1.Expression of FSHR mRNA in female genital organs.
Jin Hee YOO ; Sun Won YOO ; Mi Young JEONG ; Haw Jeong SON ; Jung Ho CHA ; Jang Heub KIM ; Eun Jung KIM ; Jin Hong KIM ; Ki Sung RYU
Korean Journal of Obstetrics and Gynecology 2002;45(4):575-582
FSH is the pivotal hormone in the regulation of ovarian function and acts by binding to specific receptor, FSH receptor (FSHR), which is belong to the family of G-protein coupled receptor. It have been considered that ovary is the only target organ of FSH because FSHR mRNA was first detected in ovarian follicles. However expression of FSHR mRNA was also detected on fallopian tube in experimental animal study and it is related wih tumorigenesis in postmenopausal women.In this study, in order to understand the FSH function in female genital organs, the ontogeny of the production profile of FSHR and the pattern of its localization in female genital organs were studied. We obtained the fresh tissues of ovary, fallopian tube, uterine body and uterine cervix with blood samples during proliferative phase in women with regular menstrual cycle. To establish FSHR mRNA expression of human internal genital organ, we studied by using in situ hybridization and quantitative competitive reverse transcription polymerase chain reaction (QC RT-PCR). To localize FSHR transcripts by in situ hybridization, we synthesized digoxigenin-labelled ssRNA probe (about 800 bp) from the cloned FSHR cDNA. For QC RT-PCR, we designed oligonucleotide primers (antisense: 5'-GGCCCTGCTCCTGGTCTCTTTG-3', sense: 3'-AACAGCGGGAGTACCTTCGG-5') which produced 799 bp sized PCR products. Simultaneously we synthesized 149 bp deleted DNA competitor by site-directed mutagenesis to quantify target FSHR mRNA expression comparing as internal control.In situ hybridization with digoxigenin-labelled ssRNA probe showed no signal above the background in primordial follicles. FSHR mRNA was first detected in the single layer of cuboidal granulosa cells surrounding primary follicles. As follicular growth progressed, FSHR mRNA expression increased gradually in antral and graafian follicles. Similary, in fallopian tube, the epithelium stained intensly. But FSHR mRNA expression was absent in uterine body including endometrium and myometrium and uterine cervix. Total RNA was extracted and quantitated by QC RT-PCR. The amounts of FSHR transcript measured were 840.00+/-516.29 in the ovarian tissue, 240.00+/-154.91 in the fallopian tube, 6.06+/-4.13 in the uterine body, 5.48+/-5.00 fg in the uterine cervix. These experiments demonstrated that FSHR mRNA is expressed in the ovary and fallopian tube, albeit only small amount was expressed in uterine body and cervix.In conclusion, the presence of FSHR mRNA in female internal genital organ with site specific pattern suggested that FSH may have some role in female genital organs during the adult reproductive cycle and may act as an factor in the tumorigenesis. Further study about the functional role and tumorigenesis of FSH should be performed in human internal genital organ.
Adult
;
Animals
;
Carcinogenesis
;
Cervix Uteri
;
Clone Cells
;
DNA
;
DNA Primers
;
DNA, Complementary
;
Endometrium
;
Epithelium
;
Fallopian Tubes
;
Female
;
Female*
;
Genitalia
;
Genitalia, Female*
;
Granulosa Cells
;
GTP-Binding Proteins
;
Humans
;
In Situ Hybridization
;
Menstrual Cycle
;
Mice
;
Mutagenesis, Site-Directed
;
Myometrium
;
Ovarian Follicle
;
Ovary
;
Polymerase Chain Reaction
;
Receptors, FSH
;
Reverse Transcription
;
RNA
;
RNA, Messenger*
2.Vesical Endometriosis : A Review and 1 Case Report.
Ho Hyeon JEONG ; Je Jong KIM ; Jae Heung CHO ; Sung Kun KOH
Korean Journal of Urology 1988;29(1):162-164
The term endometriosis refers to ectopic endometriume. It most often involves the pelvic organs, including ovaries, broad and round ligaments, fallopian tubes, cervix, vagina and the pouch of Douglas. We report a case of vesical endometriosis in a 4- year old female patient and review literature. Segmental resection of this mass with involved bladder resulted in cure and this lesion was confirmed histologically as endometriosis of the bladder.
Cervix Uteri
;
Endometriosis*
;
Endometrium
;
Fallopian Tubes
;
Female
;
Humans
;
Ovary
;
Round Ligament of Uterus
;
Urinary Bladder
;
Vagina
3.A Case of Perineal Endometriosis at the Site of Episiotomy Scar.
In Ho LEE ; Jun Kil BAEK ; Hyuk Jun WOO ; Jae Sik HONG ; Yi Kyeong CHUN ; Jun Sik HONG
Korean Journal of Obstetrics and Gynecology 2004;47(6):1232-1235
Endometriosis generally occurs in the pelvis, particularly in the broad ligament, round ligament, ovaries, fallopian tubes or uterosacral ligament. However, many unusual sites have been described, including the umbilicus, cesarean section scars, hernia sacs, appendix, vagina, vulva, omentum and perineum. We experienced a case of perineal endometriosis diagnosed according to cyclic perineal pain associated with menstration and report it with brief review of literature.
Appendix
;
Broad Ligament
;
Cesarean Section
;
Cicatrix*
;
Endometriosis*
;
Episiotomy*
;
Fallopian Tubes
;
Female
;
Hernia
;
Ligaments
;
Omentum
;
Ovary
;
Pelvis
;
Perineum
;
Pregnancy
;
Round Ligament of Uterus
;
Umbilicus
;
Vagina
;
Vulva
4.The Histologic Features of the Uterus and Adnexa Extirpated from Gender Identity Disorder Patients with Depot Androgen Injection.
Jae Chun BYUN ; Bong Gyu KWAK ; Ji Hyun SHIN ; Moon Seok CHA ; Myoung Seok HAN ; Seo Hee RHA ; Seok Kwun KIM
Korean Journal of Fertility and Sterility 2005;32(4):325-330
OBJECTIVE: To investigate the histologic features of the uterus and adnexae extirpated from gender identity disorder (GID) patients that received depot androgen injection. METHODS: We reviewed the histologic findings of the uterus and adnexae removed from sixteen GID patients, who had taken depot androgen injection for 5~168 months. RESULTS: Fourteen patients (87.5%) showed the atrophied epithelium of exocervix and all of 16 patients (100%) showed the atrophy of endometrium. Seven patients (43.7%) showed multiple cystic follicles in the ovarian cortex and 6 patients (37.5%), 3 patients (18.7%) showed corpus albicans and corpus luteum, respectively. CONCLUSIONS: Exogenous androgen induced atrophy of cervix and endometrium. This effect was more prominent in the endometrium. In addition, PCO-like histologic features were observed in the ovary.
Atrophy
;
Cervix Uteri
;
Corpus Luteum
;
Endometrium
;
Epithelium
;
Female
;
Gender Identity*
;
Humans
;
Ovary
;
Uterus*
5.A Case of Primary Malignant Melanoma of Uterine Cervix.
In Cheol LEE ; Won Gue KIM ; Bang HUR
Korean Journal of Obstetrics and Gynecology 2001;44(11):2132-2136
Malignant melanoma is usually a neoplasm of the skin and mucous membranes which is relatively rare, comprising 1% of all cancers. In women, approximately 3% of malignant melanoma are located in the genitalia with the vast majority occuring in the vulva and very rarely on the ovary, uterus, and uterine cervix. Opinions about its histogenesis, diagnostic criteria and elective treatment are controversial, because of rare manifestation. We report a case of primary malignant melanoma of uterine cervix with a brief review of the literature.
Cervix Uteri*
;
Female
;
Genitalia
;
Humans
;
Melanoma*
;
Mucous Membrane
;
Ovary
;
Skin
;
Uterus
;
Vulva
6.Expression of Fas, Fas-ligand, Bcl-2 and Bad with Maturation of Human Ovarian Follicle.
Dong Jin KWON ; Ki Cheol KIL ; Hyun Hee JO ; Mi Ran KIM ; Yong Taik LIM ; Jang Heub KIM ; You Young OAK ; Dai Hoon KIM ; Jin Woo LEE ; Jin Hong KIM
Korean Journal of Obstetrics and Gynecology 2003;46(1):55-61
Human ovarian follicles reduce rapidly in number throughout fetal and adult life. Throughout the menstrual cycles, primordial follicles grow into mature follicles and then ovulate to form corpus luteum. Apoptosis has been implicated in several events that occur during the process of follicular growth, atresia and the regression of the corpus luteum. By the use of immunohistochemistry, we clarified the involvement of apoptosis in the human ovary during follicular growth, regression and atresia by investigating the expression of Fas, Fas-ligand, Bcl-2 and Bad in primordial follicles, primary follicles and mature follicles. Fas immunostaining was present in primordial oocytes, both oocytes and granulosa cells of primary follicles, preantral follicles and all follicular cells of mature follicles. Fas-ligand and Bad immunostaining patterns were similar to those of Fas except for theca cells. Bcl-2 immunostaining was present in both oocytes and granulosa cells of primary, preantral and mature follicles. In corpus luteum, Fas, Fas-ligand, Bcl-2 and Bad immunostaining were observed and decreased in the regressing corpus luteum. In postmenopausal ovary, Fas, Fas-ligand, Bcl-2 and Bad immunostaining were entirely negative. Bad immunostaining was observed but Bcl-2 was not in atretic follicle. These results suggest that Fas, Fas-ligand, Bcl-2 and Bad may play important roles in human ovary during follicular growth, regression and atresia simultaneously. Further studies should be required to elucidate the underlying mechanism and apoptosis of the disease associated with normal and abnormal ovarian aging.
Adult
;
Aging
;
Apoptosis
;
Corpus Luteum
;
Female
;
Granulosa Cells
;
Humans*
;
Immunohistochemistry
;
Menstrual Cycle
;
Oocytes
;
Ovarian Follicle*
;
Ovary
;
Theca Cells
7.Serum Levels and Expressions of Inhibin A and Inhibin B in the Ovaries of Perimenopausal Women.
Jang Heub KIM ; Mee Ran KIM ; Yoon Jin LEE ; Seong Jin HWANG ; Hyun Hee JO ; Ki Sung RYU ; Young Ok LEW ; Ku Taek HAN ; Jong Gu RHA ; Jin Hong KIM
Korean Journal of Obstetrics and Gynecology 2003;46(12):2392-2402
OBJECTIVE: To understand the physiologic effects and secretion pattern of inhibin A and inhibin B during menstrual cycle and menopausal transition, inhibin A and inhibin B levels were measured. And to detect any changes in expression of inhibins in human ovary with age, we examined immunohistochemical staining of alpha, beta A, and beta B subunits of inhibin in ovarian tissues. This study was also designed to investigate whether or not inhibin is an early marker for menopausal transition. METHODS: Inhibin A and inhibin B levels were measured in 320 samples from normal reproductive women, in 60 from perimenopausal women, and in 20 from menopausal women by ELISA. And we examined the immunohistochemical staining of alpha, beta A, and beta B subunits of inhibin in ovarian tissues of 35 normal reproductive, 20 perimenopausal, and 5 menopausal women, respectively. RESULTS: In the normal reproductive women, inhibin A begins to increase in the late proliferative phase (16.53 +/- 1.57 pg/ml), reaches the peak in the mid-secretory phase (45.85 +/- 2.08 pg/ml), and subsequently decreases. Inhibin B begins to increase in the early proliferative phase (65.40 +/- 4.08 pg/ml), reaches the peak in the ovulatory phase (110.74 +/- 9.83 pg/ml), and thereafter declines rapidly. In the perimenopausal women, mean inhibin A serum concentration was 6.68 +/- 0.53 pg/ml during proliferative phase and 21.78 +/- 3.61 pg/ml during secretory phase, which were significantly lower than that of the same phase in the normal reproductive women (P<0.01). Mean inhibin B serum concentration was 52.16 +/- 7.46 pg/ml during proliferative phase and 22.41 +/- 6.73 pg/ml during secretory phase, which were significantly lower than that of the same phase in the normal reproductive women (P<0.01, P=0.025). In the menopausal women, both inhibin A and inhibin B were not detected. In the normal reproductive women, we observed strong immunostaining for alpha subunit in granulosa cells, theca cells, and corpus luteum. Immunostaining for beta A subunit was observed in corpus luteum, but not in growing follicles. Immunostaining for beta B subunit was observed in primary follicle, granulosa and theca cells of growing follicle, and mature follicle, but less strong than immunostaining for alpha subunit. No staining for beta B subunit was observed in the corpus luteum. In the perimenopausal women, immunostaining for inhibin subunits were observed in the same pattern as that of the normal reproductive women, but weaker. Stronger immunostaining was observed in theca cells than in granulosa cells. In the menopausal women, none of the immunostaining of inhibin subunits were observed. CONCLUSION: It is concluded that inhibin A is associated with the luteal function and inhibin B, the follicular function. The secretion of inhibins decreased rapidly in the perimenopausal transition period and were not detected in the menopausal period. Inhibin A and inhibin B are associated with the follicular maturation and development. It suggests that the inhibin A and inhibin B are good candidates as markers for perimenopausal transition.
Corpus Luteum
;
Enzyme-Linked Immunosorbent Assay
;
Female
;
Granulosa Cells
;
Humans
;
Inhibins*
;
Menstrual Cycle
;
Ovary*
;
Theca Cells
8.A Case of Mayer-Rokitansky-Kuster-Hauser (MRKH) Syndrome with Amenorrhea and Sexual Precosity.
Jong Gyun AHN ; Hey Sung BAEK ; Jeh Hoon SHIN
Journal of Korean Society of Pediatric Endocrinology 2005;10(1):110-114
The Mayer-Rokitansky-Kuster-Hauser (MRKH) syndrome is comprised of vaginal atresia with other variable Mullerian duct abnormalities. Its features include an absent or very short vagina and a uterus that can be absent or immaturely formed. Female with MRKH syndrome have functioning ovaries, normal external genitalia and the typical 46, XX, karyotype. MRKH syndrome is the second most common cause of primary amenorrhea, usually remains undetected until the patient presents with primary amenorrhea despite normal sexual female development. We report a case of MRKH syndrome, associated with ovarian follicular cyst, in a 14-years-old girl who visited for primary amenorrhea and sexual precosity.
Amenorrhea*
;
Female
;
Follicular Cyst
;
Genitalia
;
Humans
;
Karyotype
;
Ovary
;
Uterus
;
Vagina
9.Expression of Mullerian Inhibiting Substance and Its Receptor in the Human Ovary During Menstrual Cycle.
Jang Heub KIM ; Seo Ho CHUNG ; Eun Joo CHOI ; Hwang Seong JIN ; Hyun Hee JO ; Mee Ran KIM ; Eun Jung KIM ; Jin Hong KIM ; Ki Sung RYU
Korean Journal of Obstetrics and Gynecology 2004;47(9):1725-1732
In this study, in order to further understanding of function of Mullerian inhibiting substance (MIS) and the ontogeny of the production profile of biologically active MIS and MIS type II receptor (MISR II), the patterns of their localization according to the follicular development in 21 ovarian specimens from women in reproductive age were studied by immunohistochemical staining. The flattened granulosa cells in primordial follicles failed to stain for MIS and MISR II, but the first staining was detected in the cuboidal granulosa cells in primary follicles. MIS and MISR II were detected specifically and exclusively in the cytoplasm of granulosa cells. The granulosa cells of both single and multiple layered growing preantral follicles showed strong specific staining for MIS and MISR II. Among the growing follicles, large follicle stained more intensely than small one. Within the multiple layers of granulosa cells, the innermost cells, closer to the oocyte, stained more intensely for MIS than those near the basement membrane, but MISR II was evenly distributed. In antral follicles, expression of the MIS was only seen in the granulosa cells, but MISR II was seen in the granulosa cells and theca cells. In large antral follicles, cumulus cells and periantral granulosa cells stained more intensely for MIS than those in the periphery. MIS staining waned in the mature follicles just before ovulation and could not be found in atretic follicles, corpus luteum, and corpus albicans. The expression levels of MISR II in mature follicles was lower than those in growing follicles and were even further reduced, but still detectable, in corpus luteum. There was a decreased level of MISR II expression when follicles become atretic and eventually lost from atretic follicles. The MIS and MISR II staining were not found in primordial follicles, oocytes, interstitial cells, ovarian epithelium, and corpus albicans. It is concluded that actions of MIS via MISR II are autocrine and paracrine in nature. The pattern of MIS and MISR II expression according to the menstrual cycles and development suggest that MIS may act as an intraovarian regulator of follicle maturation, selection and ovulation during the adult reproductive cycle.
Adult
;
Anti-Mullerian Hormone*
;
Basement Membrane
;
Corpus Luteum
;
Cumulus Cells
;
Cytoplasm
;
Epithelium
;
Female
;
Granulosa Cells
;
Humans*
;
Menstrual Cycle*
;
Oocytes
;
Ovarian Follicle
;
Ovary*
;
Ovulation
;
Theca Cells
10.Distribution and Role of Ovarian Follicle Macrophage in Rat Ovarian Follicular Atresia.
Yun Seok YANG ; Heung Tae NOH ; Yun Ee RHEE ; Sung Kyong SON ; Keun Ja CHO ; Hee In CHOI ; Soo Il KIM ; Won Sik KIM
Korean Journal of Obstetrics and Gynecology 2005;48(10):2353-2366
OBJECTIVE: Ovarian follicular atresia is initiated from ovarian granulosa cell apoptosis and macrophages exert their effects directly and/or indirectly on follicular atresia by phagocytosis of apoptotic bodies and secretion of various cytokines. In spite of the abundant data on ovarian macrophages, the presence of these cells within the follicles (i.e., among granulosa cells) remains controversial and the elimination methods of apoptotic bodies of atretic follicles, and the time and methods of penetration of macrophages into the follicles are not known completely. The aim of the present study is to demonstrate the presence of macrophage within the ovary as related to follicular atresia and the process of elimination of apoptotic granulosa cells by light and electron microscopy. METHODS: Using rat ovaries, immunohistochemical studies with rat macrophage monoclonal antibody ED1 for macrophages, and light and transmission electron microscopic observations were performed. RESULTS: In the rat, follicular atresia was initiated by the granulosa cell apoptosis which occured randomly within the all granulosa layers. Macrophages were observed within normal follicles, in antrum, granulosa and theca cell layers of atretic follicels, in interstium and in corpus luteum. Ultrastructurally, apoptotic granulosa cells showed characteristics, pyknotic nucleus and apoptotic body formation. Apoptotic bodies were eliminated by intact neighboring granulosa cells and macrophages. Intact granulosa cells ingested apoptotic bodies transiently, soon after they fell into the apoptosis. Finally, apoptotic bodies and degenerating oocytes were phagocytosed by macrophages. Macrophages entered the ovarian follicle at the time of initiation of granulosa cell apoptosis, and migrated with the progression of apoptosis. By elimination of theca cells, macrophages contributed the completion of follicular atresia. CONCLUSION: This study demonstrates both intact neighboring granulosa cells and macrophages in the elimination of apoptotic bodies in atretic follicles of the rat ovary. Macrophages are present within normal follicles, in atretic follicles such as antrum, granulosa and theca cell layers and in corpus luteum but are in different appearances according to their location in ovary. A number of macrophages appearing in atretic follicles and in corpora lutea suggest a role for macrophages in follicular atresia and corpus luteum differentiation. The function of macrophage according to their location in follicular development should be further studied.
Animals
;
Apoptosis
;
Corpus Luteum
;
Cytokines
;
Female
;
Follicular Atresia*
;
Granulosa Cells
;
Macrophages*
;
Microscopy, Electron
;
Oocytes
;
Ovarian Follicle*
;
Ovary
;
Phagocytosis
;
Rats*
;
Theca Cells