could you please ask a jedi knight to answer this question
You really can't use the same cork. You would have to purchase a champagne cork stopper. It's a cork stopper that has a clamp on it.
The motto of Cork Institute of Technology is 'Rísam Uile'''.
No. Titanic did not stop at Cork but she DID stop at Queenstown which is now Cobh.
half the amount
The jackets were made of solid cork, wrapped in canvas. Although the cork provided buoyancy, many people died because of this material. When jumping or being pushed into the water from over 10 feet up, the cork would catch the person under the jaw, effectively snapping the head back and breaking the neck." They were made by Fosberry London Source: http://www.titanic.com/modules/myalbum/photo.php?lid=702
The weight of water displaced by a floating cork is equal to the buoyant force acting on the cork. This relationship is described by Archimedes' principle, which states that the buoyant force on an object is equal to the weight of the fluid it displaces.
The cork will float on the surface of the water because cork is less dense than water. The cork displaces a volume of water equal to its own weight, allowing it to float. If the cork is pushed under water, it will pop back up due to its buoyant force.
Yes, a magnet can float on a cork in water because the cork provides buoyancy to keep the magnet afloat. The buoyant force of the water supports the weight of the cork and the magnet, allowing them to float together.
A cork is less dense than water, so it displaces an amount of water equal to its own weight. The upward buoyant force exerted by this displaced water is greater than the downward force due to gravity, causing the cork to rise to the surface of the water.
A cork bounces up and down in water because the cork and water have different densities, causing the cork to float. When you push the cork down, it displaces water and moves back up due to buoyancy. The cork then bounces up and down until it settles at a point where its weight is equal to the buoyant force acting on it.
The force applied by the liquid on the solid immersed in it is called bouyant force .one can experience this force by pushing a cork into a beaker of water.
sink, as the increased salt concentration will make the water more dense. This increased density will reduce the buoyant force acting on the cork, causing it to sink.
The air molecules inside the test tube have a higher mobility when heated (they move around more). The collisions between these air molecules create more pressure on the inside of the test tube (force/area, where the force is the result of the increasing collisons and the area is the internal wall of the test tube.) This may result in the pressure inside of the test tube to be greater than the outside atmospheric pressure on the cork (actually atmospheric pressure on the cork and the frictional force on the cork created by the mouth of the test tube). If the internal pressure becomes greater than the external pressure (plus frictional force) the cork will come loose of the test tube.
Water helps to create a layer of resistance inside the bottle rocket when it is pressurized. This resistance builds up pressure, which helps propel the rocket into the air when the pressure is released. Additionally, the water adds weight to the rocket, improving stability and trajectory.
It depends on how much salt is in the water. So if a cork sinks in regular water you should put a little bit more than a 1/4 cup.
A cork is less denser than water because cork is floating on water so it will have less density than water
Cork insulates, is water resistant and floats in water.