Abstract: An electronic device having a sensing region and a non-sensing region includes a sensing element, a first light shielding layer and a second light shielding layer. The sensing element is disposed corresponding to the sensing region. The first light shielding layer includes at least one first opening corresponding to the sensing element. The second light shielding layer includes at least one second opening overlapped with the first opening. In a cross-section view, a boundary between the sensing region and the non-sensing region is at an outer side of an edge of a portion of the first light shielding layer, and a horizontal distance between an edge of a portion of the second light shielding layer and the sensing element is greater than or equal to a vertical distance between the portion of the second light shielding layer and the sensing element in a top-view direction of the electronic device.

Abstract: An optical sensing device is disclosed. The optical sensing device includes a sensing pixel, a driving circuit and a first light shielding layer. The sensing pixel includes a sensing circuit and a sensing element electrically connected to the sensing circuit. The driving circuit is electrically connected to the sensing circuit. The first light shielding layer includes at least one first opening corresponding to the sensing element, and the first light shielding layer is overlapped with the driving circuit in a top-view direction of the optical sensing device.

Abstract: A sensing device is provided. The sensing device includes a substrate, a circuit layer, a photosensitive element, a light-shielding layer, and a conductive layer. The circuit layer is disposed on the substrate. The photosensitive element is disposed on the substrate and is electrically connected to the circuit layer. The light-shielding layer is disposed on the photosensitive element and has an opening. The opening overlaps the photosensitive element. The conductive layer is disposed on the light-shielding layer. In addition, the conductive layer passes through the opening and is electrically connected to the photosensitive element. A method of manufacturing a sensing device is also provided.

Abstract: An optical structure is provided. The optical structure includes a first substrate, a second substrate, a sealant, a light-modulating layer and a first conductive layer. The second substrate is disposed opposite to the first substrate. The sealant is disposed between the first substrate and the second substrate. The sealant is disposed around to form a visible area. The light-modulating layer is disposed in the visible region between the first substrate and the second substrate. The first conductive layer has a plurality of strip structures. The plurality of strip structures are disposed in the visible area to form an effective area. The visible area partially overlaps the effective area.

Abstract: A heating device is provided. The heating device includes a substrate, a thin-film transistor disposed on the substrate, a heater disposed on the substrate, and a bridging component. The thin-film transistor includes a gate, a semiconductor layer, a source, and a drain. The bridging component is electrically connected to the heater and either the source or the drain. A method for fabricating the heating device is also provided.

Abstract: An optical sensing device is disclosed. The optical sensing device includes a sensing pixel, a driving circuit and a first light shielding layer. The sensing pixel includes a sensing circuit and a sensing element electrically connected to the sensing circuit. The driving circuit is electrically connected to the sensing circuit. The first light shielding layer includes at least one first opening corresponding to the sensing element, and the first light shielding layer is overlapped with the driving circuit in a top-view direction of the optical sensing device.

Abstract: A multi-CPU domain mobile electronic device, includes: a first CPU domain, comprising at least a first migration agent unit, the first migration agent unit detecting a task migration condition, determining whether to migrate a migratable task, and sending an associated migration event, and a second CPU domain, comprising at least a second migration agent unit, the second migration agent unit receiving the migratable task from the first migration agent unit.

Abstract: In one embodiment, the present invention includes a method for emitting a live range statement into a program for a memory variable to be cached during run-time that has at least one simulation state variable if the memory variable is dynamically mapped, and defining the simulation state variable at a first execution path of the program. In such manner, the program may be optimized using the live range statement and the simulation state variable. Also, a debugger may use the simulation state variables in obtaining and displaying the memory variable from a cache.

Abstract: An image processing method applied to an image display system is provided. The image processing method comprises generating a statistic data according to a transmitting time of at least one image from an image transmitting end to an image receiving end and a processing time for displaying the at least one image at the image receiving end, generating a parameter data according to a predetermined time interval and the statistic data, transmitting the parameter data from the image receiving end to the image transmitting end, and adjusting an appointed image according to the parameter data to generate an adjusted image, and transmitting the adjusted image from the image transmitting end to the image receiving end. Accordingly, images are displayed on the image display system at a constant interval.

Abstract: A multi-CPU domain mobile electronic device, includes: a first CPU domain, comprising at least a first migration agent unit, the first migration agent unit detecting a task migration condition, determining whether to migrate a migratable task, and sending an associated migration event, and a second CPU domain, comprising at least a second migration agent unit, the second migration agent unit receiving the migratable task from the first migration agent unit.

Abstract: A method includes running a debugging tool in regard to a program which is undergoing debugging. The program may support multi-threaded operation. The method further includes presenting an option to a user via the debugging tool with respect to a program instruction in a first thread of the program. The program instruction may be for putting an item of data into a queue. The method also includes, if the user exercises the option, identifying a program instruction in a second thread of the program. The second thread is different from the first thread. The identified program instruction in the second thread may be for getting the item of data from the queue. The method further includes stopping execution of the program at the identified program instruction in the second thread.

Abstract: An image processing method applied to an image display system is provided. The image processing method comprises generating a statistic data according to a transmitting time of at least one image from an image transmitting end to an image receiving end and a processing time for displaying the at least one image at the image receiving end, generating a parameter data according to a predetermined time interval and the statistic data, transmitting the parameter data from the image receiving end to the image transmitting end, and adjusting an appointed image according to the parameter data to generate an adjusted image, and transmitting the adjusted image from the image transmitting end to the image receiving end. Accordingly, images are displayed on the image display system at a constant interval.

Abstract: In one embodiment, the present invention includes a method for emitting a live range statement into a program for a memory variable to be cached during run-time that has at least one simulation state variable if the memory variable is dynamically mapped, and defining the simulation state variable at a first execution path of the program. In such manner, the program may be optimized using the live range statement and the simulation state variable. Also, a debugger may use the simulation state variables in obtaining and displaying the memory variable from a cache.

Abstract: In one embodiment, the present invention includes a method for emitting a live range statement into a program for a memory variable to be cached during run-time that has at least one simulation state variable if the memory variable is dynamically mapped, and defining the simulation state variable at a first execution path of the program. In such manner, the program may be optimized using the live range statement and the simulation state variable. Also, a debugger may use the simulation state variables in obtaining and displaying the memory variable from a cache.

Abstract: In some embodiments, a method and apparatus for power performance monitors for low-power program tuning are described. In one embodiment, the method includes the computation of power consumption levels of instructions of an application. Once consumption levels are computed, instruction sequences of the application are identified that exhibit an excess power consumption level. For the identified instruction sequences, the application program is recompiled to reduce power consumption levels of one or more of the identified instruction sequences. Other embodiments are described and claimed.

Abstract: A method includes loading initialization code into a control store in an embedded microprocessor and executing the initialization code. The method determines if the execution of the initialization code is complete and replaces the initialization code in the control store with main code.

Abstract: A method for compiling code includes generating assembly code for an instruction in the code that is to be performed by a first system. An instruction in the code that is supported by a second system is identified. A directive is generated that directs the second system to perform the instruction. Other embodiments are described and claimed.

Abstract: A method includes loading initialization code into a control store in an embedded microprocessor and executing the initialization code. The method determines if the execution of the initialization code is complete and replaces the initialization code in the control store with main code.

Abstract: In one embodiment, the present invention includes a method for emitting a live range statement into a program for a memory variable to be cached during run-time that has at least one simulation state variable if the memory variable is dynamically mapped, and defining the simulation state variable at a first execution path of the program. In such manner, the program may be optimized using the live range statement and the simulation state variable. Also, a debugger may use the simulation state variables in obtaining and displaying the memory variable from a cache.

Abstract: A method includes running a debugging tool in regard to a program which is undergoing debugging. The program may support multi-threaded operation. The method further includes presenting an option to a user via the debugging tool with respect to a program instruction in a first thread of the program. The program instruction may be for putting an item of data into a queue. The method also includes, if the user exercises the option, identifying a program instruction in a second thread of the program. The second thread is different from the first thread. The identified program instruction in the second thread may be for getting the item of data from the queue. The method further includes stopping execution of the program at the identified program instruction in the second thread.