Fig. 4 Template based approach for meta-workflow creation Fig. 5 Template based meta-workflow creation.
Figures 4 and 5 presents a graphical representation of the template based approach for meta-workflow creation.
We developed and formalized a template based approach to create WS-PGRADE meta-workflows to incorporate atomic workflows.
In order to formally describe the template based approach, we use the basic definition of the workflow given in (Eq. 1).
Since we will use only WS-PGRADE workflows to outline how the Computational Chemistry community identifies and develops atomic workflows and constructs meta-workflows we will only describe the template based approach.
In the context of the template based approach, we define a template to encompass the configuration of a workflow as {text{WF}}_{text{temp}} = :left{ {{text{in}}_{text{port}},{text{ out}}_{text{port}},{text{ target}}_{text{DCI}},{text{ executable}}} right} (9).
The traditional color harmony models for the photo esthetics assessment, such as Moon & Spencer׳s model and the adaptive hue template based approach, only utilize the distribution of (co-occurrence) colors based on heuristic rules or principled probability based metrics, where the spatial relationships between compatible colors are ignored.
Compared to other template fitting based approaches, the parameterization approach introduced in this paper is more efficient.
This approach adapts SLA templates based on SLA mappings of users.
These nanostructures have been generally synthesized through techniques like chemical vapor deposition, VLS method, lithography, template based and solution based approaches.
Template based, lithographic, and solution based approaches are common approaches in the synthesis of nanowires, nanorods, nanoribbons, and nanofibers.
