The mercury lost all resistance and became a superconductor.
Some electrical conductors become superconductors when cooled to near absolute zero. This means they can conduct electricity with zero resistance, allowing for efficient electrical transmission and various technological applications.
Mercury thermometers work on the principle that mercury expands when heated and contracts when cooled. The scale on the thermometer is calibrated based on this expansion and contraction, allowing it to measure temperature accurately. When the temperature rises, the mercury expands and rises up the tube, and when the temperature falls, the mercury contracts and moves back down the tube.
That depends how cool you make the molecules. Theoretically at Absolute zero (0k) molecules are supposed to cease to vibrate. I say theoretically, because absolute Zero is unobtainable and also it doesn't take into account movement at the Quantum scale.
At absolute zero temperature (-273.15°C or 0 Kelvin), particles have minimal kinetic energy and motion. Some examples include certain scientific experiments where materials are cooled to this temperature to study their properties, and the concept is used in theories about the behavior of matter at extremely low temperatures.
The sixth state of matter is known as a Bose-Einstein condensate, where atoms are cooled to just above absolute zero and behave as a single quantum entity. The seventh state of matter is called a fermionic condensate, which consists of fermions like electrons or protons cooled to ultra-low temperatures.
Because - anything cooled to absolute zero would no longer be liquid.
it goes threw a cycle
Hans Fast has written: 'Comparison of the electrode-cooled and the completely cooled mercury lamps for Raman spectroscopy' -- subject(s): Raman effect, Spectrum analysis, Physics Theses, Mercury
Lobate scarps on Mercury's surface are believed to have formed due to global contraction of the planet's crust as it cooled and shrank over time. This process caused the crust to fracture and form thrust faults, pushing one section of the surface over another and creating the lobate scarps. The scarps serve as evidence of Mercury's tectonic evolution and shrinking as it cooled.
Absolute zero is when the atoms of all matter will stop moving. It can't be further cooled once they stop.
Some electrical conductors become superconductors when cooled to near absolute zero. This means they can conduct electricity with zero resistance, allowing for efficient electrical transmission and various technological applications.
Mercury has wrinkles on its surface due to the contraction of the planet's interior as it cooled over time. The wrinkles on Mercury's surface are called lobate scarps.
Under normal conditions, mercury is a liquid, so you can't really bend that. However if you cooled it until it solidified, I guess you could bend it.
When rubber is cooled to absolute zero, it will become extremely brittle and may fracture easily when subjected to stress. This is because rubber transitions from a flexible state to a rigid state at low temperatures, losing its ability to deform without breaking.
Yes,Mercury at 4kelvin is a super conductor it can be cooled down to that temperature.
Metals contract when they are cooled, and expand when they are heated.
Below Absolute zero or 0k. i.e. (−273.15°C or −459.67° F)