JP2002186962A - Pressurized whirl type floatation and separation wastewater treatment equipment - Google Patents
Pressurized whirl type floatation and separation wastewater treatment equipmentInfo
- Publication number
- JP2002186962A JP2002186962A JP2000404543A JP2000404543A JP2002186962A JP 2002186962 A JP2002186962 A JP 2002186962A JP 2000404543 A JP2000404543 A JP 2000404543A JP 2000404543 A JP2000404543 A JP 2000404543A JP 2002186962 A JP2002186962 A JP 2002186962A
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- Japan
- Prior art keywords
- water
- sewage
- cylinder
- treatment
- wastewater
- 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.)
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Links
Landscapes
- Separation Of Suspended Particles By Flocculating Agents (AREA)
- Physical Water Treatments (AREA)
- Treatment Of Water By Oxidation Or Reduction (AREA)
Abstract
Description
【0001】[0001]
【発明の属する技術分野】本発明は一般家庭並びに各種
産業分野にて発生するところの水質汚濁物質等を溶存し
た汚水中から当該汚濁物質を速やかに浮上分離させると
ともに、オゾンによる殺菌と脱色並びに脱臭処理を施す
事を可能とした汚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 method for quickly floating and separating a pollutant from a wastewater in which water pollutants and the like generated in general households and various industrial fields are dissolved, and sterilization, decolorization and deodorization with ozone. The present invention relates to a sewage treatment apparatus capable of performing a treatment.
【0002】[0002]
【発明の背景】汚水処理技術分野における個液分離によ
る汚水処理方法においては、有機性、無機性、並びに高
分子系の凝集剤等を単独、あるいはそれらを複合させ使
用する凝集・沈澱処理なるものが確立されており、近年
に於いては新しい凝集剤としてバイオ凝集剤が注目され
ている。 また一方では前述した凝集・沈澱処理とは逆
の原理に基づく浮上処理なるものが原理的にほぼ確立さ
れた物となっている。BACKGROUND OF THE INVENTION In the field of sewage treatment in the field of sewage treatment, sewage treatment by separation of individual liquids involves a coagulation / precipitation treatment using an organic, inorganic or polymeric flocculant alone or in combination. Has been established, and in recent years, biocoagulants have been attracting attention as new coagulants. On the other hand, a levitation treatment based on a principle opposite to the above-described aggregation / precipitation treatment has been almost established in principle.
【0003】機械的要素による個液分離装置としては、
スクリュウデカンター型やディスク型等を含めた遠心力
による個液分離原理に基づく装置が広く一般に認識され
た物となっている。 この装置を主体と成す汚水処理装
置は広い分野にて採用されてはいるが高価である事と整
備性の問題から小規模事業所までの普及には至ってはい
ない。[0003] As an individual liquid separation device using mechanical elements,
Devices based on the principle of separation of individual liquids by centrifugal force, including screw decanter type and disk type, have been widely and generally recognized. Although the sewage treatment apparatus mainly composed of this apparatus has been adopted in a wide range of fields, it has not been spread to small-scale establishments due to its high cost and maintenance problems.
【0004】オゾンによる処理は、古くからヨーロッパ
において上水の消毒を目的として利用されてきた方法で
あり、我が国では昭和40年後半から汚水浄化に対する
検討がなされ、効果としては、殺菌、脱臭、脱色等があ
げられる。The treatment with ozone has long been used in Europe for the purpose of disinfecting drinking water. In Japan, studies on sewage purification have been conducted since late 1965. And the like.
【0005】現在の汚水処理技術分野においては、各種
の凝集剤、若しくは浮上剤等を単独、若しくは複合して
使用されている事は広く知られた事であり、その使用方
法とは概ね処理目的の汚水槽、若しくは当該汚水が移送
される管部分に注入口を設けて当該薬剤を単独、若しく
は気体とともに注入し、インペラ若しくは静止型管内混
合器等による撹拌混合処理を完了し浮上分離槽、あるい
は沈澱槽へと移送し個液分離工程へと移行するものであ
る。ただし凝集・沈澱処理と浮上分離処理とは性格を異
にする考えの元に成り立っている。It is widely known that various flocculants or flotation agents are used alone or in combination in the current field of sewage treatment technology. A sewage tank, or an injection port is provided in a pipe portion to which the sewage is transferred, and the agent is injected alone or together with a gas, and the stirring and mixing process is completed by an impeller or a static type in-tube mixer or the like, and a flotation tank, or It is transferred to a sedimentation tank and shifts to an individual liquid separation step. However, the coagulation / precipitation treatment and the flotation treatment are based on different thoughts.
【0006】個液分離処理における、各種遠心分離装置
の基本的考え方とは、抵抗や質量の大きい物ほど遠心力
の影響を受ける事となる原則に基づき設計開発されてい
るものであり、その機構上において必ず高速で回転する
部分を持つため、分離された固形物等が当該回転部分に
おいて不均等に堆積した場合は著しく回転バランスが損
なわれ、最悪の場合は装置破壊へと繋がる恐れがあるた
めに、守備点検等は不可欠の物であり続ける事となる。[0006] The basic concept of various centrifugal separators in the individual liquid separation process is that which is designed and developed based on the principle that the larger the resistance or the mass, the more affected the centrifugal force. Because there is always a part that rotates at high speed on the top, if separated solids etc. accumulate unequally in the rotating part, the rotational balance will be significantly impaired, and in the worst case, it may lead to destruction of the device In addition, defensive inspections will continue to be indispensable.
【0007】浮上分離装置に関する公開特許の中には、
各種薬剤混合済み汚水を気体と共に混濁しつつ螺旋状の
パイプを用いて、当該パイプ下部より上部へと移行する
間に泡沫フロック形成に付与すると言う考案を見受ける
事が多々あるが、同径であるために流速が一定であり続
ける。したがって泡沫フロック形成に必要な滞留が成さ
れてはいない。[0007] Among the published patents relating to flotation devices,
It is often the case that various chemical-mixed sewage is turbidized with gas using a helical pipe, and is applied to foam floc formation during the transition from the lower part to the upper part of the pipe, but the diameter is the same. Therefore, the flow rate remains constant. Therefore, the required retention for foam floc formation is not achieved.
【0008】各種凝集剤等による浮上分離処理と凝集・
沈殿処理と言う、性格を異にする処理を行うためには、
それぞれに適した処理曹を設置しなければならない。し
たがって処理施設あるいは装置自体の肥大による設備経
費並びに維持管理費の増大となり、個人あるいは小規模
事業所に対する普及を広く望む事は不可能となる。よっ
て一つの処理装置で前述した、異なる処理を同時に解決
できるものでなければ装置自体を小型化する事は不可能
であり、また小型化こそが前述した経費削減につなが
り、更にはこれからの複合化した各種汚水処理方への対
応範囲拡大を可能としたものでなければ末端までの汚水
処理装置の普及を望む事が出来ない。[0008] Flotation treatment and flocculation with various flocculants, etc.
In order to perform a process of different character called precipitation process,
Appropriate processing agents must be set up for each. Therefore, the equipment cost and the maintenance cost are increased due to the enlargement of the treatment facility or the equipment itself, and it is impossible to widely demand the spread to individuals or small business establishments. Therefore, it is impossible to reduce the size of the apparatus itself unless one processing apparatus can simultaneously solve the different processing described above, and the downsizing leads to the above-mentioned cost reduction, and further compounding in the future If it is not possible to expand the range of support for various types of sewage treatment methods, it is not possible to hope for the spread of sewage treatment devices to the end.
【0009】請求項の1から4までに述べた内容を元と
する発明は、基本的な前提条件として、前処理段階に於
いて、既に各種凝集剤、あるいは浮上剤等の添加による
化学的処理が施された汚水に対するものであり、当該処
理目的汚水から迅速かつ確実な泡沫フロック形成による
個液分離処理、並びに、より積極的な水質浄化を目指し
たものである。The invention based on the contents described in claims 1 to 4 is based on the premise that, as a basic precondition, a chemical treatment by the addition of various flocculants or a floating agent has already been performed in the pretreatment stage. The purpose of the present invention is to purify the individual liquid by quickly and surely forming a foam floc from the wastewater to be treated, and to purify the water quality more aggressively.
【0010】この発明においては、従来の浮上分離、若
しくは凝集・沈澱処理等に採用されてきた個々の装置で
は不可欠であった、沈降分離に要してきた時間を短縮す
るために、装置中央に配置される内側筒内に設けた複数
のインペラによる、処理目的水に対する下方向へ向けて
の撹拌過流と各インペラ下部に設けたファンネルによる
積極的な加圧ならびに流速を増幅させる事で汚水中に含
まれる細かい固体粒子を内側筒から強制的に排除する事
を可能なものとしている。更に当該筒上部に設けた濾過
部分は、処理済み水排出のための、水位の調整により設
定された水面より常に下に在り、したがって濾過部分よ
り上部に満たされた水は濾過された処理水と言う事とな
る。In the present invention, in order to shorten the time required for sedimentation separation, which is indispensable for individual devices employed in the conventional flotation separation or coagulation / sedimentation treatment, it is arranged at the center of the device. The multiple impellers provided inside the inner cylinder are used to agitate and overflow the water to be treated downward in the downward direction, and the funnel provided at the bottom of each impeller aggressively pressurizes and amplifies the flow rate to generate wastewater. Fine solid particles contained can be forcibly removed from the inner cylinder. Further, the filtration part provided at the upper part of the cylinder is always below the water surface set by adjusting the water level for discharging the treated water, and therefore, the water filled above the filtration part is treated as filtered treated water with water. I will say.
【0011】内側筒下部の放出口からは回転力を保持し
た状態の汚水が、外側容器底部分に設けられた、隆起し
た流速促進部分へと噴射される。更にこの隆起部分には
回転方向への更なる促進と明確化を計るために整流板を
設けている。この事により遠心力と共に上昇反流が発生
し、固体粒子は旋回しながら上部へと移送される事とな
るまた、請求項4で述べたオゾンによる処理への効果促
進へ繋がる事は言うまでもない。[0011] From the discharge port at the lower part of the inner cylinder, sewage in a state where the rotational force is maintained is jetted to a raised flow velocity promoting part provided at the bottom part of the outer container. In addition, a rectifying plate is provided on the raised portion for further promotion and clarification in the rotation direction. As a result, an upward countercurrent is generated together with the centrifugal force, so that the solid particles are transported upward while turning, and it is needless to say that the effect of the ozone treatment described in claim 4 is promoted.
【0012】発生する上昇水流は内側容器と外側容器の
間に設けた、ピッチを段階的に広くした汚水汚濁物上昇
用螺旋板が形成する泡沫フロック形成管内へ導かれる事
となる。この螺旋板のピッチは、下部は流速と遠心力の
確保のうえから狭く、また上部へと汚水が移行する間で
の泡沫フロック形成向上目的から、滞留のための流速減
衰手段としてピッチを次第に広くなるように設定してあ
る。なお処理目的である汚水は、各種凝集剤ならびに浮
上剤と気体が混濁した状態で、当該形成管の流速が減衰
する以前の部分において当該形成管内に注入される。The generated rising water flow is guided into a foam floc forming pipe formed by a spiral sewage contaminant raising spiral plate provided between the inner container and the outer container and having a gradually widened pitch. The pitch of this spiral plate is narrower in the lower part in order to secure the flow velocity and centrifugal force, and in order to improve the formation of foam flocs during the transfer of sewage to the upper part, the pitch is gradually increased as a flow velocity damping means for stagnation. It is set to be. The sewage to be treated is injected into the forming tube at a portion before the flow velocity of the forming tube is attenuated in a state in which various coagulants and a floating agent and gas are turbid.
【0013】本処理装置の一実施例として図面に基づき
説明する。図1は本処理装置本体と当該処理装置と連結
して使用する処理水排出装置の内部構造を表したもので
あるAn embodiment of the present processing apparatus will be described with reference to the drawings. FIG. 1 shows the internal structure of a main body of the present treatment apparatus and a treated water discharger used in connection with the treatment apparatus.
【0014】前処理段階に於いて、既に各種凝集剤、浮
上剤等による化学的処理が完了した汚水は気液混濁状態
で汚水注入口(4)より処理機本体内部へと、汚水汚濁
物上昇用螺旋板(12)が持つ上昇角度に準じた方向に
て注入される。気液混濁状態でない場合は汚水注入口
(4)を延長し内側筒(1)と2次加圧ファンネル(2
5)側面を貫通、あるいは内側筒(1)上部より濾過部
分(14)を貫通させ直接注入となる。なお、汚水注入
圧力は、インペラ(7)(8)が発生する水圧より僅か
に強い水圧を必要条件とする。In the pretreatment stage, the sewage, which has already been subjected to chemical treatment with various flocculants, flotation agents, etc., rises in a gas-liquid turbid state from the sewage inlet (4) to the inside of the treatment machine body. Is injected in a direction according to the rising angle of the spiral plate (12). When the gas-liquid turbidity is not present, the sewage inlet (4) is extended to extend the inner cylinder (1) and the secondary pressurized funnel (2).
5) Direct injection is performed by penetrating the side surface or the filter part (14) from the upper part of the inner cylinder (1). The required pressure for the sewage injection pressure is slightly higher than the water pressure generated by the impellers (7) and (8).
【0015】注入された汚水は処理水排出装置(3)内
部に設けられた、上下調整機構を備え更に汚水流入量と
排出量の均衡を考慮した口径を持つ取水口(21)の高
さ調整により、ベルト型スカム回収装置(16)の回収
工程に最適な水位(L)に状態保持される。この時点で
内側筒内(1)の汚水はインペラ(7)(8)より下部
に対しては正の力。上部に対しては負の力の影響下に置
かれる事となり、したがって汚水中に含まれた固体粒子
は常に内側筒(1)内部より下方向へと排除される影響
下に置かれる。2次加圧ファンネル(25)より排出さ
れた汚水は外側容器(24)の隆起した底部と整流板
(11)の作用により遠心力を伴う上昇反流となる。こ
の原理により固体粒子は水流と共に汚水汚濁物上昇用螺
旋板(12)により構成された泡沫フロック形成管へ移
送される。なお汚水は、この上昇反流発生時点にて噴射
口(1M)から噴射されるオゾンを含む空気、若しくは
水による混合が成される。The height of the water intake (21), which has a vertical adjustment mechanism provided inside the treated water discharge device (3) and has a diameter considering the balance between the amount of inflow and discharge of wastewater, is set for the injected sewage. Thereby, the state is maintained at the optimum water level (L) for the collecting step of the belt type scum collecting device (16). At this point, the sewage in the inner cylinder (1) has a positive force on the lower part of the impellers (7) and (8). The upper part will be under the influence of a negative force, so that the solid particles contained in the sewage will always be rejected below the inside of the inner cylinder (1). The sewage discharged from the secondary pressurized funnel (25) forms a countercurrent with centrifugal force due to the action of the raised bottom of the outer container (24) and the rectifying plate (11). According to this principle, the solid particles are transferred together with the water stream to a foam floc forming tube constituted by a spiral plate (12) for raising sewage contaminants. The sewage is mixed with air or water containing ozone injected from the injection port (1M) at the time of occurrence of the upward countercurrent.
【0016】汚水中の固体粒子は前述した遠心力を伴う
上昇反流と気泡と共に、泡沫フロック形成管内に移送さ
れ、また更に汚水注入口より注入される各種凝集剤、浮
上剤等による化学的処理ならびに気液混合を施された汚
水と合流し上昇する。ただし上昇する物質は気泡と固体
粒子のみであり水位が上昇する事はありえない。The solid particles in the sewage are transported into the foam floc forming tube together with the above-mentioned upward flow and centrifugal force accompanied by the centrifugal force, and are further chemically treated with various flocculants, flotation agents and the like injected from the sewage inlet. Also, it joins with the sewage subjected to gas-liquid mixing and rises. However, the only substances that rise are bubbles and solid particles, and the water level cannot rise.
【0018】泡沫フロック形成管内にての汚水の流速
は、下部から上部へとピッチが広くなるように設定され
設けられた汚水汚濁物上昇用螺旋板(12)と当該螺旋
板に設けられた抵抗板(13)により、内側から外側方
向への水流調整と流速減衰が行われる。この原理により
各泡沫フロックどうしは融合しつつ上昇し、ほとんどの
固体粒子は水流と共に外側容器上部側面に設けられたス
カム貯留槽(15)集められる事となり、ベルト型スカ
ム回収装置(16)によって回収され、当該装置直下に
設置した回収容器内(17)に落下する事となる。な
お、処理装置本体上昇中における水の動きとしては、螺
旋板内側の流速の遅い部分に複数設けた内部循環用の開
口部(9)よる部分的な循環と、内側筒ファンネル(1
0)と2次加圧ファンネル(25)との間の流速の遅い
部分からの全体的な主循環から成り立ち、この動きを繰
り返す事により汚水は浄化される事となる。The flow rate of the sewage in the foam floc forming pipe is set such that the pitch of the sewage contaminant is increased from the lower portion to the upper portion, and the sewage contaminant raising spiral plate (12) and the resistance provided on the spiral plate are provided. The plate (13) provides water flow regulation and flow velocity attenuation from the inside to the outside. According to this principle, each foam floc rises while fusing together, and most of the solid particles are collected together with the water flow in the scum storage tank (15) provided on the upper side surface of the outer container, and collected by the belt type scum collection device (16). Then, it falls into the collection container (17) installed immediately below the apparatus. The movement of the water during the ascent of the processing apparatus main body includes partial circulation by a plurality of internal circulation openings (9) provided in a portion where the flow velocity is low inside the spiral plate, and the inner cylindrical funnel (1).
0) and the secondary pressurized funnel (25) consist of the entire main circulation from the low flow rate part, and by repeating this movement, the wastewater is purified.
【0019】濾過部(14)を透過する事によって第1
段階の浄化が成された汚水は移送管(20)により処理
水排出装置(3)下部へと移送される。この時点で当該
装置下部に設けられた噴射口(2M)から噴射される、
オゾンを含んだ空気、若しくは水によるオゾン殺菌なら
びにオゾン脱色処理を施され、濾過部(22)を透過後
に取水口(21)に流入し排水管(23)より放流とな
る。以上が全処理工程である。By passing through the filtration section (14), the first
The sewage that has undergone the stage purification is transferred to the lower part of the treated water discharger (3) by the transfer pipe (20). At this time, it is injected from the injection port (2M) provided at the lower part of the device.
After ozone sterilization and ozone decolorization treatment with air or water containing ozone, the ozone is passed through the filtration section (22) and then flows into the water intake (21) to be discharged from the drain pipe (23). The above is all the processing steps.
【0020】この発明に於いては、遠心分離に関する基
本原理。特にスクリューデカンタ型の個液分離原理を簡
略化する事により実現する装置自体の価格抑制を図ると
共にこの原理の応用により、従来の浮上分離装置では不
十分であった微細な固体粒子までの分離と、これまで沈
降時間を必要としていた凝集・沈澱処理に対する処理時
間の短縮化を可能とした。したがって装置自体の大きさ
に対する処理量の比率は高効率となり、結果的に小規模
事業所等に対する経費削減と環境保全と言う二つの効果
をもたらす事と成る。In the present invention, the basic principle of centrifugation is used. In particular, by simplifying the principle of separating individual liquids of the screw decanter type, the price of the device itself is reduced, and by applying this principle, separation into fine solid particles, which was insufficient with conventional flotation devices, was achieved. Thus, it has become possible to shorten the treatment time for the coagulation / precipitation treatment which previously required a settling time. Therefore, the ratio of the processing amount to the size of the apparatus itself becomes highly efficient, and as a result, there are two effects, that is, cost reduction and environmental conservation for small-scale establishments.
【図1】汚水処理装置ならびに処理水排出装置の内部構
造を示す断面図である。FIG. 1 is a sectional view showing an internal structure of a sewage treatment device and a treated water discharge device.
1 内側筒 2 撹拌駆動部 3 処理水排出装置 4 汚水注入口 5 1次加圧ファンネル 6 循環ならびに空気抜
き孔 7 インペラ 8 インペラ 9 泡沫フロック形成管
内部循環用開口部 10 内側筒ファンネル 11 整流板 12 汚水汚濁物上昇用螺
旋板 13 抵抗板 14 濾過部 15 スカム貯留槽 16 ベルト型スカム回収
装置 17 回収容器 18 スカム掻き落とし部 19 駆動軸 20 移送管 21 取水口 22 濾過部 23 排水管 24 外側容器 25 2次加圧ファンネル 1M 噴射口 2M 噴射口 L 水位DESCRIPTION OF SYMBOLS 1 Inner cylinder 2 Stirring drive part 3 Treated water discharger 4 Dirty water inlet 5 Primary pressurized funnel 6 Circulation and air vent hole 7 Impeller 8 Impeller 9 Foam flock forming pipe internal circulation opening 10 Inner cylinder funnel 11 Straightening plate 12 Sewage Spiral plate for raising contaminants 13 Resistor plate 14 Filtration unit 15 Scum storage tank 16 Belt-type scum collection device 17 Recovery container 18 Scum scraping unit 19 Drive shaft 20 Transfer pipe 21 Water intake 22 Filtration unit 23 Drain pipe 24 Outer vessel 25 2 Next pressurized funnel 1M Injector 2M Injector L Water level
フロントページの続き (51)Int.Cl.7 識別記号 FI テーマコート゛(参考) C02F 1/50 550 C02F 1/50 550H 560 560Z 1/52 1/52 Z 1/78 1/78 9/00 502 9/00 502Z 502D 502R 502P 503 503C 503G 504 504E Continued on the front page (51) Int.Cl. 7 Identification symbol FI Theme coat II (reference) C02F 1/50 550 C02F 1/50 550H 560 560Z 1/52 1/52 Z 1/78 1/78 9/00 502 9 / 00502Z 502D 502R 502P 503 503C 503G 504 504E
Claims (4)
下部、若しくは底面に汚水注入口と、当該筒側面上部あ
るいは上部開口部分に処理水用排出口、ならびに分離目
的物排出口を備えるとともに下部に空気若しくは水噴射
口を備えた外側容器と、当該容器と同筒形の、内部に円
錐、あるいは多角錐形の、水加圧部分としての、複数の
ファンネルを内蔵し、更に当該筒下部を同形状とする二
重構造が構成するところの隔壁間内を汚水循環目的部分
として設け、当該筒内部に水加減圧ならびに撹拌を目的
とする複数の吐出循環性能面を考慮したインペラと、当
該筒上部に磁性を兼ね備えた濾過部分ならびにインペラ
駆動部を備えると共に、前述した外側容器内壁に対し
て、螺旋板で構成したスクリュウ形状の、外周垂直面が
密着する事を原則とした汚水汚濁物上昇目的のための螺
旋板の、水平面部に撹拌と流速調整に付与する抵抗板
と、またその螺旋板水平面内側に水圧ならびに循環目的
用の複数の孔あるいは開口部を設けた事を特徴とする汚
水汚濁物上昇用螺旋板を外側に取り付けた内側筒とを組
み合わせた汚水処理装置。An upright cylinder or an upright polygonal cylinder having a sewage inlet at a lower side or a bottom side, an outlet for treated water at an upper or upper opening of the side of the cylinder, and an outlet for an object to be separated. An outer container provided with an air or water injection port at the bottom, and a plurality of funnels as water pressurizing portions, which are of the same cylindrical shape as the container and have a conical or polygonal pyramid shape therein, and further include a lower portion of the cylinder. An impeller in consideration of a plurality of discharge circulation performance surfaces for the purpose of water evacuating and depressurizing and agitation is provided inside the cylinder as a sewage circulation purpose portion where a double structure having the same shape is configured, In addition to the filtration part with magnetism and the impeller driving part on the upper part of the cylinder, the screw-shaped screw-shaped outer peripheral surface is in close contact with the inner wall of the outer container. The spiral plate for the purpose of raising sewage polluted water has a resistance plate for agitation and flow rate adjustment on the horizontal surface, and a plurality of holes or openings for the purpose of water pressure and circulation inside the spiral plate horizontal surface. A sewage treatment apparatus in which a sewage / contaminant raising spiral plate is mounted on the outside and an inner cylinder is attached.
ッチを段階的に広くしていく事により生じる流速の変化
による、各種汚水処理用凝集剤の反応促進と反応滞留時
間を考慮した事を特徴とする汚水処理装置。2. Consideration is given to the reaction promotion and reaction residence time of various sewage treatment flocculants due to a change in flow velocity caused by gradually increasing the pitch of the sewage rise spiral plate described in claim 1. A sewage treatment device characterized by the following.
る、水位調整機構ならびに磁性を兼ね備えた濾過部分
と、内部に空気若しくは水噴射口を備えた処理水排出装
置。3. A treated water discharge device which is connected to the sewage treatment device described in claim 1 and has a filtration portion having both a water level adjusting mechanism and a magnetism and an air or water injection port therein.
若しくは水噴射口の前段階に於いてオゾン発生装置と連
動させ、オゾンを空気若しくは水に混在させ噴射し、処
理目的水に対する殺菌ならびに脱色に考慮した事を特徴
とする汚水処理装置。4. An ozone generator is interlocked with an ozone generator in a stage prior to the air or water injection port as described in claim 1 and 3, and ozone is mixed and injected into air or water to sterilize the target water for treatment. A sewage treatment device characterized by considering decolorization.
Priority Applications (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
JP2000404543A JP2002186962A (en) | 2000-12-21 | 2000-12-21 | Pressurized whirl type floatation and separation wastewater treatment equipment |
Applications Claiming Priority (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
JP2000404543A JP2002186962A (en) | 2000-12-21 | 2000-12-21 | Pressurized whirl type floatation and separation wastewater treatment equipment |
Publications (1)
Publication Number | Publication Date |
---|---|
JP2002186962A true JP2002186962A (en) | 2002-07-02 |
Family
ID=18868484
Family Applications (1)
Application Number | Title | Priority Date | Filing Date |
---|---|---|---|
JP2000404543A Pending JP2002186962A (en) | 2000-12-21 | 2000-12-21 | Pressurized whirl type floatation and separation wastewater treatment equipment |
Country Status (1)
Country | Link |
---|---|
JP (1) | JP2002186962A (en) |
Cited By (10)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
KR100462245B1 (en) * | 2002-07-15 | 2004-12-17 | 김승희 | Calcium chloride mixing feed system |
KR100706597B1 (en) | 2006-05-18 | 2007-04-16 | 윤정덕 | Barn water purification system |
KR100799938B1 (en) | 2007-10-24 | 2008-02-01 | 지유 주식회사 | Apparatus for waste water treatment |
KR100852551B1 (en) * | 2007-02-07 | 2008-08-18 | 대우조선해양 주식회사 | Precipitation preventing apparatus of vessel tank |
DE102008050223A1 (en) * | 2008-10-07 | 2010-04-29 | Entwicklungsgesellschaft Frank Mohr u. Gerhard Krüger, jun. Gbr. 25715 Eddelak (vertretungsber. Gesellschafter: Frank Mohr, 20249 Hamburg u. Gerhard Krüger, 25767 Bunsoh) | Cleaning and separating device for wastewater, in particular from livestock |
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WO2013177632A1 (en) * | 2012-06-01 | 2013-12-05 | Stephen Elliott | Water treatment |
CN103739126A (en) * | 2014-01-27 | 2014-04-23 | 云南森海清洋科技有限公司 | Sewage air-floatation treatment device without residual scum |
CN111470573A (en) * | 2020-06-03 | 2020-07-31 | 李诗义 | Horizontal flow type air flotation device for sewage treatment |
CN112340927A (en) * | 2020-11-24 | 2021-02-09 | 浙江明泉工业装备科技有限公司 | Waste water treatment system for powder coating process |
-
2000
- 2000-12-21 JP JP2000404543A patent/JP2002186962A/en active Pending
Cited By (12)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
KR100462245B1 (en) * | 2002-07-15 | 2004-12-17 | 김승희 | Calcium chloride mixing feed system |
KR100706597B1 (en) | 2006-05-18 | 2007-04-16 | 윤정덕 | Barn water purification system |
KR100852551B1 (en) * | 2007-02-07 | 2008-08-18 | 대우조선해양 주식회사 | Precipitation preventing apparatus of vessel tank |
KR100799938B1 (en) | 2007-10-24 | 2008-02-01 | 지유 주식회사 | Apparatus for waste water treatment |
DE102008050223A1 (en) * | 2008-10-07 | 2010-04-29 | Entwicklungsgesellschaft Frank Mohr u. Gerhard Krüger, jun. Gbr. 25715 Eddelak (vertretungsber. Gesellschafter: Frank Mohr, 20249 Hamburg u. Gerhard Krüger, 25767 Bunsoh) | Cleaning and separating device for wastewater, in particular from livestock |
DE102008050223B4 (en) * | 2008-10-07 | 2011-07-28 | Entwicklungsgesellschaft Frank Mohr u. Gerhard Krüger, jun. Gbr. 25715 Eddelak (vertretungsber. Gesellschafter: Frank Mohr, 20249 Hamburg u. Gerhard Krüger, 25767 Bunsoh), 25715 | Device for cleaning waste water, in particular from livestock, and a method for using the device |
KR101052534B1 (en) * | 2008-11-25 | 2011-07-29 | 삼성중공업 주식회사 | Sediment removal device and ship having same |
WO2013177632A1 (en) * | 2012-06-01 | 2013-12-05 | Stephen Elliott | Water treatment |
US10052573B2 (en) | 2012-06-01 | 2018-08-21 | Wears X Pty Ltd | Apparatus and method for water treatment via vertical water movement through a funnel |
CN103739126A (en) * | 2014-01-27 | 2014-04-23 | 云南森海清洋科技有限公司 | Sewage air-floatation treatment device without residual scum |
CN111470573A (en) * | 2020-06-03 | 2020-07-31 | 李诗义 | Horizontal flow type air flotation device for sewage treatment |
CN112340927A (en) * | 2020-11-24 | 2021-02-09 | 浙江明泉工业装备科技有限公司 | Waste water treatment system for powder coating process |
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