Fig. 8.1 Photomicrographic cross section of human coronary PR, TCFA and FA with varying degrees of luminal stenosis. (a–c) Plaque rupture with mild, moderate and severe luminal stenosis, respectively. Non-occlusive…
Fig. 7.1 Iron overload in the myocardium decreases native T1 [30]. Native T1 maps from a patient with hemochromatosis and iron overload are shown with a remarkably low myocardial T1…
(15.1) where ϕ(z) is the excitation fluence as a function of depth (z). The emission profile was represented by a simple mono-exponential function, as the subsurface peak is not relevant…
Fig. 2.1 Mechanisms used by VSDs that can change their location in response to membrane depolarization It would be preferable to have a mechanism that produces dyes with sensitivities that…
(13.1) Equation (13.1) represents the hypothesis that the perimeter of the smallest possible reentrant circuit is which is a different version of the wavelength (λ) described above; APD $$ ” src=”/wp-content/uploads/2016/09/A320817_1_En_13_Chapter_IEq3.gif”>….
Fig. 18.1 2D AOD Scanning Microscope. (a) Angular deflection (Ө) of a collimated laser beam by a single AOD with a fixed frequency (f) acoustic wave. (b) Fast scanning microscope…
Fig. 19.1 Jablonski diagrams for 1 photon fluorescence, 2PF and SHG. GS = ground state; ES = excited state; Δt = excited state lifetime To explore the origin of SHG requires consideration of how the light…
. The polarization can then be approximated as a Taylor series, i.e. where the expansion coefficients are abbreviated as χ (n), defined as the nth-order electric susceptibilities. The higher order…
Fig. 10.1 “Blue dyes”: Thirty-fold improvement in the signal-to-noise ratio. (a) Wavelength dependency of heart-beat and respiration signals. The left panel illustrates optical reflectance signals from cat visual cortex measured…
Fig. 16.1 Comparison of optical and electrical activation times in isolated rat hearts. (a) Activation map based on time of maximal upstroke velocity (tF*) following stimulation in the center of…
