黑心菊的营养价值、生物学功能及其在动物生产中的应用
Journal: Basic Medical Theory Research DOI: 10.32629/bmtr.v8i1.18597
Abstract
在全球追求可持续农业与提升动物生产效率的背景下,探索营养丰富的多功能饲料资源显得尤为关键。黑心菊作为一种具有多种生物活性的草本植物,富含蛋白质、纤维、矿物质和维生素等营养成分,具有作为优质饲料的潜力。黑心菊中的黄酮类化合物、多酚等活性成分,不仅具有抗氧化、抗炎和免疫调节作用,还能促进动物的生长发育和健康。本文综述了黑心菊的营养成分、生物学功能及其在动物生产中的应用,旨在推动饲料资源的创新与优化,促进畜牧业的可持续健康发展,为相关研究和实践提供参考。
Keywords
黑心菊;营养价值;生物学功能;动物生产
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[1] 胡海燕,陈代文,余冰.紫锥菊及其提取物调节动物机体免疫功能及其作用机制[J].动物营养学报,2017,29(4):1096-1100.
[2] HU Haiyan,CHEN Daiwen,YU Bing,HE Jun,MAO Xiangbing. Echinacea and Its Extract:Modulation and Mechanisms on Imm une Function of Animals[J].Chinese Journal of Animal Nutrit ion,2017,29(4):1096-1100.
[3] 范爱武,刘伟,李光正.温室环境对黑心菊生长影响的实验研究[J].华中科技大学学报(自然科学版),2005,33(9):62-64.
[4] FAN Aiwu,LIU Wei,LI Guangzheng.Experimental study on the influence of greenhouse environment on the growth of Rudbeckia hirta[J].Journal of Huazhong University of Science and Technology(Nature Science Edition),2005,33(9):62-64.
[5] 李明,刘洋.不同菊科植物耐铅性和富集特征比较研究[J].山东农业科学,2018,50(3):45-50.
[6] LI Ming,LIU Yang,et al.Comparative Study on Lead Toler ance and Accumulation Characteristics of Different Composi tae Plants[J].Shandong Agricultural Science,2018,50(3):45-50.
[7] 付石军,郭时金,张志美.紫锥菊的药理作用及其在动物生产中的应用[J].畜牧兽医杂志,2013,37(7):45-48.
[8] FU Shijun,GUO Shijin,ZHANG Zhimei,SHEN Zhiqiang.Phar macological Effects of Echinacea and Its Application in Anim al Production[J].Journal of Animal Husbandry and Veterinary Medicine,2013,37(7):45-48.
[9] Potts S G,Biesmeijer J C,Kremen C,et al.Global pollina tor declines:trends,impacts and drivers[J].Trends in Ecology& Evolution,2010,25:345–353.
[10] Tallamy D W,Narango D L,Mitchell A B.Do non-native plants contribute to insect declines?[J].Ecological Entomolo gy,2021,46:729-742.
[11] Zou C,Wang K,Wang T,et al.Overgrazing and soil carbon dynamics in eastern Inner Mongolia of China[J].Ecological Research,2007,22:135-142.
[12] Thompson G L,Kao-Kniffin J.Diversity enhances NPP,N retention,and soil microbial diversity in experimental urban grassland assemblages[J].PLOS ONE,2016,11:e0155986.
[13] Liu Y,Miao H T,Chang X,et al.Higher species diversity improves soil water infiltration capacity by increasing soil organic matter content in semiarid grasslands[J].Land Degrad ation&Development,2019,30:1599-1606.
[14] Bai Y,Cotrufo M F.Grassland soil carbon sequestration: current understanding,challenges,and solutions[J].Science,2022,377:603-608.
[15] Williams N M,Ward K L,Pope N,et al.Native wildflower plantings support wild bee abundance and diversity in agricu ltural landscapes across the United States[J].Ecological Appli cations,2015,25:2119-2131.
[16] Tonietto R K,Ascher J S,Larkin D J.Bee communities along a prairie restoration chronosequence:similar abundance and diversity,distinct composition[J].Ecological Applications,2017,27:705-717.
[17] Bjørn M C,Weiner J,Kollmann J,et al.Increasing local biodiversity in urban environments:community development in semi-natural species-rich forb vegetation[J].Landscape and Urban Planning,2019,184:23-31.
[18] Ratnadass A,Fernandes P,Avelino J,et al.Plant species diversity for sustainable management of crop pests and disea ses in agroecosystems:a review[J].Agronomy for Sustainable Development,2012,32:273-303.
[19] He H M,Liu L N,Munir S,et al.Crop diversity and pest management in sustainable agriculture[J].Journal of Integra tive Agriculture,2019,18:1945-1952.
[20] McCullough C,Grab H,Angelella G,et al.Diverse landsca pes but not wildflower plantings increase marketable crop yield[J].Agriculture,Ecosystems&Environment,2022,339:108120.
[21] Tracy B F,Maughan M,Post N,et al.Integrating annual and perennial warm-season grasses in a temperate grazing sys tem[J].Crop Science,2010,50:2171-2177.
[22] Temu V W,Rude B J,Baldwin B S.Yield response of native warm-season forage grasses to harvest intervals and durations in mixed stands[J].Agronomy,2014,4:90-107.
[23] Burlec L,et al.Ornamental Asteraceae species as new sources of secondary metabolites[J].Indian Journal of Pharma ceutical Education and Research,2017,51(3):S427.
[24] Zijlstra R T,Beltranena E.Swine convert co-products from food and biofuel industries into animal protein for food[J].Animal Frontiers,2013,3:48-53.
[25] Shi C,Zhang Y,Lu Z,et al.Solid-state fermentation of corn–soybean meal mixed feed with Bacillus subtilis and Enterococcus faecium for degrading antinutritional factors and enhancing nutritional value[J].Journal of Animal Science and Biotechnology,2017,8:50.
[26] Dawood M A O,Koshio S.Application of fermentation strategy in aquafeed for sustainable aquaculture[J].Reviews in Aquaculture,2019,12:987-1002.
[27] Pires A J V,Carvalho G G P D,Ribeiro L S O.Chemical trea tment of roughage[J].Revista Brasileira de Zootecnia,2010,39:192-203.
[28] Muscat A,Olde E M,de Boer I J M,et al.The battle for biomass:a systematic review of food-feed-fuel competition [J].Global Food Security,2020,25:100330.
[29] Herrero M,et al.Articulating the effect of food syst ems innovation on the Sustainable Development Goals[J].The Lancet Planetary Health,2021,5:e50-e62.
[30] Tacon A G J,Metian M.Fishing for aquaculture:nonfood use of small pelagic forage fish—a global perspective [J].Reviews in Fisheries Science,2009,17:305-317.
[31] Cashion T,Le Manach F,Zeller D,et al.Most fish destin ed for fishmeal production are food-grade fish[J].Fish and Fisheries,2017,18:837-844.
[32] European Commission.Communication from the Commis sion to the European Parliament,the Council,the European Eco nomic and Social Committee and the Committee of the Regio ns:A new circular economy action plan for a cleaner and more competitive Europe[R].2020.(EC COM/2020/98).
[33] Ministry of the Environment,Finland.Government reso lution on the strategic programme for circular economy[R].2021.
[2] HU Haiyan,CHEN Daiwen,YU Bing,HE Jun,MAO Xiangbing. Echinacea and Its Extract:Modulation and Mechanisms on Imm une Function of Animals[J].Chinese Journal of Animal Nutrit ion,2017,29(4):1096-1100.
[3] 范爱武,刘伟,李光正.温室环境对黑心菊生长影响的实验研究[J].华中科技大学学报(自然科学版),2005,33(9):62-64.
[4] FAN Aiwu,LIU Wei,LI Guangzheng.Experimental study on the influence of greenhouse environment on the growth of Rudbeckia hirta[J].Journal of Huazhong University of Science and Technology(Nature Science Edition),2005,33(9):62-64.
[5] 李明,刘洋.不同菊科植物耐铅性和富集特征比较研究[J].山东农业科学,2018,50(3):45-50.
[6] LI Ming,LIU Yang,et al.Comparative Study on Lead Toler ance and Accumulation Characteristics of Different Composi tae Plants[J].Shandong Agricultural Science,2018,50(3):45-50.
[7] 付石军,郭时金,张志美.紫锥菊的药理作用及其在动物生产中的应用[J].畜牧兽医杂志,2013,37(7):45-48.
[8] FU Shijun,GUO Shijin,ZHANG Zhimei,SHEN Zhiqiang.Phar macological Effects of Echinacea and Its Application in Anim al Production[J].Journal of Animal Husbandry and Veterinary Medicine,2013,37(7):45-48.
[9] Potts S G,Biesmeijer J C,Kremen C,et al.Global pollina tor declines:trends,impacts and drivers[J].Trends in Ecology& Evolution,2010,25:345–353.
[10] Tallamy D W,Narango D L,Mitchell A B.Do non-native plants contribute to insect declines?[J].Ecological Entomolo gy,2021,46:729-742.
[11] Zou C,Wang K,Wang T,et al.Overgrazing and soil carbon dynamics in eastern Inner Mongolia of China[J].Ecological Research,2007,22:135-142.
[12] Thompson G L,Kao-Kniffin J.Diversity enhances NPP,N retention,and soil microbial diversity in experimental urban grassland assemblages[J].PLOS ONE,2016,11:e0155986.
[13] Liu Y,Miao H T,Chang X,et al.Higher species diversity improves soil water infiltration capacity by increasing soil organic matter content in semiarid grasslands[J].Land Degrad ation&Development,2019,30:1599-1606.
[14] Bai Y,Cotrufo M F.Grassland soil carbon sequestration: current understanding,challenges,and solutions[J].Science,2022,377:603-608.
[15] Williams N M,Ward K L,Pope N,et al.Native wildflower plantings support wild bee abundance and diversity in agricu ltural landscapes across the United States[J].Ecological Appli cations,2015,25:2119-2131.
[16] Tonietto R K,Ascher J S,Larkin D J.Bee communities along a prairie restoration chronosequence:similar abundance and diversity,distinct composition[J].Ecological Applications,2017,27:705-717.
[17] Bjørn M C,Weiner J,Kollmann J,et al.Increasing local biodiversity in urban environments:community development in semi-natural species-rich forb vegetation[J].Landscape and Urban Planning,2019,184:23-31.
[18] Ratnadass A,Fernandes P,Avelino J,et al.Plant species diversity for sustainable management of crop pests and disea ses in agroecosystems:a review[J].Agronomy for Sustainable Development,2012,32:273-303.
[19] He H M,Liu L N,Munir S,et al.Crop diversity and pest management in sustainable agriculture[J].Journal of Integra tive Agriculture,2019,18:1945-1952.
[20] McCullough C,Grab H,Angelella G,et al.Diverse landsca pes but not wildflower plantings increase marketable crop yield[J].Agriculture,Ecosystems&Environment,2022,339:108120.
[21] Tracy B F,Maughan M,Post N,et al.Integrating annual and perennial warm-season grasses in a temperate grazing sys tem[J].Crop Science,2010,50:2171-2177.
[22] Temu V W,Rude B J,Baldwin B S.Yield response of native warm-season forage grasses to harvest intervals and durations in mixed stands[J].Agronomy,2014,4:90-107.
[23] Burlec L,et al.Ornamental Asteraceae species as new sources of secondary metabolites[J].Indian Journal of Pharma ceutical Education and Research,2017,51(3):S427.
[24] Zijlstra R T,Beltranena E.Swine convert co-products from food and biofuel industries into animal protein for food[J].Animal Frontiers,2013,3:48-53.
[25] Shi C,Zhang Y,Lu Z,et al.Solid-state fermentation of corn–soybean meal mixed feed with Bacillus subtilis and Enterococcus faecium for degrading antinutritional factors and enhancing nutritional value[J].Journal of Animal Science and Biotechnology,2017,8:50.
[26] Dawood M A O,Koshio S.Application of fermentation strategy in aquafeed for sustainable aquaculture[J].Reviews in Aquaculture,2019,12:987-1002.
[27] Pires A J V,Carvalho G G P D,Ribeiro L S O.Chemical trea tment of roughage[J].Revista Brasileira de Zootecnia,2010,39:192-203.
[28] Muscat A,Olde E M,de Boer I J M,et al.The battle for biomass:a systematic review of food-feed-fuel competition [J].Global Food Security,2020,25:100330.
[29] Herrero M,et al.Articulating the effect of food syst ems innovation on the Sustainable Development Goals[J].The Lancet Planetary Health,2021,5:e50-e62.
[30] Tacon A G J,Metian M.Fishing for aquaculture:nonfood use of small pelagic forage fish—a global perspective [J].Reviews in Fisheries Science,2009,17:305-317.
[31] Cashion T,Le Manach F,Zeller D,et al.Most fish destin ed for fishmeal production are food-grade fish[J].Fish and Fisheries,2017,18:837-844.
[32] European Commission.Communication from the Commis sion to the European Parliament,the Council,the European Eco nomic and Social Committee and the Committee of the Regio ns:A new circular economy action plan for a cleaner and more competitive Europe[R].2020.(EC COM/2020/98).
[33] Ministry of the Environment,Finland.Government reso lution on the strategic programme for circular economy[R].2021.
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