Dairy Goat Production Systems: A Comprehensive Analysis to Reframe Their Global Diversity

被引:0
|
作者
Meza-Herrera, Cesar A. [1 ]
Navarrete-Molina, Cayetano [2 ]
Macias-Cruz, Ulises [3 ]
Arellano-Rodriguez, Gerardo [4 ]
De Santiago-Miramontes, Angeles [4 ]
Sarinana-Navarrete, Maria A. [2 ]
Marin-Tinoco, Ruben I. [2 ,5 ]
Perez-Marin, Carlos C. [6 ]
机构
[1] Chapingo Autonomous Univ, Reg Universitary Unit Arid Lands, Bermejillo 35230, Mexico
[2] Technol Univ Rodeo, Dept Chem & Environm Technol, Rodeo 35760, Mexico
[3] Baja Calif Autonomous Univ, Agr Sci Inst, Mexicali 21705, Mexico
[4] Antonio Narro Agrarian Autonomous Univ, Dept Anim Prod, Laguna Unit, Torreon 27054, Mexico
[5] Rural Hosp, Mexican Social Secur Inst 162, Rodeo 35760, Mexico
[6] Univ Cordoba, Fac Vet Med, Dept Anim Med & Surg, Cordoba 14014, Spain
来源
ANIMALS | 2024年 / 14卷 / 24期
关键词
goat milk; adaptation; climate change; arid and semi-arid zones; smallholder; CLIMATE-CHANGE; PASTORAL SYSTEMS; GRAZING SYSTEMS; MILK; TRENDS; SHEEP; REGION; CATTLE; ZONE;
D O I
10.3390/ani14243717
中图分类号
S8 [畜牧、 动物医学、狩猎、蚕、蜂];
学科分类号
0905 ;
摘要
This review aims to emphasize the important role that goats and dairy goats play for many small-scale rural families worldwide, as well as to introduce a proposal for categorizing the main dairy goat production systems (DGPSs), using a multifactorial approach but emphasizing rainfall and nutritional supplementation level, as the focal categorization factors. The main DGPSs were divided into two metasystems based on available resources, each consisting of three production subsystems. In the first metasystem, the three subsystems have limited water, biotic, and economic resources, whose main economic rationality is based on reducing risk rather than maximizing outputs. In contrast, the three subsystems of the second metasystem usually have increased biotic, economic, and water resources, whose main emphasis involves maximizing product yield rather than reducing risk. The first metasystem involves DGPSs with a very limited or null nutritional supplementation: (a) subsistence, (b) extensive, and (c) agro-silvopastoral. The second metasystem includes those DGPSs with different levels of nutritional supplementation: (d) semi-extensive, (e) semi-intensive, and (f) intensive. There are numerous significant global initiatives focused on scientific collaboration and sharing information regarding nutrition, reproductive, and genetic technologies related to the safety and nutraceutical quality of goat milk and products while contextualized in different DGPSs. Hence, such scenarios should create additional opportunities for researchers, producers, policymakers, and development workers to come together and align interests and needs and exchange knowledge on effective goat farmer support strategies, environmental management, and consumer education. Undoubtedly, it is essential to reevaluate the DGPSs in the world since millions of producers and their families-most of them poor and marginalized-need this species, society needs their products, most of the worldwide arid and semi-arid lands need their recovery, and all of us should encourage the fulfillment of the sustainable development goals.
引用
收藏
页数:20
相关论文
共 50 条
  • [31] A survey analysis of indigenous goat production in communal farming systems of Botswana
    P. I. Monau
    C. Visser
    S. J. Nsoso
    E. Van Marle-Köster
    Tropical Animal Health and Production, 2017, 49 : 1265 - 1271
  • [32] A survey analysis of indigenous goat production in communal farming systems of Botswana
    Monau, P. I.
    Visser, C.
    Nsoso, S. J.
    Van Marle-Koster, E.
    TROPICAL ANIMAL HEALTH AND PRODUCTION, 2017, 49 (06) : 1265 - 1271
  • [33] GOAT PRODUCTION SYSTEMS IN PUNJAB, PAKISTAN
    Muhammad, M. S.
    Abdullah, M.
    Javed, K.
    Khan, M. S.
    Jabbar, M. A.
    JOURNAL OF ANIMAL AND PLANT SCIENCES, 2015, 25 (03): : 618 - 624
  • [34] FarmDain, a Decision Support System for Dairy Sheep and Goat Production
    Louta, Malamati
    Karagiannis, Panagiotis
    Papanikolopoulou, Vasiliki
    Vouraki, Sotiria
    Tsipis, Evangelos
    Priskas, Stergios
    Koutouzidou, Georgia
    Theodoridis, Alexandros
    Dimitriou, Socratis
    Arsenos, Georgios
    ANIMALS, 2023, 13 (09):
  • [35] Incorporating leucaena into goat production systems
    Cowley, Frances C.
    Roschinsky, Romana
    TROPICAL GRASSLANDS-FORRAJES TROPICALES, 2019, 7 (02): : 173 - 181
  • [36] Feed-milk-manure nitrogen relationships in global dairy production systems
    Powell, J. M.
    MacLeod, M.
    Vellinga, T. V.
    Opio, C.
    Falcucci, A.
    Tempio, G.
    Steinfeld, H.
    Gerber, P.
    LIVESTOCK SCIENCE, 2013, 152 (2-3) : 261 - 272
  • [37] Dairy goat production for smallholders in Sichuan China and North Korea
    Xu, GY
    Pu, JB
    Pelant, RK
    MILKING AND MILK PRODUCTION OF DAIRY SHEEP AND GOATS, 1999, (95): : 357 - 359
  • [38] LIMITING FACTORS IN GOAT PRODUCTION SYSTEMS
    SALINAS, H
    AVILA, JL
    FALCON, A
    FLORES, R
    TURRIALBA, 1991, 41 (01): : 47 - 52
  • [39] Carbon footprint of dairy goat milk production in New Zealand
    Robertson, Kimberly
    Symes, Wymond
    Garnham, Malcolm
    JOURNAL OF DAIRY SCIENCE, 2015, 98 (07) : 4279 - 4293
  • [40] Current status, challenges and prospects for dairy goat production in the Americas
    Lu, Christopher D.
    Miller, Beth A.
    ASIAN-AUSTRALASIAN JOURNAL OF ANIMAL SCIENCES, 2019, 32 (08): : 1244 - 1255