Medical tests ophthalmology. Proficiency Test in Ophthalmology


QUALIFICATION TESTS

IN OPHTHALMOLOGY 2007

Edited by prof. L.K. Moshetova
SECTION I.

DEVELOPMENT OF NORM. ANATOMY AND HISTOLOGY OF THE VISUAL ORGAN
CHOOSE ONE CORRECT ANSWER:

1. The thinnest wall of the orbit is:

a) outer wall;

b) upper wall;

V) inner wall;

d) bottom wall;

e) upper and inner

2. The optic nerve canal serves to pass:

A) optic nerve;

b) abducens nerve

c) oculomotor nerve

d) central retinal vein

e) frontal artery

3. The lacrimal sac is located:

a) inside the eye socket;

b) outside the orbit;

c) partly inside and partly outside the orbit.

e) in the middle cranial fossa

4. For eyelid wounds, tissue regeneration:

a) high;

b) low;

c) does not differ significantly from tissue regeneration in other areas of the face;

d) lower than other areas of the face.

d) higher than other areas of the face

5. Tear-producing organs include:

A) lacrimal gland and accessory lacrimal glands;

b) lacrimal openings;

c) lacrimal canaliculi;

d) nasolacrimal duct

6. The nasolacrimal duct opens in:

A ) lower nasal passage;

b) middle nasal meatus;

c) upper nasal passage;

d) into the maxillary sinus

e) into the main sinus.

7. The sclera has the greatest thickness in the area:

A) limba;

b) the equator;

c) optic nerve head;

d) under the rectus tendon.

e) under the tendon of the oblique muscles

8. The cornea consists of:

a) two layers;

b) three layers;

c) four layers;

G) five layers;

e) six layers.

9. The layers of the cornea are located:

A) parallel surface of the cornea;

b) chaotic;

c) concentrically;

d) in an oblique direction

10. Nutrition of the cornea is provided by:

A ) marginal looped vascular network;

b) central retinal artery;

c) lacrimal artery;

d) anterior ciliary arteries

e) supratrochlear artery

11. The optic nerve head is located:

A) in the center of the fundus;

c) in the temporal half of the fundus;

d) in the upper half of the fundus

e) outside the fundus.

12. The functional center of the retina is:

a) optic disc;

b) fovea;

c) dentate line zone;

d) vascular bundle.

e) juxtapapillary zone.

13. The optic nerve leaves the orbit through:

a) superior orbital fissure;

b) Gog. irrigates;

c) inferior orbital fissure

d) round hole

e) maxillary sinus

14. The vascular tract performs:

A) trophic function;

b) light refraction function;

d) protective function

e) support function

15. The retina performs the function:

a) refraction of light;

b) trophic;

V) perception of light;

d) protective function

e) support function

16. Intraocular fluid is produced mainly by:

a) iris;

b) choroid;

c) lens;

G) ciliary body.

d) cornea.

17. Tenon’s capsule separates:

a) choroid from the sclera;

b) retina from the vitreous body;

V) eyeball from orbital tissue;

d) there is no correct answer

e) cornea from sclera

18. Bowman's membrane is located between:

A) corneal epithelium and stroma;

b) stroma and Descemet’s membrane;

c) Descemet’s membrane and endothelium;

d) layers of the retina

19. The choroid nourishes:

A) outer layers of the retina;

b) inner layers of the retina;

c) the entire retina;

d) optic nerve.

e) sclera

20. The motor apparatus of the eye consists of... extraocular muscles:

a) four;

V) six;

d) eight;

d) ten.

21. “Muscle funnel” originates from:

A) round hole;

b) optic opening;

c) superior orbital fissure;

d) inferior orbital fissure.

e) the inner wall of the orbit

22. The arterial circle of Haller is formed by:

a) long posterior ciliary arteries;

b) short posterior ciliary arteries;

c) ethmoidal arteries;

d) muscle arteries;

d) all of the above

23. The central retinal artery supplies:

a) choroid;

b) inner layers of the retina;

c) outer layers of the retina;

d) vitreous body;

d) sclera

24. The orbital nerve is:

A) sensory nerve;

b) motor nerve;

c) mixed nerve;

d) parasympathetic nerve;

e) sympathetic nerve.

25. In the area of ​​chiasm crosses % optic nerve fibers:


b) 50%;
d) 100%
26. Eye development begins at:

A) 1-2 weeks of intrauterine life;

b) 3rd week -»-;

c) 4th week -»-;

d) 5th week -»-.

d) 10th week -“-

27. The choroid is formed:

A) Mesoderm

b) Ectoderm

c) Mixed nature

d) neuroectoderm

e) Endoderm

28. The retina is formed from:

A) Ectoderm

b) Neuroectoderms

c) Mesoderm

d) Endoderm

d) Mixed nature
CHOOSE THE CORRECT ANSWER ACCORDING TO THE DIAGRAM:

A) if answers 1, 2 and 3 are correct;

B) if answers 1 and 3 are correct;

C) if answers 2 and 4 are correct;

D) if the correct answer is 4;

D) if answers 1,2,3,4 and 5 are correct.
29. d Through the superior orbital fissure passes:

1) ophthalmic nerve;

2) oculomotor nerves;

3) main venous collector;

4) abducens nerve; 5) trochlear nerve

30. b Eyelids are:

1) an accessory part of the organ of vision;

2) the top of the orbit

3) protective apparatus of the organ of vision;

4) side wall of the orbit

5) do not relate to the organ of vision

31. d The branches of the ophthalmic artery are:

1) central retinal artery

2) lacrimal artery;

3) supraorbital artery;

4) frontal artery;

5) supratrochlear artery

32. a The outflow of blood from the eyelids is directed:

1) towards the veins of the orbit;

2) towards the facial veins;

4) towards the upper jaw

5) towards the cavernous sinus

33. a Pericorneal injection indicates:

1) conjunctivitis;

2) increased intraocular pressure;

3) inflammation of the vascular tract;

4) damage to tear-producing organs;

5) intraocular foreign body

34.d The lacrimal gland is innervated by:

1) parasympathetic nervous system;

2) sympathetic nervous system;

3) mixed type;

4) facial and trigeminal nerves

5) abducens nerve

35. d The outflow of fluid from the anterior chamber occurs through:

1) pupil area;

2) lens capsule;

3) ligaments of Zinn

4) trabecular zone

5) iris zone

36. d The position of the jagged line corresponds to:

1) limbus projection zone;

2) the place of attachment of the rectus tendons;

3) trabecular projection zone

4) behind the projection zone of the ciliary body;

37.a The choroid consists of a layer:

1) small vessels;

2) middle vessels

3) large vessels;

4) nerve fibers

38. a The optic nerve has sheaths:

1) soft shell

2) arachnoid membrane;

3) internal elastic

4) hard shell

39.d The moisture of the anterior chamber serves to

1) nutrition of the cornea and lens;

2)removal of waste metabolic products

3) maintaining normal ophthalmotonus

4) light refraction;

40. d Within the “muscular funnel” there is:

1) optic nerve;

2) ophthalmic artery;

3) oculomotor nerve

4) abducens nerve;

5) trochlear nerve;.

41.e The vitreous body performs all functions:

1) trophic function;

2) “buffer” function;

3) light-conducting function; 4) support function

5) maintaining ophthalmotonus

42. a The tissues of the orbit receive nutrition from sources:

1) ethmoidal arteries;

2) lacrimal artery;

3) ophthalmic artery;

4) central retinal artery.

5) middle cerebral artery

43.e The blood supply to the eyeball is carried out by vessels::

1) ophthalmic artery

2) central retinal artery;

3) posterior short ciliary arteries;

4) anterior ciliary arteries

5) posterior long ciliary arteries

44.d Short posterior ciliary arteries supply:

1) cornea;

2) iris;

3) sclera;

4) outer layers of the retina;

5) inner layers of the retina.

45.b Blood supply to the ciliary body and iris is carried out:

1) long posterior ciliary arteries;

2) short posterior ciliary arteries;

3) anterior ciliary arteries

4) ethmoidal arteries;

5) medial arteries of the eyelids;

46.e The outflow of blood from the tissues of the orbit is carried out through:

1) superior ophthalmic vein;

2) inferior ophthalmic vein;

3) central retinal vein

4) superior temporal branch of the central retinal vein

5) inferotemporal branch of the central retinal vein

47. a Motor innervation of extraocular muscles is carried out by the following structures:

1) oculomotor nerve;

2) abducens nerve;

3) trochlear nerve;

4) trigeminal nerve

5) trigeminal node

SECTION 2

PHYSIOLOGY OF THE VISUAL ORGAN.

A. intense total opacification of the cornea;

B. total cataract;

B. central retinal degeneration;

G. complete atrophy of the optic nerve;

D. retinal rupture in the macular zone.

55. The functional state of the cone apparatus of the retina is determined by:

A. light perception;

B. state of light adaptation;

IN. visual acuity;

G. boundaries of peripheral vision;

56. Tempo adaptation should be studied in patients with:

A . retinal abiotrophy;

B. mild to moderate myopia;

B. hypermetropia with astigmatism;

G. strabismus;

D. refractive amblyopia.

57. The formation of binocular vision is possible only when high vision of the right and left eyes is combined with:

A. orthophoria;

B. exophoria;

B. esophoria;

G. lack of fusion.

58. The adaptive ability of the visual analyzer is determined by the ability to:

A. see objects in low light;

B. distinguish light;

IN. adapt to light of different brightness levels;

D. see objects at different distances;

D. distinguish shades of different colors.

B. 20° from the bow side;

IN. 15° on the temporal side;

D. 25° on the temporal side;

D. 30° from the temporal side.

65. Erythropsia is the vision of all surrounding objects in:

A. blue;

B. yellow color;

IN. red;

G. green color.

B. increased intraocular pressure;

B. increased blood pressure in the vascular bed of the eye;

G . dilation of the vessels of the marginal loop network and increased blood supply to this part of the vascular network of the eye;

D. significant thinning of the walls of the vessels of the marginal loop network.

95. The formation of a normal tetrahedral shape of the orbit is observed in a child already at the age of:

A. 1-2 months of life;

B. 3-4 months of life;

B. 6-7 months of life;

G. 1 year of life;

D. 2 years of life.

A. moment of birth;

B. 2-3 months of life;

B. 6 months of life;

G. 1 year of life;

D. 2-3 years of life.

97. In response to the installation of mydriatics, maximum pupil dilation can be obtained in a child already at the age of:

A. 10 days of life;

B. first month of life;

B. the first 3-6 months of life;

G. 1 year of life;

D. 3 years of age and older.

98. Pain sensitivity of the ciliary body is formed in a child only to:

A. 6 months of life;

B. 1 year of life;

B. 3 years of age;

G. 5-7 years of life;

D. 8-10 years of life.

A. more than 70%

B. over 30%;

107. The refractive power of the lens in an adult is on average:

A. 10 diopters;

B. 20 diopters;

V. 30 diopters;

G. 40 diopters;

108. From the layer of large vessels of the choroid,... vorticose veins are formed:
B. 4-6;
G. 10.

109. By approximately 1 year of a child’s life, the following layers of the retina disappear in the macular area:

A. from the second to the third;

B. from third to fourth;

IN . from fifth to ninth;

110. Choroidal vessels are most clearly visible during ophthalmoscopy in:

A. blondes;

B. brown-haired;

V. brunettes;

G. persons of the black race;

D. albinos.

111. In a healthy adult, the ratio of the caliber of the arteries and veins of the retina is normally:


B. 1:1.5;
G. 2:3;
112. Electroretinogram reflects the functional state:

A. inner layers of the retina;

B. outer layers of the retina;

B. subcortical visual centers;

G. cortical visual centers.

113. The threshold of electrical sensitivity reflects the functional state:

A. outer layers of the retina;

B. inner layers of the retina;

B. papillomacular bundle of the optic nerve;

G. subcortical visual centers;

D. cortical visual centers.

114. The lability index, measured by the critical frequency of phosphene disappearance, characterizes the functional state:

A. outer layers of the retina;

B. inner layers of the retina;

IN. conduction tracts (papillomacular bundle);

G. subcortical centers of the visual analyzer.

115. An electroencephalogram performed during a comprehensive examination of a patient with damage to the visual analyzer allows one to judge the functional state:

A. outer layers of the retina;

B. conductive pathways of the visual analyzer;

IN. cortical and (partly) subcortical visual centers;

D. inner layers of the retina.

116. Normal visual acuity in a newborn child is:

A. thousandths fractions of a unit;
V. 0.02;
D. 0.05.

117. Normal visual acuity in children 6 months of age is:
B. 0,1-0,2;

118. Normal visual acuity in children 3 years of age is:

G. 0, 6 and above;

D. 0.8 and above.

119. Normal visual acuity in children 5 years of age is:

D. 0.7-0.8 and above.

120. Normal visual acuity in children 7 years of age is:

D. 1,0.

Home > Tests

TESTS ON THE TOPIC:

QUALIFICATION TESTS IN OPHTHALMOLOGY (Apr 2007)

(full list)

1. Development, normal anatomy and histology

Please indicate one correct answer

1. 001. The thinnest wall of the orbit is:

a) outer wall

b) upper wall

c) inner wall

d) bottom wall

e) upper and inner

2. 002. The optic nerve canal serves to pass:

a) optic nerve

b) abducens nerve

c) oculomotor nerve

d) central retinal vein

e) frontal artery

3. 003. The lacrimal sac is located:

a) inside the eye socket

b) outside the orbit

c) partly inside and partly outside the orbit

d) in the maxillary cavity

e) in the middle cranial fossa

4. 004. For eyelid wounds, tissue regeneration:

a) high

b) low

c) does not differ significantly from tissue regeneration in other areas of the face

d) lower than other areas of the face

d) higher than other areas of the face

5. 005. Tear-producing organs include:

a) lacrimal gland and accessory lacrimal glands

b) lacrimal openings

c) lacrimal canaliculi

d) nasolacrimal duct

6.006. The nasolacrimal duct opens in:

a) inferior lacrimal duct

b) middle nasal meatus

c) superior nasal passage

d) into the maxillary sinus

e) into the main sinus

7.007. The sclera is thickest in the area:

b) the equator

c) optic nerve head

d) under the rectus tendon

e) under the tendon of the oblique muscles

8.008. The cornea consists of:

a) two layers

b) three layers

c) four layers

d) five layers

d) six layers

9.009. The layers of the cornea are located:

a) parallel to the surface of the cornea

b) chaotic

c) concentrically

d) in an oblique direction

10.010. Nutrition of the cornea is carried out due to:

a) marginal looped vascular network

b) central retinal artery

c) lacrimal artery

e) supratrochlear artery

11.011. The optic nerve head is located:

a) in the center of the fundus

b) in the nasal half of the fundus

c) in the temporal half of the fundus

d) in the upper half of the fundus

d) outside the fundus

12.012. The functional center of the retina is:

a) optic disc

b) central fossa

c) dentate line zone

d) vascular bundle

e) juxtapapillary zone

13.013. The optic nerve leaves the orbit through

a) superior orbital fissure

b) for. Opticum

c) inferior orbital fissure

d) round hole

e) maxillary sinus

14.014. The vascular tract performs:

a) trophic function

b) light refraction function

c) light perception function

d) protective function

e) support function

15.015. The retina performs the function:

a) refraction of light

b) trophic

c) perception of light

d) protective function

e) support function

16.016. Intraocular fluid is produced mainly by:

a) iris

b) choroid

c) lens

d) ciliary body

e) cornea

17.017. Tenon's capsule separates:

a) choroid from the sclera

b) retina from the vitreous body

c) eyeball from orbital tissue

d) there is no correct answer

e) cornea from sclera

18.018. Bowman's membrane is located between:

a) corneal epithelium and stroma

b) stroma and Descemet's membrane

c) Descemet’s membrane and endothelium

d) layers of the retina

19.019. The choroid nourishes:

a) outer layers of the retina

b) inner layers of the retina

c) the entire retina

d) optic nerve

d) sclera

20.020. The motor apparatus of the eye consists of - ... extraocular muscles

a) four

d) eight

e) ten

21.021. “Muscle funnel” originates from:

a) round hole

b) optic hole

c) superior orbital fissure

d) inferior orbital fissure

e) the inner wall of the orbit

22.022. The arterial circle of Haller is formed:

b) short posterior ciliary arteries

c) ethmoidal arteries

d) muscle arteries

d) all of the above

23.023. The central retinal artery supplies:

a) choroid

b) inner layers of the retina

c) outer layers of the retina

d) vitreous body

d) sclera

24.024. The orbital nerve is:

a) sensory nerve

b) motor nerve

c) mixed nerve

d) parasympathetic nerve

d) sympathetic nerve

25.025. In the area of ​​the chiasm,...% of the fibers of the optic nerves intersect

26.026. Eye development begins at:

a) 1-2 weeks of intrauterine life

b) 3rd week of intrauterine life

c) 4th week of intrauterine life

d) 5th week of intrauterine life

e) 10th week of intrauterine life

27.027. The choroid is formed:

a) mesoderm

b) ectoderm

c) mixed nature

d) neuroectoderm

e) endoderm

28.028. The retina is formed from:

a) ectoderm

b) neuroectoderm

c) mesoderm

d) endoderm

d) mixed nature

29.029. Passes through the superior orbital fissure:

a) ophthalmic nerve

b) oculomotor nerves

c) main venous collector

d) abducens, trochlear nerves

d) all of the above are true

30.030. Eyelids are:

a) top of the orbit

b) accessory, protective part of the organ of vision

c) all of the above

d) the side wall of the orbit

d) do not relate to the organ of vision

31.031. The branches of the ophthalmic artery are:

a) central retinal artery

b) lacrimal artery

c) supraorbital artery

d) frontal, supratrochlear artery

d) all of the above are true

32.032. The outflow of blood from the eyelids is directed:

a) towards the veins of the orbit, facial veins, in both directions

b) towards the facial veins

c) in both directions

d) towards the upper jaw

e) towards the cavernous sinus

33.033. Pericorneal injection indicates:

a) conjunctivitis, increased IOP, inflammation of the vascular tract

b) increased intraocular pressure

c) inflammation of the vascular tract

d) damage to tear-producing organs

d) intraocular foreign body

34. 34. Innervation of the lacrimal gland is carried out:

a) parasympathetic nervous system

b) sympathetic nervous system

c) mixed type

d) facial and trigeminal nerves

d) abducens nerve

35. 35. Fluid outflow from the anterior chamber occurs through:

a) pupil area

b) lens capsule

c) ligaments of Zinn

d) trabecular zone

d) iris zone

36. 36. The position of the jagged line corresponds to:

a) limbus projection zone

b) the place of attachment of the rectus tendons

c) trabecular projection zone

d) behind the projection zone of the ciliary body

37. 37. The choroid consists of a layer:

a) small, medium, large vessels

b) middle vessels

c) large vessels

d) nerve fibers

38. 38. The optic nerve has sheaths:

a) soft shell, arachnoid, internal elastic

b) arachnoid membrane

c) internal elastic

d) hard shell

39. 039. The moisture of the anterior chamber serves for:

a) nutrition of the cornea and lens

b) removal of waste metabolic products

c) maintaining normal ophthalmotonus

d) all of the above

40. 40. Within<мышечной воронки>located:

a) optic nerve

b) ophthalmic artery

c) oculomotor nerve

d) abducens nerve

d) all of the above

41. 41. The vitreous body performs all functions:

a) trophic function

b) "buffer function"

c) light-conducting function

d) support function

d) all of the above

42. 42. The tissues of the orbit receive nutrition from sources:

a) ethmoidal arteries, lacrimal, orbital arteries

b) lacrimal artery

c) ophthalmic artery

d) central retinal artery

e) middle cerebral artery

43. 43. The blood supply to the eyeball is carried out by vessels:

a) ophthalmic artery

b) central retinal artery

c) posterior short ciliary arteries

d) anterior ciliary arteries

d) all of the above are true

44. 44. The short posterior ciliary arteries supply:

a) cornea

b) iris

c) sclera

d) outer layers of the retina

e) inner layers of the retina

45. 45. Blood supply to the ciliary body and iris is carried out:

a) long posterior ciliary arteries

b) long posterior ciliary arteries, anterior ciliary

c) anterior ciliary arteries

d) ethmoidal arteries

e) medial arteries of the eyelids

46. ​​46. The outflow of blood from the tissues of the orbit is carried out through:

a) superior ophthalmic vein

b) inferior ophthalmic vein

c) central retinal vein

d) superior temporal branch of the central retinal vein

d) all of the above are true

47. 47. Motor innervation of extraocular muscles is carried out through the structures:

a) oculomotor, abducens, trochlear nerve

b) abducens nerve

c) trochlear nerve

d) trigeminal nerve

e) trigeminal ganglion

2. Physiology of the organ of vision, functional and clinical research methods

Please indicate one correct answer

48. 48. The main function of the visual analyzer, without which all its other visual functions cannot develop, is:

a) peripheral vision

b) monocular visual acuity

c) color perception

d) light perception

d) binocular vision

49. 49. With visual acuity above 1.0, the visual angle is equal to:

a) less than 1 minute

b) 1 minute

c) 1.5 minutes

d) 2 minutes

e) 2.5 minutes

50. 50. For the first time, a table for determining visual acuity was compiled by:

a) Golovin

b) Sivtsev

c) Snellen

d) Landolt

d) Orlova

51. 51. With parafoveal fixation, visual acuity in a 10-12 year old child corresponds to the following values:

a) more than 1.0

e) below 0.5

52. 52. In modern tables for determining visual acuity by Golovin Sivtsev for determining visual acuity, small details of the presented objects are visible from a visual angle:

a) less than 1 minute

b) in 1 minute

c) in 2 minutes

d) in 3 minutes

e) more than 3 minutes

53. 53. If a person distinguishes from a distance of 1 meter only the first line of the table for determining visual acuity, then his visual acuity is equal to:

54. 54. There is no light perception in a patient with:

a) intense total opacification of the cornea

b) total cataract

c) central retinal degeneration

d) complete atrophy of the optic nerve

e) retinal tear in the macular zone

55. 55. The functional state of the spinous apparatus of the retina is determined by:

a) light perception

b) state of light adaptation

c) visual acuity

d) boundaries of peripheral vision

56. 56. Dark adaptation should be studied in patients with:

a) retinal abiotrophy

b) mild and moderate myopia

c) hypermetropia with astigmatism

d) squint

e) refractive amblyopia

57. 57.The formation of binocular vision is possible only with a combination of high right and left eyes with:

a) orthophoria

b) exophoria

c) esophoria

d) lack of fusion

58. 58. The adaptive ability of the visual analyzer is determined by the ability:

a) see objects in low light

b) distinguish light

c) adapt to light of different brightness levels

d) see objects at different distances

d) distinguish shades of different colors

59. 59. The fusion reflex in a healthy child is formed already at age

a) 1st week of life

b) the first month of life

c) the first 2 months of life

d) the first 5-6 months of life

d) 2nd year of life

60. 060. The size of the blind spot, determined campimetrically, is normally equal to in an adult:

61. 61. Homonymous and heteronymous hemianopsia is determined in patients with:

a) central retinal degeneration

b) anisometropia

c) pathological changes in the visual pathways

d) pathological processes in the area of ​​the Graziole bundle

e) atrophy of papillomacular nerve fibers

62. 62. The fixation reflex is already formed in a healthy child:

a) in the first week of life

b) in the first month of life

c) by 2 months of life

d) by 6 months of life

d) by one year of life

63. 63. Chloropsia is the vision of all surrounding objects in:

a) yellow

b) red

c) green

d) blue

64.064. Physiological scotoma, determined during a perimetric examination of a person, is normally located in relation to the fixation point at:

a) 15 degrees from the bow side

b) 20 degrees from the bow side

c) 15 degrees from the temporal side

d) 25 degrees from the temporal side

e) 30 degrees from the temporal side

65.065. Erythropsia is the vision of all surrounding objects in:

a) blue

b) yellow

c) red

d) green

66.066. Xanthopsia is the vision of surrounding objects in:

a) blue

b) yellow

c) green

d) red

67.067. Cyanopsia is the vision of surrounding objects in:

a) yellow

b) blue

c) red

68. 68. Normally, the field of view has the smallest dimensions on:

a) white color

b) red color

c) green color

d) yellow color

d) blue color

69. 69. In a healthy adult with a normally developed visual analyzer, individual fluctuations in the boundaries of the visual field for white color do not exceed:

a) 5-10 degrees

b) 15 degrees

c) 20 degrees

d) 25 degrees

70. 70. The field of view has the widest boundaries (normally) on:

a) red color

b) yellow color

c) green color

d) blue color

d) white color

71. 71. In an adult with a normally developed visual analyzer, the lower limit of the field of vision for white color is located from the point of fixation at:

a) 45 degrees

b) 50 degrees

c) 55 degrees

d) 65-70 degrees

72. 72. In an adult with a normally developed visual analyzer, the outer (temporal) border of the field of vision for white color is located from the point of fixation at:

a) 60 degrees

b) 70 degrees

c) 90 degrees

d) 100 degrees

d) 120 degrees

73. 73. In an adult with a normally developed visual analyzer, the internal border of the visual field for white color is located from the point of fixation at:

a) 25 degrees

b) 30-40 degrees

c) 55 degrees

d) 65 degrees

d) 75 degrees

74. 74. For the normal formation of stereoscopic vision, a necessary condition is the presence of:

a) normal boundaries of peripheral vision

b) monocular visual acuity not lower than 1.0

c) trichromatic vision

d) binocular vision

e) normal adaptive ability of the organ of vision

75. 75. In an adult, intraocular pressure should not normally exceed:

a) 10-12mm Hg. St

b) 12-15mm Hg

c) 15-20mm Hg

d) 20-23 mm Hg.

76. 76. Pathological changes in ophthalmotonus cannot be objectively assessed only by:

a) tonometric study using the Maklakov-Polyak method

b) palpation examination of the eyes

c) tonometric examination of the eye with a Dashevsky tonometer

d) tonographic examination

d) elastotonometry

77. 77. The bactericidal effect of tears is ensured by the presence in it of:

a) lidases

b) chymopsin

c) lysozyme

d) phosphatases

d) mucin

78. 78. The number of eyelid blinks reaches the normal 8-12 per minute in children by age:

a) 3 months of life

b) 1 year of life

c) 5 years of life

d) 7-10 years of life

d) 14-15 years of life

79. 79. The first part of the Vesta test is considered positive if the dye (collargol or fluorescein) completely leaves the conjunctival sac into the lacrimal ducts for:

a) 1-2 minutes

b) 2-3 minutes

c) 3-4 minutes

d) 4-5 minutes

e) 6-7 minutes longer

80. 80. The second part of the Vesta test is considered positive if the dye from the conjunctival sac passes into the nose beyond:

a) 1 minute

b) 2 minutes

c) 3 minutes

d) 5-10 minutes

d) more than 10 minutes

81. 81. For contrast radiography of the lacrimal ducts, one of the following substances is used:

a) collargol

b) fluorescein

c) iodolipol

d) aqueous solution of brilliant green

e) aqueous solution of blue

82. 82. Normal functioning of the lacrimal glands (tear secretion) is formed in children aged:

a) the first S-1 months of life

b) the first 2-3 months of life

c) the first 6-8 months of life

d) 1 year of life

d) 2-3 years of life

83. 83. Meibomian glands, located in the cartilaginous plates of the eyelids, secrete:

b) mucous secretion

c) sebaceous secretion

d) aqueous humor

84. 84. The secretion of the meibomian glands is necessary for:

a) lubricating the surface of the cornea and conjunctiva of the eye

b) lubricating the edges of the eyelids in order to protect their surface from maceration

c) nutrition of the cornea and conjunctiva

d) prevention of the development of the inflammatory process in the conjunctiva

e) prevention of the development of a dystrophic process in the cornea

85. 85. Low sensitivity of the cornea in children in the first months of life is associated with:

a) structural features of the corneal epithelium

b) the peculiarity of the functioning of the lacrimal glands

c) still incomplete formation of the trigeminal nerve

d) insufficient functioning of the mucous glands

e) sensory nerve endings located too deeply in the corneal tissue

86. 86. The highest sensitivity of the cornea is determined in:

a) limbus areas

b) paralimbal zone

c) its upper half

d) central zone

e) paracentral zone

87. 87. The sensitivity of the cornea is impaired when damaged

a) facial nerve

b) oculomotor nerve

c) trigeminal nerve

d) trochlear nerve

d) abducens nerve

88. 088. The refractive power of the cornea normally amounts to the entire refractive power of the optical system of the eye:

89.089. The passage of liquids, gases and electrolytes through the cornea into the eye is mainly influenced by its condition:

a) epithelium and endothelium

b) stroma

c) Descemet's membrane

d) tear film

90. 090. Water makes up in the intraocular fluid up to:

91. 091. Water makes up in the lens of a child’s eye up to:

92. 92. The main role in the redox processes of lens proteins belongs to:

a) albumin

b) globulins

c) cysteine

d) collagen

93. 93. The marginal vascular network of the cornea in a healthy eye is not detected due to the fact that these vessels:

a) not filled with blood

b) covered with opaque scleral tissue

c) has a very small caliber

d) color matches the surrounding tissues of the eye

94. 94. The appearance of pericorneal injection in some pathological conditions of the eye is explained:

a) normal blood circulation in the vessels of the marginal loop network

b) increased intraocular pressure

c) increased blood pressure in the vascular bed of the eye

d) dilation of the vessels of the marginal loop network and increased blood supply to this part of the vascular network of the eye

e) significant thinning of the walls of the vessels of the marginal loop network

95. 95. The formation of a normal tetrahedral shape of the orbit is observed in a child already at the age of:

a) 1-2 months of life

b) 3-4 months of life

c) 6-7 months of life

d) 1 year of life

d) 2 years of life

a) moment of birth

b) 2-3 months of life

c) 6 months of life

d) 1 year of life

d) 2-3 years of life

97. 97. In response to instillation of mydriatics, maximum pupil dilation can be obtained in a child already at the age of:

a) 10 days of life

b) the first month of life

c) the first 3-6 months of life

d) 1 year of life

e) 3 years of age and older

98. 98. Pain sensitivity of the ciliary body is formed in a child only to:

a) 6 months of life

b) 1 year of life

c) 3 years of life

d) 5-7 years of life

e) 8-10 years of life

99. 99. The accommodative function of a healthy eye reaches its maximum value in a person at the age of:

a) 3 years of life

b) 5-6 years of life

c) 7-8 years of life

d) 14-16 years of life

e) 20 years and older

100. 100. In a healthy child with normal (physiological) growth of the eyeball, the sagittal size of the eye increases during the first year of life on average by:

101. 101. In a healthy child with normal (physiological) growth of the eyeball, the sagittal size of the eye increases from 1 year of life to 15-16 years on average by:

102. 102. In an adult with emmetropic refraction, the sagittal size of the eye is on average:

103. 103. In the vitreous body of a healthy eye, water amounts to:

104. 104. The most important physiological function of Bruch's limiting membrane is:

a) protection of the retina from toxic blood components

b) the implementation of metabolism between blood and retinal pigment epithelium cells

c) thermal insulation of the retina

d) barrier function

e) skeleton function

105. 105. The main physiological function of the vorticose veins is:

a) regulation of intraocular pressure

b) outflow of venous blood from the tissues of the posterior part of the eye

c) thermoregulation of eye tissues

d) ensuring normal trophism of the retina

106. 106. Proteins make up the total mass of the lens:

a) more than 70%

b) more than 30%

107. 107. The refractive power of the lens in an adult is on average:

108. 108. From the layer of large vessels of the choroid,….vorticose veins are formed

a) from 2 to 3

b) from 4 to 6

c) from 8 to 9

109. 109. By about 1 year of a child’s life, the following layers of the retina disappear in the macular area

a) from the second to the third

b) from third to fourth

c) from five to nine

d) from sixth to eighth

110. 110. Choroidal vessels are most clearly visible during ophthalmoscopy in:

a) blondes

b) brown-haired

c) brunettes

d) people of the black race

e) albinos

111. 111. In a healthy adult, the ratio of the caliber of the arteries and veins of the retina is normally:

112. 112. Electroretinogram reflects the functional state:

a) inner layers of the retina

b) outer layers of the retina

c) subcortical visual centers

d) cortical visual centers

113. 113. The threshold of electrical sensitivity reflects the functional state:

a) outer layers of the retina

b) inner layers of the retina

c) papillomacular bundle of the optic nerve

d) subcortical visual centers

e) cortical visual centers

114. 114. The lability index, measured by the critical frequency of phosphene disappearance, characterizes the functional state:

a) outer layers of the retina

b) inner layers of the retina

c) pathways (papillomacular bundle)

d) subcortical centers of the visual analyzer

115. 115. An electroencephalogram performed during a comprehensive examination of a patient with damage to the visual analyzer allows one to judge the functional state of:

a) outer layers of the retina

b) conductive pathways of the visual analyzer

c) cortical and (partly) subcortical visual centers

d) inner layers of the retina

116. 116. Normal visual acuity in a newborn child is:

a) thousandths of a unit

117. 117. Visual acuity in children 6 months of age is normally

118. 118. Normal visual acuity in children 3 years of age is:

d) 0.6 and above

e) 0.8 and above

119. 119. Normal visual acuity in children 5 years of age is:

e) 0.7-0.8 and above

120. 120. Visual acuity in children 7 years of age is normally equal to:

3. Refraction and accommodation

Please indicate one correct answer

121. 121. The refraction of an optical system is called:

a) a state closely related to convergence

b) refractive power of the optical system, expressed in diopters

c) the ability of an optical system to neutralize light passing through it

d) reflection by the optical system of rays incident on it

e) a system of lenses located at a certain distance from each other

122. 122. The normal power of physical refraction of the human eye is:

a) from 10 to 20D

b) from 21 to 51D

c) from 52 to 71D

d) from 72 to 91D

d) from 91 to 100d

123. 123. The following types of clinical refraction of the eye are distinguished:

a) permanent and non-permanent

b) disbinocular and anisometropic

c) cornea and lens

d) static and dynamic

124. 124. Static clinical refraction of the eye reflects:

a) refractive power of the cornea

b) true clinical refraction of the eye in a state of resting accommodation

c) refractive power of the lens

d) the refractive power of the optical system of the eye in relation to the retina with active accommodation

125. 125. Dynamic clinical refraction of the eye is understood as:

a) the refractive power of the optical system of the eye in relation to the retina with active accommodation


Book

VC. Balsevich - Corresponding Member of the Russian Academy of Education, Doctor of Biology. Sciences, Professor of the Russian State University of Physical Education, Chief Editor of the journal “Physical Culture: Education, Training, Training”,


01. The thinnest wall of the orbit is:

a) outer wall

b) upper wall

c) inner wall

d) bottom wall

e) upper and inner
02. The optic nerve canal serves to pass:

a) optic nerve

b) abducens nerve

c) oculomotor nerve

d) central retinal vein

e) frontal artery
03. The lacrimal sac is located:

a) inside the eye socket

b) outside the orbit

c) partly inside and partly outside the orbit.

d) in the maxillary cavity

e) in the middle cranial fossa
04. For eyelid wounds, tissue regeneration:

a) high

b) low

c) does not differ significantly from tissue regeneration in other areas of the face

d) lower than other areas of the face.

d) higher than other areas of the face
05. Tear-producing organs include:

a) lacrimal gland and accessory lacrimal glands

b) lacrimal openings

c) lacrimal canaliculi

d) nasolacrimal duct
06. The nasolacrimal duct opens in:

a) lower nasal passage

b) middle nasal meatus

c) superior nasal passage

d) into the maxillary sinus

e) into the main sinus
07. The sclera is thickest in the area:

b) the equator

c) optic nerve head

d) under the rectus tendon.

e) under the tendon of the oblique muscles
08. The cornea consists of:

a) two layers

b) three layers

c) four layers

d) five layers

d) six layers
09. The layers of the cornea are located:

a) parallel to the surface of the cornea

b) chaotic

c) concentrically

d) in an oblique direction
10. Nutrition of the cornea is provided by:

a) marginal looped vascular network

b) central retinal artery

c) lacrimal artery

d) anterior ciliary arteries

e) supratrochlear artery
11. The optic nerve head is located:

a) in the center of the fundus

b) in the nasal half of the fundus:

d) in the upper half of the fundus

d) outside the fundus
12. The functional center of the retina is:

a) optic disc

b) central fossa

c) dentate line zone

d) vascular bundle.

e) juxtapapillary zone
13. The optic nerve leaves the orbit through:

a) superior orbital fissure

b) for. opticum

c) inferior orbital fissure

d) round hole

e) maxillary sinus
14. The vascular tract performs:

a) trophic function

b) light refraction function

c) light perception function

d) protective function

e) support function
15. The retina performs the function:

a) refraction of light

b) trophic

c) perception of light

d) protective function

e) support function
16. Intraocular fluid is produced mainly by:

a) iris

b) choroid

c) lens

d) ciliary body

e) cornea
17. Tenon’s capsule separates:

a) choroid from the sclera

b) retina from the vitreous body

c) eyeball from orbital tissue

d) there is no correct answer

e) cornea from sclera
18. Bowman's membrane is located between:

a) corneal epithelium and stroma

b) stroma and Descemet's membrane

c) Descemet’s membrane and endothelium

d) layers of the retina
19. The choroid nourishes:

b) inner layers of the retina

c) the entire retina

d) optic nerve

d) sclera
20. The motor apparatus of the eye consists of muscles:

a) four

d) eight

e) ten
21. “Muscle funnel” originates from:

a) round hole

b) optic hole

c) superior orbital fissure

d) inferior orbital fissure

e) the inner wall of the orbit
22. The arterial circle of Haller is formed by:

a) long posterior ciliary arteries

b) short posterior ciliary arteries

c) ethmoidal arteries

d) muscle arteries

d) all of the above
23. The central retinal artery supplies:

a) choroid

b) inner layers of the retina

c) outer layers of the retina

d) vitreous body

d.) sclera
24. The orbital nerve is:

a) sensory nerve

b) motor nerve

c) mixed nerve

d) parasympathetic nerve

d) sympathetic nerve
25. In the area of ​​the chiasm, ...% of the fibers of the optic nerves intersect:

e) 10%
26. Eye development begins at:

a) 1-2 weeks of intrauterine life

b) 3rd week-

c) 4th week

d) 5th week.

d) 10th week
27. The choroid is formed:

a) mesoderm

b) ectoderm

c) mixed nature

d) neuroectoderm

e) endoderm
28. The retina is formed from:

a) ectoderm

b) neuroectoderm

c) mesoderm

d) endoderm

d) mixed nature
29. Through the superior orbital fissure passes:

1) ophthalmic nerve

2) oculomotor nerves

3) main venous collector

4) abducens nerve

5) trochlear nerve

d) if the correct answer is 4


30. Eyelids are:

1) accessory part of the organ of vision

4) side wall of the orbit

5) do not relate to the organ of vision

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
31. The branches of the ophthalmic artery are:

1) central retinal artery

2) lacrimal artery

3) supraorbital artery

4) frontal artery

5) supratrochlear artery

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
32. The outflow of blood from the eyelids is directed:

1) towards the veins of the orbit

2) towards the facial veins

3) in both directions

4) towards the upper jaw

5) towards the cavernous sinus

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
33. Pericorneal injection indicates:

1) conjunctivitis

2) increased intraocular pressure

3) inflammation of the vascular tract

4) damage to tear-producing organs

5) intraocular foreign body

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
34. Innervation of the lacrimal gland is carried out:

1) parasympathetic nervous system

2) sympathetic nervous system

3) mixed type

4) facial and trigeminal nerves

5) abducens nerve

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
35. Fluid outflow from the anterior chamber occurs through:

1) pupil area

2) lens capsule

3) ligaments of Zinn

4) trabecular zone

5) iris zone

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
36. The position of the jagged line corresponds to:

1) limbus projection zone

2) the place of attachment of the rectus tendons

3) trabecular projection zone

4) behind the projection zone of the ciliary body

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
37. The choroid consists of a layer:

1) small vessels

2) middle vessels

3) large vessels

4) nerve fibers

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
38. The optic nerve has sheaths:

1) soft shell

2) arachnoid membrane

3) internal elastic

4) hard shell

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
39. The moisture of the anterior chamber serves for:

1) nutrition of the cornea and lens

2) removal of waste metabolic products

3) maintaining normal ophthalmotonus

4) light refraction

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
40. Within the “muscular funnel” there is:

1) optic nerve

2) ophthalmic artery

3) oculomotor nerve

4) abducens nerve

5) trochlear nerve

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
41. The vitreous body performs all functions:

1) trophic function

2) “buffer” function

3) light-conducting function

4) support function

5) maintaining ophthalmotonus

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
42. The tissues of the orbit receive nutrition from sources:

1) ethmoidal arteries

2) lacrimal artery

3) ophthalmic artery

4) central retinal artery.

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
43. The blood supply to the eyeball is carried out by vessels::

1) ophthalmic artery

2) central retinal artery

3) posterior short ciliary arteries

4) anterior ciliary arteries

5) posterior long ciliary arteries

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
44. The short posterior ciliary arteries supply:

1) cornea

2) iris

4) outer layers of the retina

5) inner layers of the retina.

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
45. Blood supply to the ciliary body and iris is carried out:

1) long posterior ciliary arteries

2) short posterior ciliary arteries

3) anterior ciliary arteries

4) ethmoidal arteries

5) medial arteries of the eyelids

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
46. ​​The outflow of blood from the tissues of the orbit is carried out through:

1) superior ophthalmic vein

2) inferior ophthalmic vein

3) central retinal vein

5) inferotemporal branch of the central retinal vein

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
47. Motor innervation of extraocular muscles is carried out by the following structures:

1) oculomotor nerve

2) abducens nerve

3) trochlear nerve

4) trigeminal nerve

5) trigeminal node

Choose the correct answer according to the diagram

a) if answers 1, 2 and 3 are correct

b) if answers 1 and 3 are correct

c) if answers 2 and 4 are correct

d) if the correct answer is 4

e) if answers 1,2,3,4 and 5 are correct
(=#) SECTION 2. PHYSIOLOGY OF THE VISUAL ORGAN. FUNCTIONAL AND CLINICAL METHODS FOR STUDYING THE VISUAL ORGAN
48. The main function of the visual analyzer, without which all its other visual functions cannot develop, is:

a) peripheral vision

b) monocular visual acuity

c) color perception

d) light perception

e) binocular vision.
49. With visual acuity above 1.0, the visual angle is equal to:

a) less than 1 minute

b) 1 minute

c) 1.5 minutes

d) 2 minutes

e) 2.5 minutes
50. For the first time, a table for determining visual acuity was compiled by:

a) Golovin

b) Sivtsev

c) Snellen

d) Landolt

d) Orlova
51. With parafoveal fixation, visual acuity in a 10-12 year old child corresponds to the following values:

a) more than 1.0

e) below 0.513
52. In modern tables for determining visual acuity by Golovin Sivtsev for determining visual acuity, small details of the presented objects are visible from a visual angle:

a) less than 1 minute

b) in 1 minute

c) in 2 minutes

d) in 3 minutes

e) more than 3 minutes
53. If a person distinguishes from a distance of 1 meter only the first line of the table for determining visual acuity, then his visual acuity is equal to:

d) 0.005
54. There is no light perception in a patient with:

a) intense total opacification of the cornea

b) total cataract

c) central retinal degeneration

d) complete atrophy of the optic nerve

e) retinal tear in the macular zone
55. The functional state of the cone apparatus of the retina is determined by:

a) light perception

b) state of light adaptation

c) visual acuity

d) boundaries of peripheral vision
56. Dark adaptation should be studied in patients with:

a) retinal abiotrophy

b) mild and moderate myopia

c) hypermetropia with astigmatism

d) squint

e) refractive amblyopia
57. The formation of binocular vision is possible only when high vision of the right and left eyes is combined with:

a) orthophoria

b) exophoria

c) esophoria

d) lack of fusion
58. The adaptive ability of the visual analyzer is determined by the ability to:

a) see objects in low light

b) distinguish light

c) adapt to light of different brightness levels

d) see objects at different distances

d) distinguish shades of different colors

#THE MOST COMMON CAUSES OF TEARING ARE

Non-immersion of lacrimal openings in the lacrimal lake

Inflammation of the tear ducts

Inflammation of the lacrimal sac

Inflammation of the nasolacrimal duct

Narrowing or obstruction of any part of the lacrimal duct

All of the above reasons

#TUBE TEST IS CONSIDERED POSITIVE IF THE EYEBALL IS AFTER

INSTALLATION Sol.Collargoli 3% BEGINS TO DISCOLORIZE AFTER

1-2 minutes

3-4 minutes

More than 10 minutes

#NASAL TEST IS CONSIDERED POSITIVE IF Sol.Collargoli 3% HIT

INTO THE NOSE THROUGH

1-2 minutes

5-10 minutes

10-15 minutes

15-20 minutes

#DIYING SUBSTANCE IS USED TO CARRY OUT THE NOSTAL-LACRIMAL TEST

Furacilin 1:5000

Sol.Collargoli 3%

1% alcohol solution of brilliant green

#WHEN WASHING THE LACRIMARY PATHWAYS WHEN THEY ARE NORMAL PASSABILITY

LIQUID IS LEAVING

Stream from the nose

Nasal drops

Through another lacrimal punctum

Through the same lacrimal punctum

#MOST COMPLETE INFORMATION ABOUT THE LEVEL OF OBLITERATION OF THE LACRIMAL TRACT

Tubular test

Nasolacrimal test

Rinsing the lacrimal ducts

Diagnostic probing

X-ray with contrast agent

#IN ACUTE DACRYOADENITI, THE PATHOLOGICAL PROCESS IS LOCALIZED

In the outer part of the upper eyelid

In the inner part of the upper eyelid

In the outer part of the lower eyelid

In the inner part of the lower eyelid

Can be any localization

#DACRIOADENITIS IS A COMPLICATION OF COMMON INFECTIONS

Typhoid fever

Mumps

Any of the listed diseases

#THE CAUSE OF CHRONIC DACRYOCYSTITIS IS

Stenosis of the lacrimal tubules

Stenosis of the nasolacrimal canal

Chronic conjunctivitis

Chronic meibomitis

#WHY IS PROBING OF THE NOSTAL CHANNEL CONTRAINDICATED IN

CHRONIC DACRYOCYSTITIS

Formation of additional strictures

Damage to the wall of the sac and breakthrough of infection into surrounding tissues

Probing is not contraindicated

Damage to large blood vessels

#OUTSIDE BARLEY IS

Inflammatory infiltrate in the thickness of the eyelid

Acute purulent inflammation of the hair follicle of the eyelash root

Chronic inflammation of the sebaceous gland

Acute inflammation of the meibomian gland

#EXTERNAL STYES ARE MORE COMMONLY CAUSED

Diplococcus

Pneumococcus

Staphylococcus

Streptococcus

#REASONS CONTRIBUTING TO BARLEY

Trigeminal nerve palsy

Nervous stress

Vitamin deficiency, weakening of the body after infections

Prolonged work associated with accommodation stress

#MAIN COMPLAINT WITH EXTERNAL BARLEY AT THE BEGINNING OF THE PROCESS

Photophobia

Tearing

Purulent discharge from the conjunctival cavity

Local pain in the corresponding area of ​​the eyelid

#PREMIMARY LOCALIZATION OF EXTERNAL BARLEY

Upper eyelid

Lower eyelid

At the inner corner

At the outer corner

#OBJECTIVE DATA AT THE BEGINNING OF THE PROCESS IN BARLEY

Limited redness and swelling

Inability to open your eyes on your own

Moderate exophthalmos

Purulent crusts at the roots of eyelashes

#MANIPULATIONS IN THE TREATMENT OF BARLEY, WHICH CAN LEAD TO SUCH

COMPLICATIONS SUCH AS ORBITAL PHLEGMON, ORBITAL VEIN THROMBOPHLEBITIS

Tea lotions

Autohemotherapy

Dry heat

Squeezing out pus

#WHEN OPERATIVE REMOVAL OF A CHALAZION, THE REMOVED TISSUE IS DIRECTED

FOR HISTOLOGY BECAUSE:

Chalazion is a malignant formation

Gives metastases to tubular bones

Instead of a chalazion, there may be adenocarcinoma of the meibomian gland

To determine viral inclusions in cells

#CHARACTERISTIC FOR LAGOPHTHALMOS

Inability to close the palpebral fissure

Drooping of the upper eyelid

#PTOSIS CAN BE CAUSED BY LESION

N.oculomotorius

#CHARACTERISTIC FOR PTOSIS

Inability to close the palpebral fissure

Complete or partial fusion of the edges of the eyelids in the area of ​​the palpebral fissure

Drooping of the upper eyelid

Skin fold of the upper eyelid in the outer corner of the eye

#TREATMENT OF PTOSIS

Surgical

Instillations Sol.Atropini sulfatis 1%

Placing a medicinal film with an antibiotic behind the eyelid

Exercises to strengthen the muscle that lifts the upper eyelid

Using hypnosis

#ACUTE PURIFIC INFLAMMATORY DISEASES OF THE EYELIDS ARE

Blepharitis

Chalazion

#SYMPTOMS OF BLEPHARITIS ARE EXCEPT

Inflammation of the edges of the eyelids

Eyelash loss

Persistent long course

Formation of scales at the root of eyelashes

Exophthalmos

#THE CAUSES OF BLEPHARITIS ARE, EXCEPT

Pathology of the digestive tract

Endocrine and metabolic disorders

Worm infestations

Uncorrected refractive errors (hypermetropia, astigmatism)

Oculomotor nerve palsy

#THE KEY TO SUCCESSFUL TREATMENT OF BLEPHARITIS IS

Determining the etiology of the disease

Systematic, regular long-term treatment

Correction of ametropia

Balanced diet

All listed activities

#MALIGNANT NEOPLASMS OF THE EYELIDS ARE

Dermoid cyst

Meibomian gland adenocarcinoma

Meibomian gland adenoma

All listed entities

#BENIGN NEOPLASMS OF THE EYELIDS ARE INCLUDED

Dermoid cyst

Cutaneous horn

Meibomian gland adenoma

Hemangioma

All listed entities

None of the listed entities

#INNERVATION OF THE CORNEA IS PROVIDED

First branch of the trigeminal nerve, sympathetic fibers of the plexus

internal carotid artery

First branch of the trigeminal nerve, sympathetic fibers of the plexus

internal carotid artery, facial nerve

First branch of the trigeminal nerve, facial nerve, parasympathetic

oculomotor nerve fibers

#THE OVERWHELMING MOST OF SENSITIVE NERVE ENDINGS ARE

Anterior epithelium and superficial layers of stroma

Anterior epithelium, superficial and deep layers of stroma

Anterior epithelium, superficial and deep layers of stroma, posterior

epithelium

#MAIN METHODS FOR STUDYING THE CONDITION OF THE CORNEA ARE

Transmitted light examination and side illumination method

Side illumination method and biomicroscopy

Biomicroscopy and ophthalmoscopy

#TO DETERMINE THE INTEGRITY OF THE CORNEAAL EPITHELIUM, IT IS NECESSARY TO INSTALL

CONJUNCTIVAL CAVITY

Sol.Dicaini 0.5%

Sol.Sulfacyli-natrii 30%

Sol.Collargoli 1%

Sol.Fluoresceini 1%

#FOR AN ORIENTATIVE CHECK OF THE CORNEAL SENSITIVITY

Use the “air jet” method (from a rubber bulb or mouth)

Touch with a thin flagellum rolled from damp cotton wool

Touch the cornea with the end of a glass rod or pipette,

strip of paper

#INFLAMMATORY DISEASE OF THE CORNEA IS CALLED

Conjunctivitis

Keratitis

Cyclitome

#CHARACTERISTIC FOR KERATITIS

Conjunctival injection

Pericorneal injection

Mixed injection

Congestive injection

#FOR PERICORNEAL INJECTION THE FOLLOWING SIGNS ARE CHARACTERISTIC

Dilated vessels of the marginal looped network, not visible due to the matte

episclera, translucent with a pink-violet halo along the limbus,

with decreasing intensity towards the arches

The conjunctiva is dark red with a bluish tint and dilated

and tortuous vessels, the underlying episclera is edematous with excess

blood filling of vessels

The conjunctiva is bright red in color, decreasing in intensity as

approaching the cornea; individual ones are clearly visible

congested blood vessels, possible petechiae

#INFLAMMATORY FOCUS IN THE CORNEA IS CALLED

Abscess

Infiltrate

Phlegmon

#DURING KERATITIS, CLOUDS

Gray color with blurred borders

White with clear borders

#DUE TO CLEARANCE (LEUCOMA) CLOSURDINESS

Gray with clear borders

Gray color with blurred borders

White with blurred borders

White with clear borders

#WHEN KERATITIS HARNESSES IN THIS AREA

Gray color with no mirror shine

White color with a mirror-like shine

#WHEN A TELUSION (LEUCOMA) IS CLOSED IN THIS AREA

Gray color with a mirror-like shine

Gray color with no mirror shine

White color with a mirror-like shine

White color without mirror shine

#TYPICAL COMPLAINTS IN KERATITIS ARE

Photophobia, aching pain when looking at a light source, feeling

Photophobia, lacrimation, blepharospasm, foreign body sensation behind

#SYNDROME CHARACTERIZED BY COMPLAINTS TYPICAL OF KERATITIS

IN COMBINATION WITH A PERICORNEAL INJECTION, CALLED

Keratitis

Pericorneal

Horn-shaped

#IN ACUTE INFLAMMATORY PROCESS OF THE CORNEA, INFILTRATE AT THE BEGINNING

Scarring

Ulcerates

Metastasizes

#IGGROWTH OF BLOOD VESSELS INTO THE CORNEA HAS BEEN NAMED

Infiltration

Vascularization

#A SIGNIFICANT REDUCTION IN CORNEA SENSITIVITY IS CHARACTERISTIC FOR

KERATITIS

Bacterial

Herpetic

Tuberculosis

Syphilitic

#PROBABLE CAUSES OF PURULENT CORNEAL ULCERS ARE

Adenoviruses, herpes virus, mycobacteria

Blue purulent and Escherichia coli

Diplococcus, streptococcus, staphylococcus

#THE ACCUMULATION OF PUS AT THE BOTTOM OF THE ANTERIOR CHAMBER IS CALLED

Leukoma

Hypopyon

#MAIN CLINICAL SYMPTOMS OF CREEPING CORNEAL ULCER

Copious purulent discharge from the bottom of the ulcer, rough scarring

with a pronounced violation of the sphericity of the cornea

Deep and extensive ulceration of the cornea, pronounced vascularization,

early scarring

Presence of a progressive zone of ulcer (active edge), early iridocyclitis

with hypopyon

#POSSIBLE COMPLICATIONS OF PURULENT CORNEAL ULCER

Atrophy of the eyeball, cataract, symblepharon

Corneal perforation, endophthalmitis, secondary glaucoma

Panophthalmitis, pannus, keratoconus

#IN PURULENT KERATITIS, THE FOLLOWING LABORATORY TESTS ARE NECESSARY

RESEARCH

Immunological

Biochemical

Microscopic and bacteriological

Fluorescent research methods

#PRINCIPLES OF CONSERVATIVE THERAPY OF PURULENT KERATITIS

Active antibiotic therapy, cleansing and extinguishing the ulcer, stimulation

epithelization, relief of iridocyclitis

Active anti-inflammatory therapy using

corticosteroids, diathermocoagulation of ulcers, stimulation of ulcer scarring

Antibacterial therapy, local anesthetics, tamponing

the bottom of the ulcer with antibiotic ointment with the application of a monocular bandage

#FOR PURULAR KERATITIS THERE ARE THE MOST EFFECTIVE OF ANTIBACTERIALS

DRUGS

Instillations Sol. Sulfacyli-natrii 30%

Laying Ung. Laevomycetini 5%

Subconjunctival injections of Sol. Gentamycini

#CLINICAL FORMS OF SUPERFICIAL HERPETIC KERATITIS ARE

Keratoconjunctivitis, punctate and discoid keratitis

Keratouveitis, epithelial and metaherpetic keratitis

Bubble-like (point-like) and tree-like keratitis

#DEEP HERPETIC KERATITIS INCLUDED

Subepithelial punctate keratitis, discoid keratitis

Metaherpetic keratitis, discoid keratitis, keratouveitis

Subepithelial keratitis, dendritic keratitis, keratouveitis

#PECULIARITIES OF THE CLINICAL COURSE OF HERPETIC KERATITIS

Occurs against the background of a cold, the severity of the corneal

syndrome is associated with corneal hyperesthesia, torpid course,

intense scarring

Often occurs after acute respiratory viral infection, a sharp decrease in

corneal sensitivity, slow course, tendency to relapse

Occurs in immunosuppressive conditions of the body,

characterized by significant vascularization, the course is rapid with

resulting in the formation of a rough scar

#WHEN TREATING HERPETIC KERATITIS, INSTILLATIONS ARE PRESCRIBED

Sol. Sulfacyli-natrii 30%

Sol. Gentamycini 0.3%, Sol. Penicillini 1%

Sol. Interferoni leicocytaris, Sol.Dezoxyribonucleazae, Sol.IDU

Sol. Dexametazoni 0.1%, Sol. Hydrocortizoni 0.5%

#WHEN TREATING HERPETIC KERATITIS, THE FOLLOWING OINTMENTS ARE PRESCRIBED

DRUGS

Ung. Solcoserili (Actovegini) 20%

Ung. Hydrocortizoni 0.5%, Ung. Prednizoloni 1%

Ung. Laevomycetini 5%, Ung. Gentamycini 1%

Ung. Bonaphtoni 0.05%, Ung. Tebrofeni 0.1%, Ung Florenali 0.1%,

#WHEN TREATING HERPETIC KERATITIS THE FOLLOWING IS PRESCRIBED

SUBCONJUNCTIVAL INJECTIONS

Sol. Gamma-globulini, Sol. Reaferoni, Sol. Poludani

Sol. Clopharani, Sol. Gentamycini, Sol. Ceporini

Sol. Dexazoni, Sol. Hydrocortisoni

Sol. ATP, Sol.Lidazae, Sol. Riboflavini

#THE CAUSE OF TUBERCULOUS-ALLERGIC KERATITIS IS

Hematogenous penetration of Koch's bacillus

Local manifestation of sensitization of the body

Toxic effects of mycobacterial decay products

#TUBERCULOUS-ALLERGIC KERATOCONJUNCTIVITIS COMMONLY OCCURS

IN. . . . . AGE

#CORNEAAL SYNDROME IN TUBERCULOUS-ALLERGIC KERATITIS IS STRONG

Absent

Very much

#APPEARING NEAR THE LIMBUS IN TUBERCULOUS-ALLERGIC KERATITIS

SEMI-TRANSPARENT, ROUND, GRAY “KNODES” GOT A NAME

Infiltrate

Flyktena

#COURSE OF TUBERCULOUS-ALLERGIC KERATITIS

Acute, recurrent

Subacute, wavy

Chronic, prolonged

#PRINCIPLES OF TREATMENT OF FLICTENULOUS KERATITIS

Antibiotics of the streptomycin and tetracycline series

Enzymatic preparations

Corticosteroids

#IN TUBERCULOSIS, INFECTION PENETRATS INTO THE CORNEA

From the external environment

From the conjunctiva

From the uveal tract

#TUBERCULOUS KERATITIS COMMONLY OCCURS

Unilateral

Bilateral

#SPECIFIC TUBERCULOSIS PROCESS STRIKES

Superficial layers of the cornea

Deep layers of the cornea

All layers of the cornea

#VASCULARIZATION IN TUBERCULOUS KERATITIS

Not typical

Superficial, tender

Deep

#OUTCOMES OF TUBERCULOUS KERATITIS

Favorable

Unfavorable

#DURING THE REMOTE REMISSION PERIOD OF RECURRENT TUBERCULOSIS

KERATITIS INDICATED

Revaccination

Course anti-inflammatory therapy

Keratoplasty

#TREATMENT OF TUBERCULOUS KERATITIS IS CONDUCTED

Ophthalmologist at the clinic

Family doctor

Ophthalmologist at a surgical clinic

Phthisio-ophthalmologist

#PARENCHYMATOUS (INTERSTITIAL) SYPHILITIC KERATITIS COMMONLY

OCCURS AT..... AGE

#PARENCHYMATOUS KERATITIS IS A MANIFESTATION OF..... SYPHILIS

Primary

Secondary

Tertiary

Congenital

#DURING SYPHILITIC PARENCYMATOUS KERATITIS THERE ARE STAGES

Alterations, infiltration, vascularization

Infiltration, vascularization, resorption

Infiltration, ulceration, scarring

Infiltration, vascularization, proliferation

#EACH STAGE OF PARENCYMATOUS KERATITIS LASTS ABOUT

4-6 weeks

4-6 months

#IN SYPHILITIC PARENCYMATOUS KERATITIS CORNEAL SYNDROME

Absent

Poorly expressed

Very strongly expressed

#CLINIC OF SYPHILITIC PARENCYMATOUS KERATITIS IS CHARACTERIZED

Local infiltration in the superficial layers of the cornea

Local infiltration in the deep layers of the cornea

Diffuse infiltration in the superficial layers of the cornea

Diffuse infiltration in the deep layers of the cornea

#IN SYPHILITIC PARENCYMATOUS KERATITIS IS NOTED

Only superficial vascularization

Deep vascularization of the cornea

No vascular ingrowth observed

#OUTCOME OF PARENCYMATOUS KERATITIS WITH ADEQUATE TREATMENT

Favorable

Adverse

Doubtful

#LIMITED CORNEAL CLOSURE, BARELY VISIBLE IN SIDE LIGHTING,

WHICH DOES NOT USUALLY PRODUCE A REDUCTION IN VISUAL ACUITY, HAS BEEN NAMED

Infiltrate

Spot (macula)

Cloud (nubecula)

Belmo (leucoma)

#PERSISTENT LIMITED HAPPINESS, VISIBLE WITH THE NAKED EYE,

GOT A NAME

Macula

Belmo (leucoma)

#PERSISTENT, OFTEN VASCULAR PACIFICATION, LIGHT GRAY OR WHITE,

OCCUPYING THE MOST PART OF THE CORNEA, ACCOMPANIED BY SIGNIFICANT

REDUCED OBJECT VISION IS CALLED

Vascularization

Belmom (leucoma)

Macula

#CONSERVATIVE TREATMENT OF DEVELOPING CORNEAL OPACITIES IS

IN DESTINATION

Enzymes

Tissue biostimulants

Vitamin therapy

Immunomodulators

#THE LEADING SURGICAL METHOD FOR TREATING PLAINS IS

Refractive keratotomy

Laser coagulation

Layer keratoplasty

Fistulizing keratectomy

#IN IRIDOCYCLITIS

The pupil is gray, there is no fundus reflex, IOP is normal

Pericorneal injection, precipitates on the posterior surface of the cornea,

pupil is narrow, IOP is normal

The eye is calm, the pupil is black, there is atrophy and excavation in the fundus

optic nerve, IOP increased

Congestive injection of the eyeball, the anterior chamber is small, the pupil

wide, IOP high

The pupil is gray; when examined in transmitted light, dark pupils are visible.

stripes in the form of “spokes in a wheel”, IOP is normal

#TYPICAL COMPLAINTS IN ACUTE IRIDOCYCLITIS ARE

Photophobia, aching pain when looking at a light source, feeling

swelling in the eye, fog before the vision

Watery eyes, burning sensation and “litteriness” behind the eyelids, “sticking together”

eyelid in the morning, a light veil before the gaze

Photophobia, lacrimation, blepharospasm, foreign body sensation behind

upper eyelid, decreased visual acuity

Aching, throbbing pain in the eye, a “veil” before the eye, iridescent

circles when looking at a light source

#VASCULAR CONSISTS OF..... PARTS

# LOCATED IN THE IRIS

Dilatator and Müller's muscle

Muscles of Müller and Brücke

Brucke muscle and accommodative muscle

Accommodative muscle and sphincter

Sphincter and dilator

#THE IRIS HAS..... MUSCLES

#FIBERS INNERVATING THE PUPIL SPHINCTER ARE PART OF

N. Oculomotorius

#INNERVATION OF THE PUPIL SPHINCTER IS PROVIDED

Parasympathetic nerve

Sympathetic nerve

Somatic nerve

#INNERVATION OF THE PUPIL DILATOR IS CARRIED OUT

Parasympathetic nerve

Sympathetic nerve

Somatic nerve

#FIBERS INNERVATING THE ACCOMMODATIVE MUSCLE ARE PART OF....NERVE

Oculomotor

Discharger

Block-shaped

Facial

Trigeminal

#SENSITIVE IRISH INNERVATION IS CARRIED OUT BY... A NERVE

Oculomotor

Leading

Block-shaped

Sympathetic

Parasympathetic

Trigeminal (first branch)

Trigeminal (second branch)

There are no sensory nerves

#SENSITIVE INNERVATION OF THE CILIAR BODY IS CARRIED OUT..... BY THE NERVE

Oculomotor

Leading

Block-shaped

Sympathetic

Parasympathetic

Trigeminal (first branch)

Trigeminal (second branch)

There are no sensory nerves

#SENSITIVE INNERVATION OF THE CHORIOID IS CARRIED OUT...... BY THE NERVE

Oculomotor

Leading

Block-shaped

Sympathetic

Parasympathetic

Trigeminal (first branch)

Trigeminal (second branch)

There are no sensory nerves

#THE IRIS AND CILIARY BODY TAKE PART IN THE BLOOD SUPPLY

Anterior ciliary arteries, posterior short ciliary arteries

Anterior ciliary arteries, posterior long ciliary arteries

Anterior ciliary arteries, posterior long ciliary arteries,

branches of conjunctival vessels

#CILIARY BODY PERFORM TWO FUNCTIONS, SPECIFY

Production of intraocular fluid and the active component of accommodation

and disaccommodation

Active component of accommodation and disaccommodation and regulates

pupil size

Adjusts the size of the pupil and regulates the amount of light

entering the eye

Regulates the amount of light entering the eye and provides

retinal nutrition

Provides nutrition to the retina and regulates light perception

Regulates light perception and provides color perception

Provides color perception and production of intraocular fluid

#THE COLOR OF THE INJECTION HAS A BLUE TINT; HIGHEST INTENSITY

INJECTIONS AROUND THE CORNEA AND WEAKEN TOWARDS THE PERIPHERAL, THERE IS A DIFFUSE

REDENESS AND INDIVIDUAL VESSELS ARE NOT VISIBLE. THIS INJECTION IS CALLED

Conjunctival

Pericorneal

Mixed

#MAIN SYMPTOMS IN IRITIS ARE, EXCEPT

Eye pain

Decreased visual acuity and narrowed field of vision

Pericorneal or mixed injection

Constriction of the pupil

Change in iris color

Blurred iris pattern

#OBJECTIVE SIGNS OF IRIDOCYCLITIS

Pericorneal injection

Changing the color and pattern of the iris

Constriction of the pupil

The appearance of exudate in the moisture of the anterior chamber

The appearance of precipitates

All listed

#MAIN SYMPTOMS FOR CENTRAL CHORIORETINITIS ARE, EXCEPT

Eye pain

Decreased vision

Photopsias

Metamorphopsia

#INFLAMMATION OF THE IRIS IS CALLED

Choroiditis

#INFLAMMATION OF THE CILIAL BODY IS CALLED

Choroiditis

Chorioretinitis

#INFLAMMATION OF THE VACUUM PROPERLY IS CALLED

Choroiditis

Iridocyclitis

#PRECIPITATES THIS

Pitty deposits on the posterior surface of the cornea

Adhesions of the iris to the anterior surface of the lens

Pus in the anterior chamber of the eye

Presence of blood in the anterior chamber

Pinpoint opacities on the anterior surface of the cornea

Deposition of exudate on the iris

#SYNECHIA THIS

Adhesions of the iris to the lens or cornea

Pitty deposits on the posterior surface of the cornea

Vitreous floaters

Inflammatory deposits on the anterior surface of the lens

#TREATMENT OF IRITIS AND IRIDOCYCLITIS SHOULD FIRST START WITH

Mydriatic eye drops

Determining the etiology of uveitis

Etiotropic treatment

Desensitization therapy

Analgesic uses

#BENEFITIVE EFFECT OF MYDRIATIICS IN IRIDOCYCLITIS EXPLAINED

Creating rest for the iris and ciliary body

Reducing hyperemia of the anterior segment of the vascular tract

Reducing exudation of inflamed tissue

Prevents the formation of synechiae, fusion and fusion of the pupil

All of the above

#MYDRIATS ARE MEDICINES

Pupil dilation

Pupil constrictors

Reducing intraocular pressure

#THE STRONGEST MYDRIATIC EFFECT WHEN INSTILLED INTO THE EYE

POSSESSES

Sol. Atropini sulfatis 1%

Sol. Homatropini hydrobromidi 1%

Sol. Mesatoni 1%

Sol. Platyphyllini hydrotartratis 1%

Sol. Ephedrini hydrochloridi 2-3%

#DILAXATION OF THE PUPILS DURING INSTILLATION OF ATROPINE OCCURS DUE TO

Pupillary sphincter paralysis

Excitation of the pupillary dilator

Inactivation of the enzyme cholinesterase

#THESE DRUGS DILADATE THE PUPIL, EXCEPT

Sol. Adrenalini hydrochloride 0.1%

Sol. Atropini sulfatis 1%

Sol. Dicaini 0.25%

Sol. Scopolamini hydrobromidi 0.25%

Sol. Mesatoni 1%

#THE FOLLOWING DRUGS ARE USED FOR THE TREATMENT OF IRIDOCYCLITIS, EXCEPT

Pilocarpine

Corticosteroids

Antibiotics

Sulfonamides

#CORTICOSTEROIDS FOR THE TREATMENT OF UVEITIS ARE USED IN THE FORM

Instillation into the conjunctival sac

Injections under the conjunctiva

Retro- and parabulbar injections

Introduction to the Suprachoroidal Space

Ingestion

Intravenous injection

All of the above

#THE ACTION OF CORTICOSTEROIDS IN THE TREATMENT OF UVEITIS IS

Nonspecific anti-inflammatory and desensitizing

Desensitizing and antimicrobial

Antimicrobial and trophic

#THE PATIENT HAS IRIDOCYCLITIS AND INTRAOCULAR PRESSURE IS INCREASED (32 MM Hg).

WHICH OF THE LISTED DRUGS WILL YOU PRESCRIBE, EXCEPT

Mydriatics in eye drops

Miotics in eye drops

Diacarb inside

Glycerol inside

#OF THE LISTED METHODS ARE USED FOR DIAGNOSIS OF TUMORS

VASCULAR TRACT

Biomicroscopy

Direct ophthalmoscopy

Reverse ophthalmoscopy

Binocular ophthalmoscopy

Gonioscopy, diaphanoscopy and fluorescein angiography

Diaphanoscopy and fluorescein angiography

Echoscopy and echometry

Fluorescein angiography

Radioisotope diagnostics

All listed

#THE MAIN FUNCTION OF THE ANTERIOR AND POSTERIOR BORDER PLATES IS

Ensuring the sphericity of the cornea, a supporting membrane for the epithelium

Support membrane for epithelium, physicochemical and toxicochemical

eye protection

Physico-chemical protection of the eye, ensuring the sphericity of the cornea

#PROPRIUM SUBSTANCE (STROMA) OF THE CORNEA PROVIDES

Absorption of ultraviolet and infrared rays

Corneal transparency

Metabolism between intraocular and tear fluids

#THE MAIN FUNCTION OF THE POSTERIOR EPITHELIUM IS

Ensuring metabolic processes between the cornea and intraocular

liquid

liquid, eye protection from radiation damage

Ensuring metabolic processes between the cornea and intraocular

liquid, participation in the production of moisture in the anterior chamber

#THE MAIN FUNCTIONS OF THE CORNEA ARE

Protective, supporting, light-conducting

Light-conducting, light-refracting, protective

Supporting, light-refracting: moisture-producing

#THE REFRACTIVE POWER OF THE CORNEA IS

18.0-20.0 diopters

1.5-2.0 diopters

60.0-62.0 diopters

40.0-42.0 diopters

28.0-30.0 diopters

#CORNEA DIAMETER IS NORMAL

Vertical - 10 mm, horizontal - 11 mm

Vertical - 14 mm, horizontal - 15 mm

Vertical - 19 mm, horizontal - 20 mm

#NUTRITION SOURCES OF THE CORNEA

Posterior long ciliary arteries, nasociliary artery, tear

Tear, capillary network of the limbus zone, intraocular fluid

Intraocular fluid, anterior ciliary arteries, episcleral

#PROPERTIES OF A NORMAL CORNEA

Shiny, cone-shaped, sensitive, has a certain size

Transparent, ellipsoidal, has a certain shape

Transparent, shiny, highly sensitive, spherical shape,

has a certain size

#IN PINGVECULA... TREATMENT IS CARRIED OUT

Anti-inflammatory

Surgical

Laser

No treatment required

All of the above

#IN PROGRESSIVE PTERIGIUM IT IS CARRIED OUT

Surgical removal

Anti-inflammatory therapy

No treatment required

#DRUGS ARE USED FOR THE TREATMENT OF ALLERGIC CONJUNCTIVITIS, EXCEPT

Susp. Hydrocortisoni 0.5 - 1%

Ung. Hydrocortisoni ophthalmici 0.5%

Sol. Dexamethasoni 0.1%

1% prednisolone solution (eye drops)

Antihistamines by mouth

Sol. Atropini sulfatis 1%

#DRUGS ARE USED FOR THE TREATMENT OF ADENOVIRAL CONJUNCTIVITIS, EXCEPT

Ung.Bonaphthoni 0.05%

Ung. Florenali 0.25%-0.5%

Ung.Tebropheni 0.25-0.5%

Ung.Zoviraxi 3%

Sol. Atropini sulfatis 1%

Sol. Interferoni leicocytaris

Poludanum solutions in eye drops

Pyrogenal in eye drops

#A CHILD, 11 YEARS OLD, COMPLAINTED OF A PAIN IN THROAT, HIGH

BODY TEMPERATURES, TOUCHING IN BOTH EYES AND GLUE EYELIDS IN THE MORNING.

SICK 1 DAY. OBJECTIVE: BODY TEMPERATURE 37.8(. MUCOSA

AND THE PHYNARS ARE SHARPLY HYPEREMICATED, THE CONJUNCTIVA OF THE EYELIDS IS HYPEREMIATED,

LOSENED. FOLLICLES IN THE CONJUNCTIVA OF THE EYELIDS ARE STRONGLY ENLARGEED, AS IN

IN QUANTITY AND IN SIZE. YOUR DIAGNOSIS

Adenoviral conjunctivitis

Acute bacterial conjunctivitis

Diphtheria conjunctiva

#PATIENT, 23 YEARS OLD, COMPLAINTED ABOUT CURRING AND FEELING OF FOREIGN

BODIES IN BOTH EYES, GLUE EYELIDS IN THE MORNING. SICK FOR 2 DAYS. AT FIRST

THE RIGHT EYE SICK, AND THEN THE LEFT. OBJECTIVE: THE EYELASHES ARE DRY -

SEW CRUSTS. CONJUNCTIVA OF THE EYELIDS IS HYPEREMIMATED, VELVETY, FIGURE

THE MEIBOMIAN CARTILAGE GLANDS ARE NOT VISIBLE. MODERATELY STRONG

CONJUNCTIVAL INJECTION OF THE SCLERA. DIAGNOSIS

Acute bacterial conjunctivitis

Adenoviral conjunctivitis

Epidemic keratoconjunctivitis

Pneumococcal conjunctivitis

Diplobacilar blepharoconjunctivitis

#THE CHILD HAS SHARPLY SWELLED EYELIDS 2 DAYS AFTER BIRTH. OBJECTIVELY:

OPETAL SLITS ARE CLOSED. THE EYELIDS ARE SHARPLY SWELLY AND TOUGH TO THE TOUCH. AT

WHEN AN ATTEMPT TO OPEN THE EYELIDS, A COLOR LIQUID IS RELEASED FROM THE PALPECH SIT.

MEAT SWINGS. WHAT DISEASE SHOULD YOU THINK ABOUT FIRST?

Abscess of the eyelid

Gonoblenorrhea of ​​the conjunctiva

Acute chlamydia of the conjunctiva

Acute bacterial conjunctivitis of unknown etiology

#A 5-YEAR-OLD CHILD HAS COMPLAINTS OF INCREASED TEMPERATURE, PAIN IN THROAT;

REDENESS AND DISCHARGE FROM THE RIGHT EYE. BODY TEMPERATURE 37.8.

THE CHILD IS FLAWLESS AND ADYNAMIC. Pharynx is hyperemic, tonsils are swollen and covered

DIRTY GRAY FILMS. OD: EYELIDS SWELLY. CONJUNCTIVA EYELID SHARPLY

HYPEREMIZED, LOOSENED AND VELVETY. IT HAS GRAY FILMS ON IT,

DIFFICULTY TO REMOVE WITH CONSEQUENTIAL BLEEDING. EYE DIAGNOSIS

Diphtheria conjunctiva

Acute epidemic Koch-Wicks conjunctivitis

Pneumococcal conjunctivitis

Adenopharyngoconjunctival fever

#DURING HISTOLOGICAL STUDY, THE CORNEA IS ALLOCATED

Anterior and posterior epithelium, intrinsic substance (stroma)

Anterior and posterior epithelium, anterior and posterior border plates,

Anterior and posterior pigment epithelium, anterior and posterior border epithelium

plates, stroma

#THE MAIN PROPERTIES OF THE ANTERIOR EPITHELIUM OF THE CORNEAL IS

Participation in the production of tear fluid

High regenerative capacity

Mechanical protection of underlying tissues

#VISUAL ACUITY IS

The ability of the eye to clearly distinguish colors and shades

The ability of the eye to clearly distinguish objects in the center and on the periphery

The ability of the eye to perceive separately points located at each other

from each other at a minimum distance

Space simultaneously perceived by the fixed eye

#NORMALLY THE MINIMUM ANGLE OF VIEW IS

1 second

1 degree

5 seconds

5 minutes

5 degrees

#VISUAL ACUITY IS MEASURED

Relative units

Diopters

Centimeters

Millimeters

Degrees

#WHEN VISUAL ANGLE INCREASES

Decreases

Increases

No interdependence

#INTERDEPENDENCE BETWEEN VISUAL ANGLE AND VISUAL ACUTUITY

Reverse

There is no dependence between them

#PRODUCES THE HIGHEST VISUAL ACUTUITY

Area of ​​the central fovea of ​​the macula

Yellow spot all over

Optic disc region

Visus is uniform in all areas of the retina

#OPTOTYPE THIS

Letter, number or other character used to identify Visus

Type of visual ability

Features of the structure of the optical system of the eye

The value characterizing the refractive power of the optical system

#THE SNELLEN FORMULA IS

#RESEARCH SUBJECT COUNTING FINGERS FROM A DISTANCE OF 2.5 M. HIS VISUAL ACUITY?

#THE SUBJECT IS READING THE FIRST LINE OF THE TABLE WITH 3 M. HIS VISUAL ACUITY?

#RESEARCH COUNTING FINGERS FROM A DISTANCE OF 50 CM. HIS VISUAL ACUITY?

#RESEARCHED READS THE LETTERS OF THE 10TH ROW (D=5 m) OF THE SIVTSEV TABLE FROM 1 METER.

HIS VISUAL ACUITY IS EQUAL

#RESEARCHER READS THE FIRST LINE OF SIVTSEV’S TABLE FROM 5 METERS.

HIS VISUAL ACUITY IS EQUAL

#RESEARCHER READS THE LINE OF SIVTSEV’S TABLE FROM 5 METERS, WHERE D=25 m.

HIS VISUAL ACUITY IS EQUAL

#VISUAL ACUITY STUDY ACCORDING TO TABLES IS CARRIED OUT WITH

#WHEN STUDYING VISUAL ACUITY, DEMONSTRATE EACH SIGN OF THE TABLE

TO DO. . . SECONDS

#THE COLOR IS DIFFERENT IN THE SPECTRUM OF WHITE. . . . COLORS

#THE VISUAL ANALYZER HAS..... COLOR SENSING COMPONENTS

#ACCORDING TO HELMHOLTZ'S THEORY OF COLOR SENSATION, THERE ARE THREE IN THE RETINA

COLOR SENSING RECEPTOR

Red, green, blue

Orange, green, blue

Yellow, red, green

Green, yellow, red

Blue, orange, green

Purple, orange, green

#ARE MONOCHROME PHOTORECEPTORS EXCITED BY THE RAYS OF ANOTHER

WAVELENGTHS

Yes, but to a lesser extent

#RECEPTORS THAT PERCEIVE COLORS ARE

Cones

Ganglion cells

Bipolar cells

Pigment epithelial cells

#CORRECT COLOR SENSATION IS CALLED

Normal trichromasia

Anomalous trichromasia

Dichromasia

Monochromacy

#COLOR VISUAL DISORDERS ARE

Anomalous trichromasia

Dichromasia

Monochromacy

Protanomaly

Deuteranomaly

Deuteranopia

Protanopia

Tritanopia

Tritanomaly

All of the above

#PROTANOPIA THIS

Complete loss of perception of red color

#DEUTERANOPIA IS

Abnormal perception of red color

Abnormal perception of green color

Abnormal blue perception

Complete loss of perception of green color

Complete loss of blue perception

#TRITANOPIA IS

Abnormal perception of red color

Abnormal perception of green color

Abnormal blue perception

Complete loss of perception of red color

Complete loss of perception of green color

Complete loss of blue perception

#CONGENATE DISORDERS OF COLOR SENSATION ARE

Anomalous trichromasia, color anomalies, dichromasia

Erythropsia, xanthopsia, chloropsia, cyanopsia

#ACQUIRED DISORDERS OF COLOR SENSATION ARE

Anomalous trichromasia, color anomalies, dichromasia

Color abnormalities, dichromasia, erythropsia

Dichromasia, anomalous trichromasia, cyanopsia

Erythropsia, xanthopsia, chloropsia, cyanopsia

#AFTER CATARACT EXTRACTION, A PATIENT HAS ALL OBJECTS IN THE OPERATED CASE

THE EYES APPEAR TO BE BLUE. YOUR DIAGNOSIS:

Protanopia

Deuteranopia

Tritanopia

Erythropsia

Xanthopsia

Chloropsia

Cyanopsia

#AFTER THE POISONING, THE PATIENT BEGAN TO SEE EVERYTHING IN YELLOW. YOUR DIAGNOSIS:

Xanthopsia

Erythropsia

Chloropsia

Cyanopsia

#FIELD OF VIEW IS IMPORTANT BECAUSE

Provides orientation in space

Gives a description of the functional ability of vision. analyzer

Disorders are an early symptom of many diseases

Contributes to topical diagnosis of brain lesions

All of the above

#BLINDSPOT IS

Projection in the field of view of the optic nerve head

Projection in the field of view of the macula

Limited scotoma in any part of the visual field

Visual field defects from retinal vessels

#FIX POINT IS LOCATED

In the yellow spot

In the central fovea of ​​the macula

On the optic nerve head

#THE METHOD OF STUDYING THE VISUAL FIELD IS

Visometry

Anomaloscopy

Gonioscopy

Perimetry

Biomicroscopy

Ophthalmoscopy

Biometrics

#INDICATE TWO PHYSIOLOGICAL VISUAL FIELD DEFECTS

Blind spot and angioscotomas

Angioscotomas and scotomas on the periphery of the visual field

Scotomas in the periphery of the visual field and negative scotomas

Negative scotomas and concentric field narrowing

vision up to 20 degrees

Concentric narrowing of the field of view up to 20 degrees

#SCOTOMA, WHICH THE PATIENT HIMSELF FEELS, IS CALLED

Negative

Positive

Absolute

Relative

#DEVICES FOR STUDYING THE VISUAL FIELD ARE

Perimeters, campimeters

Kampimeters, gonioscopes

Perimeters, anomaloscopes

Kampimeters, ophthalmoscopes

Gonioscopes, adaptometers

#BLINDSPOT IS PHYSIOLOGICAL. . . . SCOTOMA

Absolute negative

Absolutely positive

Relative negative

Relative positive

#SCOTOMA THIS

Twilight vision disorder

Narrowing field of view

Focal visual field defect

#HEMIANOPSIA IS

Bilateral loss of half of the visual field

Loss of half the visual field in one eye

Lack of visual field in one eye

Marked bilateral narrowing of the visual field

#HEMIANOPSIA HAPPENS

Homonymous

Heteronymous

Quadrant

Bitemporal

Binasal

All listed

#IN BITEMPORAL HEMIANOPSIA IT IS AFFECTED

Optic nerve

External parts of the chiasm

Internal sections of the chiasm

Optic tract near the chiasm

Optic tract in the subcortical region

In the area of ​​the calcarine groove

#WHEN DAMAGE TO THE CENTRAL PARTS OF THE CHIASMA IS DETERMINED

Bitemporal hemianopsia

Binasal hemianopsia

Right hemianopsia

Left-sided hemianopsia

#IF THE RIGHT OPTIC TRACT IS DEFECTED, IT IS DETERMINED

Left-sided hemianopsia

Right hemianopsia

Bitemporal hemianopsia

Binasal hemianopsia

Complete loss of visual field on the right

Complete loss of visual field on the left

#ADAPTATION TO LIGHT LASTS. . . MINUTES

#FULL ADAPTATION TO DARKNESS LASTS. . . MINUTES

#THE TWILIGHT VISION DISORDER IS CALLED

Hemeralopia

Protanopia

Deuteranopia

Tritanopia

Scotoma

Asthenopia

#ARE STICKS CAPABLE OF DISTINCTIONING COLORS

#THE HIGHEST LIGHT SENSITIVITY HAVE

Cones

Bipolar cells

Ganglion cells

Pigment epithelial cells

#PHOTORECEPTORS ARE

Cones, rods

Cones, ganglion cells

Cones, pigment epithelial cells

Rods, ganglion cells

Rods, pigment epithelial cells

#DAYVISION IS ACTUAL

Cones

With chopsticks

#TWILIGHTVISION IS ACTUAL

Cones

With chopsticks

Retinal ganglion cells

Pigment epithelial cells

Bipolar cells of the retina

#SYMPTOMATIC HEMERALOPIA IS

Twilight vision disorder as a symptom of vitamin A deficiency

Twilight vision disorder as a symptom of cone damage

Congenital hemeralopia without fundus changes

Twilight vision disorder as a manifestation of eye disease

#FUNCTIONAL HEMERALOPIA DEVELOPES WITH

Organic lesions of the periphery of the retina and optic nerve

Congenital retinal pathology without fundus changes

Blunt eye trauma

Vitamin deficiency "A"

Vitamin deficiency "B"

Avitaminosis "C"

#CHARACTERISTIC FOR SYMPTOMATIC HEMERALOPIA

Other visual functions are not changed, the fundus is normal

Narrowing of the field of view, presence of changes in the fundus

#CHARACTERISTIC FOR FUNCTIONAL HEMERALOPIA

Other visual functions are not changed, the fundus is normal

The fundus is normal, the field of view is narrowed

Narrowing of the field of view, presence of changes in the fundus

Presence of changes in the fundus, other visual functions are normal

#PHYSICAL REFRACTION OF THE EYE IS DETERMINED

Refractive power of the lens

Refractive power of all optical media of the eye

Position of the main focus in relation to the retina

Refractive power of the cornea

#CLINICAL REFRACTION OF THE EYE DETERMINES

Refractive power of the lens

Refractive power of all optical media of the eye

The refractive power of all optical media of the eye and the position of the main

focus relative to the retina

Position of the main focus in relation to the retina

Refractive power of the cornea

#REFRACTIVE POWER OF THE CORNEA IS EQUAL. . . . DIOPTERIES

#THE REFRACTIVE POWER OF THE CRYSTAL IS EQUAL

#THE REFRACTIVE POWER OF THE EYE IS EQUAL

#IN RESTING ACCOMMODATION, THE MIOP SEES GOOD

Far and near

Neither far nor near

#IN REST OF ACCOMMODATION HYPERMETROP SEES GOOD

Far and near

Neither far nor near

#IN REST OF ACCOMMODATION THE EMMETROPE SEES WELL

Far and near

Neither far nor near

#IN EMMETROPIA IMAGE OF OBJECTS AT REST ACCOMMODATION

LOCATED

On the retina

Behind the retina

In front of the retina

#MYOPIC DISEASE IS MYOPIA

Weak degree

Moderate

High degree

Progressive

Any degree with dystrophic changes in the inner membranes of the eye

#MYOPIA IS CHARACTERIZED

Excessive refractive power or an increase in the anteroposterior axis of the eye

#EMMETROPIA IS CHARACTERIZED

Insufficient refractive power or decreased anteroposterior axis

Proportionality between refractive power and the length of the anteroposterior axis

A combination of different types of refraction

#HYPERMETROPIA IS CHARACTERIZED

Excessive refractive power or an increase in the anteroposterior axis of the eye

Insufficient refractive power or decreased anteroposterior axis

Proportionality between refractive power and the length of the anteroposterior axis

A combination of different types of refraction

#MYOPIA IS CORRECTED BY THE MOST. . . . . GLASS,

Strong positive

Weak negative

Strong negative

Weak positive

No correction required

#HYPERMETROPIA IS CORRECTED BY THE MOST. . . . . GLASS,

GIVING THE HIGHEST VISUAL ACUTUITY

Strong positive

Weak negative

Strong negative

Weak positive

No correction required

#EMMETROPIA IS CORRECTED. . . . . GLASS,

GIVING THE HIGHEST VISUAL ACUTUITY

The greatest positive

Least negative

The greatest negative

Least positive

No correction required

#LIST THE ELEMENTS THAT CONSTITUTE THE OPTICAL SYSTEM OF THE EYE

Cornea

Anterior chamber moisture

Lens

Vitreous body

All of the above

#WHEN THE FOCAL LENGTH OF THE LENS IS REDUCED, OPTICAL POWER

Doesn't change

Increases

Decreases

#WHEN INCREASE THE FOCAL LENS E" OPTICAL POWER

Doesn't change

Increases

Decreases

#OPTICAL POWER OF LENSES IS MEASURED IN

Centimeters

Millimeters

Dioptres

#DIOPTRIA IS

Unit of measurement of optical power.

Unit of measurement of visual acuity

#DIOPTRIA IS

The value is equal to the focal length.

The reciprocal of the focal length.

#THE FOCAL LENGTH OF A LENS WITH A POWER OF 1 DIOPTER IS EQUAL

#THE REFRACTIVE POWER OF A LENS WITH A FOCAL LENGTH OF 1 METER IS

#PHYSICAL REFRACTION OF THE EYE IS MEASURED IN

Dioptres

Relative units

#CLINICAL REFRACTION OF THE EYE IS MEASURED IN

Dioptres

Relative values

#IN DAILY ACTIVITIES, AN OPHTHALMOLOGIST DETERMINES. . . . REFRACTION

Clinical

Physical

#MAIN FOCUS COINCIDE WITH THE RETINA

Emmetropia

Hypermetropia

Ametropia

#MAIN FOCUS DOESN'T COINCIDE WITH THE RETINA IN

Emmetropia

Hypermetropia

Ametropia

#MAIN FOCUS IS LOCATED IN FRONT OF THE RETINA

Hypermetropia

Emmetropia

#THE MAIN FOCUS IS BEHIND THE RETINA

Emmetropia

Hypermetropia

Astigmatism

Presbyopia

#FURTHER POINT OF CLEAR VIEW IS

The point furthest from the eye visible during resting accommodation

The point furthest from the eye that is visible when straining

accommodation

#FURTHER POINT OF CLEAR VISION CHARACTERIZES.....REFRACTION

Physical

Clinical

#FURTHER POINT OF CLEAR VISION IN EMMETROPIA IS LOCATED

At infinity

Behind the eye

#FURTHER POINT OF CLEAR VISION IN MYOPIA IS LOCATED

At infinity

Behind the eye

At a finite distance in front of the eye

#FURTHER POINT OF CLEAR VISION IN HYPERMETROPIA IS LOCATED

At infinity

At a finite distance in front of the eye

Behind the eye

#ASTIGMATISM IS

A combination of different degrees of refraction or its different types in both

A combination of different degrees of refraction or its different types in one eye

Different sizes of images of objects on the retina

High degree of ametropia

#MARK TYPES OF ASTIGMATISM:

Correct

Wrong

Back

Mixed

All listed

#MAIN MERIDIANS OF AN ASTIGMATIC EYE ARE

Planes where there is the greatest difference in refractive power

Planes with the smallest difference in refractive power

Sections drawn in the vertical and horizontal meridians

#CONCLUSIVE LENSES WORSE VISION FOR A PATIENT, AND DIVISIVE LENSES

DO NOT CHANGE IT. HIS REFRACTION -

Emmetropia

Hypermetropia

Astigmatism

#COLLECTIVE LENSES IMPROVE VISION FOR A PATIENT. HIS REFRACTION -

Emmetropia

Hypermetropia

Astigmatism

#THE PATIENT SEES EQUALLY GOOD WITH GLASSES (+)1.0 D, (+)1.5 D AND

(+)2.0 D. ITS REFRACTION -

Emmetropia

Hypermetropia

#THE PATIENT SEES EQUALLY GOOD WITH GLASSES (+)1.0 D, (+)1.5 D AND

(+)2.0 D. HIS HYPERMETROPIA IS EQUAL

1.0 diopter

1.5 dioptres

2.0 dioptres

#THE PATIENT SEES EQUALLY GOOD WITH GLASSES (-)1.0 D, (-)1.5 D AND

(-)2.0 D. ITS REFRACTION -

Emmetropia

Hypermetropia

#THE PATIENT SEES EQUALLY GOOD WITH GLASSES (-)1.0 D; (-)1.5 D AND

(-)2.0 D. HIS MYOPIA IS EQUAL

1.0 diopter

1.5 dioptres

2.0 dioptres

#WHEN DETERMINING REFRACTION, SEVERAL COLLECTIVE LENSES GIVE

THE SAME VISUAL ACUTUITY, THEN THE DEGREE OF REFRACTION IS DETERMINED.... THE LENS

The strongest

The weakest

#SEVERAL DIVING LENSES FOR A SUBJECT GIVE THE SAME ACUTENESS

VIEW. THE DEGREE OF REFRACTION DETERMINES. . . . LENS

The weakest

The strongest

#HYPERMETROPIA IS DETERMINED BY THE STRONGEST CONCENTRING LENS BECAUSE

Collective lenses magnify the fundus image

Small degrees of hyperopia are self-corrected by accommodation

#MYOPIA IS DETERMINED BY THE WEAKEST MINUS LENS BECAUSE

Hypercorrection of eye myopia is eliminated using accommodation

Diverging lenses reduce the image in the fundus

proportional to strength

#WHEN THE FURTHER POINT OF CLEAR VISION IS 1 METER FROM THE EYE,

Emmetropia

Hypermetropia 1.0 diopter

Myopia 1.0 diopter

#THE TERM CYCLOPLEGIA IS UNDERSTANDED

Paralysis of the extraocular muscles

Paralysis of accommodation

Drug-induced mydriasis

Relaxation of accommodation

#CYCLOPLEGIA IS ACHIEVED BY BURNING

Adrenaline, clonidine, timolol

Pilocarpine, timolol, clonidine

Atropine, homatropine, scopolamine

#DURING ACCOMMODATION TENSION, EYE REFRACTION

Intensifying

Does not change

weakens

#PUPILE DURING ACCOMMODATION TENSION

Does not change

Tapers

Expanding

In some cases it narrows, and in others it expands

#THE ACTIVE COMPONENT OF ACCOMMODATION IS

Contraction of the ciliary muscle

Elastic properties of the lens

Change in the refractive index of the lens

Internal rectus muscle tension

#DURING CONTRACTION OF THE CILIAR MUSCLE, TENSION OF THE FIBERS OF THE LIGAMENT OF ZINN

Does not change

weakens

Intensifying

#CLENTUS UNDER ACCOMMODATION TENSION

Does not change

Flattens

Becomes more convex

Shifts downward, moving away from the cornea

#PRESBYOPIA IS RELATED TO

Age-related decrease in the elasticity of the lens and weakening

ciliary muscle

Age-related weakening of the ciliary muscle and a decrease in

lens refraction

Age-related decrease in the refractive index of the lens and

decrease in the discriminative ability of the retina

Age-related weakening of the discriminative ability of the retina and

decreased elasticity of the lens

#PRESBYOPIA USUALLY STARTS IN... . YEARS

#PRESBYOPIA APPEARS EARLIER WITH

Hypermetropia

Emmetropia

Doesn't matter

#IN PRESBYOPIA REFRACTION OF THE EYE

Does not change

weakens

Intensifying

#FURTHER POINT OF CLEAR VISION IN PRESBYOPIA

Does not change

Approaching the eye

Moving away from the eye

#CLEAREST POINT OF CLEAR VISION IN PRESBYOPIA

Does not change

Approaching the eye

Moving away from the eye

#PARESIS (PARALYSIS) OF ACCOMMODATION OCCURS WHEN DEFEATED

Sympathetic nerve fibers innervating the ciliary body

Parasympathetic part of the oculomotor nerve

Trochlear nerve

Abducens nerve

#CLEAREST POINT OF CLEAR VISION IN PARALYSIS OR PARESIS OF ACCOMMODATION

Moves away from the eye

Approaching the eye

Does not change

#CLINICAL REFRACTION OF THE EYE WITH ACCOMMODATION SPASMA

Intensifying

Does not change

weakens

#DECREASE IN THE DEGREE OF HYPERMETROPIA OCCURS WITH

Presbyopia

Spasm of accommodation

#FALSE EMMETROPIA DEVELOPES WITH

Presbyopia

Paralysis or paresis of accommodation

Spasm of accommodation

#FALSE MYOPIA DEVELOPES WITH

Presbyopia

Paralysis or paresis of accommodation

Spasm of accommodation

#THE CAUSE OF ACCOMMODATIVE ASTHENOPIA IS

Uncorrected hypermetropia

Uncorrected astigmatism

General weakening of the body

Chronic intoxication

All of the above

None of the above

#ACCOMODATIVE ASTHENOPIA IS MANIFESTING

Spasm of accommodation

Paresis of accommodation

The transition of latent hypermetropia to obvious

The appearance of false myopia

The appearance of false emmetropia

All of the above

None of the above

#FALSE MYOPIA OR EMMETROPIA CAN BE DISTINCTED FROM TRUE MYOPIA

With the help of drug cycloplegia

Selection of corrective lenses

During dynamic observation

#DURING SPASMA OF ACCOMMODATION CYCLOPLEGIA.... CLINICAL REFRACTION

Doesn't change

Weakens

Strengthens

#IN FALSE EMMETROPIA CYCLOPLEGIA.... CLINICAL REFRACTION

Doesn't change

Weakens

Strengthens

#IN FALSE MYOPIA CYCLOPLEGIA.... CLINICAL REFRACTION

Doesn't change

Weakens

Strengthens

#IN ACCOMMODATIVE ASTHENOPIA, THE ANOMALY SHOULD BE CORRECTED

REFRACTION

After cycloplegia and prescribe glasses for constant wear

After cycloplegia and prescribe glasses for distance

Without cycloplegia and prescribe glasses for constant wear

Without cycloplegia and prescribe glasses for distance

#AMETROPIA IS RELATED

Emmetropia and myopia

Myopia and hypermetropia

Hypermetropia and emmetropia

#WEAK DEGREE AMETROPIA HAS THE FOLLOWING REFRACTION VALUES: BEFORE

2.75 D inclusive

3.0 D inclusive

#METERATE DEGREE AMETROPIA HAS THE FOLLOWING REFRACTION VALUES: FROM

2.75 to 5.75 D

3.25 to 6.0 D

3.5 to 6.25 D

#HIGH GRADE AMETROPIA HAS THE FOLLOWING REFRACTION VALUES: MORE

#WEAK HYPERMETROP AT A YOUNG AGE MAKES COMPLAINTS ABOUT

Decreased distance vision

Decreased near vision

Difficulty reading

Rapid eye fatigue

No complaints

#HYPERMETROP OF A WEAK DEGREE AFTER 40 YEARS MAKES COMPLAINTS ABOUT

Decreased distance vision

Decreased near vision

Difficulty reading

Eye fatigue when working at close range

All of the above

None of the above

#OBVIOUS HYPERMETROPIA IS

The degree of hypermetropia detected without relaxation of accommodation

Part of hypermetropia detected after medication

relaxation of accommodation

The sum of the degrees of hypermetropia identified before and after medication

paralysis of accommodation

#FULL HYPERMETROPIA IS

The degree of hypermetropia detected without relaxation of accommodation

The degree of hypermetropia determined after drug-induced paralysis

accommodation

#FULL HYPERMETROPIA IS REVEALED

In old age

After drug cycloplegia

For aphakia

With all of the above

#IN CHILDREN WITH MODERATE OR HIGH DEGREE HYPERMETROPIA

MAY DEVELOP

Binocular vision disorder

Formation of monocular vision

Concomitant strabismus

Amblyopia

Accommodative asthenopia

Chronic conjunctivitis

All of the above

None of the above

#A YOUNG HYPERMETROP OF A WEAK DEGREE SHOULD BE APPOINTED

Full correction for permanent wear

Full correction for near

Full distance correction

Glasses 1.0 diopter less than the degree of hyperopia

#INDICATIONS FOR PRESCRIBING GLASSES FOR HYPERMETROPIA

ANY DEGREE ARE

Asthenopic complaints

Decreased visual acuity in both eyes

Decreased visual acuity even in one eye

Children under 4 years of age with hypermetropia greater than 3.0 diopters, regardless of

All of the above

None of the above

#CHILDREN AGED 2-4 YEARS EVEN WITH HIGH VISUAL ACUTUITY IF THEY HAVE

HYPERMETROPIA IS REVEALED MORE THAN 3.0 DIOPTERS, GLASSES ARE PRESCRIBED FOR

Constant wearing; glass 1.0 diopter less degree

hypermetropia,

Constant wearing; glasses equal degrees of hypermetropia,

determined after cycloplegia

Near vision; glasses equal degrees of hypermetropia,

determined after cycloplegia

Near vision; glass is 1.0 diopter less than the degree of hypermetropia,

determined after cycloplegia

Not assigned

#CHILDREN WITH MODERATE DEGREE HYPERMETROPIA EVEN AT HIGH ACUCUNCY

VISUAL CORRECTION IS PRESCRIBED FOR

Prevention of amblyopia and binocular vision disorders

Accommodation training and amblyopia prevention

Normal development of the ciliary body and regulation of ophthalmotonus

Regulation of ophthalmotonus and prevention of amblyopia

#THE CAUSES OF MYOPIA ARE

Heredity

Primary weakness of accommodation

Visual overload

Imbalance of convergence and accommodation

Increased scleral extensibility

All of the above

None of the above

#IN NON-PROGRESSIVE MYOPIA

There is a decrease in distance vision

Well corrected with lenses

Requires only correction with glasses or contact lenses

Drug treatment is not indicated

Everything is correct

#IN PROGRESSIVE MYOPIA MAY BE OBSERVED

Exotropia

Muscular asthenopia

Dystrophy of the choroid and retina

Posterior staphyloma

Hemorrhages in the retina and vitreous body

Vitreous opacification

Complicated cataract

Retinal disinsertion

All of the above

None of the above

#HYPERCORRECTION OF MYOPIA IN CHILDREN AND ADOLESCENTS CAN BE AVOIDED

PURPOSE OF CORRECTION

After drug cycloplegia

1-2 D weaker

Based on objective methods for determining refraction

According to repeated studies

#FOR MODERATE AND HIGH DEGREES MYOPIA, THE FOLLOWING CORRECTION IS PRESCRIBED

1-3 diopters weaker than the degree of myopia, giving a fairly high

distance vision

Two pairs of glasses; full correction for distance, and for near

1-3 diopters weaker

Bifocal glasses (for distance, full correction, for near

1-3 diopters weaker)

All of the above

Gentle mode

Lifting weights is contraindicated

Jumping is prohibited

Limitations for visual overload

All of the above

#CHOOSE AN OPERATION THAT WILL HELP STOP THE PROGRESSION

Radial keratotomy

Keratomileusis

Strengthening the posterior segment of the sclera

Epikeratophakia

Implantation of a negative intraocular lens

In childhood

At 18 - 35 years old

Over 35 years old

Age does not matter

#ANISOMETROPIA IS

Different degrees of refraction in both eyes

Different sizes of images of objects in the fundus of both eyes

#WHAT IS ANISEIKONIA

Different degrees of refraction in both eyes

Different sizes of images of objects in the fundus of both eyes

Not the same refraction in different meridians of one eye

Change in refraction along one of the meridians of the eye

#ALLOWABLE LIMIT OF DIFFERENCE BETWEEN LENS POWER FOR spectacle correction

ANIZOMETROPIA FOR THE RIGHT AND LEFT EYES IS

#FOR ANIZOMETROPIA THEY ARE PRESCRIBED

Contact correction

Iseikonic glasses

Radial keratotomy

Glasses with a difference in optical power of both eyes of no more than 2.0 D

All of the above

Emmetropia

Hypermetropia

#WHEN EXAMINING THE LENS: (+)2.0; (+)2.5; (+)3.0 DIOPTER

THEY GIVE EQUALLY GOOD VISION. INDICATE THE DEGREE OF HYPERMETROPIA

THEY GIVE EQUALLY GOOD VISION. SPECIFY THE TYPE OF REFRACTION

Emmetropia

Hypermetropia

#WHEN EXAMINING THE LENS: (-)1.0; (-)1.5 AND (-)2.0 DIOPTER

THEY GIVE EQUALLY GOOD VISION. SPECIFY THE DEGREE OF MYOPIA

#EMMETROPE AT THE AGE OF 50 WILL GET GLASSES FOR WORK

Not needed

#EMMETROPEAN AGE 90 NEEDS GLASSES TO READ

#MIOP (-)2.0 DIOPTER AT THE AGE OF 50 YOU NEED GLASSES FOR READING

Not needed

#CYCLOPLEGIC DRUGS ARE NOT

Sol.Atropini sulfatis 1%

Sol.Pilocarpini hydrochloridi 1%

Sol.Homatropini hydrobromidi 1%

Sol.Scopolamini hydrobromidi 0.25%

DISTANCE. VISUS OU = 0.6 C CORR.(+)2.0 D=1.0. YOUR DIAGNOSIS

Mild hypermetropia, accommodative asthenopia, presbyopia

Mild hypermetropia, muscular asthenopia, presbyopia

Moderate hypermetropia, accommodative asthenopia, presbyopia

Moderate hypermetropia, muscular asthenopia, presbyopia

#ACCOUNTANT, 36 YEARS OLD, COMPLAINS OF HEADACHES THAT GENERATE TOWARDS THE END

WORKING DAY, VISUAL DETERIORATION WHEN READING AND WORKING AT CLOSES

DISTANCE. VISUS OU = 0.6 C CORR.(+)2.0 D=1.0. YOUR RECOMMENDATIONS

Glasses Sph (+)2.0 D, for constant wear.

Glasses Sph.(+)2.0 D, for work.

Points Sph. (+)1.0 D, for work.

#OUTER (FIBROUS) COVER OF THE EYE IS CALLED

Conjunctiva

Epithelium

#THE MAIN FUNCTIONS OF THE SCLERA ARE

Supporting, providing tone, protecting the internal membranes

Providing eye shape, supporting turgor, protecting internal

structures, place of attachment of extraocular muscles

Place of attachment of the eye muscles and internal structures, providing

trophism of chorioretinal structures, protection of refractive media

#SCHLERA STRUCTURE

Epithelium, stroma, subscleral (brown) plate

Conjunctiva, episclera, Tenon's capsule, stroma, pigment epithelium

Episclera, substance proper, subscleral (brown) plate

#THE AVERAGE THICKNESS OF THE SCLERA IS

#THE GREATEST SCLERAL THICKNESS IS DETERMINED

In the area of ​​the equator of the eyeball

In the region of the posterior pole of the eye

Uniform throughout

#TROPHYSATION OF THE SCLERA IS CARRIED OUT MAINLY FROM VESSELS

Choroids

Extrinsic muscles of the eye

Episclera

#SCLERITIS AND EPISCLERITIS APPEAR MORE FREQUENTLY WITH

Traumatic injuries, radiation burns, transition of inflammation

from surrounding tissues (orbital phlegmon, conjunctivitis, keratitis)

Fungal infection, local hormonal imbalance

Systemic diseases, allergic manifestations, viral

lesions, chronic specific infections of the body

#SCLERITIS AND EPISCLERITIS DIFFER IN

The method of penetration of the infectious agent

The nature of the inflammatory process

Depth of damage

#IN EPISCLERITIS THE INFLAMMATORY PROCESS IS PRIMARILY INVOLVED

Superficial layers of the sclera

Deep (inner) layers of the sclera

The entire thickness of the sclera

#WITH EPISCLERITIS, PATIENTS COMPLAIN ABOUT

Severe pain in the eye, lacrimation and photophobia, decreased

visual acuity

Eye redness, mild soreness and photophobia

Redness of the eye, “burning” behind the eyelids, scanty mucopurulent

discharge

#OBJECTIVELY THE CLINIC OF EPISCLERITIS IS CHARACTERIZED

A clear inflammatory focus of bluish color with dense infiltration

conjunctiva around it with sharp pain on palpation of the entire

eyeball

A bright red with a purple tint, a fairly localized focus,

slightly protruding above the surface of the sclera with painful palpation

this zone

A diffuse diffuse infiltrate of gray-yellow color behind the upper eyelid with

overhanging the limbus area, scant purulent discharge from

conjunctival cavity

#VISUAL ACUITY IN EPISCLERITIS

Practically does not suffer

Slowly getting worse

Sharply and significantly reduced

#PREDICTION FOR VISUAL FUNCTIONS IN EPISCLERITIS

Favorable

Doubtful

Adverse

#SCLERITIS, UNLIKE EPISCLERITIS, ARE DIFFERENT

More “spread out” lesion of the sclera

Local damage to the sclera

Deep damage to the sclera

Diffuse damage to the entire sclera

#PAINESS WITH SCLERITIS

Absent

#IN SCLERITIS, THE INFILTRATIVE PROCESS EXTENDS TO

conjunctiva

Choroid

Retina and optic nerve

#SCLERITIS RESULTS IN INFILTRATIVE FOCI

Dissolve without a trace

Scarring with dark-colored thinning of the sclera

Rough scarring with yellow scleral thickening

Scarring with the formation of a bluish “ridge”

#COMPLEX THERAPY FOR SCLERITIS INCLUDES

Antibacterial agents, vasodilators, immunostimulants,

tissue biostimulants

Antibiotics, immunomodulators, proliferation stimulators

Corticosteroids, immunosuppressants, antihistamines

#CONJUNCTIVA IS DIVIDED INTO... PARTS

#THE FOLLOWING DIVISIONS OF THE CONJUNCTIVAL ARE DISTRIBUTED

Eyelids, transitional folds and eyeball

Eyelid, eyeball and cornea

Eyelid, crease and eyeball

Eyelid, lacrimal caruncle and eyeball

#FEATURES OF THE CONJUNCTIVAL EYELIDS ARE

Tight fusion with cartilaginous plate

Multilayer cylindrical epithelium

The epithelium contains a large number of goblet cells

Everything is correct

#FEATURES OF THE CONJUNCTIVAL TRANSITIONAL FOLDS ARE

Loose connection with underlying tissues

Some redundancy of the conjunctiva in the fornix

There are few goblet cells

Subepithelial tissue is rich in adenoid elements (follicles)

Contains a large number of accessory lacrimal glands

Everything is correct

#CHARACTERISTIC FOR THE CONJUNCTIVA OF THE EYEBALL, EXCEPT

Multilayer squamous epithelium

There is little adenoid tissue (only on the periphery)

Contains many lacrimal glands

#CONJUNCTIVA PERFORM THE FOLLOWING PHYSIOLOGICAL FUNCTIONS

Protective

Trophic

Moisturizing

Barrier

All listed

#FOR THE PROTECTIVE FUNCTION OF THE CONJUNCTIVAL IS CHARACTERISTIC, EXCEPT

Increased lacrimation when exposed to debris and irritants

Increased blinking movements when hit by specks or irritants

Lubrication of the surface of the eyeball with conjunctival secretion

The density of the conjunctival tissue protects the eye from penetration

foreign bodies

#THE BASIS OF THE BARRIER FUNCTION OF THE CONJUNCTIVAL IS

The abundance of lymphoid elements in the submucosa of adenoid tissue

The secret of the conjunctival glands

Excessive tearing

Density and resistance of conjunctival tissue to toxic

substances

#TROPHIC FUNCTION OF THE CONJUNCTIVA IS PROVIDED

Tear and secretion of the conjunctival glands

Adenoid tissue of the submucosal layer

#IN RECENT DECADES THE FREQUENCY OF VIRAL CONJUNCTIVITIS DISEASES

COMPARED WITH BACTERIAL CONJUNCTIVITIS

Increased

Decreased

Remained unchanged

#CHARACTERISTIC FOR ADENOVIRAL CONJUNCTIVITIS

Nonpurulent follicular conjunctivitis

Presence of petechial hemorrhages in the conjunctiva of the sclera

Severe swelling of the lower transitional fold

The presence of dense gray films on the conjunctiva that are difficult to remove

The presence of delicate gray, easily removable films on the conjunctiva of the eyelids

The appearance of cracks and maceration in the corners of the eyelids

#ADENOVIRAL CONJUNCTIVITIS APPEARS IN THE FOLLOWING FORMS

Catarrhal

Follicular

Membranous

All of the above

#CHARACTERAL FORM OF ADENOVIRAL CONJUNCTIVITIS IS CHARACTERISTIC, EXCEPT

The cornea is not involved in the process

The presence of gray dense films on the conjunctiva of the eyelids

#FOR THE FOLLICULAR FORM OF ADENOVIRAL CONJUNCTIVITIS IS CHARACTERISTIC,

Hyperemia of the conjunctiva of the eyelids and transitional folds

Small amount of mucopurulent discharge

Discharge purulent, copious

Rash of follicles on the conjunctiva of the cartilage and transitional folds of the eyelids

#CHARACTERISTIC FOR THE FILMY FORM OF ADENOVIRAL CONJUNCTIVITIS, EXCEPT

Formation of delicate, easily removable films on the conjunctiva of the eyelids

Formation on the conjunctiva of the eyelids of rough, difficult to remove films with

subsequent bleeding

Moderately severe hyperemia of the conjunctiva of the eyelids and transitional folds

Small amount of mucopurulent discharge

#TRACHOMATOUS PROCESS IS USED TO BE DIVIDED INTO..... STAGES

#CONSEQUENCES OF TRACHOMA ARE

Entropion century

Symblepharon

Parenchymal xerosis

All of the above

#TRICHIASIS

Incorrect eyelash growth

#ENTROPION IS

Incorrect eyelash growth

Inversion of the eyelids, in which the eyelashes grow towards the eye

Fusion of the conjunctiva of the eyelids and the eyeball

Drying of the conjunctiva and cornea

#SYMBLEPHARON THIS

Incorrect eyelash growth

Inversion of the eyelids, in which the eyelashes grow towards the eye

Fusion of the conjunctiva of the eyelids and the eyeball

Drying of the conjunctiva and cornea

#PAIRENCYMATOUS XEROSIS IS

Incorrect eyelash growth

Inversion of the eyelids, in which the eyelashes grow towards the eye

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