JP2007333352A - Ventilating device - Google Patents

Ventilating device Download PDF

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Publication number
JP2007333352A
JP2007333352A JP2006168533A JP2006168533A JP2007333352A JP 2007333352 A JP2007333352 A JP 2007333352A JP 2006168533 A JP2006168533 A JP 2006168533A JP 2006168533 A JP2006168533 A JP 2006168533A JP 2007333352 A JP2007333352 A JP 2007333352A
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air volume
elastic body
adjusting valve
wind tunnel
wind
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JP2006168533A
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JP4769131B2 (en
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Takayuki Mado
隆行 間戸
Yukio Kawabata
之雄 河端
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NAGAE KK
Sankyo Tateyama Aluminium Inc
Nagae KK
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NAGAE KK
Sankyo Tateyama Aluminium Inc
Nagae KK
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  • Air-Flow Control Members (AREA)

Abstract

<P>PROBLEM TO BE SOLVED: To provide a ventilation device excellent in open close operability of an air quantity regulating valve, and high in air tightness and water tightness under a closed condition. <P>SOLUTION: The ventilation device is provided with a wind tunnel, the air quantity regulating valve, a primary elastic body, a secondary plastic body, and a closing mechanism. The air quantity regulating valve rotates in such a manner that the same can freely open and close the wind tunnel, and includes an abutment member rotating together with the air quantity regulating valve. The primary elastic body generates rotary resistance against rotation of the air quantity regulating valve in a direction closing the wind tunnel when wind is light at predetermined wind speed or less. The secondary elastic body abuts on the abutment member and generates rotary resistance against rotation of the air quantity regulating valve in a direction closing the wind tunnel further when wind is high at the predetermined wind speed or higher. The closing mechanism includes a valve abutment part and a support rod rotating around a shaft in parallel with a rotary shaft of the wind quantity regulating valve and is connected to the support rod and the valve abutment part in such a manner that the same can freely rotate in predetermined angles. The secondary elastic body moves to a position where the same does not abut on the abutment member under a close condition of the air quantity regulating valve. <P>COPYRIGHT: (C)2008,JPO&INPIT

Description

この発明は、建築物屋内外に連通する空気出入り口に設ける換気装置に関する。   The present invention relates to a ventilation device provided at an air inlet / outlet communicating with the outside of a building.

窓を開閉することなく、屋外の空気を自然に屋内に取り入れる換気装置は公知である。
特許文献1には、風量調整弁の回動にて風洞を開閉する技術を開示し、特許文献2には、
微風時には一の弾性体で風量調整板が開く方向に付勢し、微風以上の強い風のときは複数の弾性体で風量調整板が開く方向に付勢する技術を開示する。
ここで、風量調整弁の回動で風洞の開閉をし、微風以上の強い風に対して回動抵抗となるように風量調整弁が開く方向に弾性付勢した場合には、風量調整弁で風洞を完全に閉じた状態の時に、風量調整弁が開く方向に大きな弾性力が働いたままの状態なり、風量調整弁の全閉に大きな力が必要であり、全閉状態の維持に信頼性が欠ける問題がある。
Ventilators that take outdoor air naturally indoors without opening and closing windows are known.
Patent Document 1 discloses a technique for opening and closing a wind tunnel by turning an air volume adjusting valve, and Patent Document 2 discloses
A technique is disclosed in which a single elastic body biases the air volume adjusting plate in the direction of opening, and a strong wind that is higher than the light wind biases the air volume adjusting plate in the direction of opening of the air volume adjusting plate.
Here, when the air channel is opened and closed by turning the air flow adjusting valve, and the air flow adjusting valve is elastically biased in the opening direction so as to be a rotational resistance against strong winds that are more than fine wind, When the wind tunnel is completely closed, a large elastic force remains in the direction in which the air flow adjustment valve opens, and a large force is required to fully close the air flow adjustment valve, which is reliable for maintaining the fully closed state. There is a problem that lacks.

特開平10−232039号公報JP-A-10-232039 特開2005−273256号公報JP 2005-273256 A

本発明は、風量調整弁の開閉操作性に優れ、閉鎖状態のときの気密、水密性が高い換気装置の提供を目的とする。   An object of the present invention is to provide a ventilator that is excellent in opening and closing operability of the air volume control valve and has high airtightness and watertightness in a closed state.

請求項1記載に係る換気装置は、風洞と風量調整弁と1次弾性体と2次弾性体と閉鎖機構とを備え、風洞は、建築物屋内外に連通する空気出入り口を有し、風量調整弁は無風状態で風洞を全開にし、且つ風を受けて風洞を閉じる方向に回動するものであり、1次弾性体は、所定の風速以下のときに風量調整弁が風洞を閉じる方向に回動することの回動抵抗になるように風量調整弁を風洞を開く方向に付勢し、2次弾性体は、所定の風速以上のときに風量調整弁が風洞をさらに閉じる方向に回動することの回動抵抗になるように風量調整弁を風洞を開く方向に付勢し、1次弾性体と2次弾性体とで風洞内を通過する風量を一定に保つものであり、閉鎖機構は、操作部と、風量調整弁の回動軸と平行な軸廻りに回転する締りカムと、風洞に設けたガイド部材とを有し、締りカムは、支桿と弁当接部とを有し、支桿と弁当接部とは所定の角度回動自在に連結してあり、ガイド部材は弁当接部の移動をガイドする傾斜面を有し、操作部の操作にて支桿が回転し、弁当接部が風量調整弁に当接するとともにガイド部材の傾斜面に沿って移動して風量調整弁を閉鎖状態まで回転することを特徴とする。
請求項2記載に係る換気装置は、風洞と風量調整弁と当接部材と1次弾性体と2次弾性体と閉鎖機構とを備え、風洞は、建築物屋内外に連通する空気出入り口を有し、
風量調整弁は無風状態で風洞を全開にし、且つ風を受けて風洞を閉じる方向に回動するものであり、当接部材は風量調整弁とともに回動するものであり、1次弾性体は、所定の風速以下のときに風量調整弁が風洞を閉じる方向に回動することの回動抵抗になるように風量調整弁を風洞を開く方向に付勢し、2次弾性体は、所定の風速以上のときに風量調整弁が風洞をさらに閉じる方向に回動することの回動抵抗になるように当接部材と当接して風量調整弁を風洞を開く方向に付勢し、1次弾性体と2次弾性体とで風洞内を通過する風量を一定に保つものであり、閉鎖機構は、操作部の操作にて風量調整弁を回転して風洞を閉鎖するとともに2次弾性体を当接部材に当接しない位置まで移動するものであることを特徴とする。
The ventilator according to claim 1 includes a wind tunnel, an air volume adjusting valve, a primary elastic body, a secondary elastic body, and a closing mechanism, and the wind tunnel has an air inlet / outlet communicating with the inside and outside of the building, and the air volume is adjusted. The valve rotates in the direction in which the wind tunnel is fully opened in the absence of wind, receives the wind, and closes the wind tunnel. The primary elastic body rotates in the direction in which the air volume adjustment valve closes the wind tunnel when the wind speed is below a predetermined level. The air volume adjustment valve is urged in the direction to open the wind tunnel so as to be a rotational resistance for moving, and the secondary elastic body rotates in a direction in which the air volume adjustment valve further closes the wind tunnel when the wind speed is higher than a predetermined wind speed. The air volume adjustment valve is urged in the direction of opening the wind tunnel so as to be a rotational resistance, and the air volume passing through the wind tunnel is kept constant by the primary elastic body and the secondary elastic body. , An operating part, a tightening cam that rotates about an axis parallel to the rotation axis of the air volume adjusting valve, and a wind tunnel The clamping cam has a support and a valve contact portion, the support and the valve contact portion are connected to each other so as to be rotatable at a predetermined angle, and the guide member is moved by the valve contact portion. The support is rotated by the operation of the operation part, the valve contact part is in contact with the air volume adjustment valve, and is moved along the inclined surface of the guide member until the air quantity adjustment valve is closed. It is characterized by rotating.
The ventilator according to claim 2 includes a wind tunnel, an air flow regulating valve, a contact member, a primary elastic body, a secondary elastic body, and a closing mechanism, and the wind tunnel has an air inlet / outlet communicating with the inside and outside of the building. And
The air volume adjusting valve opens the wind tunnel fully in the absence of wind and rotates in the direction of receiving the wind to close the wind tunnel, the abutting member rotates together with the air volume adjusting valve, and the primary elastic body is The air volume adjusting valve is biased in the direction of opening the wind tunnel so that the air volume adjusting valve rotates in the direction of closing the wind tunnel when the air speed is lower than the predetermined wind speed, and the secondary elastic body has a predetermined wind speed. At the above time, the air volume adjusting valve is in contact with the abutting member so as to be a rotation resistance for rotating in the direction of further closing the wind tunnel, and the air volume adjusting valve is urged in the direction of opening the wind tunnel, thereby providing a primary elastic body. The secondary elastic body keeps the air volume passing through the wind tunnel constant, and the closing mechanism closes the wind tunnel by rotating the air volume adjusting valve by operating the operation unit and abuts the secondary elastic body It moves to the position which does not contact a member, It is characterized by the above-mentioned.

請求項1記載の発明に係る換気装置においては、風量調整弁の閉鎖機構に、風量調整弁の回動軸と平行な軸廻りに回転する締りカムを設け、この締りカムは、回転する支桿と弁当接部を有し、支桿と弁当接部とが所定の角度回動自在になっていて、風洞に設けたガイド部材に弁当接部の移動をガイドする傾斜面を有しているので弁当接部が風量調整弁を閉鎖状態まで回転する際に、弁当接部の風量調整弁に当接する位置が、締りカムの回転中心に対して同一円周上にない場合でも上記弁当接部の回動にて回転軌跡差(同一円周上からのズレ)を吸収するので、開閉操作性に優れるとともに風量調整弁の形状の設計自由度が高い。
また、風量調整弁が閉鎖状態のときに風量調整弁とガイド部材とで弁当接部を挟み込むようになるので、締りカムにかかる負荷の一部をガイド部材で受けることになるため、閉鎖状態を維持しやすく、信頼性が高い。
請求項2記載の発明に係る換気装置においては、風量調整弁の閉鎖機構として、操作部の操作で風量調整弁を回転閉鎖するとともに移動するベースを設け、このベースに2次弾性体を保持し、風量調整弁とともに回動する当接部材が、風量調整弁が開いているときで且つ所定の風速以上で2次弾性体と当接するが、風量調整弁が閉鎖状態のときに2次弾性体を移動して当接部材と当接しないようにしたので、風量調整弁が閉鎖状態のときには風量調整弁に2次弾性体による開き方向の力が加わらないため、水密、気密性が向上する。
In the ventilator according to the first aspect of the present invention, the closing mechanism of the air volume adjusting valve is provided with a tightening cam that rotates about an axis parallel to the rotation axis of the air volume adjusting valve, and the tightening cam is a rotating support. And the valve abutment portion, the support and the valve abutment portion are rotatable by a predetermined angle, and the guide member provided in the wind tunnel has an inclined surface for guiding the movement of the valve abutment portion. When the valve contact portion rotates the air volume adjustment valve to the closed state, the position of the valve contact portion that contacts the air volume adjustment valve is not on the same circumference with respect to the rotation center of the tightening cam. Since the rotation trajectory difference (deviation from the same circumference) is absorbed by the rotation, the opening / closing operability is excellent and the design degree of the shape of the air volume adjusting valve is high.
In addition, since the valve contact portion is sandwiched between the air volume adjusting valve and the guide member when the air volume adjusting valve is in the closed state, a part of the load applied to the tightening cam is received by the guide member. Easy to maintain and highly reliable.
In the ventilator according to the second aspect of the present invention, as a closing mechanism of the air volume adjusting valve, a base that moves and closes the air volume adjusting valve by operating the operation portion is provided, and a secondary elastic body is held on the base. The abutting member that rotates together with the air volume adjusting valve contacts the secondary elastic body when the air volume adjusting valve is open and at a predetermined wind speed or higher, but the secondary elastic body when the air volume adjusting valve is in the closed state. Since the air flow adjusting valve is not in contact with the abutting member, the force in the opening direction by the secondary elastic body is not applied to the air flow adjusting valve when the air flow adjusting valve is in the closed state, thereby improving water tightness and air tightness.

本発明に係る換気装置の実施例を以下図面に基づいて説明する。
図1に本発明に係る換気装置1の全体斜視図を示す。
なお、図1には換気装置の長手方向の両端部付近と、締りカム60からなる風量調整弁20の閉鎖機構付近を要部断面斜視図として表し、中間部分の表示を省略してある。
換気装置の長手方向の長さは、建築物に設ける屋内外の空気出入り口の大きさに合わせることになり、締りカム60は、風量調整弁20の長さに応じて複数配置して良い。
まず、図1に基づいて全体の構成を説明し、詳細な構成については後述する。
アルミ押出形材等で製作した風洞壁11、12にて建築物の屋内外を連通させた風洞10を形成し、風洞10の長手方向両端部は側壁13、14で塞いである。
風洞10の長手方向には回動軸21を軸芯にして開閉自在に回動する風量調整弁20を有している。
回動軸21の一端は側壁13の外側に延在し、風量調整弁20とともに回動揺動するボス30を連結し、このボス30と側壁13に取り付けたブラケット33との間にコイルバネ等の1次弾性体32を連結して、風量調整弁を開く方向に付勢してあり、微風時にはこの1次弾性体32が風量調整弁20の閉じる方向に対して回動抵抗となり、風が風洞内を通過する場合に通過する風量が一定になるように作用する。
回動軸21の他端は側壁14の外側に延在し、風量調整弁20の回動とともに回動揺動する当接部材41を連結してあり、側壁14にはベース40を設けてコイルバネ等の2次弾性体42を保持している。
微風時には当接部材41が2次弾性体とは当接せず、先に述べた1次弾性体32のみが風量調整弁の閉じる方向に対して回動抵抗になっていて、所定以上の風速になると当接部材41が2次弾性体42に対して圧縮する方向に当接し、この2次弾性体42が風量調整弁20の閉じる方向に対して回動抵抗になる。
従って、所定以上の風速になると、1次弾性体32と2次弾性体42との回動抵抗で風洞内を通過する風量を一定に保つ。
風量調整弁20を風洞閉鎖状態にするには、操作部50のハンドルを図1では奥側に押すことで支持軸52に連結した締りカム60が時計廻りに回転する。
これにより締りカム60を構成する支桿61とその先に連節した弁当接部62が回転し、弁当接部62が風量調整弁20に当接し、この風量調整弁20を閉鎖方向に回転させる。
風量調整弁20が回転し、閉鎖位置に近づくと弁当接部62はガイド部材64にも当接するようになり弁当接部62の移動をガイドする。
また、支持軸52の回転に伴い、図1では手前にベース40が移動し、風量調整弁20の閉鎖状態では2次弾性体42が手前に後退して当接部材41と当接しないようになっている。
An embodiment of a ventilator according to the present invention will be described below with reference to the drawings.
FIG. 1 shows an overall perspective view of a ventilator 1 according to the present invention.
In FIG. 1, the vicinity of both ends in the longitudinal direction of the ventilator and the vicinity of the closing mechanism of the air volume adjusting valve 20 including the tightening cam 60 are shown as a cross-sectional perspective view of the main part, and the display of the intermediate part is omitted.
The length of the ventilator in the longitudinal direction is adjusted to the size of the indoor / outdoor air inlet / outlet provided in the building, and a plurality of tightening cams 60 may be arranged according to the length of the air volume adjusting valve 20.
First, the overall configuration will be described with reference to FIG. 1, and the detailed configuration will be described later.
A wind tunnel 10 made of aluminum extruded sections or the like is used to form a wind tunnel 10 that communicates the interior and exterior of the building. Both ends of the wind tunnel 10 in the longitudinal direction are closed by side walls 13 and 14.
In the longitudinal direction of the wind tunnel 10, there is an air volume adjusting valve 20 that pivots around a pivot shaft 21 so as to be freely opened and closed.
One end of the rotating shaft 21 extends to the outside of the side wall 13, and a boss 30 that rotates and swings together with the air volume adjusting valve 20 is connected. Between the boss 30 and the bracket 33 attached to the side wall 13, a coil spring or the like 1 The secondary elastic body 32 is connected and urged in the direction to open the air volume adjusting valve, and when the wind is weak, the primary elastic body 32 becomes a rotational resistance with respect to the closing direction of the air volume adjusting valve 20, and the wind is in the wind tunnel. When passing through the air, it acts so that the amount of air passing through becomes constant.
The other end of the rotation shaft 21 extends to the outside of the side wall 14 and is connected to an abutting member 41 that rotates and swings with the rotation of the air volume adjusting valve 20. A base 40 is provided on the side wall 14 to provide a coil spring or the like. The secondary elastic body 42 is held.
When the wind is weak, the contact member 41 does not contact the secondary elastic body, and only the primary elastic body 32 described above is a rotational resistance with respect to the closing direction of the air volume adjustment valve, and the wind speed exceeds a predetermined level. Then, the abutting member 41 abuts against the secondary elastic body 42 in the compressing direction, and the secondary elastic body 42 becomes a rotational resistance with respect to the closing direction of the air volume adjusting valve 20.
Accordingly, when the wind speed exceeds a predetermined value, the amount of air passing through the wind tunnel is kept constant by the rotational resistance of the primary elastic body 32 and the secondary elastic body 42.
In order to bring the air volume adjusting valve 20 into the wind tunnel closed state, the tightening cam 60 connected to the support shaft 52 is rotated clockwise by pushing the handle of the operation unit 50 to the back side in FIG.
As a result, the support 61 constituting the tightening cam 60 and the valve abutting portion 62 articulated ahead of it rotate, the valve abutting portion 62 abuts on the air volume adjusting valve 20 and rotates the air volume adjusting valve 20 in the closing direction. .
When the air volume adjusting valve 20 rotates and approaches the closed position, the valve contact portion 62 also comes into contact with the guide member 64 to guide the movement of the valve contact portion 62.
Further, with the rotation of the support shaft 52, the base 40 moves forward in FIG. 1 so that the secondary elastic body 42 does not retreat forward and come into contact with the contact member 41 in the closed state of the air volume adjustment valve 20. It has become.

次に各部位の詳細な構成及び動作について説明する。
図2に基づいて微風時の風量調整弁20の動きについて説明する。
図2(a)は無風状態を示し、風洞に微風が流れ込んだ状態を図2(b)に示す。
無風状態では、風洞壁11、22と風量調整弁20の両側に出来る開口部dが最大になるようになっていて、風量調整弁20の回動軸21には風量調整弁20の回動揺動に追随して回動揺動するボス30を連結してある。
風洞の側壁13にはブラケット33をビス33a等で取り付けてあり、このブラケット33にコイルバネ等の1次弾性体32の一端32bを連結し、ボス30に他端32aを連結してある。
図2(a)に示すように、風量調整弁20の全開状態からb側に逆回転しないようにボス30が当接するストッパー31を設けてある。
図2(b)に示すように、風洞10内に微風が流れ込むと、風量調整弁20は矢印aの方向に回動する。
極くわずかの微風のときには風を取り込みやすいように風量調整弁20の形状は翼形状になっている。
風量調整弁20は1次弾性体32で開く方向に付勢してあり、風洞10に流れ込む屋外からの風速に応じて1次弾性体32の伸長による回動抵抗を受けて開口部dを調整するので屋内に流れ込む風量がほぼ一定になる。
Next, the detailed configuration and operation of each part will be described.
Based on FIG. 2, the movement of the air volume adjusting valve 20 at the time of light wind will be described.
FIG. 2 (a) shows no wind condition, and FIG.
In the windless state, the opening d 1 formed on both sides of the wind tunnel walls 11, 22 and the air volume adjusting valve 20 is maximized, and the rotation shaft 21 of the air volume adjusting valve 20 has a rotating swing of the air volume adjusting valve 20. A boss 30 that pivots and swings following the movement is connected.
A bracket 33 is attached to the side wall 13 of the wind tunnel with screws 33a or the like. One end 32b of a primary elastic body 32 such as a coil spring is connected to the bracket 33, and the other end 32a is connected to the boss 30.
As shown in FIG. 2A, a stopper 31 with which the boss 30 abuts is provided so as not to rotate backward from the fully open state of the air volume adjusting valve 20 to the b side.
As shown in FIG. 2B, when a slight wind flows into the wind tunnel 10, the air volume adjusting valve 20 rotates in the direction of the arrow a.
The air volume adjusting valve 20 has a wing shape so that it is easy to take in the wind when there is very little breeze.
The air volume adjusting valve 20 is urged in the opening direction by the primary elastic body 32, and receives the rotational resistance due to the extension of the primary elastic body 32 according to the wind speed from the outside flowing into the wind tunnel 10, thereby opening the opening d 2 . Since the air flow is adjusted, the amount of air flowing into the room is almost constant.

例えば、風速3m/分以上等所定の設定した微風以上の風が風洞10に流れ込んだ場合の風量調整弁20の動きを図3に示す。
回動軸21に風量調整弁20とともに回動揺動するボス状の当接部材41を連結してある。
一方、ベース40にはシャフト43がベース40に対して上下動するように取り付けてあり、このシャフト43はコイルバネ等の2次弾性体42にて図3ではヘッド43aが上方に突出する方向に弾性付勢してある。
設定した所定の風速以下の微風状態では図3(a)に示すように当接部材41が2次弾性体42で付勢したシャフト43のヘッド43aには当接しない状態で風量調整弁20が回動揺動している。
この時の開口部dの状態から、風速が強くなると屋内に流れ込む風量を少なくすべく開口部dの状態になるように風量調整弁20がさらに閉じる方向に回動する。
このような状態では当接部材41の当接部41aがシャフト43のヘッド43aに当接するようになる。
ヘッド43aは2次弾性体42にて突出方向に付勢してあるので、当接部材41がヘッド43aに当たると反発力が生じる。
この弾性反発力は風量調整弁20が開く方向に作用し、風量調整弁20が閉じる方向に対しては回動抵抗となるので屋内に流れ込む風量がほぼ一定になるように作用する。
For example, FIG. 3 shows the movement of the air volume adjusting valve 20 in the case where a wind of a predetermined fine wind or more such as a wind speed of 3 m / min or more flows into the wind tunnel 10.
A boss-like abutting member 41 that pivots and swings together with the air volume adjusting valve 20 is connected to the pivot shaft 21.
On the other hand, a shaft 43 is attached to the base 40 so as to move up and down with respect to the base 40, and this shaft 43 is elastic in a direction in which the head 43a protrudes upward in FIG. 3 by a secondary elastic body 42 such as a coil spring. Energized.
As shown in FIG. 3A, the air volume adjusting valve 20 is in a state where the contact member 41 is not in contact with the head 43a of the shaft 43 urged by the secondary elastic body 42 as shown in FIG. Rotating and swinging.
From the state of the opening d 3 at this time, the wind speed is pivoted in the further closing direction air flow rate adjusting valve 20 so that the state of the opening d 4 in order to reduce the air volume flowing into the indoor becomes stronger.
In such a state, the contact portion 41 a of the contact member 41 comes into contact with the head 43 a of the shaft 43.
Since the head 43a is urged in the protruding direction by the secondary elastic body 42, a repulsive force is generated when the contact member 41 hits the head 43a.
This elastic repulsive force acts in the direction in which the air volume adjustment valve 20 opens, and acts as a rotational resistance in the direction in which the air volume adjustment valve 20 closes, so that the air volume flowing into the room is substantially constant.

次に図4及至図6に基づいて風量調整弁20が閉鎖状態になる動作を説明する。
図4は操作部50のハンドル操作にてベース40が移動する状態を示し、図5は操作部50の動きに連動して締りカム60が回転し、風量調整弁20で風洞10を閉鎖状態にするように風量調整弁20を回転させる動きを示し、図6は風量調整弁20の閉鎖状態での気密、水密状態を示す。
図4に基づいてベース40が移動する動きを説明する。
操作部50のハンドルを図4(a)の位置から図4(b)の位置に操作すると(図4ではハンドルを左側に動かす)略L字状のハンドルが支点軸50aを回転中心にして回転する。
第1連動アーム51に設けた長孔51aとL字ハンドル先端部50bとを摺動連結し、第1連動アーム51は支持軸52と固定連結してあるので図4では第1連動アーム51の時計廻り回転により支持軸52も時計廻りに回転し、図5に示すように締りカム60が図5では時計廻りに回転する。
支持軸52は図4に示すように、第2連動アーム53と連結してあり、第2連動アーム53の先には第3連動アーム54を連節し、第3連動アーム54とベース40とは軸結部54aで軸結してあり、ベース40はブラケット44に回転可能に取り付けてあるので図4ではベース40が反時計廻りに回転する。
これにより図4(b)に示すように2次弾性体42により弾性付勢してあるシャフト43のヘッド43aが後退移動し、風量調整弁20の回動軸21に連結してある当接部材41が風量調整弁20の閉鎖状態に回動してもこのヘッド43aと当接しない。
よって、風量調整弁20の閉鎖状態においては2次弾性体が移動し、風量調整弁20が開く方向に付勢されることはなくなり気密、水密性が向上する。
なお、図4に示した例はベース40が回転して後退移動する例であるが2次弾性体が作用しない状態に移動できればよく回転移動に限定されない。
また、図4に示した操作部50の例はハンドルを手動操作するものであるがこの部分を電動駆動源に置き換えて電動操作してもよい。
締りカム60の回転による風量調整弁20の動きを図5に基づいて説明する。
締りカム60は支桿61と弁当接部62からなり、支桿61の一端61aは支持軸52に固定連結し、この支桿61の他端に弁当接部62を回動連結部61bで連結してある。
支桿61と弁当接部62とは回動連結部61bで相互に約10度程度回動自在になっていて、支桿61が支持軸52の回転により回転すると図5(a)の状態から図5(b)に示すように弁当接部62の先端部が風量調整弁20の翼の上端側部20aに当接し、閉鎖方向に風量調整弁20を回転する。
弁当接部62の先端部にはローラー63を軸着部62aで軸着してあり風量調整弁20を押し込みやすくなっている。
風量調整弁20の形状は風が流れやすいように翼形状になっていて、風量調整弁20がローラーと当接する位置は回転につれてずれるのでこの当接する位置は締りカム60の回転中心に対する同一円周上を移動する回転軌跡とはならない。
そこで弁当接部62の先端の動きをガイドするガイド部材64をビス等の固定部材65を用いて風洞壁12に取り付けることでガイド部材64のガイド面64aに沿ってローラー63の移動をガイドするとともに支桿61と弁当接部62との回動連結部61bが約10度程度の所定の角度、回動自在になっているので図5(c)に示すように風量調整弁20との同一円周上からのズレを吸収しながら閉鎖状態までに風量調整弁20を押し込む。
従って、風量調整弁の外形形状が変化してもその変化量を支桿61と弁当接部62との角度変化で吸収するので、風量調整弁の設計自由度が高い。
また、図5(c)に示すように閉鎖状態ではガイド部材64と風量調整弁20との間に弁当接部62の先端部が挟まれた状態になっているので風量調整弁20に生じる反発力はガイド部材64でも受けることになり、締りカム60に負荷が集中するのを抑えている。
ガイド部材64は、上下方向に移動調整可能に固定部材65で風洞壁12に固定してあり、このガイド部材64の上下で、風量調整弁20の閉鎖位置を調整する。
図6に示すように風洞壁11、12には長手方向に沿ってタイト材71、72をそれぞれ取り付けてあり、風洞の長手方向両端部は、風洞の側壁13、14にスポンジ状の側面シール部材74を取り付け、風量調整弁20の端面には端部シール部材73を取り付けてある。
なお、図6は、風量調整弁20の端面を2点鎖線で示し、風洞10の内部から側壁13方向を見た図になっていて点々で示した部分がスポンジ状のシール材を表す。
端部シール部材73は、図6A−A線断面図に示すようにプレートの閉鎖時下側に当接片73aを有し、開閉時上部側にスポンジ状のシール材73bを取り付けてあり、図6(a)に示すように風量調整弁20が風洞10を開いた状態では端部シール部材73と側面シール部材74とは当接しないが、図6(b)に示すように閉鎖状態では端部シール部材73と側面シール部材74が相互に当接し、気密、水密性を確保している。
この風量調整弁20の閉鎖状態では、図4に示したように、2次弾性体42がベース40の移動により後退し、当接部材41と当たっていないので、比較的強い2次弾性体の反発力を風量調整弁20が開く方向に受けないため、閉鎖時の気密、水密性が向上する。
なお、図1に示した実施例は建築物に対して換気装置1を水平(横)方向に設けたものであるが、垂直(縦)方向に設けても良い。
Next, an operation of closing the air volume adjusting valve 20 will be described with reference to FIGS.
FIG. 4 shows a state in which the base 40 moves by operating the handle of the operation unit 50, and FIG. 5 shows that the tightening cam 60 rotates in conjunction with the movement of the operation unit 50, and the wind tunnel 10 is closed by the air volume adjustment valve 20. FIG. 6 shows an airtight and watertight state when the airflow adjustment valve 20 is closed.
The movement of the base 40 will be described with reference to FIG.
When the handle of the operation unit 50 is operated from the position shown in FIG. 4A to the position shown in FIG. 4B (the handle is moved to the left in FIG. 4), the substantially L-shaped handle rotates around the fulcrum shaft 50a. To do.
The elongated hole 51a provided in the first interlocking arm 51 and the L-shaped handle tip 50b are slidably connected, and the first interlocking arm 51 is fixedly connected to the support shaft 52. Therefore, in FIG. The support shaft 52 is also rotated clockwise by the clockwise rotation, and the fastening cam 60 is rotated clockwise in FIG. 5 as shown in FIG.
As shown in FIG. 4, the support shaft 52 is connected to the second interlocking arm 53, the third interlocking arm 54 is connected to the tip of the second interlocking arm 53, and the third interlocking arm 54 and the base 40 are connected to each other. The shaft 40 is coupled by the shaft coupling portion 54a. Since the base 40 is rotatably attached to the bracket 44, the base 40 rotates counterclockwise in FIG.
As a result, as shown in FIG. 4B, the head 43 a of the shaft 43 that is elastically biased by the secondary elastic body 42 moves backward and is connected to the rotating shaft 21 of the air volume adjusting valve 20. Even if 41 rotates to the closed state of the air volume adjusting valve 20, it does not contact the head 43a.
Therefore, in the closed state of the air volume adjusting valve 20, the secondary elastic body moves and is not urged in the opening direction of the air volume adjusting valve 20, so that airtightness and water tightness are improved.
The example shown in FIG. 4 is an example in which the base 40 rotates and moves backward, but it is not limited to rotational movement as long as it can move to a state where the secondary elastic body does not act.
The example of the operation unit 50 shown in FIG. 4 is for manually operating the handle, but this portion may be replaced with an electric drive source for electric operation.
The movement of the air volume adjusting valve 20 due to the rotation of the tightening cam 60 will be described with reference to FIG.
The tightening cam 60 includes a support rod 61 and a valve contact portion 62. One end 61a of the support rod 61 is fixedly connected to the support shaft 52, and the valve contact portion 62 is connected to the other end of the support shaft 61 by a rotational connection portion 61b. It is.
The support 61 and the valve contact portion 62 are rotatable about 10 degrees with each other by a rotation connecting portion 61b. When the support 61 is rotated by the rotation of the support shaft 52, the state shown in FIG. As shown in FIG. 5B, the tip of the valve abutting portion 62 abuts on the upper end side portion 20a of the blade of the air volume adjusting valve 20, and the air volume adjusting valve 20 rotates in the closing direction.
A roller 63 is pivotally attached to the tip of the valve contact portion 62 by a shaft attachment portion 62a so that the air volume adjustment valve 20 can be easily pushed.
The air volume adjusting valve 20 has a blade shape so that the air can easily flow. The position where the air volume adjusting valve 20 contacts the roller shifts with rotation, and therefore the abutting position is the same circumference with respect to the rotation center of the tightening cam 60. It is not a rotational trajectory that moves up.
Therefore, a guide member 64 that guides the movement of the tip of the valve contact portion 62 is attached to the wind tunnel wall 12 using a fixing member 65 such as a screw to guide the movement of the roller 63 along the guide surface 64a of the guide member 64. Since the rotation connecting portion 61b between the support 61 and the valve contact portion 62 is rotatable at a predetermined angle of about 10 degrees, the same circle as the air volume adjusting valve 20 as shown in FIG. The air volume adjustment valve 20 is pushed in until the closed state while absorbing the deviation from the periphery.
Therefore, even if the outer shape of the air volume adjusting valve changes, the change amount is absorbed by the angle change between the support 61 and the valve contact portion 62, so that the degree of freedom in designing the air volume adjusting valve is high.
Further, as shown in FIG. 5C, in the closed state, the tip of the valve contact portion 62 is sandwiched between the guide member 64 and the air volume adjusting valve 20, so that the repulsion generated in the air volume adjusting valve 20. The force is also received by the guide member 64, and the concentration of the load on the tightening cam 60 is suppressed.
The guide member 64 is fixed to the wind tunnel wall 12 by a fixing member 65 so as to be movable and adjustable in the vertical direction, and the closed position of the air volume adjusting valve 20 is adjusted above and below the guide member 64.
As shown in FIG. 6, tight materials 71 and 72 are respectively attached to the wind tunnel walls 11 and 12 along the longitudinal direction, and both ends in the longitudinal direction of the wind tunnel are sponge-like side seal members on the side walls 13 and 14 of the wind tunnel. 74 is attached, and an end seal member 73 is attached to the end face of the air volume adjusting valve 20.
FIG. 6 shows the end face of the air volume adjusting valve 20 by a two-dot chain line, and shows the direction of the side wall 13 from the inside of the wind tunnel 10, and the portions shown by dots represent sponge-like sealing materials.
The end seal member 73 has a contact piece 73a on the lower side when the plate is closed as shown in the sectional view taken along the line AA in FIG. 6 (a), the end seal member 73 and the side seal member 74 do not come into contact with each other when the air volume adjusting valve 20 opens the wind tunnel 10, but when the air volume adjusting valve 20 is in the closed state as shown in FIG. 6 (b). The part seal member 73 and the side seal member 74 are in contact with each other to ensure airtightness and watertightness.
In the closed state of the air volume adjusting valve 20, as shown in FIG. 4, the secondary elastic body 42 is retracted by the movement of the base 40 and does not contact the contact member 41. Since the repulsive force is not received in the direction in which the air volume adjusting valve 20 opens, the airtightness and watertightness at the time of closing are improved.
In addition, although the Example shown in FIG. 1 provides the ventilation apparatus 1 in the horizontal (horizontal) direction with respect to a building, you may provide in a vertical (vertical) direction.

本発明に係る換気装置の斜視図を示す。The perspective view of the ventilator which concerns on this invention is shown. 微風時における1次弾性体の作動状況説明図である。It is operation | movement condition explanatory drawing of the primary elastic body at the time of a light breeze. 微風以上の風速における2次弾性体の作動状況説明図である。It is operation | movement condition explanatory drawing of the secondary elastic body in the wind speed more than a breeze. 風量調整弁閉鎖時の2次弾性体の移動説明図である。It is movement explanatory drawing of the secondary elastic body at the time of air volume adjustment valve closing. 締りカムの作動説明図である。It is operation | movement explanatory drawing of a fastening cam. 気密、水密の説明図である。It is explanatory drawing of airtightness and watertightness.

符号の説明Explanation of symbols

1 換気装置
10 風洞
20 風量調整弁
21 回動軸
32 1次弾性体
40 ベース
41 当接部材
42 2次弾性体
50 操作部
52 支持軸
60 締りカム
61 支桿
62 弁当接部
64 ガイド部材
DESCRIPTION OF SYMBOLS 1 Ventilation apparatus 10 Wind tunnel 20 Air volume adjustment valve 21 Rotating shaft 32 Primary elastic body 40 Base 41 Contact member 42 Secondary elastic body 50 Operation part 52 Support shaft 60 Tightening cam 61 Supporting 62 Valve contact part 64 Guide member

Claims (2)

風洞と風量調整弁と1次弾性体と2次弾性体と閉鎖機構とを備え、
風洞は、建築物屋内外に連通する空気出入り口を有し、
風量調整弁は無風状態で風洞を全開にし、且つ風を受けて風洞を閉じる方向に回動するものであり、
1次弾性体は、所定の風速以下のときに風量調整弁が風洞を閉じる方向に回動することの回動抵抗になるように風量調整弁を風洞を開く方向に付勢し、
2次弾性体は、所定の風速以上のときに風量調整弁が風洞をさらに閉じる方向に回動することの回動抵抗になるように風量調整弁を風洞を開く方向に付勢し、1次弾性体と2次弾性体とで風洞内を通過する風量を一定に保つものであり、
閉鎖機構は、操作部と、風量調整弁の回動軸と平行な軸廻りに回転する締りカムと、風洞に設けたガイド部材とを有し、
締りカムは、支桿と弁当接部とを有し、支桿と弁当接部とは所定の角度回動自在に連結してあり、ガイド部材は弁当接部の移動をガイドする傾斜面を有し、
操作部の操作にて支桿が回転し、弁当接部が風量調整弁に当接するとともにガイド部材の傾斜面に沿って移動して風量調整弁を閉鎖状態まで回転することを特徴とする換気装置。
A wind tunnel, an air flow regulating valve, a primary elastic body, a secondary elastic body, and a closing mechanism;
The wind tunnel has an air inlet / outlet communicating with the inside and outside of the building,
The air volume adjusting valve opens the wind tunnel fully in the absence of wind, and rotates in a direction to receive the wind and close the wind tunnel,
The primary elastic body urges the air volume adjusting valve in the direction of opening the wind tunnel so that the air volume adjusting valve rotates when the air speed adjusting valve rotates below the predetermined wind speed.
The secondary elastic body urges the air volume adjusting valve in the direction of opening the wind tunnel so that the air volume adjusting valve rotates in the direction of further closing the wind tunnel when the air speed is higher than a predetermined wind speed. The air volume passing through the wind tunnel is kept constant between the elastic body and the secondary elastic body,
The closing mechanism has an operation part, a tightening cam that rotates about an axis parallel to the rotation axis of the air volume adjusting valve, and a guide member provided in the wind tunnel,
The tightening cam has a support and a valve contact portion, and the support and the valve contact portion are rotatably connected to each other by a predetermined angle. The guide member has an inclined surface for guiding the movement of the valve contact portion. And
The ventilator is characterized in that the support rotates by the operation of the operation unit, the valve contact portion contacts the air flow adjustment valve, and moves along the inclined surface of the guide member to rotate the air flow adjustment valve to the closed state. .
風洞と風量調整弁と当接部材と1次弾性体と2次弾性体と閉鎖機構とを備え、
風洞は、建築物屋内外に連通する空気出入り口を有し、
風量調整弁は無風状態で風洞を全開にし、且つ風を受けて風洞を閉じる方向に回動するものであり、
当接部材は風量調整弁とともに回動するものであり、
1次弾性体は、所定の風速以下のときに風量調整弁が風洞を閉じる方向に回動することの回動抵抗になるように風量調整弁を風洞を開く方向に付勢し、
2次弾性体は、所定の風速以上のときに風量調整弁が風洞をさらに閉じる方向に回動することの回動抵抗になるように当接部材と当接して風量調整弁を風洞を開く方向に付勢し、1次弾性体と2次弾性体とで風洞内を通過する風量を一定に保つものであり、
閉鎖機構は、操作部の操作にて風量調整弁を回転して風洞を閉鎖するとともに2次弾性体を当接部材に当接しない位置まで移動するものであることを特徴とする換気装置。
A wind tunnel, an air volume adjusting valve, a contact member, a primary elastic body, a secondary elastic body, and a closing mechanism;
The wind tunnel has an air inlet / outlet communicating with the inside and outside of the building,
The air volume adjusting valve opens the wind tunnel fully in the absence of wind, and rotates in a direction to receive the wind and close the wind tunnel,
The contact member rotates together with the air volume adjustment valve,
The primary elastic body urges the air volume adjusting valve in the direction of opening the wind tunnel so that the air volume adjusting valve rotates when the air speed adjusting valve rotates below the predetermined wind speed.
The secondary elastic body is in contact with the abutting member to open the air volume adjusting valve so that the air volume adjusting valve becomes a rotation resistance when the air volume adjusting valve rotates in a direction to further close the air channel when the air speed is higher than a predetermined wind speed. And the air volume passing through the wind tunnel is kept constant between the primary elastic body and the secondary elastic body,
The closing mechanism rotates the air volume adjusting valve by operating the operation unit to close the wind tunnel and moves the secondary elastic body to a position where it does not contact the contact member.
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Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2023029474A1 (en) * 2021-08-31 2023-03-09 重庆海尔空调器有限公司 Control method for air conditioner, and air conditioner
WO2023029472A1 (en) * 2021-08-30 2023-03-09 重庆海尔空调器有限公司 Control method for air conditioner and air conditioner

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* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH10232039A (en) * 1997-02-19 1998-09-02 Nippon Sekkei:Kk Constant air volume natural ventilation device for building
JP2005273256A (en) * 2004-03-24 2005-10-06 Tateyama Alum Ind Co Ltd Ventilating device

Patent Citations (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH10232039A (en) * 1997-02-19 1998-09-02 Nippon Sekkei:Kk Constant air volume natural ventilation device for building
JP2005273256A (en) * 2004-03-24 2005-10-06 Tateyama Alum Ind Co Ltd Ventilating device

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2023029472A1 (en) * 2021-08-30 2023-03-09 重庆海尔空调器有限公司 Control method for air conditioner and air conditioner
WO2023029474A1 (en) * 2021-08-31 2023-03-09 重庆海尔空调器有限公司 Control method for air conditioner, and air conditioner

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