Yes, smaller cells can transport materials and information more quickly due to their reduced volume and surface area. This allows for shorter diffusion distances and more efficient movement of molecules within the cell. Additionally, smaller cells often have a higher surface area-to-volume ratio, facilitating faster exchange of substances with their environment. However, the specific transport speed also depends on other factors such as the type of materials being transported and the mechanisms involved.
As pebbles are transported downstream by the flowing water, they collide with each other and with other debris, causing them to break into smaller fragments. This process is known as attrition and leads to the gradual decrease in pebble size as they travel downstream. Additionally, smaller pebbles are also more easily carried by the current, allowing them to be transported further downstream.
Sediments are sourced from the weathering and erosion of rocks, minerals, and organic materials on Earth's surface. These materials are transported by water, wind, or ice, and eventually settle and accumulate in layers to form sedimentary rocks.
Oxygen is transported around the body by binding to hemoglobin in red blood cells, which then circulate through the bloodstream to tissues that need oxygen. Carbon dioxide is transported mostly in the form of bicarbonate ions in the blood, with a smaller amount carried bound to hemoglobin or dissolved directly in plasma.
Starch is too big to enter cells, so it is broken down into smaller molecules like glucose outside the cell. These smaller molecules can then be transported into the cell for energy production.
Dissolved in plasma
Weathering breaks down rocks into smaller particles, which are then transported by mass movement processes like landslides, rockfalls, and soil creep. These transported materials accumulate and settle in different areas, shaping the landforms through erosion and deposition over time.
Surface area is more important to cells because it determines how fast a cell's metabolism is and whether it can survive or not. More volume means more energy to run a cells' processes and transporting. By having a smaller surface area, the materials can be transported faster so that it can quickly metabolize and continue to survive.
is it when thet get smaller
To compost leaves quickly, shred them into smaller pieces, mix them with nitrogen-rich materials like grass clippings or kitchen scraps, keep the pile moist but not soggy, and turn it regularly to aerate and speed up decomposition.
To decompose wood chips quickly, you can increase the surface area by shredding or chipping them into smaller pieces, provide adequate moisture and aeration, and add nitrogen-rich materials like manure or green waste to speed up the decomposition process.
Rocks in flowing water can be eroded and carried downstream by the current. Over time, they can become smaller and smoother as they are continually moved and rubbed against other materials in the water.
Many things can get smaller, such as physical objects that are cut or broken apart, like a piece of paper when torn. Additionally, living organisms may shrink in size due to dehydration or malnutrition. In a more abstract sense, concepts like time can feel smaller as moments pass quickly in our perception. Lastly, certain materials, like ice, can get smaller as they melt into water.
Contract, or become smaller.
As pebbles are transported downstream by the flowing water, they collide with each other and with other debris, causing them to break into smaller fragments. This process is known as attrition and leads to the gradual decrease in pebble size as they travel downstream. Additionally, smaller pebbles are also more easily carried by the current, allowing them to be transported further downstream.
Transported? Mostly in water to be separated at a lab then contained in a separate container to pressurize into a smaller container to be shipped.
They are much smaller humans and need to drink and eat more often in smaller amounts.
No, the energy transported by a wave is proportional to the square of its amplitude. This means that waves with larger amplitudes actually carry more energy compared to waves with smaller amplitudes.