JP2010213587A - Plant cultivation system by greenhouse - Google Patents

Plant cultivation system by greenhouse Download PDF

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JP2010213587A
JP2010213587A JP2009061336A JP2009061336A JP2010213587A JP 2010213587 A JP2010213587 A JP 2010213587A JP 2009061336 A JP2009061336 A JP 2009061336A JP 2009061336 A JP2009061336 A JP 2009061336A JP 2010213587 A JP2010213587 A JP 2010213587A
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greenhouse
garbage
facility
organic fertilizer
bacteria
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Ryuichi Kobayashi
隆逸 小林
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URAYASU DENSETSU KK
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URAYASU DENSETSU KK
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Priority to JP2009061336A priority Critical patent/JP2010213587A/en
Priority to PCT/JP2010/053753 priority patent/WO2010104022A1/en
Publication of JP2010213587A publication Critical patent/JP2010213587A/en
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    • AHUMAN NECESSITIES
    • A01AGRICULTURE; FORESTRY; ANIMAL HUSBANDRY; HUNTING; TRAPPING; FISHING
    • A01GHORTICULTURE; CULTIVATION OF VEGETABLES, FLOWERS, RICE, FRUIT, VINES, HOPS OR SEAWEED; FORESTRY; WATERING
    • A01G7/00Botany in general
    • A01G7/02Treatment of plants with carbon dioxide
    • AHUMAN NECESSITIES
    • A01AGRICULTURE; FORESTRY; ANIMAL HUSBANDRY; HUNTING; TRAPPING; FISHING
    • A01GHORTICULTURE; CULTIVATION OF VEGETABLES, FLOWERS, RICE, FRUIT, VINES, HOPS OR SEAWEED; FORESTRY; WATERING
    • A01G9/00Cultivation in receptacles, forcing-frames or greenhouses; Edging for beds, lawn or the like
    • A01G9/18Greenhouses for treating plants with carbon dioxide or the like
    • CCHEMISTRY; METALLURGY
    • C05FERTILISERS; MANUFACTURE THEREOF
    • C05FORGANIC FERTILISERS NOT COVERED BY SUBCLASSES C05B, C05C, e.g. FERTILISERS FROM WASTE OR REFUSE
    • C05F17/00Preparation of fertilisers characterised by biological or biochemical treatment steps, e.g. composting or fermentation
    • C05F17/40Treatment of liquids or slurries
    • CCHEMISTRY; METALLURGY
    • C05FERTILISERS; MANUFACTURE THEREOF
    • C05FORGANIC FERTILISERS NOT COVERED BY SUBCLASSES C05B, C05C, e.g. FERTILISERS FROM WASTE OR REFUSE
    • C05F17/00Preparation of fertilisers characterised by biological or biochemical treatment steps, e.g. composting or fermentation
    • C05F17/50Treatments combining two or more different biological or biochemical treatments, e.g. anaerobic and aerobic treatment or vermicomposting and aerobic treatment
    • CCHEMISTRY; METALLURGY
    • C05FERTILISERS; MANUFACTURE THEREOF
    • C05FORGANIC FERTILISERS NOT COVERED BY SUBCLASSES C05B, C05C, e.g. FERTILISERS FROM WASTE OR REFUSE
    • C05F9/00Fertilisers from household or town refuse
    • 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
    • Y02ATECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
    • Y02A40/00Adaptation technologies in agriculture, forestry, livestock or agroalimentary production
    • Y02A40/10Adaptation technologies in agriculture, forestry, livestock or agroalimentary production in agriculture
    • Y02A40/20Fertilizers of biological origin, e.g. guano or fertilizers made from animal corpses
    • 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
    • Y02PCLIMATE CHANGE MITIGATION TECHNOLOGIES IN THE PRODUCTION OR PROCESSING OF GOODS
    • Y02P20/00Technologies relating to chemical industry
    • Y02P20/141Feedstock
    • Y02P20/145Feedstock the feedstock being materials of biological origin
    • 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
    • Y02W30/40Bio-organic fraction processing; Production of fertilisers from the organic fraction of waste or refuse

Abstract

<P>PROBLEM TO BE SOLVED: To provide a plant cultivation system by a greenhouse, generating organic fertilizer and CO2 which are essential to plant growth, with a source of release of waste having raw garbage as the main ingredient, and letting the both contribute to growth and production increase in greenhouse plants together with a greenhouse effect. <P>SOLUTION: This plant cultivation system by a greenhouse has such a structure that waste 4 having raw garbage as the main ingredient is decomposed by bacteria to produce organic fertilizer 7, undecomposed residue 4' which does not lead to the decomposition by bacteria is burnt to generate CO2, photosynthesis of greenhouse plants 2 is promoted by supplying CO2 obtained by burning the undecomposed residue 4' to space in a greenhouse 1, and the organic fertilizer 7 produced by the decomposition by bacteria is fertilized to soil 3 in the greenhouse 1. <P>COPYRIGHT: (C)2010,JPO&INPIT

Description

本発明は生ごみを主成分とする廃棄物を温室内の植物の育成に有効に利用する、温室による植物栽培システムに関する。   The present invention relates to a plant cultivation system using a greenhouse, which effectively uses waste mainly composed of garbage for growing plants in the greenhouse.

燃料電池の作動によって発生するCO2、又は空気調和設備による空気調和域内で発生するCO2、或いは大気中から吸収したCO2を植物育成工場に供給し、植物の成長(光合成)を促進するシステムは下記の特許文献等に示されるように既知である。   The system that promotes the growth (photosynthesis) of plants by supplying CO2 generated by the operation of the fuel cell, CO2 generated in the air conditioning area by the air conditioning equipment, or CO2 absorbed from the atmosphere to the plant growing factory is as follows. It is known as shown in patent documents.

他方、生ごみをバクテリアの介在下で分解処理して有機肥料を生成し、植物の育成に資することも既知である。   On the other hand, it is also known that raw garbage is decomposed in the presence of bacteria to produce organic fertilizer, which contributes to plant growth.

特開昭62−272039号公報JP 62-272039 A 特開平5−135783号公報Japanese Patent Application Laid-Open No. 5-135578 特開平2−163007号公報JP-A-2-163007 特開2006−340683号公報JP 2006-340683 A

上記のように、CO2を燃料電池等を発生源として植物育成工場に供給する発想と、生ごみを発生源として得られた有機肥料を植物育成に用いる技術は、個々の技術として既知であり、両者を併用すれば植物の光合成に不可欠なCO2供給と有機肥料供給とが行え、植物の成長を促進し増産を図る目的が有効に達成できる。   As described above, the idea of supplying CO2 to a plant growing factory using a fuel cell or the like as a generation source, and the technology for using organic fertilizer obtained from garbage as a generation source for plant growth are known as individual technologies, If both are used in combination, CO2 supply and organic fertilizer supply essential for plant photosynthesis can be performed, and the purpose of promoting plant growth and increasing production can be effectively achieved.

然しながら、CO2の発生源として燃料電池や空気調和設備、大気中からCO2を吸収する装置等の特別な設備と条件が必要であり、これに加えて生ごみ処理施設の導入が必要であり、発生源が夫々異なる二つの装置を相互に関連なく設備せねばならず、実際には産業上の利用が困難である。   However, special equipment and conditions such as a fuel cell and air conditioning equipment and a device that absorbs CO2 from the atmosphere are necessary as a source of CO2, and in addition to this, it is necessary to introduce a garbage treatment facility. Two devices with different sources must be installed independently of each other, which is actually difficult for industrial use.

本発明は、生ごみを主成分とする廃棄物を上記有機肥料とCO2の発生源として有効利用し、温室における植物の成長、植物増産に寄与する温室による植物栽培システムを提供するものである。   This invention provides the plant cultivation system by the greenhouse which contributes to the growth of the plant in a greenhouse, and plant increase production by using effectively the waste which has a garbage as a main component as a generation source of the said organic fertilizer and CO2.

要述すると、本発明は生ごみを主成分とする廃棄物をバクテリアにより分解して有機肥料を生成する一方、該バクテリアによる分解に至らない未分解物を燃焼してCO2を発生し、該未分解物の燃焼により得られたCO2と、上記バクテリア分解により得られた有機肥料を温室内に供給し、温室内で栽培している植物の葉のCO2吸収・光合成を促進しつつ、植物の根による有機肥料の吸収を促し、よって温室内で栽培する植物の活性で健全なる成長を得て増産目的を達成する温室による植物栽培システムを提供するものである。   In short, the present invention generates organic fertilizer by decomposing waste mainly consisting of garbage with bacteria, while burning undegraded material that does not lead to decomposition by the bacteria to generate CO2, Supplying CO2 obtained by combustion of decomposition products and organic fertilizer obtained by the above-mentioned bacterial decomposition into the greenhouse, and promoting CO2 absorption and photosynthesis of the leaves of plants grown in the greenhouse, It is intended to provide a greenhouse-based plant cultivation system that promotes the absorption of organic fertilizers by the plant, and thus achieves the purpose of increasing production by obtaining healthy growth through the activity of plants grown in the greenhouse.

又上記バクテリアによる生ごみの分解過程で発生するCO2を上記未分解物の燃焼により発生したCO2と併せ温室内に供給し、温室内植物の光合成を増進すると共に、大気中へのCO2の放出を有効に防止する。   In addition, CO2 generated in the process of decomposition of garbage by the bacteria is supplied into the greenhouse together with CO2 generated by the combustion of the undegraded product, thereby promoting photosynthesis of plants in the greenhouse and releasing CO2 into the atmosphere. Effectively prevent.

本発明は生ごみを主成分とする廃棄物を発生源として植物の成長に欠かせない有機肥料とCO2を生成し、両者を温室効果と相俟って温室内植物の成長と増産に寄与せしめる、温室による植物栽培システムを有効に実現し、同時に生ごみの埋立処理や燃焼処理によるコスト負担等を軽減し、生ごみを資源として温室内植物の育成に再利用し自然に還元する循環型環境作り社会の形成と、温暖化防止に貢献せしめるシステムとして極めて有用である。   The present invention generates organic fertilizer and CO2 that are indispensable for plant growth from wastes mainly composed of garbage, and combines them with the greenhouse effect to contribute to the growth and production increase of plants in the greenhouse. Recycling environment that effectively realizes plant cultivation system in greenhouse, reduces the burden of cost by landfill treatment and combustion treatment of garbage at the same time, and reuses garbage as resources to grow plants in greenhouse It is extremely useful as a system that contributes to the creation of society and the prevention of global warming.

本発明に係る温室による植物栽培システム(基本システム)を概示するフローチャート。The flowchart which outlines the plant cultivation system (basic system) by the greenhouse which concerns on this invention. 上記基本システムを使用した他例を示す温室による植物栽培システムのフローチャート。The flowchart of the plant cultivation system by the greenhouse which shows the other example using the said basic system. 上記基本システムを使用した更に他例を示す温室による植物栽培システムのフローチャート。The flowchart of the plant cultivation system by the greenhouse which shows the other example which uses the said basic system.

以下、本発明に係る温室による植物栽培システムを図1乃至図3に基づいて詳述する。図1は本発明の第一実施例(基本実施例)、図2は同第二実施例、図3は第三実施例を示す。   Hereinafter, the plant cultivation system by the greenhouse which concerns on this invention is explained in full detail based on FIG. 1 thru | or FIG. 1 shows a first embodiment (basic embodiment) of the present invention, FIG. 2 shows the second embodiment, and FIG. 3 shows a third embodiment.

<第一、第二、第三実施例に共通な説明>
太陽光透過材で囲まれた温室1は風雨を適当に遮断しつつ、太陽光による植物2の光合成環境と温暖化環境を提供することができ、通年の植物栽培が可能である。
<Description common to the first, second and third embodiments>
The greenhouse 1 surrounded by the sunlight-transmitting material can provide a photosynthetic environment and a warming environment of the plant 2 by sunlight while appropriately blocking wind and rain, and can be cultivated throughout the year.

本発明は上記温室1による野菜や果樹等の植物2の栽培システムに係り、該温室栽培における植物2の活性なる成長と増産を図ることを目的としている。   The present invention relates to a cultivation system for plants 2 such as vegetables and fruit trees in the greenhouse 1, and aims to achieve active growth and increased production of the plants 2 in the greenhouse cultivation.

その手段として、植物2の成長に不可欠なCO2(二酸化炭素)と肥料(有機肥料)7を、生ごみを主成分とする廃棄物4を発生源として生成し、該CO2と有機肥料を上記温室1内空間と温室1内土壌3に供給して、上記温室効果と相俟って温室1で栽培する植物2の成長を促進し増産を図る目的が達成できるようにしたものである。   As a means for this, CO2 (carbon dioxide) and fertilizer (organic fertilizer) 7 essential for the growth of the plant 2 are generated using waste 4 mainly composed of garbage as a generation source, and the CO2 and organic fertilizer are converted into the greenhouse. The purpose is to supply to the interior space 1 and the soil 3 in the greenhouse 1 and to promote the growth of the plant 2 cultivated in the greenhouse 1 in combination with the greenhouse effect and to increase the production.

上記生ごみは町や農村等の地域の家庭、ホテル、レストラン、学校等から毎日発生し、該生ごみは相当量のプラスチック類、紙、木竹、繊維等の異物が含まれていることが多い。これら生ごみを主成分とする廃棄物4は上記地域乃至地域外において焼却処理や埋立処理されている。   The above garbage is generated every day from homes, hotels, restaurants, schools, etc. in towns and rural areas, and the garbage may contain a considerable amount of foreign materials such as plastics, paper, wood and bamboo, and fibers. Many. These wastes 4 mainly composed of garbage are incinerated or landfilled in the region or outside the region.

上記地域において発生した生ごみを主成分とする廃棄物4を回収し、図1、図2に示す生ごみ貯留施設5に貯留する。   Waste 4 mainly composed of garbage generated in the region is collected and stored in the garbage storage facility 5 shown in FIGS. 1 and 2.

上記生ごみを主成分とする廃棄物4を生ごみ貯留施設5から随時取り出して生ごみ分解処理施設6に投入し、該投入された生ごみを主成分とする廃棄物4を該生ごみ分解処理施設6内においてバクテリア(好気性バクテリア)による分解を促して顆粒状の有機肥料(バクテリア分解物)7を生成する。   The waste 4 mainly composed of the above garbage is taken out from the garbage storage facility 5 at any time and is put into the garbage decomposition treatment facility 6, and the waste 4 mainly composed of the input garbage is decomposed. In the treatment facility 6, decomposition by bacteria (aerobic bacteria) is promoted to generate granular organic fertilizer (bacteria degradation product) 7.

他方、生ごみ分解処理施設6において所定の処理時間内にバクテリアによる分解に至らなかった未分解物4′、即ちバクテリア分解が可能であるが分解しきれなかった生ごみ残渣と共に、バクテリア分解が困難なプラスチック類、紙、木竹、繊維等を生ごみ分解処理施設6から取り出し、これを燃焼施設(CO2発生装置)8に投入して燃焼し、CO2を発生せしめる。   On the other hand, in the garbage decomposition treatment facility 6, it is difficult to decompose the bacteria together with the undegraded product 4 'that has not been decomposed by bacteria within a predetermined processing time, that is, the garbage residue that can be decomposed but cannot be completely decomposed. Plastics, paper, wood and bamboo, fiber, etc. are taken out from the garbage decomposition treatment facility 6 and are put into a combustion facility (CO2 generator) 8 to be burned to generate CO2.

好ましくは、上記燃焼施設8においては未分解物4′を燃焼する手段としてガスや石油等の燃料、電力を用いずに、未分解物4′に直接点火し空気を送って燃焼を促す自己燃焼方式を採る。   Preferably, in the combustion facility 8, self-combustion that directly ignites the undecomposed matter 4 ′ and sends air without using fuel, such as gas or petroleum, and electric power as means for burning the undecomposed matter 4 ′ to promote combustion. Take the method.

但し、適当量の燃料を用いることを妨げない。適例として、図2に示す生ごみを発生源とするバイオガス(メタンガス)14を燃料として用いることができる。   However, it does not prevent the use of an appropriate amount of fuel. As a suitable example, biogas (methane gas) 14 using the garbage shown in FIG. 2 as a generation source can be used as a fuel.

燃焼施設8における燃焼残渣は極めて限定された量であり、生ごみを主成分とする廃棄物4の絶対量は大幅に減量され、略完全な処理を行うことができる。   The combustion residue in the combustion facility 8 is an extremely limited amount, and the absolute amount of the waste 4 mainly composed of garbage is greatly reduced, and almost complete treatment can be performed.

燃焼施設8と温室1間をパイプライン(送気路)9で結び、上記未分解物燃焼施設8における未分解物4′の燃焼によって得られたCO2をパイプライン9を通じて温室1内空間に供し、温室1内植物2の光合成を促す。   The combustion facility 8 and the greenhouse 1 are connected by a pipeline (air supply passage) 9, and CO 2 obtained by combustion of the undecomposed material 4 ′ in the undecomposed material combustion facility 8 is supplied to the space inside the greenhouse 1 through the pipeline 9. Promote photosynthesis of the plants 2 in the greenhouse 1.

上記パイプライン9にはCO2制御弁11を設け、各温室1内空間に供給するCO2の供給停止と同解除と供給量を制御する。   The pipeline 9 is provided with a CO2 control valve 11 to control the supply stop, release and supply of CO2 supplied to each greenhouse 1 space.

他方、上記バクテリア分解により生成された有機肥料7を温室1内土壌3に施肥する。生ごみ分解処理施設6と温室1間を搬送手段で結び、該搬送手段を介して有機肥料7を温室1内又は温室1に近接した場所に搬送し、随時施肥することができる。   On the other hand, the organic fertilizer 7 produced by the above bacterial decomposition is applied to the soil 3 in the greenhouse 1. The garbage decomposition treatment facility 6 and the greenhouse 1 can be connected by a transporting means, and the organic fertilizer 7 can be transported to the place inside the greenhouse 1 or in the vicinity of the greenhouse 1 via the transporting means, and fertilized at any time.

又上記生ごみ分解処理施設6におけるバクテリア分解によって発生するCO2を、上記燃焼施設8から得られたCO2と併せ、上記パイプライン9を通じ上記温室1内空間に供給し、両CO2を温室栽培植物2の光合成に資する。   Also, CO2 generated by bacterial decomposition in the garbage decomposition treatment facility 6 is supplied to the space in the greenhouse 1 through the pipeline 9 together with the CO2 obtained from the combustion facility 8, and both CO2 are supplied to the greenhouse-grown plant 2 Contribute to photosynthesis.

上記第一実施例において説明した構成は以下に述べる第二、第三実施例においても共通する。即ち、第二、第三実施例は上記第一実施例で説明した基本構成を内在する。   The configuration described in the first embodiment is common to the second and third embodiments described below. That is, the second and third embodiments have the basic configuration described in the first embodiment.

<第二実施例>
図2に示す第二実施例は上記第一実施例の構成を内在しつつ、これにバイオガス発生用の第二生ごみ分解処理施設13を併備して温室による植物栽培システムを構成した実施例を示している。第一実施例における6は第一生ごみ分解処理施設とする。
<Second Example>
The second embodiment shown in FIG. 2 includes the configuration of the first embodiment described above, and further includes a second garbage decomposition treatment facility 13 for generating biogas, which constitutes a plant cultivation system using a greenhouse. An example is shown. 6 in the first embodiment is the first garbage decomposition facility.

即ち、生ごみを主成分とする廃棄物4を酸素と光を遮断せずに好気性バクテリアによる分解を行い有機肥料7を生成する第一生ごみ分解処理施設6と、生ごみを主成分とする廃棄物4を酸素と光を遮断して嫌気性バクテリア(メタンバクテリア)による分解を行いバイオガス14を生成する第二生ごみ分解処理施設13とを併備し、該第二生ごみ分解処理施設13から得られたバイオガス14を燃焼施設8の前記未分解物4′の燃焼用燃料として供給する実施例を示している。   That is, the waste 4 mainly composed of garbage is decomposed by aerobic bacteria without blocking oxygen and light to produce organic fertilizer 7, and the first garbage decomposition treatment facility 6 that has organic garbage as the main component. The waste 4 to be produced is decomposed by anaerobic bacteria (methane bacteria) by blocking oxygen and light, and a second garbage decomposition treatment facility 13 for generating biogas 14 is also provided. An embodiment is shown in which biogas 14 obtained from a facility 13 is supplied as a combustion fuel for the undecomposed product 4 ′ of the combustion facility 8.

上記バイオガス発生用の生ごみ分解処理施設13においては、バイオガス14(7割程度のメタンガス)と、CO2と、消化液15が得られ、分解残渣としてバクテリア分解が可能であるが分解しきれなかった生ごみ残渣と共にバクテリア分解が困難なプラスチック類、紙、木竹、繊維等の未分解物4′が得られる。   In the above-described garbage decomposition treatment facility 13 for generating biogas, biogas 14 (approximately 70% methane gas), CO2, and digestive fluid 15 are obtained, and bacteria can be decomposed as decomposition residues, but they can be decomposed. Undegraded materials 4 'such as plastics, paper, wood bamboo, and fibers, which are difficult to decompose with bacteria, are obtained together with the residual garbage.

上記第二生ごみ分解処理施設13から得られた未分解物4′を燃焼施設8に供給し、上記第一生ごみ分解処理施設6から得られた未分解物4′と一緒に燃焼し、CO2を発生せしめる。   The undecomposed material 4 'obtained from the second garbage decomposition facility 13 is supplied to the combustion facility 8 and combusted together with the undecomposed material 4' obtained from the first garbage decomposition facility 6. Generate CO2.

他方、第二生ごみ分解処理施設13から得られた上記バイオガス14を、第二生ごみ分解処理施設13と燃焼施設8間を結ぶパイプライン(送気路)16を通じて燃焼施設8に供給し、燃料として用いる。   On the other hand, the biogas 14 obtained from the second garbage decomposition treatment facility 13 is supplied to the combustion facility 8 through a pipeline (air supply path) 16 connecting the second garbage decomposition treatment facility 13 and the combustion facility 8. Used as fuel.

更に上記第二生ごみ分解処理施設13において得られた消化液15(有機肥料)は第一生ごみ分解処理施設6で得られた有機肥料7と同様に、温室1内土壌3の施肥に供する。   Further, the digested liquid 15 (organic fertilizer) obtained in the second garbage decomposition treatment facility 13 is used for fertilizing the soil 3 in the greenhouse 1 in the same manner as the organic fertilizer 7 obtained in the first garbage decomposition treatment facility 6. .

<第三実施例>
図3に示す第三実施例は第一実施例の基本構成を内在しており、該第一実施例の基本構成に加え、燃焼施設8から発生する高温気体20を温室1に必要なエネルギーに変換する設備を付加している。
<Third embodiment>
The third embodiment shown in FIG. 3 has the basic configuration of the first embodiment. In addition to the basic configuration of the first embodiment, the hot gas 20 generated from the combustion facility 8 is converted into energy required for the greenhouse 1. The equipment to convert is added.

上記未分解物4′の燃焼施設8では大量のCO2を含む高温気体が発生する。この高温気体20を熱交換施設17に供給し、該熱交換施設17において熱交換した温水又は加熱気体又は蒸気等の加温媒体18を温室1内の暖房パイプ19に供するか、温室1内空間に吐出して暖気環境を作る。   A high temperature gas containing a large amount of CO2 is generated in the combustion facility 8 for the undecomposed matter 4 '. The high temperature gas 20 is supplied to the heat exchange facility 17, and the warming medium 18 such as warm water, heated gas or steam exchanged in the heat exchange facility 17 is supplied to the heating pipe 19 in the greenhouse 1, or the space in the greenhouse 1 Discharge to create a warm air environment.

熱交換施設17で熱交換を行った高温気体20は図3中矢印で示すように、熱交換施設17から燃焼施設8へ環流する。   The hot gas 20 having undergone heat exchange in the heat exchange facility 17 circulates from the heat exchange facility 17 to the combustion facility 8 as indicated by arrows in FIG.

又は上記燃焼施設8から得られる高温気体20を熱交換施設17において電力に変換し、温室1内の光源の電力として使用することができる。   Alternatively, the hot gas 20 obtained from the combustion facility 8 can be converted into electric power in the heat exchange facility 17 and used as electric power for a light source in the greenhouse 1.

又燃焼施設8から得られる高温気体でヒートポンプ等を作動し、得られた加熱気体又は温水又は冷気等の加温又は冷却媒体18を温室1に供する。   Further, a heat pump or the like is operated with the high-temperature gas obtained from the combustion facility 8, and the obtained heating gas or warming or cooling medium 18 such as hot water or cold air is supplied to the greenhouse 1.

上記熱交換施設17、発電機、ヒートポンプ等は温室1における太陽光による暖房が期待できない夜間の暖房手段、光供給手段、或いは夏場における冷気供給手段として有効である。   The heat exchange facility 17, the generator, the heat pump, and the like are effective as nighttime heating means, light supply means, or cool air supply means in summer when heating by sunlight in the greenhouse 1 cannot be expected.

上記第三実施例は生ごみ分解処理施設6を設けた第一実施例をベースとして記載したが、生ごみ分解処理施設6,13を設けた第二実施例に上記第三実施例を実施できること、又第三実施例で述べた熱交換施設17に関連する構成を第一、第二実施例において実施できることは勿論である。   Although the said 3rd Example described as a base the 1st Example which provided the garbage decomposition processing facility 6, The said 3rd Example can be implemented in the 2nd Example which provided the garbage decomposition processing facilities 6 and 13 Of course, the configuration related to the heat exchange facility 17 described in the third embodiment can be implemented in the first and second embodiments.

本発明は、第一、第二、第三実施例において生ごみ分解処理施設6,13から得られた分解物(有機肥料7)と未分解物4′、燃焼施設8と生ごみ分解処理施設6,13から得られたCO2等は夫々一旦貯留施設に貯留してから供給することができ、又上記システムは生ごみ分解処理施設6,13、燃焼施設8、熱交換施設17等は何れも既知の装置を使用して構築可能である。   The present invention relates to the decomposition products (organic fertilizer 7) and undecomposed products 4 'obtained from the garbage decomposition treatment facilities 6 and 13 in the first, second and third embodiments, the combustion facility 8 and the garbage decomposition treatment facility. 6 and 13 can be supplied after being stored in a storage facility, and the above system can be used for the garbage decomposition treatment facilities 6 and 13, the combustion facility 8, the heat exchange facility 17, etc. It can be constructed using known equipment.

又図示しないが、既知のCO2精製装置、バイオガスの精製装置、有機肥料の精製装置、乾燥装置、選別装置等の各種装置を組み込んでシステムを構築できる。   Although not shown, a system can be constructed by incorporating various devices such as a known CO2 purification device, a biogas purification device, an organic fertilizer purification device, a drying device, and a sorting device.

1…温室、2…植物、3…土壌、4…廃棄物、4′…未分解物、5…生ごみ貯留施設、6…生ごみ分解処理施設(第一生ごみ分解処理施設)、7…有機肥料、8…燃焼施設、9…パイプライン、11…CO2制御弁、13…第二生ごみ分解処理施設、14…バイオガス、15…消化液、16…パイプライン、17…熱交換施設、18…加温媒体又は冷却媒体、19…暖房パイプ、20…高温気体。   DESCRIPTION OF SYMBOLS 1 ... Greenhouse, 2 ... Plant, 3 ... Soil, 4 ... Waste, 4 '... Undecomposed thing, 5 ... Garbage storage facility, 6 ... Garbage decomposition processing facility (1st garbage decomposition processing facility), 7 ... Organic fertilizer, 8 ... Combustion facility, 9 ... Pipeline, 11 ... CO2 control valve, 13 ... Second garbage decomposition treatment facility, 14 ... Biogas, 15 ... Digestive fluid, 16 ... Pipeline, 17 ... Heat exchange facility, 18 ... heating medium or cooling medium, 19 ... heating pipe, 20 ... hot gas.

Claims (3)

生ごみを主成分とする廃棄物をバクテリアにより分解して有機肥料を生成し、上記バクテリアによる分解に至らない未分解物を燃焼してCO2を発生し、該未分解物の燃焼により得られたCO2を温室内空間に供し温室内植物の光合成を促し、上記バクテリア分解により生成された有機肥料を温室内土壌に施肥する構成を有することを特徴とする温室による植物栽培システム。 Waste produced mainly from garbage is decomposed by bacteria to produce organic fertilizer, and the above-mentioned undegraded products that do not decompose by bacteria are burned to generate CO2, and obtained by burning the undegraded products A plant cultivation system using a greenhouse characterized in that it has a configuration in which CO2 is supplied to a space in a greenhouse to promote photosynthesis of plants in the greenhouse and the organic fertilizer generated by the above-described bacterial decomposition is applied to soil in the greenhouse. 植物を栽培する温室を備え、生ごみを主成分とする廃棄物をバクテリアで分解して有機肥料を生成する生ごみ分解処理施設を備え、該生ごみ分解処理施設からバクテリア分解に至らない未分解物を回収して燃焼しCO2を発生する燃焼施設を備え、該燃焼施設で得られたCO2を温室内空間に供し温室内植物の光合成を促し、上記生ごみ分解処理施設で得られた有機肥料を上記温室内土壌に施肥することを特徴とする温室による植物栽培システム。 Equipped with a greenhouse for cultivating plants, a waste decomposition treatment facility that generates organic fertilizer by decomposing waste mainly composed of garbage with bacteria, and from the garbage decomposition treatment facility, undegraded Organic fertilizer obtained from the above-mentioned garbage decomposition treatment facility provided with a combustion facility that collects and burns materials to generate CO2, promotes photosynthesis of plants in the greenhouse by using the CO2 obtained in the combustion facility in the greenhouse space A plant cultivation system using a greenhouse characterized by fertilizing the soil in the greenhouse. 上記バクテリア分解過程で発生するCO2と上記未分解物の燃焼により得られたCO2とを温室内空間に供給することを特徴とする請求項1又は2記載の温室による植物栽培システム。 The plant cultivation system by a greenhouse according to claim 1 or 2, wherein CO2 generated in the bacterial decomposition process and CO2 obtained by combustion of the undegraded product are supplied to a greenhouse space.
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