Literature DB >> 24821739

Changing the research landscape: the New York City Clinical Data Research Network.

Rainu Kaushal1, George Hripcsak2, Deborah D Ascheim3, Toby Bloom4, Thomas R Campion5, Arthur L Caplan6, Brian P Currie7, Thomas Check8, Emme Levin Deland9, Marc N Gourevitch6, Raffaella Hart10, Carol R Horowitz3, Isaac Kastenbaum9, Arthur Aaron Levin11, Alexander F H Low5, Paul Meissner7, Parsa Mirhaji7, Harold A Pincus12, Charles Scaglione13, Donna Shelley6, Jonathan N Tobin14.   

Abstract

The New York City Clinical Data Research Network (NYC-CDRN), funded by the Patient-Centered Outcomes Research Institute (PCORI), brings together 22 organizations including seven independent health systems to enable patient-centered clinical research, support a national network, and facilitate learning healthcare systems. The NYC-CDRN includes a robust, collaborative governance and organizational infrastructure, which takes advantage of its participants' experience, expertise, and history of collaboration. The technical design will employ an information model to document and manage the collection and transformation of clinical data, local institutional staging areas to transform and validate data, a centralized data processing facility to aggregate and share data, and use of common standards and tools. We strive to ensure that our project is patient-centered; nurtures collaboration among all stakeholders; develops scalable solutions facilitating growth and connections; chooses simple, elegant solutions wherever possible; and explores ways to streamline the administrative and regulatory approval process across sites. Published by the BMJ Publishing Group Limited. For permission to use (where not already granted under a licence) please go to http://group.bmj.com/group/rights-licensing/permissions.

Entities:  

Keywords:  PCORI; PCORnet; clinical data; electronic health record; research data; research network

Mesh:

Year:  2014        PMID: 24821739      PMCID: PMC4078297          DOI: 10.1136/amiajnl-2014-002764

Source DB:  PubMed          Journal:  J Am Med Inform Assoc        ISSN: 1067-5027            Impact factor:   4.497


Introduction

New York City is home to one of the largest, most diverse urban populations in the USA, including more than 8 million people with a wide range of socioeconomic and health characteristics.1 Its healthcare system is marked by a concentration of academic medical centers with expertise in clinical care, research, and education. Despite this wealth of resources, healthcare delivery remains fragmented, as patients often receive care from multiple institutions, complicating efforts to conduct research, manage population health, and develop learning healthcare systems. Funded by the Patient-Centered Outcomes Research Institute (PCORI), the New York City Clinical Data Research Network (NYC-CDRN) was formed to create an accessible, sustainable, scalable clinical data network that will enable patient-centered research, support a national research network, and facilitate the development of learning healthcare systems. This project features a unique collaboration across 22 organizations, including seven independent health systems, which will create unprecedented opportunities for city- and nation-wide population health management, patient-centered clinical trials, observational studies, and precision medicine. Specific goals include aggregating data on a minimum of 1 million patients, engaging patients and front-line clinicians in all phases of the project, embedding research activity into the delivery of healthcare, aligning regulatory oversight across multiple health systems, and disseminating study results across healthcare systems. This paper describes the project's goals, governance and organizational structure, and technical approach.

Organizational and scientific approach

The NYC-CDRN includes a robust and collaborative governance and organizational infrastructure, which takes advantage of its participants’ experience, expertise, and history of collaboration.

Participating institutions

The NYC-CDRN's participating institutions (table 1) have several notable features that provide an important foundation for the consortium. The NYC-CDRN includes six Clinical and Translational Science Award (CTSA) centers,2 which already collaborate on research, data sharing, and patient engagement. Second, the participating health systems—including five medical schools, four affiliated health systems, and one practice-based research network of federally qualified health centers –have robust electronic health records (EHRs) and clinical data warehouses with many years of data. Third, the New York Genome Center (NYGC), an independent non-profit entity, with which all health systems are affiliated, has important expertise in genomic data and acts as a neutral party and ‘honest broker’3 for aggregating and hosting data from competing institutions for research purposes. In addition, two regional health information organizations, Healthix1 and the Bronx RHIO's Bronx Regional Informatics Center (BRIC), provide important expertise in patient matching and record de-duplication. Cornell NYC Tech, a new graduate school emphasizing technology and entrepreneurship, provides access to new methods for collecting patient-generated data. The Biomedical Research Alliance of New York (BRANY) serves as the centralized institutional review board (IRB) process to ensure appropriate regulatory oversight and protocol reviews. Finally, several patients and patient advocacy groups provide important expertise in patient engagement.
Table 1

NYC-CDRN participating institutions

PartnerOrganizationEHR/HIE platformPatients in EHR/HIE*
Health systemClinical Directors Network (CDN)eClinicalWorks, GE Centricity250k
Columbia University College of Physicians and Surgeons (CUCPS)†Allscripts Enterprise767k
Montefiore Medical Center and Albert Einstein College of Medicine (MMC)†GE Centricity‡1000k
Mount Sinai Health System and Icahn School of Medicine (MSHS)†Epic4700k
New York-Presbyterian Hospital (NYPH)Allscripts Sunrise1400k
New York University Langone Medical Center and New York University School of Medicine (NYULMC)†Epic1800k
Weill Cornell Medical College (WCMC)†Epic560k
Research infrastructureBiomedical Research Alliance of New YorkCornell NYC Tech CampusNew York Genome CenterRockefeller University†N/AN/A
HIEBronx RHIO (Bronx Regional Informatics Center)Optum1650k
HealthixInterSystems HealthShare7000k
Patient organizationAmerican Diabetes AssociationCenter for Medical ConsumersConsumer ReportsCystic Fibrosis FoundationNew York Academy of MedicineNYS Department of HealthN/AN/A

*Patients overlap and are for the period 1 August 2008–31 July 2013.

†Denotes CTSA site.

‡Montefiore is replacing existing EHR platforms with Epic.

CTSA, Clinical and Translational Science Award; EHR, electronic health record; HIE, health information exchange; N/A, not applicable; NYC-CDRN, New York City Clinical Data Research Network.

NYC-CDRN participating institutions *Patients overlap and are for the period 1 August 2008–31 July 2013. †Denotes CTSA site. ‡Montefiore is replacing existing EHR platforms with Epic. CTSA, Clinical and Translational Science Award; EHR, electronic health record; HIE, health information exchange; N/A, not applicable; NYC-CDRN, New York City Clinical Data Research Network.

Organizational structure

The NYC-CDRN has created a multi-stakeholder organizational structure (figure 1) that includes leadership and participation from researchers, clinicians, and patients.4–6 We have organized our work according to seven overarching goals. One committee leads each section and liaises with the other committees to collaborate on cross-cutting issues. For example, the Technical Committee cannot develop its data model without input from researchers, clinicians, and patients in the Comparative Effectiveness Research (CER) and Patient and Engagement Committees.
Figure 1

Organizational structure of NYC-CDRN (New York City Clinical Data Research Network).

Create a strong governance and business infrastructure: The NYC-CDRN has a robust, collaborative governance and organizational model that operates the network in the interests of all participants. The Governance Board oversees the entire project, sets policies in consultation with stakeholders and advisors, and ensures that all committees and stakeholders are on track to meet their deliverables. It addresses open issues within and among the committees, ensures common understanding of key network concepts and functions, and facilitates interactions with the healthcare systems among other functions. Ensure strong accountability and coordination among project committees and stakeholders: The NYC-CDRN project is a complex endeavor with many moving, intersecting, and inter-dependent parts. The Operations Group has established a project management infrastructure to guide that activity. It drives, monitors, and reports progress; ensures quality and accountability across all stakeholders; and tracks adherence to milestones and timelines. Develop an overarching vision and sustainability: The NYC-CDRN reviews its strategy and vision with an Advisory Council of external healthcare leaders and subject matter experts. The Council ensures that the project benefits from new ideas, stays aligned with local and national developments, and focuses on financial sustainability. Establish a legal foundation that protects patient privacy and security: All participating health systems have data sharing policies, IRB processes, and privacy and security policies in place. However, it would be a slow process for researchers interested in multi-site studies to obtain necessary approvals and negotiate separate policies and requirements individually from all IRBs. Thus, the project's Privacy and Security Group works with participants to agree to a common, consistent set of network processes, policies, and data sharing agreements. The participants have agreed to use a central IRB, housed at BRANY. Engage patients and clinicians: This project relies on strong leadership and input from patients and clinicians in all its phases. Patients and clinicians participate in governance, inform and develop research questions, and ensure that the network's policies protect patient privacy and security. The Patient and Clinician Engagement Committee ensures that all the other committees are identifying key policies and processes needing patient and clinician input. It also focuses on the collection of patient-reported outcomes. Embed research into practice: Participating institutions all have expertise and experience in embedding aspects of research into practice while minimizing disruption of healthcare delivery—identifying patients for research, implementing research protocols, monitoring activities, and disseminating research outcomes to improve practice. The CER Committee develops use cases for the network and ensures that the network facilitates different types of research designs, including retrospective studies, observational studies, and randomized clinical trials at the level of the individual and cohort. Community workgroups are being established to identify the best ways to engage patients in those communities and to inform research. Build the technical infrastructure of the research data network: In their initial 18 months, all CDRN projects must aggregate comprehensive, longitudinal data for at least 1 million patients for research purposes. Given the number of institutions involved, it is a significant challenge to compile that data in a standard way, match and link patient identities across institutions, de-identify the records, and make available quality data. The project's Technical Committee oversees the design of the network architecture, the data model, and the design for the NYC-CDRN Informatics Center. These activities are described in more detail below. Organizational structure of NYC-CDRN (New York City Clinical Data Research Network).

Patient population and selected cohorts

PCORI CDRN awardees must focus on three conditions: a common condition, a rare condition, and obesity. NYC-CDRN has selected diabetes as its common condition and cystic fibrosis as its rare condition. According to the official city data, nearly 60% of New Yorkers are either overweight (34%) or obese (24%), and 11% have diabetes (table 2). Cystic fibrosis is a genetic disease that affects the digestive and respiratory systems, and NYC-CDRN has identified over 5000 patients among its institutions.
Table 2

New York City population characteristics

Characteristic%
Age (years)*
 ≤1924
 20–4439
 45–6424
 65+12
 Median36
Race*
 White44
 Black26
 Hispanic/Latino*28
Female*53
% Household income <$25k†28
% Publicly insured†37
% Self-reported diabetes‡11
% Self-reported high cholesterol‡31
% Self-reported current cholesterol meds‡37
% Self-reported high blood pressure‡29
% Self-reported asthma‡12
% Overweight and/or obese‡58
% Receiving mental health medication4
% Current smoker15

*2010 Census.

†2009 American Community Survey.

‡2011 NYC Community Health Survey.

New York City population characteristics *2010 Census. †2009 American Community Survey. ‡2011 NYC Community Health Survey.

Technical approach

The NYC-CDRN's technical approach will employ an information model to document and manage the collection and transformation of clinical data, local institutional staging areas to transform and validate data, a centralized data processing facility to aggregate and share data, and use of common standards and tools. The NYC-CDRN Informatics Center, hosted at NYGC, will aggregate data from all the health systems centrally and make it available for research queries (figure 2). NYC-CDRN is being designed so that it is not constrained to a single technology or platform. It will utilize agile design and development with testing and iterative refinements as well as extensive quality controls.
Figure 2

NYC-CDRN (New York City Clinical Data Research Network) data flows.

NYC-CDRN (New York City Clinical Data Research Network) data flows.

Informational model

The NYC-CDRN will use a centrally defined information model and standardized set of terminologies to form the basis of data integration across institutions and for interoperability with PCORnet. Health systems will extract data from their EHRs or clinical data warehouse platforms according to a common set of vocabularies and then leverage existing models such as Observational Medical Outcomes Partnership (OMOP) to validate mappings between standard vocabularies to integrate demographics, ethnicity and race, diagnoses, procedures, medications, laboratory results, and other clinical elements.7 By separating representation of concepts from data storage implementation, the information model will enable use of different technologies for distinct purposes.

Local staging areas

Health systems will host a local staging area for their data feeds. They will follow procedures defined by NYC-CDRN for standards-based mapping of health information, quality assurance, data cleaning, and validation prior to sending a limited dataset to the Informatics Center. Systems iteratively will contribute data to the Informatics Center. For example, the first deliverable is for institutions to contribute patient demographics8 in a defined format followed by patient encounter data and then clinical observation data such as diagnoses, procedures, medications, and laboratory results as defined in the central information model.

Centralized data processing facility

The Informatics Center will aggregate each system's data into a patient-matched, de-duplicated central database and perform date shifting to preserve anonymity. This de-identified dataset will be available for query by investigators.9 It is critically important for a project like NYC-CDRN to match patients while preserving anonymity across multiple EHRs as a way of creating an integrated and complete view of longitudinal clinical data.10 11 The Informatics Center will leverage two health information exchanges’ existing electronic master patient indices, patient matching algorithms, and patient de-duplication techniques provided by vendors (table 1) to align data contributed by systems to NYC-CDRN. The central database will link to other sources including public and commercial claims data; patient-reported and patient-generated data, including data actively collected through surveys and passively collected through mobile devices; genomic data allowing for novel links to biologic and molecular disease markers; and other publicly available data.12

Discussion

The NYC-CDRN is an ambitious project that has the potential to significantly change the research landscape in New York City and help shape national research efforts through the national PCORnet. To ensure our best chance of success, we abide by several guiding principles. First, we strive to make the network truly patient-centered. We conduct all our activities in a fashion that is guided by, and accessible and understandable to, patients, caregivers, and their care teams. Patients have a wealth of knowledge about their conditions and healthcare experience that can inform and inspire new research opportunities. Second, NYC-CDRN depends on the active and successful collaboration of many different institutions and individuals. By nurturing that collaboration effectively, we will have access not only to a great wealth of existing expertise and resources within our participating institutions but also to new ideas and initiatives created by the interaction of those parties, such as innovative research protocols, patient engagement methods, and technical models. Third, the network needs to scale easily. As NYC-CDRN builds a network of health systems, we must continue to add new partners and link to the national PCORnet network. NYC-CDRN will draw strength from its scale. Fourth, we strive to not over-complicate an already complex job. We endeavor to choose simple, elegant solutions wherever possible. For example, we are employing an iterative process to develop our data model—starting with small sections of the template, building, testing, and improving before expanding the dataset and moving on to new sections. Finally, we strive to streamline the administrative and regulatory process to ensure that researchers can embark on critical research studies in a timely fashion, while ensuring the highest standards of patient safety and privacy.

Conclusion

With funding from PCORI, the NYC-CDRN is creating an accessible, sustainable, scalable clinical data network that will enable patient-centered research embedded within the functioning healthcare system, support a national research network, and facilitate the development of learning healthcare systems. The NYC-CDRN is well positioned to transform the research landscape in New York City and create new opportunities for wide-scale collaborations to design, conduct, and disseminate innovative clinical trials, CER, and population health management.
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