The phrase "understand the complex interplay" is grammatically correct and commonly used in written English.
It is typically used when discussing a situation or issue that involves multiple factors or elements working together in a complicated manner. Example: In order to effectively address the issue of climate change, it is crucial to understand the complex interplay between human actions, natural processes, and political policies.
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.
Mr. Frantz and Ms. Collins pack a great deal into their account, and rightly so, because to understand the complex interplay of elements that produced the sinking of the Struma they have to write not only about conditions in Romania but also about previous attempts to smuggle refugees to Palestine, along with the debate within the Jewish Agency in Palestine about illegal immigration.
Compartmental PK/PD modeling simulations can be very helpful to better understand the complex interplay of deposition, clearance, dissolution and absorption.
Recently, significant progress has been made in guiding stem cell differentiation in vitro, and we are beginning to understand the complex interplay of factors that control their fate.
These data may help to understand the complex interplay of the components of the mouse pre-RC and should allow us to refine its structural architecture as well as its assembly in real time.
Finally, the effect of intrinsic noise at the cell population level was found to be markedly different than at the single-cell level, emphasizing the importance of simulating entire cell populations and not just individual cells to understand the complex interplay between single-cell genetic architecture and behavior at the cell population level.
We are just beginning to understand the complex molecular interplay between the pathogen and the host which leads to disease.
Next, to understand the complex dynamic interplay of the various intracellular signaling molecules in the regulation of NF-κB, JNK and p38 in poly (I∶C) stimulation, we developed a computational model of the TLR3 signaling (see Materials and Methods).
Although proteomics and mass cytometry analyses are less developed than other methods, these technologies represent an unprecedented opportunity to understand the complex cellular interplay underlying the development of antibody and T-cell responses.
It would be interesting to further understand how the complex interplay between these self-renewal pathways are orchestrated with Bmi1 being the conductor.
Much work is ongoing to try to decode the histone map as well as understand how the complex interplay between histone modifications and DNA methylation is dysregulated in cancer.
