There are more chemical bonds that can be broken; these bonds hold energy and release it when they are destroyed. They also hold more heat energy at the same temperature because they are more massive (E = 0.5mv2; if more mass is present the same energy would mean it must be slower. It must have more energy if it is to maintain the same velocity).
It is actually inaccurate to speak of an object having "heat energy" since by definition heat is only energy in transit between two systems. Within a system you might be thinking of what we call "internal energy" or "thermal energy". The difference is like the difference between rain and a cloud and a lake. In each case, it is still just water, but when it is in the cloud, we call it "cloud", not rain. When it falls (i.e. when it is moving between the cloud and the lake) we call it rain. When it lands in the lake, we quit calling it rain and call it "lake".
The heat capacity or specific heat (yeah, I know, that sounds contradictory to what I wrote above, but we are stuck with the terms) of an object is a function of the composition of the object and its mass. Some substances have to absorb more energy to heat up the same amount. All else being equal however, the bigger the object, the more mass it usually has, and consequently, the more thermal energy it can hold at a given temperature.
Potential energy is not necessarily bigger than kinetic energy. It depends on the situation. For example, at the bottom of a hill on a roller coaster, kinetic energy is at maximum, and potential energy is equal to zero.
Heavier molecules have a higher kinetic energy compared to lighter molecules. The mass of a molecule is directly proportional to its kinetic energy.
Molecules are made of atoms so atoms have to be smaller.
Just think of E=mc^2
bigger molecules have more m...
They also have more bonds inside, which contain energy.
A molecule is bigger than an atom because atoms are small smaller than anything a molecule can become bigger than an atom
Energy is stored in the chemical bonds of organic molecules. The barrier of EA prevents these molecules from spontaneously breaking down and releasing that energy.
break down
The Lewis structure of a carbon atom, showing its four valence electrons.
Metabolism involves ither using energy to build organic molecules or breaking down organic molecules in which energy is stored. Organic molecules contain carbon.Therefore, an organism's metabolism is part of Earth's carbon cycle.
Bones contain hydroxyapatite, an inorganic salt.
Energy is stored in the chemical bonds of organic molecules. The barrier of EA prevents these molecules from spontaneously breaking down and releasing that energy.
molecules of ATP.
Metabolism involves ither using energy to build organic molecules or breaking down organic molecules in which energy is stored. Organic molecules contain carbon.Therefore, an organism's metabolism is part of Earth's carbon cycle.
potential energy
The excess is stored as glycogen.
break down
The Lewis structure of a carbon atom, showing its four valence electrons.
Metabolism involves ither using energy to build organic molecules or breaking down organic molecules in which energy is stored. Organic molecules contain carbon.Therefore, an organism's metabolism is part of Earth's carbon cycle.
Bones contain hydroxyapatite, an inorganic salt.
The organic molecules like glucose C6H12O6 molecule have actually energy stored in human body.The energy is converted into usable form using oxygen that you breathe in.The process is called respiration.
Carbon is stored in the lithosphere in inorganic and organic forms. Inorganic they include oil, coal, oil shale, natural gas, and limestone. Organic forms are litter, humic substances, and organic matter.
Yes, molecules have potential energy stored in their chemical bonds.