Wyniki wyszukiwania

1

Development of the ophthalmic artery in human embryos

100%

Wozniak W., Bruska M., Fenger-Woznicka S., Grzymislawska M., Rojewska M., Sobanski J., Lupicka J.

Acta Biologica Cracoviensia. Series Botanica. Supplement

|

2014

|

tom 56

|

nr 1

2

The trigeminal ganglion in human embryos of stage 14 (approximately 32 postovulatory days)

100%

Bruska M., Wozniak W.

Folia Morphologica

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1989

|

tom 48

|

nr 1-4

3

Differentiation of sclerotomes in human embryos aged 5 weeks

86%

Grzymislawska M., Lupicka J., Wozniak W., Bruska M., Skorzewska A.

Acta Biologica Cracoviensia. Series Botanica. Supplement

|

2014

|

tom 56

|

nr 1

4

The trigeminal ganglion in human embryos at stage 16th and 17th (6th week). Light microscopic study

86%

Bruska M., Wozniak W.

Folia Morphologica

|

1988

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tom 47

|

nr 1-4

5

The first appearance of sympathetic ganglia in human embryos at stage 13

86%

Wozniak W., Grzymislawska M., Lupicka J.

Folia Morphologica

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2009

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tom 68

|

nr 4

215-217

The primordia of the sympathetic trunk ganglia were traced on serial sections of 10 embryos at stage 13 (32 postovulatory days). It was found that in all embryos, these primordia were present in the thoracic level T4 to T9 and they appeared as scattered aggregates of cells lying dorsally and laterally to the dorsal aortae. (Folia Morphol 2009; 68, 4: 215–217)

6

The motor nucleus of the trigeminal nerve in human embryos at stage 13 (28 postovolatory days)

86%

Bruska M.

Folia Morphologica

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1990

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tom 49

|

nr 3-4

7

The trigeminal ganglion in human embryos at stage 15 (5th week)

86%

Bruska M.

Folia Morphologica

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1987

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tom 46

|

nr 3-4

8

White communicating rami in human embryos at the end of the fifth week

86%

Bruska M., Lupicka J., Pytel A., Wozniak W.

Folia Morphologica

|

2010

|

tom 69

|

nr 2

White communicating rami were traced in 8 human embryos of developmental stages 14 and 15 (aged 33 and 36 postovulatory days, respectively). In embryos at stage 14 the white communicating rami were found in the spinal nerves T1 to T9. In embryos at stage 15 the white communicating rami were present at the spinal cord levels T1 to L3. (Folia Morphol 2010; 69, 2: 75–77)

9

The development of Meckel's cartilage in staged human embryos during the 5th week

86%

Lorentowicz-Zagalak M., Przystanska A., Wozniak W.

Folia Morphologica

|

2005

|

tom 64

|

nr 1

23-28

The study was conducted on 15 embryos aged 5 weeks. The primordium of Meckel’s cartilage appears at stage 13 (32 days) as a rounded structure composed of fusiform and polygonal cells, which blend with other cells of the mandibular process. At stages 14 and 15 (33 and 36 days) Meckel’s cartilage forms a well delineated core of small densely packed cells.

10

Analysis of human embryos and fetus gestational age on basis of biparietal diameter

86%

Adamczak R., Szymanski W., Klyszejko C., Nowak D., Adamczak I.

Acta Biologica Cracoviensia. Series Botanica. Supplement

|

2000

|

tom 42

|

nr 1

11

The timing and sequence of appearance of the distal branches of the human embryonic vestibular ganglion

86%

Ulatowska-Blaszyk K., Bruska M.

Folia Morphologica

|

1999

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tom 58

|

nr 3

Vestibular ganglion was investigated in human embryos during developmental stages l3-23 (34-56 postovulatory days). Branches of the vestibular ganglion forming ampullar nerves were observed in ernbryos at stage I5. During the last embryonic stages (stage 22 and 23) the utriculo-ampullar, posterior ampullar, and saccular nerves were clearly distinguished.

12

The oculomotor nuclear complex at the end of the embryonic period [stage 23]

86%

Szyszka-Mroz J.

Folia Morphologica

|

1999

|

tom 58

|

nr 2

Investigations were made on .serial sections of human embryos at developmental stage 23 (56 days). The oculomotor complex in embryos at this stage consists of lateral, median, and accessory nuclei. The lateral (chief) nucleus forms the greatest part of the oculomotor complex and it is subdivided into ventromedial and dorsolateral groups. Between the posterior portions of lateral nuclear groups is the median nucleus. Dorsally and medially to the lateral nucleus is the accessory (parasympathetic) nucleus.

13

Development of the urorectal septum and differentiation of the urogenital sinus in human embryos of stages 13 to 19

86%

Kromer P.

Folia Morphologica

|

1996

|

tom 55

|

nr 4

14

Further study of the urorectal septum in staged human embryos

86%

Kromer P.

Folia Morphologica

|

1999

|

tom 58

|

nr 1

Study was carried out on serial section of 45 human embryos of stages 13 to 23. The urorectal septum develops from three folds: single superior and two lateral ones. Development of the urorectal septum begins at stage 13 when the superior fold between the hindgut and allontois appears. At stage 15, all three folds unite to from complete septum, reaching the cloacal membrane and dividing the cloaca into anterior compartment, the primary urogenital sinus and the posterior compartment rectum.

15

Meninx primitiva of the spinal cord in human embryos at stage 13 [28 postovulatory days]

86%

Guzniczak L., Bruska M., Wozniak W.

Folia Morphologica

|

1996

|

tom 55

|

nr 4

16

The vestibulocochlear ganglion in human embryos at stage 13

86%

Wozniak W., Bruska M., Ulatowska-Blaszyk K., Skorzewska A.

Folia Morphologica

|

1993

|

tom 52

|

nr 2

17

The development of the atrioventricular valves in staged human embryos

86%

Szyszka-Mroz J.

Folia Morphologica

|

1996

|

tom 55

|

nr 4

18

Microvasculature of the human fetal extra-ocular muscles. A SEM corrosion casts

86%

Strek P., Strek W., Nowogrodzka-Zagorska M., Pitynski K.

Folia Morphologica

|

1995

|

tom 54

|

nr 3

19

The early development of the external germinal layer of the human embryonic cerebellum

86%

Janczewski M., Bruska M., Wozniak W.

Folia Morphologica

|

1998

|

tom 57

|

nr 1

20

The development of the epidural space in human embryos

86%

Patelska-Banaszewska M., Wozniak W.

Folia Morphologica

|

2004

|

tom 63

|

nr 3

The epidural space is seen in embryos at stage 17 (41 days) on the periphery of the primary meninx. During stage 18 (44 days) the dura mater proper appears and the epidural space is located between this meninx and the perichondrium and contains blood vessels. During the last week of the embryonic period (stages 20–23) the epidural space is evident around the circumference of the spinal cord. On the posterior surface it is found between the dura mater and the mesoderm of the dorsal body wall.

Ograniczanie wyników

Development of the ophthalmic artery in human embryos

The trigeminal ganglion in human embryos of stage 14 (approximately 32 postovulatory days)

Differentiation of sclerotomes in human embryos aged 5 weeks

The trigeminal ganglion in human embryos at stage 16th and 17th (6th week). Light microscopic study

The first appearance of sympathetic ganglia in human embryos at stage 13

The motor nucleus of the trigeminal nerve in human embryos at stage 13 (28 postovolatory days)

The trigeminal ganglion in human embryos at stage 15 (5th week)

White communicating rami in human embryos at the end of the fifth week

The development of Meckel's cartilage in staged human embryos during the 5th week

Analysis of human embryos and fetus gestational age on basis of biparietal diameter

The timing and sequence of appearance of the distal branches of the human embryonic vestibular ganglion

The oculomotor nuclear complex at the end of the embryonic period [stage 23]

Development of the urorectal septum and differentiation of the urogenital sinus in human embryos of stages 13 to 19

Further study of the urorectal septum in staged human embryos

Meninx primitiva of the spinal cord in human embryos at stage 13 [28 postovulatory days]

The vestibulocochlear ganglion in human embryos at stage 13

The development of the atrioventricular valves in staged human embryos

Microvasculature of the human fetal extra-ocular muscles. A SEM corrosion casts

The early development of the external germinal layer of the human embryonic cerebellum

The development of the epidural space in human embryos