Lumio™ Green In-Cell Detection Kit
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Invitrogen™

Lumio™ Green In-Cell Detection Kit

Lumio™テクノロジーは、組換えタンパク質のシンプルな蛍光検出のために設計されています。Lumio™タグは、a蛍光基質を結合する小さな(6アミノ酸)配列で、哺乳類細胞におけるタンパク質の局在を視覚的に検出できます。Mammalian Lumio™ Gateway™ベクター詳細を見る
製品番号(カタログ番号)数量
125890571 kit
製品番号(カタログ番号) 12589057
価格(JPY)
110,600
Online offer
Ends: 26-Dec-2025
184,400
割引額 73,800 (40%)
Each
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数量:
1 kit
Lumio™テクノロジーは、組換えタンパク質のシンプルな蛍光検出のために設計されています。Lumio™タグは、a蛍光基質を結合する小さな(6アミノ酸)配列で、哺乳類細胞におけるタンパク質の局在を視覚的に検出できます。Mammalian Lumio™ Gateway™ベクター(図1)には以下の特長があります。

in vitroおよびin vivoでの正確なタンパク質検出のためのLumio™タグ
• 高レベルで構成的な発現のためのCMVプロモーター
• Gateway™エントリークローンを使用した効率的な組換えのためのtR部位
• 迅速かつ効率的な選択のためのブラストサイジン耐性遺伝子

信頼性が高く一貫したタンパク質発現、検出、および哺乳類細胞での局在のためのMammalian Lumio™ Gateway™ベクター(図2)。N末端およびC末端のLumio™融合タグを使用してタンパク質を生成するためのベクターが用意されています。さらに、各Mammalian Lumio™ Gateway™ KitにはLumio™ Green、Red、またはDual In-Cell Detection Kitが含まれています。Dual In-Cell Detection Kitは、タンパク質の局在を経時的に調べるための2色の“pulse-chase”実験に最適です。
研究用にのみ使用できます。診断用には使用いただけません。
仕様
Green
検出位置細胞内検出
検出法蛍光
使用対象 (装置)蛍光顕微鏡、電子顕微鏡
標識または色素Lumio™ グリーン
製品タイプIn-Cell Detection Kit
数量1 kit
製品ラインLumio
タンパク質タグLumio
Unit SizeEach
組成および保存条件
Lumio In-Cell Detection Kitには、DMSOの2 mMのストック溶液として40 µLのLumio GreenまたはRed蛍光試薬が含まれています。-20℃で保存適切に保存した場合、6カ月間安定しています。

よくあるご質問(FAQ)

Is the Lumio reagent membrane-permeable?

The Lumio reagent is hydrophobic and can easily pass through the membrane. There is no need to permeabilize the membrane in order to get this reagent into cells.

Will BSA generate background during Lumio labeling of mammalian cells?

Serum proteins such as BSA (66 kDa) from the mammalian cell culture medium may cross-react with the Lumio reagent, producing non-specific bands. Removing the cell culture medium and washing the mammalian cells 3-4 times with PBS after harvesting the cells minimizes the non-specific binding from BSA.

Are the Lumio Red and Green reagents toxic to the cells?

We have not experienced negative effects with Lumio reagents at the concentrations used to detect protein in the cells. We also do not see any change in cell morphology when using Lumio Green. After application of the Lumio Red, we do see some minor morphological changes in the cells that are reversed after 24 hours of application of the reagent.

How does Lumio staining compare to GeneBLAzer detection and GFP as a detection method for the protein of interest?

The advantage of Lumio staining is that one can do both in vivo and in vitro protein labeling. For in vivo labeling, load the cells with the Lumio reagent and then visualize the cells/proteins under a fluorescence microscope. This is similar to the GeneBLAzer detection procedure except that GeneBLAzer detection is based on an enzymatic reaction that amplifies the reporter signal. GFP fluorescence can only be detected within the cell (in vivo) because proper protein folding is needed. The Lumio tag is very small (6 amino acids, 585 Da), in contrast to the bla protein in GeneBLAzer detection (264 amino acids, 29 kDa) and the GFP protein (27 kDa), and therefore most likely will not interfere with the function of the protein it is fused to. GFP has the disadvantage of being a large fusion tag and is not an enzymatic-based reporter system. Unlike GeneBLAzer detection and GFP, a Lumio-tagged protein can be visualized on a gel after treating the cell lysate or protein with the Lumio reagent. Compared to Lumio and GFP, GeneBLAzer detection is a more sensitive detection method for use in live cells. Also unlike Lumio and GFP, the GeneBLAzer detection method allows for ratiometric read-outs and thus eliminates sample-to-sample variation.

Has Lumio Green/FlAsH reagent been used in yeast cells?

We have not used Lumio reagent for in cell labeling in yeast. However the following reference has information about use of Lumio/FlAsH technology for labeling in yeast: Rice MC et al. (2001) In vitro and in vivo nucleotide exchange directed by chimeric RNA/DNA oligonucleotides in Saccharomyces cerevisiae. Mol. Microbiol. 40:857–868. (Note, the article cites FlAsH reagent, which was renamed Lumio Green).
Other helpful references on use of FlAsH (Lumio) may be found in this review article: Cavagnero S, Jungbauer LM (2005) Painting protein misfolding in the cell in real time with an atomic-scale brush. Trends Biotechnol 23:157-162.

Find additional tips, troubleshooting help, and resources within our Protein Assays and Analysis Support Center.

引用および参考文献 (10)

引用および参考文献
Abstract
Dynamic fluorescent imaging of human immunodeficiency virus type 1 gag in live cells by biarsenical labeling.
Authors:Rudner L, Nydegger S, Coren LV, Nagashima K, Thali M, Ott DE,
Journal:J Virol
PubMed ID:15767407
'Human immunodeficiency virus type 1 (HIV-1) Gag is the primary structural protein of the virus and is sufficient for particle formation. We utilized the recently developed biarsenical-labeling method to dynamically observe HIV-1 Gag within live cells by adding a tetracysteine tag (C-C-P-G-C-C) to the C terminus of Gag in both ... More
Stimulation of hepatitis C virus (HCV) nonstructural protein 3 (NS3) helicase activity by the NS3 protease domain and by HCV RNA-dependent RNA polymerase.
Authors:Zhang C, Cai Z, Kim YC, Kumar R, Yuan F, Shi PY, Kao C, Luo G,
Journal:J Virol
PubMed ID:15994762
'Hepatitis C virus (HCV) nonstructural protein 3 (NS3) possesses multiple enzyme activities. The N-terminal one-third of NS3 primarily functions as a serine protease, while the remaining two-thirds of NS3 serve as a helicase and nucleoside triphosphatase. Whether the multiple enzyme activities of NS3 are functionally interdependent and/or modulated by other ... More
Monitoring protein stability and aggregation in vivo by real-time fluorescent labeling.
Authors:Ignatova Z, Gierasch LM,
Journal:Proc Natl Acad Sci U S A
PubMed ID:14701904
'In vivo fluorescent labeling of an expressed protein has enabled the observation of its stability and aggregation directly in bacterial cells. Mammalian cellular retinoic acid-binding protein I (CRABP I) was mutated to incorporate in a surface-exposed omega loop the sequence Cys-Cys-Gly-Pro-Cys-Cys, which binds specifically to a biarsenical fluorescein dye (FlAsH). ... More
Multicolor and electron microscopic imaging of connexin trafficking.
Authors: Gaietta Guido; Deerinck Thomas J; Adams Stephen R; Bouwer James; Tour Oded; Laird Dale W; Sosinsky Gina E; Tsien Roger Y; Ellisman Mark H;
Journal:Science
PubMed ID:11964472
'Recombinant proteins containing tetracysteine tags can be successively labeled in living cells with different colors of biarsenical fluorophores so that older and younger protein molecules can be sharply distinguished by both fluorescence and electron microscopy. Here we used this approach to show that newly synthesized connexin43 was transported predominantly in ... More
Visualization of mRNA translation in living cells.
Authors:Rodriguez AJ, Shenoy SM, Singer RH, Condeelis J,
Journal:J Cell Biol
PubMed ID:17030983
The role of mRNA localization is presumably to effect cell asymmetry by synthesizing proteins in specific cellular compartments. However, protein synthesis has never been directly demonstrated at the sites of mRNA localization. To address this, we developed a live cell method for imaging translation of beta-actin mRNA. Constructs coding for ... More