Abstract: According to some embodiments, systems and methods are provided to link a first entry point of a first kernel to a dummy entry, link a second entry point of a second kernel to the dummy entry, and compile the first kernel and the second kernel.

Abstract: A computer system is provided for compiling program code and a method for compiling program code by a processor. The method, for example, includes, but is not limited to, receiving, by the processor, the program code and compiling, by the processor, the program code, wherein the processor, when compiling the program code, parses the program code and assigns a default address space qualifier to each member functions without a defined address space qualifier and, when the member function is used, infers an address space for each default address qualifier based upon how the respective member function is being used.

Abstract: A method and apparatus for dynamic binary translator to support precise exceptions with minimal optimization constraints. In one embodiment, the method includes the translation of a source binary application generated for a source instruction set architecture (ISA) into a sequential, intermediate representation (IR) of the source binary application. In one embodiment, the sequential IR is modified to incorporate exception recovery information for each of the exception instructions identified from the source binary application to enable a dynamic binary translator (DBT) to represent exception recovery values as regular values used by IR instructions. In one embodiment, the sequential IR may be optimized with a constraint on movement of an exception instruction downward past an irreversible instruction to form a non-sequential IR. In one embodiment, the non-sequential IR is optimized to form a translated binary application for a target ISA. Other embodiments are described and claimed.

Abstract: A first potential hot trace of a program is determined. A second potential hot trace of the program is determined. A common path from the first potential hot trace and the second potential hot trace is selected as the selected hot trace of the program.

Abstract: A method of compressing instructions in a program may include extracting unique bit patterns from the instructions in the program and constructing a linear programming formulation or an integer programming formulation from the unique bit patterns, the instructions, and/or the size of a memory storage. The linear programming formulation or the integer programming formulation may be solved to produce a solution. The method may include compressing at least some of the instructions based on the solution by storing at least some of the unique bit patterns in a memory and placing corresponding indices to the memory in new compressed instructions.

Abstract: A method of compressing instructions in a program may include extracting unique bit patterns from the instructions in the program and constructing a linear programming formulation or an integer programming formulation from the unique bit patterns, the instructions, and/or the size of a memory storage. The linear programming formulation or the integer programming formulation may be solved to produce a solution. The method may include compressing at least some of the instructions based on the solution by storing at least some of the unique bit patterns in a memory and placing corresponding indices to the memory in new compressed instructions.

Abstract: In some embodiments, a data structure may be received in a first processing system. The data structure may represent a plurality of instructions for a second processing system. For at least one instruction of the plurality of instructions, a determination may be made as to whether the instruction can be replaced by a compact instruction for the second processing system. A compact instruction may be generated if the instruction can be replaced by a compact instruction. In some embodiments, an instruction may be received in a processing system. A determination may be made as to whether the instruction is a compact instruction. A decompacted instruction may be generated if the instruction is a compact instruction.

Abstract: According to some embodiments, systems and methods are provided to link a first entry point of a first kernel to a dummy entry, link a second entry point of a second kernel to the dummy entry, and compile the first kernel and the second kernel.

Abstract: A first potential hot trace of a program is determined. A second potential hot trace of the program is determined. A common path from the first potential hot trace and the second potential hot trace is selected as the selected hot trace of the program.

Abstract: A method and apparatus for dynamic binary translator to support precise exceptions with minimal optimization constraints. In one embodiment, the method includes the translation of a source binary application generated for a source instruction set architecture (ISA) into a sequential, intermediate representation (IR) of the source binary application. In one embodiment, the sequential IR is modified to incorporate exception recovery information for each of the exception instructions identified from the source binary application to enable a dynamic binary translator (DBT) to represent exception recovery values as regular values used by IR instructions. In one embodiment, the sequential IR may be optimized with a constraint on movement of an exception instruction downward past an irreversible instruction to form a non-sequential IR. In one embodiment, the non-sequential IR is optimized to form a translated binary application for a target ISA. Other embodiments are described and claimed.