ehr achievement - HIMSS Analytics
Transcription
ehr achievement - HIMSS Analytics
Honoring Industry Leaders In Health IT Adoption For Improved Patient Care weÊ we deliver better EHR ACHIEVEMENT HIMSS16 Annual Conference & Exhibition February 28 - March 4, 2016 Dear Friends, The organizations featured on these pages are among an elite group at the leading edge of health IT, achieving Stage 7 status on the HIMSS Analytics EMR Adoption Model ℠ and /or the Ambulatory EMR Adoption Model ℠. They have demonstrated superior implementation and utilization of health IT that has directly resulted in organization-wide advancement in patient care and operational efficiencies. As market leaders, HIMSS and HIMSS Analytics share the dedication and commitment to moving the industry forward through the optimization of health IT that these Stage 7 organizations exemplify. Join us in congratulating them on their success. Regards, H. Stephen Lieber, CAE President and CEO, HIMSS John P. Hoyt, FACHE, FHIMSS Executive Vice President, HIMSS Analytics Congratulations on leading the way in health IT adoption for improved patient care. HIMSS Analytics Stage 7 Cocktail Reception is brought to you in part by: EHR Achievement HIMSS Analytics EMRAM Stage 7 HIMSS Analytics Stage 7 status is awarded to hospitals and clinics that have reached the highest level on the EMR Adoption Model (EMRAM) and the Ambulatory EMR Adoption Model. The EMRAM identifies and scores hospitals and clinics using a progressively sophisticated eight-stage model that charts the path to a fully paperless environment. This prestigious industry award was introduced in 2009 by honoring 15 organizations that had attained Stage 7 in their EMR journey. 2015 Stage 7 Recipients Avera McKennan Hospital & University Health Center 76 Ambulatory Facilities St. Elizabeth Edgewood St. Elizabeth Florence St. Elizabeth Fort Thomas St. Elizabeth Grant Bon Secours - DePaul Medical Center 1 Ambulatory Facility 111 Ambulatory Facilities Good Samaritan Hospital Stanford Children’s Health - Lucile Packard Children’s Hospital Stanford 126 Ambulatory Facilities 26 Ambulatory Facilities Carolinas HealthCare System Cleveland Carolinas HealthCare System Kings Mountain Carolinas HealthCare System Lincoln Carolinas HealthCare System NorthEast Carolinas HealthCare System Pineville Carolinas HealthCare System Union Carolinas HealthCare System University Carolinas Medical Center 259 Ambulatory Facilities Centura Littleton Adventist Hospital Centura St. Catherine Hospital St. Catherine Hospital St. Mary Medical Center The Community Hospital The National Institutes of Health Clinical Center Nebraska Medicine - Bellevue Nebraska Medicine - Nebraska Medical Center 4 Ambulatory Facilities Leonard J. Chabert Medical Center Ochsner Baptist Medical Center Ochsner Medical Center - Baton Rouge Reading Hospital 206 Ambulatory Facilities Texas Health Arlington Memorial Hospital Texas Health Harris Methodist Hurst - Euless - Bedford Texas Health Presbyterian Hospital Plano WellSpan Surgery & Rehabilitation Hospital Yale New Haven Health System Yale - New Haven Hospital Congratulations on reaching Stage 7! Here’s a great way to connect with other high-achieving executives from Davies and Stage 7 organizations in North America HIMSS Executive Institute Designed exclusively for high-performing health IT leaders, HEI… • Brings high-achieving health IT leaders together to understand, achieve and promote optimal value from the use of IT in a health setting • Allows members to share their extensive knowledge and experience to enhance their own organizations’ business and clinical outcomes, and to support other organizations in their journeys toward earning Davies and Stage 7 achievements Driven by its members, for its members All programming and activities of the Executive Institute are created by its members for its members. HEI holds monthly webinars on member-chosen topics, including: The HIMSS Executive Institute gives Davies and Stage 7 executives a unique opportunity to meet and mingle with their peers, and to work together to continue to positively transform health and healthcare through the best use of IT. – Skip Hubbard HIMSS Executive Institute • Maximizing Value from Your Health IT Investments • Revalidating Your Stage 7 Status + EMRAM v2.0 • Population Health, HIMSS Maturity Models and more Join us at HIMSS16 HEI activities at HIMSS16 reflect current members’ networking and education needs: • • • • HIMSS Executive Institute Lounge, with daily breakfast and lunch discussions Roundtable Luncheon: Cybersecurity Challenges to Your Organization and Its EHR Reserved seats at the SUPERNAP Data Center Tour VIP seating at keynotes Share your experience and thought leadership with other high-performing executives while enabling others to join your ranks as transformational leaders. Join the HIMSS Executive Institute today. Learn more: www.himss.org/HEI Profile Avera Health System comprises over 15,000 health professionals and support staff, including over 1000 physicians and advanced practice providers committed to the mission and vision of caring for patients in 7 states for over 100 years. Avera provides an array of services to meet the needs of more than 2.2 million residents in the upper Midwest with the base of operations in Sioux Falls, South Dakota. Avera represents many physician specialties and 10 clinical services lines in 5 geographic regions of care. These regions represent 38 hospitals, 21 long term care facilities, 160 clinics, with integrated home health, and the award winning Avera eCARE telehealth service. All Avera facilities share a common, faith-based mission and vision, centered on ministry, people, quality, service and financial stewardship. Avera is committed to delivering evidence based medicine increasing the quality, safety and efficiency of care to our patients. The Challenge The Upper Midwest is rural in its setting. Vast distances exist between care facilities for many of our patients. Avera Health has harnessed technology to offer electronic alternatives for patients to minimize travel from their home community to a larger, urban center. Avera Health has a long-term commitment to health information technology. Avera has been HealthCare’s Most Wired and Wireless since their inception for a total of 14 and 10 times respectively. In addition, Avera won the Most Wired Innovator Award in 2011 and 2012 for Avera ePharmacy and eEmergency services. Avera Health has placed a strong emphasis on system integration. Our Avera Electronic Medical Record (EMR) is based on a single, integrated record for each patient across the entire Avera Enterprise. In addition, over the course of the MEDITECH implementation, Avera’s largest hospital, Avera McKennan, has achieved American Nurses Credentialing Center Magnet status four times, placing them in an elite class of less than 30 hospitals in the world. Implementation Overview In 2006, Avera embarked on an enterprise EMR selection process. We chose to continue our sixteen year relationship with MEDITECH. The contract was signed in 2006. In November 2007, five hospitals went live with the MEDITECH Client Server platform. We deployed all clinical, financial and administrative modules. To complement this implementation, physician and nursing leadership was established in IT. At this same time, Avera went live with diagnostic radiology picture archiving and communication system (PACS) in all settings of care. From 2007 to 2014, Avera also installed what was then Lake Superior Software (LSS) and now MEDITECH Ambulatory in all of its ambulatory clinics. Other vendor partners include Nuance®, GE Centricity™, Phillips VISICU® and Xcelera, OBIX Perinatal Data System®, ProVation® Medical and QuadraMed®. Progress and Innovation In the fall of 2010, Avera began its computerized physician order entry (CPOE) implementation. We partnered with Zynx Health™ to provide content. A physician governance structure was created. Physician Review Teams (PRTs) were responsible for reviewing and maintaining content of order sets and electronic documentation templates (pDoc). These review teams included a pharmacist and nurse. In the fall of 2011, Avera went live with CPOE and electronic provider documentation in all hospitals. We have maintained greater than 90 percent utilization of CPOE and greater than 80 percent utilization of pDoc. As part of this implementation, electronic prescribing of medications was implemented in all hospitals and clinics. We currently are sending more than 10,000 electronic prescriptions per week. In 2012, Avera began its journey “Transforming Patient Safety, One Scan at a Time: Every Patient, Every Medication, Every Time” to 100 percent bedside barcode medication verification (BMV). We utilized lean and Six Sigma principles throughout the implementation. This process reduced the severity of medication errors by 33 percent. Avera partnered with the South Dakota Health Information Exchange (HIE) in 2014. To date, we have exchanged messages with 34 Health Information Services Providers (HISP), sent and received over 350,000 Direct message transactions with 1100 providers accounting for 189 facilities. Two highlights of this project include working to coordinate long-term care with patient discharge In 2014, with a state grant, Avera and MEDITECH partnered with the South Dakota Department of Health to create a bidirectional interface to the state immunization database. This one of the nation’s only bidirectional immunization interfaces. This has created enormous efficiencies for our hospitals and clinics as well as preventing duplication of immunization for patients. In 2015, Avera McKennan has implemented VOALTE® as our inter-provider communication platform that lets care teams inside and outside the hospital access and exchange information securely. VOALTE® the vendor, is also an acronym for voice, alert and secure text, combining these methods of communication into one application. Connexall® is the middleware for alerts from equipment (patient monitors, nurse call) and critical lab values from MEDITECH. We have the ability to assign appropriate patient care staff to appropriate alarms. Alarm escalation and cancellation is bi-directional with secure text. The Avera Clinical and Business Intelligence group has created multiple dashboards, supported by our Health System’s Data Repository (DR). Meaningful Use Measures and National Quality Measures for HAC/HARM events, including Ventilator Days, Foley Catheter Days, Central Line Infections, Catheter-Associated Urinary Tract Infections, Antibiotic Utilization and C. difficile rates are electronically abstracted, completely eliminating manually abstraction, allowing for aggressive local performance Rapid-Cycle-Process-Improvement by our clinicians. Avera Health is extending the power of the DR and analytics into additional System strategies, including predict appropriate staffing models and Sepsis care. Avera Health is one of one hundred hospitals selected by CMS to participate in the eCQM, electronic submission of Clinical Quality Measures. Avera has incorporated personalized medicine and pharmacogenomics as clinical decision in provider workflow. Our primary focus to date has been on metabolism of opioids, neuropsychiatric medications, anti-platelet therapy, and tamoxifen for breast cancer. Prior to surgery or treatment, a genetic profile is performed at the Avera Institute for Human Genetics. A Personalized Pharmacogenomics Report, including medication recommendations based on the patient’s genetic profile, personal health history, and home medications is completed in Physician Documentation (Pdoc). This report is sent electronically to the ordering provider. Rules were built in both acute and ambulatory ordering modules to alert providers with the patient’s genetic profile results when ordering these medications. Return on Investment Avera Health has successfully qualified for Meaningful Use Stage 2 for 100% of its hospitals and 98% of its providers. We completed attestation for Stage 1 (both years) as well as Stage 2, Year 1 and will attest to the same percentages for Stage 2 Year 2. We have significantly reduced our hospital transcription by 90 percent, resulting in reduced costs for chart handling, paper charts and personnel assembling those charts. The HIM department has saved over ten million dollars since implementation of pDoc in 2011. Space that was dedicated for these activities has now been transformed into revenue generating space for our radiology service line. With a fully integrated EMR across all environments of care, we have seen a significant reduction in days in accounts receivable. The recent implementation of ICD-10 for the Avera system was a “non-event.” Avera has seen no change in number of queries to providers and reimbursement rates over the last three months of 2015 have remained stable. Lessons Learned With the 2007 MEDITECH implementation, there was a corporate decision to create multiple health care information system (HCIS) databases based on five geographic regions. This was not recommended as best practice; however, the corporate environment at Avera during those years lent itself to this decision. Over the years, this structure has created many difficulties with exchange of data, standardization of workflows within our organization. Avera is currently implementing the MEDITECH 6.1 platform. This will be a single database implementation. Looking to the Future HIMSS Analytics Stage 7 “healthcare organizations support the sharing and use of patient data that ultimately improves process performance, quality of care and patient safety. Clinical information can be readily shared via standard electronic transactions, with all entities within health information exchange networks. This stage allows the healthcare organization to support the true sharing and use of health and wellness information by consumers and providers alike.” We strive to be OneAvera in all aspects of care. The electronic medical record is no exception. Avera continues to make every effort to be completely paperless in all facilities with the interests of our patients, front and center of everything we do. Profile CHA is a three-hospital system based in Cambridge, MA. CHA acts as the Cambridge Public Health Commission and Public Health Department of the City of Cambridge and serves as a teaching hospital for Harvard University and Tufts University. CHA employs 4,323 staff, including 690 physicians, and serves more than 140,000 patients in Boston’s Metro North region. CHA has received NCQA Level 3 Medical Home recognition for ten of its twelve primary care practices, achieved HIMSS Stage 6 for Acute and Ambulatory in May 2015, and HIMSS Stage 7 for Ambulatory in September 2015. The Challenge CCM: Cambridge Health Alliance is a safety net health organization and cares for some of the most disadvantaged patients in Massachusetts. This population is, by definition, high risk for poor health outcomes. As part of our transition to the Accountable Care Organization, it is important to identify those patients that are higher risk and provide services to help them navigate the healthcare system. Our challenge was to create a method by which to identify high risk population, learn about the needs of this population, and create a system that can help support this population to increase their health. The organization is spread over 5 cities and the populations throughout those cities are diverse. There are multiple different cultures, languages, and access to healthcare in those different locations. We also provide different services in each of these locations. Our goal was to help identify this population, implement a complex care management program for these patients, and increase the health of this population. We also hoped to show a financial benefit by estimating the annualized cost avoidance based on the emergency and Hospital services provided for these patients. Implementation Overview CCM: The high risk population was identified by two methods. First, primary care providers were given a list of patients who met certain criteria of high ED and inpatient activity. They were asked to validate that these were high risk patients in their panels and to complete referrals to complex care managers. The complex care managers then validated the PCP referrals to ensure that the patients were high risk, using standard criteria including any of the following: a) more than 10 ED visits in a 12 month period; b) more than 3 inpatient admissions in the 12 month period; c) greater than 75% inpatient stay probability; or, d) greater than 90% risk score. These patients were required to have impactable conditions such as chronic kidney disease, congestive heart failure, severe psychiatric illness, substance abuse, diabetes, chronic obstructive pulmonary disease. After these patients were identified, they were enrolled into complex care management. During this time the patients were evaluated for barriers to improving their health and were provided support systems to minimize these barriers. Complex care managers also created patient care plans that identified each patient’s goals and action plan. Resulting Value / ROI CCM: Identifying high risk patient population: We used a combination of criteria to identify a high risk population with conditions that we could impact with complex care management. About one half of the patients who were identified using high ED or inpatient utilization were not validated by the primary care providers as being high risk. Willingness to participate: About one quarter of the patients identified were appropriate and willing to enroll in complex care management, but 40% of the patients who qualified either declined participation or were unable to be contacted. Cost avoidance: From the 77 patients in the high risk population identified and enrolled into complex care management, an annualized cost avoidance of $809,645 was achieved. Patient care plans: Care plans played a pivotal role in helping understand each patient’s barriers, priorities, goals and services which would help the patients improve their health. These care plans were reevaluated every 6 months while the patient was enrolled in complex care management. Ream chose Imprivata Confirm ID because of the breath of two-factor authentication options it supports. Ream was particularly impressed by Hands Free Authentication’s ability to meet the user needs outlined by his Clinical Informatics team. “Hands Free Authentication is the key to maintaining meaningful patient-to-provider interaction,” says Ream. “Ensuring that patients receive the time and attention they need, without technology interruptions during their clinic visits, is extremely important for improving patient satisfaction. With Hands Free Authentication, prescribers no longer have to pay attention to multiple screens or manually enter multiple passcodes. Instead, prescribers remain patient-based while enjoying the more efficient, technology-enabled workflows. Lessons Learned CCM: Patient Identification: It is critical that the healthcare organization identify high risk patients including a validation process which includes the primary care providers. This will help inform the selection process and help focus attention on the very high risk populations. Improvement Opportunity: It is extremely important that the organization focus on patients who have conditions which can be improved with additional services. Engagement: Many patients who are identified as being appropriate for complex care management may either decline to participate or be difficult to contact. This is a very difficult population since this population is either not engaged in improving their health or has social/environmental barriers to engagement. Working on ways in which we educate and improve the engagement of patients will be a continued challenge. Care Plan: Creating a care plan provided the opportunity for the care manager and the patient to sit together and document barriers and goals. This allowed the complex care manager to focus on areas in which the patient was engaged. The care plan documented the goals and action plan and was reevaluated every 6 months, which helped improve patient engagement and provide accountability for the patient. Cost: Providing focused services to complex care patients has significant cost avoidance and is essential in providing complete care to complex patients as well as providing a financial benefit to the organization. Profile Carolinas HealthCare System is the one of the nation’s leading public, not-for-profit healthcare systems. • 39 hospitals and 900+ care locations in the Carolinas and Georgia • More than 7,000 licensed beds • 11 million patient encounters per year • 2,500+ system-employed physicians, 15,000+ nurses and 60,000 teammates • More than 50 disease-specific certifications from The Joint Commission • Charlotte region’s only Level I trauma center • One of five academic medical centers in North Carolina • One of the largest HIT and EMR systems in the country HIMSS Analytics EMR Adoption Model Stage 7 2013 - Carolinas Medical Center Mercy 2015 - Carolinas Medical Center (including Levine Children’s Hospital), Carolinas HealthCare System Cleveland, Carolinas HealthCare System Kings Mountain, Carolinas HealthCare System Lincoln, Carolinas HealthCare System NorthEast, Carolinas HealthCare System Pineville, Carolinas HealthCare System Union, and Carolinas HealthCare System University HIMSS Analytics Ambulatory EMR Adoption Model Stage 7 2015 – Carolinas HealthCare System Medical Group (270 practice locations to date representing 901 providers) The Challenge The Carolinas HealthCare System EMR program set out with a goal of a single patient record across the System. This goal would require the implementation of new EMR foundation capabilities, integration with core revenue cycle and ancillary systems, and expansion of capabilities including a Patient Portal and Health Information Exchange. This foundation would then be built upon to further the vision and system strategy of Carolinas HealthCare System with advanced functionality such as decision support, evidence-based medicine, and patient engagement tools. OUR VISION Carolinas HealthCare System will be recognized nationally as a leader in transformation of healthcare delivery and chosen for the quality and value of services we provide. SYSTEM STRATEGY Carolinas HealthCare System will achieve its vision through the development of a single unified enterprise focused on developing enduring relationships with our patients based on superior personalized service and high quality outcomes. Implementation Overview Carolinas HealthCare System began its EMR journey in 2005 to create a single patient record across the System. In 2006, the implementation of nursing and ancillary documentation, pharmacy automation, barcode medication administration, and order entry capabilities began and spread across multiple acute facilities. Simultaneously physician office deployments started which enabled key functions including nursing documentation, electronic messaging among the care team, electronic prescribing, and health maintenance alerts. The patient had one electronic record enabling seamless flow of information between care settings. CPOE leveraging evidence-based medicine, provider documentation, and advanced decision support capabilities followed in 2011 in both the acute and ambulatory areas. The implementation and adoption of these foundational EMR capabilities were integral to enabling more advanced capabilities including: Resulting Value / ROI Quality and Patient Safety: • Creation of a paper-less environment • VTE clinical decision support improved VTE ordering compliance from 71% to 96% • Enabling over 15,000 annual virtual visits, with the EMR as a foundational element • The advancement of the Dickson Advance Analytics (DA2) program utilizing analytics to identify, measure, and improve care and quality outcomes • Advanced decision support capabilities allowing advancement in management of Sepsis, VTE, asthma, catheter infections, readmission reductions, and overall quality measures • MyCarolinas, the Carolinas HealthCare System patient portal, advancing patient engagement and providing patients with a single source to their healthcare records • The launch and implementation CareConnect, a Health Information Exchange uniting all Carolinas HealthCare System facilities regardless of EMR and connection with affiliated physician and hospitals across the Carolinas “As the first healthcare system to achieve Stage 7 for both hospitals and physician offices in North and South Carolina, it shows our commitment and dedication to our patients to provide access to quality health and care,” said Craig Richardville, FACHE, MBA, senior vice president and chief information officer. “Using the electronic medical record to its fullest potential connects our clinical providers and our patients across all points of health and care. That means our patients experience a seamless integrated system of care from their work or home, to their physicians’ offices, to the emergency department, to the hospital, at all points of care. Most importantly, our EMR engages our patients to become full partners with their providers to live healthier lives.” • Improved the HBIPS Discharge measure from 72 % to 89% through Q3 2015 • Improved IMM from 98% in 2014 to 99% through Q3 2015 • Over 98% of all inpatients are managed via an evidence-based order set • Improved Ambulatory Appropriate Care Score by over 30 percentage points Efficiency and workflow: • Savings through a greater than 60% reduction in transcription lines • Scanning of documents on the nursing units reduced time to availability in the EMR by as much as 3 days. • Establishing a paperless environment enabled centralization of acute Medical Records and Coding operations Lessons Learned • Executive leadership and support for the EMR program and goals are key to success • A well-established governance structure to guide direction of the EMR program and to prioritize optimization projects through objective and value-based criteria will continue to serve the organization long after initial implementations • Engage physicians and clinician leaders in the design of evidence-based content and EMR workflow design • Your training approach must expand beyond preparing users for the go-live event, to also support ongoing education, communication, and coaching to cultivate adoption of best practices and achievement of EMR goals Profile Centura Health, founded in 1996, manages the assets of two sponsors under a joint operating agreement. For more than 100 years, Centura Health hospitals and services have been helping people to live healthier, longer lives. Our sponsors, Catholic Health Initiatives and Adventist Health System, have long provided compassionate, leading-edge care to those in need throughout the region. Our mission is to extend the healing ministry of Christ by caring for those who are ill and by nurturing the health of the people in our communities. Centura Health is focused on providing affordable, world-class care through an integrated network in Colorado and Western Kansas. Over 17,000 of the best hearts and minds in medicine, along with 6,000 physician partners, serve more than one million patients each year. In 2007 we saw the potential to integrate several clinical systems into a common, secure Electronic Health Record (EHR) system to make patient health information available across all Centura Health facilities while preserving patient privacy and information security. Centura’s EHR currently contains approximately 2.4 million patient records, making it the largest integrated health network in the region. Centura Health has fifteen Stage 7 hospitals, with the most recent designation of St. Catherine Hospital in Garden City, Kansas, in September 2015. The Challenge Centura facilities and the system as a whole had attempted several times to address blood product management in the past. However, no project had been truly successful or sustainable. With a dyad partnership in place, the CMO could bring to his colleagues convincing evidence that Centura facilities were purchasing more blood than others in our market, and more than our sponsor systems predicted based on hospitals with similar service and size. Our VP of Supply Chain participated in every discussion with the medical leadership and committed resources to supporting an initiative to change our processes and our clinical behavior. We embarked upon a blood product management initiative in 2013 which included addressing the clinical decision making around the use of packed red blood cells in our facilities. At that time, 7.5% of admitted patients received a blood transfusion, and each patient received an average of 2.96 units. To address this, we set a goal during fiscal year 2013 to utilize a massive transfusion protocol and embark on a system-wide educational campaign to bring ED transfusion practices in line with currently accepted guidelines. In 2014, we embarked on a similar project targeting non-trauma, non-emergency related blood utilization. We viewed this as an opportunity to utilize our EHR in a manner that would benefit our patients and clinicians, while at the same time properly managing the use of this very precious resource. Implementation Overview Our clinical content development process is governed by a multidisciplinary team comprised of physicians, nurses, informaticists, pharmacists, information technology, and quality and safety leaders. This team meets with the clinical and operational leaders who want to effect change in clinical behavior in order to work out each detail of the EHR support for the clinical change project. In this instance, the content management team worked with the trauma and ED directors to sift through available options in adjusting the EHR and chose the best fit for the problem being addressed. In 2013, our trauma service line directors developed a system-wide consensus on utilization of pRBC during trauma resuscitation. Our ED Directors agreed on a standardized approach to transfusion in non-trauma emergency cases. Acknowledging that these resuscitations are quite fast paced and generally the physician does not spend a lot of time at a computer in the midst of these situations, it was felt that a standard ED transfusion order set, if written well, could facilitate appropriate use of blood products during ED resuscitation. This order set was written and put into production in mid-2013. All other avenues to order transfusions in the ED were removed from the EHR at that time. To address non-trauma blood product utilization, in 2014 we convened a group of subject matter experts (including blood bank experts, pathologists, hospitalists, orthopedic surgeons, trauma surgeons, and ED physicians) to develop guidelines for safe and appropriate use of pRBCs in non-trauma, non-ED situations, and developed an education campaign for our medical staffs. We confined transfusion ordering to an order set, fixed the quantity to default to one unit, and instituted a new decision support rule in our EHR to support our new guidelines. However, these guidelines had to include a unique aspect that acknowledged the fact that we deliver medical care in some locations that are at elevations above 6500 ft. Only with our ability to acknowledge and validate the medical decisions that are made for transfusion targets at high elevations were we able to reach system-wide consensus on implementation of this new decision support pathway. The following are identified as generally accepted thresholds for transfusion of pRBCs at Centura Health: • HGB less than or equal to 7 g/dL • Acute blood loss: > 20% Estimated Blood Volume • Hematologic or oncologic diagnosis • Hgb 7-10 g/dL with underlying disease that could cause tissue hypoxia (Acute MI, CVA, CHF, COPD for example) • Elevation > 6,500 ft When pRBC transfusion is ordered and the most recent hemoglobin is greater than 7.0 g/dL, the ordering provider will be asked to indicate the reason for transfusion. Also, it is recommended that only one unit of packed red cells be transfused unless the patient is actively bleeding or in an emergency situation so that the hemoglobin and clinical situation can be re-evaluated to determine the need for additional units. The intended outcome of this 2-year long project was to ensure that we are using this precious resource in clinically appropriate situations and not putting our patients at unnecessary risk by transfusing blood when other means of treatment may be more appropriate. Changes made in the EHR included: • We restricted the ability to order a blood transfusion to an order set. • For the ED order set, we specified the quantity for each blood product to speed order entry. • For the inpatient transfusion order set, we defaulted the number of pRBC units to transfuse to one. • For non-trauma patients, we instituted a rule that checks that most recent hemoglobin, looking back 72 hours across encounters. If the most recent hemoglobin was 7.0 or greater, the ordering provider receives a warning. Override reasons include one of high elevation of the treatment site or of the patient’s home address, in addition to other clinically appropriate reasons for an override. We developed education regarding clinical indications for transfusion including the more restrictive hemoglobin threshold now accepted as reasonable, the ‘new’ principle of transfusing the least amount needed, and introducing the alert described above. This education was presented to each of the 15 hospitals medical staffs via meetings, conferences and existing local communication methods. Resulting Value / ROI Since the inception of the project we have experienced a 58 percent decrease in the utilization of pRBCs compared to 2012. In 2013, 7.5 percent of our admitted patients received transfusions, whereas in 2015 only 6.2 percent received transfusions. This constitutes 2,328 patients who were spared the risks of blood administration as a result of this effort. Additionally, in 2013 our units/patient ratio was 2.96. In 2015 this was reduced to 2.74. All facilities have shown a decrease in both the number of units transfused and the number of patients who received transfusion, despite an overall growth in number of patients treated in our system. Because transfusion reactions and adverse events are relatively rare and there is poor consensus on incidence, it is difficult to quantify the avoidance of adverse events for patients. However, conservatively, we may have avoided 23 acute febrile reactions, 4 cases of TRALI and one case of TACO. BBGuy.org Reaction Summary Chart; © 2012, Joe Chaffin, MD Given a cost of $225/unit of pRBC, $40/unit processing cost (does not include complex antibody processing, or nursing administration), and 6,542 avoided units, we estimate our two year cost savings to be approximately $1.5 million. This change in clinical decision making required approximately 6 months of clinical expert meetings, four months of educational effort and two changes in our EHR. Although our clinical pathology colleagues had worked to change behavior in this area for several years prior, the key factors to the success of this attempt was the involvement of our supply chain colleagues and our newly functional EHR content management process. Lessons Learned This project succeeded because our content management process developed strong support from physicians, blood banks, supply chain and analytics. The key difference was the involvement of our supply chain experts who brought an area of expertise to the table that had previously been untapped. These experts were essential in bringing our blood product vendors into the discussions so that we could better understand the supply chain from donation to administration. Their involvement also provided us with comparative data and Centura-specific purchase and waste data that was needed to signify the importance of this project. The creation of the dyad leadership model between supply chain and medical leadership has been invaluable in our successful execution. Dividing the massive topic of blood product utilization into smaller segments by asking the trauma experts to work together and address their needs, then sequentially asking the ED, then non-trauma medical experts to follow suit, was done as a practical matter originally, but in the end was seen as a smart method to slowly address the culture change that was needed. Discussions with involved or affected physicians in one group cross-pollinated the other groups, so that the non-trauma change management was quite minimal. Profile Community Healthcare System (CHS) is comprised of three not-for-profit hospitals in Northwest Indiana: Community Hospital in Munster, St. Catherine Hospital in East Chicago and St. Mary Medical Center in Hobart employing 6582 healthcare providers. CHS is an 875-bed system with 40,477 annual discharges, 212,579 patient days, 556,821 outpatient visits and 131,582 ED visits making CHS the one of the busiest systems in Northwest Indiana. The CHS vast network of care locations includes Hartsfield Village, a Continuing Care Retirement Community in Munster, outpatient, physician practices, behavioral health, occupational health, home care, a medically-based fitness center, cancer research foundation, cancer support center surgical and rehabilitation centers. Community Healthcare System hospitals are regional leaders in orthopedics, cardiac cancer care, women’s health services and bariatric medicine, and offers a broad range of healthcare services. Organizationally, CHS has been highly recognized for quality care and acknowledged for meeting the highest healthcare standards in the nation by The Joint Commission (TJC) and has been ranked among the top 1% in the nation for overall clinical excellence. CHS supports the area's largest cancer treatment and research programs, which is linked to the National Cancer Institute and major research cooperatives around the globe. The Challenge On April 28, 2014, a middle aged male walked into the Emergency Department of Community Hospital with typical symptoms of a respiratory infection including cough, fevers, and fatigue. He was evaluated and admitted to the hospital with respiratory isolation precautions and a presumptive diagnosis of bacterial pneumonia. The next day while being evaluated by an infectious disease specialist, there was a suspicion for Middle East Respiratory Syndrome (MERS), a new viral pathogen not yet seen in the United States. Within 48 hours, the Indiana State Department of Health (ISDH) had a possible positive diagnosis in lab testing and the Centers for Disease Control and Prevention (CDC) confirmed the positive finding the next afternoon. The CDC held a national news conference confirming their findings within an hour of their confirmatory testing. In the 16 hours between the possible positive lab testing by the ISDH and the CDC confirmation, we had to identify every hospital staff member, clinician, visitor, patient and EMS personnel that might have been exposed to this highly contagious virus with a presumed mortality rate of roughly 30%. The patient had traveled throughout the hospital including ED registration, ED waiting room, ED treatment room, radiology, multiple elevators and onto an in-patient nursing unit. When we were informed of the positive lab confirmation, we had one hour to notify every individual on this list, pull them from active duty, immediately replace each one in a mission critical role and others within an acceptable time frame. We had to continue to deliver on our Mission to provide highest level of quality healthcare to our community. Through the utilization of multiple technologies, we were able to identify 53 employees that were exposed to the patient before additional CDC requested isolation protocols were initiated. Great care was placed on crafting appropriate messages to our employees, physicians, patients, media and the community. Providing credible, timely information to reduce fear and misinformation to all audiences was critical. Immediate steps were taken to develop messages and provide access to information in a variety of ways. We quickly discovered that the amount of phone calls and inquiries from both internal and external sources was overwhelming. Hot lines to receive phone calls were set up in conjunction with the ISDH as the hospital’s operators were unable to field the volume of calls received. During the first 48 hour period, our hospital operators processed more than 300 calls and inquiries. We had another 300 calls placed in the external media line that we set-up. This call volume does not include all the calls make to the ISDH. The next couple of weeks of intense local, regional and national media attention, on-site CDC monitors and advisors, and resource management via our Incident Command Center created a high degree of distractions that could have led to an increased level of errors, delays in care and nosocomial spread of the virus. We also had to very carefully protect the confidentiality of the individual with the MERS virus while under a high level of public scrutiny and concern. Our ability to rely on the workflows and policies we built and solidified during our clinical transformation across the system with the implementation of EPIC, prevented us from wavering in our Mission. CHS was able to safely provide care and fulfill the mission without any safety lapses or delays even with a large contingency of staff on leave for 14 days while they were monitored daily for signs of MERS. With the integrated use of technology, swift and quick action was taken to identify, contain and address the needs of the organization and the community. No other individuals contracted the MERS Virus from CHS. Implementation Overview In July of 2009, we started our journey towards an integrated EHR to tie together clinical, financial and operational objectives. We went live at each of our three hospitals in 2011 in a phased approach with full documentation and rolled out CPOE 12 months later. Various module implementation and system optimization have been ongoing with strong executive support. As we have become virtually paperless, the EHR functions across the continuum of clinical care provided with almost every clinical staff member entering information into the electronic patient record. This makes it easy to track who has been providing care to which patients and when. During product selection for call-light/nurse-call system, we were specific in the requirements for clinical integration, enhanced patient safety and improved communication as goals. In addition to implementing a traditional nurse-call system, CHS’s goal was to include enhanced technology integration which included hand held phones, staff tracking and integration with clinical documentation in Epic. Multiple vendors were evaluated, CHS chose Rauland Technologies for the nurse-call system, integrated with Ascom wireless phones and Versus GPS tracer tag technology. One of the benefits of the Rauland’s call-light system was not solely to improve direct patient care, but to have supporting documentation through the electronic system to validate how much time was having to be spent in the patient’s rooms. This advanced technology allowed us to “right-size” staffing measures to reduce waste and to make sure we had the correct amount of staffing mix. Goals for the integration of these technologies are as follows: Call-light system integration 1. Provide immediate notification to the “mobile” nursing staff. 2. Provided concurrent and retrospective data to allow for utilization of statistics. 3. Long range plan for future integration with ongoing development and technology to enhance care for both immediate and future needs. 4. Allowed a stronger connection between current personal devices (ASCOM/pagers) and patient care. 5. Provided evidence in length of time that call-lights were on without being answered in effort to allow staff to see and improve their performance. 6. For improved security, we also installed video cameras in the public areas of the Emergency Department and many hallways on our inpatient floors. This allowed our security team to oversee the safety of staff and patients at all times. Resulting Value / ROI Once the employees were identified who were exposed to the MERS virus, management’s primary focus was to insure the health and safety of the staff, patients, visitors and the community at large. It was imperative all individuals exposed were quickly and accurately identified and communicated with to elevate questions and mitigate fears. A comprehensive plan was provided to the exposed individuals and an initial plan for their safety was provided. Once the employees were communicated with, they had the initial set of blood work done to test for the virus and mandatory two week isolation period began to isolate those employees to decrease any exposure of the virus to others. Since this was the first case in the United States and limited data was available from the World Health Organization, the CDC was unsure of the risks of exposure. So the hospital acted with an abundance of caution in the approach to the MERS CO-V virus. Utilizing CHS’s technology investments, CHS was able to identify all exposed employees and reduce fear of individuals who were concerned they had been exposed. CHS followed the CDC and ISDH guidelines for persons at highest risk of developing infections. Those with close contact of the case where defined as any person who provided care for the patient including a healthcare provider not wearing recommended personal protective equipment, family member or someone with similarly close physical contact, any person who stayed at the same place (e.g. lived, visited) with the patient while the patient was ill. The following was how CHS leveraged these technologies: 1. EPIC Utilizing our Electronic Medical Record, reports were utilized to determine who documented on the patient before the isolation protocol occurred. 2. Rauland/Versus/ASCOM Utilizing the nurse call system and tracer logs, CHS was able to determine the staff who came in contact with the patient, the time of the exposure and the job classification of the employee. 3. Security Cameras Utilizing the security cameras, CHS had the ability to identify staff who entered the room as well as visitors or other patients that had been exposed to the patient while waiting prior to treatment. Active surveillance determined no visitor or other patients were exposed to the virus while waiting. 4. CHS determined the no patients or visitors were exposed to the MERS Co-V virus. However, it was determined 53 employees were exposed prior to CDC enhanced isolation request. 5. Testing for the employees and family of the patient was implemented as defined by the CDC and the ISDH. 6. No visitors or other patients were exposed during the patient’s stay. Lessons Learned • The CDC was able to get valuable information on exposure rates to document and learn the risks of transmitting MERS between patients. Since the World Health Organization had limited data, this one case through the technology tracking abilities implemented, provided data that may have taken 100s of cases to identify • Hospital staff want to do whatever they can to improve patient care and that includes using modern technology. Once staff overcame their initial fears, they have adopted to an EMR completely. This is evidenced by the fact that it took us only twenty-four (24) hours before we switched from an implementation process to an optimization one. Roughly three (3) years after transitioning to an EMR, staff went from a complete paper-based EMR to an electronic one and felt delayed when an unplanned downtime required a temporary switch back to paper. • It is important for staff to remain current on technological advances in healthcare so they could determine how best it can be used to enhance patient care. Staff adopt to new technology better when they are involved in the selection and implementation. They want to make sure that it will enhance patient care and not solely change it. • Communication – Integration of a communication system, i.e. telephones, is important and essential to handle large volumes of calls. Long range plan for integration of telephone services system-wide was implemented following this incident. Consistent feedback to stakeholders is necessary to reduce gossip and reduce fear • Vendor support is essential to managing a crisis especially with usage and optimization of technology available as well as rapid changes that need to occur especially in an EMR. Profile Hattiesburg Clinic is a physician-owned multispecialty medical group that was established in 1963 in southeast Mississippi by 10 physicians. It has since grown to 350 providers covering 41 specialties, serving a market area of approximately 525,000 patients and providing outpatient services of over 750,000 office visits and 22,000 surgeries annually. To improve healthcare in Mississippi, the state with the highest chronic disease burden, worst mortality rate, and lowest physician-to-patient ratio in the U.S., we believe that expansion of the care team is crucial. Furthermore, a better delivery model for population health is contingent upon having standardized tools and workflows that are electronically connected throughout an organization such as ours that spans over 80 locations and 18 counties. Summary In 2014 and 2015, Hattiesburg Clinic developed 4 programs that have relied heavily upon clinician input and EMR tools to streamline workflows and improve quality: 1. Diabetes outreach: We have expanded the care team into rural areas to deliver endocrinology services, so our patients no longer have to commute such long distances for these specialty resources. Using a team composed of an endocrinologist, nurse practitioner, dietician, and case manager, patients receive comprehensive diabetes care in their primary care physician’s office, and the care plan and results are incorporated in the shared medical record amongst all team members. We provide the case manager with standardized documentation and reporting tools, along with dashboards to display performance metrics and analytic tools. The case manager has frequent points of contact with patients between office visits using a variety of communication methods including mail, telephone, patient portal, and telemedicine. With identification and addressing of social and behavior barriers, intense education and connection to resources, and frequent medication adjustments made via electronic messaging between the members of the care team and patients, results have been very positive. Over 250 diabetics have been enrolled, and 97% have had sustained A1c reduction over the course of 18 months. Average A1c has improved from 9.6 to 7.5, and the percentage of patients with an A1c greater than 9 has plunged from 59% to 1%. 2. Chronic Pain Management: Standardizing the workflow with the use of EMR tools has allowed for better assessment and monitoring of patients. Using tablets in the waiting room, patients complete questionnaires such as PROMIS and PHQ-9, and the discrete data is immediately incorporated into the medical record at the visit. With synopsis reports, this discrete patient-entered information is correlated with medication dosing, drug screens, labs, pain contract material, and results of imaging studies and pain procedures. Genomic data is incorporated within the medical record as well, and decision support tools alert providers throughout the organization with metabolism information if narcotics are prescribed. Pulling all this information together, a registry for these patients allows for generation of reports for close tracking, and this helps facilitate accordance with appointments, ancillaries and medications. Hattiesburg Clinic received the Stage 7 Award on November 16, 2015 3. Medicare Annual Wellness Visits (AWVs): Beginning in March 2015, a team of registered nurses was employed to perform Medicare AWVs. Previously, these visits were done exclusively by physicians in our organization; in 2014, only 801 visits occurred. Transitioning to this nurse-based program while building standardized documentation tools to ensure compliance with CMS requirements not only increased the number of visits performed, but it also aided in the visits being done correctly. Technology allowed us to be positive that these visits were performed the same way in all of the 36 primary care locations. As of December 1, 2015, we have completed 6,561 fully-compliant visits and are projected to reach over 9,500 by the 12-month mark of the program. More importantly, quality has improved as a result of this project. Fulfillment of items such as depression screening, Health Risk, Fall Risk, and ADL Assessments has improved from less than 1% to 95% for patients seen in this service as nurses complete a checklist of requirements for the visit and electronically notify the primary care provider of concerns areas. Likewise, other wellness items such as pneumococcal vaccination for patients over 65 has improved from 33% to 68%, and mammogram screening adherence has improved from 41% to 83%. 4. Medicare Chronic Care Management (CCM): A desire to expand the care team proved to be a challenge in a fee-for-service environment, so we felt that Medicare’s Chronic Care Management code, new in 2015, was an opportunity to help fund such efforts. Similar to AWVs, we again felt a standardized toolset for enrollment encounters and serial documentation was needed for this service to guarantee compliance and promote quality. Technologically, we helped our EMR vendor develop those tools and began providing the CCM service to patients in April. Clinically, a steering committee of primary care physicians and specialist subject matter experts developed 22 disease-specific protocols for following these patients. With the implementation of each protocol, we built disease-specific tools within the EMR to allow the nurses to document discretely, track patients, and easily communicate with patients’ primary care providers. Through December, we have enrolled over 1,900 patients, and these numbers continue to rise. Case managers have panel sizes from 250-300 patients and are centrally managed but imbedded in the primary care settings. The ROI on the venture has been favorable, and we continue to promote the project and expand the efforts. Like with nurse AWVs, more important than the quantity of services we have provided is the outcome of this intervention. For instance, in the diabetic population, patients followed in the CCM service compared to Medicare patients not followed in CCM are twice as likely to be up-to-date on eye exam, foot exam, and lab testing. A further addition to this project in the fall of 2015 was incorporation of predictive modeling data to do two things: first to focus more intense management on CCM-enrolled patients who are at higher risk of ER usage and/or hospitalization, and second to promote CCM enrollment for the patients with high risk scores. Beyond what is ‘required’ for CCM, we are also capturing self-efficacy and intervention data to help mold our efforts of the future. Leveraging the EMR has been critical to the success of the CCM program, not only in performing the services in a compliant fashion but also in a way that is advancing our goal of providing better care. While still too early to make conclusions regarding the ultimate long-range target of better quality with lower cost, CCM has clearly had significant favorable impact on both patients reporting a sense of feeling better-cared-for and physicians reporting an ability to function more efficiently and effectively. We are still early in our journey of population health and have a path ahead full of additional opportunities. We are making positive strides, and it has only been by leveraging Health IT that we have been able to take the important first steps toward closing care gaps that are so widely prevalent in our region of the country. Looking forward, we embrace the exciting challenges still to come, fully understanding that using HIT is paramount to our efforts. Profile The MetroHealth System consists of one acute care hospital and 17 ambulatory sites with nearly 500 attending physicians, close to 400 physicians in training, 1,200 nurses and 6,500 total employees. On an annual basis The MetroHealth System records about 1,000,000 ambulatory visits, more than 100,000 emergency department visits (Level 1 Trauma Center), and approximately 28,000 inpatient admissions. The MetroHealth System is a teaching affiliate of Case Western Reserve University School of Medicine and is the essential (public) healthcare system in northeast Ohio. The Challenge The MetroHealth System was the first essential (public) healthcare system in the U.S. to install the Epic electronic health record, beginning in the outpatient setting in 1999. We wanted to continue our leadership in the implementation, adoption, and innovative use of health information systems and our commitment to health information technology as one of the keys to becoming a successful healthcare system of the future. Achieving HIMSS Analytics EMR sm Adoption Model Stage 7 status in our ambulatory settings facilitated the expansion of our health information exchange to the Social Security Administration and the Veterans Administration and helped us standardize and streamline ambulatory work flows. sm Achieving HIMSS Analytics EMR Adoption Model Stage 7 status in our hospital facilitated real-time/near real-time scanning and elimination of paper processes to achieve a “paperless” healthcare system, enhanced bar-code medication administration, and closed loop pharmacy medication preparation, among other quality, efficiency, and patient safety activities. As an academic healthcare system, we also saw achieving HIMSS sm Analytics EMR Adoption Model Stage 7 recognition as a critical foundation for additional teaching and research opportunities. Preparing our case value studies forced us to evaluate the impact of some of our electronic health record innovation to date. It also helped us set up systems to further innovate in the future as we adapt to a rapidly changing healthcare environment. Implementation Overview A multidisciplinary team of administrative, operational, clinical, and technical staff began planning for our electronic health record implementation in the mid-1990s. We became the first essential (public) healthcare system to install Epic in the ambulatory setting beginning in 1999, and we have progressed over the sm past 15 years to achieve HIMSS Analytics EMR Adoption Model Stage 7 status. Between 1999 and 2002, we installed Epic’s outpatient scheduling, registration, billing and clinical care (documentation and ordering) modules in all of our ambulatory sites. In 2004, we installed Epic’s emergency department module. In 2009, we installed Epic’s inpatient pharmacy system and converted to Epic in all of our inpatient clinical care areas. In 2011, we turned on Epic’s health information exchange, personal health record, and e-prescribing. In 2013 we implemented bar code medication administration. In 2014, we transitioned to Epic in our operating rooms and for anesthesiology and laboratory information system. Resulting Value / ROI Ambulatory Areas Depression Screening Implemented 9-question Patient Health Questionnaire (standardized depression screening tool) in all primary care sites to screen for depression. Increased depression screening by 15 fold and diagnoses of depression by 23%. (K Palcisco, DC Kaelber, R Cebul, and L Stokes. Using Electronic Health Record (EHR) Tools to Improve the Screening and Recognition of Depression. American Medical Informatics Association Annual Symposium. Washington DC. 2013. [Abstract Presentation]) Immunizations Implemented immunization decision support for all pediatric immunizations (our work in this area has been designated by the Epic Corporation as a “clinical program” standard), as well as developed automated messaging system to notify parents/guardians of adolescents due for immunizations, resulting in a 25% increase in adolescent immunizations. (D Bar-Shain, M Stager, A Runkle, J Leon, and DC Kaelber. Direct Messaging to Parents/Guardians to Improve Adolescent Immunizations. Journal of Adolescent Health. 2015. [Accepted]) Pediatric Hypertension Used Epic electronic health record data to extrapolate isolated finding of underdiagnosed pediatric hypertension to expose system-wide underdiagnosis of hypertension in children and adolescents (designed as one of the top 10 breakthroughs in stroke and cardiovascular medicine by the American Heart Association in 2007) (ML Hanson, PW Gunn, and DC Kaelber. Underdiagnosis of Hypertension in Children and Adolescents. Journal of the American Medical Association. 2007 Aug 22; 298(8):874-9. PMIS:17712071). Implemented clinical decision support to increase the diagnosis of pediatric hypertension by 50%. (D Bar-Shain, K Palcisco, PJ Greco, and DC Kaelber. Using advanced electronic clinical decision support to improve the quality and recognition of abnormal blood pressure values in children. Pediatric Academic Societies Meeting. Washington DC. 2013. [Oral Presentation]) Referral Completion Developed Epic electronic health record based processes to increase the 30-day referral completion rate from ~48% to ~63% throughout The MetroHealth System on all referrals. Resulted in ~6,700 additional visits and ~$1 million in increased net revenue per month throughout The MetroHealth System. (MH Fratantonio, A Masih, M Kauffman, and DC Kaelber. Data to Dollars – Using Electronic Health Records to Complete Referrals. American Medical Informatics Association Annual Symposium. Washington DC. 2013. [Abstract Presentation]). Hospital Acinetobacter Outbreak Support Used a suite of Epic electronic health record based tools in support of an Acinetobacter (pathogenic bacteria) outbreak. In conjunction with other efforts, these tools decreased the incidence of Acinetobacter in hospitalized patients by more than 60%. (Recognized by an Association of Medical Directors of Information System award.) Code Status Reconciliation One of the first healthcare systems in the U.S. to implement code status reconciliation in our Epic electronic health record at discharge. This tool led to a 50% increase in the use of Do Not Resuscitate - Comfort Care and a 100% increase in the use of Do Not Resuscitate – Comfort Care Arrest – Do Not Intubate status in the transition from the inpatient to the outpatient setting. Duplicate Labs Implemented several duplicate lab clinical decision support tools that resulted in a 50% decrease in duplicate lab testing and saving of thousands of dollars in expenses annually. (A Noto, P Greco, and DC Kaelber. An analysis of clinical decision support for repetitive urine culturing. American Medical Informatics Association Annual Symposium. Washington DC. 2011. [Poster]) Heparin Errors After a sentinel event related to a heparin overdose, implemented a suite of Epic electronic health record based tools and redesigned a number of Epic electronic health record processes related to heparin. In the three years since implementing these tools and changes, no heparin errors with patient harm have been identified. System-wide Health Information Exchange: The MetroHealth System has conducted health information exchange more than 250,000 times and currently exchanges information thousands of times per day with other systems that have the Epic electronic health record – the Veteran’s Administration, and the Social Security Administration. We have shown that when robust health information exchange occurs, upwards of 80% of the time a test is not ordered that otherwise would have been ordered, and approximately 15% of the time, an inpatient admission does not occur that otherwise would have occurred (DC Kaelber, R Waheed, D Einstadter, TE Love, and RD Cebul. Use and Perceived Value of Health Information Exchange – One Public Healthcare System’s Experience. Am J Manag Care [Special Health Information Technology issue]. 2013; 19(10 Spec No. 10):SP337-343. PMID:24511888. Our Epic electronic health record has also generally: 1. Increased research grant funding 2. Attracted and retained trainees and attending physicians 3. Decreased malpractice cases and led to more efficient resolution of malpractice cases 4. Decreased operational costs and increase revenue in numerous way Lessons Learned Technical and “Non-Technical” issues: Electronic health records are 10-20% about “technical” details/issues and 80-90% about “non-technical” details/issues, which are critical to getting the electronic health records implemented and adopted. Implementation and Post-Implementation: Although implementing electronic health records is a huge undertaking, implementation is only the “tip of the iceberg.” To achieve the full value of these systems, most of the work occurs after the system is live. The staffing, resources and structure is different during the implementation and post-implementation part of the cycle, but do not overlook post-implementation. Once a system is implemented, the post-implementation phase lasts forever. Informatics: Developing an informatics team – made up of clinical staff who understand the technical functioning of the clinical information systems – is one of the keys to successful implementation, adoption and ongoing use of a clinical information system, and seems to be frequently overlooked/undervalued. Profile MultiCare is a not-for-profit healthcare organization with more than 10,000 employees and a comprehensive network of services throughout southwest Washington. We are a 1,130 bed tertiary care organization with 2,486 credentialed providers, 1,024 of whom are employed. There are 42,426 admissions per year and 451,999 annual outpatient visits. Today, MultiCare is made up of five hospitals to include 4 adult and 1 pediatric trauma center. These consist of Allenmore Hospital, Auburn Medical Center, Good Samaritan Hospital, Mary Bridge Children's Hospital and Tacoma General Hospital. There are also numerous outpatient specialty centers, primary and urgent care clinics, as well as a variety of other services and community outreach programs. MultiCare has 2 hospitals and more than 100 ambulatory clinics which achieved HIMSS Analytics Stage 7 in January 2015. The location now being recognized as Stage 7 is Good Samaritan Hospital. HIMSS Stage 7 for Good Samaritan was awarded on March 23, 2015. The Challenge Our strategy involved the implementation of an enterprise-wide electronic health record to create “one patient, one record”—a seamless experience for patients no matter where they received care at MultiCare. The ultimate goal of transforming the way care is delivered at MultiCare led the executive team to conclude that an investment in leading edge technology was the key to offering the best care for our patients, to ensure patient safety, and to improve the efficiency of our care teams. To reach our goal, MultiCare decided to build our electronic health record using an integrated platform instead of selecting various systems that were the “best of breed.” An integrated platform would reduce the technical challenges and need for interfaces common with non-integrated systems and our data would be held in a single repository. Another key decision was to take our concept of “one patient, one record” and expand this to include our community. We decided to offer our community providers access to the electronic health record by creating an Application Service Provider (ASP) network called CareConnect™– giving regional providers secure access to the patient’s data outside of the MultiCare delivery system. Implementation Overview A multidisciplinary team of healthcare operations and information technology staff spent 1996 reviewing ambulatory practice management systems with the goal to standardize to a single platform. In1996 after much discussion of our strategic direction, Epic’s ambulatory electronic health record (EHR) and practice management applications were selected. The ambulatory clinics went live in February 1998 with the practice management applications. The EHR was implemented at our first location in August 1998. The roll out across our ambulatory locations continued through 2000. In 2004, the enterprise suite for inpatient and acute care was selected. A formal kick-off was held in September 2005. In 2007, 3 hospitals went live with admission, discharge, transfer, billing, revenue applications, clerk order entry and an electronic medication administration record. In 2008, clinical documentation for all staff was implemented along with Computerized Physician Order Entry (CPOE). Several modules have been implemented since that time to include Radiant, Home Health, Hospice, OpTime and Anesthesia. Bedside Barcode Medication Administration was implemented in all areas across acute care with the exception of Interventional Radiology and Gastrointestinal Lab. Our current approach to implementation is big bang, with all functionality going live at one time. This approach has been used in our last two hospital implementations and in all of our clinics. In addition, there is extensive device integration across the system to include monitors, ventilators and Point of Care Testing equipment. MultiCare currently has a single platform of Epic across 120+ sites of care. Resulting Value / ROI MultiCare has seen significant benefit... Access: o Know the patient’s story and ensure that the information follows the patient o Physicians can now access immediate, accurate patient information from anywhere at any time o Patients can access their information via MyChart powered by MultiCare o Improved communications between clinicians Accuracy: o 27 percent increase in documentation of the plan of care by at least two disciplines o 30 percent increase in order legibility o Electronic health record shows the same medications, patient history, allergies, etc. at any location where the patient is seen o Medication reconciliation is standardized throughout the organization and built into clinical workflows Efficiency: o 75 percent decrease in callbacks to in-house pharmacies o 30 percent reduction in transcription volumes o Average 30 percent decrease from disposition time to patient admitted time in the Adult EDs o Operating Room scheduling turn-around-time under 2 minutes o Mean laboratory order turnaround time reduced by 30 percent o Median imaging order turnaround time reduced by an average of 50 percent Financial Performance: o $12M in net benefit as a result of improved Patient Responsibility collections o $5M reduction in claims with open denials o $1,029,808 in avoidable write-offs o $585,000 in staff reductions in Patient Financial Services o $20M in improved cash collections Lessons Learned Executive Sponsorship and Ownership: The implementation of MultiCare Connect must be owned, championed, and actively supported by organizational and clinical leadership. System implementations are often seen as IT projects, but without the engagement of the clinical end-users and their leaders, success cannot be realized. Organizational Priority and Commitment: As with any large organization, multiple initiatives and priorities will compete for the “number one” spot. The success of an implementation of this magnitude requires consistent communication to the organization about the electronic health record and the benefits it brings both to the patient and employee populations. MultiCare provided consistent messaging from the top down so that employees both understood and were excited about MultiCare Connect. Leaders were committed to meeting milestones and clearing obstacles. Even staff members in support departments who never utilize the system provided rallying encouragement during the implementation. During the first week of the 2008 go-live, several of those departments hosted cheering stations whose sole purpose was to encourage the clinical staff and give them quick breaks from their work. Booths featuring Las Vegas-style events, cooking demonstrations and the opportunity to “limbo for a latte” let those who were deep in the midst of their go-live learning curve get a well-deserved mental break and see how the rest of the organization was behind them. Investing in People: MultiCare knows that a multimillion dollar technology investment without an investment in people is just a very expensive technology venture. Through seminars, brown bag sessions, education and communication the project team made people the heart of the implementation. Care for the patient is always at the forefront and employees understand that their feedback is welcome and incorporated. System-Wide Culture Change: Moving from a paper record, or even a stand-alone electronic health record, to a system-wide record requires the ability to be flexible and open to change. Leaders from MultiCare’s Organizational Effectiveness Department hosted change management seminars to educate staff members on simple things like attitude and environmental changes they could make to help ease the transition. The project team also presented “road show” demonstrations on the clinical units, at department meetings, in doctors’ offices, and in the cafeteria so that all future users could get an early look at the system and be prepared to adopt our new electronic health record. Have Fun: Many members of the project team have worked on this initiative for years (the original implementation of the electronic health record began in our ambulatory clinics in 1998). Within the project, we try to remember that encouragement, recognition, and time for levity are key aspects of keeping those team members engaged. Profile The Clinical Center is the research hospital at the National Institutes of Health (NIH) campus in Bethesda, MD and is the nation’s largest hospital devoted entirely to clinical research. Since the hospital’s opening in 1953, NIH scientists have worked with volunteer patients to create medical innovations. Clinical Center successes include pioneering the cure of cancerous solid tumors with chemotherapy; the use of nitroglycerin to treat heart attacks; identifying a genetic component in schizophrenia; conducting the first successful replacement of a mitral valve to treat heart disease; and the creation of blood tests to identify both Acquired Immune Deficiency Syndrome (AIDS) and hepatitis. These and other research concepts pioneered at the Clinical Center have been adopted as standard practice in medical treatment throughout the world. The Clinical Center has been a leader in the “bench-to-bedside” concept. Its specialized hospital design places patient care units in close proximity to research laboratories. This model supports interaction and collaboration among clinical researchers. The Clinical Center also offers world-class training in clinical research for physicians, dentists, nurses, medical students and other members of the medical research team. This environment, offering access to the most advanced techniques, equipment and ideas, attracts a global network of scientists. The original Warren G. Magnuson Clinical Center, built in 1953, adjoins the Mark O. Hatfield Clinical Research Center, which opened in 2005. The hospital has 240 inpatient beds, 11 operating rooms, 82 day hospital stations, critical care services and research labs, an ambulatory care research facility and a complex array of imaging services. The Clinical Center is also one of the few facilities in the world with state-of-the-art infrastructure that allows for isolation capabilities and infection control while patients participate in clinical research studies. Patients at the Clinical Center consent to participate in research studies, also called protocols, and are treated without charge. Admission is selective: only those patients who have a medical condition being studied by NIH Institutes or Centers and who meet the specific inclusion criteria can enroll in the studies. There are currently approximately 1,500 clinical research studies underway at the Clinical Center, including those focused on cancer, infectious diseases, blood disorders, heart disease, lung disease, alcoholism and drug abuse. More than 500,000 patients from all 50 states, and from countries around the world, have participated in clinical research at the Clinical Center. The Clinical Center began using an electronic medical record in 1976 which was configured to meet the unique needs of the research environment. In 2004, the electronic medical record was upgraded to the current system. Since then, the functionality has continued to expand and extensive integration has been achieved with other clinical and research systems at the NIH. In June 2015, the NIH Clinical Center was certified as HIMSS Analytics Stage 7. The Challenge Pharmacogenomics, also referred to as pharmacogenetics (PG), is the science that examines the inherited variations in genes that dictate drug response and toxicity. Knowledge about PG can optimize the use of medications. Our goal was to implement clinical decision support (CDS) to provide PG information and recommendations to the prescriber at the time of medication ordering. We felt that sufficient information existed about recommendations for drug-gene variation pairs so that obtaining “genetic” information could be considered part of routine clinical care. We first implemented CDS for medications where HLA gene variations predict for severe dermatologic toxicity. In the second phase, CDS was implemented for drugs where Drug Metabolizing Enzymes and Transporters (DMET) gene variations can predict drug dosage, response, or toxicity. Implementation Overview We felt that institutional support was critical to the implementation. The Medical Executive Committee and the Director of the Clinical Center enthusiastically supported our program. We formed a Pharmacogenetics Implementation Task Force composed of informaticists, physicians, pharmacists, nurses, pharmacologists, and geneticists to review the clinical information and to make clinical recommendations. These medication-related recommendations need approval from the Pharmacy & Therapeutics (P&T) Committee prior to implementation. The implementation task force has now become a formal subcommittee of the P&T Committee and is co-chaired by a physician and pharmacist. Medications included in our PG program are configured on order set forms, which allows combining medication and lab tests in one view and also allows clinical decision support (CDS) algorithm to be configured behind the order set form. The CDS first looks for the results of the pharmacogenetic test. If the result is present, the CDS then provides a recommendation specific to the test result and clinical information known about the drug-gene variation pair. If a result is not found, the prescriber can order the pharmacogenetic test directly from the order set form. We decided on a two-phased approach based on two primary factors. The first phase was to implement CDS for medications where HLA-associated gene variations (i.e. abacavir, allopurinol, carbamazepine) are associated with severe hypersensitivity reactions (i.e. toxic epidermal necrolysis, Stevens-Johnson syndrome). Although these reactions are not common, our institution felt that this was an important medication safety effort and that preventing even one severe reaction was cost-beneficial. Our Department of Transfusion Medicine performs high-resolution DNA-sequencing for HLA gene variants. This allows us to control the name of the test, which is important for data retrieval. The second phase of the program was to implement CDS for drug-gene variation pairs that are associated with DMET. One example would be mercaptopurine and thiopurine metyltransferase (TPMT) where better initial dose estimates which prevent severe hematologic toxicity can be made by knowing TPMT metabolizer status. Implementation of this phase required identifying a lab that can perform this test according to CLIA regulations and in a cost-efficient manner. The DMET test we use is a chip that can determine over 220 genes and over 1,000 single nucleotide polymorphisms. We needed to devise a method where the results can be transmitted from this outside lab into our EHR in an actionable format to work with our CDS. This effort required a large multidisciplinary team. The clinical approach for the second phase is consistent with our overall philosophy about making genetic information available to the patient. PG genes are inherited and therefore do not change over a person’s lifetime. We decided that all of the information is part of clinical care so, rather than obtaining informed consent, we decided to create a standardized education document. Although we implement CDS only for P&T Committee approved drug-gene variation pairs, we make all of the information available to the prescribers and to the patient either through a .pdf file (phenotype data) or electronically (raw data). This allows future use of the information and also allows clinicians to make individual decisions about using the data, although we did not build specific CDS for that drug. We consider this to be the preliminary steps towards pre-emptive PG testing. “ The power of an EHR comes from implementing clinical decision support. As part of Clinical Decision support pharmacogenomics is a key first step to precision medicine.” J. McKeeby, CIO, NIH Clinical Center Resulting Value / ROI • Optimized medication use and promoted medication safety by reducing the possibility for adverse medication reactions, predicting drug response, and predicting drug dosage. • Clinicians adopted to the program and ordered pharmacogenetic tests. • Patients, as gleaned from a presentation about our program, were very enthusiastic about access to pharmacogenetic information. • The very broad multidisciplinary approach brought several departments together into a much stronger bond than existed before this project. • Set the foundation for pre-emptive pharmacogenetic testing and for other clinical genetic tests. Lessons Learned • Creation of an institutional approval structure in advance is critical to the success of implementing a program that might be considered controversial (i.e. providing “genetic” information). • A multidisciplinary team is essential to implement complex decision support. Our effort would not be successful if we didn’t include the local experts from several disciplines. • Be open to changes after initial implementation. Although we tested the initial phase of the program with several medical groups, we made several changes soon after implementation because several users thought the program could be improved. Continued evaluation led to further changes after one year of use. “Positively affecting the treatment of our patients is the power of precision medicine. The implementation of Pharmacogenomics at the NIH Clinical Center has been a success.” J. McKeeby, CIO, NIH Clinical Center Profile Nebraska Medicine includes two acute care hospitals: Nebraska Medical Center, a 621 bed acute-care facility, the state’s largest and highest-rated hospital, and Nebraska Medicine – Bellevue, a 55 bed full-service hospital. The hospitals serve patients from all 50 states and more than 50 countries internationally. U.S. News & World Report has consistently named Nebraska Medicine the top hospital in the state and Becker’s Hospital Review recognizes Nebraska Medicine as one of the 100 Best Hospitals in America. Nebraska Medicine has an international reputation for providing solid organ and bone marrow transplantation services and houses one of the nation’s three biocontainment units that have successfully treated patients with Ebola and is capable of caring for anyone exposed to a contagious and dangerous disease. Nebraska Medicine is designated as a Magnet hospital for nursing excellence and in December 2015 achieved HIMSS Analytics EMR Adoption Model™ Stage 7 for both Nebraska Medicine hospital locations. The Challenge Telemetry: Nebraska Medicine has a complex and highly-specialized patient population and high bed occupancy, in which all beds are MDI tele-capable; however, utilization of telemetry significantly exceeded benchmarks with like institutions. Data showed approximately 65 percent of patients hospitalized for longer than 24 hours spent the majority of their hospital stay on telemetry and 70 percent of telemetry orders were not canceled until the patient was discharged. Excessive telemetry causes increased work for patient care teams, who must respond to false alarms; can cause complications for patients without risk for cardiac events or stroke; and can be taxing on the organization’s Heart Monitoring Unit,. As Nebraska Medicine’s patient population continues to expand, continued high telemetry utilization would also require significant capital investment to add a second central monitoring hub. Decreasing telemetry utilization would ensure Nebraska Medicine staff could meet the growth needs within the organization. Ebola: Nebraska Medicine has been a national and international leader in preparing for bioterrorism. Nebraska Medicine houses one of three of the nation’s biocontainment units, which opened in 2005. When the most severe outbreak of Ebola in history erupted in Africa in 2014, Nebraska Medicine became a world leader in treating patients infected with the Ebola virus. A natural evolution of this extraordinary patient care, the world looked to Nebraska Medicine to lead the way in both screening and prevention of Ebola transmission in the U.S. Nebraska Medicine was faced with a challenge to not only determine the appropriate clinical care for acute Ebola patients, but to ensure the biocontainment unit patients received the same safety measures and standards of care as all other patients treated by the organization. Implementation Overview Telemetry: The Nebraska Medicine Clinical Effectiveness team, comprised of clinical, technical and quality team members, has the goal of optimizing patient care, reducing variability, decreasing cost and improving patient outcomes. To support earlier discontinuation of telemetry in patients, this clinical effectiveness team focused on a commonly-reported reason for not discontinuing telemetry: providers involved with a patient’s care were unaware of why telemetry was started and therefore, were hesitant to discontinue it. The clinical effectiveness team was able to leverage its multidisciplinary membership to implement changes within the system in 16 weeks. To remedy the identified situation, an indication requirement was added to all telemetry monitoring orders. Additionally, a decision support tool in the electronic health record was created to require review of the telemetry order after 48 hours and provide a quick method of discontinuing telemetry if no longer indicated. Ebola: Nebraska Medicine leveraged tools within the electronic health record to provide comprehensive screening at all access points across the care continuum and to document patient care being provided to hospitalized Ebola patients within the biocontainment care area, including medication administration and barcode scanning. Despite care providers being clothed in protective gear from head to toe, processes were developed to ensure EMR and medication safety technology was integrated into the bedside care process. These tools and processes can now be applied to other contagious diseases, including the highly infectious Middle East Respiratory Syndrome virus (MERS). Additionally, in August 2014, shortly after the Ebola epidemic became known, Nebraska Medicine quickly introduced a screening algorithm in its emergency department. Leaders also identified a need for screening and applying protective measures across all access points to clinical services, including scheduled inpatient admissions and ambulatory visits and procedures; by October 2014, an electronic version of the screening process was developed and implemented organization-wide. The electronic health record includes a “smartform” that is adaptable for screening in corresponding patient care areas and provides decision support, instructing caregivers which post-screening actions to take. Best practice advisories were developed to ensure appropriate providers are notified following the screening and to alert providers if travel risk factors were identified and isolation precautions should be immediately adopted. Ebola: The successful development of protocols and practices in providing care to Ebola patients and screening patients for Ebola led to national prominence and grant funding for Nebraska Medicine. The return on investment includes better preparedness for future events, for Nebraska Medicine and the nation. This initiative required close coordination between information technology analysts; operational leaders across multiple patient care areas; laboratory experts; training resources; report writers; and infection control and infectious disease clinical experts. • Creation of Nebraska’s Bio-Safety Level-3 laboratory on campus As the Ebola epidemic continued, an additional need was identified: conducting surveillance for community members and/or professional caregivers who may have been exposed to the contagious Ebola virus. With collaboration from local health departments, Nebraska Medicine created a temperature monitoring application which allowed a care team to easily record and monitor temperature and symptoms for exposed individuals. Resulting Value / ROI Telemetry: • Increase in provider-discontinued telemetry orders prior to discharge, demonstrating that providers are evaluating the continued appropriateness of telemetry monitoring and discontinuing telemetry when appropriate • Decrease in percentage of patient days with telemetry, as orders are discontinued earlier in the patient’s stay; the project goal was to decrease average telemetry days per patient by 0.75 days and the actual achievement was 0.85 days • Estimated cost savings of $40 per day for an annual savings of $560,000 • Reduction of Heart Monitoring Unit technicians’ workload by 12 percent, achieved in the first five months following implementation • Additional benefits include an improvement in patient satisfaction upon discontinuation of telemetry and a decrease in alarm fatigue due to telemetry alarms • National Ebola Training & Education Center (1 of 3) • Regional Ebola Treatment Center (1of 10) • Partnership with CDC and Emory University beginning in December 2014 to train U.S. hospitals, health departments and health care providers • Partnership with CDC to provide rapid Ebola treatment center site visits/assessments to various U.S. hospitals (55 as of January 2016) • Recognized as a global resource for information, training and research • Development of The Nebraska Ebola Method, available on Apple iTunes U Lessons Learned Telemetry: Working in partnership with clinical care teams, technology can be leveraged to provide information at the point of care to aid in decision making. Clinical effectiveness teams can quickly identify the cause of the problem and work collectively to identify technology solutions that support patient care workflows. Rapid roll out of projects can be facilitated through an effective governance and department structure to support rapid, quick wins. Ebola: • Develop standard process to ensure technology is utilized at the bedside for all patients, even when providers are clothed in protective gear • Develop a robust travel screen and algorithm that can easily be modified and adapted for current disease profiles • Ensure resources are available to be able to quickly modify the “smartform” when necessary • Identify an individual to assume leadership and act as the liaison between operational leaders, clinical experts and the information technology analysts to ensure workflow and dataflow alignment • Include system and infection control trainers as well as report writers in project planning Profile Headquartered in Evanston, Illinois, NorthShore University HealthSystem (NorthShore) is a comprehensive, fully integrated healthcare delivery system serving the Chicago region. The system includes four hospitals: Evanston, Glenbrook, Highland Park and Skokie. NorthShore has annual revenues of $1.8 billion, employs about 10,000 people and has approximately 2,100 affiliated physicians. More than 800 of these physicians belong to the NorthShore Medical Group, a multispecialty group practice with 100-plus office locations. NorthShore retained its focus on delivering superior care while facing this challenge before the changes to value-based care were defined or certain. The decision was made to pre-emptively leverage existing competencies in Analytics and Data Warehousing to embark on several transformational projects. These projects, Programmatic Evaluation Tools (PET) and Ambulatory Reporting Tools (ART), have resulted in considerable cost savings and more efficient population health management. As the principal teaching affiliate for the University of Chicago Pritzker School of Medicine, NorthShore is dedicated to excellence in medical education and research. Combined with NorthShore’s established reputation for advanced information technology and its strong clinical environment, this affiliation represents an exciting advancement in patient care for the Chicagoland area. HIMSS Analytics Stage 7 Ambulatory EMR Adoption Model status was achieved in April 2013. These tools allowed our Quality and Finance teams to rapidly evaluate questions about clinical and financial standardization in ways that were impossible in the past. The successful implementation of these tools placed NorthShore at the forefront of clinical analytics nationwide and allows us to supply our leaders and clinicians with real-time business intelligence and decision support that only a handful of organizations across the country have access to. The Challenge The core mission of NorthShore University HealthSystem (NorthShore) is to preserve and improve human life. This mission is supported and achieved through the provision of superior clinical care and focus on quality improvement. The landscape of healthcare continues to change and along with it, a new focus from volume to value-based care. With this, the goal was set to develop applications that transformed EMR data into actionable business intelligence that identified unwanted practice variation, supported quality improvement workflows, aided real-time clinical decision-making and evaluated the effectiveness of interventions. These projects involved a tremendous amount of work in both planning and execution. As a team, Quality, Clinical Analytics, Finance, and Data Warehouse groups worked collaboratively to define metrics, manage the project timeline and regularly assess their own progress. The group partnered closely to ensure fields were correctly identified, calculated, captured, validated and named to generate new summary tables and data marts that contain approximately 1,000 enriched fields newly available to consumers. These new fields are the product of complex calculations, some requiring thousands of lines of code. Resulting Value / ROI Tangible and intangible results achieved. Tangible results include savings (cost, time, resources), reduced medical errors, outcomes (i.e. patient quality and safety, financial or operational) and creative use of physical space formerly occupied by hard on-site files. Intangible results include such things as clinician and patient satisfaction, etc. • Using IBMs Cognos™ tool, parameterized reports were developed that allow front-line decision makers in Quality and Administration to analyze and test hypotheses around practice variation, gaps in clinical care, and high utilization cohorts. Furthermore, this infrastructure provides a platform for integrating reporting back into our EHR. Using the ART infrastructure we have created a daily reporting mechanism that feeds our EHR’s native reporting tool with our ART data and provides a daily panel of chronic disease patients that are in need of labs or follow-up that has significantly improved our ability to get patients in for necessary tests. • Using the ART integrated EHR reporting system our administrative staff that supports our primary care physicians in contacting patients that are due for diabetic testing have experienced a significant increase in both efficiency and in patient compliance. The tool updates daily and captures the outcome of patient contacts that feed back into ART and adjusts the daily report accordingly. Compared to the previous paper reporting system that updated monthly, this more integrated data delivery system has shown an increased rate of compliance with less staff. • Using the PET hypothesis testing tools, we have identified significant cost savings in our spinal fusion procedures related to unnecessary Doppler testing and changes in implants used. This platform led to the identification of major clinical practice variation in spine surgery and produced regular feedback for clinicians. This resulted in a reduction of the cost of 1-2 level spine surgery by $1,587; an annual cost savings of $714,150. • This project, like many others NorthShore Heath I.T has implemented, reflects the collaborative nature of our interdisciplinary relationships, as well as our diligence and dedication to serve our patients. Lessons Learned This project reinforced the need to draw from our extensive pool of expertise in order to create a cross-functional team of clinicians, analytics and health information technology professionals. Selecting the best individuals for this project from day one led to the production a superior end-product designed to meet the needs of the user community. Profile Ochsner Health System (OHS) is one of the largest independent academic health systems in the United States with 26 owned, managed, and affiliated hospitals and more than 60 health centers across the greater New Orleans, Baton Rouge, North Shore, Mississippi and Bayou Regions. In addition to this, the OHS clinic group practice surpassed 1,000 physicians in 2015 and is supported by an additional 1,500 affiliated and clinically-integrated physicians in more than 90 medical specialties and sub-specialties. Ochsner Baptist, a campus of Ochsner Medical Center, is fully accredited and staffed by more than 600 physicians and specialists. The 156-bed facility, located in Uptown New Orleans, features all private, inpatient rooms, an intensive care unit, state-of-the-art operating rooms, and two cardiac catheterization labs. Ochsner Baptist is also home to the Women's Pavilion, an advanced care facility that offers standard and specialized obstetric and gynecological needs, gynecological robotic surgery, high-risk maternal fetal medicine physicians, and alternative birthing options. Additionally, Ochsner Baptist has a 24-hour, full-service emergency department. The 6,000 square foot emergency room is staffed by a team of board-certified ER physicians, offers two trauma rooms and 12 patient rooms and is equipped with specialized geriatric amenities for seniors. Ochsner Baptist received the HIMSS Stage 7 Award in April of 2015. Ochsner Baton Rouge, a campus of Ochsner Medical Center, is a fully accredited hospital staffed by more than 300 physicians. The 149-bed facility is located in Baton Rouge, LA. and features private room options, 24 hour emergency care, advanced specialties such as open heart surgery, as well as gynecological and general surgery robotic-assisted surgery with the da Vinci machine. OMC-BR also features a newly renovated family birthing center with alternate delivery options and is the area’s only certified nurse midwife program. The family birthing center features 3 labor and delivery rooms, 2 birthing tubs, 2 cesarean rooms and a level III NICU. Ochsner Baton Rouge received the HIMSS Stage 7 Award in March of 2015. Leonard J. Chabert Medical Center (LJCMC) was opened in 1978 with a dual purpose: to provide quality healthcare and to educate the next generation of health professionals. Today, the 156 licensed bed hospital and 26 clinic specialties function as a full-service institution for inpatient services with extensive outpatient services, as well as a teaching facility for approximately 30 residents and fellows and approximately 386 medical students. LJCMC is managed by Ochsner Health System under the direction of Terrebonne General Medical Center and offers specialty services for Asthma, Bilateral Tubal Ligation, Disease Management, Medical Nutrition Therapy, and Tobacco Control. LJCMC received the HIMSS Stage 7 Award in April 2015. The Challenge Ochsner Health System was founded in 1942 and has a long, rich history embedded around its mission and vision to serve, heal, lead, educate and innovate. It is one of the largest independent academic health systems in the United States. OHS has vowed through its vision to be a global medical and academic leader who will save and change lives, as well as shape the future of healthcare through their integrated health system, fueled by the passion and strength of our diversified team of physicians and employees. We realized that none of this could be done without continuously growing our information services and technology departments as the technology world advanced. We had no standardized or best practice content across OHS, and recognized that what software and applications we did have needed to be updated and advanced. OHS needed one highly integrated, standardized EMR across the entire system to support and meet the rapidly evolving needs in healthcare. That being said, we also needed an EMR that supported the unique workflows of our many specialties, and one that could be enhanced as needed for different specialties and departments. In addition, we needed an EMR to assist us in more efficiently integrating with community and affiliated physicians to manage entire patient populations. All of this needed to be done not only to support our mission and vision, and standardize care across our system, but also to improve end-user and patient experience, quality of patient care, and help meet meaningful use incentives. Implementation Overview Ochsner Health System brought together a multidisciplinary team of information services and technology staff in 2008 to begin the review and selection process of electronic medical record vendors. In 2010 the decision was made to contract with, and implement Epic as our EMR system. OHS decided to phase out implementation based on hospital regions in order to enable sufficient and proper support during go live and implementation periods. We took a big bang approach during each facility implementation, and formal kick-off for the overall project began in October 2010. The North shore region went live first in December 2011, and all other Ochsner facilities followed in the next 1-3 years. OMC-Baptist went live March 2013, then OMC-Baton Rouge in June 2013, and Leonard Chabert Medical Center in June of 2014. Go live implementation included device integration in all critical care areas including ED, ICU, PACU, and OR, as well as CPOE and clinical documentation. We also pushed out Afga PACS, Pyxis, and CVIS, a home grown cardiology procedure documentation system at go live. OHS facilities are interfaced with numerous other applications including RALS, Soft lab, Progeny, Links, GE Viewpoint, Magview mammography, and multiple procedural area interfaces. Our institution is also live with multiple health information exchange applications including Epic Care Everywhere, Ochsner Community Connect, Surescripts HISP, EpicCare Link, and My Chart Patient Portal. Resulting Value / ROI Medical Device Integration: o OHS inpatient facilities have greatly reduced the amount of time nursing and other clinical staff such as patient care techs and respiratory therapists spend on manually entering in data by having data from many of our bedside medical devices directly interface into the EMR. This includes all hemodynamic monitors in our critical care areas, ventilators, as well as glucometer and ISTAT data. Many of our facilities also have Rover IPod touch devices, with hyperspace access to enter VS in real time, as well as complete worklist tasks and medication administration. This interfacing not only improves the accuracy of the data in the EMR by eliminating manual transcription errors, but also ensures quicker clinical decision support by having real-time data available. o Increased patient access to their medical information as well as richer, more advanced information sharing via My Ochsner patient portal o My Ochsner patient portal not only provides patients access to pertinent diagnostic studies, notes, and visits, but also enhances and promotes communication between patients, doctors, and other clinicians. o My Ochsner patient portal also provides quick and easy access for patients to schedule their appointments online via the portal, as well as request an appointment and cancel appointments themselves. Through focused and intentional promotion of the patient portal, OHS has significantly increased our percentages of patients who schedule their appointments online. We have discovered that this in turn correlated to a decrease in no shows for those patients who scheduled their appointments via the online patient portal versus no shows for patients who did not schedule online. OMC Baptist for example, increased online scheduled appointments by 6% from 2013 to 2015, and decreased its no show rate from scheduled online appointments by 3 % (from 17% to 14% in 2015). In addition, the no show rate from scheduled on line appointments in general is significantly lower. In 2015, OMC Baptist had a 14% no show rate for patients who scheduled online, and a 36 % no show rate for patients who did not schedule online. o OHS has even further enhanced the patient portal by becoming the first Epic System client to successfully integrate the new Apple HealthKit into its EMR. Now it is easier than ever for patient’s clinical data such as heart rate and blood pressure to be uploaded and integrated into their patient record at the physicians’ recommendations. This ultimately drives a dramatic and positive impact on patient care and satisfaction by enhancing provider and patient access, which increases adoption by patients and then in turn, providers. Integration and use of the EMR to impact quality outcomes: o Effectively using Epic helped Chabert Medical Center (CMC) to significantly decrease CAUTI rates at CMC, and eventually eliminate Catheter Acquired Urinary Tract Infections (CAUTI) in 2015. New processes were implemented, and new workflows were created in our EMR to systematically review orders for insertion, duration, and necessity of indwelling catheters. Order sets were enhanced in EPIC for placement and removal of catheters with stipulations for physicians to monitor, cancel, or alter orders. In addition to this, flowsheets for documentation allow staff and physicians to accurately monitor patients intake and output, the need for continuing foley catheter the patients overall progress. Finally, best practice alerts remind physicians of timeliness of catheter removal. The outcome of all of these interventions, along with end user education resulted in a decrease in CMC CAUTI rates from 2013 to 2014 (Epic go live), and zero CAUTIs in 2015. Lessons Learned • OHS provider and administrative leader buy-in was very important throughout the course of the project. These were key players in helping set the tone for the very large change that we were undergoing. Our change management methodology was followed rigorously, which helped gain buy-in from everyone from the executive leadership teams to the front-line staff. Achieving Meaningful Use Stage 2: o Epic helped OMC Baptist, Baton Rouge, Chabert, and all OHS facilities to achieve Meaningful Use Stage 2 by streamlining processes and allowing us to meet all of the required measures. Transitions of care created a particular struggle for OHS facilities as it did for most of the country. Aware of end user struggles with this measure, as well as the technical aspect of sending summaries of care electronically, a multi-disciplinary team was created to focus on this area. The follow up activity in Epic was moved to its own section in the physician discharge navigator, and physicians were educated on the requirement and new workflow. Nurses and clinical staff received education on the correct transition of care workflow and how they could help complete the necessary requirements. All OHS facilities were able to achieve the percentage required for transitions of care, and ultimately achieve Meaningful Use Stage 2 status. • Mandatory system training was critical to our success. All users had to attend in person training prior to gaining Epic access. This was strictly enforced by leadership and administration. • Super user utilization at go live and ongoing is both instrumental and required for successful implementation and ongoing support. Super Users all OHS hospitals are trained in advanced nursing functions as well as physician workflows to be that first line of support for our clinical users. Super users should always have a clear role, and are instrumental in educating their staff on continual updates, changes, and Epic Upgrades. Super User participation from every department is key to the success of Epic utilization at OHS. Profile Reading Health System includes Reading Hospital, a 647-bed acute care hospital located in West Reading, Pennsylvania, and Reading Health Rehabilitation Hospital, a facility in Spring Township, featuring a 50-bed skilled nursing unit and a 62-bed inpatient rehabilitation unit. We also provide office-based primary and specialty care through Reading Health Physician Network, in-home nursing care through Affilia Home Health, and retirement living through The Highlands at Wyomissing. An extensive network of outpatient services are provided through offices and urgent care walk-in centers throughout the region. Reading Hospital was awarded HIMSS Stage 7 on September 28, 2015. The Challenge Since the inception of our stroke center, care processes have continued to evolve resulting in significant improvement in stroke mortality and length of stay. However, our percentage of patients eligible for IV tPA who actually received this treatment in < 60 minutes was low with a rate of 15% for 2012. Our stroke team functioned in a challenging environment which included multiple instances of an ambulatory EHR, separate vendors for the ED EHR and inpatient laboratory, imaging results and computerized physician order entry. A stroke patient in the ED could simultaneously have paper and electronic documentation as well as electronic orders from two separate electronic systems in addition to handwritten orders. Implementation Overview In the summer of 2012, Reading Health System began the implementation of EpicCare Ambulatory EHR and in February of 2013, its acute hospital and rehabilitation hospital went live in a “big bang” on EpicCare Inpatient, ASAP (ED), Stork (OB), Anesthesia, Optime, Willow (pharmacy), MyChart (patient portal), EpicCare Link (independent provider portal), ADT/Prelude (registration), Cadence (enterprise scheduling), and Resolute (hospital billing). Philips iSite PACS had been implemented several years prior to EpicCare. Resulting Value / ROI In order to improve door-to-CT initiation times, nursing work flow changed such that the stroke patient was brought directly to a CT scanner in the ED. Triage nurses now use a stroke narrator which provides them the ability to document the National Institutes of Health Stroke Scale (NIHSS) in a structured fashion and to document one-step medications all within work flow. In addition, ED physicians use a stroke navigator that prompts them to document inclusion and exclusion criteria for thrombolytic therapy. Clinical decision support tools within the navigator informs the physician whether the patient is a candidate for intravenous tPA or provides the opportunity to document why tPA was withheld. In addition, because the patient's weight is documented electronically, the pharmacist is able to more rapidly calculate the correct tPA dose for the patient. Prior to the implementation of Epic, ED nurses had an electronic albeit manual documentation process for medication administration. This made it difficult to determine the exact time of tPA administration and as such, had limited the ED’s efforts to improve door-to-drug times. With the implementation of Epic, our ED nurses began to use a bar-coded medication administration which captured the time of tPA administration electronically. ED physician documentation captured through the navigator and electronic capture of the NIHSS through the narrator facilitates reporting and registry data collection and submission. In the two years following Epic implementation, we have seen continued improvement in care processes and outcomes. The door-to-CT initiation and door-to-CT interpretations steadily improved reaching 27 and 31 minutes, respectively as of December 2014. The percentage of eligible patients receiving tPA in less than 60 minutes also improved dramatically. In 2013, there was a 60% increase in patients receiving tPA and in 2014 we exceeded the AHA/ASA target by achieving the 87% level on this metric. The entire stroke team has access to all the important data that supports timely decision-making and our neurology and interventional neurology consultants can access the patient’s records, laboratories, and digital images remotely, obviating delays in care. Reading Health System’s Stroke Center has received numerous awards from Healthgrades including “America’s 100 Best Hospitals” for stroke care three years in a row (2013-2015) and was awarded the AHA/ASA 2015 Get with the Guidelines Stroke Honor Roll Elite Quality Achievement Award. Lessons Learned Having the support of the Reading Hospital Board and Administration was a critical factor for success not only in the vendor selection process but also in setting expectations for mandatory training and actual use of the EHR by clinicians. The engagement and input of our clinicians in the workflow validation process were invaluable. It would have been difficult to have achieved our level of success without them. Ambulatory and inpatient optimization committees composed of practicing clinicians have provided valuable expertise and feedback regarding the effectiveness of order sets, alerts, and workflow in a rapidly changing practice environment. A process for ongoing training and support of clinicians including at-the-elbow observation and system utilization analytics can provide key insights that can lead to improved efficiency and satisfaction. Profile St. Elizabeth Healthcare operates six major facilities throughout Northern Kentucky and more than 110 primary care and specialty office locations in Kentucky, Indiana and Ohio. St. Elizabeth is sponsored by the Diocese of Covington and is a member of the Mayo Clinic Care Network. St. Elizabeth is a mission-based organization committed to improving the health of the communities it serves, providing more than $121 million in uncompensated care and benefit to the community in 2013. The organization employs 7,400 associates, has 1,200 licensed beds, and has an employed physician group with 314 physicians and 71 mid-level providers. For more information, visit www.stelizabeth.com. Stage 7 award was achieved on August 12, 2015. The Challenge Starting in 2005, the Chief Nursing Officer (CNO) decided that an electronic system was needed to streamline and standardize clinical documentation, and drive evidenced based practice through clinical decision support. During the search for an electronic health record (EHR), St. Elizabeth made the strategic decision to acquire two new hospitals and to start a hospital employed physician group. These decisions steered the EHR search from a clinical documentation system to an enterprise EHR. The search quickened when these decisions were made because the new hospitals being purchased needed to transition from their legacy systems to a St. Elizabeth provided EHR. The goal of the enterprise EHR was to standardize clinical, financial, and administrative processes across the expanding organization. Implementation Overview A multidisciplinary team consisting of clinicians and administrators was formed in 2007-2008 to review enterprise electronic health record vendors. After evaluating the prominent enterprise grade EHR’s, the decision was made to move forward with Epic. In October of 2008, a contract was signed with Epic Systems to implement their EHR software. The EHR implementation kicked off in the fall of 2008 and Ambulatory sites began rolling out in January of 2010 with full practice management functionality. Hospital rollouts followed in April and October of 2010. The initial hospital rollouts included nursing clinical documentation via Optime, ASAP, and Stork, along with the implementation of ADT, clerk order entry, Willow, and Radiant. Device integration started at go live in one ICU and since has been rolled out to all ICU’s, procedural areas, L&D and emergency rooms. CPOE was implemented in May of 2012 and advanced nursing documentation including BCMA and electronic care plans and patient education followed in November of 2013. Additional modules including Anesthesia, Beacon, Case Management, and Infection Control have been rolled out. Device integration has expanded to anesthesia machines, infusion pumps, and there are plans to integrate portable vital sign monitors, ventilators, and dialysis machines in 2016. The organization currently utilizes Cerner as its Laboratory Information System (LIS) and has plans to implement Epic Beaker in 2017. Resulting Value / ROI • Transcription has been reduced by approximately 69% since the implementation of computerized physician documentation. This reduction has decreased the costs affiliated with transcription services and the resource time to manage tracking of transcription signatures. Providers utilizing real time Epic documentation tools have provided more real time access to critical patient information for the entire healthcare team. • A best practice alert (BPA) has been implemented to alert nurses if a patient has exceeded their 24 hour acetaminophen limit. This decision support has decreased the number of patients who have had their acetaminophen daily dose exceeded in half. The rates decreased from 0.85 events per 1,000 patient days prior to the alert to 0.4 events per 1,000 patient days post implementation. • Decision support tools were utilized to decrease catheter associated urinary tract infections (CAUTI). These tools were utilized to guide appropriate ordering, promote regular assessment, prompt for timely removal, and guide aseptic techniques for insertion and continued use. Reporting tools were utilized to monitor compliance of staff utilizing documentation tools and to allow for monitoring. These tools have been instrumental in decreasing CAUTI rates from around 3.5 events per 1,000 catheter days prior to EHR implementation to approximately 0.8 events per 1,000 patient days. • St. Elizabeth has been named a Top Performer on Key Quality Measures by the Joint Commission. The ability to achieve this distinction is largely due to utilization of the EHR. Decision support within the EHR promotes compliance with required documentation and evidenced based practice in support of required core measure requirements. Electronic documentation allows for concurrent reviews of charts instead of retrospective reviews, which allows the quality department to catch potential fall outs before they occur. The organization has moved from 70.37% compliance with VTE core measures in 2012 prior to CPOE to 99.4% compliance in 2015. This measures metrics have been advanced utilizing BPA’s, order sets, concurrent reviews, and ongoing education. • Utilizing an order set to encourage appropriate ordering of blood transfusions based on evidenced based guidelines, the average hemoglobin level transfused at decreased from approximately 8.1 g/dL to 7.3 g/dL in an 18 month time period after order set implementation and education. This resulted in an approximate 32% reduction in cost. Based on average adverse event data, this reduction resulted in 94 complications and 21 deaths avoided. • Our patients are better connected to their healthcare providers and they have real time access to their health information through MyChart, Care Everywhere and electronic visits. St. Elizabeth has approximately 109,000 active MyChart users, which represents greater than 50% of patients served. The organization has performed 2,500 electronic visits. In July of 2015, the organization exchanged 14,000 records through Care Everywhere with 72 other health systems utilizing Epic. Lessons Learned • Change Management: Developing a strong change management process with the various disciplines during go live and after is critical for success. During St. Elizabeth’s implementation, many change management committees were developed that were influential in decision making during implementation and have continued as the ongoing decision making bodies as changes and enhancements are requested. These groups are also utilized to make decisions on and prioritize enhancements with upgrades. Example committees include the Nursing Informatics Committee, Medical Informatics Committee, Optime Workgroup, and Ambulatory EMR Committee. • Retraining: End-users are only able to retain a certain amount of information during initial training, so only the most important information is trained initially. St. Elizabeth did not have a retraining initiative after go live and therefore many end-users and departments created their own workarounds. The organization would have benefited from a retraining to clarify workflows and documentation questions that came up during go live. • On-going Communication: During go live, develop a communication strategy that is supported by all user groups. St. Elizabeth continuously struggles with how to deliver notifications, changes, and enhancements to the necessary user groups. • Credentialed Training Program: A credential trainer or super-user program is critical for ongoing education. St. Elizabeth established a train the trainer credentialed trainer program with the initial go live and this program is relied on and a critical component for relaying information to nursing staff for upgrades, new applications, and continued technology implementations. Profile Lucile Packard Children’s Hospital Stanford, the heart of Stanford Children’s Health, is a leader in world-class, nurturing care and extraordinary outcomes in pediatric and obstetric specialties, with care ranging from the routine to the rare. Together with Stanford Medicine physicians, nurses, and staff, the hospital and network can be accessed through partnerships, collaborations, outreach, specialty clinics and primary care practices at more than 60 locations in Northern California, and 100 locations in the western United States. In October 2015, Lucile Packard Children’s Hospital Stanford/Stanford Children’s Health was awarded the HIMSS Analytics EMR Adoption Model Stage 7 recognition, and all 167 of their network practices received the Stage 7 Ambulatory Awards. The Challenge In 2012, the organization began the process of implementing Epic as their new comprehensive Electronic Health Record (EHR) system. This was an essential step toward the goal of “one patient, one record,” allowing each patient to have one integrated, easily accessed and updated medical record, shared across the full continuum of care. During this same time, Lucile Packard Children’s Hospital Stanford and Stanford Children’s Health developed a new network of 130 pediatric and obstetric providers in 40 locations across the Bay Area. This network has now grown to over 60 locations. More than half of the physicians within the faculty and network practices were first-time EHR users. In the initial rollout plan, the hospital was scheduled to convert first to Epic, followed by the faculty and network practices over the following two-year period. During the implementation process, it became quickly evident that the entire enterprise would operate more successfully and efficiently, and meet the goal of “one patient, one record,” sooner if the conversion covered all inpatient and ambulatory areas as quickly as possible. It was a herculean effort, made possible by the hard work and dedication of the operational, clinical and technical teams, to complete an accelerated organization-wide series of go-live conversions within a four-month period in the summer of 2014. As one of the highest-acuity hospitals in the nation, Ed Kopetsky, Chief Information Officer, likened the conversion to, “reengineering the plane while it was in flight.” On the day of go-live, the hospital was at 100% census and the cutover had to go off without a hitch. At the time of the cutover, several years of detailed historical patient data transitioned to the new system and the all-new Epic revenue cycle and administrative functions also went live. Implementation Overview Detailed planning for the conversion to Epic began in 2011. Project approval and kick-off started in early 2012 with immediate efforts dedicated to team recruiting and training. Very sophisticated patient workflows, order sets and clinical rules were accommodated along with multifaceted integrated testing and an extensive end-user training program was completed. These endeavors culminated in a series of go-live conversions: • May, 2014 – Lucile Packard Children’s Hospital Stanford, Revenue Cycle and some Faculty Practices • July, 2014 – Stanford Children’s Health Network Practices • August, 2014 – Remaining Faculty Practices and Oncology (Beacon) “These awards are a testament to quality and innovation by a very dedicated team of research, teaching and care delivery colleagues throughout our academic medical center, hospital and network. Together, we are leading the way to improve access and quality of care for all children and expectant mothers.” Ed Kopetsky, Chief Information Officer Resulting Value / ROI Patient Experience and Access: • Integrated patient care workflows, care plans and follow-up care were greatly enhanced. • MyChart, the interactive patient portal of Epic, allows patients to request appointments and prescription refills, make payments and view immunization records and lab results. Costs Savings: • $600K a year is saved in transcription costs. Revenue Improvements: • $21 million increase of cash collected adjusted for census and acuity. • $21 million improvement in final billing in FY15. Interoperability: • 23 percent reduction in Hospital Accounts Receivable Days. • Since the conversion to Epic, over 3 million patient records have been exchanged with 195 organizations in 48 states using Care Everywhere. This is particularly valuable due, as the specialty services and quaternary care provided at the hospital are largely physician-based referrals. Lessons Learned Safety: • Creating realistic and complex integrated testing scenarios allowed us to find and address challenges before they became patient care issues. • The implementation of Bar Code Medication Administration (BCMA) resulted in a 30 percent decrease in medication errors. • Chemotherapy Computerized Provider Order Entry resulted in four-times the improvement in chemotherapy infusions prepared 24-hours ahead and greatly improved the coordination of care to these complex patients. Innovation: • Lucile Packard Children’s Hospital Stanford is the first children’s hospital to remotely monitor glucose levels of children with Type 1 Diabetes with automatic data capture that goes into the EHR. • Apple’s Healthkit platform was integrated with Epic’s electronic health record system. • Epic’s Slicer Dicer, a self-service tool, easily allows providers to manage data within their patient population to improve the quality of care. • Internal, knowledgeable team members are extremely valuable. • Establishing a fully staffed training team to work with providers one-on-one, not only during go-live but also during the first year after implementation, is key. • Effective governance from the executive team all the way to clinical and operation leadership is essential to promoting organizational wide change. • Customized training classes and follow-up sessions with clinicians were very effective and appreciated. • The magnitude and corresponding budget for “At-the-Elbow” support is significant and expected by most providers. There is a need for supplemental support for several weeks post go-live. Profile Sutter Health is an integrated delivery network of more than 5,000 physicians and 48,000 employees providing comprehensive care to over 3,000,000 patients annually in more than 100 communities in Northern California. Sutter Health supports our communities with acute and ambulatory care settings, home health and hospice services, outpatient surgery and specialty care centers, medical research and training programs. Challenge Sutter Health is guided by four key themes: • Patients at the center of everything we do • Uncompromised pursuit of excellence • Enable caregivers to excel at giving care • Lead the transformation of health care As the largest geographically contiguous, non-profit system in the United States, we aim to deliver a consistent, high value patient experience in the geographically and socioeconomically diverse communities we serve. According to our CEO Patrick Fry, a tremendous amount of health care expense—perhaps more than one fifth—is largely due to poorly coordinated care, over treatment and variation. The challenge before us was to design a health information technology implementation strategy that would support a patient-centric, evidence-based care delivery model that promotes essential clinical collaboration between interdisciplinary teams, reduces unwarranted clinical variation, and engages patients to be co-partners in improving their health. Upon this framework, we want to empower our clinical teams to leverage health IT to innovate how care is delivered. Implementation Overview Sutter Health has partnered with Epic Systems Corporation since the late 1990s. The first Sutter Health ambulatory care clinics implemented Epic in 1999. Sutter subsequently launched one of the nation's earliest implementation of Epic's MyChart, My Health Online, in 2001. In order to support a consistent, seamless patient experience, Sutter Health extended the early implementation of the Epic electronic health record (EHR) as a single instance across our ambulatory and acute care delivery network. Today, this represents the largest single instance of the Epic EHR in the world with over 10 million patient records. We also have a single instance of Epic MyChart, My Health Online, with over 60% actively enrolled ambulatory patients and over 1 million patients using this service to access their data and collaborate with their care teams to improve the health of their families. This ecosystem of integrated care teams and engaged communities of patients has empowered Sutter Health to create new opportunities for care delivery. Resulting Value/ROI Each Sutter Health patient enjoys a singular, fully integrated medical record shared and leveraged by every care team member across the care continuum from ambulatory to acute care settings across the enterprise. • Over 700,000 of Sutter Health’s patients have established CareEverywhere linkages to exchange over 11 million clinical documents, improving the care coordination and safety of the patient care with our community partners. • Launch of My Health Online has created new opportunities for clinical care, convenience and patient outreach. To date, over 1 million patients have exchanged 4 million secure patient messages, booked 1 million appointments and viewed 25 million lab results. Patient messages are typically answered in less than 4 hours. Sutter Health today receives 23% of its total patient payments via My Health Online. Delivery of patient-centric decision support via My Health Online has led to efficient and cost-effective advances in patient outreach, leading to a three-fold increase in patient adherence to mammogram and cervical cancer screening recommendations and discovery of over 140 previously undiagnosed hepatitis C patients now potentially eligible for treatment to achieve sustained virological response (cure). • Sutter Health was recently ranked as California’s top health system in heath care quality by the Lewin Group. • Implementation of a prescription renewal “wizard” to add clinical decision support such as biometric and condition specific laboratory data to every refill encounter improves patient safety and provider efficiency. • Full benefits realization of health information technology investments require continuous reinvestment in our people and the system itself. We have committed 25% of our Meaningful Use Incentive Dollars to both sustainably improve the EHR skill level of our end users and redesign EHR-enabled workflows to promote provider efficiency and patient safety. • Ambulatory Computerized Provider Order Entry now accounts for 99.58% of all orders. • Implementation of EHR documentation tools and voice recognition software reduced transcription costs by over $4 million. • Implementation of EHR tools reduced mortality from severe sepsis or septic shock from 19% to 11% within 4 months of implementing a novel clinical decision support program. • Two Sutter Health physicians, David Butler and Albert Chan, have received the Epic PACAcademy Award (Physician of the Year), awarded annually to a physician member of the Epic community, selected by his/her peers, in recognition of outstanding contributions to the Epic community. Lessons Learned • Every clinical transaction, from direct patient encounters to online clinical interactions, provides us an opportunity to care for and delight the patient. • A common, health IT-enabled care delivery platform has integrated a geographically dispersed health system under a singular goal of improving the care experience through reduction of unnecessary variation and fostered new opportunities for innovative health care delivery. • “Ultimately, it is all about how we can serve our patients and their families, not the technology.” Profile WellSpan Health is an integrated health system that serves the communities of central Pennsylvania and northern Maryland. The organization is comprised of a multi-specialty medical group with more than 850 physicians and advanced practice clinicians, a home care organization, six respected hospitals, more than 15,000 employees, and over 140 patient care locations. WellSpan has been recognized by IMS Health as one of the Top 100 Integrated Health Networks in the United States and by Health Imaging and IT as one of the nation’s “Top 25 Connected Healthcare Facilities.” In 2015, WellSpan Surgery and Rehabilitation Hospital achieved HIMSS Analytics electronic medical record adoption model (EMRAM) level 7 status. This 73 bed hospital opened in 2012 and includes state-of-the-art operating rooms and rehabilitation equipment. WellSpan Surgery and Rehabilitation Hospital features 48 beds dedicated to rehabilitation, 25 post-surgical inpatient beds and four operating rooms for orthopedic and neurosurgical patients. This modern, patient-centered facility offers advanced orthopedic, spine, and neurosurgical treatment, as well as orthopedic and traumatic brain rehabilitation. The WellSpan Surgery & Rehabilitation Hospital is accredited by CARF International. By pursuing and achieving CARF accreditation in 2012, and reaccreditation in 2015, the WellSpan Surgery & Rehabilitation Hospital has demonstrated that it meets international standards for quality and is committed to pursuing excellence. CARF is an independent, nonprofit accrediting body whose mission is to promote quality, value, and optimal outcomes of patient-care services through a consultative accreditation process that centers on enhancing the lives of the persons served. Founded in 1966 as the Commission on Accreditation of Rehabilitation Facilities, and now known as CARF International, this accrediting body establishes consumer-focused standards to help organizations measure and improve the quality of their programs and services. WellSpan Surgery & Rehabilitation Hospital also received a three-year accreditation from Det Norske Veritas (DNV) in 2014. This hospital is one of only four in Pennsylvania to achieve DNV accreditation. DNV Healthcare is the leading accreditor of United States hospitals integrating ISO 9001 quality compliance with the Medicare Conditions of Participation. ISO 9001 is a series of standards that define, establish and maintain an effective quality assurance system. In September 2014, WellSpan Surgery & Rehabilitation Hospital was one of two hospitals with fewer than 100 beds selected as a top performing facility by National Research Corporation in its “Path to Excellence” program. This recognition is based on the highest percentage of patients rating the hospital a “nine” or “ten” on patient satisfaction measures. Winners of the Path to Excellence Award were selected from the extensive database of National Research Corporation’s client hospitals for their performance over the past four quarters. Winning this award demonstrates that the WellSpan Surgery & Rehabilitation Hospital is committed to providing patient-centered care. WellSpan Surgery & Rehabilitation Hospital was identified as one of eight hospitals in the country where at least 95% of its patients responded “Yes, I would definitely recommend this hospital.” This was based on Hospital Consumer Assessment of Healthcare Providers and Systems (HCAHPS) survey results reported to CMS’ Hospital Compare databases, regarding post-surgery patients. WellSpan Surgery & Rehabilitation Hospital is listed in Modern Healthcare magazine as the fifth highest scored hospital for value-based purchasing reward/penalty, 2015 (readmissions, value based purchasing and hospital acquired condition score). The Challenge WellSpan Health prides itself on providing safe and reliable healthcare to its patients. Despite continuous attention to error-proofing of care delivery processes, WellSpan found that low-frequency, high-impact events still occurred. Heparin-Induced Thrombocytopenia (HIT) is an unpredictable immune-mediated adverse drug reaction (ADR) associated with the use of unfractionated heparin (UFH) and low-molecular-weight heparin. Although it occurs in less than 5% of patients receiving heparin, HIT can have devastating consequences including thromboembolism and death. The risk of these complications can be lessened with optimal management of HIT, which includes active surveillance, prompt recognition, heparin discontinuation, ordering confirmatory laboratory tests, and initiation of an alternative non-heparin anticoagulant. Unfortunately, this ADR is not always promptly recognized or managed appropriately. We present such a case, along with the alerting and work-flow redesign solution implemented to facilitate more timely recognition and intervention. In June 2014, an ADR report was submitted through the WellSpan safety reporting system involving an unexpected inpatient mortality due to HIT. The patient had a relatively uneventful postoperative course after undergoing aortic valve replacement surgery until his platelet count suddenly dropped by more than 50%. He subsequently became unresponsive, was diagnosed with multiple ischemic strokes, and a possible pulmonary embolism. He died the following day after suffering multiple cardiac arrests and further decompensation. This case triggered a multidisciplinary meeting of key stakeholders from pharmacy, nursing, patient-safety, laboratory informatics, and clinical informatics. A laboratory report of all confirmed cases of HIT over a two-year period at WellSpan was obtained and each individual case was investigated. In a few cases, absence of routine platelet count monitoring was thought to have contributed to delayed recognition of thrombocytopenia and HIT. Recognition was delayed by more than three days in four cases. In each of those identified cases, the patient suffered at least one thromboembolic event. The Solution As a result of the above described analysis, multiple inter-related strategies were developed by the multidisciplinary workgroup. The first strategy was the creation of an automatic rule in Cerner Millennium that would look for a resulted platelet count on all patients receiving UFH, and if a platelet count had not been resulted in the previous forty-eight hours, a Complete Blood Count would be ordered for the next morning’s lab draw (Figure 1). Next, an alert was created, which would fire on all patients experiencing a 50% decrease in platelet count from a baseline level prior to heparin administration. This alert advises the clinician of the drop in platelet count, a hallmark of HIT, and presents a validated HIT risk stratification tool, the 4T’s score, in a structured format for completion by the clinician. Additional information is displayed within the alert to assist with risk stratification, including a graph of platelet count trend correlated with heparin administration and recent imaging results for thrombosis. Using a color-coded error-proofing approach, the pre-test probability of HIT is calculated from structured responses within the 4T’s score, with low-risk scores being shaded as green (Figure 2), moderate-risk as yellow, and high-risk as red. As a further error-proofing measure, in the case of moderate to high-risk scores, a link to an evidence-anchored HIT treatment order set is embedded in the advisory message (Figure 3). In the case of low-risk scores, this link is intentionally not available. Results In a one-month retrospective data sample conducted after the go-live date, the HIT alert fired on 49 patients. One patient, who was identified by the tool, had laboratory-confirmed heparin-induced thrombocytopenia with thrombosis. HIT was promptly recognized in this patient after the alert fired, heparin administration was discontinued, and alternative anticoagulation was initiated. The patient was subsequently discharged home. A separate laboratory report confirmed that this was the only case of confirmed HIT during the same time period. Resulting Value • Automated lab ordering process for disease surveillance • Just-in-time alerting of potentially significant drops in platelet count with consistent standardized risk stratification using a validated tool • Link to a best practice order set imbedded in the clinician’s workflow • Increased provider awareness for a rare, but serious adverse drug event Lessons Learned • Maintaining high clinical decision-support sensitivity, while avoiding excessive provider alerting can be difficult. With a low-frequency, high-impact event such as HIT, the goal of our alert is 100% sensitivity. Although an algorithm was developed to identify patients with potential HIT, based on heparin exposure and a decrease platelet count, patients with other causes of thrombocytopenia could not be excluded. • Optimization of new clinical decision support technology is an iterative process. Within months after implementation, an additional option was added for clinicians who had “No Clinical Suspicion of HIT” in order to appropriately suppress the alert for that patient encounter. This increased the alert response rate and encourages appropriate use of the HIT order set. • By implementing a solution, related solutions may present themselves. In the process of evaluating the outcomes of this intervention, our laboratory services department posited that management of patients with suspected HIT could be expedited by providing confirmatory testing in-house, instead of as a “send-out” test. It has been conjectured that in-house testing would provide results faster thus enabling the clinician to deliver patient care with a higher degree of safety. Profile Yale-New Haven Hospital is a 1,541-bed private, nonprofit teaching hospital that ranks among the premier medical centers in the nation. Including the Yale-New Haven Children’s Hospital, Yale-New Haven Psychiatric Hospital, Smilow Cancer Hospital and the 2 Yale-New Haven Hospital campuses at York Street and the Saint Raphael Campus, YNHH is regularly included among the Best Hospitals in the U.S. in the annual U.S. News & World Report rankings of specialty services. With two main campuses, Yale-New Haven is the largest acute care provider in southern Connecticut and one of the Northeast's major referral centers. YNHH achieved Stage 7 status on September 18, 2015. The Challenge Yale-New Haven Hospital has a long history of leveraging electronic medical records and other technology to enhance care, quality, safety, and workflow efficiency. YNHH was one of the first hospitals in the nation to adopt computerized provider order entry (CPOE) in the early 1990s and by 2010 had a robust inpatient and ambulatory EMR deployment. The approach to that point, though, was a “best of breed” model with several clinical, ancillary, and EMR solutions in use at YNHH, its satellites, and affiliate hospitals across the Yale New Haven Health System, which includes Bridgeport Hospital, Greenwich Hospital, and the Northeast Medical Group. With multiple EMRs in use across and within our hospitals, care continuity and data analysis were hindered. Our partners in the Yale School of Medicine, were also challenged by disparate medical record technologies that limited integration and research capabilities. In 2010, we recognized the need to transform our technology base to enable longitudinal care, population health, clinical, operational and business analytics, support research and to empower delivery of higher value. Implementation Overview In July of 2010, we completed due diligence on EMR selection, choosing the Epic EMR and revenue cycle platform for Yale-New Haven Hospital, Bridgeport and Greenwich Hospitals, the Northeast Medical Group and the Yale Medical Group. We endeavored to deploy a single electronic medical record for our patients across all sites of care and in tandem offered Epic access via Community Connect contracts to community providers and agencies with whom we share patients. We implemented Epic as a big bang strategy at each hospital and in a rolling manner through the physician practices in the Medical Groups. Our initial implementation included the core EMR for inpatient and ambulatory as well as the registration, scheduling, billing, pharmacy, radiology, cardiology, transplant, oncology, obstetrics, ophthalmology, anesthesia, operating room, health information management, reporting and data warehouse, patient portal, and provider remote access portal applications. YNHHS has been a Care Everywhere participant since 2010. In the few years following our initial implementation we have added the Epic modules for bed management, care management, population health and are in the process of implementing Beaker (Laboratory) and ICON (Infection Control) modules. The Epic solutions are fully integrated to critical third party solutions for PACS, Anatomic Pathology, Blood Bank, Radiation Oncology, biomedical device integration (BMDI) and various business and clinical support solutions. Resulting Value / ROI Through fiscal year 2014, YNHHS saw $150.6 M in benefits from Cost & Value initiatives driven through and supported by the EMR, financial and analytics platforms. These annual benefits are expected to remain sustainable through fiscal year 2015 and beyond. The following examples reflect results specific to Yale-New Haven Hospital. The cost and value positioning initiative was built on strong partnerships between YNHHS’s finance team, analytics and ITS team, and clinical teams. These teams applied data collected through Epic to identify and track opportunities to increase efficiencies, reduce waste, and drive down the cost of patient care and leveraged the Epic EMR to deploy real-time decision support and other tools to drive changes. Through these partnerships, YNHHS measured results across health system and the following are examples from Yale-New Haven hospital, who achieved Stage 7: Financial Results: o Blood Utilization Management Applied streamlined transfusion protocols [$200,000] o Optimize Abdominal Surgery Reduce complications of small and large bowel surgery patients [$2,000,000 o Oncology Medications use Reduce inpatient administration of Rituximab and Ifosfamide [$921,000] o Head and Neck Care Process Redesign Reduced ALOS for H&N ENT patients [$214,000] o Sickle Cell Care Redesign Reduce ALOS and readmissions for sickle-cell patients [$2,300,000] o Hip Fracture Reduced ALOS and Quality Variance Indicator (measure of adverse event) incidence [$235,000] Clinical Quality Results: o Duplicate Laboratory Tests Reduce redundant lab ordering through real time clinical decision support [20% reduction in tests ordered] o Clustering Care Reduce patient awakening between 8PM and 6AM by redesigning medication administration standard schedules and decision support for laboratory draw times and vital signs schedules- [35% reduction in patient awakening episodes] o Facilitate smoking cessation Created clinical alert to drive referral to cessation services and orders for nicotine replacement products [34% referred to the Quit Line; 43% had medication orders placed; Tobacco use disorder was added to the problem list in 48%; Email messages sent to patient’s PCP 99% of the time] o Improving Medication Reconciliation Pharmacist-Pharmacy Technician led medication reconciliation workflow targets high risk patients; EMR enables patient identification, retrieval and documentation of med history, and care team communication [35% increase in admission medication reconciliation rates in high risk populations] o Tele-ICU Remote, centralized intensivist oversight of critical care patients across the health system has enabled cost-effective, specialist care in all of the ICU’s and resulted in decreased cost/case and LOS. Research: o Enhancing patient outreach for research Created a research portal within the EMR patient portal to inform patients of research trials and enlist their interest in clinical trials. [To date over 500 patients have been recruited] Care Team Communication: o Auto-routing of provider notes Upon closing the encounter in Epic, the specialist’s note is auto-routed to the Primary Care Provider (PCP) of record. This improves the communication among the care team and has saved ~20-30 minutes/provider/day. The strategies YNHH employed to improve value depends on data from three sources: the electronic medical record (Epic), the advanced cost accounting system (Strata), and comprehensive quality metrics. Quality Variation Indicators (QVI)s were developed to track rank-ordered adverse hospital events or conditions not present on admission. Analyzing QVIs captures the frequency and cost of complications in care delivery and allows the clinical review teams to determine levels of preventability, clinical significance, and provider attribution for the QVIs. YNHH uses the collected data to drive clinical standards through system-wide order sets, decision support, and streamlined care processes. Real-time and retrospective delivery of patient and operational data help providers see the benefits of clinical redesign for their patients, and helps the YNHH team optimize resources and patient outcomes with monthly results reflected in the System’s financial statements. As shown in the Revenue and Expense per Equivalent discharge graph, YNHHS has reduced the cost of care each year since FY 2011, when Epic implementation began, through the cost and value positioning initiative. And in 2013, when Yale-New Haven Hospital implemented Epic, revenue per case began to increase due to more accurate and complete data capture, while the costs continued to decline. Lessons Learned o Stakeholder engagement in understanding and design of the new platform is critical to success in the short term at implementation and most importantly in the long term in leveraging the tools for success. Coordination across teams and across organizations is central to creation of a common, standard build within the EMR. Proper payment incentives should be considered to ensure clinician participation. o Workflow analysis and design require attention and resources to pave the way for the EMR and related technologies. Implementing these tools will uncover many workflow and communication inefficiencies at play in your health system. Focus on getting the workflow right and consistent with the EMR tools pays dividends in the long run. o Taking the time to celebrate successes reinforces the value of the work and bolsters morale during the stress of major change characteristic of large implementations like the EMR. o Adhere to timelines, scope, and budget. There will be a natural tendency to want to slow down, to make things perfect, or to do more analysis. Moving quickly and sticking to timelines enables you to move through the initial change, fight inertia, and move through implementation to the really important work of improving performance and quality. Maintaining the pace helps you drive necessary decisions toward that goal. o Maintain vigilant focus on safety, quality, the patient experience and key performance indicators to ensure a successful transition and to avoid unexpected adverse outcome. 2015 Stage 6 Recipients ABC Pediatrics 1 Ambulatory Facility Arrowhead Regional Medical Center 1 Hospital Abdel-Misih/ Bennett, MDs 1 Ambulatory Facility Arthritis & Osteoporosis Center, LLC 3 Ambulatory Facilities Advanced Care Obstetrics & Gynecology 1 Ambulatory Facility Ascension Health 40 Hospitals AdvantageCare Physicians 36 Ambulatory Facilities Athens Regional Health Services, Inc. 1 Hospital Advocate Health Care 1 Hospital Atlantic General Health System & Hospital 1 Hospital Affinity Women’s Health 2 Ambulatory Facilities Baldwin Area Medical Center 1 Hospital Agnesian HealthCare 3 Hospitals 21 Ambulatory Facilities Banner Health 2 Hospitals 16 Ambulatory Facilities Alexandar Bunt, DO 1 Ambulatory Facility Baptist Health 1 Hospital Alpena Regional Medical Center 7 Ambulatory Facilities Baptist Memorial Health Care Corporation 13 Hospitals 163 Ambulatory Facilities 1 Ambulatory Facility Barnabas Health 6 Hospitals Appalachian Regional Healthcare System 2 Hospitals Baylor Scott & White Health 1 Hospital Arkansas Children’s Hospital 1 Hospital Black River Memorial Hospital 1 Hospital Andrea & Fred Kahn Boston Medical Center 1 Hospital Children’s Hospitals & Clinics of Minnesota 2 Hospitals Brandywine Medical Associates 3 Ambulatory Facilities Christiana Care Health System Brandywine Podiatry 8 Ambulatory Facilities Christiana Institute of Advanced Surgery 3 Ambulatory Facilities Burgess Health Center 1 Hospital CHRISTUS Health 1 Hospital Calvert Memorial Hospital 1 Hospital Citizens Memorial Healthcare 2 Ambulatory Facilities Cancer Treatment Centers of America 4 Hospitals Community Health Systems, Inc. 1 Hospital Cape Fear Valley Health Systems 2 Hospitals Community Hospital of the Monterey Peninsula 1 Hospital Carolinas HealthCare System 4 Hospitals 15 Ambulatory Facilities Community Medical Centers 1 Ambulatory Facility CaroMont Health 1 Hospital Catholic Health Initiatives 2 Hospitals 27 Ambulatory Facilities Complete Family Care 1 Ambulatory Facility Contra Costa Health Services 1 Hospital 10 Ambulatory Facilities Catholic Health Services of Long Island 1 Hospital Cook County Health & Hospitals System 2 Hospitals 18 Ambulatory Facilities Central Florida Health Alliance 2 Hospitals Cottage Health System 3 Hospitals Center for Addiction & Mental Health - Toronto Central LHIN (7) 1 Hospital Covenant HealthCare 1 Hospital Children’s Healthcare of Atlanta 3 Hospitals CoxHealth 1 Hospital Children’s Hospital Los Angeles 1 Hospital Daniel Toocheck, Dr. 1 Ambulatory Facility DC Medical 1 Ambulatory Facility Family Practice of Hockessin 1 Ambulatory Facility Delaware Cardiovascular Associates 11 Ambulatory Facilites Family Wellness Center 1 Ambulatory Facility Delaware Family Medicine 1 Ambulatory Facility Fanny J. Berg, Dr. 1 Ambulatory Facility Delaware Surgical Group 2 Ambulatory Facilities First State Endocrinology 2 Ambulatory Facilities Dignity Health 31 Hospitals First State Family Practice 1 Ambulatory Facility Duke LifePoint Healthcare First State Foot & Ankle 4 Hospitals 1 Ambulatory Facility Duke University Health System 156 Ambulatory Facilities First State Podiatry 1 Ambulatory Facility East Alabama Medical Center 1 Hospital Fitzgibbon Hospital 1 Hospital East Boston Neighborhood Health Center 3 Ambulatory Facilities Floyd Memorial Hospital & Health Services 1 Hospital Emory Healthcare, Inc. 1 Hospital EvergreenHealth 1 Hospital Excela Health 1 Hospital Fort HealthCare 30 Ambulatory Facilities Franciscan Alliance 10 Hospitals 68 Ambulatory Facilities Family Health West 1 Hospital Franciscan Care Services 1 Hospital Family Medical Associates of Delaware 1 Ambulatory Facility Fremont Health 1 Hospital Family Medical Centre 1 Ambulatory Facility Geisinger Health System 6 Ambulatory Facilities Genesis Health System 40 Ambulatory Facilities Hendry Regional Medical Center 1 Hospital Graham Hospital Association 1 Hospital Heritage Valley Health System 2 Hospitals Grande Ronde Hospital, Inc. 1 Hospital Hoag 3 Hospitals Greater Waterbury Health Network 1 Hospital Holy Redeemer Health System 1 Hospital Great River Health Systems, Inc. 17 Ambulatory Facilities Hope Medical Clinic 1 Ambulatory Facility Greenville Health System 2 Hospitals Hosmane Cardiology 2 Ambulatory Facilities Gundersen Health System 2 Hospitals Hudson Physicians 1 Ambulatory Facility Hallmark Health System 2 Hospitals Hugh Chatham Memorial Hospital 1 Hospital Harrison County Hospital 1 Hospital Indianapolis Gastroenterology & Hepatology 1 Ambulatory Facility Hawaii Health Systems Corporation 1 Hospital Indiana University Health 1 Hospital HCA - Hospitals Corporation of America 138 Hospitals Infirmary Health 3 Hospitals Health Quest 3 Hospitals Inova Health System 66 Ambulatory Facilities HealthSouth Corporation 30 Hospitals Irene Szeto, Dr. 1 Ambulatory Facility Hector J. Maya, Dr. 1 Ambulatory Facility Jackson County Health Care Authority 1 Hospital Hemphill County Hospital 1 Hospital Jackson Health System 3 Hospitals James Volpe, Dr. 2 Ambulatory Facilities Laurel Medical Associates 1 Ambulatory Facility John Muir Health 2 Hospitals Lawrence Memorial Hospital 12 Ambulatory Facilities Jupiter Medical Center 1 Hospital LifeBridge Health 1 Hospital Kane County Hospital 1 Hospital LifePoint Health 23 Hospitals Kansas Medical Center 1 Hospital Linda L. Lawton, DPM 1 Ambulatory Facility Karl Zimmerman, MD 1 Ambulatory Facility Loma Linda University Health 24 Ambulatory Facilities Katherine Shaw Bethea Hospital 1 Hospital 7 Ambulatory Facilities Los Angeles County, Department of Health Services 1 Hospital Kent Perdiatrics 1 Ambulatory Facility Lubbock Heart Hospital 1 Hospital Madison Health 1 Hospital Kent Pulmonary Associates 2 Ambulatory Facilities Khan OB-GYN 1 Ambulatory Facility Margaret Mary Health 1 Hospital Knoxville Hospitals & Clinics 1 Hospital Marshall Health System 2 Hospitals Lakeland Regional Health 13 Ambulatory Facilities Martin Luther King Jr. Los Angeles Healthcare Corporation 1 Hospital Lakewood Health System 1 Hospital Mason General Hospital 1 Hospital 10 Ambulatory Facilities La Rabida Children’s Hospital 1 Hospital Laughlin Memorial Hospital, Inc. 1 Hospital Marita M. Fallorina, MD. 1 Ambulatory Facility Maternity & Women’s Health 2 Ambulatory Facilities Matagorda County Hospital District 1 LHospital Mayo Clinic Health System 1 Hospital Medical Associates of Bear 2 Ambulatory Facilities MedStar Health 1 Hospital Memorial Community Health, Inc. 1 Hospital Memorial Health Care Systems 3 Ambulatory Facilities Memorial Health System 1 Hospital Memorial Hospital at Gulfport 1 Hospital Memorial Hospital of Sweetwater County 1 Hospital MemorialCare 2 Hospitals Mercy Health 2 Hospitals MercyRockford Health System 50 Ambulatory Facilities Meritus Health 1 Hospital Methodist Healthcare 3 Ambulatory Facilities Metro Health 13 Ambulatory Facilities Middletown FamilyCare Associates 2 Ambulatory Facilities MidMichigan Health 60 Ambulatory Facilities MidWest Medical Center 1 Hospital Milford Regional Healthcare System, Inc. 1 Hospital Mission Regional Medical Center 1 Hospital Moffitt Cancer Center 1 Hospital 4 Ambulatory Facilities Mohsin Ansara, MD. FAAP 2 Ambulatory Facilities Mosaic Life Care 54 Ambulatory Facilities Morehead Memorial Hospital 1 Hospital Mountain States Health Alliance 1 Hospital MultiCare Health System 1 Hospital 1 Ambulatory Facility Munson Healthcare 4 Hospitals MUSC Medical Center 10 Ambulatory Facilities Muscogee (Creek) Nation Health System 1 Hospital Nanticoke Health Services, Inc. 1 Hospital Nash Health Care 1 Hospital Navicent Health 2 Hospitals Nemaha County Hospital 1 Hospital Nephrology Consultants 3 Ambulatory Facilities Northwestern Medicine 111 Ambulatory Facilities Nevada Regional Medical Center 1 Hospital Novant Health 10 Hospitals New Hanover Health Network 2 Hospitals NuHealth 1 Hospital New York - Presbyterian Healthcare System, Inc. 1 Hospital Niagara Falls Memorial Medical Center 1 Hospital Nieva T. Duque, MD. 2 Ambulatory Facilities Nicklaus Children’s Hospital 1 Hospital North Caddo Medical Center 1 Hospital North Canyon Medical Center 1 Hospital North Kansas City Hospital 1 Hospital North Mississippi Health Services, Inc. 7 Hospitals Oaklawn Hospital 1 Hospital Oconee Regional Health System, Inc. 1 Hospital OhioHealth 2 Hospitals 25 Ambulatory Facilities Olathe Health System 32 Ambulatory Facilities OSF HealthCare 3 Hospitals 117 Ambulatory Facilities Overlake Hospital Medical Center 1 Hospital Pagosa Springs Medical Center 1 Hospital NorthBay Healthcare System 2 Hospitals Parkview Health 8 Hospitals 152 Ambulatory Facilities Northeastern Vermont Regional Hospital 1 Hospital Partners Healthcare System, Inc. 1 Hospital Northern Arizona Healthcare 2 Hospitals Patient First Medical 1 Ambulatory Facility Northwell Health 5 Hospitals Piedmont Healthcare 1 Hospital Northwestern Medical Center 1 Hospital PIH Health 1 Hospital Pioneers Memorial Healthcare District 1 Hospital Samaritan Health Services 5 Hospitals Pomona Valley Hospital Medical Center 1 Hospital Sanford Health 1 Ambulatory Facility Prime Healthcare Services, Inc. 2 Hospitals San Juan Hospital 1 Hospital Princeton Community Hospital Association, Inc. 1 Hospital SCL Health System 154 Ambulatory Facilities Princeton Healthcare System 1 Hospital ProHealth Care, Inc. 5 Ambulatory Facilities ProMedica Health System 1 Hospital Pulmonary & Sleep Consultants 2 Ambulatory Facilities Seaford Internal Medicine 3 Ambulatory Facilities Sharp HealthCare 1 Hospital Sheridan Memorial Hospital 1 Hospital Singing River Health System Queen’s Health Systems 2 Hospitals 2 Hospitals Redwood Area Hospital 1 Hospital SMA Medicine - Internal Medicine - Endocrinology - Pediatrics 1 Ambulatory Facility Regional Medical Center 1 Hospital Somerset Hospital Center for Health 1 Hospital Rehabilitation & Welless (Apex) 1 Ambulatory Facility South Side Family Practice Ridge Family Practice, PC 2 Ambulatory Facilities Robert Wood Johnson Health Network 2 Hospitals Rural Health Management Corporation 1 Hospital Rutland Regional Health Services 1 Hospital Saint Luke’s Health System 6 Hospitals 17 Ambulatory Facilities 2 Ambulatory Facilities Southwest Memorial Hospital 1 Hospital Sparrow Health System 2 Ambulatory Facilities Spartanburg Regional Healthcare System 2 Hospitals Spectrum Health 8 Hospitals 77 Ambulatory Facilities Spine & Orthopedic Specialist 3 Ambulatory Facilities Susquehanna Health 1 Hospital Springdale Internal Medicine 1 Ambulatory Facility Sutter Health 4 Hospitals St. Anthony’s Medical Center 22 Ambulatory Facilities St. Bernard’s Healthcare 1 Hospital St. Charles Health System 4 Hospitals St. George Corporation 1 Hospital Swisher Memorial Hospital 1 Hospital Tamesis Rheumatology 1 Ambulatory Facility Tampa General Hospital 20 Ambulatory Facilities St. Joseph’s Healthcare System 2 Hospitals Tenet Healthcare Corporation 5 Hospitals St. Lawrence Health System 1 Hospital 1 Ambulatory Facility St. Luke’s University Health Network 6 Hospitals 157 Ambulatory Facilities Stillwater Medical Center 1 Hospital Success Healthcare 1 Hospital Sumner Regional Medical Center 1 Hospital Surgical Associates of New Castle 3 Ambulatory Facilities Surgical Care Associates 1 Ambulatory Facility Susan B. Allen Memorial Hospital 1 Hospital Terrebonne General Medical Center 1 Hospitals The Cambridge Health Alliance 2 Hospitals The Children’s Hospital of Eastern Ontario - Champlain LHIN (11) 1 Ambulatory Facility The Toronto East General Hospital - Toronto Central LHIN (7) 1 Hospital The University of Chicago Medicine 3 Hospitals The University of Kansas Hospital 1 Hospital The University of Texas System 1 Hospital 6 Ambulatory Facilities TriHealth 1 Hospital Trinitas Health 1 Hospital Trinity Health 4 Hospitals Trinity Mother Frances Health System 3 Hospitals 62 Ambulatory Facilities UC HEalth 1 Hospital 167 Ambulatory Facilities UCI Medical Associates, Doctors Care 51 Ambulatory Facilities University Hospitals Health System 1 Hospital 13 Ambulatory Facilities University of California 503 Ambulatory Facilities University of Michigan Health System 103 Ambulatory Facilities University of Rochester Medical Center 2 Hospitals 71 Ambulatory Facilities University of South Carolina Department of Medicine 21 Ambulatory Facilities University of Utah Health Care 1 Hospital UHealth - The University of Miami Health System 30 Ambulatory Facilities University of Virginia Health System 1 Hospital UK HealthCare 2 Hospitals UW Medicine 1 Hospital 34 Ambulatory Facilities UNC Health Care System 3 Hospitals 30 Ambulatory Facilities Union Hospital 1 Hospital United Medical Clinic of DE 3 Ambulatory Facilities UnityPoint Health 16 Hospitals Universal Health Services, Inc. 77 Ambulatory Facilities University Health 11 Ambulatory Facilities University Hospital 1 Hospital Vail Valley Medical Center 1 Hospital Valley Regional Healthcare 1 Hospital Vidant Health 53 Ambulatory Facilities Virginia Commonwealth University Health System 1 Hospital 27 Ambulatory Facilities WakeMed Health & Hospitals 2 Hospitals 67 Ambulatory Facilities Walnut Hill Medical Center 1 Hospital Wellforce 1 Hospital 5 Ambulatory Facilities WellSpan Health 1 Hospital WellStar Health System 5 Hospitals Western Missouri Medical Center 1 Hospital Western Reserve Hospital 9 Ambulatory Facilities William C. Egan, MD. 1 Ambulatory Facilitiy Wyoming Medical Center 1 Hospital Yampa Valley Medical Center 1 Hospital Congratulations to all the Stage 6 Achievers! International Stage 7 Achievers Hospital Dénia “Marina Salud” Dénia, Comunidad Valenciana Spain Radboud Universitair Medisch Centrum Nijmegen, Gelderland The Netherlands Seoul National University Bundang Hospital Gyeonggi-do, Seoul South Korea Universitätsklinikum Hamburg-Eppendorf Hamburg, Hamburg Germany Peking University People’s Hospital Beijing, China Sheng Jing Hospital of China Medical University Shenyang, China TEDA International Cardiovascular Hospital Tianjin, China King Faisal Specialist Hospital and Research Centre Family Medicine Clinic Riyadh, Kingdom of Saudi Arabia Thank you for joining us in celebrating all of the Stage 7 achievers! We look forward to seeing you next year at HIMSS17! © HIMSS Analytics and www.HIMSSAnalytics.org, 2016. 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