JPH0561164B2 - - Google Patents
Info
- Publication number
- JPH0561164B2 JPH0561164B2 JP3969889A JP3969889A JPH0561164B2 JP H0561164 B2 JPH0561164 B2 JP H0561164B2 JP 3969889 A JP3969889 A JP 3969889A JP 3969889 A JP3969889 A JP 3969889A JP H0561164 B2 JPH0561164 B2 JP H0561164B2
- Authority
- JP
- Japan
- Prior art keywords
- garbage
- negative pressure
- vessel
- suction
- storage tank
- 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 - Fee Related
Links
- 239000010813 municipal solid waste Substances 0.000 claims description 103
- 239000000428 dust Substances 0.000 claims description 43
- 238000001514 detection method Methods 0.000 claims description 10
- 238000000034 method Methods 0.000 description 14
- 239000002699 waste material Substances 0.000 description 10
- 230000007613 environmental effect Effects 0.000 description 6
- 238000010586 diagram Methods 0.000 description 5
- 230000007423 decrease Effects 0.000 description 3
- XLYOFNOQVPJJNP-UHFFFAOYSA-N water Substances O XLYOFNOQVPJJNP-UHFFFAOYSA-N 0.000 description 2
- 230000000694 effects Effects 0.000 description 1
- 230000003584 silencer Effects 0.000 description 1
Landscapes
- Refuse Collection And Transfer (AREA)
Description
【発明の詳細な説明】
(産業上の利用分野)
本発明は、ゴミ収集業者等によつてゴミを収集
する場合のゴミ吸引輸送装置に関する。DETAILED DESCRIPTION OF THE INVENTION (Field of Industrial Application) The present invention relates to a garbage suction transport device used when garbage is collected by a garbage collector or the like.
(従来の技術)
従来、例えば家庭から出されたゴミを収集する
方法として、
(1) 団地やビルごとにゴミ用コンテナを配設して
各家庭等のゴミをこのコンテナに投入させ、収
集業者がこのコンテナを定期的に交換する方
法。(Prior art) Conventionally, for example, as a method of collecting garbage disposed of from households, (1) garbage containers are placed in each housing complex or building, each household's garbage is placed in the container, and a collection company collects garbage. How to replace this container periodically.
(2) ゴミ収集車で路上に置かれたゴミ袋を収集す
る方法。(2) A method of collecting garbage bags placed on the street using a garbage truck.
がある。There is.
(発明が解決しようとする課題)
ところが、上記“(1)の方法”の場合、各家庭等
の利用者がゴミをコンテナまで運ぶので、その途
中で道路にゴミを落として環境衛生を害するとい
う問題がある。しかも、コンテナ交換の都合上、
コンテナが道路に近接させて屋外に配設されるの
で、コンテナから出る悪臭が生活空間にまで漂う
ことがある。(Problem to be Solved by the Invention) However, in the case of the method (1) above, users such as households carry garbage to the container, and on the way, they drop garbage on the road, harming environmental hygiene. There's a problem. Moreover, due to the convenience of container exchange,
Since containers are placed outdoors close to the road, the odor emitted from the containers can waft into living spaces.
また、上記“(2)の方法”の場合、ゴミ袋が直接
路上に置かれるので、環境衛生が害されることに
なる。 Furthermore, in the case of "Method (2)" above, the garbage bags are placed directly on the street, which impairs environmental hygiene.
本発明はこのような点に着目してなされたもの
であり、その目的とするところは、ゴミを外界か
ら遮蔽された空間に閉じ込めておき、ゴミ収集時
には、これを負圧力により連通管を介してゴミ吸
引車に吸引、収集して、環境衛生を良好に維持し
ながらゴミ収集を確実に行うことにある。 The present invention was made with attention to these points, and its purpose is to confine garbage in a space shielded from the outside world, and when collecting garbage, remove it through a communication pipe using negative pressure. The goal is to ensure that garbage is collected while maintaining good environmental hygiene by sucking it into a garbage suction truck and collecting it.
上記目的を達成するため、本発明では、ゴミを
ベツセルに貯留しておき、ゴミ収集時にベツセル
内のゴミを、負圧および二次空気の導入によつて
タンブリング(攪拌)しつつ、連通管を介してゴ
ミ吸引車のゴミ収容タンクに吸込むこととしてい
る。 In order to achieve the above object, in the present invention, garbage is stored in a vessel, and when garbage is collected, the garbage in the vessel is tumbled (stirred) by the introduction of negative pressure and secondary air, and the communication pipe is opened. The garbage is then sucked into the garbage storage tank of the garbage suction vehicle.
しかし、その場合、ゴミの動きを推定するに、
ベツセル内でゴミがタンブリングされると、その
うち一部のゴミが一群となつて負圧力によつて連
通管を介して収容タンクに吸込まれるものと考え
られる。したがつて、この状態で未だベツセル内
にゴミが残つている場合には、ベツセル内への負
圧および二次空気の導入から一群のゴミの収容タ
ンクへの吸込みに至る“1サイクルのゴミ吸引”
を再度繰り返すことになる。ところが、この繰り
返しのタイミングを適切に行うには、前回の“1
サイクルのゴミ吸引”がいつ完了したのかを検出
する必要がある。 However, in that case, when estimating the movement of garbage,
It is thought that when the dust is tumbled in the vessel, some of the dust becomes a group and is sucked into the storage tank through the communication pipe by negative pressure. Therefore, if there is still trash left in the vessel in this state, one cycle of dust suction is performed, from the introduction of negative pressure and secondary air into the vessel to suction of a group of garbage into the storage tank. ”
will be repeated again. However, in order to perform this repeat timing appropriately, it is necessary to
It is necessary to detect when the cycle's "dust suction" is completed.
そこで、本発明者が上記“1サイクルのゴミ吸
引”の間の吸込側の負圧値の変化をみたところ次
のことが判つた。すなわち、ベツセルおよびゴミ
収容タンクの負圧化が進む間は負圧値が増大して
行き、ベツセルの二次空気が導入されてゴミのタ
ンブリングが開始すると負圧値が一気に下がつて
所定値以下の値に落ち付く。そして、この下降途
中のいずれかの負圧値において一群のゴミが連通
管を介して吸引、輸送されていく。 Therefore, the inventor of the present invention looked at the change in the negative pressure value on the suction side during the "one cycle of dust suction" and found the following. In other words, while the negative pressure in the Betsu cell and the garbage storage tank progresses, the negative pressure value increases, and when the secondary air of the Betsu cell is introduced and the tumbling of garbage begins, the negative pressure value suddenly decreases to below a predetermined value. It settles down to the value of . Then, at some negative pressure value during the descent, a group of dust is sucked and transported through the communication pipe.
このことに着目して、本発明では、さらに、こ
の負圧勾配の変化に基づいて“1サイクルのゴミ
吸引”がいつ完了したかを精度良く検出すること
をも目的としている。 Taking note of this, the present invention further aims to accurately detect when "one cycle of dust suction" is completed based on the change in this negative pressure gradient.
この目的を達成するため、本発明では、負圧値
が落ち付いて所定値よりも小さくなつたときに上
記“1サイクルのゴミ吸引”が完了したと判断す
ることとしている。 In order to achieve this objective, the present invention determines that the "one cycle of dust suction" is completed when the negative pressure value settles down and becomes smaller than a predetermined value.
具体的に、本発明の講じた解決手段は、第1図
に示すように、ゴミが貯留されるベツセルと、該
ベツセルに二次空気を導入する二次空気導入手段
41と、ゴミ吸引車に搭載され且つ連通管を介し
て上記ベツセルに接続されるゴミ収容タンクと、
該ゴミ収容タンクおよび上記ベツセルを負圧化す
る吸引装置23と、ゴミ収容タンクおよびベツセ
ルを負圧化してからベツセルに二次空気を導入し
てベツセルのゴミを連通管を介してゴミ収容タン
クに輸送するように上記吸引装置23および二次
空気導入手段41を制御する輸送制御手段42と
を備えるとともに、吸引装置23による負圧値を
検出する負圧検出手段25と、該負圧検出手段2
5の出力を受け、負圧勾配の変化率が所定変化率
を超え且つ負圧値が所定値よりも小さくなつたと
きに上記移送制御手段42による1サイクルのゴ
ミ吸引の完了信号を出力する完了信号出力手段4
3とを構成としている。 Specifically, the solution taken by the present invention, as shown in FIG. a garbage storage tank mounted on the vessel and connected to the vessel through a communication pipe;
A suction device 23 that makes the garbage storage tank and the vessel have a negative pressure, and a suction device 23 that makes the garbage storage tank and the vessel a negative pressure, and then introduces secondary air into the vessel to transfer the garbage in the vessel to the garbage storage tank through a communication pipe. A transportation control means 42 for controlling the suction device 23 and the secondary air introduction means 41 for transport, a negative pressure detection means 25 for detecting a negative pressure value by the suction device 23, and the negative pressure detection means 2
5, outputs a completion signal of one cycle of dust suction by the transfer control means 42 when the rate of change of the negative pressure gradient exceeds a predetermined rate of change and the negative pressure value becomes smaller than a predetermined value. Signal output means 4
It consists of 3.
(作用)
上記の構成により、本発明では、ベツセルを、
例えば地下に埋設するなどして外界から遮蔽した
状態で設けておき、各家庭等のゴミをシユート等
を介してこのベツセルに投入させるようにすれ
ば、道路にゴミが落ちたりゴミの悪臭が生活空間
にまで漂うことがなく、環境衛生が良好に維持さ
れることになる。(Function) With the above configuration, in the present invention, Betucel can be
For example, if it is installed in a state where it is hidden from the outside world by burying it underground, and if garbage from each household etc. is thrown into this Bethuseru via a chute, etc., garbage will not fall on the road and the bad smell of garbage will become a problem in people's lives. It will not drift into the space, and environmental hygiene will be maintained in good condition.
そして、ゴミ収集時、ゴミ吸引車のゴミ収容タ
ンクを連通管を介して上記ベツセルに接続し、輸
送制御手段42により吸引装置23および二次空
気導入手段41を制御して、ゴミ収容タンクおよ
びベツセルを負圧化してからベツセルに二次空気
を導入すると、ベツセル内のゴミがタンブリング
しつつ連通管を介してゴミ収容タンクに輸送され
て、ゴミがゴミ収容タンクに確実に収集されるこ
とになる。 When collecting garbage, the garbage storage tank of the garbage suction vehicle is connected to the vessel via the communication pipe, and the suction device 23 and the secondary air introduction means 41 are controlled by the transport control means 42, and the garbage storage tank and the vessel are connected to the vessel through the communication pipe. When secondary air is introduced into the waste cell after reducing the pressure to negative, the waste inside the waste cell tumbles and is transported to the waste storage tank via the communication pipe, ensuring that the waste is collected in the waste storage tank. .
その場合、負圧検出手段25により検出された
負圧値に基づいて、完了信号出力手段43により
負圧勾配の変化率が所定変化率を超え且つ負圧値
が所定値よりも小さくなつたときに1サイクルの
ゴミ吸引が完了したと判断して信号が出力される
ので、1サイクルのゴミ吸引がいつ完了したかを
精度良く検出できて1サイクルのゴミ吸引を再度
り返す場合に、繰り返しのタイミングが適切に行
われる。 In that case, based on the negative pressure value detected by the negative pressure detection means 25, when the completion signal output means 43 determines that the rate of change in the negative pressure gradient exceeds a predetermined rate of change and the negative pressure value becomes smaller than the predetermined value. Since it is determined that one cycle of dust suction has been completed and a signal is output, it is possible to accurately detect when one cycle of dust suction has been completed, and when repeating one cycle of dust suction, a signal is output. The timing is right.
(実施例)
以下、本発明の実施例を図面に基づいて説明す
る。(Example) Hereinafter, an example of the present invention will be described based on the drawings.
第2図は本発明の実施例を示す。同図におい
て、T1,T2…はゴミが貯留される閉空間を有す
るベツセルであつて、第3図に示すような形状を
有する。該各ベツセルT1,T2…は例えば団地や
ビルの地下に埋設されている。上記各ベツセル
T1,T2…には管状のシユートS1,S2…の一端が
それぞれ接続されており、該各シユートS1,S2…
の他端は分岐して上記団地やビルの各世帯等にそ
れぞれ接続されていて、各世帯等から投入された
ゴミを各ベツセルT1,T2…に回収するようにし
ている。そして、第2図および第3図に示すよう
に、該各シユートS1,S2…のベツセル側端部には
スライド式の弁よりなる投入ゲートI1,I2…がそ
れぞれ設けられている。 FIG. 2 shows an embodiment of the invention. In the same figure, T 1 , T 2 . . . are vessels having a closed space in which dust is stored, and have a shape as shown in FIG. 3. Each of the cells T 1 , T 2 . . . is buried underground, for example, in a housing complex or a building. Each of the above Bethusells
T 1 , T 2 ... are connected to one ends of tubular shoots S 1 , S 2 ..., respectively, and the respective shoots S 1 , S 2 ...
The other end is branched and connected to each household in the above-mentioned housing complex or building, so that the garbage thrown in by each household is collected at each Bethel T 1 , T 2 , etc. As shown in FIGS. 2 and 3, input gates I 1 , I 2 , which are slide-type valves, are provided at the end portions of the chutes S 1 , S 2 , on the vessel side, respectively. .
また、第2図および第3図に示すように、上記
各ベツセルT1,T2…には、この各ベツセルT1,
T2…に二次空気を導入する二次空気導入管A1,
A2…がそれぞれ接続されている。さらに、該各
二次空気導入管A1,A2…のベツセル側端部には
導入弁V1,V2…が設けられている。この二次空
気導入管A1,A2…と導入弁V1,V2…とにより、
二次空気導入手段41を構成している。 Moreover, as shown in FIGS. 2 and 3, each of the above-mentioned vessels T 1 , T 2 . . .
Secondary air introduction pipe A 1 that introduces secondary air into T 2 ...,
A 2 ... are connected respectively. Furthermore, introduction valves V 1 , V 2 . . . are provided at the end portions of the secondary air introduction pipes A 1 , A 2 . With these secondary air introduction pipes A 1 , A 2 ... and introduction valves V 1 , V 2 ...,
It constitutes secondary air introduction means 41.
さらに、D1は管状の排出管であつて、一端が
ベツセル数に応じて分岐して上記各ベツセルT1,
T2…に接続され、他端が地上に開口していて、
各ベツセルT1,T2…のゴミを地上まで案内する
ようにしている。そして、第2図および第3図に
示すように、該排出管D1の分岐部にはスライド
式の弁よりなる排出ゲートE1,E2…がそれぞれ
設けられている。 Furthermore, D 1 is a tubular discharge pipe, and one end is branched according to the number of vessels T 1 ,
T 2 ... is connected, the other end is open to the ground,
The garbage from each Bethel T 1 , T 2 . . . is guided to the ground. As shown in FIGS. 2 and 3, discharge gates E 1 , E 2 . . . each consisting of a sliding valve are provided at the branch portion of the discharge pipe D 1 .
また、Cはゴミ吸引車であつて、第4図に示す
ように、該ゴミ吸引車Cには直方体状のゴミ収容
タンク10と該ゴミ収容タンク10に接続された
吸込管D2とが搭載されている。このゴミ収容タ
ンク10は、ゴミの投棄時にその下部後端を中心
にして前部が上方に上がつてダンプできるように
設けられている。また、ゴミ収容タンク10は、
そのダンプ時に後端壁がその上端縁を中心にして
後方に開く開閉扉10aに形成されていて、ゴミ
収容タンク10内のゴミを車両後方に投棄するよ
うにしている。また、上記吸込管D2は、上記ゴ
ミ収容タンク10の上部において該タンク10に
接続され且つ鉛直軸回りに回転可能に設けられた
旋回管1と、該旋回管1に接続された可撓管2
と、該可撓管2に接続され且つ起伏可能に設けら
れた起伏管3と、該起伏管3に接続された伸縮管
4と、該伸縮管4に接続された可撓管5と、該可
撓管5に接続された先端部6とからなる。尚、7
は上記先端部6を支持するための支持部材、8は
上記起伏管3を支持するための支持フレームであ
る。よつて、ゴミ収集時にゴミ吸引車Cを上記排
出管D1の地上側開口に寄せて停車させたときに
上記旋回管1の旋回動、起伏管3の起伏動等によ
つて上記先端部6を排出管D1の地上側開口に接
続するようにしている。この接続時に排出管D1
と吸込管D2とにより連通管Dを構成し、該連通
管Dを介してゴミ収容タンク10を各ベツセル
T1,T2…に接続するようにしている。 Further, C is a garbage suction vehicle, and as shown in FIG. 4, the garbage suction vehicle C is equipped with a rectangular parallelepiped garbage storage tank 10 and a suction pipe D 2 connected to the garbage storage tank 10. has been done. This garbage storage tank 10 is provided so that when garbage is dumped, the front part thereof can be raised upwards centering on the rear end of the lower part. Moreover, the garbage storage tank 10 is
At the time of dumping, the rear end wall is formed into an opening/closing door 10a that opens rearward around its upper edge, so that the garbage in the garbage storage tank 10 is dumped to the rear of the vehicle. In addition, the suction pipe D 2 includes a swing pipe 1 connected to the tank 10 at the upper part of the waste storage tank 10 and rotatably provided around a vertical axis, and a flexible pipe connected to the swing pipe 1. 2
, an undulating tube 3 connected to the flexible tube 2 and provided so as to be able to be raised and lowered, an extensible tube 4 connected to the undulating tube 3, a flexible tube 5 connected to the extensible tube 4, It consists of a tip 6 connected to a flexible tube 5. In addition, 7
8 is a support member for supporting the tip portion 6, and 8 is a support frame for supporting the undulating tube 3. Therefore, when the garbage suction vehicle C is stopped near the ground side opening of the discharge pipe D 1 during garbage collection, the distal end portion 6 is caused by the turning movement of the turning pipe 1, the up-and-down movement of the undulating pipe 3, etc. is connected to the ground side opening of the discharge pipe D1 . When this connection is made, the discharge pipe D 1
and the suction pipe D2 form a communication pipe D, and the waste storage tank 10 is connected to each vessel via the communication pipe D.
It is connected to T 1 , T 2 ....
さらに、上記ゴミ吸引車Cには、ゴミ収容タン
ク10の前側に吸引ユニツト20が搭載されてい
る。該吸引ユニツト20は、一端が上記ゴミ収容
タンク10に接続され他端が大気に開放された吸
引通路21と、該吸引通路21に設けられたウオ
ータスクラバ22と、ブロワを有し且つウオータ
スクラバ22よりも大気開放側の吸引通路21に
設けられた吸引装置23と、該吸引装置23より
も大気開放側の吸引通路21に設けられた消音器
24とを備え、上記吸引装置23によりゴミ収容
タンク10および各ベツセルT1,T2…を負圧化
するようにしている。 Further, the garbage suction vehicle C has a suction unit 20 mounted on the front side of the garbage storage tank 10. The suction unit 20 has a suction passage 21 with one end connected to the garbage storage tank 10 and the other end open to the atmosphere, a water scrubber 22 provided in the suction passage 21, and a blower. The suction device 23 is provided in the suction passage 21 on the side that is open to the atmosphere, and the silencer 24 is installed in the suction passage 21 on the side that is open to the atmosphere rather than the suction device 23. 10 and each vessel T 1 , T 2 . . . are made to have negative pressure.
そして、上記投入ゲートI1,I2…、導入弁V1,
V2…、排出ゲートE1,E2…および吸引装置23
はコントロールユニツト30により制御される。
また、ウオータスクラバ22と吸引装置23との
間の吸引通路21には、吸引装置23による負圧
値を検出する負圧検出手段としての圧力センサ2
5が設けられており、該圧力センサ25の出力信
号はコントロールユニツト30に入力されてい
る。 Then, the input gates I 1 , I 2 . . . , the introduction valve V 1 ,
V 2 ..., discharge gates E 1 , E 2 ... and suction device 23
is controlled by a control unit 30.
Further, in the suction passage 21 between the water scrubber 22 and the suction device 23, a pressure sensor 2 is provided as a negative pressure detection means for detecting a negative pressure value caused by the suction device 23.
5 is provided, and the output signal of the pressure sensor 25 is input to a control unit 30.
次に、上記コントロールユニツト30の制御を
第5図のフローに基づいて説明する。スタート
後、まず、ステツプS1で各投入ゲートI1,I2…を
開くとともに、各排出ゲートE1,E2…および各
導入弁V1,V2…を閉じる。この状態で各世帯等
から投入されたゴミがシユートS1,S2…を介して
ベツセルT1,T2…にそれぞれ回収される。 Next, the control of the control unit 30 will be explained based on the flow shown in FIG. After starting, first, in step S1 , each input gate I 1 , I 2 . . . is opened, and each discharge gate E 1 , E 2 . In this state, garbage thrown in from each household etc. is collected via the chute S 1 , S 2 , etc. to the Bethels T 1 , T 2 , etc., respectively.
次に、ステツプS2で任意のベツセルTmの添字
mを”0”にセツトし、ステツプS3でmを“1”
だけカウントアツプする。これで初回に制御の対
象となるベツセルはT1になり、次回からは順次
T2,T3…と進んでいく。そして、ステツプS4で
Tmの投入ゲートImを閉じ、ステツプS5で排出ゲ
ートEmを開き、ステツプS6で吸引装置23をオ
ン作動させてエア吸引を開始する。そして、ステ
ツプS7で圧力センサ25により一定時間ごとに負
圧値PNを検出し、二点間の時間関数式“PN=f
(t)”より、その微分値P′N(負圧勾配)を求める。 Next, in step S2 , the subscript m of an arbitrary Bethel Tm is set to "0", and in step S3 , m is set to "1".
Only count up. Now, the Beth cell that will be controlled for the first time will be T 1 , and from next time onwards, it will be controlled sequentially.
It progresses as T 2 , T 3 , and so on. And in step S 4
The input gate Im of Tm is closed, the discharge gate Em is opened in step S5 , and the suction device 23 is turned on in step S6 to start air suction. Then, in step S7 , the pressure sensor 25 detects the negative pressure value P N at regular intervals, and the time function equation between the two points "P N = f
(t)”, find its differential value P′ N (negative pressure gradient).
その後、ステツプS8で負圧値PNが設定値Paを
超えたかどうかを判定し、エア吸引が進んでPN
>Paになると、ステツプS9で導入弁Vmを開き、
その直後に投入ゲートImを開く(第6図のの
状態)。このことにより、二次空気導入管Amか
らベツセルTmに二次空気が導入されてゴミのタ
ンブリングが開始され、負圧値が一気に下がつて
一群のゴミが連通管Dに入り始める(第6図の
〜の状態))。そして、連通管Dに一群のゴミが
入り切ると負圧値が略一定になり、一群のゴミが
連通管Dを介してゴミ収容タンク10に吸引、輸
送される(第6図の〜の状態)。さらに、一
群のゴミがゴミ収容タンク10に入り始めて連通
管内のゴミが途切れ始めると負圧値が下がり始
め、ゴミを輸送し終つて連通管Dが空になると、
負圧値が略一定値になる(第6図の〜の状
態)。このようにして、ベツセルTm内への負圧
および二次空気の導入から一群のゴミの収容タン
ク10への吸込みに至る“1サイクルのゴミ吸
引”がなされる。 After that, in step S8 , it is determined whether the negative pressure value P N exceeds the set value Pa, and air suction progresses to determine whether the negative pressure value P N exceeds the set value Pa.
>Pa, open the inlet valve Vm in step S9 ,
Immediately after that, the input gate Im is opened (state shown in FIG. 6). As a result, secondary air is introduced from the secondary air introduction pipe Am to the Betsu cell Tm, and tumbling of dust begins, the negative pressure value drops all at once, and a group of dust begins to enter the communication pipe D (Fig. 6). The state of)). When a group of garbage has entered the communication pipe D, the negative pressure value becomes approximately constant, and the group of garbage is sucked and transported to the garbage storage tank 10 via the communication pipe D (states of ~ in Fig. 6). ). Furthermore, when a group of garbage begins to enter the garbage storage tank 10 and the garbage in the communication pipe begins to break off, the negative pressure value begins to decrease, and when the communication pipe D is emptied after transporting the garbage,
The negative pressure value becomes a substantially constant value (states of - in Fig. 6). In this way, "one cycle of dust suction" is performed, from the introduction of negative pressure and secondary air into the vessel Tm to the suction of a group of dust into the storage tank 10.
ここで、上記“1サイクルのゴミ吸引”の間の
吸込側の負圧値のパターンを第7図に基づいて説
明する。まず、連通管Dを介してゴミ収容タンク
10に吸引され、輸送される一群のゴミの量が多
いほど輸送中の負圧値(略一定の値をとる負圧
値)は大きくなる(第7図の実線群)。これは連
通管Dにあるゴミの量が増すほどゴミの走行抵抗
に見合う負圧力が必要になるためと考えられる。
また、一群のゴミが連通管Dを介してゴミ収容タ
ンク10に吸引、輸送されるに要する時間は連通
管Dの長さによつて略決まると考えられる。しか
し、一群のゴミの量が更に多くなつて連通管Dを
満たしてもなおベツセルTmから連通管Dにゴミ
が入り続けている場合には、第7図に破線で示す
ように、一群のゴミが連通管Dを介してゴミ収容
タンク10に吸引、輸送されるに要する時間が後
に延びることになる。 Here, the pattern of the negative pressure value on the suction side during the "one cycle of dust suction" will be explained based on FIG. 7. First, the larger the amount of a group of garbage that is sucked into the garbage storage tank 10 through the communication pipe D and transported, the greater the negative pressure value (negative pressure value that takes a substantially constant value) during transportation becomes (7th solid line group in the figure). This is thought to be because as the amount of dirt in the communication pipe D increases, a negative pressure commensurate with the running resistance of the dirt is required.
Further, it is considered that the time required for a group of garbage to be sucked into and transported to the garbage storage tank 10 via the communication pipe D is approximately determined by the length of the communication pipe D. However, if the amount of garbage in a group increases further and the communication tube D is filled, but the garbage continues to enter the communication tube D from Bethel Tm, as shown by the broken line in Fig. 7, the group of garbage This means that the time required for the waste to be sucked into and transported to the waste storage tank 10 via the communication pipe D will be extended.
このように、ステツプS9で導入弁Vmおよび投
入ゲートImを開いて“1サイクルのゴミ吸引”
を開始した後、ステツプS10で一定時間が経過す
るのを待つ。そして、一定時間が経過すると、ス
テツプS11で負圧値PNおよび微分値P′N、P′N-1を
取り込み、ステツプS12で微分値の変化率|P′N−
P′N-1|が所定変化率“a”を超えるまで待ち、
“|P′N−P′N-1|>a”になると、ステツプS13に
進む。ここで、微分値の変化率が所定変化率を超
えるということは、
(1) 負圧値が一気に下がつてから略一定の負圧値
になるとき(第6図のの状態)。 In this way, in step S9 , the introduction valve Vm and the input gate Im are opened to perform "one cycle of dust suction".
After starting, wait for a certain period of time to pass in step S10 . Then, after a certain period of time has elapsed, the negative pressure value P N and the differential values P' N and P' N-1 are taken in at step S 11 , and the rate of change of the differential value |P' N −
Wait until P′ N-1 | exceeds the predetermined rate of change “a”,
When "|P' N -P' N-1 |>a", the process advances to step S13 . Here, the rate of change of the differential value exceeds the predetermined rate of change when (1) the negative pressure value drops suddenly and then becomes a substantially constant negative pressure value (state shown in Fig. 6);
(2) 一群のゴミがゴミ収容タンク10に入り始め
て負圧値が下がり始めたとき(第6図のの状
態)。(2) When a group of garbage begins to enter the garbage storage tank 10 and the negative pressure value begins to decrease (state shown in Fig. 6).
(3) ゴミを輸送し終つて連通管Dが空になり、負
圧値が略一定になつたとき(第6図のの状
態)。(3) When the communication pipe D becomes empty after transporting the garbage and the negative pressure value becomes approximately constant (state shown in Fig. 6).
のいずれかである。そこで、ステツプS13で、負
圧値PNが所定値Pbよりも小さいか否かを判定す
る。そして、”PN≧Pb”のときは、上記“(3)の場
合”ではなく、“(1)又は(2)の場合”であると判断
し、このときには未だ“1サイクルのゴミ吸引”
の途中であるのでステツプS14に進み、再度、負
圧値PNおよび微分値P′N、P′N-1を取り込み、ステ
ツプS15で微分値の変化率|P′N−P′N-1|が所定
変化率“a”を超えるまで待ち、“|P′N−P′N-1
|>a”になると、ステツプS16に進む。そして、
このステツプS16で負圧値PNが所定値Pbよりも小
さくなるまで待ち、“PN<Pb”になると、上記
“(3)の場合”に該当して、“1サイクルのゴミ吸
引”(第8図の)が完了したと判断する。すな
わち、ステツプS17で次の“1サイクルのゴミ吸
引”におけるエア吸引に備えて投入ゲーImを閉
じるとともに導入弁Vmを閉じてからステツプS8
に戻り、再度、“1サイクルのゴミ吸引”(第8図
の)を行うこととする。Either. Therefore, in step S13 , it is determined whether the negative pressure value P N is smaller than a predetermined value Pb. Then, when "P N ≧ Pb", it is determined that "case (1) or (2)" is not the case "(3)" above, and in this case, "1 cycle of dust suction" is still not possible.
Since this is in the middle of the process, the process proceeds to step S14 , where the negative pressure value P N and the differential values P' N and P' N-1 are taken in again, and in step S15 , the rate of change of the differential value |P' N −P' N Wait until -1 | exceeds the predetermined rate of change “a”, and then calculate “|P′ N −P′ N-1
|>a”, proceed to step S16 . Then,
In this step S16 , wait until the negative pressure value P N becomes smaller than the predetermined value Pb, and when "P N <Pb","1 cycle of dust suction" corresponds to the above "case (3)". It is determined that the process (in FIG. 8) has been completed. That is, in step S17 , the input gate Im is closed in preparation for air suction in the next "one cycle of dust suction", and the introduction valve Vm is closed, and then step S8
We will return to ``1 cycle of dust suction'' (shown in Figure 8) again.
このようにして、“1サイクルのゴミ吸引”を
繰り返すうち、上記ステツプS13で“PN<Pb”と
判定された場合には、“1サイクルのゴミ吸引”
において微分値の変化率|P′N−P′N-1|が初めて
所定変化率“a”を超えたときに負圧値PNが所
定値Pbよりも小さくなつたのであるから、“1サ
イクルのゴミ吸引”において“(1)、(2)の場合”が
なくて、いきなり“(3)の場合”になつたことにな
る。これはベツセルTm内にゴミがなくなつてい
ることを意味しており、その場合には、“1サイ
クルのゴミ吸引”(第8図の)が完了しただけ
でなく、当該ベツセルTmのゴミ吸引も完了した
と判断してステツプS18に進み、排出ゲートEmを
閉じるとともに導入弁Vmを閉じて次のベツセル
からのゴミの吸引に移る。すなわち、ステツプ
S19で添字mが最終番号であるか否かを判定し、
最終番号でなければステツプS3に戻つて次の番号
のベツセルについて以上の処理を繰り返す。一
方、最終番号であるときにはステツプS20に進ん
で吸引装置23をオフにしてエア吸引を停止す
る。 In this way, while repeating "one cycle of dust suction", if it is determined in step S13 that "P N <Pb","one cycle of dust suction" is repeated.
Since the negative pressure value P N has become smaller than the predetermined value Pb when the rate of change |P′ N −P′ N-1 | of the differential value exceeds the predetermined change rate “a” for the first time, “1” In the case of ``cycle dust suction'', ``cases (1) and (2)'' do not exist, and suddenly it becomes ``case (3).'' This means that there is no more dust in the Bethel Tm, and in that case, not only has "one cycle of dust suction" (shown in Figure 8) been completed, but also the dust has been sucked out of the Bethel Tm. It is determined that this has been completed, and the process proceeds to step S18 , where the discharge gate Em is closed, the introduction valve Vm is closed, and the process moves on to suction of dust from the next vessel. That is, step
In S19 , determine whether the subscript m is the final number,
If it is not the final number, the process returns to step S3 and the above process is repeated for the next numbered vessel. On the other hand, if it is the final number, the process advances to step S20 , where the suction device 23 is turned off and air suction is stopped.
以上のフローにおいて、ステツプS3〜S10によ
り、ゴミ収容タンク10およびベツセルTmを負
圧化してからベツセルTmに二次空気を導入して
ベツセルTmのゴミを連通管Dを介してゴミ収容
タンク10に輸送するように上記吸引装置23お
よび二次空気導入手段41を制御する輸送制御手
段42を構成している。また、ステツプS11〜S20
により、負圧検出手段(圧力センサ)25の出力
を受け、負圧勾配の変化率が所定変化率を超え且
つ負圧値が所定値よりも小さくなつたときに上記
輸送制御手段42による1サイクルのゴミ吸引の
完了信号を出力する完了信号出力手段43を構成
している。 In the above flow, in steps S3 to S10 , the pressure in the garbage storage tank 10 and the vessel Tm is made negative, and then secondary air is introduced into the vessel Tm, and the garbage in the vessel Tm is transferred to the garbage storage tank through the communication pipe D. A transportation control means 42 is configured to control the suction device 23 and the secondary air introduction means 41 so as to transport the air to the secondary air introduction means 10. Also, steps S 11 to S 20
In response to the output of the negative pressure detection means (pressure sensor) 25, when the rate of change of the negative pressure gradient exceeds a predetermined rate of change and the negative pressure value becomes smaller than a predetermined value, one cycle is performed by the transport control means 42. This constitutes a completion signal output means 43 for outputting a dust suction completion signal.
したがつて、上記実施例においては、ベツセル
T1,T2…を地下に埋設して外界から遮蔽した状
態で設け、各世帯等から投入されたゴミをシユー
トS1,S2…を介してこのベツセルT1,T2…に投
入するようにしたので、道路にゴミが落ちたりゴ
ミの悪臭が生活空間にまで漂うことがなく、環境
衛生が良好に維持される。 Therefore, in the above example, Bethcel
T 1 , T 2 ... are buried underground and shielded from the outside world, and garbage thrown in from each household etc. is thrown into these Beth cells T 1 , T 2 ... via chute S 1 , S 2 ... This prevents trash from falling on the road and the bad smell of trash from wafting into living spaces, maintaining good environmental hygiene.
そして、ゴム収集時、輸送制御手段42により
吸引装置23および二次空気導入手段41を制御
して、ゴミ収容タンク10およびベツセルTmを
負圧化してからベツセルTmに二次空気を導入し
てベツセルTm内のゴミをタンブリングしつつ連
通管Dを介してゴミ収容タンク10に輸送するの
で、ゴミがゴミ収容タンク10に確実に収集され
ることになる。 When collecting rubber, the transportation control means 42 controls the suction device 23 and the secondary air introduction means 41 to make the garbage storage tank 10 and the vessel Tm negative pressure, and then introduces secondary air into the vessel Tm. Since the garbage in Tm is tumbled and transported to the garbage storage tank 10 via the communication pipe D, the garbage is reliably collected in the garbage storage tank 10.
その場合、負圧検出手段(圧力センサ)25に
より検出された負圧値に基づいて、完了信号出力
手段43により負圧勾配の変化率が所定変化率を
超え且つ負圧値が所定値よりも小さくなつたとき
に1サイクルのゴミ吸引が完了したと判断される
ので、1サイクルのゴミ吸引がいつ完了したかを
精度良く検出できて1サイクルのゴミ吸引を再度
繰り返す場合に、繰り返しのタイミングが適切に
行われる。 In that case, based on the negative pressure value detected by the negative pressure detection means (pressure sensor) 25, the completion signal output means 43 indicates that the rate of change in the negative pressure gradient exceeds the predetermined rate of change and the negative pressure value is lower than the predetermined value. Since it is determined that one cycle of dust suction has been completed when the dust has become smaller, it is possible to accurately detect when one cycle of dust suction has been completed, and when repeating one cycle of dust suction again, the repetition timing can be determined. Done properly.
また、負圧値のみならず負圧勾配の変化率に基
づいて1サイクルのゴミ吸引完了を判断するの
で、上記負圧値の所定値Pbを可及的に低く設定
することができて、連通管D内のゴミを確実に収
集することができる。 In addition, since the completion of one cycle of dust suction is determined based not only on the negative pressure value but also on the rate of change in the negative pressure gradient, the predetermined value Pb of the negative pressure value can be set as low as possible, allowing communication. Dust in the pipe D can be collected reliably.
(発明の効果)
以上説明したように、本発明に係るゴミ吸引輸
送装置によれば、ゴミが貯留されるベツセルと、
該ベツセルに二次空気を導入する二次空気導入手
段と、ゴミ吸引車に搭載され且つ連通管を介して
上記ベツセルに接続されるゴミ収容タンクと、該
ゴミ収容タンクおよび上記ベツセルを負圧化する
吸引装置とを備え、ゴミ収容タンクおよびベツセ
ルを負圧化してからベツセルに二次空気を導入し
てベツセルのゴミを連通管を介してゴミ収容タン
クに輸送するとともに、吸引装置による負圧勾配
の変化率が所定変化率を超え且つ負圧値が所定値
よりも小さくなつたときに1サイクルのゴミ吸引
の完了信号を出力するようにしたので、環境衛生
を良好に維持しながらゴミ収集を確実に行うとと
もに、1サイクルのゴミ吸引がいつ完了したかを
精度良く検出できて1サイクルのゴミ吸引を再度
繰り返す場合に、繰り返しのタイミングを適切に
行うことができる。(Effects of the Invention) As explained above, according to the garbage suction transport device according to the present invention, the vessel in which garbage is stored;
a secondary air introducing means for introducing secondary air into the vessel; a garbage storage tank mounted on a garbage suction vehicle and connected to the vessel through a communication pipe; The system is equipped with a suction device that creates a negative pressure in the garbage storage tank and the vessel, and then introduces secondary air into the vessel to transport the garbage in the vessel through the communication pipe to the garbage storage tank. When the rate of change exceeds a predetermined rate of change and the negative pressure value becomes smaller than a predetermined value, a signal indicating the completion of one cycle of garbage suction is output, making it possible to collect garbage while maintaining good environmental hygiene. In addition to being reliable, it is possible to accurately detect when one cycle of dust suction is completed, and when repeating one cycle of dust suction, the repetition timing can be appropriately performed.
第1図は本発明の構成を示すブロツク図であ
る。第2図〜第8図は本発明の実施例を例示し、
第2図は全体概略構成図、第3図はベツセル付近
の縦断側面図、第4図はゴミ吸引車の拡大図、第
5図はコントロールユニツトの制御を説明するフ
ローチヤート図、第6図は1サイクルのゴミ吸引
を示す説明図、第7図はゴミ吸引量と負圧値との
関係を示す説明図、第8図は一つのベツセルにお
いてゴミ吸引が完了するまでの過程を示す説明図
である。
T1,T2……ベツセル、D……連通管、C……
ゴミ吸引車、10……ゴミ収容タンク、23……
吸引装置、25……圧力センサ(負圧検出手段)、
41……二次空気導入手段、42……輸送制御手
段、43……完了信号出力手段。
FIG. 1 is a block diagram showing the configuration of the present invention. 2 to 8 illustrate embodiments of the present invention,
Fig. 2 is a schematic overall configuration diagram, Fig. 3 is a longitudinal side view of the vicinity of the Bethel, Fig. 4 is an enlarged view of the garbage suction truck, Fig. 5 is a flow chart explaining the control of the control unit, and Fig. 6 is a An explanatory diagram showing one cycle of dust suction, Fig. 7 is an explanatory diagram showing the relationship between the amount of dust suction and negative pressure value, and Fig. 8 is an explanatory diagram showing the process until dust suction is completed in one vessel. be. T 1 , T 2 ... Bethcell, D ... Communication pipe, C ...
Garbage suction truck, 10... Garbage storage tank, 23...
Suction device, 25...pressure sensor (negative pressure detection means),
41...Secondary air introduction means, 42...Transportation control means, 43...Completion signal output means.
Claims (1)
二次空気を導入する二次空気導入手段と、ゴミ吸
引車に搭載され且つ連通管を介して上記ベツセル
に接続されるゴミ収容タンクと、該ゴミ収容タン
クおよび上記ベツセルを負圧化する吸引装置と、
ゴミ収容タンクおよびベツセルを負圧化してから
ベツセルに二次空気を導入してベツセルのゴミを
連通管を介してゴミ収容タンクに輸送するように
上記吸引装置および二次空気導入手段を制御する
輸送制御手段とを備えるとともに、吸引装置によ
る負圧値を検出する負圧検出手段と、該負圧検出
手段の出力を受け、負圧勾配の変化率が所定変化
率を超え且つ負圧値が所定値よりも小さくなった
ときに上記輸送制御手段による1サイクルのゴミ
吸引の完了信号を出力する完了信号出力手段とを
備えたことを特徴とするゴミ吸引輸送装置。1. A vessel in which garbage is stored, a secondary air introducing means for introducing secondary air into the vessel, a garbage storage tank mounted on a garbage suction vehicle and connected to the vessel via a communication pipe, and a vessel for storing garbage. a suction device that creates a negative pressure in the storage tank and the vessel;
Transportation in which the suction device and the secondary air introducing means are controlled so that the garbage storage tank and the vessel are brought under negative pressure, and then secondary air is introduced into the vessel and the garbage in the vessel is transported to the garbage storage tank via the communication pipe. a control means, a negative pressure detection means for detecting a negative pressure value caused by the suction device, and a negative pressure detection means that receives the output of the negative pressure detection means and detects that the rate of change of the negative pressure gradient exceeds a predetermined rate of change and the negative pressure value is a predetermined value. and a completion signal output means for outputting a signal indicating the completion of one cycle of dust suction by the transport control means when the value becomes smaller than the above value.
Priority Applications (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
JP3969889A JPH02221002A (en) | 1989-02-20 | 1989-02-20 | Dust suction and transport device |
Applications Claiming Priority (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
JP3969889A JPH02221002A (en) | 1989-02-20 | 1989-02-20 | Dust suction and transport device |
Publications (2)
Publication Number | Publication Date |
---|---|
JPH02221002A JPH02221002A (en) | 1990-09-04 |
JPH0561164B2 true JPH0561164B2 (en) | 1993-09-03 |
Family
ID=12560241
Family Applications (1)
Application Number | Title | Priority Date | Filing Date |
---|---|---|---|
JP3969889A Granted JPH02221002A (en) | 1989-02-20 | 1989-02-20 | Dust suction and transport device |
Country Status (1)
Country | Link |
---|---|
JP (1) | JPH02221002A (en) |
-
1989
- 1989-02-20 JP JP3969889A patent/JPH02221002A/en active Granted
Also Published As
Publication number | Publication date |
---|---|
JPH02221002A (en) | 1990-09-04 |
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