Ontology highlight
ABSTRACT: Background
Mental disorders as defined by current classifications are not fully supported by scientific evidence. It is unclear whether main disorders should be broken down into separate categories or disposed along a continuous spectrum. In the near future, new classes of mental disorders could be defined through associations of so-called abnormalities observed at the genetic, molecular and neuronal circuitry levels.Methods
We propose an alternative hypothesis to these classifications based on an integrative, dynamical and multidimensional approach.Results
We suggest that observed data collected in the general population can be used to build a psychological landscape. Innovative techniques issued from information processing and system dynamics can prove helpful in this task. Information preserving techniques can reduce the high dimensional data collected and provide an intrinsic map for psychological characteristics or behaviors. Dynamical patterns called attractors, which are linked to each other through continuous pathways, can be identified. Specific attractors can define mental disorders. Their causal structure can be investigated with causal networks.Conclusions
Powerful and reliable tools are available so that an alternative to current psychiatric classifications can be built based on a genuine biopsychosocial model. The proposed model is ready to be tested on real data.
SUBMITTER: Lefevre T
PROVIDER: S-EPMC4121306 | biostudies-literature | 2014 Jul
REPOSITORIES: biostudies-literature
Lefèvre Thomas T Lepresle Aude A Chariot Patrick P
Philosophy, ethics, and humanities in medicine : PEHM 20140717
<h4>Background</h4>Mental disorders as defined by current classifications are not fully supported by scientific evidence. It is unclear whether main disorders should be broken down into separate categories or disposed along a continuous spectrum. In the near future, new classes of mental disorders could be defined through associations of so-called abnormalities observed at the genetic, molecular and neuronal circuitry levels.<h4>Methods</h4>We propose an alternative hypothesis to these classific ...[more]