| Commit message (Collapse) | Author | Age | Files | Lines |
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to the root window (global screen) ..
.. otherwise, we might end up receiving a client position of 0/0, while being positioned in a different absolute place within root.
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for X11 and Windows for now.
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size and position via atomic-replacable int arrays
NEWT's Soft-PixelScale supports software pixel-scale by multiplying the underlying surface pixel-size with the scale-factor
and dividing the window position and size by same scale-factor.
Hence the window position and size space is kept virtually steady at virtually assumed DPI 96 at higher actual screen DPI
and the surface size is adjusted.
+++
This window- and pixel-unit separation also includes all callbacks for the native driver implementations,
hence the changes native code - allowing to determine whether window- or pixel-units were given.
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Add 64-bit nativeHandle (Windows HMONITOR), add PixelScale for Windows
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TSMGetInputSourceProperty(), crashing on MacOS >= 13
Perhaps we want a replacement?
Fallback code uses keyCode, i.e. dropping the current keyboard layout (-> US).
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'Fake invisible child window' is implemented by simply moving the window out of sight (viewport).
- orderOut0 needs to use '[mWin orderWindow: NSWindowBelow relativeTo:..' parentWindow
instead of '[mWin orderBack:..', otherwise the whole parent application gets invisible w/ SWT ;-)
- NewtNSWindow may also needs to use parent's Screen instance if moved offscreen,
as the own Screen is invalid (zero size) in this case.
- WindowDriver: Adding special treatment for 'Fake invisible child window' (tagged as such):
-- reconfigureWindowImpl: setWindowClientTopLeftPointAndSize0(..) will be called
using the viewport's max position -> out of sight.
-- screenPositionChanged: ignore the 'new' position
-- sizeChanged: ignore the 'new' size
This sensitive NEWT change set shall benefit other toolkits being used as parentWindow
besides SWT, as this behavior is the same across MacOS.
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d92dc518eb891f2d125a8136efd6ed603d74a6e9
We also cannot use 'mWin orderWindow: NSWindowOut relativeTo:..]' as it also removes the child-NSWindow from its parent like 'orderOut'.
Hence only use 'orderBack' to keep the relationship inplace.
Fake invisible child window is in progress,
i.e. moving it out of the overal viewport (all screens).
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commenting on child-window orderOut
Actual small change is to have child-NSWindow to use '[myWindow orderWindow: NSWindowAbove relativeTo:..'
instead of 'orderFront' in creation and use the simple 'orderFront' to set a top-level NSWindow visible.
Adding comment why we can't use 'orderOut' on child-NSWindow setting it invisible,
this is due to OSX 10.7 changes and testing detaching the child-window from its parent
causes havoc w/ SWT at least.
Hence we only issue 'mWin orderWindow: NSWindowOut relativeTo:..]' and the result is
having the child-NSWindow below the application.
This in turn will make it visible again when moving the application around,
as this child-NSWindow will no more follow the position.
Suggestion is to have this 'fake invisible' child-NSWindow to be moved
out of the overal viewport (all screens).
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MacOS (fixes NewtCanvasSWT on SWT positioning)
Newt's OSX Window consist out of NSView wrapped up within its own NSWindow.
It's position is being set via its NSWindow's client-area position on screen (frame),
which we derive from NSView's client-area position.
When NEWT reparents into a new 'window',
on OSX it uses the parent's NSView and its NSWindow
to attach its own NSView and NSWindow as a subview and childwindow.
SWT's OSX implementation uses NSView's for each Compositor,
but an individual NSWindow is only established for the Shell (Window).
An oversight in Nativewindow and NEWT's coordinate translation:
'top-left view <-> top-left screen'
by missing the 'view <-> window' translation caused this whole issue.
The oversight occured as NEWT's 'view <-> window' translation
had no impact due to its 1-view to 1-window mapping.
Fixing the coordinate translation resolves the mess
for SWT and for potential other toolkits on OSX.
NewtCanvasSWT behaves same on OSX as on X11 etc finally.
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b91c680fb93a03720ff9fcb39cf052cfe8d40e76
See commit b91c680fb93a03720ff9fcb39cf052cfe8d40e76
To support static libraries JEP 178, we have to provide JNI_OnLoad_<libname> etc.
Hence change and add function entries accordingly.
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and not repositionable.
Our two fixed size and position console cases 'bcm.egl' and 'egl.gbm' (drm.gbm)
only operate in a console like fullscreen mode.
We should earmark and expose this behavior, as well as handle it by not waiting for a position / size
and not attempting to change position and size.
Reducing WindowImpl.minimumReconfigStateMask to bare minimum values:
STATE_MASK_VISIBLE | STATE_MASK_FOCUSED;
New WindowImpl.mutableSizePosReconfigStateMask extends WindowImpl.minimumReconfigStateMask, representing previous values:
STATE_MASK_VISIBLE | STATE_MASK_FOCUSED | STATE_MASK_FULLSCREEN | STATE_MASK_RESIZABLE | STATE_MASK_REPOSITIONABLE;
All WindowDriver implementations previously using WindowImpl.minimumReconfigStateMask
are now using WindowImpl.mutableSizePosReconfigStateMask but the explicit console driver named above.
I would have liked to add the STATE_BIT_FULLSCREEN to the current stateMask to notify this semantics,
however this would have lead to more code changes as our fullscreen mode assumes to be 'on top' of the normal mode.
Here the normal mode is essentially fullscreen and no back/forth fullscreen setting is useful or allowed.
Therefore, both fixed size & position console driver won't expose themselves as being in fullscreen mode.
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earmark spanning across monitors
drmModeSetCrtc(..)'s x/y parameter are the surface's offset to be scanned out from one CRT!
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(NewtCommon.c)
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XPeekEvent(..)
The wait loop uses XPeekEvent(dpy, &e),
which can block indefinite if queue is empty.
Replace with timeout only _and_ only wait on CreateWindow0(..)
not when queried via X11Display dispatch loop on events
when it is assumed the information has been propagated already.
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(X11Display + X11Window)
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stdin in vsync-wait-loop
User input during test from the console will also end up in stdin of the console after the java application has been closed.
This is not only annoying, but also a security concern, as the input gets executed if containing a CR.
Further, the vsync-wait-loop shall ignore stdin.
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ReleasePrimitiveArrayCritical(..) in GetPrimitiveArrayCritical(..) code path!
Now that was quite a miss, causing the bugs in the first place!
The freeze was caused in the JVM, as this open GetPrimitiveArrayCritical(..) disabled the GC.
This was reported via '-Xcheck:jni'.
Depending on the system/jvm, the freeze may happen early or only after a while.
This code path was not executed with new property 'newt.disable.PointerIcon' set,
but from there to finding the missing critical release - a journey:
- jstack showed
"main" #1 prio=5 os_prio=0 cpu=275.71ms elapsed=51.93s allocated=9710K defined_classes=472 tid=0x00007f7084015000 nid=0x1a39 waiting on condition [0x00007f70897c2000]
java.lang.Thread.State: RUNNABLE
at jogamp.opengl.es3.GLES3Impl.dispatch_glUniformMatrix4fv1(Native Method)
at jogamp.opengl.es3.GLES3Impl.glUniformMatrix4fv(GLES3Impl.java:2585)
at jogamp.opengl.es3.GLES3Impl.glUniform(GLES3Impl.java:10713)
-- said that this thread was no more running, waiting on condition ..
-- glUniformMatrix4fv1 was given an array!
- '-Xcheck:jni' gave:
Warning: Calling other JNI functions in the scope of Get/ReleasePrimitiveArrayCritical or Get/ReleaseStringCritical
-- Now it is clear that the lack of releasing the critical array, returning to Java and then calling other JNI methods
caused the Warning - and eventually the freeze.
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hence pass PointerIconImpl through
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swapInterval to optionally skip VSYNC if 0
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DRM allows 64x64 pixel cursor images, using GBM_FORMAT_ARGB888 only.
Notable: GBM_FORMAT_ARGB888 == PixelFormat.BGRA8888
Having fixed mouse and keyboard input with previous commit,
the demo com.jogamp.opengl.test.junit.jogl.demos.es2.newt.TestGearsES2NEWT
shows via key press
- i -> pointer visible/invisible
- c -> pointer icon change
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Mesa 18.3.6 issues mixing EGL_DEFAULT_DISPLAY and GBM device on EGL_PLATFORM_GBM_KHR
Interestingly, the issue is no more reproducible. Weird.
However, it is advised to use a real GBM device handle for EGL display creation
under EGL_PLATFORM_GBM_KHR.
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Adding new classes DRMLib (gluegen of drm + gbm), DRMUtil and DRMMode GBMDummyUpstreamSurfaceHook
to new package jogamp.nativewindow.drm, allowing full awareness of DRM + GBM within NativeWindow for JOGL + NEWT.
DRMMode replaces the previous native code of collecting drmMode* attributes: active connector, used mode, encoder etc
and also supports multiple active connectors.
DRMUtil handles the global static drmFd (file descriptor), currently only the GNU/Linux DRM device is supported.
GBMDummyUpstreamSurfaceHook provides a simple dummy GBM surface.
NativeWindow provides the new nativewindow_drm.so and nativewindow-os-drm.jar,
which are included in most 'all' jar packages.
build property: setup.addNativeEGLGBM -> setup.addNativeDRMGBM
Changes NativeWindowFactory:
- TYPE_EGL_GBM -> TYPE_DRM_GBM while keeping the package ID of '.egl.gbm' for NEWT (using EGL)
- Initializing DRMUtil at initialization
Changes EGLDrawableFactory:
- Using native GBM device for the default EGL display creation instead of EGL_DEFAULT_DISPLAY.
This resolves issues as seen in Bug 1402, as well in cases w/o surfaceless support.
- GL profile mapping uses surfaceless when available for GBM,
otherwise uses createDummySurfaceImpl (dummy GBM surface via GBMDummyUpstreamSurfaceHook)
- createDummySurfaceImpl uses a dummy GBM surface via GBMDummyUpstreamSurfaceHook
- DesktopGL not available with GBM, see Bug 1401
NEWT's DRM + GBM + EGL Driver
- Using DRMLib, DRMUtil and DRMMode, removed most native code but WindowDriver swapBuffer
- ScreenDriver uses DRMMode, however currently only first connected CRT.
- WindowDriver aligns position and size to screen, positions other than 0/0 causes DRM failure
- WindowDriver reconfigure n/a
NEWT TODO:
- DRM Cursor support (mouse pointer)
- Pointer event handling
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- EGLSurface: Factor out 'eglCreate[Platform]WindowSurface'
NEWT egl.gbm.WindowDriver
-- Properly use GBM fourcc format and use as visualID
for GBM surface creation and EGL config selection
-- Create eglSurface within this class
-- Hook up GBM/DRM page flip (not working yet, no visible artifacts - no swap)
- ProxySurfaceImpl.surfaceSwap() call upstreamSurface's implementation if available
TODO: 'Permission denied' calling:
- drmSetMaster (optional)
- drmModeSetCrtc
- drmModePageFlip
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GBM driver is now under egl/gbm subpackage and has been replaced by bcm_vc_iv boilerplate.
Native code is reentrant capable and cleaned up.
TODO: EGLDisplayUtil work with SharedResourceRunner
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Also issue the orderFront0 call within createWindow1 (aligned with IOS code)
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X11Window.c's 'NewtWindows_getFrameExtends(..)'
retrieves the insets via XGetWindowProperty on _NET_FRAME_EXTENTS.
Right after window creation this method fails as the WM did not yet
provide the information as the window has not yet been mapped.
Implementation needs to retry for a certain amount of time (250ms)
and maximum number of attempts (96 XEvent).
This issue surfaced while validating fix for Bug 1393,
testing TestDisplayLifecycle02NEWT also on X11.
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insetsChanged + insetsVisibleChanged
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argument. Method only changes state.
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AppKit NSWindow creation
MacOS 10.14.6 + OpenJDK11U produces occasional freezes on AppKit Main Thread
Latest manual tests after resolving Bug 1389
disclosed a few occasional freezes using NEWT + Java11.
These are related to probable AWT changes since Java8,
as these do not occur with Java8.
Fix: Spun off orderFront0(=setVisible) async off-thread on AppKit after sync AppKit NSWindow creation.
This fix also aligns the macos createWindow code with the new simplified ios implementation,
see commit 004c67c73a0309158c30929cd0d6513e23f34803
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and remove the redColor default background (debug only).
IOSUtil.CreateUIWindow(..) also gets its 'visible' attribute,
to be true only for demo Hello1 code - false for intended Proxy Surface Hook.
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See commit 004c67c73a0309158c30929cd0d6513e23f34803
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Astonishingly, the original code path doesn't show up the CAEAGL View/Layer (only the red test background)
even though t is 1:1 equal to this alternative calls.
Keeping the original path intact for future validation, another round of hours of analysis.
The original code path will be removed in the next commit.
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Note: Two subsequent commit will add some required change in the
native UIWindow/UIView creation methods to actually make the NEWT view being displayed ;-)
The demo 'com.jogamp.opengl.demos.ios.Hello' demonstrated a standard NEWT application
running on iOS.
Previous NativeWindow wrap-around demo is preserved in 'com.jogamp.opengl.demos.ios.Hello1'.
Tested on ipad 11'inch arm64 and x86_64 simulation:
- Using GearsES2 demo
- PixelScale 1f, 2f and 0f - last two using max pixel scale
- Touch w/ GearsES2 works:
-- 1 finger rotate
-- 2 finger drag
-- 2 finger pinch-zoom gesture detection
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- IOSUtil/OSXUtil: Return float value and refine name to GetScreenPixelScale*
- WindowDriver's updateMaxScreenPixelScaleByDisplayID(..) and updateMaxScreenPixelScaleByWindowHandle(..)
will only update the maxPixelScale, as actual user pixelSize change should not be triggered here.
A user pixelSize adaption to the changed underlying scale capabilities (e.g. switch monitor)
should be supported by the implemented WindowDriver's: updatePixelScale(..) called by native code.
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Adding the missing JogAmp copyright tag on certain files.
Currently in debate whether 'JogAmp Community' is a legal Copyright tag in the first place,
we might need to add (or replace it with) my authorship.
However, as authorship is well documented via the git repository,
this should be no real world issue.
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and not int[], this avoid copying in case given pNames are normalized.
This is benecifical for X11, Windows and the upcoming iOS touch/pointer support.
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using our OpenJFK 9 x86_64 and arm64 build.
Test demo class is 'com.jogamp.opengl.demos.ios.Hello',
residing in the new demo folder 'src/demos/com/jogamp/opengl/demos/ios/Hello.java'.
This commit does not yet include a working NEWT
specialization for iOS, but it shall followup soon.
Instead this commit demonstrates JOGL operating on
native UIWindow, UIView and CAEAGLLayer as provided by
Nativewindow's IOSUtil.
Test Video https://www.youtube.com/watch?v=Z4lUQNFTGMI
+++
Notable bug: The FBO used and sharing the COLORBUFFER RENDERBUFFER
memory resources with CAEAGLLayer to be displayed in the UIView
seemingly cannot handle GL_DEPTH_COMPONENT16, GL_DEPTH_COMPONENT24
or GL_DEPTH_COMPONENT32 depth buffer - none at all (Device + Simulation).
Therefor the default demo GLEventListener chosen here
don't require a depth buffer ;-)
This issue can hopefully be mitigated with other means
than using a flat FBO sink similar to FBO multisampling.
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I got access to a touchscreen laptop w/ Debian 9, hence I could fix and test the implementation.
X11 DisplayDriver.java:
- Store and pass through xi_opcode of XI extension, queried at initialization stage
X11Window.c Fixes:
- Initialize JavaWindow's xiTouchCoords[].id w/ -1, as required to track the pointer
- Pass through xi_opcode as stored in X11 DisplayDriver
X11Display.c Fixes:
- sendTouchScreenEvent: Throw RuntimeException if 0 > actionId (Internal Error: based on xiTouchCoords[].id tracking)
- DispatchMessages's windowPointer determination:
-- Query potenial XI Event first: IF XI Event, must use XIDeviceEvent's event Window
-- Only IF not an XI Event, we can use evt.xany.window as the event window
- DispatchMessages's XI Event Handling:
-- Always break deviceid search loop if id found, preserving index and time spend
Works on my Debian 9 device, tested w/ com.jogamp.opengl.test.junit.jogl.demos.es2.newt.TestGearsES2NEWT:
- One pointer (finger) press, drag and release (click)
- PinchToZoomGesture works
- DoubleTabScrollGesture works
+++
Potential Issues:
JavaWindow's xiTouchCoords[].id accuracy is crucial to pointer tracking
during XI_TouchBegin -> XI_TouchUpdate -> XI_TouchEnd.
In the normal course of action:
- XI_TouchBegin sets the id, assuming it is yet set
- XI_TouchUpdate assumes it is set
- XI_TouchEnd clears the id, assuming it is set
This field in the JavaWindow array only gets reset to -1 once at native window
creation. We may need to figure out when to reset this field to -1.
If the XI_TouchEnd events would get lost for whatever reason,
the above tracking state would be broken.
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746383476aa449e9cab4a25df27be85b61aa074b
Add more verbose DBG_PRINT
- @ CreateWindow: extension, scanning device/class, registered deviceid
- @ DispatchMessage: XI_TouchBegin, XI_TouchUpdate and XI_TouchEnd
On my test machine w/o a touchscreen I correctly:
- detected extension
- detected no XITouchClass device, hence no deviceid registered
X11: [CreateWindow]: XI: Window 0x6600016, Extension 131
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[1/13].class[1/7]: type 1 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[1/13].class[2/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[1/13].class[3/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[1/13].class[4/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[1/13].class[5/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[1/13].class[6/7]: type 3 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[1/13].class[7/7]: type 3 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[2/13].class[1/1]: type 0 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[3/13].class[1/3]: type 1 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[3/13].class[2/3]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[3/13].class[3/3]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[4/13].class[1/1]: type 0 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[5/13].class[1/1]: type 0 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[6/13].class[1/1]: type 0 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[7/13].class[1/1]: type 0 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[8/13].class[1/7]: type 1 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[8/13].class[2/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[8/13].class[3/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[8/13].class[4/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[8/13].class[5/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[8/13].class[6/7]: type 3 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[8/13].class[7/7]: type 3 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[9/13].class[1/7]: type 1 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[9/13].class[2/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[9/13].class[3/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[9/13].class[4/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[9/13].class[5/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[9/13].class[6/7]: type 3 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[9/13].class[7/7]: type 3 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[10/13].class[1/1]: type 0 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[11/13].class[1/1]: type 0 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[12/13].class[1/7]: type 1 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[12/13].class[2/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[12/13].class[3/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[12/13].class[4/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[12/13].class[5/7]: type 2 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[12/13].class[6/7]: type 3 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[12/13].class[7/7]: type 3 (is XITouchClass 0)
X11: [CreateWindow]: XI: Scan Window 0x6600016, device[13/13].class[1/1]: type 0 (is XITouchClass 0)
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