oheaveno said:thanks for replying:D but what do you mean by "didnt blow up for any portion of the em spectrum"??
oheaveno said:you know that graph of wavelength VS intensity... i understand that the higher the temperature the peak of the graph shifts towards the shorter wavelength because there is more energy (tell me if I am wrong) but why is the distribution of wavelength the way it is? why can't there be more longer wavelengths with higher intensity?
Planck's theory states that energy is not continuous, but rather exists in small, discrete packets known as quanta. This theory was developed to explain the discrepancy between classical physics and experiments on blackbody radiation, known as the ultraviolet catastrophe.
According to Planck's theory, the energy of a system can only change by discrete amounts, or quanta, rather than in a continuous manner. This explains why classical physics predicted infinite energy at high frequencies, whereas Planck's theory predicts a finite amount of energy at these frequencies.
The concept of quantised energy is crucial in understanding the UV catastrophe and has far-reaching implications in the field of quantum mechanics. It fundamentally changed our understanding of the behavior of matter and energy at the atomic and subatomic levels.
Planck's theory of quantised energy was a groundbreaking concept that challenged traditional notions of classical physics. It provided a foundation for the development of quantum mechanics, which revolutionized our understanding of the behavior of particles at the atomic and subatomic levels.
Several experiments, including the blackbody radiation experiments that led to the discovery of the UV catastrophe, have provided evidence for the existence of quantised energy. Additionally, the success of quantum mechanics in predicting and explaining various phenomena further supports the validity of Planck's theory.