List - I
(a) Straseen's matrix multiplication algorithm(b) Kruskal's minimum spanning tree algorithm
(c) Bioconnected components algorithm
(d) Floyd's shortest path algorithm
List - II
(p) Greedy method(q) Dynamic programming
(r) Divide and Conquer
(s) Depth first search
List - I
(a) Heap construction(b) Constructing hash table witn linear probing
(c) AVL Tree construction
(d) Digital tree construction
List - II
(p) $$\Omega \left( {n\log _{10}^n} \right)$$(q) O(n)
(r) O(n2)
(s) $$\Omega \left( {n\log _2^n} \right)$$
List - I
(a) Lexical Analysis(b) Code Optimization
(c) Code Generation
(d) Abelian Group
List - II
(p) DAG's(q) Syntax trees
(r) Push Down automata
(s) Finite automata
Match the followings:
Group-I
(a) Pointer data type(b) Activation Record
(c) Repeat -Until
(d) Coercion
Group-II
(p) Type Conversion(q) Dynamic Data Structure
(r) Recursion
(s) Nondeterministic loop
(i) How many bits are required for addressing the main memory?
(ii) How many bits are needed to represent the TAG, SET and WORD fields?
In the two bit full-adder/sub tractor unit shown in Fig., when the switch is in position $$2.$$ $$.....$$ using $$.....$$ arithmetic.

What is the modules of the counter with initial state $${Q_2}\,{Q_1}\,{Q_0} = 000$$

$${16^3} \times 9 + {16^2} \times 7 + 16 \times 5 + 3$$
The number of $$1's$$ in the unsigned binary representation of the number is _______.
$$f = ABC + \overline A \,\overline B \,\overline C .$$
$$f=AB+BC+CA$$ can be realized using only $$4:1$$ multiplexer.
The Link-load -and-go loading scheme required less storange space than the Link-and-go loading scheme.
$$\eqalign{ & \,\,\,\,\,\,\,\,\,\,\,\,\,\,\,List:\,{\rm I} \cr & \left( A \right)\,\,Criotical\,\,region \cr & \left( B \right)\,\,Wait/Signal \cr & \left( C \right)\,\,Working\,\,set \cr & \left( D \right)\,\,Deadlock \cr & \cr & \,\,\,\,\,\,\,\,\,\,\,\,\,\,\,List:\,{\rm I}{\rm I} \cr & \left( p \right)\,\,Hoare's\,\,monitor \cr & \left( q \right)\,\,Mutual\,\,exclusion \cr & \left( r \right)\,\,\Pr inciple\,\,of\,\,locality \cr & \left( s \right)\,\,Circular\,\,Wait \cr} $$
Number of tracks per surface $$=4004$$
Track storage capacity $$=130030$$ bytes
Disk speed $$=3600$$ rpm
Average seek time $$=30$$ m secs.
Estimate the average latency the disk storage capacity and the data transfer rate.
$$1, 36, 49, 65, 53, 1, 2, 3, 20, 55, 16, 65$$ and $$78$$ find the sequences of servicing using
(i) shortest-seek time first $$(SSTF)$$
(ii) elevator disk scheduling polices.
List - I
(A) Pointer data type(B) Activation record
(C) Repeat-until
(D) Coercion
List - II
(p) Type conversion(q) Dynamic data structure
(r) Recursion
(s) Nondeterministic loop
List - I
(A) Small talk(B) LISP
(C) Prolog
(D) VAL
List - II
(p) Logic programming(q) Data flow programming
(r) Functional programming
(s) Object-Oriented programming
All subjects of regular sets are regular.
A minimal $$DFA$$ that is equivalent to an $$NFDA$$ with $$n$$ modes has always 2n states
Regularity is preserved under the operation of string reversal.
A is recursive if both a and its complement are accepted by Turing Machine M accepts.
The intersection of two $$CFL's$$ is also $$CFL.$$
List - I
(A) Pointer data type(B) Activation record
(C) Repeat-until
(D) Coercion
List - II
(p) Type conversion(q) Dynamic data structure
(r) Recursion
(s) Nondeterministic loop
List - I
(A) Small talk(B) LISP
(C) Prolog
(D) VAL
List - II
(p) Logic programming(q) Data flow programming
(r) Functional programming
(s) Object-Oriented programming