A smaller cell has a higher surface area to volume ratio.
A reason for this is volume is cubic (3D) and surface area is 2D so when surface area increases a little bit, the volume increases exponentially. And when the surface area shrinks a little bit, the volume decreases exponentially.
A planet with a greater mass does not necessarily have greater surface area than one with less mass. The planet could be made of denser material and have a smaller surface area. Mass doesn't always mean volume.
No. Relative to its volume, the greater the number of sides, the smaller the volume. In the limit, a cylinder (circular prism, with an infinite number of "sides") will have the least surface area.
Reactions proceed at the surface. The smaller the particle, the greater the surface to volume ratio, the more rapid the reaction proceeds. A practical example: Powdered candy dissolves faster than a lump of candy.
When the side length of a cube is increased, the surface area increases at a different rate compared to the volume. The surface area of a cube is given by (6a^2) and the volume by (a^3), where (a) is the length of a side. As the side length increases, the surface area-to-volume ratio decreases, meaning that larger cubes have a lower ratio compared to smaller cubes. This reflects that while more surface area is created, the volume increases even more significantly.
A cube is not necessarily smaller than a prism with the same volume; rather, it is a specific type of prism. The volume of both shapes can be equal, but their surface areas can differ significantly. A cube, by virtue of its equal dimensions, generally has a smaller surface area compared to a prism with the same volume but varying dimensions. This difference means that the cube is more compact, but both shapes can occupy the same volume in space.
When a rock is broken into smaller pieces, the surface area to volume ratio increases. This is because the total surface area of the smaller fragments is greater relative to their combined volume compared to the original rock. As the pieces get smaller, more surfaces are exposed, allowing for increased interaction with environmental factors like weathering and erosion. This higher ratio can enhance processes such as chemical reactions and physical breakdown.
they have a greater surface-to-volume ratio
Density = Mass/Volume, whatever the shape. So, if the masses are the same, the density is greater when the volume id smaller. Thus the sphere, with the smaller volume has the greater density.
In their motion to the surface air bubbles are associated and the volume increase.
27 smaller cells would have a greater surface area than one large cell. This is because the total surface area of the smaller cells would be greater due to the additional surface area of the cell membranes around each individual cell.
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.
Capillaries are tiny blood vessels. They need to have a greater surface area to volume ratio because they need to diffuse oxygen quicker.
A planet with a greater mass does not necessarily have greater surface area than one with less mass. The planet could be made of denser material and have a smaller surface area. Mass doesn't always mean volume.
greater surface area to volume ratio greater the rate of dissolution it will dissolve faster if broken into smaller pieces hence smaller = faster
A housefly has a larger surface-to-volume ratio compared to an elephant. This is because smaller organisms like houseflies have relatively more surface area (such as their wings and body) compared to their volume, which allows for efficient gas exchange and heat dissipation. In contrast, an elephant's much larger volume means that its surface area does not increase at the same rate, resulting in a lower surface-to-volume ratio.
The relationship between surface area, volume, and body size in animals is that as an animal's body size increases, its volume increases faster than its surface area. This means that larger animals have a smaller surface area relative to their volume compared to smaller animals. This has implications for things like heat regulation, as larger animals may have a harder time dissipating heat due to their smaller surface area relative to their volume.
No. Relative to its volume, the greater the number of sides, the smaller the volume. In the limit, a cylinder (circular prism, with an infinite number of "sides") will have the least surface area.