Therefore, the combined microfluidic and electrochemical methodology is proven useful in finding suitable BTA concentrations and a wider potential window.
The efficiency of the proposed methodology is proven throughout a case study of a simulated NMPC controlled DHN.
The versatility of the proposed design methodology is proven using the realistic FEM model of a three-dimensional 201 m tall building.
The validity of the current methodology is proven through a comparative assessment of our results with those available from the literature or obtained with different numerical approaches, such as the Finite Element Method (FEM).
From the experimental results, the proposed methodology is proven to be sensitive enough to detect the fault evolution in the time-frequency plane of single and combined faults under different operating regimes (start-up and steady-state) in inverter-fed induction motor.
The efficiency of the global methodology is proven with experimental data of a reversible HP/ORC unit.
The project methodology was proven successful as it led to an optimised design that fulfilled all requirements.
The response surface methodology was proven to be a more cost- and time-saving method than classical one-at-a-time or mathematical methods (Siva Kiran et al. 2010).
The proposed methodology is proved to be effective in the development of common use design tools.
The methodology was proved scoring single nucleotide polymorphisms with high selectivity.
