Carbonate in powder form would react faster than in lump form because the powder has a larger surface area, allowing for more interactions with the reacting substances. This increased surface area facilitates quicker reactions by providing more opportunities for collision between molecules and speeding up the reaction process.
Small pieces of coal burn more quickly than lumps of coal because of their increased surface area to volume ratio. This allows for more efficient combustion and faster release of energy.
Fine powders have a larger surface area compared to larger particles, allowing for more contact with the acid molecules, leading to a faster reaction rate. The increased surface area results in more collisions between the powder and the acid, promoting faster mixing and reaction.
Powder has a larger surface area than ribbon. Now do the rest of your homework yourself!
Magnesium powder has a larger surface area, allowing for more contact between the magnesium and the hydrochloric acid, leading to a faster reaction. The increased surface area of the powder results in more collisions between magnesium particles and acid molecules, increasing the rate of reaction.
Carbonate in powder form would react faster than in lump form because the powder has a larger surface area, allowing for more interactions with the reacting substances. This increased surface area facilitates quicker reactions by providing more opportunities for collision between molecules and speeding up the reaction process.
Carbonates would generally react faster as powder compared to lumps due to the increased surface area available for the reaction to occur. More surface area allows for more contact between the reactants and speeds up the reaction process.
Powdered substances have a higher surface area compared to lumps, which allows for faster and more even reactions. The increased surface area facilitates greater contact between the reactants, leading to a more efficient reaction process. Additionally, powdered substances tend to have better solubility and dispersibility in reaction mixtures.
Each speck of the powder has a smaller surface area than the lump of solid, however the total surface area of the powder specks will be greater than that of the solid lump
Small pieces of coal burn more quickly than lumps of coal because of their increased surface area to volume ratio. This allows for more efficient combustion and faster release of energy.
Fine powders have a larger surface area compared to larger particles, allowing for more contact with the acid molecules, leading to a faster reaction rate. The increased surface area results in more collisions between the powder and the acid, promoting faster mixing and reaction.
Powder has a larger surface area than ribbon. Now do the rest of your homework yourself!
Magnesium powder has a larger surface area, allowing for more contact between the magnesium and the hydrochloric acid, leading to a faster reaction. The increased surface area of the powder results in more collisions between magnesium particles and acid molecules, increasing the rate of reaction.
A substance in powder form has a larger surface area, allowing for faster dissolution as more particles are in contact with the solvent. Additionally, smaller particles in powder form have weaker intermolecular forces, making it easier for the solvent molecules to break them apart and dissolve them. This results in a quicker and more efficient dissolution process compared to larger solid pieces.
Lumps of sugar have a smaller surface area exposed to the solvent compared to grains of sugar, so there is less area for the solvent to act upon, resulting in a slower dissolution rate. The larger size of the lumps also means that they require more time for the solvent to penetrate and dissolve the sugar inside.
A soccer ball has a larger radius than a baseball, so it has more surface area.
As a cell grows larger, its volume increases faster than its surface area, leading to a decrease in the surface area-to-volume ratio. This can limit the cell's ability to efficiently exchange materials with its environment, affecting its overall functioning.