klass 0x{actual_klass.ToInt64():x}");
System.IntPtr parent_ptr = System.IntPtr.Zero;
if (parent != null)
{
parent_ptr = parent.NativeHandle;
}
handle = Efl.Eo.Globals._efl_add_internal_start(file, line, actual_klass, parent_ptr, 1, 0);
if (handle == System.IntPtr.Zero)
{
throw new Exception("Instantiation failed");
}
Eina.Log.Debug($"Eo instance right after internal_start 0x{handle.ToInt64():x} with refcount {Efl.Eo.Globals.efl_ref_count(handle)}");
Eina.Log.Debug($"Parent was 0x{parent_ptr.ToInt64()}");
// Creation of wrapper supervisor
AddWrapperSupervisor();
}
public static ItemPropertyValue[] ReadItemPropertyValues(int size, IntPtr dataPtr, IntPtr errorsPtr)
{
try
{
var results = new ItemPropertyValue[size];
var dataPtrAsLong = dataPtr.ToInt64();
for (var i = 0; i < size; i++)
{
var valuePtr = new IntPtr(dataPtrAsLong + i * NativeMethods.VariantSize);
if (valuePtr != IntPtr.Zero)
{
results[i].Value = Marshal.GetObjectForNativeVariant(valuePtr);
NativeMethods.VariantClear(valuePtr);
}
results[i].Error = Marshal.ReadInt32(errorsPtr, i * sizeof(int));
}
return results;
}
finally
{
if (dataPtr != IntPtr.Zero)
Marshal.FreeCoTaskMem(dataPtr);
if (errorsPtr != IntPtr.Zero)
Marshal.FreeCoTaskMem(errorsPtr);
}
}
static void Initialize (IntPtr ptr, IntPtr data)
{
IntPtr ifaceptr = new IntPtr (ptr.ToInt64 () + class_offset);
GtkCellEditableIface native_iface = (GtkCellEditableIface) Marshal.PtrToStructure (ifaceptr, typeof (GtkCellEditableIface));
native_iface.StartEditing = iface.StartEditing;
Marshal.StructureToPtr (native_iface, ifaceptr, false);
}
static void Initialize (IntPtr ptr, IntPtr data)
{
IntPtr ifaceptr = new IntPtr (ptr.ToInt64 () + class_offset);
GtkActivatableIface native_iface = (GtkActivatableIface) Marshal.PtrToStructure (ifaceptr, typeof (GtkActivatableIface));
native_iface.SyncActionProperties = iface.SyncActionProperties;
Marshal.StructureToPtr (native_iface, ifaceptr, false);
}
private static void UpdateLeds(ICollection<KeyValuePair<int, CorsairLed>> ledsToUpdate)
{
ledsToUpdate = ledsToUpdate.Where(x => x.Value.Color != Color.Transparent).ToList();
if (!ledsToUpdate.Any())
return; // CUE seems to crash if 'CorsairSetLedsColors' is called with a zero length array
int structSize = Marshal.SizeOf(typeof(_CorsairLedColor));
IntPtr ptr = Marshal.AllocHGlobal(structSize * ledsToUpdate.Count);
IntPtr addPtr = new IntPtr(ptr.ToInt64());
foreach (KeyValuePair<int, CorsairLed> led in ledsToUpdate)
{
_CorsairLedColor color = new _CorsairLedColor
{
ledId = led.Key,
r = led.Value.Color.R,
g = led.Value.Color.G,
b = led.Value.Color.B
};
Marshal.StructureToPtr(color, addPtr, false);
addPtr = new IntPtr(addPtr.ToInt64() + structSize);
}
_CUESDK.CorsairSetLedsColors(ledsToUpdate.Count, ptr);
Marshal.FreeHGlobal(ptr);
}
/// <summary> Constructs a stream that marshals bytes from unmanaged memory </summary>
public MarshallingStream(IntPtr ptrBytes, bool readOnly, int start, int length)
{
_ptrBytes = start == 0 ? ptrBytes : new IntPtr(ptrBytes.ToInt64() + start);
_readOnly = readOnly;
_length = length;
_position = 0;
}
internal static IntPtr WndProc(IntPtr hwnd, int msg, IntPtr wParam, IntPtr lParam, ref bool handled)
{
if (msg != CUSTOM_MESSAGE) {
return IntPtr.Zero;
}
handled = true;
long fileNumber = wParam.ToInt64();
long openEvenIfProjectIsOpened = lParam.ToInt64();
LoggingService.Info("Receiving custom message...");
if (openEvenIfProjectIsOpened == 0 && ProjectService.OpenSolution != null) {
return new IntPtr(RESULT_PROJECT_IS_OPEN);
} else {
try {
WorkbenchSingleton.SafeThreadAsyncCall(
delegate { NativeMethods.SetForegroundWindow(WorkbenchSingleton.MainWin32Window.Handle) ; }
);
string tempFileName = Path.Combine(Path.GetTempPath(), "sd" + fileNumber + ".tmp");
foreach (string file in File.ReadAllLines(tempFileName)) {
WorkbenchSingleton.SafeThreadAsyncCall(
delegate(string openFileName) { FileService.OpenFile(openFileName); }
, file
);
}
} catch (Exception ex) {
LoggingService.Warn(ex);
}
return new IntPtr(RESULT_FILES_HANDLED);
}
}
private unsafe void ReadArrayStructure(int count, IntPtr p)
{
for (int i = 0; i < count; i++)
{
formats[i] = (BASS_PLUGINFORM) Marshal.PtrToStructure(p, typeof(BASS_PLUGINFORM));
p = new IntPtr(p.ToInt64() + Marshal.SizeOf(formats[i]));
}
}
public static bool IsInvalidHandleValue(IntPtr p)
{
long h = p.ToInt64();
if(h == -1) return true;
if(h == 0xFFFFFFFF) return true;
return false;
}
static void Initialize (IntPtr ptr, IntPtr data)
{
IntPtr ifaceptr = new IntPtr (ptr.ToInt64 () + class_offset);
GstTagSetterIFace native_iface = (GstTagSetterIFace) Marshal.PtrToStructure (ifaceptr, typeof (GstTagSetterIFace));
Marshal.StructureToPtr (native_iface, ifaceptr, false);
GCHandle gch = (GCHandle) data;
gch.Free ();
}
public static void SetForegroundWindow(string SessId)
{
string windowName = "Session " + SessId + " - [24 x 80]";
System.IntPtr hWnd = FindWindow(null, windowName);
if (hWnd.ToInt64() != 0)
{
SetForegroundWindow(hWnd);
}
}
/// <summary>Initializes a new instance of the <see cref="Object"/> class.
/// Internal usage: Constructor to actually call the native library constructors. C# subclasses
/// must use the public constructor only.</summary>
/// <param name="baseKlass">The pointer to the base native Eo class.</param>
/// <param name="parent">The Efl.Object parent of this instance.</param>
/// <param name="file">Name of the file from where the constructor is called.</param>
/// <param name="line">Number of the line from where the constructor is called.</param>
protected EoWrapper(IntPtr baseKlass, Efl.Object parent,
[CallerFilePath] string file = null,
[CallerLineNumber] int line = 0)
{
generated = Efl.Eo.BindingEntity.IsBindingEntity(((object)this).GetType());
IntPtr actual_klass = baseKlass;
if (!generated)
{
actual_klass = Efl.Eo.ClassRegister.GetInheritKlassOrRegister(baseKlass, ((object)this).GetType());
}
// Creation of the unfinalized Eo handle
Eina.Log.Debug($"Instantiating from klass 0x{actual_klass.ToInt64():x}");
System.IntPtr parent_ptr = System.IntPtr.Zero;
if (parent != null)
{
parent_ptr = parent.NativeHandle;
}
if (generated)
{
handle = Efl.Eo.Globals._efl_add_internal_start(file, line, actual_klass, parent_ptr, 1, 0);
}
else
{
handle = Efl.Eo.Globals._efl_add_internal_start_bindings(file, line, actual_klass, parent_ptr, 1, 0,
Efl.Eo.Globals.efl_mono_avoid_top_level_constructor_callback_addr_get(),
IntPtr.Zero);
}
if (handle == System.IntPtr.Zero)
{
throw new Exception("Instantiation failed");
}
Eina.Log.Debug($"Eo instance right after internal_start 0x{handle.ToInt64():x} with refcount {Efl.Eo.Globals.efl_ref_count(handle)}");
Eina.Log.Debug($"Parent was 0x{parent_ptr.ToInt64()}");
// Creation of wrapper supervisor
AddWrapperSupervisor();
}
public Timespec Add(TimeSpan timeSpan)
{
long nanos = tv_nsec.ToInt64() + (timeSpan.Ticks % TimeSpan.TicksPerSecond) * NanosPerTick;
long overflow_sec = (nanos > NanosPerSecond) ? 1 : 0;
Timespec result;
result.tv_nsec = new IntPtr(nanos % NanosPerSecond);
result.tv_sec = new IntPtr(tv_sec.ToInt64() + (timeSpan.Ticks / TimeSpan.TicksPerSecond) + overflow_sec);
return(result);
}
public Timespec Add(TimeSpan timeSpan)
{
long nanos = (long)tv_nsec + (timeSpan.Ticks % TimeSpan.TicksPerSecond) * NanosPerTick;
long overflow_sec = (nanos > NanosPerSecond) ? 1 : 0;
Timespec result;
result.tv_nsec = (int)(nanos % NanosPerSecond);
result.tv_sec = new IntPtr(tv_sec.ToInt64() + (timeSpan.Ticks / TimeSpan.TicksPerSecond) + overflow_sec);
result.clock_type = GPRClockType.Realtime;
return(result);
}
/// <summary>Finishes instantiating this object.
/// Internal usage by generated code.</summary>
protected void FinishInstantiation()
{
Eina.Log.Debug("calling efl_add_internal_end");
var h = Efl.Eo.Globals._efl_add_end(handle, 1, 0);
Eina.Log.Debug($"efl_add_end returned eo 0x{handle.ToInt64():x}");
// if (h == IntPtr.Zero) // TODO
// {
// }
handle = h;
}
private static Engine.Joystick GetJoystick(System.IntPtr device)
{
foreach (Engine.Joystick joystick in engine.joysticks)
{
if (joystick != null)
{
if (joystick.id == device.ToInt64())
{
return(joystick);
}
}
}
return(null);
}
public static AllfData GetFloatData(EDFFILE file)
{
System.IntPtr ptr = edf_get_float_data(file);
AllfData data;
if (ptr.ToInt64() != 0)
{
data = new AllfData(ptr);
}
else
{
data = null;
}
return(data);
}
public static AllfData GetSampleCloseToTime(EDFFILE file, uint time)
{
System.IntPtr ptr = edf_get_sample_close_to_time(file, time);
AllfData data;
if (ptr.ToInt64() != 0)
{
data = new AllfData(ptr);
}
else
{
data = null;
}
return(data);
}
private static void DeviceRemoved(System.IntPtr context, System.IntPtr res, System.IntPtr sender, System.IntPtr device)
{
foreach (Engine.Joystick joystick in engine.joysticks)
{
if (joystick != null)
{
if (joystick.id == device.ToInt64())
{
engine.joysticks [joystick.index] = null;
MacNative.IOHIDDeviceRegisterInputValueCallback(device, IntPtr.Zero, IntPtr.Zero);
MacNative.IOHIDDeviceUnscheduleFromRunLoop(device, runLoop, defaultLoopMode);
MacNative.IOHIDDeviceClose(device, IntPtr.Zero);
return;
}
}
}
}
// Use this for initialization
void Start()
{
//pybullet = NativeMethods.b3ConnectSharedMemory(NativeConstants.SHARED_MEMORY_KEY);
//if (NativeMethods.b3CanSubmitCommand(pybullet)==0)
//{
pybullet = NativeMethods.b3ConnectPhysicsDirect();
//}
//NativeMethods.b3SetAdditionalSearchPath(pybullet, "d:\\");
Debug.Log("can submit command " + NativeMethods.b3CanSubmitCommand(pybullet));
IntPtr cmd = NativeMethods.b3InitResetSimulationCommand(pybullet);
IntPtr status = NativeMethods.b3SubmitClientCommandAndWaitStatus(pybullet, cmd);
EnumSharedMemoryServerStatus statusType1;
{
IntPtr command = NativeMethods.b3InitPhysicsParamCommand(pybullet);
NativeMethods.b3PhysicsParamSetGravity(command, 0, -10, 0);
IntPtr statusHandle = NativeMethods.b3SubmitClientCommandAndWaitStatus(pybullet, command);
statusType1 = (EnumSharedMemoryServerStatus)NativeMethods.b3GetStatusType(status);
Debug.Log("set grav status " + statusType1);
}
int numBodies = NativeMethods.b3GetNumBodies(pybullet);
{
cmd = NativeMethods.b3LoadUrdfCommandInit(pybullet, "plane.urdf");
Quaternion qq = Quaternion.Euler(-90, 0, 0);
NativeMethods.b3LoadUrdfCommandSetStartOrientation(cmd, qq.x, qq.y, qq.z, qq.w);
status = NativeMethods.b3SubmitClientCommandAndWaitStatus(pybullet, cmd);
statusType1 = (EnumSharedMemoryServerStatus)NativeMethods.b3GetStatusType(status);
Debug.Log("added plane " + statusType1);
}
{
cmd = NativeMethods.b3LoadUrdfCommandInit(pybullet, "quadruped/minitaur.urdf");
NativeMethods.b3LoadUrdfCommandSetStartPosition(cmd, 0, 20, 0);
Quaternion q = Quaternion.Euler(35, 0, 0);
NativeMethods.b3LoadUrdfCommandSetStartOrientation(cmd, q.x, q.y, q.z, q.w);
status = NativeMethods.b3SubmitClientCommandAndWaitStatus(pybullet, cmd);
statusType1 = (EnumSharedMemoryServerStatus)NativeMethods.b3GetStatusType(status);
Debug.Log("added minitaur " + statusType1);
}
m_cubeUid = NativeMethods.b3GetStatusBodyIndex(status);
Debug.Log("minitaur " + m_cubeUid);
EnumSharedMemoryServerStatus statusType = (EnumSharedMemoryServerStatus)NativeMethods.b3GetStatusType(status);
if (statusType == (EnumSharedMemoryServerStatus)EnumSharedMemoryServerStatus.CMD_URDF_LOADING_COMPLETED)
{
numBodies = NativeMethods.b3GetNumBodies(pybullet);
Debug.Log("Numbodies " + numBodies);
cmd = NativeMethods.b3InitRequestVisualShapeInformation(pybullet, m_cubeUid);
status = NativeMethods.b3SubmitClientCommandAndWaitStatus(pybullet, cmd);
statusType = (EnumSharedMemoryServerStatus)NativeMethods.b3GetStatusType(status);
Debug.Log("StatusType " + statusType);
if (statusType == EnumSharedMemoryServerStatus.CMD_VISUAL_SHAPE_INFO_COMPLETED ||
statusType == EnumSharedMemoryServerStatus.CMD_VISUAL_SHAPE_UPDATE_COMPLETED)
{
b3VisualShapeInformation visuals = new b3VisualShapeInformation();
NativeMethods.b3GetVisualShapeInformation(pybullet, ref visuals);
Debug.Log("visuals.m_numVisualShapes=" + visuals.m_numVisualShapes);
System.IntPtr visualPtr = visuals.m_visualShapeData;
robot.bodies = new Body[visuals.m_numVisualShapes];
for (int s = 0; s < visuals.m_numVisualShapes; s++)
{
b3VisualShapeData visual = (b3VisualShapeData)Marshal.PtrToStructure(visualPtr, typeof(b3VisualShapeData));
visualPtr = new IntPtr(visualPtr.ToInt64() + (Marshal.SizeOf(typeof(b3VisualShapeData))));
Vector3 scale;
scale.x = (float)visual.m_dimensions[0];
scale.y = (float)visual.m_dimensions[1];
scale.z = (float)visual.m_dimensions[2];
Debug.Log("visual.m_visualGeometryType = " + (eUrdfGeomTypes)visual.m_visualGeometryType);
Debug.Log("visual.m_dimensions" + scale.x + "," + scale.y + "," + scale.z);
Vector3 pos;
pos.x = (float)visual.m_localVisualFrame[0];
pos.y = (float)visual.m_localVisualFrame[1];
pos.z = (float)visual.m_localVisualFrame[2];
Quaternion rot;
rot.x = (float)visual.m_localVisualFrame[3];
rot.y = (float)visual.m_localVisualFrame[4];
rot.z = (float)visual.m_localVisualFrame[5];
rot.w = (float)visual.m_localVisualFrame[6];
robot.bodies[s] = CreateShape(visual, "cube", pos, rot, scale);
if (visual.m_visualGeometryType == (int)eUrdfGeomTypes.GEOM_MESH)
{
Debug.Log("visual.m_meshAssetFileName=" + visual.m_meshAssetFileName);
}
}
}
if (numBodies > 0)
{
b3BodyInfo info = new b3BodyInfo();
NativeMethods.b3GetBodyInfo(pybullet, 0, ref info);
}
}
}
public static IEnumerable <object> Get_NetLocalGroupMember(Args_Get_NetLocalGroupMember args = null)
{
if (args == null)
{
args = new Args_Get_NetLocalGroupMember();
}
var LogonToken = IntPtr.Zero;
if (args.Credential != null)
{
LogonToken = InvokeUserImpersonation.Invoke_UserImpersonation(new Args_Invoke_UserImpersonation
{
Credential = args.Credential
});
}
var LocalGroupMembers = new List <object>();
foreach (var Computer in args.ComputerName)
{
if (args.Method == MethodType.API)
{
// if we're using the Netapi32 NetLocalGroupGetMembers API call to get the local group information
// arguments for NetLocalGroupGetMembers
var QueryLevel = 2;
var PtrInfo = IntPtr.Zero;
var EntriesRead = 0;
var TotalRead = 0;
var ResumeHandle = IntPtr.Zero;
// get the local user information
var Result = NativeMethods.NetLocalGroupGetMembers(Computer, args.GroupName, QueryLevel, out PtrInfo, -1, out EntriesRead, out TotalRead, ResumeHandle);
// locate the offset of the initial intPtr
var Offset = PtrInfo.ToInt64();
var Members = new List <object>();
// 0 = success
if ((Result == 0) && (Offset > 0))
{
// Work out how much to increment the pointer by finding out the size of the structure
var Increment = Marshal.SizeOf(typeof(LOCALGROUP_MEMBERS_INFO_2));
// parse all the result structures
for (var i = 0; (i < EntriesRead); i++)
{
// create a new int ptr at the given offset and cast the pointer as our result structure
var NewIntPtr = new System.IntPtr(Offset);
var Info = (LOCALGROUP_MEMBERS_INFO_2)Marshal.PtrToStructure(NewIntPtr, typeof(LOCALGROUP_MEMBERS_INFO_2));
Offset = NewIntPtr.ToInt64();
Offset += Increment;
var SidString = "";
var Result2 = NativeMethods.ConvertSidToStringSid(Info.lgrmi2_sid, out SidString);
var LastError = System.Runtime.InteropServices.Marshal.GetLastWin32Error();
if (!Result2)
{
Logger.Write_Verbose($@"[Get-NetLocalGroupMember] Error: {new System.ComponentModel.Win32Exception((int)Result).Message}");
}
else
{
var Member = new LocalGroupMemberAPI
{
ComputerName = Computer,
GroupName = args.GroupName,
MemberName = Info.lgrmi2_domainandname,
SID = SidString,
IsGroup = Info.lgrmi2_sidusage == SID_NAME_USE.SidTypeGroup
};
Members.Add(Member);
}
}
// free up the result buffer
NativeMethods.NetApiBufferFree(PtrInfo);
// try to extract out the machine SID by using the -500 account as a reference
var MachineSid = (Members.FirstOrDefault(x => (x as LocalGroupMemberAPI).SID.IsRegexMatch(".*-500") || (x as LocalGroupMemberAPI).SID.IsRegexMatch(".*-501")) as LocalGroupMemberAPI).SID;
if (MachineSid != null)
{
MachineSid = MachineSid.Substring(0, MachineSid.LastIndexOf('-'));
foreach (LocalGroupMemberAPI member in Members)
{
if (member.SID.IsRegexMatch(MachineSid))
{
member.IsDomain = "false";
}
else
{
member.IsDomain = "true";
}
}
}
else
{
foreach (LocalGroupMemberAPI member in Members)
{
if (!member.SID.IsRegexMatch("S-1-5-21"))
{
member.IsDomain = "false";
}
else
{
member.IsDomain = "UNKNOWN";
}
}
}
LocalGroupMembers.AddRange(Members);
}
else
{
Logger.Write_Verbose($@"[Get-NetLocalGroupMember] Error: {new System.ComponentModel.Win32Exception((int)Result).Message}");
}
}
else
{
// otherwise we're using the WinNT service provider
try
{
var GroupProvider = new System.DirectoryServices.DirectoryEntry($@"WinNT://{Computer}/{args.GroupName},group");
IEnumerable Members = (IEnumerable)GroupProvider.Invoke("Members");
foreach (var obj in Members)
{
var LocalUser = new System.DirectoryServices.DirectoryEntry(obj);
var Member = new LocalGroupMemberWinNT
{
ComputerName = Computer,
GroupName = args.GroupName
};
var AdsPath = LocalUser.InvokeGet("AdsPath").ToString().Replace("WinNT://", "");
var IsGroup = LocalUser.SchemaClassName.IsLikeMatch("group");
bool MemberIsDomain;
string Name;
if (Regex.Matches(AdsPath, "/").Count == 1)
{
// DOMAIN\user
MemberIsDomain = true;
Name = AdsPath.Replace(@"/", @"\");
}
else
{
// DOMAIN\machine\user
MemberIsDomain = false;
Name = AdsPath.Substring(AdsPath.IndexOf('/') + 1).Replace(@"/", @"\");
}
Member.AccountName = Name;
Member.SID = new System.Security.Principal.SecurityIdentifier((byte[])LocalUser.InvokeGet("ObjectSID"), 0).Value;
Member.IsGroup = IsGroup;
Member.IsDomain = MemberIsDomain;
LocalGroupMembers.Add(Member);
}
}
catch (Exception e)
{
Logger.Write_Verbose($@"[Get-NetLocalGroupMember] Error for {Computer} : {e}");
}
}
}
if (LogonToken != IntPtr.Zero)
{
InvokeRevertToSelf.Invoke_RevertToSelf(LogonToken);
}
return(LocalGroupMembers);
}
public static void Main(string[] args)
{
if (args.Length != 1)
{
usage();
}
Gdal.AllRegister();
Bitmap bmp = new Bitmap(args[0]);
// set up MEM driver to read bitmap data
int bandCount = 1;
int pixelOffset = 1;
DataType dataType = DataType.GDT_Byte;
switch (bmp.PixelFormat)
{
case PixelFormat.Format16bppGrayScale:
dataType = DataType.GDT_Int16;
bandCount = 1;
pixelOffset = 2;
break;
case PixelFormat.Format24bppRgb:
dataType = DataType.GDT_Byte;
bandCount = 3;
pixelOffset = 3;
break;
case PixelFormat.Format32bppArgb:
dataType = DataType.GDT_Byte;
bandCount = 4;
pixelOffset = 4;
break;
case PixelFormat.Format48bppRgb:
dataType = DataType.GDT_UInt16;
bandCount = 3;
pixelOffset = 6;
break;
case PixelFormat.Format64bppArgb:
dataType = DataType.GDT_UInt16;
bandCount = 4;
pixelOffset = 8;
break;
default:
Console.WriteLine("Invalid pixel format " + bmp.PixelFormat.ToString());
break;
}
// Use GDAL raster reading methods to read the image data directly into the Bitmap
BitmapData bitmapData = bmp.LockBits(new Rectangle(0, 0, bmp.Width, bmp.Height), ImageLockMode.ReadOnly, bmp.PixelFormat);
int stride = bitmapData.Stride;
System.IntPtr buf = bitmapData.Scan0;
try
{
Driver drvmem = Gdal.GetDriverByName("MEM");
// create a MEM dataset
Dataset ds = drvmem.Create("", bmp.Width, bmp.Height, 0, dataType, null);
// add bands in a reverse order
for (int i = 1; i <= bandCount; i++)
{
ds.AddBand(dataType, new string[] { "DATAPOINTER=" + Convert.ToString(buf.ToInt64() + bandCount - i), "PIXELOFFSET=" + pixelOffset, "LINEOFFSET=" + stride });
}
// display parameters
Console.WriteLine("Raster dataset parameters:");
Console.WriteLine(" RasterCount: " + ds.RasterCount);
Console.WriteLine(" RasterSize (" + ds.RasterXSize + "," + ds.RasterYSize + ")");
// write dataset to tif file
Driver drv = Gdal.GetDriverByName("GTiff");
if (drv == null)
{
Console.WriteLine("Can't get driver.");
System.Environment.Exit(-1);
}
drv.CreateCopy("sample2.tif", ds, 0, null, null, null);
}
catch (Exception ex)
{
Console.WriteLine(ex.Message);
}
finally
{
bmp.UnlockBits(bitmapData);
}
}
public sealed override string ToString()
{
return(IntPtr.Size == 4 ? Address0.ToInt32().ToString("X8") : Address0.ToInt64().ToString("X16"));
}
internal void WriteAndPosition <T>(T[] data, int count, int offset = 0) where T : struct
{
m_dataPointer = Utilities.Write(m_dataPointer, data, offset, count);
Debug.Assert((m_dataPointer.ToInt64() - m_dataBox.DataPointer.ToInt64()) <= m_bufferSize);
}
internal void WriteAndPosition <T>(ref T data) where T : struct
{
m_dataPointer = Utilities.WriteAndPosition(m_dataPointer, ref data);
Debug.Assert((m_dataPointer.ToInt64() - m_dataBox.DataPointer.ToInt64()) <= m_bufferSize);
}
public static IEnumerable <ShareInfo> Get_NetShare(Args_Get_NetShare args = null)
{
if (args == null)
{
args = new Args_Get_NetShare();
}
var shareInfos = new List <ShareInfo>();
var LogonToken = IntPtr.Zero;
if (args.Credential != null)
{
LogonToken = InvokeUserImpersonation.Invoke_UserImpersonation(new Args_Invoke_UserImpersonation
{
Credential = args.Credential
});
}
foreach (var Computer in args.ComputerName)
{
// arguments for NetShareEnum
var QueryLevel = 1;
var PtrInfo = IntPtr.Zero;
var EntriesRead = 0;
var TotalRead = 0;
var ResumeHandle = 0;
// get the raw share information
var Result = NativeMethods.NetShareEnum(Computer, QueryLevel, ref PtrInfo, MAX_PREFERRED_LENGTH, ref EntriesRead, ref TotalRead, ref ResumeHandle);
// locate the offset of the initial intPtr
var Offset = PtrInfo.ToInt64();
// 0 = success
if ((Result == 0) && (Offset > 0))
{
// work out how much to increment the pointer by finding out the size of the structure
var Increment = Marshal.SizeOf(typeof(SHARE_INFO_1));
// parse all the result structures
for (var i = 0; (i < EntriesRead); i++)
{
// create a new int ptr at the given offset and cast the pointer as our result structure
var NewIntPtr = new System.IntPtr(Offset);
var Info = (SHARE_INFO_1)Marshal.PtrToStructure(NewIntPtr, typeof(SHARE_INFO_1));
// return all the sections of the structure - have to do it this way for V2
shareInfos.Add(new ShareInfo
{
Name = Info.shi1_netname,
Type = Info.shi1_type,
Remark = Info.shi1_remark,
ComputerName = Computer
});
Offset = NewIntPtr.ToInt64();
Offset += Increment;
}
// free up the result buffer
NativeMethods.NetApiBufferFree(PtrInfo);
}
else
{
Logger.Write_Verbose($@"[Get-NetShare] Error: {new System.ComponentModel.Win32Exception((int)Result).Message}");
}
}
if (LogonToken != IntPtr.Zero)
{
InvokeRevertToSelf.Invoke_RevertToSelf(LogonToken);
}
return(shareInfos);
}
//TODO deal with loading status
public int LoadUrdfAndGetBodyIdx(string modelName, Vector3 p, Quaternion qq)
{
IntPtr cmd = NativeMethods.b3LoadUrdfCommandInit(_native, modelName);
//IntPtr cmd = NativeMethods.b3LoadMJCFCommandInit(_native, modelName);
NativeMethods.b3LoadUrdfCommandSetStartOrientation(cmd, qq.x, qq.y, qq.z, qq.w);
NativeMethods.b3LoadUrdfCommandSetStartPosition(cmd, p.x, p.y, p.z);
IntPtr status = NativeMethods.b3SubmitClientCommandAndWaitStatus(_native, cmd);
int bodyIdx = NativeMethods.b3GetStatusBodyIndex(status);
Debug.Log("body index " + bodyIdx);
cmd = NativeMethods.b3InitRequestVisualShapeInformation(_native, bodyIdx);
status = NativeMethods.b3SubmitClientCommandAndWaitStatus(_native, cmd);
EnumSharedMemoryServerStatus statusType = (EnumSharedMemoryServerStatus)NativeMethods.b3GetStatusType(status);
if (statusType == EnumSharedMemoryServerStatus.CMD_VISUAL_SHAPE_INFO_COMPLETED ||
statusType == EnumSharedMemoryServerStatus.CMD_VISUAL_SHAPE_UPDATE_COMPLETED)
{
b3VisualShapeInformation visuals = new b3VisualShapeInformation();
NativeMethods.b3GetVisualShapeInformation(_native, ref visuals);
Debug.Log("visuals.m_numVisualShapes=" + visuals.m_numVisualShapes);
int numVisualShapes = visuals.m_numVisualShapes;
System.IntPtr visualPtr = visuals.m_visualShapeData;
//robot.bodies = new Body[visuals.m_numVisualShapes];
for (int s = 0; s < visuals.m_numVisualShapes; s++)
{
b3VisualShapeData visual = (b3VisualShapeData)Marshal.PtrToStructure(visualPtr, typeof(b3VisualShapeData));
visualPtr = new IntPtr(visualPtr.ToInt64() + (Marshal.SizeOf(typeof(b3VisualShapeData))));
Vector3 scale;
scale.x = (float)visual.m_dimensions[0];
scale.y = (float)visual.m_dimensions[1];
scale.z = (float)visual.m_dimensions[2];
Debug.Log("visual.m_visualGeometryType =" + (eUrdfGeomTypes)visual.m_visualGeometryType +
" linkIndex=" + visual.m_linkIndex + " id=" + visual.m_objectUniqueId);
Vector3 pos;
pos.x = (float)visual.m_localVisualFrame[0];
pos.y = (float)visual.m_localVisualFrame[1];
pos.z = (float)visual.m_localVisualFrame[2];
Quaternion rot;
rot.x = (float)visual.m_localVisualFrame[3];
rot.y = (float)visual.m_localVisualFrame[4];
rot.z = (float)visual.m_localVisualFrame[5];
rot.w = (float)visual.m_localVisualFrame[6];
//robot.bodies[s] = CreateShape(visual, "cube", pos, rot, scale);
if (visual.m_visualGeometryType == (int)eUrdfGeomTypes.GEOM_MESH)
{
Debug.Log("visual.m_meshAssetFileName=" + visual.m_meshAssetFileName);
}
}
}
int numJoints = NativeMethods.b3GetNumJoints(_native, bodyIdx);
Dictionary <string, int> jointNameToId = new Dictionary <string, int>();
for (int i = 0; i < numJoints; i++)
{
b3JointInfo jointInfo = new b3JointInfo();
NativeMethods.b3GetJointInfo(_native, bodyIdx, i, ref jointInfo);
jointNameToId.Add(jointInfo.m_jointName, i);
Debug.Log("Joint name " + jointInfo.m_jointName + " Link name " + jointInfo.m_linkName);
}
//NativeMethods.collisionshape(_native, bodyIdx);
return(bodyIdx);
}
public static IEnumerable <SessionInfo> Get_NetSession(Args_Get_NetSession args = null)
{
if (args == null)
{
args = new Args_Get_NetSession();
}
var LogonToken = IntPtr.Zero;
if (args.Credential != null)
{
LogonToken = InvokeUserImpersonation.Invoke_UserImpersonation(new Args_Invoke_UserImpersonation
{
Credential = args.Credential
});
}
var SessionInfos = new List <SessionInfo>();
foreach (var Computer in args.ComputerName)
{
// arguments for NetSessionEnum
var QueryLevel = 10;
var PtrInfo = IntPtr.Zero;
var EntriesRead = 0;
var TotalRead = 0;
var ResumeHandle = 0;
var UserName = string.Empty;
// get session information
var Result = NativeMethods.NetSessionEnum(Computer, string.Empty, UserName, QueryLevel, out PtrInfo, -1, ref EntriesRead, ref TotalRead, ref ResumeHandle);
// locate the offset of the initial intPtr
var Offset = PtrInfo.ToInt64();
// 0 = success
if ((Result == 0) && (Offset > 0))
{
// work out how much to increment the pointer by finding out the size of the structure
var Increment = Marshal.SizeOf(typeof(SESSION_INFO_10));
// parse all the result structures
for (var i = 0; (i < EntriesRead); i++)
{
// create a new int ptr at the given offset and cast the pointer as our result structure
var NewIntPtr = new System.IntPtr(Offset);
var Info = (SESSION_INFO_10)Marshal.PtrToStructure(NewIntPtr, typeof(SESSION_INFO_10));
// return all the sections of the structure - have to do it this way for V2
var Session = new SessionInfo
{
ComputerName = Computer,
CName = Info.sesi10_cname,
UserName = Info.sesi10_username,
Time = Info.sesi502_time,
IdleTime = Info.sesi502_idle_time
};
Offset = NewIntPtr.ToInt64();
Offset += Increment;
SessionInfos.Add(Session);
}
// free up the result buffer
NativeMethods.NetApiBufferFree(PtrInfo);
}
else
{
Logger.Write_Verbose($@"[Get-NetSession] Error: {new System.ComponentModel.Win32Exception((int)Result).Message}");
}
}
if (LogonToken != IntPtr.Zero)
{
InvokeRevertToSelf.Invoke_RevertToSelf(LogonToken);
}
return(SessionInfos);
}
public static IEnumerable <LoggedOnUserInfo> Get_NetLoggedon(Args_Get_NetLoggedon args = null)
{
if (args == null)
{
args = new Args_Get_NetLoggedon();
}
var LogonToken = IntPtr.Zero;
if (args.Credential != null)
{
LogonToken = InvokeUserImpersonation.Invoke_UserImpersonation(new Args_Invoke_UserImpersonation
{
Credential = args.Credential
});
}
var LoggedOns = new List <LoggedOnUserInfo>();
foreach (var Computer in args.ComputerName)
{
// declare the reference variables
var QueryLevel = 1;
var PtrInfo = IntPtr.Zero;
var EntriesRead = 0;
var TotalRead = 0;
var ResumeHandle = 0;
// get logged on user information
var Result = NativeMethods.NetWkstaUserEnum(Computer, QueryLevel, out PtrInfo, -1, out EntriesRead, out TotalRead, ref ResumeHandle);
// locate the offset of the initial intPtr
var Offset = PtrInfo.ToInt64();
// 0 = success
if ((Result == 0) && (Offset > 0))
{
// work out how much to increment the pointer by finding out the size of the structure
var Increment = Marshal.SizeOf(typeof(WKSTA_USER_INFO_1));
// parse all the result structures
for (var i = 0; (i < EntriesRead); i++)
{
// create a new int ptr at the given offset and cast the pointer as our result structure
var NewIntPtr = new System.IntPtr(Offset);
var Info = (WKSTA_USER_INFO_1)Marshal.PtrToStructure(NewIntPtr, typeof(WKSTA_USER_INFO_1));
// return all the sections of the structure - have to do it this way for V2
LoggedOns.Add(new LoggedOnUserInfo
{
UserName = Info.wkui1_username,
LogonDomain = Info.wkui1_logon_domain,
AuthDomains = Info.wkui1_oth_domains,
LogonServer = Info.wkui1_logon_server,
ComputerName = Computer
});
Offset = NewIntPtr.ToInt64();
Offset += Increment;
}
// free up the result buffer
NativeMethods.NetApiBufferFree(PtrInfo);
}
else
{
Logger.Write_Verbose($@"[Get-NetLoggedon] Error: {new System.ComponentModel.Win32Exception((int)Result).Message}");
}
}
if (LogonToken != IntPtr.Zero)
{
InvokeRevertToSelf.Invoke_RevertToSelf(LogonToken);
}
return(LoggedOns);
}
public NativePtr Add(NativePtr other) => new NativePtr(new System.IntPtr(_value.ToInt64() + other._value.ToInt64()));
// Use this for initialization
void Start()
{
text = GetComponent <Text>();
pybullet = NativeMethods.b3ConnectSharedMemory(NativeConstants.SHARED_MEMORY_KEY);
if (NativeMethods.b3CanSubmitCommand(pybullet) == 0)
{
pybullet = NativeMethods.b3ConnectPhysicsDirect();
}
IntPtr cmd = NativeMethods.b3InitResetSimulationCommand(pybullet);
IntPtr status = NativeMethods.b3SubmitClientCommandAndWaitStatus(pybullet, cmd);
{
IntPtr command = NativeMethods.b3InitPhysicsParamCommand(pybullet);
NativeMethods.b3PhysicsParamSetGravity(command, 0, -10, 0);
IntPtr statusHandle = NativeMethods.b3SubmitClientCommandAndWaitStatus(pybullet, command);
}
int numBodies = NativeMethods.b3GetNumBodies(pybullet);
Debug.Log(numBodies);
{
cmd = NativeMethods.b3LoadUrdfCommandInit(pybullet, "plane.urdf");
Quaternion qq = Quaternion.Euler(-90, 0, 0);
NativeMethods.b3LoadUrdfCommandSetStartOrientation(cmd, qq.x, qq.y, qq.z, qq.w);
status = NativeMethods.b3SubmitClientCommandAndWaitStatus(pybullet, cmd);
}
cmd = NativeMethods.b3LoadUrdfCommandInit(pybullet, "cube.urdf");
NativeMethods.b3LoadUrdfCommandSetStartPosition(cmd, 0, 20, 0);
Quaternion q = Quaternion.Euler(35, 0, 0);
NativeMethods.b3LoadUrdfCommandSetStartOrientation(cmd, q.x, q.y, q.z, q.w);
status = NativeMethods.b3SubmitClientCommandAndWaitStatus(pybullet, cmd);
m_cubeUid = NativeMethods.b3GetStatusBodyIndex(status);
EnumSharedMemoryServerStatus statusType = (EnumSharedMemoryServerStatus)NativeMethods.b3GetStatusType(status);
if (statusType == (EnumSharedMemoryServerStatus)EnumSharedMemoryServerStatus.CMD_URDF_LOADING_COMPLETED)
{
numBodies = NativeMethods.b3GetNumBodies(pybullet);
text.text = numBodies.ToString();
cmd = NativeMethods.b3InitRequestVisualShapeInformation(pybullet, m_cubeUid);
status = NativeMethods.b3SubmitClientCommandAndWaitStatus(pybullet, cmd);
statusType = (EnumSharedMemoryServerStatus)NativeMethods.b3GetStatusType(status);
if (statusType == (EnumSharedMemoryServerStatus)EnumSharedMemoryServerStatus.CMD_VISUAL_SHAPE_INFO_COMPLETED)
{
b3VisualShapeInformation visuals = new b3VisualShapeInformation();
NativeMethods.b3GetVisualShapeInformation(pybullet, ref visuals);
System.Console.WriteLine("visuals.m_numVisualShapes=" + visuals.m_numVisualShapes);
System.IntPtr visualPtr = visuals.m_visualShapeData;
for (int s = 0; s < visuals.m_numVisualShapes; s++)
{
b3VisualShapeData visual = (b3VisualShapeData)Marshal.PtrToStructure(visualPtr, typeof(b3VisualShapeData));
visualPtr = new IntPtr(visualPtr.ToInt64() + (Marshal.SizeOf(typeof(b3VisualShapeData))));
double x = visual.m_dimensions[0];
double y = visual.m_dimensions[1];
double z = visual.m_dimensions[2];
System.Console.WriteLine("visual.m_visualGeometryType = " + visual.m_visualGeometryType);
System.Console.WriteLine("visual.m_dimensions" + x + "," + y + "," + z);
if (visual.m_visualGeometryType == (int)eUrdfGeomTypes.GEOM_MESH)
{
System.Console.WriteLine("visual.m_meshAssetFileName=" + visual.m_meshAssetFileName);
text.text = visual.m_meshAssetFileName;
}
}
}
if (numBodies > 0)
{
b3BodyInfo info = new b3BodyInfo();
NativeMethods.b3GetBodyInfo(pybullet, 0, ref info);
text.text = info.m_baseName;
}
}
}
public static IEnumerable <object> Get_NetLocalGroup(Args_Get_NetLocalGroup args = null)
{
if (args == null)
{
args = new Args_Get_NetLocalGroup();
}
var LogonToken = IntPtr.Zero;
if (args.Credential != null)
{
LogonToken = InvokeUserImpersonation.Invoke_UserImpersonation(new Args_Invoke_UserImpersonation
{
Credential = args.Credential
});
}
var LocalGroups = new List <object>();
foreach (var Computer in args.ComputerName)
{
if (args.Method == MethodType.API)
{
// if we're using the Netapi32 NetLocalGroupEnum API call to get the local group information
// arguments for NetLocalGroupEnum
var QueryLevel = 1;
var PtrInfo = IntPtr.Zero;
var EntriesRead = 0;
var TotalRead = 0;
var ResumeHandle = 0;
// get the local user information
var Result = NativeMethods.NetLocalGroupEnum(Computer, QueryLevel, out PtrInfo, MAX_PREFERRED_LENGTH, out EntriesRead, out TotalRead, ref ResumeHandle);
// locate the offset of the initial intPtr
var Offset = PtrInfo.ToInt64();
// 0 = success
if ((Result == 0) && (Offset > 0))
{
// Work out how much to increment the pointer by finding out the size of the structure
var Increment = Marshal.SizeOf(typeof(LOCALGROUP_INFO_1));
// parse all the result structures
for (var i = 0; (i < EntriesRead); i++)
{
// create a new int ptr at the given offset and cast the pointer as our result structure
var NewIntPtr = new System.IntPtr(Offset);
var Info = (LOCALGROUP_INFO_1)Marshal.PtrToStructure(NewIntPtr, typeof(LOCALGROUP_INFO_1));
LocalGroups.Add(new LocalGroupAPI
{
ComputerName = Computer,
GroupName = Info.lgrpi1_name,
Comment = Info.lgrpi1_comment
});
Offset = NewIntPtr.ToInt64();
Offset += Increment;
}
// free up the result buffer
NativeMethods.NetApiBufferFree(PtrInfo);
}
else
{
Logger.Write_Verbose($@"[Get-NetLocalGroup] Error: {new System.ComponentModel.Win32Exception((int)Result).Message}");
}
}
else
{
// otherwise we're using the WinNT service provider
var ComputerProvider = new System.DirectoryServices.DirectoryEntry($@"WinNT://{Computer},computer");
foreach (System.DirectoryServices.DirectoryEntry LocalGroup in ComputerProvider.Children)
{
if (LocalGroup.SchemaClassName.Equals("group", StringComparison.OrdinalIgnoreCase))
{
var Group = new LocalGroupWinNT
{
ComputerName = Computer,
GroupName = LocalGroup.Name,
SID = new System.Security.Principal.SecurityIdentifier((byte[])LocalGroup.InvokeGet("objectsid"), 0).Value,
Comment = LocalGroup.InvokeGet("Description").ToString()
};
LocalGroups.Add(Group);
}
}
}
}
if (LogonToken != IntPtr.Zero)
{
InvokeRevertToSelf.Invoke_RevertToSelf(LogonToken);
}
return(LocalGroups);
}
static public void AddPtr(ref System.IntPtr p, int offset)
{
p = new System.IntPtr(p.ToInt64() + offset);
}
/// <summary>
/// Implements the copy functionality used by Span and ReadOnlySpan.
///
/// NOTE: Fast span implements TryCopyTo in corelib and therefore this implementation
/// is only used by portable span. The code must live in code that only compiles
/// for portable span which means either each individual span implementation
/// of this shared code file. Other shared SpanHelper.X.cs files are compiled
/// for both portable and fast span implementations.
/// </summary>
public static unsafe void CopyTo <T>(ref T dst, int dstLength, ref T src, int srcLength)
{
IntPtr srcMinusDst = Unsafe.ByteOffset <T>(ref dst, ref src);
bool srcGreaterThanDst = (sizeof(IntPtr) == sizeof(int)) ? srcMinusDst.ToInt32() >= 0 : srcMinusDst.ToInt64() >= 0;
IntPtr tailDiff;
if (srcGreaterThanDst)
{
// If the start of source is greater than the start of destination, then we need to calculate
// the different between the end of destination relative to the start of source.
tailDiff = Unsafe.ByteOffset <T>(ref Unsafe.Add <T>(ref dst, dstLength), ref src);
}
else
{
// If the start of source is less than the start of destination, then we need to calculate
// the different between the end of source relative to the start of destunation.
tailDiff = Unsafe.ByteOffset <T>(ref Unsafe.Add <T>(ref src, srcLength), ref dst);
}
// If the source is entirely before or entirely after the destination and the type inside the span is not
// itself a reference type or containing reference types, then we can do a simple block copy of the data.
bool isOverlapped = (sizeof(IntPtr) == sizeof(int)) ? tailDiff.ToInt32() < 0 : tailDiff.ToInt64() < 0;
if (!isOverlapped && !SpanHelpers.IsReferenceOrContainsReferences <T>())
{
ref byte dstBytes = ref Unsafe.As <T, byte>(ref dst);
ref byte srcBytes = ref Unsafe.As <T, byte>(ref src);
public SharedMemory(string name, IntPtr size)
{
mmf = MemoryMappedFile.OpenExisting(name + "_CONNECT_DATA");
mmva = mmf.CreateViewAccessor();
if (mmf.SafeMemoryMappedFileHandle.IsInvalid)
throw new MySqlException("Cannot open file mapping " + name);
mmvs = mmf.CreateViewStream(0L, size.ToInt64());
mmva = mmf.CreateViewAccessor(0L, size.ToInt64());
}