JPS59156430A - Ultraviolet rays irradiating device - Google Patents

Ultraviolet rays irradiating device

Info

Publication number
JPS59156430A
JPS59156430A JP3086783A JP3086783A JPS59156430A JP S59156430 A JPS59156430 A JP S59156430A JP 3086783 A JP3086783 A JP 3086783A JP 3086783 A JP3086783 A JP 3086783A JP S59156430 A JPS59156430 A JP S59156430A
Authority
JP
Japan
Prior art keywords
air passing
reflector
ultraviolet
plate
plates
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.)
Granted
Application number
JP3086783A
Other languages
Japanese (ja)
Other versions
JPH029849B2 (en
Inventor
Yoshiro Kurokawa
黒川 義朗
Yoshihiro Yuge
弓削 喜裕
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.)
Iwasaki Denki KK
Original Assignee
Iwasaki Denki KK
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 Iwasaki Denki KK filed Critical Iwasaki Denki KK
Priority to JP3086783A priority Critical patent/JPS59156430A/en
Publication of JPS59156430A publication Critical patent/JPS59156430A/en
Publication of JPH029849B2 publication Critical patent/JPH029849B2/ja
Granted legal-status Critical Current

Links

Classifications

    • BPERFORMING OPERATIONS; TRANSPORTING
    • B01PHYSICAL OR CHEMICAL PROCESSES OR APPARATUS IN GENERAL
    • B01JCHEMICAL OR PHYSICAL PROCESSES, e.g. CATALYSIS OR COLLOID CHEMISTRY; THEIR RELEVANT APPARATUS
    • B01J19/00Chemical, physical or physico-chemical processes in general; Their relevant apparatus
    • B01J19/08Processes employing the direct application of electric or wave energy, or particle radiation; Apparatus therefor
    • B01J19/12Processes employing the direct application of electric or wave energy, or particle radiation; Apparatus therefor employing electromagnetic waves
    • B01J19/122Incoherent waves
    • B01J19/123Ultraviolet light

Landscapes

  • Chemical & Material Sciences (AREA)
  • Physics & Mathematics (AREA)
  • Electromagnetism (AREA)
  • Health & Medical Sciences (AREA)
  • General Health & Medical Sciences (AREA)
  • Toxicology (AREA)
  • Organic Chemistry (AREA)
  • Chemical Kinetics & Catalysis (AREA)
  • Coating Apparatus (AREA)
  • Physical Or Chemical Processes And Apparatus (AREA)

Abstract

PURPOSE:To accurately perform the control of irradiation intensity, by arranging an air passing plate provided with air passing orifices in an inner enclosure having an exhaust port while mounting reflex mirrors each formed by arranging a plurality of heat rays pervious reflection plate in a connected state to both sides of the air passing plate. CONSTITUTION:A cylindrical inner enclosure 3 having an exhaust port 2 is received in an outer enclosure 1 and an air passing plate 5 provided with air passing orifices 4a-4c is arranged in the inner enclosure 3 while reflex mirrors 6 each formed into a trough shape as the whole by arranging a plurality of heat rays pervious reflection plates 6a-6e and 6f-6j in a connected state are arranged to both sides of the air passing plate 5. End plates 7a, 7b capable of being also used as a part of the inner enclosure 3 are brought into contact with the both side ends of the reflex mirrors 6 in the longitudinal direction thereof. An ultraviolet ray source 9 such as a metal halide lamp is received and mounted in the reflex mirrors 6 so as to position the end parts thereof at the end parts of the air passing plate 5.

Description

【発明の詳細な説明】 不発明けインキ・塗料類に紫外線を照射してこれらを即
時に乾燥・硬化させる目的に使用される紫外線照射器の
改良−に関する。
DETAILED DESCRIPTION OF THE INVENTION This invention relates to an improvement in an ultraviolet irradiator used for the purpose of instantly drying and curing inks and paints by irradiating them with ultraviolet rays.

従来の紫外線照射器は、照射器本体の内部にアルミニウ
ム製の反射鏡を収納し、該反射鏡の内部に高圧水銀ラン
プやメタルノ・ライドランプのごとき紫外線源を装着し
た構造のものが多かった。
Conventional ultraviolet irradiators often have a structure in which an aluminum reflector is housed inside the irradiator body, and an ultraviolet source such as a high-pressure mercury lamp or metalnolide lamp is mounted inside the reflector.

かかる照射器では、紫外線源の点灯に伴い照射器本体の
内部が極めて高温になるため排気装置等を用いて内部を
空冷している。しがし々からアルミニウム製の反射鋳を
用いると紫外銀とともに熱線も多量に反射されるため、
被照射物が熱に弱い物質である場合にはそれが軟化・変
形するという間融があった。そこで、アルミニウム製の
反射鏡に代えて、熱線を辿通し紫外線のみを反射する熱
線透過反射板が使用されるようになってきた。かがる反
射Cの代表的なものは耐熱性ガラスの表面に金妨酸化物
を蒸着して多層干渉膜を形成したものである。想3図は
そのよう汝熱線透過反射鏡1の一般的な外観形状を示す
もので、内部に管状の紫外線源2を配置した状態を示す
。ところが、かがる反射鏡はか々シ大きなガラス体の表
面Vこ多層干渉膜を付着させるため製造が難しいという
欠点がある。特に紫外線を均−tこ照射するために多層
干渉膜の膜ノ4を反射脱全体にわたって適切にコントロ
ールすることは極めて困難であった。また、反射轢全体
がか在り大形に々るため、熱膨張によるストレスを吸収
t、VC<いという欠点もある。さらには反射鏡の内部
と外部を連絡する通風′路がないため、空冷をしても紫
外線源の冷却効果が少々いという問題もある。第4図は
上記のような問題を改善するために提案された反射鏡溝
造である。これは、縦に長い平板状の熱線透過反射板1
a・1b・1c・・・を断面が円弧状と々るよう[隣接
させて配置したものである。かかる構造では複数枚の熱
線透過反射板1a・1b・1c・・・を用意してこわを
組み合せればよいから製造上の困難性はある程度解消さ
れる。又、各熱線透過反射板の隣接間隙が通風路を形成
するので、紫外線源冷却効果もか々シ改善される。とこ
ろが、かかる構造では反射鏡の断面形状を放物紳又に楕
円のよう々正確々円弧状とすることはできないため紫外
線のコントロールという面で難点がある。1だ、彪に長
いガラス板に多層干渉膜を蒸着するので、製造上の問題
が完全に解消さhたとはいいがたい。さらには、各熱線
透過反射板の隣接間隙のみが通風路となっているので、
紫外線源の冷却を要する部分の冷却効果が十分でなく、
しかも紫外線源の長手方向の冷却効果をコントロールす
ることも無理であつた。紫外mPとして例えばメタルハ
ライドランプを使用した場合は、発光管の端部を保温す
る一ブハ発光管の中央部全適度に冷却しなければ高い発
光効率が得られないから、紫外線源の長手方向の冷却効
果のコントロールに極めて重要である。
In such an irradiator, the inside of the irradiator body becomes extremely hot when the ultraviolet light source is turned on, so the inside is air-cooled using an exhaust device or the like. If a reflective aluminum casting is used, a large amount of heat rays will be reflected as well as ultraviolet silver, so
When the object to be irradiated is a material that is sensitive to heat, there is a melting process in which the object becomes softened and deformed. Therefore, in place of aluminum reflectors, heat ray transmitting and reflecting plates that allow heat rays to pass through and reflect only ultraviolet rays have come to be used. A typical example of dark reflection C is a multilayer interference film formed by depositing gold interference oxide on the surface of heat-resistant glass. Figure 3 shows the general external appearance of such a heat ray transmitting and reflecting mirror 1, and shows a state in which a tubular ultraviolet light source 2 is arranged inside. However, the bending reflector has the disadvantage that it is difficult to manufacture because a multilayer interference film is attached to the surface of a large glass body. In particular, it has been extremely difficult to appropriately control the entire reflection and emission of the film No. 4 of the multilayer interference film in order to uniformly irradiate the ultraviolet rays. In addition, since the entire reflective track remains and is large in size, it also has the disadvantage that stress due to thermal expansion cannot be absorbed. Furthermore, since there is no ventilation path that connects the inside and outside of the reflector, there is also the problem that even if air cooling is used, the cooling effect of the ultraviolet source is rather low. FIG. 4 shows a reflecting mirror groove structure proposed to improve the above-mentioned problems. This is a vertically long flat heat transmitting and reflecting plate 1.
a, 1b, 1c, etc. are arranged adjacently so that their cross sections are arcuate. In such a structure, it is sufficient to prepare a plurality of heat ray transmitting/reflecting plates 1a, 1b, 1c, . . . and combining the stiffness, so that the difficulty in manufacturing can be solved to some extent. Furthermore, since the adjacent gaps between the heat ray transmitting and reflecting plates form ventilation passages, the ultraviolet source cooling effect is greatly improved. However, in such a structure, the cross-sectional shape of the reflecting mirror cannot be made into an accurate circular arc shape such as a paraboloid or an ellipse, and therefore there is a difficulty in controlling ultraviolet rays. First, since the multilayer interference film is deposited on a very long glass plate, it is difficult to say that manufacturing problems have been completely resolved. Furthermore, since only the adjacent gaps between each heat ray transmitting and reflecting plate serve as ventilation channels,
The cooling effect of the part of the ultraviolet source that requires cooling is not sufficient,
Furthermore, it was impossible to control the cooling effect in the longitudinal direction of the ultraviolet source. For example, when a metal halide lamp is used as an ultraviolet mP, high luminous efficiency cannot be obtained unless the ends of the arc tube are kept warm and the entire center of the arc tube is appropriately cooled. This is extremely important for controlling the effects.

本発明に以上のような点に鑑みて力されたもので、紫外
線源の長手方向やそれに直角力方向の紫を清 外線照射強   単かつ正確に行うことができ、紫外線
源の発光効率を低下させることなく反射鏡の内外の冷却
効果を増大さぜることができ、#膨張に伴うストレスの
間融も解消でき、製造・組立及び保守も容易である等数
々の特長を有する紫外線照射器を提供するものである。
The present invention has been developed in view of the above points, and it is possible to easily and accurately irradiate ultraviolet rays in the longitudinal direction of the ultraviolet source and in the direction perpendicular thereto, thereby reducing the luminous efficiency of the ultraviolet source. This ultraviolet irradiator has many features such as increasing the cooling effect inside and outside the reflector without causing damage, eliminating the stress caused by expansion, and being easy to manufacture, assemble, and maintain. This is what we provide.

第1N及び第2図は本発明に係る紫外線照射器の正面及
び側面の断面図である。]は上方に空気取入口を有する
外筐である。この外筐1の中には筒状の排気孔2を有す
る内筒3が収納しである。
1N and 2 are front and side sectional views of the ultraviolet irradiator according to the present invention. ] is an outer casing with an air intake at the top. An inner cylinder 3 having a cylindrical exhaust hole 2 is housed in the outer casing 1.

そして内部3の中Kに端部を避けて適数の通風孔4a・
4b・4cを設けた通風板5が配置してあつ、その両側
VCは円弧状に彎曲させた複数の熱線透過反射板6a〜
6e及び6f〜6jをそhらの隣接間隙が前記通風板5
の端部に位置し々いようにして連接配置せしめて全体を
樋状となした反射鏡6が配置しである。通“風飯5の端
部を避けて通風孔4a・4b・4cを設け、また熱線透
過反射板6a〜6e、6f〜6jの隣接間隙が通風板5
の端部に位置し力いようにしたのけ、通風板5の端部に
紫外線源の電極封入部を配置した場合に、該電極封入部
の保温効果を良好に保つためである。
Then, install an appropriate number of ventilation holes 4a in the middle K of the interior 3, avoiding the edges.
4b and 4c are arranged, and on both sides VC are a plurality of heat ray transmitting and reflecting plates 6a to 6a curved in an arc shape.
Adjacent gaps 6e and 6f to 6j are the ventilation plates 5.
There are reflecting mirrors 6 which are arranged in a concatenated manner so as to be located at the ends of the mirrors so as to form a gutter-like shape as a whole. Ventilation holes 4a, 4b, and 4c are provided avoiding the ends of the ventilation plate 5, and adjacent gaps between the heat ray transmitting and reflecting plates 6a to 6e and 6f to 6j are provided in the ventilation plate 5.
This is to maintain a good heat retention effect of the electrode enclosing part of the ultraviolet source when the electrode enclosing part of the ultraviolet source is disposed at the end of the ventilation plate 5.

さらに、反射鏡6の長手方向の両側端にに内筒3の一部
をもって兼用させることができる端板7a・7bが描接
せしめである。該端板7a・7bのうち、前記熱線透過
反射板6a・6f及び6e”6jの外側面に近接した個
所には外筐1と内部3との間の通風路に連絡する透孔8
a・8b及び8c・8dが設けである。そして、反射鏡
6の内5vctriメタルハライドランプのようf!紫
外線源9をその端部を前記通風板5の端部に位置させて
収納装着しである。10t/′i内筐3の排気孔2vc
連結した排気装置を示す。第5図及び第6図は本発明に
用いる反射鏡部分の余I視図及び平面図である。
Furthermore, end plates 7a and 7b, which can also be used as a part of the inner cylinder 3, are in contact with both ends of the reflecting mirror 6 in the longitudinal direction. Among the end plates 7a and 7b, there are through holes 8 that communicate with the ventilation path between the outer casing 1 and the inner part 3 at locations close to the outer surfaces of the heat ray transmitting and reflecting plates 6a, 6f and 6e''6j.
A, 8b and 8c, 8d are provided. And 5 of the reflectors 6 are like VCTRI metal halide lamps! The ultraviolet light source 9 is housed and mounted with its end located at the end of the ventilation plate 5. 10t/'i Exhaust hole 2vc of inner case 3
A connected exhaust system is shown. 5 and 6 are a perspective view and a plan view of the reflecting mirror portion used in the present invention.

つまシ、本発明に係る反射鏡構成は、端部を避けて適数
の通風孔4a・4b・4cを設けた”通風板5の両4’
alJ K、比較的小さい寸法のガラス板を放物線ある
いに構出の一部に沿って円弧状KE4曲させたうえその
表面に多層干渉膜を形成してなる複数の熱線透過反射板
6a〜6c及び6f〜6j全それらの隣接間隙が前記通
風板5の端部に位1げし々いように連接配置せしめて全
体を樋状となした反射鏡6全措成するものである。熱線
透過反射板の枚数σ紫外線源9の長さに応じて適宜選択
すれはよい。ここに、通風板5の端部を避けて通風孔4
a・4b・4Cを設け、かつ熱線透過反射板6a〜6c
及び6f〜6j(7)隣接間隙も通風板5の端部に位置
し々いようにしたのは、その部分に紫外線源、殊にメタ
ルハライドランプの端部を位置させるためである。この
ようにすることによシ、メタルハライドランプの端部は
保温されかつ中央部は適度に冷却されることとなるから
高い発光効率が得られるわけである。ただ、このように
すると、反射鏡60両端に位置する熱線透過反射板6a
・6f及び6e−6jの温度が極めて高くなシ、それら
の多層干渉膜が剥離する現象が見られた。そこで本発明
は反射鏡6の長手方向の両端に当接された端板7a・7
bのうち、前記熱線透過反射板6a・6f及び6e・6
jの外側面に近接した個所に外筐1と内部3との間の通
飄路に連絡する適数の透孔8a〜8dを設けである。こ
れによシ反射鏡端部の温度のみを適度に低下させること
ができる。なお、各熱線透過反射板6a〜6e及び6f
〜6jの間に形成される隣接間隙は任意でよいが、大き
すぎると紫外線の反射効率に影響し、小さすぎると反射
鏡の冷却効果に影響する。実験例によれば1fi以下と
しても一定の効果が得られるが、完全に塞いでしまうと
反射鏡の壁面りかな9高温とカリ、多局干渉膜の剥離現
象など75(あられれる。以上のように、本発明によれ
ば紫外線源の発光効率を高めうるという大き々利点があ
る。
The configuration of the reflecting mirror according to the present invention consists of both sides 4' of the ventilation plate 5 in which an appropriate number of ventilation holes 4a, 4b, and 4c are provided avoiding the edges.
alJ K, a plurality of heat ray transmitting and reflecting plates 6a to 6c made by bending relatively small glass plates into an arc shape along a parabola or a part of the structure and forming a multilayer interference film on the surface thereof. and 6f to 6j, all of which are connected to each other so that their adjacent gaps are tightly connected to the end of the ventilation plate 5 to form a gutter-like reflecting mirror 6. The number of heat transmitting and reflecting plates may be appropriately selected depending on the length of the σ ultraviolet source 9. Here, avoid the edge of the ventilation plate 5 and insert the ventilation hole 4.
a, 4b, and 4C, and heat ray transmitting and reflecting plates 6a to 6c.
and 6f to 6j (7) The reason why the adjacent gaps are also located at the end of the ventilation plate 5 is that the end of the ultraviolet light source, especially the metal halide lamp, is located in that part. By doing so, the ends of the metal halide lamp are kept warm and the center is appropriately cooled, resulting in high luminous efficiency. However, in this case, the heat ray transmitting reflector plates 6a located at both ends of the reflector 60
- The temperature of 6f and 6e-6j was extremely high, and a phenomenon in which their multilayer interference films peeled off was observed. Therefore, the present invention provides end plates 7a and 7 that are in contact with both ends of the reflecting mirror 6 in the longitudinal direction.
Among b, the heat ray transmitting and reflecting plates 6a, 6f and 6e, 6
An appropriate number of through holes 8a to 8d are provided at locations close to the outer surface of the housing 1 to communicate with the passageway between the outer casing 1 and the interior 3. As a result, only the temperature at the end of the reflecting mirror can be appropriately reduced. In addition, each of the heat ray transmitting and reflecting plates 6a to 6e and 6f
The adjacent gap formed between ~6j may be arbitrary, but if it is too large, it will affect the reflection efficiency of ultraviolet rays, and if it is too small, it will affect the cooling effect of the reflecting mirror. According to experimental examples, a certain effect can be obtained even if it is less than 1fi, but if it is completely blocked, the wall surface of the reflecting mirror will be affected. Another major advantage of the present invention is that the luminous efficiency of the ultraviolet light source can be increased.

また、本発明のように反射鏡をいわば長手方向に対し直
角な方向に分割した構成では、各熱線透過反射& 6 
a〜6e及び6f〜6jの製造が5極めて簡単であ沙、
取扱いも容易であり、さら[は熱線透過反射板の一部が
蝕損しても反射鋒全体を交換する必少が々いというメリ
ットもある。しかしさらにこねらに加えて次のよう々利
点もある。先ず、熱線透過反4i板の一単位の大きさが
比」咬的小さいので各熱線透過反射板におりる彎曲方向
の多層干渉膜の厚みのコントロールが比較的容易t1c
行えることである。たとえ(げ、第1図において、各熱
線透過反射板63〜6e 、6f〜6jの通風板5に近
い111)の膜厚を最ノkKL、外側に向って次第に膜
を障くすることが可能である。このようにすることによ
り、反射鏡ρフー2?手方向と直角な方向の紫外線反射
率を変えることができ、全体VCC均一熱照射強度イり
られる。
In addition, in a configuration in which the reflecting mirror is divided in a direction perpendicular to the longitudinal direction as in the present invention, each heat ray transmission reflection & 6
The production of a to 6e and 6f to 6j is extremely simple,
It is easy to handle, and it also has the advantage that even if a part of the heat ray transmissive reflector plate becomes corroded, it is not necessary to replace the entire reflector. However, in addition to kneading, it also has the following advantages: First, since the size of one unit of the heat ray transmitting reflection plate is relatively small, it is relatively easy to control the thickness of the multilayer interference film in the curved direction of each heat ray transmission reflection plate.
It can be done. For example, if the film thickness of each of the heat ray transmitting and reflecting plates 63 to 6e and 6f to 6j (111 near the ventilation plate 5 in Fig. 1) is set to the maximum thickness, it is possible to gradually obstruct the film toward the outside. It is. By doing this, the reflector ρ Fu2? The ultraviolet reflectance in the direction perpendicular to the hand direction can be changed, and the overall VCC uniform thermal irradiation intensity can be achieved.

捷た、本発明によf′Lば、反射鏡の長手方向の紫外線
反射率も容易にコントロールできる。す々わち、第5図
及び第6図に9いて、各熱線透過反射板6a〜6e及び
6f〜6jの多層千1″p膜の厚みを、反y+ 鐘の長
手方向の中央に位置する熱線透過反射板6c及び6bに
おいて最も$<L、その外側に位置するものほど漸次厚
くすることが可能である。多層干渉膜が4いほど紫外線
の吸収は少々くかつ紫外線源の紫外線放射強度はその中
央部はど大さい〃・らこのような反射鏡構成を用いるこ
とによシ反射鏡の長芋方向の紫外線照射強度を均一にで
きるわけである。逆に、反射鏡自体の長手方向の紫外線
反射率を均等にしたい場合σ、各熱線透過反射鈑の一部
を取り替えることによって全体としてのバラツキを吸収
することもできる。反射鏡の長芋方向とそれに直角々方
向の紫外線反射率を適′「選択すハば史に理想的な照射
強度のコンにロールが可能である。次に、本発明の反射
鏡構成でσ反射鏡の長手方向C(おける各熱線透過反射
板68〜6e 、6f〜6jの長さく巾)を変えること
ができる。
According to the present invention, the reflectance of ultraviolet rays in the longitudinal direction of the reflecting mirror can also be easily controlled. In other words, as shown in FIGS. 5 and 6, the thickness of the multilayer 11"p film of each of the heat ray transmitting and reflecting plates 6a to 6e and 6f to 6j is set at the center in the longitudinal direction of the bell. In the heat ray transmitting/reflecting plates 6c and 6b, it is possible to gradually increase the thickness as the distance between $<L and the outer side of the film increases. How large is the central part?By using such a reflector configuration, the intensity of ultraviolet rays in the direction of the reflector can be made uniform.On the contrary, the intensity of ultraviolet rays in the longitudinal direction of the reflector itself can be made uniform. If you want to make the reflectance uniform, you can absorb the overall variation by replacing a part of each heat ray transmitting reflective plate. It is possible to control the ideal irradiation intensity for the selected substrate.Next, with the reflector configuration of the present invention, each of the heat ray transmitting and reflecting plates 68 to 6e, 6f to The length and width of 6j can be changed.

例えば、中央に位置する熱線透過反射板6C及び6hの
長さを最小とし、その外(tlil Ic位買するもの
ほど漸次長さを欝きくすることができる。このように構
成すると、反射鏡の内部に収納した紫外線踪の中央部を
小間隙によって冷却し、両端部を保温するという効果が
さらに高−まる。最後に、本発明における照射器内部の
空冷幼果について説明する。
For example, it is possible to minimize the length of the heat ray transmissive reflectors 6C and 6h located in the center, and gradually reduce the length of the heat ray transmitting reflectors 6C and 6h located at the center. The effect of cooling the central part of the ultraviolet rays housed inside through a small gap and keeping both ends warm is further enhanced.Finally, the air-cooled young fruit inside the irradiator in the present invention will be explained.

第] i’&l及び第2はj(Cおいて、排気装置41
0を駆動すると、外筐1の空気敗入口がち吸入さ71た
空気に矢符で示すように内部3の外jgl i通り、端
板7a・7bの透孔8a・8b−及び8C・8dから内
ji 3 vC入って反射鏡6の外側會通って排気孔2
からす(ト出される。一方、反射鏡6の開口部から吸入
された空気に紫夕1勝源、9の周囲を通り、通風板5の
通風孔4a・4b・4C及び各熱約透過反射座反6a〜
6e 、6f〜6jの隣1妾11号!免から内丁セ3に
鯰入でれ(ノド気孔2から、排出される。このため、反
射で(支)6ばその内外から冷却されることと々る。
] i'&l and the second is j (C, exhaust device 41
When 0 is driven, the air outlet of the outer casing 1 causes the air to be sucked in through the through holes 8a, 8b- and 8C, 8d of the end plates 7a and 7b, as shown by the arrows. Inner 3 VC enters the outer side of the reflector 6 and goes to the exhaust hole 2
On the other hand, the air sucked in from the opening of the reflector 6 passes around Shiyu 1, 9, and passes through the ventilation holes 4a, 4b, 4C of the ventilation plate 5 and each heat transmission reflection. Zabuta 6a~
6e, 6f~6j neighbor 1 concubine number 11! The catfish enters the internal cavity 3 from the throat and is discharged from the throat pore 2. Therefore, by reflection, the catfish is cooled from inside and outside.

しlζがって、ρ線が反射鏡6の背面に放出されにもか
かわらず、反射鏡6の温度はそう高くはなら々い。外お
、この通風経路は第5図及び第6図にも矢符で示す。こ
のようにして照射器内部の空冷効果1dl好に保たれる
わけである。
Therefore, even though the ρ rays are emitted to the back surface of the reflecting mirror 6, the temperature of the reflecting mirror 6 is not so high. Additionally, this ventilation path is also indicated by arrows in FIGS. 5 and 6. In this way, the air cooling effect inside the irradiator can be maintained at 1 dl.

照射物に対する熱線の照射は極めて少々〈々ることはい
うまでも々い。
It goes without saying that the irradiation of heat rays onto the irradiated object is extremely difficult.

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

第1図及び第2図は本発明に係る紫外線照射器の正面及
び側面の断面図、第3図及び第4図tゴ従来の紫外線照
射器の反射鏡の斜視図、第5図は本発明に用いる反射鏡
の斜視図、第6図は同反射鏡の平面図である。 第1図、第2図並に第5図及び第6図において、1・・
・外筺、2・・・排気孔、3・・・内部、4a・4b・
4c・・・通風孔、5・・・通風板、6a〜6e 、6
f〜6j・・・熱@透過反射板、6・・・反射鏡、7a
・7b・・・端板、8a〜8d・・・透孔、9・・・紫
外線源、10・・・排気装置。
1 and 2 are front and side cross-sectional views of an ultraviolet irradiator according to the present invention, FIGS. 3 and 4 are perspective views of a reflector of a conventional ultraviolet irradiator, and FIG. 5 is a perspective view of a reflector of a conventional ultraviolet irradiator, and FIG. FIG. 6 is a perspective view of a reflecting mirror used in the present invention, and FIG. 6 is a plan view of the reflecting mirror. In Figures 1 and 2 as well as Figures 5 and 6, 1...
・Outer casing, 2...Exhaust hole, 3...Inside, 4a/4b・
4c... Ventilation hole, 5... Ventilation plate, 6a to 6e, 6
f~6j...Heat@transmission/reflection plate, 6...Reflector, 7a
7b... End plate, 8a to 8d... Through hole, 9... Ultraviolet source, 10... Exhaust device.

Claims (3)

【特許請求の範囲】[Claims] (1)外筐(1)の内部に収納した排気孔(2)を有す
る内筒(3)の中に、端部を避けて適数の通風孔(4a
)・(4b)(4c )を設けて力る通風板(5)を配
置し、該通風板(5)の両側に円弧状に彎曲させた複数
の熱線透過反射板(6a)〜(6e)及び(6f)〜(
6j)をそれらの隣接間隙が前記通風板(5)の端部V
こ位置しないようにして連接配置せしめて全体を樋状と
なした反射鏡(6)を構成するとともに、該反射鏡(6
)の長手方向の両側端に端板(7a)・(7b)を当接
し、該端板(7a) @(7b)のうち前記反射鏡(6
)の端部の熱線透過反射板(6a)・(6f)及び(6
e)・(6j)の外側面に近接した個所に外筐(1)と
内筒(3)との間の通風路に連絡する適数の透孔(8a
)” (8b)及び(8c)・(8d)を設けたうえ、
前記反射I(6)の内部に管状の紫外線源(9)をその
端部を前記通風板(5)の端部に位置させて収納装着し
たことを特徴とする紫外線照射器。
(1) An appropriate number of ventilation holes (4 a
)・(4b)(4c) A ventilation plate (5) is arranged, and a plurality of heat ray transmitting and reflecting plates (6a) to (6e) curved in an arc shape are arranged on both sides of the ventilation plate (5). and (6f) ~(
6j) such that their adjacent gaps are at the end V of the ventilation plate (5)
The reflector (6) is arranged in a concatenated manner so that the reflector (6) has a gutter-like shape as a whole.
), and the end plates (7a) and (7b) are brought into contact with both longitudinal ends of the reflector (6) of the end plates (7a) @ (7b).
) at the ends of the heat ray transmitting and reflecting plates (6a), (6f) and (6
e) An appropriate number of through holes (8a
)” In addition to providing (8b), (8c) and (8d),
An ultraviolet irradiator characterized in that a tubular ultraviolet source (9) is housed and mounted inside the reflector I (6) with its end positioned at the end of the ventilation plate (5).
(2)熱線透過反射板(6a)〜(6e)及び(6f)
〜(6j)は耐熱性透光板の表面に多層干渉膜を形成し
たものであることを特徴とする特許請求の範囲第1項襲
載の紫外線照射器。
(2) Heat transmitting and reflecting plates (6a) to (6e) and (6f)
-(6j) are ultraviolet irradiators according to claim 1, characterized in that a multilayer interference film is formed on the surface of a heat-resistant transparent plate.
(3)紫外線源(9)はメタルノ・ライドランプである
ことを特徴とする特許請求の範囲第1項記載の紫外線照
射器。
(3) The ultraviolet irradiator according to claim 1, wherein the ultraviolet source (9) is a metalnolide lamp.
JP3086783A 1983-02-28 1983-02-28 Ultraviolet rays irradiating device Granted JPS59156430A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP3086783A JPS59156430A (en) 1983-02-28 1983-02-28 Ultraviolet rays irradiating device

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP3086783A JPS59156430A (en) 1983-02-28 1983-02-28 Ultraviolet rays irradiating device

Publications (2)

Publication Number Publication Date
JPS59156430A true JPS59156430A (en) 1984-09-05
JPH029849B2 JPH029849B2 (en) 1990-03-05

Family

ID=12315673

Family Applications (1)

Application Number Title Priority Date Filing Date
JP3086783A Granted JPS59156430A (en) 1983-02-28 1983-02-28 Ultraviolet rays irradiating device

Country Status (1)

Country Link
JP (1) JPS59156430A (en)

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS62136272U (en) * 1986-02-21 1987-08-27
JPS62136270U (en) * 1986-02-21 1987-08-27

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS62136272U (en) * 1986-02-21 1987-08-27
JPS62136270U (en) * 1986-02-21 1987-08-27

Also Published As

Publication number Publication date
JPH029849B2 (en) 1990-03-05

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