

McqMate
These multiple-choice questions (MCQs) are designed to enhance your knowledge and understanding in the following areas: Computer Science Engineering (CSE) .
51. |
Which of the following is an extension of the semantic network? |
A. | expert systems |
B. | rule based expert systems |
C. | decision tree based networks |
D. | partitioned networks |
Answer» D. partitioned networks |
52. |
Is the below statement true for the domain of positive integers ∀p ∃q ( p + q = 7) |
A. | yes |
B. | no |
Answer» A. yes |
53. |
Which of the following is a sound rule of inference? |
A. | q ∧ (p → q) → p |
B. | p → (p ∨ q) |
C. | q ∨ (p → q) → p |
D. | all of above |
Answer» B. p → (p ∨ q) |
54. |
∀x ∃ y P(x,y) ≡ ∃ y ∀ x P(x,y) |
A. | yes |
B. | no |
Answer» B. no |
55. |
Is ∀z S(x,y) a well-formed formula? |
A. | yes |
B. | no |
Answer» A. yes |
56. |
The statement comprising the limitations of FOL is/are ____________ |
A. | expressiveness |
B. | formalizing natural languages |
C. | many-sorted logic |
D. | all of the mentioned |
Answer» D. all of the mentioned |
57. |
what is the issue of Forward State Space Planning? |
A. | low banching factor. |
B. | large branching factor. |
C. | work in forward fashion |
D. | work in backward fashion |
Answer» B. large branching factor. |
58. |
Goal Stack Planning breaks up a ______________________________ |
A. | initial state |
B. | stack in different part |
C. | set of goal predicates into individual subgoals |
D. | all of the above |
Answer» C. set of goal predicates into individual subgoals |
59. |
What is true about Linear Planning? |
A. | it refers to the fact that the subgoals are attempted and solved in a linear order. |
B. | attempts to solve subgoals individually one after another. |
C. | attempts to solve subgoal individually in non linear fashion |
D. | both a & b |
Answer» D. both a & b |
60. |
Agent interacts with the world via _______________ and ______________ |
A. | decision , effect |
B. | perception, decision |
C. | perception, action |
D. | perception, effect |
Answer» C. perception, action |
61. |
The start node for search in plan space planning is_______________ |
A. | bfs |
B. | dfs |
C. | both dfs and bfs |
D. | a* |
Answer» C. both dfs and bfs |
62. |
In which chaining, the Left-Hand side is used to match the rules and Right-Hand side is used to check the effect of using the rule. |
A. | forward chaining |
B. | backward chaining |
C. | reverse chaining |
D. | both b & c |
Answer» A. forward chaining |
63. |
The components of Expert system are? |
A. | a set of rules, the inference engine (ie), forward chaining |
B. | a set of rules, backward chaining, a working memory (wm) |
C. | a set of rules, the inference engine (ie), a working memory (wm) |
D. | a set of rules, forward chaining, backward chaining |
Answer» C. a set of rules, the inference engine (ie), a working memory (wm) |
64. |
What is true about Artificial Intelligence? |
A. | the ability to solve problems. |
B. | the ability to act rationally. |
C. | the ability to act like humans |
D. | all of the above |
Answer» D. all of the above |
65. |
Which of the following are Informed search algorithms? |
A. | best first search |
B. | a* search |
C. | iterative deeping search |
D. | both a & b |
Answer» D. both a & b |
66. |
If there is a solution, breadth first search is _______________to find it |
A. | difficult |
B. | guaranteed |
C. | not able to find |
D. | none of the above |
Answer» B. guaranteed |
67. |
Which search strategy is combining the benefits of both BFS and DFS? |
A. | depth limited search |
B. | a* |
C. | iterative deepening depth first search |
D. | best first search |
Answer» C. iterative deepening depth first search |
68. |
Admissibility of the heuristic function is given as: |
A. | h(n)>= h*(n) |
B. | h(n)< h*(n) |
C. | h(n)== h*(n) |
D. | h(n)<= h*(n) |
Answer» D. h(n)<= h*(n) |
69. |
The efficiency of A* algorithm depends on __________________________ |
A. | depth |
B. | the quality of heuristic |
C. | unknown nodes |
D. | d. none of the above |
Answer» B. the quality of heuristic |
70. |
What is the termination criteria in Hill climbing? |
A. | when no successor of the node has better heuristic value. |
B. | when successor of the node has better heuristic value. |
C. | when no ancestor of the node has better heuristic value. |
D. | when ancestor of the node has better heuristic value. |
Answer» A. when no successor of the node has better heuristic value. |
71. |
What is true about variable neighborhood function? |
A. | neighbourhood functions that are sparse lead to quicker movement during search |
B. | algorithm has to inspect very fewer neighbours |
C. | vdn stars searching with sparse neighbourhood functions, when it reaches an optimum, it switches to denser function. |
D. | all of the above |
Answer» D. all of the above |
72. |
_______________________requires Linear Space but uses backtracking |
A. | breadth first search |
B. | recursive best first search (rbfs) |
C. | a* |
D. | ida* |
Answer» B. recursive best first search (rbfs) |
73. |
Which property asks that the algorithm is locally admissible? |
A. | admissibility |
B. | monotonicity |
C. | informedness |
D. | none of the above |
Answer» B. monotonicity |
74. |
A* Search Algorithm _______________ |
A. | does not expand the node which have the lowest value of f(n), |
B. | finds the shortest path through the search space using the heuristic function i.e f(n)=g(n) + h(n) |
C. | terminates when the goal node is not found. |
D. | all of the above |
Answer» B. finds the shortest path through the search space using the heuristic function i.e f(n)=g(n) + h(n) |
75. |
Which is not problem in Hill climing? |
A. | plateau |
B. | ridges |
C. | local maximum |
D. | landscape |
Answer» D. landscape |
76. |
Tabu search is designed __________________________ |
A. | as it does not follow aspiration criteria |
B. | to escape the trap of local optimality. |
C. | to unrecord forbidden moves, which are referred to as tabu moves . |
D. | all of the above |
Answer» B. to escape the trap of local optimality. |
77. |
Production/Rule looks like________________ |
A. | pattern-->data |
B. | action-->data |
C. | pattern-->action |
D. | none of the above |
Answer» C. pattern-->action |
78. |
How can we convert AO graph with mixed nodes into graph with pure AND and OR nodes? |
A. | by traversing multiple node |
B. | by deleting one of the node |
C. | by addition of extra node |
D. | none of the above |
Answer» C. by addition of extra node |
79. |
Arc consistency in AO graph is concernd with ____________________________________ |
A. | nodes |
B. | finding consistent values for pairs of variables. |
C. | unary constraint |
D. | all of the above |
Answer» B. finding consistent values for pairs of variables. |
80. |
A planning problem P in BSSP is defined as a _____________ |
A. | triple (s, g, o) |
B. | triple (s1, s2, o) |
C. | triple (g1, g, o) |
D. | none of the above |
Answer» A. triple (s, g, o) |
81. |
Plan representation in Plan Space Planning is done with__ -----------links |
A. | binding links |
B. | ordering links and casual link |
C. | contigent link |
D. | head step |
Answer» B. ordering links and casual link |
82. |
What is true aboout Iterative Deepening DFS? |
A. | it does not perform dfs in a bfs fashion. |
B. | it is the preferred informed search method |
C. | it’s a depth first search, but it does it one level at a time, gradually increasing the limit, until a goal is found. |
D. | is a depth-first search with a fixed depth limit l |
Answer» C. it’s a depth first search, but it does it one level at a time, gradually increasing the limit, until a goal is found. |
83. |
What is the main advantage of backward state-space search? |
A. | cost |
B. | actions |
C. | relevant actions |
D. | all of the mentioned |
Answer» C. relevant actions |
84. |
Backward State Space Planning (BSSP)_______________________________ |
A. | simply explores the set of all future states in possible order |
B. | start searching backwards from the goal |
C. | leads to huge search space |
D. | has no sense of direction |
Answer» B. start searching backwards from the goal |
85. |
In Backward State Space Planning ,regress(A,G) that returns ______________________________ |
A. | the regressed goal over action a when applied to goal g. |
B. | the goal state over action a when applied to goal g. |
C. | the initial state over action a when applied to goal g. |
D. | both a & b |
Answer» A. the regressed goal over action a when applied to goal g. |
86. |
What is true about Backward State Space Planning? |
A. | goal states are often incompletely specified. |
B. | expresses only what is desired in the final state, rather than a complete description of the final state. |
C. | it uses regression |
D. | all of the above |
Answer» D. all of the above |
87. |
effects⁺ (a) in Forward State Space Planning denotes ___________________ |
A. | denotes the set of negative effects of action a |
B. | denotes the set of neutral effects of action a |
C. | denotes the set of positive effects of action a |
D. | none of the above |
Answer» C. denotes the set of positive effects of action a |
88. |
In Forward State Space Planning , Progress ( A, S) function returns ___________________ |
A. | the successor state s when action a is applied to state s. |
B. | the predecessor state s when action a is applied to state s. |
C. | both a & b |
D. | none of the above |
Answer» A. the successor state s when action a is applied to state s. |
89. |
What are the drawbacks of Forward State Space Planning? |
A. | fssp has very huge search space |
B. | it includes the actions that have nothing go do with achieving the goal |
C. | regression is used in forward state space planning |
D. | both a & b |
Answer» D. both a & b |
90. |
What arcs represents in AO Graph? |
A. | subproblem to be solved individually |
B. | solution |
C. | path |
D. | sequence of actions |
Answer» A. subproblem to be solved individually |
91. |
Which are the first AI applications of AO graph? |
A. | saint |
B. | xcon |
C. | dendral |
D. | both a and c |
Answer» D. both a and c |
92. |
What is Hyper-Edge in AO Graph? |
A. | many edges together can be hyber edge |
B. | those are and edges only |
C. | both 1 and 2 |
D. | none of the above |
Answer» C. both 1 and 2 |
93. |
What cost is assumed for arc while solving AO* progress example? |
A. | 0 |
B. | 1 |
C. | 2 |
D. | 3 |
Answer» B. 1 |
94. |
What is the heuristic cost of SOLVED nodes in AO* example? |
A. | 0 |
B. | 1 |
C. | 2 |
D. | 3 |
Answer» A. 0 |
95. |
What is used to lable primitive problems in AO problem? |
A. | unvisited |
B. | unsolved |
C. | solved |
D. | visited |
Answer» C. solved |
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