JPH02125041A - Composite measure - Google Patents

Composite measure

Info

Publication number
JPH02125041A
JPH02125041A JP27578888A JP27578888A JPH02125041A JP H02125041 A JPH02125041 A JP H02125041A JP 27578888 A JP27578888 A JP 27578888A JP 27578888 A JP27578888 A JP 27578888A JP H02125041 A JPH02125041 A JP H02125041A
Authority
JP
Japan
Prior art keywords
composite
partition
partition plate
passage
bulkhead
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
JP27578888A
Other languages
Japanese (ja)
Inventor
Shigeaki Sugiyama
杉山 重昭
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Individual
Original Assignee
Individual
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Individual filed Critical Individual
Priority to JP27578888A priority Critical patent/JPH02125041A/en
Publication of JPH02125041A publication Critical patent/JPH02125041A/en
Pending legal-status Critical Current

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Abstract

PURPOSE:To obtain a composite measure used for various purposes by providing a through path opening to the ground surface on the upper part of the measure as well as a culvert with the orbicular cross section at the lower part. CONSTITUTION:A measure is vertically divided by a center wall 92. A ceiling opening part 52 is provided at the upper part of the measure and an upper part through path 99 opening to the ground surface is provided. A lower part through path 99 formed of a culvert with the orbicular cross section is provided at the lower part of the measure so as to form an open-conduit type composite center wall measure for straight lines. In addition, a lid is placed on a ceiling part 81 according to the necessity.

Description

【発明の詳細な説明】 本発明は、それぞれ別々の機能を有する個別化された貫
通路構造に、−像分割された複合隔壁管路及び個別の埋
設管や側溝・工作物に対して、二貫通路以上のケーブル
・電話・電気・雨水汚水の下水道・用水・中水道・水道
あるいはガス等の管路や通信・工作物に対して、接続対
応するますとした構造である。ます内部も個々別々の使
用目的に応じた内部構造へと仕切り板に隔壁や仕切り蓋
、その他の蓋や段差部に泥溜部や泥溜躯体を構成し、そ
の他に更に外部室や換気室、換気孔、開口部を設けた複
合まずとし区分分割させ、その接続貫通物によって副管
や枝管口、枝管を施し必要な機能を有する内部形状と空
間を構成し、かつ其の接続貫通物の用途によっては、ま
す自体の構造材質も変化させ透水式・集水式とする。ゆ
えにあらゆる種類の個別管路・側溝や同一複合管路・地
下工作物・地下埋設物等に対応接続できる多機能集中形
成ますとして円滑にあらゆる状況、条件に対して集中接
続使用の施工ができる複合よすに関するものである。
DETAILED DESCRIPTION OF THE INVENTION The present invention provides two separate systems for individualized through-channel structures each having separate functions; It has a structure that can be connected to cables, telephones, electricity, rainwater, sewerage, water, gray water, water, gas, etc. pipes, communications, and structures beyond the through-path. The interior also has an internal structure tailored to each individual use, with partition plates as partition walls and partition lids, other lids and stepped areas as mud basins and mud basin structures, and in addition, external rooms, ventilation rooms, Composite structures with ventilation holes and openings are divided into sections, and the connection penetrations provide secondary pipes, branch pipe openings, and branch pipes to form an internal shape and space with the necessary functions, and the connection penetrations Depending on the use, the structural material of the cell itself may be changed to make it permeable or water-collecting. Therefore, it is a multi-functional centralized structure that can be connected to all types of individual pipes, gutters, the same complex pipe, underground structures, underground structures, etc., and can be smoothly constructed using centralized connection in all situations and conditions. It is about good.

従来、それぞれ別々の埋設管路や側溝・工作物に対して
、同一のますに収納させる接続工法や、二区分以上に内
部分割された複合ますの構造物は無く、使用目的別に分
割された一体形成構造埋設物や個々の貫通路を同一のま
す内へ収納接続する事はいままでのますでは、内部構造
からして出来なかった。また材質的にも変化をさせ透水
・集水式としてのます併用として、一体施工する事は構
追上下可能だった。
Conventionally, there were no connection methods in which separate underground pipes, gutters, and structures were housed in the same cell, and there were no composite cell structures that were internally divided into two or more sections. Due to the internal structure of conventional cells, it has not been possible to store and connect buried objects and individual passageways in the same cell. In addition, by changing the material and using it as a water-permeable/water-collecting type, it was possible to construct the structure as a single piece.

よって本発明は、ますの内部貫通物に応じて異なる管路
や側溝・工作物等、別管路の複数路集中ますとして、或
は個別の貫通路を一体形成した複合隔壁管路や、他の用
途として透水・集水にも対応できる用途の広い多機能複
数接続ますを得る事を目的としている。
Therefore, the present invention is capable of concentrating a plurality of separate pipes, such as different pipes depending on the internal penetrations of the cell, side gutters, workpieces, etc., or a composite bulkhead pipe in which individual pipes are integrally formed, and other pipes. The aim is to obtain a versatile, multi-functional, multiple-connection cell that can be used for water permeation and water collection.

この発明を図面にもとすいて説明すると、第1図から第
3図は、直線用の開渠型複合隔壁ます2であり、隔壁9
2によって上下部に分割されている構造で、上部の貫通
路99は地表に開口の開渠より構成され、下部貫通路9
9は不開口の円形の暗渠より構成されている。このます
は、上部貫通路99を雨水対応としているため泥溜躯体
89と泥溜部90を隔壁92内部の仕切り段部88上に
施している。また泥溜躯体89をます外部へ取り出す事
により下部貫通路99に開口部が生じる。
To explain this invention based on the drawings, FIGS. 1 to 3 show a straight open channel type composite bulkhead 2 and a bulkhead 9.
The structure is divided into upper and lower parts by 2, with the upper passageway 99 consisting of an open channel on the ground surface, and the lower passageway 99 consisting of an open channel on the ground surface.
9 consists of a closed circular culvert. In this case, since the upper through passage 99 is designed to handle rainwater, a mud basin frame 89 and a mud basin part 90 are provided on the partition step part 88 inside the partition wall 92. Moreover, by taking out the mud basin frame 89 to the outside of the box, an opening is created in the lower passage 99.

第4図から第5図は、直線用の開渠型複合隔壁ます2で
あり、不開口の下部貫通路99が形状的に小体形をして
いる構造である。また隔壁92に施された泥溜躯体89
が隔壁92の厚さより更に大きく構成されている。第6
図から第8図は、直線用の開渠型複合隔壁ます2であり
、下部貫通路99の形状が底部半円形になっている構造
である。
4 to 5 show a linear open-drain type composite partition wall 2, which has a structure in which a closed lower passage 99 is shaped like a small body. Also, the mud basin frame 89 applied to the partition wall 92
is configured to be larger than the thickness of the partition wall 92. 6th
FIGS. 8 to 8 show a straight line open channel type composite partition wall 2, which has a structure in which the shape of the lower through passage 99 is semicircular at the bottom.

第9図は、直線用の部分透水式開渠型複合隔壁ます3で
あり、開渠よりなる上部貫通路99の外壁94両側に通
水孔101を設け透水・集水機能に対応させる構造とし
である。上下貫通路99に分割している隔壁92には泥
溜躯体89を施している。下部貫通路99は小体形より
なる集水・透水機能は有していない構造である。第10
図は、直線用の全透水式開渠型複合隔壁ます4であり、
ますの本体全体が透水性コンクリート106からなり、
透水・集水に対応する構造で隔壁92に泥溜躯体89が
施されている。第1図から第10図の開渠型複合隔壁ま
す2系統は、上部貫通路99が開渠型の天部開口部82
に成っている為、それぞれの天部81へ必要であれば目
的に合った塁を乗せて使用する。第11図は、直線用の
開渠型複合仕切り板ます5であり、上部貫通路99は開
渠型の構造で、上下貫通路99の内部構造が大きく異な
る構成で、隔壁92に仕切り板86を仕切り段部88上
へ乗せその中へ仕切り蓋87を構成し、下部の暗渠より
なる円形の貫通路99と分割している構造である。隔壁
92よりも厚みの薄い仕切り板86を使用しているので
、上部貫通路99の下部へ使用目的により泥溜部90と
段差部91が生じる構造である0本体天部81へは天段
部85を施しているので目的にあった蓋を乗せて使用す
る。第12図から第14図は、直線型の縁石付き開渠型
複合隔壁ます6であり、本体天部81の片側へ一段高い
縁石105が付いた一体形の構造で上部貫通路99上の
天段部85へ全閉M83を施し、その中のアゴ部123
ヘグレーチング’!184を乗せ地表水等を取り入れら
れる構造である0本体内は隔壁92によって小体形の下
部貫通路99と分割され、その中に泥溜躯体89を施し
ている構造で、本体底部95へはベース115を構成し
本体のすわりを良くし安定を高めている。第15図から
第17図は、直線用の開渠型分割複合隔壁ます7であり
、ますの本体を上下に分割させている構造で、組み立て
施工をし易いように凹部124と凸部125を施しであ
る0組み立てられた本体内の仕切り段部88上へ泥溜部
90付きの泥溜躯体89を構成して本体の一体性を高め
ている。
Fig. 9 shows a partially permeable open channel composite bulkhead 3 for straight lines, with water holes 101 provided on both sides of the outer wall 94 of the upper passageway 99 consisting of an open channel to accommodate water permeation and water collection functions. It is. A mud basin frame 89 is provided on the partition wall 92 that divides into the upper and lower passages 99. The lower passage 99 has a small body shape and has no water collection or water permeation function. 10th
The figure shows a straight line fully permeable open channel composite bulkhead 4.
The entire body of the mass is made of water-permeable concrete 106,
A mud basin frame 89 is provided on the partition wall 92 with a structure that allows for water permeation and water collection. In the two systems of open-drain type composite bulkheads shown in Figs.
Therefore, if necessary, bases suitable for the purpose can be placed on each top 81. FIG. 11 shows an open-drain type composite partition plate 5 for straight lines, in which the upper passageway 99 has an open-drainage type structure, and the internal structure of the upper and lower passageways 99 is greatly different. The structure is such that the partition lid 87 is placed on the partition step 88 and divided into a circular passageway 99 consisting of a culvert at the bottom. Since the partition plate 86, which is thinner than the partition wall 92, is used, there is a mud trap 90 and a step 91 at the bottom of the upper passage 99 depending on the purpose of use. 85, so you can use it with a lid that suits your purpose. 12 to 14 show an open channel composite bulkhead 6 with a linear curb, which has an integral structure with a raised curb 105 on one side of the main body top 81, and has a ceiling above the upper passageway 99. A fully closed M83 is applied to the stepped portion 85, and the jaw portion 123 therein is
He grating'! The inside of the main body is divided into a small-shaped lower passage 99 by a partition wall 92, and a mud basin frame 89 is installed inside the main body. 115 to make the main body sit better and increase stability. Figures 15 to 17 show an open channel type split composite bulkhead cell 7 for straight lines, which has a structure in which the main body of the cell is divided into upper and lower parts, with a concave portion 124 and a convex portion 125 for ease of assembly. A mud sump frame 89 with a mud sump 90 is constructed on the partition step 88 in the assembled main body to enhance the integrity of the main body.

上部貫通路99上へ天段部85を施しであるので目的に
合った蓋を構成する。泥溜躯体89には目地部127が
施しである。第18図は、直線用の開渠型分割複合隔壁
ます7であり、本体が大きさの異なる上下に分割されて
いる二貫通路99の構造で、組み立て施工がし易いよう
に凹部124と凸部125を施している。本体内の仕切
り段部88上へ仕切り板86を乗せ、さらにその中の仕
切り段部88上へ泥溜部90付きの泥溜躯体89を施し
ている構造である。仕切り段部88と泥溜躯体89には
それぞれ目地部127を施している、上部貫通路99上
へは天段部85を施しである、第19図は、直線用の開
渠型分割複合仕切り板ます8であり、本体は貫通路99
ごとに分割されているm造で、凹部124と凸部125
が施されている0本体内隔壁92の下部貫通路99仕切
り段部88上へ仕切り板86を乗せ、その中の仕切り段
部88上へ仕切り蓋87を乗せる構造である、上部貫通
路99上へは大股部85を施しである、第20図から第
21図は、直線用のrfR渠型分割複合隔壁ます7であ
り、本体は上下分割式からなり、ずれ防止のため凹部1
24と凸部125を施している1本体内は、仕切り段部
88上へ泥溜部90付きの泥溜躯体89を乗せる構造に
なっている。上下貫通路99本体の大きさが異なるため
底部95へ安定を良くするベース115を構成し、大股
部85も施している構造である。第22図から26図は
、直線用の暗渠型複合隔壁ます9であり、上下分割の貫
通路99は暗渠型に対応し易いように構成し、上部貫通
路99の天部81へは大部開口部82を施し、隔壁92
の仕切り段部88へ泥溜躯体89を乗せる構造であり、
泥溜躯体89へは泥溜部90と目地部127を施してい
る構造である。第27図は、直線用の暗渠型複合隔壁ま
す9であり、本体天部81へL型蓋103を乗せて使用
する構造で、図示していないがL型N103内へは大部
開口部82があり、仕切り段部88を構成しさらに必要
な蓋を乗せられる構造になっている。第28図から第3
0図は、直線用の縁石段部付き暗渠型複合隔壁ます10
であり、本体大部81片側へ縁石段部104を施し、大
股部85上へグレーチング蓋84を乗せ縁石段部104
側へ天部81の勾配が下がっている構造で、隔壁92の
仕切り段部88上へは泥溜躯体89を乗せる構造になっ
ている。第31図は、直線用の縁石段部付き暗渠型複合
隔壁まず10であり、縁石段部104へ縁石105を乗
せた使用図である。第32図から第34図は、直線用の
暗渠型複合隔壁ます9であり、円形の貫通路99が上下
に構成され、隔壁92の仕切り段部88上へ泥溜躯体8
9を施して、天部81上へ大股部85付きの調整蓋10
2を乗せることにより、ますの高さを調整する事が出来
る構造である。第35図から第37図は、直線用の暗渠
型分割複合隔壁ます11であり、本体が上下貫通路99
別に構成され、下部貫通路99上の隔壁92には開口部
100が施され上部貫通路99の本体は、隔壁92に開
口部100と天部81へ天部開口部82が施されている
構造で、上下躯体はボルト孔135とボルト130・接
続板128によって一体形成する。これも泥溜躯体89
を施している。第38図から第40図は、直線用の大股
 付き暗渠型分割複合隔壁ます12であり、本体が上下
貫通路99に分割され組み立ては凹部124凸部125
によりずれを防止する構造で、隔壁92の仕切り段部8
8上へ泥溜躯体89を、天部81へは大股部85を施し
であるm造である。第41図から第43図は、直線用の
インサート式暗渠型分割複合隔壁ます13であり+ i
下に分割された貫通路99の本体へ複合隔壁管路121
を抱き込む構造で接続する形で、仕切り板86へは泥溜
部90を有する泥溜躯体89を仕切り段部88上に施せ
る用になっている。この型はますの内部空間が大きく取
れる構造である。
Since the top part 85 is provided above the upper passage 99, a lid suitable for the purpose is constructed. The mud basin frame 89 is provided with joints 127. Figure 18 shows a straight line open-drain type split composite bulkhead 7, which has a structure with two through passages 99 in which the main body is divided into upper and lower sections of different sizes, and has a concave part 124 and a convex part for easy assembly. Section 125 is applied. It has a structure in which a partition plate 86 is placed on a partition step 88 in the main body, and a mud basin frame 89 with a mud basin part 90 is further placed on the partition step 88 within the partition plate 86. The partition step 88 and the mud basin frame 89 are each provided with a joint 127, and the top step 85 is provided above the upper passageway 99. Fig. 19 shows an open-drain type split composite partition for straight lines. It is a plate 8, and the main body has a through passage 99.
It is a m structure divided into two parts, with a concave part 124 and a convex part 125.
The structure is such that the partition plate 86 is placed on the partition step 88 of the partition wall 99 of the partition wall 92 in the main body, and the partition lid 87 is placed on the partition step 88 therein. Figures 20 to 21 show an rfR channel-type split composite partition wall 7 for straight lines, and the main body is divided into upper and lower parts, with a recess 1 to prevent displacement.
24 and a convex portion 125. Inside the main body, a mud basin frame 89 with a mud basin part 90 is placed on a partition step 88. Since the sizes of the upper and lower through passages 99 bodies are different, a base 115 for improving stability is formed on the bottom part 95, and a large crotch part 85 is also provided. 22 to 26 show straight underdrain type composite bulkheads 9. The upper and lower divided through passages 99 are configured to be easily compatible with the under conduit type, and most of the top part 81 of the upper through passage 99 is An opening 82 is provided, and a partition wall 92 is formed.
It has a structure in which a mud basin frame 89 is placed on a partition stepped portion 88,
The mud basin frame 89 has a structure in which a mud basin part 90 and a joint part 127 are provided. Fig. 27 shows a straight underdrain type composite partition wall 9, which has a structure in which an L-shaped lid 103 is placed on the top part 81 of the main body.Although not shown, a large opening 82 into the L-shaped N103 It has a structure in which a partition step 88 is formed and a necessary lid can be placed thereon. Figure 28 to 3
Figure 0 shows a culvert-type composite bulkhead with curb steps for straight lines 10
A curb step 104 is provided on one side of the main body portion 81, and a grating lid 84 is placed on the crotch portion 85.
It has a structure in which the slope of the top part 81 is downward to the side, and a mud basin frame 89 is placed on top of the partition step part 88 of the partition wall 92. FIG. 31 shows the culvert-type composite partition wall 10 with a curb step for straight lines, and is a usage diagram in which a curb 105 is placed on the curb step 104. 32 to 34 show a straight underdrain-type composite bulkhead 9, in which a circular passage 99 is configured above and below, and a mud basin frame 8 is connected to the partition step 88 of the bulkhead 92.
9 and move the adjustment lid 10 with the long section 85 onto the top section 81.
It has a structure that allows you to adjust the height of the square by placing 2 on it. Figures 35 to 37 show a straight underdrain type split composite partition wall 11, the main body of which is a vertical through passage 99.
The main body of the upper through passage 99 has a structure in which an opening 100 is formed in the partition wall 92 above the lower through passage 99, and an opening 100 is formed in the partition wall 92 and a top opening 82 is formed in the top part 81. The upper and lower frames are integrally formed by bolt holes 135, bolts 130, and connecting plates 128. This is also a mud sump frame 89
is being carried out. Figures 38 to 40 show a straight line culvert type split composite partition wall 12 with a long cross section, the main body is divided into upper and lower through passages 99, and assembly is carried out with recesses 124 and protrusions 125.
The partition step 8 of the partition wall 92 has a structure that prevents displacement.
It is of M construction, with a mud basin frame 89 on top of 8, and a crotch section 85 on top 81. Figures 41 to 43 show insert type underdrain type split composite bulkhead 13 for straight lines.
Composite bulkhead conduit 121 to the main body of the through conduit 99 divided below
A mud basin frame 89 having a mud basin part 90 can be attached to the partition plate 86 on top of the partition step part 88. This type has a structure that allows for a large internal space.

第44図から第48図は、直線用の部分透水式暗渠型複
合隔壁ます14であり、上部貫通路99の両外壁94に
のみ通水化101を施し、集水・透水機能を持たせた構
造で底部貫通路99はその機能を持たない構造である。
Figures 44 to 48 show a partially permeable underdrain type composite partition wall 14 for straight lines, in which water permeability 101 is applied only to both outer walls 94 of the upper passage 99 to provide water collection and water permeation functions. The structure is such that the bottom through passage 99 does not have that function.

これも隔壁92の仕切り段部88上へ目地部127付き
の泥溜躯体89を施している。第49図は、直線用の縁
石段部付き部分透水式暗渠型複合隔壁ます■5であり、
天部81の片側へ縁石段部104を施し大股部85上へ
グレーチング蓋84を乗せている構造で、上部貫通路9
9の片側外壁94へのみ通水化101を施している構造
であり隔壁92の仕切り段部88上へ泥溜I!体89を
施している。第50図は、直線用の開渠型分割複合仕切
り板ます8であり、本体が三分割され凹部124凸部1
25によって組み立てられる。隔壁92の下部に仕切り
蓋87を施して、上部閏渠下部暗渠貫通路に99に分割
している8本体が三分割されているのでますの大きさを
変化させ易い構造である。第51図は、直線用の暗渠型
分割複合佳句り板ます19であり、本体は三分割され上
下貫通路99とも暗渠より構成されている0本体の組み
立てはアゴ部123によって一体に構成される。第52
図から第54図は、直線用の部分透水式暗渠型分割複合
隔壁ます16であり、本体は上下貫通路99に分割され
上部貫通路99のみ透水性コンクリート106を使用し
、透水・集水に対応できる構造になっていて隔壁92に
泥溜躯体89を施している。第53図は上下貫通路99
の隔壁92に凹部124凸部125を、第54図はE部
貫通路99の外壁94−部分へ透水性コンクリート10
6とした構造である。第55図から第56図は、直線用
の全、透水式暗渠型複合隔壁ます17であり、上下貫通
路99とも透水・集水機能を持たせた構造で、透水性コ
ンクリート106や通水孔101をます本体の適所に使
用する事にて通水させる構造である。隔壁92部分へは
泥溜躯体89を施している。なを第55図は底部95も
通水性なので下部貫通路99へ落ちた水は全通水であり
、第56図は下部貫通路99の底部95内の水は透水・
集水をしない構造である。第57図から第59図は、直
線用の暗渠型複合仕切り板まず18であり、上下貫通路
99に分割している隔壁92の下部へ仕切りMB2を施
し、段差部91を設け天部81上へ大股部85付きの調
整蓋102を施す構造である。第60図から第62図は
、直線用の開渠型分割複合仕切り板ます8であり1本体
は上下に隔壁92と仕切り1187によって分割され段
差部91を構成し複合隔壁管路121との取り付けは、
上部貫通路99側へ内目地使用の目地部127とフラン
ジ129を併用し、下部貫通路99へは凹部124凸部
125の目地構造として貫通路99回りへ施された凹部
124内へパツキン126を使用し、漏水−浸入水に対
処した構造である。第63図から第64図は、直線用の
上下貫通路99がされた暗渠型分割複合仕切り板ます1
9であり、下部貫通路99に比べて上部貫通路99は数
倍大きく構成され、段差部91とます内は大きく取っで
ある仕切り蓋87によって分割されている構造である。
Also in this case, a mud basin frame 89 with a joint 127 is provided on the partition step 88 of the partition wall 92. Figure 49 shows a partially permeable culvert type composite bulkhead with curb steps for straight lines.
It has a structure in which a curb step 104 is provided on one side of the top 81 and a grating lid 84 is placed on the thigh 85.
It has a structure in which water is passed through only to the outer wall 94 on one side of the partition wall 92, and the mud pool I! Body 89 is applied. Figure 50 shows an open channel type split composite partition plate 8 for straight lines, in which the main body is divided into three parts with a concave part 124 and a convex part 1.
Assembled by 25. A partition cover 87 is attached to the lower part of the partition wall 92, and the 8 main bodies are divided into 99 sections in the upper tunnel, lower tunnel, and passageway, so that the size of the squares can be easily changed. Fig. 51 shows a straight-line culvert-type split composite plaque 19.The main body is divided into three parts, and both the upper and lower passageways 99 are composed of culverts. Ru. 52nd
Figure 54 shows a partially permeable underdrain-type split composite partition wall 16 for straight lines.The main body is divided into upper and lower passages 99, and only the upper passage 99 is made of permeable concrete 106 for water permeation and water collection. It has a structure that can accommodate this, and a mud basin frame 89 is provided on the partition wall 92. Figure 53 shows the upper and lower through passages 99.
A recess 124 and a convex portion 125 are formed on the partition wall 92 of the partition wall 92, and in FIG.
It has a structure of 6. Figures 55 to 56 show a straight-line fully permeable underdrain type composite bulkhead 17, which has a structure that has water permeability and water collection functions for both the upper and lower through passages 99, and the permeable concrete 106 and water holes. It has a structure that allows water to pass through by using 101 at appropriate locations on the main body. A mud basin frame 89 is provided on the partition wall 92 portion. In Fig. 55, the bottom part 95 is also permeable, so all the water that fell into the lower penetration passage 99 is water permeable, and in Fig. 56, the water in the bottom part 95 of the lower penetration passage 99 is permeable.
It has a structure that does not collect water. 57 to 59 show a straight underdrain type composite partition plate 18, in which a partition MB2 is applied to the lower part of the partition wall 92 that divides into upper and lower through passages 99, and a stepped part 91 is provided above the top part 81. It has a structure in which an adjustment lid 102 with a crotch portion 85 is provided. Figures 60 to 62 show a straight line open channel split composite partition plate 8, in which the main body is divided into upper and lower parts by a partition wall 92 and a partition 1187 to form a stepped portion 91, and is attached to a composite partition pipe 121. teeth,
A joint part 127 using an inner joint and a flange 129 are used together for the upper through-path 99 side, and a packing 126 is inserted into the recess 124 provided around the through-path 99 as a joint structure of the recess 124 and the convex part 125 for the lower through-path 99. The structure is designed to prevent water leakage and infiltration. Figures 63 to 64 show a culvert-type split composite partition plate 1 with a vertical passageway 99 for straight lines.
9, the upper through passage 99 is constructed to be several times larger than the lower through passage 99, and the stepped portion 91 and the inside of the square are divided by a partition lid 87 which is a large opening.

第65図は、直線使用の全透水式暗渠型複合ます20で
あり、内部形状は円形の透水性コンクリート106で泥
溜部90、段差部91は形成していない。外壁94と底
部95へ通水孔101を施し透水・集水機能とする。大
股部85を構成ます内部は二分割された貫通路99を接
続する様になっているが、使用目的は同一で、接続構造
物自体も全透水性コンクリート106からなっている物
や、部分透水或は別々の二管路に対処している。第66
図は、隅切り90度用の枝管口付き部分透水式暗渠型複
合隔壁ます21であり、上部貫通路99の外壁94へ通
水孔101を構成し透水−集水機能を持たせ、隔壁92
に泥溜躯体89を施し上下貫通路99へ他の埋設管なり
側溝・工作物等や複合隔壁管路121への一つの接続方
法として、枝管口108を構成したますである。第67
図は、直線用の枝管口付き部分透水式暗渠型複合隔壁ま
す21であり、上部貫通路99の外壁94へ通水孔10
1を施し、下部貫通路99の外壁94へ他のあらゆる接
続物へ接続出来る様に枝管口108を構成した構造であ
り、泥溜躯体89を施している。第68図から第71図
は、複合隔壁ます1であり、それぞれが形の異なった形
状で第68図は曲線用にアールを持たせ、第69図は十
字用つまり四方向に対した接続面を構成し、第70図は
支線取り付は用の三方向の接続面を構成、第71図は変
形角を持つ二方向の接続面を構成し、それぞれ泥溜躯体
89は施している。第72図から第73図は、直線用の
底外部室付き複合隔壁ます22であり、下部貫通路99
にのみ別口の外部室96兼換気室97を施し、上部貫通
路99へは隔壁92の仕切り段部88上へ泥溜躯体89
を施し泥溜部90を構成する。このますは上部貫通路9
9へ絶えず生きた貫通物や液体がある場合に、泥溜躯体
89の脱着に関係無く下部貫通路99の独立した天部開
口部82を施した構造で、上下貫通路99兼用の大股部
85付きの大部開口部82と下部貫通路99専用の大股
部85付きの大部開口部82が、同一ます内で位置ずれ
させた箇所に施した構成である。なぜなら使用方法とし
て枝管口108と枝管109が上下貫通路99に対して
ずれた位置に取り付けられ同一場所の上下にあるのを嫌
う場合に取り付は易く、他の接続物への分岐が容易に行
える構造なのである。下部貫通路99は泥溜躯体89を
取り出せば二つの天部開口部82を有する。第74図は
、直線用の分割式底外部室付き複合隔壁まず23であり
、下部貫通路99の外部室96兼換気室97のみがます
本体に対して分割され、別製体の取り付は型に構成しで
ある。第75図から第76図は、直線用の底外部室付き
複合仕切り板ます24であり、上下に隔壁92の仕切り
板86によって完全に分割され、上部貫通路99へは段
差部91を設け天部81には大股部85付きの大部開口
部82がある。下部貫通路99側へは上部貫通路99と
完全分0割の外部室96兼換気室97を開口部100よ
り施し、独立した大股部85のある大部開口部82を上
部貫通路99の天部開口部82と同列位置に構成したま
すである。第77図は、直線用の分割式底外部室付き複
合仕切り板ます25であり、下部貫通路99の外部室9
6兼換気室97が別製体で本体と接続施工して一体のま
すとなるよう構成している。第78図から第81図は、
直線用の底外部室付き複合仕切り板ます24であり、下
部貫通路99にのみ開口部100より外部室96兼換気
室97を上下貫通路99の天部開口部82に対してずら
した位置に構成し、隔壁92内に仕切りMB2を持たせ
た)第79図や、隔壁92と仕切り板86が一体になっ
て内部分割をしている第80図のような構成で、おのお
の上部貫通路99下部には段差部91を施している。第
82図は、直線用の分割式底外部室付き複合仕切り板ま
す25であり、下部貫通路99用の外部室96兼換気室
97の躯体が本体と別で、これを接続施工することによ
り一体のますとする。第83図から第85図は、支線取
り付は用の底外部室付き複合仕切り板ます24であり。
FIG. 65 shows a fully permeable underdrain type composite cell 20 that is used in a straight line, and has a circular internal shape of permeable concrete 106 without forming a mud basin part 90 or a stepped part 91. Water holes 101 are provided in the outer wall 94 and the bottom 95 to provide water permeation and water collection functions. The inside of the thigh part 85 is designed to connect two divided through passages 99, but the purpose of use is the same, and the connecting structure itself may be made entirely of permeable concrete 106 or partially Deals with water permeability or two separate pipes. 66th
The figure shows a partially permeable underdrain type composite bulkhead 21 with a branch pipe opening for a 90 degree corner cut, in which water holes 101 are configured in the outer wall 94 of the upper passage 99 to provide water permeation and water collection functions, and the bulkhead 92
A mud basin frame 89 is attached to the upper and lower passages 99, and a branch pipe port 108 is configured as one method of connecting to other buried pipes, side ditches, workpieces, etc., and the composite bulkhead pipe 121. 67th
The figure shows a partially permeable underdrain type composite bulkhead 21 with branch pipe openings for straight lines.
1, and a branch pipe port 108 is configured so that it can be connected to the outer wall 94 of the lower penetration passage 99 to any other connection object, and a mud basin frame 89 is provided. Figures 68 to 71 show composite partition walls 1, each with a different shape. Figure 68 has a radius for a curved line, and Figure 69 has a cross section, that is, a connecting surface for four directions. Fig. 70 shows a connecting surface in three directions for attaching a branch line, and Fig. 71 shows a connecting surface in two directions with a deformation angle, each of which is provided with a mud basin frame 89. Figures 72 to 73 show a composite bulkhead box 22 with a bottom external chamber for straight lines, and a lower through passage 99.
A separate external room 96 and ventilation room 97 is provided only in
The mud basin section 90 is constructed by applying the following steps. This square is upper passage 9
In the case where there is a live penetrating object or liquid constantly in the mud storage body 89, the structure has an independent top opening 82 of the lower passage 99 regardless of whether or not the mud basin body 89 is attached or removed. The large opening 82 with 85 and the large opening 82 with a large crotch 85 dedicated to the lower through-way 99 are arranged at shifted locations within the same square. This is because the branch pipe port 108 and the branch pipe 109 are installed at positions shifted from the upper and lower passages 99, and when it is disliked that they are located above and below the same place, installation is easy and branching to other connections is easy. It is a structure that is easy to implement. The lower passage 99 has two top openings 82 when the mud basin frame 89 is removed. Fig. 74 shows a composite bulkhead 23 with a split-type bottom external chamber for straight lines, in which only the external chamber 96 and ventilation chamber 97 of the lower passage 99 is divided from the main body, and installation of a separate body is not possible. It is structured in a mold. 75 to 76 show a composite partition plate box 24 with a bottom external chamber for straight lines, which is completely divided into the upper and lower parts by the partition plate 86 of the partition wall 92, and has a stepped part 91 to the upper passage 99, and The section 81 has a large opening 82 with a large crotch section 85 . An external chamber 96 and ventilation chamber 97 which is completely divided into the upper through passage 99 and the lower through passage 99 are provided through the opening 100 , and the large opening 82 with the independent long section 85 is connected to the upper through passage 99 . This box is arranged in the same position as the top opening 82. FIG. 77 shows a composite partition plate 25 with a split bottom external chamber for straight lines, and the external chamber 9 of the lower through passage 99.
The 6-cum-ventilation chamber 97 is constructed separately and connected to the main body to form an integrated chamber. Figures 78 to 81 are
It is a composite partition plate 24 with a bottom external chamber for straight lines, and the external chamber 96 and ventilation chamber 97 is located at a position shifted from the opening 100 only in the lower passage 99 with respect to the top opening 82 of the upper and lower passages 99. 79, in which the partition wall 92 has a partition MB2, and the structure shown in FIG. A stepped portion 91 is provided at the bottom. Figure 82 shows a composite partition plate 25 with a split type bottom external chamber for straight lines, in which the frame of the external chamber 96 and ventilation chamber 97 for the lower passageway 99 is separate from the main body, and by connecting and constructing it. Let's assume it's one piece. Figures 83 to 85 show a composite partition plate 24 with a bottom external chamber for attaching branch lines.

接続面138は三方向で下部貫通路99へ外部室96兼
換気室97を施し、大股部85付きの大部開口#82を
構成し下部貫通路99に対して三箇所の開口部100を
施している。上下貫通路99は隔壁92と一体になって
いる仕切り板86により上下に分割され、段差部91と
天部81へ天部開口部82を施しである。第86図は、
支線取り付は用の分割式底外部室付き複合仕切り板ます
25であり、下部貫通路99の外部室96兼換気室97
はます本体と別製体に形成され、一体に接続施工する事
によりますが構成される。第87図から第89図は、十
字用の底外部室付き複合仕切り板ます24であり、四方
向の接続面138を構成し下部貫通路99の外部室96
兼換気室97は一つで三箇所の開口部100を有し、上
下貫通路99は隔壁92と仕切り板86によって完全分
割され段差部91を設けている。第90図は、十字用の
分割式底外部室付き仕切り板ます25であり、下部貫通
路99の外部室96兼換気室97がます本体とは別製体
で構成され、一体に接続施工する事によりますが構成さ
れる。第91図は十字用の底外部室付き複合仕切り板ま
す24であり、四方向の接続面138を有し、外部室9
6兼換気室97は二つ構成され下部貫通路99に対して
、それぞれ三箇所の開口部100を有しているますであ
る。第92図は、十字用の分割式底外部室付き複合仕切
り板ます25であり、本体と分割された外部室96兼換
気室97が二つ構成され本体と接続して一体形成するま
すである。第93図は、直線用の部分透水式底外部室付
き複合仕切り板ます26であり、隔壁92と仕切り板8
6により貫通路99が上下に完全に分割され上部貫通路
99の両件壁94に透水性コンクリート106を使用し
透水・集水に対応させる構造で段差部92を有している
。外部室96兼換気室97は下部貫通路99に対して一
箇所の開口M100を有した一体形のますである。第9
4図から第95図は、直線用の暗渠型上外部室付き複合
仕切り板ます27であり、上下部貫通路99・外部室9
6兼換気室97・泥溜部90・隔壁92・仕切り蓋87
がらなっており、上部貫通路99の天部81上を流れる
雨水や地表水等が天部開口部82より大股部85上の目
的に合った蓋を通り上部貫通路99内へ集水しさらに外
部室96兼換気室97へ下り勾配を持たせた仕切り蓋と
87隔壁92により泥溜部90へ泥やゴミを集める構造
で、下部貫通路99へは仕切り段部88上にある仕切り
1i87を取り外せば開口部100が生じる。このます
は泥溜部90の深さがます自体の底部95と水平になる
様大きく構成した構造である。第96図は、直線用の分
割式暗渠型上外部室付き複合仕切り板ます28であり、
上部貫通路99の外部室96兼換気室97及び泥溜部9
0が本体と別躯体で接続施工して一体とするますである
。第97図は、直線用の暗渠型上外部室付き複合仕切り
板ます27であり、天部開口部83が大きく外部室96
兼ん換気室97及び泥溜部90の上部にまで及んでいる
構造のますである。第98図は、直線用の暗渠型上外部
室付き複合仕切り板ます27であり、上部貫通路99の
外部室96兼換気室97及び泥溜部90が本体に対して
浅い構造になっている。第99図は、直線用の暗渠型上
外部室付き複合仕切り板ます27であり、上部貫通路9
9の天部81と外部室96兼換気室97及び泥溜部90
の天部81に段差110が生じている構造で、底部95
は水平である0段差110部分へ舗装などをすれば外部
室96等は埋設化できる。第100図は、直線用の開渠
型上外部室付き複合仕切り板ます29であり、上部貫通
路99が開渠より構成されているますでその他は第95
図の暗渠型と変わらない、第101図は、直線用の分割
式上外部室付き複合仕切り板ます30であり、本体と外
部室96兼換気室97及び泥溜部90が別躯体になって
おり接続施工してますは一体化される。第102図から
第103図は、隅切り90度用の暗渠型上外部室付き複
合仕切り板ます27であり、上部貫通路99の外部室9
6兼換気室97及び泥溜部90が角の外部へ設けている
構造で、底部95は水平に構成されている。第104図
は、隅切り90度用の分割式暗渠型上外部室付き複合仕
切ります28であり、外部室96兼換気室97及び泥溜
部90の躯体が本体とは別に分割されていて、施工時に
一体接合する構造のますである。第105図は、隅切り
90度用の上外部室付き複合仕切り板ます31であり、
仕切り蓋87が外部室96兼換気室97及び泥溜部90
側に下り勾配になっていないで水平の状態の構造である
。第106図は、隅切り90度用の分割式上外部室付き
複合仕切り板ます30であり、外部室96兼換気室97
及び泥溜部90が本体とは別躯体の分割式で本体と接続
使用する。
The connecting surface 138 provides an external chamber 96 and a ventilation chamber 97 to the lower through passage 99 in three directions, constitutes a large opening #82 with a thigh part 85, and has three openings 100 to the lower through passage 99. are giving. The upper and lower passages 99 are divided into upper and lower parts by a partition plate 86 that is integrated with the partition wall 92, and a step portion 91 and a top opening 82 are provided to the top portion 81. Figure 86 shows
The branch line is attached using a composite partition plate 25 with a split bottom external chamber, and the external chamber 96 and ventilation chamber 97 of the lower passageway 99.
It is formed as a separate body from the main body, and is constructed by connecting and constructing it as one piece. FIGS. 87 to 89 show a composite partition plate box 24 with a bottom external chamber for a cross, which constitutes connection surfaces 138 in four directions, and connects the external chamber 96 of the lower through passage 99.
One double-ventilation room 97 has three openings 100, and the upper and lower passages 99 are completely divided by the partition wall 92 and the partition plate 86, and a stepped portion 91 is provided. Fig. 90 shows a partition plate 25 with a split bottom external chamber for a cross, in which the external chamber 96 and ventilation chamber 97 of the lower passage 99 is constructed separately from the main body of the cell, and is connected and constructed as one piece. It depends on the situation, but it will be configured. FIG. 91 shows a composite partition plate 24 with a bottom external chamber for a cross, which has connecting surfaces 138 in four directions, and an external chamber 9.
The six ventilation chambers 97 are composed of two, each having three openings 100 relative to the lower passage 99. Figure 92 shows a composite partition plate box 25 with a split bottom external chamber for a cross, which is composed of a main body and two divided external chambers 96 and ventilation chambers 97, which are connected to the main body to form an integral part. . Figure 93 shows a composite partition plate 26 with a partially permeable bottom external chamber for straight lines, with a partition wall 92 and a partition plate 8.
6, the through passage 99 is completely divided into upper and lower parts, and both walls 94 of the upper through passage 99 are made of water-permeable concrete 106, and have a stepped portion 92 with a structure for water permeation and water collection. The external chamber 96/ventilation chamber 97 is an integral cell having one opening M100 relative to the lower passageway 99. 9th
Figures 4 to 95 show a straight-line culvert-type composite partition plate 27 with an upper and outer chamber, and an upper and lower passageway 99 and an outer chamber 9.
6. Ventilation room 97, mud basin 90, partition wall 92, partition lid 87
Rainwater, surface water, etc. flowing above the top part 81 of the upper passageway 99 are collected from the top opening part 82 through a cover suitable for the purpose above the thigh part 85 and into the upper passageway 99. Furthermore, the structure is such that mud and dirt are collected into the mud basin 90 by a partition lid with a downward slope to the external room 96/ventilation room 97 and 87 partition wall 92. When the opening 100 is removed, an opening 100 is created. This cell has a large structure so that the depth of the mud basin 90 is parallel to the bottom 95 of the cell itself. Figure 96 shows a composite partition plate 28 with a split type underdrain type upper and external chamber for straight lines,
External chamber 96 and ventilation chamber 97 of upper passage 99 and mud basin 9
0 is a separate body from the main body, which is connected and integrated into one body. Fig. 97 shows a composite partition plate 27 with a culvert type upper external chamber for straight lines, and the top opening 83 is large and the external chamber 96
This cell has a structure that extends to the upper part of the ventilation room 97 and the mud basin 90. Figure 98 shows a composite partition plate 27 with an underdrain type upper external chamber for straight lines, in which the external chamber 96 and ventilation chamber 97 of the upper passage 99 and the mud basin 90 have a shallow structure with respect to the main body. . Figure 99 shows a composite partition plate 27 with an underdrain type upper external chamber for straight lines, and an upper passage 9
9's top 81, external room 96/ventilation room 97, and mud basin 90
The top part 81 has a step 110, and the bottom part 95
The external chamber 96, etc. can be buried by paving the horizontal 0-level difference 110. Figure 100 shows a composite partition plate box 29 with an open channel type upper external chamber for straight lines, in which the upper passageway 99 is composed of an open channel, and the rest are number 95.
Fig. 101, which is the same as the culvert type shown in the figure, is a composite partition plate 30 with a split upper external chamber for straight lines, in which the main body, external chamber 96/ventilation chamber 97, and mud basin section 90 are separate bodies. The cage connections are being constructed and will be integrated. 102 to 103 show a composite partition plate 27 with an underdrain type upper external chamber for corner cutting at 90 degrees, and an external chamber 9 of an upper passage 99.
It has a structure in which a six-fold ventilation chamber 97 and a mud basin part 90 are provided outside the corner, and the bottom part 95 is configured horizontally. Fig. 104 shows a split type underdrain type composite partition 28 with an upper external chamber for corner cutting at 90 degrees, in which the framework of the external chamber 96/ventilation chamber 97 and the mud basin section 90 is divided separately from the main body. This is a structure that is integrally joined during construction. Figure 105 shows a composite partition plate 31 with an upper external chamber for corner cutting at 90 degrees,
The partition lid 87 serves as an external room 96 and a ventilation room 97 and a mud basin 90
It is a horizontal structure with no downward slope on the sides. Figure 106 shows a composite partition board 30 with a split-type upper external chamber for 90-degree corner cutting, and an external chamber 96 and ventilation chamber 97.
The mud basin part 90 is a separate body from the main body and is used in connection with the main body.

第107図は、隅切り90度用の上外部室付き複合仕切
り板ます31であり、外部室96兼換気室97及び泥溜
部90が角の内側へ施している構造である。第108図
は、隅切り90度用の分割式上外部室付き複合仕切り板
ます30であり、角の内側に入っている外部室96兼換
気室97及び泥溜部90が本体とは別躯体になっている
構造で施工時に本体と接続する。第109図から第11
0図は、支線取り付は用の暗渠型上外部室付き複合仕切
り板ます27であり、接続面138は三方向からなり上
部貫通路991!1へ外部室96兼換気室97及び泥溜
部90が外側にある構造である。第111図は、支線取
り付は用の分割式暗渠壁上外部室付き複合仕切り板ます
28であり、外部室96兼換気室97及び泥溜部90は
本体と別躯体になっている構造で外側に施し、施工時に
本体と接続する構造である。第112図は、支線取り付
は用の上外部室付き複合仕切り板ます31であり、外部
室96兼換気室97及び泥溜部90は本体角の内側へ施
している構造である。また上部貫通路99の天部81へ
は三箇所の大部開口部82と、隔壁92にも同じく三箇
所の仕切り蓋87が施される構造である。第113図は
、支線取り付は用の分割式上外部室付き複合仕切り板ま
す30であり、上部貫通路99の天部81には三箇所の
大部閉口部82を設け、仕切り蓋87も三箇所に施して
いる。外部室96兼換気室97及び泥溜部9゜は本体と
別躯体で、施工時に接続する。第114図は、支線取り
付は用の上外部室付き複合仕切り板ます31であり、上
部貫通路99へ三箇所の大部開口部82を設け隔壁92
にも同じく三箇所の仕切り蓋87が施こされ、外部室9
6兼換気室97及び泥部90も三箇所に施した構造であ
る。第115図は、支線取り付は用の分割式上外部室付
き複合仕切り板ます30であり、第114図の外部室9
6兼換気室97及び泥溜部9oのみが本体とは別躯体で
施工時に本体と接続する構造である、第116図は、十
字用の上外部室付き複合仕切り板ます31であり、四方
向に接続面138を施し、上部貫通路99には三箇所の
天部開口部82を隔壁92にも三箇所の仕切り蓋87を
施し、外部室96兼換気室97及び泥溜部90を上部貫
通路99に持たせている。第117図は、十字用の分割
式上外部室付き複合仕切り板よす30であり、第116
図の外部室96兼換気室97及び泥溜部90のみが本体
とは別の躯体構造になっており施工時に本体と接続する
。第118図は、十字用の上外部室付き複合仕切り板ま
す31であり、上部貫通路99の大部開口部82と隔壁
92の仕切り蓋87が三箇所の構造で、外部室96兼換
気室97及び泥溜部90は四箇所の構成のますである、
第119図は、十字用の分割式上外部室付き複合仕切り
板ます30であり、第118図の外部室96兼換気室9
7及び泥溜部90が分割式の構成である。また図示しな
いが総ての上外部室96兼換気室97及び泥溜部90付
きのますは、その外部室96等上へも大部開口部82を
施す構造のますも構成する。第120図から第121図
は、直線用の組み立て式上外部室付き複合仕切り板ます
32であり、上部貫通路99と外部室96兼換気室97
及び泥溜部90が一体の構造で、他の下部貫通路99に
仕切り段部88があり、その上へ仕切り蓋87を乗せる
構造に分割され、上下貫通路99の躯体を接続施工する
事により一体ますとする構成である。上部貫通路99上
へは外壁94−杯の大股部85と天部開口部82が施さ
れている、第122図から第123図は、直線用の組み
立て式上外部室付き複合仕切り板ます32であり、上部
貫通路99の隔壁92仕切り段部88上へ仕切り塁87
を乗せた外壁94の本体と、泥溜部90を有した外部室
96兼換気室97の本体、それに下部貫通路99の本体
を施工時に組み立て接合する構造である。上部貫通路9
9の隔壁92は外部室96側へ幾分下り勾配になってい
る。ますの天部81は本体−杯に大部開口部82となっ
ている。第124図から第125図は、直線用のバイパ
ス型複合仕切り板ます33であり、このますの構造は本
体の接続手前に上部貫通路99と下部貫通路99に分け
たバイパス路114を複合隔壁管路121と接続して、
ますに対して上下左右に振り分けた事によります内で上
下貫通路99が上下列に揃わなくてすみ、上下左右に異
なった貫通路99を構成できる。下部貫通路99の上部
へ仕切り段部88と仕切り蓋87を構成し、これを取り
外す事により開口部100が生じる。隔壁92には泥溜
部90側へ少し下り勾配に構成しである。
FIG. 107 shows a composite partition plate 31 with an upper external chamber for corner cutting at 90 degrees, and has a structure in which an external chamber 96/ventilation chamber 97 and a mud basin 90 are provided on the inside of the corner. Figure 108 shows a composite partition plate 30 with a split upper external chamber for 90-degree corner cutting, in which the external chamber 96/ventilation chamber 97 and mud basin 90 contained inside the corner are separate from the main body. It has a structure that connects it to the main body during construction. Figures 109 to 11
Figure 0 shows a composite partition plate 27 with a culvert-type upper external chamber for attaching a branch line, and the connection surface 138 has three directions, and connects the upper passageway 991!1 to the external chamber 96/ventilation chamber 97 and mud basin. This is the structure where 90 is on the outside. Fig. 111 shows a composite partition plate 28 with an external chamber on the split type culvert wall for attaching the branch line, and the external chamber 96/ventilation chamber 97 and mud basin 90 are constructed separately from the main body. It has a structure that is applied to the outside and connected to the main body during construction. Fig. 112 shows a structure in which a composite partition plate 31 with an upper external chamber is used for attaching the branch line, and an external chamber 96/ventilation chamber 97 and a mud basin 90 are provided inside the corners of the main body. Further, the top portion 81 of the upper through-hole 99 has three major openings 82, and the partition wall 92 is also provided with three partition covers 87. Fig. 113 shows a composite partition plate 30 with a split type upper and outer chamber for attaching branch lines, and the top 81 of the upper passage 99 is provided with three major closing portions 82, and the partition lid 87 is also provided. It is applied in three places. The external room 96/ventilation room 97 and the mud basin 9° are separate from the main body, and are connected at the time of construction. FIG. 114 shows a composite partition plate 31 with an upper external chamber for attaching a branch line, and a partition wall 92 with three large openings 82 to the upper passage 99.
Similarly, three partition lids 87 are applied to the external chamber 9.
The structure has six ventilation rooms 97 and three mud areas 90. Fig. 115 shows a composite partition plate 30 with a split type upper external chamber for attaching branch wires, and the external chamber 9 shown in Fig. 114.
Figure 116 shows a composite partition board 31 with an upper external chamber for a cross, in which only the ventilation chamber 97 and the mud basin 9o are separate from the main body and connected to the main body during construction. A connecting surface 138 is provided on the top passage 99, three partition lids 87 are provided on the partition wall 92, and the external chamber 96/ventilation chamber 97 and the mud sump 90 are provided with a top opening 82 at three locations. I have it on Road 99. Fig. 117 is a composite partition plate height 30 with a split type upper external chamber for a cross;
Only the external room 96/ventilation room 97 and mud basin 90 shown in the figure have a frame structure separate from the main body, and are connected to the main body during construction. Fig. 118 shows a composite partition plate 31 with an upper external chamber for a cross, which has a structure in which the large opening 82 of the upper passage 99 and the partition cover 87 of the partition wall 92 are in three places, and the external chamber 96 also functions as a ventilation chamber. 97 and the mud basin part 90 are composed of four locations,
Fig. 119 shows a composite partition plate 30 with a split upper external chamber for a cross, and the external chamber 96 and ventilation chamber 9 shown in Fig. 118.
7 and the mud basin part 90 are of a split type configuration. Further, although not shown, all the cells with the upper external chamber 96/ventilation chamber 97 and the mud basin 90 also constitute a cell having a structure in which a large opening 82 is provided above the external chamber 96, etc. Figures 120 to 121 show a composite partition plate 32 with an assembled upper external chamber for straight lines, including an upper passageway 99 and an external chamber 96 and ventilation chamber 97.
and the mud basin part 90 are of an integrated structure, and the other lower through passage 99 has a partition step part 88, and the partition lid 87 is placed on top of the partition step part 88. It is an integrated structure. 122 to 123 show a composite partition plate with an assembled upper outer chamber for straight lines, which has an outer wall 94, a large crotch section 85, and a top opening 82 above the upper passageway 99. 32, and the partition base 87 is placed above the partition wall 92 of the upper passageway 99 and the partition step 88.
The structure is such that the main body of the outer wall 94 on which the tank is placed, the main body of the external chamber 96/ventilation chamber 97 having the mud trap 90, and the main body of the lower passage 99 are assembled and joined during construction. Upper passageway 9
The partition wall 92 of No. 9 has a somewhat downward slope toward the external chamber 96 side. The top part 81 of the square is a large opening 82 in the main body-cup. Figures 124 to 125 show a bypass type composite partition plate square 33 for straight lines, and the structure of this square is such that a bypass passage 114, which is divided into an upper passage 99 and a lower passage 99, is connected to the composite partition before the connection of the main body. Connected to the conduit 121,
By distributing the squares vertically and horizontally, the vertical passages 99 do not have to be aligned in vertical rows within the squares, and different passages 99 can be formed in the vertical and horizontal directions. A partition step 88 and a partition lid 87 are formed at the upper part of the lower through-path 99, and an opening 100 is created by removing them. The partition wall 92 has a slightly downward slope toward the mud basin 90 side.

天部開口ti82は天部81全体に近い大きさに構成し
である。また図示していないが、直線用以外ではバイパ
ス路114の部分へ泥溜躯体89や仕切り蓋87、天部
開口部82を形成する構成にすれば、あらゆる接続方向
に対して接続出来るますとなる。第126図から第13
3図は、直線用の組み立て式上外部室付き複合仕切り板
ます32のインサート式であり、複合隔壁管路121を
ますの外壁94内へ抱き込み接続する構造で、上下貫通
路99を形成する外壁94、隔壁92と外壁94付きの
底部95と泥溜部90を有する外部室96兼換気室97
の外壁94、仕切り蓋87付きの仕切り板86から構成
され、下部貫通路99の天部81ヘアゴ部123を施し
その上に仕切り板86を乗せて内部の仕切り段部88上
へ仕切り蓋87を乗せ、外部室96等に向かって幾分下
り勾配の付いた仕切り板86により、これを組み立て施
工すると上下貫通路99に分割されたますが出来上がる
。大部開口部82は貫通路99上へ大きく構成されてい
る。第134図は、直線用の部分透水式上外部室付き複
合仕切ります34であり、外部室96兼換気室97の外
壁94に透水性コンクリート106と底部95へ通水孔
Lotを施し、透水・集水機能を持たせた構造で下部貫
通路9つは、その機能を有していない構造で仕切りMB
2と隔壁92によって完全に分割されている。第135
図は、直線用の部分透水組み立て式上外部室付き複合仕
切り板ます35のインサート式であり、上部貫通路99
の両件壁94に透水性コンクリート106を使用し、外
部室96兼換気室97の底部95へ通水孔101を施し
透水・集水機能を有している構造である。他の構造は組
み立て式上外部室付き複合仕切り板ますと同一である。
The top opening ti82 is configured to have a size close to the entire top 81. Also, although not shown in the drawings, for non-straight applications, if the mud basin frame 89, partition lid 87, and top opening 82 are formed in the bypass path 114, connections can be made in all connection directions. . Figures 126 to 13
Figure 3 shows an insert type composite partition plate box 32 with an assembled upper external chamber for straight lines, which has a structure in which the composite partition pipe 121 is inserted into the outer wall 94 of the cell and connected to form an upper and lower passage 99. External chamber 96 and ventilation chamber 97 having an external wall 94, a partition wall 92, a bottom section 95 with external wall 94, and a mud basin section 90
It consists of an outer wall 94, a partition plate 86 with a partition lid 87, a top part 81 of the lower passage 99, a hair go part 123, the partition plate 86 is placed on top of the top part 81, and the partition lid 87 is placed on the internal partition stepped part 88. When assembled and constructed using the partition plate 86 with a somewhat downward slope toward the external chamber 96 etc., a box divided into upper and lower through passages 99 will be completed. The major opening 82 is configured to be larger onto the through passage 99 . Fig. 134 shows a partially permeable straight-line composite partition 34 with an upper external room, in which permeable concrete 106 is provided on the outer wall 94 of the external room 96 and ventilation room 97, and water holes Lot are provided on the bottom 95. The 9 lower passages have a structure that has a water collection function, and the 9 passages have a partition MB that does not have that function.
2 and a partition wall 92. 135th
The figure shows an insert type composite partition plate 35 with a partially water-permeable assembly type upper external chamber for straight lines, and an upper passage 99.
Water-permeable concrete 106 is used for both walls 94, and water holes 101 are provided in the bottom 95 of the external room 96 and ventilation room 97, so that the structure has water permeability and water collection functions. The other structure is the same as the composite partition panel with prefabricated upper external chamber.

第136図から第137図は、直線用の外部室型複合仕
切り板ます36であり、上下貫通路99がそれぞれ別々
の貫通路99に対して使用目的別に分けた外部室96を
形成したますで、上部貫通路99は開口部100より仕
切り板86と隔壁92が下り勾配にて外部室96兼換気
室97及び泥溜部90を構成し、下部貫通路99は開口
部100により外部室96兼換気室97を構成する。そ
れぞれ隔壁92−仕切り板86等により独立した別々の
大部開口部82を施している構成のますである。
Figures 136 to 137 show an external chamber type composite partition plate 36 for straight lines, in which upper and lower through passages 99 form external chambers 96 that are divided according to purpose of use for separate through passages 99, respectively. The upper through passage 99 forms an external chamber 96/ventilation chamber 97 and a mud basin 90 with the partition plate 86 and partition wall 92 descending from the opening 100, and the lower through passage 99 forms an external chamber 96/external chamber 96 through the opening 100. A ventilation room 97 is configured. The cells have a configuration in which separate large openings 82 are formed by partition walls 92, partition plates 86, etc., respectively.

第138図は、直線用の分割式外部室型複合仕切ります
37であり、上下貫通路99の外部室96が本体と別製
体の構造で、施工時に一体に構成するますである。第1
39図から第141図は、直線用の外部室型複合仕切り
板まず36であり、接続面138は二方向からなり、上
下貫通路99がそれぞれ仕切り板86・隔壁92により
分割された独立の外部室96を構成し、上部貫通路99
側の大部開口部82は貫通路99と外部室96兼換気室
97及び泥溜部90上にも大きく開いている構造で、隔
壁92と仕切り板86は外部室96側に幾分下り勾配に
なっている。下部貫通路99は開口部100外の外部室
99兼換気室97上のみに天部開口部82が構成しであ
る。第142図は、直線用の分割式外部室型複合仕切り
板ます37であり、下部貫通路99の外部室96兼換気
室97が本体と別製体になっている構造で、施工時に本
体と接続させる構成である。第143図から第145図
は、支線取り付は用の外部室型複合仕切り板ます36で
あり、接続面138は三方向からなり上部貫通路99は
泥溜部90を施した外部室96兼換気室97に対して少
し勾配を持たせた隔壁92と仕切り板86からなり、そ
の上部へは大きく開いた大部開口部82を構成し下部貫
通路99には、開口部100を二部所持った外部室96
兼換気室97を構成しである上下貫通路99完全分離型
からなっている。第146図は、支線取り付は用の分割
式外部室型複合仕切り板ます37であり、下部貫通路9
9の外部室96兼換気室97のみが本体と別製体に構成
され、施工時に接合する構造である。第147図は、十
字用の外部室型複合仕切り板まず36であり、接続面1
38は四方向からなり上部貫通路99と下部貫通路99
が別々の外部室96等を構成しているますで、上部貫通
路99の天部開口部82が大きく開いている形状の構造
である。第148図は、十字用の分割式外部室型複合仕
切り板ます37であり、下部貫通路99の外部室96兼
換気室97が本体と別製体に構成され、施工時に接続す
る構造である。また図示しないが、外部室型複合仕切り
板ます36と分割式外部室型複合仕切り板ます37も下
部貫通路99への開口部100を仕切り蓋87等により
施すますも構成する。第149図は、直線用の部分透水
式上外部室付き複合仕切り板ます34であり、上部貫通
路99の外部室96兼換気室97に通水孔101を設け
透水・集水機能を持たせた構造のますである。第150
図から第152図は、直線用の開渠型底段差部付き複合
仕切り板ます38であり、上下貫通路99を仕切り板8
6と仕切り段部88上の仕切り蓋87によって分割し。
Fig. 138 shows a split type external chamber type composite partition 37 for straight lines, in which the external chamber 96 of the upper and lower through passages 99 is constructed separately from the main body, and is constructed as one piece during construction. 1st
39 to 141 show an external chamber type composite partition plate 36 for straight lines, in which the connection surface 138 has two directions, and the upper and lower through passages 99 are separated by the partition plate 86 and the partition wall 92, respectively, to form an independent external structure. The upper through passage 99 constitutes the chamber 96.
The large opening 82 on the side is also large open above the through passage 99, the external chamber 96/ventilation chamber 97, and the mud basin 90, and the partition wall 92 and the partition plate 86 are slightly downwardly sloped toward the external chamber 96. It has become. The lower passage 99 has a top opening 82 only above the external chamber 99 and ventilation chamber 97 outside the opening 100. Figure 142 shows a split type external room type composite partition plate 37 for straight lines, and has a structure in which the external room 96 and ventilation chamber 97 of the lower passage 99 is made separately from the main body. This is a configuration for connecting. 143 to 145 show an external chamber type composite partition plate 36 for attaching branch wires, the connecting surface 138 has three sides, and the upper passage 99 serves as an external chamber 96 with a mud trap 90. It consists of a partition wall 92 and a partition plate 86 that have a slight slope with respect to the ventilation room 97, and the upper part thereof has a large opening 82, and the lower passage 99 has two openings 100. external chamber 96
The upper and lower passages 99 that constitute the ventilation room 97 are completely separated. Figure 146 shows a split type external chamber type composite partition plate 37 for installing branch wires, and a lower through hole 9.
Only the external chamber 96/ventilation chamber 97 of No. 9 is constructed separately from the main body, and is constructed to be joined at the time of construction. Fig. 147 shows an external chamber type composite partition plate 36 for a cross, and the connection surface 1
38 consists of four directions, an upper passage 99 and a lower passage 99.
The structure is such that the top opening 82 of the upper passage 99 is wide open. Fig. 148 shows a split external chamber type composite partition plate 37 for a cross, in which the external chamber 96 and ventilation chamber 97 of the lower passage 99 is constructed separately from the main body, and is connected at the time of construction. . Although not shown, the external chamber type composite partition plate cell 36 and the split type external chamber type compound partition plate cell 37 also constitute a cell in which an opening 100 to the lower through passage 99 is formed by a partition lid 87 or the like. Fig. 149 shows a partially water-permeable composite partition plate 34 with an upper external chamber for straight lines, in which water holes 101 are provided in the external chamber 96 and ventilation chamber 97 of the upper passageway 99 to provide water permeation and water collection functions. This is a square with a structure. 150th
FIG. 152 shows a composite partition plate 38 with an open channel type bottom step for straight lines.
6 and a partition lid 87 on a partition step 88.

下部貫通路99の底部95へ泥溜部90或は段差部91
を設けた躯体を構成し上部貫通路99が開渠、下部貫通
路が99が暗渠のts造である。天部81へは大部開口
部82を施しである。第153図は、暗渠型底段差部付
き複合仕切り板まず3つであり、下部貫通路99へ段差
部91・泥溜部90付きの躯体が施され、仕切り板86
・仕切り塁87によって上下貫通路99に分割され、上
部貫通路99は暗渠型で天部81へ調整蓋102を乗せ
た構造のますである。第154図は、直線用の底段差外
部室付き複合仕切り板まず40と底段差泥溜外部室付き
複合仕切り板ます41であり、第155図は、直線用の
底段差外部室付き複合仕切り板ます40で、上下貫通路
99は仕切り板86と仕切りMB2によって分割され下
部貫通路99が開口部100によって外部室96兼換気
室97を有し内底面が下部貫通路99と同一底面になっ
ている。但し外部室96等の底面は貫通路99に向かっ
て下り勾配になって段差部91と泥溜部90の躯体を構
成している。上部貫通路99側は、全閉蓋83を乗せて
いる図示していないがこの段差部91兼泥溜部90は別
製体の分割式としても構成する。第156図は、直線用
の底段差泥溜外部室付き複合仕切り板ます41であり、
下部貫通路99の開口部100により外部室96兼換気
室97及び泥溜部90を施す、これは外部室96等の底
部95と貫通路99の底部95とが水平であり、貫通路
99rsにも段差部91が生じる。つまり泥溜部90使
用か段差部91使用であり内部空間が増大する形である
。第157図は、直線用の訊分透水式底段差泥溜外部室
付き複合仕切り板ます42であり、下部貫通路99の段
差部91底部95や外壁94、外部室96兼換気室97
の底部95や外壁94に対して透水性コンクリート10
6や通水孔lotを設け透水・集水機能を持たせたます
である。第158図は、直線用の分割式底段差外部室付
き複合仕切り板ます43と分割式底段差泥溜外部室付き
複合仕切り板ます44であり、本体と外部室96兼換気
室97及び泥溜部90が別製体になっている構成で、施
工時に接続する構造のますである。第159図から第1
60図は、直線用の縦列開渠型複合隔壁ます45であり
、外壁94と隔壁92によって三員通路99を構成して
いるますで、それぞれ別々の大部開口部82を施してい
る独立分割の形で、真ん中の貫通路99は段差部91と
泥溜部90を構成し、グレーチング蓋84を大股部85
へ使用している構造である。第161図は、直線用の縦
列開渠型複合隔壁ます45であり、それぞれの三員通路
99は大股部85上へ同一の塁を使用している。但し蓋
内に天部開口部82や大股部85を施せばどの貫通路9
9上にも大部開口部82が生じる。第162図は、直線
用の縦列開渠型複合隔壁ます45であり、本体内の貫通
路99を分割する隔壁92が別製体で底部95の凹部1
24へ隔壁92の凸部125を合わせ貫通路99を形成
するますである。天部81は第161図と同じく一枚蓋
を使用する構造である。第163図は、直線用の縦列開
渠型複合隔壁ます45であり、本体である外壁94底部
95と、塁と一体になった隔壁92が付いている隔壁蓋
139を本体底部95の凹部124へ隔壁M139の凸
部125を合わせ、大股部85へ乗せることにより三員
通路99が生じる構造である、第164図は、直線用の
縦列開渠型複合隔壁ます45であり、本体と隔壁92が
別々の構造で本体内底面に凹部124と凸部125を施
し、その好きな所へ隔壁92の凸部125を合わせるこ
とにより貫通路99の空間を自由に設定施工出来る構造
のますである。隔壁92は別に三階壁99でなく三階壁
99でも四隅壁99でも構わない、隔壁92施工後はま
す本体底部へコンクリート140をすきな厚みに打設し
て隔壁92の安定をはかる使用としてもよい、第165
図から第166図は、直線用の縦列暗渠型複合隔壁ます
46であり、隔壁92によって内部が左右の貫通路99
に分割されている構造で、大股謬85上へグレーチング
蓋84を乗せている貫通路99側は段差部91を構成し
、全閉蓋83側の浸水を防ぐ構造の貫通路99は小体形
をしている構造である。天部81の全閉蓋83tl@の
角へ縁石段部104を施しこの角よりグレーチング蓋8
4111へ下り勾配に構成しである。#&石段部104
へは縁石105を乗せる構造である。第167図は、直
線用の縦列一部開渠型複合隔壁ます47であり、グレー
チング蓋84を使用している貫通路99側が開渠使用に
なっている構成のますである。第168図は、直線用の
縦列開渠型複合隔壁ます45であり、天部81は水平で
片側に縁石段部104を設け隔壁92により左右に分割
されている。グレーチング蓋84を使用している貫通路
99は段差部91を有している。第169図から第17
0図は、直線用の縦列暗渠型複合仕切り板ます48であ
り、内部形状は三員通路99から構成されている。グレ
ーチング1184を施している貫通路99は段差部91
を構成し、隔壁92によって分割された全閉蓋83を施
している貫通路99は仕切り段部88上の仕切り蓋87
によって下部は通路99の開口部100となり上下に分
割されている。天部81角には縁石段?lL 04があ
り縁石105を乗せられる構造になっている。第171
図は、直線用の縦列開渠型複合仕切り板ます49であり
、天部81に面した大股部85上には全閉蓋83を使用
し、隔壁92、仕切りMB2によって内部は三つの貫通
路99から構成されている。第172図は、直線用の部
分透水式縦列暗渠型複合隔壁ます50であり、隔壁92
により内部は三員通路99に構成され、グレーチング蓋
84を施している貫通路99側の外壁94には通水孔1
01を設け透水・集水機能を持たせている。その他は縦
列暗渠型複合隔壁まず46に準じる。第173図は、直
線用部分透水式の縦列暗渠型複合仕切り板ます48であ
り、段差部91を有した貫通路99底部95と外壁94
に透水性コンクリート106と通水孔101を施し、透
水・集水機能を持たせた構造のますである。また図示し
ていないが縦列の暗渠型・開渠型複合隔壁、複合仕切り
板まずは、バイパス路114やそれぞれの貫通899の
位置を互いにずらして貫通路99同士上下にならぬ様位
置をかわしな構造のますも構成する。第174図から第
175図は、直線用のブレ蓋付き変換複合隔壁ます51
であり、下部貫通路99は暗渠より構成され上部貫通路
99が開渠より暗渠へ変換するますであって、暗渠部と
した天部81ヘグレーチング蓋84を施してますの天部
81は水平構造とした。隔壁92によって上下二貫通路
99に分割され隔壁92内の仕切り段部88上へ泥溜部
90を有する泥溜躯体89を施し下部貫通路99へ漏水
等を防ぐため目地部127を設けている。このますは、
上部貫通路99が暗渠より開渠へも変換使用出来る構造
である。第176図から第177図は、直線用の変換複
合隔壁ます52であり、天部81に段差110があって
、接続楕遺物の上部が開渠からなる天部81に蓋を乗せ
て敷設されてくる形に対応できる構造で、その為上部貫
通路99天部81に段差110がある。上部貫通路99
の暗渠化した天部81には大部開口部82が施されてい
る。
A mud basin portion 90 or a step portion 91 is connected to the bottom portion 95 of the lower passageway 99.
The upper passageway 99 is an open conduit, and the lower passageway 99 is an underdrain. A large opening 82 is provided to the top 81. FIG. 153 shows three composite partition plates with a step part at the bottom of the culvert type, and a frame with a step part 91 and a mud basin part 90 is applied to the lower passage 99, and the partition plate 86
- Divided into upper and lower passageways 99 by the partition base 87, and the upper passageway 99 is a culvert type structure with an adjustment lid 102 placed on top 81. Fig. 154 shows a composite partition plate 40 with a stepped external chamber at the bottom for straight lines and a composite partition plate with an external chamber at the bottom step 41 for straight lines, and Fig. 155 shows a composite partition plate with a stepped external chamber at the bottom for straight lines. In the box 40, the upper and lower through passages 99 are divided by the partition plate 86 and the partition MB2, and the lower through passages 99 have an external chamber 96 and a ventilation chamber 97 through the openings 100, and the inner bottom surface is the same bottom as the lower through passages 99. There is. However, the bottom surface of the external chamber 96 and the like slopes downward toward the through passage 99, forming a frame of the stepped portion 91 and the mud basin portion 90. Although not shown, the fully closed lid 83 is placed on the side of the upper passage 99, but the step portion 91 and mud reservoir portion 90 may be constructed as a separate separate body. Figure 156 shows a composite partition plate 41 with an external chamber for a mud basin with a step difference in the bottom for straight lines.
The opening 100 of the lower passage 99 provides an external chamber 96/ventilation chamber 97 and a mud basin 90. This is because the bottom 95 of the external chamber 96 and the like and the bottom 95 of the passage 99 are horizontal, and the opening 100 of the passage 99 is Also, a stepped portion 91 is generated. In other words, either the mud basin 90 or the step part 91 is used, increasing the internal space. FIG. 157 shows a composite partition plate 42 with an external chamber for a straight-line translucent water-permeable bottom step mud storage, including the bottom 95 of the stepped section 91 of the lower passage 99, the outer wall 94, and the external chamber 96 and ventilation chamber 97.
Water-permeable concrete 10 is applied to the bottom 95 and outer wall 94 of the
6 and a lot of water holes are provided to provide water permeability and water collection functions. Figure 158 shows a composite partition plate 43 with a split-type bottom stepped external chamber for straight lines and a compound partition plate 44 with a split-type bottom step external chamber 44, including the main body, an external chamber 96/ventilation chamber 97, and a mud sump. The structure is such that the part 90 is a separate body and is connected during construction. Figure 159 to 1
Figure 60 shows a vertical open channel type composite bulkhead cell 45 for straight lines, in which a three-member passageway 99 is formed by an outer wall 94 and a bulkhead 92, each of which is an independent divided cell with separate large openings 82. In the form of , the middle through passage 99 constitutes a step part 91 and a mud basin part 90, and the grating lid 84 is connected to a large part 85.
This is the structure used for this. FIG. 161 shows a straight-line tandem open channel composite bulkhead box 45 in which each three-member passageway 99 uses the same base on the strut section 85. However, if a top opening 82 and a long section 85 are provided in the lid, which penetration path 9
A large opening 82 also occurs on 9 . FIG. 162 shows a parallel open channel type composite bulkhead box 45 for straight lines, in which the bulkhead 92 that divides the through passage 99 in the main body is a separate body and the recess 1 in the bottom part 95 is shown.
24 and the convex portion 125 of the partition wall 92 to form a through passage 99. The top portion 81 has a structure using a single lid as in FIG. 161. FIG. 163 shows a vertical open channel type composite bulkhead box 45 for straight lines, in which the main body (outer wall 94 and bottom part 95) and the bulkhead lid 139 with the partition wall 92 integrated with the base are attached to the concave part 124 of the main body bottom part 95. Fig. 164 shows a vertical open channel type composite bulkhead 45 for straight lines, which has a structure in which a three-member passage 99 is created by aligning the convex portion 125 of the bulkhead M139 and placing it on the crotch portion 85. 92 is a separate structure, and a concave part 124 and a convex part 125 are provided on the bottom surface of the main body, and by aligning the convex part 125 of the partition wall 92 to a desired location, the space of the through passage 99 can be freely set and constructed. . The partition wall 92 may be a third-story wall 99 or a four-corner wall 99 instead of the third-story wall 99. After the partition wall 92 is constructed, concrete 140 is poured to the desired thickness at the bottom of the main body to stabilize the partition wall 92. Moyoi, No. 165
FIG. 166 shows a vertical column culvert-type composite bulkhead 46 for straight lines, with the inside having left and right through passages 99 formed by the bulkhead 92.
The through passage 99 side where the grating lid 84 is placed on the wide cross section 85 constitutes a stepped portion 91, and the through passage 99 with a structure to prevent water intrusion on the fully closed lid 83 side has a small body shape. It is a structure that does. A curb step 104 is provided to the corner of the fully closed lid 83tl@ of the top 81, and the grating lid 8 is installed from this corner.
4111 is configured with a downward slope. # & stone steps 104
It has a structure on which a curbstone 105 is placed. FIG. 167 shows a longitudinal partially open-drain type composite bulkhead cell 47 for straight lines, and is constructed so that the side of the passageway 99 where the grating lid 84 is used is used as an open-drain type. FIG. 168 shows a vertical open channel type composite bulkhead 45 for straight lines, in which the top 81 is horizontal and has a curb step 104 on one side and is divided into right and left by a bulkhead 92. The through passage 99 using the grating lid 84 has a stepped portion 91 . Figures 169 to 17
FIG. 0 shows a vertical culvert-type composite partition panel 48 for straight lines, and its internal shape is composed of a three-member passage 99. The through passage 99 provided with the grating 1184 has a stepped portion 91
The through passage 99 which is divided by the partition wall 92 and provided with the fully closed lid 83 is connected to the partition lid 87 on the partition step 88.
The lower part becomes the opening 100 of the passage 99 and is divided into upper and lower parts. Is there a curb step at the top 81 corner? There is lL 04 and the structure is such that a curbstone 105 can be placed on it. 171st
The figure shows a vertically open channel type composite partition plate 49 for straight lines, with a fully closed lid 83 on the wide section 85 facing the top 81, and three through-holes inside with the partition wall 92 and partition MB2. It consists of 99 roads. Fig. 172 shows a partially permeable column culvert type composite bulkhead 50 for straight lines, and a bulkhead 92
The interior is configured as a three-member passage 99, and the outer wall 94 on the side of the through passage 99 covered with the grating lid 84 has water holes 1.
01 is installed to provide water permeability and water collection functions. Otherwise, the vertical culvert type composite bulkhead conforms to 46. FIG. 173 shows a straight line partially permeable column culvert type composite partition plate 48, which includes a bottom part 95 of a through passage 99 having a stepped part 91 and an outer wall 94.
This cell has a structure in which permeable concrete 106 and water holes 101 are applied to provide water permeability and water collection functions. Also, although not shown, vertically arranged underdrain/open-drain type composite bulkheads and composite partition plates are constructed by first shifting the positions of the bypass passages 114 and the respective penetrations 899 so that the passages 99 are not placed above or below each other. Nomasu is also configured. Figures 174 to 175 are conversion composite bulkheads with blur lids for straight lines 51
The lower passageway 99 is composed of an underdrain, and the upper passageway 99 converts from an open conduit to an underdrain, and a grating cover 84 is applied to the top part 81, which serves as the underdrain part.The top part 81 is horizontal. Structure. It is divided into two upper and lower through passages 99 by a partition wall 92, and a mud basin frame 89 having a mud basin part 90 is provided on the partition step 88 in the partition wall 92, and a joint part 127 is provided to prevent water leakage into the lower through passage 99. . This square is
The structure is such that the upper passageway 99 can be converted from a culvert to an open conduit. Figures 176 to 177 show a straight conversion composite bulkhead 52, which has a step 110 on the top 81, and the top of the connecting elliptical relic is laid with a lid placed on the top 81 consisting of an open channel. It has a structure that can accommodate the shape of the upper part, and therefore there is a step 110 at the top part 81 of the upper passage 99. Upper passageway 99
A large opening 82 is provided in the top section 81 which has been turned into a culvert.

また隔壁92の仕切り段部88上へは泥溜部90を施し
た泥溜躯体89が施されている。このますは開渠より暗
渠、暗渠より開渠へ変換可能なますである。第178図
から第179図は、直線用のブレ蓋付き変換複合隔壁ま
す51であり、暗渠化のグレーチング蓋84の付いてい
る天部81へは縁石段部104も施されていて、開渠か
ら暗渠への変換に段差110がある構造でこの段差11
0に合う蓋を開渠側の天部81へ設ければ、ます天部8
1は水平になる。上下貫通路99に分割している隔壁9
2には仕切り段部88があり、そこへ泥溜部90を有す
る泥溜躯体89を施す構造である。このますも暗渠、開
渠どちらからも変換可能なますである。第180図から
第181図は、直線用のブレ塁付き変換複合隔壁ます5
1であり、内部形状と接続物の大きさも変換させる構造
で、内部は隔壁92によって上下貫通路99に分割され
上部貫通路99に大股部85があるのでそれに見合った
蓋を設けて暗渠化のグレーチング蓋84付きの天部81
と水平にする。隔壁92は開渠側と暗渠側では位置が上
下にずれていて仕切り段部88上等に泥溜部90を有し
た目地部127付きの泥溜躯体89を施す、下部貫通路
99も底部95に段差110を生じ、暗渠化の大型接続
物に対応すべく変化している。図示していないが、この
逆に小型暗渠から大型開渠へもこのますの逆系統とすれ
ば構成される。第182図から第185図は、直線用の
変換複合隔壁ます52であり、暗渠より暗渠への内部形
状、大きさを変換させた構造で両件壁94はフラットで
はなく、天部81へは天部開口部82を施し上下に位置
ずれした隔壁92に泥溜部90を有した目地部127付
きの泥溜躯体89を施し、下部貫通路99は構造の大き
な暗渠に対して底部95が段差110を生じて接続物に
対応させる。第186図から第188図は、直線用の大
股部付き変換複合隔壁ます53であり、上部貫通路99
天部81が構造の大きさ変換により段差110を構成し
たもので、この天部81へ天部開口部82の高さを調整
する用なL型蓋83等を設ければよく両件壁94はフラ
ットではない、隔壁92には上下のずれが生じてなく水
平に保たれ仕切り段部88上へ泥溜部90を有する目地
部127付きの泥溜躯体89が施され、下部貫通路99
の底部95にのみ段差110が生じる構造で変換される
。小さい接続面1381mlの天部81へは舗装を施せ
ば地表に出ない構造ともなる。
Further, a mud basin frame 89 having a mud basin part 90 is provided on the partition step part 88 of the partition wall 92. This square can be converted from an open ditch to a culvert, or from a culvert to an open ditch. Figures 178 to 179 show a conversion composite bulkhead 51 with a straight cover for straight lines, and a curb step 104 is also provided on the top 81 with a grating cover 84 for converting it into an open drain. In the structure where there is a step 110 in the conversion from a culvert to a culvert, this step 11
If you install a lid that fits 0 on the top 81 on the open channel side, the square top 8
1 is horizontal. Partition wall 9 divided into upper and lower through passages 99
2 has a partition step part 88, and a mud basin frame 89 having a mud basin part 90 is attached thereto. This masu can also be converted from either a culvert or an open conduit. Figures 180 to 181 are conversion composite bulkheads with straight line bracing 5.
1, and has a structure that changes the internal shape and the size of the connected object.The interior is divided into an upper and lower passage 99 by a partition wall 92, and the upper passage 99 has a large section 85, so a corresponding lid is provided to convert it into an underdrain. Top section 81 with grating lid 84
and level it. The partition wall 92 is vertically shifted between the open channel side and the underdrain side, and a mud basin frame 89 with a joint part 127 having a mud basin part 90 on the upper part of the partition step part 88 is provided. A step 110 is created in the area, which has been changed to accommodate large-scale connections for underground drainage. Although not shown in the drawings, this system can also be constructed by reversing this system from a small culvert to a large open culvert. Figures 182 to 185 show a straight-line converted composite partition wall 52, which has a structure in which the internal shape and size have been converted from a culvert to a culvert, and both walls 94 are not flat, and the ceiling 81 is A mud basin frame 89 with a joint part 127 having a mud basin part 90 is applied to the partition wall 92 which has a top opening 82 and is vertically shifted, and the bottom passage 99 has a bottom part 95 that is stepped compared to the large culvert structure. 110 to correspond to the connection object. Figures 186 to 188 show a conversion compound bulkhead 53 with a straight leg section, and an upper through passage 99.
The top part 81 forms a step 110 by changing the size of the structure, and it is only necessary to provide an L-shaped lid 83 or the like for adjusting the height of the top opening part 82 to this top part 81. is not flat, the partition wall 92 is kept horizontal without vertical deviation, and a mud basin frame 89 with a joint part 127 having a mud basin part 90 above the partition step part 88 is provided, and the lower penetration passage 99
The structure is converted such that a step 110 occurs only at the bottom 95 of the structure. If the top part 81, which has a small connecting surface of 1381 ml, is paved, it will be possible to create a structure that does not come out from the ground surface.

第189図から第190図は、直線用の副管付き変換複
合隔壁ます54であり、暗渠より暗渠へ変換するますで
天部81は水平構造で天部開口部82を有し、隔壁92
は上下にずれて内部変換をし仕切り段部88等上へ泥溜
部89を有する目地部127付きの泥溜躯体89を施す
、下部貫通路99底部95の段差部110が大きく生じ
る場合に副管107を構成しなますであり、内部形状や
大きさの異なる構造物に対応して両件壁94はフラット
ではない構造である。第191図は、直線用の分割式副
管付き変換複合隔壁ます55であり、上下にずれた隔壁
92と泥溜躯体89によって上下貫通路99に分割され
、下部貫通路99の底部95と副管107が一体となっ
た副管107部分のみが本体と複合隔壁管路121とも
別躯体の構造と、さらに本体と別躯体として複合隔壁管
路121と副管107が一体になった躯体を接合する構
造の副管107付きのますである。第192図は、直線
用の分割式副管付き変換複合隔壁まず5刀であり、内部
形状が大型化された本体の天部81へ大股部85と天部
開口部82が施され、内部形状の小さい側の上部貫通路
99の隔壁92内に副管107を構成し、下部貫通路9
9の底部95段差110部へ副管107を取り付けた構
造である。これは上下貫通路99に分割式の副管107
底M95と、あるいは貫通路99副管10719I壁9
2をそれぞれ構成したますで、大型化された本体内の隔
壁92へ泥溜部゛90を有する目地部127付きの泥溜
躯体89を施したますである。第193図から第194
図は、直線用の大股部付き変換複合仕切り板まず56で
あり、暗渠から開渠へ変換する構造で、天部81へは大
股部85を有した天部開口部82があり、仕切り板86
は厚い構造で仕切り段部88上へ仕切り蓋87を乗せ段
差部91兼泥溜部90を施し上下貫通路99に分割して
いる。このますは開渠から暗渠へも変換できる構造であ
る。第195図から第196図は、直線用の勾配変換型
複合仕切り板ます57であり、暗渠同士の接続で、ます
本体内部にて勾配を持たせる事を目的とした変換よすの
構造で、天部81へは大股部85を施した天部開口部8
2があり、ますの下流側に段差110を設けて接合され
ている複合隔壁管路121は上下流とも同一形状である
。上下部貫通路99を分割している仕切り板86も上下
にずれが生じているが、厚みがあるため仕切り段部88
上へ仕切り蓋87を乗せ段差部91兼泥溜部90を構成
している。下部貫通路99は底部95に幾分段差110
を設け下流側の接続物に対応させる。このますは、貫通
路99に勾配を持たせた事により流速を発生させて速や
かに内部貫通物を流下させる構造のますである。第19
7図から第198図は、直線用の大股部付き変換複合仕
切り板まず56であり、暗渠型の複合隔壁管路121か
ら大型のWR渠型接続物に内部形状。
Figures 189 to 190 show a conversion composite partition wall 54 with a straight line sub-pipe, which converts from a culvert to a culvert.The top 81 has a horizontal structure and has a top opening 82, and the partition 92
When the step part 110 of the bottom part 95 of the lower penetration passage 99 is large, the mud basin frame 89 with the joint part 127 having the mud basin part 89 is applied above the partition step part 88 etc. by shifting vertically and internally converting. The pipe 107 is made of a slanted structure, and the walls 94 have a non-flat structure to accommodate structures having different internal shapes and sizes. FIG. 191 shows a converting compound bulkhead box 55 with a split type secondary pipe for straight lines, which is divided into an upper and lower through passage 99 by a vertically shifted partition wall 92 and a mud basin frame 89, and a bottom part 95 of a lower through passage 99 and a secondary pipe. Only the auxiliary pipe 107 portion where the pipe 107 is integrated has a structure that is separate from the main body and the composite partition pipe 121, and the main body and a separate structure in which the composite partition pipe 121 and the sub pipe 107 are integrated are joined. This is a cell with an auxiliary pipe 107 having a structure of Fig. 192 shows a conversion composite bulkhead with a split type sub-pipe for straight lines.The main body has a larger internal shape with a large crotch part 85 and a top opening 82 added to the top part 81 of the main body. A sub-pipe 107 is configured within the partition wall 92 of the upper through-way 99 on the smaller side, and the lower through-way 9
It has a structure in which an auxiliary pipe 107 is attached to a step 110 part of the bottom part 95. This is a sub-pipe 107 that is divided into the upper and lower through passages 99.
Bottom M95 or through passage 99 sub pipe 10719I wall 9
2, and a mud basin frame 89 with a joint part 127 having a mud basin part 90 is attached to the partition wall 92 in the enlarged main body. Figures 193 to 194
The figure shows a conversion composite partition plate 56 with a long section for straight lines, which has a structure for converting from a culvert to an open drain, and has a top opening 82 with a large section 85 to the top 81, and a partition plate 56 with a large section for straight lines. Board 86
It has a thick structure, with a partition lid 87 placed on top of a partition step 88 and a step 91 serving as a mud reservoir 90, which is divided into upper and lower through passages 99. This square has a structure that can be converted from an open channel to an underground channel. Figures 195 to 196 show a slope conversion type composite partition plate 57 for straight lines, which has a conversion height structure that aims to create a slope inside the main body by connecting underdrains. To the top 81 is a top opening 8 with a crotch section 85.
2, and the composite partition pipe 121, which is joined with a step 110 on the downstream side of the cell, has the same shape on both the upstream and downstream sides. The partition plate 86 that divides the upper and lower passages 99 is also vertically misaligned, but due to its thickness, the partition stepped portion 88
A partition lid 87 is placed on top to form a stepped portion 91 and a mud reservoir portion 90. The lower passage 99 has a slight step 110 at the bottom 95.
to correspond to the downstream connection. This cell has a structure in which the through passage 99 is given a slope to generate a flow velocity and cause the internal objects to flow down quickly. 19th
Figures 7 to 198 show the conversion composite partition plate 56 with a straight leg section, which converts the internal shape from a culvert type composite partition pipe 121 to a large WR culvert type connection.

大きさも変換するますで、片面の外壁94がフラットな
状態で民地側等に対して支障が生じなく、もう片方の外
壁94のみに変換を持たせる構造となる。天部81へは
天部開口部82を施し、厚みのある仕切り板86の中に
仕切り段部88を持たせ仕切りfi87を乗せ段差部9
1兼泥溜部89を施し上下貫通路99に分割する。下部
貫通路99は底部95に幾分勾配ある段差110を構成
する、第199図から第201図は、直線用の大股部付
き変換複合隔壁ます53であり、内部形状も大きさも変
換するますで、ますの外面は片方の外壁94がフラット
な面からなり敷設に民地等の支障が生+Zない。高低差
で説明すれば上流側は幅が広い構造物であるが本体の高
さは小さく、下流側は幅は狭いが高さがある構造物に接
続する構造で、隔壁92には泥溜躯体89を施し上下貫
通路99に分割している。下部貫通路99は底部95に
段差110が生じている構造である。第202図から第
204図は、変形の大股部付き変換複合隔壁ます53で
あり、接続面138が三方向・二方向に対応して接続構
造物の大きさ変換にも対応する構造で、隔壁92に泥溜
躯体89を構成している、第205図から第207図は
、直線用の底外部室付き変換複合仕切り板ます58であ
り、内部形状も大きさも変換させて仕切り板86によっ
て完全に上下貫通路99に分割され、下部貫通路99の
み外部室96兼換気室97を開口部100より構成し、
底部95へ勾配のある段差110が生じ三員通物に対応
して独立の大股部85付きの天部開口部82を施し、外
壁94はフラット構造である。上部貫通路99の仕切り
板86には段差110が施され内部形状が変換されてい
る。天部81には大股部85を有した上部貫通路99用
の天部開口部82が構成されている0貫通路99側の外
壁94面は変換されている。第208図から第209図
は、直線用の部分透水弐天段部付き変換複合隔壁ます5
9であり、上部貫通路99の外壁94へのみ通水孔10
1を施し透水・集水構造とした。その他は第188図の
大股部付き変換複合隔壁ます53と同様である。第21
0図から第211図は、直線用の副管付き部分透水式変
換複合隔壁ます60であり、上部貫通路99の外壁94
へ通水孔101を構成し透水−集水機能を持たせ、その
他は第189図の副管付き変換複合隔壁ます54と同様
である。第212図は、直線用の分割式副管付き部分透
水変換複合隔壁ます61であり、上部貫通路99の外壁
94へ通水孔101を構成し透水・集水機能に対応させ
た。その他は第191図の分割式副管付き変換複合隔壁
ます55と同様である。また図示していないが、変換複
合まず系統に変形Y形用や三叉路等接続方向に応じて構
造を変化対応させ、街渠から街渠への変換ますも又変換
ます全体が通水性の構造も構成する。接続物の大きさに
関係無く勾配を取れる様にし、平らで勾配のない構成で
もよいわけで接続構造物の収り付は位置も任意に設定施
工ができ、変化のある場所に対処する為あらゆる接続面
138を構成し接続対応できる様構成しである。第21
3図は直線用の複合多様ます62であり、仕切り段部8
8上の仕切りMB2により上下貫通路99に分割され、
天部81には大股部85を施した大部開口部82が構成
されているますである。第214図は、直線用の複合多
様ます62であり、本体内は仕切り板86と仕切り段部
88上の仕切り蓋87によって上下に分割されている構
造で、他のますの仕切り蓋87と違い貫通路99内−杯
の幅の構造ではなく、天部81へは大股部85と大部開
口部82を施している。第215図は、直線用の複合多
様ます62であり、本体の仕切り段部88上へ分割式の
仕切り板86を乗せその中の仕切り段部88へ仕切りM
B2を乗せて上下貫通路99に分割した構造で共に目地
部127を施しである。
Since the size is also converted, the outer wall 94 on one side is flat and does not cause any trouble to the private land side, and the structure is such that only the outer wall 94 on the other side is converted. A top opening 82 is provided to the top 81, a partition step 88 is provided in a thick partition plate 86, and a partition fi 87 is placed on the step 9.
A mud reservoir part 89 is provided and divided into an upper and lower through passage 99. The lower passage 99 constitutes a step 110 with a slight slope at the bottom 95. Figs. 199 to 201 show a converting compound bulkhead box 53 with a straight leg section, which converts both the internal shape and size. Since one of the outer walls 94 of the square is flat, there will be no hindrance to installation on private land. In terms of height difference, the structure on the upstream side is wide but the height of the main body is small, and the structure on the downstream side is connected to a structure that is narrow but tall. 89 and is divided into upper and lower through passages 99. The lower through-way 99 has a structure in which a step 110 is formed at the bottom 95. FIGS. 202 to 204 show a conversion composite bulkhead 53 with a deformable crotch section, which has a structure in which the connecting surface 138 corresponds to three directions and two directions, and also corresponds to the size conversion of the connecting structure, FIGS. 205 to 207, which constitute the mud basin frame 89 on the partition wall 92, show a conversion composite partition plate 58 with a bottom external chamber for straight lines, and the internal shape and size are converted and the partition plate 86 is used to convert the internal shape and size. It is completely divided into upper and lower passages 99, and only the lower passage 99 has an external chamber 96 and a ventilation chamber 97 formed by an opening 100.
A sloped step 110 is formed at the bottom 95, and a top opening 82 with an independent long section 85 is provided to accommodate the three-person storage space, and the outer wall 94 has a flat structure. The partition plate 86 of the upper passage 99 is provided with a step 110 to change its internal shape. The outer wall 94 surface on the side of the 0 through-path 99 in which the top opening 82 for the upper through-path 99 having the crotch portion 85 is formed in the top 81 has been converted. Figures 208 to 209 show a conversion composite bulkhead with a partially permeable upper step for straight lines 5
9, and the water passage hole 10 is provided only to the outer wall 94 of the upper through passage 99.
1 was applied to create a water permeable/water collecting structure. The other parts are the same as the conversion composite partition wall 53 with a long section shown in FIG. 188. 21st
Figures 0 to 211 show a partially permeable conversion composite bulkhead 60 with a straight line auxiliary pipe, and the outer wall 94 of the upper through passage 99.
A water passage hole 101 is configured to provide a water permeation/water collection function, and the other features are the same as the conversion composite bulkhead 54 with sub-pipe shown in FIG. 189. FIG. 212 shows a partial water permeation conversion composite bulkhead 61 with a straight-line split sub-pipe, in which water holes 101 are formed in the outer wall 94 of the upper passage 99 to accommodate water permeation and water collection functions. The other parts are the same as the conversion composite partition wall 55 with split sub-pipe shown in FIG. 191. Also, although not shown in the diagram, the conversion complex is first modified according to the connection direction, such as a modified Y-shaped system or a three-way intersection, to convert from a street culvert to a street culvert. Configure. The slope can be taken regardless of the size of the connected structure, and a flat, non-slope configuration is also possible, so the connected structure can be installed in any position, and in order to deal with places with changes, it can be constructed in a variety of ways. The connecting surface 138 is configured to support connection. 21st
Figure 3 shows a complex multi-purpose cell 62 for straight lines, with a partition step 8.
Divided into upper and lower through passages 99 by partition MB2 on top of 8,
The top part 81 is a cell in which a large opening part 82 with a large crotch part 85 is formed. Fig. 214 shows a composite multipurpose cell 62 for straight lines, and the main body is divided into upper and lower sections by a partition plate 86 and a partition lid 87 on a partition step 88, unlike the partition lids 87 of other cells. The inside of the through-hole 99 does not have a cup-width structure, but the top portion 81 has a large crotch portion 85 and a large opening portion 82. Fig. 215 shows a composite multi-purpose cell 62 for straight lines, in which a split-type partition plate 86 is placed on the partition step 88 of the main body, and a partition M is attached to the partition step 88 therein.
It has a structure that is divided into upper and lower through passages 99 with B2 placed thereon, and joint portions 127 are provided on both of them.

天部81へは大股部85と天部開口部82が構成されて
いる。第216図は、直線用の複合多様ます62であり
、仕切り段部88上へ仕切り板86とさらにその中の仕
切り段部88上へ仕切り蓋87を二体使用した三員通路
99の構造である。上部貫通路99は開渠型で大股部8
5を施しである、第217図は、直線用の複合多様ます
62であり、仕切り段部88上の仕切り1I87によっ
て三員通路99に分割され、上部貫通路99には泥溜部
90兼段差部91が構成され、真ん中の貫通路99は三
員通物に対応し下部貫通路99は円形の構造である。天
部81へは大股部85と天部開口部82が施1−である
。第218図は、直線用の分割式複合多様ます63であ
り、貫通路99別の本体三分割から構成され、本体は凹
部124凸部125によって組み合わされ、その仕切り
段部88上へ目地部127を有した仕切り蓋87を乗せ
て=貫通路99を構成している。天部81へは大股部8
5と天部開口部82を施している0本体が分割されてい
る構造は、ますの高さ調整が各本体の構造により自由に
変化対応させ構成し易いますである。第219図は、直
線用の複合多様ます62であり、本体内がブラケット1
16.防護カゴ118、受は台117.隔壁92により
管路等を防護、区分設置する構造からなっている。天部
81へは大股部85と天部開口部82が構成されている
。第220図は、直線用の底外部室付き複合多様ます6
4であり、下部貫通路99へ外部室96兼換気室97を
開口部100より構成し、専用の大股部85付き大部開
口部82を施し、隔壁92と仕切り板86によって分割
されている上部貫通路99は、大股部85と天部開口部
82を施した四貫通物に対応している構造である。第2
21図は、直線用の分割式底外部室付き複合多様ます6
5であり、下部貫通路99の外部室96兼換気室97が
別製体で施工時に本体と凹部124凸部125等により
接続する。その他は第220図の底外部室付き複合多様
ます64と同様である。第222図は、直線用の複合多
様ます62であり、仕切り段部88上の仕切り蓋87に
よって上下貫通路99に分割され−E部貫通路99は四
貫通物に対応し、下部貫通路99は底面が上部貫通路9
9と同幅の構造になっている。天部81へは大股部85
と天部開口部82を施している。第223図は、直線用
の複合多様ます62であり、仕切り段部88上の仕切り
蓋87によって上下貫通路99に分割され、上部貫通路
99は天部81へ大股部85を有した大部開口部82を
施した構造で、下部貫通路99は三員通物に対応してい
る構成である、第224図は、直線用の底外部室付き複
合多様ます64であり、隔壁92と仕切り板86によっ
て完全に上下貫通路99に分割された構造で、上部貫通
路99は泥溜部90兼段差部91を構成し、下部貫通路
99は三員通称に対応して外部室96兼換気室97に開
口部100より構成し、それぞれ別口の大股部85付き
天部開口a182を持った構造である。第225図は、
直線用の分割式底外部室付き複合多様ます65であり、
下部貫通路99の外部室96兼換気室97が本体と別製
体になっている構造で施工時に接続するますである。
The top portion 81 is provided with a thigh portion 85 and a top opening portion 82 . FIG. 216 shows a complex multipurpose cell 62 for straight lines, which has a structure of a three-member passage 99 using two partition plates 86 above the partition step 88 and a partition cover 87 above the partition step 88 within the partition plate 86. be. The upper passage 99 is an open channel type with a large section 8.
Fig. 217 shows a complex multi-purpose cell 62 for straight lines, which is divided into a three-member passage 99 by the partition 1I87 on the partition step 88, and the upper passage 99 has a mud basin part 90 and a step difference. The middle through passage 99 corresponds to a three-member passage, and the lower through passage 99 has a circular structure. A long section 85 and a top opening 82 are connected to the top 81. FIG. 218 shows a split-type composite multi-purpose cell 63 for straight lines, which is composed of three main body parts each with a through passage 99, and the main body is assembled by a concave part 124 and a convex part 125, and a joint part 127 is formed on the partition step part 88. A through passage 99 is formed by placing a partition lid 87 having a diameter. Stride section 8 to top section 81
The structure in which the main body is divided into the main body 5 and the top opening 82 makes it easy to adjust the height of the square according to the structure of each main body. Figure 219 shows a composite multi-purpose box 62 for straight lines, with a bracket 1 inside the main body.
16. A protective basket 118, a stand 117. It has a structure in which pipelines and the like are protected and separated by partition walls 92. The top portion 81 is provided with a thigh portion 85 and a top opening portion 82 . Figure 220 is a composite multipurpose cell with a bottom external chamber for straight lines 6
4, an external chamber 96/ventilation chamber 97 is formed from an opening 100 to a lower passage 99, a large opening 82 with a dedicated crotch section 85 is provided, and it is divided by a partition wall 92 and a partition plate 86. The upper passageway 99 has a structure corresponding to a four-penetration object having a crotch portion 85 and a top opening portion 82. Second
Figure 21 shows a composite multipurpose cell with a split bottom external chamber for straight lines 6
5, the external chamber 96/ventilation chamber 97 of the lower passage 99 is a separate body and is connected to the main body through the recessed portion 124, convex portion 125, etc. during construction. The rest is the same as the composite multipurpose cell 64 with an external bottom chamber shown in FIG. 220. FIG. 222 shows a complex multi-purpose cell 62 for straight lines, which is divided into upper and lower through passages 99 by the partition lid 87 on the partition step 88, and the E part through passage 99 corresponds to four through objects, and the lower through passage 99 The bottom surface is the upper penetration path 9
It has the same width structure as 9. Stride section 85 to top section 81
and a top opening 82. FIG. 223 shows a complex multi-purpose cell 62 for straight lines, which is divided into upper and lower through passages 99 by a partition lid 87 on a partition step 88, and an upper passage 99 which has a large cross section 85 to a top section 81. The lower passage 99 is configured to accommodate a three-membered object. Fig. 224 shows a composite multipurpose cell 64 with a bottom outer chamber for straight lines, and a partition wall 92 and a lower passageway 99. The structure is completely divided into upper and lower through passages 99 by a partition plate 86, with the upper through passage 99 serving as a mud reservoir 90 and a stepped part 91, and the lower through passage 99 serving as an external chamber 96 and a step part 91, corresponding to the three-member common name. The ventilation chamber 97 is constructed with an opening 100, each having a top opening a182 with a separate crotch part 85. Figure 225 is
It is a composite multi-purpose box 65 with a split bottom external chamber for straight lines,
The external chamber 96 and ventilation chamber 97 of the lower passageway 99 are constructed separately from the main body, and are connected during construction.

その他は第224図の底外部室付き複合多様ます64と
同一である。第226図は、直線用の外部室付き複合多
様ます66であり、隔壁92により左右に貫通路99が
分割されその片方側の仕切り段部88上へ仕切り蓋87
乗せ上下貫通路99に分割し、その上部貫通路99は泥
溜部90兼段差部91を構成して、隔壁92によって分
割されたもう一方の貫通路99は外部室96兼換気室9
7を構成し、それぞれ別口の大股部85付き天部開口部
82を構成している。第227図は、直線用の分割式外
部室付き複合多様ます67であり、外部室96兼換気室
97のみがます本体と別製体の構造で、施工時に接合す
ることにより構成するますである。その他は第226図
の外部室付き複合多様まず66と同様である。第228
図は、直線用の底外部室付き複合多様ます64であり、
隔壁92と仕切り板86によって上下貫通路に分割され
上部貫通路99は段差部91兼泥溜部90を構成し、下
部貫通路99は三員通物に対応して開口部100より外
部室96−11!換気室97を構成してそれぞれ別口の
大股部85付きの大部開口部82を施している構造であ
る。第229図は、直線用の縦列型複合多様隔壁ます6
8であり、隔壁92によって左右貫通路99に分割され
それぞれ別口の大股部85付き大部開口部82を構成し
、片方の貫通路99は三員通称に対応し、もう片方の貫
通路99は一貫通物99に段差部91兼泥溜部90を構
成したますである。第230図は、直線用の分割式縦列
型複合多様隔壁ます69であり、隔壁92によって左右
の貫通路99に分割されたrJ造で、三貫通路99側が
本体と別製体になっていて施工時に接続する構造である
。その他は第229図の縦列型複合多様隔壁ます68に
準じる。
The other parts are the same as the composite multipurpose cell 64 with an external bottom chamber shown in FIG. 224. FIG. 226 shows a composite multipurpose cell 66 with an external chamber for straight lines, in which a through passage 99 is divided into right and left sides by a partition wall 92, and a partition lid 87 is inserted onto a partition step 88 on one side.
It is divided into upper and lower passageways 99, the upper passageway 99 serving as a mud basin 90 and a stepped part 91, and the other passageway 99 divided by a partition wall 92 serving as an external chamber 96 and a ventilation chamber 9.
7, each of which has a top opening 82 with a separate crotch portion 85. Figure 227 shows a composite multi-purpose cell 67 with a split external chamber for straight lines, in which only the external chamber 96 and ventilation chamber 97 is a separate body from the cell main body, and is constructed by joining at the time of construction. . The rest is the same as the composite multimodal unit 66 with external chamber shown in FIG. 226. 228th
The figure shows a composite multipurpose cell 64 with a bottom external chamber for straight lines,
The partition wall 92 and the partition plate 86 divide the passageway into an upper and lower passageway, and the upper passageway 99 constitutes a stepped part 91 and a mud basin 90, and the lower passageway 99 connects to the external chamber 96 through an opening 100 corresponding to a three-member passage. -11! It has a structure in which the ventilation chambers 97 are each provided with large openings 82 with separate large openings 85. Figure 229 shows a longitudinal complex multi-purpose bulkhead for straight lines 6
8, and is divided into left and right through passages 99 by a partition wall 92, each forming a large opening 82 with a separate wide opening 85, one through passage 99 corresponding to the three-member common name, and the other through passage 99. Reference numeral 99 is a cell in which a step portion 91 and a mud reservoir portion 90 are formed in a continuous material 99. Fig. 230 shows a split vertical type composite multipurpose bulkhead 69 for straight lines, which is of RJ construction divided into left and right through passages 99 by a bulkhead 92, and the three through passages 99 side are made separately from the main body. This is a structure that is connected during construction. The rest conforms to column type composite multi-purpose partition wall 68 shown in Fig. 229.

第231図は、直線用の縦列型複合多様隔壁ます68で
あり、隔壁92によって三員通路99に分割されそれぞ
れ別口の大股部85付き大部開口部82を構成し、真ん
中の貫通路99に段差部91兼泥溜部90を構成したま
すである。第232図は、直線用の分割式縦列型複合多
様隔壁ます69であり、隔壁92によって三員通路99
に分割された一貫通路99を、本体とは別製体として施
工時に接続し三員通路99を構成するますである。
FIG. 231 shows a longitudinal type composite multi-purpose bulkhead 68 for straight lines, which is divided into three-member passages 99 by a bulkhead 92, each of which has a large opening 82 with a separate wide opening 85, and a through passage in the middle. 99 has a stepped portion 91 and a mud reservoir portion 90. FIG. 232 shows a split vertical type composite multi-purpose bulkhead 69 for straight lines, with a three-member passage 99 separated by a bulkhead 92.
A three-member passageway 99 is constructed by connecting the integrated passageway 99 divided into three parts at the time of construction as a separate body from the main body.

その他は第231図の縦列型複合多様隔壁ます68に準
じる。第233図は、直線用の縦列型複合多様隔壁上す
68であり、路面132の路側帯に用いて隔壁92によ
って左右に分割された段差部91兼泥溜190を構成し
た貫通路99に地表水を集める蓋を天部81の大股部8
5に施し、もう片方の貫通路99へは三員通称を接続し
てその貫通物がケーブル、!気、f話等を地中化した場
合に対応して、天部開口部82より路面上の作業管理保
全室119へ貫通物を引き込んで、ますと貫通接続した
システムを形成する一施工例である。
The rest conforms to column type composite multi-purpose partition wall 68 shown in Fig. 231. FIG. 233 shows a vertical parallel type composite multi-purpose bulkhead 68, which is used on the road side strip of the road surface 132, and is connected to the ground surface by a through-way 99 that forms a stepped portion 91 and a mud basin 190 divided left and right by the bulkhead 92. The lid that collects water is attached to the upper part 81 of the upper part 8.
5, and the other through passage 99 is connected to the three-member common name, and the through-hole is the cable,! This is an example of construction in which a penetrating object is drawn into the work management and maintenance room 119 on the road surface from the top opening 82 to form a through-connection system in case the air, f-talk, etc. are placed underground. be.

第234図は、直線用の底外部室付き複合多様ます64
であり、隔壁92によって完全に上下に分割された貫通
路99構造で、上部貫通路99は天部81へは大股部8
5付きの天部開口部82を構成し、三員通称に対応した
下部貫通路99の外壁94に開口部100でもある枝管
口108を設け、そこへ枝管109をつけ外部室96兼
換気室97を接続し、天部81へは大股部85付きの大
部開口部82を別口で構成したますである。また図示し
ていないが、外部室96兼換気室97はます本体の天部
81より高く地表へ構成すれば、侵入水等が防げる構造
になる。第235図から第238図は、直線用のオーバ
ーフロー式縦列型複合多様隔壁まず70であり、隔壁9
2により左右貫通路99に分割された構造で、片方の貫
通路99には泥溜部90兼段差部91を構成し、接続口
112と排出口113があり排出口113が幾分低くな
っている構造である。もう片方の貫通路99は貫通路9
9内に流れに対する正面突き当たり部にオーバーフロー
用隔壁93を施し、接続口112から順次幾分かずつ低
くなっていくオーバーフロー用隔壁93を流水の上澄み
が溢れ一番低い排出口113に至る構造で、オーバーフ
ロー用隔壁93高さ以下に泥溜部90兼段差部91を構
成している構造で天部81へは大股部85付きの大部開
口部82を施しである。第239図は、直線用のオーバ
ーフロー用縦列型複合多様隔壁ます70であり、オーバ
ーフロー用隔壁93がます本体と一体の構造であり、排
出口113が底部95と水平になっている構造である。
Figure 234 is a composite multipurpose box 64 with a bottom external chamber for straight lines.
The structure is such that the through passage 99 is completely divided into upper and lower parts by the partition wall 92, and the upper through passage 99 is connected to the top part 81 by the thigh part 8.
A branch pipe port 108, which is also an opening 100, is provided on the outer wall 94 of the lower passage 99 corresponding to the three-membered structure, and a branch pipe 109 is attached thereto to serve as an external room 96 and ventilation. A chamber 97 is connected to the top 81, and a large opening 82 with a thigh 85 is formed as a separate opening. Although not shown, if the external room 96/ventilation room 97 is constructed higher than the top 81 of the cell main body toward the ground surface, a structure can be obtained to prevent intrusion of water and the like. FIGS. 235 to 238 show an overflow type longitudinal type composite multi-purpose bulkhead 70 for straight lines, and a bulkhead 9.
The structure is divided into left and right through passages 99 by 2, and one of the through passages 99 constitutes a mud reservoir part 90 and a step part 91, and has a connection port 112 and a discharge port 113, and the discharge port 113 is slightly lowered. It is a structure where The other through passage 99 is the through passage 9
9 has an overflow partition wall 93 at the front abutment against the flow, and the structure is such that the supernatant of the flowing water overflows the overflow partition wall 93 that gradually becomes lower from the connection port 112 to the lowest discharge port 113, It has a structure in which a mud reservoir part 90 and a stepped part 91 are formed below the height of an overflow partition wall 93, and a large opening part 82 with a thigh part 85 is provided to the top part 81. FIG. 239 shows a longitudinal type composite multi-purpose bulkhead cell 70 for linear overflow, in which the overflow partition wall 93 is integrated with the main body of the cell, and the outlet 113 is parallel to the bottom 95.

その他は同系列のますと同様である。第240図は、直
線用のオーバーフロー式縦列型複合多様隔壁ます70で
あり、オーバーフロー用隔壁93が本体底部95の凹部
124部分へ構成する分割式でその他は、同系列のます
と同様である。第241図から第245図は、直線用の
オーバーフロー式複合多様隔壁ます71であり、このま
すは仕切り段部88上の仕切り1187によって上下貫
通路99に分割された構造で、上部貫通路99は天部8
1へ大股部85付きの大部開口部82を施し、泥溜部9
0兼段差部91を構成し接続口112と排出口113を
設けた構造である。下部貫通路99は接続口112より
順次オーバーフロー用隔壁93が低くなっていく構造で
、排出口113に至る。オーバーフロー用隔壁93以下
に泥溜部90兼段差部91を構成しである。第245図
は、直線用のオーバーフロ式複合多様隔壁ます71であ
り下部貫通路99の排出口113が底部95にある構成
になっているますである0図示していないが、このオー
バーフロー用複合まず系統は排出口113も大きめに構
成する。第246図は、直線用の部分透水式底外部室付
き複合多様ます72であり、上部貫通路99の外壁94
へ一部分へ透水性コンクリート106を施し透水・集水
機能を持たせたますである。
Other aspects are the same as those of the same series. Fig. 240 shows an overflow-type vertical column-type composite multi-various bulkhead cell 70 for straight lines, which is a split type in which the overflow partition wall 93 is formed into the concave portion 124 of the bottom portion 95 of the main body, and is otherwise the same as the cell of the same series. 241 to 245 show a linear overflow type composite multi-purpose partition wall 71, which is divided into upper and lower through passages 99 by a partition 1187 on the partition step 88, and the upper through passage 99 is divided into upper and lower through passages 99. Tenbu 8
A large opening 82 with a large crotch part 85 is provided to 1, and a mud reservoir 9 is formed.
It has a structure in which a 0-cum-step portion 91 is formed, and a connection port 112 and a discharge port 113 are provided. The lower through-hole 99 has a structure in which the overflow partition wall 93 becomes lower in sequence than the connection port 112 and reaches the discharge port 113 . A mud reservoir portion 90 and a stepped portion 91 are configured below the overflow partition wall 93. Fig. 245 shows an overflow type composite multi-purpose bulkhead cell 71 for straight lines, in which the outlet 113 of the lower through passage 99 is located at the bottom 95. First, the system also has a larger discharge port 113. FIG. 246 shows a composite multipurpose cell 72 with a partially permeable bottom external chamber for straight lines, and an external wall 94 of an upper passageway 99.
Water permeable concrete 106 is applied to a portion of the wall to provide water permeability and water collection functions.

その他は、第228図の底外部室付き複合多様ます64
に準じる。第247図は、直線用の部分透水式縦列型複
合多様隔壁ます73であり、隔壁92によって分割され
た三員通路99の構成で、中心貫通路99の底部95へ
透水性コンクリート106を施し透水・集水機能を持た
せた構造でその他は、第231図の縦列型複合多様隔壁
ます68に準じる。また図示していないが、複合多様ま
す62系統は貫通物を限定しない対応型の構造になって
いる。第248図から第251図は、直線用の枝管口付
き複合隔壁ます74であり、本体も−F下に分割された
貫通路99に泥溜躯体89を施しその各貫通路99外壁
94に二つの枝管口1゜8及び枝管109を接続した構
造である。第250図は上部貫通路99の外壁94に、
第251図は下部貫通路99の外壁94に枝管口108
及び枝管109を施した構造である。第252図がら第
253図は、直線用と隅きり90度用の枝管口付き複合
隔壁ます74であり、隔壁92と泥溜躯体89によって
上下に分割された貫通路99の外壁94へ二つの枝管口
108を構成したますで、他の管路や側溝・工作物等に
接続する取り付は部である。第254図は、直線用の上
外部室型枝管付き複合仕切り板ます75であり、上部貫
通路99が外部室96兼換気室97及び泥溜部90を構
成している外壁94と、内部分割された下部貫通路99
の外壁94へ枝管口108と枝管109を施したますで
ある。第255図は、直線用の底外部室型技管付き複合
仕切り板ます76であり、仕切り板86によって分割さ
れた上下貫通路99の上部貫通路99外壁94と、下部
貫通路99の外部室96兼換気室97の外壁94に枝管
口108を施し、そこへ枝管109を構成したますであ
る、第256図は、直線用の外部室型技管付き複合仕切
り板ます77であり、上下貫通路99の外部室96兼換
気室97及び泥溜部90を有する外壁94へ枝管口10
8と枝管109を構成したますである。また図示してい
ないが、総ての複合ますに対して接続物・貫通物により
枝管口108や枝管109の位置・数にも変化対応施工
し、場合によっては枝管口108は外部室96等への開
口部100としても構成され取り付は角度・流入路を変
化させる。第257図から第259図は、直線用の現場
打ち複合ます78であり、開渠型の接続構造物をます本
体へ抱き込む式で底部95上へ下部貫通路99の外壁9
4を現場で打設し立ち上げ、その上へ仕切り段部88上
に仕切り!!87が施しである2次製品の仕切り板86
を乗せ、さらに上部貫通路99の外壁94を立ち上げそ
の上部へ大股部85付き2次製品の調整M102を乗せ
て接続構造物との高さ調整をする。このますの泥溜部9
0兼段差部91は、接続構造物の隔壁92の厚みと仕切
り板86の厚みの差により生じる構造である。また円形
の下部貫通路99へ必要に合わせてインバート134も
施し、現場にてコンクリドや躯体等を打設・組み立てな
がら接続構造物に合わせて対応施工するますである。第
260図は、直線用の現場打ち複合ます78であり、下
部貫通路99が三員通称に対応している構造であり、そ
の他は第257図から第259図の現場打ち複合ます7
8に準じる。第261図は直線用の透水式現場打ち複合
まず79であり、上部貫通路99の外壁94を2次製品
の透水性コンクリート106にて構成し、透水・集水機
能を持たせたますである。また図示していないが、現場
打ち複合ます78系統は底部95.外壁94.仕切り板
86天部81.調整M102等2次製品を使用して所々
コククリート等を打設施工する構造や、外部室96兼換
気室97及び泥溜部90を施す物も構成する。第262
図は、直線用の底外部室付き複合多様ます64であり、
下部貫通路99の外壁94に開口部100でもある枝管
口108と枝管109を施し、外部室96兼換気室97
を形成し下部貫通路99からケーブル、電気、電話、水
道。
Others include a complex variety of boxes with external bottom chambers as shown in Fig. 228 64
According to. Fig. 247 shows a straight partially permeable column-type composite multi-purpose bulkhead 73, which has a configuration of a three-member passage 99 divided by a partition wall 92, and a permeable concrete 106 is applied to the bottom 95 of the central passage 99 to make it permeable.・The structure has a water collection function, and the rest conforms to vertical complex multi-purpose bulkhead 68 in Figure 231. Also, although not shown, the 62 complex multi-purpose cells have a structure that does not limit the number of penetrating objects. Figures 248 to 251 show a composite bulkhead 74 with branch pipe openings for straight lines, and the main body is also provided with a mud basin frame 89 in the through passage 99 divided under -F, and the outer wall 94 of each through passage 99 is It has a structure in which two branch pipe ports 1°8 and a branch pipe 109 are connected. FIG. 250 shows that on the outer wall 94 of the upper through passage 99,
FIG. 251 shows a branch pipe opening 108 on the outer wall 94 of the lower passageway 99.
This structure includes a branch pipe 109 and a branch pipe 109. 252 and 253 show a composite bulkhead 74 with branch pipe openings for straight lines and for 90-degree corner cuts, which connect to the outer wall 94 of the through passage 99 vertically divided by the bulkhead 92 and the mud basin frame 89. This is a box consisting of two branch pipe ports 108, and the installation for connecting to other pipes, gutters, workpieces, etc. is a part. FIG. 254 shows a composite partition plate 75 with an upper external chamber type branch pipe for straight lines, in which an upper passage 99 forms an external chamber 96/ventilation chamber 97 and a mud basin 90, an external wall 94, and an internal Divided lower passage 99
A branch pipe port 108 and a branch pipe 109 are provided on the outer wall 94 of the pipe. FIG. 255 shows a composite partition plate 76 with a bottom external chamber type technical tube for straight lines, and the outer wall 94 of the upper through passage 99 of the upper and lower through passages 99 divided by the partition plate 86 and the external chamber of the lower through passage 99. Figure 256 shows a composite partition plate 77 with an external room type technical pipe for straight lines, which is a box in which a branch pipe port 108 is provided on the outer wall 94 of the ventilation room 97, and a branch pipe 109 is configured there. Branch pipe port 10 of upper and lower passageway 99 to outer wall 94 having external chamber 96 and ventilation chamber 97 and mud basin 90
8 and a branch pipe 109. Also, although not shown in the drawings, the positions and numbers of the branch pipe ports 108 and branch pipes 109 are changed depending on the connecting objects and penetrating objects for all composite cells. It is also configured as an opening 100 to 96 etc., and the installation changes the angle and inflow path. 257 to 259 show a cast-in-place composite cell 78 for straight lines, in which an open-drain type connection structure is inserted into the cell main body, and the outer wall 9 of the lower passage 99 is inserted onto the bottom 95.
4 on site and stand up, then partition on top of the partition step 88! ! Partition plate 86 of the secondary product where 87 is used
Further, the outer wall 94 of the upper through-hole 99 is raised, and the adjustment M102 of the secondary product with the crotch portion 85 is placed on top of the outer wall 94 to adjust the height with respect to the connecting structure. This mud pool part 9
The double step portion 91 is a structure that is generated due to the difference in thickness between the partition wall 92 and the partition plate 86 of the connection structure. Additionally, an invert 134 is applied to the circular lower passageway 99 as necessary, and construction is carried out in accordance with the connecting structure while pouring and assembling concrete, frame, etc. on site. Fig. 260 shows a cast-in-place composite cell 78 for straight lines, and has a structure in which the lower passage 99 corresponds to the three-member common name, and the other parts are the cast-in-place compound cell 7 shown in Figs. 257 to 259.
According to 8. Figure 261 shows a permeable cast-in-place composite structure 79 for straight lines, in which the outer wall 94 of the upper passage 99 is made of permeable concrete 106, a secondary product, to provide water permeability and water collection functions. . Also, although not shown, the 78 series cast-in-place composite mass has a bottom 95. Outer wall 94. Partition plate 86 Top section 81. It also includes a structure in which a secondary product such as Adjustment M102 is used to cast concrete or the like in places, and an external chamber 96/ventilation chamber 97 and a mud basin 90. No. 262
The figure shows a composite multipurpose cell 64 with a bottom external chamber for straight lines,
A branch pipe port 108 which is also an opening 100 and a branch pipe 109 are provided on the outer wall 94 of the lower passageway 99 to form an external room 96 and a ventilation room 97.
forming a lower passageway 99 for cables, electricity, telephone, and water.

ガス等の貫通物をます上部の大部開口M82を通して、
作業管理保全室119内へ取り入れ接続するシステム化
への使用説明図である。第263図は、直線用の縁石1
05付きの分割式複合多様ます63であり、本体天部8
1へ縁石105を一体化させ仕切り段部88上の仕切り
蓋87によって上下貫通路99に分割し、三員通称に対
応している。下部貫通路99の開口部100へ別躯体の
外部室96兼換気室97を接続施工し、貫通物を路面1
32上の作業管理保全室119へ引き込み接合してシス
テム対応する構造のますである。第264図から第26
5図は、直線用の換気口付き複合隔壁まず80であり、
第264図は、仕切り段部88上の泥溜部90を有する
泥溜躯体89と隔壁92によって上下貫通路99に分割
され、下部貫通路99の外壁94に開口部100を施し
そこへ換気孔98を接続して上部貫通路99の天部開口
部82上の天部81へ、大股部85付きの天部開口部8
2を有するL型蓋103を乗せ、さらに夏−型蓋103
の縁石105方へ換気孔98を貫通接続して、換気孔9
8の上部へ異物が侵入せぬ様、換気孔蓋111を構成し
て下部貫通路99の不純ガス等の不要物を外部へ排出す
る構造である。
Pass through objects such as gas through the large opening M82 at the top of the box,
It is an explanatory diagram for use in systematization that is incorporated into and connected to the work management and maintenance room 119. Figure 263 shows curb 1 for straight lines.
It is a split type composite multi-purpose box 63 with 05, and the top part of the main body 8
1, the curbstone 105 is integrated with the partition lid 87 on the partition step 88, and the partition cover 87 is divided into an upper and lower passage 99, corresponding to the common name of three members. A separate exterior room 96 and ventilation room 97 is connected to the opening 100 of the lower passage 99, and the penetrating object is connected to the road surface 1.
This cell has a structure that can be connected to the work management and maintenance room 119 on the top of 32 to support the system. Figures 264 to 26
Figure 5 shows a composite bulkhead with ventilation holes for straight lines, 80.
FIG. 264 shows a mud basin frame 89 having a mud basin section 90 on a partition step 88 and a partition wall 92 that are divided into an upper and lower through passage 99, and an opening 100 is provided in the outer wall 94 of the lower through passage 99, and a ventilation hole is provided therein. 98 to the top 81 above the top opening 82 of the upper through passage 99, the top opening 8 with the crotch part 85 is connected.
Place the L-shaped lid 103 having a summer-shaped lid 103.
The ventilation hole 98 is connected through and connected to the curb 105 of the ventilation hole 9.
In order to prevent foreign matter from entering the upper part of the lower passage 99, a ventilation hole cover 111 is configured to discharge unnecessary substances such as impure gas from the lower passage 99 to the outside.

第265図は、下部貫通路99の外壁94から上部貫通
路99の外壁94内に換気孔98を構成した構造で、排
出口113は天部81と水平であるまた図示していない
が、換気孔98の排出口113を天部より高く構成した
ものや、上部へ換気孔98持っていかず地中へ排除する
構造とも構成する、第266図は、直線用の部分透水式
開渠型複合隔壁ます3であり、上部貫通路99の通水孔
101に目詰まり等を防止しする為に構成した多孔管1
33を施し透水能力を向上させる物とした。あらゆる複
合よすの透水目的の通水孔101に対して使用できる物
で、さらに複合ますの外部回りへ透水・集水目的の構造
では砂利、砕石、砂等の透水層を施工時に設けると有効
である。第267図は、複合まず系統の一使用説明図で
あり、複合隔壁管路121上へL型蓋103を施し、道
路横断用に支線取り付は用の上外部室付き複合仕切り板
ます31や開渠型複合隔壁ます2を使用した構造で、グ
レーチング蓋84を施し横断渠141へもグレーチング
蓋84を使用している道路横断用に対しての一使用説明
図である。第268図は、複合まず系統の使用説明図で
、複合隔壁管路121上にはL型蓋103を乗せた使用
で、直線用の暗渠型複合隔壁ます9や隅切り90度用の
暗渠型複合隔壁ます9.直線用の大股部付き変換複合隔
壁ます53や外壁94フラツトの大股部付き変換複合隔
壁ます9.直線用の枝管付き複合隔壁ます74等を環境
施設帯の内部へ施工し、枝管口108より取り付は管1
22を接続してマンホール120や暗渠施工の複合隔壁
管路121の雨水路136、汚水路137へ接続し、施
工場所に応じた複合ますを選択して施工し蓋も全閉M8
3.グレーチング蓋84等ますと一緒に施工場所、使用
目的、構造、形状、大きさ等あらゆる接続構造物に対応
させる複合ますとして、複合隔壁管路121や単一管路
・側溝・工作物等を接続できるますとしたー施工例であ
る。また図示していないが、此のほかケーブルや電気・
電話・水道・ガス等の管路や工作物の使用としても地中
埋設物に対応して水物と同一に、あるいは水物とは別便
用で接続できるますである。第269図から第272図
は、複合ますや接続構造物の設置・接合・接続面の必要
である箇所に接続使用する一説明図で、第269図は、
接続面138に凹部124と凸#125を構成し、さら
に四部124内にパツキン126を組み入れ漏水や浸入
水等を防ぐ構造である。
FIG. 265 shows a structure in which a ventilation hole 98 is formed from the outer wall 94 of the lower passage 99 to the outer wall 94 of the upper passage 99, and the outlet 113 is parallel to the top 81. Figure 266 shows a partially permeable open channel type composite bulkhead for straight lines, in which the outlet 113 of the hole 98 is configured higher than the ceiling, or the ventilation hole 98 is not brought to the top but is discharged underground. The perforated pipe 1 is configured to prevent clogging of the water passage hole 101 of the upper passageway 99.
33 to improve water permeability. This product can be used for the water permeation hole 101 of any composite cell for water permeation purposes, and it is also effective if a permeable layer of gravel, crushed stone, sand, etc. is provided at the time of construction for structures intended for water permeation and water collection around the exterior of the compound cell. It is. Fig. 267 is an explanatory diagram of the use of a composite first system, in which an L-shaped cover 103 is applied to the composite partition pipe 121, and a composite partition plate 31 with an upper external chamber for installing a branch line for crossing the road is used. This is an explanatory diagram for use in a road crossing, in which a grating cover 84 is applied to a cross culvert 141 in a structure using an open culvert type composite bulkhead 2. Figure 268 is an explanatory diagram of the use of the composite first system, in which an L-shaped lid 103 is placed on the composite bulkhead conduit 121, and an underdrain type composite bulkhead box 9 for straight lines and an underdrain type for 90-degree corner cuts are used. Composite partition wall9. Conversion compound bulkhead with a long section for straight lines 53 and outer wall 94 Conversion compound bulkhead with a flat section 9. A composite bulkhead with branch pipes for straight lines 74 etc. will be constructed inside the environmental facility zone, and the pipe 1 will be installed from the branch pipe opening 108.
22 and connect it to the manhole 120 and the rain channel 136 and sewage channel 137 of the composite bulkhead pipe 121 constructed under the culvert, select a composite cell according to the construction site, and install it, and fully close the lid M8.
3. Together with grating lids 84, etc., it can be used to connect composite bulkhead pipes 121, single pipes, side gutters, workpieces, etc., as a composite cell that can be adapted to any connection structure such as construction location, purpose of use, structure, shape, size, etc. If possible, this is a construction example. Although not shown, there are other cables, electrical
It can be used for telephone, water, gas, etc. pipes and structures that are buried underground, and can be connected to water facilities either in the same way as water facilities, or separately from water facilities. Figures 269 to 272 are explanatory diagrams for connecting and using the composite masu and connecting structures at locations where installation, joining, and connection surfaces are required; Figure 269 is
The connecting surface 138 has a concave portion 124 and a convex #125, and a gasket 126 is further incorporated into the four portions 124 to prevent water leakage and intrusion.

第270図は、目地部127としてこの中に目地材を充
填する構造で内目地にも外目地にも使用できる。第27
1図は、ます本体と他の接続構造物との接続で互いに躯
体ヘボルト孔135を有し、そこへ接続板128をボル
ト130にて固定し連結する方法である。第272図は
、ますや接続構造物同士をフランジ129.ボルト13
0.ナツト131やワッシャーを使用して連結させる構
造の説明である。この接続方法やその他公知の接続方法
で、接合・固定を求める例えば仕切り板86、仕切り蓋
87、泥溜躯体89、部分へ使用し、漏水・浸入水・不
純物除去防止のために目的に合った施工方法を使用する
。上記のように構成された複合まず系統は、本体重量が
大きいものは、でき得る箇所の壁厚を構造に支Fl無く
削り取り、接続構造物の接続面138と合わせ開渠型で
も暗渠型でも、接続面138の方向・貫通路99数・内
外形状・大きさの変化に対しては、その接続構造物と複
合ますの性質によって天部81・大股部82・仕切り板
86・仕切り蓋87−隔壁92・外壁94・外部室96
・泥溜部90を有した泥溜躯体89・換気室97・段差
部91・換気孔98・副管107・枝管口108・開口
部100・底部95等の構造変化や通水孔101他、透
水・集水機能に変化させて対応する。また複合まず自体
も幾つにも分割化された構造や縦列型は分割躯体を接合
してもしなくても構わず、分割式の躯体は自由に内部形
状を変化させて選定接続し易く新たな!体へも変換でき
、自由に組み立てる構成のますもある。但し分割式を接
合する場合、パツキン126・目地部127・ボルト1
30・ナツト13トフランジ129・接続板128或は
公知の接続方法で一体接続構成する0貫通物が流水を目
的としてインバート134を必要とする構造のますは、
インバート134付きの他にインバート134を成形し
たブロックを後付けすれば、その貫通路99はインバー
ト134が容易に構成される。
FIG. 270 shows a structure in which a joint material is filled into the joint portion 127, and it can be used for both internal and external joints. 27th
FIG. 1 shows a method in which the main body and another connecting structure are connected to each other by having bolt holes 135 in the frame, and connecting plates 128 are fixed therein with bolts 130. Fig. 272 shows how the flange 129. bolt 13
0. This is an explanation of a structure in which the parts are connected using a nut 131 and a washer. This connection method and other known connection methods can be used for parts that require joining and fixing, such as the partition plate 86, partition lid 87, and mud basin frame 89, to prevent water leakage, infiltration, and impurity removal. Use construction methods. In the case of a composite system configured as described above, if the main body weight is large, the wall thickness of the possible parts is scraped off without affecting the structure, and combined with the connection surface 138 of the connection structure, whether it is an open conduit type or an underdrain type. For changes in the direction of the connection surface 138, the number of through passages 99, the shape and size of the inside and outside, depending on the properties of the connection structure and the composite cell, the top part 81, the thigh part 82, the partition plate 86, and the partition lid 87- Partition wall 92, outer wall 94, outer room 96
- Structural changes such as mud basin frame 89 with mud basin section 90, ventilation chamber 97, stepped section 91, ventilation hole 98, auxiliary pipe 107, branch pipe opening 108, opening 100, bottom 95, water passage hole 101, etc. , and respond by changing the water permeability/water collection function. In addition, the composite structure itself can be divided into several parts or the vertical type can be joined or not, and the split type skeleton can freely change the internal shape and be easy to select and connect, making it new! It can also be converted into a body, and there are some configurations that can be assembled freely. However, when joining a split type, the packing 126, joint 127, bolt 1
30, nut 13, flange 129, connection plate 128, or a structure in which the 0-penetration object configured as an integral connection by a known connection method requires an invert 134 for the purpose of water flow,
In addition to the invert 134, if a block with the invert 134 molded thereon is attached later, the invert 134 can be easily formed in the through passage 99.

また同じく流水を目的としているますで、段差110の
激しい箇所は総てのますの貫通路99へ副管107を施
す、但し必要なき所は施さない、外部室96兼換気室9
7及び泥溜部90のあるますは、それぞれ個別に貫通路
99への開口部100と天部開口部82を有していて貫
通路99別で個別使用ができる。外部室96兼換気室9
7及ぶ泥溜部90を構成している構造の複合まずは、開
渠型・暗渠型又はその共用型に対応して、本体天部開口
部82と同列位置あるいはずらした位置に構成する。ま
た外部室96兼換気室97で水分を嫌う貫通物を設けて
いるケーブル等、通信施設使用の場合は天部開口部82
からの浸入水・漏水を防ぐために民地側など出来るだけ
条件の良い所へ設け、さらに高さを持たせれば地表水等
の浸入水は防止できる。縁石段部104があり縁石10
5を用いなますの天部81は水止めが構成された構造に
なり、より一層のグレーチング蓋84等の開口蓋にて集
水効果が上がる。天部81を地表に面しているますで地
表水を集水して流す構造の貫通路99を構成しているま
すは、大部開口部82だけでは地表水等・雨水を集水す
る能力が向上しない場合、複合まず接続の構造物に対し
てその天部81よりグレーチングM84等の通水・集水
能力のある蓋を設けて、ます内の貫通路99へ速やかに
集水する構成とする。ます本体及び天部81の高低調整
をするにあたり調整蓋102やL型蓋103等でも接続
構造物の高さや地表とのレベルが調整できない場合は、
調整!1102を積み重ねたりモルタル等や調整板を使
用してレベル調整を行い調整蓋102の天部81片側へ
縁石段部104を構成する構造も設ける。ます蓋・天部
開口部82・大股部85・グレーチングM84・全11
M83等は施工場所、使用目的、条件による構造、大き
さ、材質等を選択使用し、適合する機能を有する蓋を用
いる用にする。また大部開口部82のままや塁を使用し
なくてもよい0部分透水性の複合ます系統は、その透水
箇所も任意に構成させ底部95・外壁94・以外にも仕
切り板86・仕切り蓋87・泥溜部90・隔壁92等の
構造物へも透水性コンクリート106や通水孔101と
その他の材質へ変化をさせる事により使用用途が広がり
、かつ透水・集水を必要とする部分へ水を浄化するフィ
ルター材を施すと水の浄化機能も備えたますとして構成
される。その他不透水性の部分の貫通路99とも組み合
わせているので一つのますで、地表水や地下水を排水−
集水排除できる構成と、水以外の貫通物に対しての多機
能性を有する複合よす系統になる。此の他ます全体を透
水式の構成にもする。泥溜部90を有する泥溜躯体89
を使用する構造は、総て脱着式の構造であり、泥溜躯体
89は下部貫通路99に落ち込んでいる構造と落ち込ん
でいないのどちらでも使用により選ばず、泥溜躯体89
を外部に取り出し泥溜部90を掃除する為、逆さにする
等すればゴミの除去や清掃・メンテナンスが容易に行え
、外部の泥溜部90や外部室96に泥溜部90を有して
いる構造のますは泥溜部90へ地表水等がさらに流下し
易いように仕切り板86・仕切り蓋87・隔壁92へ勾
配を施す構造とし、泥溜躯体90や仕切り板86・仕切
り塁87を取り出せば内部分割されている他の貫通路9
9に開口部100が生じるために、保全・補修・清掃が
容易に行えまた漏水、侵入水を嫌う箇所には必ず目地部
127等を有する。仕切り板86や仕切り蓋87、泥溜
躯体89や蓋等の本体とは別製体の構造は施工しやすい
用に間隙を施している0貫通路99内を下水等の汚水使
用の場合は、貫通路99内が密封状態になっているので
汚泥やその他の条件により発生されるガス等不純物を排
出する為に、換気室97や換気孔98を施して外部へ排
出する。換気室97や換気孔98の上部を天部81の一
枚蓋や縁石105・L型蓋103等の高くなっている部
分へ穴を閏は排出させる構造とも施工し、その穴である
開口部分へ換気孔M111を施せば浸水を防ぎガスのみ
を外部へ排出させる構造である。勿論ガスを排出させれ
ば良いわけであるから地中内へ排出させる開口部分を構
成し、かつ他の構造物も使用する方法でもよい、下水や
他の流水・ケーブル・電気・電話・有線・水道それにガ
ス等流下、貫通させる事ができる集約された機能を持っ
た構造に複合まず系統として、あらゆる内部分割された
構造に有効に接続施工活用ができる。使用目的対像貫通
物は、流雪水・農業用水・雑用水・工場排水・雨水・地
表水−汚水等の水類、下水道やケーブル・電気・電話や
通信用又は水道・中水道・場合によってはガス管等にも
使用し得る複合隔壁管路121や他の単体の集約された
管路・側溝・工作物等の接続構造に対応する。複合よす
内の貫通路99は接続構造物の種類によっても貫通路9
9数が対応できる構成である。施工場所としては路側帯
や道路幅員内や環境施設帯、その他施工可能な場所へ接
続施工して場所は限定しないや以上の理由から、暗渠や
街渠あるいは暗渠と街渠・暗渠と暗渠・街渠と街渠の一
体構造物または単体の管路や側溝・工作物や個々独立の
集合体に対して一つの複合よすとして個々の接続物に対
応する構成で、ますとしての他の構造物との接続物とし
て必要不可欠な作業用・清掃・保全用の機能を有してい
る。またこの複合まず系統を使用するにあたり施工後の
機能能力を増大させる為に、その他現場打ちますや接続
構造物に合わせて施工して、分割式の躯体は将来貫通路
が増えた場合に新たに躯体だけを変換させて対応し、内
部構造も多様に分割し、透水性やさらに堅固な複合ます
へ材質や構成を対応させる、つまりますの構造物自体や
内部の分割構造はコンクリート・陶製・塩ビ・プラスチ
ック・ゴム・透水性コンクリート・il製・鋳鉄等の材
質でますを製造し、湿気等による水分や、ます内部に不
必要な物質はある一定のますに集めて外部へ排出させる
構造とする。
In addition, since the purpose is also for running water, auxiliary pipes 107 are provided to the through passages 99 of all cells in places with severe steps 110, but not in unnecessary places.External room 96 and ventilation room 9
7 and the mud basin 90 each have an opening 100 to the through passage 99 and a top opening 82, so that the through passage 99 can be used individually. External room 96 and ventilation room 9
First, the seven mud basins 90 are constructed at the same position as the main body top opening 82 or at a shifted position, depending on the open-drain type, the under-drain type, or their shared type. In addition, if the external room 96 and ventilation room 97 is used for communication facilities such as cables that have penetrating objects that do not tolerate moisture, the ceiling opening 82
In order to prevent water from entering or leaking from the ground, install it in a place with good conditions, such as on the side of a private property, and by adding height, you can prevent water from entering from surface water, etc. There is a curb step 104 and the curb 10
5 is used, the top part 81 of the diagonal has a structure in which a water stop is constructed, and the water collection effect is further improved by an open cover such as a grating cover 84. The top part 81 faces the ground surface and constitutes the passageway 99 that collects and drains surface water, but the large opening 82 alone has no ability to collect surface water or rainwater. If this does not improve, first install a lid with water flow and water collection ability such as grating M84 from the top part 81 of the composite connection structure to quickly collect water into the through passage 99 in the cell. do. When adjusting the height of the main body and top part 81, if the height of the connecting structure and the level with the ground cannot be adjusted using the adjustment lid 102, L-shaped lid 103, etc.,
Adjust! A structure is also provided in which a curb step 104 is formed on one side of the top 81 of the adjustment lid 102 by stacking the panels 1102 or adjusting the level using mortar or the like or an adjustment plate. Masu lid, top opening 82, crotch part 85, grating M84, total 11
For M83, etc., the structure, size, material, etc. should be selected depending on the construction site, purpose of use, and conditions, and a lid with suitable functions should be used. In addition, in a partially water-permeable composite cell system that does not require the use of the main opening 82 or the base, the water-permeable parts can be configured arbitrarily, and in addition to the bottom part 95, the outer wall 94, the partition plate 86 and the partition lid. 87 - By changing the materials to water permeable concrete 106, water holes 101, and other materials for structures such as mud basins 90 and partition walls 92, the range of uses can be expanded to areas that require water permeation and water collection. When a filter material is applied to purify water, it is constructed as a cell that also has a water purification function. Since it is combined with the penetration path 99 of other impermeable parts, it can be used as a single chamber to drain surface water and groundwater.
This is a composite system that has a configuration that can collect and remove water, and has multifunctionality against penetrating objects other than water. In addition to this, the entire square will also have a water-permeable structure. Mud basin frame 89 having a mud basin part 90
The structures using the mud basin frame 89 are all removable structures, and the mud basin frame 89 can be either depressed or not depressed into the lower passage 99 depending on the use.
In order to take the mud out to the outside and clean the mud reservoir 90, removing dirt, cleaning, and maintenance can be easily performed by turning it upside down. In order to make it easier for surface water, etc. to flow down into the mud basin section 90, the partition plate 86, partition lid 87, and partition wall 92 are sloped, and the mud basin frame 90, partition plate 86, and partition base 87 are sloped. If you take it out, you will see another through passage 9 which is internally divided.
Since an opening 100 is formed in 9, maintenance, repair, and cleaning can be easily performed, and joints 127 and the like are always provided at locations where water leakage or intrusion is to be avoided. The partition plate 86, the partition lid 87, the mud basin frame 89, the lid, etc. are made separately from the main body, and gaps are provided for ease of construction.When using waste water such as sewage inside the through passage 99, Since the inside of the through passage 99 is sealed, a ventilation chamber 97 and ventilation holes 98 are provided to discharge impurities such as sludge and gas generated due to other conditions to the outside. The upper part of the ventilation room 97 and ventilation hole 98 is constructed so that the hole is discharged to a raised part such as the single lid of the ceiling 81 or the curb 105 or the L-shaped lid 103, and the opening part that is the hole is constructed. By providing a ventilation hole M111 in the chamber, the structure prevents water from entering and allows only gas to be discharged to the outside. Of course, since it is sufficient to discharge the gas, it is also possible to construct an opening for discharging it into the ground, and also use other structures such as sewage, other running water, cables, electricity, telephones, wired, etc. As a composite system with integrated functions that allow water and gas to flow through, it can be effectively connected and used in any internally divided structure. Purpose of use: Penetrating objects are water such as falling snow water, agricultural water, miscellaneous water, factory wastewater, rainwater, surface water - sewage, sewerage, cables, electricity, telephone and communications, water supply, gray water, etc. corresponds to a composite bulkhead pipe 121 which can also be used for gas pipes, etc., and a connection structure for other single integrated pipes, gutters, workpieces, etc. The through passage 99 in the composite wall may be different depending on the type of connection structure.
The configuration is such that it can accommodate nine numbers. The construction site is not limited to the roadside strip, road width, environmental facility zone, or other possible construction site. An integrated structure of a culvert and a street culvert, or a single pipe, gutter, structure, or individual aggregate, with a configuration that corresponds to each connection as a single composite building, and other structures as a mass. It has essential working, cleaning, and maintenance functions as a connection to the equipment. In addition, when using this composite system, in order to increase the functional capacity after construction, it is constructed in accordance with other on-site construction and connecting structures, and the split type frame is used for new construction when the number of through-ways increases in the future. Only the building frame has to be transformed, the internal structure has been divided into various parts, and the materials and composition have been adjusted to make it water-permeable and even more solid.・Manufacture a cell made of materials such as plastic, rubber, permeable concrete, IL, cast iron, etc., and have a structure in which moisture due to humidity and unnecessary substances inside the cell are collected in a certain cell and discharged to the outside. .

よって一つのます内部へ二区分以上に分割させた構成で
、他の貫通、工作物との接続対応能力は千差万別で、ま
すの枝管口を利用すれば、流水・ケーブル・電話・電気
−有線・水道・ガス等をまずより建築構造物や民地・他
の外部目的へ接続が可能なので、種類を選ばず用途によ
って構成すれば施工が容易で、施工場所は一つのますで
複合な為に狭くてすむので場所を選ばず、埋め戻し、転
圧が容易で埋設箇所の陥没・沈下を防止し、一つのます
に機能が集約されている為、経済的で工事費は低減され
、工事障害も少なく簡素に施工出来て、効率的であり、
維持管理も容易で、透水性にすればなおかつ雨水等の地
表水を地下浸透させる事が出来るので、植性枯渇防止、
地下水位の回復、地盤沈下防止や集中豪雨等による急激
な河川や管渠、側溝への流入を防止できる為、浸水・洪
水を抑制し、集水式であれば地盤改良等にもなり下水道
・用水以外にもケーブル・電気・電話・通信機器・水道
−ガス等経ての地下埋設物に対して収納する為、地下ス
ペースを有効に活用できる複合ます系統である。
Therefore, with a configuration in which one cell is divided into two or more sections, there is a wide variety of capabilities for connecting with other penetrations and workpieces, and if you use the branch pipe openings of the cell, you can connect running water, cables, telephones, etc. Electricity - cables, water, gas, etc. can be connected to building structures, private land, and other external purposes, so construction is easy if you configure it according to the purpose regardless of the type, and the construction site can be multiplexed in one box. Therefore, it does not require a narrow space, so it can be placed anywhere, it can be easily backfilled and compacted, it prevents sinking and subsidence of the buried area, and it is economical and construction costs are reduced because the functions are consolidated in one box. , construction is simple and efficient with few construction obstacles,
It is easy to maintain and manage, and if it is made permeable, surface water such as rainwater can permeate underground, preventing vegetation depletion.
It can restore the groundwater level, prevent ground subsidence, and prevent sudden inflows into rivers, pipes, and gutters due to localized heavy rain, so it can suppress inundation and flooding, and if it is a water collection type, it can also be used for ground improvement, etc. In addition to water, it is a complex system that can effectively utilize underground space to store cables, electricity, telephones, communication equipment, water and gas, etc.

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

第1図は、開渠型複合隔壁ますの平面図第2図は、同発
明の正面図 第3図は、同発明の正面中央断面図 第4図は、他の開渠型複合隔壁ますの平面図第5図は、
同発明の斜視図 第6図は、他の開渠型複合隔壁ますの正面図第7図は、
同発明の正面中央断面図 第8図は、同発明の斜視図 第9図は、部分透水式開渠型複合隔壁ますの斜視図 第10図は、全透水式開渠型複合隔壁ますの斜視図 第11図は、開渠型複合仕切りviますの正面中央断面
図 第12図は、縁石付き開渠型複合隔壁ますの平面図 第13図は、同発明の斜視図 第14図は、同発明の、l−A線断面図第15図は、開
渠型分割複合隔壁ますの本体上部の平面図 第16図は、同発明の本体下部の平面図第17図は、同
発明の正面中央断面図 第18図は、他の開渠型分割複合隔壁よすの正面中央断
面図 第19図は、開渠型分割複合仕切り板ますの正面中央断
面図 第20図は、他の開渠型分割複合隔壁ますの平面図 第21図は、同発明のB−B線断面図 第22図は、暗渠型複合隔壁よすの平面図第23図は、
同発明の泥溜躯体の正面図第24図は、同発明の泥溜躯
体の斜視図第25図は、同発明の斜視図 第26図は、同発明のC−C線断面図 第27図は、同発明の詳細な説明図 第28図は、縁石段部付き暗渠型複合隔壁ますの平面図 第29図は、同発明の斜視図 第30図は、同発明のD−D線断面図 第31図は、同発明の詳細な説明図 第32図は、他の暗渠型複合隔壁ますの平面図第33図
は、同発明のE−E線断面図 第34図は、同発明のF−F線断面図 第35図は、暗渠型分割複合隔壁ますの本体上部の斜視
図 第36図は、同発明の本体下部の斜視図第37図は、同
発明の斜視図 第38図は、大股部付き暗渠型分割複合隔壁ますの斜視
図 第39図は、同発明のG−C線断面図 第40図は、同発明のH−H線断面図 第41図は、インサート式暗渠型分割複合隔壁よすの平
面図 第42図は、同発明のI−I線断面図 第43図は、同発明の斜視図 第44図は、部分透水式暗渠型複合隔壁よすの平面図 第45図は、同発明のJ−JllIlfi面図第46図
は、同発明の側面図 第47図は、同発明の泥溜躯体の斜視図第48図は、同
発明の斜視図 第49図は、縁石段部付き部分透水式暗渠型複合隔壁ま
すの斜視図 第50図は、他の開渠型分割複合仕切り板ますの正面中
央断面図 第51図は、他の暗渠型分割複合仕切り板ますの正面中
央断面図 第52図から第54図は、部分透水式暗渠型分割複合隔
壁よすの斜視図 第55図から第56図は、全透水式暗渠型複合隔壁ます
の斜視図 第57図は、暗渠型複合仕切り板ますの平面図第58図
は、同発明のに−に線断面図 第59図は、同発明のL−Lli断面図第60図は、他
の開渠型分割複合仕切り板ますの平面図 第61図は、同発明の正面中央断面図 第62図は、同発明の側面中央断面図 第63図は、暗渠型分割複合仕切り板ますの平面図 第64図は、同発明のM−M線断面図 第65図は、全透水式暗渠型複合ますの正面中央断面図 第66図は、枝管口付き部分透水式暗渠型複合隔壁ます
の斜視図 第67図は、他の枝管口付き部分透水式暗渠型複合隔壁
ますの側面図 第68図から第71図は、複合隔壁ますの平面図 第72図は、底外部室付き複合隔壁ますの平面第73図
は、同発明のN−N線断面図 第74図は、分割式底外部室付き複合隔壁よすの平面図 第75図は、底外部室付き複合仕切り板ますの平面図 第76図は、同発明のO−0線断面図 第77図は、分割式底外部室付き複合仕切り板ますの平
面図 第78図は、他の底外部室付き複合仕切り板ますの平面
図 第79図は、同発明のP−P線断面図 第80図は、同発明のQ−Q!l断面図第81図は、同
発明のR−R線断面図 第82図は、他の分割式底外部室付き複合仕切り板ます
の平面図 第83図は、他の底外部室付き複合仕切り板ますの平面
図 第84図は、同発明のS−S線断面図 第85図は、同発明のT−T@断面図 第86図は、他の分割式底外部室付き複合仕切り板ます
の平面図 第87図は、他の底外部室付き複合仕切り板ますの平面
図 第88図は、同発明のU−U線断面図 第89図は、同発明のV−Vll断面図第90図は、他
の分割式底外部室付き複合仕切り板ますの平面図 第91図は、他の底外部室付き複合仕切り板ますの平面
図 第92図は、他の分割式底外部室付き複合仕切り板ます
の平面図 第93図は、部分透水式底外部室付き複合仕切り板ます
の一部正面断面図 第94図は、暗渠型上外部室付き複合仕切り板ますの平
面図 第95図は、同発明のW−W線断面図 第96図は、分割式暗渠型上外部室付き複合仕切り板ま
すの平面図 第97図は、他の暗渠型上外部室付き複合仕切り板ます
の平面図 第98図から第99図は、他の暗渠型上外部室付き複合
仕切り板ますの正面中央断 面図 第100図は、開渠型上外部室付き複合仕切り板ますの
正面中央断面図 第101図は、分割式上外部室付き複合仕切り板ますの
平面図 第102図は、他の暗渠型上外部室付き複合仕切り板ま
すの平面図 第103図は、同発明のX−X線断面図第104図は、
他の分割式暗渠型上外部室付き複合仕切り板ますの平面
図 第105図は、上外部室付き複合仕切り板ますの平面図 第106図は、他の分割式上外部室付き複合仕切り板ま
すの平面図 第107図は、他の上外部室付き複合仕切り板ますの平
面図 第108図は、他の分割式上外部室付き複合仕第10 第11 第11 ■ 第11 第11 第11 第11 第11 切り板ますの平面図 9図は、他の暗渠型上外部室付き複合仕切り板ますの平
面図 0図は、同発明のY−Y線断面図 1図は、他の分割式暗渠型上外部室付き複合仕切り板ま
すの平面図 2図は、他の上外部室付き複合仕切り板よすの平面図 3図は、他の分割式上外部室付き複合仕切り板ますの平
面図 4図は、他の上外部室付き複合仕切り板ますの平面図 5図は、他の分割式上外部室付き複合仕切り板ますの平
面図 6図は、他の上外部室付き複合仕切り板ますの平面図 7図は、分割式上外部室付き複合仕切り板ますの平面図 8図は、上外部室付き複合仕切り板ますの平面図 第119図は、他の分割式上外部室付き複合仕切り板ま
すの平面図 第120図は、組み立て式上外部室付き複合仕切り板ま
すの平面図 第121図は、同発明のZ−Z線断面図第122図は、
他の組み立て式上外部室付き複合仕切り板ますの平面図 第123図は、同発明のアーア線断面図第124図は、
バイパス型複合仕切り板ますの平面図 第125図は、同発明のイーイ線断面図第126図は、
他の組み立て式上外部室付き複合仕切り板ますの平面図 第127図は、同発明のウーウ線断面図第128図は、
同発明のエーエ線断面図第129図から第132図は、
同発明の組み立て分解図 第133図は、同発明の斜視図 第134図は、部分透水式上外部室付き複合仕切り板ま
すの正面中央断面図 第135図は、部分透水組み立て式上外部室付き複合仕
切り板ま、すの正面中央断 面図 第136図は、外部室型複合仕切り板ますの平面図 第137図は、同発明のカー力線断面図第138図は、
分割式外部室型複合仕切り板ますの平面図 第139図は、他の外部室型複合仕切り板ますの平面図 第140図は、同発明のカー力線断面図第141図は、
同発明のキーキ線断面図第142図は、他の分割式外部
室型複合仕切り板ますの平面図 第143図は、他の外部室型複合仕切り板ますの平面図 第144図は、同発明のクーク線断面図第145図は、
同発明のケーケ線断面図第146図は、他の分割式外部
室型複合仕切り板ますの平面図 第147図は、他の外部室型複合仕切り板ますの平面図 第148図は、他の分割式外部室型複合仕切り板ますの
平面図 第149図は、他の部分透水式上外部室付き複合仕切り
板ますの正面図 第150図は、開渠型底段差部付き複合仕切り板ます兼
、暗渠型底段差部付き複 合仕切り板ますの平面図 第151図は、同発明のコーコ線断面図第152図は、
同発明のサーサ線断面図第153図は、同発明のシーシ
線断面図第154図は、底段差外部室付き複合仕切り板
ます兼、底段差泥溜外部室付き複 合仕切り板ますの平面図 第155図は、同発明のスース線断面図第156図は、
同発明のセーセ線断面図第157図は、部分透水式底段
差泥溜外部室付き複合仕切り板よすの正面中央所 面図 第158図は、分割式底段差外部室付き複合仕切り板ま
す兼1分別式底段差泥溜 外部室付き複合仕切り板ますの平 面図 第159図は、縦列開渠型複合隔壁ますの正面図 第160図は、同発明の平面図 第161図から第164図は、他の縦列開渠型複合隔壁
ますの正面図 第165図は、縦列暗渠型複合隔壁よすの斜視図 第166図は、同発明のソーソ線断面図第167図は、
縦列一部開渠型複合隔壁ますの正面中央断面図 第168図は、他の縦列開渠型複合隔壁ますの正面中央
断面図 第169図は、縦列暗渠型複合仕切り板ますの斜視図 第170図は、同発明のタータ線断面図第171図は、
他の縦列開渠型複合仕切り板ますの正面中央断面図 第172図は、部分透水式縦列暗渠型複合隔壁ますの斜
視図 第173図は、縦列暗渠型複合仕切り板ます(部分透水
式)の正面中央断面図 第174図は、ブレ蓋付き変換複合隔壁ますの斜視図 第175図は、同発明の側面中央断面図第176図は、
変換複合隔壁ますの斜視図第177図は、同発明の側面
中央断面図第178図は、他のブレ蓋付き変換複合隔壁
よすの斜視図 第179図は、同発明の側面中央断面図第180図は、
他のブレ蓋付き変換複合隔壁ますの斜視図 第181図は、同発明の側面中央断面図第182図は、
他の変換複合隔壁よすの平面図第183図は、同発明の
泥溜躯体の平面図第184図は、同発明の斜視図 第185図は、同発明チーチ線断面図 第186図は、大股部付き変換複合隔壁よすの平面図 第187図は、同発明のツーツ線断面図第188図は、
同発明の斜視図 第189図は、副管付き変換複合隔壁ますの斜視図 第190図は、同発明の側面中央断面図第191図は、
分割式副管付き変換複合隔壁よすの側面中央断面図 第192図は、他の分割式副管付き変換複合隔壁よすの
側面中央断面図 第193図は、大股部付き変換複合仕切り板ますの平面
図 第194図は、同発明のテーテ線断面図第195図は、
勾配変換型複合仕切り板よすの平面図 第196図は、同発明のトート線断面図第197図は、
他の大股部付き変換複合仕切り板ますの平面図 第198図は、同発明のナーナ線断面図第199図は、
他の大股部付き変換複合隔壁ますの平面図 第200図は、同発明のヌーヌ線断面図第201図は、
同発明の二−二線断面図第202図から第204図は、
他の大股部付き変換複合隔壁ますの平面図 第205図は、底外部室付き変換複合仕切り板ますの平
面図 第206図は、同発明のネー本線断面図第207図は、
同発明のノーノ線断面図第208図は、部分透水弐天段
部付き変換複合隔壁ますの斜視図 第209図は、同発明のハーバ線断面図第210図は、
副管付き部分透水式変換複合隔壁よすの斜視図 第211図は、同発明のヒーヒ線断面図第212図は、
分割式副管付き部分透水変換複合隔壁ますの側面中央断
面図 第213図から第217図は、複合多様よすの正面中央
断面図 第21 第21 第22 第22 第22 第22 第22 第22 第22 第22 8図は、分割式複合多様ますの正面中央断面図 9図は、他の複合多様ますの正面中央断面図 0図は、底外部室付き複合多様よすの正面中央断面図 1図は、分割式底外部室付き複合多様ますの正面中央断
面図 2図から第223図は、他の複合多様ますの正面中央断
面図 4図は、他の底外部室付き複合多様ますの正面中央断面
図 5図は、他の分割式底外部室付き複合多様ますの正面中
央断面図 6図は、外部室付き複合多様ますの正面中央断面図 7図は、分割式外部室付き複合多様ますの正面中央断面
図 8図は、他の底外部室付き複合多様ますの正面中央断面
図 第229図は、縦列型複合多様隔壁よすの正面中央断面
図 第230図は、分割式縦列型複合多様隔壁ますの正面中
央断面図 第231図は、他の縦列型複合多様隔壁よすの正面中央
断面図 第232図は、他の分割式縦列型複合多様隔壁よすの正
面中央断面図 第233図は、縦列型複合多様隔壁よすの一使用説明図 第234図は、他の底外部室付き複合多様ますの正面中
央断面図1図 第235図は、オーバーフロー式縦列型複合多様隔壁ま
すの平面図 第236図は、同発明のフーフ線断面図第237図は、
同発明のへ−へ線断面図第238図は、同発明のホーホ
線断面図第239図から第240図は、他のオーバーフ
ロー式縦列型複合多様隔壁ますの 側面中央断面図 第241図は、オーバーフロー式複合多様隔壁ますの平
面図 第242図は、同発明のマーマ線断面図第243図は、
同発明のミーミ線断面図第244図は、同発明のムーム
線断面図第245図は、他のオーバーフロー式複合多様
隔壁ますの側面中央断面図 第246図は1部分透水式底外部室付き複合多様ますの
正面中央断面図 第247図は、部分透水式縦列型複合多様隔壁ますの正
面中央断面図 第248図は、枝管口付き複合隔壁ますの正面中央断面
図 第249図は、同発明の側面図 第250図から第251図は、他の枝管口付き複合隔壁
ますの側面図 第252図から第253図は、他の枝管口付き複合隔壁
ますの斜視図 第254図は、上外部室型技管付き複合仕切り板ますの
平面図 第255図は、底外部室型技管付き複合仕切り板ますの
平面図 第256図は、外部室型技管付き複合仕切り板ますの平
面図 第257図は、現場打ち複合よすの平面図第258図は
、同発明のメーメ線断面図第259図は、同発明のモー
モ線断面図第260図は、他の現場打ち複合ますの正面
中央断面図 第261図は、透水式現場打ち複合ますの正面中央断面
図 第262図は、他の底外部室付き複合多様ますの一使用
説明図 第263図は、他の分割式複合多様ますの一使用説明図 第264図は、換気孔付き複合隔壁ますの正面中央断面
図 第265図は、他の換気孔付き複合隔壁ますの正面中央
断面図 第266図は、他の部分透水式開渠型複合隔壁ますの一
使用説明図 第267図から第268図は1本発明の複合ます系統の
一実施態様図 第269図から第272図は、接続方法の一使用説明図 ■・複合隔壁ます、2・開渠型複合隔壁ます。 3・部分透水式開渠型複合隔壁ます、4・全透水式開渠
型複合隔壁ます、5・開渠型複合仕切り板まず、6・縁
石付き開渠型複合隔壁ます、7・開渠型分割複合隔壁ま
す、8・開渠型分割複合仕切り板まず、9・暗渠型複合
隔壁ます、10・縁石段部付き暗渠型複合隔壁まず、1
1・暗渠型分割複合隔壁ます、12・大股部付き暗渠型
分割複合隔壁ます、13・インサート式暗渠型分割複合
隔壁ます、14・部分透水式暗渠型複合隔壁ます。 15・縁石段部付き部分透水式暗渠型複合隔壁まず、1
6・部分透水式暗渠型分割複合隔壁まず。 17・全透水式暗渠型複合隔壁まず、18・暗渠型複合
仕切り板ます、19−暗渠型分割複合仕切り板ます、2
0・全透水式暗渠型複合まず、21・枝管口付き部分透
水式暗渠型複合隔壁ます、22・底外部室付き複合隔壁
まず、23・分割式底外部室付き複合隔壁ます124・
底外部室付き複合仕切り板ます、25・分割式底外部室
付き複合)仕切り板ます、26・部分透水式底外部室付
き複合仕切り板ます、27・暗渠型上外部室付き複合仕
切り板まず、28・分割式暗渠型−上外部室付き複合仕
切り板ます、29・開渠型上外部室付き複合仕切り板ま
す、30・分割式底外部室付き複合仕切り板まず、31
・上外部室付き複合仕切り板まず、32−組み立て式上
外部室付き複合仕切り板ます、33・バイパス型複合仕
切り板まず、34・部分透水式上外部室付き複合仕切り
板まず。 35・部分透水組み立て式上外部室付き複合仕切り板ま
す、36・外部室型複合仕切り板ます、37・分割式外
部室型複合仕切り板ます、38・開渠型底段差部付き複
合仕切り板ます、39・暗渠型底段差部付き複合仕切り
板まず、40・底段差外部室付き複合仕切り板まず、4
1・底段差泥溜外部室付き複合仕切り板まず、42・部
分透水式底段差泥溜外部室付き複合仕切り板ます、43
・分割式底段差外部室付き複合仕切り板ます、44・分
割式底段差泥溜外部室付き複合仕切り板ます45・縦列
暗渠型複合隔壁ます、46−縦列暗渠型複合隔壁ます、
47・継列一部開渠型複合隔壁ます、48・縦列暗渠型
複合仕切り板ます、49−縦列開渠型複合仕切り板ます
、50・部分透水式縦列暗渠型複合隔壁よす、5トグレ
蓋付き変換複合隔壁まず、52・変換複合隔壁ます、5
3・大股部付き変換複合隔壁ます、54・副管付き変換
複合隔壁よす、55・分割式副管付き変換複合隔壁ます
、56・大股部付き変換複合仕切り板ます、57・勾配
変換型複合仕切り板まず、58・底外部室付き変換複合
仕切り板ます、59・部分透水武人段部付き変換複合隔
壁まず、60・副管付き部分透水式変換複合隔壁ます、
61・分割式副管付き部分透水変換複合隔壁ます、62
・複合多様ます、63・分割式複合多様まず、64・底
外部室付き複合多様まず、65・分割式底外部室付き複
合多様ます、66・外部室付き複合多様ます、67・分
割式外部室付き複合多様ます。 68・縦列型複合多様隔壁まず、69・分割式縦列型複
合多様隔壁ます、70・オーバーフロー式縦列型複合多
様隔壁まず、7トオ一バーフロ式複合多様隔壁まず、7
2・部分透水式底外部室付き複合多様−ます、73・部
分透水式縦列型複合多様隔壁まず、74・枝管口付き複
合隔壁まず。 75・上外部室型技管付き複合仕切り板ます、76・底
外部室型技管付き複合仕切り板ます、77・外部室型枝
管付き複合仕切り板ます、78・現場打ち複合まず、7
9・透水式現場打ち複合ます80・換気孔付き複合隔壁
ます、81・天部82・大部開口部、83・全f71!
、84・グレチング塁、85・大股部、86・仕切り板
、87・仕切り蓋、88・仕切り段部、89・泥溜躯体
90・泥溜部、91・段差部、92・隔壁、93・オー
バーフロー用隔壁、94・外壁、95・底部296・外
部室、97・換気室、98・換気孔、99・貫通路、1
00・開口部、101・通水孔、102・調整蓋、10
3・L型蓋 104・縁石段部、105・縁石、106
・透水性コンクリート、107・副管、108・枝管0
.109・枝管、110・段差、111・換気孔蓋、1
12・接続口、113・排出口、114−バイパス路、
115・ベース、116・ブラケット、117・受は台
、118・防護カゴ、119・作業管理保全室、120
−マンホール、121複合隔壁管路、122・取り付は
管、123・アゴ部。 124−凹部、125−凸部、126・パツキン127
・目地部、128・接続板、129・フランジ、130
・ボルト、13トナット、132・路面、1.33−多
孔管、134・インバート135・ボルト孔、136・
雨水管、137・汚水管、138・接続面、139・隔
壁蓋、140・コンクリート、141・横断渠 特渠出願人 杉 山 重 昭 第5図 第2図 第6図 第3図 第4図 第8図 第9図 第13図 第1O図 第11図 第15図 第12図 第16図 第36図 第37図 第41図 第38図 第39[] 第43図 第44図 第45図 第50図 第46図 第51図 第69図 第73図 第70図 第74図 第71[N 第75図 第72図 第76I7I 第178図 第176図 第180図 第187図 1’KJ 第269図 第271図 第270図 第272図 手  続  補  正  書 平成1年12月20日 昭和63年特許卵第275788号 リ  h  テ    ツクコケ 発明の名称  複合まず 補正をする者 事件との関係   本人 ツリ#t  力  fカフケ/カッ?ダシf#ハテクレ
ンン19thチ1ヶ住所 神奈川県用崎市中原区新城中
町 2−ts 4、補正命令の日付  「自発」 5、補正により増加する請宋項の数 明  細  書 、特許請求の範囲 ■、まず躯体中央内部の外壁や隔壁に支持凸部・仕切り
段部や段差部を構成した開口部と、該外壁や隔壁側面の
各貫通路に対して接続開口部と接合する天部開口部を有
した箱型躯体が一体と分割型に形成され、該ますに接続
しなる貫通路構造物と同形の張り出し接続面部を構成し
た複合まず9 2、まずB体中央内部の外壁や隔壁に支持凸部仕切り段
部や段差部を構成した開口部へ、ネジ山filI造を有
した挿入孔を埋め込んでいる泥?ats体や仕切り板・
仕切り塁・その他の蓋がn置されている特許請求の範囲
第1項記載の複合ます。 3、泥溜躯体や仕切り板・仕切り蓋・その他の蓋に隔壁
や外壁へ挿入孔に連接したかん合切り込みを構成してい
る特許請求の範囲第2項記載の複合まず。 4、外壁や隔壁の開口部へn置する泥溜躯体や仕切り板
・仕切り蓋・その他の蓋の挿入孔部分へ平行板や角度を
有した固定板を構成した挿入孔と合致する開化部を有し
た特許請求の範囲第3項記載の複合ます。 5、まず躯体自体を底部・隔壁・大部と分割躯体とし、
組み立てに仕切り段部を構成する特許請求の範囲第4項
記載の複合ます。 6゜該ます外壁に貫通路i遺物の外壁全体を挿着する接
続面部の切欠きを構成した複合ます7、仕切り蓋と隔壁
に勾配を形成した特許請求の範囲第4・5・6項記載の
複合まず。 8、#I渠接続面部と暗渠接続面部を同一に構成した複
合まず。 9、まず躯体接続面部に取付は角度と曲線や接続面部の
大きさも変化させた複数に構成した複合ます。 10、ます躯体内部の各貫通路が上下に一致しないよう
接続面部を上下左右の区分されたバイパス管路として構
成した複合まず。 11、ますの隔壁や底部に一体や分割型として副管を構
成した複合まず。 12、接続部のかん台部分へ凹凸部や目地部・パツキン
・フランジ・ボルト・鉄板・ゴム等を用いて構成する特
許請求の範囲第4・5・7・8・9・10項記載の複合
ます。 13、ます躯体の隔壁・外壁に貫通路に対応した穿孔部
や透水コンクリートを構成した複合ます。 14、ます躯体外壁の穿孔口に多孔管や枝管を接続する
特許請求の範囲第13項記載の複合まず。 平成2年 1月31日
Figure 1 is a plan view of an open channel type composite bulkhead. Figure 2 is a front view of the same invention. Figure 3 is a front center sectional view of the same invention. Figure 4 is a plan view of another open channel type composite bulkhead. The plan view Figure 5 is as follows.
FIG. 6 is a perspective view of the same invention, and FIG. 7 is a front view of another open channel type composite bulkhead.
FIG. 8 is a front center sectional view of the same invention; FIG. 9 is a perspective view of the partially permeable open-drain type composite bulkhead; FIG. 10 is a perspective view of a fully permeable open-drain type composite bulkhead. Figure 11 is a front center cross-sectional view of an open-drain type composite partition VI. Figure 12 is a plan view of an open-drain type composite bulkhead with a curb. Figure 13 is a perspective view of the same invention. FIG. 15 is a cross-sectional view taken along the line I-A of the invention. FIG. 16 is a plan view of the upper part of the main body of the open-drain type split composite bulkhead. FIG. 17 is a plan view of the lower part of the main body of the invention. 18 is a front center sectional view of another open-drain type split composite bulkhead. FIG. 19 is a front center sectional view of an open-drain type split composite partition plate. FIG. 21 is a plan view of the divided composite partition wall, FIG. 22 is a sectional view taken along line B-B of the same invention, and FIG. 23 is a plan view of the underdrain type composite partition wall.
FIG. 24 is a front view of the mud basin frame of the same invention. FIG. 25 is a perspective view of the mud basin frame of the same invention. FIG. 26 is a sectional view taken along the line C-C of the same invention. 28 is a plan view of a culvert-type composite bulkhead with a curb step; FIG. 29 is a perspective view of the invention; FIG. 30 is a sectional view taken along line D-D of the invention. FIG. 31 is a detailed explanatory diagram of the same invention. FIG. 32 is a plan view of another underdrain type composite partition wall. FIG. 33 is a sectional view taken along line E-E of the same invention. -F line sectional view Figure 35 is a perspective view of the upper part of the main body of the underdrain type split composite bulkhead cell. Figure 36 is a perspective view of the lower part of the main body of the same invention. Figure 37 is a perspective view of the same invention. Fig. 39 is a perspective view of a culvert type split composite bulkhead with a wide section; Fig. 40 is a sectional view taken along the line G-C of the same invention; Fig. 41 is a sectional view taken along the line H-H of the same invention; FIG. 42 is a plan view of a divided composite partition wall; FIG. 43 is a perspective view of the same invention; FIG. 44 is a plan view of a partially permeable underdrain type composite partition wall. FIG. 45 is a J-JllIlfi side view of the same invention. FIG. 46 is a side view of the same invention. FIG. 47 is a perspective view of a mud basin frame of the same invention. FIG. 48 is a perspective view of the same invention. Figure 50 is a perspective view of a partially permeable culvert-type composite bulkhead with curb steps. Figure 51 is a front center sectional view of another open-drain type split composite partition plate. Figures 52 to 54 are perspective views of a partially permeable underdrain type split composite bulkhead. Figures 55 to 56 are perspective views of a fully permeable underdrain type composite bulkhead. 58 is a plan view of an underdrain type composite partition plate. FIG. 59 is a sectional view taken along the line L-Lli of the same invention. FIG. Fig. 61 is a plan view of the partition plate, Fig. 62 is a front central sectional view of the same invention, Fig. 63 is a side central sectional view of the same invention, and Fig. 64 is a plan view of the culvert type split composite partition plate. Figure 65 is a sectional view taken along line M-M of the same invention; Figure 66 is a front center sectional view of a fully permeable underdrain type composite bulkhead; Figure 67 is a perspective view of a partially permeable underdrain type composite bulkhead with branch pipe openings. , Side views of other partially permeable underdrain type composite bulkheads with branch pipe openings. Figures 68 to 71 are plan views of composite bulkheads. Figure 72 is plan views of composite bulkheads with external bottom chambers. 74 is a cross-sectional view taken along the line N-N of the same invention. FIG. 74 is a plan view of a composite partition wall with a split bottom external chamber. FIG. 75 is a plan view of a composite partition panel with a bottom external chamber. 77 is a cross-sectional view taken along the O-0 line of the same invention. FIG. 78 is a plan view of a composite partition plate cell with a split bottom external chamber. FIG. 79 is a plan view of another composite partition plate cell with a bottom external chamber. FIG. 80, a cross-sectional view taken along line P-P of the same invention, shows Q-Q! of the same invention. 81 is a sectional view taken along the line R-R of the same invention. FIG. 82 is a plan view of another split-type composite partition plate with an external bottom chamber. FIG. 83 is a plan view of another composite partition with an external bottom chamber. Fig. 84 is a plan view of the plate panel, and Fig. 85 is a sectional view taken along line S-S of the same invention, and Fig. 86 is a sectional view of T-T @ of the same invention, which is another composite partition plate with a split bottom outer chamber. FIG. 87 is a plan view of another composite partition plate with an external bottom chamber. FIG. 88 is a sectional view taken along the line U-U of the same invention. FIG. 89 is a sectional view taken along V-Vll of the same invention. Figure 91 is a plan view of another split-type composite partition plate with an external bottom chamber. Figure 92 is a plan view of another split-type composite partition plate with an external bottom chamber. Figure 93 is a plan view of the partition plate. Figure 94 is a partial front sectional view of a composite partition plate with a partially permeable bottom external chamber. Figure 94 is a plan view of a composite partition plate with a culvert-type upper external chamber. FIG. 96 is a cross-sectional view taken along line W-W of the same invention. FIG. 96 is a plan view of a split type underdrain type composite partition plate cell with an upper and outer chamber. FIG. 97 is a plan view of another underdrain type compound partition plate cell with an upper and outer chamber. Figures 98 to 99 are front center cross-sectional views of other underdrain type composite partition plate cells with upper and outer chambers. Figure 100 are front center cross-sectional views of open-drain type composite partition plate cells with upper and outer chambers. 102 is a plan view of a composite partition plate cell with a split-type upper and outer chamber. FIG. 103 is a plan view of another culvert-type compound partition plate cell with an upper and outer chamber. Figure 104 is
Figure 105 is a plan view of another split type culvert type composite partition plate with an upper exterior chamber. Figure 106 is a plan view of another split type composite partition plate with an upper exterior chamber. Fig. 107 is a plan view of another composite partition plate with an upper external chamber. Fig. 108 is a plan view of another composite partition plate with an upper external chamber. 11 11. Figure 9 is a plan view of a cut-off board, and Figure 0 is a plan view of another culvert-type composite partition plate with an upper external chamber, and Figure 1 is a cross-sectional view taken along the Y-Y line of the same invention. Figure 2 is a plan view of a composite partition plate with a molded upper external chamber. Figure 3 is a plan view of another composite partition plate with an upper external chamber. Figure 4 is a plan view of another split type composite partition plate with an upper external chamber. Figure 5 is a plan view of another composite partition plate with an upper external chamber. Figure 5 is a plan view of another split-type composite partition plate with an upper external chamber. Figure 6 is a plan view of another composite partition plate with an upper external chamber. Plan view Figure 7 is a plan view of a split-type composite partition plate with an upper outer chamber. Figure 8 is a plan view of a composite partition plate with an upper outer chamber. Figure 119 is a plan view of another split-type composite partition plate with an upper outer chamber. Fig. 120 is a plan view of the cell, Fig. 121 is a plan view of a composite partition plate cell with an assembled upper and external chamber, and Fig. 122 is a sectional view taken along the Z-Z line of the same invention.
Fig. 123 is a plan view of another prefabricated composite partition plate with an upper external chamber, and Fig. 124 is a sectional view taken along line A of the same invention.
Fig. 125 is a plan view of the bypass type composite partition plate, and Fig. 126 is a cross-sectional view taken along the E-I line of the same invention.
Fig. 127 is a plan view of another prefabricated composite partition plate with an upper external chamber, and Fig. 128 is a sectional view taken along the line of the same invention.
129 to 132 are cross-sectional views taken along the E-line of the same invention.
FIG. 133 is an exploded view of the same invention; FIG. 134 is a front center sectional view of a partially permeable composite partition plate with an upper external chamber; and FIG. 135 is a partially permeable assembled type with an upper external chamber. Fig. 136 is a front center sectional view of the composite partition plate, Fig. 137 is a plan view of the external chamber type compound partition plate, and Fig. 138 is a sectional view of the Kerr force line of the same invention.
Fig. 139 is a plan view of a split type external room type composite partition plate; Fig. 140 is a plan view of another external room type composite partition plate; Fig. 141 is a sectional view of the Kerr force line of the same invention;
Fig. 142 is a cross-sectional view along the line of the same invention; Fig. 143 is a plan view of another split external room type composite partition plate; Fig. 144 is a plan view of another external room type composite partition plate of the same invention; Figure 145 is a cross-sectional view along the Cook line of
FIG. 146 is a sectional view taken along the Koke line of the same invention. FIG. 147 is a plan view of another split-type external chamber type composite partition plate cell. FIG. 148 is a plan view of another external chamber type compound partition plate cell. Figure 149 is a plan view of a split external room type composite partition plate, and a front view of a partially water-permeable composite partition plate with an upper external chamber is shown in Figure 150. , Fig. 151 is a plan view of a composite partition plate with an underdrain type bottom step, and Fig. 152 is a sectional view along the Koko line of the same invention.
Fig. 153 is a cross-sectional view along the Sasa line of the same invention. Fig. 154 is a plan view of a composite partition plate with a stepped external chamber at the bottom and a composite partition plate with an external chamber at the bottom step. Figure 155 is a sectional view taken along the Seuss line of the same invention. Figure 156 is
Figure 157 is a cross-sectional view along the line of the same invention, and Figure 158 is a front center view of a partially permeable composite partition plate with an external chamber for a mud basin with a step difference in the bottom. Fig. 159 is a plan view of a composite partition plate cell with a one-separated bottom step mud storage external chamber, Fig. 160 is a front view of a vertical open channel type compound partition cell, and Figs. , FIG. 165 is a front view of another tandem open-drain type composite bulkhead, FIG. 166 is a perspective view of a tandem crypt-type compound bulkhead, and FIG. 167 is a sectional view along the so-so line of the same invention.
Figure 168 is a front center sectional view of a partially open column composite bulkhead. Figure 169 is a front center sectional view of another vertical open drain type composite bulkhead. Figure 170 is a perspective view of a vertical culvert type composite partition panel. Figure 171 is a cross-sectional view along Tatar line of the same invention.
Figure 172 is a front center cross-sectional view of another longitudinal open-drain type composite partition plate cell. Figure 173 is a perspective view of a vertically permeable longitudinal culvert type composite partition plate cell (partially permeable type). FIG. 174 is a front center sectional view, FIG. 175 is a perspective view of the conversion composite bulkhead with a lid, and FIG. 176 is a side center sectional view of the same invention.
FIG. 177 is a perspective view of a conversion composite partition wall according to the invention; FIG. 178 is a perspective view of another conversion composite partition wall with a cover; FIG. The 180 figure is
FIG. 181 is a perspective view of another conversion composite bulkhead with a lid, and FIG. 182 is a side sectional view at the center of the same invention.
FIG. 183 is a plan view of another converted composite bulkhead; FIG. 184 is a plan view of the mud basin frame of the same invention; FIG. 185 is a perspective view of the same invention; FIG. 186 is a sectional view taken along the line of the same invention; Fig. 187 is a plan view of the conversion composite bulkhead with a long section, and Fig. 188 is a sectional view taken along the line of the same invention.
Fig. 189 is a perspective view of the same invention, Fig. 190 is a perspective view of a conversion composite bulkhead with sub-pipe, and Fig. 191 is a side cross-sectional view at the center of the same invention.
Fig. 192 is a side center sectional view of a conversion composite partition wall case with a split-type sub-pipe; Fig. 193 is a side-center sectional view of a conversion compound partition wall case with another split-type sub-pipe; Fig. 194 is a plan view of the square, and Fig. 195 is a sectional view taken along the Taete line of the same invention.
Fig. 196 is a plan view of the slope conversion type composite partition plate, and Fig. 197 is a sectional view taken along the Thoth line of the same invention.
Fig. 198 is a plan view of another converted composite partition plate with a long section, and Fig. 199 is a sectional view taken along the Nana line of the same invention.
Fig. 200 is a plan view of another converted composite bulkhead with a long section, and Fig. 201 is a sectional view taken along the Noonu line of the same invention.
202 to 204 are sectional views taken along the line 2-2 of the same invention.
Fig. 205 is a plan view of another conversion composite bulkhead with a long section; Fig. 206 is a plan view of a conversion composite partition plate with an external bottom chamber; Fig. 207 is a sectional view along the main line of the same invention;
FIG. 208 is a sectional view taken along the Nono line of the same invention. FIG.
FIG. 211 is a perspective view of a partially permeable conversion composite bulkhead with sub-pipe, and FIG. 212 is a cross-sectional view along the Heehi line of the same invention.
Figures 213 to 217 are side cross-sectional views of the partial water permeability conversion composite partition wall with split sub-pipe. Figure 22 Figure 22 8 is a front center sectional view of a split-type composite multipurpose cell. Figure 9 is a front center sectional view of another composite multipurpose cell. Figure 0 is a front center sectional view of a composite multipurpose cell with an external bottom chamber. Figures 2 to 223 are front center cross-sectional views of another composite multipurpose cell with a split type bottom external chamber. Figure 4 is the front of another composite multipurpose cell with a bottom external chamber. Figure 5 is a front cross-sectional view of another split-type composite multipurpose cell with an external chamber. Figure 6 is a front central cross-sectional view of a composite multipurpose cell with an external chamber. Figure 8 is a front central sectional view of another composite multipurpose cell with an external bottom chamber. Figure 231 is a front center cross-sectional view of a multi-purpose bulkhead cell. Figure 232 is a front center cross-sectional view of another vertically divided vertical type compound multi-purpose bulkhead cellar. Figure 234 is an explanatory diagram of the use of one vertical type composite bulkhead. Figure 234 is a front center sectional view of another composite multiple bulkhead with an external bottom chamber. Figure 235 is an overflow type vertical type composite bulkhead. 236 is a plan view, and FIG. 237 is a sectional view along the hoof line of the same invention.
Fig. 238 is a cross-sectional view along the Hoch line of the same invention; Figs. 239 to 240 are cross-sectional views along the Hohch line of the same invention; Fig. 241 is a side-center cross-sectional view of another overflow type tandem type composite multipurpose bulkhead; Fig. 242 is a plan view of the overflow type composite multi-purpose bulkhead, and Fig. 243 is a sectional view along Marma line of the same invention.
Fig. 244 is a sectional view along the Mimi line of the same invention; Fig. 245 is a sectional view along the Moum line of the same invention; Fig. 246 is a lateral central sectional view of another overflow type composite multi-purpose bulkhead; Figure 247 is a front center cross-sectional view of a multi-purpose bulkhead cell. Figure 248 is a front center cross-sectional view of a composite bulkhead cell with branch pipe openings. Figures 250 to 251 are side views of another composite bulkhead with branch pipe ports. Figures 252 to 253 are perspective views of another composite bulkhead with branch pipe ports. Figure 255 is a plan view of the upper external chamber type composite partition plate with technical tubes. Figure 256 is a plan view of the bottom external chamber type composite partition plate cell with technical tubes. Figure 257 is a plan view of a cast-in-place composite frame Figure 258 is a sectional view along the Mehme line of the same invention Figure 259 is a sectional view along the Mohme line of the same invention Figure 260 is a plan view of another cast-in-place composite frame. Figure 261 is a front central sectional view of a permeable cast-in-place composite cell. Figure 262 is an explanatory diagram of the use of another composite multipurpose cell with an external bottom chamber. Figure 263 is another split type composite multipurpose cell. Figure 264 is a front center cross-sectional view of a composite bulkhead cell with ventilation holes. Figure 265 is a front center cross-sectional view of another composite bulkhead cell with ventilation holes. Figure 266 is another partially permeable type. Figures 267 to 268 are illustrations of one embodiment of the composite bulkhead system of the present invention. Figures 269 to 272 are illustrations of the connection method. Bulkhead, 2.Open channel type composite bulkhead. 3. Partially permeable open channel composite bulkhead, 4. Fully permeable open channel composite bulkhead, 5. Open channel composite partition plate, 6. Open channel composite bulkhead with curb, 7. Open channel. Divided composite partition wall, 8. Open-drain type divided composite partition plate, 9. Underdrain-type composite bulkhead, 10. Underdrain-type composite bulkhead with curb step, 1.
1. Underdrain type split composite bulkhead. 12. Underdrain type split composite bulkhead with wide section. 13. Insert type underdrain type split composite bulkhead. 14. Partially permeable underdrain type composite bulkhead. 15. Partially permeable culvert type composite bulkhead with curb steps First, 1
6. Partially permeable culvert type split composite bulkhead First. 17. Fully permeable culvert type composite partition wall. 18. Underdrain type composite partition plate. 19. Underdrain type split composite partition plate. 2.
0. Fully permeable underdrain type composite bulkhead, 21. Partially permeable underdrain type composite bulkhead with branch pipe opening, 22. Composite bulkhead with bottom external chamber. First, 23. Split type composite bulkhead with bottom external chamber 124.
Composite partition plate with bottom external chamber, 25. Composite partition plate with split type bottom external chamber, 26. Composite partition plate with partially permeable bottom external chamber, 27. Composite partition plate with culvert type top external chamber. 28・Split type culvert type - Composite partition plate with upper external chamber, 29・Open channel type Composite partition plate with upper external chamber, 30・Split type composite partition plate with bottom external chamber First, 31
- Composite partition plate with upper external chamber First, 32 - Assembled type composite partition plate with upper external chamber, 33 - Bypass type composite partition plate First, 34 - Partially permeable type composite partition plate with upper external chamber. 35.Partially permeable assembled type composite partition plate with upper external chamber, 36.External chamber type composite partition plate.37.Split type external chamber type composite partition plate.38.Open channel type composite partition plate with bottom step. , 39. Composite partition plate with culvert type bottom step, 40. Composite partition plate with bottom step external chamber, 4
1. Composite partition plate with external chamber for mud basin with different bottom steps First, 42. Composite partition plate with external chamber for partially permeable mud basin with stepped bottom steps, 43
・Composite partition plate with split-type bottom stepped external chamber, 44・Split-type compound partition plate with bottom stepped mud basin external chamber 45・Vertical culvert type composite bulkhead, 46-Vertical culvert type composite bulkhead,
47 - Partially open conduit type composite bulkhead, 48 - Vertical open conduit type composite partition plate, 49 - Vertical open conduit type composite partition plate, 50 - Partially permeable vertical conduit type composite bulkhead, 5 Toggle lid Conversion composite bulkhead first, 52 Conversion composite bulkhead, 5
3. Conversion compound bulkhead with wide section, 54. Conversion compound bulkhead with secondary pipe, 55. Conversion compound bulkhead with split type sub-pipe, 56. Conversion compound partition with large section, 57. Slope conversion Type composite partition plate First, 58. Conversion composite partition plate with bottom external chamber. 59. Partially permeable conversion composite bulkhead with stepped section. First, 60. Partially permeable conversion composite bulkhead with secondary pipe.
61・Partial water permeability conversion composite bulkhead with split sub-pipe, 62
・Multiple multipurpose cell, 63・Split type complex multiverse, 64・Composite multiverse with bottom external chamber, 65・Composite multiverse cell with split bottom external chamber, 66・Complex multipurpose cell with external chamber, 67・Split type external chamber Composite and diverse. 68・Vertical type composite and diverse bulkhead First, 69・Split type vertical type composite and diverse bulkhead masu, 70・Overflow type vertical type composite and diverse bulkhead First, 7 two-bar flow type composite and diverse bulkhead First, 7
2. Partially permeable type composite bulkhead with external chamber at the bottom, 73. Partially permeable vertical type composite bulkhead. First, 74. Composite bulkhead with branch pipe opening. 75・Top external chamber type composite partition plate with technical pipes, 76・Bottom external chamber type composite partition plate with technical pipes, 77・External chamber type composite partition plate with branch pipes, 78・Forged on-site composite first, 7
9. Water-permeable cast-in-place composite cell 80. Composite partition wall with ventilation holes, 81. Top 82. Large opening, 83. Total f71!
, 84. Gretching base, 85. Crotch section, 86. Partition plate, 87. Partition lid, 88. Partition step section, 89. Mud basin frame 90. Mud basin section, 91. Step section, 92. Partition wall, 93. Overflow bulkhead, 94, outer wall, 95, bottom 296, external chamber, 97, ventilation room, 98, ventilation hole, 99, through passage, 1
00・Opening, 101・Water hole, 102・Adjustment lid, 10
3. L-shaped lid 104. Curb step, 105. Curb, 106
・Permeable concrete, 107・auxiliary pipe, 108・branch pipe 0
.. 109・Branch pipe, 110・Step, 111・Ventilation hole cover, 1
12-connection port, 113-discharge port, 114-bypass path,
115・Base, 116・Bracket, 117・Support stand, 118・Protective basket, 119・Work management and maintenance room, 120
- Manhole, 121 Composite bulkhead conduit, 122. Attachment is pipe, 123. Jaw section. 124-concave part, 125-convex part, 126・Packing 127
・Joint part, 128・Connection plate, 129・Flange, 130
・Bolt, 13 nut, 132・Road surface, 1.33-perforated pipe, 134・Invert 135・Bolt hole, 136・
Rainwater pipe, 137・Sewage pipe, 138・Connection surface, 139・Bulkhead cover, 140・Concrete, 141・Cross culvert Special culvert Applicant Shigeaki Sugiyama Figure 5 Figure 2 Figure 6 Figure 3 Figure 4 Figure 8 Figure 9 Figure 13 Figure 1O Figure 11 Figure 15 Figure 12 Figure 16 Figure 36 Figure 37 Figure 41 Figure 38 Figure 39 [ ] Figure 43 Figure 44 Figure 45 Figure 50 Fig. 46 Fig. 51 Fig. 69 Fig. 73 Fig. 70 Fig. 74 Fig. 71 [N Fig. 75 Fig. 72 Fig. 76I7I Fig. 178 Fig. 176 Fig. 180 Fig. 187 Fig. 1'KJ Fig. 269 Fig. 271 Figure 270 Figure 272 Procedures Amendment Book December 20, 1999 Patent No. 275788 of 1988 Reh Tetsukoke Title of the invention Composite Person who makes the amendment First of all Relationship with the case Person who makes the amendment #t Force f Kafuke/ka? Address: 2-ts Shinjo Nakamachi, Nakahara-ku, Yozaki-shi, Kanagawa Prefecture 4. Date of amendment order "voluntary" 5. Number of claims increased by amendment Specification, scope of claims ■ First, an opening that constitutes a supporting convex part, a partition step, or a stepped part is formed in the outer wall or partition wall inside the center of the building frame, and a top opening that connects with the connection opening for each through path on the side surface of the outer wall or partition wall is formed. First of all, a box-shaped frame with a box-shaped structure is formed into one piece and a split type, and a projecting connection surface portion having the same shape as the through-path structure connected to the corresponding box is formed. Is it mud that has an insertion hole with a threaded structure embedded in the opening that constitutes the partition step or step? ATS body, partition board,
A composite cell according to claim 1, in which a partition base or other lid is placed. 3. The compound according to claim 2, wherein the mud basin frame, partition plate, partition lid, or other lid has an interlocking cut connected to the insertion hole in the partition wall or outer wall. 4. Insert an opening that matches the insertion hole of a parallel plate or an angled fixing plate into the insertion hole of the mud basin frame, partition plate, partition lid, or other lid placed in the opening of the outer wall or partition wall. The compound cell set forth in claim 3 of the patent. 5. First, the frame itself is divided into the bottom, bulkhead, and main part,
The composite cell according to claim 4, which comprises a partition step when assembled. Claims 4, 5, and 6 describe a composite cell 7 comprising a notch in the connecting surface portion for inserting the entire outer wall of the through-path I into the outer wall that corresponds to 6°, and a slope formed in the partition lid and the partition wall. Composite of first. 8. #I A composite structure in which the conduit connection surface and the underdrain connection surface are the same. 9. First, the attachment to the connecting surface of the building frame is made up of multiple parts with varying angles, curves, and the size of the connecting surface. 10. A composite structure in which the connection surface is configured as a bypass conduit divided into upper, lower, left, and right sections so that the through passages inside the frame frame do not coincide vertically. 11. Composite pipes with sub-pipe integrated or split into the partition wall or bottom of the cell. 12. The composite according to claims 4, 5, 7, 8, 9, and 10, which is constructed using uneven parts, joints, packing, flanges, bolts, iron plates, rubber, etc. in the pedestal part of the connection part. Masu. 13. Composite structure with perforated parts and permeable concrete in the bulkheads and outer walls of the main frame to accommodate penetration paths. 14. The composite according to claim 13, wherein a perforated pipe or a branch pipe is connected to the perforation in the outer wall of the frame frame. January 31, 1990

Claims (1)

【特許請求の範囲】[Claims] ます本体の躯体に地表に開口する貫通路構造と不開口の
貫通路構造、そのどちらにも対応する貫通路構造へ、仕
切り板に隔壁や仕切り蓋、その他の蓋や段差部に泥溜部
や泥溜躯体、更に外部室や換気室、換気孔、開口部を設
け構造により副管や枝管口、枝管を施します内部を複合
化し、接続構造物によっては透水性コンクリートや通水
孔も構成する複合ます。
The structure of the main body has a through-path structure that opens to the ground surface and a through-path structure that does not open to the ground, and a through-path structure that is compatible with both. The mud storage frame is further equipped with external rooms, ventilation rooms, ventilation holes, and openings, and depending on the structure, secondary pipes, branch pipe openings, and branch pipes are installed.The interior is made composite, and depending on the connecting structure, permeable concrete and water holes are also installed. Compose a composite.
JP27578888A 1988-10-31 1988-10-31 Composite measure Pending JPH02125041A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP27578888A JPH02125041A (en) 1988-10-31 1988-10-31 Composite measure

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP27578888A JPH02125041A (en) 1988-10-31 1988-10-31 Composite measure

Publications (1)

Publication Number Publication Date
JPH02125041A true JPH02125041A (en) 1990-05-14

Family

ID=17560416

Family Applications (1)

Application Number Title Priority Date Filing Date
JP27578888A Pending JPH02125041A (en) 1988-10-31 1988-10-31 Composite measure

Country Status (1)

Country Link
JP (1) JPH02125041A (en)

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH0656193U (en) * 1992-12-28 1994-08-05 杉晃 草竹 Waterway trout
WO2012090596A1 (en) * 2010-12-27 2012-07-05 株式会社イトーヨーギョー Gutter block, drainage installation using same, and method for burying cables underground
JP2012136897A (en) * 2010-12-27 2012-07-19 Ito Yogyo Co Ltd Drainage equipment
JP2016204914A (en) * 2015-04-20 2016-12-08 株式会社イトーヨーギョー Block set, and branching system using the same

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH0656193U (en) * 1992-12-28 1994-08-05 杉晃 草竹 Waterway trout
WO2012090596A1 (en) * 2010-12-27 2012-07-05 株式会社イトーヨーギョー Gutter block, drainage installation using same, and method for burying cables underground
JP2012136887A (en) * 2010-12-27 2012-07-19 Ito Yogyo Co Ltd Gutter block and drainage facility using the same as well as method for burying cables
JP2012136897A (en) * 2010-12-27 2012-07-19 Ito Yogyo Co Ltd Drainage equipment
JP2016204914A (en) * 2015-04-20 2016-12-08 株式会社イトーヨーギョー Block set, and branching system using the same

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