Applied Research Note: Microbial composition of the biofilm of poultry drinking water system

被引:1
|
作者
Ogundipe, T. T. [1 ]
Beitia, S. [1 ]
Obe, T. [1 ]
机构
[1] Univ Arkansas, Dept Poultry Sci, Fayetteville, AR 72701 USA
来源
JOURNAL OF APPLIED POULTRY RESEARCH | 2024年 / 33卷 / 02期
关键词
poultry drinking water system (DWS); biofilm; broiler; microbial population; water quality;
D O I
10.1016/j.japr.2024.100403
中图分类号
S8 [畜牧、 动物医学、狩猎、蚕、蜂];
学科分类号
0905 ;
摘要
Ensuring good water quality is one of the key management strategies to promote optimal broiler health and performance. A few studies have assessed the microbial status of drinking water for poultry, but there is insufficient information on biofilm in the drinking water lines within the poultry housing facilities. The buildup of microbes in the drinking water system could potentially result in biofilm formation which eventually deteriorates water quality. Hence, in this preliminary study, we sought to evaluate biofilm formation in the drinking water lines of selected broiler houses and characterize their microbial composition. Three random houses in each of 5 farms were visited representing 15 total houses used in this study. Using a borescope, we confirmed the presence of biofilm in 4 water lines per house on each farm, and a sterile gauze swab was used to collect the biofilm from these water lines. All biofilm samples were analyzed for the total aerobic plate count (APC), presence of yeasts and molds (YM), and Enterobacteriaceae (EB). The data were analyzed with ANOVA, and means were separated with Tukey's HSD test at P <= 0.05 using JMP software. All 15 houses evaluated had aerobic bacteria population and YM, whereas 7 out of the 15 houses had EB counts. For APC, there were significant differences across the farms (P < 0.0001) with Farm 1 having the highest APC (3.65 Log(10) CFU/mL) and Farm 5 having the lowest APC (2.05 Log(10) CFU/mL). For YM, significant differences existed across farms (P < 0.0001), Farm 2 had the highest counts (4.44 Log(10) CFU/mL), whereas Farm 5 had the lowest count (1.19 Log(10) CFU/mL). EB was detected in 3 out of the 5 farms and the counts were not statistically different (P = 0.07). Based on a sample size of 15 commercial broiler houses, these results suggest the need to evaluate water lines for biofilm and develop effective mitigations.
引用
收藏
页数:6
相关论文
共 50 条
  • [41] Occurrence of biofilm forming Escherichia coli in drinking water supply system in Kathmandu
    Gaihre, Saraswati
    Prajapati, Kamil
    Dhungel, Sujata
    Dawadi, Prabin
    Joshi, Dev Raj
    Joshi, Tista Prasai
    WATER ENVIRONMENT RESEARCH, 2024, 96 (08)
  • [42] Analysis of material (biofilm) present on the internal surfaces of a drinking water distribution system
    Delanoue, A
    Holt, DM
    Anderson, HA
    McMath, SM
    Smith, SE
    Woodward, CA
    Fraser, AR
    Roe, M
    BIOFILMS IN THE AQUATIC ENVIRONMENT, 1999, (242): : 202 - 209
  • [43] Elimination of Naegleria fowleri from bulk water and biofilm in an operational drinking water distribution system
    Miller, Haylea C.
    Morgan, Matthew J.
    Wylie, Jason T.
    Kaksonen, Anna H.
    Sutton, David
    Braun, Kalan
    Puzon, Geoffrey J.
    WATER RESEARCH, 2017, 110 : 15 - 26
  • [44] Thermal energy recovery from chlorinated drinking water distribution systems: Effect on chlorine and microbial water and biofilm characteristics
    Zhou, Xinyan
    Ahmad, Jawairia Imtiaz
    van Der Hoek, Jan Peter
    Zhang, Kejia
    ENVIRONMENTAL RESEARCH, 2020, 187
  • [45] A review of research advances on disinfection strategies for biofilm control in drinking water distribution systems
    Oliveira, Isabel Maria
    Gomes, Ines Bezerra
    Simoes, Lucia Chaves
    Simoes, Manuel
    WATER RESEARCH, 2024, 253
  • [46] A Flexible System for Stepwise Automation of Microbial Testing of Drinking and Process Water
    Otto, Christoph
    Zirker, Patrick
    Walther, Thomas
    Lenk, Felix
    SLAS TECHNOLOGY, 2021, 26 (05): : 532 - 544
  • [47] Impact of drinking water conditions and copper materials on downstream biofilm microbial communities and Legionella pneumophila colonization
    Lu, J.
    Buse, H. Y.
    Gomez-Alvarez, V.
    Struewing, I.
    Santo Domingo, J.
    Ashbolt, N. J.
    JOURNAL OF APPLIED MICROBIOLOGY, 2014, 117 (03) : 905 - 918
  • [48] In situ examination of microbial populations in a model drinking water distribution system
    Martiny, AC
    Nielsen, AT
    Arvin, E
    Molin, S
    Albrechtsen, HJ
    2ND WORLD WATER CONGRESS: WATER AND HEALTH-MICROBIOLOGY, MONITORING AND DISINFECTION, 2002, 2 (03): : 283 - 288
  • [49] Quantitative microbial risk assessment of repairs of the drinking water distribution system
    Blokker, Mirjam
    Smeets, Patrick
    Medema, Gertjan
    MICROBIAL RISK ANALYSIS, 2018, 8 : 22 - 31
  • [50] ENERGY SUPPLEMENTATION OF LAYING HEN FEED AND DRINKING-WATER - RESEARCH NOTE
    DAMRON, BL
    SLOAN, DR
    POULTRY SCIENCE, 1990, 69 (10) : 1806 - 1808