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Autochthonous yeasts as one of the tools to produce wines by original technologies 原生酵母是原汁原味酿造葡萄酒的工具之一
Pub Date : 2019-02-13 DOI: 10.18832/KP2019.65.38
Eva Vontrobovă, P. Kubizniaková, J. Fiala, J. Sochor, D. Matoulková
This review focuses on autochthonous wine yeasts that occur naturally in a specific geographical area, and their role in wine production. The distribution of individual species changes during ripening and processing of grapes and fermentation of the grape must. The composition of autochthonous microflora is influenced by many factors including interspecific interactions. Autochthonous yeast populations lend to wine flavor and taste typical for a specific geographical area. The article describes the fermentation of grape must, changes of autochthonous yeast microflora during spontaneous or combined fermentation, and includes an overview of the basic species of autochthonous yeasts.
这篇综述的重点是在一个特定的地理区域自然产生的本土葡萄酒酵母,以及它们在葡萄酒生产中的作用。在葡萄的成熟、加工和发酵过程中,个别品种的分布会发生变化。原生菌群的组成受多种因素的影响,包括种间相互作用。当地的酵母菌群使葡萄酒具有特定地理区域特有的风味和味道。本文介绍了葡萄的发酵过程,原生酵母菌群在自发发酵和联合发酵过程中的变化,并对原生酵母的基本种类进行了综述。
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引用次数: 2
Nutritional composition and energy value of different types of beer and cider 不同类型啤酒和苹果酒的营养成分和能量值
Pub Date : 2019-02-12 DOI: 10.18832/kp2019.65.32
J. Olšovská, K. Štěrba, Tomáš Vrzal, P. Čejka
Consumers are increasingly interested in the nutritional composition of food and beverages, including beer. Therefore, nutritional values of beer became an integral part of the beer label information. It specifies, in particular, the energy value stipulated by law for beer with alcohol content lower than 1.2% vol.; in some cases also the concentration of carbohydrates, particularly sugars, proteins and salt. This work is a brief practical review of nutritional composition and energy value of different beer types and discusses the contribution of individual nutrients and alcohol to the total energy value. These values were measured in 172 samples of beer (24 pale lagers with the original gravity (OG) ranging from 9.00-10.99%, 45 pale lagers with the OG ranging from 11.00-12.99%, 18 dark lagers with the OG ranging from 11.00-12.99%, 9 special beers with the OG higher than 13%, 31 non-alcoholic beers, 19 beer-mixes, and 26 ciders). The highest average energy value was measured with light special beer (215 kJ/100 mL), cider (208 kJ/100 mL), and dark lager (181 kJ/100 mL). The average value of a standard Pils lager is 175 kJ/100 mL and 144 kJ/100 mL for beers with OG 9.00-10.99% and 11.00-12.99%, respectively. The lowest energy value is measured in non-alcoholic beer (75 kJ/100 mL). In common lagers, alcohol mostly contributes up to 60% to the total energy value, while the energy value of non-alcoholic beer is formed especially by carbohydrates (about 90%). The concentration of salt (sodium) is very low in beer (about 4 mg/100 mL) in comparison with the other food in general.
消费者对包括啤酒在内的食品和饮料的营养成分越来越感兴趣。因此,啤酒的营养价值成为啤酒标签信息中不可或缺的一部分。特别规定了酒精含量低于1.2% vol的啤酒的法律规定的能量值;在某些情况下,碳水化合物的浓度,特别是糖,蛋白质和盐。本文对不同类型啤酒的营养成分和能量值进行了简要的实际综述,并讨论了个别营养成分和酒精对总能量值的贡献。这些数值是在172种啤酒样品中测量的(24种啤酒的原始重力值为9.00-10.99%,45种啤酒的原始重力值为11.00-12.99%,18种黑啤酒的原始重力值为11.00-12.99%,9种特殊啤酒的原始重力值高于13%,31种无酒精啤酒,19种混合啤酒和26种苹果酒)。平均能量值最高的是淡啤酒(215 kJ/100 mL)、苹果酒(208 kJ/100 mL)和黑啤酒(181 kJ/100 mL)。对于OG值为9.00-10.99%和11.00-12.99%的啤酒,标准Pils啤酒的平均值分别为175千焦/100毫升和144千焦/100毫升。能量值最低的是无酒精啤酒(75千焦/100毫升)。在普通的窖藏啤酒中,酒精在总能值中所占的比例大多高达60%,而无酒精啤酒的能值主要是由碳水化合物形成的(约占90%)。与一般的其他食物相比,啤酒中的盐(钠)浓度非常低(约为每100毫升4毫克)。
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引用次数: 5
Factors affecting the polyphenol compounds and antiradical activity of hops: Long-term study of Czech hop varieties 影响啤酒花多酚化合物和抗自由基活性的因素:捷克啤酒花品种的长期研究
Pub Date : 2018-12-14 DOI: 10.18832/kp201839
A. Mikyška, Tomáš Vrzal, M. Dušek, M. Jurkovă
The influence of polyphenol substances on the quality of beer and its colloidal and sensory stability has been investigated for many decades with often controversial knowledge (derdelinckx). It is a very diversified group of substances whose individual components are characterized by different properties in terms of chemical structure, antioxidant capabilities, haze properties and hence an influence of the beer stability. Hops is a specific raw material that has been investigated for the last few decades from the point of view of pharmaceutical use (Karabín et al., 2016). Secondary metabolites formed in the cones of hop during the flowering and ripening, bitter acids, essential oils and polyphenols are sensorially active and have antioxidant and antimicrobial properties. Hop polyphenolic is very diverse group of biologically active compounds that comprise 3% to 6% of the dry weight of hop cones (Moir, 2000). The majority of polyphenols are located in the strig and bract (“leaf associated polyphenols“), the prenylflavonoids are secreted from lupulin glands together with the bitter acids and essential oils (Almaguer et al., 2014). Hop polyphenols are usually split into groups of flavonols, flavan-3-ols (catechis), phenolic carboxylic acids (groups of benzoic acid and cinnamic acid derivatives) and other phenolic compounds (prenylflavonoids, stilbenoids) (Biendl, 2009). The analytical methods used for the determination of polyphenols are governed by the purpose of their use. Group methods are based on the specific reactivity of a particular group of polyphenols and are included in the brewing analytics. This is in particular the determination of total polyphenols, flavonoids and anthocyanogens. For a detailed description of the profile of a particular group of polyphenol Klíčová slova: chmel (Humulus Lupulus L.), polyfenoly, prenylflavonoidy, antiradikálová aktivita DPPH, odrůdy chmele
多酚类物质对啤酒质量及其胶体和感官稳定性的影响已经研究了几十年,但往往存在争议(derdelinckx)。它是一组非常多样化的物质,其单个成分在化学结构、抗氧化能力、雾霾特性等方面具有不同的特性,因此会影响啤酒的稳定性。啤酒花是一种特定的原料,在过去的几十年里,从制药用途的角度进行了研究(Karabín等人,2016)。啤酒花球果在开花和成熟过程中形成的次生代谢物、苦味酸、精油和多酚具有感官活性,并具有抗氧化和抗菌特性。啤酒花多酚是一种非常多样化的生物活性化合物,占啤酒花果干重的3%至6% (Moir, 2000)。大多数多酚位于茎条和苞片中(“叶相关多酚”),烯丙基类黄酮与苦味酸和精油一起从狼疮腺分泌(Almaguer等人,2014)。啤酒花多酚通常分为黄酮醇、黄烷-3-醇(儿茶素)、酚类羧酸(苯甲酸和肉桂酸衍生物)和其他酚类化合物(戊烯基类黄酮、二苯乙烯类)(Biendl, 2009)。用于测定多酚的分析方法受其使用目的的约束。分组方法是基于特定组的多酚的特定反应性,并包括在酿造分析。特别是总多酚、类黄酮和花青素的测定。详细描述了一种特殊的多酚类植物Klíčová: chmele (Humulus Lupulus L.), polyfenoly, preylyflavonoids, antiradikálová aktivita DPPH, odrůdy chmele
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引用次数: 1
Beer industry in Brazil: Economic aspects, characteristics of the raw material and concerns 巴西啤酒工业:经济方面,原料特点和关注
Pub Date : 2018-12-14 DOI: 10.18832/kp201833
K. Piacentini, L. Rocha, G. D. Savi, L. Carnielli-Queiroz, B. Côrrea
1Biotechnology Department, University of Sao Paulo, Av. Professor Lineu Prestes, 2415, Sao Paulo, Brazil. 2Food Engineering Faculty, University of Campinas, Av. Monteiro Lobato, 80, Campinas, Brazil 3 University of the Extreme Southern Santa Catarina, Av. Universitaria, 1105, Criciúma, Santa Catarina, Brasil. 4Microbiology Department, University of Sao Paulo, Av. Professor Lineu Prestes, 1374, Sao Paulo, Brazil. * Corresponding author: Karim C. Piacentini, Biotechnology Department, Biomedics Science Institute, University of Sao Paulo, Sao Paulo – SP, CEP 05508-900, Brazil. Tel: + 55 (11) 30917728. E-mail: karim.piacentini@hotmail.com
1圣保罗大学生物技术系,Lineu Prestes教授,2415,巴西圣保罗。2坎皮纳斯大学食品工程学院,蒙泰罗·洛巴托,80,巴西坎皮纳斯。3圣卡塔琳娜极南大学,圣卡塔琳娜大学,1105,Criciúma,巴西圣卡塔琳娜。4圣保罗大学微生物系,Lineu Prestes教授,1374,巴西圣保罗。*通讯作者:Karim C. Piacentini,圣保罗大学生物医学科学研究所生物技术系,圣保罗- SP, CEP 05508-900,巴西。电话:+ 55(11)30917728。电子邮件:karim.piacentini@hotmail.com
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引用次数: 4
Determination of proteolytic enzyme activity during malting 麦芽酿造过程中蛋白水解酶活性的测定
Pub Date : 2018-12-14 DOI: 10.18832/kp201838
K. Benešová, S. Běláková, R. Mikulíková, Z. Svoboda
Benešová, K., Běláková, S., Mikulíková, R., Svoboda, Z., 2018: Determination of proteolytic enzyme activity during malting. Kvasny Prum. 64(6): 318–322 Proteolytic enzymes (proteases) are widely represented in living organisms where they catalyze the hydrolysis of peptide bonds in proteins and peptides. In malting barley, they are found in small quantities, and their activation takes place only in the process of controlled germination – malt production. In germinating barley, proteases hydrolyze storage proteins to high molecular and low molecular weight degradation products while simultaneously synthesizing other proteins. The final grain modification affects significantly quality of the produced malts and subsequently also technology and characters of the produced beer.
Benešová, K., Běláková, S., Mikulíková, R., Svoboda, Z., 2018:麦芽发酵过程中蛋白水解酶活性的测定。蛋白质水解酶(Proteolytic enzyme, proteolyases)在生物体内广泛存在,它们催化蛋白质和肽的肽键水解。在酿造大麦中,它们的数量很少,它们的激活只发生在控制发芽的麦芽生产过程中。在大麦发芽过程中,蛋白酶将贮藏蛋白水解成高分子量和低分子量的降解产物,同时合成其他蛋白质。最终的籽粒改性对麦芽的质量产生重大影响,进而影响啤酒的工艺和特性。
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引用次数: 1
Malting quality of winter wheat (Triticum aestivum L.) 冬小麦(Triticum aestivum L.)的麦芽品质
Pub Date : 2018-12-14 DOI: 10.18832/kp201832
V. Psota, M. Musilová, L. Sachambula, V. Horáková, Aleš Přinosil, František Šmíd, Karolína Adámková, M. Adam
In the course of three testing years (2013 – 2015), a set of 243 winter wheat samples (27 varieties from three testing sites) were analyzed. Basic technological parameters, and some special characters (wort color, color after boiling, wort haze, polyphenol content and dimethyl sulfide precursors) were studied. Winter wheat varieties gave sufficiently high extract contents, the average value of this parameter was 83.5% at the average content of nitrogenous substances of 11.6%. Final attenuation was low (79.8%). Proteolytic modification given by the value of Kolbach index was on average 35%. Content of soluble nitrogen was 704 mg/100 g, of which ca 14% was made up by free amino nitrogen. Cytolytic modification was evaluated mainly by wort viscosity (1.864 mPa.s). Malt friability and β-glucan content in wort were very low. Average arabinoxilan content in wort varied about 1524 mg/l.
在2013 - 2015年3个试验年期间,对3个试验点的27个品种243份冬小麦样品进行了分析。研究了麦汁的基本工艺参数和一些特殊特性(麦汁颜色、煮沸后的颜色、麦汁雾度、多酚含量和二甲基硫化物前体)。冬小麦品种的浸出物含量足够高,在含氮物质平均含量为11.6%时,该参数的平均值为83.5%。最终衰减较低(79.8%)。由科尔巴赫指数给出的蛋白水解修饰平均为35%。可溶性氮含量为704 mg/100 g,其中游离氨基氮约占14%。主要通过麦汁粘度(1.864 mPa.s)评价其细胞溶解作用。麦芽汁的脆性和β-葡聚糖含量都很低。麦汁中阿拉伯木聚糖的平均含量变化在1524 mg/l左右。
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引用次数: 4
The effect of treatment of barley grain and malt with low-temperature plasma discharge on the malt gushing potential 低温等离子体放电处理大麦籽粒和麦芽对麦芽涌出电位的影响
Pub Date : 2018-12-14 DOI: 10.18832/KP201837
S. Běláková, Z. Havelka, A. Bohatá, I. Hartman, Hana Kábelová, P. Kríž, M. Dienstbier, P. Bartoš, P. Špatenka
1 Research Institute of Brewing and Malting, Malting Institute Brno, Mostecká 7, 614 00 Brno, Czech Republic Výzkumný ústav pivovarský a sladařský, a.s., Sladařský ústav Brno, Mostecká 7, 614 00 Brno 2 University of South Bohemia in České Budějovice, Faculty of Agriculture, Department of Special Plant Production, Section of Phytosanitary, Studentská 1668, 370 05 České Budějovice, Czech Republic Jihočeská univerzita v Českých Budějovicích, Zemědělská fakulta, Katedra speciální produkce rostlinné, sekce rostlinolékařství, Studentská 1668, 370 05 České Budějovice 3 University of South Bohemia in České Budějovice, Faculty of Education, Department of Applied Physics and Technics, Jeronýmova 10, 371 15 České Budějovice, Czech Republic Jihočeská univerzita v Českých Budějovicích, Pedagogická fakulta, Katedra aplikované fyziky a techniky, Jeronýmova 10, 371 15 České Budějovice 4SurfaceTreat, a.s., Na Lukách 66, 511 01 Turnov, Czech Republic
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引用次数: 1
The secret of dry hopped beers - Review 干啤酒花的秘密——回顾
Pub Date : 2018-12-14 DOI: 10.18832/kp201836
L. Jelínek, J. Müllerová, M. Karabín, P. Dostálek
StudenA› chmelenĂĄ piva zĂ­skĂĄvajĂ­ svou charakteristickou vĹŻni z chmelovĂSho materiĂĄlu, kterĂ˝ je cĂ­lenA› dĂĄvkovĂĄn ve studenĂSm Ăsseku vĂ˝roby (odtud pak nĂĄzev "studenĂS chmelenĂ­") a aAkoliv vĂ˝roba tA›chto piv nemĂĄ v AŒeskĂS republice tak bohatou tradici, jako například ve VelkĂS BritĂĄnii nebo SpojenĂ˝ch stĂĄtech, jejich obliba v tuzemsku kaĹždĂ˝m rokem stoupĂĄ. Tato prĂĄce poskytuje ucelenĂ˝ soubor teoretickĂ˝ch a praktickĂ˝ch informacĂ­ o vĂ˝robA› studenA› chmelenĂ˝ch piv. Jsou zde představeny vĂ˝znamnĂS senzoricky aktivnĂ­ lĂĄtky chmele vytvářejĂ­cĂ­ charakteristickĂS aroma a faktory ovlivňujĂ­cĂ­ jejich přestup do nĂĄpoje. PoslednĂ­ AĂĄst prĂĄce je vA›novĂĄna nA›kterĂ˝m dĹŻleĹžitĂ˝m rizikovĂ˝m faktorĹŻm, kterĂS je třeba při vĂ˝robA› studenA› chmelenĂ˝ch piv brĂĄt v potaz.
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引用次数: 3
Quality of malting barley grain in the Czech Republic, crop 2017 2017年捷克共和国麦芽籽粒质量
Pub Date : 2018-12-14 DOI: 10.18832/kp201834
I. Hartman
Hartman, I., 2018: Quality of malting barley grain in the Czech Republic, crop 2017. Kvasny Prum. 64, 2018 (6): 297–301 The quality parameters of 277 samples of malting barley from crop 2017 were assessed according to the standard ČSN 46 1100-5. The average content of nitrogenous substances was 12.2% and starch content 62.6%. Sieving fractions over 2.5 mm achieved the average value of 88.2% and average germination capacity was 98.6%. Average content of grain admixtures unusable for malting was 1.7% and admixtures partly unusable for malting 5.2%.
哈特曼,I., 2018:捷克共和国麦芽谷物的质量,2017年作物。小麦学报,64(6):297-301按照ČSN 46 1100-5标准对2017年作物277份麦芽样品的质量参数进行了评价。氮素平均含量为12.2%,淀粉平均含量为62.6%。2.5 mm以上筛分平均发芽率为88.2%,平均发芽率为98.6%。谷物掺合料平均含量为1.7%,部分掺合料平均含量为5.2%。
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引用次数: 3
Microbreweries in the South Moravian Region 南摩拉维亚地区的小啤酒厂
Pub Date : 2018-12-14 DOI: 10.18832/kp201835
Filip Vrána
Platná legislativa rozumí pojmem minipivovary provozy, které prodávají pivo zákazníkům, jde tedy o firmy nebo podnikající osoby a současně jejich výstav nepřesahuje 10 000 hl ročně. Tím se minipivovary odlišují na jedné straně od domácích výrobců piva („homebrewerů“) a malých a středních pivovarů na straně druhé. V celé republice bylo v roce 2017 celkem 395 minipivovarů a jejich počet stále roste (ČTK, 20. 2. 2018). Cílem práce bylo zmapovat počet minipivovarů v jednom regionu včetně jejich velikosti, kapacity, použitých technologií a získaná data uvést do kontextu. Při srovnání trendu růstu minipivovarů je dobré vzít v úvahu i jaká situace panovala v historii. V roce 1598 bylo na celé tehdejší Moravě 329 pivovarů, z nichž naprostá většina nevyráběla pravděpodobně více než 10 000 dnešních hl ročně. Data o výstavech však nejsou k dispozici. Boom pivovarů souvisel s příchodem nového hráče na trh, kterým byla zejména po roce 1517 šlechta. K roku 1598 měli páni 82 pivovarů, církev 24, rytíři 136, královská a komorní města 8 a poddanská města 79 (Jirásek, 1962). Soupis z roku 1598 nabízí rozdělení jednotlivých provozů do tehdejších krajů, které zdaleka nekorespondují se současnými. V kraji brněnském a znojemském, který zahrnoval například velkou část dnešní Vysočiny včetně Jihlavy, bylo 55 panských pivovarů, stejný počet provozů stavu rytířského, stav duchovní měl 11 pivovarů, pivovary byly v královských městech Brno, Jihlava a Znojmo. V některých městech bylo více pivovarů než jeden. Dále soupis zaznamenal 15 poddanských měst panských s pivovary, 6 poddanských měst rytířských a 4 církevní (Jirásek, 1962). Celkem můžeme napočítat 149 míst, kde byly ve znojemském a brněnském kraji pivovary (v některých sídlech jich bylo hned několik). Některé pivovary na území dnešního Jihomoravského kraje (JMK) najdeme navíc v tehdejším kraji olomouckém a hradišťském. Další možnost srovnání s dnešní situací nabízí data z poloviny 18. století. Opět jejich účelem bylo zdanění. V tomto případě už máme k dispozici i informace o výstavech, z nichž vyplývá, že jediným pivovarem ve dnešním Jihomoravském kraji s výstavem nad 10 000 hl byl brněnský městský pivovar s průměrným výstavem v letech 1745–1747 celkem 10 635 sudů, což v přepočtu z dolnorakouské míry znamená kolem 24 000 hl (Chylík, 1948). Pro srovnání: znojemský městský pivovar vařil 1 688 sudů, což představuje 3 815 hl, vyškovský 1 666 sudů. Na celé Moravě bylo v polovině 18. století 70 městských pivovarů s výstavem dohromady 57 474 sudů, což představuje 130 000 hl a 261 panských s výstavem dohromady 209 922 sudů, tedy 474 423 hl. U pivovarů na dnešní jižní Moravě, u kterých Chylík (Chylík, 1948) eviduje výstav a můžeme je tedy prohlásit za činné, najdeme kolem desítky pivovarů obecních a měšťanských a kolem 80 panských, z toho devět jich bylo na území dnešního Brna (Chylík, 1948). Většina pivovarů Moravy byla dnešní optikou minipivovary až do druhé poloviny 19. století, kdy dochází k výraznému uvolnění trhu zejména
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引用次数: 1
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