Sentence examples for understanding of complex natural from inspiring English sources
Over the past decade, X-ray absorption spectroscopy (XAS) has been developed to improve our understanding of complex natural and engineered materials (Koningsberger and Prins 1987).
Models help resource managers develop a shared conceptual understanding of complex natural systems, allow testing of management scenarios, predict outcomes of high risk and high cost environmental manipulations, and set priorities.
As such, there is significant interest in the design of iron-sulfur proteins as minimal models to gain fundamental understanding of complex natural systems and as lead-molecules for industrial and energy applications.
For many research areas such as life, environmental, earth or material sciences, novel analytical resources have to be developed for an advance understanding of complex natural and engineered systems that are heterogeneous on the micron to the tenths of microns scale.
Science is evidence based, and provides a continuing understanding of complex natural phenomena.
While philosophers can create progress in their fields with nothing more than brain, pencil and paper, an objective understanding of complex natural and social systems necessitates more than can be achieved by any single person.
There are two approaches for standardization of complex natural products.
This is done to develop an understanding of the complex natural environment with advanced simulation techniques (Bonabeau 2002).
To acquire a better understanding of the complex natural ventilation process in and around animal houses, air velocity measurements were carried out in 1 60 scale models of a dairy cattle house placed in a wind tunnel, using a reference air velocity of 3.5 m s−1.
The great progress made in the molecular-level characterisation of complex systems over the last few years and foreseeable improvements in nascent technology and concepts will lead to strong synergetic effects that will further advance our understanding of any complex natural and living system whose properties and functioning depend on both strong (covalent) and weak (noncovalent) interactions.
Earlier analyses were transformative but were necessarily piecemeal, focused largely on single genes and organisms, or occasionally microbial microcosms, as proxies for interrogating and understanding the complex, natural communities that comprise the majority of Earth's biomass and evolutionary history.
