Abstract: Apparatuses, systems, and techniques to control operation of a memory cache. In at least one embodiment, cache guidance is specified within application source code by associating guidance with declaration of a memory block, and then applying specified guidance to source code statements that access said memory block.

Abstract: Apparatuses, systems, and techniques to execute programs in a single hardware context on a graphics processing unit (GPU). In at least one embodiment, resource management patches expressed in library or executable code are applied to one or more kernels to ensure execution in a shared context on a GPU.

Abstract: The present invention relates to methods for the conversion of the substrate specificity of desaturases. Specifically, the present invention pertains to a method for the conversion of the substrate specificity of a ?5 and/or ?6 desaturase to the substrate specificity of a ?4 desaturase, the method comprising: identifying regions and/or amino acid residues which control the substrate specificity of (i) the ?5 and/or ?6 desaturase and (ii) the ?4 desaturase; and replacing in the amino acid sequence of the mentioned ?5 and/or ?6 desaturase, the regions and/or amino acid residues which control the substrate specificity of the ?5 and/or ?6 desaturase, by the corresponding regions and/or amino acid residues which control the substrate specificity of the ?4 desaturase, thereby converting the substrate specificity of the ?5 and/or ?6 desaturase to the substrate specificity of the ?4 desaturase.

Abstract: The present invention relates to methods for the conversion of the substrate specificity of desaturases. Specifically, the present invention pertains to a method for the conversion of the substrate specificity of a ?5 and/or ?6 desaturase to the substrate specificity of a ?4 desaturase, the method comprising: identifying regions and/or amino acid residues which control the substrate specificity of (i) the ?5 and/or ?6 desaturase and (ii) the ?4 desaturase; and replacing in the amino acid sequence of the mentioned ?5 and/or ?6 desaturase, the regions and/or amino acid residues which control the substrate specificity of the ?5 and/or ?6 desaturase, by the corresponding regions and/or amino acid residues which control the substrate specificity of the ?4 desaturase, thereby converting the substrate specificity of the ?5 and/or ?6 desaturase to the substrate specificity of the ?4 desaturase.

Abstract: The present invention relates to methods for the conversion of the substrate specificity of desaturases. Specifically, the present invention pertains to a method for the conversion of the substrate specificity of a ?5 and/or ?6 desaturase to the substrate specificity of a ?4 desaturase, the method comprising: identifying regions and/or amino acid residues which control the substrate specificity of (i) the ?5 and/or ?6 desaturase and (ii) the ?4 desaturase; and replacing in the amino acid sequence of the mentioned ?5 and/or ?6 desaturase, the regions and/or amino acid residues which control the substrate specificity of the ?5 and/or ?6 desaturase, by the corresponding regions and/or amino acid residues which control the substrate specificity of the ?4 desaturase, thereby converting the substrate specificity of the ?5 and/or ?6 desaturase to the substrate specificity of the ?4 desaturase.

Abstract: One embodiment relates to a method of treating cancer by administering a compound of Formula I to a patient.

Abstract: A method of setting hot key includes: triggering an RBSU setting procedure in a system code interface of a BIOS of the computing apparatus, executing the RBSU setting procedure to enter an RBSU setting interface, registering a captured hot key in the RBSU setting interface and establishing a screen image procedure code with respect to the captured hot key. A method of capturing a screen image for applying the foregoing method in a RBSU executing interface includes: triggering an RBSU executing procedure under the system code interface, executing the RBSU executing procedure to enter the RBSU executing interface, determining if the captured hot key is triggered in the RBSU executing interface, executing the screen image procedure code to capture a screen image of the RBSU executing interface if positive, and storing the screen image into a storage apparatus electrically coupled with the computing apparatus.

Abstract: The present invention relates to methods for the conversion of the substrate specificity of desaturases. Specifically, the present invention pertains to a method for the conversion of the substrate specificity of a ?5 and/or ?6 desaturase to the substrate specificity of a ?4 desaturase, the method comprising: identifying regions and/or amino acid residues which control the substrate specificity of (i) the ?5 and/or ?6 desaturase and (ii) the ?4 desaturase; and replacing in the amino acid sequence of the mentioned ?5 and/or ?6 desaturase, the regions and/or amino acid residues which control the substrate specificity of the ?5 and/or ?6 desaturase, by the corresponding regions and/or amino acid residues which control the substrate specificity of the ?4 desaturase, thereby converting the substrate specificity of the ?5 and/or ?6 desaturase to the substrate specificity of the ?4 desaturase.

Abstract: One embodiment sets forth a technique for dynamically allocating memory during multi-threaded program execution for a coprocessor that does not support dynamic memory allocation, memory paging, or memory swapping. The coprocessor allocates an amount of memory to a program as a put buffer before execution of the program begins. If, during execution of the program by the coprocessor, a request presented by a thread to store data in the put buffer cannot be satisfied because the put buffer is full, the thread notifies a worker thread. The worker thread processes a notification generated by the thread by dynamically allocating a swap buffer within a memory that cannot be accessed by the coprocessor. The worker thread then pages the put buffer into the swap buffer during execution of the program to empty the put buffer, thereby enabling threads executing on the coprocessor to dynamically receive memory allocations during execution of the program.

Abstract: One embodiment sets forth a technique for dynamically allocating memory during multi-threaded program execution for a coprocessor that does not support dynamic memory allocation, memory paging, or memory swapping. The coprocessor allocates an amount of memory to a program as a put buffer before execution of the program begins. If, during execution of the program by the coprocessor, a request presented by a thread to store data in the put buffer cannot be satisfied because the put buffer is full, the thread notifies a worker thread. The worker thread processes a notification generated by the thread by dynamically allocating a swap buffer within a memory that cannot be accessed by the coprocessor. The worker thread then pages the put buffer into the swap buffer during execution of the program to empty the put buffer, thereby enabling threads executing on the coprocessor to dynamically receive memory allocations during execution of the program.

Abstract: The present invention relates to an apparatus for plasma-processing of flexible printed circuit boards (FPCBs). The apparatus includes a plasma-discharging chamber, two electrodes arranged in the chamber for generating plasma in the chamber, a frame, and two elongated holding arms disposed on the frame. The frame includes a number of spaced parallel first bars and a number of spaced parallel second bars. The first bars intersecting with the second bars. The elongated holding arms are substantially parallel with each other. Each of the arms has an inner sidewall. The inner sidewalls of the elongated holding arms are opposite to each other. An elongated recess is defined in each of the inner sidewalls proximate to the frame. The apparatus can ensure uniform plasma-processing and protect FPCBs from being burned.