The answer is any body with one dimension much smaller than the rest.
eg a very thin plate with t,w,L as dimensions representing thickness width and
length respectively.
if t<<w,L than
surface area = 2*w*L (approx.)
Volume= t*w*L
hence S/V ratio =2/t (approx)
now since "t" is very small we have a large S/V raio...
Lack of given information to answer the question.
The surface-area-to-volume ratio also called the surface-to-volume ratio and variously denoted sa/volor SA:V, is the amount of surface area per unit volume of an object or collection of objects. The surface-area-to-volume ratio is measured in units of inverse distance. A cube with sides of length a will have a surface area of 6a2 and a volume of a3. The surface to volume ratio for a cube is thus shown as .For a given shape, SA:V is inversely proportional to size. A cube 2 m on a side has a ratio of 3 m−1, half that of a cube 1 m on a side. On the converse, preserving SA:V as size increases requires changing to a less compact shape.
It should be relatively easy to find the surface area of a box when you are given the surface area.
A circle is the set of all points in a plane at a given distance FROM a given point, which is known as the circle's center.
The geometric mean of n numbers (t{1}, t{2}, ..., t{n}) is given by (Π t{n})^(1/n) → geometric mean of 8.5 and 12.4 = (8.5 × 12.4)^(1/2) = 10.26645... ≈ 10.266
A sphere
A sphere
increase surface area for a given volume
make it spherical
Given a sphere of radius r, Surface area = 4{pi}r2 Volume = (4/3){pi}r3
By dividing its cross-section area into its volume
The spherical shape is the smallest surface area for a given volume. This comes about naturally when a surface under pure surface tension contains a fluid volume.
Given the surface area, where S=surface area, the formula for finding the volume isV = √(S / 4pi)
That's volume. Area is the measurement of a given surface.
Spheres are important because they are geometric shapes that have the same radius from their center to all points on their surface, making them useful in various fields such as geometry, physics, and engineering. They have unique properties that allow for efficient packing of space, uniform distribution of stresses, and minimal surface area for a given volume, making them ideal for applications such as planetary bodies, bubbles, and particles in suspension.
the sphere has the smallest surface area for any given volume.
They are characteristics of geometric shapes. However, there is no simple relationship. A rectangle with a given perimeter can have a whole range of areas.