Respuesta :
Equation b) (-3 + 5i) (1) = -3 + 5i demonstrates the multiplicative identity property
Further explanation
There are several properties in integer multiplication operations
- 1. closed property
Multiplication between integers will produce integers too
- 2. commutative property
a x b = b x a
- 3. associative property
ax (bxc) = (axb) xc
- 4. identity
ax1 = 1 x a = a
- 5. distributive property
* addition
ax (b + c) = axb + axc
* substraction
ax (b-c) = axb - axc
The Multiplicative Identity is 1
The multiplicative identity property states that any number multiplied by 1 will produce an original number.
We complete the answer choices available from the problem above:
a) (- 3 + 5i) + 0 = -3 + 5i
O is an identity in the sum operation, the statement is false
b) (-3 + 5i) (1) = -3 + 5i
1 is a Multiplicative Identity of multiplication, so the statement is true
c) (-3 + 5i) (-3 + 5i) = -16-30i
d) (-3 + 5i) (-3 + 5i) = 16 + 30i
choice c and is a multiplication factor, so the statement is false
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Keywords: Multiplicative Identity property, integers

The option B [tex]\boxed{\left( { - 3 + 5i} \right)\left( 1 \right) = - 3 + 5i}[/tex] demonstrates the multiplicative identity.
Further explanation:
The equation that satisfies the condition of multiplicative identity for the complex number can be represented as,
[tex]a \times b = a = b \times a[/tex]
Here, [tex]a[/tex] is the multiplicative identity and it can be observed that the multiplicative identity would be 1 where [tex]b[/tex] is the complex number.
The equation that satisfies the condition of additive identity for the complex number can be represented as,
[tex]a + b = a = b + a[/tex]
Here, is the additive identity and it can be observed that the additive identity would be 0 where [tex]b[/tex] is the complex number.
Step by step explanation:
We have to determine the multiplicative identity property among all the options.
Option A: [tex]\left( { - 3 + 5i} \right) + 0 = - 3 + 5i[/tex]
It can be observed that the equation [tex]\left( { - 3 + 5i} \right) + 0 = - 3 + 5i[/tex] satisfies the condition of the additive identity as 0 is the additive identity.
Therefore, the option A is not correct option.
Option B: [tex]\left( { - 3 + 5i} \right)\left( 1 \right) = - 3 + 5i[/tex]
It can be observed that the equation [tex]\left( { - 3 + 5i} \right)\left( 1 \right) = - 3 + 5i[/tex] satisfies the condition of the multiplicative identity as 1 is the multiplicative identity.
Therefore, the option B is correct option.
Option C: [tex]\left( { - 3 + 5i} \right)\left( { - 3 + 5i} \right) = - 16 - 30i[/tex]
It can be observed that the equation [tex]\left( { - 3 + 5i} \right)\left( { - 3 + 5i} \right) = - 16 - 30i[/tex] does not satisfy the condition of the multiplicative identity as well as additive identity.
Therefore, the option C is not correct option.
Option D: [tex]\left( { - 3 + 5i} \right)\left( {3 - 5i} \right) = 16 + 30i[/tex]
It can be observed that the equation [tex]\left( { - 3 + 5i} \right)\left( {3 - 5i} \right) = 16 + 30i[/tex] does not satisfy the condition of the multiplicative identity as well as additive identity.
It shows the product of one complex number with its conjugate.
Therefore, the option D is not correct option.
Result:
Therefore, there is only one option that is option B [tex]\left( { - 3 + 5i} \right)\left( 1 \right) = - 3 + 5i[/tex] demonstrates the multiplicative identity.
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Answer details:
Grade: Middle school
Subject: Mathematics
Chapter: Complex number
Keywords: Multiplication, multiplicative identity, complex number, equation, additive identity, condition, conjugate, arithmetic properties, sum, operation, real numbers.