We are using a novel augmented reality apparatus and multi-electrode neural recordings of place cells, grid cells, head direction cells, and other cell types of the hippocampus and related brain regions to reverse engineer the interplay between navigation and locomotor control in freely behaving animals (see https://limbs.lcsr.jhu.edu/ and https://sites.krieger.jhu.edu/knierim-lab/ ).
Figure 5 shows a schematic representation based on our results, accounting for the electrochemical mechanisms defining the interplay between our engineered biomimetic, electroactive surfaces and bacteria.
In the best cases, it is encouraging political scientists to team up in an interdisciplinary way with statisticians, economists, psychologists and even software engineers, to understand the complex interplay between human and technological factors that can influence an election.
Meanwhile, the technology is continuously shaped in the interplay between users, engineers, installers, and administration.
It started in the early 1970s when electrical engineer Leon Chua was looking at the interplay of electrical forces in the basic elements of circuits: resistors, capacitors and inductors.
Fabrication of the first bike took seven months due to interplay of craftsmen and engineer". NMOTO fully leverages the power of these readily available software systems, allowing a tiny company to punch far above its weight.
With the advance of high throughput technologies, it is now feasible to reverse engineer the underlying genetic networks that describe the interplay of molecular elements that lead to complex diseases.
To our knowledge, this study is a pioneering attempt at developing a relevance concept based systematic approach to reversely engineer the underlying genetic networks that describe the complex interplay of molecular elements that lead to complex diseases.
With the advance of high throughput technologies, it is now feasible to reversely engineer the underlying genetic networks that describe the complex interplay of molecular elements that lead to complex diseases.
With the advance of large-scale omics technologies, it is now feasible to reversely engineer the underlying genetic networks that describe the complex interplays of molecular elements that lead to complex diseases.
Recent studies have tried to decipher the complex interplay between stem cells and niches, and thereafter to engineer SCDS, mimicking dynamic stem cell niches encompassing a wide range of biochemical, biophysical, and biomechanical cues.
