JP2010115633A - Chemical reaction device by temperature and pressure, and treatment method using the same - Google Patents

Chemical reaction device by temperature and pressure, and treatment method using the same Download PDF

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JP2010115633A
JP2010115633A JP2008316230A JP2008316230A JP2010115633A JP 2010115633 A JP2010115633 A JP 2010115633A JP 2008316230 A JP2008316230 A JP 2008316230A JP 2008316230 A JP2008316230 A JP 2008316230A JP 2010115633 A JP2010115633 A JP 2010115633A
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Yutaka Tsuchiya
豊 土屋
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    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
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Abstract

<P>PROBLEM TO BE SOLVED: To provide a device which eliminates equipment cost problems of a boiler, and at the same time carries out a shared treatment of a simplification in a condition setting of control, an expansion treatment, a hydrothermal treatment, and a treatment of recovering an extraction liquid by the same machine. <P>SOLUTION: A chemical reaction by a temperature and pressure is carried out by an electric heating coil directly heating the lower half of a treatment container with radius R to the treatment container, a cooling coil lowering the temperature by circulating cooling water in the upper half of the treatment container with radius R, an operating mouth carrying out an injection of moisture, a pressurizing operation, or a depressurizing operation, before a reaction operation due to the heating, a stirring mechanism of stirring an object to be treated in the treatment container, a pressure control mechanism of finely controlling the pressure in the container by a control device, a negative pressure container of preventing a deterioration in the reaction extraction liquid, an inclined angle-variable mechanism of operating the inclined angle of a whole reactor system to make easy the discharge of the reaction extraction liquid in the treatment container, and a managed control device of carrying out an umbrella administration and controlling a historical management. <P>COPYRIGHT: (C)2010,JPO&INPIT

Description

本発明は、有機系の被処理物を温度と圧力による化学反応を用い性状処理し変化させる反応装置とそれを用いた処理方法に関するものである。  The present invention relates to a reaction apparatus that changes the properties of an organic object to be treated by using a chemical reaction by temperature and pressure, and a treatment method using the reaction apparatus.

戦後不要になった大砲を改造して圧力釜にし、これに米を入れて高熱高圧でデンプンを糊化し、大気中に放出し急激な気圧変化により膨張化処理を行う穀類膨張機でオオムギ、ソバ、餅、トウモロコシ、大豆、空豆、銀杏、マカロニ等を処理する技術や、低分子量アルコールを主成分とする溶媒と、多糖類系物質とを含有する被処理物を密閉容器内に収容し、前記密閉容器内を前記低分子量アルコールの超臨界状態に加圧加熱処理する多糖類系物質処理方法を用いた水熱処理技術等が知られている。  A cannon that was no longer needed after the war was remodeled into a pressure kettle, rice was put into it, starch was gelatinized with high heat and high pressure, released into the atmosphere, and expanded to a rapid pressure change. Barley and buckwheat , A technique for treating straw, corn, soybeans, empty beans, ginkgo, macaroni, and the like, a solvent containing a low molecular weight alcohol as a main component, and a substance containing a polysaccharide substance in a sealed container, A hydrothermal treatment technique using a polysaccharide-based material treatment method in which the inside of a sealed container is pressurized and heated to a supercritical state of the low molecular weight alcohol is known.

特許文献1には、野菜屑や食肉屑等の動植物細片を、圧力容器に入れ密閉し、湿潤状態で144〜175℃、ゲージ圧で3〜8kg/cm2に加熱・加圧して、5分以上蒸煮処理した後、圧力容器から急激に大気圧下に排出して、動植物組織内の水分を瞬時に気化爆発させて、動植物細片を破砕し、その中の水分を水蒸気として除去することを特徴とする動植物細片の処理方法、及び、処理装置が提案されている。この方法は、膨張化処理を行うには最適な処理装置であるが、水熱処理による反応抽出液を採取する装置には適さない問題点がある。  In Patent Document 1, animal and plant strips such as vegetable scraps and meat scraps are sealed in a pressure vessel, heated and pressurized at 144 to 175 ° C. in a wet state and 3 to 8 kg / cm 2 with a gauge pressure for 5 minutes. After the above steaming treatment, suddenly discharge from the pressure vessel to atmospheric pressure, instantaneously vaporize and explode the water in the animal and plant tissue, crush the animal and plant debris, and remove the water in it as water vapor A featured animal and plant strip processing method and processing apparatus have been proposed. This method is an optimal processing apparatus for performing the expansion treatment, but has a problem that it is not suitable for an apparatus for collecting a reaction extract by hydrothermal treatment.

特許文献2には、有機系廃棄物を破砕機7により細かく砕き反応器R1〜Rnに提供するとともにボイラー3からの蒸気により蒸気分解を行う。分解物Bは固気液分離装置4により液体成分は、液体肥料として系外にだされ、固形成分は乾燥装置5に供給され乾燥される。その後一部は調整装置6にて成分調整され、造粒装置7にて粒状に成形された分解物Bの固形成分は、粒状肥料として外部に出荷される。乾燥後の残りは、系外にだされ肥料原料となる有機系廃棄物処理装置及び方法並びに蒸気分解用反応器が提案されている。この方法は、ボイラーからの蒸気により蒸気分解を行うことに特化した装置であり、膨張化処理を行うには適さない問題点がある。  In Patent Document 2, organic waste is finely crushed by a crusher 7 and provided to reactors R1 to Rn, and steam decomposition is performed with steam from the boiler 3. The decomposition product B is discharged from the system as a liquid fertilizer by the solid-gas-liquid separator 4 and the solid component is supplied to the drying device 5 and dried. Thereafter, a part of the components is adjusted by the adjusting device 6, and the solid component of the decomposed product B formed into granules by the granulating device 7 is shipped to the outside as granular fertilizer. An organic waste treatment apparatus and method, and a reactor for steam cracking, which are left outside the system and used as a fertilizer raw material, have been proposed. This method is an apparatus specialized for performing steam decomposition with steam from a boiler, and has a problem that is not suitable for performing expansion treatment.

特許文献3には、高温高圧の飽和水蒸気で食品残さ・木くず・紙くずを加水分解、熱分解、乾燥、炭化の手順で処理し、有機化合物をブドウ糖・アミノ酸・高級脂肪酸等に分解、又は活性炭化する原料加工方法、飼料製造方法、肥料製造方法並びに原料加工装置が提案されている。この方法は、内側の処理釜と外側の加熱保温釜からなる二重構造の釜を用い、蒸し、加水分解、熱分解を時分割処理する優れた処理方法であるが、圧力11kg/cm2の圧力を二重構造の釜で対応するには技術的難易度や釜本体の重量が増す問題点と、水分を瞬時に気化爆発させ炭化処理する場合、ボイラーからの水蒸気に含まれる水分を配慮し、供給温度と圧力を高く設定する必要を生じる問題点がある。  In Patent Document 3, food residue, wood waste, and paper waste are hydrolyzed, pyrolyzed, dried, and carbonized with saturated steam at high temperature and high pressure to decompose organic compounds into glucose, amino acids, higher fatty acids, etc., or active carbonization. A raw material processing method, a feed manufacturing method, a fertilizer manufacturing method, and a raw material processing apparatus have been proposed. This method is an excellent treatment method in which steaming, hydrolysis, and thermal decomposition are performed in a time-sharing manner using a double-structured kettle composed of an inner treatment kettle and an outer heated and warming kettle, but the pressure is 11 kg / cm 2. In order to cope with a double structure kettle, the technical difficulty and the problem that the weight of the kettle body increases, and when moisture is instantly vaporized and explosively carbonized, consider the moisture contained in the steam from the boiler, There is a problem in that it is necessary to set the supply temperature and pressure high.

特許文献4には、処理対象物が収納された圧力容器内に蒸気を供給することにより対象物を蒸気分解する蒸気処理装置であって、蒸気が圧力容器の内壁に付着して液化した凝縮液を回収する凝縮液回収手段と、蒸気分解によって得られる処理対象物の抽出液を回収する抽出液回収手段とを具備する蒸気処理装置が提案されている。この方法は、抽出液回収手段を設けることで、蒸気に含まれる水分によって希釈されるのを防止できる優れた処理方法であるが、抽出液回収手段に特化した機構であるため処理対象物の温度分布にむらがあり、他の目的での使用には適さない問題点がある。  Patent Document 4 discloses a steam processing apparatus that steam decomposes an object by supplying steam into a pressure vessel in which the object to be processed is stored, and the condensed liquid that is liquefied by the vapor adhering to the inner wall of the pressure container. There has been proposed a steam processing apparatus comprising a condensate recovery means for recovering water and an extract liquid recovery means for recovering an extract of a processing object obtained by steam decomposition. This method is an excellent processing method that can prevent dilution by moisture contained in the steam by providing the extract collecting means, but since it is a mechanism specialized for the extract collecting means, There is a problem in that the temperature distribution is uneven and not suitable for other purposes.

特許文献5には、有機廃棄物12が内部に収容される収容体14に、有機廃棄物12を攪拌するための攪拌手段82,90,92,94,98を設けると共に、高温高圧加熱蒸気を収容体内に供給する加熱蒸気供給手段68,70,72を設け、更に、かかる加熱蒸気供給手段68,70,72による収容体14内への高温高圧加熱蒸気の供給に先立って、収容体14内を減圧する減圧手段75c,78,80を設けて、減圧状態の収容体14内において、収容体14内に収容された有機廃棄物12を攪拌しつつ、高温高圧加熱蒸気に接触せしめて煮熱処理するように構成した有機廃棄物の処理装置及び処理方法が提案されている。この方法は、蒸気の供給前に収容体内を減圧し有機廃棄物の内部に閉じこめられた空気を吸引し温度上昇の妨げとなっていた要因を排除した優れた処理方法であるが、ボイラーからの水蒸気に含まれる水分に対するの配慮や抽出液回収手段が提供されていない問題点がある。  In Patent Document 5, stirring means 82, 90, 92, 94, and 98 for stirring the organic waste 12 are provided in the container 14 in which the organic waste 12 is stored, and high-temperature and high-pressure heating steam is supplied. Heating steam supply means 68, 70, 72 for supplying the inside of the container are provided, and the high-temperature and high-pressure heating steam is supplied into the container 14 by the heating steam supply means 68, 70, 72. The pressure reducing means 75c, 78, 80 for reducing the pressure is provided, and in the container 14 in the reduced pressure state, the organic waste 12 accommodated in the container 14 is stirred and brought into contact with high-temperature high-pressure heating steam to boil heat treatment. An organic waste processing apparatus and a processing method configured as described above have been proposed. This method is an excellent treatment method that eliminates the factor that hindered the temperature rise by reducing the pressure inside the container before supplying steam and sucking the air trapped inside the organic waste. There is a problem that consideration for moisture contained in water vapor and means for collecting an extract are not provided.

特許文献6には、処理容器2内において天然原料を水熱反応させて低分子化処理し、所定の温度まで冷却した後に、処理容器2内に不活性ガスを注入して陽圧の不活性ガス雰囲気下に保持しながら回収する低分子化天然素材、低分子化天然素材の製造方法およびこれらを用いた微生物製剤が提案されている。この方法は、低分子化天然素材が酸化するのを防止すると共に微生物汚染されるのを防止する優れた製造方法であるが、置換ガスを必要とし、それに伴い機構や制御が複雑になる問題点がある。  In Patent Document 6, a natural raw material is subjected to a hydrothermal reaction in the processing vessel 2 to reduce the molecular weight, and after cooling to a predetermined temperature, an inert gas is injected into the processing vessel 2 to inactivate positive pressure. Proposed are low-molecular-weight natural materials that are collected while being held in a gas atmosphere, methods for producing low-molecular-weight natural materials, and microbial preparations using these. This method is an excellent manufacturing method that prevents oxidation of low molecular weight natural materials and contamination of microorganisms. However, this method requires a replacement gas, resulting in complicated mechanisms and control. There is.

特許文献7には、約200℃/2MPaと言う高温高圧の水蒸気を処理室110に導入して、この高温高圧の水蒸気の水成分と水蒸気の熱にて被処理物を処理室110にて水熱処理するに際し、ボイラ120が圧送する水蒸気を蒸気過熱ヒータ130で加熱する。また、水蒸気導入に先立ち、処理室110に高圧エアーを導入して処理室110内を予め高圧環境としておくと共に、前回の水熱処理の際の残存水蒸気を水熱処理に処す前の被処理物に噴霧して、当該被処理物を予め昇温させておく。こうしたことにより、処理室110における処理環境を高温高圧に維持する水蒸気の熱と水成分にて被処理物を水熱処理する水熱処理装置と方法が提案されている。この方法は、水蒸気導入に先立ち処理室に高圧エアーを導入して予め高圧環境としておくと共に、前回の残存水蒸気を水熱処理前の被処理物に噴霧し当該被処理物を予め昇温させておく優れた処理方法であるが、ボイラと蒸気過熱ヒータにより200℃/2MPaの性能が確保されているため、圧力上昇時間を短縮するためのコンプレッサー導入は機構や制御が複雑になりコスト上昇を招く問題点や処理後の残存水蒸気にはアンモニアやテルペン類や樹脂由来の揮発成分が含まれているため、次回の処理物を汚染する問題点がある。  In Patent Document 7, high-temperature and high-pressure steam of about 200 ° C./2 MPa is introduced into the processing chamber 110, and the object to be processed is treated with water in the processing chamber 110 by the water component of the high-temperature and high-pressure steam and the heat of the steam. When the heat treatment is performed, the steam heated by the boiler 120 is heated by the steam superheater 130. Prior to the introduction of water vapor, high-pressure air is introduced into the processing chamber 110 so that the inside of the processing chamber 110 is preliminarily set in a high-pressure environment, and the residual water vapor in the previous hydrothermal treatment is sprayed on the object to be treated before being subjected to the hydrothermal treatment. Then, the temperature of the object to be processed is raised in advance. Thus, a hydrothermal treatment apparatus and method for hydrothermally treating an object to be treated with the heat and water components of water vapor that maintain the treatment environment in the treatment chamber 110 at a high temperature and high pressure have been proposed. In this method, prior to the introduction of water vapor, high-pressure air is introduced into the processing chamber so as to obtain a high-pressure environment in advance, and the previous residual water vapor is sprayed on the object to be processed before hydrothermal treatment to raise the temperature of the object to be processed in advance. Although it is an excellent treatment method, the performance of 200 ° C / 2MPa is ensured by the boiler and the steam superheater, so the introduction of the compressor to shorten the pressure rise time makes the mechanism and control complicated and the cost increases Since the remaining water vapor after processing and ammonia contains volatile components derived from ammonia, terpenes and resins, there is a problem of contaminating the next processed product.

特開平08−168750号公報Japanese Patent Laid-Open No. 08-168750 特開2002−113444号公報JP 2002-113444 A 特開2003−047409号公報Japanese Patent Laid-Open No. 2003-047409 特開2005−230726号公報JP 2005-230726 A 特開2007−021410号公報JP 2007-021410 A 特開2007−098367号公報JP 2007-098367 A 特開2008−055285号公報JP 2008-055285 A

しかしながらボイラーによる加熱・加圧は設備費が高額であり、処理容器内の圧力は、高圧水蒸気の注入量で調節するようになっていて、この高圧水蒸気の圧力に付随して温度が定まる。ボイラーの方式により発生させ得る水蒸気の最大圧力が決定されるが、従来の処理圧力は2MPa程度であり、圧力が約1.96MPaの水蒸気には約8〜11%の水分が含まれているため、水分の少ない水蒸気を得るには蒸気過熱ヒータを用いて乾燥状態の水蒸気を得る必要が生じるという問題と設備費の低減という課題を有していた。  However, heating and pressurization by a boiler are expensive in equipment cost, and the pressure in the processing vessel is adjusted by the amount of high-pressure steam injected, and the temperature is determined in accordance with the pressure of this high-pressure steam. Although the maximum pressure of water vapor that can be generated by the boiler method is determined, the conventional processing pressure is about 2 MPa, and the water vapor of about 1.96 MPa contains about 8 to 11% of water. However, in order to obtain water vapor with a low water content, it was necessary to obtain water vapor in a dry state using a steam superheater, and there was a problem of reduction in equipment costs.

また、従来の温度と圧力による化学反応装置では、ボイラーの設備費と共に耐圧容器を含めたこれらの付帯設備も設備費が高額であり、作業効率を向上させ費用対効果を下げるべく改良や理想的制御を行うための条件設定の簡素化や膨張化処理装置、水熱処理装置、抽出液回収処理装置を集約し同一の機械で共有処理する装置が求められていた。  In addition, conventional chemical reactors using temperature and pressure are expensive and costly for these incidental facilities, including the pressure vessel, as well as the equipment costs for boilers. There has been a demand for a device that simplifies setting of conditions for performing control, expands an expansion processing device, a hydrothermal treatment device, and an extract recovery processing device, and performs a shared process on the same machine.

そこで本発明は、温度と圧力による化学反応装置の集大成である穀類膨張機の原理である密閉容器内を加熱することで空気が膨張する現象を応用し、ボイラーを必要としない構成の装置とし、ボイラーの設備費問題を解消すると共に、制御の条件設定の簡素化や膨張化処理、水熱処理、抽出液回収処理を同一の機械で共有処理する装置を提供することを課題とする。  Therefore, the present invention applies a phenomenon in which air is expanded by heating the inside of a closed container, which is the principle of a cereal expander, which is a culmination of chemical reaction devices based on temperature and pressure, and is configured as a device that does not require a boiler. It is an object of the present invention to provide a device that solves the boiler facility cost problem and simplifies control condition setting, expands processing, hydrothermal processing, and extract recovery processing by the same machine.

上記の課題を達成するため、請求項1に記載した温度と圧力による化学反応装置は、投入口と排出口を備え耐熱と耐圧を有する処理容器内で化学反応を施す装置において、密閉容器を直接加熱することで温度と圧力による化学反応を実施するため、処理容器に対し、処理容器R半径の下部半分に直接加熱する電熱機構と、処理容器R半径の上部半分に循環冷却水で温度下げる冷却機構と、加熱による反応操作前に水分注入や加圧操作や減圧操作を行う操作口と、処理容器内の処理物を攪拌するモーター・回転軸・攪拌手で構成した攪拌機構と、容器内の圧力を管理制御装置及び電磁弁によって微調整する圧力調整機構と、反応により生成された低分子化生成液の劣化を防止する冷却機構を備えた陰圧容器と、反応装置全体の傾斜角を操作し処理容器内の低分子化生成液排出を楽にする傾斜角可変機構と、これらを統括管理し履歴管理制御する管理制御装置を設けたことを特徴としている。  To achieve the above object, the temperature and pressure chemical reaction apparatus according to claim 1 is an apparatus for performing a chemical reaction in a processing vessel having an inlet and an outlet and having heat resistance and pressure resistance. In order to carry out a chemical reaction by temperature and pressure by heating, an electrothermal mechanism for directly heating the processing vessel to the lower half of the radius of the processing vessel R, and cooling to lower the temperature with circulating cooling water to the upper half of the radius of the processing vessel R A mechanism, an operation port for performing water injection, pressurization operation and decompression operation before the reaction operation by heating, an agitation mechanism composed of a motor, a rotating shaft and an agitator for agitating the processed material in the treatment container, Manipulates the pressure adjustment mechanism that finely adjusts the pressure with a management control device and a solenoid valve, the negative pressure vessel with the cooling mechanism that prevents the degradation of the low molecular weight product liquid generated by the reaction, and the tilt angle of the entire reaction device Place A tiltable mechanism to ease depolymerized product solution discharged in the container, is characterized in that a management control system for supervising and history management controlling them.

この発明は、温められた空気は上昇し冷やされた空気は下降する特性を利用し、効率的に加熱や冷却を実施するもので、密着可能なホットプレートヒーター又はシリコンラバーヒーターを処理容器R半径の下部半分に配置し直接処理容器を加熱する電熱機構と、密着可能な水冷ユニットを処理容器R半径の上部半分に配置し間接的に循環冷却水で処理容器を冷却する冷却機構により、温度と圧力による化学反応処理が実施される。  The present invention uses the characteristic that warmed air rises and cooled air descends, and efficiently performs heating and cooling. A close-contact hot plate heater or silicon rubber heater is used as a processing vessel R radius. An electric heating mechanism that directly heats the processing vessel disposed in the lower half of the container, and a cooling mechanism that disposes an intimate water cooling unit in the upper half of the radius of the processing vessel R and indirectly cools the processing vessel with circulating cooling water. A chemical reaction process by pressure is performed.

また、各種原料から低分子化処理液を採取する化学反応処理において、処理容器下部に反応により生成された低分子化生成液を効率よく、衛生的に、高温に長時間曝されることなく排出を促すため、反応装置全体の傾斜角を傾斜角可変機構により低分子化生成液採取管側が低い位置に設定され、低分子化処理液の採取が実施される。  Also, in chemical reaction processing that collects low molecular weight processing liquid from various raw materials, the low molecular weight generated liquid generated by the reaction at the bottom of the processing vessel is discharged efficiently and hygienically without being exposed to high temperatures for a long time. Therefore, the tilting angle of the whole reaction apparatus is set to a lower position on the lower molecular weight product liquid collecting tube side by the tilt angle variable mechanism, and the lower molecular weight processing liquid is collected.

請求項2に記載の温度と圧力による化学反応装置は、投入口と排出口を備え耐熱と耐圧を有する処理容器内で化学反応を施す装置において、加熱による反応操作前に水分注入や加圧操作や減圧操作を行う操作口を設け、多量の気化蒸気を必要とする水熱処理では加熱による反応操作前に操作口より水分を注入し、水分率の上昇を避けたい高濃度の低分子化生成液を採取する処理や炭化処理や膨張化処理では処理物の内部保有水分を用い、水熱処理機と穀類膨張機の両方の特性を好適に使い分けることを特徴としている。  The chemical reaction apparatus using temperature and pressure according to claim 2 is an apparatus for performing a chemical reaction in a processing vessel having an inlet and an outlet and having heat resistance and pressure resistance. In the hydrothermal treatment that requires a large amount of vaporized steam and a pressure reducing operation, water is injected from the operating port before the reaction operation by heating, and a high-concentration low molecular weight product solution that avoids an increase in moisture content It is characterized in that the characteristics of both the hydrothermal treatment machine and the cereal expansion machine are suitably used by using the moisture retained in the treated product in the process of collecting the potato, the carbonization process and the expansion process.

この発明は、従来のボイラーによる多量の気化蒸気を必要とする水熱処理と等価の水熱処理が実施されるべく、加熱による反応操作前に操作口より水分を注入することにより、従来のボイラーから供給される水分に相当する水分率に処理容器内を設定し水熱処理が実施される。反対に水分率の上昇を避けたい高濃度の低分子化生成液を採取する処理や炭化処理や膨張化処理では処理物の内部保有水分を用いることにより、蒸気過熱ヒータを用いて乾燥状態を作る場合に比べて大幅な電気代の節約効果を発揮する。  This invention is supplied from a conventional boiler by injecting moisture from an operation port before a reaction operation by heating so that a hydrothermal treatment equivalent to a hydrothermal treatment that requires a large amount of vaporized vapor by a conventional boiler is performed. Hydrothermal treatment is performed by setting the inside of the processing container to a moisture content corresponding to the moisture to be generated. On the other hand, in the process of collecting a low-molecular-weight product with a high concentration that wants to avoid an increase in the moisture content, or in the carbonization process or expansion process, the moisture contained in the processed product is used to create a dry state using a steam superheater. Compared to the case, it shows significant savings in electricity bills.

請求項3に記載の温度と圧力による化学反応装置は、投入口と排出口を備え耐熱と耐圧を有する処理容器内で化学反応を施す装置において、加熱による反応操作前に水分注入や加圧操作や減圧操作を行う操作口を設け、反応操作前に加圧操作を行い大気圧からの加熱における空気の体積膨張係数より高い高圧環境を設定したり、反応操作前に減圧操作を行い大気圧からの加熱における温度上昇より高い高温環境を設定したり、反応操作前に減圧操作を行い処理物内の空気を排出したりすることにより、処理容器内部の処理環境を自由に変化させることを特徴としている。  The chemical reaction apparatus using temperature and pressure according to claim 3 is an apparatus for performing a chemical reaction in a processing vessel having an inlet and an outlet and having heat resistance and pressure resistance. And an operation port for performing depressurization operation, pressurizing operation before reaction operation to set a high pressure environment higher than the volume expansion coefficient of air in heating from atmospheric pressure, or depressurizing operation before reaction operation from atmospheric pressure It is characterized by freely changing the processing environment inside the processing vessel by setting a high temperature environment higher than the temperature rise in heating of the chamber, or by depressurizing before the reaction operation and discharging the air in the processing object Yes.

この発明は、従来のボイラーと蒸気過熱ヒータによる処理容器内部の処理環境と等価の処理環境を実現するため、反応操作前に加圧操作を行い大気圧からの加熱における空気の体積膨張係数より高い高圧環境を設定したり、反応操作前に減圧操作を行い大気圧からの加熱における温度上昇より高い高温環境を設定したりすることにより実施され、単純な操作により高度な設定を可能にする。さらに、反応操作前に減圧操作を行い、熱伝導率が悪い処理物内の空気を排出することにより、処理物内の温度分布むらを低減する効果も発揮する。  In order to realize a processing environment equivalent to the processing environment inside the processing vessel by the conventional boiler and steam superheater, the present invention performs a pressurizing operation before the reaction operation and is higher than the volume expansion coefficient of air in heating from atmospheric pressure It is carried out by setting a high-pressure environment or setting a high-temperature environment higher than the temperature rise in heating from atmospheric pressure by performing a pressure-reducing operation before the reaction operation, and enables a high-level setting by a simple operation. Furthermore, the pressure reduction operation is performed before the reaction operation, and the air in the processed material with poor thermal conductivity is discharged, thereby exhibiting the effect of reducing the temperature distribution unevenness in the processed material.

請求項4に記載の温度と圧力による化学反応装置は、投入口と排出口を備え耐熱と耐圧を有する処理容器内で化学反応を施す装置において、処理容器の上部に設けた分岐排気管出口の電磁弁後端に陰圧容器を設け、陰圧容器内を減圧し大気圧より低い減圧状態の陰圧容器内に処理蒸気を放出することにより、処理蒸気の排出圧力勾配を急激に下げたり、処理蒸気に含まれる揮発成分を冷却機構により低下させ、水分の気化爆発条件を高めたり、気液分離を促進することを特徴としている。  The chemical reaction apparatus with temperature and pressure according to claim 4 is an apparatus for performing a chemical reaction in a processing vessel having an inlet and an outlet and having heat resistance and pressure resistance. By providing a negative pressure vessel at the rear end of the solenoid valve, reducing the pressure inside the negative pressure vessel and releasing the processing vapor into a negative pressure vessel in a reduced pressure lower than the atmospheric pressure, the discharge pressure gradient of the processing vapor is drastically reduced, It is characterized by reducing the volatile components contained in the process steam by a cooling mechanism, increasing the vaporization and explosion conditions of moisture, and promoting gas-liquid separation.

この発明は、従来の炭化処理や膨張化処理における処理効率を高める技術であり、処理容器の上部に設けた分岐排気管出口の電磁弁後端に陰圧容器を設け、陰圧容器内を減圧し大気圧より低い減圧状態で冷却された陰圧容器内に処理蒸気を放出することにより、処理蒸気の排出圧力勾配を急激に下げ水分の気化爆発条件を促進する。さらに、処理蒸気に含まれる揮発成分を冷却機構により低下させ陰圧容器内で気液分離も行われる。  This invention is a technique for improving the processing efficiency in conventional carbonization processing and expansion processing, and a negative pressure vessel is provided at the rear end of the solenoid valve at the outlet of the branch exhaust pipe provided at the top of the processing vessel, and the inside of the negative pressure vessel is depressurized. By discharging the processing steam into the negative pressure vessel cooled in a reduced pressure state lower than the atmospheric pressure, the exhaust pressure gradient of the processing steam is drastically lowered to promote the vaporization and explosion condition of moisture. Further, the volatile components contained in the processing steam are reduced by the cooling mechanism, and gas-liquid separation is also performed in the negative pressure vessel.

請求項5に記載の温度と圧力による化学反応装置は、投入口と排出口を備え耐熱と耐圧を有する処理容器内で化学反応を施す装置において、処理容器の下部に設けた低分子化生成液採取管出口の排出弁後端に陰圧容器を設け、陰圧容器内を減圧滅菌し大気圧より低い減圧状態の陰圧容器内に低分子化生成液を吸引すると共に、陰圧容器内温度を冷却機構により低下させることにより、大気からの微生物汚染と低分子化生成液の劣化を防止することを特徴としている。  The chemical reaction apparatus using temperature and pressure according to claim 5 is an apparatus for performing a chemical reaction in a processing vessel having a heat inlet and an outlet and having heat resistance and pressure resistance. A negative pressure container is provided at the rear end of the discharge valve at the outlet of the sampling tube, the inside of the negative pressure container is sterilized under reduced pressure, the low molecular weight product liquid is sucked into the negative pressure container under a reduced pressure lower than atmospheric pressure, and the temperature in the negative pressure container It is characterized by preventing microbial contamination from the atmosphere and deterioration of the low molecular weight product liquid by lowering the temperature with a cooling mechanism.

この発明は、置換ガスを用いることなく低分子化生成液が酸化するのを防止すると共に微生物汚染されるのを防止する技術であり、陰圧容器内を減圧滅菌し大気圧より低い減圧状態で冷却された陰圧容器内に、低分子化生成液採取管より低分子化生成液を吸引し、大気と隔離された条件と冷却効果により、大気からの微生物汚染と低分子化生成液の劣化を防止する。  The present invention is a technique for preventing oxidation of a low molecular weight product without using a replacement gas and preventing microbial contamination, and sterilizing the inside of a negative pressure vessel under reduced pressure lower than atmospheric pressure. The low molecular weight product liquid is sucked into the cooled negative pressure vessel from the low molecular weight product liquid collection tube, and the microorganisms are contaminated from the atmosphere and the low molecular weight product liquid is deteriorated due to the isolation conditions and the cooling effect. To prevent.

請求項6に記載の温度と圧力による化学反応装置は、投入口と排出口を備え耐熱と耐圧を有する処理容器内で化学反応を施す装置において、温度を管理する手段と、加圧を管理する手段と、モーターを駆動する手段から得た攪拌機構を駆動するモータの負荷変動により変化する駆動コイルの自己インダクタンス(L)の変化で生じる位相の遅れを、供給する商用電源の位相と比較して得た数値を制御情報とし、処理容器内の温度や圧力の微調整やモータの保護、処理物の適正移動、処理物の性状変化率、処理完了動作を管理制御装置によって判断し制御すると共に、これらのデーターを記憶させる回路を有し、記憶された管理履歴に基づく運用データーを以降の選択モードに追加・削除することを特徴としている。  The chemical reaction apparatus using temperature and pressure according to claim 6 is a device for performing a chemical reaction in a processing vessel having an inlet and an outlet and having heat resistance and pressure resistance. The phase delay caused by the change in the self-inductance (L) of the drive coil that changes due to the load fluctuation of the motor that drives the stirring mechanism obtained from the means and the means that drives the motor is compared with the phase of the commercial power supply that is supplied. The obtained numerical values are used as control information, and the control and control device judges and controls the fine adjustment of temperature and pressure in the processing vessel, protection of the motor, proper movement of the processing object, property change rate of the processing object, and processing completion operation, It has a circuit for storing these data, and is characterized in that operation data based on the stored management history is added to or deleted from the subsequent selection modes.

この発明は、理想的制御を行うための条件設定の簡素化を実現する技術で、記憶装置に手動操作全般と各センサーが捉えた計時変化を記憶させ再現実行させる管理制御装置により、手動操作によって実行された処理容器内の温度や圧力の微調整やモータの正逆転による処理物の適正移動や処理完了動作をデーターとして一時記憶させたテーブルを複数用意し、理想的制御を実行できたデーターテーブルを運用データーとして残し、その他のデーターテーブルを削除することで実行される。  The present invention is a technology that simplifies the condition setting for ideal control, and the manual operation is performed by the management control device that stores the entire manual operation in the storage device and the time change captured by each sensor and reproduces it. A data table that can perform ideal control by preparing multiple tables that temporarily store the proper movement and processing completion movement of the processed object by fine adjustment of the temperature and pressure in the processing container and forward / reverse rotation of the motor. Is left as operational data, and other data tables are deleted.

請求項7に記載の温度と圧力による化学反応装置を用いた処理方法は、植物性原料から低分子化処理液を採取するにあたり、処理容器を水平状態に固定し、植物性原料を処理容器内に入れ密閉し、加熱による反応操作前に操作口より空気を吸引し、処理容器内を真空度10−1Paに減圧した後に大気圧に戻し、処理容器内を電熱機構により150℃〜190℃の温度に加熱し、処理容器内の膨張圧力を0.6MPa〜1.6MPaの範囲内に所定時間維持し、植物性原料の内部保有水分を用い低分子化処理した後、冷却機構により処理容器内の温度を100℃以下に下げ、処理容器内を陽圧のまま維持し、反応装置全体の傾斜角を傾斜角可変機構により低分子化生成液採取管側が低い位置に設定され、排出弁に接続された減圧滅菌と冷却とを施した陰圧容器内に吸引させ、陽圧放出と陰圧吸引により大気からの微生物汚染を防止し、低分子化生成液の高温度劣化を防止することを特徴としている。The processing method using the chemical reaction apparatus according to temperature and pressure according to claim 7, in collecting the low molecular weight processing solution from the plant raw material, the processing container is fixed in a horizontal state, and the plant raw material is placed in the processing container. The reaction vessel is vacuumed to 10 −1 Pa and then returned to atmospheric pressure, and the inside of the treatment vessel is restored to 150 ° C. to 190 ° C. by an electric heating mechanism. And the expansion pressure in the processing container is maintained within a range of 0.6 MPa to 1.6 MPa for a predetermined time, and after the low molecular weight treatment using the moisture contained in the plant raw material, the processing container is cooled by the cooling mechanism. The inside temperature of the reactor is lowered to 100 ° C. or less, the inside of the processing vessel is maintained at a positive pressure, and the inclination angle of the whole reaction apparatus is set to a low position by the inclination angle variable mechanism on the low molecular weight product liquid collecting tube side, Connected vacuum sterilization and cooling It sucked in behind vessel subjected to, to prevent microbial contamination from the atmosphere by positive 圧放 unloading and negative pressure suction, is characterized in that to prevent high temperature deterioration of the low molecular weight product solution.

この発明は、リグニン含量の高い植物性原料の難分解特性を緩和する技術で、加熱による反応操作前に操作口より空気を吸引し、処理容器内を真空度10−1Paに減圧することにより、植物性原料内の空気層を消滅させ植物性原料内を液層化すると共に、細胞壁の強度を低下させ低分子化し易い状態に変化させ、熱伝導率が悪い植物性原料内の空気を排出することにより、後の処理工程において、加圧力による性状変化と加熱による植物性原料内の温度分布むらを低減する効果を発揮する。The present invention is a technique for alleviating the hard-to-decompose characteristics of plant raw materials having a high lignin content, by sucking air from the operation port before the reaction operation by heating, and reducing the inside of the processing vessel to a degree of vacuum of 10 −1 Pa. The air layer in the plant raw material disappears and the plant raw material is liquefied, and the cell wall strength is lowered and the state is changed to a low molecular weight state. The air in the plant raw material with poor thermal conductivity is discharged. By doing this, in the subsequent treatment step, the effect of reducing the property change due to the applied pressure and the uneven temperature distribution in the plant raw material due to heating is exhibited.

請求項8に記載の温度と圧力による化学反応装置を用いた処理方法は、動物性原料から低分子化処理液を採取するにあたり、処理容器を水平状態に固定し、動物性原料を処理容器内に入れ密閉し、処理容器内を電熱機構により150℃〜200℃の温度に加熱し、処理容器内の膨張圧力を0.6MPa〜1.8MPaの範囲内に所定時間維持し、動物性原料の内部保有水分を用い低分子化処理した後、冷却機構により処理容器内の温度を130℃〜140℃に下げ、分岐排気管から不要な揮発成分を含んだ水蒸気を排出し、さらに、冷却機構により処理容器内の温度を100℃以下に下げ、処理容器内を陽圧のまま維持し、反応装置全体の傾斜角を傾斜角可変機構により低分子化生成液採取管側が低い位置に設定され、排出弁に接続された減圧滅菌と冷却とを施した陰圧容器内に吸引させ、不要な揮発成分を含まず、微生物汚染や低分子化生成液の高温度劣化を防止することを特徴としている。  In the processing method using the chemical reaction apparatus according to temperature and pressure according to claim 8, when collecting the low molecular weight processing solution from the animal raw material, the processing container is fixed in a horizontal state, and the animal raw material is placed in the processing container. And the inside of the processing container is heated to a temperature of 150 ° C. to 200 ° C. by an electric heating mechanism, and the expansion pressure in the processing container is maintained within a range of 0.6 MPa to 1.8 MPa for a predetermined time. After the low molecular weight treatment using the internal water content, the temperature in the processing vessel is lowered to 130 ° C to 140 ° C by the cooling mechanism, the water vapor containing unnecessary volatile components is discharged from the branch exhaust pipe, and further, the cooling mechanism The temperature inside the processing vessel is lowered to 100 ° C. or lower, the inside of the processing vessel is maintained at a positive pressure, and the inclination angle of the entire reaction apparatus is set to a low position on the low molecular weight product liquid collecting tube side by the variable inclination angle mechanism. Reduction connected to the valve Sterilization and cooling is sucked in behind vessel subjected to not contain unwanted volatile components, it is characterized in that to prevent high temperature degradation of microbial contamination and low molecular weight product solution.

この発明は、比重の違いにより水蒸気中の揮発成分が水溶液に変化する温度と、水蒸気中の低分子化生成液が水溶液に変化する温度差を利用したもので、双方の分岐点温度より少し高い、水蒸気中の揮発成分が水溶液に変化する直前の温度130℃〜140℃に設定し、動物性原料中に含まれるアンモニア等の不要な揮発成分を含んだ水蒸気を分岐排気管から排出した後、排出弁に接続された陰圧容器内に低分子化生成液を吸引させることにより、不要な揮発成分を含まない低分子化生成液を採取する技術である。  This invention utilizes the temperature difference between the volatile component in water vapor changing to an aqueous solution due to the difference in specific gravity and the temperature at which the low molecular weight product solution in water vapor changes to an aqueous solution, which is slightly higher than the branch point temperature of both. The temperature immediately before the volatile component in the water vapor changes to an aqueous solution is set to 130 ° C. to 140 ° C., and after the water vapor containing unnecessary volatile components such as ammonia contained in the animal raw material is discharged from the branch exhaust pipe, This is a technique for collecting a low molecular weight product liquid that does not contain unnecessary volatile components by sucking the low molecular weight product liquid into a negative pressure vessel connected to a discharge valve.

請求項9に記載の温度と圧力による化学反応装置を用いた処理方法は、水産資源から低分子化処理液を採取するにあたり、処理容器を水平状態に固定し、水産資源原料を処理容器内に入れ密閉し、操作口より投入原料の重量に対し0.5%〜15%の水分を注入し、処理容器内を電熱機構により150℃〜200℃の温度に加熱し、処理容器内の膨張圧力を0.6MPa〜1.8MPaの範囲内に所定時間維持し、低分子化処理した後、冷却機構により処理容器内の温度を120℃〜130℃に下げ、分岐排気官から処理前に注入した水分に相当する水蒸気を排出し、さらに、冷却機構により処理容器内の温度を100℃以下に下げ、処理容器内を陽圧のまま維持し、反応装置全体の傾斜角を傾斜角可変機構により低分子化生成液採取管側が低い位置に設定され、排出弁に接続された減圧滅菌と冷却とを施した陰圧容器内に吸引させ、微生物汚染や低分子化生成液の高温度劣化を防止することを特徴としている。  The processing method using the temperature and pressure chemical reaction apparatus according to claim 9, in collecting the low molecular weight processing liquid from the marine resources, the processing container is fixed in a horizontal state, and the marine resource raw material is placed in the processing container. The container is sealed, and 0.5% to 15% of water is injected from the operation port with respect to the weight of the charged raw material, and the inside of the processing container is heated to a temperature of 150 ° C. to 200 ° C. by an electric heating mechanism. Was maintained in the range of 0.6 MPa to 1.8 MPa for a predetermined time, and after the molecular weight reduction treatment, the temperature in the processing vessel was lowered to 120 ° C. to 130 ° C. by the cooling mechanism, and injected from the branch exhauster before the treatment. Water vapor corresponding to moisture is discharged, the temperature inside the processing vessel is lowered to 100 ° C. or less by the cooling mechanism, the inside of the processing vessel is maintained at a positive pressure, and the inclination angle of the entire reactor is lowered by the variable inclination angle mechanism. Molecularization product collection tube side is Is set to have a position, sucked in behind vessel which has been subjected to the connected vacuum sterile cooling and the exhaust valve, it is characterized in that to prevent high temperature degradation of microbial contamination and low molecular weight product solution.

この発明は、水蒸気中の低分子化生成液が完全に水溶液に変化する温度で、水蒸気としても存在できる120℃〜130℃に設定し、分岐排気官から処理前に注入した水分に相当する水蒸気を排出し、排出弁に接続された陰圧容器内に低分子化生成液を吸引させることにより、注入した水分に希釈されない低分子化生成液を採取する技術である。  This invention is set at 120 ° C. to 130 ° C. at which the low molecular weight product solution in the water vapor completely changes to an aqueous solution and can also exist as water vapor, and the water vapor corresponding to the water injected before treatment from the branch exhaust This is a technique for collecting the low molecular weight product liquid that is not diluted with the injected water by sucking the low molecular weight product liquid into the negative pressure container connected to the discharge valve.

請求項10に記載の温度と圧力による化学反応装置を用いた処理方法は、各種原料から低分子化処理液を採取するにあたり、処理容器を水平状態に固定し、各種原料を処理容器内に入れ密閉し、操作口より投入原料の重量に対し0.5%〜15%の水分を注入し、処理容器の上部に設けた分岐排気管出口の電磁弁後端に陰圧容器を設け、陰圧容器内を減圧と冷却の処理を施す前処理を実行し、処理容器内を電熱機構により150℃〜200℃の温度に加熱し、処理容器内の膨張圧力を0.6MPa〜1.8MPaの範囲内に所定時間維持し、低分子化処理した後、冷却機構により処理容器内の温度を140℃〜150℃に下げ、分岐排気管出口の電磁弁後端に設けた陰圧容器内に一気に水蒸気を排出し、低分子化生成液を分岐排気管の蒸気中から抽出することを特徴としている。  In the processing method using the chemical reaction apparatus according to temperature and pressure according to claim 10, when collecting the low molecular weight processing liquid from various raw materials, the processing container is fixed in a horizontal state and various raw materials are put in the processing container. Seal, inject 0.5% to 15% of the weight of the charged raw material from the operation port, and install a negative pressure container at the rear end of the solenoid valve at the outlet of the branch exhaust pipe provided at the top of the processing container. Pretreatment is performed in which the inside of the container is subjected to decompression and cooling, the inside of the processing container is heated to a temperature of 150 ° C. to 200 ° C. by an electric heating mechanism, and the expansion pressure in the processing container is in the range of 0.6 MPa to 1.8 MPa. The inside of the processing vessel is lowered to 140 ° C. to 150 ° C. by a cooling mechanism after being maintained for a predetermined time and subjected to a low molecular weight treatment. In the steam of the branch exhaust pipe It is characterized in that al extraction.

この発明は、低分子化生成液を採取する目的では、請求項7、請求項8、請求項9と同じであるが、水蒸気の状態から完全に水溶液に変化した低分子化生成液を採取するのではなく、処理容器内の温度が140℃〜150℃である水蒸気中に存在している状態の成分を陰圧容器内に分岐排気管から一気に排出し、原料組織内の水分を瞬時に気化爆発させることにより実現している。この時、処理容器内の温度は低いほうが陰圧容器の容積を低減するのに有利であるが、140℃以下では一部の成分が液化するため140℃〜150℃の設定温度とし、陰圧容器内を減圧と冷却の処理を施すことにより、処理蒸気の排出圧力勾配を急激に下げると共に、温度も急激に下げ、陰圧容器の容積低減効果を得ている。  The present invention is the same as the seventh, eighth, and ninth purposes for collecting the low molecular weight product liquid, but collects the low molecular weight product liquid that has completely changed from a water vapor state to an aqueous solution. Instead, the components in the water vapor whose processing vessel temperature is 140 ° C to 150 ° C are discharged from the branch exhaust pipe into the negative pressure vessel at once, and the moisture in the raw material structure is instantly vaporized. It is realized by detonating. At this time, a lower temperature in the processing vessel is advantageous for reducing the volume of the negative pressure vessel. However, since some components are liquefied at 140 ° C. or lower, the set temperature is set to 140 ° C. to 150 ° C. By subjecting the inside of the container to decompression and cooling, the discharge pressure gradient of the processing steam is drastically lowered and the temperature is also drastically lowered, thereby obtaining a volume reduction effect of the negative pressure container.

請求項11に記載の温度と圧力による化学反応装置を用いた処理方法は、肥料を製造するにあたり、処理容器を水平状態に固定し、窒素源である食品残渣や有機汚泥や蓄糞と、炭素源である剪定枝や木材チップや枯れ草と、これらの窒素源と炭素源を含む2種類以上の原料を処理容器内に入れ密閉し、操作口より投入原料の重量に対し0.5%〜25%の水分を注入し、処理容器内を電熱機構により105℃〜120℃の温度に加熱し、処理容器内の膨張圧力を0.1MPa〜0.4MPaの範囲内に維持し、蒸気を原料中に浸透させた後、分岐排気管から注入した水分に相当する水蒸気を除々に排出し、操作口から水蒸気排出に伴い低下した分量の圧力をポンプより注入補償し、再び処理容器内を電熱機構により190℃〜200℃の温度に加熱し、処理容器内の膨張圧力を1.3MPa〜1.9MPaの範囲内に所定時間維持し熱分解させた後に、分岐排気管から一気に水蒸気を排出し、原料組織内の水分を瞬時に気化爆発させることを特徴としている。  In the processing method using the chemical reaction apparatus according to the temperature and pressure according to claim 11, in manufacturing fertilizer, the processing container is fixed in a horizontal state, food residue, organic sludge, feces as a nitrogen source, carbon Two or more kinds of raw materials including the pruned branches, wood chips, dead grass, and these nitrogen sources and carbon sources, which are the sources, are placed in a processing vessel and sealed, and 0.5% to 25% based on the weight of the input raw materials from the operation port. % Of water is injected, the inside of the processing container is heated to a temperature of 105 ° C. to 120 ° C. by an electric heating mechanism, the expansion pressure in the processing container is maintained within the range of 0.1 MPa to 0.4 MPa, and steam is supplied into the raw material. Then, the water vapor corresponding to the water injected from the branch exhaust pipe is gradually discharged, and the pressure reduced by the water vapor discharge from the operation port is compensated by the pump. Temperature between 190 ° C and 200 ° C After heating and maintaining the expansion pressure in the processing vessel within the range of 1.3 MPa to 1.9 MPa for a predetermined time for thermal decomposition, water vapor is discharged from the branch exhaust pipe at once, and moisture in the raw material structure is instantly vaporized. It is characterized by exploding.

この発明は、有機汚泥や剪定枝を高次元で肥料化処理する場合、難分解性のリグニンの分解が非常に重要な要素であり、分解性が低く、微生物栄養となりにくい材料の分解促進は、在来の手法では困難であるため、熱分解と気化爆発を利用する。処理に先立ち投入原料の重量に対し0.5%〜25%の水分を注入し、加熱・加圧により加熱蒸気を原料中に浸透させ、注入した水分に相当する水蒸気を除々に排出すると共に、排出に伴い低下した分量の圧力をポンプより注入補償し、再び処理容器内を電熱機構により、温度と膨張圧力を所定範囲内に所定時間維持し熱分解させた後に、一気に水蒸気を排出し原料組織内の水分を瞬時に気化爆発させ肥料化処理をする。  In the present invention, when organic sludge and pruned branches are fertilized at a high level, decomposition of refractory lignin is a very important factor. Since it is difficult with conventional methods, thermal decomposition and vaporization explosion are used. Prior to the treatment, 0.5% to 25% of water is injected with respect to the weight of the charged raw material, heated steam is permeated into the raw material by heating and pressurizing, and water vapor corresponding to the injected water is gradually discharged. The amount of pressure that was reduced due to the discharge was compensated by injecting from the pump, the temperature and the expansion pressure were maintained within the predetermined range for a predetermined time and thermally decomposed again by the electric heating mechanism, and then the steam was discharged at once to discharge the raw material structure The moisture inside is instantly vaporized and exploded to fertilize.

請求項12に記載の温度と圧力による化学反応装置を用いた処理方法は、生ゴミを炭化処理するにあたり、処理容器を水平状態に固定し、生ゴミを処理容器内に入れ密閉し、処理容器内を電熱機構により190℃〜200℃の温度に加熱し、処理容器内の膨張圧力を1.3MPa〜1.9MPaの範囲内に所定時間維持し炭化させた後、分岐排気か管ら一気に水蒸気を排出し、原料組織内の水分を瞬時に気化爆発させることを特徴としている。  The processing method using the chemical reaction apparatus according to temperature and pressure according to claim 12, when carbonizing garbage, the processing container is fixed in a horizontal state, the garbage is put in the processing container and sealed, and the processing container is sealed. The inside is heated to a temperature of 190 ° C. to 200 ° C. by an electric heating mechanism, and the expansion pressure in the processing container is maintained within a range of 1.3 MPa to 1.9 MPa for a predetermined time to be carbonized. It is characterized by instantly vaporizing and exploding water in the raw material structure.

この発明は、請求項11に記載の処理方法から、前処理工程の水分注入動作と加熱蒸気を原料中に浸透させる作用と注入した水分に相当する水蒸気を除々に排出する動作とポンプよる圧力補償とを省いたものであり、水分含有率が低いため炭化処理となる。  According to the present invention, from the treatment method according to the eleventh aspect, the moisture injecting operation in the pretreatment step, the action of permeating the heated steam into the raw material, the operation of gradually discharging the water vapor corresponding to the injected moisture, and the pressure compensation by the pump And is carbonized because of its low moisture content.

請求項13に記載の温度と圧力による化学反応装置を用いた処理方法は、穀物を膨張化処理し微生物による発酵原料を製造するにあたり、処理容器を水平状態に固定し、穀物を処理容器内に入れ密閉し、処理容器の上部に設けた分岐排気管出口の電磁弁に容器内を減圧すると共に冷却機構により温度を低下させた陰圧容器を設け、処理容器内を電熱機構により140℃〜150℃の温度に加熱し、処理容器内の膨張圧力が0.9MPa〜1.1MPaの範囲内に達したら、分岐排気管を経由して減圧と共に内部温度を低下させた陰圧容器内に一気に水蒸気を排出し、大気中に排出する場合より効率よく原料組織内の水分を気化爆発させた後に、膨張化処理を施した処理素材に陰圧容器内を冷却することで得た分離液を吸収させ、有効成分の損出を防止することを特徴としている。  In the processing method using the chemical reaction apparatus according to temperature and pressure according to claim 13, in producing the fermentation raw material by microorganisms by expanding the grain, the processing container is fixed in a horizontal state, and the grain is placed in the processing container. The inside of the vessel is decompressed and the negative pressure vessel whose temperature is lowered by the cooling mechanism is provided in the electromagnetic valve at the outlet of the branch exhaust pipe provided at the upper part of the treatment vessel, and the inside of the treatment vessel is 140 ° C. to 150 ° C. by the electric heating mechanism. When the expansion pressure in the processing container reaches the range of 0.9 MPa to 1.1 MPa, the steam is immediately discharged into the negative pressure container in which the internal temperature is reduced along with the decompression via the branch exhaust pipe. Evaporate and explode the moisture in the raw material structure more efficiently than when it is discharged into the atmosphere, and then absorb the separated liquid obtained by cooling the negative pressure vessel in the expanded treatment material. , Loss of active ingredients It is characterized in that to prevent.

この発明は、分岐排気か管ら一気に水蒸気を排出し、原料組織内の水分を瞬時に気化爆発させる作用は、請求項11、請求項12と同じであるが、処理容器の上部に設けた分岐排気管出口の電磁弁に容器内を減圧すると共に冷却機構により温度を低下させた陰圧容器を設け、分岐排気管を経由して減圧と共に内部温度を低下させた陰圧容器内に一気に水蒸気を排出する点が異なり、大気圧より低い気圧側に処理蒸気を排出することにより、処理蒸気の排出圧力勾配を急激に下げ水分の気化爆発条件を高められるため、処理容器内を電熱機構により140℃〜150℃の温度に加熱し、処理容器内の膨張圧力が0.9MPa〜1.1MPaの範囲内である条件でも、効率よく原料組織内の水分を気化爆発させることができる。  The present invention has the same action as that of the eleventh and twelfth aspects of the present invention in that water vapor is discharged from the branch exhaust or the pipe at once, and the moisture in the raw material structure is instantly vaporized and exploded. A negative pressure vessel whose pressure is reduced by the cooling mechanism at the solenoid valve at the outlet of the exhaust pipe and the temperature is lowered by the cooling mechanism is provided, and water vapor is supplied into the negative pressure vessel whose internal temperature is lowered along with the pressure reduction via the branch exhaust pipe. Since the process steam is discharged to a pressure lower than the atmospheric pressure, the discharge pressure gradient of the process steam is drastically lowered and the vaporization explosion condition of the water can be increased. Even when heated to a temperature of ˜150 ° C. and the expansion pressure in the processing vessel is in the range of 0.9 MPa to 1.1 MPa, the water in the raw material structure can be efficiently vaporized and exploded.

請求項14に記載の温度と圧力による化学反応装置を用いた処理方法は、堆肥化処理に用いる炭素源構成物質のポリフェノール、リグニン、セルロース、ヘミセルロースの難分解物質を破壊するにあたり、処理容器を水平状態に固定し、炭素源である剪定枝や木材チップを処理容器内に入れ密閉し、操作口より投入原料の重量に対し0.5%〜25%の水分を注入し、処理容器内を電熱機構により105℃〜120℃の温度に加熱し、処理容器内の膨張圧力を0.1MPa〜0.4MPaの範囲内に維持し、蒸気を原料中に浸透させた後、分岐排気管から注入した水分に相当する水蒸気を除々に排出し、操作口から水蒸気排出に伴い低下した分量の圧力をポンプより注入補償し、再び処理容器内を電熱機構により190℃〜200℃の温度に加熱し、処理容器内の膨張圧力を1.3MPa〜1.9MPaの範囲内に所定時間維持し熱分解させた後に、分岐排気管から一気に水蒸気を排出し、炭素源構成物質組織内の水分を瞬時に気化爆発させ、炭素源構成物質の全てを微生物に利用可能な形態に変換することを特徴としている。  The processing method using the chemical reaction apparatus according to temperature and pressure according to claim 14 is arranged such that the processing container is horizontally disposed when destroying the polyphenol, lignin, cellulose and hemicellulose, which are carbon source constituent materials used for composting treatment. The state is fixed, and the pruned branches and wood chips, which are carbon sources, are placed in the processing container and sealed, and 0.5% to 25% of water is injected from the operation port with respect to the weight of the input raw material, and the processing container is electrically heated. The mechanism is heated to a temperature of 105 ° C. to 120 ° C., the expansion pressure in the processing vessel is maintained within the range of 0.1 MPa to 0.4 MPa, and the vapor is infiltrated into the raw material, and then injected from the branch exhaust pipe. The water vapor corresponding to the water is gradually discharged, and the pressure reduced by the water vapor discharged from the operation port is compensated by injection from the pump, and the inside of the processing container is again heated to a temperature of 190 ° C. to 200 ° C. by the electric heating mechanism. After heating and maintaining the expansion pressure in the processing vessel within a range of 1.3 MPa to 1.9 MPa for a predetermined time and thermally decomposing, water vapor is exhausted from the branch exhaust pipe at once and moisture in the carbon source constituent material structure is instantaneously It is characterized by vaporizing and exploding to convert all of the carbon source constituents into a form that can be used by microorganisms.

この発明は、請求項11に記載の処理方法と同じであるが、気化爆発処理後の炭素源を堆肥化処理の炭素源として利用する点が異なり、従来の堆肥化処理におけるポリフェノール、リグニン、セルロース、ヘミセルロースの分解抵抗を減少させるための粉砕機による加工と、苛性ソーダや消石灰を用いてアルカリ処理によって分解の障壁となるフェノール性物質の被覆を緩めセルロースを膨潤させて分解抵抗を低める処理とを実施し、木材腐朽菌を用い炭素源を分解する工程を、炭素源構成物質組織内の水分を瞬時に気化爆発させ工程に置き換えることで、一般の微生物を用いた分解方法でも、2日以内で炭素源構成物質の全てを利用できる。  The present invention is the same as the treatment method according to claim 11 except that the carbon source after the vaporization explosion treatment is used as a carbon source for the composting treatment, and polyphenol, lignin, cellulose in the conventional composting treatment is different. , Processing by a pulverizer to reduce the degradation resistance of hemicellulose, and processing to reduce the degradation resistance by swelling the cellulose with caustic soda and slaked lime to loosen the coating of the phenolic substance that becomes the degradation barrier by alkali treatment However, the process of decomposing a carbon source using wood-rotting fungi is replaced with a process that instantaneously vaporizes and explodes the water in the carbon source constituent material structure, so that even in a decomposing method using general microorganisms, carbon can be obtained within 2 days. All source components are available.

以上説明したように請求項1の発明によれば、密閉容器内を加熱することで空気が膨張する現象を応用し、直接処理容器を加熱する電熱機構と間接的に循環冷却水で処理容器を冷却する冷却機構により、温度と圧力による化学反応処理を効率よく実施でき、ボイラー設備不要の装置を構成できる。  As described above, according to the first aspect of the present invention, the phenomenon that the air is expanded by heating the inside of the sealed container is applied, and the processing container is indirectly heated with the circulating cooling water. With the cooling mechanism for cooling, chemical reaction processing by temperature and pressure can be performed efficiently, and a boiler-free apparatus can be configured.

請求項2の発明によれば、加熱による反応操作前に操作口より水分を注入することにより、従来のボイラーによる多量の気化蒸気を必要とする水熱処理と、反対に水分率の上昇を避けたい炭化処理や膨張化処理では処理物の内部保有水分を用いることにより、同一の機械で水熱処理や炭化処理や膨張化処理を共有処理する装置を提供できると共に、蒸気過熱ヒータ設備不要の装置を構成できる。  According to the second aspect of the present invention, by injecting moisture from the operation port before the reaction operation by heating, it is desired to avoid a hydrothermal treatment that requires a large amount of vaporized steam by a conventional boiler and, conversely, an increase in moisture content. In the carbonization treatment and expansion treatment, by using the moisture retained in the processed material, it is possible to provide a device that can share the hydrothermal treatment, carbonization treatment, and expansion treatment on the same machine, and configure equipment that does not require steam superheater equipment it can.

請求項3の発明によれば、反応操作前に加圧操作を行い大気圧からの加熱における空気の体積膨張係数より高い高圧環境を設定したり、反応操作前に減圧操作を行い大気圧からの加熱における温度上昇より高い高温環境を設定したりすることにより、単純な操作により高度な環境設定を可能にし、さらに、反応操作前に減圧操作を行い処理物内の空気を排出することにより、制御の環境設定の簡素化や処理物内の温度分布むらを低減することが可能となる。  According to the invention of claim 3, a pressure operation is performed before the reaction operation to set a high pressure environment higher than the volume expansion coefficient of air in the heating from the atmospheric pressure, or a pressure reduction operation is performed before the reaction operation from the atmospheric pressure. By setting a high temperature environment higher than the temperature rise during heating, it is possible to set an advanced environment by simple operation, and further, control is performed by discharging the air in the processed material by performing a decompression operation before the reaction operation. It is possible to simplify the environment setting and to reduce the temperature distribution unevenness in the processed material.

請求項4の発明によれば、処理容器の上部に設けた分岐排気管出口の電磁弁後端に陰圧容器を設け、陰圧容器内を減圧し大気圧より低い減圧状態で冷却された陰圧容器内に処理蒸気を放出することにより、排出圧力勾配を急激に下げ水分の気化爆発条件を促進し、作業効率とエネルギー効率を向上させて、費用対効果を向上させる効果を発揮する。  According to the invention of claim 4, the negative pressure vessel is provided at the rear end of the solenoid valve at the outlet of the branch exhaust pipe provided at the upper portion of the processing vessel, and the negative pressure vessel is depressurized and cooled in a reduced pressure lower than the atmospheric pressure. By discharging the processing steam into the pressure vessel, the discharge pressure gradient is drastically lowered, the moisture vaporization and explosion conditions are promoted, the working efficiency and the energy efficiency are improved, and the cost-effectiveness is improved.

請求項5の発明によれば、陰圧容器内を減圧滅菌し大気圧より低い減圧状態で冷却された陰圧容器内に、低分子化生成液採取管より低分子化生成液を吸引し、大気と隔離された条件と冷却効果により、大気からの微生物汚染と低分子化生成液の劣化を防止する課題も置換ガスを用いることなく実施することが可能となる。  According to the invention of claim 5, the low molecular weight product liquid is sucked from the low molecular weight product liquid collecting tube into the negative pressure container cooled under a reduced pressure lower than the atmospheric pressure by sterilizing the inside of the negative pressure container, Due to the conditions isolated from the atmosphere and the cooling effect, the problem of preventing microbial contamination from the atmosphere and the degradation of the low molecular weight product liquid can be carried out without using a replacement gas.

請求項6の発明によれば、温度を管理する手段と加圧を管理する手段とモーターを駆動する手段から得た情報を記憶させる回路を有し、目的に応じたデーターテーブルを運用データーとすることで、理想的制御を行うための条件設定の簡素化が可能な制御装置を構成できる。  According to invention of Claim 6, it has a circuit which memorize | stores the information obtained from the means to manage temperature, the means to manage pressurization, and the means to drive a motor, and makes a data table according to the purpose operational data Thus, it is possible to configure a control device that can simplify the setting of conditions for performing ideal control.

請求項7の発明によれば、加熱による反応操作前に操作口より空気を吸引し、処理容器内を真空度10−1Paに減圧することにより、植物性原料内の空気層を消滅させ植物性原料内を液層化すると共に、細胞壁の強度を低下させ低分子化し易い状態に変化させ、熱伝導率が悪い植物性原料内の空気を排出することにより、後の処理工程において、加圧力による性状変化と加熱による植物性原料内の温度分布むらを低減する効果を発揮する。According to the invention of claim 7, before the reaction operation by heating, air is sucked from the operation port, and the inside of the processing container is depressurized to a vacuum degree of 10 −1 Pa, thereby eliminating the air layer in the plant raw material and In the subsequent processing step, the pressure is increased in the subsequent processing step by forming a liquid layer in the raw material, changing the cell wall strength to a low molecular weight state, and discharging the air in the vegetable raw material with poor thermal conductivity. It exhibits the effect of reducing the unevenness of temperature distribution in the plant material due to the change in properties due to heating and heating.

請求項8の発明によれば、採取目的の成分の比重の違いにより、水蒸気中の気体成分が水溶液に変化する温度差を利用したもので、水蒸気排出に際し、水蒸気中の揮発成分が水溶液に変化する直前の温度130℃〜140℃に設定し、原料中に含まれるアンモニア等の不要な揮発成分を含んだ水蒸気を分岐排気管から排出した後、排出弁に接続された陰圧容器内に低分子化生成液を吸引させることにより、不要な揮発成分を含まない低分子化生成液を採取できる。  According to the eighth aspect of the present invention, a temperature difference in which a gas component in water vapor changes into an aqueous solution due to a difference in specific gravity of components to be collected is utilized, and the volatile component in water vapor changes into an aqueous solution upon discharge of water vapor. The temperature immediately before the operation is set to 130 ° C to 140 ° C, and after the water vapor containing unnecessary volatile components such as ammonia contained in the raw material is discharged from the branch exhaust pipe, it is reduced in the negative pressure vessel connected to the discharge valve. By aspirating the molecularization product solution, a low-molecularization product solution that does not contain unnecessary volatile components can be collected.

請求項9の発明によれば、水蒸気排出に際し、水蒸気中の低分子化生成液が液化分離する120℃〜130℃に設定し、分岐排気官から処理前に注入した水分に相当する水蒸気を排出し、排出弁に接続された陰圧容器内に低分子化生成液を吸引させることにより、注入した水分に希釈されない低分子化生成液を採取できる。  According to the invention of claim 9, when steam is discharged, the low molecular weight product liquid in the steam is set to 120 ° C. to 130 ° C. where the water vapor corresponding to the water injected before the treatment is discharged from the branch exhaust. The low molecular weight product solution that is not diluted with the injected water can be collected by sucking the low molecular weight product solution into the negative pressure vessel connected to the discharge valve.

請求項10の発明によれば、処理容器内の温度が140℃〜150℃である、液化分離反応の起こらない状態の水蒸気中に存在している全低分子化生成成分を、陰圧容器内に分岐排気管から一気に排出し、原料組織内の水分を瞬時に気化爆発させることにより、分岐排気管を経由し陰圧容器内で液化した低分子化生成液得ているので、処理容器内に残存する処理物を乾燥状態で取り出すことができる。  According to the invention of claim 10, all the low-molecular-weight components that are present in the water vapor in a state where the temperature in the processing vessel is 140 ° C. to 150 ° C. and does not cause the liquefaction separation reaction are contained in the negative pressure vessel. The low-molecular-weight product liquid liquefied in the negative pressure vessel is obtained via the branch exhaust pipe by instantly discharging from the branch exhaust pipe and instantly vaporizing and exploding the moisture in the raw material structure. The remaining processed product can be taken out in a dry state.

請求項11の発明によれば、処理に先立ち投入原料の重量に対し0.5%〜25%の水分を注入し、加熱・加圧により加熱蒸気を原料中に浸透させる処理と温度と膨張圧力を所定範囲内に所定時間維持し熱分解させる処理により、分解性が低く、微生物栄養となりにくい難分解性のリグニンの分解を促進し、原料組織内の水分を瞬時に気化爆発させ肥料化処理することで、微生物や植物の栄養源として利用できる肥料を製造できる。  According to the eleventh aspect of the present invention, prior to the treatment, 0.5% to 25% of water is injected with respect to the weight of the charged raw material, and the heat steam is allowed to penetrate into the raw material by heating and pressurizing, and the temperature and expansion pressure. Is maintained within a specified range for a specified period of time, and is thermally decomposed to accelerate the decomposition of refractory lignin, which has low degradability and is difficult to become microbial nutrients, and instantly vaporizes and explodes water in the raw tissue to produce fertilizer Thus, a fertilizer that can be used as a nutrient source for microorganisms and plants can be produced.

請求項12の発明によれば、処理容器内を電熱機構により190℃〜200℃の温度に加熱し、処理容器内の膨張圧力を1.3MPa〜1.9MPaの範囲内に所定時間維持し、内部水分を用いて処理するため、エネルギー効率が高い炭化処理が実現できる。  According to the invention of claim 12, the inside of the processing container is heated to a temperature of 190 ° C. to 200 ° C. by an electric heating mechanism, and the expansion pressure in the processing container is maintained within a range of 1.3 MPa to 1.9 MPa for a predetermined time, Since treatment is performed using internal moisture, carbonization with high energy efficiency can be realized.

請求項13の発明によれば、処理容器の上部に設けた分岐排気管出口の電磁弁に容器内を減圧すると共に冷却機構により温度を低下させた陰圧容器を設け、分岐排気管を経由して陰圧容器内に一気に水蒸気を排出することにより、処理容器内が140℃〜150℃の温度と膨張圧力が0.9MPa〜1.1MPaの範囲内である、一般の処理条件より省エネルギー領域でも、効率よく原料組織内の水分を気化爆発させることができる。  According to the thirteenth aspect of the present invention, the electromagnetic valve at the outlet of the branch exhaust pipe provided at the upper part of the processing container is provided with the negative pressure container in which the inside of the container is depressurized and the temperature is lowered by the cooling mechanism. By discharging water vapor into the negative pressure container at once, the temperature in the processing container is 140 ° C. to 150 ° C. and the expansion pressure is in the range of 0.9 MPa to 1.1 MPa. It is possible to efficiently vaporize and explode water in the raw material structure.

請求項14の発明によれば、従来の堆肥化処理の木材腐朽菌を用い炭素源を分解する工程を、炭素源構成物質組織内の水分を瞬時に気化爆発させ工程に置き換えることで、一般の微生物を用いた分解方法でも、2日以内で炭素源構成物質の全てを利用できる。  According to the invention of claim 14, the process of decomposing the carbon source using the conventional composting wood decay fungus is replaced by a process in which the moisture in the carbon source constituent material structure is instantly vaporized and exploded. In the decomposition method using microorganisms, all the carbon source constituent materials can be used within two days.

以下、本発明の実施形態を図1〜図4を参照して詳細に説明する。図1は本発明の温度と圧力による化学反応装置の構造を示す内部透視線を付加した斜視図、図2は反応抽出液の劣化を防止する陰圧容器の構造を示す内部透視線を付加した斜視図、図3は負荷率判定手段の回路図、図4は負荷率判定手段の波形図である。  Hereinafter, embodiments of the present invention will be described in detail with reference to FIGS. FIG. 1 is a perspective view to which an internal perspective line showing the structure of a chemical reaction apparatus according to temperature and pressure of the present invention is added, and FIG. 2 is an internal perspective line showing the structure of a negative pressure vessel that prevents the reaction extract from deteriorating. FIG. 3 is a perspective view, FIG. 3 is a circuit diagram of the load factor determination unit, and FIG. 4 is a waveform diagram of the load factor determination unit.

図1に示す温度と圧力による化学反応装置には、投入口1と排出口2を備え耐熱と耐圧を有する容積1570リットルの処理容器3に対し、処理容器R半径の下部半分に直接加熱する電熱機構4を配置し、処理容器R半径の上部半分に循環冷却水で温度下げる冷却機構(A)5を配置し、加熱による反応操作前に水分注入や加圧操作や減圧操作を行う操作口6と、処理容器3内の被処理物を攪拌する減速機付モーター7と減速機に接続された回転軸8と回転軸8に接続された攪拌手9より構成された攪拌機構と、処理容器3内の圧力を管理制御装置と分岐排気官10に接続された電磁弁11によって微調整する圧力調整機構と、低分子化生成液採取管12に取り付けた排出弁(A)13に代わり取り付ける反応抽出液の劣化を防止する陰圧容器14と、反応装置全体の傾斜角を固定板15に取り付けた回転体16を経由して回転可能に位置移動する可動板17の角度を可変機構18で操作し処理容器3内の低分子化生成液排出を楽にする傾斜角可変機構と、これらを統括管理し履歴管理制御する、図示しない管理制御装置が設けられている。  The chemical reaction apparatus using temperature and pressure shown in FIG. 1 is an electric heating that directly heats the lower half of the radius of the processing vessel R to a processing vessel 3 having a charging port 1 and an outlet 2 and having a heat resistance and pressure resistance of 1570 liters in volume. A mechanism 4 is disposed, and a cooling mechanism (A) 5 for lowering the temperature with circulating cooling water is disposed in the upper half of the radius of the processing vessel R, and an operation port 6 for performing water injection, pressurization operation, and decompression operation before a reaction operation by heating. A stirring mechanism including a motor 7 with a speed reducer that stirs an object to be processed in the processing container 3, a rotating shaft 8 connected to the speed reducer, and a stirring hand 9 connected to the rotating shaft 8, and the processing container 3. Pressure adjustment mechanism that finely adjusts the internal pressure by a solenoid valve 11 connected to the management controller and the branch exhauster 10, and a reaction extraction attached in place of the discharge valve (A) 13 attached to the low molecular weight product liquid collecting pipe 12 Negative pressure to prevent liquid deterioration 14, and the angle of the movable plate 17 that is rotatably moved via the rotating body 16 attached to the fixed plate 15 with the tilt angle of the whole reaction apparatus is operated by the variable mechanism 18 to generate a low molecular weight in the processing vessel 3. An inclination angle variable mechanism that facilitates liquid discharge and a management control device (not shown) that performs overall management and history management control of these are provided.

また、投入口1と排出口2を備え耐熱と耐圧を有する処理容器3に対し上記以外にも、処理容器3を分割構成する開閉口19と操作口6には操作弁20と分岐排気官10の他方に安全弁(A)21と処理容器3本体に圧力センサー22と上部温度センサー23と下部温度センサー24が設けられている。  In addition to the processing vessel 3 having the inlet 1 and the outlet 2 and having heat resistance and pressure resistance, an operation valve 20 and a branch exhaust 10 are provided in the opening / closing port 19 and the operation port 6 that constitute the processing vessel 3 separately. On the other hand, a pressure sensor 22, an upper temperature sensor 23, and a lower temperature sensor 24 are provided on the safety valve (A) 21 and the main body of the processing vessel 3.

図2示す陰圧容器14内部には傾斜板25を設け、循環冷却水で温度下げる冷却機構(B)26を配置し、陰圧容器14上部に吸入管27と排気管(A)28と他方の排気管(B)29を設け、陰圧容器14下部には排出液採取管30を設けていて、排気管28には安全弁(B)31が排気管29には水圧空圧操作弁32が排出液採取管30には排出弁(B)33が取付けられている。  An inclined plate 25 is provided inside the negative pressure container 14 shown in FIG. 2, a cooling mechanism (B) 26 for lowering the temperature with circulating cooling water is disposed, and a suction pipe 27, an exhaust pipe (A) 28, and the other are disposed above the negative pressure container 14. The exhaust pipe (B) 29 is provided, a drainage collecting pipe 30 is provided at the lower part of the negative pressure vessel 14, a safety valve (B) 31 is provided in the exhaust pipe 28, and a hydraulic / pneumatic operation valve 32 is provided in the exhaust pipe 29. A discharge valve (B) 33 is attached to the discharge liquid collecting pipe 30.

図2示す陰圧容器14は、構成を同じくする同一記号で示す1570リットルの容量と20リットルの容量の陰圧容器14があり、大容量の陰圧容器14は分岐排気官10側に接続され、小容量の陰圧容器14は低分子化生成液採取管12側に接続される。  The negative pressure container 14 shown in FIG. 2 includes a negative pressure container 14 having a capacity of 1570 liters and a capacity of 20 liters indicated by the same symbol having the same configuration, and the large capacity negative pressure container 14 is connected to the branch exhauster 10 side. The small-pressure negative pressure vessel 14 is connected to the low molecular weight product liquid collecting tube 12 side.

図1に示す温度と圧力による化学反応装置では、水熱処理、抽出液回収処理、膨張化処理を同一の機械で共有処理することが可能であり、制御方法や電磁弁11・排出弁(A)13の開放操作や陰圧容器14の有無により、水熱処理、抽出液回収処理、膨張化処理の複合化処理も可能となる。  In the chemical reaction apparatus with temperature and pressure shown in FIG. 1, it is possible to share the hydrothermal treatment, the extract recovery process, and the expansion process with the same machine, the control method, the electromagnetic valve 11 and the discharge valve (A). Depending on the opening operation of 13 and the presence / absence of the negative pressure vessel 14, a combined hydrothermal treatment, extraction liquid recovery treatment, and expansion treatment can be performed.

水熱処理は、各種原料を無害化し低分子化する水熱反応を利用する技術であり、温度と圧力の範囲は、素材の形状や投入量を配慮して、150℃〜200℃の温度に加熱し、処理容器3内の膨張圧力が0.6MPa〜1.8MPaの範囲内に設定される。  Hydrothermal treatment is a technology that utilizes a hydrothermal reaction that renders various raw materials harmless and lowers the molecular weight, and the temperature and pressure range is heated to a temperature of 150 ° C to 200 ° C in consideration of the shape of the raw material and the input amount. Then, the expansion pressure in the processing container 3 is set in the range of 0.6 MPa to 1.8 MPa.

抽出液回収処理は、水熱反応により生成された低分子化生成液を回収するもので、2つの方法があり、1つ目の抽出液回収処理は、水熱処理の温度と圧力の範囲内に所定時間維持し低分子化処理した後、冷却機構(A)5により処理容器3内の温度を100℃以下に下げ、処理容器3内を陽圧のまま維持し、反応装置全体の傾斜角を傾斜角可変機構により低分子化生成液採取管12側が低い位置に設定され、排出弁(A)13に接続された減圧滅菌と冷却とを施した陰圧容器14内に吸引させ、陽圧放出と陰圧吸引により大気からの微生物汚染を防止し、低分子化生成液の高温度劣化を防止する、請求項7、8、9等による抽出液回収処理方法。  The extraction liquid recovery process recovers the low molecular weight product liquid generated by the hydrothermal reaction. There are two methods, and the first extraction liquid recovery process is within the range of the temperature and pressure of the hydrothermal treatment. After maintaining for a predetermined time and reducing the molecular weight, the temperature in the processing vessel 3 is lowered to 100 ° C. or less by the cooling mechanism (A) 5 and the inside of the processing vessel 3 is maintained at a positive pressure, so that the inclination angle of the whole reaction apparatus is increased. The low molecular weight product liquid collection tube 12 side is set at a low position by the variable tilt angle mechanism, and is sucked into the negative pressure vessel 14 connected to the discharge valve (A) 13 and subjected to vacuum sterilization and cooling, and positive pressure released. The extract recovery processing method according to claim 7, 8, 9 or the like, wherein microbial contamination from the atmosphere is prevented by negative pressure suction and high temperature deterioration of the low molecular weight product liquid is prevented.

2つ目の抽出液回収処理は、水熱反応と気化爆発を利用し低分子化生成液を回収するもので、処理容器3の上部に設けた分岐排気管10出口の電磁弁11後端に陰圧容器14を設け、陰圧容器14内を減圧と冷却の処理を施す前処理を実行し、水熱処理の温度と圧力の範囲内に所定時間維持し低分子化処理した後、冷却機構(A)5により処理容器3内の温度を140℃〜150℃に下げ、分岐排気管10出口の電磁弁11後端に設けた陰圧容器14内に一気に水蒸気を排出し、低分子化生成液を分岐排気管10よりの排出蒸気中から抽出する、請求項10等による抽出液回収処理方法。  The second extraction liquid recovery process recovers the low molecular weight product liquid using hydrothermal reaction and vaporization explosion, and is applied to the rear end of the electromagnetic valve 11 at the outlet of the branch exhaust pipe 10 provided at the upper part of the processing vessel 3. A negative pressure vessel 14 is provided, a pretreatment is performed in which the negative pressure vessel 14 is depressurized and cooled, and is maintained within a temperature and pressure range of hydrothermal treatment for a predetermined period of time to reduce the molecular weight. A) The temperature in the processing vessel 3 is lowered to 140 ° C. to 150 ° C. by 5 and water vapor is discharged at once into the negative pressure vessel 14 provided at the rear end of the electromagnetic valve 11 at the outlet of the branch exhaust pipe 10, and the low molecular weight product liquid Is extracted from the steam discharged from the branch exhaust pipe 10.

膨張化処理は、原料組織内の水分を瞬時に気化爆発させ、破砕による組織分解を利用するもので2つの方法があり、1つ目の膨張化処理は、処理容器3内を電熱機構4により190℃〜200℃の温度に加熱し、処理容器3内の膨張圧力を1.3MPa〜1.9MPaの範囲内に所定時間維持し所定の処理させた後に、分岐排気管10から一気に水蒸気を排出し、原料組織内の水分を瞬時に気化爆発させる、請求項11、12等による膨張化処理方法。  The expansion process instantaneously vaporizes and explodes moisture in the raw tissue, and utilizes two methods of disintegration by crushing. There are two methods, and the first expansion process is performed in the processing container 3 by the electric heating mechanism 4. After heating to a temperature of 190 ° C. to 200 ° C. and maintaining the expansion pressure in the processing vessel 3 within a range of 1.3 MPa to 1.9 MPa for a predetermined time to allow a predetermined treatment, water vapor is discharged from the branch exhaust pipe 10 at once. Then, the expansion treatment method according to claim 11, 12 or the like, wherein the moisture in the raw material structure is vaporized and exploded instantaneously.

2つ目の膨張化処理は、抽出液回収処理を追加したもので、処理容器3の上部に設けた分岐排気管10出口の電磁弁11に容器内を減圧すると共に冷却機構(B)26により温度を低下させた陰圧容器14を設け、処理容器3内を電熱機構4により140℃〜150℃の温度に加熱し、処理容器3内の膨張圧力が0.9MPa〜1.1MPaの範囲内に達したら、分岐排気管10を経由して減圧と共に内部温度を低下させた陰圧容器14内に一気に水蒸気を排出し、大気中に排出する場合より効率よく原料組織内の水分を気化爆発させた後に、膨張化処理を施した処理素材に陰圧容器14内を冷却することで得た分離液を吸収させ、有効成分の損出を防止する、請求項13等による膨張化処理方法。  The second expansion process is an addition of the extraction liquid recovery process. The inside of the container is depressurized by the electromagnetic valve 11 at the outlet of the branch exhaust pipe 10 provided at the top of the processing container 3 and the cooling mechanism (B) 26 is used. A negative pressure vessel 14 having a reduced temperature is provided, the inside of the processing vessel 3 is heated to a temperature of 140 ° C. to 150 ° C. by the electric heating mechanism 4, and the expansion pressure in the processing vessel 3 is in the range of 0.9 MPa to 1.1 MPa. Then, water vapor is discharged at once into the negative pressure vessel 14 whose internal temperature has been reduced along with pressure reduction via the branch exhaust pipe 10, and the water in the raw material structure is vaporized and exploded more efficiently than when discharged into the atmosphere. The expansion treatment method according to claim 13 or the like, wherein after the expansion, the separation material obtained by cooling the inside of the negative pressure vessel 14 is absorbed by the treatment material subjected to the expansion treatment and the loss of the active ingredient is prevented.

図1に示す温度と圧力による化学反応装置により各種処理を実施する場合は、管理制御装置(図示省略)の電源を投入すると制御指令により、処理容器3を水平状態に保つ制御が開始された後、投入待ちの状態になり投入可能ランプが点灯する。  When various processes are performed by the temperature and pressure chemical reaction apparatus shown in FIG. 1, after the control command to turn on the power of the management control apparatus (not shown), the control for keeping the processing container 3 in the horizontal state is started. , And the charging ready lamp lights up.

投入可能ランプ点灯後、手動操作記憶スイッチを押し、投入口1より有機系の被処理物を投入しつつモーター7を回転させ、攪拌手9により排出口2の方向に被処理物を移動させながら処理容器3に規定量の被処理物を投入した後、必要に応じて操作弁20を開放し操作口6より水分を注入したり、加圧操作を加えたり、減圧操作を実行し、投入口1を閉め処理容器3の内部を大気と遮断する。  After the throw-in lamp is lit, the manual operation memory switch is pressed, the motor 7 is rotated while the organic workpiece is thrown in from the slot 1, and the workpiece is moved in the direction of the outlet 2 by the agitator 9. After charging a predetermined amount of the object to be processed into the processing container 3, the operation valve 20 is opened as necessary to inject moisture from the operation port 6, a pressurizing operation is performed, or a pressure reducing operation is performed. 1 is closed and the inside of the processing container 3 is shut off from the atmosphere.

操作口6より水分を注入する目的は、水分率の低い被処理物を水熱処理するためで、乾燥木材や乾燥した雑草等を効率よく水熱処理する場合に実施する。また、水熱処理に伴い低分子化生成液を抽出する場合には、注入した水分により生成液が希釈されるため、投入原料の重量に対し0.5%〜15%の水分を注入するのが好ましい。  The purpose of injecting moisture from the operation port 6 is to hydrothermally treat the object to be treated having a low moisture content, and is carried out when hydrothermally treating dry wood, dried weeds and the like efficiently. In addition, when the low molecular weight product liquid is extracted along with the hydrothermal treatment, the product liquid is diluted with the injected water, so that 0.5% to 15% of the water is injected with respect to the weight of the input raw material. preferable.

操作口6より加圧操作や減圧操作をする目的は、加圧操作を行い大気圧からの加熱における空気の体積膨張係数より高い高圧環境を設定したり、減圧操作を行い大気圧からの加熱における温度上昇より高い高温環境を設定したり、処理物内の空気を排出したりすることにより、処理容器3内部の処理環境を自由に変化させることを目的としている。  The purpose of pressurizing operation and depressurizing operation from the operation port 6 is to set the high pressure environment higher than the volume expansion coefficient of air in heating from atmospheric pressure by performing the pressurizing operation, or in heating from atmospheric pressure by performing the depressurizing operation. The purpose is to freely change the processing environment inside the processing container 3 by setting a high temperature environment higher than the temperature rise or discharging the air in the processing object.

続いて、電熱機構4に通電を開始する操作スイッチを押し、処理容器3内を電熱機構4により150℃〜200℃の温度に加熱し、処理容器3内の膨張圧力を0.6MPa〜1.9MPaの範囲内に所定時間維持し所定の処理をする。  Subsequently, an operation switch for starting energization of the electric heating mechanism 4 is pushed, the inside of the processing container 3 is heated to a temperature of 150 ° C. to 200 ° C. by the electric heating mechanism 4, and the expansion pressure in the processing container 3 is set to 0.6 MPa to 1.MPa. Predetermined treatment is performed for a predetermined time within a range of 9 MPa.

電熱機構4の加熱により、処理容器3に取り付けた上部温度センサー23と下部温度センサー24の温度が一致した時点が、処理物内に熱が伝導された温度としてメモリーに記憶され、同時に経過時間も記録される。その後、温度調節器とタイマー回路により規定の温度と圧力に所定時間維持される。  The time at which the temperature of the upper temperature sensor 23 and the lower temperature sensor 24 attached to the processing container 3 coincides with each other due to the heating of the electric heating mechanism 4 is stored in the memory as the temperature at which heat is conducted in the processing object, and at the same time the elapsed time is To be recorded. Thereafter, the temperature and pressure are maintained at a specified temperature and pressure by a temperature controller and a timer circuit for a predetermined time.

電熱機構4の加熱動作中にトラブルにより、処理容器3の内部温度が203℃を超えた場合には警報を発生し、圧力センサー22の信号により、処理容器3の内部圧力が1.96MPa超えた場合には警報を発生すると共に安全弁(A)21が動作し圧力を大気に逃がす。  When trouble occurs during the heating operation of the electric heating mechanism 4, an alarm is generated when the internal temperature of the processing container 3 exceeds 203 ° C., and the internal pressure of the processing container 3 exceeds 1.96 MPa by the signal of the pressure sensor 22. In this case, an alarm is generated and the safety valve (A) 21 is operated to release the pressure to the atmosphere.

温度と圧力が範囲内で所定時間維持され所定の処理を完了すると、請求項7、8、9による水熱反応を利用し低分子化生成液を回収する抽出液回収処理では、処理容器3内の温度を冷却機構(A)5により100℃以下に下げ、処理容器3内を陽圧のまま維持し、反応装置全体の傾斜角を傾斜角可変機構により低分子化生成液採取管12側が低い位置に制御装置により設定され、排出弁(A)13に接続された減圧滅菌と冷却とを施した陰圧容器14内に、排出弁(A)13を除々に開放し低分子化生成液を吸引させ、陽圧放出と陰圧吸引により大気からの微生物汚染を防止し、低分子化生成液の高温度劣化を防止する。  When the temperature and pressure are maintained within a range for a predetermined time and the predetermined processing is completed, in the extraction liquid recovery process for recovering the low molecular weight product liquid using the hydrothermal reaction according to claims 7, 8, and 9, The temperature of the reactor is lowered to 100 ° C. or less by the cooling mechanism (A) 5, the inside of the processing vessel 3 is maintained at a positive pressure, and the inclination angle of the whole reaction apparatus is low on the low molecular weight product liquid collecting tube 12 side by the inclination angle variable mechanism. The discharge valve (A) 13 is gradually opened in the negative pressure vessel 14 which is set by the control device and connected to the discharge valve (A) 13 and subjected to vacuum sterilization and cooling. By sucking, positive pressure release and negative pressure suction prevent microbial contamination from the atmosphere, and prevent high temperature degradation of the low molecular weight product.

温度と圧力が範囲内で所定時間維持され所定の処理を完了すると、請求項10による水熱反応と気化爆発を利用し低分子化生成液を回収する抽出液回収処理では、処理容器3内の温度を冷却機構(A)5により140℃〜150℃に下げ、処理容器3の上部に設けた分岐排気管10出口の電磁弁11後端に陰圧容器14内を減圧と冷却の処理を施した陰圧容器14を設け、電磁弁11を全開放し分岐排気管10からの水蒸気を陰圧容器14内に一気に排出し、低分子化生成液を分岐排気管10よりの排出蒸気中から抽出する。  When the temperature and pressure are maintained within a range for a predetermined time and the predetermined process is completed, the extract recovery process for recovering the low molecular weight product liquid using the hydrothermal reaction and vaporization explosion according to claim 10 The temperature is lowered to 140 ° C. to 150 ° C. by the cooling mechanism (A) 5, and the inside of the negative pressure vessel 14 is subjected to decompression and cooling treatment at the rear end of the electromagnetic valve 11 at the outlet of the branch exhaust pipe 10 provided at the top of the treatment vessel 3. The negative pressure container 14 is provided, the solenoid valve 11 is fully opened, the water vapor from the branch exhaust pipe 10 is discharged into the negative pressure container 14 at once, and the low molecular weight product liquid is extracted from the exhausted steam from the branch exhaust pipe 10. To do.

温度と圧力が範囲内で所定時間維持され所定の処理を完了すると、請求項11、12、14による膨張化処理では、電磁弁11を全開放し分岐排気管10からの水蒸気を一気に排出し、原料組織内の水分を瞬時に気化爆発させ、破砕による組織分解をする。  When the temperature and pressure are maintained within the range for a predetermined time and the predetermined processing is completed, in the expansion processing according to claims 11, 12, and 14, the electromagnetic valve 11 is fully opened and water vapor from the branch exhaust pipe 10 is exhausted at once. Moisture in the raw tissue is instantly vaporized and exploded, and the tissue is decomposed by crushing.

温度と圧力が範囲内で所定時間維持され所定の処理を完了すると、請求項13による膨張化処理では、処理容器3の上部に設けた分岐排気管10出口の電磁弁11に容器内を減圧すると共に冷却機構(B)26により温度を低下させた陰圧容器14を設け、電磁弁11を全開放し分岐排気管10からの水蒸気を陰圧容器14内に一気に排出し、大気中に排出する場合より効率よく原料組織内の水分を気化爆発させた後に、膨張化処理を施した処理素材に陰圧容器14内を冷却することで得た分離液を吸収させ、有効成分の損出を防止する。  When the temperature and pressure are maintained within the range for a predetermined time and the predetermined processing is completed, in the expansion processing according to claim 13, the inside of the container is depressurized by the electromagnetic valve 11 at the outlet of the branch exhaust pipe 10 provided at the upper part of the processing container 3. At the same time, a negative pressure vessel 14 whose temperature is lowered by the cooling mechanism (B) 26 is provided, the electromagnetic valve 11 is fully opened, and water vapor from the branch exhaust pipe 10 is discharged into the negative pressure vessel 14 at a stretch and discharged into the atmosphere. Efficiently vaporizes and explodes water in the raw material structure, and then absorbs the separated liquid obtained by cooling the negative pressure vessel 14 in the expanded treatment material to prevent loss of active ingredients. To do.

一連の処理工程が完了した後に、理想的な処理が行われた場合には手動操作により記憶されたデーターを呼び出し、記憶された管理履歴に基づく運用データーを以降の選択モードに追加し、理想的な処理が実行できなかった場合には手動操作により記憶されたデーターを呼び出し削除することにより、条件設定の簡素化が可能となる。  When ideal processing has been performed after a series of processing steps has been completed, the stored data is recalled by manual operation, and operational data based on the stored management history is added to the subsequent selection modes. If the process cannot be executed, the condition setting can be simplified by recalling and deleting the data stored by manual operation.

尚、電磁弁11、排出弁(A)13と吸入管27を経由して接続された陰圧容器14内は、減圧と冷却の処理を施してあり吸引と同時に分離液は冷却され、膨張係数は大気圧以下に減少するため、排出弁(A)13に取り付けた陰圧容器14は回収分離液と同容等の容量で十分に対応し、電磁弁11に取り付けた陰圧容器14は処理容器3と同容量で十分に対応でき、吸引された水蒸気全てから分離液が回収され、コールドトラップ等の回収方法より効率の良い分離液回収ができる。  Note that the inside of the negative pressure vessel 14 connected to the electromagnetic valve 11 and the discharge valve (A) 13 via the suction pipe 27 is subjected to decompression and cooling processing, and the separated liquid is cooled simultaneously with the suction, and the expansion coefficient Therefore, the negative pressure vessel 14 attached to the discharge valve (A) 13 corresponds sufficiently to the capacity of the recovered separation liquid, and the negative pressure vessel 14 attached to the electromagnetic valve 11 is treated. The same capacity as that of the container 3 can be adequately dealt with, and the separated liquid can be collected from all of the sucked water vapor, so that the separated liquid can be collected more efficiently than a collecting method such as a cold trap.

陰圧容器14は、電磁弁11又は排出弁(A)13と吸入管27を接続し、水圧空圧操作弁32を開放した状態で減圧し、所定の真空圧に達したら水圧空圧操作弁32を閉じた後、冷却機構(B)26で冷却を施す。陰圧容器14内に吸入管27を経由して吸引された成分は、傾斜板25に案内され、排出液採取管30を経由して排出弁(B)33から取り出される。また、陰圧容器14の減圧等のトラブルにより、陰圧容器14内の圧力が変化した場合には、安全弁(B)31が動作し処理容器3からの過剰圧力を大気に逃がす。  The negative pressure container 14 is connected to the electromagnetic valve 11 or the discharge valve (A) 13 and the suction pipe 27, and is depressurized in a state where the hydraulic / pneumatic operation valve 32 is opened, and the hydraulic / pneumatic operation valve is reached when a predetermined vacuum pressure is reached. After closing 32, the cooling mechanism (B) 26 is used for cooling. The component sucked into the negative pressure container 14 via the suction pipe 27 is guided to the inclined plate 25 and taken out from the discharge valve (B) 33 via the drainage liquid collecting pipe 30. Further, when the pressure in the negative pressure container 14 changes due to troubles such as depressurization of the negative pressure container 14, the safety valve (B) 31 operates to release excess pressure from the processing container 3 to the atmosphere.

先の傾斜角可変機構の動作は、可変機構18の先端が伸びたり縮んだりすることにより、可動板17に固定されている回転体16の角度が変化し、固定板15に対し可動板17の傾斜角可が変化する。この傾斜角を変化させる目的は、処理容器3内の低分子化生成液排出を楽にする目的であり、可変機構18がパンタグラフ式、歯車方式、シリンダー方式等の構造を有する機構であればよく、機構を特定するものではない。  As for the operation of the previous tilt angle variable mechanism, the angle of the rotating body 16 fixed to the movable plate 17 changes as the tip of the variable mechanism 18 expands or contracts, and the movable plate 17 moves relative to the fixed plate 15. The tilt angle changes. The purpose of changing the inclination angle is to facilitate the discharge of the low molecular weight product liquid in the processing vessel 3, and the variable mechanism 18 may be a mechanism having a structure such as a pantograph type, a gear type, a cylinder type, It does not specify the mechanism.

また、この発明で使用しているモーター7を駆動して、負荷率の違いで生じる位相の変化を時間の変化としての情報に変換する手段は、発明者が先に提案した特開2005−41761号公報の回路を用い、負荷率の違いにより得られた情報を基にモータ7の正逆転による処理物の適正移動や処理完了判定をする。  Further, a means for driving the motor 7 used in the present invention to convert a phase change caused by a difference in load factor into information as a time change is disclosed in Japanese Patent Laid-Open No. 2005-41761 previously proposed by the inventor. Using the circuit disclosed in Japanese Patent Publication No. Gazette, the proper movement of the processing object and the processing completion determination by forward / reverse rotation of the motor 7 are performed based on the information obtained by the difference in load factor.

図3の負荷率判定手段の回路は、商用電源の交流電圧をアイソレーションし電子回路に入力できるように設けた電圧変成トランス34と、モータ7に直列に接続された自己インダクタンス検出トランス35により構成されている。電圧変成トランス34では、電子回路の入力電圧に適合する値に調整された、商用電源の位相と同じものが出力1に現れる。しかし、モータ7の駆動コイルには負荷率に応じた磁束が生じ、導線に交差する鎖交磁束数Φ=駆動コイルの自己インダクタンスL×回路電流Iが成立しますので、負荷率が変化すれば駆動コイルの自己インダクタンスLも変化することになり、出力1の元波形36と比較して位相差を生じた、負荷が小さい波形37や負荷が大きい波形38が現れる。  The circuit of the load factor determination means in FIG. 3 is composed of a voltage transformation transformer 34 provided so that an AC voltage of a commercial power supply can be isolated and input to an electronic circuit, and a self-inductance detection transformer 35 connected in series to the motor 7. Has been. In the voltage transformation transformer 34, the same phase as that of the commercial power supply, which is adjusted to a value suitable for the input voltage of the electronic circuit, appears at the output 1. However, a magnetic flux corresponding to the load factor is generated in the drive coil of the motor 7, and the number of interlinkage magnetic fluxes Φ = the self-inductance L of the drive coil × the circuit current I is established, so that if the load factor changes. The self-inductance L of the drive coil also changes, and a waveform 37 having a small load and a waveform 38 having a large load appear that have a phase difference compared to the original waveform 36 of the output 1.

交流電流の変化に対して、モータ7の駆動コイルには磁束数の変化を阻止する作用が生じます。これはモータ7の駆動コイルの両端電圧の発生で知ることができますが、交流電源にモータ7を接続した状態では交流電源の位相しか検出できません。そこで、モータ7のコイルの一部として自己インダクタンス検出トランス35の一次コイルを作用させれば、自己インダクタンス検出トランス35の二次側には自己誘導で発生する電圧を確保でき、自己誘導で発生する電圧波形がモータ7の駆動コイルの両端に発生する電圧波形と位相的には同相であるため、アイソレーションされたモータ7の出力波形の位相として捉えることが可能となる。  In response to a change in AC current, the drive coil of the motor 7 acts to prevent the change in the number of magnetic fluxes. This can be known from the generation of the voltage across the drive coil of the motor 7, but only the phase of the AC power supply can be detected when the motor 7 is connected to the AC power supply. Therefore, if the primary coil of the self-inductance detection transformer 35 is operated as a part of the coil of the motor 7, a voltage generated by the self-induction can be secured on the secondary side of the self-inductance detection transformer 35, and the voltage is generated by the self-induction. Since the voltage waveform is in phase with the voltage waveform generated at both ends of the drive coil of the motor 7, it can be understood as the phase of the output waveform of the isolated motor 7.

図3の電圧変成トランス34でアイソレーションされた商用電源の交流電圧の出力1の波形が図4で示す元波形36で、モータ7の自己インダクタンス検出トランス35でアイソレーションされた交流電圧の出力2の波形が図4で示す、負荷が小さい波形37や負荷が大きい波形38となる。負荷率の違いで生じる位相の変化はT1やT2のような時間の変化に置き換えることができる。  The waveform 1 of the AC voltage output 1 of the commercial power source isolated by the voltage transformation transformer 34 of FIG. 3 is the original waveform 36 shown in FIG. 4 and the output 2 of the AC voltage isolated by the self-inductance detection transformer 35 of the motor 7 is shown. These waveforms are a waveform 37 having a small load and a waveform 38 having a large load as shown in FIG. The phase change caused by the difference in load factor can be replaced with a time change such as T1 or T2.

本発明の温度と圧力による化学反応装置の構造を示す内部透視線を付加した斜視図。The perspective view which added the internal perspective line which shows the structure of the chemical reaction apparatus by the temperature and pressure of this invention. 本発明の反応抽出液の劣化を防止する陰圧容器の構造を示す内部透視線を付加した斜視図。The perspective view which added the internal perspective line which shows the structure of the negative pressure container which prevents deterioration of the reaction extract of this invention. 本発明の負荷率判定手段の回路図。The circuit diagram of the load factor determination means of this invention. 本発明の負荷率判定手段の波形図。The wave form diagram of the load factor determination means of this invention.

符号の説明Explanation of symbols

1 投入口
2 排出口
3 処理容器
4 電熱機構
5 冷却機構(A)
6 操作口
7 モーター
8 回転軸
9 攪拌手
10 分岐排気管
11 電磁弁
12 低分子化生成液採取管
13 排出弁(A)
14 陰圧容器
15 固定板
16 回転体
17 可動板
18 可変機構
19 開閉口
20 操作弁
21 安全弁(A)
22 圧力センサー
23 上部温度センサー
24 下部温度センサー
25 傾斜板
26 冷却機構(B)
27 吸入管
28 排気管(A)
29 排気管(B)
30 排出液採取管
31 安全弁(B)
32 水圧空圧操作弁
33 排出弁(B)
34 電圧変成トランス
35 自己インダクタンス検出トランス
36 元波形
37 負荷が小さい波形
38 負荷が大きい波形
DESCRIPTION OF SYMBOLS 1 Input port 2 Discharge port 3 Processing container 4 Electric heating mechanism 5 Cooling mechanism (A)
6 Operation port 7 Motor 8 Rotating shaft 9 Stirring hand 10 Branch exhaust pipe 11 Solenoid valve 12 Low molecular weight product liquid collection pipe 13 Discharge valve (A)
14 Negative pressure vessel 15 Fixed plate 16 Rotating body 17 Movable plate 18 Variable mechanism 19 Opening and closing port 20 Operation valve 21 Safety valve (A)
22 Pressure sensor 23 Upper temperature sensor 24 Lower temperature sensor 25 Inclined plate 26 Cooling mechanism (B)
27 Intake pipe 28 Exhaust pipe (A)
29 Exhaust pipe (B)
30 Drainage collection pipe 31 Safety valve (B)
32 Hydraulic / pneumatic control valve 33 Drain valve (B)
34 Voltage transformer 35 Self-inductance detection transformer 36 Original waveform 37 Waveform with small load 38 Waveform with large load

Claims (14)

投入口と排出口を備え耐熱と耐圧を有する処理容器内で化学反応を施す装置において、密閉容器を直接加熱することで温度と圧力による化学反応を実施するため、処理容器に対し、処理容器R半径の下部半分に直接加熱する電熱機構と、処理容器R半径の上部半分に循環冷却水で温度下げる冷却機構と、加熱による反応操作前に水分注入や加圧操作や減圧操作を行う操作口と、処理容器内の処理物を攪拌するモーター・回転軸・攪拌手で構成した攪拌機構と、容器内の圧力を管理制御装置及び電磁弁によって微調整する圧力調整機構と、反応により生成された低分子化生成液の劣化を防止する冷却機構を備えた陰圧容器と、反応装置全体の傾斜角を操作し処理容器内の低分子化生成液排出を楽にする傾斜角可変機構と、これらを統括管理し履歴管理制御する管理制御装置を設けたことを特徴とする温度と圧力による化学反応装置。  In an apparatus that performs a chemical reaction in a processing container having a heat inlet and a discharge outlet and having heat resistance and pressure resistance, a chemical reaction by temperature and pressure is performed by directly heating the sealed container. An electric heating mechanism that directly heats the lower half of the radius, a cooling mechanism that lowers the temperature with circulating cooling water in the upper half of the radius of the processing vessel, and an operation port that performs water injection, pressurization operation, and decompression operation before the reaction operation by heating, , A stirring mechanism composed of a motor, a rotating shaft, and a stirring hand for stirring the processed material in the processing container, a pressure adjusting mechanism for finely adjusting the pressure in the container by a management control device and a solenoid valve, and a low pressure generated by the reaction. The negative pressure vessel equipped with a cooling mechanism that prevents the degradation of the molecularized product liquid, the variable tilt angle mechanism that makes it easy to discharge the low molecular weight product solution inside the processing vessel by manipulating the tilt angle of the entire reactor Manage and wear Chemical reactor according to temperature and pressure, characterized in that a management controller for managing and controlling. 投入口と排出口を備え耐熱と耐圧を有する処理容器内で化学反応を施す装置において、加熱による反応操作前に水分注入や加圧操作や減圧操作を行う操作口を設け、多量の気化蒸気を必要とする水熱処理では加熱による反応操作前に操作口より水分を注入し、水分率の上昇を避けたい高濃度の低分子化生成液を採取する処理や炭化処理や膨張化処理では処理物の内部保有水分を用い、水熱処理機と穀類膨張機の両方の特性を好適に使い分けることを特徴とする請求項1に記載の温度と圧力による化学反応装置。  In an apparatus that performs chemical reaction in a heat-resistant and pressure-resistant processing vessel equipped with an inlet and outlet, an operation port for performing water injection, pressurization operation, and decompression operation is provided before the reaction operation by heating, and a large amount of vaporized vapor is generated. In the required hydrothermal treatment, water is injected from the operation port before the reaction operation by heating, and in the process of collecting a low-molecular-weight product with a high concentration that wants to avoid an increase in the moisture content, or in the carbonization process or expansion process, The chemical reaction apparatus according to temperature and pressure according to claim 1, wherein the internal moisture is used, and the characteristics of both the hydrothermal treatment machine and the cereal expander are suitably used. 投入口と排出口を備え耐熱と耐圧を有する処理容器内で化学反応を施す装置において、加熱による反応操作前に水分注入や加圧操作や減圧操作を行う操作口を設け、反応操作前に加圧操作を行い大気圧からの加熱における空気の体積膨張係数より高い高圧環境を設定したり、反応操作前に減圧操作を行い大気圧からの加熱における温度上昇より高い高温環境を設定したり、反応操作前に減圧操作を行い処理物内の空気を排出したりすることにより、処理容器内部の処理環境を自由に変化させることを特徴とする請求項1、請求項2に記載の温度と圧力による化学反応装置。  In an apparatus that has an inlet and outlet and performs chemical reaction in a heat-resistant and pressure-resistant processing vessel, an operation port for injecting moisture, pressurizing operation, or depressurizing operation is provided before the reaction operation by heating. Set the high pressure environment higher than the volume expansion coefficient of air in heating from atmospheric pressure by performing pressure operation, set the high temperature environment higher than the temperature rise in heating from atmospheric pressure by performing pressure reduction operation before reaction operation, or react 3. The temperature and pressure according to claim 1, wherein the processing environment inside the processing container is freely changed by performing a decompression operation before the operation and discharging the air in the processing object. Chemical reactor. 投入口と排出口を備え耐熱と耐圧を有する処理容器内で化学反応を施す装置において、処理容器の上部に設けた分岐排気管出口の電磁弁後端に陰圧容器を設け、陰圧容器内を減圧し大気圧より低い減圧状態の陰圧容器内に処理蒸気を放出することにより、処理蒸気の排出圧力勾配を急激に下げたり、処理蒸気に含まれる揮発成分を冷却機構により低下させ、水分の気化爆発条件を高めたり、気液分離を促進することを特徴とする請求項1に記載の温度と圧力による化学反応装置。  In an apparatus that has an inlet and outlet and performs a chemical reaction in a heat-resistant and pressure-resistant processing vessel, a negative pressure vessel is provided at the rear end of the electromagnetic valve at the outlet of the branch exhaust pipe provided at the top of the processing vessel. The process steam is discharged into a negative pressure vessel under a reduced pressure lower than the atmospheric pressure, so that the discharge pressure gradient of the process steam is drastically lowered, or the volatile components contained in the process steam are lowered by the cooling mechanism to The chemical reaction apparatus by temperature and pressure according to claim 1, wherein the vaporization explosion condition of the gas is increased or gas-liquid separation is promoted. 投入口と排出口を備え耐熱と耐圧を有する処理容器内で化学反応を施す装置において、処理容器の下部に設けた低分子化生成液採取管出口の排出弁後端に陰圧容器を設け、陰圧容器内を減圧滅菌し大気圧より低い減圧状態の陰圧容器内に低分子化生成液を吸引すると共に、陰圧容器内温度を冷却機構により低下させることにより、大気からの微生物汚染と低分子化生成液の劣化を防止することを特徴とする請求項1に記載の温度と圧力による化学反応装置。  In a device that performs a chemical reaction in a processing container having a heat inlet and a discharge outlet and having heat resistance and pressure resistance, a negative pressure container is provided at the rear end of the discharge valve at the outlet of the low molecular weight product liquid collecting pipe provided at the lower part of the processing container. By sterilizing the inside of the negative pressure container and sucking the low molecular weight product liquid into the negative pressure container under a reduced pressure lower than the atmospheric pressure, the temperature inside the negative pressure container is lowered by a cooling mechanism, thereby preventing microbial contamination from the atmosphere. The chemical reaction apparatus using temperature and pressure according to claim 1, wherein deterioration of the low molecular weight product liquid is prevented. 投入口と排出口を備え耐熱と耐圧を有する処理容器内で化学反応を施す装置において、温度を管理する手段と、加圧を管理する手段と、モーターを駆動する手段から得た攪拌機構を駆動するモータの負荷変動により変化する駆動コイルの自己インダクタンス(L)の変化で生じる位相の遅れを、供給する商用電源の位相と比較して得た数値を制御情報とし、処理容器内の温度や圧力の微調整やモータの保護、処理物の適正移動、処理物の性状変化率、処理完了動作を管理制御装置によって判断し制御すると共に、これらのデーターを記憶させる回路を有し、記憶された管理履歴に基づく運用データーを以降の選択モードに追加・削除することを特徴とする請求項1に記載の温度と圧力による化学反応装置。  Drives the stirring mechanism obtained from the means for managing the temperature, the means for managing the pressurization, and the means for driving the motor in the apparatus that performs the chemical reaction in the heat-resistant and pressure-resistant processing vessel having the inlet and outlet. The control delay is the numerical value obtained by comparing the phase delay caused by the change in the self-inductance (L) of the drive coil, which changes due to the load fluctuation of the motor, with the phase of the commercial power supply to be supplied. Control and control of the fine adjustment of the motor, protection of the motor, proper movement of the processed material, rate of property change of the processed material, processing completion operation by the management control device, and storage of these data The operation data based on the history is added to or deleted from the subsequent selection mode, and the chemical reaction apparatus using temperature and pressure according to claim 1. 植物性原料から低分子化処理液を採取するにあたり、処理容器を水平状態に固定し、植物性原料を処理容器内に入れ密閉し、加熱による反応操作前に操作口より空気を吸引し、処理容器内を真空度10−1Paに減圧した後に大気圧に戻し、処理容器内を電熱機構により150℃〜190℃の温度に加熱し、処理容器内の膨張圧力を0.6MPa〜1.6MPaの範囲内に所定時間維持し、植物性原料の内部保有水分を用い低分子化処理した後、冷却機構により処理容器内の温度を100℃以下に下げ、処理容器内を陽圧のまま維持し、反応装置全体の傾斜角を傾斜角可変機構により低分子化生成液採取管側が低い位置に設定され、排出弁に接続された減圧滅菌と冷却とを施した陰圧容器内に吸引させ、陽圧放出と陰圧吸引により大気からの微生物汚染を防止し、低分子化生成液の高温度劣化を防止することを特徴とする請求項1に記載の温度と圧力による化学反応装置を用いた処理方法。When collecting the low molecular weight treatment liquid from plant raw materials, the processing vessel is fixed in a horizontal state, the plant raw material is placed in the processing vessel and sealed, and air is sucked from the operation port before the reaction operation by heating. The inside of the vessel is reduced to a vacuum of 10 −1 Pa and then returned to atmospheric pressure, the inside of the processing vessel is heated to a temperature of 150 ° C. to 190 ° C. by an electric heating mechanism, and the expansion pressure in the processing vessel is set to 0.6 MPa to 1.6 MPa. After maintaining for a predetermined time within the range of, and reducing the molecular weight using the moisture retained inside the plant raw material, the temperature in the processing vessel is lowered to 100 ° C. or less by the cooling mechanism, and the inside of the processing vessel is maintained at a positive pressure. The inclination angle of the whole reaction apparatus is set to a low position on the low molecular weight product liquid collecting tube side by a variable tilt angle mechanism, and is sucked into a negative pressure vessel connected to a discharge valve and subjected to vacuum sterilization and cooling. From the atmosphere by pressure release and negative pressure suction To prevent microbial contamination, treatment method using the chemical reactor according to the temperature and pressure according to claim 1, characterized in that to prevent high temperature deterioration of the low molecular weight product solution. 動物性原料から低分子化処理液を採取するにあたり、処理容器を水平状態に固定し、動物性原料を処理容器内に入れ密閉し、処理容器内を電熱機構により150℃〜200℃の温度に加熱し、処理容器内の膨張圧力を0.6MPa〜1.8MPaの範囲内に所定時間維持し、動物性原料の内部保有水分を用い低分子化処理した後、冷却機構により処理容器内の温度を130℃〜140℃に下げ、分岐排気管から不要な揮発成分を含んだ水蒸気を排出し、さらに、冷却機構により処理容器内の温度を100℃以下に下げ、処理容器内を陽圧のまま維持し、反応装置全体の傾斜角を傾斜角可変機構により低分子化生成液採取管側が低い位置に設定され、排出弁に接続された減圧滅菌と冷却とを施した陰圧容器内に吸引させ、不要な揮発成分を含まず、微生物汚染や低分子化生成液の高温度劣化を防止することを特徴とする請求項1に記載の温度と圧力による化学反応装置を用いた処理方法。  In collecting the low molecular weight treatment solution from the animal raw material, the processing container is fixed in a horizontal state, the animal raw material is placed in the processing container and sealed, and the inside of the processing container is heated to a temperature of 150 ° C. to 200 ° C. by an electric heating mechanism. After heating, maintaining the expansion pressure in the processing container within a range of 0.6 MPa to 1.8 MPa for a predetermined time, and reducing the molecular weight using the moisture contained in the animal raw material, the temperature in the processing container is cooled by a cooling mechanism. Is lowered to 130 ° C to 140 ° C, water vapor containing unnecessary volatile components is discharged from the branch exhaust pipe, and the temperature in the processing vessel is lowered to 100 ° C or less by the cooling mechanism, and the inside of the processing vessel remains at a positive pressure. Maintaining the whole reactor, the low-molecular-weight product liquid collecting tube side is set to a low position by the variable-tilt-angle mechanism, and it is sucked into a negative pressure vessel that has been sterilized and cooled and connected to a discharge valve. Contains unnecessary volatile components The processing method using the chemical reactor according to the temperature and pressure according to claim 1, characterized in that to prevent high temperature degradation of microbial contamination and low molecular weight product solution. 水産資源から低分子化処理液を採取するにあたり、処理容器を水平状態に固定し、水産資源原料を処理容器内に入れ密閉し、操作口より投入原料の重量に対し0.5%〜15%の水分を注入し、処理容器内を電熱機構により150℃〜200℃の温度に加熱し、処理容器内の膨張圧力を0.6MPa〜1.8MPaの範囲内に所定時間維持し、低分子化処理した後、冷却機構により処理容器内の温度を120℃〜130℃に下げ、分岐排気官から処理前に注入した水分に相当する水蒸気を排出し、さらに、冷却機構により処理容器内の温度を100℃以下に下げ、処理容器内を陽圧のまま維持し、反応装置全体の傾斜角を傾斜角可変機構により低分子化生成液採取管側が低い位置に設定され、排出弁に接続された減圧滅菌と冷却とを施した陰圧容器内に吸引させ、微生物汚染や低分子化生成液の高温度劣化を防止することを特徴とする請求項1に記載の温度と圧力による化学反応装置を用いた処理方法。  When collecting low molecular weight processing liquid from marine resources, fix the processing container in a horizontal state, put the marine resource raw material in the processing container and seal it, 0.5% to 15% with respect to the weight of the input raw material from the operation port Water is injected, the inside of the processing container is heated to a temperature of 150 ° C. to 200 ° C. by an electric heating mechanism, and the expansion pressure in the processing container is maintained within a range of 0.6 MPa to 1.8 MPa for a predetermined time, thereby reducing the molecular weight. After the processing, the temperature in the processing container is lowered to 120 ° C. to 130 ° C. by the cooling mechanism, the water vapor corresponding to the water injected before the processing is discharged from the branch exhaust, and the temperature in the processing container is further decreased by the cooling mechanism. Reduced to 100 ° C. or lower, maintained the positive pressure in the processing vessel, and set the tilt angle of the whole reaction apparatus to a low position by the tilt angle variable mechanism on the low molecular weight product liquid collection tube side, and connected to the discharge valve. Sterilized and cooled shade Sucked into the container, the processing method using the chemical reactor according to the temperature and pressure according to claim 1, characterized in that to prevent high temperature degradation of microbial contamination and low molecular weight product solution. 各種原料から低分子化処理液を採取するにあたり、処理容器を水平状態に固定し、各種原料を処理容器内に入れ密閉し、操作口より投入原料の重量に対し0.5%〜15%の水分を注入し、処理容器の上部に設けた分岐排気管出口の電磁弁後端に陰圧容器を設け、陰圧容器内を減圧と冷却の処理を施す前処理を実行し、処理容器内を電熱機構により150℃〜200℃の温度に加熱し、処理容器内の膨張圧力を0.6MPa〜1.8MPaの範囲内に所定時間維持し、低分子化処理した後、冷却機構により処理容器内の温度を140℃〜150℃に下げ、分岐排気管出口の電磁弁後端に設けた陰圧容器内に一気に水蒸気を排出し、低分子化生成液を分岐排気管の蒸気中から抽出することを特徴とする請求項1に記載の温度と圧力による化学反応装置を用いた処理方法。  In collecting the low molecular weight processing solution from various raw materials, the processing vessel is fixed in a horizontal state, and various raw materials are placed in the processing vessel and hermetically sealed, and 0.5% to 15% of the weight of the input raw material from the operation port. Water is injected, a negative pressure vessel is provided at the rear end of the solenoid valve at the outlet of the branch exhaust pipe provided at the upper part of the processing vessel, pretreatment for performing decompression and cooling processing in the negative pressure vessel is performed, and the inside of the processing vessel is After heating to a temperature of 150 ° C. to 200 ° C. by an electric heating mechanism, maintaining the expansion pressure in the processing vessel within a range of 0.6 MPa to 1.8 MPa for a predetermined time, and reducing the molecular weight, The temperature is reduced to 140 ° C. to 150 ° C., water vapor is discharged at once into a negative pressure vessel provided at the rear end of the solenoid valve at the outlet of the branch exhaust pipe, and the low molecular weight product liquid is extracted from the steam of the branch exhaust pipe. The chemical reaction by temperature and pressure according to claim 1 characterized by Processing method using the apparatus. 肥料を製造するにあたり、処理容器を水平状態に固定し、窒素源である食品残渣や有機汚泥や蓄糞と、炭素源である剪定枝や木材チップや枯れ草と、これらの窒素源と炭素源を含む2種類以上の原料を処理容器内に入れ密閉し、操作口より投入原料の重量に対し0.5%〜25%の水分を注入し、処理容器内を電熱機構により105℃〜120℃の温度に加熱し、処理容器内の膨張圧力を0.1MPa〜0.4MPaの範囲内に維持し、蒸気を原料中に浸透させた後、分岐排気管から注入した水分に相当する水蒸気を除々に排出し、操作口から水蒸気排出に伴い低下した分量の圧力をポンプより注入補償し、再び処理容器内を電熱機構により190℃〜200℃の温度に加熱し、処理容器内の膨張圧力を1.3MPa〜1.9MPaの範囲内に所定時間維持し熱分解させた後に、分岐排気管から一気に水蒸気を排出し、原料組織内の水分を瞬時に気化爆発させることを特徴とする請求項1に記載の温度と圧力による化学反応装置を用いた処理方法。  In manufacturing fertilizer, the processing container is fixed horizontally, and food sources, organic sludge and feces as nitrogen sources, pruned branches, wood chips and dead grass as carbon sources, and these nitrogen sources and carbon sources. Two or more kinds of raw materials are put in a processing vessel and sealed, and 0.5% to 25% of water is injected from the operation port with respect to the weight of the charged raw material. The inside of the processing vessel is heated to 105 ° C. to 120 ° C. by an electric heating mechanism. After heating to a temperature and maintaining the expansion pressure in the processing vessel within a range of 0.1 MPa to 0.4 MPa and allowing the steam to penetrate into the raw material, water vapor corresponding to the water injected from the branch exhaust pipe is gradually added. Then, the pressure of the amount reduced with the discharge of water vapor from the operation port is compensated by injection, and the inside of the processing vessel is again heated to a temperature of 190 ° C. to 200 ° C. by the electric heating mechanism, and the expansion pressure in the processing vessel is set to 1. Within the range of 3 MPa to 1.9 MPa The temperature and pressure chemical reaction device according to claim 1, wherein after the thermal decomposition is maintained for a predetermined time, water vapor is discharged from the branch exhaust pipe at once, and the moisture in the raw material structure is instantaneously vaporized and exploded. The processing method used. 生ゴミを炭化処理するにあたり、処理容器を水平状態に固定し、生ゴミを処理容器内に入れ密閉し、処理容器内を電熱機構により190℃〜200℃の温度に加熱し、処理容器内の膨張圧力を1.3MPa〜1.9MPaの範囲内に所定時間維持し炭化させた後、分岐排気か管ら一気に水蒸気を排出し、原料組織内の水分を瞬時に気化爆発させることを特徴とする請求項1に記載の温度と圧力による化学反応装置を用いた処理方法。  When carbonizing garbage, the processing container is fixed in a horizontal state, the garbage is put in the processing container and sealed, and the inside of the processing container is heated to a temperature of 190 ° C. to 200 ° C. by an electric heating mechanism. After the expansion pressure is maintained within a range of 1.3 MPa to 1.9 MPa for a predetermined time and carbonized, water vapor is discharged at once from the branch exhaust or pipe, and moisture in the raw material structure is instantaneously vaporized and exploded. The processing method using the chemical reaction apparatus by the temperature and pressure of Claim 1. 穀物を膨張化処理し微生物による発酵原料を製造するにあたり、処理容器を水平状態に固定し、穀物を処理容器内に入れ密閉し、処理容器の上部に設けた分岐排気管出口の電磁弁に容器内を減圧すると共に冷却機構により温度を低下させた陰圧容器を設け、処理容器内を電熱機構により140℃〜150℃の温度に加熱し、処理容器内の膨張圧力が0.9MPa〜1.1MPaの範囲内に達したら、分岐排気管を経由して減圧と共に内部温度を低下させた陰圧容器内に一気に水蒸気を排出し、大気中に排出する場合より効率よく原料組織内の水分を気化爆発させた後に、膨張化処理を施した処理素材に陰圧容器内を冷却することで得た分離液を吸収させ、有効成分の損出を防止することを特徴とする請求項1に記載の温度と圧力による化学反応装置を用いた処理方法。  In the production of fermented raw materials by microorganisms by expanding the grain, the processing container is fixed horizontally, the grain is placed in the processing container and sealed, and the container is placed in the solenoid valve at the outlet of the branch exhaust pipe provided at the top of the processing container. A negative pressure vessel having a reduced pressure inside and a temperature lowered by a cooling mechanism is provided, the inside of the processing vessel is heated to a temperature of 140 ° C. to 150 ° C. by an electric heating mechanism, and the expansion pressure in the processing vessel is 0.9 MPa to 1.MPa. When the pressure reaches the range of 1 MPa, water vapor is discharged at once in a negative pressure vessel whose internal temperature is reduced along with decompression via the branch exhaust pipe, and the moisture in the raw material structure is vaporized more efficiently than when discharged into the atmosphere. The explosion-expanded treatment material absorbs the separated liquid obtained by cooling the inside of the negative pressure vessel to prevent loss of the active ingredient. Chemical reaction by temperature and pressure Processing method using the apparatus. 堆肥化処理に用いる炭素源構成物質のポリフェノール、リグニン、セルロース、ヘミセルロースの難分解物質を破壊するにあたり、処理容器を水平状態に固定し、炭素源である剪定枝や木材チップを処理容器内に入れ密閉し、操作口より投入原料の重量に対し0.5%〜25%の水分を注入し、処理容器内を電熱機構により105℃〜120℃の温度に加熱し、処理容器内の膨張圧力を0.1MPa〜0.4MPaの範囲内に維持し、蒸気を原料中に浸透させた後、分岐排気管から注入した水分に相当する水蒸気を除々に排出し、操作口から水蒸気排出に伴い低下した分量の圧力をポンプより注入補償し、再び処理容器内を電熱機構により190℃〜200℃の温度に加熱し、処理容器内の膨張圧力を1.3MPa〜1.9MPaの範囲内に所定時間維持し熱分解させた後に、分岐排気管から一気に水蒸気を排出し、炭素源構成物質組織内の水分を瞬時に気化爆発させ、炭素源構成物質の全てを微生物に利用可能な形態に変換することを特徴とする請求項1に記載の温度と圧力による化学反応装置を用いた処理方法。  When destroying the hard-degradable substances such as polyphenol, lignin, cellulose, and hemicellulose, which are carbon source constituent materials used for composting treatment, the processing container is fixed in a horizontal state, and pruned branches and wood chips that are carbon sources are placed in the processing container Seal the container, inject 0.5% to 25% of water to the weight of the charged raw material from the operation port, heat the inside of the processing container to a temperature of 105 ° C to 120 ° C by an electric heating mechanism, and adjust the expansion pressure in the processing container. After maintaining the pressure in the range of 0.1 MPa to 0.4 MPa and infiltrating the steam into the raw material, the water vapor corresponding to the water injected from the branch exhaust pipe was gradually discharged, and decreased with the water vapor discharge from the operation port. The amount of pressure is compensated by injection from the pump, and the inside of the processing vessel is again heated to a temperature of 190 ° C. to 200 ° C. by an electric heating mechanism, and the expansion pressure in the processing vessel is within the range of 1.3 MPa to 1.9 MPa. After maintaining for a certain period of time and pyrolyzing, water vapor is exhausted from the branch exhaust pipe at once, and the water in the carbon source constituent material structure is instantly vaporized and exploded to convert all of the carbon source constituent material into a form that can be used by microorganisms. The processing method using the chemical reaction apparatus by temperature and pressure according to claim 1.
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CN101961622A (en) * 2010-09-26 2011-02-02 铜陵钱陵化工设备制造有限公司 Double-insurance high-pressure ventilated reaction kettle with external reinforcing ribs
CN102671917A (en) * 2012-05-21 2012-09-19 宁波开诚生态技术有限公司 Integral loading acidifying machine
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CN101961622A (en) * 2010-09-26 2011-02-02 铜陵钱陵化工设备制造有限公司 Double-insurance high-pressure ventilated reaction kettle with external reinforcing ribs
CN102671917A (en) * 2012-05-21 2012-09-19 宁波开诚生态技术有限公司 Integral loading acidifying machine
CN102671917B (en) * 2012-05-21 2014-06-11 宁波开诚生态技术有限公司 Integral loading acidifying machine
CN113646098B (en) * 2019-03-22 2022-11-25 三菱重工业株式会社 Water heat treatment device
CN113646098A (en) * 2019-03-22 2021-11-12 三菱重工业株式会社 Water heat treatment device
CN110787733A (en) * 2019-11-22 2020-02-14 盛秸崎机械设备(上海)有限公司 Fiber extraction equipment by biological enzyme decomposition method
US20210170333A1 (en) * 2019-12-10 2021-06-10 Kiinja Corporation Method And Apparatus For Dehydration Of Biomass
CN115666804A (en) * 2020-01-16 2023-01-31 Rdc科技有限公司 Method for at least partially decomposing a material or a product item, or a combination of material or product items
CN112570418A (en) * 2020-11-20 2021-03-30 四川科龙达环保股份有限公司 Aluminum ash deamination device and aluminum ash deamination process
CN112570418B (en) * 2020-11-20 2022-08-09 四川科龙达环保股份有限公司 Aluminum ash deamination device and aluminum ash deamination process
CN115317955A (en) * 2022-07-19 2022-11-11 江西香檀山茶业有限公司 Device for extracting plant source concentrated solution by using circulation temperature-variable negative pressure and extraction process thereof
CN116983905A (en) * 2023-09-27 2023-11-03 中国农业科学院农业环境与可持续发展研究所 Self-pressure-regulating biomass hydrothermal carbonization device and method
CN116983905B (en) * 2023-09-27 2024-01-02 中国农业科学院农业环境与可持续发展研究所 Self-pressure-regulating biomass hydrothermal carbonization device and method

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