To test the realism of the model, we conducted two human-user experiments involving palpation with a rigid probe.
To validate the model we conducted a study on an educational application.
After building a model, we conducted flow simulations by TOUGH2/ECO2N.
Using our model, we conducted a numerical simulation and comprehensive system analyses of this phase of the cell cycle.
To validate the original model, we conducted independent surveys in four states (CA, TX, OH, CO) and two metropolitan areas (Columbus, OH and San Francisco, CA) and compared the survey results to our model estimates.
To demonstrate the performance of the proposed model, we conducted several predictions on the recovery bending moment with temperature variation with diverse thicknesses under various strain conditions.
To evaluate our proposed model, we conducted two behavior-learning experiments utilizing a humanoid robot; the experiments consisted of object manipulation and bell-ringing tasks.
To evaluate the component model, we conducted an experiment with a catalog of constraints formalizing the topological conditions of architecture patterns.
Given that only few studies have been conducted to empirically test the model, we conducted two studies to address this research gap.
To evaluate the model we conducted simulations over the extended environmental gradient of a longitudinal transect in Oregon, USA, and successfully compared results against independently observed productivity estimates (63.4% of variation explained) and mortality patterns in even-aged stands.
Following in silico work and the characterisation of a rodent superficial caudal epigastric/femoral artery model, we conducted an experimental series examining two techniques - an oblique section of the smaller vessel and invaginating the smaller vessel inside the larger.
