JP2005066483A - Reaction method for organic reactant by supercritical fluid or subcritical fluid and apparatus therefor - Google Patents

Reaction method for organic reactant by supercritical fluid or subcritical fluid and apparatus therefor Download PDF

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JP2005066483A
JP2005066483A JP2003300446A JP2003300446A JP2005066483A JP 2005066483 A JP2005066483 A JP 2005066483A JP 2003300446 A JP2003300446 A JP 2003300446A JP 2003300446 A JP2003300446 A JP 2003300446A JP 2005066483 A JP2005066483 A JP 2005066483A
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JP4286088B2 (en
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Yoshihiro Amarigome
喜裕 余米
Ken Kawabe
研 川辺
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Yanmar Co Ltd
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Abstract

<P>PROBLEM TO BE SOLVED: To provide a treatment method for an organic substance, or the like, in a supercritical state, or the like, capable of stable carrying out a reaction of the organic substance, or the like, and decomposition of a hardly decomposable substance by carrying out the chemical reaction in the supercritical state or a subcritical state near a first time even by a plurality of times, and an apparatus therefor. <P>SOLUTION: In a reaction engine, a fluid vapor with the substance to be reacted introduced into a cylinder 3 is compressed by operating a compression plunger 4, and after the chemical reaction of the substance to be reacted by this compression is completed, the compression plunger 4 is operated in a reverse direction to reduce the temperature and the pressure of the fluid vapor, and an intake/exhaust stroke is periodically carried out by removing out the fluid containing the obtained product from the cylinder and blowing-in the new fluid vapor into the cylinder. The reaction method for the organic reactant, or the like, by a supercritical fluid or a subcritical fluid is characterized in that driving of an intake/exhaust valve in this reaction engine 2 is temporarily stopped to repeatedly operate the compression and expansion against the introduced fluid vapor by a plurality of times. <P>COPYRIGHT: (C)2005,JPO&NCIPI

Description

本発明は、超臨界流体又は亜臨界流体による有機物質等の反応方法及びその反応装置に関するものである。具体的には、バイオマスなどの有機物質等を被反応物質として、この被反応物質を超臨界流体又は亜臨界流体により分解処理又はガス化処理等を行うための反応方法及び反応装置に関するものである。   The present invention relates to a reaction method of an organic substance or the like using a supercritical fluid or a subcritical fluid, and a reaction apparatus therefor. Specifically, the present invention relates to a reaction method and a reaction apparatus for performing an organic substance or the like such as biomass as a substance to be reacted, and performing a decomposition process or a gasification process on the substance to be reacted with a supercritical fluid or a subcritical fluid. .

バイオマスなどの有機物質等の被反応物質に対する分解処理等の方法としては、かつての薬品酸化法、光酸化法、燃焼法に代えて、超臨界水又は亜臨界水による分解の方法が開発されている(特許文献1)。   As a method for decomposing substances to be reacted such as organic substances such as biomass, a method of decomposing with supercritical water or subcritical water has been developed in place of the former chemical oxidation method, photo-oxidation method and combustion method. (Patent Document 1).

また、超臨界流体又は亜臨界流体による有機物質等の反応方法として、例えば、水の臨界条件、すなわち、臨界温度374℃、臨界圧力218気圧を超えた条件の超臨界水が、その温度と圧力で制御可能となって、パラフィン系炭化水素やベンゼン等の被反応物質を分解処理する方法も知られている(特許文献2)。   In addition, as a reaction method of an organic substance or the like using a supercritical fluid or a subcritical fluid, for example, the critical condition of water, that is, supercritical water having a critical temperature exceeding 374 ° C. and a critical pressure exceeding 218 atm. And a method of decomposing a reaction substance such as paraffinic hydrocarbon and benzene is also known (Patent Document 2).

特許文献2では、例えば、木粉等の有機物質を分散させた高圧水を急加熱して一定時間超臨界又は亜臨界の状態を保つことにより、超臨界状態又は亜臨界状態での化学反応により、木粉を糖への糖化反応を行なわせることができる反応装置を開示している。すなわち、流体蒸気を圧縮して超臨界流体又は亜臨界流体を得る手段と、この超臨界流体又は亜臨界流体を有機物等の被反応物質に接触させて化学反応を行わせる手段と、この化学反応によって生じる生成物を含む流体を膨張させて減圧する手段とからなる反応装置である。   In Patent Document 2, for example, by rapidly heating high-pressure water in which an organic substance such as wood powder is dispersed and maintaining a supercritical or subcritical state for a certain time, a chemical reaction in a supercritical state or a subcritical state is performed. Discloses a reaction apparatus capable of performing a saccharification reaction of wood flour into sugar. That is, means for compressing fluid vapor to obtain a supercritical fluid or subcritical fluid, means for bringing the supercritical fluid or subcritical fluid into contact with a reactant such as an organic substance, and performing a chemical reaction, and this chemical reaction And a means for expanding and depressurizing a fluid containing a product generated by the reaction.

さらに、特許文献2では、流体蒸気を圧縮して超臨界流体又は亜臨界流体を得る手段と、この超臨界流体又は亜臨界流体を有機物等の被反応物質に接触させて化学反応を行わせる手段と、及びこの化学反応によって生じる生成物を含む流体を膨張させて減圧させる手段として、シリンダとこのシリンダに設けられたピストン(圧縮プランジャ)とからなり、このピストン(圧縮プランジャ)を動作させることにより被処理物質を伴う流体蒸気を圧縮し、化学反応の終了後にピストン(圧縮プランジャ)を逆方向に動作させて温度及び圧力を下げ、得られた生成物を含む流体液をシリンダから取り出して新たな流体蒸気をシリンダに吹き込むことにより周期的に動作させる方法、及びその装置が開示されている。
特公平1−38532号公報 特開2002−263465号公報
Further, in Patent Document 2, means for compressing a fluid vapor to obtain a supercritical fluid or subcritical fluid, and means for causing a chemical reaction by bringing the supercritical fluid or subcritical fluid into contact with a reactant such as an organic substance. And a means for expanding and depressurizing a fluid containing a product generated by this chemical reaction, and a piston (compression plunger) provided in the cylinder, and by operating the piston (compression plunger) The fluid vapor with the substance to be treated is compressed, and after completion of the chemical reaction, the piston (compression plunger) is operated in the opposite direction to lower the temperature and pressure, and the resulting fluid fluid containing the product is removed from the cylinder and renewed. A method and apparatus for operating periodically by blowing fluid vapor into a cylinder is disclosed.
Japanese Patent Publication No. 1-38532 JP 2002-263465 A

しかしながら、このような従来の超臨界流体又は亜臨界流体による反応装置においては、その反応機関の回転数を制御することにより、有機反応物質等の被反応物質に対する処理に必要な超臨界水条件を一定時間の保持させることが必要であるが、反応機関における反応処理時間を制御する方法については、従来存在していない。   However, in such a conventional supercritical fluid or subcritical fluid reactor, the supercritical water conditions necessary for the treatment of the reactant such as an organic reactant are controlled by controlling the rotational speed of the reaction engine. Although it is necessary to hold for a certain period of time, there is no conventional method for controlling the reaction processing time in the reaction engine.

超臨界流体又は亜臨界流体による有機物質等の反応装置を効率的に実施できる高温、高圧の流体の超臨界状態を扱うための工業的な反応装置において、反応装置における反応機関の回転数を遅くすると、導入した流体蒸気に対する圧縮時に流体蒸気の加圧・加熱性が悪くなり、温度及び圧力を高く維持することは難しく、超臨界流体又は亜臨界流体による処理に必要な長い時間に亘って維持することは困難である。例えば、蒸気流体の状態や圧縮比にもよるが300rpmで圧縮したとしても超臨界状態を得られるのは0.03秒位となり、更に長い時間超臨界状態を維持しようとすると、回転数を、例えば100rpm等に落とす必要があるが、こうするとシール部からの洩れが大となり、十分に高い圧力を得ることが困難となる。   In industrial reactors for handling supercritical conditions of high-temperature and high-pressure fluids that can efficiently implement reactors such as organic substances using supercritical fluids or subcritical fluids, the rotational speed of the reaction engine in the reactor is slowed down. Then, when compressing the introduced fluid vapor, the pressurization and heating performance of the fluid vapor deteriorates, and it is difficult to maintain the temperature and pressure high, and it is maintained for a long time necessary for processing with the supercritical fluid or subcritical fluid. It is difficult to do. For example, although it depends on the state of the vapor fluid and the compression ratio, even if it is compressed at 300 rpm, the supercritical state can be obtained in about 0.03 seconds. For example, it is necessary to reduce the pressure to 100 rpm or the like, but if this is done, leakage from the seal portion becomes large and it becomes difficult to obtain a sufficiently high pressure.

そこで、本発明はシール部材からの洩れが低く押えられる回転数において、圧縮膨張した被反応物質を含む流体蒸気を排出せず複数回圧縮膨張を繰り返し、総処理時間で所定の時間を得ようとするものである。さらに、前記反応機関での複数回処理においては、シリンダの摺動面からのリークや壁面からの放熱により、2回目以降で実現される超臨界流体の温度と圧力が1回目よりも低くなるという欠点もある。   Therefore, the present invention repeats compression and expansion a plurality of times without discharging the fluid vapor containing the reactant that has been compressed and expanded at a rotational speed at which leakage from the seal member is kept low, and tries to obtain a predetermined time in the total processing time. To do. Further, in the multiple processing in the reaction engine, the temperature and pressure of the supercritical fluid realized after the second time are lower than the first time due to leakage from the sliding surface of the cylinder and heat radiation from the wall surface. There are also drawbacks.

そこで、本発明は、流体の超臨界状態又は亜臨界状態をより長い時間維持することを可能とすると共に、複数回処理において、2回目以降においても1回目に近い超臨界状態又は亜臨界状態で、化学反応を行わせることにより、木粉等の有機系廃棄物をガス化処理するための有機物質等の反応処理や、ダイオキシンやPCB等の難分解性物質の分解処理を安定して行うことができる超臨界状態又は亜臨界状態での有機反応物質等の処理方法及びその装置を提供することを目的とした。   Therefore, the present invention makes it possible to maintain a supercritical state or subcritical state of a fluid for a longer time, and in a plurality of treatments, a supercritical state or a subcritical state close to the first time after the second time. By carrying out chemical reactions, it is possible to stably carry out reaction treatments such as organic substances for gasifying organic waste such as wood flour, and decomposition treatments of difficult-to-decompose substances such as dioxins and PCBs. An object of the present invention is to provide a method and apparatus for treating an organic reactant in a supercritical state or a subcritical state.

上記の目的を達成するため、本発明の超臨界流体又は亜臨界流体による有機反応物質等の反応方法は、シリンダとこのシリンダに設けられた圧縮プランジャとからなり、圧縮プランジャを動作させることによりシリンダ内に導入した被反応物質を伴う流体蒸気を圧縮し、この圧縮による被反応物質の化学反応が終了した後に圧縮プランジャを逆方向に動作させて流体蒸気の温度及び圧力を下げ、得られた生成物を含む流体をシリンダから取り出して新たな流体蒸気をシリンダ内に吹き込むことにより周期的に吸排気弁の駆動を行う反応機関において、この反応機関における吸排気行程を一時的に停止して、導入した流体蒸気に対する圧縮・膨張を複数回繰り返して動作させることを特徴とする。   In order to achieve the above object, a reaction method of an organic reactant or the like using a supercritical fluid or a subcritical fluid according to the present invention includes a cylinder and a compression plunger provided in the cylinder, and the cylinder is operated by operating the compression plunger. Compress the fluid vapor with the reactants introduced into it, and after the chemical reaction of the reactants by this compression is finished, operate the compression plunger in the reverse direction to lower the temperature and pressure of the fluid vapor, and the resulting production In a reaction engine that periodically drives the intake / exhaust valves by taking out fluid containing substances from the cylinder and blowing new fluid vapor into the cylinder, the intake and exhaust strokes in this reaction engine are temporarily stopped and introduced. It is characterized in that the compressed / expanded operation with respect to the fluid vapor is repeated a plurality of times.

本発明の反応方法によれば、反応機関における吸排気行程を一時的に停止させ、導入した流体蒸気に対する圧縮・膨張を複数回繰り返して動作させることにより、シリンダ内に導入した流体蒸気の、高温、高圧の超臨界状態又は亜臨界状態をより長い時間(例えば、約0.03秒×3=0.09秒)維持することが可能となる。このように、超臨界流体又は亜臨界流体をより長い時間維持することによって、木粉等の有機系廃棄物質やダイオキシン、PCB等の化学物質などを分解処理することが可能となる。   According to the reaction method of the present invention, the intake / exhaust stroke in the reaction engine is temporarily stopped, and compression / expansion of the introduced fluid vapor is repeated a plurality of times, so that the fluid vapor introduced into the cylinder has a high temperature. It is possible to maintain the high pressure supercritical state or subcritical state for a longer time (for example, about 0.03 seconds × 3 = 0.09 seconds). Thus, by maintaining the supercritical fluid or subcritical fluid for a longer period of time, it becomes possible to decompose organic waste materials such as wood flour, chemical substances such as dioxin and PCB, and the like.

本発明の超臨界流体又は亜臨界流体による有機反応物質等の反応方法は、反応機関における圧縮・膨張の繰り返し時に、新たな流体蒸気を圧縮・膨張の都度前記シリンダ内に補給する方法を含む。さらに、本発明の超臨界流体又は亜臨界流体による有機反応物質等の反応方法は、前記シリンダの内圧が吸気圧力より低下したときに反応機関の吸気バルブを自動的に又は強制的に開き、新たな流体蒸気を前記シリンダ内に補給させる方法を含む。更に新たな流体蒸気として吸入蒸気より高く設定した回路と第2の吸入弁を設けて前記シリンダ内に補給させる方法を含む。   The reaction method of an organic reactant or the like using a supercritical fluid or a subcritical fluid according to the present invention includes a method in which new fluid vapor is replenished into the cylinder each time compression / expansion is repeated in a reaction engine. Furthermore, the reaction method of the organic reactant by the supercritical fluid or subcritical fluid of the present invention automatically or forcibly opens the reaction engine intake valve when the internal pressure of the cylinder falls below the intake pressure. A method of replenishing the fluid vapor into the cylinder. Furthermore, a method is provided in which a circuit set higher than the intake steam and a second intake valve are provided as new fluid vapor and the cylinder is replenished.

この反応方法によれば、反応機関における圧縮・膨張の繰り返し時に、新たな流体蒸気を圧縮・膨張の都度前記シリンダ内に補給することにより、流体蒸気のリーク分を補い、さらに、反応機関のシリンダ等における放熱を解消することができる。この場合、さらにシリンダの内圧が吸気圧力より低下したときにタイミングを合わせて反応機関の吸気バルブを開き、新たな流体蒸気を前記シリンダ内に補給させることにより、2回目以降の圧縮においても、1回目に近い状態で流体の超臨界状態又は亜臨界状態をより確実に得ることが可能となる。   According to this reaction method, at the time of repeated compression / expansion in the reaction engine, a new fluid vapor is replenished into the cylinder every time compression / expansion is performed, thereby compensating for the leakage of the fluid vapor, and further the cylinder of the reaction engine. It is possible to eliminate heat dissipation in the case of In this case, when the internal pressure of the cylinder further falls below the intake pressure, the intake valve of the reaction engine is opened at the same time, and new fluid vapor is replenished into the cylinder, so that in the second and subsequent compressions, 1 It is possible to obtain the supercritical state or subcritical state of the fluid more reliably in a state close to the second time.

本発明では、上記超臨界流体又は亜臨界流体による有機反応物質等の反応方法を行う装置として、シリンダとこのシリンダに設けられた圧縮プランジャとからなり、圧縮プランジャを動作させることによりシリンダ内に導入した被反応物質を伴う流体蒸気を圧縮し、この圧縮による被反応物質の化学反応が終了した後に圧縮プランジャを逆方向に動作させて流体蒸気の温度及び圧力を急激に下げ、得られた生成物を含む流体をシリンダ内から取り出して新たな流体蒸気をシリンダ内に吹き込むことにより周期的に吸排気行程を行う反応機関において、この反応機関にその吸排気弁を駆動、停止させる動弁機構を設けてなり、かつ、吸入蒸気より高く設定された蒸気をシリンダ内に導入する第2の吸気弁を設けており、この第2吸気弁を反応機関の駆動タイミングと同期させると共に吸排気弁の駆動を停止しているタイミングに駆動させシリンダ内に高い蒸気を導入することを特徴とする構成を含む。   In the present invention, as an apparatus for performing a reaction method of an organic reactant or the like using the supercritical fluid or the subcritical fluid, the apparatus includes a cylinder and a compression plunger provided in the cylinder, and is introduced into the cylinder by operating the compression plunger. Compressed fluid vapor with the reactants, and after the chemical reaction of the reactants due to this compression is completed, the compression plunger is operated in the reverse direction to rapidly lower the temperature and pressure of the fluid vapor, and the product obtained In a reaction engine that periodically performs intake and exhaust strokes by taking out the fluid containing the inside of the cylinder and blowing new fluid vapor into the cylinder, the reaction engine is provided with a valve operating mechanism for driving and stopping the intake and exhaust valves And a second intake valve that introduces a steam set higher than the intake steam into the cylinder, and the second intake valve is connected to the reactor. Includes configurations wherein the of introducing high vapor into the driven cylinder timing which stops driving the intake and exhaust valves together with synchronizing with the driving timing.

この反応装置によれば、反応機関に設けられた動弁機構の駆動により、吸排気弁を駆動、停止させることが可能となる。前記動弁機構の駆動タイミングと反応機関の駆動タイミングとを同期させることにより、反応機関における吸排気行程を一時的に停止させ、導入した流体蒸気に対する圧縮・膨張を複数回繰り返して動作させることができる。上記動弁機構としては、カム軸タイプのほか、電磁弁タイプや油圧タイプのものも可能である。   According to this reaction apparatus, the intake and exhaust valves can be driven and stopped by driving a valve mechanism provided in the reaction engine. By synchronizing the drive timing of the valve operating mechanism and the drive timing of the reaction engine, the intake and exhaust strokes in the reaction engine are temporarily stopped, and the compression / expansion of the introduced fluid vapor is repeated a plurality of times. it can. As the valve operating mechanism, in addition to the camshaft type, an electromagnetic valve type or a hydraulic type can be used.

本発明の超臨界流体又は亜臨界流体による有機反応物質等の反応装置は、前記動弁機構としてピン等との嵌脱により駆動するカム軸が反応機関に設けられてなり、ピンの嵌脱により、カム軸の駆動、停止を制御することにより前記反応機関における吸排気行程を駆動、停止させるようにした構成を含む。   The reaction device for organic reactants using the supercritical fluid or subcritical fluid according to the present invention has a camshaft that is driven by fitting / removing with a pin or the like as the valve operating mechanism. Further, it includes a configuration in which the intake and exhaust strokes in the reaction engine are driven and stopped by controlling the driving and stopping of the camshaft.

上述したように本発明の超臨界流体又は亜臨界流体による有機物質等の反応方法及びその装置は構成されるから、次のような効果が発揮される。本発明によれば、反応装置における反応機関の吸排気弁の駆動を一時的に停止させ、導入した流体蒸気に対する圧縮・膨張を複数回繰り返して動作させて、長い時間に亘り超臨界流体又は亜臨界流体により処理することになるから、ダイオキシン、PCB等の難分解性廃棄物や、木粉等の有機系廃棄物に対しても、超臨界流体又は亜臨界流体による分解あるいはガス化処理等種々の被処理材への対応が可能となる。 また、流体蒸気に対する圧縮・膨張を複数回繰り返し時に、新たな流体蒸気を圧縮・膨張の都度にシリンダ内に補給することにより、さらにこの新たな流体蒸気の補給をシリンダの内圧が低下したときにタイミングを合わせることにより、反応機関における流体蒸気のリーク分を補うと共に、シリンダ等の壁面からの放熱分を効果的に補い、その新たな流体蒸気によるリーク及び放熱による問題点を十分に解消することができる。これによって、反応機関において、2回目以降についても、1回目に近い状態で圧縮・膨張を繰り返すことが可能となる。   As described above, the reaction method of organic substances and the like using the supercritical fluid or subcritical fluid of the present invention and the apparatus thereof are configured, so that the following effects are exhibited. According to the present invention, the drive of the intake / exhaust valve of the reaction engine in the reaction apparatus is temporarily stopped, and the compression / expansion of the introduced fluid vapor is repeatedly performed a plurality of times. Because it is treated with a critical fluid, it can be used for various types of decomposition or gasification treatment with supercritical fluids or subcritical fluids even for difficult-to-decompose wastes such as dioxins and PCBs, and organic wastes such as wood flour. It is possible to cope with the material to be processed. In addition, when the compression / expansion of the fluid vapor is repeated a plurality of times, a new fluid vapor is replenished into the cylinder each time the compression / expansion is performed. By matching the timing, the amount of leakage of fluid vapor in the reaction engine is compensated, and the amount of heat released from the wall surface of the cylinder, etc. is effectively compensated, and the problems due to leakage and heat dissipation due to the new fluid vapor are sufficiently eliminated. Can do. Thereby, in the reaction engine, the compression and expansion can be repeated in a state close to the first time after the second time.

本発明の超臨界流体又は亜臨界流体による有機物質等の反応方法は、前記した本発明の反応装置によって実行することが可能となる。   The reaction method of an organic substance or the like using the supercritical fluid or subcritical fluid of the present invention can be performed by the above-described reaction apparatus of the present invention.

次に、本発明の実施の最良の形態を図に基づいて説明する。本発明に係る超臨界流体又は亜臨界流体による有機反応物質等の反応装置1の構成を図1に示した。以下、この反応装置1では流体として水を使用するが、その他、超臨界流体又は亜臨界流体を得る蒸気の流体として、例えば、水のほか、二酸化炭素、亜酸化窒素、フレオン12、フレオン13、エタン、エチレン、プロパン、プロピレン、ブタン、ヘキサン、メタノール、ベンゼン、トルエン、アンモニア、その他多様な物質を選択して使用することも可能である。   Next, the best mode for carrying out the present invention will be described with reference to the drawings. FIG. 1 shows the configuration of a reaction apparatus 1 for organic reactants using supercritical fluid or subcritical fluid according to the present invention. Hereinafter, water is used as a fluid in the reaction apparatus 1, but other than that, as a steam fluid for obtaining a supercritical fluid or a subcritical fluid, for example, carbon dioxide, nitrous oxide, freon 12, freon 13, It is also possible to select and use ethane, ethylene, propane, propylene, butane, hexane, methanol, benzene, toluene, ammonia and other various substances.

反応装置1には、シリンダ3と、シリンダ3に設けられた圧縮プランジャ4とからなる反応機関2が設けられている。プランジャ4とは、ピストンを含む広い概念である。   The reaction apparatus 1 is provided with a reaction engine 2 including a cylinder 3 and a compression plunger 4 provided in the cylinder 3. The plunger 4 is a broad concept including a piston.

反応機関2において、圧縮プランジャ4を動作させることによりボイラー等からの水蒸気を導入すると共に、この水蒸気を圧縮して超臨界又は亜臨界状態とする。この超臨界又は亜臨界状態の水蒸気に被反応物質に接触させて、被反応物質に化学反応を生じさせる。次いで、被反応物における化学反応の終了後に圧縮プランジャ4を逆方向に動作させて蒸気の温度及び圧力を急激に下げて反応を凍結すると共にシリンダ3内より排出し更に減圧することにより水蒸気を液化させ、得られた水を被反応物質の生成物とともに取り出す。再度、圧縮プランジャ4を前記同様に動作させることにより、新たな蒸気をシリンダ3に吹き込む。反応機関においては、このような吸排気行程を周期的に動作させることができる。   In the reaction engine 2, the compression plunger 4 is operated to introduce water vapor from a boiler or the like, and the water vapor is compressed to a supercritical or subcritical state. The reactant is brought into contact with the supercritical or subcritical water vapor to cause a chemical reaction in the reactant. Next, after completion of the chemical reaction in the reaction object, the compression plunger 4 is operated in the reverse direction to rapidly reduce the temperature and pressure of the steam to freeze the reaction, and discharge from the cylinder 3 to further reduce the pressure to liquefy the water vapor. The obtained water is taken out together with the product of the reactant. Again, by operating the compression plunger 4 in the same manner as described above, new steam is blown into the cylinder 3. In the reaction engine, such an intake and exhaust stroke can be operated periodically.

圧縮プランジャ4には、シリンダ3の内周面との間の気密性を保つために、その上部のヘッド4a付近にシールリング4bが周設されている。さらに、圧縮プランジャ頂面4aに対面して反応室5がシリンダ3の上部に設けられている。また、シリンダ3には、反応室5に面して反応機関2の吸気弁6及び排気弁7が設けられている。反応機関2では、シリンダ3の上部にシリンダヘッド10が設けられている。シリンダヘッド10には、その底部に反応機関2における吸気弁6及び排気弁7が設けられた位置に吸気孔11及び排気孔12が形成されている。シリンダヘッド10には第2吸気弁を有する場合もある。   In order to maintain the airtightness between the compression plunger 4 and the inner peripheral surface of the cylinder 3, a seal ring 4b is provided around the upper head 4a. Further, a reaction chamber 5 is provided in the upper part of the cylinder 3 so as to face the compression plunger top surface 4a. Further, the cylinder 3 is provided with an intake valve 6 and an exhaust valve 7 of the reaction engine 2 facing the reaction chamber 5. In the reaction engine 2, a cylinder head 10 is provided on the upper portion of the cylinder 3. An intake hole 11 and an exhaust hole 12 are formed in the cylinder head 10 at a position where the intake valve 6 and the exhaust valve 7 in the reaction engine 2 are provided at the bottom. The cylinder head 10 may have a second intake valve.

吸気弁6及び排気弁7の開閉は、各弁の上にそれぞれ設けられているタペット14を介して上下方向に駆動するようになっており、また吸気弁6、排気弁7は、シリンダヘッド10の上部に設けられたスプリング13による弾性力が閉じる方向に付加されている。   The intake valve 6 and the exhaust valve 7 are opened and closed in the vertical direction via tappets 14 provided on the respective valves. The intake valve 6 and the exhaust valve 7 are connected to the cylinder head 10. The elastic force by the spring 13 provided in the upper part of is added in the closing direction.

シリンダヘッド10の上に設けられたカム軸取付台18には、カム軸15がシリンダ3と直交して設けられている。カム軸15には、角度を違えた2つのカム16が軸上に設けられている。カム軸15が軸回転することにより、各カム16が各タペット14とそれぞれタイミングを合わせて当接しリフトさせるようになっている。カム16が対応する位置のタペット14と当接しリフトさせることにより、吸気弁6又は排気弁7が開閉される。   A cam shaft 15 is provided perpendicular to the cylinder 3 on a cam shaft mount 18 provided on the cylinder head 10. The cam shaft 15 is provided with two cams 16 at different angles on the shaft. As the cam shaft 15 rotates, the cams 16 are brought into contact with the tappets 14 at the same timing to be lifted. The intake valve 6 or the exhaust valve 7 is opened and closed by causing the cam 16 to contact and lift the tappet 14 at the corresponding position.

カム軸15は、カム軸取付台18によって軸方向の移動が固定されている。カム軸15の一端には、タイミングプーリー19がフランジ17を介して設けられている。タイミングプーリー19にはタイミングベルト21が設けられており、タイミングベルト21によってカム軸15が軸廻りに回転されるようになっている。   The cam shaft 15 is fixed to move in the axial direction by a cam shaft mount 18. A timing pulley 19 is provided at one end of the cam shaft 15 via a flange 17. A timing belt 21 is provided in the timing pulley 19, and the cam shaft 15 is rotated around the shaft by the timing belt 21.

カム軸15の左端には、タイミングプーリー19とカム軸15を一体化するためのピン23を移動させるカラー22が設けられいる。タイミングプーリー19には、1本又は複数本のピン23とバネ23aが設けられており、各ピン23は、バネ23aによりカラー22のフランジ部22aを左方向に付勢している。カラー22は、レバー24のほぼ中央部の突起部に接して連結されている。レバー24はその一端部がカム取付台18に設けた支持アーム25により揺動可能な状態で支持されている。カム取付台18の上部にはソレノイド26が設けられており、ソレノイド26に基づいて駆動軸27がその軸方向に移動される。この駆動軸27の移動によりレバー24が揺動される。   At the left end of the camshaft 15, a collar 22 for moving a pin 23 for integrating the timing pulley 19 and the camshaft 15 is provided. The timing pulley 19 is provided with one or a plurality of pins 23 and springs 23a, and each pin 23 urges the flange portion 22a of the collar 22 leftward by the spring 23a. The collar 22 is connected in contact with the protrusion at the substantially central portion of the lever 24. One end of the lever 24 is supported in a swingable state by a support arm 25 provided on the cam mount 18. A solenoid 26 is provided above the cam mount 18, and the drive shaft 27 is moved in the axial direction based on the solenoid 26. The lever 24 is swung by the movement of the drive shaft 27.

レバー24が右向きに揺動されると、各ピン23がバネ23aによる付勢力に抗して、右側に移動し、カム軸15に一体的に設けたフランジ17に予め設けられた切欠き部20にピン23の端部が図2示すように嵌合することによりカム軸15がタイミングプーリー19と一体化し駆動する。この場合、複数本のピン23のうち、フランジ17の切欠き部20に嵌合できるピンは1本のみで他はカラーのこじれ防止用である。また、レバー23が逆向きに揺動されると、各ピン23がバネ23aの弾性力により、フランジ17の切欠き部より抜けカム軸15が停止する。当然タイミングプーリー19は回転しつづけている。この場合、カム軸15の停止位相は吸気弁6、排気弁7が閉じた位相となるよう切欠部20は設定されている。   When the lever 24 is swung rightward, each pin 23 moves to the right against the urging force of the spring 23 a, and a notch 20 provided in advance in a flange 17 provided integrally with the camshaft 15. As shown in FIG. 2, the end of the pin 23 is fitted to the cam shaft 15 so as to be integrated with the timing pulley 19 and driven. In this case, of the plurality of pins 23, only one pin can be fitted into the notch 20 of the flange 17, and the other pins are for preventing the color from being twisted. Further, when the lever 23 is swung in the reverse direction, each pin 23 is removed from the notch portion of the flange 17 by the elastic force of the spring 23a, and the cam shaft 15 is stopped. Of course, the timing pulley 19 continues to rotate. In this case, the notch 20 is set so that the stop phase of the camshaft 15 is a phase in which the intake valve 6 and the exhaust valve 7 are closed.

このように構成される反応機関2においては、カム軸15が回転して、カム16がタペット14を押接することによって、吸気弁6を開放して水蒸気をシリンダ3の反応室5内に導入する。その後圧縮プランジャ4が動作して、所定の高温下での圧縮・膨張を複数回繰り返えされると、図3に示すように、その圧縮時に圧縮特性Aにおけるピークaが得られることになる。圧縮特性Aのピークa付近では、導入した水蒸気の超臨界状態又は亜臨界状態が得られる。   In the reaction engine 2 configured as described above, the cam shaft 15 rotates and the cam 16 presses the tappet 14 to open the intake valve 6 and introduce water vapor into the reaction chamber 5 of the cylinder 3. . Thereafter, when the compression plunger 4 is operated and compression and expansion at a predetermined high temperature are repeated a plurality of times, a peak a in the compression characteristic A is obtained during the compression as shown in FIG. In the vicinity of the peak a of the compression characteristic A, a supercritical state or a subcritical state of the introduced water vapor is obtained.

しかし、この水蒸気の超臨界又は亜臨界状態は、圧縮プランジャ4の反復速度が300rpmである場合、極く短時間t時間(例えば、0.03秒)維持されるだけである。従って、被反応物質が、ダイオキシンやPCB等の難分解性物質や、木粉等の有機系廃棄物などである場合には、この短時間内に分解したり、ガス化処理することは困難である。   However, this supercritical or subcritical state of water vapor is only maintained for a very short time t (for example, 0.03 seconds) when the repetition speed of the compression plunger 4 is 300 rpm. Therefore, when the substance to be reacted is a hardly decomposable substance such as dioxin or PCB, or an organic waste such as wood flour, it is difficult to decompose or gasify it within this short time. is there.

本発明の反応装置における反応機関2では、レバー24が左方向に移動するように制御され、カム軸を所定の位相で停止されることで、各タペット14とカム軸15との当接状態が解除され、反応機関2における吸気弁6、排気弁7が閉じた状態で吸気弁6、排気弁7の駆動が一時的に停止される。そのため、シリンダ3の反応室5に予め導入した水蒸気に対する圧縮・膨張を複数回繰り返えすことが可能となる。図3においては、吸排気の期間をαで示し、吸排気の停止期間をβで示した。   In the reaction engine 2 in the reaction apparatus of the present invention, the lever 24 is controlled to move leftward, and the camshaft is stopped at a predetermined phase, whereby the contact state between each tappet 14 and the camshaft 15 is changed. When the intake valve 6 and the exhaust valve 7 in the reaction engine 2 are closed, the drive of the intake valve 6 and the exhaust valve 7 is temporarily stopped. Therefore, it becomes possible to repeat the compression / expansion with respect to the water vapor previously introduced into the reaction chamber 5 of the cylinder 3 a plurality of times. In FIG. 3, the intake / exhaust period is indicated by α, and the intake / exhaust stop period is indicated by β.

このように予め導入した水蒸気に対する圧縮・膨張が複数回繰り返えされると、吸排気の停止期間βにおいて、導入した同じ水蒸気に対する圧縮・膨張がt時間×繰り返し数分だけ繰り返されることになる。この結果、反応室5に導入された同じ水蒸気は、その超臨界状態又は亜臨界状態が積算的に継続されることになる。水蒸気に対する超臨界状態又は亜臨界状態が長い時間に亘り維持、継続されることにより、ダイオキシンやPCB等の難分解性物質や、木粉等の有機系廃棄物等の被処理物質を分解し、あるいはガス化処理することが可能となる。   When the compression / expansion with respect to the previously introduced water vapor is repeated a plurality of times as described above, the compression / expansion with respect to the same introduced water vapor is repeated for the time of t times × the number of repetitions during the intake / exhaust stop period β. As a result, the same water vapor introduced into the reaction chamber 5 is continuously accumulated in its supercritical state or subcritical state. By maintaining and continuing the supercritical state or subcritical state with respect to water vapor for a long time, the material to be treated such as dioxins and PCBs, and organic waste such as wood powder is decomposed, Alternatively, gasification treatment can be performed.

反応機関2における吸排気行程の停止時間は、対象とする被反応物質の種類により異なるため、一定していない。例えば、被反応物が、木粉等の有機物廃棄物粉やダイオキシン等の難分解部質である場合、それらの被反応物質を処理のためには超臨界水状態が0.1秒程度の反応時間が必要である。   The stop time of the intake / exhaust stroke in the reaction engine 2 is not constant because it varies depending on the type of the target reactant. For example, when the reactant is an organic waste powder such as wood powder or a hardly decomposable substance such as dioxin, a reaction in which the supercritical water state is about 0.1 seconds for the treatment of the reactant. I need time.

ところで、前記した反応機関2により被反応物質を処理する場合、シリンダ3の反応室5において、水蒸気が圧縮プランジャ4の摺動面からのリークや、シリンダ3などの壁面からの放熱によって、反応機関2における2回目以降での超臨界状態又は亜臨界状態での温度と圧力が1回目よりも低下するという問題点がある。   By the way, when the reaction substance is processed by the reaction engine 2 described above, in the reaction chamber 5 of the cylinder 3, the water vapor leaks from the sliding surface of the compression plunger 4 or releases heat from the wall surface of the cylinder 3. There is a problem that the temperature and pressure in the supercritical state or subcritical state after the second time in 2 are lower than the first time.

これらの問題点に対し、本発明では、水蒸気のリークや放熱により失われた圧縮前の水蒸気をその都度補給する方法により解決した。すなわち、シリンダ3における内圧が、水蒸気の吸気圧力より低下したときに、吸気バルブを開き、新たな水蒸気をシリンダ内に補給することにより、反応機関における水蒸気のリークや放熱分を補うことが可能となる。これにより、2回目以降の圧縮においても、1回目に近い超臨界状態又は亜臨界状態を反応機関において確保し、被反応物質に対する処理を完全に実行することができる。   In order to solve these problems, the present invention solves the problem by replenishing the water vapor before compression lost due to water vapor leakage or heat dissipation each time. That is, when the internal pressure in the cylinder 3 is lower than the intake pressure of the water vapor, the intake valve is opened and new water vapor is supplied into the cylinder, so that it is possible to compensate for water vapor leakage and heat radiation in the reaction engine. Become. Thereby, even in the second and subsequent compressions, the supercritical state or subcritical state close to the first time can be secured in the reaction engine, and the process on the reactant can be performed completely.

本発明に係る実施するための最良の形態の超臨界流体又は亜臨界流体による有機反応物質等の反応装置の部分縦断正面図である。It is a partial longitudinal cross-sectional front view of reaction apparatuses, such as an organic reactant by the supercritical fluid or subcritical fluid of the best form for implementing this invention. 本発明に係る実施するための最良の形態の超臨界流体又は亜臨界流体による有機反応物質等の反応装置におけるカラーの嵌合状態を説明する側面図である。It is a side view explaining the fitting state of the color | collar in reactors, such as an organic reactant by the supercritical fluid or subcritical fluid of the best form for implementing this invention. 本発明に係る実施するための最良の形態の超臨界流体又は亜臨界流体による有機反応物質等の反応装置における圧縮時の特性曲線及びそのピークを示す図である。It is a figure which shows the characteristic curve and its peak at the time of compression in reaction apparatuses, such as an organic reactant by the supercritical fluid or subcritical fluid of the best form for implementing this invention.

符号の説明Explanation of symbols

1 反応装置(図示されていない蒸気発生ボイラー、配管等を含む。)
2 反応機関
3 シリンダ
4 圧縮プランジャ
4a 圧縮プランジャ頂面
4b シール部材
5 反応室
6 吸気弁
7 排気弁
10 シリンダヘッド
11 吸気孔
12 排気孔
13 スプリング
14 タペット
15 カム軸
16 カム
17 フランジ
18 カム軸取付台
19 タイミングプーリー
20 切欠き部
21 タイミングベルト
22 カラー
22a カラーフランジ部
23 ピン
23a バネ
24 レバー
25 支持アーム
26 ソレノイド
27 駆動軸
1 Reactor (including steam generating boiler, piping, etc. not shown)
2 Reaction Engine 3 Cylinder 4 Compression Plunger 4a Compression Plunger Top 4b Seal Member 5 Reaction Chamber 6 Intake Valve 7 Exhaust Valve 10 Cylinder Head 11 Intake Hole 12 Exhaust Hole 13 Spring 14 Tappet 15 Cam Shaft 16 Cam 17 Flange 18 Cam Shaft Mounting Base 19 Timing pulley 20 Notch portion 21 Timing belt 22 Collar 22a Collar flange portion 23 Pin 23a Spring 24 Lever 25 Support arm 26 Solenoid 27 Drive shaft

Claims (5)

シリンダとこのシリンダに設けられた圧縮プランジャとからなり、圧縮プランジャを動作させることによりシリンダ内に導入した被反応物質を伴う流体蒸気を圧縮し、この圧縮による被反応物質の化学反応が終了した後に圧縮プランジャを逆方向に動作させて流体蒸気の温度及び圧力を下げ、得られた生成物を含む流体をシリンダ内から取り出して新たな流体蒸気をシリンダ内に吹き込むことにより周期的に吸排気行程を行う反応機関において、この反応機関における吸排気弁の駆動を一時的に停止して、導入した流体蒸気に対する圧縮・膨張を複数回繰り返して動作させることを特徴とする超臨界流体又は亜臨界流体による有機反応物質等の反応方法。   It consists of a cylinder and a compression plunger provided in the cylinder, and by operating the compression plunger, the fluid vapor with the reactant introduced into the cylinder is compressed, and after the chemical reaction of the reactant by this compression is completed The compression plunger is operated in the opposite direction to lower the temperature and pressure of the fluid vapor, the fluid containing the obtained product is taken out from the cylinder, and new fluid vapor is blown into the cylinder to periodically perform the intake and exhaust strokes. In the reaction engine to be operated, the drive of the intake / exhaust valve in the reaction engine is temporarily stopped, and compression / expansion with respect to the introduced fluid vapor is repeatedly performed a plurality of times. Reaction methods for organic reactants. 前記反応機関における圧縮・膨張の繰り返し時に、吸気弁のみ駆動し新たな流体蒸気を前記シリンダ内に補給する請求項1に記載された超臨界流体又は亜臨界流体による有機反応物質等の反応方法。   The method for reacting an organic reactant or the like with a supercritical fluid or a subcritical fluid according to claim 1, wherein only the intake valve is driven and new fluid vapor is replenished into the cylinder at the time of repeated compression / expansion in the reaction engine. 前記シリンダの内圧が吸気圧力より低下したときに自動的に又は強制的に吸気バルブが開き、新たな流体蒸気を前記シリンダ内に補給するように吸気弁の取付荷重を設定又は駆動機構を設けた請求項2に記載された超臨界流体又は亜臨界流体による有機反応物質等の反応方法。   When the internal pressure of the cylinder falls below the intake pressure, the intake valve is automatically or forcibly opened, and the intake valve mounting load is set or a drive mechanism is provided so that new fluid vapor is supplied into the cylinder. A method for reacting an organic reactant or the like with the supercritical fluid or subcritical fluid according to claim 2. シリンダとこのシリンダに設けられた圧縮プランジャとからなり、圧縮プランジャーを動作させることによりシリンダ内に導入した被反応物質を伴う流体蒸気を圧縮し、この圧縮による被反応物質の化学反応が終了した後に圧縮プランジャを逆方向に動作させて流体蒸気の温度及び圧力を下げ、得られた生成物を含む流体をシリンダ内から取り出して新たな流体蒸気をシリンダ内に吹き込むことにより周期的に吸排気行程を行う反応機関において、この反応機関にその吸排気弁を駆動、停止させる動弁機構を設けてなり、かつ、吸入蒸気より高く設定された蒸気をシリンダ内に導入する第2の吸気弁を設けており、この第2吸気弁を反応機関の駆動タイミングと同期させると共に吸排気弁の駆動を停止しているタイミングに駆動させシリンダ内に高い蒸気を導入することを特徴とする超臨界流体又は亜臨界流体による有機反応物質等の反応装置。   It consists of a cylinder and a compression plunger provided in this cylinder. By operating the compression plunger, the fluid vapor with the reactant introduced into the cylinder is compressed, and the chemical reaction of the reactant by this compression is completed. Later, the compression plunger is operated in the opposite direction to lower the temperature and pressure of the fluid vapor, the fluid containing the obtained product is taken out from the cylinder, and new fluid vapor is blown into the cylinder to periodically take in and out the exhaust stroke. In this reaction engine, the reaction engine is provided with a valve operating mechanism for driving and stopping the intake and exhaust valves, and a second intake valve for introducing steam set higher than the intake steam into the cylinder. The second intake valve is synchronized with the drive timing of the reaction engine and is driven at the timing when the intake / exhaust valve is stopped. Reactor organic reactants such as with supercritical fluid or subcritical fluid and introducing the high vapor. 前記動弁機構としてピンとの嵌脱により駆動するカム軸が反応機関に設けられてなり、ピンのカム軸への嵌脱により、カム軸の駆動、停止を制御することにより前記反応機関における吸排気行程を駆動、停止させるようにした請求項4に記載された超臨界流体又は亜臨界流体による有機反応物質等の反応装置。   As the valve mechanism, a camshaft that is driven by engagement with a pin is provided in the reaction engine, and the intake and exhaust of the reaction engine is controlled by controlling the drive and stop of the camshaft by fitting and disengaging the pin to the camshaft. 5. The reaction apparatus for reacting an organic reactant with a supercritical fluid or a subcritical fluid according to claim 4, wherein the stroke is driven and stopped.
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