Ice melt at 0 0C to form liquid water; any link between boiling water and ice melting.
all the elements that has low boiling point than of the water.
When you drop a block of ice in boiling water, heat from the water will transfer to the ice, causing the ice to melt. The heat will continue to transfer from the water to the ice until the ice completely melts and reaches the same temperature as the water.
Yes, boiling water can melt candle wax. The heat from the boiling water will transfer to the candle wax and cause it to melt.
Heat will flow from the boiling water to the ice cube, causing the cube to melt and the water temperature to decrease. The final temperature of the system will depend on the masses and initial temperatures of the ice cube and boiling water.
Yes, ice will melt faster in boiling water compared to room temperature water because the higher temperature speeds up the rate of heat transfer to the ice, causing it to melt more quickly.
the heat capacity in the boiling water cause the ice cube to melt rapidly because heat transferres to the other object that is cold or hotter to make the temperature the same degree (212 degrees fahrenheit)
No, sodium does not melt in boiling water. Sodium has a melting point of 97.72°C, which is much lower than the boiling point of water (100°C). So if sodium were added to boiling water, it would react violently, releasing hydrogen gas and heating up the water even further.
It's hotter than boiling water. The boiling point of water is 374.15 Kelvin. So with this temperature you could melt Zinc, Selenium, Potassium, Phosphorus and Cadmium.
boiling water
When you put ice into cold water, the ice will start to melt as it absorbs heat from the water. This will cause the temperature of the water to decrease as the ice melts. Gradually, the ice will completely melt into the water, resulting in a uniform, colder liquid.
The ice takes a long time to melt even when the water at the top of the test tube is boiling because heat transfer occurs mainly from the boiling water to the ice through conduction, which is relatively slow. The boiling water's heat must first travel through the water layer above the ice before reaching the ice itself. Additionally, the large temperature difference between the boiling water and the ice means that heat transfer is not as efficient. Therefore, while the water is boiling, the ice remains relatively insulated from the heat, causing it to melt slowly.
The ice does not melt in the glass because the boiling water does not directly contact it. The temperature difference between the hot water and the ice is not significant enough to transfer heat efficiently through the glass to melt the ice.