x2 = 3x - 2
x2 - 3x + 2 = 0
(x-1)(x-2) = 0
x=1;x=2
There is no such thing as "solving integers". You can solve an equation, which means finding all the unknowns in that equation, but you can't solve an integer.
The statement is false.
The let statement is: let the smallest of the three integers be x.
If the lower integer is x then:- x+(x+1) = 29 so 2x+1 = 29 2x = 28 x=14 so the two integers are 14 and 15
The statement is: "Their sum is always an integer." Whether the sum is negative or positive depends on the two original integers.
Yes, it is an integer sequence.
There is no such thing as "solving integers". You can solve an equation, which means finding all the unknowns in that equation, but you can't solve an integer.
The statement is false.
The let statement is: let the smallest of the three integers be x.
If the lower integer is x then:- x+(x+1) = 29 so 2x+1 = 29 2x = 28 x=14 so the two integers are 14 and 15
Look at the places that integers have on the number line. The integer that is on the right is greater that the integer is on the left.
The statement is: "Their sum is always an integer." Whether the sum is negative or positive depends on the two original integers.
Let x represent the first integer. The second consecutive integer is then x + 1. The equation can be written as x + (x + 1) = 71.
Yes, by definition, the sum of two integers is always an integer. Likewise, the product and difference of two integers is always an integer.
Yes the sum of two integers will always be an integer.
All positive integers are all greater than negative integers.
True. The first statement is true and the second statement is false. In a disjunction, if either statement is true, the disjunction is true.