Literature DB >> 26923054

Modeling heat stress under different environmental conditions.

M J Carabaño1, B Logar2, J Bormann3, J Minet4, M-L Vanrobays5, C Díaz6, B Tychon4, N Gengler5, H Hammami5.   

Abstract

Renewed interest in heat stress effects on livestock productivity derives from climate change, which is expected to increase temperatures and the frequency of extreme weather events. This study aimed at evaluating the effect of temperature and humidity on milk production in highly selected dairy cattle populations across 3 European regions differing in climate and production systems to detect differences and similarities that can be used to optimize heat stress (HS) effect modeling. Milk, fat, and protein test day data from official milk recording for 1999 to 2010 in 4 Holstein populations located in the Walloon Region of Belgium (BEL), Luxembourg (LUX), Slovenia (SLO), and southern Spain (SPA) were merged with temperature and humidity data provided by the state meteorological agencies. After merging, the number of test day records/cows per trait ranged from 686,726/49,655 in SLO to 1,982,047/136,746 in BEL. Values for the daily average and maximum temperature-humidity index (THIavg and THImax) ranges for THIavg/THImax were largest in SLO (22-74/28-84) and shortest in SPA (39-76/46-83). Change point techniques were used to determine comfort thresholds, which differed across traits and climatic regions. Milk yield showed an inverted U-shaped pattern of response across the THI scale with a HS threshold around 73 THImax units. For fat and protein, thresholds were lower than for milk yield and were shifted around 6 THI units toward larger values in SPA compared with the other countries. Fat showed lower HS thresholds than protein traits in all countries. The traditional broken line model was compared with quadratic and cubic fits of the pattern of response in production to increasing heat loads. A cubic polynomial model allowing for individual variation in patterns of response and THIavg as heat load measure showed the best statistical features. Higher/lower producing animals showed less/more persistent production (quantity and quality) across the THI scale. The estimated correlations between comfort and THIavg values of 70 (which represents the upper end of the THIavg scale in BEL-LUX) were lower for BEL-LUX (0.70-0.80) than for SPA (0.83-0.85). Overall, animals producing in the more temperate climates and semi-extensive grazing systems of BEL and LUX showed HS at lower heat loads and more re-ranking across the THI scale than animals producing in the warmer climate and intensive indoor system of SPA.
Copyright © 2016 American Dairy Science Association. Published by Elsevier Inc. All rights reserved.

Entities:  

Keywords:  Holstein cattle; climate change; heat stress model

Mesh:

Year:  2016        PMID: 26923054     DOI: 10.3168/jds.2015-10212

Source DB:  PubMed          Journal:  J Dairy Sci        ISSN: 0022-0302            Impact factor:   4.034


  9 in total

1.  Effect of evaporative cooling and altitude on dairy cows milk efficiency in lowlands.

Authors:  Jan Broucek; Stefan Ryba; Marta Dianova; Michal Uhrincat; Miloslav Soch; Marie Sistkova; Gabriela Mala; Pavel Novak
Journal:  Int J Biometeorol       Date:  2019-11-22       Impact factor: 3.787

2.  Cattle adapted to tropical and subtropical environments: social, nutritional, and carcass quality considerations.

Authors:  Reinaldo F Cooke; Courtney L Daigle; Philipe Moriel; Stephen B Smith; Luis O Tedeschi; João M B Vendramini
Journal:  J Anim Sci       Date:  2020-02-01       Impact factor: 3.159

3.  Length of lags in responses of milk yield and somatic cell score on test day to heat stress in Holsteins.

Authors:  Koichi Hagiya; Ikumi Bamba; Takefumi Osawa; Yamato Atagi; Naozumi Takusari; Fumiaki Itoh; Takeshi Yamazaki
Journal:  Anim Sci J       Date:  2019-02-27       Impact factor: 1.749

4.  Projected heat stress challenges and abatement opportunities for U.S. milk production.

Authors:  Kpoti M Gunn; Michael A Holly; Tamie L Veith; Anthony R Buda; Rishi Prasad; C Alan Rotz; Kathy J Soder; Anne M K Stoner
Journal:  PLoS One       Date:  2019-03-28       Impact factor: 3.240

5.  Rumen-bypassed tributyrin alleviates heat stress by reducing the inflammatory responses of immune cells.

Authors:  Wenjin Guo; Juxiong Liu; Yuanxi Yang; He Ma; Qian Gong; Xingchi Kan; Xin Ran; Yu Cao; Jianfa Wang; Shoupeng Fu; Guiqiu Hu
Journal:  Poult Sci       Date:  2020-10-13       Impact factor: 3.352

6.  Determining Heat Stress Effects of Multiple Genetic Traits in Tropical Dairy Cattle Using Single-Step Genomic BLUP.

Authors:  Piriyaporn Sungkhapreecha; Vibuntita Chankitisakul; Monchai Duangjinda; Sayan Buaban; Wuttigrai Boonkum
Journal:  Vet Sci       Date:  2022-02-03

7.  Identification of circRNA-Associated-ceRNA Networks Involved in Milk Fat Metabolism under Heat Stress.

Authors:  Dongyang Wang; Zujing Chen; Xiaona Zhuang; Junyi Luo; Ting Chen; Qianyun Xi; Yongliang Zhang; Jiajie Sun
Journal:  Int J Mol Sci       Date:  2020-06-11       Impact factor: 5.923

Review 8.  Nutritional Physiology and Biochemistry of Dairy Cattle under the Influence of Heat Stress: Consequences and Opportunities.

Authors:  Abdul Sammad; Ya Jing Wang; Saqib Umer; Hu Lirong; Imran Khan; Adnan Khan; Baseer Ahmad; Yachun Wang
Journal:  Animals (Basel)       Date:  2020-05-03       Impact factor: 2.752

9.  Effects of Capsicum Oleoresin Supplementation on Lactation Performance, Plasma Metabolites, and Nutrient Digestibility of Heat Stressed Dairy Cow.

Authors:  Zhigao An; Xinxin Zhang; Shanshan Gao; Di Zhou; Umair Riaz; Mohamed Abdelrahman; Guohua Hua; Liguo Yang
Journal:  Animals (Basel)       Date:  2022-03-21       Impact factor: 2.752

  9 in total

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