It is demonstrated that when iterative-deepening A asterisk (IDA asterisk) is applied to one type of resource allocation problem, it uses far less storage than A asterisk, but opens far more nodes and thus has unacceptable time complexity. This is shown to be due, at least in part, to the low-valued effective branching factor that is a characteristic of problems with real-valued cost functions. The semi-optimal, epsilon-admissible IDA asterisk sub epsilon search algorithm that the authors described was shown to open fewer nodes than both A asterisk and IDA asterisk with storage complexity proportional to the depth of the search tree
The complexities of various search algorithms are considered in terms of time, space, and cost of so...
In previous work, Korf showed that by introducing one problem- reduction step into a state- space se...
AbstractSearch algorithms that use space linear in the search depth are widely employed in practice ...
It is known that a best-first search algorithm like A* [5, 6] requires too much space (which often r...
The complexities of various search algorithms are considered in terms of time, space, and cost of so...
This paper describes a new admissible tree search algorithm called Iterative Threshold Search (ITS)....
This paper describes a new admissible tree search algorithm called Iterative Threshold Search (ITS)....
AbstractWe analyze the time complexity of iterative-deepening-A∗ (IDA∗). We first show how to calcul...
Iterative-deepening-A* (IDA*) is an admissible heuristic search algorithm which is optimal with resp...
This paper describes a new admissible tree search algorithm called Iterative Threshold Search (ITS)...
Since best-first search algorithms such as A* require large amounts of memory, they sometimes canno...
The Iterative Deepening A* (IDA*) (R.E. Korf, Artificial Intelligence 27 (1985)) algorithm often ree...
We tackle two long-standing problems related to re-expansions in heuristic search algorithms. For gr...
The Iterative Deepening A* (IDA*) (R.E. Korf, Artificial Intelligence 27 (1985)) algorithm often ree...
AbstractWe analyze the time complexity of iterative-deepening-A∗ (IDA∗). We first show how to calcul...
The complexities of various search algorithms are considered in terms of time, space, and cost of so...
In previous work, Korf showed that by introducing one problem- reduction step into a state- space se...
AbstractSearch algorithms that use space linear in the search depth are widely employed in practice ...
It is known that a best-first search algorithm like A* [5, 6] requires too much space (which often r...
The complexities of various search algorithms are considered in terms of time, space, and cost of so...
This paper describes a new admissible tree search algorithm called Iterative Threshold Search (ITS)....
This paper describes a new admissible tree search algorithm called Iterative Threshold Search (ITS)....
AbstractWe analyze the time complexity of iterative-deepening-A∗ (IDA∗). We first show how to calcul...
Iterative-deepening-A* (IDA*) is an admissible heuristic search algorithm which is optimal with resp...
This paper describes a new admissible tree search algorithm called Iterative Threshold Search (ITS)...
Since best-first search algorithms such as A* require large amounts of memory, they sometimes canno...
The Iterative Deepening A* (IDA*) (R.E. Korf, Artificial Intelligence 27 (1985)) algorithm often ree...
We tackle two long-standing problems related to re-expansions in heuristic search algorithms. For gr...
The Iterative Deepening A* (IDA*) (R.E. Korf, Artificial Intelligence 27 (1985)) algorithm often ree...
AbstractWe analyze the time complexity of iterative-deepening-A∗ (IDA∗). We first show how to calcul...
The complexities of various search algorithms are considered in terms of time, space, and cost of so...
In previous work, Korf showed that by introducing one problem- reduction step into a state- space se...
AbstractSearch algorithms that use space linear in the search depth are widely employed in practice ...