what is the freezing point of vanadium?
350793
The frezing point (also the melting point) of Vanadium is 1910 degrees C (3470 degrees F).
238204
Yes:\nIce - 0 F\nLead-621 F\nIron- 2800 F\nNickel- 2647 F\nRadium - 1292 F
620300
Anything can exist in two phases at its freezing point or its boiling point or at its sublimation point.\nWater, however, is special beacuse it can exist in not just two but in three phases. This happens at a temperature called, "Triple Point of Water". This happens when the curve denoting the solid state of water, in the PV diagram, intersects the curve denoting liquid state of water in the PV diagram.
5530
Arsenic is the metal, but at temperatures much lower than its melting point (not boiling point).  It sublimes at 614 degrees C and melts under pressure at 817 degrees C.\n\nAlthough Iodine has a metallic luster, it is not a metal.  It sublimes (evaporates) near its \nMelting Point of 114 degrees C.\n\nSee the reference below:
864297
Depression of freezing point depends upon number of particles (it is a colligative property). FeCl2 on hyrolysis produces 3 ions but KCl only 2, so FeCl2 depresses freezing point more.
374102
176°C to 178°C Atorva Ca\n   it all depends on which polymorph / Salt u r asking for
343972
NOOOOOOOOOO!!!!!!!!!!\nAbsolute zero simply means that all EXCESS energy from the system will have been removed - the system will still have ground-state energy!\nThink of the quantum harmonic oscillator, E = (n+1/2)hw/2pi\nEven if n=0 (lowest energy state for the oscillator) there is still some energy.\nIf you model the vibrations of atoms as independent harmonic oscillators, you will see that all molecular motion DOES NOT STOP at absolute zero.\n\nFurthermore, whether something is solid depends not only on the temperature, but also on the pressure.\nExperiments have shown that liquid helium stays liquid until all the way to about 0.0001 kelvin (about the lowest temperature ever reached) at atmospheric pressure, (but displays superfluidity) but that increasing the pressure will cause it to solidify at some temperature.\n\nI am sorry to get so side-tracked answering this question, but i felt that the misconceptions of the other answerers must be addressed.\nIn answer to your question, no, not everything will be solid at absolute zero.
670047
Melting point 933.47 K\n(660.32 °C, 1220.58 °F)\n\nBoiling point 2792 K\n(2519 °C, 4566 °F)
133303
well, I don't know if is true but my teacher told us that it's impossible to arrive to 0K cause that would imply that the atoms are not presenting any movement at all , because even at low temperatures there is still some vibrations in the atoms ...I think to achieve lowest temperatures is very usefull when you get into superconductivity,( some metals present no resistance to the current at low temperatures ..thus the current can flow freely through them and it creates also a Magnetic field around , wich somehow can help to attain great velocities :/ ), anyway I guess it's more usefull to get superconductivity at normal temperatures, huh?.\nI never really asked myself why is 0K impossible so I'll put your question in my watch list,I hope to read a more coherent answer than this one :P
131196
The melting point is 1068 kelvin and 795 celsius. The boiling point is 3633 kelvin and 3360 celsius.
668301
cryogenic freezing takes the object to absolute freezing (i.e. not just cold as in -20°).\n\nAbsolute freezing is -273.15°C (or 0° Kelvin)\n\nAt this temperature atoms completely stop moving and therefore stop aging. Anywhere above this temperature, then atoms still move, even if it is a slight little bit.
768228
a. V ice = pi(0.12^2-0.10^2)*3 = 0.041 m^3\nb. V ice = pi[(0.10 + x)^2 - 0.10^2]*3 = pi(0.10^2 + 0.20x + x^2 - 0.10^2)*3 = 3pi(0.20x + x^2)\ndV/dt = pi[0.60 + 6(0.02)]dx/dt = 0.000002pi\n= [0.60 + 6(0.02)]dx/dt = 0.000002\ndx/dt = 0.000002/[.60 + 6(.02)]
399313
A bi-metallic strip is used to convert a temperature change into mechanical displacement. The strip consists of two strips of different metals which expand at different rates as they are heated, usually steel and copper.\n\nThe copper melting point is (1084.62 °C, 1984.32 °F)\nSteel often melts at around 1370 degrees C (2500°F).\n\nIt doesn't have a freezing point because it's a solid.
530330
Ice melting\nWater freezing\nWater boiling\nAmmonium chloride subliming
228547
It's called freezing point depression.  \n\n"Alloying" is when one or metals are dissolved in another metal and allowed to cool below the alloy's melting point.
65681
None we know of, but keep in mind that the PRESSURE at the earth's core is greater than any pressure we have been able to reproduce, so we don't know for sure the behavior of melting points there. It may be no different. The highest known melting point is for graphite at 6,646.5 F. That's about half the estimated temperature of the core.
756030
If you mean absolute zero, a quick look in the Handbook shows tungsten with a transition temperature of .0154 degrees Kelvin.\n\nMore people care about high temperature superconductivity, since we receive the benefits with less cooling expense.  The highest I have from 1994 is 128 degrees K, Tl2Ba2Ca2Cu3O10.  Most are ceramics of tellurium and bismuth.