TW200538419A - Process and apparatus for compost production - Google Patents
Process and apparatus for compost production Download PDFInfo
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- TW200538419A TW200538419A TW94108655A TW94108655A TW200538419A TW 200538419 A TW200538419 A TW 200538419A TW 94108655 A TW94108655 A TW 94108655A TW 94108655 A TW94108655 A TW 94108655A TW 200538419 A TW200538419 A TW 200538419A
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- C—CHEMISTRY; METALLURGY
- C05—FERTILISERS; MANUFACTURE THEREOF
- C05F—ORGANIC FERTILISERS NOT COVERED BY SUBCLASSES C05B, C05C, e.g. FERTILISERS FROM WASTE OR REFUSE
- C05F17/00—Preparation of fertilisers characterised by biological or biochemical treatment steps, e.g. composting or fermentation
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- C—CHEMISTRY; METALLURGY
- C05—FERTILISERS; MANUFACTURE THEREOF
- C05F—ORGANIC FERTILISERS NOT COVERED BY SUBCLASSES C05B, C05C, e.g. FERTILISERS FROM WASTE OR REFUSE
- C05F3/00—Fertilisers from human or animal excrements, e.g. manure
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- C—CHEMISTRY; METALLURGY
- C02—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
- C02F—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
- C02F11/00—Treatment of sludge; Devices therefor
- C02F11/02—Biological treatment
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- Y—GENERAL 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
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02A—TECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
- Y02A40/00—Adaptation technologies in agriculture, forestry, livestock or agroalimentary production
- Y02A40/10—Adaptation technologies in agriculture, forestry, livestock or agroalimentary production in agriculture
- Y02A40/20—Fertilizers of biological origin, e.g. guano or fertilizers made from animal corpses
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- Y—GENERAL 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
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02P—CLIMATE CHANGE MITIGATION TECHNOLOGIES IN THE PRODUCTION OR PROCESSING OF GOODS
- Y02P20/00—Technologies relating to chemical industry
- Y02P20/141—Feedstock
- Y02P20/145—Feedstock the feedstock being materials of biological origin
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- Y—GENERAL 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
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02W—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO WASTEWATER TREATMENT OR WASTE MANAGEMENT
- Y02W30/00—Technologies for solid waste management
- Y02W30/40—Bio-organic fraction processing; Production of fertilisers from the organic fraction of waste or refuse
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Abstract
Description
200538419 (1) 九、發明說明 【發明所屬之技術領域】 本發明係有關堆肥、堆肥的製造方法及裝置。更詳,細 地來說’其爲有關處理由家畜糞尿與人糞尿等高含水率$ 有機廢棄物而得的堆肥,及高含水率之有機廢棄物以製作 堆肥時,就算處於處理量多的實用階段,亦可確實地令_ 發酵而製作成堆肥之堆肥的製造方法及裝置。 【先前技術】 眾所皆知’矽(S i )係集積於多數植物的細胞壁,對 植物而言是很重要的元素之一。 在本發明人所居住的日本沖繩縣,甘蔗的收穫量正逐 年減少中。這當然是因爲土壤被化學肥料與除草劑等給污 染的影響,而其原因應該是由於大量的矽與其他微量元素 一起流出了土壤,或是被作物給帶出,導致土壤中的砂不 Φ 足,使得全面的土壤肥力變差。 事實上,以甘蔗的果滓當燃料使用之鍋爐等設施中, 於燃燒爐內則附著了大量的矽,甚至必須進行除去作業。 由此可以很容易地想像到,作物所造成的土壤中之矽的帶 出,其量是不容忽視的。就算在這種土壤肥力變差的土壤 上栽培作物,莖也無法變粗,果葉亦無法變大,自然就無 法得到充分的收穫。 但是,就算說矽在土壤中的量不足,僅將無機物之矽 ,例如將矽藻土以粉體的狀態單純地混入於土壤中,作物 200538419 (2) 亦無法充分地吸收。要讓作物吸收矽,就必須讓經過離子 化的矽存在於土壤中。 本發明人爲了實現這點,而重複長年硏究。接著,根 據實驗了解到,將矽混入有機物,更進一步地藉由使其與 濃硫酸起反應而促進矽的離子化,將其堆肥化而施肥後, 就有恢復土壤肥力的效果。 但是,在沖繩縣,豬的飼育隻數很多,豬糞尿的處理 # 也成爲重大的社會問題。豬糞尿爲有機物廢棄物,本發明 人係以作爲堆肥的原料,而注意到此豬糞尿。 又,爲了處理糞尿等有機廢棄物,雖然至今曾提議並 實施過種種非常多的方法,不過使用含矽之矽灰石而獲得 有機質肥料的方法,則已被人建議過(參照專利文獻1 ) 〇 專利文獻1 :日本特開平1 0- 1 523 8 5號公報 記載於專利文獻1的有機質肥料之製造方法,係藉由 ® 將高含水率的牲畜糞尿之有機廢棄物,與天然矽灰石與濃 硫酸起反應,於極短時間內固化或粒化,進以改善有機廢 棄物的臭氣,並因爲反應熱的關係使得大部分的雜菌都滅 絕’在之後加入有效微生物而進行肥料化(堆肥化)亦可 變得更容易。 【發明內容】 〔發明所欲解決之課題〕 本發明人係確認過可否,使用豬糞尿或人糞尿而以上 200538419 (3) 述之專利文獻1記載之有機質肥料的製造方法來製作堆肥 。但隨後卻了解到,在大量地處理糞尿的實用階段中,就 算於成爲培養基的混合物中添加有效微生物,但經過四個 月亦不會發酵,無法製作堆肥的事實。 因此,本發明人係嘗試過,爲了在實用階段中,使上 述經過固化或粒化的混合物發酵的各種實驗。又,在此實 驗中,於混合物內試驗性地加入菜種之油滓時,則於添加 # 有效微生物的隔天後開始發酵。雖然並不明白其理由,但 應該是包含於菜種之油滓的油份或其他某種成分,有效地 參予著或有助於有效微生物的發酵活動。 本發明人則著眼於此結果,更重複針對認爲相對於家 畜之糞尿或人糞尿等,高含水率之有機廢棄物的處理規模 ,將很難獲得充分數量之菜種油滓的代用品的硏究,而完 成了本發明。 •(本發明之目的) 本發明的目的係提供,於處理家畜之糞尿或人糞尿等 ,高含水率之有機廢棄物而得的堆肥,及高含水率之有機 廢棄物,而製作堆肥時,就算在處理量多的實用階段之下 ,亦可確實地令其發酵而製作堆肥之堆肥的製造方法及裝 置。 〔用以解決課題之手段〕 爲了解決上述課題所想出的本發明之手段則如下所述 -6 - 200538419 (4) 關於第1發明,則爲一種堆肥,係爲將高含水率之有 機廢棄物發酵而得的堆肥,其特徵爲,將濃硫酸混合至混 合了矽灰石與高含水率之有機廢棄物之物中而得的固化或 粒化物,與用加熱油將有機廢棄物加以油浸處理而降低含 水率的有機廢棄物混合,將該混合物當作培養基而加入有 效微生物來發酵。 Φ 關於第2發明,則爲一種堆肥的製造方法,係針對從 高含水率之有機廢棄物來製造堆肥的方法,其特徵爲,將 矽灰石混合至高含水率的有機廢棄物,接著,再於混合濃 硫酸使其產生反應而固化或粒化的物體中,混合用加熱油 將有機廢棄物加以油浸處理而使含水率下降的有機廢棄物 ,將該混合物當作培養基而加入有效微生物來發酵。 關於第3發明,則爲一種堆肥的製造方法,係針對從 高含水率之有機廢棄物來製造堆肥的方法,其特徵爲,對 # 高含水率之有機廢棄物100重量分,混合矽灰石10至25 重量分,接著,對混合了濃硫酸5至1 5重量分使其產生 反應而固化或粒化的混合物,以1 5至2 5重量百分比來混 合’用加熱油將有機廢棄物加以油浸處理而降低含水率的 有機廢棄物,將該混合物當作培養基而加入有效微生物來 發酵。 關於第4發明,則爲關於第2與第3發明之堆肥的製 造方法,其特徵爲,添加鋅(Zn )、錳(Μη )、鉬(Mo )、鎂(Mg)、銅(Cu)、鐵(Fe)之中所選出的1個 200538419 (5) 或2個以上的元素。 關於第5發明,則爲一種堆肥製造裝置,其特徵爲: 具備有機廢棄物供給裝置、及矽灰石供給裝置、及混合攪 拌供給的有機廢棄物之有機廢棄物攪拌裝置、及將在有機 廢棄物攪拌裝置中混合攪拌過的混合物,與供給的濃硫酸 加以混合攪拌令其發生反應的反應裝置、及供給用加熱油 來油浸處理有機廢棄物,而使含水率下降之有機廢棄物的 • 加熱油浸處理物供給裝置、及對由反應裝置所得到之物與 由加熱油浸處理物供給裝置所供給之物的混合物添加有效 微生物,來使其發酵的發酵裝置。 關於第6發明,則爲關於第5發明之堆肥製造裝置, 其特徵爲,反應裝置係具備,將混合了混合攪拌過的混合 物與濃硫酸之物予以一邊攪拌一邊輸送的螺旋輸送機,混 合濃硫酸的部份則設置於,螺旋輸送機之輸送基部側或通 往輸送基部側之混合物的輸送路徑。 Φ 關於第7發明,則爲關於第5與第6發明之堆肥製造 裝置,其特徵爲,矽灰石供給裝置係具有,與至少設有複 數之有機廢棄物攪拌裝置連通,在選擇性地將矽灰石供給 至各有機廢棄物攪拌裝置的同時,不會讓有機廢棄物攪拌 裝置內之臭氣,由供給部份漏至外部的分配裝置。 成爲處理對象之高含水率的有機廢棄物係指,例如污 水淤泥、剩餘淤泥、燒酒廢液、糞尿(豬糞尿、牛糞尿等 家畜之糞尿與人糞尿)、甘蔗的果滓等。又,有機廢棄物 並不僅侷限於此。 -8 - 200538419 (6) 所使用的矽灰石(Wollastonite :矽酸鈣:CaSi03 ) ,係可爲天然或合成的。 針對有機廢棄物1 00重量分,矽灰石之理想混合比例 是1 0至2 5重量分。更理想的選擇是,1 5至1 8重量分。 又,同樣的,濃硫酸的理想混合比率是5至1 5重量分。 更理想想的選擇是,8至1 0重量分。 若矽灰石不滿1 0重量分或濃硫酸不滿5重量分,則 # 固化或粒化將無法充分地進行,產生反應溫度亦變低並殘 留下雜菌的傾向。 又,若矽灰石超過25重量分或濃硫酸超過15重量分 ,則固化或粒化與反應溫度即幾乎不會有差異,因此,這 僅會浪費矽灰石與濃硫酸的過剩部分。又,若矽灰石超過 2 5重量分,就會變得過硬,產生處理變難的傾向。 又,以加熱油來油浸處理混合於上述混合物之有機廢 棄物,而使含水率下降的理想比例係1 5至2 5重量百分比 •。若比例不滿1 5重量百分比,則會有就算添加有效微生 物,發酵也不會充分進行的傾向,又,就算超過2 5重量 百分比,發酵速度或效率則幾乎不會有差異,因此將發生 浪費過剩份量的傾向。 作爲使混合物發酵的有效微生物(發酵菌)係列舉出 了,好氧性與厭氧性的微生物,例如乳酸菌屬(雙叉乳酸 桿囷等)、酵母菌屬(麹菌等)、光合成細菌屬(綠藻菌 等)、發酵類的絲狀菌屬、革蘭氏陽性的放線菌屬等,但 其並不僅侷限於此。 200538419 (7) 以加熱油來油浸處理有機廢棄物而降低含水率之物, 係隨著包含於有機廢棄物中的水分蒸發後,將受到減容化 ,一般來說都是利用離心力或壓縮力,來將油瀝掉以降低 油之含有率再來使用。 爲了不讓連作障害等堆肥給土壤帶來不良影響’以加 熱油進行油浸處理而被降低含水率之物之油的含有率最好 在5 %以下。油的含有率並不僅限定於此。 以被用加熱油進行油浸處理的有機廢棄物而言,則使 用例如污水淤泥、剩餘污泥、廚餘(生鮮垃圾)、豆腐殼 、食品殘滓物、燒酒廢液、家畜或人的糞尿、甘蔗的果滓 等。有機廢棄物並不僅限定於此。 加熱油浸處理則使用一般的油。至於被使用的油,若 考慮到油含於堆肥內而被使用的問題,則由環境保全之觀 點來看,最理想的選擇是安全且不易產生問題的植物油( 油菜籽油等)或動物油(豬油等)。 加熱油浸處理物供給裝置則可爲,僅提供以加熱油進 行油浸處理廚餘或剩餘污泥等有機廢棄物來降低含水率之 物的裝置,亦可爲以加熱油來油浸處理有機廢棄物與附帶 貯存槽的裝置。 以加熱油進行油浸處理的裝置則可爲,在常壓下處理 有機廢棄物的裝置,亦可爲在比常壓更高的高壓下並以高 於常壓時的高溫來進行處理的裝置。又,亦可爲比常壓更 低的低壓下並以低於常壓時的低溫來進行處理的裝置。 -10- 200538419 (8) (作用) 本發明係如下所述在作用。 將以加熱油來油浸處理糞尿等高含水率之有機廢棄物 ’及廚餘等有機廢棄物而降低含水率之物,分別適量貯存 於槽等貯存部。又,亦將矽灰石與濃硫酸適量貯存於槽等 貯存部。然後,例如將由鋅(Zn )、錳(Μη )、鉬(Mo )、鎂(Mg )、銅(Cu )、鐵(Fe )之中所選出的1個 Φ 或2個以上元素,事先添加至矽灰石中。 將高含水率的有機廢棄物投入或輸送至有機廢棄物攪 拌裝置。當適量貯存於有機廢棄物攪拌裝置時,則依所需 之比例來混合,進行混合攪拌。 將濃硫酸混合至以有機廢棄物攪拌裝置混合攪拌的混 合物中,並於反應裝置內攪拌使其產生反應。 藉由此反應(矽灰石與濃硫酸的反應),混合物將於 短時間固化或粒化,並一倂改善糞尿等有機廢棄物特有的 • 臭氣。又,因爲反應熱產生,混合物的溫度雖然隨著條件 不同會有所差異,例如變爲7 5至8 5 t,藉此,存在於混 合物內之包含病原菌等有害菌的雜菌亦幾乎都會滅絕。 接著,當自有機廢棄物製作出之經過固化或粒化的混 合物,冷卻至適當的溫度(例如有效微生物可繁殖的溫度 )時,由加熱油浸處理物供給機來供給,以加熱油來油浸 處理有機廢棄物使其含水率下降之物,再混合這些東西, 並添加有效微生物且藉由發酵裝置來使其發酵所需的時間 ,以此加以堆肥化。又,亦可混合過經固化或粒化的混合 -11 - 200538419200538419 (1) IX. Description of the invention [Technical field to which the invention belongs] The present invention relates to a method and a device for manufacturing compost and compost. In more detail, it's related to the treatment of compost obtained from high-water content organic waste such as livestock manure and human waste, and organic waste with high water content to make compost. In the practical stage, the manufacturing method and device for compost compost can also be reliably made. [Prior art] It is well-known that silicon (Si) is accumulated in the cell walls of most plants, and is one of the most important elements for plants. In Okinawa, Japan, where the inventors live, the amount of sugarcane harvested is decreasing year by year. This is of course because the soil is affected by chemical fertilizers and herbicides, and the reason should be that a large amount of silicon flows out of the soil together with other trace elements, or is brought out by the crop, causing the sand in the soil to be not Φ Sufficient to make the overall soil fertility worse. In fact, in facilities such as boilers using sugarcane pomace as fuel, a large amount of silicon is attached to the combustion furnace, and even removal operations must be performed. From this, it can be easily imagined that the amount of silicon in the soil caused by crops cannot be ignored. Even if the crops are grown on soils with poor soil fertility, the stems cannot be thickened, and the fruit leaves cannot be enlarged. Naturally, they cannot be fully harvested. However, even if the amount of silicon in the soil is insufficient, only the inorganic silicon such as diatomite is simply mixed into the soil in a powder state, and the crop 200538419 (2) cannot be fully absorbed. For crops to absorb silicon, ionized silicon must be present in the soil. In order to achieve this, the present inventors have repeatedly studied for many years. Next, it was learned from experiments that mixing silicon into organic matter, and further reacting it with concentrated sulfuric acid, promoted the ionization of silicon, composted it, and fertilized it, which had the effect of restoring soil fertility. However, in Okinawa Prefecture, there are many pigs reared, and the disposal of pig manure # has also become a major social problem. Swine manure is an organic waste. The inventors of the present invention used it as a raw material for composting, and noticed this swine manure. In addition, many methods have been proposed and implemented to treat organic waste such as feces, but methods of obtaining organic fertilizers using silica-containing wollastonite have been proposed (see Patent Document 1) 〇 Patent Document 1: Japanese Patent Application Laid-Open No. 1 0- 1 523 8 5 describes a method for producing an organic fertilizer described in Patent Document 1 by using organic waste of livestock manure and urine with high moisture content and natural wollastonite. Reacts with concentrated sulfuric acid, solidifies or granulates in a very short time to improve the odor of organic waste, and because of the heat of reaction, most of the miscellaneous bacteria are extinct. (Composting) can also be made easier. [Summary of the Invention] [Problems to be Solved by the Invention] The present inventors have confirmed whether it is possible to make compost by using a method for producing organic fertilizer described in Patent Document 1 described in 200538419 (3) described above. But then I learned that in the practical stage of large-scale processing of feces and urine, even if effective microorganisms are added to the mixture that becomes the culture medium, it will not ferment after four months, making it impossible to make compost. Therefore, the present inventors have tried various experiments for fermenting the above-mentioned solidified or granulated mixture in a practical stage. Also, in this experiment, when experimentally adding vegetable seed oil to the mixture, fermentation started the next day after adding # effective microorganisms. Although the reason is not clear, it should be the oil or some other ingredient contained in the vegetable oil, which effectively participates in or contributes to the fermentation of effective microorganisms. The present inventors focused on this result, and repeated the research on the treatment scale of organic waste with high water content, which is considered to be relatively high compared with livestock manure or human feces. And completed the present invention. • (Object of the present invention) The object of the present invention is to provide compost obtained from the treatment of organic waste of livestock and human waste, high-water-content organic waste, and high-water-content organic waste. Even in a practical stage with a large amount of processing capacity, the method and device for manufacturing compost can be reliably fermented to produce compost. [Means to Solve the Problem] The means of the present invention conceived to solve the above-mentioned problems are as follows-200538419 (4) The first invention is a compost, which is to discard organic materials with high water content The compost obtained by fermentation is characterized by solidified or granulated matter obtained by mixing concentrated sulfuric acid with a mixture of wollastonite and organic waste with a high water content, and adding organic waste with heating oil. The organic waste with a reduced moisture content is immersed and mixed, and the mixture is used as a culture medium to add effective microorganisms for fermentation. Φ The second invention is a method for producing compost, which is a method for producing compost from organic waste with a high water content. It is characterized in that wollastonite is mixed with organic waste with a high water content. In an object solidified or granulated by mixing concentrated sulfuric acid to cause a reaction, the organic waste is mixed with heating oil to immerse the organic waste to reduce the water content, and the mixture is used as a medium to add effective microorganisms. Fermentation. The third invention is a method for producing compost, which is a method for producing compost from organic waste with high moisture content. It is characterized in that 100% by weight of organic waste with high moisture content is mixed with wollastonite. 10 to 25 parts by weight, and then mixed with 5 to 15 parts by weight of concentrated sulfuric acid to cause reaction or solidification or granulation, to mix 15 to 25 parts by weight 'organic waste with heating oil The organic waste with an oil immersion treatment to reduce the water content is used as a culture medium to add effective microorganisms for fermentation. The fourth invention is a method for manufacturing a compost according to the second and third inventions, which is characterized by adding zinc (Zn), manganese (Mn), molybdenum (Mo), magnesium (Mg), copper (Cu), One 200538419 (5) or more selected from iron (Fe). The fifth invention is a compost manufacturing device, which includes an organic waste supply device, a wollastonite supply device, and an organic waste mixing device that mixes and supplies organic waste and which is to be disposed of in organic waste. In the material mixing device, the mixed mixture is mixed with the supplied concentrated sulfuric acid, and the reaction device is caused to react by mixing and stirring, and the heating waste is used to oil-immerse the organic waste, thereby reducing the organic waste content. A heating oil immersion treatment material supply device, and a fermentation device that adds effective microorganisms to a mixture of the material obtained from the reaction device and the material supply from the heating oil immersion treatment material supply device to ferment the mixture. The sixth invention relates to the compost manufacturing device according to the fifth invention, characterized in that the reaction device is provided with a screw conveyor that conveys the mixed and stirred mixture and the concentrated sulfuric acid while stirring, and mixes the concentrated The sulfuric acid part is provided on the conveying base side of the screw conveyor or the conveying path of the mixture to the conveying base side. Φ The seventh invention relates to the compost manufacturing device according to the fifth and sixth inventions, which is characterized in that the wollastonite supply device has a communication device with at least a plurality of organic waste stirring devices, and selectively Wollastonite is supplied to each organic waste stirring device, and the odor in the organic waste stirring device will not be leaked from the supply part to the external distribution device. The organic wastes with high water content to be treated are, for example, sewage sludge, excess sludge, shochu waste liquid, fecal urine (pig feces urine, cattle feces urine, human feces urine, human feces urine), sugarcane pupae, and the like. Moreover, organic waste is not limited to this. -8-200538419 (6) Wollastonite (calcium silicate: CaSi03) used can be natural or synthetic. For 100 weight points of organic waste, the ideal mixing ratio of wollastonite is 10 to 25 weight points. A more ideal choice is 15 to 18 weight points. Also, similarly, the ideal mixing ratio of concentrated sulfuric acid is 5 to 15 parts by weight. A more ideal choice is 8 to 10 weight points. If the wollastonite is less than 10 parts by weight or the concentrated sulfuric acid is less than 5 parts by weight, # solidification or granulation will not proceed sufficiently, and the reaction temperature will also be lowered and there will be a tendency to leave germs. In addition, if wollastonite exceeds 25% by weight or concentrated sulfuric acid exceeds 15% by weight, there is almost no difference in curing or granulation and reaction temperature. Therefore, this only wastes excess portions of wollastonite and concentrated sulfuric acid. Moreover, if wollastonite exceeds 25 weight%, it will become too hard, and it will become difficult to handle it. In addition, the ideal ratio of reducing the water content of the organic waste mixed with the above mixture by oil immersion treatment with heating oil is 15 to 25 weight percent. If the proportion is less than 15 weight percent, there is a tendency that fermentation will not proceed sufficiently even if effective microorganisms are added, and even if it exceeds 25 weight percent, there will be almost no difference in fermentation speed or efficiency, so excess waste will occur. Weight tendency. Examples of a series of effective microorganisms (fermentative bacteria) for fermenting the mixture include aerobic and anaerobic microorganisms, such as Lactobacillus (double fork lactobacillus, etc.), Saccharomyces (bacillus, etc.), and photosynthetic bacteria ( Chlorella, etc.), fermented filamentous bacteria, Gram-positive actinomycetes, etc., but it is not limited to this. 200538419 (7) Oil-immersion treatment of organic waste with heating oil to reduce the moisture content, as the water contained in the organic waste evaporates, it will be reduced in volume. Generally, centrifugal force or compression is used. Force to drain the oil to reduce the oil content and use it again. In order to prevent the compost from continuous cropping and other adverse effects on the soil ', the content of oil with reduced water content should be less than 5%. The content of oil is not limited to this. For organic wastes that have been oil-immersed with heating oil, for example, sewage sludge, excess sludge, kitchen waste (raw waste), tofu shells, food residues, shochu liquor, livestock or human waste , Sugarcane pupae and so on. Organic waste is not limited to this. Heating oil immersion treatment uses ordinary oil. As for the used oil, considering the problem that the oil is used in compost, from the viewpoint of environmental preservation, the ideal choice is vegetable oil (rapeseed oil, etc.) or animal oil ( Lard, etc.). The heating oil immersion treatment material supply device may be a device that only provides heating oil for oil immersion treatment of organic waste such as kitchen waste or excess sludge to reduce water content, or heating oil for oil immersion treatment of organic materials. Waste and devices with storage tanks. The device for oil immersion treatment with heating oil may be a device for processing organic waste under normal pressure, or a device for processing at a higher pressure than normal pressure and at a higher temperature than normal pressure. . It may also be an apparatus that performs processing at a lower pressure than normal pressure and at a lower temperature than that at normal pressure. -10- 200538419 (8) (Action) The present invention works as described below. Heat-oil is used for oil immersion treatment of organic wastes with high moisture content such as faeces and urine, and organic wastes such as kitchen waste to reduce the moisture content, and are appropriately stored in storage units such as tanks. In addition, appropriate amounts of wollastonite and concentrated sulfuric acid were also stored in storage units such as tanks. Then, for example, one or more elements selected from zinc (Zn), manganese (Mn), molybdenum (Mo), magnesium (Mg), copper (Cu), and iron (Fe) are added in advance to Wollastonite. The organic waste with high moisture content is put into or transported to the organic waste mixing device. When an appropriate amount is stored in the organic waste stirring device, it is mixed in the required ratio and mixed and stirred. Concentrated sulfuric acid is mixed into the mixture mixed and stirred with an organic waste stirring device, and stirred in a reaction device to cause a reaction. By this reaction (reaction of wollastonite and concentrated sulfuric acid), the mixture will be solidified or granulated in a short time, and the odor that is unique to organic waste such as feces and urine will be improved. In addition, because the reaction heat is generated, although the temperature of the mixture may vary with different conditions, for example, it becomes 7 5 to 8 5 t, by which, the miscellaneous bacteria containing harmful bacteria such as pathogenic bacteria in the mixture are almost extinct. . Next, when the solidified or granulated mixture made from the organic waste is cooled to an appropriate temperature (for example, the temperature at which effective microorganisms can multiply), it is supplied by a heating oil immersion treatment material supply machine to heat the oil to oil The organic waste is dipped to reduce its moisture content, and then these are mixed, and effective microorganisms are added and the time required for fermentation by a fermentation device is composted. Also, it can be mixed with solidified or granulated mixture -11-200538419
物與加熱油浸處理物後再加以冷卻’再添加有效微生物。 關於成爲添加有效微生物之培養基的混合物,則由於 自有機廢棄物製造出之固化或粒化的混合物曾一度加至高 溫,故包含病原菌等有害菌的雜菌則幾乎都不存在。因此 ,添加過的有效微生物即可充分地活性化,很有效率地製 作出良質的堆肥。 又,關於將混合過之物輸送至發酵裝置,則以使用螺 • 旋輸送機或帶式運送機等各種運送機,並使用橋式吊車來 搬運運送用容器等容器等來進行。 只要利用具備將攪拌過的混合物與混合過濃硫酸之物 予以一邊攪拌一邊輸送之螺旋輸送機,具有混合濃硫酸的 部份係被設置於螺旋輸送機之輸送基部側,或通至輸送基 部側之混合物輸送路徑上之反應裝置的堆肥製造裝置,就 幾乎不需要爲了混合濃硫酸的注入壓等壓力,因此即可簡 化裝置。 # 亦即,螺旋輸送機的輸送基部側或通至輸送基部側的 混合物之輸送路徑,係藉由以螺旋的旋轉來將混合物連續 地移往輸送後部側(排出側),而成爲負壓的部份。因此 ,濃硫酸可彷彿被吸入般的有效地進行混合。 又,由於濃硫酸在螺旋輸送機(輸送前部)中即被予 以混合,故直到混合物被送到輸送後部(出口側)時,其 已受到充分地攪拌,矽灰石與濃硫酸相對而言雖會較早顯 示出反應來,但整體來說,幾乎可實現均等的固化與粒化 。藉此,即可實現有效的堆肥製造。 -12- 200538419 (10) 只要利用至少設置了複數的有機廢棄物攪拌裝置,且 具有可選擇性地將矽灰石供給至各有機廢棄物攪拌裝置, 並可不讓自供給部份傳來之有機廢棄物攪拌裝置之臭氣洩 漏到外面之分配裝置的堆肥製造裝置,即可例如於一方之 有機廢棄物攪拌裝置進行攪拌處理等之時,將有機廢棄物 與矽灰石輸送至另一方的有機廢棄物攪拌裝置而進行下個 作業的準備。藉此,即可實現有效的堆肥製造。 φ 又,有機廢棄物的臭氣在實質上並不會洩漏到外面去 ,因此亦可防止惡臭造成作業環境惡化,或帶給周圍地區 困擾。 〔發明之效果〕 本發明係具備上述構成,並具有下述的效果。 (a )只要利用本發明,依需要的比例將以加熱油來 油浸處理有機廢棄物而降低含水率之物,混合至利用矽灰 # 石與濃硫酸之反應來固化或粒化處理過,家畜之糞尿或人 糞尿等高含水率之有機廢棄物的混合物,並藉由添加有效 微生物,使得就算在處理量多的實用階段下,亦可在良好 的狀態下令其發酵而得到堆肥。 (b )只要利用具備將攪拌過的混合物與混合過濃硫 酸之物予以一邊攪拌一邊輸送之螺旋輸送機,具有混合濃 硫酸的部份係被設置於螺旋輸送機之輸送基部側,或通至 輸送基部側之混合物輸送路徑之反應裝置的堆肥製造裝置 ’直到混合物被送到輸送後部(出口側)時,其已受到充 -13- 200538419 (11) 分地攪拌,矽灰石與濃硫酸相對而言雖會較早顯示出反應 來,但整體來說,幾乎可實現均等的固化與粒化。藉此’ 即可實現有效的堆肥製造。又,幾乎不需要爲了混合濃硫 酸的注入壓等壓力,因此即可簡化裝置。 (C )只要利用至少設置了複數的有機廢棄物攪拌裝 置,且具有可選擇性地將矽灰石供給至各有機廢棄物攪拌 裝置,並可不讓自供給部份傳來之有機廢棄物攪拌裝置之 # 臭氣洩漏到外面之分配裝置的堆肥製造裝置,即可例如於 一方之有機廢棄物攪拌裝置進行攪拌處理等之時,將有機 廢棄物與矽灰石輸送至另一方的有機廢棄物攪拌裝置而進 行下個作業的準備。藉此,即可實現有效的堆肥製造。 又,例如濕的豬糞尿或人糞尿等有機廢棄物的臭氣, 在實質上並不會洩漏到外面去,因此亦可防止惡臭造成作 業環境惡化,或帶給周圍地區困擾。 # 【實施方式】 〔發明之最佳實施形態〕 根據圖面所示之實施形態,對本發明進行更詳細的說 明。 第1圖係表示關於本發明之堆肥製造工廠之槪略的平 面圖、第2圖係表示擴大關於本發明之堆肥製造工廠之一 部份的槪略平面圖、第3圖係第2圖的槪略側視圖。 在第2圖、第3圖中,爲了方便,反應裝置2係表示 於框架9的外側。在第3圖中,矽灰石供給裝置7之一部 -14- 200538419 (12) 分及濃硫酸供給裝置8之圖示則予以省略。 第4圖係表示有機廢棄物攬拌裝置之構造的正視斷面 說明圖、第5圖係表示有機廢棄物攪拌裝置之構造的平視 說明圖、第6圖係表示有機廢棄物攪拌裝置之構造的側視 說明圖、第7圖係第4圖中的A - A部分剖視圖。 第8圖,係將矽灰石選擇性地投入至兩台有機廢棄物 攪拌裝置之轉閥裝置的一部份斷面說明圖、第9圖係表示 # 反應裝置之構造的斷面說明圖。 身爲堆肥製造裝置之堆肥製造工廠P係如第2圖、第 4圖所示,具備有機廢棄物供給裝置6、矽灰石供給裝置 7、濃硫酸供給裝置8、混合攪拌身爲有機廢棄物(有機 廢液)之糞尿(例如豬糞尿或人糞尿等)與矽灰石之有機 廢棄物攪拌裝置1、1 a、混合攪拌在有機廢棄物攪拌裝置 1、1 a中混合攪拌過的混合物與槽所供給的濃硫酸令其產 生反應之反應裝置2、混合攪拌以加熱油來油浸處理有機 • 廢棄物而令其降低含水率之物與槽所供給的矽灰石,並將 濃硫酸混合攪拌至其混合物中以令其產生反應的加熱油浸 處理物供給裝置3、成爲在反應裝置2及加熱油浸處理物 供給裝置3中被各別混合攪拌過之培養基的混合物中添加 有效微生物,使其發酵的發酵裝置4。 又,堆肥製造工廠P之上述各部份,係爲了讓其不易 腐蝕,而以不鏽鋼或其他不易腐蝕的金屬、實施過防繡處 理之金屬等來製成,但亦可複合使用合成樹脂等其他材料 -15- 200538419 (13) (有機廢棄物攪拌裝置1、1 a ) 主要參照第4圖至第8圖。有機廢棄物攪拌裝置1、 1 a係設置於框架9之內部側的上部。糞尿會自有機廢棄 物供給裝置6,而矽灰石則會自矽灰石供給裝置7供給至 有機廢棄物攪拌裝置1、1 a。針對有機廢棄物供給裝置6 與矽灰石供給裝置7 (兩者都圖示於第2圖中)將於後說 # 明。 框架9的構造爲四角落具有支柱90,並以連結構件 9 1來縱橫地連結這些支柱90 ’底部則設置著底板94。各 支柱90的頂端部則設置著作業平臺92,使得各支柱90 能被圍住。作業平臺92的周圍則設置著扶手93。 有機廢棄物攪拌裝置1、1 a係各具有,攪拌槽1 0、 及設置於攪拌槽1 〇的攪拌機1 2。 各攪拌槽1 〇係固定至上部側之連結構件9 1而並設成 ^ 相同的高度。又,有機廢棄物攪拌裝置1、la係具有幾乎 相同的構造,因此,針對詳細的構造,則利用圖示於第4 圖右側並表示出內部構造之有機廢棄物攪拌裝置1予以說 明。又,有機廢棄物攪拌裝置1 a的各部份,則附加標示 著與有機廢棄物攪拌裝置1之各部份相同的符號。攪拌槽 1 0則爲圓筒型’且上部與下部在本質上則爲被密閉(除 各導入口、排出口外)的槽。 攪拌槽1 〇的上面板1 〇 1之內側(另一邊的攪拌槽1 0 側)則設置著,連接用來供給矽灰石至槽內部之後述的連 -16- 200538419 (14) 結管1 1 2的導入管1 02。又,在其反對側則設置著,用來 觀看槽內,或用來進行維修之可開關的艙口 1 03。 又,上面板1 0 1之中央部則設置著,用來設置後述之 攪拌機1 2的安裝管1 0 4。 攪拌槽1 〇之底面板1 0 5之中央部則設置著排出管 106,令閥107介在於排出管106上而連接著輸送管108 〇 # 又,輸送管108係與另一邊的有機廢棄物攪拌裝置 la之輸送管108連結會合著,並藉由供給管109連接著 後述之反應裝置2。 攪拌機1 2係具有馬達1 2 0。馬達1 2 0則被固定於安 裝管1 04,其迴轉軸1 2則往下方垂直方向延長著。迴轉 軸1 2 1的底端部係位於略高於底面板1 05的上方。迴轉軸 1 2 1之底端部則設置著四片葉片的攪拌螺旋1 22。 又,攪拌螺旋1 2 2的外側則設有圓筒形之攪拌控制體 # 1 2 3,使得攪拌螺旋1 2 2能被包圍住。攪拌螺旋1 2 2係位 於攪拌控制體1 2 3之下部側’並設有間隔以使其頂端部不 會接觸到攪拌控制體1 2 3。攪拌控制體1 2 3則藉由拉條 1 1 1固定於上述攪拌槽1 0之側面板1 1 0。 又,攪拌螺旋1 22係設定成能將糞尿送往上方而使其 旋轉著,因此,爲了提高攪拌效率’最理想的位置是令攪 拌螺旋1.2 2之高度能位於下側,但並無限定其高度。 只要利用上述攪拌控制體1 23 ’在以攪拌控制體1 23 之側壁作爲分界的內側與外側中,於攪拌時的糞尿流動即 -17- 200538419 (15) 不易相互地干涉’內側之流向朝向上方,而外側之流向則 朝向下方。亦即’其不會像無設置攪拌控制體丨2 3時般, 因爲攪拌螺旋1 22之旋轉使得糞尿全體都旋轉起來,具有 確實地進行攪拌的優點。 參照第2圖。有機廢棄物供給裝置6係具有密閉型之 槽60 °槽60與上述各攪拌槽1 〇間設置著,用來輸送槽 60內部之糞尿至各攪拌槽的輸送管61。在輸送管61 Φ 的路徑中設置著幫浦(不予圖示)。又,槽6 0內部的臭 氣係設計成通過具有鼓風機6 5 〇的輸送管6 5,被送往後 述之發酵裝置4的發酵槽40底部。 又’輸送管61之各攪拌槽10側係使切換閥62介在 著而令其分岔,分岔的輸送管63、64則分別被導入至各 攪拌槽1 0的上部。 矽灰石供給裝置7係具有,密閉型之矽灰石槽70, 與設置於攪拌槽1 0之上部的分配裝置7 2。 • 矽灰石槽係下部側形成爲漏斗狀,令其可輕易地 排出矽灰石。設置於矽灰石槽7 0之底部的排出部則連接 著,用來輸送粉狀的矽灰石之輸送運送機7 1。輸送運送 機7 1之端部則導入至上述分配裝置7 2。 又,矽灰石係有必要對應使用之糞尿量(儲存於攪拌 槽1 〇內的量),而預先混合決定好的量。因此,矽灰石 供給裝置7係具備,量測輸送之矽灰石的量測手段。 以此量測手段來說,可採用例如於支撐矽灰石槽70 的部份(例如架台等)設置重量感應器,藉由量測包含矽 -18- 200538419 (16) 灰石之矽灰石槽7 0整體的重量,並求出輸送的矽灰石之 量而令其反映至輸送量之控制的方式等,但並不僅限定於 此。 又’矽灰石槽7 0可設置防止所謂的漏斗架橋(鄰近 排出口之蓄積物內產生空洞部而使排出變困難的現象)的 手段。關於此手段則並無特別的限定,可採用例如1 .具 備振動器而以振動搗碎蓄積物的手段、或2.於內部令空 # 氣噴出而以風壓粉碎蓄積物的手段、又或3 .於內面側設 置覆蓋著空氣噴出口使其可接離(可搖動)的板體,以空 氣的風壓來移動板體的同時,並利用與風壓之相乘作用來 粉碎蓄積物等,各種眾所周知的手段。 以參照第8圖、第4圖爲主。分配裝置72係設置於 ,使矽灰石往下掉落之旋風式分離器7 3之下部的排出管 7 3 0。旋風式分離器7 3之上部則設置著,於內部散播砂灰 石之排出管731。 • 分配裝置72係設計成,選擇性地將矽灰石供給至各 有機廢棄物攪拌裝置1、1 a,並不讓有機廢棄物攪拌裝置 1、1 a內之臭氣由供給之部分洩漏至外部。 分配裝置72係具有殻720。以正面來看,殼72 0的 一部分具有圓弧形之圍壁72 1、722,正面側與背面側則 實質地被封鎖住。圍壁72 1、722以外的部分係構成上部 側之導入口 723,及下部兩側之排出口 724、725。 導入口 723則設置著,下方側稍微變窄的導入管 723 a。導入管723 a之上部則連接於旋風式分離器73之排 -19· 200538419 (17) 出管73 0。 又,排出口 724、725則設置著排出管724a、72 5 a。 排出管724a、72 5 a則各別連接著,下部側彎曲成「<」 形的連結管Π 2。連結管1 1 2的底端部則連接於上述之各 攪拌槽10之導入管102。 上述殼720之內側則設置著,接觸於殻720內面而可 滑動旋轉之切換閥7 2 6。切換閥7 2 6係具備,具有與圍壁 φ 721 (或圍壁722)相同周長的短閥部726a,及具有比圍 壁721 (或圍壁722)與排出口 7 24 (或排出口 725)的合 計周長略長之周長的長閥部726b。 切換閥726係如第8圖所示,長閥部726b之上部約 一半都密接於圍壁722,下部約一半則堵塞住排出口 725 ’又’短閥部7 2 6 a爲密接於圍壁7 2 1的狀態,故長閥部 7 2 6a之上部約一半則密接於圍壁721,下部約一半則堵塞 住排出口 724,又,短閥部726a則在密接於圍壁722的 • 狀態之前都可往圓周方向旋轉(轉動)。藉由此切換閥 7 2 6之旋轉(轉動),即可切換成爲導入側之排出口 7 2 4 或排出口 725。 切換閥7 2 6之內側係設置著旋轉閥7 2 7。旋轉閥7 2 7 係具有旋轉軸管7 2 7 a,此外圍部則朝圓周方向以等間隔 於五個地方設置著閥阪7 2 7 b。閥板7 2 7 b則設置於放射方 向上,各前端部係設計成可於切換閥7 2 6之長閥部7 2 6 b 及短閥部72 6a的內面上密接滑動。 根據此構造,即可將落至上部之閥板7 2 7 b間之砂灰 -20· 200538419 (18) 石’自打開的排出口 724或排出口 72 5往下方的 10導入。又,其設計成各閥板727b之前端部與 72 6b及短閥部726a之內面係幾乎是密接著的,且 727旋轉後不論閥板72 7b處於哪個位置,某片閥丰彳 都會遮斷旋風式分離器73與有機廢棄物攪拌裝置 之各攬拌槽1 0間的通氣。 因此’濕的豬糞尿或人糞尿的臭氣,在實質上 # 會洩漏至各攪拌槽1 0之外部,如此即可防止惡臭 作業環境的惡化,或帶給周邊地區困擾。又,切換 之轉動與旋轉閥727之轉動,則是藉由沒有圖示出 制手段來控制的。 (反應裝置2 ) 主要參照第9圖。第9圖(a )爲全體說明體、 爲表不分岔管之連接部構造之斷面說明圖。 # 反應裝置2係設置於有機廢棄物攪拌裝置丨、;1 方。反應裝置2係具有水平地設置著的螺旋輸送榜 螺旋輸送機2 0則具有圓管2 0 1與螺旋2 0 2,螺旋 藉由馬達2 1而旋轉驅動的。圓管2 0 1之前端部則 接管2 6。又圓管2 0 1係利用固定配件2 5被固定於)j 〇 圓管2 0 1之基部側的上部則設置著導入管2 2 管2 2之上部則連接著,導入濃硫酸的部份之硫酸 23。硫酸導入管23則透過球形接頭24,與設置於 攪拌槽 長閥部 旋轉閥 反 72 7 b 1、1 a ,則不 造成之 閥 72 6 來的控 (b ) a的下 ! 20 〇 2 02係 設有連 £板94 。導入 導入管 上述有 -21 - 200538419 (19) 機廢棄物攪拌裝置1、1 a之排出側的供給管i ο 9連接著。 反應裝置2係自濃硫酸供給裝置8 (圖示於第2圖) 來供給濃硫酸。濃硫酸供給裝置8係具有濃硫酸槽8〇。 濃硫酸槽8 0與反應裝置2的硫酸導入管2 3之間則設有輸 送管8 1。輸送管8丨之路徑中則設有幫浦82。 輸送管8 1係連接著,前端側分岔成兩方向的注入管 83。注入管83之兩根分岔管830,係貫通硫酸導入管23 φ 之直徑線上的兩點之側壁23 0來導入的。又,側壁23 0之 內面側則固裝設置著,離開些許距離由上方覆蓋分岔管 8 3 0之前端開口部,且開口下方側(輸送方向側)的擋板 2 3 1 (參照第9圖(b ))。 利用此構造後,通過硫酸導入管23而被輸送的有機 廢棄物攪拌裝置1、〗a之任一攪拌槽1 〇所排出之混合物 的壓力,則不易作用於分叉管8 3 0之前端開口部,因此, 就算不施加特別強的壓力,亦可圓滑地進行濃硫酸的注入 Φ 。又’藉此,即不需要對濃硫酸之注入施加壓力的壓縮機 等,亦可簡化裝置,將製造成本控制爲很低廉。 反應裝置2之前端部的連接管2 6係連接於螺旋輸送 機27的基部側。螺旋輸送機27的前端側係向斜上方延長 ’構成爲可自配置於有機廢棄物擾伴裝置1、1 a後方的輸 送用容器5(圖示於第2圖、第3圖)之上部落下進而收 容於其中。 又’輸送用容器5之下部則具備可開關的投下□(省 略圖示及符號)。又,當積存需要量的混合物後,混合物 -22- 200538419 (20) 將連同容器一倂被運至後述發酵槽40,並由投入口來被 投入。又,在混合物被放進發酵槽4 0前,亦可於輸送用 容器5內事先放置一定的熟成期。 (加熱油浸處理物供給裝置3 ) 加熱油浸處理物供給裝置3係配置於有機廢棄物攪拌 裝置1、1 a後方(於第2圖的上側)。 • 在本實施形態中,採用油溫減壓式乾燥裝置( TEMPLAR-M21 : PROREX股份有限公司)作爲加熱油浸 處理物供給裝置3。又,以加熱油浸處理物供給裝置3而 言,只要是具有能以加熱油隊各種有機廢棄物進行油浸處 理,而降低含水率之功能的裝置,亦可採用其他裝置。 關於加熱油浸處理物供給裝置3之構造與功能,在此 僅止於槪略的說明,省略詳細的說明。 加熱油浸處理物供給裝置3係由(1 )原料線(line ♦ )、( 2 )乾燥線(加熱油浸處理線)、(3 )搾油精製線 、(4 )製品線、(5 )真空線、(6 )除臭線、(7 )蒸氣 線構成的。又,亦可設置用來將加熱油浸處理物往後製程 送之螺旋輸送機等運送裝置。 加熱油浸處理物供給裝置3係(1 )藉由原料線搬入 廚餘等原料,並加熱攪拌使其具有流動性後將其儲存。接 著,(2 )藉由乾燥線,以(7 )蒸氣線作爲加熱源而經過 加熱的油當作加熱介質,於減壓狀態(真空下)除去原料 之水分,以進行加熱油浸處理。蒸發的水分係藉由(5 ) -23- 200538419 (21) 真空線而被吸引掉’並被凝縮而被加以排水處理。又,臭 氣係藉由(6 )除臭線而被施以除臭處理。又,藉由(3 ) 搾油精製線來分離固態物與油,以得到油含有率被調整至 5 %以下之加熱油浸處理物(半製品)。最後,藉由(4 ) 製品線來將加熱油浸處理物加工成一致的粉體,當冷卻後 則予以儲存,並供給至後製程。 φ (發酵裝置4 ) 參照第1圖。如第1圖所示,發酵裝置4係設置於’ 離開有機廢棄物攪拌裝置1、1 a的地點。發酵裝置4係具 備發酵槽4 0 ’及沿著發酵槽4 0的側壁往返移動來攪拌內 部混合物’並送往排出側的移動攪拌裝置4 1。在發酵槽 40內,處理物與自槽60送來的臭氣將同時一起被發酵處 理。 又,具有發酵槽40與移動攪拌裝置41的發酵裝置4 φ 係眾所皆知的一般的構造’故關於詳細的說明則予以省略 (作用) 參照第1圖乃至第9圖,作爲處理之對象物,則舉出 處理高含水率的豬糞尿或人糞尿的情況當例子,說明堆肥 製造工廠p之作用。 預先將糞尿適量蓄積於槽60內。又’將矽灰石適量 蓄積於矽灰石槽7 0內’預先將濃硫酸適量蓄積於濃硫酸 -24- 200538419 (22) 槽8 0內。矽灰石內則事先添加適量(通常亦可爲微量) 之鋅(Ζ η )、錳(Μ η )、鉬(Μ 〇 )、鎂(M g )、銅(C υ )、鐵(Fe )之中所選出的1個或2個以上的元素。這是 爲了於堆肥中補給充分的礦物質。又,通常最理想的方式 是添加上述所有的種類,但亦可配合施肥的土壤之狀態等 而添加適當選擇的元素。又,其配合比率亦可適當調整, 沒有特別的限定。 將糞尿選擇性地輸送至有機廢棄物攪拌裝置1、1 a的 各攪拌槽1 〇。當適量蓄積於各攪拌槽1 〇內時,則藉由矽 灰石供給裝置7之分配裝置72將矽灰石供給至一方的攪 拌槽1 〇,或令一方的攪拌槽1 〇。矽灰石係針對糞尿! 00 重量分,以1 5重量分之比率來配合,藉由攪拌機1 2來混 合攪拌。 打開閥1 〇 7,將在有機廢棄物攪拌裝置1或1 a內混 合攪拌過的混合物輸送至反應裝置2。 透過濃硫酸供給裝置8供給的濃硫酸則藉由注入管 83,由相對向的兩方向注入至反應裝置2之硫酸導入管 23。濃硫酸係針對糞尿1 00重量分,以8重量分的比例來 配合。 混入了濃硫酸的混合物則再送往螺旋輸送機2 0,並 於圓管201內以螺旋202來一邊混合攪拌一邊往排出側輸 送。 藉由混合物與濃硫酸混合攪拌後,混入於混合物的矽 灰石則與濃硫酸引起化學反應。 -25- 200538419 (23) 藉此反應,混合物可在極短時間內固化或粒化,並可 一倂改善糞尿特有的臭氣。又,反應熱產生,混合物的溫 度變成75〜85 °C,存在於混合物中之包含病原菌等有害菌 的雜菌則幾乎都會死絕。 固化或粒化的混合物係藉由螺旋輸送機2 7而被送往 輸送用容器5,使其適量被收容。收容著混合物之輸送用 容器5係並以所需之比例來收容,以加熱油來油浸處理有 φ 機廢棄物而降低過含水率的加熱油浸處理物後,再藉由可 沿天花板軌道移動的起重機(省略圖示)來吊起,並將其 運至發酵槽40。然後,即可打開下部之投下口來投下至 槽內。 接下來,將藉由加熱油浸處理物供給裝置3所供給的 加熱油浸處理物,收容至上述輸送用容器5。處理過被收 容於輸送用容器5的豬糞或人糞之混合物與加熱油浸處理 物之混合比例,係針對處理過豬糞之混合物1 00重量分, # 以加熱油浸處理物5 0重量分,再混合還原堆肥5 0重量。 又,此比例係,在發酵可有效地進行的範圍中都可適宜調 整。 輸送用容器5係使用天車(省略圖示)被輸送至發酵 裝置4之發酵槽40。又,加熱油浸處理物係並不一定需 要,在輸送用容器5內混入處理過糞尿的混合物中,例如 亦可一邊以螺旋輸送機等其他手段往發酵槽40輸送一邊 予以混合,亦可在發酵槽40內來混合。 成爲培養基的混合物則在發酵槽40內自然冷卻,當 -26- 200538419 (24) 冷卻至有效微生物可繁殖的溫度時,再適量添加有效微生 物。然後,藉由移動攪拌裝置4 1來混合攪拌而使其發酵 需要的時間,並予以堆肥化。又,混合物中幾乎不存在含 有上述所述般的病原菌等有害菌之雜菌,因此,添加的有 效微生物將充分地活性化。 又,藉由於處理過豬糞或人糞的混合物中,以上述比 例添加加熱油浸處理物而使其發酵,使得發酵可在良好的 φ 狀態下進行,並可獲得良好的堆肥。 此理由雖然還未確定,但應該是加熱油浸處理物內富 含的氮,或加熱油浸處理物內富含的蛋白質被濃硫酸分解 後產生的氨基酸,對有效微生物之活動補給了必要的能量 〇 又’於處理量多的實用階段中,曾嘗試不混入加熱油 浸處理物,僅將處理過糞尿的混合物當作培養基而添加有 效微生物來使其發酵,但在試驗期間的4個月內,都不曾 # 發酵過。相對於此,於處理過糞尿的混合物中混入加熱油 浸處理物來當作培養基的方式,較快的時候,會在添加有 效微生物的隔天即開始發酵。 接著’舉例說明於豬糞尿處理物內混入加熱油浸處理 物來使其發酵,並製造堆肥的實驗例2。 豬糞尿處理物係在任一的實驗例中都使用,相對於豬 糞尿100重量分,混合矽灰石25重量分,接著混合濃硫 酸1 5重量分來使其產生反應而予以粒化的混合物。 在表1所示的實驗例1中,將剩餘污泥當作加熱油浸 -27- 200538419 (25) 處理物的原料。又,在表2所示的實驗例2中,則將廚餘 當作加熱油浸處理物的原料。 (實驗例1 ) (混合物重量(比率)) 豬糞尿處理物 240kg ( 50% ) 還原堆肥 UOkg ( 25% ) • 加熱油浸處理物(處理剩餘污泥)120kg ( 25% ) 〔表1〕 經過 天數 天氣 氣溫 (°C ) 混合物溫度 rc ) 附註 0 晴 26.0 27.0 添加有效性微生物 1 晴 26.0 28.0 2 晴 26.0 43.0 確認發酵 3 晴 27.0 54.0 4 多雲 26.5 62.0 5 多雲時晴 22.5 52.0 6 多雲時晴 23.0 53.0 7 晴 21.5 60.0 完熟 (考察) 從表1可知,在將剩餘污泥當作加熱油近處理物之原 料的實驗例1中,於成爲培養基之混合物內添加有效微生 -28- 200538419 (26) 物的後天,也就是兩天後’溫度即急遽地上升,並確認其 之發酵。之後,發酵則以良好的狀態在進行著,在第七天 時幾乎都已完熟。 (實驗例2 ) (混合物重量(比率)) 豬糞尿處理物 120kg(50%) 還原堆肥 60kg(25%) 加熱油浸處理物(處理廚餘) 60kg ( 25% )The product and the heated oil immersed product are cooled and then added with effective microorganisms. Regarding a mixture that becomes a medium for adding effective microorganisms, since a solidified or granulated mixture produced from organic waste was once heated to a high temperature, almost no bacteria including harmful bacteria such as pathogenic bacteria were present. Therefore, the added effective microorganisms can be fully activated, and a good quality compost can be efficiently produced. In addition, the conveying of the mixed material to the fermentation apparatus is carried out by using various conveyors such as screw conveyors or belt conveyors, and using an overhead crane to carry containers such as containers for transportation. As long as a screw conveyor is used to convey the stirred mixture and the mixed sulfuric acid while stirring, the portion with the concentrated sulfuric acid is placed on the conveying base side of the screw conveyor, or it is passed to the conveying base side The compost manufacturing device of the reaction device on the mixture conveying path requires almost no injection pressure and the like for mixing concentrated sulfuric acid, so the device can be simplified. # That is, the conveyance path of the conveyer base side or the conveyance base side of the screw conveyor is a negative pressure by continuously moving the mixture to the conveyance rear side (discharge side) by spiral rotation. Part. Therefore, concentrated sulfuric acid can be effectively mixed as if inhaled. In addition, since the concentrated sulfuric acid is mixed in the screw conveyor (the front part of the conveyance), the mixture is sufficiently stirred until the mixture is sent to the rear part of the conveyance (the exit side). Wollastonite and concentrated sulfuric acid are relatively speaking Although the reaction is shown earlier, almost uniform solidification and granulation can be achieved as a whole. With this, effective compost manufacturing can be achieved. -12- 200538419 (10) As long as at least a plurality of organic waste agitating devices are used, and wollastonite can be selectively supplied to each organic waste agitating device, and organic materials from the supply part are not allowed The compost manufacturing device of the waste mixing device leaking the odor of the waste distribution device to the outside distribution device can transport the organic waste and wollastonite to the other The waste agitator prepares the next operation. With this, effective compost manufacturing can be achieved. φ In addition, the odor of organic waste does not leak to the outside, so it can prevent the odor from causing deterioration of the working environment or causing trouble to the surrounding area. [Effects of the Invention] The present invention has the above-mentioned configuration and has the following effects. (a) As long as the present invention is used, according to the required ratio, the organic wastes with heating oil are oil-immersed to reduce the water content, and mixed with silica ash # stone and concentrated sulfuric acid to cure or granulate, A mixture of high-water-content organic wastes such as animal manure and human feces, and the addition of effective microorganisms, even in a practical stage with a large amount of treatment, can be fermented in a good state to obtain compost. (b) As long as the screw conveyor is used to transport the stirred mixture and the material mixed with concentrated sulfuric acid while stirring, the portion with mixed concentrated sulfuric acid is set on the side of the conveying base of the screw conveyor, or it is passed to The compost manufacturing device of the reaction device of the mixture conveying path on the conveying base side 'until the mixture is sent to the rear conveying part (exit side), it has been charged with 13-200538419 (11). Although the reaction will be shown earlier, almost uniform solidification and granulation can be achieved as a whole. In this way, effective compost manufacturing can be achieved. Further, since the pressure such as the injection pressure for mixing the concentrated sulfuric acid is almost unnecessary, the apparatus can be simplified. (C) As long as at least a plurality of organic waste agitating devices are used, and a wollastonite can be selectively supplied to each organic waste agitating device, and the organic waste agitating device can be prevented from being transmitted from the supply part ## The compost manufacturing device that leaks odor gas to the external distribution device can transfer organic waste and wollastonite to the other organic waste mixing device when one organic waste mixing device performs stirring treatment, etc. Device to prepare for the next job. With this, effective compost manufacturing can be achieved. In addition, the odor of organic waste such as wet pig dung or human dung does not leak to the outside. Therefore, it can prevent the foul odor from causing deterioration of the working environment or causing trouble to the surrounding area. # [Embodiment] [Best Embodiment of the Invention] The present invention will be described in more detail based on the embodiment shown in the drawings. FIG. 1 is a plan view showing the outline of the compost manufacturing plant of the present invention, FIG. 2 is a plan view showing the enlargement of a part of the compost manufacturing plant of the present invention, and FIG. 3 is a plan view of FIG. 2 Side view. In FIGS. 2 and 3, the reaction device 2 is shown on the outside of the frame 9 for convenience. In FIG. 3, a part of the wollastonite supply device 7 -14-200538419 (12) and the illustration of the concentrated sulfuric acid supply device 8 are omitted. FIG. 4 is a front sectional explanatory view showing the structure of an organic waste stirring device, FIG. 5 is a plan explanatory view showing the structure of an organic waste stirring device, and FIG. 6 is a view showing the structure of an organic waste stirring device Fig. 7 is a side explanatory view, and Fig. 7 is a cross-sectional view of part A-A in Fig. 4. Fig. 8 is a partial cross-sectional explanatory view of a rotary valve device in which wollastonite is selectively charged into two organic waste stirring devices, and Fig. 9 is a cross-sectional explanatory view showing a structure of a # reaction device. As shown in Figures 2 and 4, the compost manufacturing plant P, which is a compost manufacturing device, includes an organic waste supply device 6, a wollastonite supply device 7, a concentrated sulfuric acid supply device 8, and a mixing and agitating body as organic waste. (Organic waste liquid) feces and urine (such as pig feces or human feces) and wollastonite organic waste stirring device 1, 1 a, mixing and stirring Reaction device for the reaction of concentrated sulfuric acid supplied in the tank 2. Mixing and stirring to heat the oil to immerse the organic and waste to reduce the water content and wollastonite supplied in the tank, and mix the concentrated sulfuric acid The heating oil-immersed material supply device 3 stirred into its mixture to cause it to react, and effective microorganisms are added to the mixture of the reaction device 2 and the heating oil-immersed material supply device 3 which are separately mixed and stirred, Fermentation device 4 for fermenting. In addition, the above parts of the compost manufacturing plant P are made of stainless steel or other non-corrosive metals, metals with anti-embroidery treatment, etc. in order to prevent them from being easily corroded, but synthetic resins and other Materials-15- 200538419 (13) (Organic waste mixing device 1, 1 a) Refer to Figures 4 to 8 mainly. The organic waste agitating devices 1 and 1 a are provided on the upper side of the inner side of the frame 9. The feces are supplied from the organic waste supply device 6, and the wollastonite is supplied from the wollastonite supply device 7 to the organic waste stirring devices 1, 1a. The organic waste supply device 6 and the wollastonite supply device 7 (both of which are shown in Fig. 2) will be described later #. The frame 9 is structured to have pillars 90 at four corners, and these pillars 90 are connected vertically and horizontally by a connecting member 91, and a bottom plate 94 is provided at the bottom. A writing platform 92 is provided at the top of each pillar 90 so that each pillar 90 can be enclosed. Handrails 93 are provided around the working platform 92. Each of the organic waste stirring devices 1 and 1 a has a stirring tank 10 and a stirrer 12 installed in the stirring tank 10. Each stirring tank 10 is fixed to the connecting member 91 on the upper side and is set to the same height. Since the organic waste stirring device 1 and la have almost the same structure, the detailed structure will be described using the organic waste stirring device 1 shown on the right side of FIG. 4 and showing the internal structure. In addition, each part of the organic waste stirring device 1a is added with the same symbol as each part of the organic waste stirring device 1. The agitating tank 10 is a cylindrical type, and the upper and lower portions are essentially closed (except for the respective inlets and outlets). The inside of the upper panel 1 〇1 of the mixing tank 1 〇 (the other side of the mixing tank 10) is installed to connect the wollastonite to the inside of the tank. -16- 200538419 (14) Tube 1 1 2 of the introduction tube 1 02. On the opposite side, there is a switchable hatch 103 for viewing the inside of the tank or for maintenance. A central portion of the upper panel 101 is provided with a mounting pipe 104 for a mixer 12 to be described later. The bottom part of the mixing tank 10 is provided with a discharge pipe 106 at the center of the bottom panel 105. The valve 107 is connected to the discharge pipe 106 through the discharge pipe 106. The transfer pipe 108 is connected to the other side of the organic waste. The conveying pipe 108 of the stirring device 1a is connected to the joint, and a reaction device 2 to be described later is connected through a supply pipe 109. The mixer 1 2 has a motor 1 2 0. The motor 120 is fixed to the mounting pipe 104, and its rotary shaft 12 is extended vertically downward. The bottom end of the rotating shaft 1 2 1 is located slightly above the bottom panel 105. The bottom end of the rotating shaft 1 2 1 is provided with a stirring blade 1 22 of four blades. A cylindrical stirring control body # 1 2 3 is provided on the outside of the stirring spiral 1 2 2 so that the stirring spiral 1 2 2 can be enclosed. The stirring screw 1 2 2 is located on the lower side of the stirring control body 1 2 3 'and is provided with a space so that the top end portion thereof does not contact the stirring control body 1 2 3. The stirring control body 1 2 3 is fixed to the side panel 1 1 0 of the stirring tank 10 by a pull bar 1 1 1. In addition, the stirring screw 1 22 is set so that the urine can be sent upward and rotated. Therefore, in order to improve the stirring efficiency, the most desirable position is that the height of the stirring screw 1.2 2 can be located on the lower side, but there is no limitation on it. height. As long as the above-mentioned agitation control body 1 23 'is used, on the inside and outside with the side wall of the agitation control body 1 23 as a boundary, the flow of feces and urine during agitation is -17- 200538419 (15) It is difficult to interfere with each other' the inner flow direction is upward , While the flow on the outside faces downward. That is, it is not like when there is no stirring control body 23, because the rotation of the stirring spiral 1 22 causes the entire feces and urine to rotate, which has the advantage of performing the stirring reliably. Refer to Figure 2. The organic waste supply device 6 is provided with a closed tank 60 °, and the tank 60 and each of the agitating tanks 10 described above are provided for conveying feces and urine in the tank 60 to each of the agitating tanks 61. A pump (not shown) is provided in the path of the conveying pipe 61 Φ. The odor inside the tank 60 is designed to be sent to the bottom of the fermentation tank 40 of the fermentation apparatus 4 described later through a duct 65 having a blower 6500. On the side of each stirring tank 10 of the conveying pipe 61, the switching valve 62 is branched with the switching valve 62 interposed therebetween, and the branched conveying pipes 63 and 64 are respectively introduced into the upper part of each stirring tank 10. The wollastonite supply device 7 includes a sealed wollastonite tank 70 and a distribution device 72 provided above the stirring tank 10. • The wollastonite trough is formed in a funnel shape on the lower side so that it can be easily discharged from the wollastonite. A discharge unit installed at the bottom of the wollastonite tank 70 is connected to a conveying conveyor 71 for transporting powdery wollastonite. The end of the transport conveyor 71 is introduced into the above-mentioned distribution device 72. In addition, the wollastonite system must be mixed and determined in advance according to the amount of feces and urine used (the amount stored in the stirring tank 10). Therefore, the wollastonite supply device 7 is provided with a measuring means for measuring the wollastonite conveyed. With this measurement method, for example, a weight sensor may be provided at a portion (such as a stand) supporting the wollastonite tank 70, and the wollastonite containing silicon-18-200538419 (16) gray stone may be measured. The overall weight of the tank 70 and the method of determining the amount of wollastonite to be conveyed to reflect the method of controlling the amount of conveyance, etc., are not limited to this. Further, a means for preventing so-called funnel bridging (a phenomenon in which a hollow portion is generated in the accumulation adjacent to the discharge port to make discharge difficult) can be provided in the wollastonite tank 70. This means is not particularly limited, and for example, 1. means for mashing the accumulation by vibration with a vibrator, or 2. means for blasting the air in the interior and pulverizing the accumulation by wind pressure, or 3. On the inner surface side, a plate body covered with an air spout is provided so that it can be detached (swayable), and the plate body is moved by the wind pressure of the air, and the accumulated product is crushed by the multiplication of the wind pressure Etc, various well-known means. Refer to Figures 8 and 4 for reference. The distribution device 72 is arranged at a discharge pipe 7 3 0 at the lower part of the cyclone-type separator 7 3 which makes wollastonite fall downward. The upper part of the cyclone-type separator 73 is provided with a discharge pipe 731 for dispersing sand and gravel therein. • The distribution device 72 is designed to selectively supply wollastonite to each organic waste agitation device 1, 1 a, and prevent the odor in the organic waste agitation device 1, 1 a from leaking to the supplied part. external. The distribution device 72 has a case 720. When viewed from the front, a part of the shell 72 0 has arc-shaped surrounding walls 72 1, 722, and the front and back sides are substantially blocked. The parts other than the surrounding walls 72 1 and 722 constitute the inlets 723 on the upper side and the outlets 724 and 725 on the lower side. The introduction port 723 is provided, and the introduction pipe 723 a which is narrowed slightly on the lower side. The upper part of the introduction pipe 723 a is connected to the row of the cyclone separator 73 -19 · 200538419 (17) The outlet pipe 73 0. The discharge ports 724 and 725 are provided with discharge pipes 724a and 72 5a. The discharge pipes 724a and 72 5a are connected to each other, and the lower side is bent into a "<" shaped connecting pipe Π2. The bottom end portion of the connecting pipe 1 12 is connected to the introduction pipe 102 of each of the agitating tanks 10 described above. The inside of the casing 720 is provided with a switching valve 7 2 6 which is in sliding contact with the inner surface of the casing 720. The switching valve 7 2 6 is provided with a short valve portion 726a having the same circumference as that of the surrounding wall φ 721 (or surrounding wall 722), and has a shorter than the surrounding wall 721 (or surrounding wall 722) and a discharge port 7 24 (or discharge port 725) is a long valve portion 726b whose total perimeter is slightly longer. The switching valve 726 is shown in FIG. 8. About half of the upper part of the long valve part 726b is in close contact with the surrounding wall 722, and approximately half of the lower part blocks the discharge port 725. The short valve part 7 2 6 a is in close contact with the surrounding wall. In the state of 7 2 1, about half of the upper part of the long valve part 7 2 6a is in close contact with the surrounding wall 721, approximately half of the lower part is blocking the discharge port 724, and the short valve part 726a is in close contact with the surrounding wall 722. It can be rotated (rotated) in the circumferential direction before. By the rotation (rotation) of the switching valve 7 2 6, the discharge port 7 2 4 or the discharge port 725 on the introduction side can be switched. A rotary valve 7 2 7 is provided inside the switching valve 7 2 6. The rotary valve 7 2 7 is provided with a rotary shaft tube 7 2 7 a, and the peripheral part of the rotary valve 7 2 7 b is provided at regular intervals in five places. The valve plate 7 2 7 b is disposed in the radial direction, and each front end portion is designed to be in close contact with the inner surface of the long valve portion 7 2 6 b and the short valve portion 72 6 a of the switching valve 7 2 6. According to this structure, the sand and ash falling between the upper valve plate 7 2 7 b -20 · 200538419 (18) stone ′ can be introduced from the opened discharge port 724 or the discharge port 72 5 to the lower 10. In addition, it is designed so that the front end of each valve plate 727b and the inner surface of 72 6b and the short valve portion 726a are almost in close contact, and no matter where the valve plate 72 7b is located after the 727 rotates, a certain valve will be covered. The ventilation between the cyclone-type separator 73 and each of the mixing tanks 10 of the organic waste stirring device was interrupted. Therefore, the smell of 'wet pig dung urine or human dung urine' will leak to the outside of each of the mixing tanks 10, which can prevent the bad smell from deteriorating the working environment or bring trouble to the surrounding areas. The rotation of switching and the rotation of the rotary valve 727 are controlled by means not shown. (Reaction device 2) Referring mainly to FIG. 9. Fig. 9 (a) is a cross-sectional explanatory view of the whole explanatory body and the structure of the connection part showing the branch pipe. # 反应 装置 2 is installed in the organic waste stirring device 丨,; 1 side. The reaction device 2 has a horizontally arranged screw conveyor. The screw conveyor 20 has a circular tube 2 01 and a screw 2 02. The screw is driven by a motor 21 to rotate. The front end of the round tube 2 0 1 takes over 2 6. The round tube 2 0 1 is fixed to it with fixing fittings 25.) J 〇 The round tube 2 0 1 is provided with an introduction tube 2 2 at the upper part of the base side, and the upper part of the tube 2 2 is connected, and the concentrated sulfuric acid is introduced. Of sulfuric acid 23. The sulfuric acid introduction pipe 23 passes through the spherical joint 24, and is opposite to the rotary valve 72 7 b 1, 1 a provided in the long valve part of the stirring tank, and the control of the valve 72 6 (b) is not caused! 20 〇 02 02 Tied with a plate 94. Introduction The introduction pipe has the above-mentioned -21-200538419 (19) The supply pipe i ο 9 on the discharge side of the machine waste agitating device 1, 1 a is connected. The reaction device 2 supplies concentrated sulfuric acid from a concentrated sulfuric acid supply device 8 (shown in FIG. 2). The concentrated sulfuric acid supply device 8 has a concentrated sulfuric acid tank 80. A transfer pipe 81 is provided between the concentrated sulfuric acid tank 80 and the sulfuric acid introduction pipe 23 of the reaction device 2. A pump 82 is provided in the path of the conveying pipe 8 丨. The delivery pipe 81 is connected to the injection pipe 83 whose front end side is branched into two directions. The two branch pipes 830 of the injection pipe 83 are introduced through the side walls 23 0 at two points on the diameter line of the sulfuric acid introduction pipe 23 φ. The inner surface of the side wall 23 0 is fixedly installed and covers the opening part of the front end of the branch pipe 8 3 0 from a distance, and the baffle 2 3 1 (refer to the conveying direction side) below the opening (see the first section). Figure 9 (b)). With this structure, the pressure of the mixture discharged from any one of the mixing tanks 1 and 1 of the organic waste stirring device 1, which is conveyed through the sulfuric acid introduction pipe 23, does not easily act on the front end of the branch pipe 8 30. Therefore, it is possible to smoothly perform the injection of concentrated sulfuric acid Φ without applying a particularly strong pressure. This also simplifies the device and eliminates the need for a compressor or the like that applies pressure to the injection of concentrated sulfuric acid, thereby reducing manufacturing costs. The connecting pipe 2 6 at the front end of the reaction device 2 is connected to the base side of the screw conveyor 27. The front end side of the screw conveyor 27 is extended obliquely upward, and is configured to be self-locating on the transportation container 5 (illustrated in FIG. 2 and FIG. 3) disposed behind the organic waste disturbance companion device 1, 1 a It was then contained in it. The bottom of the 'conveying container 5 is provided with a switchable dropper (illustration and symbol omitted). After the required amount of the mixture has been accumulated, the mixture -22- 200538419 (20) will be transported to the fermentation tank 40 described below together with the container, and will be introduced through the inlet. Before the mixture is placed in the fermentation tank 40, a predetermined maturity period may be placed in the transport container 5 in advance. (Heating oil immersion treatment material supply device 3) The heating oil immersion treatment material supply device 3 is disposed behind the organic waste stirring device 1 and 1a (on the upper side in FIG. 2). • In this embodiment, an oil temperature decompression drying device (TEMPLAR-M21: PROREX Co., Ltd.) is used as the heating oil immersion treatment material supply device 3. In addition, as for the heating oil immersion treatment material supply device 3, any other device may be used as long as it can perform oil immersion treatment with various organic wastes of the heating oil group and reduce the water content. Regarding the structure and function of the heating oil-immersed processed material supply device 3, only a brief description will be given here, and a detailed description will be omitted. The heating oil immersion processing material supply device 3 is composed of (1) raw material line (line ♦), (2) drying line (heating oil immersion processing line), (3) oil pressing refining line, (4) product line, (5) vacuum Line, (6) deodorization line, (7) vapor line. Further, a conveying device such as a screw conveyor for conveying the heated oil-immersed processed product in a subsequent process may be provided. The heating oil immersion treatment material supply device 3 series (1) carries raw materials such as kitchen waste through a raw material line, and heats and stirs them to make them fluid, and then stores them. Next, (2) The oil heated by the drying line and (7) the vapor line as a heating source is used as a heating medium, and the moisture of the raw materials is removed under a reduced pressure (under vacuum) to perform a heating oil immersion treatment. The evaporated water is attracted by the vacuum line (5) -23- 200538419 (21) 'and is condensed to be drained. In addition, the odor is subjected to a deodorizing treatment by the (6) deodorizing line. In addition, the solid matter and oil are separated by the (3) oil-refining line to obtain a heated oil-immersed product (semi-product) whose oil content is adjusted to 5% or less. Finally, the (4) product line is used to process the heated oil immersion treatment into a uniform powder, which is stored after cooling and supplied to the post-processing. φ (fermentation device 4) Refer to FIG. As shown in FIG. 1, the fermentation device 4 is installed at a position ′ away from the organic waste stirring device 1 and 1 a. The fermentation device 4 is provided with a fermentation tank 40 'and a mobile stirring device 41 which is provided with a fermentation tank 40 which is moved back and forth along the side wall of the fermentation tank 40 to stir the internal mixture' and sent to the discharge side. In the fermentation tank 40, the processed material and the odor sent from the tank 60 are simultaneously fermented. In addition, the fermentation device 4 φ having the fermentation tank 40 and the mobile stirring device 41 is a well-known general structure. Therefore, detailed descriptions are omitted (action). Refer to FIG. 1 to FIG. 9 as processing targets. For example, the case of processing pig manure or human manure with a high water content is taken as an example to explain the role of the compost manufacturing plant p. An appropriate amount of feces and urine is stored in the tank 60 in advance. Also, “storing an appropriate amount of wollastonite in the wollastonite tank 70” is to store an appropriate amount of concentrated sulfuric acid in the concentrated sulfuric acid -24- 200538419 (22) tank 80 in advance. Wollastonite is added with an appropriate amount (usually also a trace amount) of zinc (Z η), manganese (Μ η), molybdenum (Μ 〇), magnesium (M g), copper (C υ), and iron (Fe) in advance. One or more selected elements. This is to replenish sufficient minerals in the compost. In addition, it is generally desirable to add all of the above-mentioned types, but it is also possible to add appropriately selected elements in accordance with the state of the fertilized soil and the like. The blending ratio may be adjusted as appropriate, and is not particularly limited. The feces and urine are selectively transferred to each of the stirring tanks 10 of the organic waste stirring device 1 and 1 a. When an appropriate amount is accumulated in each of the stirring tanks 10, the wollastonite is supplied to one of the stirring tanks 10 by the distribution device 72 of the wollastonite supplying device 7, or one of the stirring tanks 10 is made. Wollastonite is for faeces! 00 parts by weight are blended at a ratio of 15 parts by weight, and mixed with a blender 1 2. The valve 107 was opened, and the mixture mixed and stirred in the organic waste stirring device 1 or 1 a was sent to the reaction device 2. The concentrated sulfuric acid supplied through the concentrated sulfuric acid supply device 8 is injected into the sulfuric acid introduction tube 23 of the reaction device 2 through the injection pipe 83 from two opposite directions. Concentrated sulfuric acid is formulated at a ratio of 8 parts by weight based on 100 parts by weight of feces and urine. The mixture mixed with concentrated sulfuric acid is then sent to the screw conveyor 20, and is conveyed to the discharge side while being stirred in a spiral 202 in a circular tube 201. After mixing the mixture with concentrated sulfuric acid, the wollastonite mixed in the mixture causes a chemical reaction with the concentrated sulfuric acid. -25- 200538419 (23) With this reaction, the mixture can be solidified or granulated in a very short time, and the odor that is unique to feces and urine can be improved overnight. In addition, the heat of reaction is generated, and the temperature of the mixture becomes 75 to 85 ° C. The miscellaneous bacteria including harmful bacteria such as pathogenic bacteria existing in the mixture are almost extinct. The solidified or granulated mixture is conveyed to the conveyance container 5 by the screw conveyor 27, so that an appropriate amount is accommodated. The transport container 5 containing the mixture is contained in a desired ratio. The heating oil is immersed with heating oil to reduce the water content of the heated oil immersion treatment product, and then it can be moved along the ceiling track. A moving crane (not shown) lifts and transports it to the fermentation tank 40. Then, you can open the lower drop opening to drop into the tank. Next, the heated oil-immersed processed material supplied by the heated oil-immersed processed material supply device 3 is stored in the transport container 5 described above. The mixing ratio of the mixture of pig manure or human feces treated in the transport container 5 and the heated oil-soaked treatment product is 100 weight points of the treated pig manure mixture, and #the heating oil-soaked treatment product 50 weight Minutes, and then mixed to reduce compost 50 weight. This ratio is appropriately adjusted within a range in which fermentation can be effectively performed. The transport container 5 is transported to the fermentation tank 40 of the fermentation apparatus 4 using a crane (not shown). The heating oil immersion treatment system is not necessarily required, and the processed feces and urine mixture is mixed in the transport container 5. For example, the mixture may be mixed while being transported to the fermentation tank 40 by other means such as a screw conveyor, or may be Mix in the fermentation tank 40. The mixture that becomes the culture medium is naturally cooled in the fermentation tank 40. When -26- 200538419 (24) is cooled to a temperature at which effective microorganisms can reproduce, an appropriate amount of effective microorganism is added. Then, the stirring device 41 is moved to mix and stir the time required for fermentation and composting. In addition, since there is almost no miscellaneous bacteria containing harmful bacteria such as the above-mentioned pathogenic bacteria in the mixture, the effective microorganisms added will be sufficiently activated. In addition, since the mixture treated with pig dung or human dung is fermented by adding a heated oil-immersed treatment at the above ratio, the fermentation can be performed in a good φ state, and good compost can be obtained. Although this reason has not yet been determined, it should be the nitrogen rich in the heated oil immersion treatment product or the amino acid produced by the concentrated sulfuric acid decomposition of the protein rich in the heating oil immersion treatment product, which is necessary for the supply of effective microorganisms. Energy 〇 In the practical stage with a large amount of treatment, we tried to mix the treated faeces and urine as a culture medium without adding heated oil-immersed treatment, and fermented with effective microorganisms. However, during the test period of 4 months内 , 都曾 # fermented. On the other hand, the method of mixing heated oil-immersed treatment material as a culture medium in a mixture of processed feces and urine will start fermentation the next day when effective microorganisms are added. Next, "Experimental Example 2" in which a heated oil-immersed treatment is mixed with pig manure and urine treatment and fermented to produce compost will be described below. Pig manure treatment was used in any of the experimental examples. A mixture of 25 wt.% Wollastonite and 15 wt.% Concentrated sulfuric acid was mixed with 100 wt.% Of swine manure to cause a reaction and granulation. In Experimental Example 1 shown in Table 1, the remaining sludge was used as a raw material for the heated oil immersion -27- 200538419 (25). In Experimental Example 2 shown in Table 2, kitchen waste was used as a raw material for heating the oil-immersed treated product. (Experimental example 1) (mixture weight (ratio)) 240 kg (50%) of pig manure and urine treatment UOkg (25%) of reduced compost • Heated oil immersion treatment (treatment of excess sludge) 120 kg (25%) [Table 1] After Days Weather Temperature (° C) Mixture temperature rc) Note 0 Clear 26.0 27.0 Add effective microorganisms 1 Clear 26.0 28.0 2 Clear 26.0 43.0 Confirm fermentation 3 Clear 27.0 54.0 4 Cloudy 26.5 62.0 5 Cloudy 22.5 52.0 6 Cloudy 23.0 53.0 7 Sunny 21.5 60.0 Mature (examination) As can be seen from Table 1, in Experimental Example 1 using the remaining sludge as a raw material for heating oil near-treatment products, effective micro-organisms were added to the mixture that became the culture medium. The day after tomorrow, the temperature rose sharply two days later, and its fermentation was confirmed. After that, the fermentation was in good condition and almost completed on the seventh day. (Experimental example 2) (Mixture (ratio)) Pig manure and urine treatment 120kg (50%) Reduced compost 60kg (25%) Heated oil immersion treatment (treatment of kitchen waste) 60kg (25%)
-29- 200538419-29- 200538419
(27) 〔表2〕 經過 天氣 氣溫 混合物溫度 附註 天數 (°C ) fc ) 0 晴 28.0 30.0 添加有效性微生物 1 晴時多雲 27.0 56.0 確認發酵 2 晴 26.0 51.0 3 晴 27.0 57.0 4 多雲時雨 27.0 55.0 5 雨 26.5 56.0 6 雨時多雲 27.0 67.0 7 雨時多雲 26.0 58.0 8 雨 26.0 55.0 9 雨時多雲 26.5 60.0 10 多雲 27.0 59.0 11 多雲 26.5 63.5 完熟 (考察) 從表2可知,在將廚餘當作加熱油近處理物之原料的 實驗例2中,於成爲培養基之混合物內添加有效微生物的 隔天’也就是一天後,溫度即急遽地上升,並確認其之發 酵。之後’雖然天氣都不好但發酵仍以良好的狀態在進行 著,在第十一天時幾乎都已完熟。 進行用上述實驗例2之方法來製造的堆肥之分析。分 析的結果如表3所示。 -30- 200538419 (28) 〔表3〕 物質 符號 單位 堆肥 砷 As mg/kg (乾物中 ) 2.23 鎘 Cd mg/kg (乾物中 ) 0.58 全水銀 T-hg mg/kg (乾物中 ) 0.02 全氮 T-N % (乾物中) 1.75 全磷 P2O5 % (乾物中) 5.62 鉀 K2〇 % (乾物中) 2.01 鈣 CaO % (乾物中) 16.70 矽石 Si % (乾物中) 21.00 碳比率 C/N 5.5 水分量 h2o % 19.0 氫離子濃度 pH 試料:(水1 : 5 ) 8.1 銅 C u mg/kg (乾物中 ) 69.1 鋅 Zn mg/kg (乾物中 ) 43.2 鐵 Fe mg/kg (乾物中 ) 24 1 0(27) 〔Table 2〕 Number of days after the weather temperature mixture temperature (° C) fc) 0 Clear 28.0 30.0 Add effective microorganisms 1 Clear when cloudy 27.0 56.0 Confirm fermentation 2 Clear 26.0 51.0 3 Clear 27.0 57.0 4 Rain 27.0 55.0 5 Rain 26.5 56.0 6 Cloudy 27.0 67.0 7 Cloudy 26.0 58.0 8 Cloudy 26.0 55.0 9 Cloudy 26.5 60.0 10 Cloudy 27.0 59.0 11 Cloudy 26.5 63.5 Mature (examination) As shown in Table 2, kitchen waste is used as heating oil In Experimental Example 2 of the raw material of the near-processed product, the temperature was increased sharply the next day after adding effective microorganisms to the mixture that became the culture medium, that is, the temperature was rapidly increased, and the fermentation was confirmed. After that, although the weather was not good, the fermentation was still in good condition, and it was almost complete on the eleventh day. The analysis of the compost produced by the method of Experimental Example 2 was performed. The results of the analysis are shown in Table 3. -30- 200538419 (28) 〔Table 3〕 Substance symbol Unit compost As mg / kg (dry) 2.23 Cadmium Cd mg / kg (dry) 0.58 Total mercury T-hg mg / kg (dry) 0.02 Total nitrogen TN% (in dry) 1.75 Total phosphorus P2O5% (in dry) 5.62 Potassium K20% (in dry) 2.01 Calcium CaO% (in dry) 16.70 Silica Si% (in dry) 21.00 Carbon ratio C / N 5.5 Water content h2o% 19.0 Hydrogen ion concentration pH Sample: (water 1: 5) 8.1 Copper Cu mg / kg (dry) 69.1 Zinc Zn mg / kg (dry) 43.2 Iron Fe mg / kg (dry) 24 1 0
又,本申請書內所使用的用語與表現僅爲說明上之選 擇,不是限定的詞語,並無將與上述用語、表現等價之用 語、表現排除在外。又,並不僅限定於本發明所圖示的實 施形態,在技術思想的範圍內,可以有種種的變形。 【圖式簡單說明】 -31 - 200538419 (29) 第1圖係表示關於本發明之堆肥製造工廠之槪略的平 面圖。 第2圖係擴大關於本發明之堆肥製造工廠之一部分的 槪略平面圖。 第3圖係第2圖的槪略側視圖。 第4圖係表示有機廢棄物攪拌裝置之構造的正視斷面 說明圖。 # 第5圖係表示有機廢棄物攪拌裝置之構造的平視說明 圖。 第6圖係表示有機廢棄物攪拌裝置之構造的側視說明 圖。 第7圖係第3圖內的A-A部分剖視圖。 第8圖係將矽灰石選擇性地投入兩座有機廢棄物攪拌 裝置之轉閥裝置的一部分斷面說明圖。 第9圖係表示反應裝置構造的斷面說明圖。 【主要元件符號說明】 1、1 a :有機廢棄物攪拌裝置 2 :反應裝置 3 ··加熱油浸處理物供給裝置 4 :發酵裝置 5 :輸送用谷窃1 6 :有機廢棄物供給裝置 7 :矽灰石供給裝置 -32- 200538419 (30) 10: 12 : 20 : 21 : 22 : 23 : 2 4 : 25 : 26 : 27 : 40 : 4 1 : 60 : 61 : 62 : 63、 65 : 7 0 ·· 71 : 72 : 73 : 80 :In addition, the terms and expressions used in this application are only choices for explanation, and are not limited words. Terms and expressions equivalent to the above terms and expressions are not excluded. In addition, it is not limited to the embodiment shown in the present invention, and various modifications are possible within the scope of the technical idea. [Brief description of the drawings] -31-200538419 (29) Fig. 1 is a plan view showing the outline of the compost manufacturing plant of the present invention. Fig. 2 is an enlarged plan view showing a part of the compost manufacturing plant of the present invention. Figure 3 is a schematic side view of Figure 2. Fig. 4 is a front sectional explanatory view showing the structure of the organic waste stirring device. # Fig. 5 is a plan view illustrating the structure of an organic waste stirring device. Fig. 6 is a side explanatory view showing the structure of an organic waste stirring device. Fig. 7 is a cross-sectional view of part A-A in Fig. 3. Fig. 8 is an explanatory sectional view of a part of a rotary valve device in which wollastonite is selectively introduced into two organic waste stirring devices. Fig. 9 is a sectional explanatory view showing the structure of the reaction device. [Description of Symbols of Main Components] 1. 1a: Organic waste agitation device 2: Reaction device 3 · Heating oil immersion treatment material supply device 4: Fermentation device 5: Conveyance grain thief 16: Organic waste supply device 7: Wollastonite Supply Device-32- 200538419 (30) 10: 12: 20: 21: 22: 23: 24: 25: 26: 27: 40: 41: 60: 61: 62: 63, 65: 70 · 71: 72: 73: 80:
/¾酸供給裝置 匡架 攪拌槽 攪拌機 螺旋輸送機 馬達 導入管 硫酸導入管 接頭 固定配件 連接管 螺旋輸送機 發酵槽 移動攪拌裝置 槽 輸送管 切換閥 64 :輸送管 供給管 矽灰石槽 輸送螺旋 分配裝置 旋風式分離器 硫酸槽 -33 200538419 (31) 8 1 :輸送管 8 2 :幫浦 8 3 :注入管 9 0 :.支柱 9 1 :連結構件 92 :作業平臺/ ¾Acid supply device Marina rack mixing tank mixer screw conveyor motor inlet tube sulfuric acid inlet tube joint fixing accessories connection tube screw conveyor fermentation tank mobile stirring device tank transfer tube switching valve 64: supply tube supply tube wollastonite tank transfer screw distribution Cyclone separator sulfuric acid tank -33 200538419 (31) 8 1: Conveying tube 8 2: Pump 8 3: Injection tube 9 0:. Pillar 9 1: Connecting member 92: Working platform
93 :扶手 9 4 :底板 1 0 1 :上面板 102 :導入管 1 0 3 :艙口 1 04 :安裝管 1 〇 5 :底面板 106 :排出管 107 :閥 1 〇 8 :輸送管 109 :供給管 1 1 0 :側面板 1 1 1 :拉條 1 1 2 :連結管 1 2 0 :馬達 1 2 1 :旋轉軸 122 :攪拌螺旋 1 2 3 :攪拌控制體 -34 200538419 (32) 201 :圓管 2 0 2 :螺旋 2 3 0 :側壁 231 :擋板 6 5 0 :鼓風機 720 :殼 721、 722 :圍壁93: handrail 9 4: bottom plate 1 0 1: upper panel 102: introduction pipe 1 0 3: hatch 1 04: mounting pipe 1 05: bottom panel 106: discharge pipe 107: valve 1 08: delivery pipe 109: supply Tube 1 1 0: Side panel 1 1 1: Pull bar 1 1 2: Connecting tube 1 2 0: Motor 1 2 1: Rotating shaft 122: Stirring screw 1 2 3: Stirring control body-34 200538419 (32) 201: Round Tube 2 0 2: Spiral 2 3 0: Side wall 231: Baffle 6 5 0: Blower 720: Shell 721, 722: Wall
7 2 3 ··導入口 724、 725 :排出口 7 2 3 a ··導入 724a、 725a :排出管 726 :切換閥 7 2 6 a :短閥部 7 2 6b:長閥部 727 :旋轉閥 727a :旋轉軸管 727b :閥板 7 3 0 :排出管 731 :鼓風機 8 3 0 :分岔管 P :堆肥製造工廠 -357 2 3 ·· Inlet ports 724, 725: Discharge port 7 2 3a ·· Introduction 724a, 725a: Discharge pipe 726: Switching valve 7 2 6 a: Short valve portion 7 2 6b: Long valve portion 727: Rotary valve 727a : Rotary shaft tube 727b: Valve plate 7 3 0: Discharge tube 731: Blower 8 3 0: Branch tube P: Compost manufacturing plant -35
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JP5750722B2 (en) * | 2011-03-11 | 2015-07-22 | 国立研究開発法人産業技術総合研究所 | Treatment method of organic waste liquid |
JPWO2022124110A1 (en) * | 2020-12-08 | 2022-06-16 |
Family Cites Families (7)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
JPS56145185A (en) * | 1981-03-09 | 1981-11-11 | Nakazono Shuzo | Manufacture of fodder and fertilizer from human, chicken, pig and ox manure and their urine |
JPH01141891A (en) * | 1987-11-28 | 1989-06-02 | Hiroshi Shioashi | Method for preparing agriculturally active agent |
JPH0751468B2 (en) * | 1987-12-22 | 1995-06-05 | 株式会社ウェルテック | Fermentation effluent or method for treating excess sludge produced by biological treatment of effluent |
JPH02224637A (en) * | 1988-11-16 | 1990-09-06 | A T R Tsushin Syst Kenkyusho:Kk | System for detecting glance |
JP2854119B2 (en) * | 1990-10-23 | 1999-02-03 | 有限会社土壌微生物バイオ研究所 | Fermentation product and method for producing the same |
JPH06254599A (en) * | 1993-03-01 | 1994-09-13 | Norio Namikata | Device for treating waste such as cattle dung |
JPH10152385A (en) * | 1996-11-19 | 1998-06-09 | Keiji Kaneyuki | Production of organic fertilizer |
-
2004
- 2004-03-22 JP JP2004083721A patent/JP3735632B2/en not_active Expired - Fee Related
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2005
- 2005-02-09 WO PCT/JP2005/001959 patent/WO2005090264A1/en active Application Filing
- 2005-03-21 TW TW94108655A patent/TW200538419A/en unknown
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WO2005090264A1 (en) | 2005-09-29 |
JP2005272154A (en) | 2005-10-06 |
JP3735632B2 (en) | 2006-01-18 |
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