Agricultural Science Digest

  • Chief EditorArvind kumar

  • Print ISSN 0253-150X

  • Online ISSN 0976-0547

  • NAAS Rating 5.52

  • SJR 0.156

Frequency :
Bi-monthly (February, April, June, August, October and December)
Indexing Services :
BIOSIS Preview, Biological Abstracts, Elsevier (Scopus and Embase), AGRICOLA, Google Scholar, CrossRef, CAB Abstracting Journals, Chemical Abstracts, Indian Science Abstracts, EBSCO Indexing Services, Index Copernicus
Agricultural Science Digest, volume 44 issue 1 (february 2024) : 180-183

​Assessment of Fecundity and Its Relation with Body Parameters of Common Carp, [Cyprinus carpio (var.) communis] in Dal Lake, Kashmir

I. Mohamad1,*, F.A. Bhat1,*, M.H. Balkhi1, T.H. Shah1, B.A. Bhat1, A. Wali1
1Faculty of Fisheries, Rangil, Ganderbal, Sher-e-Kashmir University of Agricultural Sciences and Technology of Kashmir, Srinagar-190 006, Jammu and Kashmir, India.
Cite article:- Mohamad I., Bhat F.A., Balkhi M.H., Shah T.H., Bhat B.A., Wali A. (2024). ​Assessment of Fecundity and Its Relation with Body Parameters of Common Carp, [Cyprinus carpio (var.) communis] in Dal Lake, Kashmir . Agricultural Science Digest. 44(1): 180-183. doi: 10.18805/ag.D-5344.
Background: Fecundity is an important parameter in fisheries that predicts the reproductive capability of fish stock. Information on the fecundity of Common carp is helpful in estimating the amount of offspring produced in spawning season, which is essential for the stock assessment of the species. Assessment of the fecundity of a fish is essential for evaluating the commercial potentialities of its stock, life history, practical culture and actual management of the fishery. Common carp is a commercially important fish which has the potential to meet the demand of food in the country. Scanty of data is available on fecundity parameter of common carp in Kashmir waters. Therefore, this research work aims to estimate the fecundity of Common carp collected from the Dal lake of Kashmir.

Methods: The present study aims to estimate the fecundity of Common carp, [Cyprinus carpio var. communis] existing in Dal Lake, Kashmir. The 30 fish samples were collected once every month from the month of January 2018 to December 2018. Fishes were brought to Fisheries Resource Management (FRM), Faculty of Fisheries, SKUAST-K Laboratory for the estimation of total length, weight of fishes and weight of ovaries. Gravimetric and actual counting method was used for the estimation of fecundity. 

Result: It was observed that the number of eggs varied from 16650 (for a fish with total length 180mm and total weight 120 g) to 129000 (for a fish with total length 430 mm and total weight 1300 g. The mean absolute fecundity was recorded as 68864.07± 6563.59 for a fish with a mean total length of 301.43 ± 13.93 mm and mean total weight of 435.1 ± 66.51 g. The relative fecundity ranged from 99.2-240.8 and the mean relative fecundity was 185.96. Significant positive correlation was found between fish weight and absolute fecundity. (r= 0.907, p<0.01), fish length and absolute fecundity (r= 0.976, p<0.01), Ovary weight and absolute fecundity (r= 0.998, p<0.01). Relative fecundity showed a significant negative correlation with weight, length and absolute fecundity (r= -0.747, p<0.01; r= -0.419, p<0.05 and r= -0.460, p<0.05 respectively.
Fecundity, i.e., reproductive potential is an important biological parameter that plays a significant role in evaluating the commercial potentials of fish stocks (Gomezmarquez, 2003). Assessment of fecundity is important for  successful fisheries management including practical aquaculture relies to understand the recovery ability of fish populations (Lagler, 1956; Nikolskii, 1969; Tracey et al., 2007). The potential of egg output can be estimated by the fecundity and its relation to female size (Chondar, 1977) and the potential number of offspring in a season and reproductive capacity of fish stocks (Qasim and Qayyum, 1963). Alikunhi (1966) stated fecundity of the Common carp in the tropics has early maturity and year-round breeding; under temperate conditions there is a specific annual breeding cycle, during which the fish may spawn once or under exceptionally good conditions, twice or thrice, while in the tropics a mature carp may spawn five or six times in the course of a year under optimum conditions and the absolute fecundity increases with each spawning. As a result, the number of eggs produced per fish per year is significantly higher in the tropics.

Fish species exhibit wide variations in fecundity, even among individuals of the same species, size and range (Bagenal, 1957), which may be due to differential feeding success within the members of population prior to spawning (Bagenal, 1978) and probably due to release of the eggs in batches. Variation in fecundity may also be due to the existence of different age classes (Saliu et al., 2007). Fecundity of fishes also varies across species, and within the same species because of differences in age, body length and gonadal weight (Lagler, 1956).  The ovaries of two fish with same body weight contain different number of eggs. This variable fecundity may also be associated with genetic diversity indicating that different strains mature and spawn at various body weight and size in its geographical range and is influenced by ecological factors. Lone and Hussain (2009) reported water temperature, photoperiod and rainfall appear to affect growth and development of ovary. Studies related to reproduction of many species have indicated that the reproductive cycle of fishes is closely associated to the environmental changes, particularly temperature, day length and food supply influencing gonadal development initiation and fecundity. Determination of the reproductive pattern is an essential component in managing and improving fishery biology of any species (Iram et al., 2018; Bhat et al., 2010).  Conservation and survival of any fish species depends more importantly on its reproductive potential. Reproduction has key components of fecundity and gonadosomatic index, which are very vital demographic characteristics essential for understanding the life history of a species (Shafat et al., 2016).

Linear relationship between fecundity and fish length; fish weight, ovary length and ovary weight have been reported in different freshwater fish species by various workers (Singh and Srivastava, 1982; Sharaf et al., 1997; Somdutt and Kumar, 2004; Joshi, 2008; Bhat et al., 2003 and Bahuguna and Khatri 2009).
 Female brooders were captured from the Dal Lake during the spawning season. 30 gravid females were studied for estimation of fecundity. Fishes were brought to Fisheries Resource Management (FRM), Faculty of Fisheries, SKUAST-K Laboratory for the estimation of   total length, weight of fishes and weight of ovaries were measured. Gravimetric and actual counting method was used for the estimation of fecundity.

For the estimation of fecundity, fishes were sacrificed and both the ovaries were taken out carefully. The moisture was thoroughly wiped out from the ovaries with a blotting paper. The length and weight of ovaries was noted down with complete care. The collected ovaries were placed in 10% formaldehyde for at least 24 hours to bring hardness of eggs, so as to make easy and accurate calculation of sticky eggs. This was followed by drying of eggs on blotting paper for 1-2 hours, three subsamples of one gram each from anterior, middle and posterior region were weighed and then eggs were counted carefully by gravimetric method. The mean numbers of eggs were multiplied by gonad parts of ovary weighed on a sensitive mono-pan weighing balance and the total number of eggs per gonad was obtained, i.e fecundity of fish.

The absolute fecundity and relative fecundity was calculated as per the formula given by (Bagenal, 1978):

The range, mean value, and standard error of body weight, body length, ovary weight and fecundity are given in the Table 1. The absolute fecundity during the present study ranged from 16650 to 129000, which is in conformity with the findings of Shafi et al., (2012) who reported the fecundity of [Cyprinus carpio (var.) communis] from 3173 to 629320. The observed fecundity was lower than the ranges of 75645 to 356743 and 36955 to 318584 for C.C var. communis reported by Abera et al., (2015) and Hailu (2013) respectively. The fecundity reported by these workers was slightly higher than the present study. Total fecundity of Cyprinus carpio (Bankok strain) inhabiting tropical waters has been reported to have fairly high due to its early maturity and year round breeding behaviour. The relative fecundity during the present study ranged from 99.2 to 240.8, which is in conformity with the findings of Shafi et al., (2012) who reported the relative fecundity of Scale carp in the range of 21 to 223 with a mean value of 91.17.

Table 1: Statistical estimates of reproductive biology of female [Cyprinus carpio (var.) communis].

Relationship among body weight, body length, ovary weight, absolute fecundity and relative fecundity (Table 2). A direct proportional increase in the fecundity with the increase in fish weight has been reported by Dobriyal (1988) and Lehman (1953). During the present study an increase in the number of ova was found with the increase in body weight. Absolute fecundity of [Cyprinus carpio (var.) communis] had a strong correlation with ovary weight than body weight and Total length. These results are in conformity with the results obtained by Khan et al., (1992) for Mystus tengra and Nabi et al., (2007) for Glossogobius giuris.

Table 2: Pearson correlation between fish body weight, body length, ovary weight, absolute fecundity and relative fecundity in Common carp.

According to Smith (1947), the fecundity has been more related to the fish weight than to the length in Salvelinus fontinalis. Same has been reported for Liza parsia by Rheman et al., (2002). However, the ‘r’ value in the correlation between fecundity and total weight was higher than that of fecundity and total length, suggesting that total weight is a better predictor of fecundity in the present study than total length. Similar finding have been reported by Ikomi and Odum (1998) in Chrysichthys auratus. Varghese (1961) has found a reduction in the rate of egg production with the increase in ovary weight in Coilia ramcarati. But in present study a corresponding increase in the number of eggs with the increase in the weight of ovary has been found, as in Tilapia nilotica (Soliman et al. 1986), Labeo gonius (Joshi and Khanna, 1980).
Fecundity is of great importance in aquaculture because it influences recruitment into fisheries. The present study conclude that the fecundity of Common carp was related to the body parameters of fish. The study found the strong correlation of fecundity with ovary weight followed by body weight and body length indicating that the bigger the size of fish higher will be the fecundity and vice versa.
The authors are grateful to the Faculty of Fisheries, for providing the facilities to carry out this research. We are also thankful to the field staff of the instructional fish farm for extending their help in the execution of the work.
All authors declare that they have no conflict of interest.

  1. Abera, L., Getahun, A. and Lemma, B. (2015). Some aspects of reproductive biology of the Common carp (Cyprinus carpio Linnaeus, 1758) in Lake Ziway, Ethiopia. Global Science Research Journals. 3(3): 151-157. 

  2. Alikunhi, KH. (1966). Synopsis of biological data on Common carp, Cyprinus carpio Linnaeus, 1758 (Asia and the Far East). FAO Fish. Synops. 31(1): 83 Pp.

  3. Bagenal, T. (1978). Methods of assessment of fish production in fresh waters. IBP Handbook No. 3. Black Well Science Co. p. 365. 

  4. Bagenal, T.B. (1957). Annual variations in fish fecundity. Journal of Marine Biological Association United Kingdom. 36: 377-382. 

  5. Bahuguna, S.N. and Khatri, S. (2009). Studies on fecundity of hill stream Loach Noemacheilus montanus (McClelland) in relation to total length, total weight, ovary length and ovary weight. Our Nature. 7: 116-121. 

  6. Bhat, F.A. (2003). Ecology of Schizothorax Heckel in Lidder River, Kashmir. M. Phil Dissertation, University of Kashmir. 

  7. Bhat, F.A., Yousuf, A.R., Balkhi, M.H., Mahdi, D. and Shah, F.A. (2010). Length-weight relationship and morphometric characteristics of Schizothorax spp. in the River Lidder of Kashmir. Indian J. Fish. 57(2): 73-76. 

  8. Chondar, S.L. (1977). Fecundity and its role in racial studies of Gadusia chapra (Pisces: Clupeidae). The Proceedings of the Indian Academy of Sciences. 86: 245-254. 

  9. Dobriyal, A.K. (1988). Fecundity of the Chinese silver carp Hypophthalmichthys molitrix (Val.) from Gujartal fish farm. Jaunpur, UP. Proceeding Indian Academy of Sciences. 97(2): 169-173.

  10. Gomezmarquez, J.L., Pena-Mendoza, B., Salgado-ugarte, I.H. and Guzman-arroyo, M. (2003). Reproductive aspects of Oreochromis niloticus (Perciformes: Cichlidae) at Coatetelco lake, Morelos, Mexico. International Journal of Tropical Biology. 51(1): 221-228. 

  11. Hailu, M. (2013). Reproductive aspects of Common carp (Cyprinus carpio L., 1758) in a tropical reservoir (Amerti: Ethiopia). Journal of Ecology and Natural Environment. 5(9): 260-264. 

  12. Ikomi, R.B. and Odum, O. (1998). Studies on aspects of the ecology of the catfish Chrysichthys auratus Geoffrey St. Hilaire (Osteichthyes; Bagridae) in the River Benin (Niger Delta, Nigeria). Fisheries Research. 35(3): 209-218.

  13. Iram, F., Bhat, F.A., Balkhi, M.H., Shah, T.H., Qadri, S., Aalia, S. and Talia, S. (2018). Study on gonadal maturation of Schizothorax labiatus mcclelland inhabiting river jhelum, kashmir. Journal Of Coldwater Fisheries. 1(1): 97-102.

  14. Joshi, S.K. (2008). Fecundity of freshwater teleost, Botia almorhae (Day). Journal of Environmental Biological Science. 22(2): 67-171. 

  15. Joshi, S.N. and Khanna, S.S. (1980). Relative fecundity of Labeo gonius (Ham.) from Nanak Sagar reservoir. Proceeding of India Academic Science Animal Science. 89(5): 493- 503.

  16. Khan, S., Banu, N. and Isabella, B. (1992). Studies on some aspect of biology and fecundity of Mystus tengra (Hamilton-Buchanon, 1822). Bangladesh Journal of Zoology 20: 151-160. 

  17. Lagler, K.F. (1956). Enumeration of fish eggs. In: Freshwater Fishery Biology (Ed. W.M.C. Brown Co.) Dubque pp. 106-110.

  18. Lehman, B.A. (1953). Fecundity of Hudson River Shad. US Fish Wild Serv. Res Rept. pp. 8. 

  19. Lone, K.P. and Hussain, A. (2009). Seasonal and age related variations in the ovaries of Labeo rohita (Hamilton, 1822): A detailed gross and histological study of gametogenesis, maturation and fecundity. Pakistan Journal of Zoology. 41(3): 217-239. 

  20. Nabi, M.R., Rahman, H.A., Mustafa, S. and Kader, M.A. (2007). Population dynamics of estuarine set bag net fishery of Bangladesh. Chiang Mai Journal of Science. 34(3): 355- 365. 

  21. Nikolskii, G.V. (1969). Theory of fish population dynamics as the biological background for rational exploitation and management of fishery resources. Edinburgh: Oliver and Boyd. 

  22. Qasim, S.Z. and Qayyum, A. (1963). Fecundities of some reshwater fish. Proceedings of the National Institute of Sciences of India 29: 373-382. 

  23. Rehman, S., Islam, M.I., Shah, M.M.R., Mondal, S. and Alam, M.J. (2002). Observation on the fecundity and gonadosomatic index (GSI) of Liza parsia (Ham.). Journal of Biological Science. 2: 690-693. 

  24. Saliu, J.K., Ogu, J. and Onwuemene, C. (2007). Condition factor, fat and protein content of five fish species in Lekki Lagoon. Nigeria Life Science Journal. 4(2): 54-57.

  25. Smith, O.R. (1947). Returns from natural spawning of cut-throat trout and Eastern brook trout. Transactions of American Fish Society 74: 281-96.

  26. Shafat, S., Bhat, F.A., Balkhi, M.H., Najar, A.M., Mudasir. H. (2016). Reproductive Traits of Schizothorax niger Heckel, 1838 in Dal Lake, Kashmir. SKUAST Journal of Research. 18(2): 138-145.

  27. Shafi, S., Yousuf, A.R. and Parveen, M. (2012). Study of fecundity of Cyprinus carpio var. communis. International Journal of Scientific and Research Publications. 2: 1-5. 

  28. Sharaf, S.M., Ibranim, H.I. and Husveth, F. (1997). Weight- length relationships and Reproduction of bream (Abramis brama L.). In Keszthely Bay of Lake Balaton. Acta Veterinaria Hungaria. 45(2): 197-206. 

  29. Singh, V. and Srivastava, P. (1982). Fecundity study of three Indian Major carps, Catla catla, Cirrhina mrigal and Labeo rohita. Indian Journal of Zoology. 110(1): 30-36. 

  30. Soliman, A.K., Jauncey, K. and Roberts, R.J. (1986). The effect of dietary ascorbic acid supplementation on hatchability, survival rate and fry performance in Oreochromis mossambicus (Peters). Aquaculture. 59: 197-208. 

  31. Somdutt, P. and Kumar, S. (2004). Studies on fecundity of Puntius sarana (Ham.) in relation to total length, total weight and ovary weight. Journal of Indian Fisheries Association. 31: 81-85. 

  32. Tracey, S.R., Lyle, J. and Haddon, M. (2007). Reproductive biology and per-recruit analyses of striped trumpeter (Latris lineata) from Tasmania, Australia: Implications for management. Fisheries Research. 84: 358-368.

  33. Varghese, T.J. (1961). Observation of the biology of Raconda russeliana. Indian Journal of Fisheries. 8: 96-106.

Editorial Board

View all (0)