It is commonly appreciated that solving search problems optimally can overrun time and memory constraints. Bounded suboptimal search algorithms trade increased solution cost for reduced solving time and memory consumption. However, even suboptimal search can overrun memory on large problems. The conventional approach to this problem is to combine a weighted admissible heuristic with an optimal linear space algorithm, resulting in algorithms such as Weighted IDA* (wIDA*). However, wIDA* does not exploit distance-to-go estimates or inadmissible heuristics, which have recently been shown to be helpful for suboptimal search. In this paper, we present a linear space analogue of Explicit Estimation Search (EES), a recent algorithm specifical...
Machine Learning (ML) has made significant progress to perform different tasks, such as image classi...
The A* algorithm is a well-known heuristic best-first search method. Several performance-accelerat...
Heuristic search algorithms (eg. A* and IDA*) with accurate lower bounds can solve impressively larg...
It is commonly appreciated that solving search problems optimally can take too long. Bounded subopti...
In bounded-suboptimal heuristic search, one attempts to find a solution that costs no more than a pr...
Planning, scheduling, and other applications of heuristic search often demand we tackle problems tha...
Suboptimal search algorithms offer shorter solving times by sacrificing guaranteed solution optimali...
Previous research into bounded suboptimal search has focused on the development of epsilon-admissibl...
Most bounded suboptimal algorithms in the search literature have been developed so as to be epsilon-...
Suboptimal search algorithms offer shorter solving times by sacrificing guaranteed solution optimali...
Identifying a small number of features that can represent the data is a known problem that comes up ...
Bounded suboptimal search algorithms attempt to find a solution quickly while guaranteeing that the ...
There are two major paradigms for linear-space heuristic search: iterative deepening (IDA*) and recu...
AbstractThe A∗ algorithm is a well-known heuristic best-first search method. Several performance-acc...
The A* algorithm is a well-known heuristic best-first search method. Several performance-accelerated...
Machine Learning (ML) has made significant progress to perform different tasks, such as image classi...
The A* algorithm is a well-known heuristic best-first search method. Several performance-accelerat...
Heuristic search algorithms (eg. A* and IDA*) with accurate lower bounds can solve impressively larg...
It is commonly appreciated that solving search problems optimally can take too long. Bounded subopti...
In bounded-suboptimal heuristic search, one attempts to find a solution that costs no more than a pr...
Planning, scheduling, and other applications of heuristic search often demand we tackle problems tha...
Suboptimal search algorithms offer shorter solving times by sacrificing guaranteed solution optimali...
Previous research into bounded suboptimal search has focused on the development of epsilon-admissibl...
Most bounded suboptimal algorithms in the search literature have been developed so as to be epsilon-...
Suboptimal search algorithms offer shorter solving times by sacrificing guaranteed solution optimali...
Identifying a small number of features that can represent the data is a known problem that comes up ...
Bounded suboptimal search algorithms attempt to find a solution quickly while guaranteeing that the ...
There are two major paradigms for linear-space heuristic search: iterative deepening (IDA*) and recu...
AbstractThe A∗ algorithm is a well-known heuristic best-first search method. Several performance-acc...
The A* algorithm is a well-known heuristic best-first search method. Several performance-accelerated...
Machine Learning (ML) has made significant progress to perform different tasks, such as image classi...
The A* algorithm is a well-known heuristic best-first search method. Several performance-accelerat...
Heuristic search algorithms (eg. A* and IDA*) with accurate lower bounds can solve impressively larg...