ASVAB General Science Practice Test 300454 Results

Your Results Global Average
Questions 5 5
Correct 0 3.13
Score 0% 63%

Review

1

The universal recipient blood type can recieve any other blood type. Which blood type is the universal recipient?

45% Answer Correctly

O-negative

AB

AB-positive

O


Solution

Blood transfer is limited by the type and Rh factor of the blood. Someone who has Rh-factor negative blood cannot receive blood with a positive type but a person with Rh-factor positive type blood can receive Rh-negative blood. Type O negative blood is the universal donor because it can be given to a person with any blood type. Type AB positive is the universal recipient meaning someone with this blood type can receive any other type of blood.


2

50°F is how many °C?

72% Answer Correctly

58

122

10

-10


Solution

The formula to convert from F° to C° is:

\(C° = {5 \over 9} (F° - 32)\)

plugging in our values gives:

\(C° = {5 \over 9} (50 - 32)\)

\(C° = {5 \over 9} (18)\)

\(C° = {90 \over 9}\)

\(C° = 10\)


3

Which of the following is not a method of heat transfer?

67% Answer Correctly

conduction

convection

radiation

reflection


Solution

Heat is always transferred from warmer to cooler environments through conduction, convection, or radiation.


4

Large, puffy, mid-altitude clouds with a flat base and a rounded top describe which of the following?

74% Answer Correctly

cirrus clouds

stratus clouds

cumulus clouds

fog


Solution

Cumulus clouds are large, puffy, mid-altitude clouds with a flat base and a rounded top. These clouds grow upward and can develop into a cumulonimbus or thunderstorm cloud.


5

The formula for acceleration is which of the following?

56% Answer Correctly

\(\vec{a} = { m \over F }\)

\(\vec{a} = { \vec{F} \over m }\)

\(\vec{a} = { m \over \vec{F} }\)

\(\vec{a} = \vec{F} m\)


Solution

Newton's second law of motion leads to the formula for acceleration which is a measure of the rate of change of velocity per unit time and, if you solve for positive acceleration, reveals how much net force is needed to overcome an object's mass.  The formula for acceleration is  \(\vec{a} = { \vec{F} \over m }\) or, solving for force,  \(\vec{F} = m\vec{a}\).