Rad Physics and Rad Bio
Quiz yourself by thinking what should be in
each of the black spaces below before clicking
on it to display the answer.
Help!
|
|
||||
---|---|---|---|---|---|
What do we need to produce an x-ray? | source of free e-, accelerating e-, focusing of e-, and deceleration of e-
Saia, D.A. (2018). Chapter Title ( Radiation Physics and Radiobiology). In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 240).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Where is our source of free e-? | thermionic emission at the filament
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 240).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What are the two interactions that occur at the target? | Bremsstrahlung and characteristic
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 240).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Describe Bremsstrahlung radiation Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 240).Chicago, IL: McGraw-Hill Education. | a negative e- is attracted to the nucleus of a tungsten atom and slows, loses energy in the form of Brem radiation
๐
|
||||
What kind of emission spectrum is produced from Brem radiation? | a continuous spectrum
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 240).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Describe Characteristic radiation Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 240).Chicago, IL: McGraw-Hill Education. | an e- ejects a k shell e- in a tungsten atom and leaves a vacancy, vacancy gets filled and gives off a characteristic x-ray
๐
|
||||
What kind of emission spectrum is produced from Characteristic radiation? | a discreet spectrum
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 240).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is most of the x-ray beam? brem or characteristic | Brem
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 240).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is the energy level for characteristic radiation? | 69 kev
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 240).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Describe the wavelength, frequency and energy of x-rays | short wavelength, high frequencies, high energy
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 238).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Name some fundamental properties of x-rays | travel in straight lines, travel at the speed of light, polyenergetic, homogenous, ionize matter
๐
|
||||
Describe the photoelectric effect Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 240).Chicago, IL: McGraw-Hill Education. | low energy photon interacts with tissue, ejects an inner shell e-, transfers all energy characteristic x-ray given off
๐
|
||||
Which interaction contributes to the patients dose? | Photoelectric
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 240).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What kind of contrast does photoelectric produce? | short scale contrast, high contrast
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 240).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Describe Compton scatter Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 241).Chicago, IL: McGraw-Hill Education. | high energy x-ray interacts with tissue, gives up some energy to eject an outer shell e-, contributes to fog and occupational dose
๐
|
||||
Describe Coherent scatter Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 241).Chicago, IL: McGraw-Hill Education. | very low photon undergoes a change in direction with no energy loss or ionization; contribute to patient skin exposure
๐
|
||||
SI unit of absorbed dose | Gray
Saia, D.A. (2018). Radiation Exposure and Monitoring. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 296).Chicago, IL: McGraw-Hill Education.
๐
|
||||
SI unit of dose equivalent | Sievert
Saia, D.A. (2018). Radiation Exposure and Monitoring. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 296).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Which threshold curve is associated with stochastic effects? | Linear Nonethreshold
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 244).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Which threshold curve is associated with nonstochastic effects? | Nonlinear Threshold
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 244).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is LET? | rate of energy deposited per unit track length through an absorber
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 249).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is RBE? | the ability to produce biologic damage
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 249).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Which cells are the most radiosensitive? | stem cells, immature cells, and highly mitotic cells
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 249).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What kind of LET is x-rays? | low LET
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 249).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What dose to gonads will cause permanent sterility? | 5 -6 Gray
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 252).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What dose to female gonads will cause temporary sterility? | 2 Gray
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 252).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Which trimester is the most radiosensitive? | the first
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 251).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What dose can cause microencephaly? | .2 - .4 Gray
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 252).Chicago, IL: McGraw-Hill Education.
๐
|
||||
List examples of short term somatic effects | epilation, nausea, vomiting, erythema, fatigue and epistaxis
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 244).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is epistaxis? | nose bleed
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 244).Chicago, IL: McGraw-Hill Education.
๐
|
||||
List examples of long term somatic effects | cancer, leukemia, cataractogenesis, and life span shortening
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 244).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Minimum lead equivalent for lead aprons | 0.5 mm Pb
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 283).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Minimum lead equivalent for gloves | 0.25 mm Pb
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 283).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Minimum lead equivalent for thyroid shield | 0.5 mm Pb
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 283).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Minimum lead equivalent for glasses | 0.35 mm Pb
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 283).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Minimum lead equivalent for bucky slot cover | 0.25 mm Pb
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 283).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Minimum lead equivalent for curtain | 0.25 mm Pb
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 283).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Minimum lead equivalent for clear overhead barrier | 0.5 mm Pb
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 283).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Annual whole body exposure | 50 mSv
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 283).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Lens of the eye | 150 mSv
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 283).Chicago, IL: McGraw-Hill Education.
๐
|
||||
All other areas (red bone marrow, breast, lung, gonads, skin) | 500 mSv
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 283).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Cumulative Effective Limit | 10 mSv x age in years
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 283).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Public exposure - annual effective dose equivalent limit | 5 mSv
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 283).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Dose equivalent limits for the lens of the eye, skin, and extremities | 50 mSv
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 283).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Embryo/fetus exposure for entire gestational period | 5 mSv
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 250).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Embryo/fetus exposure per month during gestational period | 0.5 mSv
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 250).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is the most common interaction with matter? | Compton Scatter
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 241).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Describe Pair Production Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 241).Chicago, IL: McGraw-Hill Education. | min. of 1.02 MeV photon interacts with nucleus, results in positron and negatron, annihilation reaction
๐
|
||||
Describe Photodisintegration Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 241).Chicago, IL: McGraw-Hill Education. | min. of 10 MeV photon directly absorbed by nucleus and explodes
๐
|
||||
What is the measurement of radioactivity? | Becquerel
Saia, D.A. (2018). Radiation Exposure and Monitoring. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 296).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is the unit of radiation exposure in air? | C/kg
Saia, D.A. (2018). Radiation Exposure and Monitoring. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 296).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is the quality factor of x-rays? | 1
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 249).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is the OER for human tissues? | 3
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 249).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is the lethal dose? | 3.5 Gray to whole body
Saia, D.A. (2018). Radiation Exposure and Monitoring. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 296).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Describe radiolysis | Radiation interaction with water
๐
|
||||
What is indirect damage? Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 247).Chicago, IL: McGraw-Hill Education. | x-ray splits water molecule and forms a free radical that can produce damage
๐
|
||||
What is direct damage? | x-ray hits DNA directly
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 247).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is interphase death? | also called apoptosis, cell dies without attempting to divide
๐
|
||||
Describe stochastic effects | includes most late effects, cancer, genetic effects, NO SAFE DOSE
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 245).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Describe nonstochastic effects Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 245).Chicago, IL: McGraw-Hill Education. | includes all early effects and some late effects, hair loss, temporary infertility, cataracts, need some dose to produce effects
๐
|
||||
What is the Hemopoietic syndrome in ARS? Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 254).Chicago, IL: McGraw-Hill Education. | bone marrow syndrome, most sensitive system in the body, blood disorders, 1-10 Gray
๐
|
||||
What is the GI Syndrome in ARS? | nausea, vomiting, fatigue, 10-50 Gray
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 254).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is the CNS syndrome in ARS? | Cardiovascular syndrome, 50 Gray, death in hours or day
Saia, D.A. (2018). Radiation Physics and Radiobiology. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 254).Chicago, IL: McGraw-Hill Education.
๐
|
||||
For 70 kv or higher what is the total filtration in the tube? | 2.5 mm Al
Saia, D.A. (2018). Patient Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 266).Chicago, IL: McGraw-Hill Education.
๐
|
||||
For 50 -70 kv what is the total filtration in the tube? | 1.5 mm Al
Saia, D.A. (2018). Patient Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 266).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Below 50 kv what is the total filtration in the tube? | .5 mm Al
Saia, D.A. (2018). Patient Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 266).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What do grids do to contrast? | increase contrast
๐
|
||||
Minimum SID on fixed fluoro units? | 15" or 38 cm
Saia, D.A. (2018). Patient Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 275).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Minimum SID on mobile fluoro units | 12" or 30 cm
Saia, D.A. (2018). Patient Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 275).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is the most effective method of reducing occupational dose? | distance
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 282).Chicago, IL: McGraw-Hill Education.
๐
|
||||
The allowed leakage radiation from the tube should be | 1mGray per hour at 1 meter
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 282).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What are primary protective barriers? | surfaces struck by primary beam
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 285).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Primary protective barriers require how much lead? | .16cm or 1.6mm of Pb
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 285).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Primary protective barriers should be how tall? | 210 cm or 2.3 meters from floor
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 285).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What are secondary protective barriers? | surfaces struck with stray radiation (scatter or leakage)
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 285).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Secondary protective barriers require how much lead? | .08cm or .8mm of Pb
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 285).Chicago, IL: McGraw-Hill Education.
๐
|
||||
The barriers should overlap by how much? | 1.25 cm
Saia, D.A. (2018). Personnel Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 285).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is the max exposure at the table top of a fluoroscopic unit? | 0.1 C/kg
Saia, D.A. (2018). Patient Protection. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 275).Chicago, IL: McGraw-Hill Education.
๐
|
||||
What is the purpose of dosimeters? | to measure radiation
Saia, D.A. (2018). Radiation Exposure and Monitoring. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 297).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Describe film badges | old, used four filters, provide a permanent record
Saia, D.A. (2018). Radiation Exposure and Monitoring. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 299).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Describe TLD dosimeters | made of lithium fluoride, gets heated to read, no archival record
Saia, D.A. (2018). Radiation Exposure and Monitoring. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 300).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Describe Pocket Dosimeters | instant reading, inaccurate, short term monitoring
Saia, D.A. (2018). Radiation Exposure and Monitoring. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 300).Chicago, IL: McGraw-Hill Education.
๐
|
||||
Describe OSL Dosimeters Saia, D.A. (2018). Radiation Exposure and Monitoring. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 298).Chicago, IL: McGraw-Hill Education. | made of aluminum oxide detector, laser light reads it, filters determine energy levels
๐
|
||||
Who should wear dosimeters? | risk of receiving 10% of the annual effective absorbed dose equivalent
Saia, D.A. (2018). Radiation Exposure and Monitoring. In S. Barnes, C. M. Thomas (Eds.), Radiography Prep (9th ed., pp. 296).Chicago, IL: McGraw-Hill Education.
๐
|
Review the information in the table. When you are ready to quiz yourself you can hide individual columns or the entire table. Then you can click on the empty cells to reveal the answer. Try to recall what will be displayed before clicking the empty cell.
To hide a column, click on the column name.
To hide the entire table, click on the "Hide All" button.
You may also shuffle the rows of the table by clicking on the "Shuffle" button.
Or sort by any of the columns using the down arrow next to any column heading.
If you know all the data on any row, you can temporarily remove it by tapping the trash can to the right of the row.
To hide a column, click on the column name.
To hide the entire table, click on the "Hide All" button.
You may also shuffle the rows of the table by clicking on the "Shuffle" button.
Or sort by any of the columns using the down arrow next to any column heading.
If you know all the data on any row, you can temporarily remove it by tapping the trash can to the right of the row.
Embed Code - If you would like this activity on your web page, copy the script below and paste it into your web page.
Normal Size Small Size show me how
Normal Size Small Size show me how
Created by:
leboyd
Popular Radiology sets