Which of the following projections of the elbow will show the radial head neck and tuberosity free of superimposition by the ulna quizlet?

Recommended textbook solutions

Sears and Zemansky's University Physics

14th EditionHugh D. Young, Roger A. Freedman

7,362 solutions

Fundamentals of Physics

8th EditionHalliday, Resnick, Walker

9,001 solutions

Principles of Physics

5th EditionJohn W. Jewett, Raymond A. Serway

4,437 solutions

Sears and Zemansky's University Physics with Modern Physics, Volume 1

13th EditionHugh D. Young, Lewis Ford, Roger A. Freedman

6,933 solutions

Recommended textbook solutions

Technical Writing for Success

3rd EditionDarlene Smith-Worthington, Sue Jefferson

468 solutions

Edge Reading, Writing and Language: Level C

David W. Moore, Deborah Short, Michael W. Smith

304 solutions

Technical Writing for Success

3rd EditionDarlene Smith-Worthington, Sue Jefferson

468 solutions

The Language of Composition: Reading, Writing, Rhetoric

2nd EditionLawrence Scanlon, Renee H. Shea, Robin Dissin Aufses

661 solutions

Recommended textbook solutions

The Language of Composition: Reading, Writing, Rhetoric

2nd EditionLawrence Scanlon, Renee H. Shea, Robin Dissin Aufses

661 solutions

Technical Writing for Success

3rd EditionDarlene Smith-Worthington, Sue Jefferson

468 solutions

Literature and Composition: Reading, Writing,Thinking

1st EditionCarol Jago, Lawrence Scanlon, Renee H. Shea, Robin Dissin Aufses

1,697 solutions

Technical Writing for Success

3rd EditionDarlene Smith-Worthington, Sue Jefferson

468 solutions

• Flashcards

• Learn

• Test

• Match

• Flashcards

• Learn

• Test

• Match

Terms in this set (68)

1. Sharply recorded details are demonstrated on extremity images when
1. motion is controlled.
2. a large focal spot is used.
3. a small IR is used for computed radiography images.
4. a large OID is used.
a. 1 and 3 only
b. 2 and 4 only
c. 1, 3, and 4 only
d. 1, 2, 3, and 4

A

Chapter 1, PP. 29-31| Chapter 4, P. 150

2. The IP joint spaces on finger projections are open and demonstrated without distortion when the
1. central ray is aligned parallel with the IP joint spaces.
2. central ray is aligned perpendicular to the IP joint spaces.
3. IP joints are aligned parallel with the IR.
4. IP joints are aligned perpendicular to the IR.
a. 1 and 3 only
b. 1 and 4 only
c. 2 and 3 only
d. 2 and 4 only

B

PP. 150-151

3. Which of the following technical factors should be chosen when 20 mAs is desired and the patient being imaged has difficulty remaining still?
a. 200 mA at 0.1 sec
b. 400 mA at 0.05 sec
c. 100 mA at 0.4 sec
d. 100 mA at 0.2 sec

B

P. 150 | Box 4-1

4. A lateral finger projection obtained with the finger in a 45-degree PA oblique projection demonstrates
1. equal soft tissue width on both sides of the phalanges.
2. more midshaft concavity on one side of the phalanges than on the opposite side.
3. twice as much soft tissue on one side of the phalanges as on the opposite side.
4. convexity on one side of the phalanges and concavity on the opposite side.
a. 1 and 2 only
b. 1 and 4 only
c. 2 and 3 only
d. 3 and 4 only

C

P. 155

5. A PA hand projection obtained with the hand flexed demonstrates
1. foreshortened phalanges.
2. the thumb in a lateral projection.
3. closed IP joint spaces.
4. foreshortened metacarpals.
a. 1 and 3 only
b. 2 and 4 only
c. 1, 3, and 4 only
d. 1, 2, 3, and 4

D

P. 167

6. A right lateral fourth finger projection obtained with the hand internally rotated to 20 degrees demonstrates
1. equal soft tissue width on both sides of the phalanges.
2. more phalangeal midshaft concavity on the side facing the fifth finger.
3. convexity on one side of the phalanges and concavity on the opposite side.
4. greater phalangeal midshaft concavity on the side facing the third finger.
a. 1 and 4 only
b. 2 and 3 only
c. 4 only
d. 2, 3, and 4 only

C

P. 155

7. A lateral hand projection obtained with the hand in slight external rotation demonstrates the
1. shortest of the second through fourth metacarpals anteriorly situated.
2. radius posterior to the ulna.
3. second metacarpal posterior to the other metacarpals.
4. pisiform posterior to the distal scaphoid.
a. 1 and 2 only
b. 1, 2, and 3 only
c. 3 and 4 only
d. 1, 2, and 4 only

B

PP. 173-174

8. A PA wrist projection with accurate positioning demonstrates
1. an open radioulnar articulation.
2. the radial styloid in profile.
3. the long axes of the third metacarpal aligned with the midforearm.
4. open second through fifth MC joint spaces.
a. 1 and 2 only
b. 1, 2, and 3 only
c. 3 and 4 only
d. 1, 2, 3, and 4

D

PP. 175-177

9. How is a patient positioned for a PA wrist projection to superimpose the anterior and posterior margins of the distal radius and obtain open radioscaphoid and radiolunate joint spaces?
a. Align the third metacarpal with the forearm.
b. Ulnar-flex the wrist.
c. Depress the proximal forearm.
d. Flex the hand until the metacarpals are at a 10- to 15-degree angle with the IR.

C

P. 178

10. A PA wrist projection obtained in slight external rotation demonstrates
1. superimposition of the laterally located carpal bones.
2. a closed radioulnar articulation.
3. open lateral carpal joint spaces.
4. the radial styloid in profile.
a. 1 and 4 only
b. 2 and 3 only
c. 2, 3, and 4 only
d. 1, 2, and 4 only

B

PP. 177-178

11. A PA wrist projection obtained with the hand flexed and the metacarpals at a 45-degree angle with the IR demonstrates
1. a closed radioulnar articulation.
2. foreshortened metacarpals.
3. a decrease in scaphoid foreshortening.
4. closed second through fifth carpometacarpal joint spaces.
a. 1 and 3 only
b. 1, 2, and 4 only
c. 2, 3, and 4 only
d. 1, 2, 3, and 4

C

P. 177

12. A PA wrist projection obtained with the wrist in a neutral position demonstrates
1. the scaphoid in partial foreshortening.
2. the center of the lunate positioned distal to the radioulnar articulation.
3. closed CM joints.
4. alignment of the long axis of the third metacarpal and radius.
a. 1 and 3 only
b. 2 and 4 only
c. 1, 2, and 4 only
d. 1, 2, 3, and 4

C

P. 177

13. PA wrist projection obtained in radial deviation demonstrates
1. the lunate positioned distal to the ulna.
2. a foreshortened scaphoid.
3. closed CM joints.
4. an elongated scaphoid.
a. 1 and 2 only
b. 3 and 4 only
c. 1, 2, and 4 only
d. 1, 2, and 3 only

A

P. 79

14. An externally rotated PA oblique wrist projection with accurate positioning demonstrates
1. the trapezoid and trapezium without superimposition.
2. an open radioulnar articulation.
3. the ulnar styloid in profile.
4. superimposition of the medially located carpals.
a. 2 and 3 only
b. 2 and 4 only
c. 1, 3, and 4 only
d. 1, 2, 3, and 4

C

P. 50

15. A PA oblique wrist projection with poor positioning demonstrates an obscured trapeziotrapezoidal joint space and excessive trapezoid and capitate superimposition. How should the positioning setup be adjusted for an optimal image to be obtained?
a. Externally rotate the wrist.
b. Internally rotate the wrist.
c. Ulnar-deviate the wrist.
d. Unflex the hand.

B

P. 185

16. A lateral wrist projection obtained with the elbow flexed 90 degrees and the humerus placed parallel with the IR demonstrates
1. the ulnar styloid distal to the midline of the ulnar head.
2. superimposition of the radius and ulna.
3. superimposition of the distal scaphoid and pisiform.
4. the ulnar styloid in profile.
a. 1 and 2 only
b. 3 and 4 only
c. 1, 2, and 3 only
d. 2, 3, and 4 only

D

P. 186

17. The trapezium is demonstrated without superimposition of other anatomy on a lateral wrist projection when the patient
a. positions the wrist in slight internal rotation.
b. hyperextends the wrist.
c. depresses the distal first metacarpal.
d. ulnar-deviates the wrist.

C

PP. 189-190

18. A lateral wrist projection obtained with the wrist in slight internal rotation demonstrates the
1. distal scaphoid anterior to the pisiform.
2. radius posterior to the ulna.
3. distal scaphoid distal to the pisiform.
4. radius anterior to the ulna.
a. 1 and 2 only
b. 3 and 4 only
c. 1 and 4 only
d. 2 and 3 only

C

PP. 187-188

19. When the patient ulnar-deviates for a PA axial, ulnar-deviated wrist projection, the
1. first metacarpal and radius are aligned.
2. distal scaphoid shifts anteriorly.
3. lunate is demonstrated distal to the radius.
4. distal scaphoid shifts posteriorly.
a. 1 and 2 only
b. 3 and 4 only
c. 1, 3, and 4 only
d. 1, 2, and 3 only

C

PP. 192-193

20. A PA axial, ulnar-deviated wrist projection with poor positioning demonstrates a closed scaphocapitate joint and an open hamate-capitate joint. How should the positioning setup be adjusted for an optimal image to be obtained?
a. Increase the degree of external wrist rotation.
b. Decrease the degree of external wrist rotation.
c. Extend the fingers, with the hand flat.
d. Adjust the degree of central ray angulation.

B

P. 194

21. For a carpal canal wrist image, the
1. wrist is hyperextended until the long axes of the metacarpals are vertical.
2. hand is rotated 10 degrees internally until the fifth metacarpal is perpendicular to the IR.
3. central ray is angled 25 to 30 degrees proximally.
4. central ray is centered to the palm of the hand.
a. 1 and 4 only
b. 2 and 3 only
c. 1, 2, and 3 only
d. 1, 2, 3, and 4

D

PP. 198-199

22. A tangential, inferosuperior carpal canal wrist projection with accurate positioning demonstrates
a. superimposition of the pisiform and hamulus of the hamate.
b. the carpal canal.
c. the carpal bones with maximum elongation.
d. the fifth metacarpal.

B

PP. 198-199

23. A tangential, inferosuperior carpal canal wrist projection with poor positioning demonstrates superimposition of the pisiform and hamulus of the hamate. How should the positioning setup be adjusted for an optimal image to be obtained?
a. Externally rotate the hand.
b. Internally rotate the hand.
c. Decrease the central ray angulation.
d. Increase the central ray angulation.

B

PP. 198-199

24. To take advantage of the anode heel effect when imaging a forearm,
a. a detailed screen is used.
b. the elbow is positioned at the anode end of the x-ray tube.
c. the wrist is positioned at the anode end of the x-ray tube.
d. a 55- to 65-kVp technique is used.

C

P. 199

25. An IR that is large enough to extend at least 1 inch (2.5 cm) beyond the elbow and wrist joints for a forearm projection is
a. needed to record the elbow and wrist on the image.
b. needed so the beam can be tightly collimated.
c. not a required positioning procedure.
d. needed only when a joint problem is suspected.

A

PP. 202-203

26. An AP forearm projection with accurate positioning demonstrates the
1. radial styloid in profile laterally.
2. radial head superimposing the ulna by 0.25 inch (0.6 cm).
3. ulnar styloid in profile laterally.
4. humeral epicondyles in profile.
a. 1 and 3 only
b. 2, 3, and 4 only
c. 1, 2, and 4 only
d. 1, 2, 3, and 4

C

PP. 199-200

27. An AP forearm projection obtained with the wrist and elbow in lateral rotation demonstrates
1. superimposed first and second metacarpal bases.
2. the proximal radius superimposed over the ulna by more than 0.25 inch (0.6 cm).
3. superimposed fourth and fifth metacarpal bases.
4. the proximal radius and ulna without superimposition.
a. 1 and 2 only
b. 1 and 4 only
c. 2 and 3 only
d. 3 and 4 only

D

P. 200

28. Which of the following projections is used to prevent crossing of the forearm bones?
a. AP projection
b. PA projection

A

P. 200

29. A lateral forearm projection with accurate positioning demonstrates
1. the distal scaphoid slightly distal to the pisiform.
2. the ulnar styloid in profile.
3. an open elbow joint space.
4. the radial tuberosity in profile.
a. 1, 2, and 3 only
b. 1 and 3 only
c. 2 and 4 only
d. 1, 2, 3, and 4

A

PP. 204-205

30. A lateral forearm projection obtained in a patient with the proximal humerus elevated and the wrist internally rotated demonstrates the
1. radial head posterior to the coronoid process.
2. pisiform anterior to the distal scaphoid.
3. capitulum distal to the medial trochlea.
4. pisiform distal to the distal scaphoid
a. 1 and 2 only
b. 1 and 4 only
c. 1 and 3 only
d. 3 and 4 only

C

P. 205

31. An AP elbow projection with accurate positioning demonstrates
1. the medial and lateral humeral epicondyles in profile.
2. the radial tuberosity in profile medially.
3. an open capitulum-radial joint.
4. the ulna free of radial head and radial tuberosity superimposition.
a. 1 and 3 only
b. 2 and 4 only
c. 1, 2, and 3 only
d. 1, 2, 3, and 4

C

PP. 207-208

32. An AP elbow projection obtained with the elbow internally rotated demonstrates
1. the radial tuberosity in profile.
2. an open capitulum-radial joint space.
3. more than 0.25 inch (0.6 cm) of radial head and ulnar superimposition.
4. less than 0.25 inch (0.6 cm) of radial head and ulnar superimposition.
a. 1 and 3 only
b. 2 and 3 only
c. 2 and 4 only
d. 1, 2, and 3 only

B

P. 208

33. For an externally rotated AP oblique elbow projection with accurate positioning, the
1. capitulum is in profile.
2. capitulum-radial joint space is open.
3. coronoid process is in profile.
4. ulna is demonstrated without radial head superimposition.
a. 1, 2, and 4 only
b. 2, 3, and 4 only
c. 2 and 3 only
d. 1 and 4 only

A

PP. 212-213

34. An internally rotated AP oblique elbow projection with accurate positioning demonstrates which of the following structures in profile?
1. Capitulum
2. Radial head
3. Medial trochlea
4. Coronoid process
a. 1 and 2 only
b. 1 and 4 only
c. 2 and 3 only
d. 3 and 4 only

D

P. 212

35. A lateral elbow projection with accurate positioning demonstrates
1. an open elbow joint space.
2. the radial head distal to the coronoid process.
3. the radius superimposing the radial tuberosity.
4. the anterior fat pad.
a. 2 and 3 only
b. 1 and 4 only
c. 1, 3, and 4 only
d. 1, 2, 3, and 4

C

P. 217

36. A lateral elbow projection obtained with the wrist and hand pronated demonstrates
1. the radial head anterior to the coronoid.
2. the radial tuberosity in profile anteriorly.
3. an open elbow joint.
4. the radial tuberosity in profile posteriorly.
a. 2 only
b. 4 only
c. 3 and 4 only
d. 1 and 3 only

C

P. 218 | P. 220

37. A lateral elbow projection demonstrates the radial head situated anterior and proximal to the coronoid process. How was the patient positioned for such an image to be obtained?
1. The distal forearm was too high.
2. The distal forearm was too low.
3. The proximal humerus was too high.
4. The proximal humerus was too low.
a. 1 and 3 only
b. 1 and 4 only
c. 2 and 3 only
d. 2 and 4 only

B

P. 217

38. A lateral elbow projection obtained with the distal forearm positioned too low and the proximal humerus positioned too high demonstrates the
1. radial head distal and posterior to the coronoid process.
2. radial head proximal and anterior to the coronoid process.
3. capitulum posterior and proximal to the medial trochlea.
4. capitulum anterior and distal to the medial trochlea.
a. 1 and 3 only
b. 1 and 4 only
c. 2 and 3 only
d. 2 and 4 only

B

P. 218

39. What is the projection for the lateral finger?
a. Phalanges demonstrate equal concavity.
b. Phalanges demonstrate more concavity on one side than on the other.
c. Phalanges demonstrate concavity on one side and convexity on the other.

C

P. 155

40. What is the projection for the PA finger?
a. Phalanges demonstrate equal concavity.
b. Phalanges demonstrate more concavity on one side than on the other.
c. Phalanges demonstrate concavity on one side and convexity on the other.

A

PP. 150-151

41. What is the projection for the PA oblique finger?
a. Phalanges demonstrate equal concavity.
b. Phalanges demonstrate more concavity on one side than on the other.
c. Phalanges demonstrate concavity on one side and convexity on the other.

B

P. 151

42. Which side of the arm is positioned against the IR for the lateral second finger projection?
a. Ulnar
b. Radial

B

P. 155

43. Which side of the arm is positioned against the IR for the lateral fourth finger projection?
a. Ulnar
b. Radial

A

P. 155

44. Where are the soft tissue structures that can be used to indicate joint effusion located on the lateral wrist projection?
a. Anteriorly
b. Medially
c. Laterally
d. Posteriorly

A

P. 186

45. Where are the soft tissue structures that can be used to indicate joint effusion located on the PA wrist projection?
a. Anteriorly
b. Medially
c. Laterally
d. Posteriorly

C

P. 177

46. Where are the soft tissue structures that can be used to indicate joint effusion located on the ulnar-deviated PA axial wrist projection?
a. Anteriorly
b. Medially
c. Laterally
d. Posteriorly

C

P. 177

47. What is the central ray angulation used for the PA axial, ulnar-deviated wrist projection: a scaphoid wrist fracture is suspected, and the patient is unable to ulnar-deviate the wrist?
a. 15 degrees
b. 20 degrees
c. 5 to 10 degrees
d. 20 to 25 degrees

B

P. 193

48. What is the central ray angulation used for the PA axial, ulnar-deviated wrist projection: a scaphoid wrist fracture is suspected, and the patient is able to ulnar-deviate until the first metacarpal and radius are aligned?
a. 15 degrees
b. 20 degrees
c. 5 to 10 degrees
d. 20 to 25 degrees

A

PP. 194-195

49. What is the central ray angulation used for the PA axial, ulnar-deviated wrist projection: a proximal scaphoid fracture is suspected, and the patient is unable to ulnar-deviate the wrist?
a. 15 degrees
b. 20 degrees
c. 5 to 10 degrees
d. 20 to 25 degrees

C

PP. 194-195

50. What is the central ray angulation used for the PA axial, ulnar-deviated wrist projection: a distal scaphoid fracture is suspected, and the patient is able to ulnar-deviate until the first metacarpal and radius are aligned?
a. 15 degrees
b. 20 degrees
c. 5 to 10 degrees
d. 20 to 25 degrees

D

PP. 194-195

51. A less than optimal PA finger projection demonstrates unequal soft tissue width and midshaft concavity on each side of the phalanges. The side of the phalanges with the greatest midshaft concavity is facing the shortest finger metacarpal. All of the following are true about this projection except that the
a. finger was internally rotated.
b. projection will demonstrate more soft tissue width on the lateral surface.
c. projection will demonstrate open IP and MP joints as long as the digit remains parallel with the IR.
d. projection will demonstrate less phalangeal concavity on the lateral surface.

B

PP. 150-151

52. A less than optimal lateral hand projection demonstrating the longest of the second through fifth metacarpal midshafts situated anterior to the others
a. was obtained with the hand internally rotated.
b. may result if the central ray was centered too anteriorly.
c. will also demonstrate closed IP joints.
d. will also demonstrate the distal scaphoid posterior to the pisiform.

A

PP. 173-174

53. An optimally positioned PA wrist projection demonstrates all of the following except
a. an open radioulnar articulation.
b. open second through fifth MC joint spaces.
c. alignment of the long axis of the third metacarpal and midforearm.
d. the pronator fat stripe.

D

PP. 175-177

54. A less than optimal PA wrist projection demonstrates an elongated scaphoid and the second through fourth metacarpals superimposing the CM joint spaces. Which of the following is true about this projection?
a. The wrist was in ulnar flexion.
b. The wrist was flexed.
c. The hand was overflexed.
d. The wrist was externally rotated.

C

PP. 178-179

55. A poorly positioned PA oblique wrist projection demonstrates superimposition of the trapezoid and trapezium, and the capitate is superimposed by the trapezoid. How should the positioning setup be adjusted to obtain an optimal projection?
a. Align the third metacarpal and midforearm, decreasing radial flexion.
b. Increase the degree of medial wrist rotation.
c. Decrease the degree of medial wrist rotation.
d. Increase hand extension.

C

P. 185

56. A less than optimal lateral wrist projection demonstrating the distal scaphoid anterior to the pisiform
a. will also demonstrate the distal scaphoid proximal to the pisiform.
b. will also demonstrate the ulna anterior to the radius.
c. was obtained with the wrist in ulnar flexion.
d. was obtained with the wrist internally rotated.

D

PP. 187-188

57. An optimal ulnar-deviated PA axial (scaphoid) wrist projection demonstrates all of the following except
a. the scaphoid fat stripe.
b. open scaphotrapezium and scaphotrapezoidal joint spaces.
c. a closed radioscaphoid joint space.
d. alignment of the long axis of the first metacarpal and radius.

C

PP. 192-193

58. What is the degree of central ray angulation that should be used for an ulnar-deviated PA axial (scaphoid) wrist projection being obtained to demonstrate a proximal scaphoid fracture?
a. Use a 10-degree angle if the first metacarpal and ulna are aligned.
b. Use a 25-degree angle if the first metacarpal and ulna are not aligned.
c. Use a 15-degree angle if the first metacarpal and ulna are aligned.
d. Use a 20-degree angle if the first metacarpal and ulna are not aligned.

A

P. 193

59. A less than optimal ulnar-deviated PA axial (scaphoid) wrist projection demonstrates closed scaphotrapezium, scaphotrapezoidal, and CM joint spaces. How should the positioning setup be adjusted to obtain an optimal projection?
a. Externally rotate the wrist until it is at a 25-degree angle with the IR.
b. Extend the hand, positioning it flat against the IR.
c. Increase the degree of hand flexion.
d. Increase the degree of ulnar deviation until the first metacarpal and ulna are aligned.

B

P. 193

60. An optimal AP elbow projection is obtained when
a. an imaginary line connecting the humeral epicondyles is aligned perpendicular with the IR.
b. the radial tuberosity is demonstrated in profile laterally.
c. the radial head articulating surface is demonstrated.
d. the radial head superimposes the lateral aspect of the proximal ulna by 0.25 inch (0.6 cm).

D

PP. 207-208

61. A less than optimal AP elbow projection demonstrating the ulna without radial head superimposition
a. was obtained with the elbow in external rotation.
b. will also demonstrate the radial head articulating surface.
c. was obtained with the hand pronated.
d. was obtained with the elbow in internal rotation.

A

P. 208

62. An optimal internally rotated AP oblique elbow projection will demonstrate all of the following except the
a. radial head and neck superimposing the ulna.
b. radioulnar articulation as an open space.
c. trochlea-coronoid process articulation as an open space.
d. trochlear notch and medial trochlea in profile.

B

P. 212

63. Which of the follow statements is true as demonstrated on a lateral elbow projection?
a. When the wrist is in a lateral projection, the radial tuberosity is superimposed by the radius.
b. The radial tuberosity should be demonstrated in profile posteriorly for optimal positioning.
c. When the hand is pronated, the radial tuberosity is seen in profile anteriorly.
d. When the hand is supinated, the radial tuberosity is superimposed by the radius.

A

P. 217

64. A less than optimal lateral elbow projection demonstrating the radial head positioned posterior to the coronoid process
a. will be obtained when the distal forearm is elevated.
b. will be obtained when the proximal humerus is depressed.
c. will also demonstrate the capitulum distal to the trochlea.
d. could also result if the central ray were angled proximally with the humerus.

C

P. 218 | P. 220

65. A less than optimal lateral elbow projection demonstrating the capitulum posterior to the medial trochlea will
a. also demonstrate the coronoid proximal to the radial head.
b. be obtained when the distal forearm is elevated.
c. also demonstrate the medial trochlea proximal to the capitulum.
d. be obtained when the distal humerus is elevated.

B

P. 218 | P. 220

66. Which of the following is not true about an optimal axiolateral elbow projection (Coyle method)?
a. The elbow is flexed 90 degrees.
b. The proximal aspects of the radial head and the coronoid process are aligned.
c. The capitulum-radial joint is open.
d. The capitulum and medial trochlea demonstrate slight superimposition.

D

PP. 223-224

67. To properly position an AP humerus, place the elbow at the _____ end of the tube, _____ the hand and wrist, and align the humeral condyles _____ with the IR.
a. anode; supinate; parallel
b. cathode; supinate; perpendicular
c. anode; pronate; perpendicular
d. cathode; supinate; parallel

A

P. 226

68. A properly positioned tangential projection of the wrist will demonstrate which of the following?
1. Flexor retinaculum anteriorly and the capitate posteriorly
2. Scaphoid and trapezium laterally
3. Scaphoid and trapezoid medially
4. Pisiform and hamate medially
5. Flexor retinaculum posteriorly and the capitate anteriorly
6. Pisiform and hamate laterally
a. 1, 3, and 4 only
b. 1, 2, and 4 only
c. 3, 5, and 6 only
d. 3, 4, and 5 only

B

Sets with similar terms

chapter 4

39 terms

remco2008

Rad 112 final getting started, 3,4,5

84 terms

hwharrison

RADT 1030 Upper Limb: Radiographic Proce…

70 terms

Lisa_Bracken

RAD 111 Unit III

262 terms

katlyncasey

Sets found in the same folder

CH 3 Radiographic image analysis

17 terms

thuz_ag

Clinical I Image Analysis Midterm

71 terms

crouse920

Image Analysis Chapter 6

69 terms

thuz_ag

Image Analysis Chapter 1

41 terms

Spade187

Other sets by this creator

FINAL EXAM RADREVIEW

130 terms

thuz_ag

Radreview

458 terms

thuz_ag

RADREVIEW

674 terms

thuz_ag

ARRT Radiography Exam Review

760 terms

thuz_ag

Recommended textbook solutions

Atkins Physical Chemistry

10th EditionJulio de Paula, Peter Atkins

1,315 solutions

Fundamentals of Physics

10th EditionDavid Halliday, Jearl Walker, Robert Resnick

8,452 solutions

Sears and Zemansky's University Physics

14th EditionHugh D. Young, Roger A. Freedman

7,362 solutions

Physics for Scientist and Engineers

3rd EditionHans C. Ohanian, Hans Ohanian, H C Ohanian, John T. Markert

1,487 solutions

Other Quizlet sets

Cell Signaling- Receptors

28 terms

ldaly12

Exam 2-Lecture 9

40 terms

ctiek

QUIZ 2

10 terms

doremi_omega

Readings in Phil. History

24 terms

maschenny

Which projection of the elbow will demonstrate the radial head and neck free of superimposition?

Which projection shows the coronoid process free of superimposition?

What structure forms the projection at the elbow?

Which portion of the humerus articulates with the radial head?