Construct a truth tabal for each of these compound proposition
Find the inverse of 35 modulo 11 by using extended Euclidean Algorithm
Use properties of Boolean algebra to simplify the following Boolean expression (showing all the steps):
(x + y′)(x′ + y′)′
Show that the hexadecimal expansion of a positive integer can be obtained from its binary expansion by grouping together blocks of four binary digits, adding initial zeros if necessary, and translating each block of four binary digits into a single hexadecimal digit.
Using a truth table, prove or disprove the following:
~[(~p∧q)↔ r]≡ ~(p∨~q)↔ ~r
Show that whether x5 + 10x3 + x + 1 is O(x4) or not?
Determine the cardinality of each of the sets, A, B, and C defined below, and prove the cardinality of any set that you claim is countably infinite.
A is the set of negative odd integers
B is the set of positive integers less than 1000
C is the set of positive rational numbers with numerator equal to 1
ALGORITHM 5 The Insertion Sort.
procedure insertion sort(a1, a2, ..., : real numbers with n > 2) for j = 2 ton i=1 while aj > a i=i+1 m = 0; for k:= 0 to j-i-1 aj-k := 0;-k-1 dim {a1, ..., An is in increasing order)
5.
b) (n5+100)(32 log n - 6) + log n (n5 + 2n4 log n)
c) (n6+1.5n)(1.1n+n5)
Determine the cardinality of each of the sets, A, B, and C defined below, and prove the cardinality of any set that you claim is countably infinite.
A is the set of negative odd integers
B is the set of positive integers less than 1000
C is the set of positive rational numbers with numerator equal to 1
Obtain the sum – of – products and product - of - sum canonical form for 𝑥1⨁(𝑥2 ⋆ 𝑥3 ′ )