Virtopsy Complementing Traditional Autopsy
Total Page:16
File Type:pdf, Size:1020Kb

Load more
Recommended publications
-
Acr–Nasci–Sir–Spr Practice Parameter for the Performance and Interpretation of Body Computed Tomography Angiography (Cta)
The American College of Radiology, with more than 30,000 members, is the principal organization of radiologists, radiation oncologists, and clinical medical physicists in the United States. The College is a nonprofit professional society whose primary purposes are to advance the science of radiology, improve radiologic services to the patient, study the socioeconomic aspects of the practice of radiology, and encourage continuing education for radiologists, radiation oncologists, medical physicists, and persons practicing in allied professional fields. The American College of Radiology will periodically define new practice parameters and technical standards for radiologic practice to help advance the science of radiology and to improve the quality of service to patients throughout the United States. Existing practice parameters and technical standards will be reviewed for revision or renewal, as appropriate, on their fifth anniversary or sooner, if indicated. Each practice parameter and technical standard, representing a policy statement by the College, has undergone a thorough consensus process in which it has been subjected to extensive review and approval. The practice parameters and technical standards recognize that the safe and effective use of diagnostic and therapeutic radiology requires specific training, skills, and techniques, as described in each document. Reproduction or modification of the published practice parameter and technical standard by those entities not providing these services is not authorized. Revised 2021 (Resolution 47)* ACR–NASCI–SIR–SPR PRACTICE PARAMETER FOR THE PERFORMANCE AND INTERPRETATION OF BODY COMPUTED TOMOGRAPHY ANGIOGRAPHY (CTA) PREAMBLE This document is an educational tool designed to assist practitioners in providing appropriate radiologic care for patients. Practice Parameters and Technical Standards are not inflexible rules or requirements of practice and are not intended, nor should they be used, to establish a legal standard of care1. -
Spring Programme 2011
Faculty of Radiologists Royal College of Surgeons in Ireland Combined Spring Meeting 8th & 9 th April 2011 Venue: Castlemartyr Hotel, Co. Cork. Programme Faculty of Radiologists, Royal College of Surgeons in Ireland CPD Credits Awarded: 5 Royal College of Radiologists credits are applied for. Friday 8 th April 2011 3.30-4.30pm Registration 4.30-5.30pm Stroke in 2011, Moderator: Dr. Ian Kelly, Waterford Regional Hospital 4.30-5.00pm Acute Stoke Imaging. Dr Noel Fanning, Cork University Hospital, Cork 5.00-5.30pm Stroke: A clinical perspective. Dr. George Pope, John Radcliffe Hospitals, Oxford 5.30-6.30pm Moderator: Dr. Adrian Brady, Dean, Faculty of Radiologists Belfast to Bosnia and Autopsy to Virtopsy Dr. Jack Crane, State Pathologist, NI 8pm Dinner Saturday 9 th April 2011 8.30-9.00am Registration 9.00-10.00am Liver hour. Moderator: Dr John Feeney, AMNCH, Dublin 9.00-9.30am Liver imaging pre metastatectomy. Dr. Peter MacEneaney, Mercy University Hospital, Cork 9.30-10.00am Parenchymal and focal liver biopsy - when and how. Dr Stephen J Skehan St Vincent's University Hospital, Dublin 10.00-11.00am Paediatric Hour. Moderator: Dr. Stephanie Ryan, The Children’s University Hospital Temple Street, Dublin 10.00-10.30am Paediatric Abdominal Emergencies. Dr Eoghan Laffan, The Children’s, University Hospital Temple Street, Dublin 10.30-11.00am Non Accidental Injury. Dr Conor Bogue, Cork University Hospital, Cork 11.00-11.30am Tea/Coffee Break and Poster Exhibition 11.30-12.30pm MSK Hour. Moderator: Dr Orla Buckley, AMNCH, Dublin 11.30-12.00pm Image guided joint interventions. -
Equilibrium Radionuclide Angiography/ Multigated Acquisition
EQUILIBRIUM RADIONUCLIDE ANGIOGRAPHY/ MULTIGATED ACQUISITION Equilibrium Radionuclide Angiography/ Multigated Acquisition S van Eeckhoudt, Bravis ziekenhuis, Roosendaal VJR Schelfhout, Rijnstate, Arnhem 1. Introduction Equilibrium radionuclide angiography (ERNA), also known as radionuclide ventriculography (ERNV), gated synchronized angiography (GSA), blood pool scintigraphy or multi gated acquisition (MUGA), is a well-validated technique to accurately determine cardiac function. In oncology its high reproducibility and low inter observer variability allow for surveillance of cardiac function in patients receiving potentially cardiotoxic anti-cancer treatment. In cardiology it is mostly used for diagnosis and prognosis of patients with heart failure and other heart diseases. 2. Methodology This guideline is based on available scientifi c literature on the subject, the previous guideline (Aanbevelingen Nucleaire Geneeskunde 2007), international guidelines from EANM and/or SNMMI if available and applicable to the Dutch situation. 3. Indications Several Class I (conditions for which there is evidence and/or general agreement that a given procedure or treatment is useful and effective) indications exist: • Evaluation of left ventricular function in cardiac disease: - Coronary artery disease - Valvular heart disease - Congenital heart disease - Congestive heart failure • Evaluation of left ventricular function in non-cardiac disease: - Monitoring potential cardiotoxic side effects of (chemo)therapy - Pre-operative risk stratifi cation in high risk surgery • Evaluation of right ventricular function: - Congenital heart disease - Mitral valve insuffi ciency - Heart-lung transplantation 4. Contraindications None 5. Medical information necessary for planning • Clear description of the indication (left and/or right ventricle) • Previous history of cardiac disease • Previous or current use of cardiotoxic medication PART I - 211 Deel I_C.indd 211 27-12-16 14:15 EQUILIBRIUM RADIONUCLIDE ANGIOGRAPHY/ MULTIGATED ACQUISITION 6. -
Comparison of Echocardiography and Angiography in Determining the Cause of Severe Aortic Regurgitation
Br Heart J: first published as 10.1136/hrt.51.1.36 on 1 January 1984. Downloaded from Br Heart J 1984; 51: 36-45 Comparison of echocardiography and angiography in determining the cause of severe aortic regurgitation NICHOLAS L DEPACE, PASQUALE F NESTICO, MORRIS N KOTLER, GARY S MINTZ, DEMETRIOS KIMBIRIS, INDER P GOEL, E ELAINE GLAZIER-LASKEY, JOHN ROSS From the LikoffCardiovascular Institute, Hahnemann University, Philadelphia, Pennsylvania, USA SUMMARY To assess the accuracy of echocardiography in determining the cause of aortic regurgita- tion M mode and cross sectional echocardiography were compared with angiography in 43 patients with predominant aortic regurgitation. Each patient had all three investigations performed during the same admission to hospital. In each instance, the cause of aortic regurgitation was confirmed at surgery or necropsy. Seventeen patients had rheumatic aortic valve disease, 13 bacterial endocarditis with a perforated or partially destroyed cusp, five a biscuspid aortic valve (four with a history of endocarditis), and eight aortic regurgitation secondary to aortic root dilatation or aneurysm. Overall sensitivity of echocardiography and aortography was 84% in determining the cause of aortic regurgi- tation. Thus, rheumatic valve disease and endocarditis appear to be the most common causes of severe aortic regurgitation in this hospital based population. Furthermore, echocardiography is a sensitive non-invasive technique for determining the cause of aortic regurgitation and allows differentiation of valvular from root causes of aortic regurgitation. Aortic regurgitation may be caused by valvular dis- ment for predominant aortic regurgitation were http://heart.bmj.com/ ease, aortic root disease, or a combination of both. reviewed. -
Virtopsy and Living Individuals Evaluation Using Computed
Virtopsy and Living Individuals Evaluation Using Computed Tomography in Forensic Diagnostic Imaging Giuseppe Lo Re, MD, Sergio Salerno, MD, Maria Chiara Terranova, MD Antonella Argo, MD, Antonio Lo Casto, MD, Stefania Zerbo, MD, and Roberto Lagalla, MD The applications of forensic radiology involve both Virtopsy both studies on living people À to demonstrate bone age, search for foreign bodies, such as voluntary injection of drug ovules or surgical sponges accidentally forgotten, to assess gunshot wounds, to evaluate injuries by road accidents, and cases of violence or abuse (both in adults and in children). Computed tomography is the most used imaging tool used in forensic pathology and its indications are mainly focused on cases of unnatural deaths or when a crime is suspected. It is preferred over the standard autopsy in selected cases, such as in putrefied, carbonized or badly damaged bodies; or as a preliminary evaluation in mass disasters. Semin Ultrasound CT MRI 40:67-78 © 2018 Elsevier Inc. All rights reserved. Introduction also preserving evidence in an undisturbed state. Diag- nostic imaging plays a pivotal role in the preliminary he applications of forensic radiology (FR) involve both evaluation in the “safety screening” prior to forensic À T studies on living people and cadavers to demonstrate assessment of the remains; thus, preventing dangers to bone age, search for foreign bodies, such as voluntary injec- the workers who handle the corpses, or in case of infec- tion of drug ovules or surgical sponges accidentally forgot- tion surveillance, such as pulmonary tuberculosis, con- ten, to assess gunshot wounds, to evaluating injuries by road firmed by CT examination before autopsy.16-18 accidents and cases of violence or abuse (both in adults and Although the costs and availability of CT scanners and 1-3 in children). -
New Phase in Forensic Odontology
International Journal of Dental and Health Sciences Review Article Volume 02,Issue 06 VIRTOPSY: NEW PHASE IN FORENSIC ODONTOLOGY Yogish.P 1, Asha Yogish 2 1.Assisstant Professor in Department of Oral Pathology and Microbiology, Sharavathi Dental College and Hospital, Shivamogga. 2.Postgraduate student in Department of Oral Medicine and Radiology, Coorg Institute of Dental Sciences, Virajpet. ABSTRACT: Nowadays, technological advances are becoming more and more important in forensic sciences. Yet autopsy is still one of the very traditional methods. This also applies for dental autopsies, in which visual, photographic and radiological evidences are collected. Virtual Autopsy appears as a helpful and complementary tool for dental and medical cadaveric examination. Using high-tech radiological approaches, Virtual Autopsy may provide, through images, an efficient and more accurate view on the individual case. This critical review aims to update on the origin, applications of virtopsy and also the role of dentists in this field. Keywords: Autopsy; Radiology; Forensic Odontology INTRODUCTION: Death is an inevitable part of life and at psychiatry and behavioural science, few occasions scientific examination of questioned documents, toxicology and bodies after death becomes mandatory. physical anthropology. Modern day investigations have reached a point of sophistication interconnecting Forensic pathology is a discipline of the involvement of many different Forensic science which deals with disciplines to serve problems including pathologic and -
Measurement of Peak Rates of Left Ventricular Wall Movement in Man Comparison of Echocardiography with Angiography
British HeartJournal, I975, 37, 677-683. Br Heart J: first published as 10.1136/hrt.37.7.677 on 1 July 1975. Downloaded from Measurement of peak rates of left ventricular wall movement in man Comparison of echocardiography with angiography D. G. Gibson and D. J. Brown From the Cardiac Department, Brompton Hospital, London, and the Medical Computer Centre, Westminster Hospital, London Estimates ofpeak systolic and diastolic rates of left ventricular wall movement were made in 23 patients by echocardiography and angiocardiography. Echocardiographic measurements were calculated as the rate of change of the transverse left ventricular dimension, derived continuously throughout the cardiac cycle. These were compared with similar plots of transverse left ventricular diameter, in the same patients, derived from digitized cineangiograms taken within IO minutes of echocardiograms. The results indicate close correlation between the two methods, and suggest that either can be used to measure peak rates of left ventricular wall movements in patients with heart disease. Identification of echoes arising from the interven- Echocardiograms tricular septum and posterior wall of the left In order to reduce the time interval between the two ventricle has proved to be a significant advance in investigations, echocardiograms were performed at the study of cardiac function by allowing the trans- cardiac catheterization using techniques that have pre- verse diameter of the left ventricle to be measured viously been described (Gibson, 1973). Clear, con- http://heart.bmj.com/ at end-systole and end-diastole (Chapelle and tinuous echoes were obtained from the posterior surface Mensch, I969; Feigenbaum et al., I969). More of the septum and the endocardium ofthe posterior wall recently, it has been possible to derive this dimension of the left ventricle, which were distinguished from those originating from the mitral valve apparatus. -
Initial Observations Comparing MDCT and 3.0T MRI Findings with Autopsy Findings
Utility of Postmortem Autopsy via Whole- Body Imaging: Initial Observations Comparing MDCT and 3.0T MRI Findings with Autopsy Findings Jang Gyu Cha, MD1 Dong Hun Kim, MD1 Objective: We prospectively compared whole-body multidetector computed Dae Ho Kim, MD2 tomography (MDCT) and 3.0T magnetic resonance (MR) images with autopsy Sang Hyun Paik, MD1 findings. Jai Soung Park, MD1 Materials and Methods: Five cadavers were subjected to whole-body, 16- Seong Jin Park, MD1 channel MDCT and 3.0T MR imaging within two hours before an autopsy. A radi- Hae Kyung Lee, MD1 ologist classified the MDCT and 3.0T MRI findings into major and minor findings, Hyun Sook Hong, MD1 which were compared with autopsy findings. 3 Duek Lin Choi, MD Results: Most of the imaging findings, pertaining to head and neck, heart and 4 Kyung Moo Yang, MD vascular, chest, abdomen, spine, and musculoskeletal lesions, corresponded to 4 Nak Eun Chung, MD autopsy findings. The causes of death that were determined on the bases of 4 Bong Woo Lee, MD MDCT and 3.0T MRI findings were consistent with the autopsy findings in four of 4 Joong Seok Seo, MD five cases. CT was useful in diagnosing fatal hemorrhage and pneumothorax, as well as determining the shapes and characteristics of the fractures and the direc- Index terms: tion of external force. MRI was effective in evaluating and tracing the route of a Computed tomography (CT) metallic object, soft tissue lesions, chronicity of hemorrhage, and bone bruises. Magnetic resonance (MR) Whole-body imaging Conclusion: A postmortem MDCT combined with MRI is a potentially powerful Forensic autopsy tool, providing noninvasive and objective measurements for forensic investiga- DOI:10.3348/kjr.2010.11.4.395 tions. -
Virtopsy Working on the Future of Forensic Medicine
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by RERO DOC Digital Library Leitthema Rechtsmedizin 2007 · 17:7–12 M.J. Thali1 · S. Ross1 · L. Oesterhelweg1 · S. Grabherr1 · U. Buck1 · S. Naether1 · DOI 10.1007/s00194-006-0419-6 C. Jackowski1 · S.A. Bolliger1 · P. Vock2 · A. Christe2 · R. Dirnhofer1 Online publiziert: 30. Dezember 2006 1 Center of Forensic Imaging, Institute of Forensic Medicine, University, Bern © Springer Medizin Verlag 2006 2 Institute of Diagnostic Radiology, University Hospital, Bern Virtopsy Working on the future of forensic medicine In recent times, few fields have witnessed 3D Photogrammetry-based This allows for a more detailed surface such impressive progress as imaging optical scanning documentation compared to 3D recon- methods and radiology: digital data ac- structions based on high resolution CT quisition and post-processing of images The standard for the documentation of in- data. have revolutionized the practice of imag- juries in forensic medicine is still photog- The color information is acquired us- ing and radiology and have determined a raphy with exact measurements. Howev- ing the Tritop software that combines dig- growing interest in this field on the part er, the photographic process reduces a 3D ital photography of the surface from many of other medical professions. The applica- wound to a 2D level in the same way as different angles into 3D color information tion of imaging methods for non-invasive classical x-ray documentation. of the object that can be correctly matched documentation and analysis of relevant Using the TRITOP/ATOS III (GOM, on the digital 3D surface model using cod- forensic findings in living and deceased Braunschweig, Germany) system the col- ed and uncoded markers placed on the persons has lagged behind the enormous ored 3D surface can be documented via object. -
Intravascular Ultrasound for Coronary Vessels Policy Number: MP-091 Last Review Date: 11/14/2019 Effective Date: 01/01/2020
Intravascular Ultrasound for Coronary Vessels Policy Number: MP-091 Last Review Date: 11/14/2019 Effective Date: 01/01/2020 Policy Evolent Health considers Intravascular Ultrasound (IVUS) for Coronary Vessels medically necessary for either of the following indications: 1. IVUS of the coronary arteries (consistent with the 2011 ACCF/AHA Guidelines for Percutaneous Coronary Intervention (PCI) 5.4.2) is indicated for any of the following medical reasons: a. To confirm clinical suspicion of a significant left main coronary artery stenosis when standard angiography is indeterminate; b. To detect rapidly progressive cardiac allograft vasculopathy following heart transplant; c. To determine the mechanism of stent thrombosis or restenosis; d. To assess non-left main coronary arteries with angiographic intermediate stenosis (50-70%) to aid the decision whether or not to place a stent; or, e. To assist in guidance of complex coronary stent implementation, especially involving the L main coronary artery. 2. In lieu of coronary angiography when performed to minimize use of iodinated contrast material in an individual with compromised renal function, congestive heart failure or known contrast allergy. Limitations Coronary IVUS is not covered for any of the following (this is not an all-inclusive list): 1. Screening for coronary artery disease in asymptomatic individuals; 2. Routine lesion assessment is not recommended when revascularization with PCI or Coronary Artery Bypass Grafting (CABG) is not being considered; 3. Carotid stent placement; 4. Follow-up monitoring of medical therapies for atherosclerosis; 5. Peripheral vascular intervention; or, 6. Evaluation of chronic venous obstruction or to guide venous stenting. Background Ultrasound diagnostic procedures utilizing low energy sound waves are being widely employed to determine the composition and contours of nearly all body tissues except bone and air-filled spaces. -
Functional Coronary Angiography
Functional Coronary Angiography Ischemia with No Obstructive Coronary Artery disease (INOCA) refers to patients with signs and symptoms (chest pain, chest tightness, neck/shoulder/arm/back pain, shortness of breath, fatigue or other related symptoms) caused by blood supply problems to the heart muscle without significant blockage of the large arteries of the heart. INOCA is more common in women but also affects men. Many patients with INOCA have coronary microvascular disease, which is a disease of the small arteries of the heart. Functional coronary angiography (FCA) also referred to as coronary reactivity test (CRT) is an angiography procedure done in the catheterization laboratory. It evaluates the coronary artery microcirculation and how the blood vessels respond to different medications. Cardiologists use this information to diagnose coronary microvascular disease. The results of this test enhance a cardiologist’s ability to diagnose and treat patients with coronary microvascular disease or vasospastic disease and provide more specific treatment for symptoms of patients with INOCA. FCA/CRT test consists of: 1. Administration of the drug adenosine, which normally causes the small vessels of the heart to dilate, is injected into one of the coronary arteries and the amount of blood flow is measured. 2. Next, the drug acetylcholine, which normally causes dilation in the large arteries, is injected and the amount of blood flow is again measured. 3. Next, the drug nitroglycerin If any of the tests show decreased blood flow to the heart muscle, a diagnosis of endothelial dysfunction and coronary microvascular dysfunction can be made. Coronary Artery MacroCirculation (Large Arteries) Open Artery Plaque Buildup Obstructive coronary artery disease Coronary Artery MicroCirculation (Small Arteries) Impaired microvascular dilation Coronary Microvascular Disease Increased Epicardial Coronary Constriction Quesada 11/17/20 . -
Icd-9-Cm (2010)
ICD-9-CM (2010) PROCEDURE CODE LONG DESCRIPTION SHORT DESCRIPTION 0001 Therapeutic ultrasound of vessels of head and neck Ther ult head & neck ves 0002 Therapeutic ultrasound of heart Ther ultrasound of heart 0003 Therapeutic ultrasound of peripheral vascular vessels Ther ult peripheral ves 0009 Other therapeutic ultrasound Other therapeutic ultsnd 0010 Implantation of chemotherapeutic agent Implant chemothera agent 0011 Infusion of drotrecogin alfa (activated) Infus drotrecogin alfa 0012 Administration of inhaled nitric oxide Adm inhal nitric oxide 0013 Injection or infusion of nesiritide Inject/infus nesiritide 0014 Injection or infusion of oxazolidinone class of antibiotics Injection oxazolidinone 0015 High-dose infusion interleukin-2 [IL-2] High-dose infusion IL-2 0016 Pressurized treatment of venous bypass graft [conduit] with pharmaceutical substance Pressurized treat graft 0017 Infusion of vasopressor agent Infusion of vasopressor 0018 Infusion of immunosuppressive antibody therapy Infus immunosup antibody 0019 Disruption of blood brain barrier via infusion [BBBD] BBBD via infusion 0021 Intravascular imaging of extracranial cerebral vessels IVUS extracran cereb ves 0022 Intravascular imaging of intrathoracic vessels IVUS intrathoracic ves 0023 Intravascular imaging of peripheral vessels IVUS peripheral vessels 0024 Intravascular imaging of coronary vessels IVUS coronary vessels 0025 Intravascular imaging of renal vessels IVUS renal vessels 0028 Intravascular imaging, other specified vessel(s) Intravascul imaging NEC 0029 Intravascular