Almost any sequential Prolog system is in principle easy to extend for OR-parallelism, using the Muse execution model. To reduce your programming effort we have implemented the Muse scheduler, with a clean interface to the Prolog sequential engine. This interface is implemented as a set of C macros. The sequential Prolog system to be parallelized uses some of those macros provided by the Muse scheduler and must also provide some macros for the Muse scheduler. This chapter paper contains a definition and description of the required macros, emphasizing information needed by the Prolog engine programmer
Prolog compilers have proved to be highly efficient for standard sequential architectures. The effic...
This report describes algorithms for the compiler component of the Aurora Or-Parallel Prolog system....
This report describes algorithms for the compiler component of the Aurora Or-Parallel Prolog system....
Almost any sequential Prolog system is in principle easy to extend for OR-parallelism, using the Mus...
Almost any sequential Prolog system is in principle easy to extend for OR-parallelism, using the Mu...
Muse (Multi-sequential Prolog engines) is a simple and efficient approach to Or-parallel execution o...
Muse (Multi-sequential Prolog engines) is a simple and efficient approach to Or-parallel execution o...
Muse (Multi-sequential Prolog engines) is a simple and efficient approach to Orparallel execution of...
The Muse (multiple sequential Prolog engines) approach has been used to make a simple and efficient ...
The Muse (multiple sequential Prolog engines) approach has been used to make a simple and efficient ...
Based on extending the sequential execution model of Prolog to include parallel execution, we presen...
Based on extending the sequential execution model of Prolog to include parallel execution, we presen...
This paper shows how to extend an existing Prolog system to automatically exploit OR-parallelism. Th...
This paper shows how to extend an existing Prolog system to automatically exploit OR-parallelism. Th...
This paper discusses the implementation and performance results of the Muse system on switch-based m...
Prolog compilers have proved to be highly efficient for standard sequential architectures. The effic...
This report describes algorithms for the compiler component of the Aurora Or-Parallel Prolog system....
This report describes algorithms for the compiler component of the Aurora Or-Parallel Prolog system....
Almost any sequential Prolog system is in principle easy to extend for OR-parallelism, using the Mus...
Almost any sequential Prolog system is in principle easy to extend for OR-parallelism, using the Mu...
Muse (Multi-sequential Prolog engines) is a simple and efficient approach to Or-parallel execution o...
Muse (Multi-sequential Prolog engines) is a simple and efficient approach to Or-parallel execution o...
Muse (Multi-sequential Prolog engines) is a simple and efficient approach to Orparallel execution of...
The Muse (multiple sequential Prolog engines) approach has been used to make a simple and efficient ...
The Muse (multiple sequential Prolog engines) approach has been used to make a simple and efficient ...
Based on extending the sequential execution model of Prolog to include parallel execution, we presen...
Based on extending the sequential execution model of Prolog to include parallel execution, we presen...
This paper shows how to extend an existing Prolog system to automatically exploit OR-parallelism. Th...
This paper shows how to extend an existing Prolog system to automatically exploit OR-parallelism. Th...
This paper discusses the implementation and performance results of the Muse system on switch-based m...
Prolog compilers have proved to be highly efficient for standard sequential architectures. The effic...
This report describes algorithms for the compiler component of the Aurora Or-Parallel Prolog system....
This report describes algorithms for the compiler component of the Aurora Or-Parallel Prolog system....