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Effect of Disinfectant Added Drinking Water on the Growth Performance of Different Hen Strains

PJZ_50_6_2287-2293

 

 

Effect of Disinfectant Added Drinking Water on the Growth Performance of Different Hen Strains

Ali Karabayir1,*, Nazan Arifoğlu2 and Mustafa Öğütcü3

1Department of Animal Sciences, Faculty of Agriculture, Çanakkale sOnsekiz Mart University, Çanakkale, Turkey

2Department of Food Technology, Çanakkale College of Applied Sciences, Çanakkale Onsekiz Mart University, Çanakkale, Turkey

3Department of Food Engineering, Faculty of Engineering, Çanakkale Onsekiz Mart University, Çanakkale, Turkey

ABSTRACT

The effect of disinfectant (2% Halamid, N-Chloro-Paratoluenesulphonamide trihydrate) addition into drinking water on the growth performance of three different chicken strains, Plymouth Rock, Australorp and Village (local mix-breed village chickens) was evaluated in the present study. Supplementation of disinfectant clearly improved the microbiological quality of chicken drinking water, by reducing the total bacteria, coliform and E.coli counts. On the other hand, disinfectant addition decreased feed and water intake of all chicken strains. Furthermore, the results revealed that feed and water intake was strain dependent. Lower feed conversion ratio was observed for chickens provided with disinfectant supplemented drinking water. When considering the live weight gain (LWG) monitored through the 10-week trial, it was found out that the live weight gain of the Australorp and Village strains were negatively affected by disinfectant addition, while the live weight gain of the Plymouth strain was not affected by addition of disinfectant. In the present study, it was shown that addition of disinfectant clearly improved the microbiological quality of drinking water, while the response of different chicken strains to disinfectant addition may vary.


Article Information

Received 28 March 2017

Revised 12 March 2018

Accepted 08 May 2018

Available online 11 October 2018

Authors’ Contribution

AK designed and planned the experiments. MO and NA collected and analysed the results and prepared the manuscript.

Key words

Chloramine-T, Drinking water quality, Growth, Chicken strains.

DOI: http://dx.doi.org/10.17582/journal.pjz/2018.50.6.2287.2293

* Corresponding author: alikarabayir@gmail.com

0030-9923/2018/0006-2287 $ 9.00/0

Copyright 2018 Zoological Society of Pakistan



Introduction

Water is accepted as the primary source of life as well as the vector of many diseases on human and animal life. However, hazardous wastes, municipal wastes, agricultural practices, accidental spills and leaks, industrialization and growing population are seen as the main reason of water pollution (Vodela et al., 1997). Hence, the drinking water resources of earth decrease, while the waterborne diseases increase day by day. Most of these diseases are microbial diseases. This situation not only affects human health but also affects livestock industry. One of the most common livestock industry branches is the poultry industry. Due to water-borne diseases, the meat and egg yields of poultry are declining and even deaths occur. Hence, poultry industry is suffering from economical losses due to waterborne diseases, such as chronic respiratory disease, colibacillosis, avian cholera, etc. (Carter and Sneed, 1996; Vodela et al., 1997; Amaral, 2004; Jafari et al., 2006; Umar et al., 2016).

The poultry body is composed of 55-77% water depending on their sex, age and strain. Water is used for adjustment of body heat, digestion of feed and removal of waste. Also, high quality drinking water is constantly needed for optimal growth, production and effective utilization of feed. Additionally, there is a linear relationship between drinking water quality and feed and water intake of poultry (Lott et al., 2003; Jafari et al., 2006; Fairchild and Ritz, 2009; Eleroğlu et al., 2013). Drinking water is also used as a carrier when vaccine, medicines and other additives are given to poultry. According to literature data, poultry eggs contain an average of 65% water. On the other hand, poultry meat and egg quality is directly influenced by the drinking water quality (Eleroğlu and Sarıca, 2004; Jafari et al., 2006). Because of this, various additives were added into drinking water for improving growth performance and efficiency of poultry. In literature, addition of carbonate (Bottje and Harrison, 1985), sodium bicarbonate (Yasoob and Tauqir, 2017), glucose (Zhou et al., 1998), calcium lactate (Damron and Flunker, 1995), sodium hypochlorite (Damron and Flunker, 1993) and acetyl salicylic acid (Hassan et al., 2003), saline (Balnave, 1993), were reported.

In order to improve the microbiological quality of drinking water, disinfectant addition is becoming a common application in animal husbandry. Maharjan et al. (2016) stressed on the importance of water sanitation in broiler house water supplies. Toit and Casey (2010) reported that bromine and iodine supplemented drinking water affected the production parameters of broilers. Halamid (Chloramine-T) is a disinfectant approved by Food and Drug Administration (FDA) for use in aquaculture. Besides, Halamid is evaluated as a sanitizing agent in veterinary facilities, since it is effective on gram-negative bacteria (Trushenski and Bowker, 2014). Based on this data, in the present study, Halamid was used as a disinfectant in the drinking water of poultry strains. Thus, the main aim of the present study was to investigate the effects of Halamid added drinking water on the growth performance of three different chicken strains: Plymouth Rock, Australorp and Village.

 

Table I.- The composition of the standard diets supplied to chickens.

Ingredients (%)

Crude protein, 17; Crude cellulose, 4.50; Crude oil, 5.10; Crude ash, 14; Lysine, 0.78; Methionine, 0.35.

Vitamins (kg)

Vitamin A, 12500 IU; Vitamin D3, 2500IU; Vitamin E, 40 mg

Elements (kg)

Ca, 4.20; P, 0.45; Na, 0.16; I, 0.6; Co, 0.1; Cu, 5; Mn, 100; Zn, 60; Se, 0.3

 

Materials and Methods

Materials

Sixteen, seven days old Plymouth Rock, Australorp and Village chickens were purchased from local supplier in the province of Çanakkale-Bayramiç (Turkey). The all strain samples were divided into two groups (subgroups) of same number of population for each strain. In this way, present study was designed replicated twice and all analyses within each replicate samples were accomplished in duplicate. All chickens were fed standard diets in each cage (Table I). One of the cages was given drinking city network water, while the other was given drinking water containing 2% disinfectant (Halamid: Chloramine-T) solution. Halamid is a commercial biodegradable disinfectant purchased from Axcentive SARL (Chemin de Champouse, France). Halamid is a white crystalline powder with weak chlorine odour and excellent storage stability. Halamid is currently approved by FDA for use in (i) control of mortality in all freshwater-reared salmonids due to bacterial gill disease, (ii) control of mortality in walleye due to external columnaris disease and (iii) control of mortality in all freshwater-reared warm water finfish due to external columnaris disease (Trushenski and Bowker, 2014). Standard chicken feed was purchased from local market in Çanakkale-Bayramiç province of Turkey. All chemicals were purchased from Sigma-Aldrich and Merck.

Water analysis

The drinking water samples of the chickens were collected once a week from each water tank. The pH, temperature, electrical conductivity (EC) and dissolved oxygen (DO) measurements were done immediately. pH and temperature values of the water samples were measured by using pH meter (Sartorius PP-50, Gottingen, Germany), while electrical conductivity (EC) and dissolved oxygen (DO) values were determined by using Hanna HI98311 EC meter (Hanna Instrument Inc., USA) and Hanna HI9146 DO meter (Hanna Instrument Inc., USA), respectively.

For the microbiological examination of the samples, water sampling first from the source and then from the bowls in the chicken cages was accomplished and total bacteria, total coliforms, and Escherichia coli determination was done according to Standard Methods for the Examination of Water and Wastewater (9222) (Rice et al., 2012).

Growth performance parameters

The growth performance of the chicken was monitored for 10 weeks. Feed and water intake per cage were calculated weekly for the trial period. Live weight gains were recorded each week. The weekly live weight gains and feed intake values were used to calculate feed conversion ratio.

Statistical analysis

The results were represented as mean values with standard deviations. The data were analysed by ANOVA and the multiple comparisons of the means accomplished by Tukey’s test. Statistical analysis was performed with Minitab v.17.1.0.

 

Results and Discussion

Water quality

Water is the one of the most important nutrient in poultry farming. Water intake of poultry is depending on sex, age, species, stress and environmental conditions. On the other hand, the amount of water intake is correlated with water quality. Generally, water quality is determined and controlled via criteria such as, pH, electrical conductivity, dissolved oxygen, temperatures, microbiological loadings and mineral composition. In Table II, the characteristics

 

Table II.- Quality parameters of the drinking water.

Feat ures

Sam ples

1

2

3

4

5

6

7

8

9

10

pH

NW

6.97± 0.02h*

7.09± 0.03f

7.02± 0.02g

6.97± 0.02h

6.97± 0.02h

7.09± 0.03f

6.97± 0.02h

7.31± 0.01d

7.41± 0.01b

7.55± 0.01a

HAW

7.22± 0.01e

7.32± 0.02d

7.13± 0.04f

7.22± 0.01e

7.22± 0.01e

7.32± 0.02d

7.22± 0.01e

6.99± 0.0gh

7.36± 0.01c

7.30± 0.01d

EC

(µs/ cm)

NW

307.5± 3.54kl

308± 2.82kl

304± 1.42l

312± 2.82jk

342± 2.82h

312± 2.82jk

313± 1.41jk

317± 1.41ıj

320.± 0.7ı

311± 1.4jk

HAW

1564± 6.36e

1562± 3.53e

1496± 2.12f

1426± 2.12g

1637± 2.82d

1721± 2.12b

1722± 0.7b

1731± 1.41a

1704± 6.36c

172± 1.41b

DO (mg/l)

NW

5.76± 0.01a

4.61± 0.01ef

4.92± 0.03c

4.73± 0.04d

4.41± 0.01g

3.73± 0.03h

3.71± 0.01h

3.23± 0.04k

3.21± 0.01jk

3.38± 0.01ı

HAW

5.47± 0.02b

4.61± 0.01ef

4.52± 0.03f

4.51± 0.01fg

4.66± 0.01de

3.14± 0.19k

3.26± 0.01j

2.72± 0.02l

3.22± 0.03jk

2.77± 0.01l

Tem-per-ature (°C)

NW

23.05± 0.07g

22.60± 0.14h

21.25± 0.07ı

23.05± 0.07g

24.15± 0.21f

27.15± 0.21b

27.15± 0.21b

25.2± 0.07d

28.55± 0.07a

26.± 0.01c

HAW

24.05± 0.49f

22.75± 0.07gh

20.85± 0.07ı

24.05± 0.49f

24.65± 0.21e

27.30± 0.01b

27.30± 0.01b

25.3± 0.01d

28.65± 0.07a

26.4± 0.01c

EC, electrical conductivity; DO, dissolved oxygen; NW, network water; HAW, Halamid added water. *Different letters in the same column show differences between samples in each features and different letters in the lines show differences among the weeks (p≤ 0.05).

 

of the network (NW) and Halamid added water (HAW) supplied to chicken are given. According to Table II, the pH values of the NW and HAW samples ranged between 6.97-7.55 and 6.99-7.36, respectively, during the trial period of ten weeks. Additionally, in terms of the pH values, there were significant differences during the trial period and between the water samples. However, both of the water samples were found to be near the neutral pH value. In literature, many works reported that drinking water with neutral or basic pH values were healthier for livestock (Bagley et al., 1997). Electrical conductivity (EC) value refers to total dissolved ions in water. There were statistically significant differences between NW and HAW samples and the electrical conductivity values of HAW sample were fairly higher than that of NW sample. These results may be explained with the fact that the HAW samples contained 2% disinfectant. In literature, it was reported that EC values less than 1670 µ/cm waters have a relatively low level of salinity and should present no serious burden to any livestock or poultry. Additionally, EC values ranged between 1670 and 5000 µ/cm waters were indicated that should be satisfactory for all classes of livestock and poultry (Bagley et al., 1997). In terms of EC values, the NW sample was found to be not within the aforementioned limits, while the HAW samples were within these limits. The other quality parameter of drinking water was dissolved oxygen (DO) value. This parameter was found to depend on temperature and salt concentration in water and it was indicated to influence the chemical and biochemical reactions in water. Moreover, the DO values of water should be at least 4 mg/L. In Table II, the DO values of the NW and HAW samples were in the ranges of 3.38-5.76 and 2.72-5.47, respectively. These results revealed that the DO values decreased with increasing storage time of waters. Hence, among the 6-10 weeks drinking water supplied to the chicken were not suitable. Water temperature affects not only the pH, EC and DO values of any water sample, but it is also effective on water intake of chicken. Hence, it was important to monitor this parameter throughout the trial. The temperature values of the water samples varied between 20 and 30°C, with respect the climatic conditions. In Figure 1, the effectiveness of the disinfectant added water sample on microorganisms was presented. The addition of disinfectant is not only effective on network drinking water, but it is also effective on the water in bowl against E. coli, coliform and bacteria. Figure 1 clearly indicated that NW drinking water sample was higher in E. coli, coliform and total bacteria counts than the HAW drinking water sample in chicken bowls. Escherichia coli is located in the intestine systems of animals; thus E. coli is an indicator of faecal contamination. In poultry farming, E. coli was associated with some infections such as intestinal, respiratory, urinary or invasive infections. In literature, the limits for total bacteria and coliform bacteria were reported to be up to 100 and 50 CFU/ml, respectively (Fairchild and Ritz, 2009). The findings of the NW, HAW and HAW-bowl samples were close to the literature limits. Amaral (2004) reported that the most important poultry diseases potentially transmitted by drinking water were chronic respiratory disease, colibacillosis (Escherichia coli), avian cholera (Pasteurella multocida) and fowl typhoid (Salmonella gallinarum). In the present study, for all chicken strains no diseases were observed. Hence, the findings of present study demonstrated that addition of disinfectant into drinking water is effective in eliminating the above mentioned disease risk factors.


 

Growth performance parameters

For determination of the chicken growth performance, feed intake (FI), water intake (WI), feed conversion ratio (FCR), live weight and death rate were monitored during the ten-week trial. The feed intake and water intake values of the chickens are given in Figures 2 and 3, respectively. According to Figure 2, the feed intake values of the NW samples supplied chickens were fairly higher than that of the HAW sample supplied chickens for all chicken strains. These results indicated that addition of disinfectant into drinking water decreased the feed intake values. Damron and Flunker (1995) reported that waterborne calcium supplementation reduced feed and water consumption of hens.


 

Furthermore, the Plymouth strain compared with the Australorp and Village strains consumed more feed both for NW and HAW groups. The other monitored parameter of growth performance was the water intake. The water intake values of the NW groups were higher than the HAW chicken group, especially during the first 5 weeks of growing for all chicken strains. Also, the Plymouth strain had higher water intake values than the other chicken strains and these results were correlated with feed intake values. These results clearly demonstrated that the feed and water intake was strain dependent. Damron and Flunker (1993) reported that sodium chloride (NaCl) supplementation into drinking water has an adverse effect level at 40 ppm NaCl, while 100 ppm NaCl supplementation reduced water intake of hens. According to Blanave (1993), there are strain differences in the response of hens to saline drinking water, and within a strain there is also considerable variation. Strain differences appear to exist, and even within a strain there is considerable variation in the responses of individual hens to saline drinking water. The feed conversion ratio (FCR) values of the chickens are shown in Figure 4. The FCR values of all chickens increased during the first 5 weeks of growing, while the FCR values decreased during the last five weeks. Generally, chickens supplied with NW drinking water exhibited higher FCR values than chickens provided with HAW drinking water.


 

Moreover, the Plymouth strain had higher FCR values than the Australorp strain, while the Australorp strain had higher FCR values than the Village strain. Similar result was observed for the FI and WI values of the chickens. All of these results clearly demonstrated that FI, WI and FCR values were not only affected by disinfectant addition, but were also affected by chicken strains. Another important parameter for poultry growth is the live weight gain (LWG) and the LWG values of the chickens are shown in Figure 5. The live weight gain (LWG) values of the NW group Plymouth strain varied from 51 to 797 g, while this value for the HAW group Plymouth strain ranged from 58 to 779 g during the 10 weeks growing period. The LWG values of the NW and HAW group Australorp strain ranged between 45-561g and 56-358 g, respectively. Moreover, the LWG values of the NW and HAW group Village strain varied in the range of 45-755 g and 63-512 g, respectively. These findings revealed that the LWG of the Australorp and Village strains were fairly affected by disinfectant addition into drinking water, while the Plymouth strain was not affected. Damron and Flunker (1993) reported that the body weight gain of the hens was reduced by supplementation of drinking water with 300 ppm sodium chloride. While considering previous studies and our present study, it can be stated that the response of different chicken strains to various chemical supplements into drinking water may vary.


 

Conclusion

Supplementation of disinfectant clearly improved the microbiological quality of chicken drinking water, by reducing the number of total bacteria, coliform and E. coli. On the other hand, disinfectant addition led to a decrease in feed and water intake of all chicken strains. Furthermore, it was found out that feed and water intake of different chicken strains varied. Lower feed conversion ratio was observed for chickens provided with disinfectant supplemented drinking water. Addition of disinfectant improved the microbiological quality of drinking water, while the response of the three different chicken strains, Plymouth Rock, Australorp and Village, to disinfectant addition was significantly different.

 

Statement of conflict of interest

The authors declare that there is no conflict of interests.

 

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