Mastering questions on inequalities for the XAT exam is necessary for attempting the XAT Quantitative Aptitude section. Inequalities are an important topic that tests the candidate’s ability to understand and solve mathematical expressions. The XAT Inequalities Practice Questions with Solutions contain many problems in inequalities, along with their solutions. Regular practice will help students obtain good scores on the exam. A solid grasp of this topic and its basic concepts will be beneficial for students in the XAT exam, as inequalities are a scoring chapter among the many chapters in the Quantitative Aptitude section.
The algebra chapter covers almost 30% of the entire Quantitative Aptitude section, and inequalities form a major part of this section. Some of the topics in inequalities from which questions will be formed are linear inequalities, quadratic inequalities, combined inequalities, modulus, and counting integer solutions. Practising XAT Inequalities Practice Questions with Solutions regularly will improve your ability to understand complex mathematical problems easily. Candidates can solve at least 10 problems on inequality every week to be able to handle this area well in the XAT exam. It will help them gain speed and confidence in solving problems in the XAT’s QA sections and perform well on the test.
Consider the equation , where x is a real number.
For how many different values of x does the given equation hold?
FS food stall sells only chicken biryani. If FS fixes a selling price of Rs. 160 per plate, 300 plates of biriyani are sold. For each increase in the selling price by Rs. 10 per plate, 10 fewer plates are sold. Similarly, for each decrease in the selling price by Rs. 10 per plate, 10 more plates are sold. FS incurs a cost of Rs. 120 per plate of biriyani, and has decided that the selling price will never be less than the cost price. Moreover, due to capacity constraints, more than 400 plates cannot be produced in a day.
If the selling price on any given day is the same for all the plates and can only be a multiple of Rs. 10, then what is the maximum profit that FS can achieve in a day?
The addition of 7 distinct positive integers is 1740. What is the largest possible “greatest common divisor” of these 7 distinct positive integers?
Given . The maximum value of is:
Let x and y be two positive integers and p be a prime number. If x (x - p) - y (y + p) = 7p, what will be the minimum value of x - y?
Raju and Sarita play a number game. First, each one of them chooses a positive integer independently. Separately, they both multiply their chosen integers by 2, and then subtract 20 from their resultant numbers. Now, each of them has a new number. Then, they divide their respective new numbers by 5. Finally, they added their results and found that the sum is 16. What can be the maximum possible difference between the positive integers chosen by Raju and Sarita?
Wilma, Xavier, Yaska and Zakir are four young friends, who have a passion for integers. One day, each of them selects one integer and writes it on a wall. The writing on the wall shows that Xavier and Zakir picked positive integers, Yaska picked a negative one, while Wilma’s integer is either negative, zero or positive. If their integers are denoted by the first letters of their respective names, the following is true:
If both the sequences x, a1, a2, y and x, b1, b2, z are in A.P. and it is given that and , then which of the following values can possibly take?
Let if and 1 if x = 1, -1. Let if and 3 if x = 1.
What is the minimum possible values of ?
Find z, if it is known that:
a:
b: and
c: x, y and z are all positive integers
Consider the four variables A, B, C and D and a function Z of these variables, It is given that A, B, C and D must be non-negative integers and thatall of the following relationships must hold:
i)
ii)
iii)
If Z needs to be maximised, then what value must D take?
Consider the function f(x) = (x + 4)(x + 6)(x + 8) ⋯ (x + 98). The number of integers x for which f(x) < 0 is:
We have two unknown positive integers m and n, whose product is less than 100.
Which of the two statements above, alone or in combination shall be sufficient to determine the numbers m and n?
If and both and are negative integers, find the number of possible combinations of and .
If 5° x° 15°, then the value of sin 30° + cos x° - sin x° will be :
For two positive integers a and b, if is divisible by 500, then the least possible value of a b is:
ABCD is a quadrilateral such that AD = 9 cm, BC = 13 cm and DAB = BCD = 90°. P and Q are two points on AB and CD respectively, such that DQ : BP = 1 : 2 and DQ is an integer. How many values can DQ take, for which the maximum possible area of the quadrilateral PBQD is 150 sq.cm?
The sum of the possible values of X in the equation |X + 7| + |X - 8| = 16 is:
Consider the expression , where a,b,c,d and e are positive numbers. The minimum value of the expression is
p, q and r are three non-negative integers such that p + q + r = 10. The maximum value of pq + qr + pr + pqr is
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