Congenital Heart Center Best Outcomes
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Surgical Advances in Heart and Lung Transplantation
Anesthesiology Clin N Am 22 (2004) 789–807 Surgical advances in heart and lung transplantation Eric E. Roselli, MD*, Nicholas G. Smedira, MD Department of Thoracic and Cardiovascular Surgery, Cleveland Clinic Foundation, Desk F25, 9500 Euclid Avenue, Cleveland, OH 44195, USA The first heart transplants were performed in dogs by Alexis Carrel and Charles Guthrie in 1905, but it was not until the 1950s that attempts at human orthotopic heart transplant were reported. Several obstacles, including a clear definition of brain death, adequate organ preservation, control of rejection, and an easily reproducible method of implantation, slowed progress. Eventually, the first successful human to human orthotopic heart transplant was performed by Christian Barnard in South Africa in 1967 [1]. Poor healing of bronchial anastomoses hindered early progress in lung transplantation, first reported in 1963 [2]. The first successful transplant of heart and both lungs was accomplished at Stanford University School of Medicine (Stanford, CA) in 1981 [3]. The introduction of cyclosporine to immunosuppres- sion protocols, with lower doses of steroids, led to the first successful isolated lung transplant, performed at Toronto General Hospital in 1983 [4]. Since these early successes at thoracic transplantation, great progress has been made in the care of patients with end-stage heart and lung disease. Although only minor changes have occurred in surgical technique for heart and lung transplantation, the greatest changes have been in liberalizing donor criteria to expand the donor pool. This article focuses on more recent surgical advances in donor selection and management, procurement and implantation, and the impact these advances have had on patient outcome. -
Bundled PCI Services in a Non-Hospital Cath Lab: Environmental Scan/Annotated Bibliography
Bundled PCI Services in a Non-Hospital Cath Lab: Environmental Scan/Annotated Bibliography The research questions guiding the environmental scan and the search strategy are described in detail in the attached appendix. The components of the annotated bibliography below (with links and citations to sources) are grouped into topic areas with main points relevant to the proposal review outlined below. BRIEF DESCRIPTION OF THE PROPOSAL The “Bundled PCI Services in a Non-Hospital Cath Lab” proposal aims to reduce costs of Percutaneous Coronary Interventions (PCIs) by giving Medicare patients the option to have the procedure performed in a non-hospital outpatient cardiac catheterization (cath) lab. Clearwater Cardiovascular Consultants, the submitting organization, proposes Bundled PCI services to allow qualified non-hospital cath labs the ability to perform PCIs, beginning with CCC’s own established cath lab as a limited scale test case to develop appropriate criteria, with expansion to at least two additional cath labs in the next year. SUBMITTING ORGANIZATION Clearwater Cardiovascular Consultants Clearwater Cardiovascular Consultants (CCC) is a cardiovascular medicine group founded in 1975, located in Clearwater, Florida, and comprised of 20+ physicians. Prior to 2016, CCC physicians provided PCI services at a hospital outpatient cardiac cath lab owned by Morton Plant Hospital (MPH), located near the emergency room/hospital outpatient lab. On January 1, 2016, CCC acquired this cath lab from MPH, retaining the same staff. http://www.ccicheart.com/ https://baycare.org/mph Bundled PCI Services in a Non-Hospital Cath Lab, June 2018 1 CURRENT ISSUES AND CONCERNS WITH MEDICARE PAYMENT FOR PCI CCC proposes an approach that will reduce spending for Anchor PCI procedures by an estimated $1,285 for a single vessel PCI and $3,105 for a multi-vessel PCI by performing PCIs in more cost-effective facilities as appropriate. -
Health Facilities and Services Review Board
STATE OF ILLINOIS HEALTH FACILITIES AND SERVICES REVIEW BOARD 525 WEST JEFFERSON ST. • SPRINGFIELD, ILLINOIS 62761 •(217) 782-3516 FAX: (217) 785-4111 DOCKET NO: BOARD MEETING: PROJECT NO: September 14, 2021 21-016 PROJECT COST: H-04 FACILITY NAME: CITY: Original: $170,520,604 NorthShore Glenbrook Hospital Glenview TYPE OF PROJECT: Substantive HSA: VII PROJECT DESCRIPTION: The Applicant [NorthShore University HealthSystem] is asking the State Board approve establishment of an open-heart surgery category of service, the addition of 8 cardiac cath labs, and the addition of 6 surgery rooms at Glenbrook Hospital in Glenview, Illinois. The cost of the project is $170,520,604. The expected completion date is December 31, 2024. The purpose of the Illinois Health Facilities Planning Act is to establish a procedure (1) which requires a person establishing, constructing or modifying a health care facility, as herein defined, to have the qualifications, background, character and financial resources to adequately provide a proper service for the community; (2) that promotes the orderly and economic development of health care facilities in the State of Illinois that avoids unnecessary duplication of such facilities; and (3) that promotes planning for and development of health care facilities needed for comprehensive health care especially in areas where the health planning process has identified unmet needs. Cost containment and support for safety net services must continue to be central tenets of the Certificate of Need process. (20 ILCS 3960/2) The Certificate of Need process required under this Act is designed to restrain rising health care costs by preventing unnecessary construction or modification of health care facilities. -
Signal Processing Techniques for Phonocardiogram De-Noising and Analysis
-3C).1 CBME CeaEe for Bionedio¡l Bnginocdng Adelaide Univenity Signal Processing Techniques for Phonocardiogram De-noising and Analysis by Sheila R. Messer 8.S., Urriversity of the Pacific, Stockton, California, IJSA Thesis submitted for the degree of Master of Engineering Science ADELAIDE U N IVERSITY AUSTRALIA Adelaide University Adelaide, South Australia Department of Electrical and Electronic Faculty of Engineering, Computer and Mathematical Sciences July 2001 Contents Abstract vi Declaration vll Acknowledgement vul Publications lx List of Figures IX List of Tables xlx Glossary xxii I Introduction I 1.1 Introduction 2 t.2 Brief Description of the Heart 4 1.3 Heart Sounds 7 1.3.1 The First Heart Sound 8 1.3.2 The Second Heart Sound . 8 1.3.3 The Third and Fourth Heart Sounds I I.4 Electrical Activity of the Heart I 1.5 Literature Review 11 1.5.1 Time-Flequency and Time-Scale Decomposition Based De-noising 11 I CO]VTE]VTS I.5.2 Other De-noising Methods t4 1.5.3 Time-Flequency and Time-Scale Analysis . 15 t.5.4 Classification and Feature Extraction 18 1.6 Scope of Thesis and Justification of Research 23 2 Equipment and Data Acquisition 26 2.1 Introduction 26 2.2 History of Phonocardiography and Auscultation 26 2.2.L Limitations of the Hurnan Ear 26 2.2.2 Development of the Art of Auscultation and the Stethoscope 28 2.2.2.L From the Acoustic Stethoscope to the Electronic Stethoscope 29 2.2.3 The Introduction of Phonocardiography 30 2.2.4 Some Modern Phonocardiography Systems .32 2.3 Signal (ECG/PCG) Acquisition Process .34 2.3.1 Overview of the PCG-ECG System .34 2.3.2 Recording the PCG 34 2.3.2.I Pick-up devices 34 2.3.2.2 Areas of the Chest for PCG Recordings 37 2.3.2.2.I Left Ventricle Area (LVA) 37 2.3.2.2.2 Right Ventricular Area (RVA) 38 oaooe r^fr /T ce a.!,a.2.{ !v¡u Ãurlo¡^+-;^l ¡rr!o^-^^ \!/ ^^\r¡ r/ 2.3.2.2.4 Right Atrial Area (RAA) 38 2.3.2.2.5 Aortic Area (AA) 38 2.3.2.2.6 Pulmonary Area (PA) 39 ll CO]VTE]VTS 2.3.2.3 The Recording Process . -
PDI 07 Pediatric Heart Surgery Volume
AHRQ QI, Pediatric Quality Indicators #7, Technical Specifications, Pediatric Heart Surgery Volume www.qualityindicators.ahrq.gov Pediatric Heart Surgery Volume Pediatric Quality Indicators #7 Technical Specifications Provider-Level Indicator AHRQ Quality Indicators, Version 4.4, March 2012 Numerator Discharges under age 18 with ICD-9-CM procedure codes for either congenital heart disease (1P) or non-specific heart surgery (2P) with ICD-9-CM diagnosis of congenital heart disease (2D) in any field. ICD-9-CM Congenital heart disease procedure codes (1P)1,2: 3500 CLOSED VALVOTOMY NOS 3551 PROS REP ATRIAL DEF-OPN 3501 CLOSED AORTIC VALVOTOMY 3552 PROS REPAIR ATRIA DEF-CL 3502 CLOSED MITRAL VALVOTOMY 3553 PROS REP VENTRIC DEF-OPN 3503 CLOSED PULMON VALVOTOMY 3554 PROS REP ENDOCAR CUSHION 3504 CLOSED TRICUSP VALVOTOMY 3560 GRFT REPAIR HRT SEPT NOS 3505 ENDOVAS REPL AORTC VALVE 3561 GRAFT REPAIR ATRIAL DEF 3506 TRNSAPCL REP AORTC VALVE 3562 GRAFT REPAIR VENTRIC DEF 3507 ENDOVAS REPL PULM VALVE 3563 GRFT REP ENDOCAR CUSHION 3508 TRNSAPCL REPL PULM VALVE 3570 HEART SEPTA REPAIR NOS 3510 OPEN VALVULOPLASTY NOS 3571 ATRIA SEPTA DEF REP NEC 3511 OPN AORTIC VALVULOPLASTY 3572 VENTR SEPTA DEF REP NEC 3512 OPN MITRAL VALVULOPLASTY 3573 ENDOCAR CUSHION REP NEC 3513 OPN PULMON VALVULOPLASTY 3581 TOT REPAIR TETRAL FALLOT 3514 OPN TRICUS VALVULOPLASTY 3582 TOTAL REPAIR OF TAPVC 3520 OPN/OTH REP HRT VLV NOS 3583 TOT REP TRUNCUS ARTERIOS 3521 OPN/OTH REP AORT VLV-TIS 3584 TOT COR TRANSPOS GRT VES 3522 OPN/OTH REP AORTIC VALVE 3591 INTERAT VEN RETRN TRANSP -
Surgeries by STAT Category
STAT SURGICAL PROCEDURE CATEGORY ASD repair, Patch 1 AVC (AVSD) repair, Partial (Incomplete) (PAVSD) 1 PFO, Primary closure 1 ASD repair, Primary closure 1 VSD repair, Patch 1 DCRV repair 1 Aortic stenosis, Subvalvar, Repair 1 Coarctation repair, End to end 1 Vascular ring repair 1 ICD (AICD) implantation 1 ICD (AICD) ([automatic] implantable cardioverter deFibrillator) procedure 1 ASD Repair, Patch + PAPCV Repair 1 VSD repair, Primary closure 1 AVC (AVSD) repair, Intermediate (Transitional) 1 PAPVC repair 1 TOF repair, No ventriculotomy 1 TOF repair, Ventriculotomy, Nontransanular patch 1 Conduit reoperation 1 Valve replacement, Pulmonic (PVR) 1 Valve replacement, Aortic (AVR), Mechanical 1 Valve replacement, Aortic (AVR), Bioprosthetic 1 Sinus oF Valsalva, Aneurysm repair 1 Fontan, TCPC, Lateral tunnel, Fenestrated 1 Coarctation repair, Interposition graFt 1 Pacemaker procedure 1 Glenn (Unidirectional cavopulmonary anastomosis) (Unidirectional Glenn) 1 PAPVC Repair, BaFFle redirection to leFt atrium with systemic vein translocation (Warden) (SVC 1 sewn to right atrial appendage) 1 1/2 ventricular repair 2 PA, Reconstruction (Plasty), Main (Trunk) 2 Valvuloplasty, Aortic 2 Ross procedure 2 LV to aorta tunnel repair 2 Valvuloplasty, Mitral 2 Fontan, Atrio-pulmonary connection 2 PDA closure, Surgical 2 Aortopexy 2 Pacemaker implantation, Permanent 2 Arrhythmia surgery - ventricular, Surgical Ablation 2 Bilateral bidirectional cavopulmonary anastomosis (BBDCPA) (Bilateral bidirectional Glenn) 2 Superior Cavopulmonary anastomosis(es) + PA -
Thickness After Heart Transplantation Acute Cellular Rejection and Left
Downloaded from heart.bmj.com on 19 November 2006 Intragraft interleukin 2 mRNA expression during acute cellular rejection and left ventricular total wall thickness after heart transplantation H A de Groot-Kruseman, C C Baan, E M Hagman, W M Mol, H G Niesters, A P Maat, P E Zondervan, W Weimar and A H Balk Heart 2002;87;363-367 doi:10.1136/heart.87.4.363 Updated information and services can be found at: http://heart.bmj.com/cgi/content/full/87/4/363 These include: References This article cites 27 articles, 5 of which can be accessed free at: http://heart.bmj.com/cgi/content/full/87/4/363#BIBL 1 online articles that cite this article can be accessed at: http://heart.bmj.com/cgi/content/full/87/4/363#otherarticles Rapid responses You can respond to this article at: http://heart.bmj.com/cgi/eletter-submit/87/4/363 Email alerting Receive free email alerts when new articles cite this article - sign up in the box at the service top right corner of the article Topic collections Articles on similar topics can be found in the following collections Other Cardiovascular Medicine (2051 articles) Transplantation (283 articles) Molecular Medicine (1113 articles) Other immunology (943 articles) Notes To order reprints of this article go to: http://www.bmjjournals.com/cgi/reprintform To subscribe to Heart go to: http://www.bmjjournals.com/subscriptions/ Downloaded from heart.bmj.com on 19 November 2006 363 BASIC RESEARCH Intragraft interleukin 2 mRNA expression during acute cellular rejection and left ventricular total wall thickness after heart transplantation H A de Groot-Kruseman, C C Baan, E M Hagman, W M Mol, H G Niesters, A P Maat, P E Zondervan, W Weimar, A H Balk ............................................................................................................................ -
Interstage Monitoring for the Infant with Hypoplastic Left Heart Syndrome What the Direct Care Nurse Needs to Know Jennifer Stra
Interstage Monitoring for the Infant with Hypoplastic Left Heart Syndrome What the Direct Care Nurse Needs to Know Jennifer Strawn, BSN, RN, CPN, Children’s Hospital & Medical Center, Omaha, Nebraska Jo Ann Nieves MSN, CPN, ARNP, PNP-BC, FAHA, Miami Children’s Hospital Bronwyn Bartle, DNP, CPNP-AC/PC, Duke Children’s Pediatric and Congenital Heart Center Mary Rummell, MN, RN, CNS, CPNP, FAHA, Oregon Health and Science University Introduction: Children born with hypoplastic left heart syndrome (HLHS) are at high risk for serious morbidity, growth failure and mortality during the time from discharge home after first stage HLHS palliation, until admission for the second stage surgical intervention. To improve outcomes and survival during this time, referred to as the “interstage period”, multiple strategies have been successfully implemented resulting in improved interstage survival. A critical element of interstage care is family education and training. Variations in practice and interstage home surveillance do exist but general guidelines are described below. Definitions: Possible newborn interventions for HLHS Figure 1: First stage surgical palliation procedures for hyoplastic left heart syndrome A. Norwood Procedure B. Norwood Procedure with C. Hybrid Stage I with BT shunt RV to PA shunt (“Sano”) Procedure Surgical: Norwood /Modified Blalock Taussig (BT) shunt procedure – the Norwood aortic reconstruction of the ascending aorta and arch consists of enlarging the ascending aorta by using part of the proximal native main pulmonary artery (PA) with other material (Gore-Tex or homograft material) to connect the PA to the aorta. Pulmonary blood flow is provided by a controlled shunt (BT shunt) usually made from Gore-Tex and connects the right subclavian artery to the right pulmonary artery. -
Curriculum in Interventional Cardiology
CURRICULUM IN INTERVENTIONAL CARDIOLOGY Educational Goals The educational goals of this program are to train fellows in a specialized cardiovascular disease area requiring technical, educational and research skills involved in interventional cardiology. The knowledge base for interventional cardiology has become increasingly well-defined as a result of unparalleled programs in basic and clinical research in atherosclerosis, coronary disease, cardiomyopathy and valvular heart disease. Our educational goals for training in interventional cardiology are aligned with and guided by the recommendations of the ACC/SCAI/ AHA task force on optimal adult interventional cardiology training programs as follows: • To understand the effectiveness and limitations of coronary interventional procedures in order to select patients and procedure types appropriately. • To achieve the appropriate cognitive knowledge and technical skills needed to perform interventional cardiac procedures at the level of quality attainable through the present state of the art. • To foster an attitude of life-long learning and critical thinking skills needed to gain from experience and incorporate new developments. • To understand and commit to quality assessment and improvement in procedure performance. All trainees must be skilled in obtaining a history and physical examination of the cardiovascular system, specifically as it relates to the performance of procedures, management of the patient during the procedure and also post-procedural follow-up. All trainees must be familiar with the role of aging and psychogenic factors in the production of symptoms, as well as emotional and physical response of the patient to cardiovascular disease. In addition, trainees must be familiar with specific pathophysiology as it relates to the development of cardiovascular disease particularly that of acute coronary syndromes and their management in the cardiac catheterization laboratory. -
Long Term Consequences of the Fontan Procedure and How to Manage Them
ACCEPTED MANUSCRIPT Long Term Consequences of the Fontan Procedure and How to Manage Them Authors: W. Aaron Kay, MD1 Tabitha Moe, MD2 Blair Suter, MD3 Andrea Tennancour, NP1 Alice Chan, NP4 Richard A. Krasuski, MD5 Ali N. Zaidi, MD4 1. Indiana University School of Medicine, Krannert Institute of Cardiology, IN 2. University of Arizona School of Medicine, Phoenix, AZ 3. Indiana University School of Medicine, Departments of Medicine and Pediatrics, IN 4. Children’s Hospital at Montefiore, Montefiore Medical Center, Albert Einstein College of Medicine, NY 5. Duke University Health System, Durham, NC *Address reprint requests to: W. Aaron Kay, MD. 1801 N. Senate Blvd Suite 2000, Indianapolis IN. Email: [email protected] Emails of additional authors: Moe TG: [email protected] Suter BC: [email protected] Tennancour AE: [email protected] Chan A: [email protected] Krasuski RA: [email protected] Zaidi AN: [email protected] Disclosures: W. Aaron Kay: Nothing to disclose Tabitha Moe: Nothing to disclose Blair Suter, MD: Nothing to disclose Andrea Tennancour, NP: Nothing to disclose Alice Chan, NP: Nothing to disclose Ali N. Zaidi, MD: Nothing to disclose Richard A. Krasuski, MD: Dr. Krasuski serves a consultant and receives research funding from Actelion Pharmaceuticals.ACCEPTED He also serves as anMANUSCRIPT investigator for Edwards Lifesciences and is an unpaid member of the scientific advisory board for Ventripoint. ___________________________________________________________________ This is the author's manuscript of the article published in final edited form as: Kay, W. A., Moe, T., Suter, B., Tennancour, A., Chan, A., Krasuski, R. A., & Zaidi, A. N. (2018). Long Term Consequences of the Fontan Procedure and How to Manage Them. -
Comparison of Hybrid and Norwood Strategies in Hypoplastic Left Heart Syndrome
SURGERY | REVIEW Comparison of Hybrid and Norwood Strategies in Hypoplastic Left Heart Syndrome Hideyuki Kato, MD, Osami Honjo, MD, PhD, Glen Van Arsdell, MD, Christopher A. Caldarone, MD Division of Cardiovascular Surgery, Hospital for Sick Children, Labatt Family Heart Center Received 12/12/2011, Reviewed 27/12/2011, Accepted 1/1/2012 Key words: Hybrid strategy, Norwood strategy, single ventricle, hypoplastic left heart syndrome DOI: 10.5083/ejcm.20424884.70 ABSTRACT CORRESPONDENCE Current surgical palliation for neonates with single ventricle physiology includes Norwood-based Christopher A. Caldarone, MD, and Hybrid-based surgical strategies. When transplantation is not available, clinicians must choose Professor and Chair, Division of Cardiac Surgery, between these two strategies with distinctly different learning curves and risk profiles. The Norwood University of Toronto, strategy has evolved over several decades while the rising popularity of the Hybrid strategy is a Watson Family Chair in much more recent addition to our therapeutic options. Based upon the premise that avoiding cardio Cardiovascular Science – pulmonary bypass in the neonatal period and deferral of aortic arch reconstruction until a second Labatt Family Heart Center, stage procedure have an important influence on outcomes, the Hybrid strategy has compelling Hospital for Sick Children, theoretical advantages and disadvantages in comparison to the Norwood strategy. The purpose 555 University Avenue, of this review is to summarise the currently available data to support -
The Artificial Heart: Costs, Risks, and Benefits
The Artificial Heart: Costs, Risks, and Benefits May 1982 NTIS order #PB82-239971 THE IMPLICATIONS OF COST-EFFECTIVENESS ANALYSIS OF MEDICAL TECHNOLOGY MAY 1982 BACKGROUND PAPER #2: CASE STUDIES OF MEDICAL TECHNOLOGIES CASE STUDY #9: THE ARTIFICIAL HEART: COST, RISKS, AND BENEFITS Deborah P. Lubeck, Ph. D. and John P. Bunker, M.D. Division of Health Services Research, Stanford University Stanford, Calif. Contributors: Dennis Davidson, M. D.; Eugene Dong, M. D.; Michael Eliastam, M. D.; Dennis Florig, M. A.; Seth Foldy, M. D.; Margaret Marnell, R. N., M. A.; Nancy Pfund, M. A.; Thomas Preston, M. D.; and Alice Whittemore, Ph.D. OTA Background Papers are documents containing information that supplements formal OTA assessments or is an outcome of internal exploratory planning and evalua- tion. The material is usually not of immediate policy interest such as is contained in an OTA Report or Technical Memorandum, nor does it present options for Con- gress to consider. -I \lt. r,,, ,.~’ . - > ‘w, . ,+”b Office of Technology Assessment ./, -. Washington, D C 20510 4,, P ---Y J, ,,, ,,,, ,,, ,. Library of Congress Catalog Card Number 80-600161 For sale by the Superintendent of Documents, U.S. Government Printing Office, Washington, D.C. 20402 Foreword This case study is one of 17 studies comprising Background Paper #2 for OTA’S assessment, The Implications of Cost-Effectiveness Analysis of Medical Technology. That assessment analyzes the feasibility, implications, and value of using cost-effec- tiveness and cost-benefit analysis (CEA/CBA) in health