JPH031487A - Fluorescent lamp fixture with infrared beam remote control - Google Patents

Fluorescent lamp fixture with infrared beam remote control

Info

Publication number
JPH031487A
JPH031487A JP1136401A JP13640189A JPH031487A JP H031487 A JPH031487 A JP H031487A JP 1136401 A JP1136401 A JP 1136401A JP 13640189 A JP13640189 A JP 13640189A JP H031487 A JPH031487 A JP H031487A
Authority
JP
Japan
Prior art keywords
fluorescent lamp
remote control
infrared remote
infrared
wavelengths
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
JP1136401A
Other languages
Japanese (ja)
Other versions
JPH065638B2 (en
Inventor
Kenji Kawasaki
憲治 川崎
Akiyoshi Goshima
五島 章好
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.)
Panasonic Holdings Corp
Original Assignee
Matsushita Electric Industrial Co Ltd
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 Matsushita Electric Industrial Co Ltd filed Critical Matsushita Electric Industrial Co Ltd
Priority to JP1136401A priority Critical patent/JPH065638B2/en
Publication of JPH031487A publication Critical patent/JPH031487A/en
Publication of JPH065638B2 publication Critical patent/JPH065638B2/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

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Abstract

PURPOSE:To remove ill influence as much as possible by furnishing a long pass filter, and thereby shutting off the Ar spectrum generated in the infrared range in the initial period of low-temp. lighting. CONSTITUTION:A light receiving part 6a for an infrared remote control signal 5 is furnished in a place where the infrared light from a fluorescent lamp 3 is received, and a long pass filter or a band pass filter 8 is installed on the front face of this light receiving part 6a. This filter 8 shuts off Ar spectrum which is generated in the infrared range in the initial period of low-temp. lighting of the lamp 3, wherein the shutoff range includes waves a little shorter than the signal 5 and under it, while the filter 8 admits penetration of the waves incl. the signal 5 and above it. This permits removal of ill influence upon the infrared remote control in the initial period of low temp. lighting.

Description

【発明の詳細な説明】 [産業上の利用分野] 本発明は赤外線リモートコントロール式螢光ランプ器具
に関し、特に、低温点灯初期時の赤外線リモートコント
ロールに対する悪影響をできるだけ排除しようとするも
のである。
DETAILED DESCRIPTION OF THE INVENTION [Field of Industrial Application] The present invention relates to an infrared remote control type fluorescent lamp apparatus, and in particular, it is intended to eliminate as much as possible the adverse effects on the infrared remote control during the initial stage of low-temperature lighting.

[従来の技術] 一般に、赤外線リモートコントロールと螢光ランプ器具
との相性は良くなく、螢光ランプの光に含まれる赤外光
が赤外線リモートコントロール信号の受光部にかなり入
射すると、赤外線リモートコントロール信号による螢光
ランプの点滅や調光制御を誤動作ないしは不動作させる
ため、受光部の取付部位その他を、例えば実開昭63−
160610号公報のように充分検討しなければならな
い。
[Prior Art] In general, infrared remote control and fluorescent lamp equipment are not compatible, and if a large amount of infrared light contained in the light of the fluorescent lamp enters the infrared remote control signal receiving part, the infrared remote control signal In order to cause the flashing and dimming control of the fluorescent lamp to malfunction or not work, the mounting part of the light receiving part and other parts may be changed, for example, to
It is necessary to consider the issue thoroughly as in the case of Publication No. 160610.

これは、周知の通り螢光ランプの点灯時に赤外域で発生
している波長11013nの水銀スペクトルによって、
赤外線リモートコントロールが悪影響を受けるためであ
る。
As is well known, this is caused by the mercury spectrum with a wavelength of 11013n, which is generated in the infrared region when a fluorescent lamp is lit.
This is because infrared remote control is adversely affected.

また、特開昭57−25738号公報によれば、赤外線
リモートコントロール式螢光ランプ器具ではないが、螢
光ランプ器具がTV等の赤外線リモートコントロールシ
ステムに干渉するのを防止するため、11000n以上
の波長域を70%以上遮断するショートパスフィルター
で水銀スペクトルを遮断する考え方が開示されている。
Furthermore, according to Japanese Patent Application Laid-Open No. 57-25738, although it is not an infrared remote control fluorescent lamp device, in order to prevent the fluorescent lamp device from interfering with an infrared remote control system such as a TV, The idea of blocking the mercury spectrum with a short-pass filter that blocks 70% or more of the wavelength range has been disclosed.

[発明が解決しようとする課題] ところが、本発明者が種々試験検討した結果によれば、
周囲温度5°Cの低温雰囲気中で点灯した場合、点灯初
期では螢光ランプから、波長的740nm、760nm
、810n1,830nm、840n諺、 910ng
+、 965nm等の多数のアルゴンスペクトルが相当
な強度で発生しているのが判明し、これによっても、赤
外線リモートコントロール制御が不動作ないしは誤動作
することが分かった。
[Problem to be solved by the invention] However, according to the results of various tests and studies conducted by the present inventor,
When lit in a low-temperature atmosphere with an ambient temperature of 5°C, the wavelengths of 740nm and 760nm are emitted from the fluorescent lamp at the initial stage of lighting.
, 810n1, 830nm, 840n proverb, 910ng
It was found that a large number of argon spectra such as +, 965 nm, etc. were generated with considerable intensity, and this also caused the infrared remote control to be inoperable or malfunction.

これらのアルゴンスペクトルは前述の水銀スペクトルよ
りはるかに有害で、ショートパスフィルターで水銀スペ
クトルを遮断するだけでは遮断できなく、低温点灯初期
には赤外線リモートコントロールに重大な影響があった
These argon spectra are much more harmful than the mercury spectra mentioned above, and cannot be blocked simply by blocking the mercury spectra with a short-pass filter, which seriously affected infrared remote control in the early stages of low-temperature lighting.

また、この影響は螢光ランプが高周波点灯される場合に
特に問題になる。
Furthermore, this effect is particularly problematic when the fluorescent lamp is operated at high frequency.

すなわち、螢光ランプが50Hzないしは60Hzの商
用電源周波数で点灯される場合と異なり、例えば約40
kHz〜約60kHzの高周波で点灯される場合には、
赤外線リモートコントロール信号の周波数に非常に近く
、両者の弁別が技術的に困難なため、赤外線リモートコ
ントロール制御に悪影響を与える度合がはるかに大きい
ということである。
That is, unlike when a fluorescent lamp is lit at a commercial power frequency of 50 Hz or 60 Hz, for example, a frequency of approximately 40 Hz
When lighting at a high frequency of kHz to approximately 60kHz,
Since the frequency is very close to that of the infrared remote control signal and it is technically difficult to distinguish between the two, it has a much greater negative effect on infrared remote control control.

一般に、赤外線リモートコントロール信号の周波数は約
33kHz〜約40kHzの範囲内にあり、−方、高周
波点灯される螢光ランプの点灯周波数は約40kHz以
上の範囲に使用範囲が区分けされている。これは、高周
波点灯型螢光ランプ着具がTV、VTR等の赤外線リモ
ートコントロールシステムに悪影響を与えないよう業界
で配慮したものである。そして、高周波点灯型螢光ラン
プ器具とTV、VTR等はかなり離れて設Mされるため
、この使用区分で特段の問題は発生しない。
Generally, the frequency of an infrared remote control signal is within a range of about 33 kHz to about 40 kHz, and the operating frequency of a fluorescent lamp lit at high frequency is divided into a range of about 40 kHz or more. This is a consideration in the industry to ensure that high-frequency lighting type fluorescent lamp fittings do not adversely affect infrared remote control systems such as TVs and VTRs. Since the high-frequency lighting type fluorescent lamp equipment and the TV, VTR, etc. are installed quite far apart, no particular problem arises in this classification of usage.

一方、赤外線リモートコントロール式螢光ランプ器具で
は、螢光ランプ光が赤外線リモートコントロール信号の
受光部に入光しやすく、比較にならない程、赤外線リモ
ートコントロール制御に悪影響があるのが明白である。
On the other hand, in the case of infrared remote control type fluorescent lamp equipment, the fluorescent lamp light easily enters the receiving part of the infrared remote control signal, and it is obvious that the infrared remote control control is adversely affected to an extent that is not comparable.

本発明は、以上述べた実情を鑑み、特に低温点灯初期時
の赤外線リモートコントロールに対する悪影響を可能な
限り排除できる赤外線リモートコントロール式螢光ラン
プ器具を提供することを目的とする。
SUMMARY OF THE INVENTION In view of the above-mentioned circumstances, it is an object of the present invention to provide an infrared remote control type fluorescent lamp fixture that can eliminate as much as possible the negative effects on infrared remote control especially at the initial stage of low-temperature lighting.

[課題を解決するための手段] 本発明は、螢光ランプの赤外光が受光される箇所に赤外
線リモートコントロール信号の受光部を設けた赤外線リ
モートコントロール式螢光ランプ器具において、受光部
の前面にロングパスフィルターを設け、このロングパス
フィルターは、螢光ランプの低温点灯初期に赤外領域で
発生する多数のアルゴンスペクトルの大部分を遮断する
よう赤外線リモートコントロール信号の波長よりわずか
に短かい波長を含みこれより短かい波長領域を遮断する
とともに、赤外線リモートコントロール信号の波長を含
みこれより長い波長領域を透過する特性を備えた赤外線
リモートコントロール式螢光ランプ器具を構成する。
[Means for Solving the Problems] The present invention provides an infrared remote control type fluorescent lamp apparatus in which a light receiving section for an infrared remote control signal is provided at a location where infrared light of a fluorescent lamp is received. A long-pass filter is installed in the infrared remote control signal, and this long-pass filter contains wavelengths slightly shorter than the wavelength of the infrared remote control signal so as to block most of the many argon spectra generated in the infrared region during the initial low-temperature operation of the fluorescent lamp. An infrared remote control type fluorescent lamp device is constructed which has a characteristic of blocking shorter wavelength ranges and transmitting longer wavelength ranges including the wavelength of the infrared remote control signal.

また、ロングパスフィルターに代えてバンドパスフィル
ターを設け、このバンドパスフィルターは、螢光ランプ
の低温点灯初期に赤外領域で発生する多数のアルゴンス
ペクトルの大部分を遮断するよう赤外線リモートコント
ロール信号の波長よりわずかに短かい波長を含みこれよ
り短かい波長領域を遮断するとともに、螢光ランプの安
定点灯時に発生する水銀スペクトルを含みこれより長い
波長領域を遮断し、赤外線リモートコントロール信号の
波長付近を透過する特性を備えたものとすることができ
る。
In addition, a band-pass filter is provided in place of the long-pass filter. In addition to blocking wavelengths that include slightly shorter wavelengths and shorter wavelengths, it also blocks wavelengths that are longer than this, including the mercury spectrum that occurs when a fluorescent lamp is stably lit, and transmits wavelengths near the wavelength of infrared remote control signals. It can be made to have the following characteristics.

そして、赤外線リモートコントロール式螢光ランプ器具
は、シャーシ下面に、高周波点灯される並設された複数
の螢光ランプと、螢光ランプ間に位置し・赤外線リモー
トコントロール信号の受光部を収納した受信部ケースを
設けて、透光カバーでおおう構成を備え、受光部は受信
部ケースの一部を下方に突出させた受光部収納部に収納
され、この受光部収納部下面は螢光ランプ下縁より低く
、受信部ケースの受光部収納部以外の下面は螢光ランプ
下縁より高くすることができる。
The infrared remote control type fluorescent lamp device has a plurality of fluorescent lamps installed in parallel on the underside of the chassis that are lit at high frequency, and a receiver located between the fluorescent lamps that houses the light receiving part for the infrared remote control signal. The light receiving part is housed in a light receiving part housing part with a part of the receiving part case protruding downward, and the lower surface of this light receiving part housing is located near the lower edge of the fluorescent lamp. The lower surface of the receiver case other than the light receiver housing can be made higher than the lower edge of the fluorescent lamp.

[作 用] 本発明の赤外線リモートコントロール式螢光ランプ器具
によれば、赤外線リモートコントロール信号の受光部前
面に設けたロングパスフィルターが、螢光ランプの低温
点灯初期に赤外領域で発生する多数のアルゴンスペクト
ルの大部分を遮断するため、螢光ランプの低温点灯初期
時において、赤外線リモートコントロール信号による螢
光ランプの点滅や調光制御が不動作ないしは誤動作する
のを相当改善できる。
[Function] According to the infrared remote control type fluorescent lamp apparatus of the present invention, the long pass filter provided in front of the infrared remote control signal receiving section absorbs a large number of light waves generated in the infrared region at the initial stage of low-temperature lighting of the fluorescent lamp. Since most of the argon spectrum is blocked, it is possible to considerably improve the inoperability or malfunction of the blinking and dimming control of the fluorescent lamp by infrared remote control signals during the initial stage of low-temperature lighting of the fluorescent lamp.

また、ロングパスフィルターに代えて設けたバンドパス
フィルターは、螢光ランプの低温点灯初期に赤外領域で
発生する多数のアルゴンスペクトルの大部分を遮断する
とともに、螢光ランプの安定点灯時に発生する水銀スペ
クトルを遮断し、やはり、赤外線リモートコントロール
信号による螢光ランプの点滅や調光制御が不動作ないし
は誤動作するのを改善できる。
In addition, the bandpass filter installed in place of the longpass filter blocks most of the argon spectrum that occurs in the infrared region during the initial low-temperature operation of the fluorescent lamp, and also blocks the mercury that is generated during stable operation of the fluorescent lamp. By blocking the spectrum, it is also possible to improve the inoperability or malfunction of the flashing and dimming control of the fluorescent lamp by infrared remote control signals.

そしてまた、シャーシ下面に、高周波点灯される並設さ
れた複数の螢光ランプと、螢光ランプ間に位置し赤外線
リモートコントロール信号の受光部を収納した受信部ケ
ースを設けて、透光カバーでおおう構成を備えた赤外線
リモートコントロール式螢光ランプ器具においては、特
に悪影響が大きいが、受光部を受信部ケースの一部を下
方に突出させた受光部収納部に収納し、この受光部収納
部下面を螢光ランプ下縁より低くすることで、螢光ラン
プ光に含まれる赤外光の受光部への直接入射を避けられ
るのはもちろん、透光カバー底面からの反射光の入射も
減少でき、悪影響を軽減できるとともに、受信部ケース
の受光部収納部のみを下方に突出し、受信部ケースの受
光部収納部以外の部分を螢光ランプ下縁より高くするこ
とによってこの部分に螢光ランプ光が直接当るようにな
り、受信部ケースの影が透光カバーに投影されるのを最
少限にでき、商品価値を阻害しない。
Furthermore, on the underside of the chassis, we installed a plurality of fluorescent lamps arranged in parallel that are lit at high frequency, and a receiver case located between the fluorescent lamps that houses the receiver for infrared remote control signals, and is covered with a transparent cover. In infrared remote control type fluorescent lamp equipment with a covering structure, the negative effect is particularly large, but the light receiving part is housed in a light receiving part housing part with a part of the receiving part case protruding downward, and this light receiving part storing part By making the bottom surface lower than the lower edge of the fluorescent lamp, you can not only prevent infrared light contained in the fluorescent lamp light from entering the receiver directly, but also reduce the incidence of reflected light from the bottom of the transparent cover. In addition to reducing the negative effects, by protruding only the light receiving part housing part of the receiving part case downward and making the part of the receiving part case other than the light receiving part storing part higher than the lower edge of the fluorescent lamp, the fluorescent lamp light is not transmitted to this part. The shadow of the receiver case can be minimized from being projected onto the translucent cover, and the product value will not be affected.

[実施例コ 本発明の実施例を図面を参照して説明する。[Example code] Embodiments of the present invention will be described with reference to the drawings.

まず、第1図と第2図に基づいて説明すれば、シャーシ
1の下面には、高周波点灯部2によって高周波点灯され
る複数の螢光ランプ3が並設される。螢光ランプ3は図
示のように直管型の他に、U字型のものでもよい。螢光
ランプ3の端部はソケット4に装着される。
First, referring to FIGS. 1 and 2, a plurality of fluorescent lamps 3 that are lit at high frequency by a high-frequency lighting section 2 are arranged in parallel on the lower surface of the chassis 1. The fluorescent lamp 3 may be of a U-shape instead of a straight tube type as shown in the figure. The end of the fluorescent lamp 3 is fitted into a socket 4.

図示されない送信器から送信される赤外線リモートコン
トロール信号5を受信して螢光ランプ3を点滅あるいは
調光制御する受信制御部(図示せず)を収納した受信部
ケース6は、螢光ランプ3間に位置し、赤外線リモート
コントロール信号5の受光部6aは受光部収納部6bに
収納される。6cは、受光部収納部6bに受光部6aに
臨むよう設けた窓孔である。
A receiver case 6 houses a reception controller (not shown) that receives an infrared remote control signal 5 transmitted from a transmitter (not shown) and controls the fluorescent lamp 3 to blink or dim. The light receiving section 6a of the infrared remote control signal 5 is housed in the light receiving section storage section 6b. Reference numeral 6c denotes a window hole provided in the light-receiving portion housing portion 6b so as to face the light-receiving portion 6a.

そして、受光部収納部6bは受信部ケース6の一部を下
方に突出させたものとし、この受光部収納部6b下面は
螢光ランプ3下縁より低く、受信部ケース6の受光部収
納部6b以外の下面は螢光ランプ3下縁より高くしてい
る。
The light receiving part housing part 6b is a part of the receiving part case 6 that protrudes downward, and the lower surface of the light receiving part storing part 6b is lower than the lower edge of the fluorescent lamp 3. The lower surfaces other than 6b are higher than the lower edge of the fluorescent lamp 3.

なお、受光部収納部6bとは突出部およびその上方部を
含めて総称するものとする。
Note that the light-receiving section storage section 6b is a general term that includes the protrusion and the upper part thereof.

乳白色樹脂あるいはプリズムカットを施した透明樹脂等
で形成された透光カバー7はシャーシ1をおおっている
A translucent cover 7 made of a milky white resin or a transparent resin with prism cuts covers the chassis 1.

なお、受光部6aがソケット4のほぼ積になるよう受信
部ケース6を設置すれば、螢光ランプ3からの赤外光の
影響をざらに小ざくできるが、受信部ケース6から高周
波点灯部2に接続する配線が長(なる。
Note that if the receiver case 6 is installed so that the light receiver 6a is approximately the same as the socket 4, the influence of infrared light from the fluorescent lamp 3 can be reduced. The wiring connected to 2 is long.

以上の構成は、螢光ランプ3の赤外光が受光される箇所
に赤外線リモートコントロール信号5の受光部6aを設
けた赤外線リモートコントロール、式螢光ランプ器具の
一種であり、受光部6aの前面にロングパスフィルター
あるいはバンドパスフィルター8を設けている。また、
これらのフィルター8は適宜0リング9を介して受光部
6aの前面に設けられる。
The above configuration is a type of infrared remote control type fluorescent lamp equipment in which a light receiving part 6a for an infrared remote control signal 5 is provided at a location where the infrared light of the fluorescent lamp 3 is received, and the front surface of the light receiving part 6a is A long-pass filter or band-pass filter 8 is provided. Also,
These filters 8 are provided on the front surface of the light receiving section 6a via an O-ring 9 as appropriate.

次に、これらのフィルター8の特性を説明する前に、螢
光ランプ30発生スペクトルを第3図と第4図を参照し
て説明する。
Next, before explaining the characteristics of these filters 8, the spectrum generated by the fluorescent lamp 30 will be explained with reference to FIGS. 3 and 4.

第3図は螢光ランプ3の周囲温度5°Cにおける点灯初
期時のスペクトルで、点灯後数分は波長約700nm以
上の赤外領域で、波長約740nm。
FIG. 3 shows the spectrum of the fluorescent lamp 3 at the initial stage of lighting at an ambient temperature of 5° C. The spectrum for several minutes after lighting is in the infrared region with a wavelength of about 700 nm or more, and the wavelength is about 740 nm.

760nm、  8 1 0nm、  830ni、 
 840nm、  9 10nm、 965nm等の多
数のアルゴンスペクトルが相当な強度で発生している。
760nm, 810nm, 830ni,
Numerous argon spectra such as 840 nm, 910 nm, 965 nm, etc. occur with considerable intensity.

なお、データシートの縦幅の都合上、スペクトルのレベ
ルを100%で頭打ちさせて記録しているが、100%
で頭打ちしているスペクトルは実際はざらに高いレベル
を持っており、アルゴンスペクトルは相当な強度で発生
しているのが分かる。
Please note that due to the vertical width of the data sheet, the spectral level is recorded with a ceiling of 100%, but 100%
It can be seen that the spectra that have reached a plateau are actually at a fairly high level, and the argon spectrum is generated at a considerable intensity.

第4図は螢光ランプ3の管温度が上昇した安定点灯時の
もので、アルゴンスペクトルは実質消滅し、かわりに波
長11013nの水銀スペクトルが発生している。なお
、周囲温度が約20’C以上の場合は点灯初期時からす
でに第4図とほぼ同等のスペクトル分布を示す。
FIG. 4 shows the stable operation of the fluorescent lamp 3 when the tube temperature has increased, and the argon spectrum has virtually disappeared and a mercury spectrum with a wavelength of 11013n has been generated instead. Note that when the ambient temperature is about 20'C or higher, a spectral distribution almost equivalent to that shown in FIG. 4 is already exhibited from the initial stage of lighting.

次に、フィルター8の特性について第5図を参照して説
明する。
Next, the characteristics of the filter 8 will be explained with reference to FIG.

まず、同図(A)は公知のショートバスフィルターの特
性で、第4図に示した水銀スペクトルを遮断して、赤外
線リモートコントロールに悪影響が出ないようにするも
のである。
First, FIG. 4A shows the characteristics of a known short-pass filter, which blocks the mercury spectrum shown in FIG. 4 to prevent an adverse effect on infrared remote control.

第5図(B)に示したロングパスフィルター8は、第3
図に示した通り螢光ランプ3の低温点灯初期に赤外領域
で発生する多数のアルゴンスペクトルの大部分を遮断す
るよう、図示しない送信器に使用される送信用LEDの
波長(−点鎖線のスペクトルで示すように通常約950
nm)、すなわち赤外線リモートコントロール信号5の
波長よりわずかに短かい波長を含みこれより短かい波長
領域を遮断するとともに、赤外線リモートコントロール
信号5の波長を含みこれより長い波長領域を透過する特
性を備えている。
The long pass filter 8 shown in FIG.
As shown in the figure, in order to block most of the many argon spectra generated in the infrared region at the initial stage of low-temperature lighting of the fluorescent lamp 3, the wavelength of the transmitting LED used in the transmitter (- Usually about 950 as shown in the spectrum
nm), that is, it has a characteristic of blocking a wavelength range that includes a wavelength slightly shorter than the wavelength of the infrared remote control signal 5 and is shorter than this, and transmits a wavelength range that includes the wavelength of the infrared remote control signal 5 and is longer than this. ing.

第5図(C)に示すバンドパスフィルター8は、螢光ラ
ンプ3の低温点灯初期に赤外領域で発生する多数のアル
ゴンスペクトルの大部分を遮断するよう送信用LEDの
波長、すなわち赤外線リモートコントロール信号5の波
長よりわずかに短かい波長を含みこれより短かい波長領
域を遮断するとともに、螢光ランプ3の安定点灯時に発
生する水銀スペクトルを含みこれより長い波長領域を遮
断し、赤外線リモートコントロール信号5の波長付近を
透過する特性を備えたものである。
The bandpass filter 8 shown in FIG. 5(C) controls the wavelength of the transmitting LED, that is, the infrared remote control, so as to block most of the many argon spectra generated in the infrared region during the initial stage of low-temperature lighting of the fluorescent lamp 3. In addition to blocking wavelengths that include a wavelength slightly shorter than the wavelength of the signal 5 and shorter wavelengths, it also blocks wavelengths that are longer than this and include the mercury spectrum generated when the fluorescent lamp 3 is stably lit. It has a characteristic of transmitting light around the wavelength of 5.

なお、第5図(B) 、 (C)において、点線は受光
部6aの感度特性を示す。
Note that in FIGS. 5(B) and 5(C), dotted lines indicate the sensitivity characteristics of the light receiving section 6a.

次に、第6図は周囲温度と赤外線リモートコントロール
信号5の直線到達距離(透光カバー7の底面に直交方向
の距III)の関係を示し、螢光ランプ3の点灯初期時
に測定したものである。
Next, FIG. 6 shows the relationship between the ambient temperature and the straight-line reach distance of the infrared remote control signal 5 (distance III perpendicular to the bottom surface of the transparent cover 7), which was measured at the initial stage of lighting of the fluorescent lamp 3. be.

まず、同図(A)のように公知のショートバスフィルタ
ーを使用する場合は、周囲温度が低い程到達距離が短か
くなっている。これは、前述のアルゴンスペクトルの影
響によるもので、5°C付近では6m程度しかない。
First, when using a known short-pass filter as shown in FIG. 5A, the lower the ambient temperature, the shorter the range. This is due to the effect of the argon spectrum mentioned above, and is only about 6 m near 5°C.

同図(B)はロングパスフィルターを使用した場合で、
アルゴンスペクトルの大部分が遮断されるため、低温時
の到達距離が改IIきれている。また、高温時の到達距
離は、点灯初期から発生している水銀スペクトルの影響
で若干劣化しているが、−応充分である。
Figure (B) shows the case when a long-pass filter is used.
Since most of the argon spectrum is blocked, the reach at low temperatures exceeds that of Reform II. Furthermore, the distance reached at high temperatures is somewhat degraded due to the influence of the mercury spectrum that has been generated since the initial stage of lighting, but it is still reasonably sufficient.

同図(C)はバンドパスフィルターによる場合で、やは
り低温時の到達距離が改善できるとともに、当然ながら
高温時の到達距離も良い。
The figure (C) shows the case using a band-pass filter, which can improve the range at low temperatures, and of course also improves the range at high temperatures.

[発明の効果〕 以上のとおり本発明の赤外線リモートコントロール式螢
光ランプ器具によれば、赤外線リモートコントロール信
号の受光部前面に設けたロングパスフィルターが、螢光
ランプの低温点灯初期に赤外領域で発生する多数のアル
ゴンスペクトルの大部分を遮断するため、螢光ランプの
低温点灯初期時において、赤外線リモートコントロール
信号による螢光ランプの点滅や調光制御が不動作ないし
は誤動作するのを相当改善できる。
[Effects of the Invention] As described above, according to the infrared remote control type fluorescent lamp device of the present invention, the long-pass filter provided in front of the infrared remote control signal receiving section can detect the infrared region in the early stage of low-temperature lighting of the fluorescent lamp. Since most of the numerous argon spectra generated are blocked, it is possible to considerably improve the inoperability or malfunction of the blinking or dimming control of the fluorescent lamp by an infrared remote control signal during the initial stage of low-temperature lighting of the fluorescent lamp.

また、バンドパスフィルターを用いると、螢光ランプの
低温点灯初期に赤外領域で発生する多数のアルゴンスペ
クトルの大部分を遮断するとともに、螢光ランプの安定
点灯時に発生する水銀スペクトルを遮断し、やはり、赤
外線リモートコントロール信号による螢光ランプの点滅
や調光+llt&jが不動作ないしは誤動作するのを改
善できる。
In addition, by using a bandpass filter, most of the argon spectrum that occurs in the infrared region when the fluorescent lamp is lit at a low temperature is blocked, and the mercury spectrum that is generated when the fluorescent lamp is stably lit is blocked. Again, it is possible to improve the inoperability or malfunction of the flashing and dimming +llt&j of the fluorescent lamp caused by the infrared remote control signal.

そしてまた、シャーシ下面に、高周波点灯される並設さ
れた複数の螢光ランプと、螢光ランプ間に位置し赤外線
リモートコントロール信号の受光部を収納した受信部ケ
ースを設けて、透光カバーでおおう構成を備えた赤外線
リモートコントロール式螢光ランプ器具においては、特
に悪影響が大きいが、受光部を受信部ケースの一部を下
方に突出させた受光部収納部に収納し、この受光部収納
部下面を螢光ランプ下縁より低くすることで、螢光ラン
プ光に含まれる赤外光の受光部への直接入射を避けられ
るのはもちろん、透光カバー底面からの反射光の入射も
減少でき、悪影響を軽減できるとともに、受信部ケース
の受光部収納部のみを下面に突出し、受信部ケースの受
光部収納部以外の部分を螢光ランプ下縁より高くするこ
とによってこの部分に螢光ランプ光が直接歯るようにな
り、受信部ケースの影が透光カバーに投影されるのを最
少限にでき、商品価値を阻害しない。
Furthermore, on the underside of the chassis, we installed a plurality of fluorescent lamps arranged in parallel that are lit at high frequency, and a receiver case located between the fluorescent lamps that houses the receiver for infrared remote control signals, and is covered with a transparent cover. In infrared remote control type fluorescent lamp equipment with a covering structure, the negative effect is particularly large, but the light receiving part is housed in a light receiving part housing part with a part of the receiving part case protruding downward, and this light receiving part storing part By making the bottom surface lower than the lower edge of the fluorescent lamp, you can not only prevent infrared light contained in the fluorescent lamp light from entering the receiver directly, but also reduce the incidence of reflected light from the bottom of the transparent cover. In addition to reducing the negative effects, by protruding only the light receiving part housing part of the receiving part case to the bottom surface and making the part of the receiving part case other than the light receiving part storing part higher than the lower edge of the fluorescent lamp, the fluorescent lamp light is not transmitted to this part. The shadow of the receiver case can be minimized from being projected onto the translucent cover, and the product value will not be affected.

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

第1図は本発明の一実施例を示す赤外線リモートコント
ロール式螢光ランプ器具の縦断面図、第2図は第1図と
は切断面が直交方向の縦断面図、第3図は螢光ランプの
点灯初期時(5°C)のスペクトル分布図、第4図は螢
光ランプの安定点灯時のスペクトル分布図、第5図(A
) 、 (B) 、 (C)は各フィルターの透過率を
示す特性図、第6図(A)。 (B)、(C)は第5図の各フィルターを使用したとき
の赤外線リモートコントロール信号の到達距離を示す特
性図である。 1・・・・・・シャーシ、3・・・・・・螢光ランプ、
5・・・・・・赤外線リモートコントロール信号、6・
・・・・・受信部ケース、6a・・・・・・受光部、6
b・・・・・・受光部収納部、7・・・・・・透光カバ
ー、8・・・・・・ロングパスフィルターまたはバンド
パスフィルター 代理人の氏名 弁理士 粟野重孝 ほか1名第 図 第 図 う良表 【面1 第 図
FIG. 1 is a longitudinal cross-sectional view of an infrared remote control type fluorescent lamp device showing an embodiment of the present invention, FIG. 2 is a longitudinal cross-sectional view in a direction perpendicular to FIG. 1, and FIG. Figure 4 is a spectrum distribution diagram when the lamp is initially lit (5°C), Figure 4 is a spectrum distribution diagram when the fluorescent lamp is stably lit, Figure 5 (A
), (B), (C) are characteristic diagrams showing the transmittance of each filter, and FIG. 6 (A). (B) and (C) are characteristic diagrams showing the reach distance of an infrared remote control signal when each filter shown in FIG. 5 is used. 1... Chassis, 3... Fluorescent lamp,
5...Infrared remote control signal, 6.
...Receiving section case, 6a... Light receiving section, 6
b...Receiver storage compartment, 7...Transparent cover, 8...Name of agent for long pass filter or band pass filter Patent attorney Shigetaka Awano and one other person Figure 1 Figure 1 [Side 1 Figure

Claims (3)

【特許請求の範囲】[Claims] (1)螢光ランプの赤外光が受光される箇所に赤外線リ
モートコントロール信号の受光部を設けた赤外線リモー
トコントロール式螢光ランプ器具において、受光部の前
面にロングパスフィルターを設け、このロングパスフィ
ルターは、螢光ランプの低温点灯初期に赤外領域で発生
する多数のアルゴンスペクトルの大部分を遮断するよう
赤外線リモートコントロール信号の波長よりわずかに短
かい波長を含みこれより短かい波長領域を遮断するとと
もに、赤外線リモートコントロール信号の波長を含みこ
れより長い波長領域を透過する特性を備えた赤外線リモ
ートコントロール式螢光ランプ器具。
(1) In an infrared remote control type fluorescent lamp equipment in which a receiver for an infrared remote control signal is provided at the location where the infrared light of the fluorescent lamp is received, a long pass filter is provided in front of the receiver. In order to block most of the many argon spectra generated in the infrared region during the initial stage of low-temperature lighting of the fluorescent lamp, it includes wavelengths slightly shorter than the wavelength of the infrared remote control signal and blocks wavelengths shorter than this. , an infrared remote control fluorescent lamp device having a characteristic of transmitting wavelengths including the wavelength of the infrared remote control signal and longer wavelengths.
(2)ロングパスフィルターに代えてバンドパスフィル
ターを設け、このバンドパスフィルターは、螢光ランプ
の低温点灯初期に赤外領域で発生する多数のアルゴンス
ペクトルの大部分を遮断するよう赤外線リモートコント
ロール信号の波長よりわずかに短かい波長を含みこれよ
り短かい波長領域を遮断するとともに、螢光ランプの安
定点灯時に発生する水銀スペクトルを含みこれより長い
波長領域を遮断し、赤外線リモートコントロール信号の
波長付近を透過する特性を備えた請求項1記載の赤外線
リモートコントロール式螢光ランプ器具。
(2) A band-pass filter is provided in place of the long-pass filter, and this band-pass filter is designed to block most of the argon spectrum generated in the infrared region during the initial low-temperature operation of the fluorescent lamp. In addition to blocking wavelengths that include wavelengths slightly shorter than this and shorter wavelengths, it also blocks wavelengths that are longer than this, including the mercury spectrum that occurs when a fluorescent lamp is stably lit, and it blocks wavelengths that are near the wavelength of infrared remote control signals. 2. An infrared remote controlled fluorescent lamp apparatus as claimed in claim 1 having transmitting properties.
(3)シャーシ下面に、高周波点灯される並設された複
数の螢光ランプと、螢光ランプ間に位置し赤外線リモー
トコントロール信号の受光部を収納した受信部ケースを
設けて、透光カバーでおおう構成を備え、受光部は受信
部ケースの一部を下方に突出させた受光部収納部に収納
され、この受光部収納部下面は螢光ランプ下縁より低く
、受信部ケースの受光部収納部以外の下面は螢光ランプ
下縁より高い請求項1または2記載の赤外線リモートコ
ントロール式螢光ランプ器具。
(3) On the bottom of the chassis, there are multiple fluorescent lamps installed in parallel that are lit at high frequency, and a receiver case that is located between the fluorescent lamps and houses the receiver for infrared remote control signals, and is covered with a transparent cover. The light receiving part is housed in a light receiving part housing part with a part of the receiving part case projecting downward, and the lower surface of this light receiving part storing part is lower than the lower edge of the fluorescent lamp. 3. The infrared remote control type fluorescent lamp apparatus according to claim 1, wherein the lower surface other than the lower part is higher than the lower edge of the fluorescent lamp.
JP1136401A 1989-05-30 1989-05-30 Infrared remote control fluorescent lamp fixture Expired - Lifetime JPH065638B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP1136401A JPH065638B2 (en) 1989-05-30 1989-05-30 Infrared remote control fluorescent lamp fixture

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP1136401A JPH065638B2 (en) 1989-05-30 1989-05-30 Infrared remote control fluorescent lamp fixture

Publications (2)

Publication Number Publication Date
JPH031487A true JPH031487A (en) 1991-01-08
JPH065638B2 JPH065638B2 (en) 1994-01-19

Family

ID=15174305

Family Applications (1)

Application Number Title Priority Date Filing Date
JP1136401A Expired - Lifetime JPH065638B2 (en) 1989-05-30 1989-05-30 Infrared remote control fluorescent lamp fixture

Country Status (1)

Country Link
JP (1) JPH065638B2 (en)

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH06333678A (en) * 1993-05-21 1994-12-02 Matsushita Electric Works Ltd Lighting device
JPH10270175A (en) * 1997-03-25 1998-10-09 Sanyo Electric Co Ltd Fluorescent lamp illuminator with remote control function and infrared remote controller used in it
JP2001118685A (en) * 1999-10-19 2001-04-27 Matsushita Electric Works Ltd Lighting apparatus
JP2020502750A (en) * 2017-05-27 2020-01-23 李玉麟 Drive system
US11340640B2 (en) 2018-05-03 2022-05-24 Yu-Lin Lee Driver circuit

Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS52121980A (en) * 1976-04-07 1977-10-13 Toshiba Corp Fluorescent lamp
JPS6345929A (en) * 1986-08-12 1988-02-26 Matsushita Electric Ind Co Ltd Infrared ray remote control equipment
JPS6351473U (en) * 1986-09-22 1988-04-07
JPS63160610U (en) * 1987-04-09 1988-10-20
JPS6444523U (en) * 1987-09-14 1989-03-16

Patent Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS52121980A (en) * 1976-04-07 1977-10-13 Toshiba Corp Fluorescent lamp
JPS6345929A (en) * 1986-08-12 1988-02-26 Matsushita Electric Ind Co Ltd Infrared ray remote control equipment
JPS6351473U (en) * 1986-09-22 1988-04-07
JPS63160610U (en) * 1987-04-09 1988-10-20
JPS6444523U (en) * 1987-09-14 1989-03-16

Cited By (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH06333678A (en) * 1993-05-21 1994-12-02 Matsushita Electric Works Ltd Lighting device
JPH10270175A (en) * 1997-03-25 1998-10-09 Sanyo Electric Co Ltd Fluorescent lamp illuminator with remote control function and infrared remote controller used in it
JP2001118685A (en) * 1999-10-19 2001-04-27 Matsushita Electric Works Ltd Lighting apparatus
JP2020502750A (en) * 2017-05-27 2020-01-23 李玉麟 Drive system
US11191143B2 (en) 2017-05-27 2021-11-30 Yu-Lin Lee Driver system
US11340640B2 (en) 2018-05-03 2022-05-24 Yu-Lin Lee Driver circuit

Also Published As

Publication number Publication date
JPH065638B2 (en) 1994-01-19

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