Medical Imaging, Magnetic Resonance Imaging, Advanced Technical Certificate

Total Page:16

File Type:pdf, Size:1020Kb

Medical Imaging, Magnetic Resonance Imaging, Advanced Technical Certificate Medical Imaging, Magnetic Resonance Imaging, Advanced Technical Certificate 1 MEDICAL IMAGING, MAGNETIC RESONANCE IMAGING, ADVANCED TECHNICAL CERTIFICATE Minimum Program Admission Criteria Applicants must be American Registry of Radiologic Technologies (ARRT) registered in one of the following: radiography, nuclear medicine, or radiation therapy or registry eligible and hold a Texas Medical Board Medical Radiologic Technologist license. The applicant must complete and submit an application to the Program Coordinator or Medical Imaging department. Upon provisional acceptance, the applicant must also submit required health records, proof of health insurance, CPR certification (American Heart Association-Health Care Provider), criminal background check, and drug and alcohol screen as stated for all Medical Imaging students. Acceptance into the MRI program is determined after review of the application and completion of requirements. Prospective participants should call the Medical Imaging department at 281-476-1871 for additional information. Students selected for any of the Medical Imaging programs are required to submit a physical exam after they have received provisional acceptance to the program The department will provide instructions. This physical exam must be consistent with the requirements of the teaching hospitals and agencies the student is assigned during clinical assignments and the performance standards required to function as a student imaging technologist. The exam will also include documentation of any communicable diseases along with immunity to Rubella, Measles, Mumps, Varicella, and Hepatitis B. Completion of an updated Tetanus, an annual TB screening, and the current seasonal flu vaccine are required. In addition to meeting all other requirements, students entering a Medical Imaging program will be required to submit a criminal background check and drug and alcohol screening completed by designated companies, show proof of health insurance, and CPR (American Heart Associate- Health Care Provider) certification. San Jacinto College 2021-2022.
Recommended publications
  • MRC Review of Positron Emission Tomography (PET) Within the Medical Imaging Research Landscape
    MRC Review of Positron Emission Tomography (PET) within The Medical Imaging Research Landscape August 2017 Content 1 Introduction 3 2 The medical imaging research landscape in the UK 4 2.1 Magnetic resonance imaging (MRI) 4 2.2 PET, including PET-MRI 6 2.3 Magnetoencephalography 7 3 Scientific uses and demand for PET imaging 8 3.1 Clinical practice 8 3.2 Research use of PET 8 3.3 Demand for PET 10 4 Bottlenecks 11 4.1 Cost 11 4.2 Radiochemistry requirements 12 4.3 Capacity 13 4.4 Analysis and modelling 13 5 Future Opportunities 14 5.1 Mitigating the high costs 14 5.2 Capacity building 14 5.3 Better Networking 15 6 Discussion and conclusions 16 Appendix 1 Experts consulted in the review 17 Appendix 2 Interests of other funders 18 Appendix 3 Usage and cost of PET in research 21 Appendix 4 Summary of facilities and capabilities across UK PET centres of excellence 23 2 1. Introduction This report aims to provide a review of Positron Emission Tomography (PET) within the medical imaging research landscape and a high level strategic review of the UK’s capabilities and needs in this area. The review was conducted by face-to-face and telephone interviews with 35 stakeholders from UK centres of excellence, international experts, industry and other funders (list at appendix 1). Data were also collected on facilities, resources and numbers of scans conducted across the centres of excellence using a questionnaire. The review has focused predominantly on PET imaging, but given MRC’s significant recent investment in other imaging modalities (7T Magnetic Resonance Imaging (MRI), hyperpolarised MRI) through the Clinical Research Infrastructure (CRI) Initiative, these are also considered more briefly.
    [Show full text]
  • Diagnostic Radiography Is the Production of High Quality Images for the Purpose of Diagnosis of Injury Or Disease
    A Career in Medical Imaging What is Diagnostic Radiography / Medical Imaging? Diagnostic Radiography is the production of high quality images for the purpose of diagnosis of injury or disease. It is a pivotal aspect of medicine and a patient's diagnosis and ultimate treatment is often dependent on the images produced. Diagnostic Radiography uses both ionising and non-ionising radiation in the imaging process. The equipment used is at the high end of technology and computerisation within medicine. What does a Diagnostic Radiographer / Medical Imaging Technologist do? A Diagnostic Radiographer/Medical Imaging Technologist is a key member of the health care team. They are responsible for producing high quality medical images that assist medical specialists and practitioners to describe, diagnose, monitor and treat a patient’s injury or illness. Much of the medical equipment used to gain the images is highly technical and involves state of the art computerisation. A Diagnostic Radiographer/Medical Imaging Technologist needs to have the scientific and technological background to understand and use the equipment within a modern Radiology department as well as compassion and strong interpersonal skills. They need to be able to demonstrate care and understanding and have a genuine interest in a patient's welfare. The Diagnostic Radiographer/Medical Imaging Technologist will also need to be able to explain to the patient the need for the preparation and post examination care as well as the procedure to be undertaken. The Diagnostic Radiographer/Medical Imaging Technologist is able to work in a highly advanced technical profession that requires excellent people skills. It is an exciting and rewarding profession to embark on and great opportunities await the graduate.
    [Show full text]
  • Contrast-Enhanced Ultrasound Approach to the Diagnosis of Focal Liver Lesions: the Importance of Washout
    Contrast-enhanced ultrasound approach to the diagnosis of focal liver lesions: the importance of washout Hyun Kyung Yang1, Peter N. Burns2, Hyun-Jung Jang1, Yuko Kono3, Korosh Khalili1, Stephanie R. Wilson4, Tae Kyoung Kim1 REVIEW ARTICLE 1Joint Department of Medical Imaging, University of Toronto, Toronto; 2Department of https://doi.org/10.14366/usg.19006 pISSN: 2288-5919 • eISSN: 2288-5943 Medical Biophysics, Sunnybrook Research Institute, University of Toronto, Toronto, Canada; Ultrasonography 2019;38:289-301 3Departments of Medicine and Radiology, University of California, San Diego, CA, USA; 4Diagnostic Imaging, Department of Radiology, University of Calgary, Calgary, Canada Received: January 15, 2019 Contrast-enhanced ultrasound (CEUS) is a powerful technique for differentiating focal liver Revised: March 13, 2019 lesions (FLLs) without the risks of potential nephrotoxicity or ionizing radiation. In the diagnostic Accepted: March 17, 2019 algorithm for FLLs on CEUS, washout is an important feature, as its presence is highly suggestive Correspondence to: Tae Kyoung Kim, MD, PhD, FRCPC, of malignancy and its characteristics are useful in distinguishing hepatocellular from non- Department of Medical Imaging, hepatocellular malignancies. Interpreting washout on CEUS requires an understanding that Toronto General Hospital, 585 University Avenue, Toronto, ON M5G microbubble contrast agents are strictly intravascular, unlike computed tomography or magnetic 2N2, Canada resonance imaging contrast agents. This review explains the definition and types of washout on Tel. +1-416-340-3372 CEUS in accordance with the 2017 version of the CEUS Liver Imaging Reporting and Data System Fax. +1-416-593-0502 E-mail: [email protected] and presents their applications to differential diagnosis with illustrative examples.
    [Show full text]
  • Positron Emission Tomography
    Positron emission tomography A.M.J. Paans Department of Nuclear Medicine & Molecular Imaging, University Medical Center Groningen, The Netherlands Abstract Positron Emission Tomography (PET) is a method for measuring biochemical and physiological processes in vivo in a quantitative way by using radiopharmaceuticals labelled with positron emitting radionuclides such as 11C, 13N, 15O and 18F and by measuring the annihilation radiation using a coincidence technique. This includes also the measurement of the pharmacokinetics of labelled drugs and the measurement of the effects of drugs on metabolism. Also deviations of normal metabolism can be measured and insight into biological processes responsible for diseases can be obtained. At present the combined PET/CT scanner is the most frequently used scanner for whole-body scanning in the field of oncology. 1 Introduction The idea of in vivo measurement of biological and/or biochemical processes was already envisaged in the 1930s when the first artificially produced radionuclides of the biological important elements carbon, nitrogen and oxygen, which decay under emission of externally detectable radiation, were discovered with help of the then recently developed cyclotron. These radionuclides decay by pure positron emission and the annihilation of positron and electron results in two 511 keV γ-quanta under a relative angle of 180o which are measured in coincidence. This idea of Positron Emission Tomography (PET) could only be realized when the inorganic scintillation detectors for the detection of γ-radiation, the electronics for coincidence measurements, and the computer capacity for data acquisition and image reconstruction became available. For this reason the technical development of PET as a functional in vivo imaging discipline started approximately 30 years ago.
    [Show full text]
  • Winchester Medical Center SCHOOL of MEDICAL IMAGING
    Winchester Medical Center SCHOOL OF MEDICAL IMAGING Medical Radiography Student Handbook 2019 Revised 6/19 Winchester Medical Center SCHOOL OF MEDICAL IMAGING Medical Radiography Student Handbook GENERAL INFORMATION THE HANDBOOK This handbook is written with the purpose of providing information to the prospective student who is interested in a career in Radiologic Technology and as a guide to the student who is enrolled in the Winchester Medical Center Medical Radiography Program. Valley Health and Program policies are defined here. Other materials are provided to give information that will enrich any application or educational process. The Handbook does not contain all the information needed by the student. Students receive necessary information through various forms of communication (written and verbal) 6/10/2019 throughout the program. Please direct any questions or concerns to: | School of Medical Imaging Winchester Medical Center 220 Campus Boulevard, Suite 300 Winchester, Virginia 22601 Telephone: (540) 536-7935 Fax: (540) 536- 7972 SCHOOL MEDICALSCHOOL OF IMAGING LOCATION OF THE SCHOOL The School of Medical Imaging is located at the Winchester Medical Center in the heart of the beautiful Shenandoah Valley, approximately 75 miles west of our nation's capital in Winchester, Virginia. Classrooms are located in the System Support Building at 220 Campus Blvd., Suite 300, Winchester, VA. Winchester Medical Center 1 DESCRIPTION OF WINCHESTER MEDICAL CENTER Founded in 1901 as a private, non-profit institution, Winchester Medical Center originally was one of a few widely separated medical care facilities catering primarily to persons situated near Winchester, Virginia. The ensuing century has seen substantial population growth in the Shenandoah Valley of Virginia as well as the establishment of other hospitals in nearby counties, in both Virginia and West Virginia.
    [Show full text]
  • Contrast-Enhanced Ultrasonography: Advance and Current Status in Abdominal Imaging
    Contrast-enhanced ultrasonography: advance and current status in abdominal imaging Yong Eun Chung, Ki Whang Kim REVIEW ARTICLE Department of Radiology, Research Institute of Radiological Science, Yonsei University College of Medicine, Seoul, Korea http://dx.doi.org/10.14366/usg.14034 pISSN: 2288-5919 • eISSN: 2288-5943 Ultrasonography 2015;34:3-18 In the field of contrast-enhanced ultrasonography (US), contrast agents are classified as either first- or second-generation agents depending on the gas within the microbubbles. In the case of Received: July 30, 2014 first-generation contrast agents, a high-mechanical-index technique is used and only intermittent Revised: September 10, 2014 Accepted: September 12, 2014 scanning is possible due to the early destruction of the microbubbles during the scanning. Correspondence to: The use of second-generation contrast agents in a low-mechanical-index technique enables Yong Eun Chung, MD, Department continuous scanning. Besides the detection and characterization of focal liver lesions, contrast- of Radiology, Research Institute of Radiological Science, Yonsei University enhanced US is helpful in the monitoring of radiofrequency ablation therapy and in the targeting College of Medicine, 50-1 Yonsei-ro, step of an US-guided biopsy. Recently, there has been a demand for new criteria to evaluate the Seodaemun-gu, Seoul 120-752, Korea treatment response obtained using anti-angiogenic agents because morphologic criteria alone Tel. +82-2-2228-7400 Fax. +82-2-393-3035 may not reflect the treatment response of the tumor and contrast-enhanced US can provide E-mail: [email protected] quantitative markers of tissue perfusion. In spite of the concerns related to its cost-effectiveness, *This paper is based on a previously contrast-enhanced US has the potential to be more widely used as a complimentary tool or to published review article entitled substitute the current imaging modalities in some occasions.
    [Show full text]
  • Medical Imaging Program
    MEDICAL IMAGING PROGRAM RHSchoolofHealthSciences.org OUR MISSION Reading Hospital MISSION STATEMENT The mission of Reading Hospital is to provide compassionate, accessible, high quality, cost effective healthcare to the community; to promote health; to educate healthcare professionals; and to participate in appropriate clinical research. Reading Hospital School of Health Sciences MISSION STATEMENT The mission of Reading Hospital School of Health Sciences is to provide educational programs that develop competent and compassionate professionals capable of providing high-quality healthcare services to individuals, families, and communities. Medical Imaging Program MISSION STATEMENT The mission of the Medical Imaging Program is to develop competent, entry-level Radiologic Technologists who consistently provide appropriate, high quality imaging services to individuals, families, and communities; who do so in a professional, compassionate, and ethical manner; and who embrace ongoing professional development. Reading Hospital School of Health Sciences Thank you for inquiring about the Medical Imaging Program offered by Reading Hospital School of Health Sciences. This brochure is designed to provide information about this educational opportunity. TABLE OF CONTENTS Greetings From The School Director .................... 1 Welcome ......................................... 2 Program Learning Goals And Student Learning Outcomes .... 3 Our Philosophy .................................... 4 Accreditation ...................................... 6 Medical
    [Show full text]
  • PET Imaging: an Overview and Instrumentation
    CONTINUING EDUCATION PET Imaging: An Overview and Instrumentation Farhad Daghighian, Ronald Sumida, and Michael E. Phelps Division ofNuclear Medicine and Biophysics, Department ofRadiological Sciences; and Laboratory ofNuclear Medicine, Laboratories of Biomedical and Environmental Sciences (DOE)*, UCLA School ofMedicine, Los Angeles, California gen in many chemical compounds. None of the above This is the first article of a four-part series on positron elements have any isotope which emits a gamma ray emission tomography (PET). Upon completing the article, the suitable for imaging with a gamma camera. Hence, one reader should be able to: (1) comprehend the basic principles of the advantages of PET over SPECT is that it deals ofPET; (2) explain various technical aspects; and ( 3) identify with isotopes of those elements that are the building radiopharmaceuticals used in PET imaging. blocks of biomolecules. BRIEF HISTORY Positron emission tomography (PET) is a rapidly growing AND FUTURE OUTLOOK OF PET technique within nuclear medicine. A radiopharmaceutical Positron imaging began with the two-dimensional sodium labeled with a positron emitting isotope is administered intra­ iodide detector-based scanning devices developed in the late venously or by inhalation to the patient, and the PET scanner 1950s and 1960s by Wrenn et al. ( 4) and Brownell et al. (5). images the distribution of that radiopharmaceutical. It is the Burham and Brownell also developed a dual-headed multi­ only imaging modality capable of providing quantitative in­ detector camera that provided a limited form of"focal plane" formation about biochemical and physiologic processes (J- tomography ( 6). Robertson and Niel took a different ap­ 3). Other techniques like magnetic resonance imaging (MRI) proach and used a "blurring tomography" with a circular and x-ray computerized tomography (CT) generally image array of sodium iodide detectors ( 7).
    [Show full text]
  • Mammography (Mammogram)
    Mammography Screening mammography is a specific type of breast imaging that uses low-dose x-rays to detect cancer early – before women experience symptoms – when it is most treatable. Tell your doctor about any breast symptoms or problems, prior surgeries, hormone use, whether you have a family or personal history of breast cancer, and if there's a possibility you are pregnant. If possible, obtain copies of your prior mammograms and make them available to your radiologist on the day of your exam. Leave jewelry at home and wear loose, comfortable clothing. You may be asked to wear a gown. Don't wear deodorant, talcum powder or lotion under your arms or on your breasts as these may appear on the mammogram and interfere with correct diagnosis. × For information on coronavirus (COVID-19) or how COVID-19 vaccine side effects could affect your imaging results, see the Medical Imaging and Coronavirus Safety (http://www.radiologyinfo.org/info/psa-coronavirus) page. What is Mammography? Mammography is specialized medical imaging that uses a low-dose x-ray system to see inside the breasts. A mammography exam, called a mammogram, aids in the early detection and diagnosis of breast diseases in women. An x-ray exam helps doctors diagnose and treat medical conditions. It exposes you to a small dose of ionizing radiation to produce pictures of the inside of the body. X-rays are the oldest and most often used form of medical imaging. Three recent advances in mammography include digital mammography, computer-aided detection and breast tomosynthesis. Digital mammography, also called full-field digital mammography (FFDM), is a mammography system in which the x-ray film is replaced by electronics that convert x-rays into mammographic pictures of the breast.
    [Show full text]
  • The Practice Standards for Medical Imaging and Radiation Therapy
    The Practice Standards for Medical Imaging and Radiation Therapy Radiography Practice Standards ©2017 American Society of Radiologic Technologists. All rights reserved. Reprinting all or part of this document is prohibited without advance written permission of the ASRT. Send reprint requests to the ASRT Communications Department, 15000 Central Ave. SE, Albuquerque, NM 87123-3909. Effective June 25, 2017 Preface to Practice Standards A profession’s practice standards serve as a guide for appropriate practice. The practice standards define the practice and establish general criteria to determine compliance. Practice standards are authoritative statements established by the profession for evaluating the quality of practice, service and education provided by individuals who practice in medical imaging and radiation therapy. Practice Standards can be used by individual facilities to develop job descriptions and practice parameters. Those outside the imaging, therapeutic and radiation science community can use the standards as an overview of the role and responsibilities of the individual as defined by the profession. The individual must be educationally prepared and clinically competent as a prerequisite to professional practice. Federal and state laws, accreditation standards necessary to participate in government programs, and lawful institutional policies and procedures supersede these standards. Format The Practice Standards are divided into six sections: introduction, scope of practice, clinical performance, quality performance, professional performance and advisory opinion statements. Introduction. The introduction provides definitions for the practice and the minimum qualifications for the education and certification of individuals in addition to an overview of the specific practice. Scope of Practice. The scope of practice delineates the parameters of the specific practice.
    [Show full text]
  • Trauma Registrar Guide
    Trauma Registrar Guide 2011 The Trauma Registrar Guide is just that, a guide to indicate necessary areas of knowledge and skill a trauma registrar should acquire in order to be effective, efficient, and accurate in the many areas of trauma data management and trauma system function. Trauma Registrar Guide-2011 A primary purpose of aggregating trauma related data across the nation and within a state is to provide data for research purposes and to have evidence to direct and improve treatment which can maximize positive outcome for the trauma population. Good data provides evidence for benchmarking and process improvement activities as well as a base from which to develop standards of care. In order to preserve data integrity, each data element must be collected, as closely as possible, by the same definition and according to the same guidelines by each facility that contributes to a state or national database. The integrity and value of data entered into a trauma registry database will be directly affected by the training and expertise of the Trauma Registrar who abstracts, enters, and manages the data. The American Trauma Society provides a combined Basic and Advanced Course that should be considered the minimum necessary trauma registry training. Knowledge of medical terminology and human anatomy are also important especially in light of the scheduled implementation of ICD-10-CM in 2013. The focus of this manual is to provide clarity of definition and process guidance as the NTDB®, National Trauma Databank, national elements are entered into facility trauma registries for uploading into the state and national databases.
    [Show full text]
  • Medical Imaging Equipment Age Profile & Density
    MEDICAL IMAGING EQUIPMENT AGE PROFILE & DENSITY 2016 EDITION RENEWAL & REPLACEMENT NOW ESSENTIAL & LONG OVERDUE COCIR SUSTAINABLE COMPETENCE IN ADVANCING HEALTHCARE European Coordination Committee of the Radiological, Electromedical and Healthcare IT Industry European Coordination Committee of the Radiological, Electromedical and Healthcare IT Industry FOREWORD SITUATION DETERIORATING ON INSTALLED BASE OF IMAGING EQUIPMENT This 2015 Medical Imaging Equipment Age Profile and Density report from COCIR provides worrying reading. Despite earlier COCIR publications highlighting the dramatic deterioration in the age of the installed base of medical imaging equipment, it continues to decline. It is now older than ever before, while the overall equipment NICOLE density in Western Europe is declining. This should not be the case. DENJOY Advances in technology have allowed required radiation doses to be lowered, reducing the risk to patients. Despite this, one quarter of the Computed Tomography installed base falls below accepted standards for radiation dose optimisation. Meanwhile, more than 3000 scanners in Europe are now so old that they are no longer suitable for upgrade. The risk to patients posed by a deteriorating equipment age profile and increasing obsolescence has also been further communicated during the ECR* 2015 and 2016; the EuroSafe campaign has also drawn attention to this alarming situation. This 2016 COCIR report provides supporting evidence that policymakers and healthcare providers need to act now in order to reverse this negative trend. The industry is continuously innovating to develop equipment that optimises levels of radiation without affecting quality of images, as part of an ongoing dedication to continuously improving patient safety. This commitment should be shared by all stakeholders; the consistent and persistent deterioration in the age profile of the equipment base should not be allowed to continue.
    [Show full text]