In addition, mountain-based observations have the capability to observe multiple components simultaneously with a higher time-resolution than is possible by satellites, and in most cases, those measurements are continuous.
Largely because of the budget woes of the United States, even our capability to observe the world from space via satellites is slowly degrading.
In situ X-ray absorption spectroscopy is a powerful emerging technique that has the capability to observe the changes in ongoing electrochemical reactions.
We report the status of development of the CALET instrument, which has a capability to observe electrons up to 10 TeV and a proton rejection power of ∼ 106.
Furthermore, the technique provides the capability to observe the evolution of texture fibres via changes in reflection intensity during different applied strain ratios.
These challenges include observing small objects not just for statistical purposes, but also with enough frequency and accuracy to move them into satellite catalogs, to provide the capability to routinely observe and characterize smaller objects, and to develop the capability to observe the satellite positions with increased accuracy.
It has also a capability to observe rare neutrino-induced showers: if they are almost horizontal, they can be distinguished from the background produced by the muonic tails of nucleic showers.
A CR device is intended to possess the capability to observe and learn from its environment, and to dynamically and autonomously adjust transmission parameters such as the operating frequency and transmission power, in order to increase its performance on a non-interference basis.
The CALET has a capability to observe the electrons (without separation between e+ and e−) in 1 GeV–10 TeV and the gamma-rays in 20 MeV several TeV with a high-energy resolution of 2% at 100 GeV, a good angular resolution of 0.06 degree at 100 GeV, and a high proton-rejection power of nearly 106.
