Respuesta :
To solve this equation we
can first assume that both a and b are nonzero real numbers. Hence,
A = 1 b = 1
1. 2 (1) + 1 = 2(1)
2. 2 + 1 = 2: now this a false equation since there is not equality, the equation cannot retain the equal sign but will become 2 + 1 > 2. Leaving the relationship unequal.
However, the alternative to this problem is to be b = 0. To oversee the rule in order to solve the equation retaining it as an “equation”. Further, there is no other solution for this equation. A = 1 b = 0
1. Which becomes 2(1) + 0 = 2(1)
2. 2 + 0 = 2 :
3. 2 = 2. Here we can observe the equality.
1. 2 (1) + 1 = 2(1)
2. 2 + 1 = 2: now this a false equation since there is not equality, the equation cannot retain the equal sign but will become 2 + 1 > 2. Leaving the relationship unequal.
However, the alternative to this problem is to be b = 0. To oversee the rule in order to solve the equation retaining it as an “equation”. Further, there is no other solution for this equation. A = 1 b = 0
1. Which becomes 2(1) + 0 = 2(1)
2. 2 + 0 = 2 :
3. 2 = 2. Here we can observe the equality.
We have the following equation:
[tex] 2a+b=2a [/tex]
By solving this equation we have that:
[tex] 2a+b=2a \\ \\ \therefore (2a-2a)+b=0 \\ \\ \therefore \boxed{b=0} [/tex]
So, the only solution to this problem is [tex]b=0[/tex] for any real value of [tex]a[/tex]
Then, the conclusion is:
[tex]a \ is \ a \ nonzero \ real \ number \\ \\ b \ \mathbf{must} \ be \ zero[/tex]