WO2023063287A1 - Method and apparatus for producing useful substance - Google Patents

Method and apparatus for producing useful substance Download PDF

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Publication number
WO2023063287A1
WO2023063287A1 PCT/JP2022/037773 JP2022037773W WO2023063287A1 WO 2023063287 A1 WO2023063287 A1 WO 2023063287A1 JP 2022037773 W JP2022037773 W JP 2022037773W WO 2023063287 A1 WO2023063287 A1 WO 2023063287A1
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Prior art keywords
steam
raw material
pressure
opening
producing
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PCT/JP2022/037773
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French (fr)
Japanese (ja)
Inventor
三郎 松井
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G-8 International Trading株式会社
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Publication of WO2023063287A1 publication Critical patent/WO2023063287A1/en

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    • BPERFORMING OPERATIONS; TRANSPORTING
    • B27WORKING OR PRESERVING WOOD OR SIMILAR MATERIAL; NAILING OR STAPLING MACHINES IN GENERAL
    • B27KPROCESSES, APPARATUS OR SELECTION OF SUBSTANCES FOR IMPREGNATING, STAINING, DYEING, BLEACHING OF WOOD OR SIMILAR MATERIALS, OR TREATING OF WOOD OR SIMILAR MATERIALS WITH PERMEANT LIQUIDS, NOT OTHERWISE PROVIDED FOR; CHEMICAL OR PHYSICAL TREATMENT OF CORK, CANE, REED, STRAW OR SIMILAR MATERIALS
    • B27K5/00Treating of wood not provided for in groups B27K1/00, B27K3/00
    • CCHEMISTRY; METALLURGY
    • C10PETROLEUM, GAS OR COKE INDUSTRIES; TECHNICAL GASES CONTAINING CARBON MONOXIDE; FUELS; LUBRICANTS; PEAT
    • C10BDESTRUCTIVE DISTILLATION OF CARBONACEOUS MATERIALS FOR PRODUCTION OF GAS, COKE, TAR, OR SIMILAR MATERIALS
    • C10B53/00Destructive distillation, specially adapted for particular solid raw materials or solid raw materials in special form
    • C10B53/02Destructive distillation, specially adapted for particular solid raw materials or solid raw materials in special form of cellulose-containing material
    • CCHEMISTRY; METALLURGY
    • C10PETROLEUM, GAS OR COKE INDUSTRIES; TECHNICAL GASES CONTAINING CARBON MONOXIDE; FUELS; LUBRICANTS; PEAT
    • C10CWORKING-UP PITCH, ASPHALT, BITUMEN, TAR; PYROLIGNEOUS ACID
    • C10C5/00Production of pyroligneous acid distillation of wood, dry distillation of organic waste
    • 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
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02WCLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO WASTEWATER TREATMENT OR WASTE MANAGEMENT
    • Y02W30/00Technologies for solid waste management
    • Y02W30/50Reuse, recycling or recovery technologies
    • Y02W30/78Recycling of wood or furniture waste

Definitions

  • the present invention relates to a method and apparatus for producing useful substances, and in particular, to a method and apparatus for producing useful substances that use wood as a raw material, particularly fulvic acid/humic acid and wood acetic acid.
  • Humic substances such as fulvic acid and humic acid are said to be a generic term for "organic substances with unspecified chemical structures (non-living organic substances)" that are organic substances that have decayed due to microbial and chemical action after the death of living organisms. There is It is empirically known that some humic substances exhibit functionality and others do not. It is considered that whether or not the intermediate product is included in the process has a large effect. A humic substance that exhibits functionality when it contains this intermediate product is sometimes referred to as a humic precursor. (Non-Patent Document 1)
  • Patent Document 1 discloses a wastewater treatment method using a bacterial group consisting of soil-dwelling facultative anaerobic bacteria cultivated to produce metabolites containing phenol and/or compounds with phenol-exposed groups. It is a technology related to This "metabolite containing a phenol or/and a compound with a phenol-exposed group" causes a polycondensation reaction of humification by reacting with silicic acid, etc., and is an excellent wastewater that utilizes humus. It is intended to disclose a processing method.
  • humic plants are known to contain humin, fulvic acid, humic acid, etc. as the degree of humification (degree of polycondensation reaction) of their components.
  • Common humic substances contain fulvic acid and humic acid at a weight ratio of about 2:8.
  • Patent Document 1 in the process of treating wastewater containing organic substances, there are those that use substances corresponding to this humic substance, but fulvic acid, humic acid, etc. in humic substances are not simple substances, Because of the fact that all of them are regarded as a group of multiple organic compounds, and because it is difficult to separate them, there has not been sufficient research on which substances have what effects specifically. .
  • commercially available solutions containing fulvic acid are also expected to be effective as (micro)biologically active liquids, and are also suitable for applications such as agriculture where large quantities of products are required to be provided at the lowest possible cost. In order to utilize , there is a demand for a product that selectively contains fulvic acid at a high concentration.
  • Patent Document 2 Japanese Patent Application Laid-Open No. 2017-112947
  • Patent Document 2 regarding fulvic acid, which is expected to be used as a (micro)biologically active liquid among humic substances, compared to the ratio of general humic substances, humin
  • the following production method has been proposed for the purpose of providing a method for producing a fulvic acid-rich liquid containing a high ratio of fulvic acid to acid.
  • an organic substance mixed liquid in which an organic substance and fulvic acid-acclimated sludge are mixed is heated to a dissolved oxygen concentration of 0.1 mg-O / L or less for 4 hours.
  • an anaerobic culture step in which the organic substance in the organic substance mixture is reduced by anaerobic culture to obtain an anaerobic culture solution, and a dissolved oxygen concentration of 0.2 mg-O / in the anaerobic culture solution.
  • the method for producing fulvic acid proposed in this patent publication is a sealed container having a closable processing space therein; steam ejection means for ejecting high-temperature and high-pressure steam into the closed container; , an apparatus preparation step of preparing a processing apparatus having an opening/closing mechanism and a discharge unit for discharging the processing liquid generated by processing the raw material with the steam to the outside; A raw material charging step of charging a raw material containing wood chips as a main raw material from the supply unit into the processing space of the closed container of the processing apparatus; While introducing steam having a temperature of 120 to 250° C.
  • the raw material is subjected to subcritical water reaction treatment while stirring the raw material, a process step of obtaining a mixed solution containing a suspension of fulvic acid, humic acid and wood chips and/or fragments thereof, and A method for producing a fulvic acid solution, comprising a step of obtaining a fulvic acid solution by separating fulvic acid from the obtained mixed solution.
  • fulvic acid with good purity can be produced efficiently.
  • wood contains a number of other useful substances (including useful substances derived from wood). was not utilized effectively.
  • an object of the present invention is to provide a useful substance manufacturing method and a manufacturing apparatus for manufacturing two or more useful substances using wood as a raw material.
  • a device preparation step of preparing a device A raw material charging step of charging a raw material containing wood chips as a main raw material from the supply unit into the processing space of the closed container of the processing apparatus; While introducing steam having a temperature of 120 to 200° C.
  • the raw material is carbonized by a subcritical water reaction while stirring the raw material.
  • a second subcritical water treatment step of obtaining a second mixed solution containing the formed carbonized solid and pyroligneous acid produced along with the carbonization;
  • a final pressure reduction step of opening the steam exhaust valve to exhaust high pressure steam from the processing space to reduce the pressure in the processing space from high pressure to atmospheric pressure;
  • a second liquid recovery step of opening the opening/closing valve to recover only the liquid that will be the raw material of pyroligneous acid from the processing space, and a solid recovery step of opening the opening/closing mechanism to recover solid carbide from the processing space.
  • a method for producing a useful substance comprising: (2) The method for producing a useful substance according to (1) above, wherein the maximum temperature holding time is 15 to 20 minutes in the first subcritical water treatment step. (3) The method for producing a useful substance according to (1) or (2), wherein the maximum temperature holding time is 15 to 20 minutes in the second subcritical water treatment step. (4) The method for producing a useful substance according to (1), wherein the wood is felled wood or waste wood. (5) The method for producing a useful substance according to (4) above, wherein the felled timber is from a broad-leaved tree or a coniferous tree.
  • the processing equipment includes a condensing means connected to the steam outlet, and the condensing means recovers the wood-derived volatile organic compounds from the high-pressure steam ejected from the steam outlet by condensing the (1) ) to (16).
  • a useful substance manufacturing apparatus for manufacturing at least two kinds of useful substances by processing wood chips as raw materials comprising: a closed container having a closable processing space therein; and supplying raw materials into the closed container.
  • a supply unit for the purpose, a steam ejection means for ejecting high-temperature and high-pressure steam into the sealed container, an opening/closing valve for discharging only the liquid from the closed container, and an opening/closing mechanism for discharging the solid matter.
  • an outlet a steam outlet having a steam outlet valve for discharging high-pressure steam from the closed container, and a wood-derived volatile organic compound connected to the steam outlet and ejected from the high-pressure steam ejected from the steam outlet.
  • a useful substance manufacturing apparatus equipped with condensing means for condensing and recovering compounds.
  • FIG. 2 is a diagram showing changes in treatment pressure and treatment temperature in a treatment step in the method for producing a useful substance of the present invention.
  • the manufacturing apparatus 10 includes a sealed container 12 having a closed space S1, which is a processing space for containing raw materials, which are wood chips, and a steam jet for jetting high-temperature and high-pressure steam, which is subcritical water, into the closed container 12.
  • means 14 a discharge port 16 provided on the bottom side of the sealed container 12 and having an opening/closing mechanism 26, and a separating and recovering means 18 for separating and collecting the raw material and the liquid which have been treated only by the direct discharge operation from the discharge port 16. and have.
  • the shape of the closed container 12 may be, for example, a rectangular box shape, a three-dimensional polygonal cylinder shape, a cylindrical shape, a barrel shape, a drum shape, or any other shape. A shape that is ejected is preferred. It is preferable that the bottom surface of the closed container is inclined downward toward the outlet.
  • the separation and recovery means 18 includes a liquid recovery section 50 communicating with the inside of the sealed container 12 through the discharge port 16, and recovers only the liquid in the closed container 12 to the recovery section 50 by gravity flow through the discharge port 16. It is good also as having a gravity collection mechanism 52 and.
  • the raw material as a solid content processed near the discharge port 16 remains in the closed container 12 as it is, and only the liquid naturally flows down to the recovery section 50 using gravity, so that the raw material and the liquid can be separated and recovered.
  • the recovery unit 50 may have any configuration, such as a metal tank, a three-dimensional polygonal box, or a tubular body, as long as it has a closed space S2 for recovering the liquid. A plurality of accommodating portions may be formed.
  • the separation means is incorporated in the processing apparatus, but the separation means may be provided separately in the processing apparatus itself.
  • the gravity recovery mechanism 52 also includes a liquid recovery channel 54 that communicates and connects the discharge port 16 of the sealed container 12 and the recovery unit 50 . It may be provided horizontally or downwardly toward the 50 side.
  • an opening/closing mechanism 26 is provided in the middle of the discharge route R1 from the discharge port 16 of the processed raw material, and the liquid introduction port 58 of the liquid recovery channel 54 is connected to the discharge upstream side of the opening/closing mechanism 26 .
  • liquid recovery channel 54 is selected so as to block the channel during the processing of the raw material in the sealed container 12 and to allow the channel to communicate when only the liquid is recovered after the processing.
  • An opening/closing valve 60 is provided for switching between them.
  • the bottom surface of the closed space S2 of the recovery unit 50 may be provided lower than the position of the discharge port 16 of the sealed container 12.
  • the sealed container 12 is preferably formed in a sideways barrel shape in which a discharge port 16 is provided on the bottom side of the left-right central portion and the diameter gradually decreases from the left-right central portion toward the left and right end sides.
  • a stirring member 30 is provided inside the sealed container 12 .
  • the stirring means 30 is provided horizontally coaxially with the horizontal central axis of the sealed container 12, and has a rotating shaft 49 rotatably supported at both ends thereof. and a stirring blade 48 extending in the circumferential direction, and the length from the rotating shaft 49 of the stirring blade 48 to the tip of the blade corresponds to the overturned barrel shape of the closed container 12, as shown in the figure. It is preferable that it is formed so that it is large at the central position in the longitudinal direction of 49 and gradually becomes smaller toward both ends.
  • the steam jetting means 14 includes a rotating shaft/steam jetting pipe 28 configured by forming a plurality of steam jetting holes 44 on the peripheral surface of the hollow tube with the rotating shaft 49 as a hollow tube. good too.
  • the sealed container 12 is preferably supported by supporting legs so as to be positioned at a certain height from the ground. It is preferable that the closed container 12 is formed by processing a metal plate so as to have heat resistance and pressure resistance, and that the closed space inside is provided with a size of about 2 m 3 or more.
  • the airtight container 12 is provided with an inlet section 20 at the central upper portion and an outlet section 22 at the central bottom portion, and is provided with opening/closing mechanisms 24 and 26, respectively, so that it can be opened and closed.
  • the sealed container 12 is provided with, for example, a safety valve (not shown) capable of adjusting the set pressure, which releases the internal steam when the internal pressure becomes higher than the set value.
  • a silencing/deodorizing device is provided in the middle of the exhaust pipe connected to the safety valve, and the steam exhausted through the safety valve is muted and deodorized before being discharged to the outside air.
  • the diameter of the discharge port 16 is, for example, about 300 mm.
  • a downward projecting discharge tube 36 is connected to the discharge port 16 to form the discharge route R1 for the processed raw material.
  • the opening/closing mechanism 26 for opening and closing the discharge port 16 is provided in the middle of the discharge path R1 of the discharge tube 36.
  • the discharge section 22 is configured to include the discharge port 16 , the discharge tube 36 , and the opening/closing mechanism 26 . Since the sealed container 12 is formed in a barrel-like shape lying down, the raw material inside tends to gather from the left and right toward the central portion where the discharge port 16 is provided due to gravity, and can be easily processed simply by opening the opening and closing mechanism 26. The finished raw material can be discharged from the discharge port 16 .
  • the input port 42 is opened in the center of the upper side of the sealed container 12 in the input part 20, and the input cylinder 43 projecting upward is attached to the input port 42, and the inside of the input cylinder 43 is opened and closed.
  • the opening/closing mechanism 24 is provided as follows. Via the opening/closing mechanism 24, the input port 42 can be opened to input the raw material into the closed container, and closed during processing to maintain the closed state of the closed space S1 in the closed container 12. ⁇
  • the steam ejecting means 14 ejects high-temperature, high-pressure steam into the sealed container 12, and sets the inside of the closed container 12 to a high-temperature, high-pressure state, and processes the raw material using the steam.
  • the steam ejection means 14 includes a steam ejection pipe 28 which is a hollow tube arranged in the sealed container 12 and formed with a large number of steam ejection holes 44 on the peripheral surface side, and a steam generator such as a boiler.
  • the steam generator 46 includes a steam supply control valve 46a for controlling the supply state and the supply stop state of the generated steam, and by closing the steam supply control valve 46a, the supply of steam can be temporarily stopped. It is possible.
  • the steam supply control valve 46 a may be provided in the steam pipe 47 .
  • the steam jetted from the steam jetting means 14 into the sealed container 12 is set to a high temperature and high pressure that satisfies the conditions of subcritical water in order to properly treat the raw material.
  • the steam ejected from the steam ejection pipe 28 has a temperature of 120 to 250° C. and a pressure of 4 to 30 atm.
  • the inside of the sealed container 12 is kept at a temperature of 120 to 250° C. and a pressure of 4 to 30 atm.
  • the steam ejection pipe 28 is arranged long in the horizontal direction at a substantially central position in the vertical direction of the sealed container 12, and is rotatably supported via bearings 45 provided on both end walls 12a and 12b of the sealed container. That is, the steam ejection pipe 28 is adapted to directly apply the steam to the raw material while rotating around the horizontal axis and ejecting the steam radially.
  • the steam ejection pipe 28 is rotated by receiving rotational driving force from a rotational driving device (not shown) such as a motor through a chain 70 or the like. Further, the steam ejection pipe 28 is attached with a stirring blade 48 that constitutes the stirring means, and the steam ejection pipe 28 also serves as a rotating shaft 49 of the stirring means.
  • the steam ejecting means 14 is a rotating shaft and steam configured by using a hollow tube as the rotating shaft 49 of the stirring means and forming a plurality of steam ejecting holes on the peripheral surface of the hollow tube.
  • the steam ejection means is not limited to this configuration, and may be of any other configuration, such as a configuration in which steam is ejected from the tip of a pipe inserted into a closed container, a configuration in which a plurality of steam ejection pipes are arranged, and the like. good.
  • the stirring means 30 is a means for stirring raw materials to be processed in a closed container, and can process the raw materials evenly and quickly.
  • the stirring means 30 includes a rotating shaft 49 made up of the steam ejection pipe 28, and stirring blades 48 attached to the rotating shaft 49 and having portions extending in the circumferential direction of the rotating shaft.
  • the stirring blade 48 is formed of a right-handed spiral blade 48a and a left-handed spiral blade 48b, which are provided at a substantially central position in the axial direction of the rotating shaft 49 so as to be wound in opposite directions.
  • the stirring blades 48 are provided such that the length from the rotating shaft to the tip of the blade gradually decreases in diameter from the left-right central portion toward both ends.
  • the raw material can be reliably agitated corresponding to the overturned barrel shape of the closed container 12 . Furthermore, it is provided so as to form a certain amount of gap H between the tip of the blade and the inner wall of the closed container 12 .
  • the spiral blades 48a and 48b stir the raw material while crushing the solid raw material while conveying the raw material from the central portion toward the both end wall sides.
  • the raw material conveyed to the side of both end walls 12a and 12b by the stirring blade 48 is pushed by the raw material that is subsequently conveyed on the side of the end walls 12a and 12b, along the inner wall of the sealed container 12 and through the gap H. Transported back to center.
  • the stirring means 30 is not limited to the configuration described above, and may be of any other configuration.
  • the separation/recovery means 18 is a separation/recovery means that separates and recovers the processed raw material and the liquid in the sealed container 12 after steam treatment only by direct operation from the discharge port. As shown in FIG. 1, the separation and recovery means 18 includes a liquid recovery section 50 that communicates with the inside of the sealed container 12 through the discharge port 16, and the recovery section 50 recovers the liquid through the discharge port 16 by gravity flow. and a gravity recovery mechanism 52 .
  • the liquid recovery channel 54 has a liquid inlet port 58 connected to the discharge port 16 so as to form a liquid recovery route R2 branched from the processed raw material discharge route R1.
  • the liquid recovery channel 54 is provided by, for example, a metal tube having an inner diameter of about 6 mm.
  • the liquid recovery channel 54 is provided with the opening/closing valve 60 for selectively switching the communication state of the channel, as described above.
  • the opening/closing valve 60 is switched so as to block the flow path during the processing of the raw material in the closed container and open the flow path when only the liquid is separated and recovered after the processing.
  • the moisture and steam contained in the raw material are liquefied at the same time as the raw material, and the liquid containing bacteria and malodorous components in the raw material can be treated with high-temperature, high-pressure steam.
  • the liquid separated and recovered after the treatment can be recovered in a state such as sterilization or decomposition of odors and harmful components. Time can be shortened.
  • a volatile useful substance recovery mechanism 30 such as terpene oil is provided in the upper part of the closed container 12, and this volatile useful substance recovery mechanism 30 is connected to the high-pressure high-temperature steam discharge port 19 provided in the closed container 12.
  • a high-temperature and high-pressure steam discharge pipe 31 communicating with the closed space S1 via a steam discharge valve 32 provided upstream of the high-temperature and high-pressure steam discharge pipe 31, and receiving the high-temperature and high-pressure steam from the steam discharge valve 32.
  • Condensing means 34 for cooling and condensing said high pressure and high temperature steam to recover a liquid containing volatile organic compounds derived from wood, and a storage vessel to which the liquid from said condensing means 34 is conveyed via a line 35. 38.
  • the liquid stored in the storage container 38 is a liquid containing volatile organic compounds derived from wood as described above, and the volatile organic compounds are extracted from the liquid as necessary to produce products.
  • the manufacturing apparatus 10 is composed of a central processing circuit and the like, and according to a predetermined program stored in advance, the opening/closing mechanism 26, the steam discharge valve 32, the steam generator 46, the steam supply control valve 46a, the opening/closing valve 60, etc.
  • a control circuit 100 is provided to control the operation.
  • a method for producing a useful substance according to an embodiment of the present invention comprises an apparatus preparation step of preparing the processing apparatus as described above; A raw material charging step of charging a raw material containing wood chips as a main raw material from the supply unit into the processing space of the closed container of the processing apparatus; While introducing steam having a temperature of 120 to 200° C.
  • the raw material is carbonized by a subcritical water reaction while stirring the raw material.
  • a second subcritical water treatment step of obtaining a second mixed solution containing the formed carbonized solid and pyroligneous acid produced along with the carbonization;
  • a final pressure reduction step of opening the steam exhaust valve to exhaust high pressure steam from the processing space to reduce the pressure in the processing space from high pressure to atmospheric pressure;
  • the main raw material is wood chips.
  • the size of the chip is preferably about 50 to 150 cm on the long side and about 5 cm on the short side 2 .
  • an alkaline solution can be added in order to efficiently produce more fulvic acid.
  • the vapor pressure and temperature when adding the alkaline solution may be the same as when not adding.
  • the felled wood may be either broad-leaved trees or coniferous trees.
  • any broad-leaved tree may be used, but at present, for example, white birch, willow, chestnut, oak, beech, etc. are preferably used.
  • conifers pine, cedar, Japanese cypress, Asunaro, etc. can be preferably used at present.
  • felled wood it is not necessary to remove the bark or the like. It may also contain leaves, roots, or fruit shells such as coconut shells as they are or in the form of chips.
  • Waste materials include wood chips (square timbers, planks: solid timbers, laminated timbers/plywood timbers (plywood)) generated during the demolition of wooden houses. Since such wood waste is generally made into chips, it can be used as it is as a raw material.
  • the raw materials mentioned above may be mixed and used. For example, when trees are felled in ordinary households, felled wood of various kinds of trees is discharged. These woods may be used as a raw material by mixing the whole wood as chips without sorting them. Of course, waste chips may be mixed therein.
  • the raw materials which are chips as described above, are put into the processing space, and the amount of raw materials is preferably 90% or less, particularly 50 to 80%, of the closed space S1 of the closed container 12, that is, the processing space. If the input amount of raw material is lower than this range, the treatment efficiency is poor, and if it exceeds this range, the steam may not act well on the raw material, resulting in insufficient production of fulvic acid.
  • ⁇ First subcritical water treatment process>> high-pressure high-temperature steam is introduced into the processing space in which the raw materials are charged, and the raw materials are subjected to a subcritical water reaction treatment while stirring the raw materials to obtain fulvic acid, humic acid, and wood chips. and/or obtain a first mixed solution containing solids of the fragments.
  • the steam should have a temperature of 120 to 200° C. and a pressure of 4 to 15 atm. Therefore, the inside of the processing space is set to a processing temperature and pressure of 120 to 200° C. and a pressure of 4 to 15 atm.
  • the amount of steam introduced depends on the volume of the processing space and the amount of raw material to be processed, but should be the amount that completely fills the surplus space (the space obtained by subtracting the volume of the raw material introduced from the processing space). is preferred.
  • the high-pressure high-temperature steam supplied in the treatment process preferably has a temperature of 120 to 200° C. and a pressure of 4 to 15 atm.
  • the high-pressure and high-temperature steam supplied in the treatment process preferably has a temperature of 140 to 200° C. and a pressure of 5 to 15 atm.
  • steam is introduced into the treatment space into which the raw material is introduced, and the raw material is stirred to treat the raw material by the subcritical water reaction.
  • the duration of the treatment step is preferably 15 to 20 minutes at the maximum temperature/maximum pressure retention time, that is, the set treatment temperature/pressure.
  • the treatment time is shorter than the above range, the reaction time is insufficient, that is, the production of fulvic acid and humic acid is not sufficient, and a considerable amount of fulvic acid and humic acid remains in the raw material. If the above range is exceeded, the raw material will be carbonized, and unintended substances will be mixed into the solution.
  • the raw material is subjected to subcritical water reaction treatment, and fulvic acid and humic acid are contained in the solution.
  • This solution also contains a suspension of wood chips and/or fragments thereof.
  • a mixed solution containing fulvic acid, humic acid and a suspension of wood chips and/or fragments thereof is obtained.
  • the mixed solution obtained in this step contains 3 to 12% of fulvic acid in the total amount of fulvic acid and humic acid (in solid content).
  • the steam exhaust valve 32 is opened to partially exhaust high-pressure steam from the processing space, thereby lowering the pressure in the processing space from the high pressure.
  • This pressure drop is for enabling the next first liquid recovery step to be carried out safely and efficiently. It is not necessary to lower the pressure to atmospheric pressure. Although the temperature also drops with this pressure drop, it is extremely small, and the drop is about several degrees Celsius including the temperature drop in the next first liquid recovery step. The drop in temperature is due to natural cooling. In order to efficiently perform the second subcritical water treatment step to be performed later, it is desirable that the temperature drop be as small as possible.
  • the vapor discharged in this process is guided to the condensing means 34, where it is condensed with a liquid containing useful components such as volatile components, and collected in a storage container 38 via a conduit 35. be done.
  • ⁇ First liquid recovery step>> In this step, while the opening/closing mechanism 26 is kept closed, the opening/closing valve 60 is opened, and the liquid (mixed solution of fulvic acid/humic acid) that is the raw material of fulvic acid/humic acid is discharged from the processing space into a liquid recovery stream. It is recovered to the recovery section 50 via the path 54 . Although the mixed solution may be used as it is, humic acid and fulvic acid are separated from this mixed solution to obtain a fulvic acid solution and a humic acid solution. The separation of humic acid and fulvic acid in this acquisition step is carried out by making the pH of the solution acidic and separating humic acid by precipitation or separation by filtration.
  • the pH of the solution is preferably 2-3. At this time, the solid content remains in the closed container 12 and waits for the next treatment.
  • the pressure reduction step and the first liquid recovery step are preferably performed by closing the steam supply control valve 46a and temporarily stopping the supply of steam to the sealed container 12. As shown in FIG.
  • the solids remaining in the treatment space are treated with sub-critical water with steam having a higher temperature and pressure than the steam used in the first sub-critical water treatment step. That is, while introducing steam having a temperature of 200 to 250 ° C. and a pressure of 15 to 30 atm into the processing space, the raw material is carbonized by a subcritical water reaction while stirring the raw material. A second mixed solution is obtained which contains the carbonized solid matter and the pyroligneous acid produced along with the carbonization.
  • coconut shell is used as the material, it becomes a well-known coconut shell activated carbon, which is a particularly preferable useful substance.
  • This liquid is a pyroligneous acid-rich liquid that can be used as a sterilizing liquid, a crop growth inhibitor, a crop growth promoter, a deodorant, etc., by simply diluting it to a predetermined dilution concentration without purification or the like. can be used.
  • FIG. 2 shows changes in processing pressure and processing temperature in the above processing steps.

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  • Chemical & Material Sciences (AREA)
  • Engineering & Computer Science (AREA)
  • Oil, Petroleum & Natural Gas (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Materials Engineering (AREA)
  • Organic Chemistry (AREA)
  • Wood Science & Technology (AREA)
  • Forests & Forestry (AREA)
  • Processing Of Solid Wastes (AREA)
  • Chemical And Physical Treatments For Wood And The Like (AREA)
  • Coke Industry (AREA)

Abstract

A method according to the present invention for producing a useful substance by treating wood chips, which is a raw material, to produce at least two useful substances is characterized by comprising: a device preparation step for preparing a treatment device provided with an airtight container, a supply part, a steam jetting means, a discharge port part having an opening/closing valve and an opening/closing mechanism, and a steam discharge port having a steam discharge valve; a raw material introduction step for introducing a raw material containing wood chips as a main raw material from the supply part into a treatment space of the airtight container of the treatment device; a first subcritical water treatment step for introducing steam having a temperature of 120-200 °C and a pressure of 4-15 atm into the treatment space into which the raw material has been introduced while stirring the raw material and performing a subcritical water reaction treatment on the raw material to obtain a first mixed solution containing fulvic acid, humic acid, and solid matter of chips and/or fragments of wood; an intermediate pressure lowering step for opening the steam discharge valve and discharging high-pressure steam from the treatment space to lower the pressure in the treatment space from a high pressure; a liquid recovery step for opening the opening/closing valve to recover only a liquid serving as a raw material for fulvic acid/humic acid from the treatment space; a closing step for closing the steam discharge valve and the opening/closing valve; a second subcritical water treatment step for introducing a steam having a temperature of 200-250 °C and a pressure of 15-30 atm into the treatment space in which the solid matter is present while stirring the raw material to obtain a carbonized solid matter formed by carbonizing the raw material by means of a subcritical water reaction and a second mixed solution containing a wood vinegar generated according to the carbonization; a final pressure lowering step for opening the steam discharge valve and discharging high-pressure steam from the treatment space to lower the pressure in the treatment space from high pressure to atmospheric pressure; a liquid recovery step for opening the opening/closing valve to recover only the liquid to be a raw material for wood vinegar from the treatment space; and a solid recovery step for opening the opening/closing mechanism to recover the solid carbide from the treatment space.

Description

有用物質の製造方法および製造装置Manufacturing method and manufacturing apparatus for useful substance
 本発明は、有用物質の製造方法および製造装置に関し、特に、原料を木材とし、特に、フルボ酸/フミン酸および木酢酸である有用物質の製造方法および製造装置に関するものである。 The present invention relates to a method and apparatus for producing useful substances, and in particular, to a method and apparatus for producing useful substances that use wood as a raw material, particularly fulvic acid/humic acid and wood acetic acid.
 フルボ酸/フミン酸等の腐植物質とは、生物の死後、生物体有機物が微生物的・化学的作用を受けて崩壊した「化学構造が特定されない有機物(非生体有機物)」の総称と言われている。この腐植物質についても、機能性を示すものと、機能性を示さないものとがあることが経験的に知られており、これは、その自然界の有機物である生物体有機物が、土へ還ろうとするときの中間生成物が含まれるか否かの影響が大きいものと考えられる。この中間生成物を含むとき、すなわち機能性を示す腐植物質については、腐植前駆物質と呼ばれることがある。(非特許文献1) Humic substances such as fulvic acid and humic acid are said to be a generic term for "organic substances with unspecified chemical structures (non-living organic substances)" that are organic substances that have decayed due to microbial and chemical action after the death of living organisms. there is It is empirically known that some humic substances exhibit functionality and others do not. It is considered that whether or not the intermediate product is included in the process has a large effect. A humic substance that exhibits functionality when it contains this intermediate product is sometimes referred to as a humic precursor. (Non-Patent Document 1)
 この腐植物質(または腐植前駆物質)に相当するものは、自然界に存在していたものであり、古くから腐植物質の認識の有無は不明だとしても、作物の生育や、病気・けがへの薬効等の効果を様々な形で利用されてきたものである。一方、近年、発達した化学物質等を積極的に利用しようとする近代的な農業や原料処理方法が広く用いられている。しかしながら、このような近代的な農業や原料処理とは別に、古くから活かされてきたこの腐植物質を用いることが改めて見直され始めており、人工的に製造されたフルボ酸を選択的に高濃度で含む溶液等も一部販売されている。 Substances corresponding to this humic substance (or humic precursor) existed in the natural world. These effects have been used in various ways. On the other hand, in recent years, modern agriculture and raw material processing methods that actively use developed chemical substances are widely used. However, apart from such modern agriculture and raw material processing, the use of this humic substance, which has been utilized since ancient times, is beginning to be reconsidered, and artificially produced fulvic acid is selectively used in high concentrations. Some solutions, etc. containing it are also sold.
 例えば、特許文献1は、フェノール又は/およびフェノール露出基のある化合物を含む代謝産物を産出するように順養された土壌性通性嫌気性細菌等よりなる細菌群を利用する廃水の処理方法等に関する技術である。この「フェノール又は/およびフェノール露出基のある化合物を含む代謝産物」は、ケイ酸分等と反応することで腐植化の重縮合反応が惹起されるものであり、腐植物を利用する優れた廃水処理方法を開示しようとするものである。 For example, Patent Document 1 discloses a wastewater treatment method using a bacterial group consisting of soil-dwelling facultative anaerobic bacteria cultivated to produce metabolites containing phenol and/or compounds with phenol-exposed groups. It is a technology related to This "metabolite containing a phenol or/and a compound with a phenol-exposed group" causes a polycondensation reaction of humification by reacting with silicic acid, etc., and is an excellent wastewater that utilizes humus. It is intended to disclose a processing method.
 特許文献1や非特許文献1にみられるように、腐植前駆物質や腐植物質(腐植物)を利用する技術が検討されている。ここで腐植物には、その成分の腐植化度合(重縮合反応化度合)として、ヒュミンやフルボ酸、フミン酸等が含まれていることが知られている。そして、一般的な腐植物質において、フルボ酸とフミン酸との比率は2:8程度の重量比で含まれている。 As seen in Patent Document 1 and Non-Patent Document 1, technologies using humic precursors and humic substances (humic plants) are being studied. Here, humic plants are known to contain humin, fulvic acid, humic acid, etc. as the degree of humification (degree of polycondensation reaction) of their components. Common humic substances contain fulvic acid and humic acid at a weight ratio of about 2:8.
 特許文献1に示されるように、有機性物質を含む廃水の処理工程において、この腐植物質に相当するものを使用するものはあるが、腐植物質におけるフルボ酸、フミン酸等も単純物質ではなく、いずれも複数の有機化合物の群として捉えられていることや、それぞれの分離が困難なことからも、具体的にどの物質がどのような効果を奏するかについては、十分には検討されてこなかった。しかしながら、市販されているフルボ酸を含む溶液は(微)生物活性液としての有効性等も期待されており、さらに農業用などのように大量にできるだけ安価な商品の提供が求められる用途などへの利用を図るためにはフルボ酸を選択的に高濃度で含む製品が求められている。 As shown in Patent Document 1, in the process of treating wastewater containing organic substances, there are those that use substances corresponding to this humic substance, but fulvic acid, humic acid, etc. in humic substances are not simple substances, Because of the fact that all of them are regarded as a group of multiple organic compounds, and because it is difficult to separate them, there has not been sufficient research on which substances have what effects specifically. . However, commercially available solutions containing fulvic acid are also expected to be effective as (micro)biologically active liquids, and are also suitable for applications such as agriculture where large quantities of products are required to be provided at the lowest possible cost. In order to utilize , there is a demand for a product that selectively contains fulvic acid at a high concentration.
 そこで、特開2017-112947号公報(特許文献2)では、腐植物質のうちで(微)生物活性液としての利用が期待されるフルボ酸に関して、一般的な腐植物質の比率と比べて、フミン酸に対してフルボ酸を高比率で含有するフルボ酸高比率含有液の製造方法を提供することを目的として、下記の製造方法が提案された。 Therefore, in Japanese Patent Application Laid-Open No. 2017-112947 (Patent Document 2), regarding fulvic acid, which is expected to be used as a (micro)biologically active liquid among humic substances, compared to the ratio of general humic substances, humin The following production method has been proposed for the purpose of providing a method for producing a fulvic acid-rich liquid containing a high ratio of fulvic acid to acid.
 上記特許文献2で提案されたフルボ酸含有液の製造方法は、有機性物質とフルボ酸馴養汚泥とを混合した有機性物質混合液を溶存酸素濃度を0.1mg-O/L以下として4時間以上培養することで、前記有機性物質混合液の有機物質を嫌気的培養により低減させ嫌気的培養液とする嫌気的培養工程と、前記嫌気的培養液の溶存酸素濃度を0.2mg-O/L以上として6時間以上培養することで、前記嫌気的培養液中にフルボ酸を増加させフルボ酸含有培養液を得る好気的培養工程と、前記好気的培養工程で培養されている培養完了前の培養液を前記嫌気的培養工程へ返送する好気的培養液返送工程と、前記好気的培養工程から得られるフルボ酸含有培養液から、フルボ酸含有液を得ることを特徴とする。 In the method for producing a fulvic acid-containing liquid proposed in Patent Document 2, an organic substance mixed liquid in which an organic substance and fulvic acid-acclimated sludge are mixed is heated to a dissolved oxygen concentration of 0.1 mg-O / L or less for 4 hours. By culturing as described above, an anaerobic culture step in which the organic substance in the organic substance mixture is reduced by anaerobic culture to obtain an anaerobic culture solution, and a dissolved oxygen concentration of 0.2 mg-O / in the anaerobic culture solution. An aerobic culture step of increasing fulvic acid in the anaerobic culture solution to obtain a fulvic acid-containing culture solution by culturing at L or more for 6 hours or more, and completion of the culture cultured in the aerobic culture step It is characterized by obtaining a fulvic acid-containing liquid from the aerobic culture medium returning step of returning the previous culture medium to the anaerobic culture step and the fulvic acid-containing culture medium obtained from the aerobic culture step.
 本件出願人は、先に、上記の公開公報に記載されたもの等とは全く異なるフルボ酸溶液の製造方法を特許第6286605号公報で提案した。 The applicant previously proposed in Japanese Patent No. 6286605 a method for producing a fulvic acid solution that is completely different from the method described in the above publication.
 この特許公報で提案したフルボ酸の製造方法は、
 内部に閉鎖可能な処理空間を有する密閉容器と、該密閉容器内に高温高圧の蒸気を噴出する蒸気噴出手段と、開閉機構を有し、前記密閉容器内に原料を供給するための供給部と、開閉機構を有し、前記蒸気による原料の処理により生成された処理液を外部に排出するための排出部とを備えた処理装置を準備する装置準備工程、
 前記処理装置の密閉容器の処理空間内に、前記供給部から、主原料として木材チップを含有する原料を投入する原料投入工程、
 温度が120~250℃で、圧力が12~35atmの蒸気を、前記原料が投入されている前記処理空間内に導入しつつ、前記原料を撹拌しながら、原料を亜臨界水反応処理して、フルボ酸とフミン酸と木材のチップおよび/またはその破片の懸濁物を含有する混合溶液を得る処理工程、および、
 取得した混合溶液から、フルボ酸を分離して、フルボ酸溶液を取得するフルボ酸溶液取得工程
 を備えていることを特徴とするフルボ酸溶液の製造方法である。
The method for producing fulvic acid proposed in this patent publication is
a sealed container having a closable processing space therein; steam ejection means for ejecting high-temperature and high-pressure steam into the closed container; , an apparatus preparation step of preparing a processing apparatus having an opening/closing mechanism and a discharge unit for discharging the processing liquid generated by processing the raw material with the steam to the outside;
A raw material charging step of charging a raw material containing wood chips as a main raw material from the supply unit into the processing space of the closed container of the processing apparatus;
While introducing steam having a temperature of 120 to 250° C. and a pressure of 12 to 35 atm into the processing space in which the raw material is charged, the raw material is subjected to subcritical water reaction treatment while stirring the raw material, a process step of obtaining a mixed solution containing a suspension of fulvic acid, humic acid and wood chips and/or fragments thereof, and
A method for producing a fulvic acid solution, comprising a step of obtaining a fulvic acid solution by separating fulvic acid from the obtained mixed solution.
特公平5-66199号公報Japanese Patent Publication No. 5-66199
特開2017-112947号公報JP 2017-112947 A
特許第6286605号公報Japanese Patent No. 6286605
 前記特許公報に記載されたフルボ酸の製造方法によれば、純度の良いフルボ酸を効率良く製造することができる。しかしながら、木材には他の有用物質(木材由来の有用物質も含む)が複数含有されているが、従来は、フルボ酸抽出後の固形物を、動物飼育のための飼料として用いる以外は、それらの有効活用がされていなかった。 According to the method for producing fulvic acid described in the above patent publication, fulvic acid with good purity can be produced efficiently. However, wood contains a number of other useful substances (including useful substances derived from wood). was not utilized effectively.
 そこで、本発明は、木材を原料として、2種以上の有用物質を製造するための有用物質の製造方法および製造装置を提供することを目的とする。 Therefore, an object of the present invention is to provide a useful substance manufacturing method and a manufacturing apparatus for manufacturing two or more useful substances using wood as a raw material.
 上記課題は、下記(1)~(18)の構成の本発明の有用物質の製造方法および製造装置により達成される。
(1)
原料である木材チップを処理して少なくとも2種以上の有用物質を製造する有用物質の製造方法であって、
 内部に閉鎖可能な処理空間を有する密閉容器と、前記密閉容器内に原料を供給するための供給部と、該密閉容器内に高温高圧の蒸気を噴出する蒸気噴出手段と、前記密閉容器内から液体のみを排出するための開閉バルブおよび固形物を排出するための開閉機構を持つ排出口部と、前記密閉容器から高圧蒸気を排出するための蒸気排出バルブを持つ蒸気排出口とを備えた処理装置を準備する装置準備工程、
 前記処理装置の密閉容器の処理空間内に、前記供給部から、主原料として木材チップを含有する原料を投入する原料投入工程、
 温度が120~200℃で、圧力が4~15atmの蒸気を、前記原料が投入されている前記処理空間内に導入しつつ、前記原料を撹拌しながら、原料を亜臨界水反応処理して、フルボ酸とフミン酸と木材のチップおよび/またはその破片の固形物を含有する第1混合溶液を得る第1亜臨界水処理工程、
 前記蒸気排出バルブを開いて、前記処理空間から高圧蒸気を排出して、該処理空間内の圧力を高圧から低下させる中間圧力低下工程、
 前記開閉バルブを開いて、前記処理空間から、フルボ酸/フミン酸の原料となる液体のみを回収する第1液体回収工程、
 前記蒸気排出バルブおよび開閉バルブを閉じる閉工程、
 温度が200~250℃で、圧力が15~30atmの蒸気を、前記固形物が存在する前記処理空間内に導入しつつ、前記原料を撹拌しながら、原料を亜臨界水反応による炭化処理して形成された炭化固形物と、この炭化に伴って生成された木酢酸を含有する第2混合溶液を得る第2亜臨界水処理工程、
前記蒸気排出バルブを開いて、前記処理空間から高圧蒸気を排出して、該処理空間内の圧力を高圧から大気圧に低下させる最終圧力低下工程、
 前記開閉バルブを開いて、前記処理空間から、木酢酸の原料となる液体のみを回収する第2液体回収工程、および
 前記開閉機構を開いて、前記処理空間から、固体炭化物を回収する固体回収工程、
を備えていることを特徴とする有用物質の製造方法。
(2)
 前記第1亜臨界水処理工程において、最高温度保持時間を15~20分とした前記(1)の有用物質の製造方法。
(3)
前記第2亜臨界水処理工程において、最高温度保持時間を15~20分とした前記(1)または(2)の有用物質の製造方法。
(4)
 前記木材が伐採材または廃材である前記(1)の有用物質の製造方法。
(5)
 前記伐採材が、広葉樹または針葉樹によるものである前記(4)の有用物質の製造方法。
(6)
 前記広葉樹が白樺、柳、栗、ナラまたはブナである前記(5)の有用物質の製造方法。
(7)
 前記針葉樹が、松、杉、ヒノキまたはあすなろである前記(5)の有用物質の製造方法。
(8)
 前記廃材が無垢材または合板材である前記(4)の有用物質の製造方法。
(9)
 前記処理工程が、1~8時間行われる前記(1)~(8)のいずれかの有用物質の製造方法。
(10)
 前記主原料が広葉樹であり、前記処理工程において導入される蒸気の圧力が12~25atmである前記(5)の有用物質の製造方法。
(11)
 前記主原料が針葉樹であり、前記処理工程において導入される蒸気の圧力が20~35atmである前記(5)の有用物質の製造方法。
(12)
 容積割合で、原料を前記処理空間の90%以下導入する前記(1)~(11)のいずれかの有用物質の製造方法。
(13)
 容積割合で、原料を前記処理空間の50~80%導入する前記(1)~(11)のいずれかの有用物質の製造方法。
(14)
 前記処理工程における撹拌が、前記処理空間内に配置された回転する撹拌部材により行われる前記(1)~(13)のいずれかの有用物質の製造方法。
(15)
 前記原料投入工程において、添加物として、アルカリ性溶液を添加する前記(1)~(14)のいずれかの有用物質の製造方法。
(16)
 原料として、木本の葉部を含む前記(1)~(15)のいずれかの有用物質の製造方法。
(17)
 前記処理装置が、前記蒸気排出口に連結された凝縮手段を備え、前記蒸気排出口から噴出された高圧蒸気から木材由来の揮発性有機化合物を、前記凝縮手段により凝縮して回収する前記(1)~(16)のいずれかの有用物質の製造方法。
(18)
原料である木材チップを処理して少なくとも2種以上の有用物質を製造する有用物質の製造装置であって、内部に閉鎖可能な処理空間を有する密閉容器と、前記密閉容器内に原料を供給するための供給部と、該密閉容器内に高温高圧の蒸気を噴出する蒸気噴出手段と、前記密閉容器内から液体のみを排出するための開閉バルブおよび固形物を排出するための開閉機構を持つ排出口部と、前記密閉容器から高圧蒸気を排出するための蒸気排出バルブを持つ蒸気排出口と、前記蒸気排出口に連結され、前記蒸気排出口から噴出された高圧蒸気から木材由来の揮発性有機化合物を凝縮して回収する凝縮手段を備えた有用物質の製造装置。
The above objects are achieved by the method and apparatus for producing a useful substance according to the present invention having the following configurations (1) to (18).
(1)
A method for producing useful substances by treating wood chips as a raw material to produce at least two useful substances,
a closed container having a closable processing space therein; a supply unit for supplying raw materials into the closed container; steam jetting means for jetting high-temperature and high-pressure steam into the closed container; A treatment comprising an outlet part having an opening/closing valve for discharging only liquid and an opening/closing mechanism for discharging solid matter, and a steam outlet having a steam outlet valve for discharging high-pressure steam from the closed container. a device preparation step of preparing a device;
A raw material charging step of charging a raw material containing wood chips as a main raw material from the supply unit into the processing space of the closed container of the processing apparatus;
While introducing steam having a temperature of 120 to 200° C. and a pressure of 4 to 15 atm into the processing space in which the raw material is charged, the raw material is subjected to subcritical water reaction treatment while stirring the raw material, A first subcritical water treatment step of obtaining a first mixed solution containing solids of fulvic acid, humic acid, and wood chips and/or fragments thereof;
an intermediate pressure reduction step of opening the steam exhaust valve to exhaust high pressure steam from the processing space to reduce the pressure in the processing space from the high pressure;
a first liquid recovery step of opening the opening/closing valve to recover only the liquid that is the raw material of fulvic acid/humic acid from the processing space;
a closing step of closing the steam discharge valve and the on-off valve;
While introducing steam having a temperature of 200 to 250° C. and a pressure of 15 to 30 atm into the processing space where the solid matter exists, the raw material is carbonized by a subcritical water reaction while stirring the raw material. a second subcritical water treatment step of obtaining a second mixed solution containing the formed carbonized solid and pyroligneous acid produced along with the carbonization;
a final pressure reduction step of opening the steam exhaust valve to exhaust high pressure steam from the processing space to reduce the pressure in the processing space from high pressure to atmospheric pressure;
A second liquid recovery step of opening the opening/closing valve to recover only the liquid that will be the raw material of pyroligneous acid from the processing space, and a solid recovery step of opening the opening/closing mechanism to recover solid carbide from the processing space. ,
A method for producing a useful substance, comprising:
(2)
The method for producing a useful substance according to (1) above, wherein the maximum temperature holding time is 15 to 20 minutes in the first subcritical water treatment step.
(3)
The method for producing a useful substance according to (1) or (2), wherein the maximum temperature holding time is 15 to 20 minutes in the second subcritical water treatment step.
(4)
The method for producing a useful substance according to (1), wherein the wood is felled wood or waste wood.
(5)
The method for producing a useful substance according to (4) above, wherein the felled timber is from a broad-leaved tree or a coniferous tree.
(6)
The method for producing a useful substance according to (5) above, wherein the broadleaf tree is birch, willow, chestnut, oak or beech.
(7)
The method for producing a useful substance according to (5) above, wherein the coniferous tree is pine, cedar, cypress or asunaro.
(8)
The method for producing a useful substance according to (4) above, wherein the waste material is solid wood or plywood.
(9)
The method for producing a useful substance according to any one of (1) to (8), wherein the treatment step is performed for 1 to 8 hours.
(10)
The method for producing a useful substance according to (5) above, wherein the main raw material is hardwood, and the pressure of the steam introduced in the treatment step is 12 to 25 atm.
(11)
The method for producing a useful substance according to (5) above, wherein the main raw material is softwood, and the pressure of the steam introduced in the treatment step is 20 to 35 atm.
(12)
The method for producing a useful substance according to any one of (1) to (11) above, wherein the raw material is introduced into 90% or less of the processing space in terms of volume ratio.
(13)
The method for producing a useful substance according to any one of the above (1) to (11), wherein the raw material is introduced in 50 to 80% of the processing space in terms of volume ratio.
(14)
The method for producing a useful substance according to any one of (1) to (13), wherein the stirring in the treatment step is performed by a rotating stirring member arranged in the treatment space.
(15)
The method for producing a useful substance according to any one of (1) to (14), wherein an alkaline solution is added as an additive in the raw material charging step.
(16)
The method for producing a useful substance according to any one of (1) to (15) above, which contains woody leaves as a raw material.
(17)
The processing equipment includes a condensing means connected to the steam outlet, and the condensing means recovers the wood-derived volatile organic compounds from the high-pressure steam ejected from the steam outlet by condensing the (1) ) to (16).
(18)
A useful substance manufacturing apparatus for manufacturing at least two kinds of useful substances by processing wood chips as raw materials, comprising: a closed container having a closable processing space therein; and supplying raw materials into the closed container. a supply unit for the purpose, a steam ejection means for ejecting high-temperature and high-pressure steam into the sealed container, an opening/closing valve for discharging only the liquid from the closed container, and an opening/closing mechanism for discharging the solid matter. an outlet, a steam outlet having a steam outlet valve for discharging high-pressure steam from the closed container, and a wood-derived volatile organic compound connected to the steam outlet and ejected from the high-pressure steam ejected from the steam outlet. A useful substance manufacturing apparatus equipped with condensing means for condensing and recovering compounds.
 上記したように、本発明によれば、主として木材チップを原料として、一連の工程で、少なくとも2種の有用物質を製造することができ、効率的でかつ経済性に極めて良好であるという利点がある。
 また、本発明によれば、純度の高いフルボ酸溶液を得ることが可能となる。
As described above, according to the present invention, it is possible to produce at least two kinds of useful substances in a series of steps using mainly wood chips as raw materials, which is efficient and extremely economical. be.
Moreover, according to the present invention, it is possible to obtain a fulvic acid solution with high purity.
本発明の実施の形態による有用物質の製造装置の一例を示す断面図である。BRIEF DESCRIPTION OF THE DRAWINGS It is sectional drawing which shows an example of the manufacturing apparatus of the useful substance by embodiment of this invention. 本発明の有用物質の製造方法における処理工程における処理圧力と処理温度の推移を示す図である。FIG. 2 is a diagram showing changes in treatment pressure and treatment temperature in a treatment step in the method for producing a useful substance of the present invention.
 以下、本発明の一実施の形態による有用物質の製造装置10を説明する。
 前記製造装置10は、内部に木材チップである原料を収容する処理空間である閉鎖空間S1を有する密閉容器12と、密閉容器12内に、亜臨界水である高温高圧の蒸気を噴出する蒸気噴出手段14と、密閉容器12の底側に設けられ開閉機構26を有する排出口16と、排出口16からの直接排出操作のみで処理された原料と液体とを分離して回収する分離回収手段18と、を備えている。密閉容器12の形状は、例えば、矩形箱形、立体多角筒形、円筒形、樽型、ドラム型等その他任意形状でよいが、下面側に設けられている排出口16から重力を利用して排出されるような形状が好ましい。密閉容器の下面が排出口へ向けて下り傾斜に設けられていると好適である。
A useful substance manufacturing apparatus 10 according to an embodiment of the present invention will be described below.
The manufacturing apparatus 10 includes a sealed container 12 having a closed space S1, which is a processing space for containing raw materials, which are wood chips, and a steam jet for jetting high-temperature and high-pressure steam, which is subcritical water, into the closed container 12. means 14, a discharge port 16 provided on the bottom side of the sealed container 12 and having an opening/closing mechanism 26, and a separating and recovering means 18 for separating and collecting the raw material and the liquid which have been treated only by the direct discharge operation from the discharge port 16. and have. The shape of the closed container 12 may be, for example, a rectangular box shape, a three-dimensional polygonal cylinder shape, a cylindrical shape, a barrel shape, a drum shape, or any other shape. A shape that is ejected is preferred. It is preferable that the bottom surface of the closed container is inclined downward toward the outlet.
 分離回収手段18は、排出口16を介して該密閉容器12内部に連通する液体の回収部50と、密閉容器12内の液体のみを排出口16を介して自然流下により回収部50へ回収させる自然流下回収機構52と、を有することとしてもよい。排出口16付近で処理された固形分としての原料は密閉容器12内にそのまま残り、液体のみが重力を利用して回収部50へ自然流下することにより、原料と液体とを分離回収できる。回収部50の構成は、例えば、金属製タンクや立体多角形状の箱体、管状体等、液体を回収する閉鎖空間S2を有するものであれば任意のものでもよい。収容部を複数個形成してもよい。   The separation and recovery means 18 includes a liquid recovery section 50 communicating with the inside of the sealed container 12 through the discharge port 16, and recovers only the liquid in the closed container 12 to the recovery section 50 by gravity flow through the discharge port 16. It is good also as having a gravity collection mechanism 52 and. The raw material as a solid content processed near the discharge port 16 remains in the closed container 12 as it is, and only the liquid naturally flows down to the recovery section 50 using gravity, so that the raw material and the liquid can be separated and recovered. The recovery unit 50 may have any configuration, such as a metal tank, a three-dimensional polygonal box, or a tubular body, as long as it has a closed space S2 for recovering the liquid. A plurality of accommodating portions may be formed.  
 なお、上の例では、分離手段を処理装置に組み込んだ例について説明したが、処理装置自体には、分離手段を設けること無く、別体で設けてもよい。
 また、自然流下回収機構52は、密閉容器12の排出口16と回収部50とを連通接続する液体回収流路54を含み、該液体回収流路54は排出口16との連通側から回収部50側に向けて、水平又は下り傾斜状に設けられたこととしてもよい。  
In the above example, the separation means is incorporated in the processing apparatus, but the separation means may be provided separately in the processing apparatus itself.
The gravity recovery mechanism 52 also includes a liquid recovery channel 54 that communicates and connects the discharge port 16 of the sealed container 12 and the recovery unit 50 . It may be provided horizontally or downwardly toward the 50 side.
 また、処理された原料の排出口16からの排出経路R1途中に開閉機構26が設けられ、開閉機構26よりも排出上流側に液体回収流路54の液体導入口58が連通接続されている。   In addition, an opening/closing mechanism 26 is provided in the middle of the discharge route R1 from the discharge port 16 of the processed raw material, and the liquid introduction port 58 of the liquid recovery channel 54 is connected to the discharge upstream side of the opening/closing mechanism 26 .  
 また、液体回収流路54には、密閉容器12内での原料の処理中には流路を遮断するとともに、処理後に液体のみを回収する際には流路を連通させるように連通状態を選択的に切り替える開閉バルブ60が設けられている。   In addition, the liquid recovery channel 54 is selected so as to block the channel during the processing of the raw material in the sealed container 12 and to allow the channel to communicate when only the liquid is recovered after the processing. An opening/closing valve 60 is provided for switching between them.  
 また、回収部50の閉鎖空間S2の底面が密閉容器12の排出口16の位置より低く設けられたこととしてもよい。   Also, the bottom surface of the closed space S2 of the recovery unit 50 may be provided lower than the position of the discharge port 16 of the sealed container 12.  
 前記密閉容器12は、左右中央部の底側に排出口16が設けられつつ、径が左右中央部から左右両端側に向けて次第に縮径された横倒し樽型形状に形成されているのが好ましく、この密閉容器12内部には撹拌部材30が設けられている。この撹拌手段30は、密閉容器12の水平中心軸と同軸に横長に設けられ、その両端に於いて回転自在に軸支された回転軸49と、この回転軸49に取り付けられ、同回転軸49の周方向に広がる撹拌羽根48と、を有し、撹拌羽根48の回転軸49から羽根先端までの長さは、図示したように、密閉容器12の横倒し樽型形状に対応して、回転軸49の長手方向の中央位置で大きく、両端側に行くにしたがって次第に小さくなるように形成されていることが好ましい。   The sealed container 12 is preferably formed in a sideways barrel shape in which a discharge port 16 is provided on the bottom side of the left-right central portion and the diameter gradually decreases from the left-right central portion toward the left and right end sides. A stirring member 30 is provided inside the sealed container 12 . The stirring means 30 is provided horizontally coaxially with the horizontal central axis of the sealed container 12, and has a rotating shaft 49 rotatably supported at both ends thereof. and a stirring blade 48 extending in the circumferential direction, and the length from the rotating shaft 49 of the stirring blade 48 to the tip of the blade corresponds to the overturned barrel shape of the closed container 12, as shown in the figure. It is preferable that it is formed so that it is large at the central position in the longitudinal direction of 49 and gradually becomes smaller toward both ends.  
 また、蒸気噴出手段14は、回転軸49を中空管とし、該中空管の周面に複数個の蒸気噴出孔44を形成して構成された回転軸兼蒸気噴出管28を含むこととしてもよい。   Also, the steam jetting means 14 includes a rotating shaft/steam jetting pipe 28 configured by forming a plurality of steam jetting holes 44 on the peripheral surface of the hollow tube with the rotating shaft 49 as a hollow tube. good too.  
 図示していないが、密閉容器12は、支持脚で地面からある程度の高さに配置されるように支持されていることが好ましい。密閉容器12は、例えば、耐熱耐圧性を有するように金属板を加工して形成され、その内部の閉鎖空間が約2m以上の大きさで設けられていることが好ましい。密閉容器12には、中央上部に投入部20が、中央底部に排出部22がそれぞれ設けられており、それぞれ開閉機構24,26が設けられて、開閉可能となっている。なお、密閉容器12には、内部圧力が設定値よりも高くなると内部蒸気を開放させる、例えば設定圧を調整可能な安全弁(図示せず)が設けられている。また、安全弁に接続された排気用管の途中には、消音・消臭装置が設けられており、安全弁を介して排気される蒸気は消音消臭されて、外気側に排出される。   Although not shown, the sealed container 12 is preferably supported by supporting legs so as to be positioned at a certain height from the ground. It is preferable that the closed container 12 is formed by processing a metal plate so as to have heat resistance and pressure resistance, and that the closed space inside is provided with a size of about 2 m 3 or more. The airtight container 12 is provided with an inlet section 20 at the central upper portion and an outlet section 22 at the central bottom portion, and is provided with opening/ closing mechanisms 24 and 26, respectively, so that it can be opened and closed. The sealed container 12 is provided with, for example, a safety valve (not shown) capable of adjusting the set pressure, which releases the internal steam when the internal pressure becomes higher than the set value. In addition, a silencing/deodorizing device is provided in the middle of the exhaust pipe connected to the safety valve, and the steam exhausted through the safety valve is muted and deodorized before being discharged to the outside air.
 前記排出口16の径は、例えば、300mm程度に設けられている。排出口16には、下方に突設された排出筒36が接続されて処理された原料の前記排出経路R1を形成している。排出口16を開閉する前記開閉機構26は、この排出筒36の該排出経路R1の途中に設けられている。すなわち、排出部22は、排出口16と、排出筒36と、開閉機構26と、を含む構成となっている。密閉容器12が横倒し樽型形状に形成されていることから、重力により内部の原料は排出口16が設けられている中央部に向けて左右から集まりやすく、開閉機構26を開くだけで簡便に処理済み原料を排出口16から排出させることができる。   The diameter of the discharge port 16 is, for example, about 300 mm. A downward projecting discharge tube 36 is connected to the discharge port 16 to form the discharge route R1 for the processed raw material. The opening/closing mechanism 26 for opening and closing the discharge port 16 is provided in the middle of the discharge path R1 of the discharge tube 36. As shown in FIG. That is, the discharge section 22 is configured to include the discharge port 16 , the discharge tube 36 , and the opening/closing mechanism 26 . Since the sealed container 12 is formed in a barrel-like shape lying down, the raw material inside tends to gather from the left and right toward the central portion where the discharge port 16 is provided due to gravity, and can be easily processed simply by opening the opening and closing mechanism 26. The finished raw material can be discharged from the discharge port 16 .  
 前記投入部20には、密閉容器12の上辺の中央部に投入口42が開口されており、投入口42には上方へ突設された投入筒43が取り付けられ、投入筒43内を開閉するように前記開閉機構24が設けられている。開閉機構24を介して、投入口42を開いて原料を密閉容器内に投入でき、処理時には閉鎖して密閉容器12内の閉鎖空間S1の閉鎖状態を維持する。   The input port 42 is opened in the center of the upper side of the sealed container 12 in the input part 20, and the input cylinder 43 projecting upward is attached to the input port 42, and the inside of the input cylinder 43 is opened and closed. The opening/closing mechanism 24 is provided as follows. Via the opening/closing mechanism 24, the input port 42 can be opened to input the raw material into the closed container, and closed during processing to maintain the closed state of the closed space S1 in the closed container 12.例文帳に追加  
 蒸気噴出手段14は、密閉容器12内に高温高圧の蒸気を噴出するとともに、該密閉容器12内を高温高圧状態とし、原料を蒸気を用いて処理する。図1に示すように、蒸気噴出手段14は、密閉容器12内に配置され周面側に多数の蒸気噴出孔44が形成された中空管からなる蒸気噴出管28と、ボイラー等の蒸気発生装置46と、蒸気発生装置46から蒸気噴出管28内に蒸気を供給する蒸気送管47と、を含む。前記蒸気発生装置46は、発生した蒸気の供給状態と供給停止状態を制御する蒸気供給制御バルブ46aを備え、この蒸気供給制御バルブ46aを閉じることにより、蒸気の供給を一時的に停止することができるようになっている。この蒸気供給制御バルブ46aは、前記蒸気送管47に設けてもよい。
蒸気噴出手段14から密閉容器12内に噴出される蒸気は、原料を適正に処理するため、亜臨界水の条件を満足する高温高圧に設定される。例えば、蒸気噴出管28から噴出される蒸気は、温度が120~250℃、圧力が4~30atm程度に設定されている。そして、密閉容器12内を、温度120~250℃、圧力4~30atm程度にするようになっている。蒸気噴出管28は、密閉容器12の上下方向略中央位置で横方向に長く配置され、密閉容器の両端壁12a、12bに設けられた軸受45を介して回転自在に軸支されている。すなわち、蒸気噴出管28は、横軸周りに回転しながら放射状に蒸気を噴出しつつ蒸気を原料に直接に当てるようになっている。なお、蒸気噴出管28は、モータ等の回転駆動装置(図示せず)からチェーン70等を介して回転駆動力を得て回転するようになっている。さらに、蒸気噴出管28には、撹拌手段を構成する撹拌羽根48が取り付けられており、蒸気噴出管28が撹拌手段の回転軸49を兼用している。すなわち、本実施形態では、蒸気噴出手段14は、撹拌手段の回転軸49を中空管とし、該中空管の周面に複数個の蒸気噴出孔を形成して構成された回転軸兼蒸気噴出管28を含む。なお、蒸気噴出手段は、この形態の構成に限らず、例えば、密閉容器内に差し込んだ管の先端から蒸気を噴出する構成、複数の蒸気噴出管を配置させた構成等、その他任意の構成でもよい。  
The steam ejecting means 14 ejects high-temperature, high-pressure steam into the sealed container 12, and sets the inside of the closed container 12 to a high-temperature, high-pressure state, and processes the raw material using the steam. As shown in FIG. 1, the steam ejection means 14 includes a steam ejection pipe 28 which is a hollow tube arranged in the sealed container 12 and formed with a large number of steam ejection holes 44 on the peripheral surface side, and a steam generator such as a boiler. A device 46 and a steam conduit 47 for supplying steam from the steam generator 46 into the steam jet 28 . The steam generator 46 includes a steam supply control valve 46a for controlling the supply state and the supply stop state of the generated steam, and by closing the steam supply control valve 46a, the supply of steam can be temporarily stopped. It is possible. The steam supply control valve 46 a may be provided in the steam pipe 47 .
The steam jetted from the steam jetting means 14 into the sealed container 12 is set to a high temperature and high pressure that satisfies the conditions of subcritical water in order to properly treat the raw material. For example, the steam ejected from the steam ejection pipe 28 has a temperature of 120 to 250° C. and a pressure of 4 to 30 atm. The inside of the sealed container 12 is kept at a temperature of 120 to 250° C. and a pressure of 4 to 30 atm. The steam ejection pipe 28 is arranged long in the horizontal direction at a substantially central position in the vertical direction of the sealed container 12, and is rotatably supported via bearings 45 provided on both end walls 12a and 12b of the sealed container. That is, the steam ejection pipe 28 is adapted to directly apply the steam to the raw material while rotating around the horizontal axis and ejecting the steam radially. The steam ejection pipe 28 is rotated by receiving rotational driving force from a rotational driving device (not shown) such as a motor through a chain 70 or the like. Further, the steam ejection pipe 28 is attached with a stirring blade 48 that constitutes the stirring means, and the steam ejection pipe 28 also serves as a rotating shaft 49 of the stirring means. That is, in the present embodiment, the steam ejecting means 14 is a rotating shaft and steam configured by using a hollow tube as the rotating shaft 49 of the stirring means and forming a plurality of steam ejecting holes on the peripheral surface of the hollow tube. Includes ejection tube 28 . The steam ejection means is not limited to this configuration, and may be of any other configuration, such as a configuration in which steam is ejected from the tip of a pipe inserted into a closed container, a configuration in which a plurality of steam ejection pipes are arranged, and the like. good.
 撹拌手段30は、密閉容器内で処理される原料を撹拌する手段であり、原料をむらなく、早期に処理できる。撹拌手段30は、上記の蒸気噴出管28からなる回転軸49と、該回転軸49に取り付けられ同回転軸の周方向に広がる部位を有する撹拌羽根48と、を含む。本実施形態では、撹拌羽根48は、回転軸49の軸方向略中央位置で互いに逆巻きに設けられた、右巻き螺旋羽根48aと、左巻き螺旋羽根48bと、で形成されている。上述のように、撹拌羽根48は、回転軸から羽根先端までの長さが左右中央部から両端側に向けて次第に縮径されるように設けられている。これにより密閉容器12の横倒し樽型形状に対応して原料を確実に撹拌できる。さらに、羽根先端と密閉容器12の内壁との間にある程度の隙間Hを形成するように設けられている。螺旋羽根48a、48bは、原料を中央部から両端壁側に向けて搬送しつつ、固形状の原料を破砕しながら原料を撹拌する。撹拌羽根48により両端壁12a、12b側に搬送された原料は、該端壁12a、12b側で後から搬送されてくる原料によって押送され、密閉容器12の内壁に沿いつつ隙間Hを介してから中央に戻るように搬送される。なお、撹拌手段30は、上記の構成のものに限らず、その他任意の構成でもよい。 The stirring means 30 is a means for stirring raw materials to be processed in a closed container, and can process the raw materials evenly and quickly. The stirring means 30 includes a rotating shaft 49 made up of the steam ejection pipe 28, and stirring blades 48 attached to the rotating shaft 49 and having portions extending in the circumferential direction of the rotating shaft. In this embodiment, the stirring blade 48 is formed of a right-handed spiral blade 48a and a left-handed spiral blade 48b, which are provided at a substantially central position in the axial direction of the rotating shaft 49 so as to be wound in opposite directions. As described above, the stirring blades 48 are provided such that the length from the rotating shaft to the tip of the blade gradually decreases in diameter from the left-right central portion toward both ends. As a result, the raw material can be reliably agitated corresponding to the overturned barrel shape of the closed container 12 . Furthermore, it is provided so as to form a certain amount of gap H between the tip of the blade and the inner wall of the closed container 12 . The spiral blades 48a and 48b stir the raw material while crushing the solid raw material while conveying the raw material from the central portion toward the both end wall sides. The raw material conveyed to the side of both end walls 12a and 12b by the stirring blade 48 is pushed by the raw material that is subsequently conveyed on the side of the end walls 12a and 12b, along the inner wall of the sealed container 12 and through the gap H. Transported back to center. In addition, the stirring means 30 is not limited to the configuration described above, and may be of any other configuration.
 分離回収手段18は、排出口からの直接操作のみで、蒸気処理後の密閉容器12内の処理された原料と液体とを分離して回収する分離回収手段である。分離回収手段18は、図1に示すように、排出口16を介して密閉容器12内部に連通する液体の回収部50と、排出口16を介して液体を自然流下により回収部50に回収させる自然流下回収機構52と、を有する。 The separation/recovery means 18 is a separation/recovery means that separates and recovers the processed raw material and the liquid in the sealed container 12 after steam treatment only by direct operation from the discharge port. As shown in FIG. 1, the separation and recovery means 18 includes a liquid recovery section 50 that communicates with the inside of the sealed container 12 through the discharge port 16, and the recovery section 50 recovers the liquid through the discharge port 16 by gravity flow. and a gravity recovery mechanism 52 .
前記液体回収流路54はその液体導入口58を排出口16に連通接続させて、処理された原料の排出経路R1から分岐した液体の回収経路R2を形成している。本実施形態では、液体回収流路54は、例えば、その内径が6mm程度の金属製管で設けられている。液体回収流路54には、上述のように、流路の連通状態を選択的に切り替える開閉バルブ60が設けられている。開閉バルブ60は、密閉容器内での原料の処理中には流路を遮断するとともに、処理後に液体のみを分離回収する際には流路を連通させるように切り替えられる。これにより、原料と同時に原料中に含まれる水分や蒸気が液化して原料中の細菌や悪臭成分等を含んで状態の液体は、高温高圧の蒸気で処理させることができる。そして、処理後に分離回収される液体は、殺菌や、悪臭・有害成分の分解等された状態で回収することができ、分離回収した液体を二次処理する必要がなく、労力がかからず、時間短縮を図ることができる。   The liquid recovery channel 54 has a liquid inlet port 58 connected to the discharge port 16 so as to form a liquid recovery route R2 branched from the processed raw material discharge route R1. In this embodiment, the liquid recovery channel 54 is provided by, for example, a metal tube having an inner diameter of about 6 mm. The liquid recovery channel 54 is provided with the opening/closing valve 60 for selectively switching the communication state of the channel, as described above. The opening/closing valve 60 is switched so as to block the flow path during the processing of the raw material in the closed container and open the flow path when only the liquid is separated and recovered after the processing. As a result, the moisture and steam contained in the raw material are liquefied at the same time as the raw material, and the liquid containing bacteria and malodorous components in the raw material can be treated with high-temperature, high-pressure steam. The liquid separated and recovered after the treatment can be recovered in a state such as sterilization or decomposition of odors and harmful components. Time can be shortened.  
 前記密閉容器12の上部には、テルペン油等の揮発性有用物質回収機構30が設けられており、この揮発性有用物質回収機構30は、密閉容器12に設けられた高圧高温蒸気排出口19を介して密閉空間S1に連通した高温高圧蒸気排出管31、およびこの高温高圧蒸気排出管31の上流側に設けられた蒸気排出バルブ32、この蒸気排出バル32からの高温高圧蒸気を受け、これを冷却して前記高圧高温蒸気を凝縮し、木材由来の揮発性有機化合物を含有する液体を回収する凝縮手段34、および管路35を介して前記凝縮手段34からの液体が搬送されてくる貯蔵容器38を備えている。 A volatile useful substance recovery mechanism 30 such as terpene oil is provided in the upper part of the closed container 12, and this volatile useful substance recovery mechanism 30 is connected to the high-pressure high-temperature steam discharge port 19 provided in the closed container 12. A high-temperature and high-pressure steam discharge pipe 31 communicating with the closed space S1 via a steam discharge valve 32 provided upstream of the high-temperature and high-pressure steam discharge pipe 31, and receiving the high-temperature and high-pressure steam from the steam discharge valve 32. Condensing means 34 for cooling and condensing said high pressure and high temperature steam to recover a liquid containing volatile organic compounds derived from wood, and a storage vessel to which the liquid from said condensing means 34 is conveyed via a line 35. 38.
 前記貯蔵容器38内に貯蔵される液体は、上記したように木材由来の揮発性有機化合物を含有する液体であり、必要に応じて、揮発性有機化合物を前記液体から抽出して商品とする。 The liquid stored in the storage container 38 is a liquid containing volatile organic compounds derived from wood as described above, and the volatile organic compounds are extracted from the liquid as necessary to produce products.
 前記製造装置10は、中央演算回路等から構成されており、予め記憶した所定のプログラムに従い、前記開閉機構26,蒸気排出バルブ32、蒸気発生装置46、蒸気供給制御バルブ46aおよび開閉バルブ60等の作動を制御する制御回路100を備えている。 The manufacturing apparatus 10 is composed of a central processing circuit and the like, and according to a predetermined program stored in advance, the opening/closing mechanism 26, the steam discharge valve 32, the steam generator 46, the steam supply control valve 46a, the opening/closing valve 60, etc. A control circuit 100 is provided to control the operation.
 次に、以上説明した製造装置10を用いての本発明の実施の形態による有用物質の製造方法について説明する。
 本発明の実施の形態による有用物質の製造方法は、前記のような処理装置を準備する装置準備工程、
 前記処理装置の密閉容器の処理空間内に、前記供給部から、主原料として木材チップを含有する原料を投入する原料投入工程、
 温度が120~200℃で、圧力が4~15atmの蒸気を、前記原料が投入されている前記処理空間内に導入しつつ、前記原料を撹拌しながら、原料を亜臨界水反応処理して、フルボ酸とフミン酸と木材のチップおよび/またはその破片の固形物を含有する第1混合溶液を得る第1亜臨界水処理工程、
 前記蒸気排出バルブを開いて、前記処理空間から高圧蒸気を排出して、該処理空間内の圧力を高圧から低下させる中間圧力低下工程、
 前記開閉バルブを開いて、前記処理空間から、フルボ酸/フミン酸の原料となる液体のみを回収する液体回収工程、
 前記蒸気排出バルブおよび開閉バルブを閉じる閉工程、
 温度が200~250℃で、圧力が15~30atmの蒸気を、前記固形物が存在する前記処理空間内に導入しつつ、前記原料を撹拌しながら、原料を亜臨界水反応による炭化処理して形成された炭化固形物と、この炭化に伴って生成された木酢酸を含有する第2混合溶液を得る第2亜臨界水処理工程、
前記蒸気排出バルブを開いて、前記処理空間から高圧蒸気を排出して、該処理空間内の圧力を高圧から大気圧に低下させる最終圧力低下工程、
 前記開閉バルブを開いて、前記処理空間から、木酢酸の原料となる液体のみを回収する液体回収工程、および
 前記開閉機構を開いて、前記処理空間から、固体炭化物を回収する固体回収工程、
 を備えている。
なお、上記において、原料供給工程以降は、前記制御回路100により、所定のプログラムに沿って自動的に行われることが好ましい。
Next, a method for manufacturing a useful substance according to an embodiment of the present invention using the manufacturing apparatus 10 described above will be described.
A method for producing a useful substance according to an embodiment of the present invention comprises an apparatus preparation step of preparing the processing apparatus as described above;
A raw material charging step of charging a raw material containing wood chips as a main raw material from the supply unit into the processing space of the closed container of the processing apparatus;
While introducing steam having a temperature of 120 to 200° C. and a pressure of 4 to 15 atm into the processing space in which the raw material is charged, the raw material is subjected to subcritical water reaction treatment while stirring the raw material, A first subcritical water treatment step of obtaining a first mixed solution containing solids of fulvic acid, humic acid, and wood chips and/or fragments thereof;
an intermediate pressure reduction step of opening the steam exhaust valve to exhaust high pressure steam from the processing space to reduce the pressure in the processing space from the high pressure;
A liquid recovery step of opening the opening/closing valve to recover only the liquid that is the raw material of fulvic acid/humic acid from the processing space;
a closing step of closing the steam discharge valve and the on-off valve;
While introducing steam having a temperature of 200 to 250° C. and a pressure of 15 to 30 atm into the processing space where the solid matter exists, the raw material is carbonized by a subcritical water reaction while stirring the raw material. a second subcritical water treatment step of obtaining a second mixed solution containing the formed carbonized solid and pyroligneous acid produced along with the carbonization;
a final pressure reduction step of opening the steam exhaust valve to exhaust high pressure steam from the processing space to reduce the pressure in the processing space from high pressure to atmospheric pressure;
A liquid recovery step of opening the opening/closing valve to recover only the liquid that will be the raw material of pyroligneous acid from the processing space, and a solid recovery step of opening the opening/closing mechanism to recover solid carbide from the processing space,
It has
In addition, in the above, it is preferable that the control circuit 100 automatically performs the steps after the raw material supply step according to a predetermined program.
 以下、上記した各工程について詳細に説明する。
《装置準備工程》
 図を参照しつつ、上で説明したような製造装置(処理装置)を準備する。
Each step described above will be described in detail below.
《Equipment preparation process》
A manufacturing apparatus (processing apparatus) as described above is prepared with reference to the drawings.
《原料投入工程》
 原料は、木材チップを主原料とする。チップのサイズは、長辺が50~150cm程度、短辺2が~5cm程度のものとするのが好ましい。副材もしくは添加物としては、より多くのフルボ酸を効率よく生成するために、アルカリ性溶液を添加することができる。アルカリ性溶液を添加する場合の蒸気の圧力、温度は、添加しない場合と同様であって良い。
《Raw material input process》
The main raw material is wood chips. The size of the chip is preferably about 50 to 150 cm on the long side and about 5 cm on the short side 2 . As a secondary material or additive, an alkaline solution can be added in order to efficiently produce more fulvic acid. The vapor pressure and temperature when adding the alkaline solution may be the same as when not adding.
 前記木材としては、一般に、伐採材または廃材を用いることができる。
 前記伐採材といては、広葉樹および針葉樹のいずれであってもよい。
 広葉樹としては、いずれの広葉樹であってもよいが、現在のところ、例えば、白樺、柳、栗、ナラまたはブナ等が好ましく使用できている。
 前記針葉樹としては、現在のところ、例えば、松、杉、ヒノキまたはあすなろ等が好ましく使用できている。
 なお、伐採材を用いる場合、皮等を取り除く必要はない。また、葉部や根部、あるいはヤシ殻のような果実の殻をそのまま、あるいはチップ状としたものを含んでいてよい。
As the wood, generally felled wood or waste wood can be used.
The felled wood may be either broad-leaved trees or coniferous trees.
As the broad-leaved tree, any broad-leaved tree may be used, but at present, for example, white birch, willow, chestnut, oak, beech, etc. are preferably used.
As the conifers, pine, cedar, Japanese cypress, Asunaro, etc. can be preferably used at present.
When using felled wood, it is not necessary to remove the bark or the like. It may also contain leaves, roots, or fruit shells such as coconut shells as they are or in the form of chips.
 廃材としては、木造建築の家屋の解体の際に生じた木くず(角材、板材:無垢材、貼り合わせ材・合板材(ベニヤ板))等が挙げられる。このような木くずは、通常、チップとされるので、原料としてそのまま用いることができる。
 上記の原料は、混合して用いても良い。例えば、通常の家庭において、伐採を行うと、いろいろな種類の樹木の伐採材が排出されるが、これらは、仕分けることなく、そのまま、全体を混合したままチップとし、原料としてもよい。勿論、その中に廃材チップを混合しても良い。
Waste materials include wood chips (square timbers, planks: solid timbers, laminated timbers/plywood timbers (plywood)) generated during the demolition of wooden houses. Since such wood waste is generally made into chips, it can be used as it is as a raw material.
The raw materials mentioned above may be mixed and used. For example, when trees are felled in ordinary households, felled wood of various kinds of trees is discharged. These woods may be used as a raw material by mixing the whole wood as chips without sorting them. Of course, waste chips may be mixed therein.
 以上説明したようなチップである原料を、処理空間に投入するが、原料の量は、密閉容器12の閉鎖空間S1すなわち処理空間の90%以下、特に、50~80%であることが好ましい。原料の投入量がこの範囲より低い場合には、処理効率が悪く、越える場合には、蒸気が原料に上手く作用できず、フルボ酸の生成が十分でなくなるおそれがある。 The raw materials, which are chips as described above, are put into the processing space, and the amount of raw materials is preferably 90% or less, particularly 50 to 80%, of the closed space S1 of the closed container 12, that is, the processing space. If the input amount of raw material is lower than this range, the treatment efficiency is poor, and if it exceeds this range, the steam may not act well on the raw material, resulting in insufficient production of fulvic acid.
《第1亜臨界水処理工程》
 この工程においては、前記原料が投入されている処理空間内に高圧高温蒸気を導入しつつ、前記原料を撹拌しながら、原料を亜臨界水反応処理して、フルボ酸とフミン酸と木材のチップおよび/またはその破片の固形物を含有する第1混合溶液を得る。前記蒸気は、用いる原料の種類、状態によっても異なるが、原料か炭化しない、温度が120~200℃で、圧力が4~15atmとする。したがって、処理空間内を、温度が120~200℃で、圧力が4~15atmの処理温度、圧力とする。蒸気の導入量は、処理空間の容積、処理する原料の量にもよるが、余剰空間(処理空間から投入された原料の容積を減算した値の空間)に完全に充填される量とするのが好ましい。
<<First subcritical water treatment process>>
In this step, high-pressure high-temperature steam is introduced into the processing space in which the raw materials are charged, and the raw materials are subjected to a subcritical water reaction treatment while stirring the raw materials to obtain fulvic acid, humic acid, and wood chips. and/or obtain a first mixed solution containing solids of the fragments. The steam should have a temperature of 120 to 200° C. and a pressure of 4 to 15 atm. Therefore, the inside of the processing space is set to a processing temperature and pressure of 120 to 200° C. and a pressure of 4 to 15 atm. The amount of steam introduced depends on the volume of the processing space and the amount of raw material to be processed, but should be the amount that completely fills the surplus space (the space obtained by subtracting the volume of the raw material introduced from the processing space). is preferred.
 なお、前記伐採材として広葉樹を用いる場合、処理工程において供給される前記高圧高温蒸気は、温度が120~200℃で、圧力が4~15atmとするのが好ましい。
 一方、前記伐採材として針葉樹を用いる場合、処理工程において供給される前記高圧高温蒸気は、温度が140~200℃で、圧力が5~15atmとするのが好ましい。
 この処理工程では、上記のように、原料が投入された処理空間に蒸気を導入しつつ、前記原料を攪拌して、前記原料を亜臨界水反応により処理を行う。
 処理工程の時間は、最高温度・最高圧力保持時間すなわち設定処理温度・圧力で、15~20分が好ましい。処理時間が上記の範囲より短い場合には、反応時間が十分でなく、すなわち、フルボ酸、フミン酸の生成が十分でなく、相当量のフルボ酸、フミン酸が原料中に残留してしまい、上記範囲を超えると、原料か炭化してしまい、溶液中に目的としない物質が混入してしまう。
 この処理工程において、原料は、亜臨界水反応処理され、フルボ酸とフミン酸が、溶液中に含有される。この溶液は、また、木材チップおよび/またはその破片の懸濁物を含有する。すなわち、フルボ酸と、フミン酸と、木材チップおよび/またはその破片の懸濁物を含有する混合溶液が得られる。 
 この工程で取得した混合溶液中には、フルボ酸とフミン酸の総量(固形分量中)のうち、フルボ酸が、全体の3~12%含まれる。
When a broad-leaved tree is used as the felled wood, the high-pressure high-temperature steam supplied in the treatment process preferably has a temperature of 120 to 200° C. and a pressure of 4 to 15 atm.
On the other hand, when conifers are used as the felled wood, the high-pressure and high-temperature steam supplied in the treatment process preferably has a temperature of 140 to 200° C. and a pressure of 5 to 15 atm.
In this treatment step, as described above, steam is introduced into the treatment space into which the raw material is introduced, and the raw material is stirred to treat the raw material by the subcritical water reaction.
The duration of the treatment step is preferably 15 to 20 minutes at the maximum temperature/maximum pressure retention time, that is, the set treatment temperature/pressure. If the treatment time is shorter than the above range, the reaction time is insufficient, that is, the production of fulvic acid and humic acid is not sufficient, and a considerable amount of fulvic acid and humic acid remains in the raw material. If the above range is exceeded, the raw material will be carbonized, and unintended substances will be mixed into the solution.
In this treatment process, the raw material is subjected to subcritical water reaction treatment, and fulvic acid and humic acid are contained in the solution. This solution also contains a suspension of wood chips and/or fragments thereof. Thus, a mixed solution containing fulvic acid, humic acid and a suspension of wood chips and/or fragments thereof is obtained.
The mixed solution obtained in this step contains 3 to 12% of fulvic acid in the total amount of fulvic acid and humic acid (in solid content).
《中間圧力低下工程》
 前記第1亜臨界水処理工程が終了した後、前記蒸気排出バルブ32を開いて、前記処理空間から高圧蒸気を一部排出して、該処理空間内の圧力を高圧から低下させる。この圧力低下は、次に行われる第1液体回収工程が安全かつ効率良く行えるようにするためのものであり、処理空間の圧力を、2~4atm程度に下げればよい。大気圧まで下げる必要はない。なお、この圧力低下等に伴って、温度も下がるが、極めて少なく、次の第1液体回収工程の温度低下も含めて数℃程度の低下である。温度の低下は、自然冷却分である。後に行われる第2亜臨界水処理工程を効率よく行うため、温度の低下はできるだけ、小さい方が望ましい。
 なお、この工程で排出される蒸気は、前記凝縮手段34に導かれ、ここで凝縮されて、揮発性成分等の有用成分を含む液体と凝縮され、管路35を介して貯蔵容器38に回収される。
《Intermediate pressure reduction process》
After the first sub-critical water treatment step is completed, the steam exhaust valve 32 is opened to partially exhaust high-pressure steam from the processing space, thereby lowering the pressure in the processing space from the high pressure. This pressure drop is for enabling the next first liquid recovery step to be carried out safely and efficiently. It is not necessary to lower the pressure to atmospheric pressure. Although the temperature also drops with this pressure drop, it is extremely small, and the drop is about several degrees Celsius including the temperature drop in the next first liquid recovery step. The drop in temperature is due to natural cooling. In order to efficiently perform the second subcritical water treatment step to be performed later, it is desirable that the temperature drop be as small as possible.
The vapor discharged in this process is guided to the condensing means 34, where it is condensed with a liquid containing useful components such as volatile components, and collected in a storage container 38 via a conduit 35. be done.
《第1液体回収工程》
 この工程では、前記開閉機構26を閉じたまま、開閉バルブ60を開いて、前記処理空間から、フルボ酸/フミン酸の原料となる液体(フルボ酸/フミン酸の混合溶液)を、液体回収流路54を介して回収部50に回収する。
 前記混合溶液はそのまま用いてもよいが、この混合溶液からフミン酸とフルボ酸を分離処理して、フルボ酸溶液およびフミン酸溶液を取得する。この取得工程におけるフミン酸とフルボ酸を分離処理は、溶液のpH酸性にして、フミン酸を沈殿分離、あるいは濾過分離による。溶液のpHは、2~3とするのが好ましい。
このとき、固形分は、密閉容器12内に留まり、次の処理を待つ。
 前記圧力低下工程およびこの第1液体回収工程は、前記蒸気供給制御バルブ46aを閉じ、密閉容器12への蒸気の供給を一時的に停止して行うことが好ましい。
<<First liquid recovery step>>
In this step, while the opening/closing mechanism 26 is kept closed, the opening/closing valve 60 is opened, and the liquid (mixed solution of fulvic acid/humic acid) that is the raw material of fulvic acid/humic acid is discharged from the processing space into a liquid recovery stream. It is recovered to the recovery section 50 via the path 54 .
Although the mixed solution may be used as it is, humic acid and fulvic acid are separated from this mixed solution to obtain a fulvic acid solution and a humic acid solution. The separation of humic acid and fulvic acid in this acquisition step is carried out by making the pH of the solution acidic and separating humic acid by precipitation or separation by filtration. The pH of the solution is preferably 2-3.
At this time, the solid content remains in the closed container 12 and waits for the next treatment.
The pressure reduction step and the first liquid recovery step are preferably performed by closing the steam supply control valve 46a and temporarily stopping the supply of steam to the sealed container 12. As shown in FIG.
《閉工程》
 ついで、前記蒸気排出バルブ32および開閉バルブ60を閉じる。
《Closed process》
Then, the steam discharge valve 32 and the open/close valve 60 are closed.
《第2亜臨界水処理工程》
 この第2亜臨界水処理工程では、前記処理空間内に残留している前記固形物を、前記第1亜臨界水処理工程で用いた蒸気よりは高温・高圧の蒸気で亜臨界水処理する。
 ずなわち、温度が200~250℃で、圧力が15~30atmの蒸気を、前記処理空間内に導入しつつ、前記原料を撹拌しながら、原料を亜臨界水反応による炭化処理して形成された炭化固形物と、この炭化に伴って生成された木酢酸を含有する第2混合溶液を得る。
 材料として、ヤシ殻を用いた場合には、よく知られているヤシ殻活性炭となり、特に好ましい有用物質となる。
<<Second subcritical water treatment process>>
In the second sub-critical water treatment step, the solids remaining in the treatment space are treated with sub-critical water with steam having a higher temperature and pressure than the steam used in the first sub-critical water treatment step.
That is, while introducing steam having a temperature of 200 to 250 ° C. and a pressure of 15 to 30 atm into the processing space, the raw material is carbonized by a subcritical water reaction while stirring the raw material. A second mixed solution is obtained which contains the carbonized solid matter and the pyroligneous acid produced along with the carbonization.
When coconut shell is used as the material, it becomes a well-known coconut shell activated carbon, which is a particularly preferable useful substance.
《最終圧力低下工程》
前工程である第2亜臨界水処理工程が完了した後、前記蒸気排出バルブ32を開いて、前記処理空間から高圧蒸気を排出して、該処理空間内の圧力を高圧から大気圧まで低下させる。
このとき、排出される圧力蒸気中に、有用物質の存在が見込まれる場合には、前記中間圧力低下工程後の場合と同様、排出される高圧蒸気を、凝縮手段34により液体とし、貯蔵容器38に回収してもよい。この場合の有用物質としては、テルペン油等がある。
なお、この圧力低下等に伴って、温度も下がるが、この温度の低下は、自然冷却によるものである。
《Final pressure reduction process》
After the second subcritical water treatment step, which is the previous step, is completed, the steam discharge valve 32 is opened to discharge high-pressure steam from the processing space, thereby reducing the pressure in the processing space from high pressure to atmospheric pressure. .
At this time, if useful substances are expected to be present in the discharged pressure vapor, the discharged high pressure vapor is liquefied by the condensing means 34 and stored in the storage container 38 as in the case after the intermediate pressure reduction step. may be collected at Useful substances in this case include terpene oil and the like.
It should be noted that the temperature also drops with this pressure drop and the like, but this drop in temperature is due to natural cooling.
《第2液体回収工程》
 前記開閉バルブ60を開いて、前記処理空間から、液体のみを回収する。この液体は、木酢酸をリッチに含有する木酢液で、精製等することなく、単に所定の希釈濃度に希釈して、殺菌液、作物の生育抑制剤、作物生長促進剤、消臭剤等として用いることができる。
<<Second liquid recovery step>>
The on-off valve 60 is opened to recover only the liquid from the processing space. This liquid is a pyroligneous acid-rich liquid that can be used as a sterilizing liquid, a crop growth inhibitor, a crop growth promoter, a deodorant, etc., by simply diluting it to a predetermined dilution concentration without purification or the like. can be used.
《固体回収工程》
 この後、前記第開閉機構26を開いて、前記処理空間から、固体炭化物を回収する。
 以上により、本発明の実施の形態による2種以上の有用物質の製造方法を終了する。以上の処理工程における処理圧力と処理温度の推移を図2に示した。
《Solid recovery process》
After that, the first opening/closing mechanism 26 is opened to recover the solid carbide from the processing space.
This completes the method for producing two or more useful substances according to the embodiment of the present invention. FIG. 2 shows changes in processing pressure and processing temperature in the above processing steps.
  10  有機系廃棄物の処理装置
  12  密閉容器
  14  蒸気噴出手段
  16  排出口
  18  分離回収手段
  26  開閉機構
  30  撹拌手段
32 蒸気排出バルブ
  50  回収部
  52  自然流下回収機構
  54  液体回収流路
  58  液体導入口
  60  開閉バルブ
 100 制御回路
 
 
 
REFERENCE SIGNS LIST 10 organic waste treatment apparatus 12 sealed container 14 steam ejection means 16 outlet 18 separation and recovery means 26 opening/closing mechanism 30 stirring means 32 steam discharge valve 50 recovery section 52 gravity recovery mechanism 54 liquid recovery channel 58 liquid inlet 60 Open/close valve 100 control circuit

Claims (18)

  1.  原料である木材チップを処理して少なくとも2種以上の有用物質を製造する有用物質の製造方法であって、
     内部に閉鎖可能な処理空間を有する密閉容器と、前記密閉容器内に原料を供給するための供給部と、該密閉容器内に高温高圧の蒸気を噴出する蒸気噴出手段と、前記密閉容器内から液体のみを排出するための開閉バルブおよび固形物を排出するための開閉機構を持つ排出口部と、前記密閉容器から高圧蒸気を排出するための蒸気排出バルブを持つ蒸気排出口とを備えた処理装置を準備する装置準備工程、
     前記処理装置の密閉容器の処理空間内に、前記供給部から、主原料として木材チップを含有する原料を投入する原料投入工程、
     温度が120~200℃で、圧力が4~15atmの蒸気を、前記原料が投入されている前記処理空間内に導入しつつ、前記原料を撹拌しながら、原料を亜臨界水反応処理して、フルボ酸とフミン酸と木材のチップおよび/またはその破片の固形物を含有する第1混合溶液を得る第1亜臨界水処理工程、
     前記蒸気排出バルブを開いて、前記処理空間から高圧蒸気を排出して、該処理空間内の圧力を高圧から低下させる中間圧力低下工程、
     前記開閉バルブを開いて、前記処理空間から、フルボ酸/フミン酸の原料となる液体のみを回収する第1液体回収工程、
     前記蒸気排出バルブおよび開閉バルブを閉じる閉工程、
     温度が200~250℃で、圧力が15~30atmの蒸気を、前記固形物が存在する前記処理空間内に導入しつつ、前記原料を撹拌しながら、原料を亜臨界水反応による炭化処理して形成された炭化固形物と、この炭化に伴って生成された木酢酸を含有する第2混合溶液を得る第2亜臨界水処理工程、
    前記蒸気排出バルブを開いて、前記処理空間から高圧蒸気を排出して、該処理空間内の圧力を高圧から大気圧に低下させる最終圧力低下工程、
     前記開閉バルブを開いて、前記処理空間から、木酢酸の原料となる液体のみを回収する第2液体回収工程、および
     前記開閉機構を開いて、前記処理空間から、固体炭化物を回収する固体回収工程、
    を備えていることを特徴とする有用物質の製造方法。
    A method for producing useful substances by treating wood chips as a raw material to produce at least two useful substances,
    a closed container having a closable processing space therein; a supply unit for supplying raw materials into the closed container; steam jetting means for jetting high-temperature and high-pressure steam into the closed container; A treatment comprising an outlet part having an opening/closing valve for discharging only liquid and an opening/closing mechanism for discharging solid matter, and a steam outlet having a steam outlet valve for discharging high-pressure steam from the closed container. a device preparation step of preparing a device;
    A raw material charging step of charging a raw material containing wood chips as a main raw material from the supply unit into the processing space of the closed container of the processing apparatus;
    While introducing steam having a temperature of 120 to 200° C. and a pressure of 4 to 15 atm into the processing space in which the raw material is charged, the raw material is subjected to subcritical water reaction treatment while stirring the raw material, A first subcritical water treatment step of obtaining a first mixed solution containing solids of fulvic acid, humic acid, and wood chips and/or fragments thereof;
    an intermediate pressure reduction step of opening the steam exhaust valve to exhaust high pressure steam from the processing space to reduce the pressure in the processing space from the high pressure;
    a first liquid recovery step of opening the opening/closing valve to recover only the liquid that is the raw material of fulvic acid/humic acid from the processing space;
    a closing step of closing the steam discharge valve and the on-off valve;
    While introducing steam having a temperature of 200 to 250° C. and a pressure of 15 to 30 atm into the processing space where the solid matter exists, the raw material is carbonized by a subcritical water reaction while stirring the raw material. a second subcritical water treatment step of obtaining a second mixed solution containing the formed carbonized solid and pyroligneous acid produced along with the carbonization;
    a final pressure reduction step of opening the steam exhaust valve to exhaust high pressure steam from the processing space to reduce the pressure in the processing space from high pressure to atmospheric pressure;
    A second liquid recovery step of opening the opening/closing valve to recover only the liquid that will be the raw material of pyroligneous acid from the processing space, and a solid recovery step of opening the opening/closing mechanism to recover solid carbide from the processing space. ,
    A method for producing a useful substance, comprising:
  2.  前記第1亜臨界水処理工程において、最高温度保持時間を15~20分とした請求項1の有用物質の製造方法。 The method for producing a useful substance according to Claim 1, wherein the maximum temperature holding time is 15 to 20 minutes in the first subcritical water treatment step.
  3. 前記第2亜臨界水処理工程において、最高温度保持時間を15~20分とした請求項1または2の有用物質の製造方法。 3. The method for producing a useful substance according to claim 1 or 2, wherein the maximum temperature holding time is 15 to 20 minutes in the second subcritical water treatment step.
  4.  前記木材が伐採材または廃材である請求項1~3のいずれかの有用物質の製造方法。 The method for producing a useful substance according to any one of claims 1 to 3, wherein the wood is felled wood or waste wood.
  5.  前記伐採材が、広葉樹または針葉樹によるものである請求項4の有用物質の製造方法。 The method for producing a useful substance according to claim 4, wherein the felled timber is from a broad-leaved tree or a coniferous tree.
  6.  前記広葉樹が白樺、柳、栗、ナラまたはブナである請求項5の有用物質の製造方法。 The method for producing a useful substance according to claim 5, wherein the broadleaf tree is birch, willow, chestnut, oak or beech.
  7.  前記針葉樹が、松、杉、ヒノキまたはあすなろである請求項5の有用物質の製造方法。 The method for producing a useful substance according to claim 5, wherein the coniferous tree is pine, cedar, cypress or Asunaro.
  8.  前記廃材が無垢材または合板材である請求項4の有用物質の製造方法。 The method for producing a useful substance according to claim 4, wherein the waste material is solid wood or plywood.
  9.  前記処理工程が、1~8時間行われる請求項1~8のいずれかの有用物質の製造方法。 The method for producing a useful substance according to any one of claims 1 to 8, wherein the treatment step is performed for 1 to 8 hours.
  10.  前記主原料が広葉樹であり、前記処理工程において導入される蒸気の圧力が12~25atmである請求項5の有用物質の製造方法。 The method for producing a useful substance according to claim 5, wherein the main raw material is hardwood, and the pressure of the steam introduced in the treatment process is 12 to 25 atm.
  11.  前記主原料が針葉樹であり、前記処理工程において導入される蒸気の圧力が20~35atmである請求項5の有用物質の製造方法。 The method for producing a useful substance according to claim 5, wherein the main raw material is softwood, and the pressure of the steam introduced in the treatment process is 20 to 35 atm.
  12.  容積割合で、原料を前記処理空間の90%以下導入する請求項1~11のいずれかの有用物質の製造方法。 The method for producing a useful substance according to any one of claims 1 to 11, wherein the raw material is introduced into 90% or less of the processing space in terms of volume ratio.
  13.  容積割合で、原料を前記処理空間の50~80%導入する請求項1~11のいずれかの有用物質の製造方法。 The method for producing a useful substance according to any one of claims 1 to 11, wherein the raw material is introduced in 50 to 80% of the processing space in terms of volume ratio.
  14.  前記処理工程における撹拌が、前記処理空間内に配置された回転する撹拌部材により行われる請求項1~13のいずれかの有用物質の製造方法。 The method for producing a useful substance according to any one of claims 1 to 13, wherein the stirring in the treatment step is performed by a rotating stirring member arranged in the treatment space.
  15.  前記原料投入工程において、添加物として、アルカリ性溶液を添加する請求項1~14のいずれかの有用物質の製造方法。 The method for producing a useful substance according to any one of claims 1 to 14, wherein an alkaline solution is added as an additive in the raw material charging step.
  16.  原料として、木本の葉部を含む請求項1~15のいずれかの有用物質の製造方法。 The method for producing a useful substance according to any one of Claims 1 to 15, which contains woody leaves as raw materials.
  17.  前記処理装置が、前記蒸気排出口に連結された凝縮手段を備え、前記蒸気排出口から噴出された高圧蒸気から木材由来の揮発性有機化合物を、前記凝縮手段により凝縮して回収する請求項1~16のいずれかの有用物質の製造方法。 2. The processing equipment comprises condensing means connected to the steam outlet, and the condensing means recovers the wood-derived volatile organic compounds from the high-pressure steam emitted from the steam outlet by condensing. 16. A method for producing a useful substance according to any one of 16.
  18. 原料である木材チップを処理して少なくとも2種以上の有用物質を製造する有用物質の製造装置であって、内部に閉鎖可能な処理空間を有する密閉容器と、前記密閉容器内に原料を供給するための供給部と、該密閉容器内に高温高圧の蒸気を噴出する蒸気噴出手段と、前記密閉容器内から液体のみを排出するための開閉バルブおよび固形物を排出するための開閉機構を持つ排出口部と、前記密閉容器から高圧蒸気を排出するための蒸気排出バルブを持つ蒸気排出口と、前記蒸気排出口に連結され、前記蒸気排出口から噴出された高圧蒸気から木材由来の揮発性有機化合物を凝縮して回収する凝縮手段を備えた有用物質の製造装置。
     
     
     
     
    A useful substance manufacturing apparatus for manufacturing at least two kinds of useful substances by processing wood chips as raw materials, comprising: a closed container having a closable processing space therein; and supplying raw materials into the closed container. a supply unit for the purpose, a steam ejection means for ejecting high-temperature and high-pressure steam into the sealed container, an opening/closing valve for discharging only the liquid from the closed container, and an opening/closing mechanism for discharging the solid matter. an outlet, a steam outlet having a steam outlet valve for discharging high-pressure steam from the closed container, and a wood-derived volatile organic compound connected to the steam outlet and ejected from the high-pressure steam ejected from the steam outlet. A useful substance manufacturing apparatus equipped with condensing means for condensing and recovering compounds.



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