During each sampling instance, red stars indicate sampling sensors while black stars indicate non-sampling sensors.
The individually sampled sensor measurement is transmitted to the corresponding estimator through a digital communication channel.
Firstly, a new event-triggered communication scheme is introduced to determine whether or not the current sampled sensor data should be broadcasted and transmitted to quantizer, which can save the limited communication resource.
By communicating periodically sampled sensor and controller data only when needed to guarantee stability or performance properties, PETC is capable of reducing the number of transmissions significantly, while still retaining a satisfactory closed-loop behavior.
The key insight is the two dimensional Fourier analysis of CFA sampled sensor data, which reveals that the signal is preserved by an efficient space-color representation.
The calibration result of a representative sample sensor is presented in Figure 3. Figure 3a shows the emitting signal intensity (I), in terms of output voltage as a function of time, for a panel of oxygen/nitrogen ratios ranging from nitrogenated to fully oxygenated.
ENs with open architectures, such as the MOSES II system, can be readily modified to accommodate a wide range of samples, sensors, and methods.
As seen in Table 5, the trust-based CSS protocol F A can lose over 50% of its sensor trust (essentially removing over half its sensors) because it randomly samples sensors to make decisions, and only the sensors in the current sample are penalized if deemed inaccurate by the FC.
In summary, compared to Sample-A, Sample-B sensor exhibit lower operating temperature and better selectivity while it maintains a high response.
