JP3227469B2 - Activation method of high pressure injection type water - Google Patents

Activation method of high pressure injection type water

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Publication number
JP3227469B2
JP3227469B2 JP29975690A JP29975690A JP3227469B2 JP 3227469 B2 JP3227469 B2 JP 3227469B2 JP 29975690 A JP29975690 A JP 29975690A JP 29975690 A JP29975690 A JP 29975690A JP 3227469 B2 JP3227469 B2 JP 3227469B2
Authority
JP
Japan
Prior art keywords
water
injection
pressure
nozzle
small
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Expired - Fee Related
Application number
JP29975690A
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Japanese (ja)
Other versions
JPH04176381A (en
Inventor
正雄 中谷
信雄 西田
雄二 亀田
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Sugino Machine Ltd
Original Assignee
Sugino Machine Ltd
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Filing date
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Priority to JP29975690A priority Critical patent/JP3227469B2/en
Publication of JPH04176381A publication Critical patent/JPH04176381A/en
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Publication of JP3227469B2 publication Critical patent/JP3227469B2/en
Anticipated expiration legal-status Critical
Expired - Fee Related legal-status Critical Current

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Description

【発明の詳細な説明】 [産業上の利用分野] 本発明は、例えば水道水等の水を加圧して小径のノズ
ルから噴射することにより、水の分子集団を小さくして
水を活性化する方法に関するものである。
DETAILED DESCRIPTION OF THE INVENTION [Industrial Application Field] The present invention activates water by reducing the molecular population of water, for example, by pressurizing water such as tap water and jetting it from a small-diameter nozzle. It is about the method.

[従来の技術] 人体の体重の約6割を占める水は、当然ながら健康状
態を大きく左右するが、近年の健康ブームに乗じて水に
対する関心が最近とみに高まり、健康によい水や美味し
い水の科学的評価が行われるようになってきた。
[Prior art] Water, which accounts for about 60% of the body weight of a human body, naturally greatly influences the state of health. However, interest in water has recently increased due to the recent health boom. Scientific evaluations have begun.

その結果、適度なミネラル、アルカリ性等以外に水分
子集団の小さい水が健康上良く、またおいしく感じる水
であると提唱されている。
As a result, it has been proposed that water having a small water molecule population besides moderate minerals and alkalinity is water that feels good and delicious.

これは、水分子集団の小さい水は、生体内への吸収が
速く、溶解力、透過力、熱伝導度も高く、従って生理学
的活性が高いと考えられ、また舌の味覚細胞にスッポリ
入り込むため、おいしく感じるものとされている。
This is because water with a small population of water molecules absorbs quickly into the body, has high dissolving power, high permeability, and high thermal conductivity, and is therefore considered to have high physiological activity. It is said to be delicious.

一般に、水分子は常温では1個で存在することはでき
ず、水素結合によって最低5分子以上の動的集団を形成
している。しかもその集団は固定ではなく、絶えず変化
している。
Generally, water molecules cannot exist alone at normal temperature, but form a dynamic group of at least 5 molecules by hydrogen bonding. And the population is not fixed, it is constantly changing.

第1表に水分子集団と分子運動速度との関係を示す。
この場合、分子集団が小さいと水全体として小さな分子
の集団が多くて活発に運動できるので分子運動が速くな
る。従って分子運動の速さを調べることにより、水分子
集団の大小を相対的に評価でき、その評価方法として核
磁気共鳴装置(NMR)が利用されている。
Table 1 shows the relationship between the water molecule population and the molecular motion velocity.
In this case, if the molecular population is small, the water as a whole has a large population of small molecules and can actively move, so that the molecular motion becomes faster. Therefore, by examining the speed of the molecular motion, the size of the water molecule population can be relatively evaluated, and a nuclear magnetic resonance apparatus (NMR) is used as a method for the evaluation.

NMRでの水分子集団の評価方法は、次の第2表に示す
通り、具体的にはNMRで170を対象としたスピン・スピン
緩和時間(T2)測定により水分子の運動性が評価でき、
通常(T2)の逆数に比例する線幅によって判定される。
As shown in Table 2 below, the water molecule ensemble is evaluated by NMR. Specifically, the mobility of water molecules is evaluated by measuring the spin-spin relaxation time (T 2 ) for 170 by NMR. Can,
It is usually determined by the line width proportional to the reciprocal of (T 2 ).

また、水分子の活性化、即ち水分子集団を小さくする
方法として、以下の手法があるとされ、現在各々の手法
に基いた製品が市販されている。
Further, as a method of activating water molecules, that is, a method of reducing the water molecule population, there are the following methods, and products based on each of the methods are currently on the market.

・磁気処理 ・電気分解 ・遠赤外線照射 ・超音波加振 ・セラミックフィルタ処理 ・中空系膜 [発明が解決しようとする課題] 一方、水の機械的な利用方法として、高圧水を利用し
て金属等の個体を切断を行う装置がある。今回、この高
圧に噴射された水の分子集団の状態を調べたところ、良
好な動的集団を形成することが認められ、本発明に至っ
た。
・ Magnetic treatment ・ Electrolysis ・ Far-infrared irradiation ・ Ultrasonic vibration ・ Ceramic filter treatment ・ Hollow membrane [Problems to be solved by the invention] On the other hand, high pressure water is used for metal There is a device for cutting an individual such as. This time, when the state of the molecular group of water injected at high pressure was examined, it was recognized that a good dynamic group was formed, and the present invention was reached.

本発明は、水の分子集団を小さくして水を活性化する
方法を得ることを目的とする。
An object of the present invention is to provide a method for activating water by reducing the molecular population of water.

[課題を解決するための手段] 本発明に係る高圧噴射式水の活性化方法では、水を加
圧する加圧部に連通する小径ノズルから、前記加圧部で
加圧された水を噴射させて急激な圧力変化を与えること
により水の分子集団を小さくして活性化すると共に、前
記噴射は、活性化水として利用するために噴射水を回収
しながら行うものである。
[Means for Solving the Problems] In the method for activating high-pressure injection water according to the present invention, water pressurized by the pressurizing unit is jetted from a small-diameter nozzle communicating with a pressurizing unit that pressurizes the water. By applying a rapid pressure change to reduce the water molecule population and activate it, the jetting is performed while collecting the jetting water for use as activation water.

更に好ましくは、前記小径ノズルより噴射される水を
壁面に衝突させるものである。
More preferably, the water jetted from the small-diameter nozzle collides with a wall surface.

[作用] 本発明においては、水の分子集団を小さくして水を活
性化する方法において、水を加圧する加圧部に連通した
小径ノズルから該水を噴射させるものであるため、加圧
部で数千気圧までに加圧された被処理液はノズルを通過
することにより、急激な高圧から常圧への圧力変化によ
って、容易に水分子集団を小さくすることが可能とな
り、生体内吸収、溶解力、透過力、熱伝導度が高く、即
ち生理学的活性が高く、おいしく感じられる水が得られ
る。
[Action] In the present invention, in the method of activating water by reducing the molecular population of water, the water is jetted from a small-diameter nozzle communicating with a pressurizing unit that pressurizes the water. The liquid to be treated, which has been pressurized to several thousand atmospheres, passes through the nozzle, which makes it possible to easily reduce the water molecule population due to a sudden change in pressure from high pressure to normal pressure. Water that has high dissolving power, high permeability, and high thermal conductivity, that is, high physiological activity and taste is obtained.

また、単に小径ノズルから噴射させるだけでなく、壁
面に衝突させるものであるため、高圧から常圧への急激
な圧力変化に加えて、引き続く壁面への衝撃圧により、
効率のよい水分子集団の極小化が達成されることとな
る。このための装置は、第1図(a)(b)図に示すよ
うに、ノズルの噴射口と該噴射口の対向位置に設けた底
板とを筒状で覆ったキャッチャー内に噴射する装置でも
よく、より簡便に単にノズル噴射口に対向した板に向け
て噴射する構成でもよい。
In addition, because it is not just a small-diameter nozzle but also a collision with the wall surface, in addition to the sudden pressure change from high pressure to normal pressure, the subsequent impact pressure on the wall surface
Efficient minimization of the water molecule population is achieved. As shown in FIGS. 1 (a) and 1 (b), a device for this purpose is a device which injects a nozzle into a catcher which covers a nozzle and a bottom plate provided at a position opposite to the nozzle in a cylindrical shape. It is also possible to adopt a configuration in which the spray is simply and simply directed toward the plate facing the nozzle outlet.

[実施例] 第1図(a)(b)図は本方法を行うための装置の一
実施例と別の実施例の構成を示す説明図である。第1
(a)図は、被処理水を加圧する加圧部(図示せず)に
連通した導管(1)に接続されたノズルを有するホルダ
ー(2)と該噴射口(2)の対向位置に設けた底板
(3)とを筒状(4)で覆ったキャッチャー(5)内に
被処理水を噴射する装置であり、第1(b)図は導管
(1′)に接続されたノズルを有するホルダー(2′)
に対向した位置に板(3′)を設け、ホルダー(2′)
から排出される噴射水を容器(6)で受ける構成として
いる。
[Embodiment] FIGS. 1 (a) and 1 (b) are explanatory diagrams showing the configuration of one embodiment of an apparatus for performing the present method and another embodiment. First
(A) shows a holder (2) having a nozzle connected to a conduit (1) communicating with a pressurizing unit (not shown) for pressurizing the water to be treated, and a holder (2) provided at a position facing the injection port (2). This is a device for injecting water to be treated into a catcher (5) in which a bottom plate (3) and a bottom plate (3) are covered with a tubular shape (4), and FIG. 1 (b) has a nozzle connected to a conduit (1 '). Holder (2 ')
A plate (3 ') is provided at a position facing the
The container (6) receives the jet water discharged from the container.

ところで、第1(a)図に示したキャッチャー内に噴
射した水を使用して種々の試験を行った。
By the way, various tests were performed using water injected into the catcher shown in FIG. 1 (a).

具体的な構成は、ノズル径0.25mm、キャッチャーの内
径40.7mm、ノズル端から底板までの距離は270mm,370mm,
470mmの3段階に変更可能とした。噴射水の回収位置は
キャッチャー底板より100mm上部とした。回収された噴
射水の酸素原子核の線幅とpH変化を経時的に測定した。
Specifically, the nozzle diameter is 0.25mm, the inner diameter of the catcher is 40.7mm, the distance from the nozzle end to the bottom plate is 270mm, 370mm,
It can be changed to three stages of 470mm. The injection water was collected 100 mm above the bottom plate of the catcher. The line width and pH change of the oxygen nucleus of the collected injection water were measured over time.

第2図は種々の圧力の噴射水の酸素原子核の線幅の経
時変化を示す線図、第3図は種々の圧力の噴射水のpH変
化を示す線図である。
FIG. 2 is a diagram showing the change over time of the line width of oxygen nuclei of the injection water at various pressures, and FIG. 3 is a diagram showing the pH change of the injection water at various pressures.

第2図に示す通り、未処理水の線幅が137Hzであるの
に対し、噴射約6時間後の線幅の値が、圧力1000kgf/cm
2では84Hz、圧力3000kgf/cm2では57Hzに減少していた。
これより、噴射圧力が高い程、線幅は大きく減少するこ
とが確認された。更に、線幅は時間と共に大きくなる経
時変化を示すことが確認された。一方、ノズル端から底
板までの距離の相違に対して、線幅の有為な差は確認さ
れなかった。
As shown in FIG. 2, while the line width of the untreated water is 137 Hz, the value of the line width after about 6 hours from the injection is a pressure of 1000 kgf / cm.
At 2 the pressure was reduced to 84 Hz, and at 3000 kgf / cm 2 the pressure was reduced to 57 Hz.
From this, it was confirmed that the line width was greatly reduced as the injection pressure was higher. Further, it was confirmed that the line width showed a temporal change that increased with time. On the other hand, no significant difference in line width was found for the difference in distance from the nozzle end to the bottom plate.

また、第3図に示す通り、pHは噴射圧力によって増加
する傾向、即ちアルカリ性を示すようになる。圧力3000
kgf/cm2では未処理水のpH7.6に対し、8.9と増加するこ
とが確認された。また、pHも経時変化を示し、時間とと
もに初期値に近づいていくことが確認された。一方、ノ
ズル端から底板までの距離の相違に対して、pHの有為な
差は認められなかった。
In addition, as shown in FIG. 3, the pH tends to increase with the injection pressure, that is, shows alkaline. Pressure 3000
At kgf / cm 2 , it was confirmed that the pH of the untreated water increased to 8.9 compared to pH 7.6. Further, it was confirmed that the pH also changed with time and approached the initial value with time. On the other hand, no significant difference in pH was observed with respect to the difference in the distance from the nozzle end to the bottom plate.

更に、第1(b)図に示したノズル噴射口に対向した
板に向けて噴射した噴射水を使用して種々の試験を行っ
た。
Further, various tests were carried out using the jet water jetted toward the plate facing the nozzle jet port shown in FIG. 1 (b).

具体的な構成は、ノズル径0.25mmのノズルから厚さ4m
mのSUS304板に噴射して噴射水を回収した。ノズル端か
ら底板までの距離は70mm,170mm,270mm,370mmの4段階に
変更可能とした。噴射水の採集は板を納めた容器から回
収した。回収された噴射水の酸素原子核の線幅とpH変化
を経時的に測定した。尚、比較例として、30分間超音波
加振を行ったものも同様に測定した。
The specific configuration is 4m thick from a nozzle with a nozzle diameter of 0.25mm
The sprayed water was collected by spraying the SUS304 plate of m. The distance from the nozzle end to the bottom plate can be changed in four stages of 70 mm, 170 mm, 270 mm, and 370 mm. The injection water was collected from the container containing the board. The line width and pH change of the oxygen nucleus of the collected injection water were measured over time. Note that, as a comparative example, a sample subjected to ultrasonic vibration for 30 minutes was similarly measured.

第4図は種々の圧力の噴射水の酸素原子核の線幅の経
時変化を示す線図、第5図は種々の圧力の噴射水のpH変
化を示す線図である。
FIG. 4 is a diagram showing the change over time of the line width of the oxygen nuclei of the injection water at various pressures, and FIG. 5 is a diagram showing the pH change of the injection water at various pressures.

第4図に示す通り、平板への噴射でもキャッチャーへ
の噴射と同様に圧力が高い程、線幅は小さくなることが
確認された。また、平板への噴射水の線幅も時間経過と
ともに、大きくなる傾向があることが確認された。ま
た、第5図に示す通り、第3図と同様に、pHは噴射圧力
によって増加する傾向、即ちアルカリ性を示すようにな
り、また、pHも経時変化を示し、時間とともに初期値に
近づいていくことが確認された。
As shown in FIG. 4, it was confirmed that the line width became smaller as the pressure was higher in the injection to the flat plate as in the injection to the catcher. In addition, it was confirmed that the line width of the injection water on the flat plate tends to increase with time. Also, as shown in FIG. 5, as in FIG. 3, the pH tends to increase with the injection pressure, that is, shows alkaline, and the pH also changes with time, approaching the initial value with time. It was confirmed that.

第6図は噴射距離を変えた場合の線幅の相違を示す線
図、第7図は噴射距離を変えた場合のpHの相違を示す線
図である。
FIG. 6 is a diagram showing a difference in line width when the injection distance is changed, and FIG. 7 is a diagram showing a difference in pH when the injection distance is changed.

第6図に示す通り、噴射距離を70,170,270,370mmと変
化させたが、噴射距離が大きくなるにつれて線幅は減少
する傾向にあることが確認された。また、第7図よりpH
は、噴射距離の相違には関係しないことが確認された。
As shown in FIG. 6, the injection distance was changed to 70, 170, 270, and 370 mm, but it was confirmed that the line width tended to decrease as the injection distance increased. Also, from FIG.
Was not related to the difference in the injection distance.

製品の用途しては飲料、食品、化粧品、酒類等の製造
過程で使用する水への利用が考えられる。分子集団の小
さい水、即ち活性の大きい水により化学反応の促進、混
合物の溶解性向上等が予想される。
The use of the product can be considered to be used for water used in the production process of beverages, foods, cosmetics, liquors and the like. It is expected that water having a small molecular population, that is, water having a high activity will promote the chemical reaction and improve the solubility of the mixture.

[発明の効果] 本発明は以上説明したとおり、水の分子集団を小さく
して水を活性化する方法において、水を加圧する加圧部
に連通した小径ノズルから該水を噴射させるものである
ため、加圧部で数千気圧までに加圧された被処理液はノ
ズルを通過することになり、急激な高圧から常圧への圧
力変化によって、容易に水分子集団を小さくすることが
可能となり、生体内吸収、溶解力、透過力、熱伝導度が
高く、即ち生理学的活性が高く、おいしく感じられる水
が得られる。
[Effects of the Invention] As described above, the present invention provides a method for activating water by reducing the molecular population of water, in which the water is jetted from a small-diameter nozzle communicating with a pressurizing unit that pressurizes the water. Therefore, the liquid to be treated, which has been pressurized to several thousand atmospheres in the pressurizing section, passes through the nozzle, and the water molecule population can be easily reduced by a sudden pressure change from high pressure to normal pressure. Thus, water that has high absorption in the living body, dissolving power, permeability, and thermal conductivity, that is, high physiological activity and can be tasted is obtained.

また、単に小径ノズルから噴射させるだけでなく、壁
面に衝突させるものであるため、高圧から常圧への急激
な圧力変化に加えて、引き続く壁面への衝撃圧により、
効率のよい水分子集団の極小化が達成されることとなる
という効果がある。
In addition, because it is not just a small-diameter nozzle but also a collision with the wall surface, in addition to the sudden pressure change from high pressure to normal pressure, the subsequent impact pressure on the wall surface
There is an effect that efficient minimization of the water molecule population is achieved.

【図面の簡単な説明】[Brief description of the drawings]

第1(a)(b)図は本方法を行うための装置の一実施
例と別の実施例の構成を示す説明図、第2図は種々の圧
力のキャッチャー内への噴射水の酸素原子核の線幅の経
時変化を示す線図、第3図は種々の圧力のキャッチャー
内への噴射水のpH変化を示す線図、第4図は種々の圧力
の平板への噴射水の酸素原子核の線幅の経時変化を示す
線図、第5図は種々の圧力の平板への噴射水のpH変化を
示す線図、第6図は平板噴射における噴射距離を変えた
場合の線幅の相違を示す線図、第7図は平板噴射におけ
る噴射距離を変えた場合のpHの相違を示す線図である。
1 (a) and 1 (b) are explanatory diagrams showing the construction of an embodiment for carrying out the present method and another embodiment, and FIG. 2 is an oxygen nucleus of water jetted into a catcher of various pressures. 3 is a diagram showing the pH change of the water jet into the catcher at various pressures, and FIG. 4 is a diagram showing the pH change of the water blast of the water jet to the flat plate at various pressures. FIG. 5 is a graph showing a change in the line width with time, FIG. 5 is a graph showing a change in the pH of the injection water to the flat plate at various pressures, and FIG. FIG. 7 is a diagram showing a difference in pH when the injection distance in flat injection is changed.

───────────────────────────────────────────────────── フロントページの続き (58)調査した分野(Int.Cl.7,DB名) C02F 1/00 A23L 2/00 B26F 3/00 JICSTファイル(JOIS) WPI(DIALOG)──────────────────────────────────────────────────続 き Continued on the front page (58) Fields surveyed (Int. Cl. 7 , DB name) C02F 1/00 A23L 2/00 B26F 3/00 JICST file (JOIS) WPI (DIALOG)

Claims (2)

(57)【特許請求の範囲】(57) [Claims] 【請求項1】水を加圧する加圧部に連通する小径ノズル
から、前記加圧部で加圧された水を噴射させて急激な圧
力変化を与えることにより水の分子集団を小さくして活
性化すると共に、前記噴射は、活性化水として利用する
ために噴射水を回収しながら行うことを特徴とする高圧
噴射式水の活性化方法。
A small-diameter nozzle communicating with a pressurizing unit for pressurizing water jets water pressurized by the pressurizing unit to give a rapid pressure change, thereby reducing the molecular population of water and thereby increasing the activity. And activating the high-pressure injection water while collecting the injection water for use as activation water.
【請求項2】前記請求項1に記載の高圧噴射式水の活性
化方法において、 前記小径ノズルより噴射される水を壁面に衝突させるこ
とを特徴とする高圧噴射式水の活性化方法。
2. The method for activating high-pressure jet water according to claim 1, wherein the water jetted from said small-diameter nozzle impinges on a wall surface.
JP29975690A 1990-11-07 1990-11-07 Activation method of high pressure injection type water Expired - Fee Related JP3227469B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP29975690A JP3227469B2 (en) 1990-11-07 1990-11-07 Activation method of high pressure injection type water

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP29975690A JP3227469B2 (en) 1990-11-07 1990-11-07 Activation method of high pressure injection type water

Publications (2)

Publication Number Publication Date
JPH04176381A JPH04176381A (en) 1992-06-24
JP3227469B2 true JP3227469B2 (en) 2001-11-12

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FR2716123B1 (en) * 1994-02-15 1996-04-26 Jacques Ravatin Fluid activation device and method of using the same
JP2835574B2 (en) * 1994-08-24 1998-12-14 清本鐵工株式会社 Method and apparatus for killing alga of plankton in water
CN103693695B (en) * 2013-12-14 2016-07-06 李镇南 A kind of resistance friction cutting type small-micelle water preparation method and small-micelle water prepare device
CN111655632B (en) * 2017-10-30 2022-08-30 株式会社Fig Activated water, method for producing activated medium, device for producing activated water, method for preserving food, and activated medium

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