The theorem to which the given two powerful laws in Boolean algebra belong to, is: Law 1:\(\overline{A + B} = \overline A \ \overline B\) Law 2:\(\overline{A B} = \overline A \ + \overline B\)
De Morgan's theorem
The question presents two fundamental laws in Boolean algebra and asks to identify the theorem to which they belong. These laws are cornerstone principles used extensively in digital electronics and logic design for simplifying Boolean expressions.
The two powerful laws provided are indeed known as De Morgan's Laws, which are part of De Morgan's Theorem. This theorem is named after the British mathematician Augustus De Morgan. It provides a way to relate conjunctions (AND operations) and disjunctions (OR operations) with negations.
The first law states that the complement (negation) of a sum (OR operation) of variables is equivalent to the product (AND operation) of the complements (negations) of those individual variables. In simpler terms, if you negate an "A OR B" statement, it's the same as having a "NOT A" AND "NOT B" statement.
The second law states that the complement (negation) of a product (AND operation) of variables is equivalent to the sum (OR operation) of the complements (negations) of those individual variables. This means that if you negate an "A AND B" statement, it's the same as having a "NOT A" OR "NOT B" statement.
These two De Morgan's Laws are vital for simplifying complex Boolean expressions, converting between different forms of logic circuits, and proving the equivalence of logical statements in digital electronics and computer science.
It's important to differentiate De Morgan's Theorem from other concepts in Boolean algebra:
Therefore, the two powerful laws concerning the negation of sums and products are definitively part of De Morgan's Theorem, a fundamental concept in Boolean algebra.
The number of distinct Boolean expressions of four variables is-
Which of the following types is best suited to represent the logical values?
In the given circuit, if the input voltage lies between +E1 and -E2, then output is zero.

Input and output characteristics are shown below.

The region between +E1 and -E2 is known as _____.
The minimum number of 2-input NAND gates required to realize the logic function $Y = AB + \bar A \bar B$ is
A*B*A, where * represents XOR, is equal to: