Which is greater 2/5 or 3/10
2 answers:
To find out which fraction is the greatest - what I like to do is convert the fraction to the percentage form.
To change a fraction into the percentage form, you have to multiply the fraction by 100, which is the commonly used numerical number.
The problems for both of the fractions would look like:
2/5 × 100 and 3/10 × 100
To solve both of those, you basically just have to focus on the numerator (the top number of the fraction) and what you are multiplying it by, which in this case is by 100. We have to multiply the numerator by the whole number (100) and then find what multiplies with the denominator to get the result of the numerator.
We have our first fraction turned into the percentage form, so 2/5 = 40%.
3/10 as a percentage is 30%.
Looking at the percentages for 2/5 and 3/10, the greatest one out of the two is 2/5, which is 40%.
To change a fraction into the percentage form, you have to multiply the fraction by 100, which is the commonly used numerical number.
The problems for both of the fractions would look like:
2/5 × 100 and 3/10 × 100
To solve both of those, you basically just have to focus on the numerator (the top number of the fraction) and what you are multiplying it by, which in this case is by 100. We have to multiply the numerator by the whole number (100) and then find what multiplies with the denominator to get the result of the numerator.
We have our first fraction turned into the percentage form, so 2/5 = 40%.
3/10 as a percentage is 30%.
Looking at the percentages for 2/5 and 3/10, the greatest one out of the two is 2/5, which is 40%.
You might be interested in
Answer:
A) points at which paths intersect : (1,1,1) ; (2,4,8)
B) DNE
Step-by-step explanation:
A) To find the points in which the particle paths intersect, it is necessary to find the values of t for which the three components of both vectors are equal:
you replace t1 from the first equation in the second equation:
Then, for t2 = 0 and t2=1/2 you obtain for t1:
Hence, for t1=1 and t2=0 the paths intersect. Furthermore, for t1=2 and t2=1/2 the paths also intersect.
The points at which the paths intersect are:
B) You have the following two trajectories of two independent particles:
To find the time in which the particles collide, it is necessary that both particles are in the same position on the same time. That is, each component of the vectors must coincide:
From the first equation you have:
This values does not have a physical meaning, then, the particle do not collide
answer: DNE