JP2001000990A - Wastewater treatment apparatus - Google Patents

Wastewater treatment apparatus

Info

Publication number
JP2001000990A
JP2001000990A JP17510499A JP17510499A JP2001000990A JP 2001000990 A JP2001000990 A JP 2001000990A JP 17510499 A JP17510499 A JP 17510499A JP 17510499 A JP17510499 A JP 17510499A JP 2001000990 A JP2001000990 A JP 2001000990A
Authority
JP
Japan
Prior art keywords
tank
wastewater treatment
raw water
aerobic microorganisms
microorganism
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
JP17510499A
Other languages
Japanese (ja)
Inventor
Tadahisa Iwasaki
忠久 岩崎
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Individual
Original Assignee
Individual
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Individual filed Critical Individual
Priority to JP17510499A priority Critical patent/JP2001000990A/en
Publication of JP2001000990A publication Critical patent/JP2001000990A/en
Pending legal-status Critical Current

Links

Classifications

    • 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
    • Y02W10/00Technologies for wastewater treatment
    • Y02W10/10Biological treatment of water, waste water, or sewage

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  • Biological Treatment Of Waste Water (AREA)

Abstract

PROBLEM TO BE SOLVED: To eliminate the necessity for stopping a wastewater treatment apparatus for a long time for the purpose of maintenance not only to facilitate maintenance but also to reduce a maintenance cost. SOLUTION: This wastewater treatment apparatus has an air source (air pump) 16 for supplying air to the propagation tank body 15 of a microorganism propagation tank B1, a control device 17 for controlling an air supply amt. and temp. and a water supply pipe 18 for supplying fresh water and, further, has a contact material housing part 21 packed with a contact material having a nutrient source of aerobic microorganisms in the propagation tank main body 15 and a bio-cartridge 20 for culturing aerobic microorganisms is mounted in a freely detachable manner and a microorganism supply pipe 26 is connected to a wastewater treatment tank B2 into which raw water is introduced.

Description

【発明の詳細な説明】DETAILED DESCRIPTION OF THE INVENTION

【0001】[0001]

【発明の属する技術分野】本発明は、有機物を含有する
排水(食品排水,畜産排水,生活排水,工場排水)を好
気性微生物よって浄化処理する排水処理装置に関するも
のである。
BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a wastewater treatment apparatus for purifying wastewater containing organic substances (food wastewater, livestock wastewater, domestic wastewater, industrial wastewater) by aerobic microorganisms.

【0002】[0002]

【従来の技術】食品排水、畜産排水、生活排水、工場排
水等の排水中に含まれる有機物を好気性微生物で分解処
理する排水処理装置に関しては、特開平10−3286
83号公報に記載された技術等が提案されている。この
公報に記載されている技術について図2に基づいて説明
する。この排水処理装置Aは、縦型の処理槽1の内壁面
の上下2箇所に、多孔板より構成される上部支持部材2
および下部支持部材3が架け渡され、両支持部材2、3
の間に好気性微生物を担持した充填材を詰めた微生物充
填層4が形成されている。また、上部支持部材2の上に
比重が水よりも軽い球状体5を多数層状に敷き詰めるこ
とによって、原水分散層6が形成されている。
2. Description of the Related Art A wastewater treatment apparatus for decomposing organic substances contained in wastewater such as food wastewater, livestock wastewater, domestic wastewater, and industrial wastewater with aerobic microorganisms is disclosed in Japanese Patent Application Laid-Open No. 10-3286.
No. 83 has proposed a technique and the like. The technique described in this publication will be described with reference to FIG. The wastewater treatment apparatus A includes an upper support member 2 made of a perforated plate at two upper and lower locations on the inner wall surface of a vertical treatment tank 1.
And the lower support member 3 are bridged.
Between them, a microorganism-filled layer 4 filled with a filler carrying aerobic microorganisms is formed. A raw water dispersion layer 6 is formed by laying a large number of spherical bodies 5 having a specific gravity lighter than water on the upper support member 2 in layers.

【0003】更に、前記処理槽1の天井部には、微生物
を含む排水(原水)を処理槽1内に導入する原水供給管
7と、空気を処理槽1内に導入する吸気管8とが接続さ
れると共に、前記原水供給管7の下方に、傘形状に形成
され全面に多数の吐出孔9aが形成された散水部材9が
設けられている。また、前記下部支持部材3の下方に
は、排水管10と排気ファン12を備えた排気管11が
設けられている。
Further, a raw water supply pipe 7 for introducing wastewater (raw water) containing microorganisms into the processing tank 1 and an intake pipe 8 for introducing air into the processing tank 1 are provided at the ceiling of the processing tank 1. A sprinkling member 9 which is connected and has an umbrella shape and has a large number of discharge holes 9a formed on the entire surface is provided below the raw water supply pipe 7. An exhaust pipe 11 having a drain pipe 10 and an exhaust fan 12 is provided below the lower support member 3.

【0004】以上のように構成された排水処理装置A
は、原水供給管7から供給される原水(排水)が散水部
材9に当たって、前記散水部材9の周囲に落下する。こ
のとき、散水部材9に設けられた多数の吐出孔9aから
原水(排水)が落下するので、原水は処理槽1内部に全
体に細かく分散され、空気に触れながら原水分散層6に
降り注ぐ。原水分散層6に落下した原水(排水)は、多
数の球状体5の隙間を通過する間に更に均一に分散さ
れ、多孔性の上部支持部材2を通過して微生物充填層4
に入る。
The wastewater treatment apparatus A configured as described above
The raw water (drainage) supplied from the raw water supply pipe 7 hits the water sprinkling member 9 and falls around the water sprinkling member 9. At this time, the raw water (drainage) falls from the large number of discharge holes 9a provided in the water sprinkling member 9, so that the raw water is finely dispersed throughout the treatment tank 1 and falls down to the raw water dispersion layer 6 while touching the air. The raw water (drainage) that has fallen into the raw water dispersion layer 6 is more uniformly dispersed while passing through the gaps between the numerous spherical bodies 5, passes through the porous upper support member 2, and passes through the microbe-packed layer 4.
to go into.

【0005】微生物充填層4内の好気性微生物は、原水
(排水)と共に供給される空気(酸素)により増殖し活
発化して、微生物充填層4内を流下する原水(排水)内
に含まれる有機物を分解処理して原水(排水)を浄化す
る。このようにして、有機物を処理されて浄化した原水
(排水)は、排水管10を経由して外部の河川あるいは
後処理を行う別の設備に排出される。また、有機物の分
解により発生したガスは空気と共に排気ファン12によ
り排気管11より排出される。
[0005] The aerobic microorganisms in the microorganism-packed layer 4 are proliferated and activated by air (oxygen) supplied together with the raw water (drainage), and organic substances contained in the raw water (drainage) flowing down in the microorganism-packed layer 4. To purify raw water (effluent). In this way, the raw water (drainage) that has been treated and purified of the organic matter is discharged to an external river or another facility that performs post-processing via the drain pipe 10. The gas generated by the decomposition of the organic matter is exhausted from the exhaust pipe 11 by the exhaust fan 12 together with the air.

【0006】ところで、前記処理槽1内に挿入される原
水(排水)には不溶性の夾雑物が多く含まれているの
で、前記夾雑物が球状体5に付着して、球状体5の隙間
に目詰まりが生ずる。このとき、原水(排水)は原水分
散層6を通過できなくなって原水が原水分散層6の上面
に溜まるが、球状体5の比重は原水(排水)よりも小さ
いため原水の水面に浮上する。その結果、前記球状体5
間に隙間が生じ、原水(排水)は、原水分散層6を通過
して微生物充填層4内に流れ込む。このように、原水分
散層6に生じる目詰まりは自動的に解除され、原水(排
水)は原水分散層6の通過を妨げられない。
Since raw water (drainage) inserted into the treatment tank 1 contains a lot of insoluble contaminants, the contaminants adhere to the spheres 5 and form in the gaps between the spheres 5. Clogging occurs. At this time, the raw water (drain) cannot pass through the raw water dispersion layer 6 and the raw water accumulates on the upper surface of the raw water dispersion layer 6, but floats on the surface of the raw water because the specific gravity of the spherical body 5 is smaller than the raw water (drain). As a result, the spherical body 5
A gap is formed between the raw water and the raw water (drainage) flows through the raw water dispersion layer 6 and flows into the microorganism-filled layer 4. In this way, the clogging that occurs in the raw water dispersion layer 6 is automatically released, and the raw water (drainage) is not prevented from passing through the raw water dispersion layer 6.

【0007】[0007]

【発明が解決しようとする課題】しかし、不溶性の夾雑
物は、処理槽1の外に排出されないまま、原水分散層6
内に蓄積されるか、あるいはまた微生物充填層4内に入
り込んで好気性微生物を担持する充填材を被覆する。前
記充填材が被覆されると、酸素が十分に供給されなくな
り、好気性微生物の活動が次第に低下し、遂には死滅す
る。そのため、排水処理装置Aの運転を定期的に停止し
て、処理槽1の内部に溜まった不溶性の夾雑物を除去す
る必要があった。
However, the insoluble contaminants are not discharged out of the treatment tank 1 and are kept in the raw water dispersion layer 6.
The aerobic microorganism-carrying filler, which accumulates therein or alternatively penetrates the microorganism-packed layer 4. When the filler is coated, oxygen is not supplied sufficiently, and the activity of the aerobic microorganisms gradually decreases and eventually dies. Therefore, it is necessary to periodically stop the operation of the wastewater treatment apparatus A to remove insoluble contaminants accumulated inside the treatment tank 1.

【0008】この原水分散層6または、および微生物充
填層4に溜まった不溶性の夾雑物は、掃除程度の作業で
は除去することができないため、原水分散層6または、
および微生物充填層4の取り替え作業を行わなければな
らない。前記原水分散層6または、および微生物充填層
4を取り替える作業には、多大な労力と作業時間が必要
であり、排水処理装置Aの停止時間が長くなる問題と、
メインテナンス費用が高価になる問題があった。
[0008] The insoluble contaminants accumulated in the raw water dispersion layer 6 or the microorganism-filled layer 4 cannot be removed by an operation such as cleaning, so that the raw water dispersion layer 6 or
And the work of replacing the microorganism-packed layer 4 must be performed. The operation of replacing the raw water dispersion layer 6 or the microorganism-filled layer 4 requires a great deal of labor and operation time, and the problem that the stop time of the wastewater treatment device A becomes longer.
There was a problem that maintenance costs became expensive.

【0009】また、前記したように不溶性の夾雑物が充
填材を被覆することによって、好気性微生物が死滅した
場合、あるいは原水(排水)が変化し、好気性微生物の
活動が次第に低下し、死滅した場合には、新たな好気性
微生物を担持する充填材に交換しなければならない。か
かる交換作業は、前記した場合と同様、多大な労力と作
業時間が必要であり、排水処理装置Aの停止時間が長く
なる問題と、メインテナンス費用が高価になる問題があ
った。
[0009] Further, as described above, when the insoluble contaminants cover the filler, the aerobic microorganisms are killed, or the raw water (drainage) is changed, and the activity of the aerobic microorganisms is gradually reduced and the aerobic microorganisms are killed. In this case, the filler must be replaced with a new aerobic microorganism-carrying material. As in the case described above, such replacement work requires a great deal of labor and work time, and thus has a problem that the stop time of the wastewater treatment device A is prolonged and a problem that maintenance costs are high.

【0010】本発明はかかる課題を解決するためになさ
れたものであり、メインテナンスのために排水処理装置
を長時間停止する必要もなく、しかもメインテナンスを
容易にし、その費用を安価にすることができる排水処理
装置を提供するものである。
SUMMARY OF THE INVENTION The present invention has been made to solve such a problem, and there is no need to stop the wastewater treatment apparatus for a long time for maintenance. Moreover, the maintenance can be facilitated and the cost can be reduced. A wastewater treatment device is provided.

【0011】[0011]

【課題を解決するための手段】上記目的を達成するため
に、本発明の排水処理装置は、好気性微生物の栄養源を
有する接触材を内部に収容する微生物増殖槽に、好気性
微生物を培養したバイオカートリッジを着脱自在に装着
すると共に、前記微生物増殖槽に清水を補給する補水管
と、前記微生物増殖槽に空気を供給する空気源と、前記
微生物増殖槽内の微生物含有清水を排水処理槽に供給す
る供給管とを設けたことを特徴としている。
Means for Solving the Problems To achieve the above object, a wastewater treatment apparatus according to the present invention comprises a method for culturing aerobic microorganisms in a microorganism growing tank containing a contact material having a nutrient source of aerobic microorganisms therein. The detachable bio cartridge is detachably mounted, a water supply pipe for supplying fresh water to the microorganism growth tank, an air source for supplying air to the microorganism growth tank, and a drainage treatment tank for the microorganism-containing fresh water in the microorganism growth tank. And a supply pipe for supplying the supply pipe.

【0012】上記のような構成により、好気性微生物を
培養したバイオカートリッジを微生物増殖槽内に取り付
ける簡単な作業で好気性微生物を補充することができ
る。したがって、原水(排水)が変化し、好気性微生物
の活動が低下し、あるいはまた死滅した場合にも、新た
な好気性微生物を培養したバイオカートリッジに容易に
交換することができる。
With the above configuration, the aerobic microorganisms can be replenished by a simple operation of mounting the biocartridge in which the aerobic microorganisms are cultured in the microorganism growth tank. Therefore, even when the raw water (drainage) changes, the activity of the aerobic microorganisms is reduced, or the aerobic microorganisms are killed, they can be easily replaced with biocartridges in which new aerobic microorganisms are cultured.

【0013】この好気性微生物は、微生物増殖槽内の接
触材より採取する栄養と、空気源から供給される空気と
により清水の中で活性化された状態で、排水処理槽内に
送られ、排水処理槽内の有機物を分解処理する。前記微
生物増殖槽内は、従来のように原水(排水)が供給され
ないので不溶性の夾雑物が付着することはなく、また排
水処理槽内には微生物充填層が設けられていないため、
不溶性の夾雑物が滞留することはなく、槽内の清掃等の
作業を極力少なくすることができる。その結果、排水処
理装置を連続運転でき、メインテナンス費用を安価にす
ることができる。
The aerobic microorganisms are sent to a wastewater treatment tank in a state where they are activated in fresh water by nutrients collected from a contact material in a microorganism growth tank and air supplied from an air source, The organic matter in the wastewater treatment tank is decomposed. Since the raw water (drainage) is not supplied to the inside of the microorganism growth tank as in the prior art, insoluble contaminants do not adhere thereto, and since no microorganism-filled layer is provided in the wastewater treatment tank,
Insoluble contaminants do not stay, and work such as cleaning of the tank can be minimized. As a result, the wastewater treatment device can be operated continuously, and maintenance costs can be reduced.

【0014】ここで、前記接触材は栄養源を含有する多
孔質体であるのが好ましい。この構成により、好気性微
生物は、多孔質体に含まれる栄養源として培養され、空
気との接触で活性化される。また、前記微生物増殖槽内
に、前記補水管から前記バイオカートリッジへの清水経
路の間に塩素除去部材が設けられることが望ましい。こ
の構成により、微生物増殖槽内に供給する清水として塩
素を含む市水(水道水)を使用することができる。
Here, the contact material is preferably a porous material containing a nutrient source. With this configuration, the aerobic microorganism is cultured as a nutrient source contained in the porous body and activated by contact with air. Further, it is preferable that a chlorine removing member is provided in the microorganism growth tank between the fresh water pipe and the fresh water path from the biocartridge. With this configuration, city water (tap water) containing chlorine can be used as fresh water supplied into the microorganism growth tank.

【0015】更に、前記空気源をエアポンプとし、前記
エアポンプの運転制御と槽内の温度制御を行う制御装置
を微生物増殖槽に設けることが望ましい。この構成によ
り、好気性微生物に必要な空気の供給と、好気性微生物
の増殖に必要な温度管理を自動的に行うことができる。
Further, it is preferable that the air source is an air pump, and a control device for controlling the operation of the air pump and controlling the temperature in the tank is provided in the microorganism growth tank. With this configuration, it is possible to automatically supply air necessary for the aerobic microorganisms and control the temperature required for the growth of the aerobic microorganisms.

【0016】[0016]

【発明の実施の形態】以下、発明の実施の形態の具体例
を図面を参照して説明する。図1は本発明に係る排水処
理装置Bの要部を示す概略図であり、排水処理装置Bは
微生物増殖槽B1 と排水処理槽B2 (図1には排水処理
槽B2 の一部分を示す)とにより構成される。前記微生
物増殖槽B1 は、図1に示すように、長方形の箱形状に
形成された増殖槽本体15の外壁面にエアポンプ(空気
源)16と制御装置17が取り付けられ、また清水補給
源(図示しない)からの補水管18の端部が接続されて
いる。
Embodiments of the present invention will be described below with reference to the drawings. Figure 1 is a schematic view showing the main part of the waste water treatment apparatus B according to the present invention, the waste water treatment apparatus B microbial growth tank B 1 and waste water treatment tank B 2 (a portion of the wastewater treatment tank B 2 in FIG. 1 Shown). As shown in FIG. 1, the microorganism growth tank B 1 has an air pump (air source) 16 and a control device 17 attached to an outer wall surface of a growth tank main body 15 formed in a rectangular box shape. The end of the water refill pipe 18 (not shown) is connected.

【0017】また、前記増殖槽本体15の内部には、補
水管18の端部に隣接する塩素除去部材19と、着脱自
在に装着されるバイオカートリッジ20と、接触材収容
部21が設けられている。前記塩素除去部材19は市水
(水道水)に含まれる塩素を除去するもので、塩素を除
去した清水が、バイオカートリッジ20内に培養された
好気性微生物に供給される。また、前記接触材収容部2
1には、好気性微生物の栄養源を有する接触材が収容さ
れている。また接触材収容部21には、エアポンプ16
の給気管16aが挿入され、温度センサ22とヒータ2
3が設けられている。
Further, inside the breeding tank body 15, a chlorine removing member 19 adjacent to the end of the water refilling pipe 18, a biocartridge 20 which is detachably mounted, and a contact material accommodating section 21 are provided. I have. The chlorine removing member 19 removes chlorine contained in city water (tap water). Fresh water from which chlorine has been removed is supplied to the aerobic microorganisms cultured in the biocartridge 20. In addition, the contact material storage section 2
1 contains a contact material having a nutrient source of aerobic microorganisms. The contact material accommodating section 21 has an air pump 16
Air supply pipe 16a is inserted, the temperature sensor 22 and the heater 2
3 are provided.

【0018】前記接触材には、好気性微生物の栄養源を
保持し易いように多孔質が用いられ、本発明の実施形態
では、セラミック材よりなる多孔質体が使用される。エ
アポンプ16は、好気性微生物に空気を供給するもの
で、制御装置17により運転制御される。また、前記温
度センサ22は、増殖槽本体15内の温度を好気性微生
物に適した温度を検知するもので、温度が下がると制御
装置17の指令でヒータ23が加熱されるように構成さ
れている。
As the contact material, a porous material is used so as to easily hold a nutrient source of aerobic microorganisms. In the embodiment of the present invention, a porous material made of a ceramic material is used. The air pump 16 supplies air to the aerobic microorganisms, and its operation is controlled by the control device 17. The temperature sensor 22 detects the temperature in the growth tank main body 15 at a temperature suitable for aerobic microorganisms, and is configured such that when the temperature decreases, the heater 23 is heated by a command from the control device 17. I have.

【0019】また排水処理槽B2 は、有機物を含有する
原水(排水)に好気性微生物を混入した後に、曝気によ
り好気性微生物の活動を活発化して有機物を積極的に分
解処理するものであり、有機物を除去した後には汚泥を
沈殿により除去し、更に曝気や調整を行って浄化した水
を放流するものである。この排水処理槽B2 は、その処
理工程毎に、処理槽を有している。図1に示す原水槽2
4は好気性微生物を混入するものであって、原水槽24
の後段には図示しないが、後処理の処理槽が設けられて
いる。前記したように、原水(排水)に好気性微生物を
混入する原水槽24には、図1に示すように、原水流入
管25と、微生物増殖槽B1 に連結される微生物補給管
26と、好気性微生物を混合した原水を次工程の処理槽
(図示しない)に送る送給管27が設けられる。
The wastewater treatment tank B 2 is for aerobic microorganisms to be activated by the aeration after the aerobic microorganisms are mixed in the raw water (drainage) containing the organic matter, thereby actively decomposing the organic matter. After removing organic substances, sludge is removed by settling, and aerated and adjusted water is discharged. The waste water treatment tank B 2 are each the processing step includes a processing tank. Raw water tank 2 shown in FIG.
Numeral 4 is for mixing aerobic microorganisms.
Although not shown, a post-treatment bath is provided at the subsequent stage. As described above, the raw water tank 24 to be mixed aerobic microorganisms in the raw water (waste water), as shown in FIG. 1, a raw water inlet pipe 25, the microorganisms supply pipe 26 connected to microbial growth tank B 1, A feed pipe 27 for feeding raw water mixed with aerobic microorganisms to a processing tank (not shown) in the next step is provided.

【0020】微生物増殖槽B1 で培養され活性化された
好気性微生物が清水と共に微生物補給管26を通して原
水槽24に送られてくるので、原水槽24には好気性微
生物を含有する清水と原水(排水)とを混合するスペー
スがあればよく、従来例に見られるように微生物充填層
4や、微生物充填層4に原水を均一に供給するための原
水分散層6を設置する必要がない。従って、従来例のよ
うに、微生物充填層4や原水分散層6のような複雑な設
備に不溶性の夾雑物が次第に固着され、好気性微生物の
活動が低下する問題は生じるない。その結果、微生物充
填層4や原水分散層6を交換する面倒なメインテナンス
作業を行わう必要がない。
The aerobic microorganisms cultured and activated in the microorganism growth tank B 1 are sent to the raw water tank 24 through the microorganism supply pipe 26 together with the fresh water, so that the raw water tank 24 contains fresh water containing aerobic microorganisms and raw water. It is sufficient if there is a space for mixing with the wastewater, and it is not necessary to provide the microorganism-filled layer 4 and the raw water dispersion layer 6 for uniformly supplying the raw water to the microorganism-filled layer 4 as seen in the conventional example. Therefore, unlike in the conventional example, insoluble contaminants are gradually fixed to complicated facilities such as the microorganism-filled layer 4 and the raw water dispersion layer 6, and there is no problem that the activity of the aerobic microorganisms is reduced. As a result, there is no need to perform a troublesome maintenance operation of exchanging the microorganism packed layer 4 and the raw water dispersion layer 6.

【0021】一方、微生物増殖槽B1 には不溶性の夾雑
物を含む原水(排水)が流入しないので、内部の塩素除
去部材19、バイオカートリッジ20、接触部材収容部
21および温度センサ22が不溶性の夾雑物に汚染され
ることはない。また、接触部材収容部21に充填されて
いる多孔性の接触材についても、目詰まりが発生しない
ため、大がかりな清掃や部品交換を行う必要がない。ま
た、好気性微生物を補充する必要が生じた場合でも、バ
イオカートリッジ20だけを交換する簡単な作業でよ
い。
On the other hand, since the raw water (drainage) containing insoluble contaminants does not flow into the microorganism growth tank B 1 , the chlorine removing member 19, the biocartridge 20, the contact member housing 21 and the temperature sensor 22 are insoluble. There is no contamination by contaminants. Also, the porous contact material filled in the contact member accommodating portion 21 does not need to be extensively cleaned or replaced because no clogging occurs. Further, even when it becomes necessary to replenish aerobic microorganisms, a simple operation of replacing only the biocartridge 20 is sufficient.

【0022】更に、微生物増殖槽B1 内の温度は、不溶
性の夾雑物に汚染されない温度センサ22により正確に
検知され、好気性微生物を培養するための最適温度より
も低くなると、温度センサ22の信号を受けた制御装置
17がヒータ23を作動して最適温度に保持する。この
制御装置17は、エアポンプ16の運転と制御すると共
に、原水槽24に投入される原水量に応じて微生物補給
管26へ送給する好気性微生物の量を制御することによ
り、微生物増殖槽B1 内の有機物の処理条件を制御す
る。
Further, the temperature in the microorganism growth tank B 1 is accurately detected by the temperature sensor 22 which is not contaminated by insoluble contaminants, and when the temperature becomes lower than the optimum temperature for culturing the aerobic microorganisms, the temperature of the temperature sensor 22 becomes lower. Upon receiving the signal, the control device 17 operates the heater 23 to maintain the optimum temperature. The control device 17 controls the operation of the air pump 16 and controls the amount of aerobic microorganisms to be supplied to the microorganism supply pipe 26 in accordance with the amount of raw water supplied to the raw water tank 24, whereby the microorganism growth tank B is controlled. 1. Control the processing conditions of organic substances in 1 .

【0023】微生物増殖槽B1 内で有機物を分解処理さ
れた原水(排水)は、送給管27より後工程の曝気槽に
送られて更に有機物の除去が行われ、沈殿槽で沈殿した
汚泥が分離され、水中ブロア槽で更に曝気や調整が行わ
れて浄化された後に下水道に放流されるか、あるいはリ
サイクルされる。
The degradation treated raw water organic matter microbial growth tank B within 1 (drainage) further removal of organic matter is sent to the aeration tank of post-process from the feed pipe 27 is performed, the precipitated sludge in the settling tank Is separated and purified by further aeration and adjustment in an underwater blower tank, and then discharged to a sewer or recycled.

【0024】[0024]

【発明の効果】本発明は以上述べたように構成されてい
るので、好気性微生物を培養する多孔性の接触材が原水
(排水)中に含まれる不溶性の夾雑物に接触して目詰ま
りを起こす虞れはなく、バイオカートリッジにより好気
性微生物の補充も簡単に行うことができる。従って、本
発明にかかる排水処理装置にあっては、従来のような排
水処理装置を停止して接触材を交換するような面倒なメ
インテナンスを行う必要がなくなった。
According to the present invention, the porous contact material for cultivating aerobic microorganisms comes into contact with insoluble contaminants contained in raw water (drainage) to prevent clogging. There is no danger of aerobic microorganisms being replenished by the biocartridge. Therefore, in the wastewater treatment apparatus according to the present invention, it is no longer necessary to perform a troublesome maintenance such as stopping the wastewater treatment apparatus and replacing the contact material as in the related art.

【図面の簡単な説明】[Brief description of the drawings]

【図1】図1は、排水処理装置の要部を説明する概略図
である。
FIG. 1 is a schematic diagram illustrating a main part of a wastewater treatment device.

【図2】図2は、排水処理装置の従来例を示す縦断面概
略図である。
FIG. 2 is a schematic longitudinal sectional view showing a conventional example of a wastewater treatment device.

【符号の説明】[Explanation of symbols]

B 排水処理装置 B1 微生物増殖槽 B2 排水処理槽 15 増殖槽本体 16 エアポンプ 17 制御装置 18 補水管 19 塩素除去部材 20 バイオカートリッジ 21 接触材収容部 22 温度センサ 23 ヒータ 24 原水槽 25 原水流入管 26 微生物補給管 27 送給管B wastewater treatment device B 1 microbial growth tank B 2 wastewater treatment tank 15 growth tank body 16 the air pump 17 control unit 18 Homizukan 19 chlorine removal member 20 Bio cartridge 21 contact material container 22 a temperature sensor 23 the heater 24 the raw water tank 25 water inlet pipe 26 Microbial supply tube 27 Feeding tube

Claims (4)

【特許請求の範囲】[Claims] 【請求項1】 好気性微生物の栄養源を有する接触材を
内部に収容する微生物増殖槽に、好気性微生物を培養し
たバイオカートリッジを着脱自在に装着すると共に、前
記微生物増殖槽に清水を補給する補水管と、前記微生物
増殖槽に空気を供給する空気源と、前記微生物増殖槽内
の微生物含有清水を排水処理槽に供給する供給管とを設
けたことを特徴とする排水処理装置。
1. A biocartridge in which aerobic microorganisms are cultured is detachably mounted on a microbial growth tank containing a contact material having a nutrient source of aerobic microorganisms therein, and fresh water is supplied to the microbial growth tank. A wastewater treatment apparatus comprising: a water supply pipe, an air source for supplying air to the microorganism growth tank, and a supply pipe for supplying fresh water containing microorganisms in the microorganism growth tank to a wastewater treatment tank.
【請求項2】 前記接触材は栄養源を含有する多孔質体
であることを特徴とする請求項1に記載された排水処理
装置。
2. The wastewater treatment apparatus according to claim 1, wherein the contact material is a porous body containing a nutrient source.
【請求項3】 前記微生物増殖槽内に、前記補水管から
前記バイオカートリッジへの清水経路の間に塩素除去部
材が設けられることを特徴とする請求項1または請求項
2のいずれかに記載された排水処理装置。
3. The method according to claim 1, wherein a chlorine removing member is provided in the microorganism growth tank between the fresh water pipe and the fresh water path from the biocartridge. Wastewater treatment equipment.
【請求項4】 前記空気源をエアポンプとし、前記エア
ポンプの運転制御と槽内の温度制御を行う制御装置を設
けたことを特徴とする請求項1乃至請求項3のいずれか
に記載された排水処理装置。
4. The drainage according to claim 1, wherein the air source is an air pump, and a control device for controlling the operation of the air pump and controlling the temperature in the tank is provided. Processing equipment.
JP17510499A 1999-06-22 1999-06-22 Wastewater treatment apparatus Pending JP2001000990A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP17510499A JP2001000990A (en) 1999-06-22 1999-06-22 Wastewater treatment apparatus

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP17510499A JP2001000990A (en) 1999-06-22 1999-06-22 Wastewater treatment apparatus

Publications (1)

Publication Number Publication Date
JP2001000990A true JP2001000990A (en) 2001-01-09

Family

ID=15990339

Family Applications (1)

Application Number Title Priority Date Filing Date
JP17510499A Pending JP2001000990A (en) 1999-06-22 1999-06-22 Wastewater treatment apparatus

Country Status (1)

Country Link
JP (1) JP2001000990A (en)

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US6767464B2 (en) 2001-12-13 2004-07-27 Environmental Operating Solutions, Inc. Process and apparatus for waste water treatment
JP2007160132A (en) * 2005-12-09 2007-06-28 Tsukishima Kikai Co Ltd Filtration unit
CN106745682A (en) * 2017-02-20 2017-05-31 新阳科技集团有限公司 A kind of sewage water treatment method of the impact resistance for improving aerobic bacteria

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US6767464B2 (en) 2001-12-13 2004-07-27 Environmental Operating Solutions, Inc. Process and apparatus for waste water treatment
US7144509B2 (en) 2001-12-13 2006-12-05 Environmental Operating Solutions, Inc. Process and apparatus for waste water treatment
JP2007160132A (en) * 2005-12-09 2007-06-28 Tsukishima Kikai Co Ltd Filtration unit
US8142655B2 (en) 2005-12-09 2012-03-27 Tsukishima Kikai Co., Ltd. Filtration unit
CN106745682A (en) * 2017-02-20 2017-05-31 新阳科技集团有限公司 A kind of sewage water treatment method of the impact resistance for improving aerobic bacteria

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