Absolute zero. On the Kelvin scale of heat measurement, 0K is the point at which no more energy can be removed or −273.15°C / −459.67°F. There is not enough energy there at 0K to transfer any movement from the substance to another substance.
Yes! Absolute zero has minimal kinetic energy.
No. From what I understand, the Uncertainty Principle won't allow this - so even at absolute zero (a temperature that can't really be achieved 100%), there will still be some vibrational energy left.
We don't think you can. Here's our reasoning: -- Kinetic energy of an object is [(1/2)(mass)(speed)2]. If kinetic energy is not zero, then mass can't be zero, and speed can't be zero either. -- Momentum of the object is [(mass)(speed)]. If mass isn't zero and speed isn't zero, then momentum isn't zero.
photon
kinetic energy is zero when the body is at rest.
if a reaction is carried out at constant temperature to completion it will have a zero activation energy.
There is no "energy during momentum". A moving object has both non-zero momentum, and non-zero kinetic energy.
Absolute zero. On the Kelvin scale of heat measurement, 0K is the point at which no more energy can be removed or −273.15°C / −459.67°F. There is not enough energy there at 0K to transfer any movement from the substance to another substance.
Net Zero Energy means that a building balances its energy needs with energy produced from renewable, zero-emission sources. While Net Zero Energy buildings may seem cutting edge, they will become status quo faster than you think. GSA's Sustainable Facilities Tool goes into depth on legislation, programs, and case studies pertaining to Net Zero Energy.
Yes! Absolute zero has minimal kinetic energy.
The kinetic energy of the car becomes zero when the car halts. If it halts on top of a hill, the energy changes to potential energy.
No solution. Zero momentum (MV) means either zero mass or zero velocity. Either one results in zero kinetic energy (1/2 MV2).
That's just the way it is defined. When talking about potential energy, what matters is differences in energy levels; any energy level can be arbitrarily defined as zero. However, it makes calculations simpler if you define the potential energy at an infinite distance as zero.
No. But if the photon has a very large wavelength (and a very small frequency) its energy can be very close to zero.
energy reflects back or remains into the source.
It takes zero energy requirements