JP4676182B2 - Cyclone equipment - Google Patents

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JP4676182B2
JP4676182B2 JP2004277770A JP2004277770A JP4676182B2 JP 4676182 B2 JP4676182 B2 JP 4676182B2 JP 2004277770 A JP2004277770 A JP 2004277770A JP 2004277770 A JP2004277770 A JP 2004277770A JP 4676182 B2 JP4676182 B2 JP 4676182B2
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祺人 西岡
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祺人 西岡
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この発明は、各種の燃焼炉および乾燥機から排出される排ガスに含まれる煤塵や粉塵のような粒状物(固体)を遠心力を利用して除去するサイクロン装置に関する。   The present invention relates to a cyclone apparatus that removes particulate matter (solid) such as soot and dust contained in exhaust gas discharged from various combustion furnaces and dryers using centrifugal force.

ボイラやゴミ焼却炉からの煤塵や粉塵、あるいは下水処理施設における汚泥乾燥機から排出される粉塵等を含む排ガス中の粒状物(固体)を除去する装置として、一般に排ガスの流れを旋回させて遠心力により固体を分離、除去し、排ガスを浄化するサイクロン装置が広く利用されている。   As a device for removing particulate matter (solids) in exhaust gas including soot and dust from boilers and garbage incinerators, or dust discharged from sludge dryers in sewage treatment facilities, it is generally centrifuged by swirling the flow of exhaust gas Cyclone devices that separate and remove solids by force and purify exhaust gas are widely used.

このサイクロン装置は、排ガスだけでなく粒状物を含む流体の浄化処理など各種の分野に広く利用されているが、その一例として、特許文献1の「サイクロン装置」が公知である。この従来のサイクロン装置は、研削盤などの産業機械から排出される切屑、砥粒などを含むクーラント液から砥粒などを除去し、クーラントの濾過を行うものである。   This cyclone device is widely used in various fields such as purification treatment of not only exhaust gas but also fluid containing particulate matter. As an example, the “cyclone device” of Patent Document 1 is known. This conventional cyclone device removes abrasive grains from a coolant liquid containing chips, abrasive grains and the like discharged from an industrial machine such as a grinding machine, and performs coolant filtration.

このクーラント濾過のためのサイクロン装置は、クーラントに含まれる切屑、砥粒などを遠心力で除去するため旋回部にクーラントを接線方向に導入する入口ノズルを接続し、旋回部は円筒部と円錐部とから成り、円筒部の中央には浄化されたクーラントの排出管が接続され、円錐部の下端は下部ノズル口として固形粒子を排出するように開放されている。そして、旋回部の円筒部と円錐部は、耐摩耗性に優れたセラミックス材が用いられており、クーラントに含まれる切屑、砥粒の旋回により耐摩耗性に優れたサイクロン装置とされている。   This cyclone device for coolant filtration connects an inlet nozzle that introduces coolant in a tangential direction to the swivel part to remove chips, abrasive grains, etc. contained in the coolant by centrifugal force. The purified coolant discharge pipe is connected to the center of the cylindrical portion, and the lower end of the conical portion is opened as a lower nozzle port to discharge solid particles. The cylindrical portion and the conical portion of the swivel portion are made of a ceramic material having excellent wear resistance, and are a cyclone device having excellent wear resistance due to turning of chips and abrasive grains contained in the coolant.

ところで、上述した特許文献1以外の一般的なサイクロン装置は、旋回部の材料は経済的な理由から金属製のものが用いられ、このため排ガス、クーラントのような粒状物を含む流体から煤塵、粉塵を旋回流として除去する際にこれら微小な粒状物による摩擦で旋回部の内壁が摩耗する。従って、従来の一般的な対策では旋回部(円筒部、円錐部を含む)の内面に耐摩耗性キャスタブルを張設し、1年に1回程度摩耗したキャスタブルを張替えする、又特殊な用途のサイクロン装置では超硬合金を旋回部内面の全面に亘り溶着肉盛りして本体の摩耗による破損を防止するようにしている。   By the way, as for the general cyclone device other than the above-mentioned patent document 1, the material of the swivel part is made of metal for economical reasons, and for this reason, the dust from the fluid containing particulate matter such as exhaust gas, coolant, When dust is removed as a swirling flow, the inner wall of the swirling portion is worn due to friction caused by these minute particulates. Therefore, the conventional general countermeasure is to install a wear-resistant castable on the inner surface of the swivel part (including the cylindrical part and the conical part), and replace the worn castable about once a year. In the cyclone device, cemented carbide is welded over the entire inner surface of the swivel portion to prevent damage due to wear of the main body.

しかし、上記従来の一般的な摩耗防止対策、あるいは特許文献1による対策のいずれの手段を採用しても製作費及びランニングコストが高くなるため、上記各対策は特殊な設備には使用されるとしても、一般的には価格的に使用が困難であり、上記対策が必ず施される訳ではない。従って、製作費及びランニングコストが上昇することなく耐摩耗性の対策が施され、長期の耐摩耗性を有する構造のサイクロン装置が所望されているが、現在迄にそのような要求を満足する提案はなされていない。
特開2001−149815号公報
However, if any of the above-mentioned conventional general wear prevention measures or the measures according to Patent Document 1 is adopted, the manufacturing cost and the running cost increase, so that the above measures are used for special equipment. However, it is generally difficult to use in terms of price, and the above measures are not necessarily taken. Accordingly, there is a demand for a cyclone device having a structure with long-term wear resistance that is provided with measures for wear resistance without increasing manufacturing costs and running costs. Has not been made.
JP 2001-149815 A

この発明は、上記の問題に留意して、高温焼却炉および汚泥乾燥機等から排出される煤塵、粉塵等の粒状物を含む被処理流体から、簡易な構成で装置本体の材料を従来と同じ金属製のものを用いて粒状物を効率よく除去できる、高耐摩耗性のサイクロン装置を提供することを課題とする。   In consideration of the above-mentioned problems, the present invention uses the same material for the main body of the apparatus with a simple configuration from a fluid to be treated including particulate matter such as soot and dust discharged from a high-temperature incinerator and sludge dryer. It is an object of the present invention to provide a highly abrasion-resistant cyclone device that can efficiently remove particulates using a metal material.

この発明は、上記の課題を解決する手段として、気体に煤塵、粉塵等の粒状物が混在し、粒状物を除去する処理をすべき被処理流体を送り込む流入管を、上記流体を旋回させる旋回部にその接線方向に接続し、上記流体の旋回による遠心力で粒状物を分離、除去するサイクロン装置において、旋回部は円筒部とその下方に続く円錐部とから成り、円錐部の所定領域に所定孔径、所定個数の連通孔を、旋回流が円錐部の外部に落込む乱流とならないように、かつ粒状物をこの円錐部外へ排出し得るように設けたことを特徴とするサイクロン装置としたのである。 As a means for solving the above-described problems, the present invention provides a swirl that swirls an inflow pipe that feeds a fluid to be processed to be processed to remove the particulate matter when particulate matter such as soot and dust is mixed in the gas. parts to connect to the tangential direction, separated particulates by centrifugal force caused by the turning of the fluid in the cyclone device for removing, turning unit consists of a conical part which follows below the cylindrical portion and its predetermined region of the conical portion cyclone is characterized by providing a predetermined pore size, a communicating hole of a predetermined number, as swirl flow can be discharged so as not to落込no turbulence outside the conical portion, and the particulates to the conical outer to It was a device.

上記の構成としたサイクロン装置によれば、被処理流体に含まれる粒状物が殆ど除去され、排ガスは外部へ放出されても大きな影響を与えることのない状態に浄化されて排出される。被処理流体は円筒部で旋回して遠心力が働き、重さの大きい粒状物は中心から外周方向へ移動して内壁に到達する。内壁に到達した粒状物は、気体が旋回急傾斜で下降するのに対して、旋回しながら緩やかに下降するため、気体と粒状物の流れは異なった動きをして旋回下降する。   According to the cyclone apparatus configured as described above, most of the particulate matter contained in the fluid to be treated is removed, and the exhaust gas is purified and discharged so as not to have a significant effect even if released to the outside. The fluid to be treated swirls in the cylindrical portion and centrifugal force acts, and the heavy granular material moves from the center to the outer peripheral direction and reaches the inner wall. Since the granular material that has reached the inner wall descends slowly while swirling while the gas descends with a steep turning inclination, the flow of the gas and the particulate matter moves differently and swirls downward.

但し、粒状物はサイクロンの下部に至って静止するまでは気体の円運動の影響を受けて旋回を続ける。このとき、円筒部では粒状物は旋回しながら下降するが、円筒部から円錐部へ移動すると粒状物は遠心力で円筒部の内壁に押付けられた状態でさらに外向きに、即ち上向きの円錐部では上方に移動する力が作用し、一方重力(自重)で下降しようとする力も共に働いて均衡し、同じ部位(レベル)を気体の旋回流の影響を受けながら旋回し続ける。   However, the granular material continues to turn under the influence of the circular motion of the gas until it reaches the lower part of the cyclone and stops. At this time, in the cylindrical portion, the granular material descends while swirling, but when moving from the cylindrical portion to the conical portion, the granular material is further outwardly pressed against the inner wall of the cylindrical portion by centrifugal force, that is, the upward conical portion. Then, the force that moves upward acts, while the force that descends due to gravity (self-weight) works together and balances, and the same part (level) keeps swirling while being affected by the swirling flow of gas.

このため、連通孔による粒状物分離手段が設けられていなければ、上記粒状物は研削材の役目をし、各部位の摩耗が発生し進行することとなり、粒状物が摩耗又は破砕によって粒子が小さくなった場合には上記力の不均衡が生じ、均衡がとれる位置まで移動して再び不均衡となるまで旋回を続けることとなる。しかし、このような状態の発生を防止するため、サイクロン装置本来の排出部以外に粒状物分離手段が設けられており、この分離手段の連通孔を通過して最長1周長の水平旋回する間に各粒状物は円錐部から外部へ押出され、被処理流体から分離除去される。 For this reason, if the granular material separating means by the communication hole is not provided, the granular material serves as an abrasive, and wear of each part occurs and progresses, and the granular material becomes small due to wear or crushing. In such a case, an imbalance of the force is generated, and the turn is continued until the balance is reached and the imbalance is restored. However, in order to prevent the occurrence of such a state , particulate matter separating means is provided in addition to the original discharge part of the cyclone device , and during the horizontal turning of the longest one round length through the communication hole of the separating means. In addition, each granular material is extruded from the conical portion to the outside and separated and removed from the fluid to be treated.

この発明のサイクロン装置は、円錐部に粒状物分離手段を設けて粒状物を気流の旋回に乱れを生じることなく外部へ押出して被処理流体から分離、除去するようにしたから、装置本体の旋回部を従来と同様な一般的な金属製材料を用いて形成しても耐摩耗性が格段に向上し、長期間に亘って円錐部の取替え、補修等のメンテナンス(保守)を必要とせず、かつ経済的なコストで製作できるというきわめて顕著な効果が得られる。   In the cyclone device of the present invention, the particulate matter separating means is provided at the conical portion so that the particulate matter is extruded to the outside without causing disturbance in the swirling of the air current, and separated and removed from the fluid to be processed. Even if the part is formed using the same general metal material as before, the wear resistance is remarkably improved, and maintenance (maintenance) such as replacement and repair of the cone part is not required over a long period of time, In addition, a very remarkable effect is obtained in that it can be manufactured at an economical cost.

以下、この発明の実施形態について図面を参照して説明する。図1は実施形態のサイクロン装置SG(固体と気体の分離サイクロン)の全体概略構成図を示す。このサイクロン装置SGは、被処理流体G0 を送り込む流入管1と、上記流体G0 を旋回させて遠心力を作用させ、上記流体G0 に含まれる粒状物を分離、除去するための旋回部2と、粒状物が分離、除去され、浄化された処理済流体G1 を排出する排出管5と、後述する粒状物分離手段6により分離、除去された粒状物を捕集し、排出する捕集部7とを備えている。 Embodiments of the present invention will be described below with reference to the drawings. FIG. 1 is an overall schematic configuration diagram of a cyclone device SG (solid and gas separation cyclone) according to an embodiment. The cyclone device SG is an inlet pipe 1 for feeding the fluid to be treated G 0, to pivot the fluid G 0 by the action of centrifugal force, separates the particulates contained in the fluid G 0, the turning unit for removing 2 and the discharge pipe 5 that discharges the treated fluid G 1 that has been separated, removed and purified by the particulate matter, and the particulate matter that has been separated and removed by the particulate matter separation means 6 described later. And a collecting section 7.

被処理流体G0 は、高温焼却炉、ボイラ、溶融炉、汚泥乾燥機等から排出される煤塵、粉塵等の粒状物を含む気体であって、そのまま放置すると有害又は自然環境に影響を及ぼす虞れがあり、必ず粒状物を除去する処理を必要とする流体である。流入管1は、図1の(b)図に示すように、旋回部2に対しその外周に接線方向に接続され、流入した被処理流体G0 に旋回流を生じさせるように構成している。 The fluid G 0 to be treated is a gas containing particulate matter such as soot and dust discharged from a high-temperature incinerator, boiler, melting furnace, sludge dryer, etc., and may be harmful or affect the natural environment if left as it is. This is a fluid that always needs to be treated to remove particulate matter. Inlet pipe 1, as shown in (b) diagram of Figure 1, it is connected tangentially to the outer circumference with respect to the turning section 2 is configured to produce a swirling flow in the fluid to be treated G 0 which has flowed .

旋回部2は、上記被処理流体G0 を受入れる円筒部3と、その下方に続く円錐部4とから成る。この円筒部3には、その中心に、図示の例ではその長さ方向の略2/3程度の長さ、かつ円筒部3の上端を閉じている天板を貫通して上方へ突出するように排出管5が設けられている。排出管5の下端は開放され、粒状物を分離、除去され、浄化された処理済流体G1 がその下端から上方へと送られ図示しない接続管により外部へ排出される。 The swivel unit 2 includes a cylindrical portion 3 that receives the fluid G 0 to be processed and a conical portion 4 that continues below the cylindrical portion 3. The cylindrical portion 3 protrudes upward through the top plate at the center thereof, in the illustrated example, about 2/3 in the length direction and closing the upper end of the cylindrical portion 3. Is provided with a discharge pipe 5. The lower end of the discharge pipe 5 is opened, the particulate matter is separated and removed, and the purified treated fluid G 1 is sent upward from the lower end and discharged to the outside through a connection pipe (not shown).

円錐部4は、下方に直径が減少する長い円錐形に形成され、その下端は内壁に沿って少しずつ落下し集められる粒状物の残留分を排出する下部排出部4aとして形成されている。この下部排出部4aは、上方の排出管5へ処理済流体G1 が向かうのに支障のない程の小径である。又、円錐部4の上端から下方の一定範囲に亘ってその壁面に粒状物分離手段6が設けられている。この粒状物分離手段6は、円錐部4の内部を外部と連通する多数の連通孔6a、6b、6c、……から成る。 The conical portion 4 is formed in a long conical shape whose diameter decreases downward, and a lower end thereof is formed as a lower discharge portion 4a that discharges the remaining particulate matter that is gradually dropped and collected along the inner wall. The lower discharge portion 4a is small enough not interfering to treated fluid G 1 above to the discharge pipe 5 is directed. Moreover, the granular material separation means 6 is provided in the wall surface over the fixed range below from the upper end of the cone part 4. As shown in FIG. The granular material separating means 6 includes a plurality of communication holes 6a, 6b, 6c,... That communicate the inside of the conical portion 4 with the outside.

上記連通孔6a、6b、6c……は、例えば図2Aの(a)図、又は(b)図のように、多数の小孔6a1 、6a2 、6a3 ……を円弧状に連ねて1段目の連通孔6aとし、6b、6c……も同様に多段に亘って形成したものとすることができる。このとき、多数の小孔6a1 、6a2 、……の大きさ及びピッチは、各段の連通孔6a、6b、6c……の各レベルで旋回する被処理流体G0 に乱流を生じない程の径及び寸法に設定する。特に径が大き過ぎると旋回流が外部へ落込み、起伏が大きくなり、遠心力が働いているので壁側に押し戻されて旋回流に乱流(渦流)が生じることとなるため(図4参照)、使用される用途、設備規模に応じて所定径に設定する。 The communication holes 6a, 6b, 6c... Are formed by connecting a large number of small holes 6a 1 , 6a 2 , 6a 3 ... In a circular arc shape as shown in FIG. Similarly, the first-stage communication hole 6a can be formed over multiple stages in the same manner. At this time, the size and pitch of the large number of small holes 6a 1 , 6a 2 ,... Generate turbulent flow in the fluid G 0 swirling at each level of the communication holes 6a, 6b, 6c. Set to a diameter and dimensions that are not too large. In particular, if the diameter is too large, the swirling flow falls outside, the undulations increase, and the centrifugal force is applied, so it is pushed back to the wall side and turbulent flow (vortex flow) occurs in the swirling flow (see Fig. 4). ), Set to a predetermined diameter according to the intended use and equipment scale.

又、多数の小孔6a1 、6a2 、……のピッチを所定以下の寸法とする場合は、図2Aの(b)図のように円弧状のスリット6ab、6bb、6cb……を多段状に設けて形成してもよい。さらに、図2Bの(c)図、(d)図、(e)図のような各種変形例のいずれも採用することができる。 When the pitch of the large number of small holes 6a 1 , 6a 2 ,... Is less than a predetermined dimension, arc-shaped slits 6ab, 6bb, 6cb,. May be provided. Furthermore, any of various modified examples such as (c), (d), and (e) in FIG. 2B can be adopted.

上記粒状物分離手段6は円錐部4に対し1組だけ設けた例を示したが、実際の装置では円錐部4の全周面に少なくとも2〜3箇所以上設けるのが望ましい。なお、旋回部2は従来の特殊な材料(超硬合金、セラミックス材)を用いることなく、一般的な金属製材料が用いられている。   Although an example in which only one set of the granular material separating means 6 is provided for the conical portion 4 is shown, it is desirable to provide at least two or three or more places on the entire peripheral surface of the conical portion 4 in an actual apparatus. The swivel unit 2 is made of a general metal material without using a conventional special material (a cemented carbide or a ceramic material).

捕集部7は、上記粒状物分離手段6に対応してその多数の小孔又はスリットから押出される粒状物を捕集できるように図2Aの(a)図、(b)図中の二点鎖線に対応する幅、長さの捕集口7aを円錐部4の外周に取付け、その下部の連結管の途中に開閉弁8(手動)を設け、所定量の粒状物を一定期間毎に下方の収容バケット9に落下させて排出できるようにしている。又、前述したように、上記分離手段6が複数箇所設けられる場合は、対応して捕集部7も複数箇所に設けられることとなる。但し、連結管は複数の捕集部7のものを互いに連結して、1箇所で収容バケット9に落下させるようにしてもよい。   The collecting unit 7 corresponds to the granular material separating means 6 so that it can collect the granular material extruded from its many small holes or slits, as shown in FIGS. 2A and 2B. A collecting port 7a having a width and a length corresponding to the dotted line is attached to the outer periphery of the conical portion 4, and an on-off valve 8 (manual) is provided in the middle of the connecting pipe below the conical portion 4 so that a predetermined amount of particulate matter is removed at regular intervals. It is made to fall in the accommodation bucket 9 below so that it can be discharged. Further, as described above, when the separation means 6 is provided at a plurality of locations, the collecting portions 7 are also provided at a plurality of locations correspondingly. However, the connecting pipes may connect the ones of the plurality of collecting portions 7 to each other and drop into the accommodation bucket 9 at one place.

上記の構成とした実施形態のサイクロン装置によれば、流入管1から流入する被処理流体G0 から粒状物が実効的に除去され、処理部、特に円錐部4の内壁の磨耗は、金属製材料で円錐部4が形成されていても、粒状物が分離手段6によって殆ど除去されるため、長期の使用に耐え得る高耐摩耗性の機能が得られる。粒状物が混入した被処理流体G0 が旋回部2の円筒部3に流入すると、流体G0 はその流体の運動エネルギにより旋回を始め、その旋回により円筒部3内で遠心力が発生すると共に、円筒部3の下方へと下降する。 According to the cyclone device of the embodiment having the above-described configuration, the particulate matter is effectively removed from the fluid G 0 flowing from the inflow pipe 1, and the wear of the inner wall of the processing portion, particularly the conical portion 4, is made of metal. Even if the conical portion 4 is formed of a material, since the particulate matter is almost removed by the separating means 6, a function of high wear resistance that can withstand long-term use can be obtained. When the fluid to be treated G 0 mixed with particulate matter flows into the cylindrical portion 3 of the swivel unit 2, the fluid G 0 starts swirling by the kinetic energy of the fluid, and the swirling generates a centrifugal force in the cylindrical portion 3. , Descends below the cylindrical portion 3.

このため、遠心力の作用によって重さの小さい気体は中心部に、重さの大きい粒状物は外周方向へ移動しながら下降するが、それぞれの粒状物が除去された流体は反転して排出管5へ向い、外部へ排出される。一方、上記外周方向へ移動した重さの大きい粒状物は、図3の(a)図に示すように円筒部3の内壁D点に到達する。この粒状物は、旋回しながら重力の作用で円錐部4のE点まで下降すると、遠心力によって円錐部4の内壁に押付けられた状態で一層外方向へ、即ち矢印の如く上向きの円錐内面では斜め上方へ移動しようとする力が働くと共に、重力(自重)で下方向へ移動しようとする力も働く。   For this reason, the gas with a low weight moves down to the center by the action of the centrifugal force and the granular material with a heavy weight descends while moving in the outer peripheral direction, but the fluid from which each granular material has been removed is reversed to the discharge pipe. It goes to 5 and is discharged outside. On the other hand, the heavy granular material moved in the outer peripheral direction reaches the inner wall D point of the cylindrical portion 3 as shown in FIG. When this granular material descends to the point E of the conical part 4 while swirling while being swung, it is further pushed outward by the centrifugal force against the inner wall of the conical part 4, that is, on the inner surface of the conical upward as indicated by an arrow. A force that moves diagonally upwards works, and a force that moves downwards by gravity (self-weight) also works.

そして、周速(遠心力作用)、重量と粒度によって上下双方に働く力が均衡を保った状態では同部位(レベル)を水平旋回して磨耗作用が続く。粒状物自体が旋回し摩擦すると、体積が減少し、あるいは破砕されて遠心力の影響が小さくなり、均衡が破れて上下に働く力が不均衡になって粒状物は下方へ移動するが、下方の位置では円錐部が細くなって周速が速くなり、遠心力が強くなって再び上述した上下方向の力が均衡し、E点のレベルに粒状物分離手段6の多数の小孔又はスリットが設けられていないとすると、移動した部位で同じく旋回磨耗を繰り返す。   In the state where the peripheral speed (centrifugal force action), the force acting on both the upper and lower sides according to the weight and the particle size are balanced, the same part (level) is swung horizontally and the wear action continues. If the granular material itself turns and rubs, the volume decreases or is crushed and the influence of centrifugal force is reduced, the balance is broken and the force acting up and down becomes unbalanced and the granular material moves downward, but the downward movement In this position, the cone portion becomes thinner, the peripheral speed becomes faster, the centrifugal force becomes stronger, the above-mentioned vertical force is balanced again, and many small holes or slits of the granular material separating means 6 are formed at the level of point E. If it is not provided, the turning wear is repeated at the moved part.

こうして順次E点からE1 →E2 へと移動しながら1個の粒状物が円錐部4の内壁をその全面に亘って磨耗する。粒状物の数が多くなればなる程磨耗は激しくなる。従って、この粒状物を少なくとも最長1周長(1箇所の取出)で円錐部4の外部へ除去することができれば、磨耗は殆どなくなり、長期の使用に耐え得ることとなる。このため、この実施形態では円錐部4の円周上の少なくとも1箇所に粒状物分離手段6が設けられており、これにより内壁面に位置する粒状物を外部へ最長1周長以内で押出し、捕集部7により捕集し、排出することができる。 In this way, one granular material wears over the entire inner wall of the conical portion 4 while moving from point E to E 1 → E 2 sequentially. As the number of granular materials increases, the wear increases. Therefore, if this granular material can be removed to the outside of the conical portion 4 with at least one perimeter (extraction of one place), the wear is almost eliminated and it can withstand long-term use. For this reason, in this embodiment, the granular material separating means 6 is provided in at least one place on the circumference of the conical portion 4, thereby extruding the granular material located on the inner wall surface within a maximum length of one circumference, It can be collected and discharged by the collection unit 7.

即ち、粒状物はD点から均衡のとれる位置E、E又はEまで旋回しながら移動するが、それぞれのレベルでは水平旋回してE’、E’、E’部に達する。この粒状物は、円錐部4に設けた粒状物分離手段6の多数の小孔又はスリットによる連通孔を通過して捕集口7aにより捕集され、開閉弁8を介して外部の収容バケット9に排出される。以上では、1つの粒状物が降下しながら円錐部4の内壁面を磨耗する現象を防止する作用について説明したが、図3の(b)図は、円錐部4の途中のレベルでF点、G点の内壁に粒状物が到達した場合を示す。
このとき、連通孔6を、図2A(b)、(b’)に示すように、スリット6ab、6bb・・を円弧状に設けて形成し、そのスリットを、旋回流の方向にオーバーラップしつつ上下方向に並ぶようにすれば、粒状物が円錐部4内を水平方向に最長1周長する間にそのスリット位置に到達するので、連通孔(スリット)6を介した粒状物の除去効率が向上して、円錐部4の摩耗がより防止される。
That is, the granular material moves while turning from the point D to a balanced position E, E 1 or E 2, but at each level, it turns horizontally and reaches the E ′, E 1 ′, E 2 ′ part. The particulate matter passes through a number of small holes or communication holes formed by slits of the particulate matter separating means 6 provided in the conical portion 4 and is collected by the collection port 7a. To be discharged. In the above description, the action of preventing the phenomenon that the inner wall surface of the conical portion 4 is worn while one granular material descends has been described. However, FIG. The case where a granular material reaches | attains the inner wall of G point is shown.
At this time, as shown in FIGS. 2A (b) and 2 (b '), the communication hole 6 is formed by forming slits 6ab, 6bb ... in an arc shape, and the slits overlap in the direction of the swirling flow. However, if the particles are arranged in the vertical direction, the particles reach the slit position while extending a maximum of one round in the conical portion 4 in the horizontal direction, so that the removal efficiency of the particles through the communication holes (slits) 6 is achieved. Is improved, and wear of the cone portion 4 is further prevented.

被処理流体中に含まれる粒状物のサイズは種々であり、このため粒状物はサイズの種類および存在位置によっては直ちにD点、E点の周壁に達するのではなく、旋回流内を下降して途中でF点、G点に到達するものもある。これらの粒状物は、それぞれのレベルに下降した時にD点、E点の周壁に到達し、その後はE点での作用と同様にD点、F点で水平旋回し、E’の点と同様にF’、G’点で粒状物が除去される(但し、D、E、〜F’、G’の各点は仮定点である)。   The size of the granular material contained in the fluid to be treated varies. For this reason, depending on the type and location of the granular material, the granular material does not immediately reach the peripheral walls of point D and point E, but descends in the swirling flow. Some of them reach F point and G point on the way. These granular materials reach the peripheral walls of point D and point E when descending to their respective levels, and then turn horizontally at points D and F in the same manner as at point E and are the same as point E '. The particulate matter is removed at the points F ′ and G ′ (however, the points D, E, to F ′ and G ′ are assumed points).

なお、旋回流は円錐部4の粒状物分離手段6により大部分の粒状物が除去されるが、極く一部円錐部4の内壁に沿って落下する粒状物が含まれており、これらは円錐部4の下部排出部4aから排出される。   In addition, although most of the particulate matter is removed from the swirling flow by the particulate matter separating means 6 of the cone portion 4, a part of the particulate matter that falls along the inner wall of the cone portion 4 is included. It is discharged from the lower discharge portion 4 a of the conical portion 4.

この発明のサイクロン装置は、被処理流体から粒状物を殆ど分離、除去でき、装置本体の材料は従来と同様であるから、ゴミ焼却炉、溶融炉、ボイラ、汚泥乾燥機など各種の排ガスを排出する装置に広く利用できる。   The cyclone device of the present invention can almost separate and remove particulate matter from the fluid to be treated, and since the material of the device body is the same as the conventional material, various exhaust gases such as a garbage incinerator, melting furnace, boiler, sludge dryer are discharged. Can be widely used in equipment to do.

実施形態のサイクロン装置の(a)全体概略構成図、(b)(a)図の矢視Bからの平面図、(c)円錐部の部分拡大断面図(A) Whole schematic block diagram of cyclone apparatus of embodiment, (b) Top view from arrow B of (a) figure, (c) Partial expanded sectional view of a cone part 同上装置の粒状物分離手段の(a)部分側面図、(a' )同斜視図、(b)他の例の部分側面図、(b' )同斜視図(A) Partial side view, (a ') Perspective view, (b) Partial side view of another example, (b') Perspective view 同上装置の粒状物分離手段の(c)〜(e)部分側面図(C)-(e) partial side view of the granular material separation means of the same apparatus 同上装置の作用の説明図Explanatory drawing of the operation of the device 連通孔付近の旋回流の作用の説明図((a)乱流小、(b)乱流大))Explanatory drawing of action of swirling flow near communication hole ((a) small turbulent flow, (b) large turbulent flow))

符号の説明Explanation of symbols

1 流入管
2 旋回部
3 円筒部
4 円錐部
4a 下部排出部
5 排出管
6 粒状物分離手段
7 捕集部
7a 捕集口
DESCRIPTION OF SYMBOLS 1 Inflow pipe 2 Swivel part 3 Cylindrical part 4 Conical part 4a Lower discharge part 5 Discharge pipe 6 Granular substance separation means 7 Collection part 7a Collection port

Claims (1)

気体に煤塵、粉塵等の粒状物が混在し、粒状物を除去する処理をすべき被処理流体(G)を送り込む流入管(1)を、上記流体(G)を旋回させる旋回部(2)にその接線方向に接続し、上記流体(G)の旋回による遠心力で粒状物を分離、除去して、その除去した粒状物を旋回部(2)下部の下部排出部(4a)から排出するとともに、浄化された処理済流体(G)を旋回部(2)上方の排出管(5)から排出する粒状物除去用サイクロン装置において、
上記旋回部(2)は円筒部(3)とその下方に続く円錐部(4)とから成り、円錐部(4)の所定領域に所定孔径、所定個数の連通孔(6)を、旋回流が円錐部(4)の外部に落込む乱流とならないように、かつ粒状物をこの円錐部(4)外へ排出し得るように設けて、上記旋回部(2)下部の下部排出部(4a)以外から、その連通孔(6)を介し上記粒状物を分離、除去するようにし前記連通孔(6)が、スリットを円弧状に設けて形成されたものであって、前記円弧は、前記旋回流の下流側で凸状となっており、前記粒状物が円錐部(4)内を水平方向に最長1周長する間に前記スリット(6)位置に到達して前記円錐部(4)から外部へ押出され、被処理流体(G )から分離除去するように、そのスリット(6)を、前記旋回流の方向にオーバーラップしつつ上下方向に並ぶように形成して、上記粒状物が円錐部(4)内を旋回してその円錐部(4)が摩耗されるのを防止するようにしたことを特徴とするサイクロン装置。
Gas dust, particulate matter such as dust is mixed in, the inlet pipe feeding the fluid to be treated (G 0) to be treated to remove particulate matter (1), the turning unit for turning the fluid (G 0) ( 2) is connected to the tangential direction, and the particulate matter is separated and removed by centrifugal force generated by the swirling of the fluid (G 0 ), and the removed particulate matter is removed from the swivel portion (2) at the lower discharge portion (4a). In the cyclone device for removing particulate matter, the purified processed fluid (G 1 ) is discharged from the discharge pipe (5) above the swivel part (2).
The swivel part (2) is composed of a cylindrical part (3) and a conical part (4) that follows the cylindrical part (3). A predetermined hole diameter and a predetermined number of communication holes (6) are provided in a predetermined region of the conical part (4). Is provided so that it does not become a turbulent flow that falls outside the conical portion (4), and so that the particulate matter can be discharged out of the conical portion (4), and the lower discharge portion ( 4a) from outside, the granules through the communicating hole (6) separation, followed by removal, the communication hole (6) is, which has been formed by providing a slit in a circular arc shape, the arc , Which is convex on the downstream side of the swirl flow, and reaches the slit (6) position while the granular material extends a maximum of one round in the horizontal direction in the conical portion (4) and reaches the conical portion ( extruded from 4) to the outside, so as to remove separated from the fluid to be treated (G 0), the slit (6), said pivot It formed so as to be aligned in overlapping with the vertical direction in the direction of, that the conical part the granules turning a conical portion (4) in (4) is to be prevented from being worn Features a cyclone device.
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