upper-thrust, hope that helps
Chloe x
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You are probably looking for the word buoyancy. That is the characteristic that enables objects to float.
Not necessarily. Objects sink or float based on their density relative to the density of the fluid they are placed in. In general, dense objects tend to sink while less dense objects tend to float, but shape, size, and other factors can also play a role.
No, light is not a force. Light is a form of electromagnetic radiation that travels in waves and does not exert a force on objects in the same way that gravity or electromagnetic forces do.
Bioluminescence is the property of light energy that helps you see objects in the night, as certain organisms are able to produce their own light. This light emission allows you to see these organisms and objects in low-light conditions.
Light does not have force in the traditional sense, as it does not exert a physical push or pull on objects. However, light can transfer energy and momentum to objects through processes like radiation pressure and the photoelectric effect. This can impact the movement of objects by causing them to accelerate or change direction when interacting with light.
Light does not have mass, so it does not exert a force by itself. However, light can carry momentum and exert a force on objects it interacts with, such as when light is reflected or absorbed by a surface. This is known as radiation pressure.
Not necessarily. Objects sink or float based on their density relative to the density of the fluid they are placed in. In general, dense objects tend to sink while less dense objects tend to float, but shape, size, and other factors can also play a role.
No, light is not a force. Light is a form of electromagnetic radiation that travels in waves and does not exert a force on objects in the same way that gravity or electromagnetic forces do.
No. Helium can lift light objects, but not living human bodies.
Bioluminescence is the property of light energy that helps you see objects in the night, as certain organisms are able to produce their own light. This light emission allows you to see these organisms and objects in low-light conditions.
Light does not have force in the traditional sense, as it does not exert a physical push or pull on objects. However, light can transfer energy and momentum to objects through processes like radiation pressure and the photoelectric effect. This can impact the movement of objects by causing them to accelerate or change direction when interacting with light.
Light does not have mass, so it does not exert a force by itself. However, light can carry momentum and exert a force on objects it interacts with, such as when light is reflected or absorbed by a surface. This is known as radiation pressure.
Given that their density is lesser than that of the density of the object they're trying to float in, yes.
When helium is added to a balloon, it decreases the overall density of the balloon compared to the surrounding air. This causes the balloon to float because the buoyant force exerted by the helium is greater than the force of gravity acting on the balloon. This buoyant force allows the balloon to rise in the air.
The gas that floats in air is called helium. It is lighter than air because it has a lower density, allowing objects filled with helium to float. This property is often used in balloons for celebrations and scientific purposes.
well you will need something that is sticky and heavy also an item is to wrap around an egg that might make it float.i say it migth float because the light objects float and the heavy one sink.so yes it will
hellium is a gas that makes light objects float e.g. balloons
The force that causes things (like the surfer and the surfboard) to float is buoyancy. The force of buoyancy can be determined by the total weight of the liquid that is displaced by the object. The more water that is displaced, the greater the force of buoyancy. Because the surfboard is large (displaces a lot of water) and is relatively light, the upward force of buoyancy from the water is greater than combined downward force from gravity of the surfer and the surfboard. Thus, the surfer and the surfboard float.