Friday, February 19, 2010
Suggested Reading
1 Cropper, William H., Great Physicists, Oxford University Press, Oxford (2001). [Portrays the lives, personalities,
and contributions of 29 scientists from Galileo to Stephen Hawkin.
2 Glasstone, S., Sourcebook on Atomic Energy, 3d ed., D. Van Nostrand, Princeton, NJ (1967).
3 Kathren, R. L., “Historical Development of Radiation Measurement and Protection,” pp. 13–52 in Handbook of
Radiation Protection and Measurement, Section A, Vol. I, A. B. Brodsky, ed., CRC Press, Boca Raton, FL (1978).
[An interesting and readable account of important discoveries and experience with radiation exposures, measurements,
and protection. Contains bibliography.]
4 Kathren, R. L., and Ziemer, P. L., eds., Health Physics: A Backward Glance, Pergamon Press, Elmsford,
NY (1980). [Thirteen original papers on the history of radiation protection.]
5 Meinhold, Charles B., “Lauriston S. Taylor Lecture: The Evolution of Radiation protection—from Erythema to Genetic Risks to Risks of Cancer ” Health Phys. 87, 241–248 (2004).
President Emeritus of the NCRP describes the evolution of radiation protection through the present-day ICRP,
NCRP, and other organizations. This issue (Vol. 87, No. 3) contains the proceedings of the 2003 annual meeting
of the NCRP, on the subject of radiation protection at the beginning of the 21st century.
6 Moeller, Dade W., “Environmental Health Physics—50 Years of Progress,” Health Phys. 87, 337–357 (2004). [Review article, discussing sources of environmental radiation and the transport and monitoring of radioactive materials in the biosphere. Extensive bibliography.]
7 Morgan, K. Z., “History of Damage and Protection from Ionizing Radiation,” Chapter 1 in Principles of Radiation Protection, K. Z. Morgan and J. E. Turner, eds., Wiley, New York (1967). [Morgan is one of the original eight health physicists of the Manhattan Project at the University of Chicago (1942) and the first president of the Health Physics Society.]
8 National Research Council, Health Effects of Exposures to Low Levels of Ionizing Radiation—BEIR V, National
Academy Press, Washington, DC (1990).
9 NCRP Report No. 93, Ionizing Radiation Exposure of the Population of the United States, National Council on Radiation
Protection and Measurements, Bethesda, MD (1987).
10 Pais, Abraham, Inward Bound, Oxford University Press, Oxford (1986). [Subtitled Of Matter and Forces in the
Physical World, this is a very readable account of what happened between 1895 and 1983 and the persons and
personalities that played a role during that time.]
11 Physics Today, Vol. 34, No. 11 (Nov. 1981). [Fiftieth anniversary of the American Institute of Physics. Special
issue devoted to “50 Years of Physics in America.”]
12 Physics Today, Vol. 36, No. 7 (July 1983). [This issue features articles on physics in medicine to commemorate
the twenty-fifth anniversary of the founding of the American Association of Physicists in Medicine.]
13 Ryan, Michael T., “Happy 100th Birthday to Dr. Lauriston S. Taylor,” Health Phys. 82, 773 (2002). [The many contributions of Taylor (1902–2004), the first President of the NCRP, are honored in this issue (Vol. 82, No. 6) of
the journal.]
14 Segrè, Emilio, From X-Rays to Quarks, W. H. Freeman, San Francisco (1980).
[Describes physicists and their discoveries from 1895 to the present. Segrè received the Nobel Prize for the discovery of the antiproton.]
15 Stannard, J. N., Radioactivity and Health, National Technical Information Service, Springfield, VA (1988).
[A comprehensive, detailed history (1963 pp.) of the age.]
16 Taylor, L. S., Radiation Protection Standards, CRC Press, Boca Raton, FL (1971). [The history of radiation protection
as written by one of its leading international participants.]
17 Taylor, L. S., “Who Is the Father of Health Physics?” Health Phys. 42, 91 (1982).
18 United Nations Scientific Committee on the Effects of Atomic Radiation, UNSCEAR 2000 Report to the General
Assembly, with scientific annexes, Vol. I Sources, Vol. II Effects, United Nations Publications, New York, NY and
Geneva, Switzerland (2000).
19 Weart, Spencer R. and Phillips, Melba, Eds., History of Physics, American Institute of Physics, New York, NY
(1985). [Forty-seven articles of historical significance are reprinted from Physics Today. Included are personal
accounts of scientific discoveries and developments in modern physics. One section, devoted to social issues
in physics, deals with effects of the great depression in the 1930s, science and secrecy, development of the
atomic bomb in World War II, federal funding, women in physics, and other subjects.
X-ray Date Labels,X-ray ID,X-ray Film Jackets,Medical Staff Credentialing Folders,X-ray Mailers,X-ray Jackets,Employee Medical File Folders,Filing Systems
and contributions of 29 scientists from Galileo to Stephen Hawkin.
2 Glasstone, S., Sourcebook on Atomic Energy, 3d ed., D. Van Nostrand, Princeton, NJ (1967).
3 Kathren, R. L., “Historical Development of Radiation Measurement and Protection,” pp. 13–52 in Handbook of
Radiation Protection and Measurement, Section A, Vol. I, A. B. Brodsky, ed., CRC Press, Boca Raton, FL (1978).
[An interesting and readable account of important discoveries and experience with radiation exposures, measurements,
and protection. Contains bibliography.]
4 Kathren, R. L., and Ziemer, P. L., eds., Health Physics: A Backward Glance, Pergamon Press, Elmsford,
NY (1980). [Thirteen original papers on the history of radiation protection.]
5 Meinhold, Charles B., “Lauriston S. Taylor Lecture: The Evolution of Radiation protection—from Erythema to Genetic Risks to Risks of Cancer ” Health Phys. 87, 241–248 (2004).
President Emeritus of the NCRP describes the evolution of radiation protection through the present-day ICRP,
NCRP, and other organizations. This issue (Vol. 87, No. 3) contains the proceedings of the 2003 annual meeting
of the NCRP, on the subject of radiation protection at the beginning of the 21st century.
6 Moeller, Dade W., “Environmental Health Physics—50 Years of Progress,” Health Phys. 87, 337–357 (2004). [Review article, discussing sources of environmental radiation and the transport and monitoring of radioactive materials in the biosphere. Extensive bibliography.]
7 Morgan, K. Z., “History of Damage and Protection from Ionizing Radiation,” Chapter 1 in Principles of Radiation Protection, K. Z. Morgan and J. E. Turner, eds., Wiley, New York (1967). [Morgan is one of the original eight health physicists of the Manhattan Project at the University of Chicago (1942) and the first president of the Health Physics Society.]
8 National Research Council, Health Effects of Exposures to Low Levels of Ionizing Radiation—BEIR V, National
Academy Press, Washington, DC (1990).
9 NCRP Report No. 93, Ionizing Radiation Exposure of the Population of the United States, National Council on Radiation
Protection and Measurements, Bethesda, MD (1987).
10 Pais, Abraham, Inward Bound, Oxford University Press, Oxford (1986). [Subtitled Of Matter and Forces in the
Physical World, this is a very readable account of what happened between 1895 and 1983 and the persons and
personalities that played a role during that time.]
11 Physics Today, Vol. 34, No. 11 (Nov. 1981). [Fiftieth anniversary of the American Institute of Physics. Special
issue devoted to “50 Years of Physics in America.”]
12 Physics Today, Vol. 36, No. 7 (July 1983). [This issue features articles on physics in medicine to commemorate
the twenty-fifth anniversary of the founding of the American Association of Physicists in Medicine.]
13 Ryan, Michael T., “Happy 100th Birthday to Dr. Lauriston S. Taylor,” Health Phys. 82, 773 (2002). [The many contributions of Taylor (1902–2004), the first President of the NCRP, are honored in this issue (Vol. 82, No. 6) of
the journal.]
14 Segrè, Emilio, From X-Rays to Quarks, W. H. Freeman, San Francisco (1980).
[Describes physicists and their discoveries from 1895 to the present. Segrè received the Nobel Prize for the discovery of the antiproton.]
15 Stannard, J. N., Radioactivity and Health, National Technical Information Service, Springfield, VA (1988).
[A comprehensive, detailed history (1963 pp.) of the age.]
16 Taylor, L. S., Radiation Protection Standards, CRC Press, Boca Raton, FL (1971). [The history of radiation protection
as written by one of its leading international participants.]
17 Taylor, L. S., “Who Is the Father of Health Physics?” Health Phys. 42, 91 (1982).
18 United Nations Scientific Committee on the Effects of Atomic Radiation, UNSCEAR 2000 Report to the General
Assembly, with scientific annexes, Vol. I Sources, Vol. II Effects, United Nations Publications, New York, NY and
Geneva, Switzerland (2000).
19 Weart, Spencer R. and Phillips, Melba, Eds., History of Physics, American Institute of Physics, New York, NY
(1985). [Forty-seven articles of historical significance are reprinted from Physics Today. Included are personal
accounts of scientific discoveries and developments in modern physics. One section, devoted to social issues
in physics, deals with effects of the great depression in the 1930s, science and secrecy, development of the
atomic bomb in World War II, federal funding, women in physics, and other subjects.
X-ray Date Labels,X-ray ID,X-ray Film Jackets,Medical Staff Credentialing Folders,X-ray Mailers,X-ray Jackets,Employee Medical File Folders,Filing Systems
Subscribe to:
Post Comments (Atom)
Labels
x-ray tubes
175 VA Collimator Power Supply
Dental X-Ray Machine
Employee Medical File Folders
Filing Systems
Medical Staff Credentialing Folders
Rotating anode
Stationary anode
X-ray Date Labels
X-ray Film Jackets
X-ray ID
X-ray Jackets
X-ray Mailers
abdomen
filament circuit
metallic focusing cup
ultrasound
137Cs gamma photons
15 Amp
2-3 mm thick embedded
Aging of x-ray tube
An Inexpensive X-ray Machine
Anodes are positive electrodes
Automatic developer
Automatic exposure control
B. R. S. Basic Radiographic Systems
Barium Enema
Basic X-Ray Circuit
Body section radiography
Bremsstrahlung radiation
CPU board Drive boards
Cathode of x-ray tube
Commercial electric power
Compton scatter angle
Computed Axial Tomography (CT or CAT)
Computed Tomography (CT) and 3D image modalities
Computerized
Contrast
DRRs
Department of Radiology
Developin
Differential Effects of X-Rays and High-Energy 56Fe Ions on Human Mesenchymal Stem Cells
Digitally Reconstructed Radiographs
Drive belts Proper grounding Column support
Drive motor
Drive wheels Mounting brackets
EG and G's amorphous silicon department
Electron current in x-ray tube
Electronic
Electrostatic focusing Lens
Equilibrium at filament level
Evaluate the suitability of the counting system
Extremities
Filament
Film processing steps
Filtered Backprojection algorithm
Focusing Cup of Xrays Tube
Fulcrum
Fundamental of Nuclear Pharmacy
Head or Neck
History of X-rays
Hounsfield number
How Luminescent Screen and Intensifying Screens works
Human Mesenchymal Stem Cells
Hysterosalpingogram
ICRP
ICRP Pub 38
ICRU Report No. 40. chromosome aberrations per cell
Image Blurr is produced due to scattering
Images of GI system
Imaging characteristics of Intensifier
Increasing brightness
Injection of NaI in radiology
Investigation of circulatory system is improve with injected NaI
Ionization chambers
LAG
Law of Unintended Consequences
Lead lined cassette tray box
Lead shielding
Linear II Automatic Collimator 24 VAC
Linear Tomography
Luminescent Screen and Intensifying Screens
Mechanical
MinXray High Frequency Portable Medical X-ray Equipment
NCRP Report No. 51
New York
Nikola Tesla
OPTIMA U.R.S. SEU-MA Multipurpose Radiological System for Thorax
Oudin coil
Panoramic Dental X-Ray Machine PC-1000
Panoramic X-rays
Paralleling angle technique
Pb slab
Pergamon Press
Photo Timers
Photomultiplier detectors
Physicist Johann Hittorf
Physics of Radiation Therapy
Portable Xray Machines
Power Requirement: 230 v Single Phase 50HZ
Procedure Guideline for Bone Scintigraphy
Pulse counting
Pyrex glass
Q for neutrons
RC circuit of x-ray
Radiology
Radionuclide Transformations
Reducing blurr in image
Roentgen discovers ionizing radiation British X-Ray and Radium Protection Committee presents its first radiation
Rugged
Röntgen's wife
S. D. S. Stationery Diagnostic Systems
Shay M. Anderson and Ryan W. Preuninger
Solid state detectors
Spine
The physical characteristics of x-rays Films and Film Processing
Tomographic reconstruction
Tomography
Ultraspeed
Upper GI track
Vaporization of filament
Vignettimg
Voiding Cystogram
Voltage Rectification in xray machine
Wehnelt electrode
Wilhelm Röntgen
William Crookes
X Ray Camera
X Ray Film
X-Ray
X-Ray Machine High Frequency
X-ray Developing
X-ray Generators
X-ray Physics
X-ray Production/Clinical Radiation Generators
X-ray of Chest
X-rays
absorption of heat
accelerator facility
adhseive material in xray films
air sample counting system
airborne radioactive material
ambulatory patients
analytical X-ray devices
and materials science
anode
arc of tomography
archeology
attenuating material
automatic brightness stabilizers
automatic focusing
autotransformers and rheostats
basic
benign lesions
biology
bisecting angle technique
bone
breast
brightness
calculate the concentration (ppm)
calculated in degree
cathode
chest
chest xray
chromosome aberrations in human lymphocytes
colon
components in an image intensifier
computer-aided diagnosis in mammography
computer-aided diagnosis system for breast cancer
concentration of 137Cs in milk samples
continuous operation
control parameters of x-rays machine.
control time of exposure
conventional
conventional X-ray machines
cross sectional view of an x-ray film
deep dose equivalent
denominator of the meter
dental assistants and radiographers
dental x-rays
dental x-rays for children
dentists
dependable MinXray
design
different solutions used in film processing of x-ray
digital radiography sensors
dimensional zone of focus
directly dependants
distance between successive interactions
double emulsion
effective dose equivalent
electric supply
emulsion
energy conversion
energy shell
estimated current value of the film X-ray machines
exposure parameters
fallopian tube
fixing
fluorescent screen
focusing cup
gamma ray
gamma rays
gastrointestinal tract
geology
gray shapes from gray backgrounds
halide/bromide/iodide/chloride
health care
health physicist
high atomic number
high melting point
high potential difference
high voltage circuit
high-speed connectivity-based systems
history
history of Fluoroscopic imaging
how image is formed on x-ray film.
how xrays are produced
human error
hygienists
image transformation
image formation in intensifier
image from x-ray films
immersed in oil
intrinsic and absolute efficiency
lead or metal lining surrounding of x-ray tube
length of exposure
mAs
mGy
magnetic resonance
malignant lesions
mammogram
many of its principles
medical imaging
medical knowledge
milli-gray
milliampere-seconds
mri
number of protons per beam pulse
oceanography
oil as insulator
open-air explosions of nuclear bombs
orthopantomogram
peak tube potential in kV
periphery of an image
personnel monitoring devices
photoshop xray
phototimers
pincushion effect
prescribed limits
proportionals
proton accelerator facility
quartz bulb
radio tube producing X-rays
radiochemical laboratory
radiologic units International commission
radiologist
repulsion force
safety concerns
sharpness of image
shortening the life of x-ray tube
skeleton
skull
skull and spinal column
space charge effect
speed film
spine and extremities
strikes in an accelerator
supercoating
systematic transfer
target material
the components of fluoroscopic screen
thermionic emission
third circuit of timer
timers
transformer and rectifiers
transformer assembly
un-equal magnification
use of zinc cadmium sulphde in screens
volumetric CT
watching of xray films
what are the components of an x-ray film
why radiologist made their eyes dark adopted
why red goggles are weared
working Principle of image intensifier screen
x ray machine
x ray source
x ray tube diagram
x-ray beam quality
x-ray current
x-ray films used with Luminescent Screen and Intensifying Screens
x-ray high voltages
x-ray machine
x-ray safety
xray camera
xray scanner
xray tube compnents
0 comments:
Post a Comment