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JP2006198601A - Method for recycling apricot vinegar liquid and oyster shell as highly functional resource - Google Patents

Method for recycling apricot vinegar liquid and oyster shell as highly functional resource Download PDF

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JP2006198601A
JP2006198601A JP2005043087A JP2005043087A JP2006198601A JP 2006198601 A JP2006198601 A JP 2006198601A JP 2005043087 A JP2005043087 A JP 2005043087A JP 2005043087 A JP2005043087 A JP 2005043087A JP 2006198601 A JP2006198601 A JP 2006198601A
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reaction
oyster
oyster shell
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plum
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Hideo Sato
秀雄 佐藤
Yoichi Chiba
陽一 千葉
Hisakazu Ohara
弥一 小原
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Abstract

<P>PROBLEM TO BE SOLVED: To recycle Japanese apricot (ume) vinegar liquid and oyster shell, which although respectively having useful substances, are serious and heavy loads on environments as they are, as highly functional resources. <P>SOLUTION: The ume vinegar liquid is an extract obtained by biochemical reaction of ume fruit and salt and on the other hand, the oyster shell is an organic compound enriched with structure water around Ca in which seawater mineral is accumulated while enclosing and growing oyster therein. Both are enriched with particular inherent components. The oyster shell is calcined at a high temperature in dry distillation manner to obtain a fine powder of quick lime. Both resources are separately jetted and mixed in a highly functional reaction tower having a long cylindrical shape and complete fusion reaction is induced in the environments of high temperature due to simultaneous exothermal chemical reactions; that is, hydroxylation reaction and acid-neutralization reaction. The reaction agent obtained thereby is separated into solid matter analogous to gypsum and a liquid agent. The solid matter is added to, for example, a raw material for marine base construction and used for contribution to oyster culture industry by seaweed propagation. Being mixed with special humus extract liquid, the liquid agent is aged and used as an acidic mineral for soil amendment. <P>COPYRIGHT: (C)2006,JPO&NCIPI

Description

本発明は、産廃的資源化している梅酢液並びにカキ殻が、生まれながらに持っている健康機能性成分を捕集活用して、機能性資源として再生させる方法に関するものである。  The present invention relates to a method for collecting and utilizing health functional components that ume vinegar and oyster shells, which have been turned into industrial resources, are born and used to regenerate them as functional resources.

梅は世界的に広く生産され、人の生活に深く関わる健康食品として愛用されて来た。特に日本食に合った活用の前提としての加工技術が進歩している。
健康食‥梅−中川紀子(農文協1986)
Plum is widely produced worldwide and has been used habitually as a health food deeply related to human life. In particular, processing technology is advancing as a premise for utilization suitable for Japanese food.
Healthy food: Ume-Noriko Nakagawa (Agricultural Bunko 1986)

海洋生物のカキの殻は、古くからその焼成灰が添喰いの原料に供され遠赤外線を放射する環境機能性が珍重されて来た。白磁(カリオン素地セラミックス)原料粘土と共通するカリオン、カリオナイト、ハロイサイト、デイツカイト、加水ハロサイト、ナクライト等を含有する非常に複雑な組成であることが想定される。

Figure 2006198601
The oyster shells of marine organisms have long been prized for their environmental functionality that emits far-infrared rays by using the calcined ash as an additive material. It is assumed that the composition is very complicated and contains carion, karionite, halloysite, datekite, hydrated halosite, nacrite, etc. common to white porcelain (carion ceramics) raw material clay.
Figure 2006198601

高温(1,200℃)焼成したカキ殻は、生石灰CaO資質となり、複数の増量資剤に水を加えた複合物と梅酢液等が反応して水酸化反応と酸中和反応してイオン化を促し、水和反応に進んで環境機能性を高める構造体(石膏類似物)となる。
環境機能性再生構造物の製造−特願2004−163851
Oyster shells fired at a high temperature (1,200 ° C) become quick lime CaO qualities, and a compound obtained by adding water to a plurality of extenders and plum vinegar react to react with each other to undergo hydroxylation reaction and acid neutralization reaction for ionization. The structure (gypsum analogue) that promotes and promotes the hydration reaction to enhance environmental functionality.
Manufacture of environmental functional regeneration structure-Japanese Patent Application No. 2004-163851

古くから使用されて来た生石灰結晶は、1,000℃で石灰石を焼成して得られる。カキ殻生石灰は1,200℃で焼成したと云われるものでも結晶化せず吸湿性も小さい。
前項使用例でも使い勝手が良好で1,000℃焼成では反応力が弱い様に感じられると云う。考察するに、カキ殻は有機体なので解離エネルギーが大きいことによるものではと思い当るのは、ショ糖(固体)C122211の1モル当りの燃焼熱1,351.29キロカロリーが、他の炭素(グラファイト、固体)Cの1モルあたり9,406キロカロリーや、プロパン(気体)のCの1モル当り530.58キロカロリーと比べて格段に大きい(化学反応はなぜ起るか−上野影平1993)という教示で相応して解離エネルギーも大きいことを教えられたことから新思考に進歩し得た。
複雑な有機体である木材の炭化に当って、その前提となる解離エネルギー吸熱を乗り越える、従前の熱分解による炭化より、はるかに容易な乾溜ガス化による炭化が遠赤外線照射と窒素ガス雰囲気の触媒作用、過熱蒸気雰囲気の自媒作用の相乗効果で有機体のガス化が容易となる事象経験もあるので、カキ殻の生石灰化もその原理の応用によって時間とコストの低減が図られるものと確信出来る。その為には乾溜ガス燃焼発熱も必須要因なのでその基礎となる技術も提示する。
高能率熱交換燃焼装置−特願−3030321号 自燃植物素材遠赤外線乾溜炭化装置−特願2004−90516
Quick lime crystals that have been used for a long time can be obtained by baking limestone at 1,000 ° C. Oyster shell quicklime does not crystallize even if it is said to have been fired at 1,200 ° C. and has a low hygroscopic property.
It can be said that the use example in the previous section is also easy to use, and the reaction power is felt weak at 1,000 ° C. baking. Considering that the oyster shell is an organic substance, I think that it is due to the large dissociation energy. The combustion heat per mol of sucrose (solid) C 12 H 22 O 11 is 1,351.29 kilocalories, Compared to 9,406 kilocalories per mole of other carbon (graphite, solid) C and 530.58 kilocalories per mole of C 3 H 8 of propane (gas) (Why chemical reactions occur) -I was able to advance to new thinking because I was taught that the dissociation energy was correspondingly large by the teaching of Kagehei Ueno (1993).
Carbonization of wood, which is a complex organism, overcomes the dissociative energy endotherm that presupposes it. Carbonization by dry distillation gasification is far easier than conventional carbonization by pyrolysis. There is also an experience of an event that facilitates the gasification of organisms due to the synergistic effect of the action and the self-medium action of the superheated steam atmosphere, so it is certain that quick calcification of oyster shells will reduce time and cost by applying the principle I can do it. For that purpose, the heat generated by dry gas combustion is also an essential factor, so the basic technology is also presented.
High efficiency heat exchange combustion system-Japanese Patent Application No. 3030321 Self-burning plant material far-infrared carbonization device-Japanese Patent Application No. 2004-90516

有機質物質は複雑な生合成の結果強固な結晶体となっており、それを解くには大きな解離エネルギーを要する。まともに向かえば大変だが、触媒、発酵、加熱等の手法があり、熱に反応する遠赤外線、輻射熱線、マイナスイオン等々の熱線、熱波、光波の力を借りれば大幅に効率が向上するので、それに対応できる熱に反応する高機能セラミックスや炉壁等が求められ利用される。その一例として
機能性セラミックスの製造法−特願2005−
Organic substances have become strong crystals as a result of complex biosynthesis, and a large amount of dissociation energy is required to solve them. However, there are methods such as catalysis, fermentation, and heating. If you borrow the power of heat rays such as far-infrared rays, radiant heat rays, and negative ions that react with heat, heat waves, and light waves, the efficiency will be greatly improved. High-performance ceramics and furnace walls that respond to heat are required and used. As an example
Method for producing functional ceramics-Japanese Patent Application 2005-

梅漬は食品機能性に優れ、大量に流通している裏で、その加工の際に残る液剤が大量であり、塩分が多く酸度の強い、色素も強いのでそのままでは厄介な廃棄物である。一方のカキ殻も中身の何倍かの固い物質として廃棄に負担が必要となる。しかし、背景技術にある如く、いずれも活用する潜在価値は確実に高い。それを引出すには如何に大量処理が可能で、コストも低く、付加価値の大きい資源に転換できるかは、すべてそれらを可能とする技術の構築にかかっている。
本発明者等は今まで積み重ねて来た技術を活かし、低コストで付加価値の高い物質に転換するかの主題に向けた複数技術の組合せでそれを目指すが、その基となるのは物質のもつ基本的特性と、自然現象の教える化学反応の意味を活用する技術の組合せである。
Plum pickles have excellent food functionality and are distributed in large quantities, and a large amount of liquid remains in their processing. They have a high salt content, high acidity, and strong pigments. On the other hand, oyster shells are a hard substance several times as large as the contents, and a burden is required for disposal. However, as in the background art, the potential value of using any of them is certainly high. It is all about the construction of technology that makes it possible to extract it, how much it can be processed in large quantities, low in cost, and can be converted into resources with high added value.
The present inventors aim to achieve this by combining multiple technologies for the theme of converting to low-cost, high-value-added materials by utilizing the technologies accumulated up to now. It is a combination of the basic characteristics possessed and technology that utilizes the meaning of chemical reactions taught by natural phenomena.

本発明者等は前項の目標のもとで利用出来る自然現象の教える化学反応のいずれを活用するかに焦点を当てて検討した。
本発明の方法の中心となるのは生石灰CaOが水と反応する水酸化反応並びに酸との中和反応で、その反応の速さは瞬間的で爆発的な発熱を伴う。
梅酢液は梅果実液と塩分を中核とする複数の有機酸とが緩やかに反応した成果物でその組成は複雑で、それらを分離するには大きな解離エネルギーを必要とする。
カキ殻は積層成長した有機体で1,200℃の焼成でも結晶化しない物理的な特性があるが、海中のミネラルが濃縮された強固な結晶体CaCOを中心とする構造水を含む有機体で、CO等を分離するには大きな解離エネルギーを要する吸熱反応で生石灰CaOとなり、水と反応するとCaO+2HOCA(OH)となる反応で激しい発熱を伴うエネルギーの輪廻がある。
前記したことを踏まえて、まずカキ殻を生石灰化することからスタートする。
The present inventors focused on which of the chemical reactions taught by the natural phenomenon that can be used under the above-mentioned goals.
The center of the method of the present invention is a hydroxylation reaction in which quick lime CaO reacts with water and a neutralization reaction with acid, and the speed of the reaction is instantaneous and accompanied by explosive heat generation.
Plum vinegar is a product of a slow reaction between plum fruit and a plurality of organic acids with salt as the core, and its composition is complex, requiring large dissociation energy to separate them.
Oyster shells are organically grown layers with physical properties that do not crystallize even when fired at 1,200 ° C., but organic matter containing structural water centered on strong crystalline CaCO 3 enriched in sea minerals Thus, in order to separate CO 2 or the like, there is an endothermic reaction that requires a large dissociation energy to become quick lime CaO, and when it reacts with water, it becomes CaO + 2H 2 OCA (OH) 2, and there is an energy cycle accompanied by intense heat generation.
Based on the above, we start with quick calcification of oyster shells.

本発明者が有機質(木材)の炭化に際して、従前の熱分解にかえて乾溜方法を試みた装置(特許文献2)で遠赤外線照射と窒素ガス(無酸素)雰囲気と過熱蒸気雰囲気の触媒的、自媒的な相乗環境が、熱分解に比較して温度と時間を大幅に節減して純炭素に近い(発熱量測定で純炭素比の94〜98%)木炭を得た事象がある。
カキ殻は主体のCaに多くの有機質が結合したもので、その含有する構造水の悪臭が現場を悩ます事象を伴う。前述に準じ実施例で示す装置手段で低コストで高品質のカキ殻生石灰を得る。
In the carbonization of organic matter (wood), the present inventors tried a dry distillation method instead of the conventional thermal decomposition (Patent Document 2), far infrared irradiation, nitrogen gas (oxygen-free) atmosphere and superheated steam atmosphere catalytic, There is an event in which a self-mechanistic synergistic environment is similar to pure carbon (94 to 98% of the pure carbon ratio in the calorific value measurement) and charcoal is obtained by greatly reducing temperature and time compared to pyrolysis.
Oyster shells are a combination of Ca, the main component, with many organic substances, and the odor of the structural water contained in them is accompanied by an event that plagues the site. According to the above, high-quality oyster shell quicklime is obtained at low cost with the device means shown in the examples.

梅酢液とカキ殻生石灰とを混和反応させる反応塔は、有意の直径と長さをもつ長円筒形で内面を高機能セラミックス炉壁を装着し、底部を反応剤の貯溜室とし、上部に弱い負圧吸引の蒸気放散口を備える。液剤と生石灰は精密な分析考察に基づくと共に実測も併せて反応均衡分量が設定され別々の輸送管で反応剤貯溜槽と炉内高温で熱せられながら送られ、上部で別々に噴射されて混和反応して高熱を発し炉壁からは遠赤外線が反射される高温雰囲気の中で反応は効率よく進行し反応剤は落下し水蒸気は炉外に放散される。底部に貯った反応剤は取り出されて固液分離される。  The reaction tower that mixes and reacts plum vinegar and oyster shell quicklime is a long cylindrical shape with a significant diameter and length, and the inner surface is equipped with a high-functional ceramics furnace wall, the bottom is a reservoir for the reactants, and the upper is weak. Equipped with a negative pressure suction vapor vent. The liquid and quicklime are based on precise analysis considerations, and the reaction equilibrium amount is set together with actual measurements, sent in separate transport pipes while being heated at a high temperature in the reactor reservoir and in the furnace, and jetted separately at the top to mix and react. Then, the reaction proceeds efficiently in a high temperature atmosphere where high heat is generated and far infrared rays are reflected from the furnace wall, the reactant falls, and water vapor is dissipated outside the furnace. The reactant stored in the bottom is taken out and separated into solid and liquid.

固液分離した液剤には特殊腐植物質抽出液を3%加えて複数の電極を組合せた多段式循環での電気分解によって清浄度を高める。電極は上、下や流動装置に合わせ下方、上流に(+)極を上方、下流位置に(−)極を配置し、槽の側面は機能性セラミックスを装備して遠赤外線等放射と、クラスター微細化環境で電子の移動を活性化する。  To the liquid that has been separated into solid and liquid, 3% of special humic substance extract is added to increase the cleanliness by electrolysis in a multistage circulation in which a plurality of electrodes are combined. The electrode is arranged in accordance with the upper, lower and flow devices, and the (+) pole is arranged at the upstream, the (+) pole is arranged at the upstream, and the (-) pole is arranged at the downstream position. Activates the movement of electrons in a miniaturized environment.

石膏品質の固形物と、電気分解を経た清浄液剤はそれぞれその含有する成分を精査し、固形物は乾燥焼結等によって機能性構造体としての需要に仕向ける。清浄化した液剤はミネラル資材としての需要に仕向ける。  Gypsum-quality solids and electrolyzed cleaning fluids are each examined for the components they contain, and the solids meet demand for functional structures by dry sintering or the like. Purified liquid preparations meet demand for mineral materials.

総括的に説明すると梅酢液は酸っぱさの素であるクエン酸やピクリン酸を含む模範的食品機能性のエキスで、クエン酸(クレープス)サイクル機能による体内乳酸の生成を抑制する作用やピクリン酸が肝臓機能を高める等疲労を回復する多彩な働きをする。梅ぼしが疲労回復に役立つと云う根拠を教える食べものが体内で消化される図を下記に示す。

Figure 2006198601
一方のカキ殻も食品機能性の秀れたカキを包み育てた殻なので、それを生石灰化したものと梅酢酸との化学反応生成物は本来の特性を失っていないと確信される。最終的浄化液も添加した特殊腐植物質の抽出液(フルボ酸類)の機能も加わった酸性ミネラル液に進化すること信じられるが故に、廃棄物処理の発想はなく、あくまで機能性資源として再生するための化学反応を利用し、その面を強化する方策を極める。In general, plum vinegar is an extract of typical food functionality that contains citric acid and picric acid, which are the elements of sourness, and has the effect of suppressing the production of lactic acid in the body by citric acid (crepes) cycle function and picric acid. It works in a variety of ways to recover fatigue, such as enhancing liver function. The figure below shows how food is digested in the body, which teaches the grounds that umeboshi helps to relieve fatigue.
Figure 2006198601
On the other hand, oyster shells are shells that wrap and grow oysters with excellent food functionality, so it is believed that the chemical reaction product of lime acetic acid and ume acetic acid has not lost its original characteristics. Because it is believed that it evolves into an acidic mineral liquid that also has the function of a special humic substance extract (fulvic acid) with the addition of a final purification solution, there is no idea of waste treatment, and it is to be regenerated as a functional resource only Measures to strengthen the aspect of the chemical reaction.

前項に述べた如く、産業廃棄物視される両資源を、それ等資料がもって生れた特性を生かそうとする次元から、化学反応を経てその目標に迫る本願技術思想は妥当な帰結である。巷に聞く梅の生産地や全国的カキ生産地における環境負荷となっている副産資源は、本発明によって文字通り宝の山となる。本願発明者の生産現場における自然現象の教示によって積重ねて来た資源活用の一つの集積でもある。及ぼす効果は小さくない。  As stated in the previous section, the technical concept of this application that approaches the target through chemical reaction is a reasonable consequence from the dimension of trying to make the best use of the characteristics produced by these materials as both industrial waste. By-product resources that have become environmental burdens in the production areas of plums and oysters nationwide are literally treasures according to the present invention. It is also one accumulation of resource utilization accumulated by teaching the natural phenomenon at the production site of the present inventor. The effect is not small.

発明を実施するための最良の型態Best Mode for Carrying Out the Invention

本発明の取組み次元は、梅果実とカキの食品機能性として勝れた成分が加工反応液や殻にも継承されているとの認識にある。梅の実には成長の頂点では自己防衛機能としての青酸(アミグダリン)があっても、塩の媒介する発酵では機能性と呼ばれる成分に進化する生化学反応があり、カキ殻はやわらかい身を守って積層成長するca中心の生化学反応としての成果物である。カキ殻が高熱で解離エネルギーを与えられて生石灰となって不安定になり、一方強固な結合体の塩化ナトリウムを中心とする有機酸化合液は安定すぎる。その極端に離れた性質の物質を遠赤外線等の触媒機能を借り、高熱を発生して自媒環境となる場を与えるのが反応塔である。両物質が反応塔で繰り広げるドラマの結末は精査しなければ断言は出来ないが、今の環境汚染社会に明るさを提供する一の事象となる。その為には遠隔的関係にある両産地の有機的互換協力が必要となる。  The approach dimension of the present invention lies in the recognition that ingredients that have been superior in food functionality of plum fruit and oysters are inherited by processing reaction liquids and shells. Plum seeds have cyanide (amygdalin) as a self-defense function at the top of growth, but there is a biochemical reaction that evolves into a component called functionality in fermentation mediated by salt, and the oyster shell protects the soft body This is a product as a ca-centered biochemical reaction that grows in layers. Oyster shells are dissociated with high heat and become unstable lime, while the organic oxidization mixture centering on sodium chloride, a strong conjugate, is too stable. It is the reaction tower that gives a place where the material of the extremely distant nature has a catalytic function such as far-infrared rays and generates high heat to become a self-supporting environment. The ending of the drama that both substances unfold in the reaction tower cannot be affirmed unless they are scrutinized, but it will be an event that provides brightness to the current environmentally polluted society. For this purpose, organic compatibility cooperation between the two production areas that are in a remote relationship is required.

以下図面を参照して説明する。  This will be described below with reference to the drawings.

図1FIG.

カキ殻を高温焼成する装置の縦断図で廃熱処理装置も含むLongitudinal view of equipment for firing oyster shells at high temperature, including waste heat treatment equipment

図2FIG.

図1装置の焼成炉の横断図である1 is a cross-sectional view of the firing furnace of the apparatus.

図3FIG.

梅酢酸とカキ殻生石灰の混和反応塔の縦断図であるIt is a longitudinal section of the mixing reaction tower of ume acetic acid and oyster shell quicklime

図4FIG.

電解装置の縦断鳥瞰図であるIt is a longitudinal bird's-eye view of an electrolysis device

1−は、焼成炉で2−はその炉床で、3−は天井壁である。4−は素材供給装置、5−は焼成材搬出スクリゥーである、7−はガスバーナーである。8−は排ガスの熱交換装置で、6−の排気管で連結されている。9は排ガス通路管で、10−煙突に吸引される。11は熱交換水槽で、12−のカスケートポンプで水が供給され、11’−の蒸気口から蒸気を噴出する。13−の反応塔は、14の炉壁を備え、13’−の反応剤取出口を備える。17−は梅酢酸の供給装置で、18−はカキ殻生石灰粉体供給装置で、17’−、18’−でそれぞれ噴出される。13’は反応剤取出し口で、取り出されて個遮分離され、複数の19の電気分解槽で多段の電極をかえて処理される。  1 is a firing furnace, 2- is a hearth thereof, and 3- is a ceiling wall. 4- is a raw material supply apparatus, 5- is a fired material carrying-out screw, 7- is a gas burner. 8- is a heat exchange device for exhaust gas, which is connected by an exhaust pipe 6-. Reference numeral 9 denotes an exhaust gas passage pipe, which is sucked into the 10-chimney. Reference numeral 11 denotes a heat exchange water tank. Water is supplied from a 12-caskate pump, and steam is ejected from a steam port 11'-. The 13-reaction tower has 14 furnace walls and a 13'-reactant outlet. 17- is a supply device of ume acetic acid, 18- is a oyster shell quicklime powder supply device, and is ejected at 17'- and 18'-. Reference numeral 13 'denotes a reactant outlet, which is taken out and separated into individual pieces, and is processed by changing a plurality of electrodes in a plurality of 19 electrolysis tanks.

以上の構成に基く動作を説明する。
適度に破砕され、窒素ガスで空気を追い出した貯留カキ殻素材は4−から供給される。7−のガスバーナーが着火されると素材は乾溜され乾溜ガスの可燃分も対向流燃焼されて天井上部をガス層となって下方に吸引されて累進高温となる。熱に反応して炉壁から遠赤外線が放射され、無酸素、過熱蒸気の触媒、自媒機能雰囲気が維持されて炉床層を流動する素材は効率的に乾溜気化されてcaoとなり、焼結の終わった成品は5−のスクリゥーで搬出される。
An operation based on the above configuration will be described.
The stored oyster shell material that has been appropriately crushed and purged of air with nitrogen gas is supplied from 4-. When the 7-gas burner is ignited, the material is dry-distilled, and the combustible portion of the dry-distilled gas is also counter-flow burned, and the upper part of the ceiling becomes a gas layer and is sucked downward to a progressively high temperature. Far infrared rays are radiated from the furnace wall in response to heat, oxygen free, superheated steam catalyst, autogenous functional atmosphere is maintained, and the material flowing through the hearth layer is efficiently dry-distilled into cao and sintered The finished product is taken out with a 5-screen.

6−排気管を通った燃焼ガスは、出口でハニカム(燃焼ガス再燃装置−本田技研工業(株))で加熱され8の熱交換装置の9−の煙管を通り、12−のカスケートポンプで水を供給される11の水槽水を熱する。水槽水は蒸気となって11’より噴出する。
11’から噴出する蒸気圧力は、1−の焼成炉の規模によって左右されるが、大型となれば熱量が大きくなり別特願2004−209241によって発電まで利用拡大される。
カキ殻素材が塩分を含んでいることから、高温で熱せられダイオキシンの生成が懸念されるのでハニカムによる高温化で生成ゾーン(800℃)を避け、又最終排気を水によるベンチュリスクラバ機構の吸引によって急速に冷却して再結晶を防ぐ手段を重ねて講じる。
6- Combustion gas that has passed through the exhaust pipe is heated by a honeycomb (combustion gas reburning device-Honda Motor Co., Ltd.) at the outlet, passes through 9-smoke tube of 8 heat exchange device, and 12-caskate pump 11 tank water supplied with water is heated. Aquarium water becomes steam and spouts from 11 '.
The steam pressure ejected from 11 'depends on the scale of the 1-firing furnace, but if it becomes large, the amount of heat increases, and the use is expanded to power generation by another Japanese Patent Application No. 2004-209241.
Since the oyster shell material contains salt, it is heated at high temperature and dioxins may be generated. Therefore, the formation temperature (800 ° C) is avoided by the high temperature by the honeycomb, and the final exhaust is absorbed by the venturi scrubber mechanism by water. Take measures to cool rapidly and prevent recrystallization.

焼結された生石灰は微粉化され、反応塔の18から供給され、18’から噴出される。一方の梅酢酸は17の供給装置で圧送され、17’から噴出され、生石灰と混和され、効率よく水酸化反応と酸の中和反応が同時に進行して高熱を発する。反応塔は内壁を高機能セラミックス炉壁が装備されているので、遠赤外線の放射も加わる高熱雰囲気が維持され、完全に反応が完了して、13’から取出されて固液分離される。  The sintered quicklime is pulverized and supplied from the reaction tower 18 and ejected from 18 '. On the other hand, ume acetic acid is pumped by 17 supply devices, ejected from 17 ', mixed with quick lime, and efficiently produces a high heat by simultaneously proceeding hydroxylation reaction and acid neutralization reaction. Since the reaction tower is equipped with a high-functional ceramics furnace wall on the inner wall, a high-heat atmosphere to which far-infrared radiation is also applied is maintained, the reaction is completely completed, and it is taken out from 13 'and separated into solid and liquid.

分離された液剤は多段式水槽で電気分解される。その電極は上、下、或いは流動する上、下流位置で下段或いは上流に(+)電極を設置し、上段或いは下流に(−)電極を設置する。1段目水槽の電極は(+)に導電性の高い銅を用い(−)電極は導電性の低い炭素棒等を用いる。2段目以下の(−)電極は有意に交換し、最後は酸化チタンを用いる。相対アンペアや電圧は細心の調整が必要なことは云うまでない。  The separated liquid agent is electrolyzed in a multistage water tank. The electrode moves up, down, or flows, and at the downstream position, a (+) electrode is installed at the lower stage or upstream, and a (-) electrode is installed at the upper stage or downstream. For the electrode in the first stage water tank, copper having high conductivity is used for (+), and a carbon rod having low conductivity is used for the (−) electrode. The (−) electrodes in the second and lower stages are significantly replaced, and finally titanium oxide is used. Needless to say, the relative amperage and voltage need to be carefully adjusted.

梅加工残液とカキ殻は近より難い廃棄物化し、その処理にかかわる社会の監視の目は厳しく、経済的負担を強いられる現状である。
しかしながら、梅酢液又はカキ殻は共に食品機能性抜群の素材で梅酢液は梅果実の発酵エキスであり、一方のカキ殻は海中ミネラルによって育成されたカキを包み込んで積層生長したカルシウム集積生化学化合物である。
本願発明者等は両物質の起源特性に愛着を感じその活用の途あるを信じて、その手段の一つとなるカキ殻生石灰のもつ特性に刮目し、その特性と梅酢液の塩分と複合有機酸とに成る発酵エキスとの織り成す水酸化反応と酸中和反応の発熱現象を活用する高機能反応塔よる再生を目指した。
(0004)項等における利用過程で両者の保持する機能を知り,(0005)項のバイオマスの乾溜炭化の並外れた化学反応の実態を知って本願構想にたどり着いた。
Plum processing residue and oyster shells are becoming more difficult waste than ever before, and the social monitoring of the processing is severe and the economic burden is being imposed.
However, both plum vinegar and oyster shells are excellent food functional ingredients, and plum vinegar is a fermented extract of plum fruit, while one oyster shell wraps oysters grown with marine minerals and grows a layer of calcium accumulated biochemical compounds. It is.
The inventors of the present application are enthusiastic about the origin characteristics of both substances and believe that they are still in use, and look at the characteristics of oyster shell quicklime, which is one of the means. Aiming at regeneration by a high-performance reaction tower utilizing the exothermic phenomenon of hydroxylation reaction and acid neutralization reaction woven with fermented extract.
We knew the function held by both in the utilization process in (0004) and the like, and came to the idea of the present application by knowing the actual state of the extraordinary chemical reaction of carbonization of biomass in (0005).

反応成果物はもはや産廃資源ではなく宝の資源である。石膏系の固化物は例えばカキの栄養源となる海草の基盤づくりの材料の一部となり、海草の増殖を通して海水環境の浄化と冨化に寄与して魚介類の生産業に貢献する。分離された液剤は例えばマリネックス抽出液の3%添加熟成によって酸性ミネラルとなって、梅の栽培圃場で、樹勢悪化の原因の一つであるモンパ病由縁の土壌劣化を救う救世主ともなり得る。共に特殊機能を保持する貴重な資源の再生である。
発明者等の自然現象の教示に支えられた技術の積重ねを社会に還元できる路ともなり、全国的に散在する環境負荷資源が各産地の連携によって特殊な機能性資源に再生され、それが再び原産地に還元されてその産業振興に貢献する循環産業が成立する。
The reaction product is no longer an industrial waste resource but a treasure resource. The gypsum-based solidified material becomes a part of the material for the foundation of seagrass, which is a nutrient source for oysters, for example, and contributes to the fishery industry by purifying and hatching the seawater environment through the growth of seagrass. The separated liquid becomes an acidic mineral by adding and ripening 3% of the Marinex extract, for example, and can be a savior that saves soil deterioration caused by Mampa disease, which is one of the causes of deterioration of the vigor in the cultivation field of plums. Both are the regeneration of valuable resources that hold special functions.
It becomes a way to return to society the accumulation of technology supported by the teaching of natural phenomena of the inventors, etc., and environmental load resources scattered throughout the country are regenerated into special functional resources by cooperation of each production area. A recycling industry that contributes to the promotion of the industry by returning to the place of origin is established.

カキ殻を高温焼成する装置の縦断図で排熱処理も含む。Exhaust heat treatment is included in a longitudinal view of an apparatus for firing oyster shells at high temperature. 図−1装置の焼成炉の横断図Fig. 1 Cross section of firing furnace 梅酢液とカキ殻生石灰の混和反応炉の縦断図Longitudinal view of the mixing reactor of plum vinegar and oyster shell quicklime 電解装置縦断鳥瞰図Electrolytic device longitudinal view

符号の説明Explanation of symbols

1−焼成炉、2−炉床、3−天井壁、4−素材供給装置、5−焼成材搬出スクリュー、6−排気管、7−ガスバーナー、8−排ガスの熱交換装置、9−排ガス通路管、10−煙突、11−熱交換水槽、11‘−蒸気口、12−カスケードポンプ、13−反応塔、13‘−反応剤取出口、14−炉壁、17−梅酢液供給装置、17’−噴射口、18−カキ殻生石圧粉体供給装置、18‘−噴射口、19−電気分解槽1-firing furnace, 2-furnace floor, 3-ceiling wall, 4-material supply device, 5-fired material take-out screw, 6-exhaust pipe, 7-gas burner, 8-exhaust heat exchanger, 9-exhaust passage Tube, 10-chimney, 11-heat exchange water tank, 11'-steam port, 12-cascade pump, 13-reaction tower, 13'-reactant outlet, 14-furnace wall, 17-plum vinegar supply device, 17 ' -Injection port, 18-Oyster shell green compact powder supply device, 18 '-Injection port, 19-Electrolysis tank

Claims (5)

梅漬加工残液(以下梅酢液)と、海洋生物の牡蠣殻(以下カキ殻)を高温焼成して生石灰としたものを、高機能反応塔で噴射混和し、水酸化反応と有機酸中和反応の化学反応経過によって、有機固形物の凝集沈殿と酸中和を進行せしめて分離し、上澄み液剤を多段循環させながら、新機構の電気分解装置によって、浄化する。梅酢液は梅の特有成分が塩とおりなす生化学的反応である発酵によって変化生成されたエキスであり、カキ殻は海中においてミネラルの濃縮された生物栄養によって成長した有意の成果を保持しているので、反応塔における、両反応の発熱に依る反応塔内の触媒的機能を高めて両物体の活性化エネルギーの丘を低くし、解離エネルギーを付与して生化学的融合反応により新しい機能性を有する物質に進化する機構の構造であることを特徴とする 梅酢液並びにカキ殻を高機能性資源に再生する方法。  Plum pickled processing residue (hereinafter referred to as plum vinegar) and marine organism oyster shell (hereinafter referred to as oyster shell), which is calcined at high temperature, are jetted and mixed in a high-performance reaction tower to produce hydroxylation reaction and organic acid neutralization reaction. In the course of the chemical reaction, the organic solids are separated by agglomeration and precipitation and acid neutralization, and purified by an electrolysis apparatus with a new mechanism while circulating the supernatant liquid in multiple stages. Plum vinegar is an extract produced by fermentation, which is a biochemical reaction in which a specific component of plum is salted, and oyster shell retains significant results grown in the sea by mineral-enriched bionutrition. Therefore, in the reaction tower, the catalytic function in the reaction tower due to the exothermic heat of both reactions is increased to lower the activation energy hills of both objects, and dissociation energy is added to provide new functionality by biochemical fusion reaction. A method for regenerating ume vinegar and oyster shells into highly functional resources, characterized in that the structure of the mechanism evolves into a substance having the same. 請求項1のカキ殻を高温焼成する装置は、平面炉床と近半円形天井壁より成り、素材が自然流下する有意の角度と長さを有する斜傾炉で、内面に機能性セラミックス炉壁を装着し、下方天井壁端に強力な吸引機能口を設ける。上部に素材供給口を備え、天井壁上部に複数のガスバーナ熱源口を設け、上方に向けた燃焼炎を下方に吸引して、対向流燃焼反応させ素材と燃焼ガス流を平行させながら、乾溜ガスの可燃分も燃焼せしめて、燃焼炉内の天井上層を流動するガス流炎は、下方に下る程累進高温の無酸素と過熱蒸気雰囲気の自媒環境となる機構により、熱せられた炉壁からは設定された遠赤外線等の輻射熱線が放射・反射され、燃焼炉炉床層を流下する素材には天井壁からの熱線放射と、ガスの流動熱、そして炉床からの伝導熱によって、酸欠乾溜的に焼成されて炭酸ガス等を放出して生石灰化に至る機能構造であることを特徴とする請求項1記載の 梅酢液並びにカキ殻を高機能性資源に再生する方法。  The apparatus for firing the oyster shell at high temperature according to claim 1 is a slanting furnace comprising a flat hearth and a near semicircular ceiling wall, and having a significant angle and length through which the material naturally flows down. And provide a strong suction function port at the lower ceiling wall edge. A material supply port is provided at the top, and a plurality of gas burner heat source ports are provided at the top of the ceiling wall. The combustion flame directed upwards is sucked downward to cause a counter-flow combustion reaction so that the material and the combustion gas flow are parallel. The gas flow flame that flows through the upper ceiling of the combustion furnace with the combustible part of the combustion chamber is heated from the heated furnace wall by a mechanism that becomes a self-supporting environment of progressively hot oxygen-free and superheated steam atmosphere as it goes down. The far-infrared radiant heat rays that are set are radiated and reflected, and the material flowing down the furnace hearth layer is heated by radiation from the ceiling wall, gas flow heat, and conduction heat from the hearth. The method for regenerating ume vinegar and oyster shells into high-functional resources according to claim 1, characterized in that the functional structure is obtained by calcining in a dry state and releasing carbon dioxide or the like to lead to quick calcification. 請求項1の反応塔は、有意の直径と長さの長円筒形で、内壁に高機能のセラミックス炉壁を装着し、上部に弱い負圧吸引の蒸気放散口を設け、底部に反応剤の取出し装置が設けられ、取出し後固液分離される。
梅酢液とカキ殻生石灰は、それぞれの含有成分が科学的に測定並びに実測された均衡量が設定されて、底部から別々の輸送管で高温となった反応剤並に塔内温度によって加熱されて上方位置で噴射拡散状で混和されて融合反応する機能構造であることを特徴とする請求項1の記載の 梅酢液並びにカキ殻を高機能性資源に再生する方法。
The reaction tower of claim 1 has a long cylindrical shape with a significant diameter and length, is equipped with a highly functional ceramic furnace wall on the inner wall, a weak negative pressure suction vapor diffusion port is provided at the top, and a reactant is provided at the bottom. A take-out device is provided, and solid-liquid separation is carried out after take-out.
Plum vinegar and oyster shell quicklime are heated by the temperature of the reactor as well as the reactants, each of which contains scientifically measured and measured equilibrium amounts, which are set to high temperatures in separate transport pipes from the bottom. The method for regenerating ume vinegar and oyster shells into highly functional resources according to claim 1, wherein the functional structure is such that it is mixed in a jet diffusion state at the upper position and undergoes a fusion reaction.
請求項1の電気分解装置は、上下、或いは液体の流れに対して配置された複種の電極の組合せ順序を(+)→(−)とし、液に3%相当の特殊腐植物質抽出液を加えてフルボ酸機能等を高めて電子の活動を活性化する構成になることを特徴とする請求項1記載の 梅酢並びにカキ殻を高機能性資源に再生する方法。  In the electrolysis apparatus according to claim 1, the combination order of two or more types of electrodes arranged in the vertical or liquid flow is (+) → (−), and a special humic substance extract equivalent to 3% is added to the liquid. The method for regenerating ume vinegar and oyster shells into high-functional resources according to claim 1, wherein the function of fulvic acid is enhanced to activate electronic activity. 請求項1の反応成果物は固液分離される。原液剤は生合成された食品機能性の高さに定評ある梅果実の更なる発酵生成物、又一方は一次海産物の副生物である。前項手段によった上で健康機能性としての原因物質を捕集する手段を重ねる機構であることを特徴とする請求項1記載の 梅酢液並びにカキ殻を機能性資源に再生する方法。  The reaction product of claim 1 is subjected to solid-liquid separation. The stock solution is a further fermented product of plum fruit that is well-established for its biosynthesized food functionality, while the other is a by-product of primary marine products. The method for regenerating ume vinegar and oyster shells into functional resources according to claim 1, wherein the mechanism is a means for stacking means for collecting the causative substance as health functionality after the means of the previous item.
JP2005043087A 2005-01-21 2005-01-21 Method for recycling apricot vinegar liquid and oyster shell as highly functional resource Pending JP2006198601A (en)

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Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2009082861A (en) * 2007-10-02 2009-04-23 Takuma Co Ltd Effluent suppressing method for heavy metal containing hexavalent chromium in ash
JP2011012000A (en) * 2009-06-30 2011-01-20 Kyoto Sangyo Univ Anti-avian influenza virus agent containing lime originated from oyster shell, material for livestock industry for mammals or fowls, feed for livestock industry for mammals or fowls, food container and sanitary good
JP4824827B1 (en) * 2010-09-13 2011-11-30 弥一 小原 Steam boiler using solid biomass or coal as fuel
CN114226402A (en) * 2021-12-22 2022-03-25 东莞华梦环保新材料技术有限公司 Domestic wet garbage decomposition and grouping pushing agent

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2009082861A (en) * 2007-10-02 2009-04-23 Takuma Co Ltd Effluent suppressing method for heavy metal containing hexavalent chromium in ash
JP2011012000A (en) * 2009-06-30 2011-01-20 Kyoto Sangyo Univ Anti-avian influenza virus agent containing lime originated from oyster shell, material for livestock industry for mammals or fowls, feed for livestock industry for mammals or fowls, food container and sanitary good
JP4824827B1 (en) * 2010-09-13 2011-11-30 弥一 小原 Steam boiler using solid biomass or coal as fuel
CN114226402A (en) * 2021-12-22 2022-03-25 东莞华梦环保新材料技术有限公司 Domestic wet garbage decomposition and grouping pushing agent

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