JPS6135886B2 - - Google Patents

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Publication number
JPS6135886B2
JPS6135886B2 JP53116637A JP11663778A JPS6135886B2 JP S6135886 B2 JPS6135886 B2 JP S6135886B2 JP 53116637 A JP53116637 A JP 53116637A JP 11663778 A JP11663778 A JP 11663778A JP S6135886 B2 JPS6135886 B2 JP S6135886B2
Authority
JP
Japan
Prior art keywords
liquid
flocked
body surface
pipe
cylinder
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.)
Expired
Application number
JP53116637A
Other languages
Japanese (ja)
Other versions
JPS5544311A (en
Inventor
Yoshio Kikuchi
Shiro Nakanishi
Katsuya Ichiba
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.)
Organo Corp
Original Assignee
Organo Corp
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 Organo Corp filed Critical Organo Corp
Priority to JP11663778A priority Critical patent/JPS5544311A/en
Publication of JPS5544311A publication Critical patent/JPS5544311A/en
Publication of JPS6135886B2 publication Critical patent/JPS6135886B2/ja
Granted legal-status Critical Current

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  • Cleaning By Liquid Or Steam (AREA)
  • Filtration Of Liquid (AREA)

Description

【発明の詳細な説明】[Detailed description of the invention]

本発明は植毛布の洗浄方法および洗浄装置に
関するもので、円筒の胴面を通液性を有するよう
に形成し、この円筒胴面上に植毛布を付設して
過筒とし、懸濁物質を含む液体を植毛布に通
液して過を行ない、液を回転軸を兼ねた液
管より集液し、植毛布が懸濁物質で目詰まりを
起こして圧力損失が増大したときに、液管より
液を植毛布に過方向とは逆の方向に通水し
て植毛布の逆洗を行なうとともに、液管より
空気を植毛布の内面より外面に向けて供給する
ことによつて植毛布に付着した懸濁物質の剥離
を行なうことを特徴とするものである。 従来、通液性のある円筒胴面に付設した植毛
布で液体中の懸濁物質を過することにより生じ
た植毛布の目詰まりを回復させる方法および装
置としては、特開昭51−119168のように円筒内の
液の自然水圧によつて植毛布に付着した懸濁
物質を剥離して逆洗するか、あるいは円筒の外側
に吸引ポンプを設置して円筒内の液を吸引して
懸濁物質を剥離する方法および装置がある。 一般に懸濁物質が無機性かあるいは有機性かに
かかわらず比較的大型のフロツクを形成している
ものは植毛布の表面に捕促されても、従来方法
で逆洗洗浄が可能であり、処理液である液の液
質の低下あるいは処理量の減少はなく、かつ長時
間運転においても極めて優れた過機能を果して
いる。 しかしながら液体中の懸濁物質がコロイド状の
ように微細であつたり、粘着性を帯びている場合
にはその懸濁物が植毛布の基布の根元に沈着
し、従来方法のような単純な逆洗方法では植毛
布の基布から懸濁物質の剥離ができず、経時的に
懸濁物質の沈着量が増大して植毛布の目詰まり
を起こし最終的には過不可能になる。 本発明は従来の植毛布の洗浄方法および装置
の欠陥を改善するもので、植毛布に付着して剥
離しにくい懸濁物質を容易に、かつ少ない液
(逆洗液)で剥離することによつて植毛布の目
詰まりを防止することを目的とし、ひいては処理
液量の増大など処理効率を高めることを目的とす
る。また本発明の他の目的は懸濁物質を濃縮して
回収あるいは除去することにある。 以下、本発明の実施例について図面に従つて説
明すると、第1図において円筒1の胴面を通液性
を有するように形成し、かつこの円筒の胴面上に
エンドレス状の植毛布8を装着して過筒2と
し、この過筒2を処理槽3内に中空状の回転軸
4を介して回転可能に取り付ける。なお円筒1の
胴面に通液性を持たせるには、胴面を第1図に示
すように格子状10としてもよく、あるいは第3
図に示すように多孔状10′に構成してもよく、
その他にも液体が通過して植毛布8を保持でき
ればどのようなものでもかまわない。 なお回転軸4は処理槽3の軸受16に取り付
け、一端にはモーター13によつて駆動する回転
歯車12を連結し、他端には液管14に連通さ
せるが、回転軸4の円筒1内の部分には液の集
配液孔5を多数設けるとともに、回転軸4内に同
軸的に空気供給管6と接続した多数の空気孔9を
有する散気管7を付設する。 処理槽3の上部には原液管15を、下部には濃
縮懸濁物質取出管11を連通する。 次に本発明の操作について説明すると、懸濁物
質、特に微細で粘着性のある懸濁物質を含む原液
を原液管15より処理槽3に流入させ、モーター
13を駆動して駆動歯車(図示せず)によつて回
転歯車12を回転させると過筒2は回転軸4と
一体になつて回転する(1〜10rpm)。 処理槽3に流入した原液は回転する過筒2の
植毛布8を外側より内側に通液し、これによつ
て懸濁物質は植毛布8に捕促され、液は過
筒2に集液して回転軸4の集配液孔5より液管
14に流出して行く。 なお、植毛布8は1〜30デニールの合成繊維
で毛足の長さが20〜100mmのものを基布1m3当た
り500〜2000gに植毛した毛布状の織布であつ
て、過時においては第2図イに示すように、植
毛された長い繊維は立体的に重なり合つて過面
が密になるとともに布としての厚さが増大して
厚層過となることが特徴であり、この点が従来
のマイクロストレーナーなどと相違する点であ
る。 また、植毛布8の懸濁物質によつて目詰まり
を起こすと、このときは第2図ロに示すように、
重なり合つていた繊維の過時とは逆方向に流す
逆洗液(液)によつて解放状態として布に蓄
積した懸濁物質を剥離する。すなわち過筒2を
回転させながら液管14より逆洗液として液
を供給し、回転軸4を経て集配液孔5から過筒
2内に流入させ、植毛布8に通液させることに
よつて行なうが、この液による逆洗時に、同時
に空気供給管6に空気を供給し、散気管7の空気
孔9より回転軸4の集配液孔5を経て過筒2に
圧入(0.5〜5Kg/cm2,10〜100Nm3/H/m2)さ
せることにより、混合状態の液と空気によつて
植毛布8に付着した懸濁物質を短時間で容易に
剥離することができ、従来除去しにくいといわれ
たコロイド状のような微細な懸濁物質が粘着性を
帯びた懸濁物質なども完全に剥離することが可能
である。 しかも、従来の液のみによる場合に比較する
と、本発明の場合は液と空気との相乗効果によ
り、逆洗液をしての液を大幅(従来の2分の1
以下)に節約できる利点もある。 なお、液と空気とによる相乗効果をさらに一
段と高めるためには、第3図に示すように、回転
軸4を二つに分断し、回転軸4と同軸的に設けた
空気供給管6を回転軸4より立ち上がり管状に設
け、その先端に空気孔9を有する散気管7を植毛
布8にできるだけ近接する位置に設け、回転す
る植毛布8の所定面積に均等に空気を供給し、
より短時間に、より少ない量の逆洗液(液)で
懸濁物質を剥離・除去して植毛布8を洗浄する
ことが可能であり、特に非常に微細な、粘着性の
強い懸濁物質の剥離に有効である。 植毛布8より剥離した懸濁物質は処理槽3内
の底面に沈降し、濃縮した状態で濃縮懸濁物質取
出管11より外部に排出あるいは回収する。 以下、本発明の実施例について説明する。 実施例 1 胴面を格子状に構成した円筒(直径1000mm)
に、植毛布として3デニールのアクリル製繊維
で、毛足の長さ50mm、植毛密度1500g/m3、過
面積0.75m2のものを装着して過筒とし、この
過筒を処理槽内に回転可能に装填し、この過筒
を装填した処理槽を2セツト用意した。そして製
紙工場の抄紙工程より排出された懸濁物質濃度
(平均)100ppmの原排水350m3を14.5m3/Hの流
量で上記の各々の処理槽に流入させると同時に
過筒を回転数4rpmにて運転し、原排水を植毛
布に通水させることによりそれぞれ懸濁物質の
過処理を行ない、各植毛布が懸濁物質で目詰ま
りをしたときに、一方の過筒においては、本発
明方法、すなわち第1図に示すように散気管の空
気孔より回転軸の集配水孔を経て第1表に示すよ
うな条件で加圧空気を逆洗水(水)を供給して
植毛布の逆洗処理を行ない、懸濁物質の剥離を
行なつた。また他方の過筒においては、従来方
法として逆洗水のみを第1表に示すような条件で
供給して植毛布の逆洗処理を行ない、懸濁物質
の剥離を行なつたが、剥離は不十分であつた。 以上で明らかなように、本発明方法は従来方法
に比較すると、逆洗水量は1/2に減少し、逆洗時
間は30%短縮することができた。 また、このように逆洗処理をした植毛布に再
度前記の原水を通水して過処理を行なつたとこ
ろ、第2表に示すような結果になつた。すなわ
ち、本発明方法は従来方法に比較して処理水(
過水)量は35m3増加し、また処理水のSSも数段
と減少させることができ、さらに逆洗廃水(処理
槽中の原水も含む)中の濃縮懸濁物質であるパー
ジンパルプを2倍の濃度で回収することができ
た。
The present invention relates to a washing method and a washing device for flocked fabric, in which a cylindrical body surface is formed to have liquid permeability, a flocked fabric is attached on the cylindrical body surface to form a sieve, and suspended solids are removed. The liquid contained in the cloth is filtered through the flocked cloth, and the liquid is collected through a liquid pipe that also serves as a rotating shaft.When the flocked cloth becomes clogged with suspended matter and pressure loss increases, Water is passed through the flocked fabric in the opposite direction to backwash the flocked fabric, and air is supplied from the liquid pipe from the inside to the outside of the flocked fabric. This method is characterized by removing attached suspended substances. Conventionally, a method and apparatus for recovering clogging of a flocked cloth caused by passing suspended matter in a liquid through a flocked cloth attached to a liquid-permeable cylindrical body surface is disclosed in Japanese Patent Application Laid-Open No. 119168/1983. Either the natural water pressure of the liquid inside the cylinder can be used to peel off the suspended solids attached to the flocked cloth and backwash it, or a suction pump can be installed outside the cylinder to suck up the liquid inside the cylinder and suspend it. There are methods and apparatus for exfoliating materials. Generally, regardless of whether the suspended solids are inorganic or organic, even if they form relatively large flocs and are caught on the surface of the flocked cloth, they can be backwashed and treated using conventional methods. There is no deterioration in the quality of the liquid or decrease in throughput, and it performs extremely well even during long-term operation. However, if the suspended matter in the liquid is fine like a colloid or sticky, the suspended matter will settle at the base of the base fabric of the flocked cloth, making it difficult to use the conventional method. In the backwashing method, suspended solids cannot be removed from the base fabric of the flocked fabric, and the amount of suspended solids deposited increases over time, causing clogging of the flocked fabric and eventually making it impossible to clean. The present invention improves the deficiencies of conventional methods and devices for washing flocked fabrics by easily removing suspended matter that adheres to the flocked fabric and is difficult to remove with a small amount of liquid (backwashing liquid). The purpose of this method is to prevent clogging of the flocked cloth, and furthermore, to increase the processing efficiency by increasing the amount of processing liquid. Another object of the present invention is to concentrate and recover or remove suspended solids. Hereinafter, embodiments of the present invention will be described with reference to the drawings. In FIG. 1, the body surface of a cylinder 1 is formed to have liquid permeability, and an endless flocked fabric 8 is provided on the body surface of the cylinder. The over-tube 2 is attached, and the over-tube 2 is rotatably installed in the processing tank 3 via a hollow rotating shaft 4. In order to provide liquid permeability to the body surface of the cylinder 1, the body surface may be shaped like a grid 10 as shown in FIG.
As shown in the figure, it may be configured in a porous form 10',
Any other material may be used as long as the liquid can pass through and hold the flocked fabric 8. The rotating shaft 4 is attached to a bearing 16 of the processing tank 3, and one end is connected to a rotating gear 12 driven by a motor 13, and the other end is connected to a liquid pipe 14. A large number of liquid collection/distribution holes 5 are provided in this portion, and an aeration pipe 7 having a large number of air holes 9 coaxially connected to the air supply pipe 6 is provided within the rotary shaft 4. A stock solution pipe 15 is connected to the upper part of the processing tank 3, and a concentrated suspended solids extraction pipe 11 is connected to the lower part. Next, to explain the operation of the present invention, a stock solution containing suspended solids, particularly fine and sticky suspended solids, is flowed into the processing tank 3 from the stock solution pipe 15, and the motor 13 is driven to drive the drive gear (not shown). When the rotary gear 12 is rotated by the rotation gear 12, the overtube 2 rotates integrally with the rotary shaft 4 (1 to 10 rpm). The raw solution that has flowed into the treatment tank 3 passes through the flocked fabric 8 of the rotating overtube 2 from the outside to the inside, whereby suspended matter is captured by the flocked fabric 8, and the liquid is collected in the overtube 2. Then, the liquid flows out from the liquid collection and distribution hole 5 of the rotating shaft 4 into the liquid pipe 14. The flocked fabric 8 is a blanket-like woven fabric in which synthetic fibers of 1 to 30 deniers and pile length of 20 to 100 mm are flocked at 500 to 2000 g per 1 m 3 of base fabric. As shown in Figure 2A, the flocked long fibers overlap three-dimensionally, making the surface denser and increasing the thickness of the fabric, resulting in a thick layer. This is different from conventional micro strainers. Additionally, if the flocked cloth 8 becomes clogged with suspended matter, as shown in Figure 2B,
A backwashing liquid (liquid) that flows in the opposite direction to the direction in which the overlapping fibers were released releases the suspended matter that has accumulated on the cloth. That is, by supplying liquid as a backwash liquid from the liquid pipe 14 while rotating the over-tube 2, allowing it to flow into the over-tube 2 from the liquid collection and distribution hole 5 through the rotating shaft 4, and allowing the liquid to pass through the flocked cloth 8. During backwashing with this liquid, air is supplied to the air supply pipe 6 at the same time, and air is press-fitted (0.5 to 5 kg/cm 2,10 to 100Nm 3 /H/m 2 ), the suspended solids attached to the flocked cloth 8 can be easily peeled off in a short time by the mixed liquid and air, which is difficult to remove conventionally. It is possible to completely peel off fine suspended substances such as colloidal particles that have a sticky substance. Moreover, compared to the conventional case where only liquid is used, in the case of the present invention, due to the synergistic effect of the liquid and air, the amount of liquid used as backwash liquid is significantly reduced (half of the conventional amount).
(below) also has the advantage of saving money. In order to further enhance the synergistic effect of the liquid and air, as shown in FIG. An air diffuser 7 which is provided in a tubular shape rising from the shaft 4 and has an air hole 9 at its tip is provided at a position as close to the flocked cloth 8 as possible to uniformly supply air to a predetermined area of the rotating flocked cloth 8,
It is possible to peel and remove suspended solids and wash the flocked cloth 8 in a shorter time and with a smaller amount of backwashing liquid (liquid), especially very fine and highly adhesive suspended solids. Effective for peeling off. The suspended solids peeled off from the flocked cloth 8 settle to the bottom of the treatment tank 3, and are discharged or collected in a concentrated state through the concentrated suspended solid removal pipe 11. Examples of the present invention will be described below. Example 1 Cylindrical body with grid-like structure (diameter 1000 mm)
A 3-denier acrylic fiber with a pile length of 50 mm, a flocking density of 1500 g/m 3 , and an excess area of 0.75 m 2 was attached as a flocked cloth to form a overtube, and this overtube was placed in the treatment tank. Two sets of treatment tanks were prepared in which the tubes were rotatably loaded. Then, 350 m 3 of raw wastewater with a suspended solids concentration (average) of 100 ppm discharged from the papermaking process of a paper mill was flowed into each of the above treatment tanks at a flow rate of 14.5 m 3 /H, and at the same time the rotation speed of the tube was increased to 4 rpm. The method of the present invention is applied to one of the tubes when each of the planted beds becomes clogged with suspended solids. That is, as shown in Figure 1, pressurized air is supplied as backwash water (water) from the air hole of the air diffuser through the water collection and distribution hole of the rotating shaft under the conditions shown in Table 1, and the backwashing of the flocked cloth is carried out. Washing treatment was performed to remove suspended substances. In addition, in the other tube, as a conventional method, only backwash water was supplied under the conditions shown in Table 1 to backwash the flocked fabric and remove the suspended solids, but the removal was not successful. It was insufficient. As is clear from the above, the method of the present invention was able to reduce the amount of backwash water to 1/2 and shorten the backwash time by 30% compared to the conventional method. In addition, when the above-mentioned raw water was again passed through the backwashed flocked fabric for overtreatment, the results shown in Table 2 were obtained. In other words, the method of the present invention reduces the amount of treated water (
The amount of superfluous water increased by 35m3 , and the SS of the treated water was also reduced by several steps. Furthermore, the amount of concentrated suspended solids in the backwash wastewater (including the raw water in the treatment tank) was doubled. could be recovered at a concentration of

【表】【table】

【表】 実施例 2 側面を多孔状に構成した円筒(直径1000mm)
に、植毛布として3デニールのアクリル製繊維
で、毛足の長さ50mm、植毛密度1500g/m3、過
面積0.75m2のものを装着して過筒とし、この
過筒を処理槽内に回転可能に装填し、この過筒
を装填した処理槽を2セツト用意した。そして製
紙工場の抄紙工程より排出された懸濁物質濃度
(平均)700ppmの原排水250m3を10.4m3/Hの流
量で上記の各々の処理槽に流入させると同時に
過筒を回転数6rpmにて運転し、原排水を植毛
布に通水させることによりそれぞれ懸濁物質の
過処理を行ない、各植毛布が懸濁物質で目結ま
りをしたときに、一方の過筒においては、本発
明方法、すなわち第31図に示すように空気供給
管を立ち上がり管状に設けてその散気管を植毛
布の内面に近接させて設け、第3表に示すような
条件で加圧空気と逆洗水(水)を供給して植毛
布の逆洗処理を行ない懸濁物質の剥離を行なつ
た。また他方の過筒においては、従来方法とし
て逆洗水のみを第3表に示すような条件で供給し
て植毛布の逆洗処理を行ない、懸濁物質の剥離
を行なつたが、剥離は不十分であつた。 以上で明らかなように、本発明方法は従来方法
に比較すると、逆洗水量は2/5に減少し、逆洗時
間は38%短縮することができた。 また、このように逆洗処理をした植毛布に再
度前記の原水を通水して過処理を行なつたとこ
ろ、第4表に示すような結果になつた。すなわ
ち、本発明方法は従来方法に比較して処理水(
過水)量は70m3増加し、また処理水のSSも数段
と減少させることができ、さらに逆洗廃水(処理
槽中の原水も含む)中の濃縮懸濁物質であるパー
ジンパルプを5倍の濃度で回収することができ
た。
[Table] Example 2 Cylinder with porous side surface (diameter 1000mm)
A 3-denier acrylic fiber with a pile length of 50 mm, a flocking density of 1500 g/m 3 , and an excess area of 0.75 m 2 was attached as a flocked cloth to form a overtube, and this overtube was placed in the treatment tank. Two sets of treatment tanks were prepared in which the tubes were rotatably loaded. Then, 250 m 3 of raw wastewater with a suspended solids concentration (average) of 700 ppm discharged from the papermaking process of a paper mill was flowed into each of the above treatment tanks at a flow rate of 10.4 m 3 /H, and at the same time the rotation speed of the tube was increased to 6 rpm. The suspended solids are over-treated by passing the raw wastewater through the planted bed. In other words, as shown in Fig. 31, an air supply pipe is provided in the form of a rising tube, and its aeration pipe is placed close to the inner surface of the flocked cloth, and pressurized air and backwash water ( Water) was supplied to backwash the flocked fabric and remove suspended solids. In addition, in the other tube, as a conventional method, only backwash water was supplied under the conditions shown in Table 3 to backwash the flocked fabric and remove the suspended solids, but the removal was not successful. It was insufficient. As is clear from the above, compared to the conventional method, the method of the present invention was able to reduce the amount of backwash water to 2/5 and shorten the backwash time by 38%. In addition, when the above-mentioned raw water was again passed through the backwashed flocked fabric for overtreatment, the results shown in Table 4 were obtained. In other words, the method of the present invention reduces the amount of treated water (
The amount of superfluous water increased by 70m3 , and the SS of the treated water was also reduced by several steps. Furthermore, the amount of concentrated suspended solids in the backwash wastewater (including raw water in the treatment tank) was increased by 5 times. could be recovered at a concentration of

【表】【table】

【表】【table】 【図面の簡単な説明】[Brief explanation of the drawing]

図面はいずれも本発明の実施態様を示すもの
で、第1図は胴面が格子状の円筒に植毛布を装
着した過筒の回転軸内に空気供給管の散気管を
設けた過装置の縦断面説明図、第2図は植毛
布による過および逆洗状態を示す説明図、第3
図は胴面が多孔状の円筒に植毛布を装着した
過筒の回転軸より空気供給管を立ち上がり管状に
設け、その先端に散気管を植毛布内面に近接さ
せて設けた過装置の縦断面説明図である。 1……円筒、2……過筒、3……処理槽、4
……回転軸、5……集配液孔、6……空気供給
管、7……散気管、8……植毛布、9……空気
孔、10……格子状胴面、10′……多孔面胴
面、11……濃縮懸濁物質取出管、12……回転
歯車、13……モーター、14……液管、15
……原液管、16……軸受。
The drawings all show embodiments of the present invention, and Fig. 1 shows a filter device in which a diffuser pipe of an air supply pipe is provided in the rotating shaft of a cylinder having a lattice-shaped body and a flocked cloth attached. A vertical cross-sectional explanatory diagram, Fig. 2 is an explanatory diagram showing the overflow and backwashing state by the flocked cloth, and Fig. 3
The figure shows a vertical cross-section of a filter device in which an air supply pipe rises from the rotating shaft of a cylinder with a porous body surface and a flocked cloth is attached, and a diffuser pipe is installed at the tip of the tube in close proximity to the inner surface of the flocked cloth. It is an explanatory diagram. 1... Cylinder, 2... Pass cylinder, 3... Processing tank, 4
...rotating shaft, 5 ... liquid collection and distribution hole, 6 ... air supply pipe, 7 ... aeration pipe, 8 ... flocked fabric, 9 ... air hole, 10 ... lattice-shaped body surface, 10' ... porous Face and trunk surface, 11... Concentrated suspended solids removal pipe, 12... Rotating gear, 13... Motor, 14... Liquid pipe, 15
...Standard tube, 16...Bearing.

Claims (1)

【特許請求の範囲】 1 円筒の胴面を通液性を有するように形成し、
この円筒の胴面にエンドレス状の植毛布を装着
して過筒を構成し、当該過筒を回転させなが
ら懸濁物質を含む液体を植毛布の外側から内側
に通液することによつて過処理を行ない、上記
過処理において植毛布が懸濁物質で目詰まり
を生じたときに、当該過筒を回転させながら
液を植毛布に過方向とは逆の方向に通液する
とともに植毛布の内面から外面に空気を供給す
ることによつて植毛布に付着した懸濁物質を剥
離することを特徴とする植毛布の洗浄方法。 2 原液管と濃縮懸濁物質取出管を付設した処理
槽内に、円筒の胴面を通液性を有するように形成
し、かつこの円筒の胴面にエンドレス状の植毛
布を装着した過筒を回転軸を介して回転可能に
設け、当該回転軸に液の集配液孔を設け、さら
に当該過筒内に空気供給管と連通した散気管を
設けたことを特徴とす植毛布の洗浄装置。
[Claims] 1. The body surface of the cylinder is formed to have liquid permeability,
An endless flocked fabric is attached to the body surface of this cylinder to form a tube, and the tube is rotated while a liquid containing suspended matter is passed from the outside of the flocked fabric to the inside. When the flocculation becomes clogged with suspended solids during the above-mentioned overtreatment, the liquid is passed through the flocculation in the opposite direction to the overflow direction while rotating the overtube, and the A method for cleaning a flocked fabric, characterized in that suspended matter adhering to the flocked fabric is removed by supplying air from the inner surface to the outer surface. 2. In a treatment tank equipped with a stock solution pipe and a concentrated suspended solid removal pipe, a cylindrical body surface is formed to have liquid permeability, and an endless flocked cloth is attached to the body surface of the cylinder. A cleaning device for a flocked cloth, characterized in that the rotary shaft is rotatable through a rotating shaft, a liquid collection and distribution hole is provided on the rotating shaft, and an aeration pipe communicating with an air supply pipe is provided in the tube. .
JP11663778A 1978-09-25 1978-09-25 Washing method of tufted filter cloth and washing device Granted JPS5544311A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP11663778A JPS5544311A (en) 1978-09-25 1978-09-25 Washing method of tufted filter cloth and washing device

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP11663778A JPS5544311A (en) 1978-09-25 1978-09-25 Washing method of tufted filter cloth and washing device

Publications (2)

Publication Number Publication Date
JPS5544311A JPS5544311A (en) 1980-03-28
JPS6135886B2 true JPS6135886B2 (en) 1986-08-15

Family

ID=14692123

Family Applications (1)

Application Number Title Priority Date Filing Date
JP11663778A Granted JPS5544311A (en) 1978-09-25 1978-09-25 Washing method of tufted filter cloth and washing device

Country Status (1)

Country Link
JP (1) JPS5544311A (en)

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN103349865A (en) * 2013-05-17 2013-10-16 大唐国际发电股份有限公司高铝煤炭资源开发利用研发中心 Tilting-pan filter filtration cloth regeneration method
CN103638744A (en) * 2013-11-27 2014-03-19 鄂尔多斯市东源煤铝科技有限公司 Method for improving filtering property of acid coal ash slurry

Families Citing this family (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS59203622A (en) * 1983-05-02 1984-11-17 Hiroyuki Nishide Filter material floating type filter
JPS60132815U (en) * 1984-02-15 1985-09-05 ブンリ工業株式会社 filter device
JP3757323B2 (en) * 1997-04-09 2006-03-22 月島機械株式会社 Simple filter
KR100957423B1 (en) * 2009-06-30 2010-05-11 주식회사 화성테크 Purifier device possible inverse-cleansing

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN103349865A (en) * 2013-05-17 2013-10-16 大唐国际发电股份有限公司高铝煤炭资源开发利用研发中心 Tilting-pan filter filtration cloth regeneration method
CN103638744A (en) * 2013-11-27 2014-03-19 鄂尔多斯市东源煤铝科技有限公司 Method for improving filtering property of acid coal ash slurry

Also Published As

Publication number Publication date
JPS5544311A (en) 1980-03-28

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