顕微鏡用高出力LED照明Solis®


  • High-Power LEDs Designed for Microscopy Applications
  • Typical Collimated Output Powers from 570 mW to 9.8 W
  • Compatible with Thorlabs’ Port Adapters for Cerna®,
    Nikon, Olympus, Leica, and Zeiss Microscopes
  • Two Driver Options

SOLIS-1D

Cold White LED,
8.75 W Output Power (Typical)

 Application Idea

A Solis® High-Power LED Installed on the Epi-Illuminator Module of a Cerna Modular Microscope

Related Items


Please Wait
Table 1.1  Wavelength Specifications
Item #aColor
(Click for
Spectrumb)
Dominant
Wavelengthc
Typical
Collimated
Output Powerd
SOLIS-365CUV365 nm4.0 W
SOLIS-385CUV385 nm5.1 W
SOLIS-405DUV405 nm9.8 W
SOLIS-415CViolet415 nm7.0 W
SOLIS-455DRoyal Blue455 nm9.5 W
SOLIS-470CBlue470 nm3.7 W
SOLIS-505CCyan505 nm1.5 W
SOLIS-525CGreen525 nm3.1 W
SOLIS-565DLime565 nm8.6 W
SOLIS-590CAmber590 nm570 mW
SOLIS-595CAmber595 nm1.1 W
SOLIS-617COrange617 nm2.4 W
SOLIS-620DRed620 nm4.72 W
SOLIS-660DDeep Red660 nm3.8 W
SOLIS-740CFar Red740 nm3.3 W
SOLIS-850CIR850 nm3.6 W
SOLIS-940CIR940 nm3.7 W
SOLIS-1DCold WhiteN/Ae8.75 W
SOLIS-2CWarm WhiteN/Af4.0 W
SOLIS-3CDay Light WhiteN/Ag4.6 W
  • これらの仕様は公称値です。詳細については、「仕様」のタブをご参照ください。
  • LEDのスペクトルデータファイルはこちらからダウンロードいただけます。
  • 可視光LEDの主波長は人間の目が最も明るく感じるLEDの波長です。UVならびに赤外LEDの主波長はピーク波長に相当します。可視光LEDの主波長は、分光器で測定したピーク波長と一致しない場合があります。
  • When Driven with the Max Current
  • このLEDの相関色温度は6500 Kです。
  • このLEDの相関色温度は3000 Kです。
  • このLEDの相関色温度は5700 Kです。

特長

  • UV~近赤外(NIR)の波長をご用意(右の表をご覧ください) 
  • ファンレス設計が振動を発生させず効果的に放熱
  • 軽量パッケージで顕微鏡ポートに直接取り付けが可能。液体ライトガイド(LLG)は不要
  • Ø48.3 mmの大きな開口からLEDをコリメートして出力
  • 対応ドライバ使用時のスマートセーフティ機能を有効にする内蔵エレクトロニクス 
  • Olympus、Nikon、Leica、Zeiss、Cerna®顕微鏡ポート用アダプタ(別売り。下記参照)に対応

独自のSolis® LEDシステムを構築するには

  • Solis LEDヘッド
  • LEDドライバ(別売り。いずれかをお選びください)
    • DC22:プラグ&プレイドライバ
    • DC2200:タッチパネル式ドライバ
  • 顕微鏡ポート用アダプタ(対応製品については下の表をご覧ください) 

LED照明Solisは、軽量かつ振動のないパッケージから数ワットの光を出力します。高出力で、顕微鏡の落射蛍光照明光路に直接結合できます。コリメートされたLED光を通すØ48.3 mmの大きな開口部は、アダプタ(下記参照)を介してOlympus、Nikon、Leica、Zeissなどの多くの業界標準の顕微鏡の落射蛍光照明光路ほか、当社のCerna顕微鏡の多くに使用されている6キューブの落射蛍光照明光路に取り付けられます。取付けには当社の顕微鏡ポート用アダプタ(別売り。下記参照)を1つLED筐体の先にねじ込み、対応する顕微鏡に固定します。Solis LEDにはLEDの出射ビームプロファイルをさらに均一化する拡散板(型番DG20-1500)が付属しており、試料面に均等に照明を当てる場合にお使いいただけます。この拡散板はお客様による取付けが可能です。

軽量設計のこの製品は、パッシブ冷却が特長です。ファンが内蔵されていないため、通常顕微鏡のセットアップで画質を損なう振動が発生しません。LEDは、通気口付きの127.8 mm x 127.8 mm x 162.0 mmの筐体内のヒートシンクに取り付けられていることにより、効果的に放熱されています。より一層の保護機能としてLEDの内部温度が95 °Cに達すると、プログラムされた内蔵メモリがLEDの自動シャットダウンを作動させ、LEDのオーバーヒートによるダメージを防いでいます。こちらのLEDは 95 °C以下に冷却されると再起動します。 Solis LEDご使用時の性能についての詳細は、「性能」タブをご参照ください。 

Solis LED Drivers
Click to Enlarge

当社ではSolis® LED駆動用にプラグ&プレイドライバDC22(左)とタッチパネル式ドライバDC2200(右)の2種類をご用意しています。

Solis LED用ドライバ
当社ではSolis LED用ドライバを2種類ご用意しています。プラグ&プレイSolis LEDドライバDC22(別売り、下記参照)には1個のノブがあり、LEDの電流制御とON/OFFを行うことができます。また、外部からTTL変調信号を入力するためのSMA端子も付いています。

タッチパネル式LEDドライバDC2200(別売り、下記参照)には直感的に操作できるタッチパネル式インターフェイスが付いており、Solis LEDヘッドに対する基本的な電流制御のほかに高度な変調機能もサポートしています。このドライバでは、LEDの出力を最大輝度に対する割合で設定したり、LEDの駆動電流の設定や調整をしたりすることができます。変調制御が必要な用途向けに、こちらのドライバには内部および外部変調モードとパルスモードが付いています。内部変調モードでは正弦波、矩形波、三角波のほか、長方形のパルス列の生成もできます。外部変調モードでは、ファンクションジェネレータからの任意波形や、他の実験装置とON/OFF状態を同期させるための外部TTL信号にも対応しています。 

どちらのドライバも、Solis LEDの内部メモリから電流リミット値を自動的に読み取ってドライバに設定し、LEDを過電流から保護します。こちらの2つのドライバの比較については「Solis LEDドライバ」タブをご参照ください。

Item #aInfoColor
(Click for
Spectrumb)
Dominant
Wavelengthc
Minimum
Collimated
Output Powerd
Typical
Collimated
Output Powerd
Max
Current
(CW)
Forward
Voltagee
Bandwidth
(FWHM)
Emitter
Size
Typical
Lifetime
Collimating
Optics
(Installed)
SOLIS-365CinfoUV365 nm3.0 W4.0 W4500 mA4.0 V10 nm2 mm x 2 mm>12 000 hLB1723-A
ACL25416U-A
SOLIS-385CinfoUV385 nm4.0 W5.1 W4500 mA4.0 V12 nm2 mm x 2 mm>29 000 h
SOLIS-405DinfoUV405 nm6.8 W9.8 W5000 mA8.2 V17 nm2.3 mm 2.3 mm>40 000 h
SOLIS-415CinfoViolet415 nm5.8 W7.0 W2000 mA14.0 V14 nm3.5 mm x 3.5 mm>10 000 h
SOLIS-455DinfoRoyal Blue455 nm6.5 W9.5 W10 000 mA3.4 V21 nm3 mm x 3 mm>40 000 h
SOLIS-470CinfoBlue470 nm3.0 W3.7 W4000 mA8.0 V34 nm2.8 mm x 2.8 mm>10 000 h
SOLIS-505CinfoCyan505 nm1.0 W1.5 W4000 mA7.6 V42 nm2.8 mm x 2.8 mm>10 000 h
SOLIS-525CinfoGreen525 nm2.4 W3.1 W9000 mA5.0 V32 nmØ3 mm>10 000 h
SOLIS-565DinfoLime565 nm5.7 W8.6 W4000 mA13 V (Typ.)100 nm3.2 mm x 2.6 mm>10 000 h
SOLIS-590CinfoAmber590 nm350 mW570 mW1000 mA12.5 V16.5 nm3.2 mm x 3.2 mm>10 000 h
SOLIS-595CinfoAmber595 nm700 mW1.1 W700 mA14.0 V77 nm2.8 mm x 2.8 mm>10 000 h
SOLIS-617CinfoOrange617 nm1.5 W2.4 W10 000 mA4.0 V17 nm2.6 x 3.2 mm>10 000 h
SOLIS-620DinfoRed620 nm3.47 W4.72 W10 000 mA3.35 V (Typ.)20 nm3 mm x 3 mm>10 000 h
SOLIS-660DinfoDeep Red660 nm2.6 W3.8 W10 000 mA2.4 V (Typ.)26 nm2.09 mm x 1.87 mm>10 000 h
SOLIS-740CinfoFar Red740 nm2.0 W3.3 W1500 mA13.4 V45 nm3.2 mm x 3.2 mm>10 000 hLB1723-B
ACL25416U-B
SOLIS-850CinfoIR850 nm2.7 W3.6 W1000 mA13.8 V39 nmØ6.5 mmf>40 000 h
SOLIS-940CinfoIR940 nm2.5 W3.7 W2000 mA7.5 V55 nm3.2 mm x 3.2 mm>10 000 h
SOLIS-1DinfoCold WhiteN/Ag5.81 W8.75 W10 000 mA4.02 V (Typ.)N/A3 mm x 3 mm>10 000 hLB1723-A
ACL25416U-A
SOLIS-2CinfoWarm WhiteN/Ah3.2 W4.0 W1500 mA12.5 VN/A5 mm x 5 mm>100 000 h
SOLIS-3CinfoDay Light WhiteN/Ai3.5 W4.6 W10 000 mA3.5 VN/AØ4.25 mm>10 000 h
  • これらの仕様は公称値です。
  • LEDのスペクトルデータファイルはこちらからダウンロードいただけます。
  • 可視光LEDの主波長は人間の目が最も明るく感じるLEDの波長です。 UVならびに赤外LEDの主波長はピーク波長に相当します。可視光LEDの主波長は、分光器で測定したピーク波長と一致しない場合があります。
  • 最大電流で測定(CW)。LEDの出力パワーは、LEDに供給する電流を下げることによって低くすることができます。
  • 特記のない限り最大値
  • このLEDは4つのエミッタと規定の直径のレンズで構成されています。
  • このLEDの相関色温度は6500 Kです。
  • このLEDの相関色温度は3000 Kです。
  • このLEDの相関色温度は5700 Kです。
Scaled SOLIS Spectra
Click to Enlarge

Click Here for Data
Solis LEDの典型的なコリメート光の比較。実際のスペクトルはLEDによって仕様範囲内で異なる場合があります。
General Specifications
Clear ApertureØ48.3 mm (Ø1.90")
Weight1 kg
Dimensions127.8 mm x 127.8 mm x 162 mm
(5.03" x 5.03" x 6.38")
Operating Temperature (Non-Condensing)0 to 40 °C
Storage Temperature-40 to 70 °C
Internal Temperature to Trigger Automatic Shut Off95 °C
Diffuser (Included)DG20-1500
Two Retaining Rings (Included)SM2RR

LEDの出力パワー
LEDの実際の出力スペクトルやトータル出力パワーは、製造ロットの違いや、温度や電流な どの動作パラメータによって変動します。 適切なLEDをお選びいただくために出力の典型値と最低値を規定しました。 高出力Solis LEDは、最大電流において少なくても、記載されている最低値パワーを出力します。 右のスペクトルは、公称波長が異なるLEDの出力値を比較できるよう、各LEDの典型出力値(コリメート出力)で規格化しています。 このグラフで示されている強度は代表値であり、絶対値ではありません。 すべてのマウント済み高出力LEDの規格化スペクトルデータ(エクセルファイル)はこちらからダウンロードいただけます。


Click to Enlarge

生データはこちらからダウンロードいただけます。
出力パワーは24時間安定しています。グラフ線の小さな変動は環境温度の変動よるものです(±2 °C)。

Click to Enlarge
上のグラフは、典型的なパワーで規格化されたSOLIS-1D、SOLIS-2C、SOLIS-3Cのスペクトルを示しています。青い網掛け領域ではスペクトルフラックスが下がります。SOLIS-3Cは、この波長範囲においてより大きな光パワーを必要とする用途(GFPの励起など)に適しています。

室温上昇下での安定性

こちらのSolis® LEDの放熱は安定な出力のために最適化されています。ヒートシンクが直接LEDマウントに取り付けられていることにより適切な熱的接触が得られているため、ジャンクション温度上昇が最小限に抑えられ、LEDの寿命を長くしています。

LEDの特性の1つとして、時間の経過と共にパワーが自然に低下することがあげられます。ほとんどの場合、パワーは緩やかに低下しますが、急速な低下や完全な停止、あるいは故障が突然起こることもあります。 LEDの寿命は、規定の割合のLEDが、あるパワーレベル以下に低下するまでの時間で定義されます。寿命測定のパラメータはBXX/LYYで表され、ここでXXはその種類のLEDで寿命が過ぎた後の出力パワーが規定値のYY%以下になるLEDの割合を示します。当社では、LEDの寿命をB50/L50で表しますが、これはその型番のLEDのうち50%のLEDの光パワーが規定の寿命時間が経過した時に初期値の50%以下に低下するという意味です。例えば、規定の寿命時間を経過したときに、定格出力パワー4000 mWのLED100個のうち50個の出力パワーが、2000 mW以下に低下するということです。

Solis LEDは室温0~40 °Cで動作可能です。実験用に試料や顕微鏡の温度を上げる必要があるなら、室温を上げると便利な場合があります。右のグラフではLED SOLIS-3Cの24時間の出力パワー値を示しています。初期のウォームアップ後、安定的な出力パワーが維持されています。

蛍光物質の励起用に大パワー出力

Solis LED光源はGFPまたはGFPから派生した蛍光タンパク質のイメージング用に設計されています。当社では特定の波長用のLEDのほかにも可視スペクトル全域に対応する広帯域LEDをご用意しております。SOLIS-1D、SOLIS-2C、SOLIS-3Cの広帯域LED光源は多くの蛍光物質に高パワーの励起光を照射します。しかし、右のグラフでご覧いただけるように出力パワーはすべての波長において同じではありません。多くのLEDは470 nm~520 nmで出力パワーが落ちます。これはほとんどのイメージング用途に影響はありませんが、光に敏感な用途ではこの領域でより高いパワーが必要な場合があります。

450 nm~650 nmで比較的一定のパワーを出力するLED SOLIS-3Cは、SOLIS-2Cと比較して高いパワーを出力します。これを証明するために、当社ではSOLIS-3Cの放射照度を測定しました。測定にはLEDから軸上200 mmの位置にディテクタS120VC、そしてその前に480 nmバンドパスフィルタFB480-10(旧製品)を設置しました。フィルタ付きSOLIS-3Cの放射照度は45 µW/mm2でした。これにより、SOLIS-2Cと比較してSOLIS-3Cの方がこの波長範囲で高い出力パワーが必要な場合に適していることが分かります。なお、放射照度の測定値はスペクトル全域の代表値ではなく、470 nm~490 nmでの値です。

Solis® LEDピン配列

Solis Connector
オス型12ピンNeutrik MiniCONコネクタ
PinConnection
1LED Cathode
2LED Cathode
3Not Used
4LED Anode
5LED Anode
6LED Anode
7LED Anode
8LED Cathode
9LED Cathode
10Not Used
11EEPROM (Data) I/O
12EEPROM (Data) Ground

DIYで取り付け

Solis® LEDは顕微鏡ポートに簡単に取り付けられるよう設計されていますが、光学テーブルやブレッドボードにも取り付けが可能です。 M6タップ穴が筐体の後ろの四隅に付いていて、カスタムの取り付け用途に対応します。前の開口部はSM2内ネジ付きで、当社のSM2レンズチューブ60 mmケージシステムが取り付けられます。

下の写真はSolis LEDを光学テーブルに取り付けた例です。上の写真では、ケージプレートとØ25.4 mm(Ø1インチ)ポストを用いてSolis LEDを取り付けています。一方、下の写真では、Ø50 mm~Ø50.8 mm(Ø2インチ)レンズチューブ、レンズチューブ用スリップリング、Ø12.7 mm(Ø1/2インチ)ポスト、Ø12 mm~Ø12.7 mm(Ø1/2インチ)ポストホルダを用いてSolis LEDを取り付けています。各セットアップに使用している部品は各表に掲載しています。

High-Power LED
Click to Enlarge

アダプタSM2T2、60 mmケージプレートLCP34(/M)Ø1インチポストで光学テーブルに取り付けられたSOLIS-1D
Cage Plate Mounting
DescriptionImperial Item #Metric Item #Quantity
Solis® LED for MicroscopySee Below for Options1
SM2 (2.035"-40) Coupler, External ThreadsSM2T21
60 mm Threaded Cage Plate, 0.5" Thick (Two SM2RR Retaining Rings Included)LCP34LCP34/M1
Ø1" Pedestal Pillar Post, 8-32 (M4) TapsØ1" Post
(RS1.5P8E Shown)
Ø25.0 mm Post1
Clamping Fork, 1/4"-20 (M6) Captive ScrewCF125C or CF175CCF125C/M or CF175C/M1
Lens Tube Mounting
DescriptionImperial Item #Metric Item #Quantity
Solis® LED for MicroscopySee Below for Options1
SM2 (2.035"-40) Lens TubeSM2L151
Ø2.20" SM2 Slip Rings, 8-32 (M4) TapSM2RCSM2RC/M2
Ø1/2" Post, 8-32 (M4) SetscrewØ1/2" PostØ1/2" Post2
Ø1/2" Post HolderØ1/2" Post HolderØ1/2" Post Holder2
Post Holder BaseBA2BA2/M1
Scaled SOLIS Spectra
Click to Enlarge

レンズチューブSM2L15を1個、レンズチューブ用スリップリングSM2RC(/M)を2個、Ø1/2インチポストを2本、ポストホルダBA2(/M)を1個用いて光学テーブルに取り付けられたSOLIS-1D
Components for Cerna® Compatibility
Epi-Illumination
CSE2100 or CSE2200 Epi-Illuminator Module with Turret for Six Filter Sets
SM2A56 Dovetail Adapter
Click to Enlarge
LEDを正しく固定すれば、その他の支持は必要ありません。 
Click to Enlarge
Solis® LEDと落射照明モジュールCSE2100の接続 

Cerna®顕微鏡システムでのSolis®の使用

Solis® LEDには狭帯域または広帯域のスペクトルを有するタイプがあり、当社のCerna顕微鏡プラットフォームにおいて様々な用途にお使いいただけます。

  • 蛍光顕微鏡
  • 落射型(反射型)顕微鏡 
  • 近赤外(NIR)・赤外(IR)顕微鏡 

Solis LEDはCerna顕微鏡の落射照明用光源としてお勧めしており、落射照明モジュールCSE2100またはCSE2200に取り付けることができます。

Solis LEDを落射照明モジュールに取り付けるには、D3Tオス型アリ溝&SM2外ネジ付きアダプタ(型番SM2A56)が必要です。まずアダプタをしっかりとSolis LEDにねじ込みます。アダプタの落射照明モジュールへの取り付けにはアリ溝を使用します。アダプタとLEDをモジュールの背面に挿入し、2 mm六角レンチを用いて側面の止めネジ(セットスクリュ)を締めてアリ溝を固定します。詳細は右の写真をご覧ください。また顕微鏡のアリ溝での接続については落射照明モジュールの製品ページをご覧ください。 

Solis LEDを透過照明型の構成に使用する場合には当社までご連絡ください。

Thorlabs offers two options for driving our Solis® LEDs. The DC22 driver is a basic option that allows users to control the intensity of their LED using a control knob on the top, via an external analog or TTL signal for modulation, or via USB for software control. For more advanced applications, our DC2200 driver provides a touchscreen interface that allows users to control the LED current, select internal or external modulation modes, and more. Table 7.1 provides a comparison of key controller features.

Table 7.1  Solis® LED Driver Selection Guide
Item # DC22 DC2200
Photo (Click to Enlarge) DC22 Solis LED Driver DC2200 LED Driver
LED Current / Forward Voltage (Max) 0.1 to 10.0 A / 14.0 Va 1.0 A / 50.0 Vb
2.0 A / 35.0 Vb
4.0 A / 15.0 Vb
5.0 A / 10.0 Vb
10.0 A / 5.0 Vb
Noise and Ripple
<2 mA (at 1 A over 2 Ω)c <100 µA from 0.0 to 4.0 Ad
<200 µA from 4.0 to 10.0 Ad
Internal Modulation Modes - 0.1 Hz to 20 kHz (PWMe Mode)
1 µs to 10 s On or Off Time (Pulse Mode)
20 Hz to 100 kHz (Internal Modulation Mode
with Sine, Square, Triangle Waveforms)
External Modulation
(Arbitrary Waveform)
DC - 1 kHz DC - 250 kHz
[Small Signal Bandwidth (Sine)]f
TTL Modulation (External) DC to 1 kHz (Square Wave, PWMe) DC to ≥18 kHzg
LED Control Interface Knob to Control LED Current,
SMA Port for TTL and External Analog Modulation
Easy-to-Navigate Touchscreen Interface,
Brightness and Constant Current Operating Modes,
Internal and External Modulation Modes,
SMA Port for External Modulation Accepts
TTL Signal or Waveform from a Function Generator,
USB Interface for Remote Control
Current Limit Automatically Read and Set from the Solis LED's Internal Memory to Protect the LED from Overdriving
External Software Interface DC22 and DC40 GUI DC2200 GUI
Other Compatible LEDs - Mounted
Collimated
Fiber Coupled
MCPCB Mountedh
  • The maximum LED current and forward voltage are dependent on each other: Item # DC22 cannot drive an LED with a 14 V forward voltage at 10 A. It is compatible with all Solis LEDs and will automatically select the appropriate current/voltage combination for the connected Solis LED.
  • For Solis LEDs connected using Terminal 1. The DC2200 can also be used to drive Thorlabs' mounted, collimated and fiber-coupled LEDs, which use a separate terminal and are subject to different current and voltage limitations. See the complete web presentation for details.
  • 1 Hz to 1 MHz, RMS, Typical
  • 1 Hz to 10 MHz, RMS, Typical
  • PWM = Pulse Width Modulation
  • Small Signal Bandwidth: Modulation not exceeding 20% of full scale current. The driver accepts other waveforms, but the maximum frequency will be reduced.
  • Given for an output current at "High" TTL level not exceeding 10% of the selected current range limit.
  • Requires the CAB-LEDD1 cable.
Minimum System Requirements
Operating SystemWindows® 10 (32-Bit and 64-Bit),
Windows® 11
Processor (CPU)1 GHz
Memory (RAM)5012 MB
Hard Drive200 MB of Available Disk Space (64-Bit)
Graphics Card Resolution1280 x 768
InterfaceFree USB 2.0 Port

Software

Software Version 1.1.1 (September 5, 2025)
Firmware Version 2.7.3 (September 5, 2025)

Click the link below to download the DC22 LED Driver Software.

Software Download

Software for the DC22 LED Driver 

This software GUI for the DC22 LED Driver allows for parallel, remote-controlled operation of up to 10 individual DC22 LED drivers. The GUI enables the user to turn on and off the LED, precisely input the current limit, adjust the set current, choose the operation mode, and save the settings for later use. 

Additionally, the DC22 LED Driver and GUI will recognize when an LED with Thorlabs' EEPROM technology is connected and automatically input the current limit. Please see the user manual for more details.

The available software can be downloaded by clicking on the link in the Software box.


ドライバDC2200用ソフトウェア

ソフトウェアは下記のリンクよりダウンロードいただけます。

ソフトウェア

ソフトウェア バージョン 1.7 (2022年6月21日)
ファームウェア バージョン 1.4.2 (2022年6月21日)

DC2200用GUIソフトウェア、ファームウェア、ファームウェアアップグレードウィザードのダウンロード

Software Download

Posted Comments:
user  (posted 2024-11-12 12:46:03.117)
I'd like to know how small spot can be achieved for SOLIS-1D. So could you give me the detailed information on collimation optics LB1723-A and ACL25416U-A, such as distance between them and from the emitter so that I can calculate the collimating profile using ABCD matrix.
hkarpenko  (posted 2024-11-25 12:59:13.0)
Dear customer, thank you for your feedback. We cannot share the exact distances used for this LED. However you can use the divergence angle to simulate the source. I will contact you directly to discuss this further with you.
哲司 小山  (posted 2023-12-05 11:28:47.673)
ケーブルは付属してますか? 付属の場合の長さを教えてください.
dpossin  (posted 2023-12-05 09:32:23.0)
Dear 哲司 小山, Thank you for your feedback. The cable length of our SOLIS is 2m.
ruichen fu  (posted 2023-11-17 11:35:41.767)
I would like to ask if you have the ZEMAX files for SOLIS-470C. Thanks.
fmortaheb  (posted 2023-11-20 04:11:37.0)
Thank you very much for contacting us. I will reach out to you directly regarding your inquiry.
user  (posted 2023-06-26 18:00:43.387)
Hello, What is the divergence angle for the Solis? Thanks, Liza
wskopalik  (posted 2023-06-28 09:07:13.0)
Thank you very much for your feedback! The divergence angle of the SOLIS LEDs is typically in the range of 10° (full angle). There are however differences between the different wavelength versions because these use different LED chips. I will contact you directly to provide further assistance.
Yigao Yuan  (posted 2022-01-12 18:29:36.597)
I want to shrink down the beam size to 2-5 mm on the optical table, could you give me some advice.
soswald  (posted 2022-01-17 03:20:13.0)
Dear Yigao Yuan, thank you for your feedback. Beam expanders can be used in reverse to reduce the beam size of the emitted 48.3 mm beam: https://www.thorlabs.de/newgrouppage9.cfm?objectgroup_id=1580 The GBE15-A would result in ~3.2 mm beam diameter for example.
Kumar Satheesh  (posted 2021-11-17 04:59:19.207)
I learned that It is possible to increase the beam diameter of the SOLIS-445C with the help of external optics to achieve 75 mm diameter. ACL7560U-A - Aspheric Condenser Lens, Ø75 mm, f=60 mm, NA=0.61, ARC: 350-700 nm (https://www.thorlabs.de/thorproduct.cfm?partnumber=ACL7560U-A) If we order above lenses, do we need to install by ourselves, or will it be installed at factory itself? If we need to install by ourselves, please give me manual or some instructions, we can try to do it. Could you please let me know what all other items are needs to be ordered, to achieve 75 mm diameter. This planning helps us to avoid any surprises in the field and make sure we are good to go with our planned experiments. The following items are something we picked from the website. Could you help us. 1. SOLIS-445C - High-Power LED for Microscopy, 445 nm (Royal Blue), 5.4 W (Min) ://www.thorlabs.com/thorproduct.cfm?partnumber=SOLIS-445C 2. DC20 - High-Power Driver for Solis® LEDs, 10 A Max, 14.0 V Max 3. ACL7560U-A - Aspheric Condenser Lens, Ø75 mm, f=60 mm, NA=0.61, ARC: 350-700 nm The manual says the following is included • collimating optics LB1723A, ACL25416U-A • Diffuser DG20-1500; • 2 retaining rings SM2RR The doubts are: Do we need to order any other lens or diffuser to achieve the 75 mm beam diameter? Do we need to order any extra-large retaining lens? Do we need to order to spanner wrench SPW604 ? If you clear my doubts and confirm the part number, that would be amazing for me to go the next step to buy the items.
wskopalik  (posted 2021-11-17 08:07:19.0)
Thank you for your inquiry! I will contact you directly to talk about your application in more detail.
Ulrich Leischner  (posted 2021-04-28 08:08:49.62)
can you please give me a Zemax-model of this LED-Light source? I would like to know the exit angle of the light. What is the etendue like? are the LED-emitter closely spaced or is there a gap in between the LEDs? there are 4 x anode and 4x cathode mentioned in the pin diagram. are there 4 LEDs that can be driven individually, or are all LEDs driven by the same connector serially? Regards Ulrich Leischner
soswald  (posted 2021-05-06 04:48:31.0)
Dear Ulrich, thank you for your feedback. I have contacted you directly to further discuss your application and provide assistance.
Lev Frisman  (posted 2021-02-27 06:57:15.7)
Dear Sir / Madam, do the SOLIS LD sources have an eye / skin safety certificate? In particular, which class does the SOLIS-525C system correspond to? Thanks and best wishes,
soswald  (posted 2021-03-01 10:53:22.0)
Dear Lev, thank you for your feedback. The risk group of our respective SOLIS-LEDs is listed in their spec sheets. The SOLIS-525C is classified as RG2 - Moderate Risk Group according to EC 62471:2006, Photobiological Safety of Lamps and Lamp Systems.
Satheesh Kumar  (posted 2020-11-07 11:15:50.61)
Hi, I am interested to buy SOLIS 445 C LED. My requirement is 75 mm collimated Spot diameter. Is it possible to make this possible using any external optics like expander etc... What if the power if we measure 50 mm from the top surface of my sample? Is it possible to combine 445, 525 and 623 SOLIS LEDs using combiner with collimated o/p of 75 mm diameter?
wskopalik  (posted 2020-11-10 10:06:11.0)
Dear Satheesh, Thank you very much for your inquiry! I will contact you directly so we can find a good solution for your application.
Simon Meaney  (posted 2020-03-05 22:25:33.147)
Do you have any available data on the rise and fall times of SOLIS LED's using the DC2200 driver? I'm interested in the white LED's (SOLIS-3C as an example), I assume these are phosphor coated? How do these times compare to a narrowband SOLIS LED (SOLIS-623C as an example)? Thanks
nreusch  (posted 2020-03-09 04:49:54.0)
This is a response from Nicola at Thorlabs. Thank you very much for your inquiry! While we do not explicitly specify rise times for our SOLIS LEDs, we can provide some data on what you can expect. When combining DC2200 with any SOLIS LED, the driver electronics will limit the rise time. The external modulation mode of DC2200 allows up to 250 kHz, which leads to a period of 4 µs. Depending on the exact LED and operation settings (e.g. modulation with 50% of max current or 100% of max current), we measured rise times in the 1-2 µs range for our broadband SOLIS LEDs, which is comparable to what you could expect with the electronic limitations of the DC2200 modulation. Even though LEDs with narrower spectral intensity distribution will have a shorter rise time, you will not be able to make use of these shorter life times with our drivers. We will contact you directly to provide some data.
per-olof.larsson  (posted 2019-02-20 09:40:54.993)
1. I presently have a 100 W short arc mercury lamp (Osram HBO) on my Nikon Eclipse 400 microscope. It is not optimal for delivering light in the 450-500 nm region. Will your Solis-470C make a better job? How much better? How can I find out the difference? Literature reference? Diagrams? I really need a high light output. 2. Can I easily attach the Solis to my microscope ? 3. With the DC 2200 driver the light can be modulated. I probably want to use it in e.g. 1 ms flashes spaced 100 ms - 1 s apart. I suppose that is possible? Have short flashes a "square profile", i.e. is the rise time and descent time very short? 4. Can I coordinate the flashes with the exposure by my Andor DU-897 camera? Thanks in advance - Best, P-O L
wskopalik  (posted 2019-02-26 07:20:37.0)
This is a response from Wolfgang at Thorlabs. Thank you very much for your inquiry! I will answer your questions one by one: 1. The SOLIS-470C has a typical output power of 3.7 W with a dominant wavelength of 470 nm. So it emits most of its power in the spectral range you need. The Osram HBO lamps emit light in a wider spectral range and also emit the light in all directions. So it is unfortunately hard to compare the two light sources without further information about the HBO lamp and the way it is used in the microscope. 2. We offer the adapter SM2A17 to mount the SOLIS LEDs to Nikon Eclipse microscopes. 3. Modulations like this are possible on the DC2200. You can use the "Pulse Mode" to generate pulses with on and off times between 1 µs - 10 s. Rise and fall times are typically in the µs range. So for pulses of 1 ms you can assume a square profile. 4. The DC2200 has an external modulation input. So you could e.g. synchronize the DC2200 and your camera with an additional external pulse or signal generator. I will contact you directly so we can talk about the open questions.
russoblanc  (posted 2018-07-12 14:13:24.58)
Hello, I have an Olympus BX51WI microscope equipped with a conventional fluorescence source (mercury lamp). I would like to change to a LED based light source. Has the Solis-3C enough power to excite GFP and tdTomato in living slices of the brain? Can I adjust the power finely to apply the proper level of excitation without bleaching a fluorophore? I´m also interested in a compressor for vibration isolation tables. Your makes 30db noise at 1 m....is that comparable to the noise a fridge makes? Can this compressor feed several vibration isolation tables? I currently have two. Thank you very much. Best, Raul
swick  (posted 2018-07-19 05:19:01.0)
This is a response from Sebastian at Thorlabs. Thank you for the inquiry. The Solis-Series could be driven with the LED driver DC2200. At the LED driver it is possible to precisely adjust the electrical current so, yes, it is possible to adjust the optical power. If the optical power will be sufficient to excite GFP and tdTomato depends on the optical setup. Basically the optical power from the Solis-Series should be sufficient for such applications. The compressor only runs when the vessel becomes too empty to fill the table, so it is only going to run every couple of days for a few 10s of seconds depending on how much the table get moved. You can run 2 tables per compressor, but will need a pressure regulator (PTA013) for each table, after the compressor.
philipp.leippe  (posted 2018-06-14 19:49:07.193)
Will the adapter SLSLLG3 couple the SOLIS efficiently to a 5mm LLG?
nreusch  (posted 2018-06-20 09:39:28.0)
This is a response from Nicola at Thorlabs. Thank you very much for your inquiry! In order to achieve an efficient coupling, the NA of lens and LLG need to be chosen carefully. For the SOLIS series, however, it is also important that heat can be dissipated efficiently. We performed some tests showing that the SLSLLG3 might not be the best choice for our SOLIS LEDs, because it does not allow for sufficient air circulation. I will contact you directly for further assistance.
pchiang5  (posted 2017-08-28 16:59:43.2)
Hello, I would like to install the LED light source on my axiovert 135. However, I do not have the illumination adapter (connecting tube between light house and filter holder) on the microscope. Is it possible to use your Lens Tubes instead? if yes, could you provide a specific combination of part number for the purpose? please see below for the information of the illumination adapter: http://www.ccmr.cornell.edu/wp-content/uploads/sites/2/2015/11/Axiovert_100_135_135M.pdf Thanks
swick  (posted 2017-08-30 03:10:08.0)
This is a response from Sebastian at Thorlabs. Thank you for the inquiry. I will contact you directly for assistance.
massimo.baroncini  (posted 2017-07-08 00:37:14.977)
Is it possible to couple a SOLIS LED with an optical fiber to make a high power fiber coupled led?
swick  (posted 2017-07-12 03:20:05.0)
This is a response from Sebastian at Thorlabs. Thank you for the inquiry. In general it is possible to attach optical fibers or liquid light guides to our Solis-Series via the SM2-thread at the output aperture. The optical power which can be coupled into the fiber this way, would be less than what our standard fiber-coupled LEDs (MxxxFx-Series) provide. I have contacted you directly for assistance.
james.a.strother  (posted 2017-05-17 16:19:05.607)
Would it be possible to put together a Solis LED with a wavelength closer to 470nm? The 445nm offering is a bit too blue-shifted for the two most common fluorophores, GFP and Alexa Fluor 488. Osram makes a high power 460nm LED that would be much better.
swick  (posted 2017-05-19 03:04:35.0)
This is a response from Sebastian at Thorlabs. Thank you for the feedback. I will contact you directly for discussing the LED you have mentioned.
wandner  (posted 2017-05-04 12:06:58.73)
Dear Sir / Madam, are there Solis High Power LEDs available with a wavelength at about 740 nm? Best regards, Karl Wandner
swick  (posted 2017-05-08 03:35:05.0)
This is a response from Sebastian at Thorlabs. Thank you for the inquiry. At the time we do not offer Solis High Power LEDs near to 740nm. I will contact you directly to discuss alternative solutions.
peh1  (posted 2017-02-21 19:36:51.57)
dear hornet, i bought E3633A 200W Power Supply, 8V, 20A or 20V, 10A from keysight
tfrisch  (posted 2017-02-24 09:32:56.0)
Hello, thank you for your feedback. While we have not used this supply, we appreciate your leaving a recommendation for other customers who need a solution before our coming release
s.m.hornett  (posted 2017-01-04 10:18:50.54)
Is it possible to supply a cheap on/off power supply for these LED's?
swick  (posted 2017-01-05 04:26:29.0)
This is a response from Sebastian at Thorlabs. Thank you very much for the inquiry. We will release a lower priced LED driver for the Solis-Series in the near future. I will contact you directly to provide further information.
reynolds.gw.2  (posted 2016-11-09 09:02:44.617)
Hi, Can you offer a Solis High power LED at the 700 (ish) nm wavelength? Thanks, Geoff
wskopalik  (posted 2016-11-14 11:12:13.0)
This is a response from Wolfgang at Thorlabs. Thank you for your inquiry! We will evaluate if a SOLIS LED at this wavelength can be customized. I have already contacted you directly to further discuss your requirements.

こちらのページでは当社が販売するすべてのLEDをご覧いただけます。More [+]をクリックすると、下の各LED製品の波長をご覧いただけます。

Light Emitting Diode (LED) Selection Guide
Click Photo to Enlarge
(Representative; Not to Scale)
TypeUnmounted LEDsPigtailed LEDsLEDs in
SMT Packages
LED ArraysLED Ring LightCage-Compatible
Diffuse Backlight LED
Light Emitting Diode (LED) Selection Guide
Click Photo to Enlarge
(Representative; Not to Scale)
TypePCB-
Mounted LEDs
Heatsink-
Mounted LEDs
Collimated LEDs for MicroscopybFiber-
Coupled LEDs
c
High-Power LEDs for MicroscopyMulti-Wavelength
LED Source Optionsd
  • 25℃で測定
  • これらのコリメートLEDは、以下の顕微鏡の標準ポートならびに落射照明用ポートに取り付けることができます:Olympus BX/IX(型番末尾:-C1)、Leica DMI(型番末尾:-C2)、Zeiss Axioskop(型番末尾:-C4)、Nikon Eclipse(バヨネットマウント、型番末尾:-C5)
  • コア径Ø400 µm、NA 0.39のマルチモードファイバを使用した際の典型出力
  • 当社の多波長LED光源は、対応可能な波長のLEDを組み合わせて使用できます。
  • Leica DMI用コリメーターパッケージ(型番末尾:-C2)に使用したLEDの典型値
  • これらのLEDの最大電流時におけるコリメート出力の最小出力。コリメート用レンズは各LEDに取付け済み
  • Olympus BX/IX用コリメーターパッケージ(型番末尾: -C1)に使用したLEDの典型値
  • 400 nm~525 nmのスペクトルの青い領域で放射されるLEDの強度(%)

Solis® High-Power LEDs for Microscopy

Scaled SOLIS Spectra
Click to Enlarge

Excel File with Normalized and Scaled Spectra
Figure G1.1  This plot compares the spectral flux of the Solis® LEDs. In order to provide a point of comparison for the relative powers of LEDs with different nominal wavelengths, the spectra have been scaled to the typical output power for each LED. This data is representative, not absolute. An Excel file with normalized and calculated scaled spectra for all of the Solis high-power LEDs can be downloaded by clicking on the link in this caption.
Scaled SOLIS Spectra
Click to Enlarge

Excel File with Normalized and Scaled Spectra
Figure G1.3 This plot compares the spectral flux of the Solis® LEDs. In order to provide a point of comparison for the relative powers of LEDs with different nominal wavelengths, the spectra have been scaled to the typical output power for each LED. This data is representative, not absolute. An Excel file with normalized and calculated scaled spectra for all of the Solis high-power LEDs can be downloaded by clicking on the link in this caption.
  • Typical Collimated LED Output Powers from 570 mW to 9.8 W
  • Wavelengths Available from UV to NIR
  • Automatic Shut Off to Prevent Damage from Overheating
  • Large Ø48.3 mm (1.90") Clear Aperture
  • LED Lifetime: >10 000 Hours
  • Compatible with DC22 and DC2200 LED Drivers (Available Below)
High-Power LED for Microscopy
Click to Enlarge

Figure G1.2  A SOLIS-1D LED mounted on an Olympus microscope via the SM2A13 adapter (available below), driven by the DC2200 Driver (available below).

The Solis® LEDs are high-power LEDs designed for microscopy applications. The lightweight package features a vibration-free, fanless design that can be mounted directly to a microscope port using one of Thorlabs' microscope lamphouse port adapters (available below). Each LED includes a collimating optic in a lens tube with a large Ø48.3 mm aperture. An integrated EEPROM chip stores important LED operating information, such as wavelength and max current, and controls the LED automatic shutoff features; at internal temperatures above 95 °C, the LED will automatically shut down to prevent damage.

Most Solis LEDs have a specified dominant wavelength that corresponds to the wavelength that appears brightest to the human eye. Our cold white, warm white, and day light white LEDs feature a broader spectrum that can be described using a correlated color temperature (i.e., color appearance similar to a black body radiator at that temperature). In general, warm white LEDs offer a spectrum similar to a tungsten source, while cold white LEDs have a stronger blue component to the spectrum. These cold white LEDs are more suited for fluorescence microscopy applications or cameras with white balancing because of a higher intensity at most wavelengths compared to the warm white LEDs. The SOLIS-3C day light LED has improved output power in the 470 - 520 nm wavelength range (see the Performance tab for more information).

The included diffuser should be installed in front of the collimating lenses using the two included SM2RR Retaining Rings as well as an SPW604 Spanner Wrench (sold separately). The SM2 thread depth is different for each Solis LED. Be sure that the LED is turned off with enough time for the housing to cool before installation, and that the diffuser does not touch the second collimating lens so as to prevent scratching.

While typical applications involve mounting the LED directly to a microscope port via a microscope adapter, an 8-32 and M4 x 0.7 cross-tapped hole is provided at each corner on the back of the housing for custom mounting applications (see the DIY Mounting tab for details). These Solis high-power LEDs for microscopy are not intended for use in household illumination applications.

+1 数量 資料 型番 - ユニバーサル規格 定価(税抜) 出荷予定日
SOLIS-365C Support Documentation
SOLIS-365CHigh-Power LED for Microscopy, 365 nm (UV), 3.0 W (Min)
¥195,905
Today
SOLIS-385C Support Documentation
SOLIS-385CHigh-Power LED for Microscopy, 385 nm (UV), 4.0 W (Min)
¥195,905
Today
SOLIS-405D Support Documentation
SOLIS-405DHigh-Power LED for Microscopy, 405 nm (UV), 6.8 W (Min)
¥302,386
7-10 Days
SOLIS-415C Support Documentation
SOLIS-415CHigh-Power LED for Microscopy, 415 nm (Violet), 5.8 W (Min)
¥231,222
7-10 Days
SOLIS-455D Support Documentation
SOLIS-455DHigh-Power LED for Microscopy, 455 nm (Royal Blue), 6.5 W (Min)
¥253,221
7-10 Days
SOLIS-470C Support Documentation
SOLIS-470CCustomer Inspired! High-Power LED for Microscopy, 470 nm (Blue), 3.0 W (Min)
¥214,647
Today
SOLIS-505C Support Documentation
SOLIS-505CHigh-Power LED for Microscopy, 505 nm (Cyan), 1.0 W (Min)
¥214,647
7-10 Days
SOLIS-525C Support Documentation
SOLIS-525CHigh-Power LED for Microscopy, 525 nm (Green), 2.4 W (Min)
¥195,905
Lead Time
SOLIS-565D Support Documentation
SOLIS-565DHigh-Power LED for Microscopy, 565 nm (Lime), 5.7 W (Min)
¥191,182
Today
SOLIS-590C Support Documentation
SOLIS-590CCustomer Inspired! High-Power LED for Microscopy, 590 nm (Amber),
350 mW (Min)
¥214,647
Lead Time
SOLIS-595C Support Documentation
SOLIS-595CHigh-Power LED for Microscopy, 595 nm (Amber), 700 mW (Min)
¥214,647
Lead Time
SOLIS-617C Support Documentation
SOLIS-617CHigh-Power LED for Microscopy, 617 nm (Orange), 1.5 W (Min)
¥214,647
7-10 Days
SOLIS-620D Support Documentation
SOLIS-620DHigh-Power LED for Microscopy, 620 nm (Red), 3.47 W (Min)
¥193,566
7-10 Days
SOLIS-660D Support Documentation
SOLIS-660DHigh-Power LED for Microscopy, 660 nm (Deep Red), 2.6 W (Min)
¥231,599
Lead Time
SOLIS-740C Support Documentation
SOLIS-740CHigh-Power LED for Microscopy, 740 nm (Far Red), 2.0 W (Min)
¥214,647
Today
SOLIS-850C Support Documentation
SOLIS-850CHigh-Power LED for Microscopy, 850 nm (IR), 2.7 W (Min)
¥188,767
7-10 Days
SOLIS-940C Support Documentation
SOLIS-940CHigh-Power LED for Microscopy, 940 nm (IR), 2.5 W (Min)
¥214,647
7-10 Days
SOLIS-1D Support Documentation
SOLIS-1DHigh-Power LED for Microscopy, 6500 K (Cold White), 5.81 W (Min)
¥250,033
Today
SOLIS-2C Support Documentation
SOLIS-2CHigh-Power LED for Microscopy, 3000 K (Warm White), 3.2 W (Min)
¥183,088
Today
SOLIS-3C Support Documentation
SOLIS-3CHigh-Power LED for Microscopy, 5700 K (Day Light White), 3.5 W (Min)
¥195,905
Today

Plug-and-Play Solis® LED Driver

DC22 Key Specificationsa
LED Current (Max)b 0.1 to 10.0 A
LED Forward Voltage (Max)b 14.0 V
LED Current Limit Accuracy ±(1% + 50 mA)
External TTL / Analog Modulation Frequency DC to 1 kHz
  • See the main DC22 web presentation for complete specifications.
  • This driver is designed to automatically select the appropriate current/voltage combination for any connected Solis LED and is compatible with all Solis LEDs. The maximum LED current and forward voltage are dependent on each other: the DC22 driver cannot drive an LED with a 14.0 V forward voltage at 10.0 A.
Solis LED Driver
Click to Enlarge

Figure G2.1  The DC22 is a simple way to power the Solis® LEDs.
  • Designed for Thorlabs' Solis® LEDs for Microscopy
  • Easily Control LED Intensity Using the Dial
  • Automatically Sets the Current Limit to Protect the LED
  • Provides Drive Current Up to 10.0 A and Supports LED Forward Voltage Up to 14.0 V
  • Accepts External Analog (MOD) and TTL Modulation Signal via SMA Connector
  • Remote Control Operation via USB Interface and Software GUI

Thorlabs' DC22 Driver is designed to provide a simple way to control any of Thorlabs' Solis LEDs. Easy to set up and use, this driver is an ideal solution for users of our Solis LEDs who don't require the more advanced functions provided by the DC2200 Touchscreen LED Driver available below. See the Solis LED Drivers tab for a comparison between the DC22 and the DC2200 drivers.

An LED can be driven in three different operating modes with the DC22 driver: Continuous Wave (CW), Trigger (TTL) Modulation, or MOD mode. Continuous Wave (CW) mode drives the LED with a constant set current; this is the default mode when an LED is connected to the driver. TTL mode can be used to turn the connected LED on and off using an external-active high voltage signal via the SMA input on the back panel. TTL mode can be driven at frequencies up to 1 kHz. In TTL mode the brightness of the LED can be adjusted by turning the turn-push knob. See the full DC22 web presentation for the TTL signal requirements. When operated in MOD mode, the LED is controlled by an external voltage. In this mode, 0 V corresponds to off and 5 V corresponds to 10 A, with a modulation coefficient of 2 A/V. If the input signal sets the current higher than the limit for the attached LED, the DC22 driver will maintain the limit determined by the LED.

The DC22 LED driver can also be controlled remotely via a USB 2.0 connection on the back of the device and the downloadable software GUI available in the Driver Software tab.

A tri-color LED on the side of the unit indicates the current LED status, including whether the LED is on or off (useful with IR LEDs), whether the LED is operating normally, or if an error has occurred.

A 15.0 VDC power supply with a region specific power cable is included with each LED driver. If the power supply is damaged or misplaced, it can be replaced with Thorlabs' DSH15 Power Supply. Please note that the DC22 driver is designed to work with Thorlabs' Solis LEDs and should not be used to drive any other type of LED.

+1 数量 資料 型番 - ユニバーサル規格 定価(税抜) 出荷予定日
DC22 Support Documentation
DC22NEW!High-Power Driver for Solis® LEDs, 10.0 A Max, 14.0 V Max
¥108,915
7-10 Days

高機能Solis® LED用ドライバ

DC2200 Key Specificationsa
LED Current /
Forward Voltage (Max)b,c
1.0 A / 50.0 V
2.0 A / 35.0 V
4.0 A / 15.0 V
5.0 A / 10.0 V
10.0 A / 5.0 V
LED Current Accuracyc±(0.1% + 2 mA) for 0 to 4.0 A
±(0.1% + 4 mA) for 4.0 to 10.0 A
LED Current Resolution0.1 mA
Internal ModulationWaveforms: Sine, Square, Triangle
Frequency Range: 20 Hz to 100 kHz
External Modulation
Small Signal Bandwidthd
DC - 250 kHz
External TTL
Modulation Frequencye
DC to ≥18 kHz
  • 仕様の詳細はDC2200の製品ページをご覧ください。
  • DC2200が保証する最大出力電圧と最大出力電流の組み合わせ。例えば、駆動電流1 Aまでは最大電圧50 Vを保証、駆動電流2 Aまでは最大電圧35 Vを保証、など。
  • これらの値はSolis® LEDを接続する端子LED1に関する値です。DC2200には、当社のマウント付きLED、ファイバ出力型LED、コリメータ付きLEDなど、制限値の異なるLEDのための端子がもう1つ別に付いています。
  • 小信号帯域幅:フルスケール電流の20%を超えない変調。ドライバはほかの波形にも対応しますが、その場合は最大周波数が下がります。
  • TTL信号の「High」側の出力電流が、選択されている電流範囲のリミット値の10%を超えないとき。
  • Solis® LED用ドライバ
  • 駆動モード:定電流モードと輝度モード
  • 内部変調ならびにパルスモード
    • 周波数、デューティサイクル、パルス数は調整可能
    • 波形:正弦波、矩形波、三角波
  • 外部トリガならびに外部変調
  • USBインターフェイスを介したリモート制御

LEDドライバDC2200には、当社の高出力Solis LED用のタッチパネル式インターフェイスが付いており、上記のドライバDC22よりもさらに高度な機能が搭載されています。最大出力電流は10.0 Aで、最大順方向電圧は50 Vです。 左の写真に示すデバイス前面パネルからローカルに制御するほか、背面にあるUSB 2.0ポートを使用してPCから制御することも可能です。

グラフィカルユーザーインターフェイスのメインメニューでは、定電流モード、輝度モード、内部または外部パルスモード、TTL変調など、LEDの動作に関する選択をすることができます。内部変調モードならびにパルス駆動モードでは、外部のファンクションジェネレータを使用せずにLEDの強度を変調することができます。ドライバの背面にあるSMA入力端子には、任意波形の外部変調信号や、LEDのオンオフ状態を外部機器と同期させるためのTTL信号(High/Low)を入力することができます。 

LED Driver Interface
Click to Enlarge

タッチパネル式のインターフェイスではLEDの輝度調整ができます。輝度モード(Brightness Mode)ではLEDを電流リミット値で動作させた時にその輝度が100%になります。

こちらのドライバには、USB 2.0ポートとSolis LED用接続端子のほかにもう1つのLED接続端子があり、そこには当社のマウント付きLED、コリメータ付きLED、ファイバ出力型LEDなどを接続できます*。筐体の後ろ側には、お手持ちの非常停止スイッチをインターロック回路に接続するためのコネクタや、静電気放電防止製品と一緒に使用できる接地用ジャックが付いています。

Solis LED用プラグ&プレイドライバDC22とタッチパネル式LEDドライバDC2200の詳細な比較については上の「Solis LEDドライバ」タブをクリックしてご覧ください。仕様の詳細はLEDドライバDC2200の製品ページでご覧いただけます。

*注:どちらのLED接続端子を使用しても、ドライバが同時に制御できるのは1つのLEDのみです。

+1 数量 資料 型番 - ユニバーサル規格 定価(税抜) 出荷予定日
DC2200 Support Documentation
DC2200高出力1チャンネルLEDドライバ、パルス変調機能付き、最大10.0 A、50.0 V
¥355,242
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顕微鏡ポート用アダプタ

Microscopy LED
Click to Enlarge

Olympus製顕微鏡に取り付けられたSolis LED
Microscopy LED
Click to Enlarge

アダプタSM2A13を付けたSolis® LED

このSolis® LEDには、当社のOlympus、Nikon、Leica、 Zeiss製の顕微鏡用SM2外ネジ付きポート用アダプタをお使いいただけます。 対応する顕微鏡については、下表をご参照ください。

Solisの筐体と顕微鏡セットアップが寸法的に適合し、機械的干渉が生じないことをご確認ください。例えば、Olympus製IX71顕微鏡の透過照明ポートにSolis LEDを取り付けるには、アダプタSM2A13のほかに型番SM2L05の長さ以上のØ50 mm~Ø50.8 mm(Ø2インチ)レンズチューブが必要になります。

Recommended Microscope Adapters for Solis® LEDs
Compatible MicroscopesaOlympus BX & IXNikon Eclipse Ti and
Cerna Microscopes
with 6-Cube Epi-Illuminator
Nikon Eclipse Ti2Leica DMIZeiss Axioskop &
Examiner
Adapter Item #
SM2A13SM2A17SM2N5SM2A14SM2A16
Photo
(Click to Enlarge)
SM2N5
  • Solisの筐体と顕微鏡セットアップが寸法的に適合し、機械的干渉が生じないことをご確認ください。
+1 数量 資料 型番 - ユニバーサル規格 定価(税抜) 出荷予定日
SM2A13 Support Documentation
SM2A13Olympus製BXまたはIX顕微鏡透過照明ポート用アダプタ、D2Yオス型アリ溝、SM2外ネジ付き、黒色アルマイト加工
¥16,107
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SM2A17 Support Documentation
SM2A17Nikon製Eclipse Tiまたは正立顕微鏡落射照明モジュール用バヨネットマウントアダプタ、SM2外ネジ付き、黒色アルマイト処理
¥18,631
7-10 Days
SM2N5 Support Documentation
SM2N5Nikon製Eclipse Ti2顕微鏡落射照明モジュール用アダプタ、SM2外ネジ付き
¥19,438
7-10 Days
SM2A14 Support Documentation
SM2A14Leica製DMI顕微鏡用ポートアダプタ、SM2外ネジ付き、黒色アルマイト加工
¥16,107
7-10 Days
SM2A16 Support Documentation
SM2A16Zeiss AxioskopおよびExaminer顕微鏡用ポートアダプタ、SM2外ネジ付き、黒色アルマイト加工
¥16,107
Today