first you must find the equations for the surface area and for the volume of a sphere.
I believe the volume is 4/3 *pi *r^3,
making the surface area 4*pi*r^2
the ratio is the one number over the other so:
(4*pi*r^2)/(4/3*pi*r^3) = 3/r
To find the ratio of surface area to volume for the sphere, you divide the surface area by the volume. Given that the surface area is 588 and the volume is 1372, the ratio is ( \frac{588}{1372} \approx 0.428 ). Thus, the ratio of surface area to volume for the sphere is approximately 0.428.
The ratio of surface area to volume for a sphere can be expressed using the formulas for surface area ( A = 4\pi r^2 ) and volume ( V = \frac{4}{3}\pi r^3 ). Therefore, the ratio ( \frac{A}{V} ) simplifies to ( \frac{3}{r} ). This means that the surface area to volume ratio decreases as the radius of the sphere increases. For a specific sphere with known surface area ( m ) and volume, you can calculate the ratio by finding the corresponding radius.
0.6 is the surface area to volume ratio.
To find the ratio of surface area to volume for a sphere, you can use the formulas: Surface Area (SA) = 4πr² and Volume (V) = (4/3)πr³. Given the surface area is 432 m² and the volume is 864 m³, the ratio of surface area to volume is SA/V = 432 m² / 864 m³ = 0.5 m⁻¹. Thus, the ratio of surface area to volume for the sphere is 0.5 m⁻¹.
To find the ratio of surface area to volume for the sphere, we divide the surface area by the volume. Given the surface area is 588 m² and the volume is 1372 m³, the ratio is calculated as follows: ( \frac{588 \text{ m}^2}{1372 \text{ m}^3} \approx 0.429 \text{ m}^{-1} ). Therefore, the ratio of surface area to volume for the sphere is approximately 0.429 m⁻¹.
To find the ratio of surface area to volume for the sphere, you divide the surface area by the volume. Given that the surface area is 588 and the volume is 1372, the ratio is ( \frac{588}{1372} \approx 0.428 ). Thus, the ratio of surface area to volume for the sphere is approximately 0.428.
0.6 m-1 is the ratio of surface area to volume for a sphere.
The ratio of surface area to volume for a sphere can be expressed using the formulas for surface area ( A = 4\pi r^2 ) and volume ( V = \frac{4}{3}\pi r^3 ). Therefore, the ratio ( \frac{A}{V} ) simplifies to ( \frac{3}{r} ). This means that the surface area to volume ratio decreases as the radius of the sphere increases. For a specific sphere with known surface area ( m ) and volume, you can calculate the ratio by finding the corresponding radius.
A sphere has the lowest surface area to volume ratio of all geometric shapes. This is because the sphere is able to enclose the largest volume with the smallest surface area due to its symmetrical shape.
0.6 is the surface area to volume ratio.
To find the ratio of surface area to volume for the sphere, we divide the surface area by the volume. Given the surface area is 588 m² and the volume is 1372 m³, the ratio is calculated as follows: ( \frac{588 \text{ m}^2}{1372 \text{ m}^3} \approx 0.429 \text{ m}^{-1} ). Therefore, the ratio of surface area to volume for the sphere is approximately 0.429 m⁻¹.
No. The surface to volume ratio of a sphere is always smaller than that of a cube. This is because the sphere has the smallest surface area compared to its volume, while the cube has the largest surface area compared to its volume.
If they have the same radius then it is: 3 to 2
-- The ratio of 588 to 1,372 is 0.4286 (rounded) -- A sphere with surface area of 588 has volume closer to 1,340.7 . (rounded)
1) Calculate the area 2) Calculate the volume 3) Divide the area by the volume to get the ratio
Surface area to volume ratio in nanoparticles have a significant effect on the nanoparticles properties. Firstly, nanoparticles have a relative larger surface area when compared to the same volume of the material. For example, let us consider a sphere of radius r: The surface area of the sphere will be 4πr2 The volume of the sphere = 4/3(πr3) Therefore the surface area to the volume ratio will be 4πr2/{4/3(πr3)} = 3/r It means that the surface area to volume ration increases with the decrease in radius of the sphere and vice versa.
To find the ratio of surface area to volume for a sphere, you can use the formulas for surface area ( A = 4\pi r^2 ) and volume ( V = \frac{4}{3}\pi r^3 ). The ratio ( \frac{A}{V} ) simplifies to ( \frac{3}{r} ). This means that as the radius of the sphere increases, the surface area to volume ratio decreases. If you provide specific measurements, I can give you the exact ratio.