Leaves are broad, thin and flat to provide a large surface area, to absorb sunlight for photosynthesis. :)
It is not possible. For example, the prism could be tall and thin, or short and thick, and either way have the same surface area.
It means that someone has recorded the dimensions of a thin object with rather a large area, possibly with the aim of calculating its volume. However, it is equally possible that the dimensions are recorded to establish its surface area (for painting?).
You cannot find a unique solution because blocks of different shapes and volumes can still have the same surface area.You can find the dimensions of a cube with the given surface area; it is the largest volume of a rectangular prism for a given surface area.A cube has six equal square sides. Take the total surface area "At", divide this by 6 to get the area of one side "As":At / 6 = AsThe length Ls of one side of the cube is the square root of As .Ls = sqrt (As ) = sqrt (At / 6 )All the edges of a cube are of course the exact same length.Another solution is a very thin square prism (almost a sheet but with a finite thickness) with the top and bottom just slightly less than half the surface area; the remainder has to be spread out along the edge which can be arbitrarily narrow.Theoretically you can have a very long rectangular prism and so very large values for the length if the height and width are very small and still have the surface area set out in the problem.
The question does not specify what the required formula is for: the volume of an open cylinder, height, radius, surface area, etc. Furthermore, information on the total surface area of a cylinder will not provide sufficient information. A short wide cylinder can have the same surface area as a tall thin one. For example, radius 5 cm and height 4 cm or radius 4 cm and height 7.5 cm or radius 3 cm and height 12 cm or radius 2 cm and height 20.5 cm etc all have the same total surface area. But in each case the value of the other measure, for the open cylinder will be different.
Leaves are broad, thin and flat to provide a large surface area, to absorb sunlight for photosynthesis. :)
Gases can easily pass between air sacs and blood due to the thin barrier of the respiratory membrane. This barrier consists of a single layer of epithelial cells in the air sacs and a single layer of endothelial cells in the capillaries, allowing for efficient gas exchange through diffusion. Additionally, the large surface area of the alveoli and the high concentration gradient of gases between the air in the lungs and the blood facilitate rapid exchange.
Many alveoli-increases surface area for gas exchange Thin alveolar wall-allows gases to diffuse easily and fast Thin capillary wall-easy diffusion Inner wall of alveoli-allows gases to dissolve, which they need to enter the capillary
The alveoli, the small sacs of air at the ends of the terminal bronchioles, are the sites of the exchange between oxygen and carbon dioxide.
the thin-walled sacs in the lungs are the alveoli. they are tiny are sacks in your lungs.
the thin-walled sacs in the lungs are the alveoli. they are tiny are sacks in your lungs.
Root hair cells are long and thin to increase the surface area available for absorption of water and nutrients from the soil. This increased surface area allows for more efficient uptake of essential resources, supporting the plant's growth and development.
Large surface area Thin- Short distance for diffusion
take in water
In the lungs, oxygen diffuses from the air sacs (alveoli) into the surrounding capillaries. These capillaries are thin-walled and have a large surface area for efficient gas exchange. The oxygen then binds to hemoglobin in red blood cells, forming oxyhemoglobin, which is then carried by the bloodstream to the tissues.
thin and moist, with a large surface area and a large concentration gradient.
Trachea have cartillage rings which support it. And the Alveoli has large surface area for diffusion and its moist and thin.