In SED-ML it is possible to describe the setup (F3) of the experiment and the post-processing (F3) of the data: For Figure 3(a) of [ 8] a uniform time course from time 0 min to 100 min with a step size of 0.001 min is produced with a fourth-order Adams-Moulton integration routine (KISAO_0000280).
Using this model, it is possible to design experimental setups and, qualitatively and quantitatively, predict the elastic behavior of specimens built by means of 3D printing technology.
Whereas, it is possible to design complex electrotaxis setup [16], [23], we shall insist that a simple, commercial electrophoresis system is sufficient to physically sort the faster worms from a population.
With this setup, it is possible to detect the positions of three gears by one sensor.
With a scaled-up and improved setup, it is possible to overcome this issue easily [20].
Using this setup, it is possible to measure interface strength over nearly the full range of mode mixities using a single specimen design.
By means of such setup, it is possible to measure both the fundamental and the higher harmonics of the response signal.
Since for a memoryless exponentially distributed service time, the remaining parts of the service are identically distributed, it is possible to exactly express S, the initial setup time for the HP traffic, as follows: S = R r ( λ 1 ) 1 - P ae ( λ 1 ), Y < T 2 + R Pr ( Y ≤ T 2 ) P L | NH P ae ( λ 1 ), T 2 < Y Pr ( Y > T 2 ) P L | NH P ae ( λ 1 ), 0 Otherwise, (62).
With our setup it is possible to measure most of significant volatile carbon molecules, (except volatiles with lower proton affinity than H2O, [27]), CO2 and BVOC of grey poplar plants.
Because Mantra requires only a computer and a camera, it is possible to create a highly mobile experimental setup.
