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Use of dried Bloodworms Chironomus riparius to Motivate the Growth of Young Common Carp Cyrinus carpio L

Authors:
  • University of Baghdad / IRAQ Natural History Museum

Abstract

Dried imported blood worms Chironomus reparius was used to motivate the growth of young carp Cyprinus carpio L., as fish powder was partial and total replaced by blood worms which is a component of the fodder of the common carp fish. Results have shown that blood worm partial replacement treatment surpasses the imported fish powder. Rates of growth motivation of this treatment have been higher than both the control and total replacement processes. Results have shown significant differences in the weight of the fish in the partial replacement of the fish powder by the blood worms. Introduction: Worms have been used as fodder for many animals, including fish, due to the high protein percent they have. In addition, breeders resort to use high-nutrition-fodder alternatives which does not compete human nutrition sources that have high reproductive results. Moreover, consume of the meet of these animals including fish, after the production period, is safe (1). An example of these alternatives is the earth worm. It is one of the most successful nutritive alternatives when it is used as fish fodder due to its breeding ease, its quick adjust with the surrounding environment, high productivity if it has been looked after and supplied with the suitable environment. Moreover, earthworm is an important protein source for fish nutrition (2) and (3). Blood worms are regarded one of the good fish-fodder whether they are fresh or dried. Blood worms refer to Chironomidae family. Chironomidae is classified in three species: Baeotendipes noctifagus, Benthalia dissidens, and the more common and availability species Chironomus riparius (4). Chironomus riparius is the species used in this study. Processed and dried blood worms are easier to be digested than the other worms, such as, earthworm. They are more productive; have excellent digestive coefficient in fish (5). Their dried bodies are crispier than their frozen ones. Moreover, moveable disease factors can be avoided due to exposition to high heat during pasteurization and preparation to dryness (5). Breeding of these worms is easy one under various circumstances and conditions. It does not impose any difficulty upon any breeder seeks them as fresh or dries fodder for his fish (6). These worms can be foddered by various and many non-cost nutrition media (7) and (8).
Journal of Biology, Agriculture and Healthcare
ISSN 2224-3208 (Paper) ISSN 2225-093X (Online)
Vol.5, No.24, 2015
www.iiste.org
80
Use of dried Bloodworms Chironomus riparius to Motivate the
Growth of Young Common Carp Cyrinus carpio L.
Muhammad Inad Ghazwan
Iraq Natural History Research Center and Museum, University of Baghdad,Bab Al-Muadham, Baghdad, Iraq
ABSTRACT
Dried imported blood worms Chironomus reparius was used to motivate the growth of young carp Cyprinus
carpio L., as fish powder was partial and total replaced by blood worms which is a component of the fodder of
the common carp fish. Results have shown that blood worm partial replacement treatment surpasses the imported
fish powder. Rates of growth motivation of this treatment have been higher than both the control and total
replacement processes. Results have shown significant differences in the weight of the fish in the partial
replacement of the fish powder by the blood worms.
Introduction:
Worms have been used as fodder for many animals, including fish, due to the high protein percent they have.
In addition, breeders resort to use high-nutrition-fodder alternatives which does not compete human nutrition
sources that have high reproductive results. Moreover, consume of the meet of these animals including fish, after
the production period, is safe (1).
An example of these alternatives is the earth worm. It is one of the most successful nutritive alternatives when
it is used as fish fodder due to its breeding ease, its quick adjust with the surrounding environment, high
productivity if it has been looked after and supplied with the suitable environment. Moreover, earthworm is an
important protein source for fish nutrition (2) and (3). Blood worms are regarded one of the good fish-fodder
whether they are fresh or dried. Blood worms refer to Chironomidae family. Chironomidae is classified in three
species: Baeotendipes noctifagus, Benthalia dissidens, and the more common and availability species
Chironomus riparius (4). Chironomus riparius is the species used in this study. Processed and dried blood
worms are easier to be digested than the other worms, such as, earthworm. They are more productive; have
excellent digestive coefficient in fish (5). Their dried bodies are crispier than their frozen ones. Moreover,
moveable disease factors can be avoided due to exposition to high heat during pasteurization and preparation to
dryness (5). Breeding of these worms is easy one under various circumstances and conditions. It does not impose
any difficulty upon any breeder seeks them as fresh or dries fodder for his fish (6). These worms can be foddered
by various and many non-cost nutrition media (7) and (8).
Materials and Method:
75 common carp Cyrinus carpio L. have been used. They have been distributed randomly into three groups,
25 for each process. The first process has been of the control; the second of a partial replacement of the fish
powder by dried blood worms; the third one of a total replacement of the fish powder by dried blood worms.
Weight of fish used in this study ranged between 57-69 g. Three 25% protein experimental fodders have been
prepared. Fish have been foddered with 0.05% of their bodies' weight during the 60 day experiment period
immediately after the three weeks acclimatization period. The fish have been kept in 115 L. plastic circular
basins. 10 fish out of each processing were taken for chemical analysis at the end of the experiment.
Water temperature has been measured by ordinary mercury thermometer; PH was measured by Hanna PH
tool. Measures have been done each 15 days synchronically with experimented-fish weigh. Home air compressor
has been used to distribute oxygen equally among the experiment three basins: control, 1st process and 2nd
process.
Table no. (1) shows the materials used in the fodder of this study. Excel 2003 program has been used to
express statistically the relation between weigh periods and the increase achieved in the weight of the
experimented fish.
Fodder Constituents
Control Process
1st Process 'Partial Replacement'
2nd Process 'Total Replacement'
Soya beans
40.95
40.95
40.95
Imported fish powder
4.55
2.27
--
Imported dried blood worms
--
2.27
4.55
Wheat bran
36.15
36.15
36.15
Yellow corn powder
16.35
16.35
16.35
Vegetable oil
1
1
1
Table salt
0.5
0.5
0.5
Vitamin-minerals mixture
0.5
0.5
0.5
Table no. (1) Materials used in the three study fodderscomposition
Journal of Biology, Agriculture and Healthcare
ISSN 2224-3208 (Paper) ISSN 2225-093X (Online)
Vol.5, No.24, 2015
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81
As the components of the three fodders have been mixed well and homogeneously, each alone, they were
prepared as 2 mm granules in order to suit fish mouth using home 2 mm meat grinder.
Results and Discussion:
Component of the fodders have been analyzed (% of the dry material) as shown in table (2)
Protein
Ether excerpt
Ash
Fibers
Carbohydrates
25.50
5.45
9.12
4.25
60.43
Table no. (2) Analysis of the components of the study fodders
Dried worms used in the experiment have been analyzed too (%of the dry material). Results are shown in table
(3)
Protein
Ether excerpt
Ash
Fibers
Carbohydrates
60.15
6.50
8
5.50
89.90
Table no. (3) Analysis of the dried blood worms
Bodies of 10 fish of each processing have been analyzed before and after the experiment (%of the dry material).
Fish of each processing have been dried, crashed as powder separately analyzed as in table (4).
Components
Pre-experiment
After 1st processing
'Partial Replacement'
After 2nd processing
'Total Replacement'
Protein
16.98
20.15
18.50
Ether excerpt
8.76
7.35
7.45
Ash
1.90
0.82
1.98
Carbohydrates
0.80
0.82
0.84
Table no. (4) Analysis of the fish bodies' pre and after theexperiment
Rates of water temperature and pH of each 15 day measure, i. e., four measurements as shown in table (5)
Measurements
Measurements have been done each 15 days (Rates)
Temperature (C.)
26.7
27.4
27.6
28.2
pH
8.2
7.9
7.9
7.8
Table no. (5) Rates of water temperature and pH during theexperiment
Results of the analysis of the imported fish powder have been as shown in table (6)
Protein
Ether excerpt
Ash
Fibers
Carbohydrates
57.89
5.5
6.5
4.50
87.45
Table no. (6) Analysis of fish powder
Results show that the partial replacement processing of fish powder by blood worms surpasses the processing of
the control and the total replacement as shown in figure (1)
Figure (1) shows the supremacy of the 2nd processing on the 3rd one
10
8
6
4
Series1
Series2
2
0
1
2
3
4
Journal of Biology, Agriculture and Healthcare
ISSN 2224-3208 (Paper) ISSN 2225-093X (Online)
Vol.5, No.24, 2015
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82
This leads to conclude that the nutrition value of the dried worms has been higher when they partially replaced
fish powder due to rarity of fibers in their bodies, the high level of amniotic acids which serves as
complementary component for the fish powder content of protein and the necessary acids to build up the fish
bodies (9). The lipoid acids of the bodies of the worms has an apparent effect on the rates of fish growth,
especially as the lipoid percentage in the fodder of the fish has been modified by vegetable oil, so that the fodder
used to feed the fish became a balanced fodder regarding the lipoid acids needed by the carp, particularly
linoleum and linoleulin acids recommended by (10).as a part of the lipoid acids needed by carp fish in their
fodder.
Table (4) shows protein percentage increase in the bodies of the second processing fish of the partial processing.
This indicates an increase in the growth rates and protein deposit in this processing. This due to the variety of
protein sources in the mixture of blood worm and fish powder which serves as complementary part for the needs
of carp fish for protein (11). It has become clear that fodders of various protein animal-proteins meet the carp
need more than the single animal-protein source being, for instance, only fish powder as has been the case of the
first processing of the control or the third processing of the total replacement with blood worms where no
significant increase in the weight of fish has been noticed on the contrary of the partial replacement processing
with blood worm instead of fish powder.
These results correspond to the result attended by (12) when they used several protein sources to feed common
carp. They found that using concentrated animal protein as a source leads to a higher growth increase compared
to other protein sources. Table (3) indicates that raw protein percent in the bodies of blood worms is (60.15%);
table (4) which shows the analysis of the second processing fish indicates that raw protein percent in their bodies
is (20.15%). Worm effect on the fish growth, particularly earthworms and bloodworms as powders added to the
fodders of fish increase their growth and provide them with the energy needed for their activities. A study
conducted by Yaqub shows that feeding little Heterobranchus isopterus for 30 days with earthworms increases
their growth clearly. (14) Points out that feeding little Heterobranchus longifilis with hyperiodrilus euryaulos
earthworms increase the weight and growth of the little of this fish. This in turns correspond to a study
conducted by (15) on little Perionyx excavalus & Oxyeleotris marmoratus & Pangasius hypophthalmus.
It could be concluded out of this that the nutrition value of bloodworms is neither less than that of earthworms in
feeding fish nor than the nutrition value of fish powder which is used as protein concentrates to feed this fish
when they are used as mixtures with these concentrators or with the animal-origin protein powder (16).
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Culture of Larvae (Insects-Diptera Chrionomidae) under Different Feeding Systems
  • M M Habashi
Habashi MM., (2005), Culture of Larvae (Insects-Diptera Chrionomidae) under Different Feeding Systems, Egypt J Aquat Res 31: 403-418.