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  • Super GelRedTM, 10,000× in water

    Product No.:S2001

    Product specification:0.5mL

    Catalogue price(RMB):420

    Can replace similar products:EB, GelRed, GelGreen, GoldView, DuRed,4S Red

    Bulk Request


Product overview:

Super GelRed® is a sensitive, stable and environmentally safe fluorescent nucleic acid dye designed to replace the highly toxic ethidium bromide (EtBr) for staining dsDNA, ssDNA or RNA in agarose gels. Super GelRed® and EtBr have virtually the same spectra , so you can directly replace EtBr with Super GelRed® without changing your existing imaging system. In addition, Super GelRed® is far more sensitive than EtBr .


Notes:

1. Due to the high sensitivity of Super GelRed® and eliminating the possibility of dye interference with DNA migaration in precast, it is recommend to reduce the amount of DNA loaded. We recommend to load 50-200 ng/lane (small lanes of 8-lanes) for known concentrations of sample. For samples with unknown concentration, Try 1/3 or 1/5 of the commonly used sample volume. Appropriately increase or decrease the sample volume according to the size of the gel hole.

2. For better results, it is recommended to replace TAE with 1×TBE buffer, because the borate-containing reagents are more conductive. The voltage during electrophoresis should not be too high. Generally, TBE should not exceed 120V. TAE should not exceed 100 V.


Instructions:


   UE-S2001

Asked questions:


Smeared DNA bands in precast gel?

1. Reduce the amount of DNA loaded by one-third to one-fifth. Super GelRed® is much more sensitive than EtBr. Blown out or smeared bands can be caused by overloading. This is frequently observed with DNA ladders.

2. Perform post-staining instead of pre-casting.

3. Pour a lower percentage agarose gel for better resolution of large fragments.

4. Change the running buffer. TBE buffer has a higher buffering capacity than TAE.

5. Loading buffers containing SDS may contribute to band smearing. If this occurs, use the post-staining protocol for applications requiring SDS-containing loading buffers.


Discrepant DNA migration in pre-cast gel

Super GelRed® is designed to be larger than other dyes to prevent it from entering cells, thus rendering the dye safer. The migration of DNA may be affected depending on the dye: DNA ratio.

1. Reduce the amount of DNA loaded by one-third to one-fifth.

2. Post-stain gel in 3× Super GelRed® to avoid any interference the dye may have on migration during electrophoresis.


Weak fluorescence, decreased dye performance over time, or film of dye remains on gel after post-staining

The dye may have precipitated out of solution.

1. Heat Super GelRed® solution to 45-50℃ for two minutes and vortex to redissolve.

2. Store dye at room temperature to avoid precipitation.


Can Super GelRed® be used to stain ssDNA or RNA

Super GelRed® can be used to stain ssDNA and RNA, but it is twice as sensitive for dsDNA than for ssDNA or RNA.


What emission filters are suitable for use with Super GelRed®?

Use the ethidium bromide filter for Super GelRed®. SYBR or GelStar filters also can be used for gel imaging with equally good results. Please review the emission spectra for Super GelRed® for specific wavelengths.


Can I reuse a Super GelRed® precast gel after electrophoresis?

We do not recommend reusing Super GelRed® precast gels as signal decreases with subsequent electrophoresis.


How should I dispose of Super GelRed®?

Some facilities have approved the disposal of Super GelRed® directly down the drain. However, because regulations vary, please contact your safety office for local disposal guidelines. Super Super GelRed® can be adsorbed to activated carbon (also known as activated charcoal) for disposal as chemical waste.


What is the lower detection limit of Super GelRed®?

Some users have reported being able to detect bands containing less than 0.1 ng DNA. However, the limit of detection will depend on instrument capability and exposure settings.


What is the chemical structure of Super GelRed®?

The chemical structure of Super GelRed® is proprietary.


What is the binding mechanism of Super GelRed®?

Super GelRed® has been shown to bind DNA exclusively by electrostatic attraction. 

Does Super GelRed® migrate during electrophoresis?

Super GelRed® does not migrate through the gel as easily as EtBr. It is not necessary to add dye to the running buffer, and the gel will be stained more homogeneously with Super GelRed® than with EtBr.

Does Super GelRed® need to be used in the dark?

Super GelRed® is very stable. You can use the dye in room light.

Is there a difference between 10,000× Super GelRed® in DMSO and water?

The Super GelRed® stock in water is a newer and improved product compared to the stock in DMSO. We recommend using Super GelRed® in water to avoid the potential hazards of handling DMSO, a solvent that can be absorbed through the skin. We continue to offer Super GelRed® in DMSO because some users do not wish to alter their established laboratory protocols.


Citations and references:


1.Fluorogenic Labeling and Single-Base Resolution Analysis of 5-Formylcytosine in DNA
Chaoxing Liu, Yafen Wang, Wei Yang,Fan Wu, Weiwu Zeng,Zonggui Chen, Jinguo Huang, Guangrong Zou, Xiong Zhang, Shaoru Wang, Xiaocheng Weng, Zhiguo Wu, Yu Zhou, and Xiang Zhou
Chemical Science (2017)8(11): 7443–7447.

2.新疆伊犁州蝙蝠的病毒宏基因组学研究
张畅 燕超 赵梓含 涂长春 屈勇刚 盛金良 何彪  
病毒学报(2018) 06

3.Gene specific-loci quantitative and single-base resolution analysis of 5-formylcytosine by compound-mediated polymerase chain reaction
Yafen Wang, Chaoxing Liu, Xiong Zhang,  Wei Yang, Fan Wu, Guangrong Zou, Xiaocheng Weng and Xiang Zhou
Chemical Science(2018)9(15):3723-3728

4.大灰象甲实时定量PCR内参基因的筛选
李晓 李建文 成波 李伟 孙文秀高华援 鞠倩 姜晓静 杜龙 曲春娟 曲明静
昆虫学报(2018)11:1284-1294

5.花生CAX相互作用蛋白4(CXIP4)基因克隆表达分析及载体构建
吴琪 曹广英 唐月异 王秀贞 孙全喜 王志伟 陈剑洪 姜启双 王传堂
花生学报 (2018)15-21

6. Naphthalimide derivatives as multifunctional molecules for detecting 5-formylpyrimidine by both PAGE analysis and dot-blot assays
Wang Y 1, Liu C , Yang W , Zou G , Zhang X , Wu F , Yu S , Luo X , Zhou X
Chemical Communications(2018) 1497-1500

7.The Yellow Sea green tide: A risk of macroalgae invasion
Jin Zhao, Peng Jiang, Ri Qiud, Yingying Ma, Chunhui Wu, Huihui Fu,Huaxin Chen, Fuchao Li
Harmful Algae(2018)11-17

8.5-Formyluracil as a Multifunctional Building Block in Biosensor Designs
Chaoxing Liu1,  Guangrong Zou1, Shuang Peng, Yafen Wang, Wei Yang, Fan Wu, Zhuoran
Jiang, Xiong Zhang, Xiang Zhou
Angewandte Chemie International Edition (2018) 9689-9693

9.Coevolution of both thermostability and activity of polyphosphate
Wei Zhou, Rui Huang, Zhiguang Zhu, Yi-Heng P. Job Zhang,  Ning-Yi Zhou, Editor
Applied and Environmental microbiology(2018) 

10.黄曲霉毒素B1降解菌的分离、鉴定及其降解能力研究
王明清,于丽娜,张初署,徐念均,殷登科,唐佩显,毕洁,孙杰,赵善仓,张智猛
花生学报 (2018)2 1-5

11.花生胚胎发育晚期丰富蛋白基因AhLEAL的克隆及其在非生物胁迫下的表达分析
陈娜 程果 陈明娜 姜健美 潘丽娟 陈静 王通 王冕 杨珍 迟晓元 禹山林
花生学报 (2018)2 6-12

12.A comparative analysis of the complete chloroplast genome sequences of four peanut botanical varieties
Juan Wang*, Chunjuan Li*, Caixia Yan, Xiaobo Zhao and Shihua Shan
peerj (2018)

13.DNA methylation on N6-adenine in lepidopteran Bombyx mori
Xiaoyan Wanga, Zhiqing Lia,b,⁎, Quan Zhanga, Bingqian Lia, Chenchen Lua, Wanshun Lia,Tingcai Chenga,b, Qingyou Xiaa,b, Ping Zhaoa
BBA - Gene Regulatory Mechanisms (2018)815-825

14.一株黄曲霉毒素 B1降解菌的筛选及鉴定
王明清,张初署,于丽娜,顾博,丁昱,毕洁,孙杰,迟晓元,张建成,龚魁杰,杨庆利
食品工业科技 (2019) 

15.害疣孢霉Hypomyces perniciosus 遗传转化体系的建立及其突变体库的构建
纪策 刘源 李丹 Sossah Frederick Leo 杨阳 付永平 李玉
菌物学报 (2018)Vol. 37 ›› Issue (8): 1027-1034

16.Gel properties of xanthan containing a single repeating unit with saturated pyruvate produced by an engineered Xanthomonas campestris CGMCC 15155
Mengmeng Wua, Jianmei Qua, Yaqi Shena, Xiaohui Daia, Weiying Weia, Zhong Shia,Guoqiang Lia,b, Ting Maa,b
Food Hydrocolloids (2019) 747-757

17.Enhancement of transparent hydrogel sanxan production in Sphingomonassanxanigenens NX02 via rational and random gene manipulation
Mengmeng Wua,1, Zhong Shia,1, Xuefeng Tiana, Yaqi Shena, Jianmei Qua, Xiaohui Daia,Weiying Weia, Guoqiang Lia,b, Ting Maa,b
carbohydrate polymers (2018)  210-217

18.利用 AhMITE 转座子分子标记鉴定花生杂交F1代真假杂种
吴琪,曹广英,尹亮,唐月异,王秀贞,孙全喜,王志伟,吴昌湛,彭娅萍,王传堂
花生学报 (2017) 45(3) 48-53

19.盐度与种间竞争对漂浮生态型浒苔微繁体萌发和生长的影响
赵瑾,马莹莹,解威峰,吴春辉,姜鹏
海洋与湖沼 (2018)49(5)

20.Bisulfite-free, single-base resolution analysis of 5 hydroxymethylcytosine in genomic DNA by chemical-mediated mismatch
Yafen Wang, Xiong Zhang, Fan Wu, Zonggui Chen,Xiang Zhou
Chemical Science (2019)447-452

21.大豆转录因子 Gm WRKY4 分子克隆与表达分析

王昭玉 甄珍 李雅琳 王翠霞 刘思敏 郭芸彤 闫瑞娴 刘建凤  

大豆科学 (2018)539-544

22.Upregulation of mtSSB by interleukin‐6 promotes cell growth through mitochondrial biogenesis‐mediated telomerase activation in colorectal cancer
Wang, Gang   Wang, Qian   Huang, Qichao   Chen, Yibing   Sun, Xiacheng   He, Linjie   Zhan, Lei   Guo, Xu   Yin, Chun   Fang, Yujiang   He, Xianli   Xing, Jinliang
International Journal of Cancer (2018)

23.黄曲霉毒素B1降解菌株的筛选及鉴定研究
于丽娜,王明清,张初署,徐念均,赵玉华,毕洁,孙杰,龚魁杰,刘开昌,杨庆利
食品研究与开发 (2018) 167-171

24.Highly Selective 5-Formyluracil Labeling and Genome-wide Mapping Using (2-Benzimidazolyl) Acetonitrile Probe
Yafen Wang,Chaoxing Liu,Fan Wu,Xiong Zhang,Sheng Liu,Zonggui Chen,Weiwu Zeng,Wei Yang,Xiaolian Zhang,Yu Zhou,Xiaocheng Weng,Zhiguo Wu,Xiang Zhou
iScience 《Cell》子刊 (2018) 423–432

25.黄曲霉毒素 B1 降解菌株的筛选鉴
王明清  于丽娜  张初署  毕洁  孙杰  刘宾 
粮油食品科技 (2018)  

26.Use of capillary electrophoresis to select a DNA aptamer that recognizes swine anaphylatoxin C5a
Li, Zhiping   Wang, Xiwen   Chen, Man   Li, Qianxue   Qu, Han   Shao, Ting   Sun, Rui   Zhang, Yandong   Xia, Zhiping   
Journal Analytical Biochemistry (2018)

27.一个花生含油量相关的InDel标记的开发
徐平,尹亮,王效华,石延茂,任艳,李双铃,袁美
花生学报 (2017) 4 1-6

28.花生NADH 脱氢酶1 亚基10B-like 基因克隆表达分析及载体构建
吴琪 曹广英 唐月异 王秀贞 孙全喜 王志伟 吴昌湛 陈剑洪 王传堂
分子植物育种 (2018)2205-2211

29.利用 GBS-cpDNA 揭示花生属花生区组内种间亲缘关系
李春娟,闫彩霞,石程仁,赵小波,王,单世华
花生学报 (2018)38-42

30.基于简化基因组的花生 InDel 标记开发和功能解析
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31.Effect of HCMV IE86 on the Expression of p21 in Malignant Glioma Cells
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International Journal of Sciences (2018) 1-4

32.一种改良的大豆线粒体DNA提取方法
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33.一种快速高效提取花生叶片 DNA 的简化方法
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34.Pseudomonas qingdaonensis sp. nov., an aflatoxin-degrading bacterium, isolated from peanut rhizospheric soil
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35.A Ligation-Based qPCR Amplification Assay for the Radiolabeling-Free Detection of ATP/NAD+ with High Selectivity and Sensitivity
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36.Molecular characterization and expression profiles provide new insights into GATA5 functions in tongue sole (Cynoglossus semilaevis)
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37.新疆维吾尔自治区动物狂犬病流行特征及其毒株遗传进化分析
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38.Circular RNA profiling of the rice photothermosensitive genic male sterile line Wuxiang S reveals circRNA involved in the fertility transition 
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39.GWAS Discovery Of Candidate Genes for YieldRelated Traits in Peanut and Support from Earlier QTL Mapping Studies
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