Surface area significantly affects diffusion by increasing the space available for molecules to pass through. A larger surface area allows more molecules to move across a boundary simultaneously, facilitating faster diffusion rates. This principle is evident in biological systems, where cells often have adaptations like microvilli to enhance their surface area for more efficient nutrient absorption. Conversely, a smaller surface area can limit the rate of diffusion, slowing down the movement of substances.
The higher the ratio, the faster the rate of diffusion
It would help if the question was less obscure. What do you mean by "work"? How the surface area affects chemical processes (for example the surface area of catalysts), or diffusion, or surface areas and friction?
The structures that provide a huge surface area for the diffusion of gases are the alveoli in the lungs and the thin-walled capillaries surrounding them. Alveoli are tiny air sacs that dramatically increase the surface area available for gas exchange, allowing for efficient oxygen uptake and carbon dioxide release. Additionally, the branching structure of the bronchioles and the extensive network of capillaries contribute to this large surface area, facilitating rapid diffusion.
the larger the surface area you have, to more heat that you are going to lose.
The total surface area increases.
larger the size, the smaller the surface area to volume ratio, hence the slower the rate of diffusion into the agar jelly :)
Diffusion is the movement of particles across a selectively permeable membrane, from a high concentration to a low concentration. So the larger the surface area, the quicker the rate of diffusion because there is more space to diffuse in.
Three factors that can affect the rate of diffusion are the concentration gradient (difference in concentration between two areas), the temperature (higher temperatures generally increase diffusion rates), and the surface area available for diffusion (larger surface areas allow for more molecules to diffuse at once).
According to fick's law rate of diffusion =(proportional to)= Surface area x Diffusion gradient Diffusion Pathway thickness So for a sufficient rate of diffusion, Surface area must be large The diffusion pathway is already at it's minimun of 1 cell thick and the gradient is harder to adjust. There are around 600 million alveoli in the lungs that have a cummulitive surface area of around 70m2.
The surface area to volume ratio of a cell affects the rate of diffusion in that the higher the ratio, the faster the rate of diffusion. This is a directly proportional relationship.
Three main factors that affect diffusion are temperature (higher temperature increases rate of diffusion), concentration gradient (greater difference in concentration leads to faster diffusion), and surface area (larger surface area allows for more diffusion to occur).
Factors that affect simple diffusion include concentration gradient (higher concentration difference leads to faster diffusion), temperature (higher temperatures increase diffusion rate), surface area available for diffusion (larger surface area allows for faster diffusion), and characteristics of the molecules themselves (size and solubility).
That depends upon the shape of the particles. * If they are spherical, the surface area is 4*pi*r^2, where r is the radius of the particle. * If they are cuboidal, the surface area is b*w*h, where b, w, h are the lengths of the sides
rate of diffusion depends on the concentration gradient, surface area, distance over which diffusion takes place, size and nature of the diffusing molecule.
The higher the ratio, the faster the rate of diffusion
Diffusion is a type of passive transport. The factors that influence diffusion include: concentration gradient, size of molecule involved, distance the molecule has to travel, temperature, solubility of the molecule and surface area.
Large surface area: A greater surface area allows for more molecules to come into contact with the surface, increasing the rate of diffusion. Thin membrane: A thin exchange surface reduces the distance that molecules have to travel to diffuse across the surface, speeding up the diffusion process.