FIG. 10.3 Activity theory diagram for the Real-time Physics lab environment. More about this image found in Activity theory diagram for the Real-time Physics lab environment.

FIG. 17.2 The distribution over time of PTEL publication studied in this chapter. More about this image found in The distribution over time of PTEL publication studied in this chapter.

FIG. 8.8 Point where the time independence test was performed. More about this image found in Point where the time independence test was performed.

FIG. 8.10 Time independence test. More about this image found in Time independence test.

FIG. 10.10 Real-time prediction of (a) capacity fade, (b) RUL, and (c) voltage-SoC dynamics for 30th operating cycle using the developed slow-OASIS and fast-OASIS models. More about this image found in Real-time prediction of (a) capacity fade, (b) RUL, and (c) voltage-SoC dyn...

FIG. 11.14 The snapshots of the cell wall thickness at different time instances during closed-loop control. More about this image found in The snapshots of the cell wall thickness at different time instances during...

FIG. 10.9 (a) shows the time-resolved current response of multilayers for a voltage pulse of 500 ns pulse width. Inset shows the half input pulse profile for the input pulse of 1.8 V amplitude and 500 ns pulse width. (b) Polarization-time curves obtained by integrating the I–t curve of multilayer samples. (c) Voltage–time and current–time curve for individual BCZT film. (d) Polarization-time curve for individual BCZT film. More about this image found in (a) shows the time-resolved current response of multilayers for a voltage p...

FIG. 6.21 (a) Connection layout for switching time analysis and (b) its response. More about this image found in (a) Connection layout for switching time analysis and (b) its response.

FIG. 6.22 Effect of applied voltage on switching time of the switch. More about this image found in Effect of applied voltage on switching time of the switch.

FIG. 6.23 Time response analysis of the Ohmic switch. More about this image found in Time response analysis of the Ohmic switch.

FIG. 1.2 An example of a pictorial representation from Wittmann et al. (1999) . Questions typically ask students to draw the shape of the rope at a specific time. This time is typically set to when the bases of the pulses overlap or when they have already passed each other. Variations of this picture represent one of the pulses higher or inverted. More about this image found in An example of a pictorial representation from Wittmann et al....

FIG. 10.8 Comparison of the predicted risk based on the multi-step prediction and the actual process risk in real-time. More about this image found in Comparison of the predicted risk based on the multi-step prediction and the...

FIG. 11.1 Views about knowledge-production are affected by both domain (Mathematics and Physics), and time of immersion in a field (below or above 8 years) from Sperandeo-Mineo (2012) . More about this image found in Views about knowledge-production are affected by both domain (Mathematics a...

FIG. 10.9 Prediction of inter-cyclic and intra-cyclic battery dynamics using OASIS as a two-timescale modeling approach (k = 1, …, m and s = 1, …, n denote operating cycle number and sampling time, respectively). More about this image found in Prediction of inter-cyclic and intra-cyclic battery dynamics using OASIS as...

FIG. 1.14 (a) Partially shaded PV cell undergoing hotspot condition. (b) Equivalent thermal model to estimate the time dependence of the temperature of the portion of the PV cell (A_HS) under hotspot conditions ( Rossi et al., 2014 ). More about this image found in (a) Partially shaded PV cell undergoing hotspot condition. (b) Equivalent t...

FIG. 8.6 Microstructural evolution in a thin film system with isotropic elasticity, the far-field composition is 0.05 leading to growth along with film break-up. From the top left, the microstructures correspond to (non-dimensional) time units: t = 114 600, t = 122 800, t = 133 800 and t = 205 800, respectively. These times indicate that the growth slows down the break-up dynamics compared to the previous case of (near) static break-up. More about this image found in Microstructural evolution in a thin film system with isotropic elasticity, ...