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Title SOME ASPECTS OF BOVINE OVA CULTURE IN VITRO Author(s)KANAGAWA, Hiroshi CitationJapanese Journal of Veterinary Research, 27(3-): 9 Issue Date 1979-12-27 DOI 10.193/jjvr.27.3-.9 Doc URL http://hdl.handle.net/2115/2175 Type bulletin File Information KJ00002373996.pdf Instructions for use Hokkaido University Collection of Scholarly and Aca

Jap. J. vet Res., 27, 9-5 (1979) SOME ASPECTS OF BOVINE OVA CULTURE IN VITRO ' Hiroshi KANAGA W A Department of Veterinary Obstetrics Faculty of Veterinary Medicine Hokkaido Uni'versity, Sapporo 060, Japan (Received for publication, March 10, 1979) One hundred and thirty-three fertilized ova were grouped into three categories; normal, young and degenerated on the 5th day after insemination. A simple culture technique of a stoppered test tube with Brinster's medium and a gas mixture was applied. Thirty-eight out of 6 normal ova (82.6 %) were developed into the blastocysts. The young and degenerated ova showed very poor development. Ten normal ova were kept for 2- hours at room temperature before culture and 56 normal ova were exposed under microscopic light for 30 seconds or 30 minutes before culture. Nine ova from the former group and 6 ova from the latter group were developed into the blastocysts, respectively. INTRODUCTION Since bovine embryo transfer has become commercial (SWENSSON & HEWETT, '7; ROWSON, '76; BETTERIDGE, '77; KANAGA WA, '77), short term preservation or culture of bovine ova from the time of recovery to transfer is essential for an embryo transfer program. A simple and reliable culture technique for utilization in the field is important. There are a few reports of in vitro culture of bovine ova, however, some required paraffin oil (McKENZIE & KENNEY, '73; SEIDEL, '7; GORDON, '76; WRIGHT et al.,i8,19) '76), a humidified atmosphere and a CO 2 gas incubator. In 197, TERVlT et al. cultured bovine embryos in stoppered test tubes; and this report had been the most encouraging up to that time. Similar results were obtained with the stoppered test tube culture technique by SHEA et al. ('7), KANAGAWA et al. ('75) and KANAGAWA & BASRUR (unpublished data). This study was carried out 111 order to adapt a simple culture technique for an embryo transfer program; factors such as temperature and artificial light before cultures were tested. MATERIALS AND METHODS One hundred and thirty-two fertilized ova, ranging from 8-cell to 32-cell stages, were obtained from 25 Holstein Beef cross bred heifers by uterine flushing surgically, under general anesthesia on the 5th day after onset of standing estrus. All heifers were subjected to superovulation by 2,000 I U of gonadotrophic hormone (Pregnant

50 KANAGAWA, H. Mare's Serum, Ayerst Laboratories, Inc), ad'ministered intramuscularly during a postestral period between days 9 and 1. The day of onset of standing estrus was considered as day O. After 2 hours of the gonadotrophin injection, 25 mg of prostaglandin (Prostin F2 alpha, Upjohn Company) was injected intramuscularly. The onset of standing estrus was observed approximately 0 hours after the prostaglandin injection. During estrus, artificial insemination was performed twice at 12 hour intervals with 2 doses of frozen semen which was obtained from a local artificial insemination center. Fertilized ova were recovered from the oviduct and uterine horn by flushing with tissue culture medium (TCM-199, Grand Island Biological Company) at 37 C. After recovery, the ova were transferred into small glass dishes with Brinster's medium (BMOC-3, Grand Island Biological Company), and classified into 3 groups: normal, young and degenerated ova. One hundred and seventeen ova were classified as normal, ranging from 8-cell to 32-cell stages, without damage and degeneration. classified as young, ranging from 2-cell to -cell stages. degenerated ova with some degree of degeneration in the blastomeres. Six ova were Ten ova were classified as Forty-six normal ova, 6 young ova and 10 degenerated ova were cultured in 5 ml glass test tubes with one ml of BMOC-3 (fig. 1). The gas (5 % of CO 2, 5 % of O 2 and 90 % of N 2 ) was applied for one minute just before the culture was put into the culture tube which was quickly shielded with a rubber stopper (fig. 2). the culture tube was kept in an incubator at 37 C. Thereafter, Ova development in the culture was evaluated by phase contrast inverted microscopy at 2 hour intervals. After each observation of cultured ova a new medium and gas mixture were applied into the culture tube. Seventy-one normal ova were treated at room temperature (25 C), with artificial light and transportation without any protection before the culture. table 1. RESULTS The result of the development of normal ova to the blastocyst stage is shown in Sixteen out of seventeen 8-cell ova were developed into the expanded blastocysts after days incubation in vitro. Fourteen out of eighteen 16-cell ova after 3 days, and eight out of eleven 32-cell ova after 2 days, were developed into expanded blastocysts (figs. 3 & ). As shown in table 1, 38 out of 6 normal ova (82.6 %) from three stages were developed into the expanded blastocysts after 2 - days in vitro culture. beginning of hatching occurred in some of the expanded blastocysts. The culture result of 6 young ova from 2-cell to -cell stages and 10 degenerated ova of the 32-cell stage is shown in table 2. There were no developments from 5 young ova of the 2-cell and 3-cell stages. The One -cell ovum was developed until lo-cell stage after days in vitro; however, there was no further development and degeneration occurred (figs. 5-7). Only one out of ten degenerated ova was developed into a blas-

-------------- - ---~-------- Bo'vine o'va culture in vitro 51 tocyst, and 9 ova were degenerated completely after days III vitro. The summary result of treatment before culture is shown in table 3. Treatment at room temperature (25 C) for 2 and hours before culture caused 9 out of 10 normal ova to develop into expanded blastocysts. Fifty-six normal ova from three stages were kept under microscopic light using the maximum degree of the transformer without TABLE 1 Eo'vine o'va culture in B1vl0C-3 INITIAL STAGE NO. OF OVA CULTURED DA YS IN VITRO DEVELOPED TO BLASTOCYST(%) 8-cell 17 16 (9.1) 16-cell 18 3 1 (77.8) 32-cell 11 2 8 (72.7) TOTAL 6 38 (82.6) TABLE 2 Young and degenerated o'va culture in B1vl0C-3 INITIAL STAGE NO. OF OVA CULTURED DAYS IN VITRO REMARKS 2-cell 1 No development 3-cell No development -cell 1 lo-cell, degeneration 32-cell (Deg.) 10 1 blastocyst TABLE 3 Treatment before culture in I)A10C-3 TREATMENT TIME INITIAL STAGE NO. OF OVA DAYS IN CULTURED VITRO DEVELOPED TO BLASTOCYST Room temp. 25 C Room temp. 25 C 2 hr hr 8-cell 16-cell 5 5 5 5 SUBTOTAL 10-5 9 Microscopic-light 30 sec. 8-cell 12 10 Microscopic-light 30 min. 16-cell 32-ce 11 16-cell 21 17 6 3 2 16 1 6 SUBTOTAL 56 2-6 Short trans-portation for 100 km TOTAL 8-cell 5 5 71 59

52 KANAGAWA, H. any filter system for 30 seconds or 30 minutes before culture. Forty-six out of 56 ova (82.1 %) were developed into the expanded blastocysts after culture in vitro for 2 -- 5 q~ys. Five normal ova of the 8-cell stage were kept in a culture tube with one ml of BMOC-3 and placed in the chest pocket of a passenger in a car. The car was driven for approximately one hour for about 100 km before culture; using this method, out of 5 ova developed into the expanded blastocysts. DISCUSSION Several studies have been carried out using the bovine ova culture in vitro microdrop technique under paraffin oil (McKENZIE & KENNEY, '73; WRIGHT et a}.18,19), '76); the covered glass dish technique (SEIDEL, '7; BOLAND et ai., '75; SREENAN et ai., '75; TROUNSON et al. 11l, '76); the medium covered with paraffin oil (SEIDEL, '7); the stoppered test tube with paraffin oil (GORDON, '76); and the one ml of medium under paraffin oil in test tube technique (RENARD et ai., '76). The results of this study show that bovine ova can be cultured in vitro into expanded blastocysts from the 8-cell stage in the BMOC-3 medium in a sealed tube with a gas mixture. The quality of ova is an important factor in bovine embryo transfer. The results of this study of young ova and degenerated ova showed very poor results for development in vitro. Due to unknown factors, these young ova, ranging from 2-cell to -cell stages, stopped development on the 5th day after insemination in the donor's reproductive tract. KANAGAWA (,76) reported that no pregnancy was observed from the 2- cell to 7 -cell ova transferred on the 5th or 6th day after insemination. Under normal conditions, SHEA et al. ('7) cultured early stages of recovered ova and only 6 % of those were fertilized. The one-cell stage developed beyond the 8-cell to 12-cell stages. BETTERIDGE (,77) stated that bovine embryos recovered in the early stages of cleavage can rarely be cultured beyond the 8-cell to 12-cell stages and he suspected that late 8-cell ova are easier to culture into blastocysts than are ova that have just reached the 8-cell stage. KANAGA WA ('76) reported that few pregnancies occurred from the transfer of a certain degree of degenerated ova. The results of this study showed only one out of 10 degenerated 32-cell ova were developed into an expanded blastocyst. The only method that has been used to evaluate the quality of bovine ova after collection is morphological observation. Additional basic studies are needed so that ova judged viable can, in fact, produce a calf even to some degree of degeneration. Concerning the commercial basis of embryo transfer, it is difficult to discard a potentially valuable ova, and it is also an economical loss to transfer the non-potential ova. No studies have been published specifically comparing room temperature and body temperature for storage of ova between recovery and transfer. The culture system in

Bovine oopa culture in 'vitro 53 the present study indicates that ova can be held for at least hours at room temperature (25 C) before transfer. Since the microscope is an essential tool for locating ova from the recovery fluid and for examining ova morphologically, a strong artificial light needs to be validated for ova handling. This study, however, shows that a high rate (82.1 %) of development was observed after exposure to the strong microscopic light, and that the rate of development was similar to normal ova cultures (82.6 %) without light exposure. For practical embryo transfer, short transportation of recovered ova from one place to another is very useful. Only 5 ova were tested prior to this study, however, ova were developed into the blastocysts. This result may encourage further development III this field. Additional fundamental studies are needed to maintain and handle bovine ova in vitro for the improvement of an embryo transfer program. There is a lack of information on how the potential use of biochemical, biophysical and metabolic parameters may reflect the bovine ova. ACKNOWLEDGEMENTS A part of this study was performed at the Ontario Veterinary College, University of Guelph, and at The Research Laboratory of Modern Ova Trends, Limited, with the help of Dr. D. C. WILSON. The author wishes to thank Dr. T. ISHIKAWA for reading and criticizing this manuscript. REFERENCES 1) BETTERIDGE, K. J. (1977): Embryo transfer III farm animals. A review of techniques and applications. Monog, 16, Ottawa: Can. Dep. of Agric. 2) BOLAND, M. P., CROSBY, T. F. & GORDON, I. (1975): Rr. '('et. J., 131, 738 3) GORDON, I. (1976): lvld Ret'. Anim. Prod., 12, 33 ) KANAGAWA, H. (1976): A. Conf. into Embryo Transfer Soc., Jan. 17, 1976, Denver, Colorado 5) KANAGAWA, H. (1977): ~lnim.llush., Tokyo, 31, 103 (in Japanese) 6) KANAGAW A, H. & BASRUR, P. K. (1978): unpublished data 7) KANAGAWA, H., BEDIRIAN, K., RINGELBERG, C. &. BASRUR, P. K. (1975): Proc. Soc. Study Reprod., 71 (abstr. No. 7) 8) McKENZIE, B. E. & KENNEY, R. M. (1973): Am. J. "INt. Res., 3, 1271 9) RENARD, J. P., du MESNIL du BmSSON, F., WINTENBERGER-TORRES, S. & MENEZO, Y. (1976): Egg Transfer in Cattle. Ed. ROWSON, L. E. A., Eur 591, 159, Luxembourg: Commn of the European Communities 10) ROWSON, L. E. A. (1976): Egg Transfer in Cattle. Eur 591, I, Luxembourg: Commn of the European Communities 11) SEIDEL, G. E., Jr. (197): Proc. Soc. Study Breeding Soundness, 9

5 KANAGAWA, H. 12) SHEA, B. F., CHURCH, R. B. & TERVIT, R. (197): Proc. Soc. Study Reprod., 17 (abstr.) 13) SREENAN, J. M., BEEHAN, D. & MULVEHILL, P. (1975): J. Reprod. Fert.,, 77 1) SWENSSON, T. & HEWETT, C. (197): Symposium on Egg Transplantation, Pub. No. 75, Hallsta: Ass. Swed. Livestk Breed. & Prod. 15) TERVIT, H. R, WHITTINGHAM, D. G. & ROWSON, L. E. A. (197): J. Reprod. Fert., 30, 93 16) TROUNSON, A. 0., WILLADSEN, S. M. & ROWSON, L. E. A. (1976): Ibid., 7, 367 17) TROUNSON, A. 0., WILLADSEN, S. M., ROWSON, L. E. A. & NEWCOMB, R (1976): Ibid., 6, 173 18) WRIGHT, R. W., Jr., ANDERSON, G. B., CUPPS, P. T. & DROST, M. (1976): Biol. Reprod., 1, 157 19) WRIGHT, R. W., Jr., ANDERSON, G. B., CUPPS, P. T. & DROST, M. (1976): J. A.nim. Sci. 3. 170 PLATE EXPLANATION OF PLATE Fig. 1 Fig. 2 Fig. 3 A test tube with rubber stopper for culture in vitro Gassing apparatus of culture tube before incubation Six normal bovine ova at 32-cell stage before culture A pprox. X 120 Fig. Same ova as in figure 3 Developed into late morula and early blastocyst after 3 days in vitro Approx. X 120 Fig. 5-7 A young ovum on 5th day after insemination was cultured in vitro for 2 hours (fig. 5), 8 hours (fig. 6) and 96 hours (fig. 7). One blastomere is large but has no cleavage. Some cleavages from small blastomeres are observed. Approx. X 200

KANAGAWA, H. PLATE 3