Dickfore said:But, peaks are not bremsstrahlung. They are what is called characteristic lines.
ne_237 said:Ok.That's right. But is there any formula for obtain this spectra?
Dickfore said:One usually plots spectral density of the intensity vs. wavelength. However, if you try to plot it vs. frequency, you might find some interesting reslut. Make sure you use the transformation for the Jacobian as well:
[tex]
I_{\lambda}(\lambda) \, |d\lambda| = I_{\nu}(\nu) \, |d\nu|, \; \lambda = c/\nu
[/tex]
[tex]
I_{\nu}(\nu) = I_{\lambda}\left(\frac{c}{\nu}\right) \, \left|\frac{d \lambda}{d \nu}\right| = \frac{c}{\nu^{2}} \, I_{\lambda}\left(\frac{c}{\nu}\right)
[/tex]
I suggest you take several points from an experimental spectrum, change the ordinate and use the above Jacobian transformation and plot it.
Plot Bremsstrahlung Energy Spectra is a type of energy spectrum that describes the distribution of energy emitted by a charged particle as it decelerates in an electric field. This phenomenon is known as bremsstrahlung radiation and is commonly observed in high-energy particle interactions.
The formula for Plot Bremsstrahlung Energy Spectra is derived from the classical theory of radiation and the quantum theory of radiation. It takes into account the energy of the charged particle, the strength of the electric field, and the angle at which the radiation is emitted.
When plotting Bremsstrahlung Energy Spectra, it is important to use a logarithmic scale for both the x-axis (energy) and the y-axis (intensity). This will allow for a better visualization of the data and make it easier to identify any patterns or trends. It is also helpful to plot multiple spectra on the same graph to compare and contrast different scenarios.
The thickness of the target material can significantly affect the Bremsstrahlung Energy Spectra. Thicker targets will result in a broader spectrum, as more interactions between the charged particle and target material will occur. Thinner targets, on the other hand, will result in a sharper spectrum with a higher peak intensity.
Plot Bremsstrahlung Energy Spectra has many practical applications, such as in medical imaging techniques like X-ray radiography and computed tomography (CT) scans. It is also used in particle accelerators to study high-energy interactions and in nuclear power plants to monitor radioactive decay. Additionally, it is used in astronomy to study the radiation emitted by celestial bodies.