This document describes an ontology-based framework for designing clinical data warehouses. It discusses three semantic layers - system, practice, and phenotype - that are relevant to warehouse design. An ontological framework is proposed that uses several mid-level ontologies like the Basic Formal Ontology, Information Artifact Ontology, Ontology for Biomedical Investigations, and Ontology of General Medical Science to map system data, clinical processes, and patient phenotypes. This framework allows translating system messages into a clinical view of the patient by mapping values to their semantic meaning.
Information support for decision making. Christopher Hart 2012Christopher Hart
Presentation supporting a talk at the 2nd Annual Oncology Biomarkers Congress in Manchester, UK. Details several of my projects providing information to support effective clinical program design, data interpretation, and biomarker development.
Slide deck from 2008 Symposium "Developing an Expert-System for Health Promotion: An Experimental E-Learning Platform" from the APA-NIOSH International Conference on Work, Stress, and Health
Dr. Kamran Sartipi has extensive experience in research and innovation across several fields including software engineering, data analytics, information security, and healthcare informatics. He has published over 100 papers and books on topics such as software system analysis, architecture recovery, decision support systems, and security and privacy in distributed systems. Currently, he is leading two large research projects involving intelligent middleware security, user behavior pattern discovery, and knowledge extraction from medical data across multiple data centers.
Themes and objectives:
To position FAIR as a key enabler to automate and accelerate R&D process workflows
FAIR Implementation within the context of a use case
Grounded in precise outcomes (e.g. faster and bigger science / more reuse of data to enhance value / increased ability to share data for collaboration and partnership)
To make data actionable through FAIR interoperability
Speakers:
Mathew Woodwark,Head of Data Infrastructure and Tools, Data Science & AI, AstraZeneca
Erik Schultes, International Science Coordinator, GO-FAIR
Georges Heiter, Founder & CEO, Databiology
BIM Forum_2010_Beyond a Reasonable DoubtUpali Nanda
1) Evidence-based design (EBD) emerged in healthcare to improve safety and outcomes using research-informed design decisions.
2) Studies found EBD strategies like decentralized nursing units reduced patient falls by 75% and transfers by 90%.
3) Other research linked factors like patient visibility and private rooms to lower mortality and infection risk.
4) For BIM to be truly evidence-based, it needs an empirical evidence base from built project performance and linkage to organizational goals, not just cost savings.
The document discusses standards and coding systems used in biomedical and health informatics. It provides background on the speaker and their qualifications in the fields of medicine and health informatics. It then discusses why healthcare information standards are needed, providing examples of different types of standards including unique identifiers, standard data sets, vocabularies and terminologies, and exchange standards for messages and documents.
Federated Learning (FL) is a learning paradigm that enables collaborative learning without centralizing datasets. In this webinar, NVIDIA present the concept of FL and discuss how it can help overcome some of the barriers seen in the development of AI-based solutions for pharma, genomics and healthcare. Following the presentation, the panel debate on other elements that could drive the adoption of digital approaches more widely and help answer currently intractable science and business questions.
Information support for decision making. Christopher Hart 2012Christopher Hart
Presentation supporting a talk at the 2nd Annual Oncology Biomarkers Congress in Manchester, UK. Details several of my projects providing information to support effective clinical program design, data interpretation, and biomarker development.
Slide deck from 2008 Symposium "Developing an Expert-System for Health Promotion: An Experimental E-Learning Platform" from the APA-NIOSH International Conference on Work, Stress, and Health
Dr. Kamran Sartipi has extensive experience in research and innovation across several fields including software engineering, data analytics, information security, and healthcare informatics. He has published over 100 papers and books on topics such as software system analysis, architecture recovery, decision support systems, and security and privacy in distributed systems. Currently, he is leading two large research projects involving intelligent middleware security, user behavior pattern discovery, and knowledge extraction from medical data across multiple data centers.
Themes and objectives:
To position FAIR as a key enabler to automate and accelerate R&D process workflows
FAIR Implementation within the context of a use case
Grounded in precise outcomes (e.g. faster and bigger science / more reuse of data to enhance value / increased ability to share data for collaboration and partnership)
To make data actionable through FAIR interoperability
Speakers:
Mathew Woodwark,Head of Data Infrastructure and Tools, Data Science & AI, AstraZeneca
Erik Schultes, International Science Coordinator, GO-FAIR
Georges Heiter, Founder & CEO, Databiology
BIM Forum_2010_Beyond a Reasonable DoubtUpali Nanda
1) Evidence-based design (EBD) emerged in healthcare to improve safety and outcomes using research-informed design decisions.
2) Studies found EBD strategies like decentralized nursing units reduced patient falls by 75% and transfers by 90%.
3) Other research linked factors like patient visibility and private rooms to lower mortality and infection risk.
4) For BIM to be truly evidence-based, it needs an empirical evidence base from built project performance and linkage to organizational goals, not just cost savings.
The document discusses standards and coding systems used in biomedical and health informatics. It provides background on the speaker and their qualifications in the fields of medicine and health informatics. It then discusses why healthcare information standards are needed, providing examples of different types of standards including unique identifiers, standard data sets, vocabularies and terminologies, and exchange standards for messages and documents.
Federated Learning (FL) is a learning paradigm that enables collaborative learning without centralizing datasets. In this webinar, NVIDIA present the concept of FL and discuss how it can help overcome some of the barriers seen in the development of AI-based solutions for pharma, genomics and healthcare. Following the presentation, the panel debate on other elements that could drive the adoption of digital approaches more widely and help answer currently intractable science and business questions.
Towards Joint Doctrine for Military InformaticsBarry Smith
This document discusses using semantic enhancement and ontologies to integrate siloed data from multiple sources. It describes challenges with current approaches that rely on creating a single "über-model" or virtual integration through a homogeneous data model. Instead, it proposes a virtual integration approach using ontologies to provide a comprehensive view of domains while keeping data in its original state. Data from different sources can be semantically tagged and integrated in a cloud-based system without heavy preprocessing. This allows flexible, scalable integration while preserving data and semantics from the original sources.
Horizontal integration of warfighter intelligence dataBarry Smith
This document discusses strategies for horizontally integrating warfighter intelligence data through the use of semantic enhancement (SE). SE involves developing a suite of shared ontologies to semantically align heterogeneous data sources. This allows the various data resources to be searched and analyzed as a single resource. The key aspects discussed are developing the ontologies incrementally based on common principles, creating a shared semantic resource, and using annotation to semantically tag source data and link it to the ontologies. The goal is to facilitate horizontal integration of intelligence data across different organizations and systems in a flexible way.
Forms part of a training course in ontology given in Buffalo in 2009. For details and accompanying video see http://ontology.buffalo.edu/smith/IntroOntology_Course.html
Agile Data Warehouse Design for Big Data PresentationVishal Kumar
Synopsis:
[Video link: http://www.youtube.com/watch?v=ZNrTxSU5IQ0 ]
Jim Stagnitto and John DiPietro of consulting firm a2c) will discuss Agile Data Warehouse Design - a step-by-step method for data warehousing / business intelligence (DW/BI) professionals to better collect and translate business intelligence requirements into successful dimensional data warehouse designs.
The method utilizes BEAM✲ (Business Event Analysis and Modeling) - an agile approach to dimensional data modeling that can be used throughout analysis and design to improve productivity and communication between DW designers and BI stakeholders. BEAM✲ builds upon the body of mature "best practice" dimensional DW design techniques, and collects "just enough" non-technical business process information from BI stakeholders to allow the modeler to slot their business needs directly and simply into proven DW design patterns.
BEAM✲ encourages DW/BI designers to move away from the keyboard and their entity relationship modeling tools and begin "white board" modeling interactively with BI stakeholders. With the right guidance, BI stakeholders can and should model their own BI data requirements, so that they can fully understand and govern what they will be able to report on and analyze.
The BEAM✲ method is fully described in
Agile Data Warehouse Design - a text co-written by Lawrence Corr and Jim Stagnitto.
About the speaker:
Jim Stagnitto Director of a2c Data Services Practice
Data Warehouse Architect: specializing in powerful designs that extract the maximum business benefit from Intelligence and Insight investments.
Master Data Management (MDM) and Customer Data Integration (CDI) strategist and architect.
Data Warehousing, Data Quality, and Data Integration thought-leader: co-author with Lawrence Corr of "Agile Data Warehouse Design", guest author of Ralph Kimball’s “Data Warehouse Designer” column, and contributing author to Ralph and Joe Caserta's latest book: “The DW ETL Toolkit”.
John DiPietro Chief Technology Officer at A2C IT Consulting
John DiPietro is the Chief Technology Officer for a2c. Mr. DiPietro is responsible
for setting the vision, strategy, delivery, and methodologies for a2c’s Solution
Practice Offerings for all national accounts. The a2c CTO brings with him an
expansive depth and breadth of specialized skills in his field.
Sponsor Note:
Thanks to:
Microsoft NERD for providing awesome venue for the event.
http://A2C.com IT Consulting for providing the food/drinks.
http://Cognizeus.com for providing book to give away as raffle.
Choosing an Analytics Solution in HealthcareDale Sanders
This document provides guidance on evaluating and choosing an analytics solution for healthcare. It discusses general criteria for assessment, including completeness of vision, ability to execute, culture and values alignment, technology adaptability, total cost of ownership, and company viability. It also frames the analytic environment and needs in healthcare. Key factors are the evolving data ecosystem, analytic motives shifting from billing to quality and prevention, and lessons from EMR adoption. The best solutions will provide a closed-loop analytic experience with integrated knowledge systems, deployment processes, and analytic capabilities.
This document discusses the development and management of information systems in healthcare. It outlines how health IT can help improve quality of care by making information more accessible and reducing errors. Effective management of IT requires balancing people, processes, and technology, and using strategic and project management approaches. Health IT development may involve in-house or outsourced software solutions using methodologies like waterfall or agile development. The goal is to apply technology to enhance care while considering the complex, information-rich nature of healthcare.
OSEHRA Summit 2012 Lunch Keynote: Current health IT systems integrate poorly ...Shahid Shah
OSEHRA Summit 2012 Lunch Keynote - The Myth of Health Data Integration Complexity. This is an opinionated look at why current health IT systems integrate poorly and how it’s a big opportunity for the OSEHRA Community.
Background:
* A deluge of healthcare data is being created as we digitize biology, chemistry, and physics.
* Data changes the questions we ask and it can actually democratize and improve the science of medicine, if we let it.
* While cures are the only real miracles of medicine, big data can help solve intractable problems and lead to more cures.
* Healthcare-focused software engineering is going to do more harm than good (industry-neutral is better).
Key takeaways:
* Major opportunity for systems integrators
* Applications come and go, data lives forever. He who owns, integrates, and uses data wins in the end.
* Never leave your data in the hands of an application/system vendor.
* There’s nothing special about health IT data that justifies complex, expensive, or special technology.
* Spend freely on multiple systems and integration-friendly solutions.
Pico framework for framing systematic review research questions - PubricaPubrica
P Patient, problem, population
I ‑ Intervention, prognostic factor, exposure
C ‑ Comparison
O ‑ Outcome
Continue Reading: https://bit.ly/3igMAQ4
For our services: https://pubrica.com/services/research-services/systematic-review/
Why Pubrica:
When you order our services, We promise you the following – Plagiarism free | always on Time | 24*7 customer support | Written to international Standard | Unlimited Revisions support | Medical writing Expert | Publication Support | Biostatistical experts | High-quality Subject Matter Experts.
Contact us:
Web: https://pubrica.com/
Blog: https://pubrica.com/academy/
Email: sales@pubrica.com
WhatsApp : +91 9884350006
United Kingdom: +44- 74248 10299
Pico framework for framing systematic review research questions pubricaPubrica
P Patient, problem, population
I ‑ Intervention, prognostic factor, exposure
C ‑ Comparison
O ‑ Outcome
Continue Reading: https://bit.ly/3igMAQ4
For our services: https://pubrica.com/services/research-services/systematic-review/
Why Pubrica:
When you order our services, We promise you the following – Plagiarism free | always on Time | 24*7 customer support | Written to international Standard | Unlimited Revisions support | Medical writing Expert | Publication Support | Biostatistical experts | High-quality Subject Matter Experts.
Contact us:
Web: https://pubrica.com/
Blog: https://pubrica.com/academy/
Email: sales@pubrica.com
WhatsApp : +91 9884350006
United Kingdom: +44-161818635
Reasons why health data is poorly integrated today and what we can do about itShahid Shah
Presented at StrataRX 2012: http://strataconf.com/rx2012/public/schedule/detail/25953
While the entire healthcare community, for decades, has been clamoring for, cajoling, and demanding integration of its IT systems, we’re actually in a pretty elementary stage when it comes to useful, practical, health IT systems integration beyond on-premise and in-building hospital software. Our problem in the industry is not that engineers don’t know how to create the right technology solutions or that somehow we have a big governance problem; while those are certainly issues in certain settings, the real cross-industry issue is much bigger – our approach to integration is decades old, opaque, and rewards closed systems.
For decades, starting in the 50’s through the mid 90’s before the web / Internet came along, systems integration meant that every system had to know about each other in advance, decide on what data they would share, engage in governance meetings, have memoranda of understanding or contracts in place, etc. After the web came along, most of that was thrown out the window because the approach changed to one that said the owner of the data provides whatever they decide (e.g. through a web server) and whoever wants it will be provided secure access and they can come get it (e.g. through a browser or HTTP client). This kind of revolutionary approach in systems integration is what the health IT and medical device sectors are sorely lacking and something that ONC can help promote.
Specifically, the following things are holding us back when it comes to poor integration in healthcare and what future EHRs can do about it:
• We don’t support shared identities, single sign on (SSO), and industry-neutral authentication and authorization. Most health IT systems create their own custom logins and identities for its users including roles, permissions, access controls, etc. stored in an opaque part of their own proprietary database. ONC should mandate that all future EHRs use industry-neutral and well supported identity management technologies so that each system has a least the ability to share identities. Without identity sharing and exchange there can be no easy and secure application integration capabilities no matter how good the formats are. I’m continually surprised how little attention is paid to this cornerstone of application integration. There are very nice open identity exchange protocols, such as SAML, OpenID, and oAuth as well as open roles and permissions management protocols such as XACML that make identity and permission sharing possible. Free open source tools such as OpenAM, Apache Directory, OpenLDAP, Shibboleth, and many commercial vendors have drop-in tools to make it almost trivial to do identity sharing, SSO, and RBAC.
The document provides an overview of Geoff Rutledge's career path from medicine to computer science and clinical informatics. It discusses his background in medicine, academia, and industry. Some key points:
1) Rutledge has a background in both medicine and computer science, obtaining degrees in both fields. He worked as a physician before pursuing a career in clinical informatics.
2) He discusses different career paths in biomedical informatics, including academic, health systems, corporate research, and starting his own companies.
3) Rutledge shares lessons from his time in academia and industry, emphasizing the importance of choosing research topics that match your next career goal and maintaining perspective when working at a startup.
Wake up Pharma and look into your Big data Yigal Aviv
The vast volumes of medical data collected offers pharma the opportunity to harness the information in big data sets
Unlocking the potential in these data sources can ultimately lead to improved patients outcomes
This presentation describes consideration how to maximize the impact of Big Data.
its methodology, practical challenges and implications.
DeciBio Perspectives on Pain Points, Unmet Needs, and Disruption in Precision...Andrew Aijian
We conducted interviews with precision medicine KOLs to create a map of the precision medicine stakeholder landscape and identify and understand the unmet needs and pain points within precision medicine, as well as areas and scenarios of potential disruption.
The document discusses the need for enterprise architecture and electronic health systems in developing countries. It notes that currently many countries have fragmented and duplicative health information systems due to a lack of national eHealth policies and standards. The document advocates for adopting an enterprise architecture approach to conceive integrated eHealth systems that are interoperable and scalable. It provides definitions of key concepts like eHealth, enterprise architecture, and highlights frameworks like TOGAF that can guide the development of aligned health enterprise and information system architectures.
The Learning Health System: Thinking and Acting Across ScalesPhilip Payne
A Learning Health System (LHS) can be defined as an environment in which knowledge generation processes are embedded into daily clinical practice in order to continually improve the quality, safety, and outcomes of healthcare delivery. While still largely an aspirational goal, the promise of the LHS is a future in which every patient encounter is an opportunity to learn and improve that patient’s care, as well as the care their family and broader community receives. The foundation for building such an LHS can and should be the Electronic Health Record (EHR), which provides the basis for the comprehensive instrumentation and measurement of clinical phenotypes, as well as a means of delivering new evidence at the patient- and population levels. In this presentation, we will explore the ways in which such EHR-derived phenotypes can be combined with complementary data across a spectrum from biomolecules to population level trends, to both generate insights and deliver such knowledge in the right time, place, and format, ultimately improving clinical outcomes and value.
This document discusses using ontologies to simplify semantic solutions for biomedical applications. It provides examples of how ontologies can be used to integrate medical expertise and knowledge from different sources. It also describes challenges in representing biomedical information with ontologies and introduces MedMaP, a medical management portal that aims to simplify access to ontology-based reasoning and analytics using graphical visualizations and self-service tools. MedMaP allows users to customize their experience and gain insights from subject matter experts.
TOPIC 2AnthonyThe movie that I watched for this week, Cons.docxturveycharlyn
TOPIC 2:
Anthony:
The movie that I watched for this week, Constantine, would almost certainly have been censored. This movie explores some of things in religion that most God fearing individuals would rather not. The idea that an evil would threaten the very existence of mankind. Not to mention the way some of the demons and victims were killed or eliminated. The Motion Picture Production Code of 1930 or The Hays Code, established guidelines for movie producers. The following is a short explanation of his code:
The Code was based on three general principles: No picture shall be produced that will lower the moral standards of those who see it. Hence the sympathy of the audience should never be thrown to the side of crime, wrongdoing, evil or sin. Correct standards of life, subject only to the requirements of drama and entertainment, shall be presented. Law, natural or human, shall not be ridiculed, nor shall sympathy be created for its violation. These were developed in a series of rules grouped under the self-explanatory headings Crimes Against The Law, Sex, Vulgarity, Obscenity, Profanity, Costume, Dances (i.e. suggestive movements), Religion, Locations (i.e. the bedroom), National Feelings, Titles and "Repellent Subjects" (extremely graphic violence) (BFI. n.d.)
Constantine (2005) http://www.imdb.com/title/tt0360486/
BFI Screenonline: The Hays Code. (n.d.). Retrieved January 24, 2017, from http://www.screenonline.org.uk/film/id/592022/
Robert:
I'm pretty sure that "The Evil Dead" would have received an "X" rating upon release had it come out 50 years ago since "The Excorcist" had that rating upon its release. There is a parallel between the two since in both cases audiences became more likely to laugh at the scarier scenes than to be frightened by them. Both also had religious imagery that would be offensive to alot of people. Times have really changed since the late 1960s concerning the ratings system; films like "Midnight Cowboy" and "A Clockwork Orange" that had X ratings at one point would be very comfortably in the "R" category today.
· Write a four to five (4-5) page paper in which you:
1. Identify and analyze what you believe to be the most significant new technology requirements for the health care industry. Indicate how providers should approach the implementation of this new technology requirement that you have identified. Provide support for the response.
2. Analyze the basic technology underlying health care information systems. Argue that the need for technological innovation and / or modification is most pressing. Support the argument with examples.
3. Recommend an innovation / modification, and explain how the recommendation could improve the overall level of health care in your own community. Include specific example(s) using local hospitals or other health care providers to support the response.
4. Suggest a key action that senior health care leadership could take in the community in which you live to push the b ...
How to Create a Big Data Culture in PharmaChris Waller
A talk presented at the Big Data and Analytics conference in Boston on January 28, 2014. Emphasis on data and information sharing cultures in companies.
Essay on Positive Thinking | Short and Long Essays on Positive Thinking .... Importance Of Positive Thinking for Success Free Essay Example. 8 Positive Thinking Assignments for Students - Brookes Publishing Co.. The Power of Positive Thinking for Those Diagnosed with Challenges Free .... Write a short essay on Positive Thinking | Essay Writing | English .... Essay On Positive Thinking in English for Students | 500 Words Essay.
Abstract: http://j.mp/1MhWWei
Healthcare applications now have the ability to exploit big data in all its complexity. A crucial challenge is to achieve interoperability or integration so that a variety of content from diverse physical (IoT)- cyber (web-based)- and social sources, with diverse formats and modality (text, image, video), can be used in analysis, insight, and decision-making. At Kno.e.sis, an Ohio Center of Excellence in BioHealth Innovation, we have a variety of large, collaborative healthcare/clinical/biomedical projects, all involving domain experts and end-users, and access to real world data that include: clinical/EMR data (of individual patients and that related to public health), data from a variety of sensors (IoT) on and around patients measuring real-time physiological and environmental observations), social data (Twitter, Web forums, PatientsLikeMe), Web search logs, etc. Key projects include: Prescription drug abuse online-surveillance and epidemiology (PREDOSE), Social media analysis to monitor cannabis and synthetic cannabinoid use (eDrugTrends), Modeling Social Behavior for Healthcare Utilization in Depression, Medical Information Decision Assistant and Support (MIDAS) with application to musculoskeletal issues, kHealth: A Semantic Approach to Proactive, Personalized Asthma Management Using Multimodal Sensing (also for Dementia), and Cardiology Semantic Analysis System (with applications to Computer Assisted Coding and Computerized Document Improvement).
This talk will review how ontologies or knowledge graphs play a central role in supporting semantic filtering, interoperability and integration (including the issues such as disambiguation), reasoning and decision-making in all our health-centric research and applications. Additional relevant information is at the speaker’s HCLS page. http://knoesis.org/amit/hcls
Towards Joint Doctrine for Military InformaticsBarry Smith
This document discusses using semantic enhancement and ontologies to integrate siloed data from multiple sources. It describes challenges with current approaches that rely on creating a single "über-model" or virtual integration through a homogeneous data model. Instead, it proposes a virtual integration approach using ontologies to provide a comprehensive view of domains while keeping data in its original state. Data from different sources can be semantically tagged and integrated in a cloud-based system without heavy preprocessing. This allows flexible, scalable integration while preserving data and semantics from the original sources.
Horizontal integration of warfighter intelligence dataBarry Smith
This document discusses strategies for horizontally integrating warfighter intelligence data through the use of semantic enhancement (SE). SE involves developing a suite of shared ontologies to semantically align heterogeneous data sources. This allows the various data resources to be searched and analyzed as a single resource. The key aspects discussed are developing the ontologies incrementally based on common principles, creating a shared semantic resource, and using annotation to semantically tag source data and link it to the ontologies. The goal is to facilitate horizontal integration of intelligence data across different organizations and systems in a flexible way.
Forms part of a training course in ontology given in Buffalo in 2009. For details and accompanying video see http://ontology.buffalo.edu/smith/IntroOntology_Course.html
Agile Data Warehouse Design for Big Data PresentationVishal Kumar
Synopsis:
[Video link: http://www.youtube.com/watch?v=ZNrTxSU5IQ0 ]
Jim Stagnitto and John DiPietro of consulting firm a2c) will discuss Agile Data Warehouse Design - a step-by-step method for data warehousing / business intelligence (DW/BI) professionals to better collect and translate business intelligence requirements into successful dimensional data warehouse designs.
The method utilizes BEAM✲ (Business Event Analysis and Modeling) - an agile approach to dimensional data modeling that can be used throughout analysis and design to improve productivity and communication between DW designers and BI stakeholders. BEAM✲ builds upon the body of mature "best practice" dimensional DW design techniques, and collects "just enough" non-technical business process information from BI stakeholders to allow the modeler to slot their business needs directly and simply into proven DW design patterns.
BEAM✲ encourages DW/BI designers to move away from the keyboard and their entity relationship modeling tools and begin "white board" modeling interactively with BI stakeholders. With the right guidance, BI stakeholders can and should model their own BI data requirements, so that they can fully understand and govern what they will be able to report on and analyze.
The BEAM✲ method is fully described in
Agile Data Warehouse Design - a text co-written by Lawrence Corr and Jim Stagnitto.
About the speaker:
Jim Stagnitto Director of a2c Data Services Practice
Data Warehouse Architect: specializing in powerful designs that extract the maximum business benefit from Intelligence and Insight investments.
Master Data Management (MDM) and Customer Data Integration (CDI) strategist and architect.
Data Warehousing, Data Quality, and Data Integration thought-leader: co-author with Lawrence Corr of "Agile Data Warehouse Design", guest author of Ralph Kimball’s “Data Warehouse Designer” column, and contributing author to Ralph and Joe Caserta's latest book: “The DW ETL Toolkit”.
John DiPietro Chief Technology Officer at A2C IT Consulting
John DiPietro is the Chief Technology Officer for a2c. Mr. DiPietro is responsible
for setting the vision, strategy, delivery, and methodologies for a2c’s Solution
Practice Offerings for all national accounts. The a2c CTO brings with him an
expansive depth and breadth of specialized skills in his field.
Sponsor Note:
Thanks to:
Microsoft NERD for providing awesome venue for the event.
http://A2C.com IT Consulting for providing the food/drinks.
http://Cognizeus.com for providing book to give away as raffle.
Choosing an Analytics Solution in HealthcareDale Sanders
This document provides guidance on evaluating and choosing an analytics solution for healthcare. It discusses general criteria for assessment, including completeness of vision, ability to execute, culture and values alignment, technology adaptability, total cost of ownership, and company viability. It also frames the analytic environment and needs in healthcare. Key factors are the evolving data ecosystem, analytic motives shifting from billing to quality and prevention, and lessons from EMR adoption. The best solutions will provide a closed-loop analytic experience with integrated knowledge systems, deployment processes, and analytic capabilities.
This document discusses the development and management of information systems in healthcare. It outlines how health IT can help improve quality of care by making information more accessible and reducing errors. Effective management of IT requires balancing people, processes, and technology, and using strategic and project management approaches. Health IT development may involve in-house or outsourced software solutions using methodologies like waterfall or agile development. The goal is to apply technology to enhance care while considering the complex, information-rich nature of healthcare.
OSEHRA Summit 2012 Lunch Keynote: Current health IT systems integrate poorly ...Shahid Shah
OSEHRA Summit 2012 Lunch Keynote - The Myth of Health Data Integration Complexity. This is an opinionated look at why current health IT systems integrate poorly and how it’s a big opportunity for the OSEHRA Community.
Background:
* A deluge of healthcare data is being created as we digitize biology, chemistry, and physics.
* Data changes the questions we ask and it can actually democratize and improve the science of medicine, if we let it.
* While cures are the only real miracles of medicine, big data can help solve intractable problems and lead to more cures.
* Healthcare-focused software engineering is going to do more harm than good (industry-neutral is better).
Key takeaways:
* Major opportunity for systems integrators
* Applications come and go, data lives forever. He who owns, integrates, and uses data wins in the end.
* Never leave your data in the hands of an application/system vendor.
* There’s nothing special about health IT data that justifies complex, expensive, or special technology.
* Spend freely on multiple systems and integration-friendly solutions.
Pico framework for framing systematic review research questions - PubricaPubrica
P Patient, problem, population
I ‑ Intervention, prognostic factor, exposure
C ‑ Comparison
O ‑ Outcome
Continue Reading: https://bit.ly/3igMAQ4
For our services: https://pubrica.com/services/research-services/systematic-review/
Why Pubrica:
When you order our services, We promise you the following – Plagiarism free | always on Time | 24*7 customer support | Written to international Standard | Unlimited Revisions support | Medical writing Expert | Publication Support | Biostatistical experts | High-quality Subject Matter Experts.
Contact us:
Web: https://pubrica.com/
Blog: https://pubrica.com/academy/
Email: sales@pubrica.com
WhatsApp : +91 9884350006
United Kingdom: +44- 74248 10299
Pico framework for framing systematic review research questions pubricaPubrica
P Patient, problem, population
I ‑ Intervention, prognostic factor, exposure
C ‑ Comparison
O ‑ Outcome
Continue Reading: https://bit.ly/3igMAQ4
For our services: https://pubrica.com/services/research-services/systematic-review/
Why Pubrica:
When you order our services, We promise you the following – Plagiarism free | always on Time | 24*7 customer support | Written to international Standard | Unlimited Revisions support | Medical writing Expert | Publication Support | Biostatistical experts | High-quality Subject Matter Experts.
Contact us:
Web: https://pubrica.com/
Blog: https://pubrica.com/academy/
Email: sales@pubrica.com
WhatsApp : +91 9884350006
United Kingdom: +44-161818635
Reasons why health data is poorly integrated today and what we can do about itShahid Shah
Presented at StrataRX 2012: http://strataconf.com/rx2012/public/schedule/detail/25953
While the entire healthcare community, for decades, has been clamoring for, cajoling, and demanding integration of its IT systems, we’re actually in a pretty elementary stage when it comes to useful, practical, health IT systems integration beyond on-premise and in-building hospital software. Our problem in the industry is not that engineers don’t know how to create the right technology solutions or that somehow we have a big governance problem; while those are certainly issues in certain settings, the real cross-industry issue is much bigger – our approach to integration is decades old, opaque, and rewards closed systems.
For decades, starting in the 50’s through the mid 90’s before the web / Internet came along, systems integration meant that every system had to know about each other in advance, decide on what data they would share, engage in governance meetings, have memoranda of understanding or contracts in place, etc. After the web came along, most of that was thrown out the window because the approach changed to one that said the owner of the data provides whatever they decide (e.g. through a web server) and whoever wants it will be provided secure access and they can come get it (e.g. through a browser or HTTP client). This kind of revolutionary approach in systems integration is what the health IT and medical device sectors are sorely lacking and something that ONC can help promote.
Specifically, the following things are holding us back when it comes to poor integration in healthcare and what future EHRs can do about it:
• We don’t support shared identities, single sign on (SSO), and industry-neutral authentication and authorization. Most health IT systems create their own custom logins and identities for its users including roles, permissions, access controls, etc. stored in an opaque part of their own proprietary database. ONC should mandate that all future EHRs use industry-neutral and well supported identity management technologies so that each system has a least the ability to share identities. Without identity sharing and exchange there can be no easy and secure application integration capabilities no matter how good the formats are. I’m continually surprised how little attention is paid to this cornerstone of application integration. There are very nice open identity exchange protocols, such as SAML, OpenID, and oAuth as well as open roles and permissions management protocols such as XACML that make identity and permission sharing possible. Free open source tools such as OpenAM, Apache Directory, OpenLDAP, Shibboleth, and many commercial vendors have drop-in tools to make it almost trivial to do identity sharing, SSO, and RBAC.
The document provides an overview of Geoff Rutledge's career path from medicine to computer science and clinical informatics. It discusses his background in medicine, academia, and industry. Some key points:
1) Rutledge has a background in both medicine and computer science, obtaining degrees in both fields. He worked as a physician before pursuing a career in clinical informatics.
2) He discusses different career paths in biomedical informatics, including academic, health systems, corporate research, and starting his own companies.
3) Rutledge shares lessons from his time in academia and industry, emphasizing the importance of choosing research topics that match your next career goal and maintaining perspective when working at a startup.
Wake up Pharma and look into your Big data Yigal Aviv
The vast volumes of medical data collected offers pharma the opportunity to harness the information in big data sets
Unlocking the potential in these data sources can ultimately lead to improved patients outcomes
This presentation describes consideration how to maximize the impact of Big Data.
its methodology, practical challenges and implications.
DeciBio Perspectives on Pain Points, Unmet Needs, and Disruption in Precision...Andrew Aijian
We conducted interviews with precision medicine KOLs to create a map of the precision medicine stakeholder landscape and identify and understand the unmet needs and pain points within precision medicine, as well as areas and scenarios of potential disruption.
The document discusses the need for enterprise architecture and electronic health systems in developing countries. It notes that currently many countries have fragmented and duplicative health information systems due to a lack of national eHealth policies and standards. The document advocates for adopting an enterprise architecture approach to conceive integrated eHealth systems that are interoperable and scalable. It provides definitions of key concepts like eHealth, enterprise architecture, and highlights frameworks like TOGAF that can guide the development of aligned health enterprise and information system architectures.
The Learning Health System: Thinking and Acting Across ScalesPhilip Payne
A Learning Health System (LHS) can be defined as an environment in which knowledge generation processes are embedded into daily clinical practice in order to continually improve the quality, safety, and outcomes of healthcare delivery. While still largely an aspirational goal, the promise of the LHS is a future in which every patient encounter is an opportunity to learn and improve that patient’s care, as well as the care their family and broader community receives. The foundation for building such an LHS can and should be the Electronic Health Record (EHR), which provides the basis for the comprehensive instrumentation and measurement of clinical phenotypes, as well as a means of delivering new evidence at the patient- and population levels. In this presentation, we will explore the ways in which such EHR-derived phenotypes can be combined with complementary data across a spectrum from biomolecules to population level trends, to both generate insights and deliver such knowledge in the right time, place, and format, ultimately improving clinical outcomes and value.
This document discusses using ontologies to simplify semantic solutions for biomedical applications. It provides examples of how ontologies can be used to integrate medical expertise and knowledge from different sources. It also describes challenges in representing biomedical information with ontologies and introduces MedMaP, a medical management portal that aims to simplify access to ontology-based reasoning and analytics using graphical visualizations and self-service tools. MedMaP allows users to customize their experience and gain insights from subject matter experts.
TOPIC 2AnthonyThe movie that I watched for this week, Cons.docxturveycharlyn
TOPIC 2:
Anthony:
The movie that I watched for this week, Constantine, would almost certainly have been censored. This movie explores some of things in religion that most God fearing individuals would rather not. The idea that an evil would threaten the very existence of mankind. Not to mention the way some of the demons and victims were killed or eliminated. The Motion Picture Production Code of 1930 or The Hays Code, established guidelines for movie producers. The following is a short explanation of his code:
The Code was based on three general principles: No picture shall be produced that will lower the moral standards of those who see it. Hence the sympathy of the audience should never be thrown to the side of crime, wrongdoing, evil or sin. Correct standards of life, subject only to the requirements of drama and entertainment, shall be presented. Law, natural or human, shall not be ridiculed, nor shall sympathy be created for its violation. These were developed in a series of rules grouped under the self-explanatory headings Crimes Against The Law, Sex, Vulgarity, Obscenity, Profanity, Costume, Dances (i.e. suggestive movements), Religion, Locations (i.e. the bedroom), National Feelings, Titles and "Repellent Subjects" (extremely graphic violence) (BFI. n.d.)
Constantine (2005) http://www.imdb.com/title/tt0360486/
BFI Screenonline: The Hays Code. (n.d.). Retrieved January 24, 2017, from http://www.screenonline.org.uk/film/id/592022/
Robert:
I'm pretty sure that "The Evil Dead" would have received an "X" rating upon release had it come out 50 years ago since "The Excorcist" had that rating upon its release. There is a parallel between the two since in both cases audiences became more likely to laugh at the scarier scenes than to be frightened by them. Both also had religious imagery that would be offensive to alot of people. Times have really changed since the late 1960s concerning the ratings system; films like "Midnight Cowboy" and "A Clockwork Orange" that had X ratings at one point would be very comfortably in the "R" category today.
· Write a four to five (4-5) page paper in which you:
1. Identify and analyze what you believe to be the most significant new technology requirements for the health care industry. Indicate how providers should approach the implementation of this new technology requirement that you have identified. Provide support for the response.
2. Analyze the basic technology underlying health care information systems. Argue that the need for technological innovation and / or modification is most pressing. Support the argument with examples.
3. Recommend an innovation / modification, and explain how the recommendation could improve the overall level of health care in your own community. Include specific example(s) using local hospitals or other health care providers to support the response.
4. Suggest a key action that senior health care leadership could take in the community in which you live to push the b ...
How to Create a Big Data Culture in PharmaChris Waller
A talk presented at the Big Data and Analytics conference in Boston on January 28, 2014. Emphasis on data and information sharing cultures in companies.
Essay on Positive Thinking | Short and Long Essays on Positive Thinking .... Importance Of Positive Thinking for Success Free Essay Example. 8 Positive Thinking Assignments for Students - Brookes Publishing Co.. The Power of Positive Thinking for Those Diagnosed with Challenges Free .... Write a short essay on Positive Thinking | Essay Writing | English .... Essay On Positive Thinking in English for Students | 500 Words Essay.
Abstract: http://j.mp/1MhWWei
Healthcare applications now have the ability to exploit big data in all its complexity. A crucial challenge is to achieve interoperability or integration so that a variety of content from diverse physical (IoT)- cyber (web-based)- and social sources, with diverse formats and modality (text, image, video), can be used in analysis, insight, and decision-making. At Kno.e.sis, an Ohio Center of Excellence in BioHealth Innovation, we have a variety of large, collaborative healthcare/clinical/biomedical projects, all involving domain experts and end-users, and access to real world data that include: clinical/EMR data (of individual patients and that related to public health), data from a variety of sensors (IoT) on and around patients measuring real-time physiological and environmental observations), social data (Twitter, Web forums, PatientsLikeMe), Web search logs, etc. Key projects include: Prescription drug abuse online-surveillance and epidemiology (PREDOSE), Social media analysis to monitor cannabis and synthetic cannabinoid use (eDrugTrends), Modeling Social Behavior for Healthcare Utilization in Depression, Medical Information Decision Assistant and Support (MIDAS) with application to musculoskeletal issues, kHealth: A Semantic Approach to Proactive, Personalized Asthma Management Using Multimodal Sensing (also for Dementia), and Cardiology Semantic Analysis System (with applications to Computer Assisted Coding and Computerized Document Improvement).
This talk will review how ontologies or knowledge graphs play a central role in supporting semantic filtering, interoperability and integration (including the issues such as disambiguation), reasoning and decision-making in all our health-centric research and applications. Additional relevant information is at the speaker’s HCLS page. http://knoesis.org/amit/hcls
Augmented intelligence pietro_leo_sole24_ore_schoolPietro Leo
This document discusses using artificial intelligence and cognitive computing to make precise decisions. It begins by explaining how AI techniques like natural language processing, knowledge representation, reasoning, and planning can be used for advanced tasks. It then discusses how cognitive computing leverages a combination of these techniques and machine learning over deep domain models to make data-driven predictions and evidence-based explanations. The document provides examples of how IBM is applying these approaches through technologies like IBM Watson to transform industries like healthcare, retail, manufacturing and more by improving decision making, customer service, and other outcomes.
Ontology for the Financial Services IndustryBarry Smith
This document discusses strategies for integrating reference data using semantic technologies like ontologies. It begins by introducing the speaker and their work developing ontologies. It then discusses challenges like finding, understanding, using, and integrating data across silos. The solution proposed is to publish data using standard web formats like RDF and OWL, link datasets using common controlled vocabularies in ontologies, and build a "web of data". Examples of successful ontology projects like Gene Ontology are provided. The document argues the financial industry should pool information on existing controlled vocabularies, select common modules for reference data integration, and establish governance and training to ensure interoperability and avoid new silos.
This document discusses digital health transformation and the role of health information technology. It begins by exploring concepts like artificial intelligence, blockchain, cloud computing and big data. It then examines the potential for "smart" machines in healthcare while acknowledging the complexities of digitizing such a system. The document emphasizes that clinical judgment is still necessary given variations in patients. It outlines components of healthcare systems and forms of health IT both within and beyond hospitals. Finally, it discusses using health IT to support clinical decision making and reduce errors.
Successful Implementation of Electronic Health Information Technology.docxwrite12
Nurses should be involved in all stages of the systems development life cycle (SDLC) when an organization implements a new health information technology (HIT) system. Their input can help ensure the system meets clinical needs and that issues are identified and addressed early. Specifically, nurses can provide valuable front-line perspectives in the planning, analysis, design, implementation and evaluation phases. By not involving nurses, an organization risks selecting a system that does not support safe patient care or that clinicians refuse to use.
Similar to Biehl (2015) Data Warehousing with Semantic Ontologies (20)
Successful Implementation of Electronic Health Information Technology.docx
Biehl (2015) Data Warehousing with Semantic Ontologies
1. Data Warehousing with
Semantic Ontologies
April 13, 2015, Session: 54
Richard E. Biehl, Ph.D. CSQE, CSSBB
Data-Oriented Quality Solutions
DISCLAIMER: The views and opinions expressed in this presentation are those of the author and do not necessarily represent official policy or position of HIMSS.
3. Learning Objectives
1. Demonstrate how the HIT human-machine interface relies on the semantic
abilities of human participants
2. Categorize the three semantic layers relevant to clinical data warehouse
design
3. Employ an ontological framework for mapping and modeling system-
practice-phenotype data
4. Illustrate how semantic ontologies can resolve common problems in
warehousing, using the ICD-9 to ICD-10 conversion problem as an example
5. Propose a reasoning-based warehouse design that can learn on behalf of
human participants who are increasingly overwhelmed by the flow of big data
3
5. Previous HIMSS Presentations
Fundamentals of Data Warehousing in Healthcare
2013 HIMSS Annual Conference, New Orleans
Implementing a Healthcare Data Warehouse
in One year (Or Less)
2012 HIMSS Annual Conference, Las Vegas
Standardizing Data Dimensions of
Healthcare Data Warehouses
2010 HIMSS Annual Conference, Atlanta
Success by Design: Effective Data Quality
Measurements in a Hospital Data Warehouse
2008 HIMSS Annual Conference, Orlando
Data
Quality
Data
Dimensions
Project
Management
Warehouse
Design
5
6. “Big Data” is about…
• New data base architectures and performance challenges,
• New analytical paradigms and ways of seeing the world through
data,
• New design patterns for bringing together and using vast amounts of
data,
• New social and ethical challenges that need to be addressed within
all of these new opportunities,
• And all of the everyday mundane issues of systems and software
engineering that we’ve always been challenged to address, writ
large.
6
7. The Central Challenge
• “Big Data” increases the urgency of having strong control over our
information.
• The human-machine interface relies on the semantic abilities of the
human participant.
• We need to engineer controlled semantics into our systems…
• We want systems that can reason and learn on behalf of the human
participant that is increasingly overwhelmed by the volume and flow
of big data.
X
7
8. Semantic Layers in a
Biomedical Data Warehouse
• System
– What is in the dataset or message?
• Practice
– What is the provider doing or thinking?
• Phenotype
– What’s right or wrong with the patient?
8
9. An Ontological Framework
Information
Artifact Ontology
(IAO)
Basic Formal Ontology (BFO)
Ontology of
General Medical
Science (OGMS)
Ontology for
Biomedical
Investigation (OBI)
Hypotheses
& Conclusions
Observations
Biomedical SemanticsBiomedical
Syntax
Biomedical Epistemology
9
18. Process
Performing a
diagnosis
Performing an
assessment
Collection of
specimen
Administration
of material
Processual
Context
Hospital
Encounter
Office Visit
Occurrent
Basic Formal
Ontology (BFO)
Ontology for Biomedical
Investigations (OBI)
Process
Aggregate
Laboratory
Test
Medication
Course
Transplant
Surgery
18
19. Information
Artifact Ontology
(IAO)
Basic Formal Ontology (BFO)
Ontology of
General Medical
Science (OGMS)
Ontology for
Biomedical
Investigation (OBI)
What is in the
dataset or
message?
What is the
provider doing
or thinking?
What’s right or
wrong with the
patient?
19
22. Independent
Continuant
Specifically
Dependent
Continuant
Disorder
Disease
Basic Formal
Ontology (BFO)
Ontology for General
Medical Science
(OGMS)
Dependent
Continuant
Continuant Extended
Organism
Occurrent
Processual
Entity
Disease
Course
Diagnostic
Process
Pathological
Bodily
Process
Diagnosis
Generically
Dependent
Continuant
Information
Content Entity
Pathological
Anatomical
Structure
Sign or
Symptom
experiences
Age
Ontology for
Biomedical
Investigations (OBI)
Organism
Performing a
diagnosis
Diagnosis
Patient
Role
Biological
Sex
Alive
Role
Quality
Material
Information
Bearer
Information
Carrier
Information Artifact
Ontology (IAO)
22
23. Information
Artifact Ontology
(IAO)
Basic Formal Ontology (BFO)
Ontology of
General Medical
Science (OGMS)
Ontology for
Biomedical
Investigation (OBI)
Hypotheses
&
Conclusions
Observations
Biomedical Epistemology
Biomedical Semantics
Biomedical
Syntax
23
24. Information
Artifact Ontology
(IAO)
Basic Formal Ontology (BFO)
Ontology of
General Medical
Science (OGMS)
Ontology for
Biomedical
Investigation (OBI)
Biomedical Semantics
Biomedical
Syntax
Raw
message
Data from a clinical
process about a
patient
A clinical view
of the patient
Inbound messages (e.g., CCD) are
mapped as field-level information
artifacts back to the clinical processes
that evaluated the patient.
The contents of those messages –
the values of those information
artifacts – are then mapped into a
clinical picture of the patient.
The three mid-level ontologies are mapped to each other through the common BFO
framework. The values in the messages end up being at a different ontological level than
the semantic meaning of those values, allowing for translation, harmonization, and quality
control to intervene as systems data in messages is translated into clinical data in
systems.
top level
mid-level
24
25. Information
Artifact Ontology
(IAO)
Basic Formal Ontology (BFO)
Ontology of
General Medical
Science (OGMS)
Ontology for
Biomedical
Investigation (OBI)
Biomedical Semantics
Biomedical
Syntax
top level
mid-level
domain
-level
SNOMED, ICD, CPT, RxNORM, LOINC, MeSH, etc.
25
35. Complaint
(409586006)
Start Time
(398201009)
Stop Time
(397898000)
age_at_onset
date_low
date_high
type
ProblemSchema
:
coded diagnosis
Information
Content
Entity
Problem
Observation
<code>
Age Observation
<value>
Problem
Observation <start>
Problem
Observation <stop>
isabout
isabout
isabout
Information
Carrier
“2006-03-22” “2006-04-22"
"409586006“
“Complaint”
Age At Onset
(445518008)
isabout
“29”
Specifically
Dependent
Continuant
Generically
Dependent
Continuant
Material
Information
Bearer CCD XML
SNOMED
(Functional
Classes)
35
36. type
Complaint
date_high
2006-04-22
date_low
2006-03-22
Problem:
480.0
Pneumonia due
to adenovirus
Complaint
(409586006)
Start Time
(398201009)
Stop Time
(397898000)
age_at_onset
date_low
date_high
type
ProblemSchema
:
coded diagnosis
Information
Content
Entity
Problem
Observation
<code>
Age Observation
<value>
Problem
Observation <start>
Problem
Observation <stop>
isabout
isabout
isabout
Information
Carrier
“2006-03-22” “2006-04-22"
"409586006“
“Complaint”
Age At Onset
(445518008)
isabout
“29”
Specifically
Dependent
Continuant
Generically
Dependent
Continuant
Material
Information
Bearer CCD XML
age_at_onset
29
SNOMED
(Functional
Classes)
36
37. Information Artifact Ontology (IAO)
//section/templateId /@root="2.16.840.1.113883.10.20.22.2.5.1”
ClinicalDocument/templateId/@root="2.16.840.1.113883.10.20.22.1.2"
//entry/@typeCode="DRIV“
//act/@classCode="ACT“
//@moodCode="EVN“
//templateId/@root="2.16.840.1.113883.10.20.22.4.3
" //code
//effectiveTime
//low
//high
@code
@value
//entryRelationship/@typeCode="SUBJ“
//observation/@classCode="OBS"
//@moodCode="EVN“
//templateId/@root="2.16.840.1.113883.10.20.22.4.4"
@value
@codeSyste
m
//code
@code
@codeSystem
//value @code
@ codeSystem
@type
Information
Content
Entity Information
Carrier
"CONC"
"20070103"
"20070103"
"2.16.840.1.113883.5.6
"409586006"
"2.16.840.1.113883.6.96"
“233604007
”" 2.16.840.1.113883.6.96
“CD”
Concern
Complaint
Problem
List
Pneumonia
//entryRelationship/@typeCode=“SUBJ“
@inversionInd“true"
//observation/@classCode="OBS"
//@moodCode="EVN“
//templateId/@root="2.16.840.1.113883.10.20.22.4.31" //code
@code
@codeSystem
"445518008 "
"2.16.840.1.113883.6.96"
//value @unit
@type
@value
“a”
“PQ
“57”Age at Onset
57 years
Summarization
of Episode
Note
37
39. Concern
Status
Problem
List
Resolved
Age at Onset
57 years
Summarization of
Episode Note
Class with
related value
Class with
embedded attribute
value
Classes can include
classes below them in
the ICE mappingsMetadata Layer
Defines the meaning of
the entryRelationship at
the next highest layer
Contains
entryRelationships with
variable meaning
39
41. Concern
Resolved
Age at Onset
57 yearsActive
Problem List
Asthma
Pneumonia Alive &
Well
StatusComplaint Age Health
Status
StatusComplaint Age Health
Status
Under this scenario, there would no longer be classes or tables for the various LOINC codes
that define the semantics of each <entryRelationship>. They instead become the schema
definition for the <entry> In which they are found.
A schema entry is an IAO
Information Carrier that has
been mapped to a BFO
Generically Dependent
Continuant (GDC).
41
49. 84.71 ICD-9CM Application of
external fixator device,
monoplanar system
79.21 ICD-9CM
Open reduction
of fracture
without
internal
fixation,
humerus
78.12 ICD-9CM
Application of
external fixator
device,
humerus
0PSD0BZ ICD10PCS
Reposition Left Humeral
Head with Monoplanar
External Fixation Device,
Open Approach
0PSC0BZ ICD10PCS
Reposition Right Humeral
Head with Monoplanar
External Fixation Device,
Open Approach
ICD-9
to ICD-10
49
57. Data Warehousing
with Semantic Ontologies
• Inclusion and mapping of BFO, IAO, OBI, and
OGMS ontologies
• Inclusion and mapping of additional domain
ontologies of interest
• Continuous analysis of SKOS consistency and
compliance
• Tailoring of query layer to incorporate governance-
approved semantic mappings and exceptions
57
59. Questions
You are welcome to contact me
with questions at any time:
• Richard E. Biehl, Ph.D.
Data-Oriented Quality Solutions
• rbiehl@doqs.com
• LinkedIN: rbiehl
• Twitter: rbiehl
59