Specific heat is a property of any substance which is how much energy it can absorb per unit mass. So the more mass the more energy can be absorbed, however the specific heat is consistent throughout a substance regardless of mass or volume.
If you are asking what is the heat capacity of a material on a volume basis, that is quite different. Suppose you are limited to a certain amount of space and you could fill this space with whatever metal you wanted. (So weight is not a factor in this case). Materials like steel or iron would be ideal. Zinc, which would weigh about the same, would not be nearly as good. Beryllium would be significantly lighter than any of these and it would be better than the zinc but, not as good as the steel. To arrive at this conclusion just multiply the specific heat of the material by its density.
To determine the atomic number of the metal that transferred the most heat to the water, one would need to identify the specific metal in question. Generally, metals with high thermal conductivity, such as copper (atomic number 29) or aluminum (atomic number 13), are efficient at transferring heat. Without specific data on the experiment or the metals involved, it is impossible to definitively state which metal had the highest heat transfer capability.
Helium is a non metal element. Atomic mass of it is 4.
Calcium is a metal element. atomic number of it is 20.
Zink is a metal element. Atomic mass of it is 65.39.
The metal in group 14 with the lowest atomic mass is tin (Sn), which has an atomic mass of approximately 118.71 atomic mass units.
The relationship between metal reflectivity and its ability to efficiently reflect light is direct. Higher metal reflectivity means the metal is better at reflecting light efficiently.
To determine the atomic number of the metal that transferred the most heat to the water, one would need to identify the specific metal in question. Generally, metals with high thermal conductivity, such as copper (atomic number 29) or aluminum (atomic number 13), are efficient at transferring heat. Without specific data on the experiment or the metals involved, it is impossible to definitively state which metal had the highest heat transfer capability.
the relationship between grain size and strength can be determined by the Hall- Patch relationship of Strength of materials.
Helium is a non metal element. Atomic mass of it is 4.
Hydrogen is a non metal element. Atomic number of it is 1. It is the element with lowest atomic number.
Francium has the most larger atomic weight and also the largest atomic radius between the alkali metals.
The pattern between atomic radius and melting points in alkaline earth metals or period 2 metals is due to the relationship between the attractive forces within the atoms (which decrease with larger atomic radius) and the intermolecular forces that hold the atoms together in the solid state. As atomic radius increases, the intermolecular forces become weaker, making it easier for the metal to melt at a lower temperature.
Calcium is a metal element. atomic number of it is 20.
The atomic structure of an element, like the 3d transition metal Kr, influences its electronegativity. Electronegativity is a measure of an element's ability to attract and hold onto electrons. In the case of Kr, its 3d transition metal structure affects its electronegativity by influencing the arrangement of its electrons in the outer shell. This arrangement determines how easily Kr can attract additional electrons, impacting its electronegativity.
Zink is a metal element. Atomic mass of it is 65.39.
The metal in group 14 with the lowest atomic mass is tin (Sn), which has an atomic mass of approximately 118.71 atomic mass units.
you can survive an atomic blast if you get inside of a certain metal. someone please edit and tell what metal it is