Integrating a study protocol into the routine functions of primary health care is a demanding task, but we managed to implement the protocol mostly as intended.
We analyze the working modesof communication interfaces based on power line communication using the amplitude-shift-keying (ASK) modulation and integrating a light protocol of Modbus type.
In the next section, we propose such a solution integrating A-HIP with the OLSR protocol.
This is the first study to analyse the effectiveness of a protocol integrating eFAST and excluding all X-rays during the primary survey in stable trauma patients.
We integrate this protocol with a similarly well-engineered network protocol to present a uniform interface to programmers.
Once a monitoring protocol has been identified and evaluated, the next stage is to integrate that protocol into a decision-making system, which highlights potential leading indicators of change.
A protocol was developed to integrate CPORT predictions into our data-driven docking program HADDOCK.
In this direction, we designed and developed a modular protocol to integrate a set of complementary bioinformatic methods for gene expression data preprocessing, differential expression analysis, gene expression clustering, co-regulated gene module and regulator construction, DNA binding motif identification, and gene function prediction to construct and validate gene regulatory modules.
Our goal is to integrate various protocol layers into a rigorous framework, by regarding them as distributed computations over the network to solve some optimization problem.
We suggest an integrated protocol combining visual scoring, manual measurements, and image analysis.
Using ABO blood typing as a proof-of-concept, we developed i) an integrated biological protocol suitable for further use as point-of-care (POC) analysis and ii) two dedicated image processing algorithms for the real-time and quantitative measurement of agglutination.
