A Standard Operating Procedure for the Use of Digital Imaging Cameras by the First Responding Officer
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												Bio 219 Biomedical Imaging and Scientific Visualization
Bio 219 Biomedical Imaging and Scientific Visualization Ch. Zollikofer M. Ponce de León Organization • OLAT: – course scripts (pdf) • website: www.aim.uzh.ch/morpho/wiki/Teaching/SciVis – course scripts (pdf); passwd: scivisdocs – link collection (tutorials, applets, software/data downloads, ...) • book (background information): Zollikofer & Ponce de León, Virtual Reconstruction. A Primer in Computer-assisted Paleontology and Biomedicine (NY: Wiley, 2005) CHF 55 • final exam – Monday, 26. May 2014, 1015-1100 BioMedImg & SciVis • at the intersection between – theory/practice of image data acquisition – computer graphics – medical diagnostics – computer-assisted paleoanthropology Grotte Chauvet, France Biomedical Imaging • acquisition • processing • analysis • visualization ... of biomedical data Scientific Visualization visual... • representation (cf. data presentation) • exploration • analysis ...of scientific data aims of this course • provide theoretical (and practical) foundations of – image data acquisition, storage, retrieval – image data processing and analysis – image data visualization/rendering • establish links between – real-life vision and computer vision – computer science and biomedical sciences – theory and practice of handling biomedical data contents • real-life vision • computers and data representation • 2D image data acquisition • 3D image data acquisition • biomedical image processing in 2D and 3D • biomedical image data visualization and interaction biomedical data types of data data flow humans and computers facts and data • facts exist by definition (±independent of the observer): – females and males – humans and Neanderthals – dogs and wolves • data are generated through observation: – number of living human species: 1 – proportion of females to males at birth: 49/51 – nr. of wolves per square km biomedical data: general • physical/physiological data about the human body: – density – temperature – pressure – mass – chemical composition biomedical data: space and time • spatial – 1D – 2D – 3D • temporal • spatiotemporal (4D) .. - 
												
												The Effective Application of Digital Printing Techniques for Fine Artists in the South African Context
The effective application of digital printing techniques for fine artists in the South African context. a Dissertation BY Susan Louise Giloi (NH Dip: Photography) Submitted in partial compliance with the requirements for the Degree Magister Technologiae in Photography in the Department of Photography, Faculty of Art and Design. PORT ELIZABETH TECHNIKON November 1999 PROMOTERS Prof. N.P.L. Allen M.F.A. D.Phil. Laur Tech Mr S.C. Strooh N Dip: Photography DEDICATION To my family who gave me the opportunity to do this. To Prof. Nicholas Allen and Mr. Steven Strooh for their help and inspiration. ii ACKNOWLEDGEMENTS My thanks to all the individuals and companies that helped me. Ashley Bowers, Tone Graphics Billy Whitehair, Printing Products Bonny Lhotka Bruce Cadle, Port Elizabeth Technikon Carol Van Zyl, Vaal Triangle Technikon Cleone Cull, Port Elizabeth Technikon Colleen Bate, Digital Imaging and Publishing Dean Johnstone, Square One Dianna Wall, Museum Africa Dorothy Krause Edwin Taylor, Beith Digital Eileen Fritsch, Big Picture Magazine Ethna Frankenfeld, Port Elizabeth Technikon Eugene Pienaar, Port Elizabeth Technikon Gavin Van Rensburg, Kemtek Geoff Black, Cyber Distributors Glen Meyer, Port Elizabeth Technikon Hank Van Der Water, Xerox E.C. Ian de Vega, Port Elizabeth Technikon Ian Marley, Vaal Triangle Technikon Ian White, John Cook University Inge Economou, Port Elizabeth Technikon Isabel Lubbe, Vaal Triangle Technikon Isabel Smit, Yeltech Jenny Ord, Port Elizabeth Technikon John Clarke, JFC Clarke Studio John Otsuki, Capitol Color Keith Solomon, First Graphics Laraine Bekker, Port Elizabteh Technikon Lisle Nel, Port Elizabeth Technikon Magda Bosch, Port Elizabteh Technikon Mary Duker, Port Elizabeth Technikon Mike Swanepoel, Port Elizabeth Technikon Nick Hand, Nexus Nolan Weight, Stonehouse Graphics Peter Thome, Agfa SA Robin Mowatt, QMS Ronald Henry, Omni Graphics Ros Streak, City Graphics Russell Williams, Teltron Steve Majewski Thinus Mathee, Vaal Triangle Technikon iii Tilla Jordaan, Xerox SA Tony Davidson, Outdoor Advertising Association of S.A. - 
												
												Three-Dimensional Thematic Map Imaging of the Yacht Port on the Example of the Polish National Sailing Centre Marina in Gda ´Nsk
applied sciences Article Three-Dimensional Thematic Map Imaging of the Yacht Port on the Example of the Polish National Sailing Centre Marina in Gda ´nsk Pawel S. Dabrowski 1 , Cezary Specht 1,* , Mariusz Specht 2 and Artur Makar 3 1 Department of Geodesy and Oceanography, Gdynia Maritime University, 81-347 Gdynia, Poland; [email protected] 2 Department of Transport and Logistics, Gdynia Maritime University, 81-225 Gdynia, Poland; [email protected] 3 Department of Navigation and Hydrography, Polish Naval Academy, 81-127 Gdynia, Poland; [email protected] * Correspondence: [email protected] Abstract: The theory of cartographic projections is a tool which can present the convex surface of the Earth on the plane. Of the many types of maps, thematic maps perform an important function due to the wide possibilities of adapting their content to current needs. The limitation of classic maps is their two-dimensional nature. In the era of rapidly growing methods of mass acquisition of spatial data, the use of flat images is often not enough to reveal the level of complexity of certain objects. In this case, it is necessary to use visualization in three-dimensional space. The motivation to conduct the study was the use of cartographic projections methods, spatial transformations, and the possibilities offered by thematic maps to create thematic three-dimensional map imaging (T3DMI). The authors presented a practical verification of the adopted methodology to create a T3DMI visualization of Citation: Dabrowski, P.S.; Specht, C.; Specht, M.; Makar, A. the marina of the National Sailing Centre of the Gda´nskUniversity of Physical Education and Sport Three-Dimensional Thematic Map (Poland). - 
												
												Flat-Panel Imaging Arrays for Digital Radiography
Outline Flat-Panel Imaging Arrays • Market and clinical challenges for digital radiography for Digital Radiography • Passive pixel amorphous silicon imaging arrays • Active pixel amorphous silicon imaging arrays Timothy Tredwell, Jeff Chang, Jackson Lai, Greg Heiler, Mark Shafer, John Yorkston Carestream Health, Inc., Rochester, NY 14615, USA • Active pixel LTPS imaging arrays Jin Jang, Jae Won Choi, Jae Ik Kim, Seung Hyun Park, Jun Hyuk Cheon, Sauabh Saxena, Won Kyu Lee • Silicon-on-glass circuits for future active pixel imaging Advanced Display Research Center, Kyung Hee University, Seoul, Korea arrays Arokia Nathan London Center for Nanotechnology, University College, London Eric Mozdy, Carlo Kosik Williams, Jeffery Cites, Chuan Che Wang Corning Incorporated, Sullivan Park, Corning, NY 14831, USA 2 DR: “Digital” Radiography DR: 1 step acquisition with electrical “scanning” “Flat panel” and CCD based technology (introduced ~1995) (Courtesy Imaging Dynamics Corp.) 3 4 Two-Dimensional Projection Radiography The Market Outlook for DR: Rapid Growth World’s Population is Aging • Still most common exam • >1.5 x 10 9 exams per year • Chest imaging most common 1999 2050 Procedural Volume Trends • An aging population: 2,500 • By 2050, over 25% of the population in North America, Europe, China 2,000 Nuc Med and Australia will be over 60 ULtrasound • For every 1 time a 20-year-old visits a doctor … 1,500 MR …a 60-year-old visits a doctor 26 times 1,000 CT Digital X-ray • Rising incomes in Asia and Latin America will accelerate demand Procedures (Ms) Procedures 500 Analog x-ray • Emerging economies could go direct to digital - • Cost must be low – significant market opportunity 2001 2002 2003 2004 2005 2006 2007 2008 5 Source: WHO, World Bank 6 Anatomical Noise Anatomical Noise in Projection Radiography 3-Dim 2-Dim &KHVW5DGLRJUDSK 0DPPRJUDSK\ • 3 dim. - 
												
												Members | Diagnostic Imaging Tests
Types of Diagnostic Imaging Tests There are several types of diagnostic imaging tests. Each type is used based on what the provider is looking for. Radiography: A quick, painless test that takes a picture of the inside of your body. These tests are also known as X-rays and mammograms. This test uses low doses of radiation. Fluoroscopy: Uses many X-ray images that are shown on a screen. It is like an X-ray “movie.” To make images clear, providers use a contrast agent (dye) that is put into your body. These tests can result in high doses of radiation. This often happens during procedures that take a long time (such as placing stents or other devices inside your body). Tests include: Barium X-rays and enemas Cardiac catheterization Upper GI endoscopy Angiogram Magnetic Resonance Imaging (MRI) and Magnetic Resonance Angiography (MRA): Use magnets and radio waves to create pictures of your body. An MRA is a type of MRI that looks at blood vessels. Neither an MRI nor an MRA uses radiation, so there is no exposure. Ultrasound: Uses sound waves to make pictures of the inside of your body. This test does not use radiation, so there is no exposure. Computed Tomography (CT) Scan: Uses a detector that moves around your body and records many X- ray images. A computer then builds pictures or “slices” of organs and tissues. A CT scan uses more radiation than other imaging tests. A CT scan is often used to answer, “What does it look like?” Nuclear Medicine Imaging: Uses a radioactive tracer to produce pictures of your body. - 
												
												(NSPM) Content Outline and Exam Blueprint Effective Through 2020
Nonsurgical Pain Management (NSPM) Content Outline and Exam Blueprint Effective through 2020 The NSPM subspecialty examination will assess a nurse anesthetist’s competence of needle placement in three anatomical approaches (i.e., midline, lateral, peripheral) and four anatomical regions (i.e., cervical, thoracic, lumbar, and sacral), as well as assess knowledge related to the NSPM certification examination content outline as listed below: Domain I. Physiology and Pathophysiology of Pain (13%) I.A. Applicable anatomy and physiology of pain I.B. Nociception: transduction, transmission, perception and modulation of pain I.C. Factors influencing pain I.D. Cellular response to pain and treatment I.E. Pain classifications I.F. Evidence based principles I.G. Pathophysiology I.G.1. Neurotransmitters I.G.2. Inflammatory mediators I.G.3. Pain pathways Domain II. Imaging Safety (8%) II.A. Evaluation of equipment II.B. Equipment safety II.C. Radiation safety II.D. Safe practices with imaging equipment II.E. Provider and Staff safety II.F. Patient safety Domain III. Assessment/Diagnosis/Integration/Referral (24%) III.A. Physical examination III.B. Pain generators III.C. Health history III.D. Diagnostic studies III.D.1. MRI III.D.2. CT III.D.3. EMG III.D.4. X-ray III.D.5. Discogram III.E. Documentation III.F. Data interpretation III.G. Treatment plan III.H. Imaging strategies III.I. Clinical judgment III.J. Multidisciplinary collaboration 1 Nonsurgical Pain Management (NSPM) Content Outline and Exam Blueprint Effective through 2020 Domain IV. Pharmacological Treatment (15%) IV.A. Pharmacology and pain IV.A.1. NSAIDS IV.A.2. Opioids IV.A.3. - 
												
												Imaging Services Order Guide Medicare Guidelines Require Explicit Written and Signed Provider Orders
Imaging Services 2021 Imaging Services Order Guide Medicare guidelines require explicit written and signed provider orders. This guide was created to assist you in ordering and authorizing exams accurately. Please obtain insurance authorizations before scheduling imaging studies. Call one of our licensed/certified technologists if you have questions or comments. NOTE: Please DO NOT call the department to schedule an appointment. CENTRALIZED SCHEDULING . 509-248-9592 GENERAL X-RAY . 509-895-0509 COMPUTED TOMOGRAPHY (CT) . 509-895-0507 MAGNETIC RESONANCE IMAGING (MRI) . 509-895-0505 NUCLEAR MEDICINE . 509-575-8099 `OHANA MAMMOGRAPHY . 509-574-3863 ULTRASOUND . 509-249-5154 VASCULAR ULTRASOUND–Memorial Heart & Vascular . 509-574-0243 VASCULAR STAT REFERRALS–Memorial Heart & Vascular . .509-494-0551 CARDIOVASCULAR SERVICES–Memorial Heart & Vascular . 509-574-0243 BONE DENSITY–Lakeview Campus . 509-972-1170 PROVIDER EMERGENCY . 509-248-7380 Option 0 Consultation of a Clinical Decision Support Mechanism is required to determine if advanced diagnostic imaging services (CT, MRI, Nuclear Medicine, PET) adheres to Appropriate Use Criteria. Order must include Decision Support Number (DSN), G-Code, and Modifier. PHONE | 509-895-0507 PHONE | 509-895-0507 2 3 CT/CAT Scan/Computed Tomography FAX | 509-576-6982 CT/CAT Scan/Computed Tomography FAX | 509-576-6982 *If patient is over 400 lbs., please call the CT department at 509-895-0507. *If patient is over 400 lbs., please call the CT department at 509-895-0507. Consultation of a Clinical Decision Support Mechanism is required. Order must include DSN, G-Code, and Modifier. Consultation of a Clinical Decision Support Mechanism is required. Order must include DSN, G-Code, and Modifier. - 
												
												Digital and Advanced Imaging Equipment
CHAPTER 9 Digital and Advanced Imaging Equipment KEY TERMS active matrix array direct-to-digital radiographic systems photostimulated luminescence amorphous dual-energy x-ray absorptiometry picture archiving and communication analog-to-digital converter F-center system aspect ratio fill factor preprocessing cinefluorography frame rate postprocessing computed radiography image contrast refresh rate detective quantum efficiency image enhancement special procedures laboratory Digital Imaging and Communications image management and specular reflection in Medicine group communication system teleradiology digital fluoroscopy image restoration thin-film transistor digital radiography interpolation window level digital subtraction angiography liquid crystal display window width digital x-ray radiogrammetry Nyquist frequency OBJECTIVES At the completion of this chapter the reader should be able to do the following: • Describe the basic methods of obtaining digital cathode-ray tube cameras, videotape and videodisc radiographs recorders, and cinefluorographic equipment and discuss • State the advantages and disadvantages of digital the quality control procedures for each radiography versus conventional film/screen • Describe the various types of electronic display devices radiography and discuss the applicable quality control procedures • Discuss the quality control procedures for evaluating • Explain the basic image archiving and management digital radiographic systems networks and discuss the applicable quality control • Describe the basic methods - 
												
												Overview of Digital Detector Technology
Overview of Digital Detector Technology J. Anthony Seibert, Ph.D. Department of Radiology University of California, Davis Disclosure • Member (uncompensated) – Barco-Voxar Medical Advisory Board – ALARA (CR manufacturer) Advisory Board Learning Objectives • Describe digital versus screen-film acquisition • Introduce digital detector technologies • Compare cassette and cassette-less operation in terms of resolution, efficiency, noise • Describe new acquisition & processing techniques • Discuss PACS/RIS interfaces and features 1 Conventional screen/film detector 1. Acquisition, Display, Archiving Transmitted x-rays through patient Exposed film Film processor Developer Fixer Wash Dry Gray Scale encoded on Film Intensifying Screens film x-rays → light Digital x-ray detector 2. Display Digital Pixel Digital to Analog 1. Acquisition Matrix Conversion Transmitted x-rays through patient Digital processing Analog to Digital Conversion Charge X-ray converter collection x-rays → electrons device 3. Archiving Analog versus Digital Spatial Resolution MTF of pixel aperture (DEL) 1 100 µm 0.8 0.6 200 µm 1000 µm 0.4 Modulation 0.2 0 01234567891011 Frequency (lp/mm) Sampling Detector Pitch Element, “DEL” 2 Characteristic Curve: Response of screen/film vs. digital detectors 5 Useless 4 10,000 Film-screen (400 speed) Digital 3 1,000 Overexposed Useless 2 100 Correctly exposed 1 10 intensity Relative Film Optical Density Film Optical Underexposed 0 1 0.01 0.1 1 10 100 Exposure, mR 20000 2000 200 20 2 Sensitivity (S) Analog versus digital detectors • Analog - 
												
												2021-2022 Diagnostic Imaging and Therapy Information Packet
www.gatewayct.edu DIAGNOSTIC IMAGING & THERAPY PROGRAMS INFORMATION PACKET 2021-2022 Academic Year Diagnostic Medical Sonography Nuclear Medicine Technology Radiation Therapy Radiography Rev. 06/20 Please disregard all previous versions of the Diagnostic Imaging & Therapy Information Packet Please note: Information in this packet is subject to change. If you do not intend to apply to one of the Diagnostic Imaging & Therapy Programs for the 2021-2022 academic year, please obtain an updated packet for future years. 1 of 23 Introduction Diagnostic Imaging & Therapy refers to four disciplines: Diagnostic Medical Sonography (Associate Degree) Nuclear Medicine Technology (Associate Degree and Certificate) Radiation Therapy (Associate Degree) Radiography (Associate Degree) Diagnostic Medical Sonography The Associate in Science degree program in Diagnostic Medical Sonography (DMS) offers the student an outstanding opportunity to acquire both the academic and technical skills necessary to perform abdominal, obstetrical, superficial, vascular and gynecological sonography procedures. Students will train with highly skilled Sonographers at leading healthcare facilities. Graduates are encouraged to apply for National Qualifying Examination for certification in Sonography with The American Registry of Diagnostic Medical Sonography (ARDMS) (www.ardms.org) and/or the American Registry of Radiologic Technologists (ARRT (S)) (www.arrt.org). The DMS program is accredited in General (Abdomen and OBGYN) and Vascular concentrations by the Commission on Education of Allied Health Education Programs, 25400 US Highway 19 North, Suite 158, Clearwater, FL 33763, P:727-210-2350 F:727-210-2354, E: [email protected]. The joint committee on Education in Diagnostic Medical Sonography (JRC_DMS) is a nonprofit organization in existence to establish, maintain and promote quality standards for educational programs in DMS. - 
												
												Digital Imaging Ethics
Digital Imaging Ethics It is strongly advised that EMS Users follow the MSA Policy on Digital Image Manipulation. "Ethical digital imaging requires that the original uncompressed image file be stored on archival media (e.g., CD-R) without any image manipulation or processing operation. All parameters of the production and acquisition of this file, as well as any subsequent processing steps, must be documented and reported to ensure reproducibility. Generally, acceptable (non-reportable) imaging operations include gamma correction, histogram stretching, and brightness and contrast adjustments. All other operations (such as Unsharp-Masking, Gaussian Blur, etc.) must be directly identified by the author as part of the experimental methodology. However, for diffraction data or any other image data that is used for subsequent quantification, all imaging operations must be reported." This policy was formulated by the Digital Image Processing & Ethics Group of the MSA Education Committee and was adopted as MSA policy at the Summer Council meeting August 2-3, 2003. Guidelines for the proper acquisition and manipulation of scientific digital images: (from Douglas W. Cromey, M.S. - Manager, Cellular Imaging Core Southwest Environmental Health Sciences Center, University of Arizona, Tucson, Arizona) See here for the original article These guidelines were written for life science imaging but are relevant to materials science microscopy as well. 1. Scientific digital images are data that can be compromised by inappropriate manipulations. Images are data arranged spatially in an XY matrix (or grid) and each individual element (pixel) has a numerical value that represents a grayscale or RGB intensity value. These data are a numerical sampling of the specimen as presented by the data acquisition system (e.g., microscope) to the sensor (e.g., CCD camera). - 
												
												Digital Imaging and Printing Selection 92 Image Manipulation Requires Selecting Either a Part of the Image Or the Entire Image to Make Changes
90 CHAPTER DIGITAL IMAGING and 08 PRINTING Towards a New AgeDesign a New Graphic Towards raphic designers work with visual images, either for Gprint media or for digital media. With the advent of 91 computers, most of the graphic designer’s work is being done using computers. From graphical point of view there is a vast difference between images on paper such as drawings, sketches or photographs and images that you see on the screen of the computers. Images that are created, manipulated and displayed using computers are called digital images. Digital images are different from images drawn or painted on paper in many ways. TYPES OF DIGITAL IMAGES There are two major categories of digital images: raster images and vector images. When images are stored in a computer in the form of a grid of basic picture elements called pixels, then these images are called raster images. The pixels contain the information about colour and brightness. Image-editing programmes can replace or modify the pixels to edit the image Digital Imaging and Imaging Printing Digital in various ways. The pixels can be modified in groups, or individually. There are sophisticated algorithms to achieve this. On the other hand vector images are stored as mathematical descriptions of the image in terms of lines, Bezier curves, and text instead of pixels. This is the main difference between raster and vector images. However, this difference is responsible for the development of two major categories of graphic technologies namely: Raster Graphics and Vector Graphics. Therefore, the image-editing software used by the practicing graphic designers falls under one of these categories.