JP2009100663A - Method for producing cheeses - Google Patents

Method for producing cheeses Download PDF

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JP2009100663A
JP2009100663A JP2007273737A JP2007273737A JP2009100663A JP 2009100663 A JP2009100663 A JP 2009100663A JP 2007273737 A JP2007273737 A JP 2007273737A JP 2007273737 A JP2007273737 A JP 2007273737A JP 2009100663 A JP2009100663 A JP 2009100663A
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cheese
cheeses
final product
water content
aged
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JP4905984B2 (en
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Nobuyuki Shimizu
信行 清水
Shigeru Aizawa
茂 相澤
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Meiji Dairies Corp
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Meiji Milk Products Co Ltd
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Abstract

<P>PROBLEM TO BE SOLVED: To provide a method for producing cheeses by which the cheeses are prevented from syneresis, without spoiling any flavor of unripened cheese, and production efficiency of the cheese is maintained. <P>SOLUTION: The method for producing cheese includes using 1.2 w/w% or higher of gelatine, 1.2 w.w% or higher of LM-pectin and 0.4 w.w% or higher of tara gum so as to suppress syneresis of the cheese, without spoiling the flavor of the unripened cheese and maintain fluidity at 83°C. The method enables efficient production of the cheese that has novel value and is superior in syneresis prevention, while product characteristics of the cheese is maintained. <P>COPYRIGHT: (C)2009,JPO&INPIT

Description

本発明は、非熟成タイプチーズの風味を損なわない、および長期間保存しても離水を起こさないチーズ類の製造法と、その製造法により得られる新規なチーズ類に関する。   The present invention relates to a method for producing cheese that does not impair the flavor of non-aged type cheese and that does not cause water separation even when stored for a long period of time, and to a novel cheese obtained by the production method.

非熟成タイプチーズは、良好な風味を有しているが、長時間冷蔵条件で保管しているうちに離水が生じてしまい、風味や食感などの品質も変化してしまう。現状では冷蔵条件で数日から数週間程度の品質を維持することが限界と考えられている。   Non-aged type cheese has a good flavor, but water separation occurs during storage for a long time under refrigerated conditions, and the quality such as flavor and texture also changes. At present, it is considered the limit to maintain quality for several days to several weeks under refrigerated conditions.

このような問題を解決する方法として、多くの種類の安定剤が使用されている。これらの安定剤を使用する場合、一般的に、(1)糊様の食感及び風味を有し、チーズ類が本来有する品質特性が損なわれる可能性がある、(2)増粘剤や安定剤をチーズ類と溶解混合して加熱する際に、増粘及び油分離(オイルオフ)が生じ易くなり製造が不可能となるか又は生産効率が低下する、などの課題を有している。   Many kinds of stabilizers are used as a method for solving such problems. When these stabilizers are used, in general, (1) they have a paste-like texture and flavor, and the quality characteristics inherent in cheeses may be impaired, (2) thickeners and stabilizers When the agent is dissolved and mixed with cheeses and heated, there is a problem that thickening and oil separation (oil-off) are liable to occur and production is impossible or production efficiency is lowered.

非熟成タイプチーズの離水を抑える方法として、安定剤やゲル化剤を使用することが考えられる。例えば、アラビアガム、ローカストビーンガム、グアーガム、ゼラチン、寒天、カラギナン、タラガム、キサンタンガム、プルラン、ペクチン、ジェランガム、タマリンド種子、カードラン、澱粉などが安定剤やゲル化剤の例として一般に挙げられる。これらは1種もしくは2種以上組み合わせて用いられる。この中で離水がなく食感をも改良するいくつかの方法が検討されている。例えば、キサンタンガムを添加する方法(特許文献1:特許第3609579)、ハイメトキシルペクチンを添加する方法(特許文献2:特開平5−252866号公報)等が報告されている。   It is conceivable to use a stabilizer or a gelling agent as a method for suppressing water separation of non-aged type cheese. For example, gum arabic, locust bean gum, guar gum, gelatin, agar, carrageenan, tara gum, xanthan gum, pullulan, pectin, gellan gum, tamarind seed, curdlan, starch and the like are generally exemplified as stabilizers and gelling agents. These are used alone or in combination of two or more. Several methods for improving the texture without water separation have been studied. For example, a method of adding xanthan gum (patent document 1: Japanese Patent No. 3609579), a method of adding high methoxyl pectin (patent document 2: JP-A-5-252866) and the like have been reported.

しかし、前者の方法で製造されるチーズは離水を抑えられるものの、キサンタンガムを加熱溶解した後の工程中で増粘して流動性を損なってしまい、得られた製品についても糊様の食感があり、チーズが本来有する風味も損なわれていた。また、特許文献2の方法で製造されるチーズは固形分が25%以下のチーズに関するものであり、また離水防止に効果のあるpHも4.7以下に限定されていた。
特許第3609579号 特開平5−252866号公報
However, although the cheese produced by the former method can suppress water separation, it thickens in the process after xanthan gum is dissolved by heating and loses fluidity, and the resulting product also has a paste-like texture. Yes, the flavor inherent to cheese was also impaired. Moreover, the cheese manufactured by the method of Patent Document 2 relates to cheese having a solid content of 25% or less, and the pH effective for preventing water separation is also limited to 4.7 or less.
Japanese Patent No. 3609579 JP-A-5-252866

本発明は、非熟成タイプチーズの風味を損なうことなく、製品の離水を防止せしめ、かつ安定的に製造が可能なチーズ類の製造法及び製造法により得られる新規なチーズ類を提供することを課題とする。   The present invention provides a novel cheese product obtained by a cheese production method and a production method capable of preventing the product from being water-released and stably producing the product without impairing the flavor of the non-aged type cheese. Let it be an issue.

本発明者らは、前記課題を解決すべく鋭意研究を重ねた結果、最終製品の水分が47w/w%〜57w/w%であるチーズ類の製造において、最終製品の水分含量に対して1.2w/w%以上の重量であるゼラチン、最終製品の水分含量に対して1.2w/w%以上の重量であるローメトキシルペクチン(以後、LM-ペクチンとも呼ぶ)および最終製品の水分含量に対して0.4w/w%以上の重量であるタラガム、を添加・混合して製造するチーズ類において、非熟成タイプチーズの風味を損なわず、安定的に製造が可能である、離水を起こさないチーズ類の新規の製造法を見出し、本発明を完成させた。   As a result of intensive studies to solve the above problems, the present inventors have found that the final product has a moisture content of 47 w / w% to 57 w / w%. Gelatin with a weight of 2 w / w% or more, low methoxyl pectin (hereinafter also referred to as LM-pectin) with a weight of 1.2 w / w% or more with respect to the water content of the final product, and the water content of the final product On the other hand, in cheese manufactured by adding and mixing tara gum having a weight of 0.4 w / w% or more, the flavor of non-aged type cheese is not impaired and stable production is possible, and water separation does not occur. A new method for producing cheeses was found and the present invention was completed.

すなわち、本発明はチーズ類の製造法において、ゼラチン、LM−ペクチンおよびタラガムを一定の添加量を使用することにより、非熟成タイプチーズの良好な風味を有し、かつ離水しないチーズ類を効率的に得られることができたことを特徴としており、下記の態様が包含される。   That is, according to the present invention, in the method for producing cheeses, by using a certain amount of gelatin, LM-pectin and tara gum, cheeses having a good flavor of non-aged type cheese and which do not release water can be efficiently used. The following embodiments are included.

すなわち、本発明は、
[1] 最終製品の水分含量に対して1.2w/w%以上の重量であるゼラチン、最終製品の水分含量に対して1.2w/w%以上の重量であるローメトキシルペクチンおよび最終製品の水分含量に対して0.4w/w%以上の重量であるタラガムを含有し、最終製品の水分が約47w/w%〜57w/w%であり、加熱攪拌工程で83℃における粘度が400パスカル秒(Pa・s)未満の流動体であり、かつ冷蔵温度において固形状であることを特徴とするチーズ類、
[2] チーズ類が、非熟成タイプチーズの良好な風味を有しているものであり、かつ30℃で2時間経過後の離水率が1.0%未満であり、乳化安定性が良好であることを特徴とする、前記[1]に記載のチーズ類、
[3] 非熟成タイプチーズの1種類または2種類以上を原料として含有する、前記[1]〜[2]のいずれか1つに記載のチーズ類、
[4] 非熟成タイプチーズがクリームチーズ、クワルク、カッテージ、フェタ、フロマージュブラン、マスカルポーネ、フロマージュフレからなる群のうちの1つまたは2つ以上である、前記[3]に記載のチーズ類、
[5] 加熱攪拌工程で83℃における粘度が400パスカル秒(Pa・s)未満の流動体であり、かつ冷蔵温度において固形状である物性を有するチーズ類の製造方法であって、最終製品の水分含量に対して1.2w/w%以上の重量であるゼラチン、最終製品の水分含量に対して1.2w/w%以上の重量であるローメトキシルペクチンおよび最終製品の水分含量に対して0.4w/w%以上の重量であるタラガムを含有せしめ、最終製品の水分を約47w/w%〜57w/w%に調整することを特徴とするチーズ類の製造方法、
[6] チーズ類が、非熟成タイプチーズの良好な風味を有しているものであり、かつ30℃で2時間経過後の離水率が1.0%未満であり、乳化安定性が良好であることを特徴とする、前記[5]に記載のチーズ類の製造方法、
[7] 非熟成タイプチーズの1種類または2種類以上を原料に用いることを特徴とする、前記[5]〜[6]のいずれか1つに記載のチーズ類の製造方法、
[8] 非熟成タイプチーズがクリームチーズ、クワルク、カッテージ、フェタ、フロマージュブラン、マスカルポーネ、フロマージュフレからなる群のうちの1つまたは2つ以上であることを特徴とする、前記[7]に記載のチーズ類の製造方法、
からなる。
That is, the present invention
[1] Gelatin with a weight of 1.2 w / w% or more with respect to the water content of the final product, low methoxyl pectin with a weight of 1.2 w / w% or more with respect to the water content of the final product, and the final product It contains tara gum that is 0.4 wt / w% or more with respect to the moisture content, the final product has a moisture content of about 47 w / w% to 57 w / w%, and the viscosity at 83 ° C. is 400 Pascal in the heating and stirring step. Cheese characterized by being a fluid in less than a second (Pas) and being solid at refrigeration temperature,
[2] Cheese has a good flavor of non-aged type cheese, and the water separation after 2 hours at 30 ° C. is less than 1.0%, and the emulsion stability is good. The cheeses according to [1] above, wherein
[3] The cheese according to any one of [1] to [2], containing one or more kinds of non-aged type cheese as a raw material,
[4] The cheese according to the above [3], wherein the non-aged type cheese is one or more of the group consisting of cream cheese, quark, cottage, feta, fromage blanc, mascarpone, and fromage fleet,
[5] A process for producing cheeses having a physical property that is a fluid having a viscosity of less than 400 Pascal seconds (Pa · s) at 83 ° C. in a heating and stirring step and is solid at a refrigeration temperature, Gelatin weighing 1.2 w / w% or more with respect to the moisture content, low methoxyl pectin weighing 1.2 w / w% or more with respect to the moisture content of the final product, and 0 with respect to the moisture content of the final product. A method for producing cheeses characterized by containing tara gum having a weight of 4 w / w% or more and adjusting the water content of the final product to about 47 w / w% to 57 w / w%,
[6] Cheese has a good flavor of non-aged type cheese, and the water separation after 2 hours at 30 ° C. is less than 1.0%, and the emulsion stability is good. The method for producing cheeses according to [5] above, characterized in that:
[7] The method for producing cheeses according to any one of the above [5] to [6], wherein one or more types of non-aged type cheese is used as a raw material,
[8] The non-aged type cheese is one or two or more of the group consisting of cream cheese, quark, cottage, feta, fromage blanc, mascarpone, and fromage flé, as described in [7] above Manufacturing method of cheeses,
Consists of.

本発明により、チーズ類において、非熟成タイプチーズの風味を損なうことなく、増粘及び油分離などの製造工程での不具合を起こすことなく、長時間保存しても離水を起こさないチーズ類を効率的に得ることを可能とするものである。   According to the present invention, in cheeses, without losing the flavor of non-aged type cheese, without causing troubles in the manufacturing process such as thickening and oil separation, the cheeses that do not cause water separation even if stored for a long time It is possible to obtain it.

以下、本発明を詳細に説明するが、本発明は以下に述べる個々の形態には限定されない。なお、特に明示のない限り添加量は、最終製品であるチーズ類に対するw/w%を示す。 Hereinafter, the present invention will be described in detail, but the present invention is not limited to the individual forms described below. Unless otherwise specified, the addition amount indicates w / w% relative to the final product cheese.

本発明において、チーズ類とは、プロセスチーズ、チーズフード、または乳等を主要原料とする食品である。   In the present invention, cheeses are foods whose main raw material is processed cheese, cheese food, milk or the like.

本発明のチーズ類製造の原料に用いられ、あるいは本発明のチーズ類の風味の指標となる非熟成タイプチーズとは、熟成しないか、あるいはほとんど熟成させないタイプのチーズをいう。他のタイプのチーズに比べて水分含量が高く、くせの少ない風味を呈する。例えば、クリームチーズやクワルク、カッテージ、モッツアレラ、マスカルポーネ、フロマージュフレなどを指すことができるが、本発明においてはこれらの例に限定されない。これらは、乳等省令に定めるナチュラルチーズの規格を満たすものを用いることができるが、規格外であっても規格に準じて製造したものを用いてもよい。   The non-aged type cheese used as a raw material for producing the cheeses of the present invention or serving as an indicator of the flavor of the cheeses of the present invention refers to a type of cheese that is not ripened or hardly ripened. Compared to other types of cheese, it has a high moisture content and a flavor with little habit. For example, cream cheese, quark, cottage, mozzarella, mascarpone, and fromage frets can be used, but the present invention is not limited to these examples. As these, those satisfying the standard of natural cheese stipulated in the Ministerial Ordinance such as milk can be used, but those outside the standard or manufactured according to the standard may be used.

本発明のチーズ類製造の原料に用いることができる「チーズ」以外の原料として、バター、バターオイル、クリーム、クリームパウダー、バターミルク、牛乳、濃縮乳、脱脂粉乳、ホエイ、乳タンパク濃縮物、ホエイタンパク濃縮物、乳糖などの乳製品、及び溶融塩、安定剤、ゲル化剤、pH調整剤、調味料等の食品衛生法で認められており、チーズ製造に一般的に用いられる添加物を挙げることができるが、本発明においてはこれらの例に限定されない。   Ingredients other than “cheese” that can be used as a raw material for producing cheeses of the present invention include butter, butter oil, cream, cream powder, buttermilk, milk, concentrated milk, skimmed milk powder, whey, milk protein concentrate, whey List of dairy products such as protein concentrates, lactose, and additives commonly used in cheese manufacture, which are recognized by the Food Sanitation Act, such as molten salts, stabilizers, gelling agents, pH adjusters, and seasonings However, the present invention is not limited to these examples.

また、本発明のチーズ類に香りや味を付与する目的等で乳に由来しないものを添加することもできる。例えば、果実、果汁、ナッツ類(クルミ、アーモンド等)、香草(バジル等)、スパイス(コショウ等)、シロップ(メープルシロップ、ハチミツ等)など又はその加工品(オレンジピール、果物のジャム、果物の乾燥物等)、あるいは香料、甘味料、調味料、矯味料などの食品添加物等を添加したチーズを製造することもできるが、本発明においてはこれらの例に限定されない。本発明でいうチーズ類にはこれらの製品も含むことができる。 Moreover, what does not originate in milk can be added for the purpose of imparting a fragrance or taste to the cheeses of the present invention. For example, fruits, fruit juices, nuts (walnuts, almonds, etc.), herbs (basil, etc.), spices (pepper, etc.), syrups (maple syrup, honey, etc.) or processed products thereof (orange peel, fruit jam, fruit Dried products, etc.), or cheeses to which food additives such as fragrances, sweeteners, seasonings, and flavorings are added can be produced, but the present invention is not limited to these examples. These products can also be included in the cheeses referred to in the present invention.

本発明では、溶融塩を用いることができる。本発明のチーズ類の製造で用いることができる溶融塩は、クエン酸ナトリウム、ポリリン酸ナトリウムなど、通常のプロセスチーズ、チーズフードまたは乳等を主要原料とする食品、の製造に一般的に用いられる溶融塩を指す。本発明においては特に限定されないが、例えば、リン酸ナトリウム、リン酸二ナトリウム、リン酸三ナトリウム、ピロリン酸ナトリウム、ヘキサメタリン酸ナトリウム、トリポリリン酸ナトリウム、テトラメタリン酸ナトリウム、リン酸カリウム、リン酸三カリウム、クエン酸三ナトリウム、等が挙げられる。その添加量は0.1w/w%〜10w/w%が好ましく、非熟成タイプチーズの風味を損ねない添加量としては0.1w/w%〜3w/w%がより好ましい。   In the present invention, a molten salt can be used. The molten salt that can be used in the production of the cheeses of the present invention is generally used in the production of foods that are mainly processed cheese, cheese food, milk, etc., such as sodium citrate and sodium polyphosphate. Refers to molten salt. Although not particularly limited in the present invention, for example, sodium phosphate, disodium phosphate, trisodium phosphate, sodium pyrophosphate, sodium hexametaphosphate, sodium tripolyphosphate, sodium tetrametaphosphate, potassium phosphate, tripotassium phosphate , Trisodium citrate, and the like. The addition amount is preferably 0.1 w / w% to 10 w / w%, and the addition amount that does not impair the flavor of the non-aged type cheese is more preferably 0.1 w / w% to 3 w / w%.

本発明において、製造工程における増粘及び油分離を生じさせずに最終製品の離水を防止するために、少なくともゼラチン、LM-ペクチン、タラガムを一定範囲の混合率にて併用する。ゼラチン、LM-ペクチン、タラガムは、一般に市販されているものであれば、どの銘柄を使用しても良い。本発明においては、最終製品の水分含量に対して1.2w/w%以上の重量であるゼラチン、最終製品の水分含量に対して1.2w/w%以上の重量であるローメトキシルペクチンおよび最終製品の水分含量に対して0.4w/w%以上の重量であるタラガムを含有することが好ましい。より好ましくは、最終製品の水分含量に対して1.2w/w%以上かつ6.0w/w%以下の重量であるゼラチン、最終製品の水分含量に対して1.2w/w%以上かつ6.0w/w%以下の重量であるローメトキシルペクチンおよび最終製品の水分含量に対して0.4w/w%以上かつ2.0w/w%以下の重量であるタラガムを含有することが好ましい。さらに好ましくは、最終製品の水分含量に対して1.2w/w%以上かつ6.0w/w%以下の重量であるゼラチン、最終製品の水分含量に対して1.2w/w%以上かつ3.6w/w%以下の重量であるローメトキシルペクチンおよび最終製品の水分含量に対して0.4w/w%以上かつ2.0w/w%以下の重量であるタラガムを含有することが好ましい。また、ローカストビーンガム、グアーガム、寒天、カラギナン、HM−ペクチン、ジェランガム等、他の安定剤やゲル化剤を非熟成タイプチーズの良好な風味を損なわない範囲内で併用してもかまわない。   In the present invention, at least gelatin, LM-pectin, and tara gum are used in combination within a certain range in order to prevent water separation of the final product without causing thickening and oil separation in the production process. Any brand of gelatin, LM-pectin, and tara gum may be used as long as they are generally commercially available. In the present invention, gelatin having a weight of 1.2 w / w% or more with respect to the moisture content of the final product, low methoxyl pectin with a weight of 1.2 w / w% or more with respect to the moisture content of the final product, and the final It is preferable to contain tara gum having a weight of 0.4 w / w% or more based on the moisture content of the product. More preferably, the gelatin has a weight of 1.2 w / w% or more and 6.0 w / w% or less with respect to the water content of the final product, and 1.2 w / w% or more and 6 with respect to the water content of the final product. It is preferable to contain low methoxyl pectin having a weight of 0.0 w / w% or less and tara gum having a weight of 0.4 w / w% or more and 2.0 w / w% or less based on the water content of the final product. More preferably, the gelatin has a weight of 1.2 w / w% or more and 6.0 w / w% or less with respect to the water content of the final product, and 1.2 w / w% or more and 3 with respect to the water content of the final product. It is preferable to contain low methoxyl pectin having a weight of 6 w / w% or less and tara gum having a weight of 0.4 w / w% or more and 2.0 w / w% or less based on the water content of the final product. Moreover, you may use together other stabilizers and gelling agents, such as locust bean gum, guar gum, agar, carrageenan, HM-pectin, gellan gum, within the range which does not impair the favorable flavor of non-aged type cheese.

ゼラチンは、牛、豚、鳥、魚等の動物の骨、軟骨、皮、皮膚、靱帯、腱、白色結合組織、魚鱗、等を処理して得たコラーゲンを熱水抽出し、コラーゲンの三重らせん構造を不可逆的に解いたものである。分子量が約10万〜70万Daの水溶性タンパク質であり、その水溶液は約20〜25℃でゲル化する性質を有する。ゲル化の温度は、ゼラチン濃度、共存する塩の種類・濃度、水溶液のpHによって異なる。また、ゼラチン溶液の粘度はpH、温度、塩類等の影響を受け、等電点付近で最少の粘度を呈する。凝固物の状態は、寒天に比べて柔軟性、弾性に富むため口当たりが軟らかいのが特徴である。また、コラーゲンを酸又はアルカリ処理により抽出したゼラチンをゼラチンタイプA(酸処理して得たゼラチン、等電点は約pH7.0〜9.0)又はゼラチンタイプB(アルカリ処理して得たゼラチン、等電点は約pH4.7〜5.1)ともいう。本発明において、ゼラチンは前述のいずれの種類のゼラチンを使用することもできるが、ゼラチンタイプA又はゼラチンタイプBを好適に使用することができる。   Gelatin is a triple helix of collagen obtained by hot water extraction of collagen obtained by treating bones, cartilage, skin, skin, ligaments, tendons, white connective tissue, fish scales, etc. of animals such as cattle, pigs, birds, and fish. The structure is irreversibly solved. It is a water-soluble protein having a molecular weight of about 100,000 to 700,000 Da, and its aqueous solution has a property of gelling at about 20 to 25 ° C. The gelation temperature varies depending on the gelatin concentration, the type and concentration of the coexisting salt, and the pH of the aqueous solution. The viscosity of the gelatin solution is affected by pH, temperature, salts, etc., and exhibits a minimum viscosity near the isoelectric point. The state of the solidified substance is characterized by its soft mouth feel because it is more flexible and elastic than agar. Further, gelatin extracted from collagen by acid or alkali treatment is gelatin type A (gelatin obtained by acid treatment, isoelectric point is about pH 7.0 to 9.0) or gelatin type B (gelatin obtained by alkali treatment). The isoelectric point is also referred to as about pH 4.7 to 5.1). In the present invention, any of the aforementioned types of gelatin can be used as the gelatin, but gelatin type A or gelatin type B can be preferably used.

ペクチンは、野菜や果実、特に柑橘類の果皮・果肉等に多く含まれる、分子量約10万〜150万Daの高分子多糖類である。ペクチンは主にガラクチュロン酸とそのメチルエステルからなり、その性質はそのエステル化度(DE値)によって異なる。全ガラクチュロン酸のうち、メチルエステルの占める割合が50%以上(エステル化度50%以上)のものをハイメトキシルペクチン(HM-ペクチン)、50%未満(エステル化度50%未満)のものをローメトキシルペクチン(LM-ペクチン)という。ローメトキシルペクチンは、糖度、pHに関係なく、カルシウムイオン等の二価金属イオンの存在下でゲル化する性質を有する。このゲルは、機械耐性に優れ、撹拌後放置するとゲル状に復元する性質を有する。   Pectin is a high molecular weight polysaccharide having a molecular weight of about 100,000 to 1,500,000 Da, which is contained in a large amount in vegetables and fruits, in particular, the peels and flesh of citrus fruits. Pectin is mainly composed of galacturonic acid and its methyl ester, and its properties vary depending on its degree of esterification (DE value). Of all galacturonic acids, those with a proportion of methyl ester of 50% or more (esterification degree 50% or more) are high methoxyl pectin (HM-pectin), and those with less than 50% (esterification degree less than 50%) are low. It is called methoxyl pectin (LM-pectin). Low methoxyl pectin has the property of gelling in the presence of divalent metal ions such as calcium ions regardless of the sugar content and pH. This gel is excellent in mechanical resistance and has a property of restoring to a gel state upon standing after stirring.

タラガムは、豆科植物のタラ(Caesalpinia spinosa Kuntze)の種子の胚乳から得られる、高分子多糖類を主成分とする。CAS No.は39300-88-4である。   Tara gum is mainly composed of a high-molecular polysaccharide obtained from the endosperm of the seeds of the legume plant cod (Caesalpinia spinosa Kuntze). CAS No. is 39300-88-4.

本発明のチーズ類の製造方法においては、少なくとも前記非熟成タイプチーズに加えてゼラチン、LM-ペクチンおよびタラガムを原材料に用いる。必要に応じて、前述の他の原料を添加することもできる。その製造工程は、プロセスチーズ、チーズフードまたは乳等を主要原料とする食品、の製造における一般的な方法に従って行う。例えば以下の2通りの工程で行うことができる。
(1)加熱乳化:上記の原材料をプロセスチーズまたはチーズフードの製造における一般的な条件(温度等)で加熱乳化する。また、加熱乳化は攪拌混合しながら行うことが好ましい。加熱乳化に使用する乳化機としては、特に限定されないが、通常チーズ類の乳化に使用しているクッカー型乳化機、ケトル型乳化機、ステファン型乳化機、表面掻き取り式乳化機等を例示することができる。
(2)原材料混合:安定剤及びゲル化剤、また必要に応じてチーズ以外の原料を水又はバターミルクなどに溶解・分散してミックス液を調製することができる。これを非熟成タイプチーズのチーズカードと混合し、プロセスチーズ、チーズフードまたは乳等を主要原料とする食品の製造における一般的な条件(温度等)で加熱攪拌する。
また、こうして製造したチーズ類の最終製品の水分が約47w/w%〜57w/w%となるように、水分を調整する製造工程が上記製造方法に含まれる。よって、本発明のチーズ類の固形分含量は約43w/w%〜53w/w%となる。
In the cheese production method of the present invention, gelatin, LM-pectin and tara gum are used as raw materials in addition to at least the non-aged type cheese. If necessary, the above-mentioned other raw materials can be added. The manufacturing process is performed in accordance with a general method in the manufacture of foods whose main raw materials are processed cheese, cheese food or milk. For example, it can be performed by the following two steps.
(1) Heat emulsification: The above raw materials are heat emulsified under the general conditions (temperature, etc.) in the production of process cheese or cheese food. Moreover, it is preferable to perform heat emulsification, stirring and mixing. Although it does not specifically limit as an emulsifier used for heat emulsification, The cooker type emulsifier, kettle type emulsifier, stefan type emulsifier, surface scraping type emulsifier, etc. which are usually used for emulsification of cheeses are illustrated. be able to.
(2) Raw material mixing: A stabilizer and gelling agent, and if necessary, raw materials other than cheese can be dissolved and dispersed in water or buttermilk to prepare a mixed solution. This is mixed with a cheese curd of non-aged type cheese, and heated and stirred under the general conditions (temperature, etc.) in the production of foods using processed cheese, cheese food or milk as the main raw material.
In addition, the above production method includes a production process for adjusting the moisture so that the moisture of the final product of the cheeses thus produced is about 47 w / w% to 57 w / w%. Therefore, the solid content of the cheeses of the present invention is about 43 w / w% to 53 w / w%.

本発明のチーズ類のpHは特に限定されないが、pH4.0〜6.0、好ましくは4.6〜5.5に調整して製造することができる。pHの調整に使用できるものとしては、乳酸、クエン酸、アジピン酸、コハク酸、乳酸ナトリウム、炭酸ナトリウム、炭酸カリウム(無水)、リン酸水素二カリウム、リン酸水素二ナトリウム、リン酸二水素カリウム、リン酸二水素ナトリウム、などを挙げることができるが、食品添加物として認められているものであれば、いずれを使用してもよい。   The pH of the cheeses of the present invention is not particularly limited, but can be adjusted to pH 4.0 to 6.0, preferably 4.6 to 5.5. Those that can be used to adjust the pH include lactic acid, citric acid, adipic acid, succinic acid, sodium lactate, sodium carbonate, potassium carbonate (anhydrous), dipotassium hydrogen phosphate, disodium hydrogen phosphate, potassium dihydrogen phosphate , Sodium dihydrogen phosphate, etc., and any of them may be used as long as they are recognized as food additives.

本発明において、製造工程における高粘性(増粘ともいう)とは、加熱乳化終了時のチーズ類が400パスカル秒(Pa・s)以上の粘度となる状態を指す。安定剤及びゲル化剤等を使用したチーズ類は、加熱すると餅様の粘りを有して高粘性となりやすいため、著しく流動性を損ないやすい。その結果、ロータリーポンプ等の汎用性の高い装置で後工程にチーズ類を送ることが困難となる。このため、高粘物用の特殊な装置を使用しなければならなくなる。例えば、一般的な安定剤の溶解温度である83℃においてチーズ類が高粘性の状態とならない事が必要となる。その一方で、充填、冷却、流通の過程においては、チーズ類が固形状である事が重要である。とりわけ、冷蔵温度においてチーズ類が固形状であるのが好ましい。本発明でいう冷蔵温度とは、食品製造において一般的な冷蔵工程で用いられる温度帯をいう。例えば、10℃以下の温度帯を挙げることができる。本発明のチーズ類は、加熱攪拌工程で83℃における粘度が400パスカル秒(Pa・s)未満の流動体であり、かつ冷蔵温度において固形状であることを特徴とする。また、本発明のチーズ類の製造方法は、加熱攪拌工程で83℃における粘度が400パスカル秒(Pa・s)未満の流動体であり、かつ冷蔵温度において固形状であることを特徴とするチーズ類を提供することができる。   In the present invention, high viscosity (also referred to as thickening) in the production process refers to a state where cheeses at the end of heating emulsification have a viscosity of 400 Pascal seconds (Pa · s) or more. Cheese using a stabilizer, a gelling agent, and the like has a cocoon-like viscosity and tends to be highly viscous when heated. As a result, it becomes difficult to send cheeses to the post-process with a highly versatile device such as a rotary pump. For this reason, it is necessary to use a special device for high viscosity materials. For example, it is necessary that cheeses are not in a highly viscous state at 83 ° C., which is the melting temperature of a general stabilizer. On the other hand, in the process of filling, cooling and distribution, it is important that the cheeses are solid. In particular, it is preferable that the cheeses are solid at the refrigeration temperature. The refrigeration temperature as used in the field of this invention means the temperature range used by the general refrigeration process in food manufacture. For example, a temperature range of 10 ° C. or lower can be given. The cheeses of the present invention are fluids having a viscosity at 83 ° C. of less than 400 Pascal seconds (Pa · s) in the heating and stirring step, and are solid at the refrigeration temperature. Further, the cheese production method of the present invention is a cheese having a viscosity of less than 400 Pascal seconds (Pa · s) at 83 ° C. in a heating and stirring step, and is solid at a refrigeration temperature. Can be provided.

また、本発明のチーズ類は、長時間保存しても離水を起こさない物性を有する。本発明において「離水を起こさない」とは、離水率が1.0%未満であることを指す。ここでいう離水とは、チーズ類から乳清などの水分が滲出する現象を指し、離水率とは、30℃で2時間内にチーズ類から滲出する水分の重量を水分が滲出する前のチーズ類の重量で除した値をいう。例えば、実施例1に示すように、辺が15mmの立方体状に成形したチーズ類をシャーレ内に敷いた濾紙(定性濾紙No.2、φ70mm、ADVANTEC社製)の上に置き、30℃の恒温室において2時間経過後の時点に濾紙中に移行した水分の重量を測定し、この値と水分が滲出する前のチーズ類の重量を基に算出することができる。離水は包材を汚し、外観を悪くすると同時に、外包材が紙製の場合は外包材にカビ等の発生を促すなどの品質不良を引き起こす。長時間保存しても離水を起こさない物性を有するチーズ類は、製造〜流通の過程における品質不良を防止することができる。   Moreover, the cheeses of the present invention have physical properties that do not cause water separation even when stored for a long time. In the present invention, “does not cause water separation” means that the water separation rate is less than 1.0%. The water separation here refers to a phenomenon in which water such as whey exudes from the cheeses, and the water separation rate is the cheese before the water exudes the weight of water exuding from the cheeses in 30 hours at 30 ° C. The value divided by the weight of the class. For example, as shown in Example 1, the cheeses formed in a cube shape having a side of 15 mm are placed on a filter paper (qualitative filter paper No. 2, φ70 mm, manufactured by ADVANTEC) placed in a petri dish and kept at a constant temperature of 30 ° C. It is possible to calculate the weight of the moisture transferred into the filter paper at the time point after 2 hours in the room and based on this value and the weight of the cheese before the moisture exudes. The water separation stains the packaging material and deteriorates the appearance. At the same time, when the outer packaging material is made of paper, it causes quality defects such as urging the outer packaging material to generate mold and the like. Cheese having physical properties that do not cause water separation even when stored for a long time can prevent quality defects in the process of production to distribution.

本発明のチーズ類は、非熟成タイプチーズの良好な風味を有しているものであることを特徴とする。前記風味は官能検査によって、糊感、および非熟成タイプチーズ特有の爽やかな風味を基準に判断する。糊感とは、糊様の食感(もちのような粘り、およびべたつき)を指す。本発明においては、糊感がなく、かつ良好な非熟成タイプチーズ特有の爽やかな風味を有するものを非熟成タイプチーズの良好な風味を有しているチーズ類とする。   The cheeses of the present invention are characterized by having a good flavor of non-aged type cheese. The flavor is judged by a sensory test based on the feeling of paste and the refreshing flavor unique to non-aged type cheese. The pasty feeling refers to a pasty texture (stickiness like stickiness and stickiness). In the present invention, cheeses that have a good taste of non-aged type cheese and that have a refreshing taste peculiar to good non-aged type cheese without sticky feeling.

本発明のチーズ類は、乳化安定性が良好であることを特徴とする。本発明において、乳化安定性の良否は製造における加熱攪拌直後の溶解物の外観を観察して行う。このとき、加熱によりチーズの組織から油脂が遊離し表面に油膜が形成される状態を、乳化安定性が悪い状態(オイルオフ、または油分離ともいう)として評価する。一方、オイルオフのないものを乳化安定性が良好な状態として評価する。本発明においては、加熱攪拌直後のオイルオフのないものを乳化安定性が良好なチーズ類とする。   The cheeses of the present invention are characterized by good emulsion stability. In the present invention, the quality of the emulsion stability is determined by observing the appearance of the dissolved material immediately after heating and stirring in the production. At this time, the state in which fats and oils are released from the cheese tissue by heating and an oil film is formed on the surface is evaluated as a state of poor emulsification stability (also referred to as oil-off or oil separation). On the other hand, a product without oil-off is evaluated as having a good emulsion stability. In the present invention, cheeses having no oil-off immediately after heating and stirring are cheeses having good emulsification stability.

以下、本発明に関して実施例を挙げて説明するが、本発明は、これにより限定されるものではない。   Hereinafter, although an example is given and explained about the present invention, the present invention is not limited by this.

[実施例1](非熟成タイプチーズを用いた検討1)
非熟成タイプチーズとしてクリームチーズを用い、バター等と共に各種安定剤を単独で添加して製造したチーズ類の比較を行った。
[Example 1] (Examination 1 using non-aged type cheese)
The cream cheese was used as non-aged type cheese, and the cheeses manufactured by adding various stabilizers alone with butter were compared.

最終製品の水分含量が52w/w%となるように各種試作品を製造した。クリームチーズ(水分含量55.5w/w%)800g、バター(水分含量16.2w/w%)100gを混合して原料を調整した。原料に各種安定剤として、(試作品1−1)ゼラチン、(試作品1−2)ローカストビーンガム、(試作品1−3)グアーガム、(試作品1−4)寒天、(試作品1−5)カラギナン、(試作品1−6)タラガム、(試作品1−7)LM−ペクチン、または(試作品1−8)ジェランガム、を5.0g(最終製品に対して0.52w/w%)添加した。比較として、安定剤を添加しないものも(比較)設けた。さらに、溶融塩としてポリリン酸ナトリウムを9.5g(最終製品に対して1.0w/w%)添加した。調整した原料、安定剤および溶融塩の混合物に水分30gを添加しながらケトル型乳化釜で83℃以上になるまで加熱攪拌溶解した。加熱攪拌直後の溶解物について、83℃における乳化安定性を評価し、さらに粘度を測定した。そののち、溶解物を容器に充填し、冷蔵庫で10℃以下まで冷却して各種試作品を製造した。このとき、いずれの試作品も固形状となった。こうして得られた試作品について、30℃での離水率の測定(N=5)及び官能評価(糊感の評価)を行った。   Various prototypes were manufactured so that the water content of the final product was 52 w / w%. Cream cheese (water content 55.5 w / w%) 800 g and butter (water content 16.2 w / w%) 100 g were mixed to prepare raw materials. (Prototype 1-1) Gelatin, (Prototype 1-2) Locust bean gum, (Prototype 1-3) Guar gum, (Prototype 1-4) Agar, (Prototype 1 5) Carrageenan, (Prototype 1-6) Tara gum, (Prototype 1-7) LM-pectin, or (Prototype 1-8) Gellan gum, 5.0 g (0.52 w / w% based on the final product) ) Added. As a comparison, a sample to which no stabilizer was added (comparison) was also provided. Further, 9.5 g of sodium polyphosphate (1.0 w / w% based on the final product) was added as a molten salt. While adding 30 g of water to the mixture of the prepared raw material, stabilizer and molten salt, the mixture was stirred and dissolved in a kettle-type emulsification kettle until it reached 83 ° C or higher. About the melt | dissolution immediately after heating stirring, the emulsification stability in 83 degreeC was evaluated, and also the viscosity was measured. After that, the melt was filled in a container and cooled to 10 ° C. or lower in a refrigerator to produce various prototypes. At this time, all the prototypes became solid. The prototype obtained in this way was subjected to measurement of water separation rate at 30 ° C. (N = 5) and sensory evaluation (evaluation of glue feeling).

[乳化安定性の評価]
加熱攪拌直後の溶解物の外観を観察した。このとき、加熱によりチーズの組織から油脂が遊離し表面に油膜が形成される状態を、乳化安定性が悪い状態(オイルオフ)として評価した。一方、オイルオフのないものを乳化安定性が良好な状態として評価した。
[Evaluation of emulsion stability]
The appearance of the dissolved material immediately after heating and stirring was observed. At this time, the state in which oils and fats were released from the cheese tissue by heating and an oil film was formed on the surface was evaluated as a state where the emulsion stability was poor (oil off). On the other hand, a sample without oil-off was evaluated as having a good emulsion stability.

[粘度の測定]
加熱攪拌直後の溶解物の粘度測定は、高粘度用粘時計ビスコテスター VT−04(リオン(RION)社製)を用いて行った。単位はパスカル秒(Pa・s又はPsともいう)である。
[Measurement of viscosity]
The viscosity of the dissolved material immediately after heating and stirring was measured using a high viscosity viscometer viscotester VT-04 (manufactured by RION). The unit is Pascal second (also called Pa · s or Ps).

[離水率の測定]
上記の実施例1による本発明のチーズ類の2時間内の離水率を測定した。測定条件は1辺が15mmの立方体状に成形したチーズ試料をシャーレ内に敷いた濾紙(定性濾紙No.2、φ70mm、ADVANTEC社製)の上に置き、30℃の恒温室において2時間経過後の時点に濾紙中に移行した水分の重量を測定した。離水率は、次式により算出した。数値が小さい方が離水を起こしにくいことを示す。
[Measurement of water separation rate]
The water separation rate within 2 hours of the cheeses of the present invention according to Example 1 was measured. Measurement conditions were set on a filter paper (qualitative filter paper No.2, φ70mm, manufactured by ADVANTEC), a cheese sample molded in a cube shape with a side of 15 mm, and after 2 hours in a constant temperature room at 30 ° C. The weight of moisture transferred into the filter paper at the time of was measured. The water separation rate was calculated by the following formula. Smaller values indicate that water separation is less likely to occur.

Figure 2009100663
Figure 2009100663

尚、本発明において「離水を起こさない」とは、離水率が1.0%未満であることを指している。また、離水率は使用した濾紙の大きさにより20.5%が上限値となっている。 In the present invention, “does not cause water separation” means that the water separation rate is less than 1.0%. The water separation rate is 20.5% depending on the size of the filter paper used.

[官能評価(非熟成タイプチーズの風味)]
試作品について、官能検査を実施し、糊感および非熟成タイプチーズ特有の爽やかな風味の有無を指標に、非熟成タイプチーズの風味について評価を行った(N=3)。
[Sensory evaluation (flavor of non-aged cheese)]
A sensory test was performed on the prototype, and the taste of the non-aged type cheese was evaluated by using the feeling of paste and the presence or absence of a fresh flavor peculiar to the non-aged type cheese as an index (N = 3).

Figure 2009100663
Figure 2009100663

上記の表1の中の記号(○、△、×)は、試料に対する官能評価の結果を示す。各種記号は下記の意味をもつ。
○:糊感がなく、非熟成タイプチーズ特有の爽やかな風味を有する
△:少し糊感を有するが、非熟成タイプチーズ特有の爽やかな風味は多少感じられる
×:糊感が強く、非熟成タイプチーズ特有の爽やかな風味を損なっている
The symbols (◯, Δ, ×) in Table 1 above indicate the results of sensory evaluation on the sample. The various symbols have the following meanings.
○: There is no feeling of paste, and it has a refreshing flavor peculiar to non-aged type cheese. Δ: It has a slightly pasting feeling, but a refreshing taste peculiar to non-aged type cheese can be felt to some extent. The refreshing flavor peculiar to cheese is damaged.

結果を表1に示す。表1に示す通り、ゼラチン、タラガムの離水率は10%程度であり、単独使用では不十分ではあるものの離水防止効果が認められた。粘性についても大きな増加もなく流動性も良好であった。また冷蔵後の風味には糊感も少なく、使用に適していることが分かった。LM−ペクチンの単独使用は離水率が9%と最も低くなっていたが、350パスカル秒(Pa・s)と粘性が高く、僅かに糊感も感じられた。その他の安定剤は粘度が400パスカル秒(Pa・s)以上となり流動性が低く、製造に適していないか、あるいは糊感が強く、使用には適さなかった。     The results are shown in Table 1. As shown in Table 1, the water separation rate of gelatin and tara gum was about 10%, and although water alone was insufficient, the water separation prevention effect was recognized. There was no significant increase in viscosity and fluidity was good. In addition, the flavor after refrigeration has little sticky feeling, and it was found to be suitable for use. When LM-pectin was used alone, the water separation rate was 9%, which was the lowest, but the viscosity was as high as 350 Pascal seconds (Pa · s), and a slight paste was also felt. Other stabilizers had a viscosity of 400 Pascal seconds (Pa · s) or more and low fluidity, and were not suitable for production, or had a strong glue feeling, and were not suitable for use.

[実施例2](非熟成タイプチーズを用いた検討2)
非熟成タイプチーズとしてクリームチーズを用い、バター等と共に各種安定剤を複数組み合わせて添加して製造したチーズ類の比較を行った。
[Example 2] (Examination 2 using non-aged type cheese)
Using cheese cheese as non-aged type cheese, cheeses manufactured by adding a plurality of various stabilizers together with butter and the like were compared.

表2の配合表に従い、最終製品の水分含量が52w/w%、pHを4.9となるように固定して各種試作品を製造した。
クリームチーズ(水分含量55.5w/w%)、バター(水分含量16.2w/w%)を混合して原料を調整した。原料に酸味料(乳酸)、および各種安定剤として、表2に示す配合表に従ってゼラチン、LM−ペクチン、タラガムの中から2種類以上添加した。さらに、溶融塩としてポリリン酸ナトリウムを最終製品に対して1.0w/w%添加した。調整した原料、安定剤、酸味料、および溶融塩の混合物に直接蒸気(水分)を必要に応じて供給しながらケトル型乳化釜で83℃以上まで加熱攪拌溶解した。加熱攪拌直後の溶解物について、83℃における乳化安定性を評価し、さらに粘度を測定した。そののち、溶解物を容器に充填し、冷蔵庫で10℃以下まで冷却して各種試作品(2−1〜2−10)を製造した。このとき、いずれの試作品も固形状となった。こうして得られた試作品について、30℃での離水率の測定(N=5)及び官能評価(非熟成タイプチーズの風味)を行った。乳化安定性の評価、粘度の測定、離水率の測定、官能評価(非熟成タイプチーズの風味)の実施方法は、実施例1に記載の方法に準じて行った。
According to the composition table in Table 2, various prototypes were manufactured by fixing the final product so that the water content was 52 w / w% and the pH was 4.9.
Cream cheese (water content 55.5 w / w%) and butter (water content 16.2 w / w%) were mixed to prepare raw materials. As a sour agent (lactic acid) and various stabilizers as raw materials, two or more kinds of gelatin, LM-pectin and tara gum were added according to the formulation shown in Table 2. Furthermore, 1.0 w / w% sodium polyphosphate was added to the final product as a molten salt. While supplying steam (moisture) directly to the mixture of the prepared raw material, stabilizer, acidulant, and molten salt as necessary, the mixture was heated and dissolved in a kettle-type emulsification kettle to 83 ° C. or higher. About the melt | dissolution immediately after heating stirring, the emulsification stability in 83 degreeC was evaluated, and also the viscosity was measured. After that, the melt was filled in a container and cooled to 10 ° C. or lower in a refrigerator to produce various prototypes (2-1 to 2-10). At this time, all the prototypes became solid. The prototype thus obtained was subjected to measurement of water separation rate at 30 ° C. (N = 5) and sensory evaluation (flavor of non-aged type cheese). The method for carrying out the evaluation of the emulsion stability, the measurement of the viscosity, the measurement of the water separation rate, and the sensory evaluation (flavor of the non-aged type cheese) were carried out in accordance with the method described in Example 1.

Figure 2009100663
Figure 2009100663

上記の表2の中の記号(○、△、×)は、試料に対する官能評価の結果を示し、下記の意味をもつ。
○:糊感がなく、非熟成タイプチーズ特有の爽やかな風味を有する
△:少し糊感を有するが、非熟成タイプチーズ特有の爽やかな風味は多少感じられる
×:糊感が強く、非熟成タイプチーズ特有の爽やかな風味を損なっている
The symbols (◯, Δ, ×) in Table 2 above indicate the results of sensory evaluation on the sample and have the following meanings.
○: There is no feeling of paste, and it has a refreshing flavor peculiar to non-aged type cheese. Δ: It has a slightly pasting feeling, but a refreshing taste peculiar to non-aged type cheese can be felt to some extent. The refreshing flavor peculiar to cheese is damaged.

結果を表2に示す。水分中のゼラチン濃度1.2w/w%、水分中のLM−ペクチン濃度が1.2w/w%、水分中のタラガム0.4w/w%として、これらの中から2つを添加した試作品(2−1、2−2、2−3)では、粘度は400パスカル秒(Pa・s)未満に抑えつつ非熟成タイプチーズの風味を損なうことはなかったが離水率は10%未満にまで低下したものの、離水は完全に止まっていなかった。次に3つを併用した試作したサンプル(試作品2−4)では、非熟成タイプチーズの風味を損なうことなく、粘度を400パスカル秒(Pa・s)未満に抑えつつ離水を起こさないチーズを得られた。また、3つの添加量を2−4の2倍量、3倍量、5倍量とした試作サンプル(試作品2−5、2−6、2−7)では、3倍量の2−6で糊感が感じられたが、粘度は400パスカル秒(Pa・s)未満に抑えつつ離水を起こさないチーズ類を得られたが、5倍量2−7では糊感が強く、油分離しており品質不良であった。しかし、LM−ペクチン含量を2−7の半分量としたサンプル(試作品2−9)及びLM−ペクチンとタラガム含量を2−7の半分量としたサンプル(試作品2−10)では糊感もなく、粘度を400パスカル秒(Pa・s)未満に抑えつつ離水を起こさないチーズ類を得られた。   The results are shown in Table 2. Prototype in which two of these were added, with gelatin concentration in water of 1.2 w / w%, LM-pectin concentration in water of 1.2 w / w%, and tara gum in water of 0.4 w / w% In (2-1, 2-2, 2-3), the viscosity was kept below 400 Pascal seconds (Pa · s), while the flavor of the non-aged type cheese was not impaired, but the water separation rate was less than 10%. Although it decreased, the water separation did not stop completely. Next, in the prototype sample (Prototype 2-4) that uses three in combination, cheese that does not cause water separation while keeping the viscosity below 400 Pascal seconds (Pa · s) without impairing the flavor of non-aged cheese. Obtained. In addition, in the prototype samples (prototypes 2-5, 2-6, 2-7) in which the three addition amounts are 2 times, 3 times, and 5 times the amount of 2-4, 3 times the amount of 2-6 The cheeses that did not cause water separation while keeping the viscosity below 400 Pascal seconds (Pa · s) were obtained. The quality was poor. However, the sample with a LM-pectin content half of 2-7 (Prototype 2-9) and a sample with a content of LM-pectin and tara gum half of 2-7 (Prototype 2-10) have a sticky feeling. As a result, cheeses that do not cause water separation while suppressing the viscosity to less than 400 Pascal seconds (Pa · s) were obtained.

[実施例3](非熟成タイプチーズを用いた検討3)
非熟成タイプチーズとしてクリームチーズを用い、バター等と共に安定剤(ゼラチン、ローメトキシルペクチン、タラガムの3種)を一定比率で組み合わせて添加し、最終製品の水分含量を違えて製造したチーズ類の比較を行った。
[Example 3] (Examination 3 using non-aged type cheese)
Comparison of cheeses made using cream cheese as non-aged type cheese and adding butter and other stabilizers (gelatin, low methoxyl pectin, tara gum) in combination at a certain ratio and different moisture content in the final product Went.

表3の配合表に従い、各種試作品を製造した。ゼラチン、LM−ペクチン、タラガムは、最終製品の水分含量に対する濃度をそれぞれ約5.8w/w%、約2.3w/w%、約1.0w/w%、およびpHを5.0となるように固定した。
クリームチーズ(水分含量55.5w/w%)、バター(水分含量16.2w/w%)を混合して原料を調整した。原料に酸味料(乳酸)、および各種安定剤として、表3に示す配合表に従ってゼラチン、LM−ペクチン、タラガムを添加した。このとき、ゼラチン、LM−ペクチン、タラガムは、設定した最終製品の水分含量に対する濃度がそれぞれ約5.8w/w%、約2.3w/w%、約1.0w/w%となるように固定し、3種類全てを使用した。さらに、試作品3−1、3−3、3−4、3−5では溶融塩としてポリリン酸ナトリウムを最終製品に対して約1.0w/w%添加した。試作品3−2には、溶融塩を添加しなかった。調整した原料、安定剤、酸味料、および溶融塩の混合物(3−1、3−2、3−3、3−4、3−5)に直接蒸気(水分)を必要に応じて供給しながらケトル型乳化釜で直接蒸気を必要に応じて供給し、83℃以上まで加熱攪拌溶解した。最終製品のpHを5.0、水分を47w/w%、52w/w%、57w/w%または65w/w%に調整した。加熱攪拌直後の溶解物について、83℃における乳化安定性を評価し、さらに粘度を測定した。そののち溶解物を容器に充填し、冷蔵庫で10℃以下まで冷却して各種試作品(3−1、3−2、3−3、3−4、3−5)を製造した。このとき、いずれの試作品も固形状となった。こうして得られた試作品について、30℃での離水率の測定(N=5)及び官能評価(非熟成タイプチーズの風味)]を行った。乳化安定性の評価、粘度の測定、離水率の測定、官能評価(非熟成タイプチーズの風味)]の実施方法は、実施例1に記載の方法に準じて行った。
Various prototypes were manufactured according to the recipe in Table 3. Gelatin, LM-pectin, and tara gum have concentrations of about 5.8 w / w%, about 2.3 w / w%, about 1.0 w / w%, and pH 5.0, respectively, relative to the water content of the final product. It was fixed as follows.
Cream cheese (water content 55.5 w / w%) and butter (water content 16.2 w / w%) were mixed to prepare raw materials. According to the recipe shown in Table 3, gelatin, LM-pectin, and tara gum were added to the raw materials as acidulant (lactic acid) and various stabilizers. At this time, gelatin, LM-pectin, and tara gum have concentrations of about 5.8 w / w%, about 2.3 w / w%, and about 1.0 w / w%, respectively, with respect to the moisture content of the final product set. Fixed and used all three. Furthermore, in prototypes 3-1, 3-3, 3-4, and 3-5, about 1.0 w / w% of sodium polyphosphate was added to the final product as a molten salt. No molten salt was added to Prototype 3-2. While supplying steam (moisture) directly to the mixture (3-1, 3-2, 3-3, 3-4, 3-5) of the adjusted raw material, stabilizer, acidulant, and molten salt as necessary Steam was directly supplied as necessary with a kettle type emulsification kettle, and dissolved by heating to 83 ° C or higher. The final product was adjusted to pH 5.0 and moisture to 47 w / w%, 52 w / w%, 57 w / w% or 65 w / w%. About the melt | dissolution immediately after heating stirring, the emulsification stability in 83 degreeC was evaluated, and also the viscosity was measured. After that, the melt was filled in a container and cooled to 10 ° C. or lower in a refrigerator to produce various prototypes (3-1, 3-2, 3-3, 3-4, 3-5). At this time, all the prototypes became solid. The prototype thus obtained was measured for water separation rate at 30 ° C. (N = 5) and sensory evaluation (flavor of non-aged type cheese)]. Evaluation methods of emulsion stability, measurement of viscosity, measurement of water separation rate, sensory evaluation (flavor of non-aged type cheese)] were performed according to the method described in Example 1.

Figure 2009100663
Figure 2009100663

上記の表3の中の記号(○、△、×)は、試料に対する官能評価の結果を示し、下記の意味をもつ。
○:糊感がなく、非熟成タイプチーズ特有の爽やかな風味の風味を有する
△:少し糊感を有するが、非熟成タイプチーズ特有の爽やかな風味は多少感じられる
×:糊感が強く、非熟成タイプチーズ特有の爽やかな風味を損なっている
The symbols (◯, Δ, ×) in Table 3 above indicate the results of sensory evaluation on the sample and have the following meanings.
○: There is no feeling of paste, and it has a refreshing flavor peculiar to non-aged type cheese. Δ: Although it has a slightly pasty feeling, a refreshing taste peculiar to non-aged type cheese is somewhat felt. Impairs the refreshing flavor peculiar to aged cheese

結果を表3に示す。表3に示す通り、試作品3−1、3−2、3−3、3−4において良好な評価が得られた。つまり、溶融塩の存在下では最終製品の水分が47w/w%〜57w/w%において、非熟成タイプチーズの風味を損なうことなく、粘度を400パスカル秒(Pa・s)未満に抑えつつ離水を起こさないチーズを得られることが見出された。また、それと同時に、溶融塩を添加しなくても、非熟成タイプチーズの風味を損なうことなく、粘度を400パスカル秒(Pa・s)未満に抑えつつ離水を起こさないチーズを得られることも見出された。   The results are shown in Table 3. As shown in Table 3, good evaluation was obtained in prototypes 3-1, 3-2, 3-3, and 3-4. In other words, in the presence of molten salt, when the water content of the final product is 47 w / w% to 57 w / w%, water separation is achieved while keeping the viscosity below 400 Pascal seconds (Pa · s) without impairing the flavor of non-aged type cheese. It has been found that cheese can be obtained that does not cause odor. At the same time, it can be seen that even without adding molten salt, it is possible to obtain a cheese that does not cause water separation while keeping the viscosity below 400 Pascal seconds (Pa · s) without impairing the flavor of non-aged cheese. It was issued.

[実施例4](非熟成タイプチーズを用いた検討4)
原料として牛乳(水分含量87.4w/w%)を24.0kg、クリーム(水分含量48.4w/w%)8.0kgを混合したミックスを調整し、このミックスを温度50℃、圧力150kg/cm2で均質化を行い、72℃15秒間の加熱殺菌をした。さらにこの殺菌乳を32℃前後まで冷却した。これにLactococcus lactis subsp. lactis、Lactococcus lactis subsp. cremoris、lactococcus lactis subsp. lactis biovar daicetylactisの3混合スターターを3w/w%接種し攪拌した。これを32℃で約5時間発酵し、pH4.6の発酵液を得た。この発酵液を濾過用の布袋(綿モスリン(muslin)製)に詰め、5〜10℃の冷却下でホエイを除き、水分62.4w/w%のクリームチーズを調製した。このクリームチーズに、ゼラチンを水分中濃度5.8w/w%、LM−ペクチンを水分中濃度2.3w/w%、タラガムを水分中濃度0.8w/w%となるように調整し、調整した原料をケトル型乳化釜で直接蒸気を必要に応じて供給し、83℃以上まで加熱溶融した。その後、溶融物の粘度を測定したのち溶融物を容器に充填し、冷蔵庫で10℃以下まで冷却して本発明による試作品を得た。このとき、試作品は固形状となった。得られた試作品について、30℃での離水率の測定(N=5)及び官能評価(非熟成タイプチーズの風味)を行った。乳化安定性の評価、粘度の測定、離水率の測定、官能評価(非熟成タイプチーズの風味)]の実施方法は、実施例1に記載の方法に準じて行った。
[Example 4] (Examination 4 using non-aged type cheese)
A mix was prepared by mixing 24.0 kg of milk (water content 87.4 w / w%) and 8.0 kg of cream (water content 48.4 w / w%) as raw materials. Homogenization was performed at cm 2 , and heat sterilization was performed at 72 ° C. for 15 seconds. Furthermore, this pasteurized milk was cooled to around 32 ° C. This was inoculated with 3 w / w% of 3 mixed starters of Lactococcus lactis subsp. Lactis, Lactococcus lactis subsp. Cremoris, lactococcus lactis subsp. Lactis biovar daicetylactis and stirred. This was fermented at 32 ° C. for about 5 hours to obtain a fermentation broth having a pH of 4.6. This fermented liquid was packed in a filtering cloth bag (made by cotton muslin), whey was removed under cooling at 5 to 10 ° C., and cream cheese with a water content of 62.4 w / w% was prepared. To this cream cheese, gelatin was adjusted to a water concentration of 5.8 w / w%, LM-pectin was adjusted to a water concentration of 2.3 w / w%, and tara gum was adjusted to a water concentration of 0.8 w / w%. The steamed raw material was directly supplied with a kettle-type emulsification kettle as needed, and heated and melted to 83 ° C or higher. Then, after measuring the viscosity of the melt, the melt was filled in a container and cooled to 10 ° C. or lower in a refrigerator to obtain a prototype according to the present invention. At this time, the prototype became solid. About the obtained prototype, the water separation rate at 30 ° C. (N = 5) and sensory evaluation (flavor of non-aged type cheese) were performed. Evaluation methods of emulsion stability, measurement of viscosity, measurement of water separation rate, sensory evaluation (flavor of non-aged type cheese)] were performed according to the method described in Example 1.

得られた試作品の粘度が35パスカル秒(Pa・s)となり、400パスカル秒(Pa・s)未満に抑えられていた。また、最終製品の水分は56.4w/w%であり、離水率も0.9%に抑えられており、糊感のない良好な非熟成タイプチーズの風味を損なっていなかった。   The viscosity of the obtained prototype was 35 Pascal seconds (Pa · s), and was suppressed to less than 400 Pascal seconds (Pa · s). Moreover, the water | moisture content of the final product was 56.4 w / w%, the water separation rate was also suppressed to 0.9%, and the flavor of the good non-aged type cheese without a sticky feeling was not impaired.

本発明のチーズ製造法は、チーズ又はチーズ様食品において、水分含量が高いものでも包装材にチーズの離水を付着させることなく、非熟成タイプチーズの風味を損なうことなく、保存期間中の離水を抑えるチーズを効率的に得ることを可能とするものである。   In the cheese production method of the present invention, in cheese or cheese-like foods, even if the moisture content is high, the cheese water separation is not adhered to the packaging material, the flavor of the non-aged type cheese is not impaired, and the water separation during the storage period is performed. It is possible to efficiently obtain the cheese to be suppressed.

Claims (8)

最終製品の水分含量に対して1.2w/w%以上の重量であるゼラチン、最終製品の水分含量に対して1.2w/w%以上の重量であるローメトキシルペクチンおよび最終製品の水分含量に対して0.4w/w%以上の重量であるタラガムを含有し、最終製品の水分が約47w/w%〜57w/w%であり、加熱攪拌工程で83℃における粘度が400パスカル秒(Pa・s)未満の流動体であり、かつ冷蔵温度において固形状であることを特徴とするチーズ類。   Gelatin that weighs 1.2 w / w% or more with respect to the water content of the final product, low methoxyl pectin that weighs 1.2 w / w% or more with respect to the water content of the final product, and water content of the final product In contrast, it contains tara gum having a weight of 0.4 w / w% or more, the water content of the final product is about 47 w / w% to 57 w / w%, and the viscosity at 83 ° C. is 400 Pascal second (Pa -Cheese characterized by being a fluid less than s) and solid at refrigeration temperature. チーズ類が、非熟成タイプチーズの良好な風味を有しているものであり、30℃で2時間経過後の離水率が1.0%未満であり、乳化安定性が良好であることを特徴とする、請求項1に記載のチーズ類。   Cheese has a good flavor of non-aged type cheese, has a water separation rate of less than 1.0% after 2 hours at 30 ° C., and has good emulsion stability. The cheeses according to claim 1. 非熟成タイプチーズの1種類または2種類以上を原料として含有する、請求項1〜2のいずれか1項に記載のチーズ類。   The cheese of any one of Claims 1-2 which contains 1 type, or 2 or more types of non-aged type cheese as a raw material. 非熟成タイプチーズがクリームチーズ、クワルク、カッテージ、フェタ、フロマージュブラン、マスカルポーネ、フロマージュフレからなる群のうちの1つまたは2つ以上である、請求項3に記載のチーズ類。   The cheese according to claim 3, wherein the non-aged type cheese is one or two or more of the group consisting of cream cheese, quark, cottage, feta, fromage blanc, mascarpone, and fromage fleet. 加熱攪拌工程で83℃における粘度が400パスカル秒(Pa・s)未満の流動体あり、かつ冷蔵温度において固形状である物性を有するチーズ類の製造方法であって、最終製品の水分含量に対して1.2w/w%以上の重量であるゼラチン、最終製品の水分含量に対して1.2w/w%以上の重量であるローメトキシルペクチンおよび最終製品の水分含量に対して0.4w/w%以上の重量であるタラガムを含有せしめ、最終製品の水分を約47w/w%〜57w/w%に調整することを特徴とするチーズ類の製造方法。   A method for producing cheeses having a fluid with a viscosity of less than 400 Pascal seconds (Pa · s) at 83 ° C. in a heating and stirring step and having a solid property at a refrigeration temperature, the moisture content of the final product Gelatin with a weight of 1.2 w / w% or more, low methoxyl pectin with a weight of 1.2 w / w% or more with respect to the water content of the final product and 0.4 w / w with respect to the water content of the final product A method for producing cheeses characterized by containing tara gum having a weight of at least% and adjusting the water content of the final product to about 47 w / w% to 57 w / w%. チーズ類が、非熟成タイプチーズの良好な風味を有しているものであり、かつ30℃で2時間経過後の離水率が1.0%未満であり、乳化安定性が良好であることを特徴とする、請求項5に記載のチーズ類の製造方法。   The cheeses have a good flavor of non-aged type cheese, and the water separation after 2 hours at 30 ° C. is less than 1.0%, and the emulsion stability is good. The method for producing cheeses according to claim 5, characterized in that it is characterized in that 非熟成タイプチーズの1種類または2種類以上を原料に用いることを特徴とする、請求項5〜6のいずれか1項に記載のチーズ類の製造方法。   The method for producing cheeses according to any one of claims 5 to 6, wherein one kind or two or more kinds of non-aged type cheese is used as a raw material. 非熟成タイプチーズがクリームチーズ、クワルク、カッテージ、フェタ、フロマージュブラン、マスカルポーネ、フロマージュフレからなる群のうちの1つまたは2つ以上であることを特徴とする、請求項7に記載のチーズ類の製造方法。   The cheese according to claim 7, wherein the non-aged type cheese is one or more of the group consisting of cream cheese, quark, cottage, feta, fromage blanc, mascarpone, and fromage fleet. Production method.
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