The phrase "application hierarchy" is correct and usable in written English.
It can be used in contexts related to software development, system architecture, or organizational structures where applications are categorized or prioritized.
Example: "In our project, we need to establish a clear application hierarchy to ensure that all components interact efficiently."
Alternatives: "software hierarchy" or "program hierarchy".
An example of such an application, its hierarchy of the model database, and the major steps of the model construction are described.
In this chapter, we review its characteristics, its role in interface design, how to define it visually, and how to ensure your application uses hierarchy appropriately and informatively.
We first discuss the basic architecture of PICO, including the application class hierarchy and the package's serial and parallel layers.
The former is the source of the local ductility supply needed to achieve a global dissipative behavior of structures under seismic actions, whereas the latter governs the flexural overstrength whose knowledge is needed for an appropriate application of hierarchy criteria in seismic design of structures.
A further application of that hierarchy to the learning of quantifiers is described in Clark (2011a).
This is one of the types of consolidation of ideas expected at level 3 of the developmental hierarchy, Application of Variation, where perhaps not all significant features are recognised.
This study addresses the above issues by developing an integrated framework for project feasibility analysis with the application of analytic hierarchy process (AHP), a multiple attribute decision-making technique.
In this term, spatial navigation in humans is performed by using a complex cognitive map to acquire, code, store, recall, and decode spatial information that is perceived from the environment and the application of a hierarchy of navigation strategies that are formulated based on human spatio-temporal thinking skills [32, 33].
Using concepts drawn from previous studies, the framework consists of three main steps: (i) a new combined safety management protocol, (ii) the use of DESC (Dust Explosion Simulation Code) and FTA (Fault Tree Analysis) to assess explosion consequences and likelihood, respectively, and (iii) application of the hierarchy of controls (inherent, engineered and procedural safety).
Green chemistry and sustainability offer a unique opportunity to improve occupational safety and health through the application of the hierarchy of controls.
