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The Use of Bacteriophage for Detection and Biocontrol of Foodborne Pathogen 噬菌体在食源性致病菌检测及生物防治中的应用
IF 0.3 Pub Date : 2018-03-03 DOI: 10.14334/WARTAZOA.V28I1.1791
T. Ariyanti
Bacteriophages are viruses that have ability to attack bacterial cells in specific receptors, infect, multiply in bacterial cells and eventually lyse bacterial cells. This unique bacteriophage character is highly beneficial because it is harmless to mammalian cells and does not interfere with natural microbes. Bacteriophages are easy to obtain because they are widespread in the environment such as soil, water, animal, and farm waste or food. This paper describes the potential use of bacteriophages to detect pathogen and foodborne pathogen biocontrol. Bacteriophages are very potential to control the growth of pathogenic bacteria both in food industry and environment. Bacteriophages act as antibiotics, detection tool for pathogenic bacteria in the food chain, food biopreservative from pathogen bacteria contamination, and foodborne disease prevention. Although research on bacteriophage in Indonesia has not been widely reported, research on bacteriophage utilization is being carried on.
噬菌体是一种能够攻击特定受体中的细菌细胞,在细菌细胞中感染、繁殖并最终溶解细菌细胞的病毒。这种独特的噬菌体特性是非常有益的,因为它对哺乳动物细胞无害,也不会干扰天然微生物。噬菌体很容易获得,因为它们广泛存在于土壤、水、动物、农场废物或食物等环境中。本文介绍了噬菌体在病原检测和食源性病原生物防治方面的潜在应用。噬菌体在控制食品工业和环境中致病菌的生长方面具有很大的潜力。噬菌体具有抗菌素、食物链中致病菌的检测工具、防止致病菌污染的食品生物防腐剂、食源性疾病预防等功能。虽然印尼对噬菌体的研究尚未广泛报道,但噬菌体利用的研究正在进行中。
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引用次数: 0
Utilization of Ovary Collected from Abattoir as Genetic Material Resources 屠宰场卵巢遗传物质资源的利用
IF 0.3 Pub Date : 2018-03-03 DOI: 10.14334/WARTAZOA.V27I4.1790
A. Febretrisiana, F. A. Pamungkas
Slaughtering productive cow is commonly practiced, eventhough it is not in accordance with government program to increase livestock population in Indonesia. Ovarium from slaughtered cow contains genetic materials that have not utilized properly. The purpose of this paper is to review ovarian utilization collected from abattoir through in vitro fertilization technology. The best procedure of ovary preservation from abbatoir to the laboratory, oocyte collection techniques are required to produce qualified embryo. Transportation of ovary to laboratory requires proper temperature and time. Slicing method obtains high quantity and good quality of oocyte. The quality of oocytes collected from abattoir as good as those taken from live animal. Ovaries that previously as waste product can be used for in vitro production of embryos and livestock genetic material resources.
屠宰多产的奶牛是普遍的做法,尽管这不符合印尼政府增加牲畜数量的计划。屠宰奶牛的卵巢含有未被正确利用的遗传物质。本文旨在综述通过体外受精技术从屠宰场采集的卵巢利用率。卵巢保存的最佳程序是从abbatoir到实验室,需要卵母细胞采集技术才能产生合格的胚胎。将卵巢运送到实验室需要适当的温度和时间。切片法可获得数量高、质量好的卵母细胞。从屠宰场采集的卵母细胞质量与从活体动物身上采集的一样好。以前作为废物的卵巢可用于胚胎和牲畜遗传物质资源的体外生产。
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引用次数: 1
Application of Reproduction Biotechnology and Molecular Genetic to Improve Productivity of Local Pigs 应用繁殖生物技术和分子遗传学提高地方猪生产能力
IF 0.3 Pub Date : 2018-03-03 DOI: 10.14334/wartazoa.v27i4.1677
B. Soewandi
Low productivity in local pigs is due to the absence of breeding plan with mating arrangements. The main productivity variables used in breeding are litter size (number of piglets), weaning litter, number of teats, sow productivity index, growth rate, slaughter weight, and carcass quality. Selection to produce a new breed in breeding scheme should be conducted within five generations requiring large numbers of livestock, length period, and costly. Biotechnology reproduction and genetic molecular can be used to increase the value of the variables, to shorten interval generation, and cost efficient. This paper provides information on the use of reproduction biotechnology and molecular genetic from various sources and utilization of both technologies to increase local pig productivity. Reproductive biotechnology is useful in mating arrangement and molecular genetic using marker assisted selection (MAS) is able to determine superior pig since early age.
当地猪的生产力低下是由于没有配种计划。育种中使用的主要生产力变量是产仔数(仔猪数量)、断奶产仔数、乳头数量、母猪生产力指数、生长速度、屠宰重量和胴体质量。育种方案中生产新品种的选择应在五代内进行,需要大量的牲畜、较长的周期和昂贵的成本。生物技术繁殖和遗传分子可以用来增加变量的价值,缩短世代间隔,并具有成本效益。本文介绍了利用各种来源的繁殖生物技术和分子遗传学,以及利用这两种技术提高当地生猪生产力的情况。繁殖生物技术在交配安排中是有用的,使用标记辅助选择(MAS)的分子遗传学能够从小就确定优质猪。
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引用次数: 0
Perspective on the Production Availability of Animal Protein Source from Livestock in Indonesia 印度尼西亚畜牧业动物蛋白来源的生产可行性展望
IF 0.3 Pub Date : 2018-03-03 DOI: 10.14334/WARTAZOA.V28I1.1410
P. Priyono, A. Priyanti
Human Development Index (HDI) is used to measure overall performance where Indonesia's HDI is ranked 110 out of 187 countries with an index value of 0.684 in 2015. Consumption of animal protein has a relationship with life expectancy and quality of life which determines by the HDI performance. The paper describes on perspective development of animal protein source from livestock in Indonesia. The production development of animal protein source in overall (meat, eggs, and milk) had a positive growth during the period of 1994-2015 with the range of 1-6%/year, except that for buffalo meat production that decreased by 1.77%/year. The animal protein availability of meat was dominated by broiler production, followed by beef, mutton and others. The broiler meat production has the highest growth rate of 6.67%/year. Meanwhile, the animal protein source of non-meat production was dominated by eggs and milk production that its growth rate were 5.98 and 4.29%/year, respectively. In the same period, the meat production share was dominated by poultry meat, the rest derived from large ruminant, small ruminant, and other meat sources. Egg and milk production share also increased significantly during the period and share availability of beef production was less than 25% where its consumer participation was decreased. This indicates that beef is not a primary consumption for the majority people of Indonesia. Development program is needed to encourage an increase of the protein source from poultry meat, large ruminants, small ruminants, and milk.
人类发展指数(HDI)用于衡量整体表现,2015年印度尼西亚的HDI指数为0.684,在187个国家中排名第110位。动物蛋白的消费与预期寿命和生活质量有关系,这是由人类发展指数的表现决定的。本文介绍了印尼畜禽动物蛋白来源的发展前景。1994-2015年,除水牛肉产量下降1.77%/年外,动物蛋白源(肉、蛋、奶)的生产总体呈正增长,增长幅度为1-6%/年。肉类的动物蛋白利用率以肉鸡产品为主,其次是牛肉、羊肉和其他产品。肉鸡肉制品产量增长率最高,为6.67%/年。同时,非肉类生产的动物蛋白来源以蛋类和奶类为主,增长率分别为5.98和4.29%/年。在同一时期,肉类生产份额以禽肉为主,其余来自大型反刍动物、小型反刍动物和其他肉类来源。在此期间,鸡蛋和牛奶生产份额也显著增加,牛肉生产份额不足25%,消费者参与度有所下降。这表明牛肉并不是大多数印尼人的主要消费。需要发展计划来鼓励增加来自禽肉、大型反刍动物、小型反刍动物和牛奶的蛋白质来源。
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引用次数: 4
Dwarf Elephant Grass (Pennisetum purpureum cv. Mott) as Forage for Ruminant 矮象草作为反刍动物的饲料
IF 0.3 Pub Date : 2018-03-03 DOI: 10.14334/WARTAZOA.V27I4.1569
J. Sirait
Availability of good quality forage is limited during dry season. Dwarf elephant grass is one of alternatives in providing high productivity and quality of forage. This paper aims to inform morphologhy characteristics, feed quality, and post harvest of dwarf elephant grass. Dwarf elephant grass ( Pennisetum purpureum cv. Mott) has different morphology from common elephant grass ( P. purpureum ). It has several advantages compared to common elephant grass in term of faster growth and regrowth rates, high of leaf and stem ratio, protein content, and dry matter production. This grass is suitable for grazing and cut and carry system. This grass is also suitable for ruminant feed as silage or hay. Processing of dwarf elephant grass using fermentation technology is recommended during over production period, for further use during drought and limited forage availability.
在旱季,优质饲料的供应有限。矮象草是提供高生产力和高质量饲料的替代品之一。本文旨在了解矮象草的形态特征、饲料质量和采后情况。矮生象草(Pennisetum purpureum cv.Mott)与普通象草(P.purpureum)具有不同的形态。与普通象草相比,它具有生长和再生速度更快、叶茎比高、蛋白质含量高和干物质产量高的几个优点。这种草适合放牧和割草搬运系统。这种草也适合用作反刍动物的饲料,如青贮饲料或干草。建议在过度生产期间使用发酵技术加工矮象草,以便在干旱和饲料供应有限的情况下进一步使用。
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引用次数: 8
Giardia intestinalis assemblage E as an Emerging Zoonosis in Livestock 肠贾第鞭毛虫组合E是一种新出现的家畜共患病
IF 0.3 Pub Date : 2018-03-03 DOI: 10.14334/wartazoa.v27i4.1787
A. H. Wardhana
Giardia intestinalis is a gastrointestinal parasite causing giardiasis that infects animals and humans. Giardiasis generates diarrhea, malabsorption, decreased body weight and milk production, dehydration, and mortality especially in young animals. This paper describes G. intestinalis assemblage E in humans and livestock, including molecular identification and disease distribution. The incidence of giardiasis in humans and livestock has been reported in some countries, particularly in young host living under poor sanitation and hygiene. Based on genotype, the parasite is divided into eight assemblages (A-H) and some infect specific hosts. At the moment, assemblage E is known as genotype that infects animal. This statement is controversial since assemblage E was also detected in humans who contacted with animals. This condition assumes that assemblage E is an emerging zoonosis that needs special attention.
肠贾第虫是一种引起贾第虫病的胃肠道寄生虫,可感染动物和人类。贾第虫病导致腹泻、吸收不良、体重和产奶量下降、脱水和死亡,特别是在幼畜中。本文介绍了大肠弧菌在人类和家畜中的分布,包括分子鉴定和疾病分布。一些国家报告了人类和牲畜中贾第虫病的发病率,特别是生活在环境卫生和个人卫生条件差的年轻宿主。根据基因型,寄生虫被分为8个组合(A-H),其中一些感染特定的宿主。目前,组合E被称为感染动物的基因型。这种说法是有争议的,因为在与动物接触的人身上也发现了E组合。这种情况假定组合E是一种需要特别注意的新出现的人畜共患病。
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引用次数: 0
Inbreeding Depression and Alternative Solution in Buffaloes 水牛近交抑制及替代对策
IF 0.3 Pub Date : 2018-03-03 DOI: 10.14334/WARTAZOA.V28I1.1744
L. Praharani, R. Sianturi
Buff and dairy buffaloes have an important role in farming system to produce meat, milk, and fertilizer. Their productivity and population have been decreasing due to several reasons such as inbreeding depression and lack of sires. This paper presents alternative efforts to improve genetics of buffaloes through outbreeding fascilitated by artificial insemination (AI) and estrus synchronization to decrease inbreeding rates. Effort to reduce inbreeding depression is conducted by introducing new buffalo genes from distant populations known as outbreeding. Indonesian Research Institute for Animal Production has initiated an outbreeding program in buffalo through AI. The pregnancy rate varies between 40-80% using estrus synchronization with prostaglandin and fixed time AI. Outbred offsprings have higher growth performance and selling price than offsprings of natural breeding. The outbreeding program through AI in buffaloes need to be carried out sustainability to increase availability of qualified breeding stocks.
肉牛和乳牛在农业系统中扮演着重要的角色,可以生产肉、奶和肥料。由于近亲繁殖萧条和缺乏后代等原因,它们的生产力和数量一直在下降。本文介绍了通过人工授精(AI)和发情同步进行远交以降低近交率来改善水牛遗传的替代努力。通过从遥远的水牛种群中引入新的水牛基因来减少近亲繁殖的萧条。印度尼西亚动物生产研究所通过人工智能启动了水牛的近亲繁殖计划。采用与前列腺素同步发情和定时人工授精,妊娠率在40-80%之间。远交系后代的生长性能和销售价格均高于自然育种后代。通过人工智能在水牛中进行的近亲繁殖计划需要可持续地进行,以增加合格种畜的可用性。
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引用次数: 6
Mycoremediation to Remove Heavy Metal Pollution in Post-Mining Areas for Farmland Utilization 真菌修复去除后矿区农田重金属污染
IF 0.3 Pub Date : 2018-03-03 DOI: 10.14334/WARTAZOA.V28I1.1785
R. Ahmad
The agriculture land including farmland is decreasing caused by conversion to industrial area and settlement, therefore post-mining area is used to be farmlands. The utilization of post-mining area causes serious health problem in animals and humans due to heavy metal waste pollution (Ag, As, Cd, Co, Cr, Cu, Hg, Ni, and Pb). Efforts to overcome the pollution of heavy metals on farms can be carried out by preventing and controlling waste in post-mining and industry areas. There are several mycoremediation methods to recover heavy metal polluted land such as biosorption, bioaccumulation, bioprecipitation, bioreduction, and bioleaching. Mycoremediation is a process to remove pollutants or heavy metals from soil using potential fungi ( Aspergillus flavus, Penicillium sp , Fusarium sp , Saccharomyces cerevisiae ). Mycoremediation is chosen due to economical cost, efficient, and environmentally friendly.
由于向工业区转移和定居,包括农田在内的农业用地正在减少,因此采后地区被用作农田。由于重金属废物污染(Ag、As、Cd、Co、Cr、Cu、Hg、Ni和Pb),采后区的利用给动物和人类带来了严重的健康问题。可以通过预防和控制采矿后和工业区的废物来努力克服农场重金属污染。重金属污染土地的修复方法有几种,如生物吸附、生物累积、生物沉淀、生物还原和生物浸出。真菌修复是一种利用潜在真菌(黄曲霉、青霉属、镰刀菌属、酿酒酵母)从土壤中去除污染物或重金属的过程。选择真菌修复是出于经济、高效和环保的考虑。
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引用次数: 6
Androgen Regulation in Spermatogenesis to Increase Male Fertility 精子发生中的雄激素调节以提高男性生育能力
IF 0.3 Pub Date : 2018-03-03 DOI: 10.14334/WARTAZOA.V28I1.1643
H. Hasbi, S. Gustina
Male fertility is affected by quantity and quality of sperm which controlled by androgens (testosterone and 5α-dihydrotestosterone) mediated by androgen receptors (AR). Androgen receptors belong to receptor group of steroid hormone and a group of ligand-activated nuclear receptor superfamily. This paper explains androgen hormone and its regulation in spermatogenesis to increase male fertility. Regulation of androgen hormone in spermatogenesis include initiation of spermatogenesis, proliferation and maturation of Sertoli cells, germ cell development, spermatogonia, meiosis, and spermiogenesis. The role of androgen hormone in regulation of spermatogenesis is influenced by AR, luteinizing hormone (LH), and follicle stimulating hormone (FSH) levels. Disruption of spermatogenesis will cause low male fertility. However, low concentrations of AR, LH and FSH could be enhanced by exogenous gonadotrophine releasing hormone (GnRH), LH, FSH, and testosterone to increase male fertility.
男性生育能力受精子数量和质量的影响,精子数量和品质受雄激素受体(AR)介导的雄激素(睾酮和5α-二氢睾酮)控制。雄激素受体属于类固醇激素受体组,是配体激活的核受体超家族的一组。本文阐述了雄激素及其在精子发生中的调节作用,以提高男性生育能力。雄激素在精子发生中的调节包括精子发生的启动、支持细胞的增殖和成熟、生殖细胞的发育、精原细胞、减数分裂和精子生成。雄激素在调节精子发生中的作用受到AR、黄体生成素(LH)和卵泡刺激素(FSH)水平的影响。精子发生中断会导致男性生育能力低下。然而,外源性促性腺激素释放激素(GnRH)、LH、FSH和睾酮可以增强低浓度的AR、LH和FSH,以提高男性生育能力。
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引用次数: 6
Outermost Small Islands in Indonesia for Quarantine Area and Livestock Development 印度尼西亚最外围小岛屿隔离区和畜牧业发展
IF 0.3 Pub Date : 2018-03-03 DOI: 10.14334/wartazoa.v27i4.1692
E. Sutedi, I. Herdiawan, E. Handiwirawan
Indonesia has about 17,506 islands consisting of large and small islands. Outermost small islands are direct boundary of Indonesia with neighboring countries. These outermost islands have the potency to be used as quarantine area and for livestock development, especially beef cattle in order to support the development of food security of meat. Some of outermost islands are Jemaja island in Riau Province, Singkil island in Aceh Province and Naduk island in Bangka Belitung Province. Criteria to determine quarantine area and livestock development are availability of natural resources (fresh water and forage), free of contagious diseases, human resources, market access, and transportation. This paper describes about the condition and forage availability in those three islands and their surrounding area. Those islands have potential variety of forage with different carrying capacities. Type of grass that has been adapted in the outermost islands are Paspalum conjugatum , Axonopus compressus , Cynodon dactylon , Cynodon plectostachyus , and Panicum repens .
印度尼西亚大约有17,506个岛屿,包括大大小小的岛屿。最外围的小岛屿是印度尼西亚与邻国的直接边界。这些最外围的岛屿有潜力用作隔离区和畜牧业发展,特别是肉牛,以支持肉类粮食安全的发展。一些最外围的岛屿是廖内省的Jemaja岛、亚齐省的Singkil岛和邦加勿里洞省的Naduk岛。确定隔离区和畜牧业发展的标准是自然资源(淡水和饲料)的可用性、无传染病、人力资源、市场准入和运输。本文介绍了这三个岛屿及其周边地区的草料条件和可利用性。这些岛屿具有潜在的牧草品种和不同的承载能力。在最外围的岛屿上适应的草类型是雀稗,压轴草,长爪草,棘爪草,棘爪草和棘爪草。
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引用次数: 1
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Wartazoa-Buletin Ilmu Peternakan dan Kesehatan Hewan Indonesia
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