Notes regarding Small Nation Health Care

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One

FUNCTION: The core architecture has a distributed, virtual, database with informational transitions and ontology (knowledge of processes). Client information is maintained locally and communicated to other locations on a just in time basis. However, clinical medical ontology is shared globally. The distributed core architecture allows medical staff access to local doctor / patient records, while still being responsive to the system need for reporting (to medical insurance claims, to regional governmental authorities and to the medical research community) and analysis.

ARCHITECTURE: The architecture is based on a model of information flow between thousands of locations using state gesture pairing. (a knowledge operating system working on state gesture pairing is available). A common semiotic language (sign system) is responsive to substructure (statistics) and ultra structure (category theory) is shared throughout the entire HealthCare Infrastructure for a Small Nation.

TECHNOLOGY: Knowledge engineering and information retrieval technologies are to be used at each of seven interfaces. The interfaces are between (1) the doctor or staff to a full text database via voice and typing input, (2) text to context conversion suing knowledge engineering techniques, (3) translation between context representation and a local form based reasoning system based on finite-state constructs, 4) translation between the local system and a global reasoning system based on finite-state constructs, (5) archived in a form based representational system, (6) movement between warehouse and stores, and (7) movement between stores and the community.

Two

FUNCTION: The system learns user categories and reporting decisions using a linguistic interpretation of retrieval requests and a separate SQL based data retrieval paradigm.

ARCHITECTURE: The architecture for learning and reinforcement depends on an open loop between the community and the global finite-state construct. This loop enables user requests for information to make small alterations in a categorization policy that is used to re-organize some part of the contents of a large virtual text+data warehouse for display as a local information store.

Three

FUNCTION 1: It is necessary to learn (extract/represent) detailed knowledge that is required to make judgments about the viability of goals and intended actions.

FUNCTION 2: It is necessary to learn (extract/represent) detailed knowledge required to advise clinic workers regarding the standard practice for any medical situation.

ARCHITECTURE 1: The architecture for nationally centric investigation is modular and taps into the finite-state constructs so that knowledge management, artificial intelligence and data mining tools can be brought to bear in the acquisition phase of an medical investigation.

ARCHITECTURE 2: The architecture for clinic centric investigations works to bring information to the clinic desktop regarding relationships that are discovered in the local finite-state construct or in a global construct consisting of standard medical clinical ontology.

Four

FUNCTION: The means through which patient information is gathered is via

(1) polling and survey instruments,

(2) non-structured interview, and

(3) examination.

ARCHITECTURE: The polling and survey instruments are immediately transformed into local finite-state constructs.

Information from the interview is placed into standard forms that are automatically transformabled into knowledge base constructs as ontology. Knowledge validation is handled by thesaurus (via knowledge engineering), linguistic analysis and category theory; plus dialog between the system and the user.

Information gathered during a doctor's examination of a patient will undergo knowledge validation.

Five

FUNCTION: Voice to text translation undergoes a checking procedure. The standard medical clinical ontology will be used in a dialog fashion to confirm the translation's meaning.

HOW: Dialog is supported using gestures in response to state approximations of the user's meaning. This state-gesture mechanism is the core to a Knowledge Operating System (KOS).

Six

ARCHITECTURE: Additional information validation can be done after the doctor has left the patient and is able to use some interactive tools to make additional comments, review and analyze the data as stored in a local construct (ontology).

TECHNOLOGY: Catgorical technology is allowed to organize data into what-if scenarios.

Seven

FUNCTION: The difference between an ad hoc method and a formal method has to do with how communication can occur with very specific forms.

The ad hoc method recognizes that pre-determined forms are often not able to hold the information that is necessary to encodeknowledge from an interview or examination of a patient. The formal method recognizes that context non-specific information is formed via abstraction and generalization.

TECHNOLOGY: Some category technology is required to place text into context, or to generate the regular forms of context that allows one to define finite-state constructs and provide for validation of knowledge base constructs and case reasoning.

Eight

FUNCTION: The information that is placed into the central warehouse can be an abstraction of actual data, as well as full indices that point to specific meaningful interpretations of points in the constructs.

ARCHITECTURE: The transition between the global constructs and the warehouse is via abstraction and concept representation.

FUNCTION: The finite-state constructs have two equivalent forms. The first is a normalized database (XML based) whose structure is established by architectural design and data modeling. The second is an standard medical clinical ontology.

The local / global interface works between the data model and ontolgoies of the local constructs and the data model and ontologies of the global constructs. There is no non-computational aspect of this interface and thus the communication can be optimized for web transmission.

ARCHITECTURE: The interface between the local and global constructs is via computations on indices, and thus most often does not involve the transmission of specific data. This architectural feature has implication for data compression and security, since the data that is shared is not about the details of client records, but rather about pointers to this detail and abstract categorical information that is statistical in nature.

Nine

FUNCTION: The function of the warehouse-to-store transformation is to provide only the type of information that each particular user has expressed an interest in. Information coherence and consistancy is also evaluated locally using theorem proving techniques.

ARCHITECTURE: The architecture of the transformations between warehouse, store and community is based on a projection from a large amount of information to a smaller amount of information. SQL is used exclusively since the projection is a simple view of the warehouse.

TECHNOLOGY: The store contents can be dynamically configured for each individual using a database backend that generates HTML for web browsers.


Ten

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Eleven

FUNCTION: The transformation of information in the local store to specific users can be made

(1) adaptive (such as with the voting procedure),

(2) seek and fill (such as smart agents frame filling), and

(3) descriptive (such as Autonomy Inc. Dynamic Reasoning Engines).

ARCHITECTURE: The local store must get it's information and information structures from the warehouse.

However a routing or frame filling retrieval technology may be used to "purchase" specific information from the store.

Twelve

FUNCTION: Learning and reinforcement technology is used in a very narrow and specific fashion to make changes in the local constructs. This is local and global learning, where the changes that are being made are for the purpose of creating a better categorization and representation of basic data structures.

ARCHITECTURE: Learning introduces significant modifications to data structures, particularly in the themespace and in indices.

TECHNOLOGY: The technology here uses a simple weight profile to retrieve data. The weight profile can be made adaptive thougth the introduction of neural networks, the voting procedure, and full text retrieval methods based on the industry standards.