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Chapter 6 Radiographic Positioning

front 1

1. The three bones of the ankle form a deep socket into which the talus fits. The socket is called the?

back 1

ankle mortise

front 2

2. The distal tibial joint surface forming the roof of the distal ankle joint is called the?

back 2

Tibial plafond

front 3

3. The medial malleolus is approximately 1/2 inch posterior to the lateral malleolus.

back 3

False

front 4

4. The ankle joint is classifies as a synovial joint with _________ type of movement.

back 4

sellar

front 5

5. The ___ is the weight-bearing bone of the lower leg.

back 5

Tibia

front 6

6. What is the name of the small prominence located on the posterolateral aspect of the medial condyle of the femur that is an identifying landmark of to determine possible rotation of a lateral knee?

back 6

Adductor tubercle

front 7

7. What is the name of the large prominence located on the midanterior surface of the proximal tibia that serves as an attachment for the patellar tendon?

back 7

Tibial tuberosity

front 8

8. A small, triangular depression located on the tibia that helps form the distal tibiofibular joint is called the?

back 8

Fibular notch

front 9

9. The articular facets of the proximal tibia are also referred to as the?

back 9

tibial plateau

front 10

10. The articular facets slope is ____ posteriorly

back 10

10 to 15

front 11

11. The most proximal aspect of the fibula is the

back 11

Apex of styloid process

front 12

12. The extreme distal end of the fibula forms the

back 12

lateral malleolus

front 13

13. Largest sesamoid bone in the body?

back 13

Patella

front 14

14. What are two other names for the patellar surface of the femur?

back 14

Intercondylar sulcus and trochlear groove.

front 15

15. What is the name of the depression located on the posterior aspect of the distal femur?

back 15

Intercondylar notch

front 16

16. Why must the central ray be angled 5 degrees to 7 degrees cephalad for a lateral knee projection.

back 16

Because the medial condyle extends lower than the lateral condyle of the femur.

front 17

17. The slightly raised area located on the posterolateral aspect of the medial femoral condyle is called

back 17

Adductor tubercle

front 18

18. What are the palpable bony landmarks found on the distal femur?

back 18

Medial epicondyle and lateral epicondyle

front 19

19. The general region of the posterior knee is called?

back 19

Popliteal region

front 20

20.True or false. Flexion of 20 degrees of the knee forces the patella firmly against the patellar surface of the femur

back 20

false

front 21

21. True or False: The patella acts like a pivot to increase the leverage of a large muscle found in the anterior thigh.

back 21

True

front 22

22. True or False: The posterior surface of the patella is normally rough

back 22

false

front 23

23. For which large muscle does the patella serve as a pivot to increase the leverage

back 23

Quadriceps femoris muscle

front 24

24. Between the patella and distal femur is what joint

back 24

patella femoral

front 25

25. Between the two condyles of the femur and tibia is what joint

back 25

femorotibial

front 26

26. Four major ligaments of the knee

back 26

Fibular collateral, Tibial collateral, Anterior cruciate, posterior cruciate.

front 27

27. The crescent-shaped fibrocartilage disks that act as shock absorbers in the knee joint are called

back 27

medial and lateral menisci

front 28

28. Two bursa that are found in the knee joint

back 28

Suprapatellar and infrapatellar bursa

front 29

29. Match the following to the correct bone: tibial plafond

back 29

Tibia

front 30

30. Match the following to the correct bone: medial malleolus

back 30

Tibia

front 31

31. Match the following to the correct bone: lateral epicondyle

back 31

Distal femur

front 32

32. Match the following to the correct bone: Patellar surface

back 32

Distal femur

front 33

33. Match the following to the correct bone: articular facets

back 33

Tibia

front 34

34. Match the following to the correct bone: fibular notch

back 34

Tibia

front 35

35. Match the following to the correct bone: styloid process

back 35

Fibula

front 36

36. Match the following to the correct bone: base

back 36

Patella

front 37

37. Match the following to the correct bone: Intercondyloid eminence

back 37

Tibia

front 38

38. Match the following to the correct bone: Neck

back 38

Fibula

front 39

39. Match the following articulations to the correct joint classification or movement type: Ankle Joint

back 39

Sellar (saddle)

front 40

40. Match the following articulations to the correct joint classification or movement type: Patellofemoral

back 40

Sellar (saddle)

front 41

41. Match the following articulations to the correct joint classification or movement type: Proximal tibiofibular

back 41

Plane (gliding)

front 42

42. Match the following articulations to the correct joint classification or movement type: Knee joint

back 42

Bicondylar

front 43

43. Match the following articulations to the correct joint classification or movement type: Distal tibiofibular

back 43

Amphiarthrodial (syndesmosis type)

front 44

44. True or false: The recommendation SID for lower limb radiography is 40 ich

back 44

True

front 45

45. True or false: Multiple images can be placed on the same IR when using analog imaging systems.

back 45

True

front 46

46. T or F: with careful and close collimation, gonadal shielding does not have to be used during lower limb radiography.

back 46

False

front 47

47. T or F: A kV range between 50 and 70 should be used for analog lower limb radiography.

back 47

True

front 48

48. T or F: A kV range for digital imaging is typically lower as compared with film-screen ranges.

back 48

False

front 49

49. Osgood-schlatter disease

back 49

An inflammatory condition involving the anterior, proximal tibia

front 50

50. Also known as osteitis deformans

back 50

Paget's disease

front 51

51. Malignant tumor of the cartilage

back 51

chondroscarcoma

front 52

52. Inherited type of arthritis that commonly affects males

back 52

Gout

front 53

53. Benign, neoplastic bone lesion caused by overproduction of bone at a joint

back 53

Exostosis

front 54

54. Benign bone lesion usually developing in teens or young adults

back 54

Osteoid osteoma

front 55

55. Most prevalent primary bone malignancy in pediatric patients

back 55

Ewing's sarcoma

front 56

56. Benign, neoplastic bone lesion located between the base of the first and second metatarsal

back 56

Lisfranc joint injury

front 57

57. condition affecting the sacroiliac joints and lower limbs of young men, especially the posterosuperior margin of the calcaneus

back 57

Reiter's syndrome

front 58

58. Former name for runners knee

back 58

Chondromalacia patella

front 59

59. Another term for osteomalacia

back 59

Ricketts

front 60

60. Asymmetric erosion of joint spaces with a calcaneal erosion

back 60

Reiter's syndrome

front 61

61. Uric acid deposits in joint spaces

back 61

Gout

front 62

62. Well-circumscribed lucency

back 62

Bone cyst

front 63

63. Small, round/oval density with lucent center

back 63

osteoid osteoma

front 64

64. Narrowed, irregular joint surfaces with sclerotic articular surfaces

back 64

Osteoarthritis

front 65

65. Fragmentation or detachment of the tibial tuberosity

back 65

Osgood-Schlatter disease

front 66

66. Ill-defined area of bone destruction with surronding "onion peel"

back 66

Ewing's sarcoma

front 67

67. Decreased bone density and bowing deformities of weight-bearing limbs

back 67

Osteomalacia

front 68

68. Which calcaneal structure should appear medially on a well-positioned plantodorsal axial projection?

back 68

Sustentaculum tali

front 69

69. Where is the central ray placed for a mediolateral projection of the calcaneus?

back 69

1 inch inferior to medial malleolus

front 70

70. Which joint surface of the ankle is not typically visualized with a correctly positioned AP projection of the ankle

back 70

lateral surface of the joint

front 71

71. Why should AP, 45 oblique, and lateral ankle radiographs include the proximal metatarsals

back 71

To demonstrate a possible fracture of the fifth metatarsal tuberosity (a common fracture site)

front 72

72. How much if any should the foot and ankle be rotated for an AP mortise projection of the ankle?

back 72

15 - 20 medially

front 73

73. Which projection of the ankle best demonstrates a possible fracture of the lateral malleolus

back 73

AP oblique with 45 medial rotation

front 74

74. With a true lateral projection of the ankle, the lateral malleolus is

back 74

projected over the posterior aspect of the distal tibia

front 75

75. Which projections of the ankle require forced inversion and eversion movements

back 75

AP stress projections

front 76

76. What is the basic positioning routine for a study of the tibia and fibula

back 76

AP and lateral

front 77

77. Why is it important to include the knee joint for an initial study of tibia trauma, even if the patient's symptoms involve the middle and distal aspect

back 77

A fracture may also be present at the proximal fibula in addition to distal

front 78

78. To include both joints for a lateral projection of the tibia and fibula for an adult, the technologist may place the cassette _____ in relation to the part.

back 78

Diagonal

front 79

79. What is the recommended central ray angulation for an AP projection of the knee for a patient with thick thighs and buttocks ( greater than 24 cm)

back 79

3 to 5 degrees caudad

front 80

80. Where is the central ray centered for an AP projection of the knee?

back 80

1/2 inch distal to apex of patella

front 81

81. Which basic projection of a knee best demonstrates the proximal fibula free of superimposition

back 81

AP oblique, 45 degrees medial rotation

front 82

82. For the AP oblique projection of the knee, the ____ rotation best visualizes the lateral condyle of the tibia and the head and neck of the fibula

back 82

medial

front 83

83. What is the recommended central ray placement for a lateral knee position on a tall, slender male patient with a narrow pelvis (without support of the lower leg)

back 83

5 degree cephalad

front 84

84. How much flexion is recommended for a lateral projection of the knee

back 84

20 - 30 degrees

front 85

85. Which positioning error is present if the posterior portions of the femoral condyles are not superimposed on a radiograph of a lateral knee on a average patient

back 85

Improper angle of CR

front 86

86. Which positioning error is present if the posterior portion of the femoral condyles are not superimposed on a lateral knee radiograph

back 86

Over rotation (towards IR) or under rotation of knee (away from IR)

front 87

87. Which anatomic structures of the femur can be used to determine which rotation error (over rotated or under rotated) is present on a slightly rotated lateral knee radiograph?

back 87

Adductor tubercle on posterior lateral aspect of medial femoral condyle

front 88

88. Which special projection of the knee best evaluates the knee joint for cartilage degeneration or deformities?

back 88

AP or PA weight bearing knee

front 89

89. What is the best modality to examine ligament injuries to the knee

back 89

MRI

front 90

90. Which special projections of the knee best demonstrates the intercondylar fossa?

back 90

Holmblad

front 91

91. How much flexion of the lower leg is required for the PA axial projection (camp-Coventry method) when the central ray is angled 40 degrees caudad

back 91

40 degree flexion

front 92

92. Why is the PA axial projection for the intercondylar fossa recommended instead of an AP axial projection?

back 92

Distortion caused by central ray angle and increased OID for AP axial projection.

front 93

93. What type of CR angulation is required for the PA axial weight-bearing projection (Rosenberg method)

back 93

10 degrees caudad

front 94

94. How much flexion of the knees is required for the PA axial weight-bearing projection (Rosenberg method)

back 94

45 degrees

front 95

95. How much knee flexion is required for the PA axial projection (Holmblad method)

back 95

60-70 degrees

front 96

96. What type of CR angle is required for the PA axial (Holmblad method)

back 96

None. CR is perpendicular to IR

front 97

97. T or F: To place the interepicondylar line parallel to the IR for a PA projection of the patella, the lower limb must be rotated approximately 5 degrees internally.

back 97

True

front 98

98. How much part flexion is recommended for a lateral projection of the patella

back 98

5-10 degrees

front 99

99. How much central ray angle from the long axis of the femora is required for a tangential (merchant method) bilateral projection

back 99

30 degrees from horizontal

front 100

100. How much part flexion is required for the (Hughston method)

back 100

55 degrees

front 101

101. How much part flexion is required for the (Settegast method)

back 101

90 degrees

front 102

102. What type of CR angle is required for the superoinferior sitting tangential method for the patella?

back 102

None. CR is perpendicular to IR

front 103

103. Knee projection that can be performed using a wheelchair or lowered radiographic table

back 103

Holmblad method

front 104

104. Knee projection with the patient prone; requires 90 knee flexion

back 104

Settegast method

front 105

105. Knee projection with patient prone with 40 to 50 degree knee flexion and with equal 40 to 50 degree caudad CR angle

back 105

Camp Coventry method

front 106

106. Knee projection when the IR is placed on a footstool to minimize OID

back 106

Hobbs modification

front 107

107. Knee projection with the patient prone with 55 degree knee flexion and 15 degree to 20 degree CR angle from long axis of lower leg.

back 107

Hughston method

front 108

108. Knee projection with patient supine with cassette resting on midthighs

back 108

Inferosuperior for patellofemoral joint

front 109

109. Knee projection with patient supine with 40 degree knee flexion and with 30 degree caudad CR angle from horizontal

back 109

Merchant method

front 110

110. Which of the following special projections of the knee must be performed erect.

Rosenberg method

Settegast method

Camp-Coventry method

Hughston Method

back 110

Resenburg method

front 111

111. How much knee flexion is required for the horizontal beam lateral patella projection

back 111

None

front 112

112. A lateral knee radiograph that is overrotated toward the image receptor can be recognized by what?

back 112

The fibular head will appear less superimposed by the tibia than a true lateral.

front 113

113.What CR angle should be used for a lateral projection of the knee on a short, wide-pelvis patient

back 113

7-10 degrees cephalad

front 114

114. Which special position of the knee requires that the patient be placed supine with 40° flexion of knee with CR angled 30 degrees from long axis of femur?

back 114

bilateral merchant method

front 115

115. The posterior visibility of the adductor tubercle on a lateral knee projection indicates:

back 115

underrotation of knee toward the IR.

front 116

116. Situation: A radiograph of a lateral projection of the patella reveals that the femoropatellar joint space is not open. The patella is within the intercondylar sulcus. The most likely cause of this is:

back 116

excessive flexion of knee

front 117

117. Situation: A radiograph of an AP knee reveals rotation with almost total superimposition of the fibular head and the proximal tibia. What must the technologist do to correct this positioning error on the repeat exposure?

back 117

rotate knee slightly medial

front 118

118. Situation: A radiograph of a PA axial projection for the intercondylar fossa does not demonstrate the fossa well. It is foreshortened. The following positioning factors were used: patient prone, knee flexed 40 to 45, CR angled to be perpendicular to the femur, 40-inch SID, and no rotation of the lower limb. Based on the factors used, what changes need to be made to produce a more diagnostic image?

back 118

CR must be perpendicular to lower leg

front 119

119. Situation: A radiograph of a AP mortise projection of the ankle reveals that the lateral malleolus is slightly superimposed over the talus and the lateral joint space is not open. What is most likely the cause for this radiographic outcome?

back 119

insufficient medial rotation of foot and ankle

front 120

120. Situation: A patient comes to radiology with a clinical history of osteoarthritis of both knees. The referring physician wants a projection to evaluate the damage to the articular facets. Which of the following projections will provide the best image of this region of the knee?

back 120

PA axial weight-bearing bilateral knee projection (Rosenberg method)

front 121

121. Situation: A geriatric patient comes to the radiology department for a study of the knee. The patient is unsteady and unsure of himself. Which intercondylar fossa projection would provide the best results without risk of injury to the patient?

back 121

camp-coventry method

front 122

122. Situation: A patient comes to radiology with a history of chondromalacia of the patella. Her physician orders a projection of the patellofemoral joint space. Due to advanced emphysema, the patient cannot lie recumbent for this projection. Which of the following projections would be best for this patient?

back 122

Superoinferior sitting tangential method

front 123

123. For the AP weight-bearing knee projection on an average patient, the CR should be:

back 123

perpendicular to image receptor

front 124

124. Which of the following projections of the patella requires the patient to be placed in a prone position, a 45° flexion of the knee, and a 15° to 20° angle of the CR?

back 124

hughston method

front 125

125. Which of the following knee projection requires the use of a special IR holding device?

back 125

bilateral merchant method