Sentence examples for usage probability from inspiring English sources
The usage probability μcp(P u ) is obtained through simulations for different values of P u.
All three histograms depict the spectrum usage probability of PUs at different instances of time.
The usage probability vector U is estimated through simulation, and the process is explained and values given for networks with differing rate/power adaptivity.
Let U be the simplified priority-based link usage probabilities, where the usage probability for a link with priority θ is U θ. U = U θ ∈ [ 0, 1 ] : ∑ θ U θ ≤ 1, U θ - i > U θ, 0 ≤ i ≤ θ, ∀ θ ≥ 0 (9).
The model can then be calibrated to real-world prices by multiplying Used(p i ) and Unused(p i ) by a cost factor, C. Setting k = 1.5, to ensure truthful submission of usage probability, this gives us the final options pricing model used by R&C [1]: OptionPrice ( p i ) = C 3 p i 2 4 (3).
The Hadamard (Schur) product of the usage probability estimates U ( v k ) and the rate template C v k ) give the resultant achievable capacity for v k with full temporal reuse, so the simplification of C e gives the estimated achievable rate region for networks with spatial and temporal reuse.
The scheme proposed in [25] also uses PU stationary channel usage probabilities to rank the channels.
This simplification is made on the basis that it is the order in which links in the temporal reuse set are checked that determines the link usage probabilities.
A network-agnostic rate region can be rendered by focusing on the usage probabilities of alternative links in L n ( v k ), instead of alternative link rate vectors as in the case of Φ ( V ).
Temporal reuse-unaware C -optimised schedules with full rights extension (full temporal reuse) are analysed to estimate the usage probabilities U of links in temporal reuse sets based on their assigned priorities θ.
The average usage probabilities of 10-30 networksworks are given in Table 1 for networks operating with schedules that have no power-rate adaptivity, power adaptivity only, rate adaptivity only and both power and rate adaptivity.
