Armchair said:the energy-time degree of freedom continuous whilst the time bin DOF is discrete
The means by which information can be encoded when using photons to hold qubits as part of hyperentanglement schemes.PeterDonis said:What do you mean by "the energy-time degree of freedom" and "the time bin DOF"?
Armchair said:The means by which information can be encoded when using photons to hold qubits as part of hyperentanglement schemes.
Discussion and Summary Section of the following refers to both terms.PeterDonis said:Sorry, this doesn't help. Do you have a reference? (Textbook or peer-reviewed paper.)
Armchair said:JOURNAL ARTICLE
Armchair said:In the first part of the particular section I mentioned
This paper may help. Seems to be in a proper journal.Armchair said:Discussion and Summary Section of the following refers to both terms.
JOURNAL ARTICLE
Complete hyperentangled Bell state analysis for polarization and time-bin hyperentanglement
Li X, Ghose S
Optics Express, vol. 24, issue 16 (2016) p. 18388
The concept of energy-time versus time bin DOF refers to the trade-off between the precision of time measurement and the precision of energy measurement in a physical system. In other words, it is the relationship between the amount of information that can be obtained about the energy and time of a system.
Energy-time versus time bin DOF is relevant in many different fields of research, such as quantum mechanics, astronomy, and particle physics. It is particularly important in studies that involve precise measurements of energy and time, as it affects the accuracy and limitations of these measurements.
There are several factors that can influence energy-time versus time bin DOF, including the type of physical system being studied, the precision and sensitivity of the measuring instruments, and the level of noise or disturbances present in the system. These factors can impact the trade-off between energy and time measurements and may affect the overall accuracy of the results.
To optimize energy-time versus time bin DOF, researchers often use various techniques such as increasing the precision and sensitivity of their measuring instruments, minimizing noise and disturbances in the system, and using advanced data analysis methods. Additionally, understanding the specific limitations and trade-offs of the system can also help to optimize energy-time versus time bin DOF.
Energy-time versus time bin DOF has many practical applications, such as in the development of more accurate clocks, the improvement of data transmission in telecommunications, and the advancement of quantum computing. It is also used in various scientific experiments and studies to better understand the behavior of physical systems at the energy-time level.