The algorithm also allows to generate full diagnostic information (examples and counterexamples) for temporal formulas.
Phase 3 involves the analysis of individual diagnostic features (examples include but are not limited to contact sport position, years and level of play, number and severity of individual TBIs, memory impairment, depression, impulsivity, and motor impairment).
However, issues related to machine function, failure analysis and diagnostics are examples of the deterministic part.
Applications related to engineering, information technology, and diagnostics are examples of consumer applications that directly improve our lives.
Going beyond diagnostics, the examples below highlight a variety of clinical research projects and emerging treatment options based on synthetic biology a field that continues to expand into new therapeutic areas.
Comprehensive diagnostic, for example, could follow guidelines according to which the problems of the patient are assessed and addressed in a single day eliminating the need for a multitude of visits.
Adopting these methods in other disciplines than clinical diagnostics, for example, in agriculture, food safety and quality testing, or ecology, will open up new opportunities for diagnostics and research.
This makes the ability to encode thousands of molecules of little practical use so far for applications such as molecular typing and diagnostics, for example, where nucleic acid amplification-based techniques dominate (e.g. PCR).
Biomedical diagnostics, for example, provide many poignant scenarios in which assay performance supersedes assay design.
A critical factor determining whether a method is applicable for routine cancer diagnostics, for example during surgery, is the time needed for sample analysis.
