It now has been over a decade since that baseline was published, and a central goal of our effort has been to develop and upgrade methodologies in order to provide the highest resolution for individual (not population)‐based discriminating among these four runs of Central Valley Chinook salmon.
The TOBUS (a decision-making tool for selecting office building upgrading solutions) methodology and software have been developed as a result of a 2-year European research project, involving eight European institutions, in the frame of the JOULE III programme of the European Commission (EC), Directorate General XII.
Since carbonate reservoirs are at the leading area of research currently, this comprehensive review will undoubtedly guide future researchers and practitioners in the field toward identifying newer technologies and upgrading existing methodologies for successful field implementation.
So far, research and extensive efforts have been made in the area, developing better algorithms, upgrading existing methodologies, improving detection techniques to reduce noise, and to acquire accurate EMG signals.
So far, research and extensive works have been made in the area, developing better algorithms, upgrading existing methodologies, and improving detection techniques to reduce noise and acquire accurate FECG signals to obtain reliable information about the fetal state thus assuring fetal well-being during pregnancy period.
This research leads to a related empirical question: Do these fears of receiving a deficient rating from an inspection cause auditors to upgrade their audit methodology and enhance their audit quality?
The potential for using the TOBUS methodology to select office building upgrading solutions have been investigated during field tests in 15 European office buildings in 5 European countries.
Zwickau University has developed a new multi-stage methodology for the complex design process of upgrading rural roads.
To check this methodology, it was analyzed the feasibility of upgrading a 400 kVRMS substation connector to operate at 765 kVRMS.
Our methodology guarantees upgraded flexibility, as accuracy can be maximized within either narrow or wider frequency bands, without practically inducing significant computational overhead.
