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过氧化氢(H2O2)试剂盒

货号:G0112F
规格:48样
价格:190
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  • 产品简介
  • 已发文章
  • 产品问答

一、产品简介:

过氧化氢(H2O2)是重要的活性氧之一,不仅具有损伤生物大分子、产生细胞毒害的能力, 而且还可作为信号分子,在生物和非生物胁迫应激、细胞程序性死亡以及生长发育调控过程中起重要作用。它与钛盐反应生成过氧化物—钛复合物黄色沉淀,可被浓硫酸溶解后,在波长415nm波长下有最大吸收峰。其颜色深浅与H2O2浓度成线性关系。

二、需自备的仪器和用品:

可见分光光度计、1mL玻璃比色皿(光径1cm)、台式离心机、可调式移液器、丙酮、研钵和冰。

1. Jing Yang.2021. Inhibitory effects and mechanisms of vanillin on gray mold and black rot of cherry tomatoes. Pesticide Biochemistry and Physiology. IF=3.9

 

2. Yan Jia. 2022. Effects of root characteristics on panicle formation in japonica rice under low temperature water stress at the reproductive stage. Field Crops Research. Yan Jia. IF=5.22

 

3. Yun-Ze Chen. 2022. Transcriptomic analysis of interactions between Lymantria dispar larvae and carvacrol.Pesticide Biochemistry and Physiology. IF=3.96

 

4. 牟凤利,杨京民,刘翠,刘才鑫,刘梅,陈建军,祖艳群,王吉秀.2021.野生小花南芥体内 AsA-GSH 循环对土壤 CdPb 胁迫的响应.农业环境科学学报.

 

5.孙晓莉.贾春燕.田寿乐.文燕.王金平. .沈广宁. 2022. 外源甲基乙二醛对干旱胁迫下板栗幼苗的影响.应用生态学报.


6.Chang Wang.2022.Red light regulates metabolic pathways of soybean hypocotyl elongation and thickening.IF=6.028


7.Ali Raza.2022.Mechanistic Insights Into Trehalose-Mediated Cold Stress Tolerance in Rapeseed ( Brassica napus L.) Seedlings.IF=5.754


8.Sundas Saher Mehmood.2021.Integrated analysis of transcriptomics and proteomics provides insights into the molecular regulation of cold response in Brassica napus.IF=5.545


9.Yan Jia.2021.Effects of root characteristics on panicle formation in japonica rice under low temperature water stress at the reproductive stage.IF=5.224


10.Baizhao Ren.2022.Responses of photosynthetic characteristics and leaf senescence in summer maize to simultaneous stresses of waterlogging and shading.IF=4.647


11.Liu, Xiaohui.2021.Study on browning mechanism of fresh-cut eggplant (Solanum melongena L.) based on metabolomics, enzymatic assays and gene expression.IF=4.38


12.Xiaohui Liu.2022.Metabolomic Analysis, Combined with Enzymatic and Transcriptome Assays, to Reveal the Browning Resistance Mechanism of Fresh-Cut Eggplant.IF=4.35


13.Yun-Ze Chen.2021.Transcriptomic analysis of interactions between Lymantria dispar larvae and carvacrol.IF=3.963


14.Hao Yan.2022.LpNAC6 reversely regulates the alkali tolerance and drought tolerance of Lilium pumilum.IF=3.549


15.Thwin Myo.2020.Ectopic overexpression of a cotton plastidial Na + transporter GhBASS5 impairs salt tolerance in Arabidopsis via increasing Na + loading and accumulation.IF=3.39


16.Yijing Sun.2020.WRKY33-PIF4 loop is required for the regulation of H2O2 homeostasis.IF=2.985


17.Yanfei Wu.2022.Enhanced resistance in ‘shatang’ mandarin fruit against Penicillium italicum caused by 2-methoxy-1,4-naphthoquinone.IF=2.741


18.Chen, Siting.2021.Overexpression of seagrass DnaJ gene ZjDjB1 enhances the thermotolerance of transgenic arabidopsis thaliana.IF=2.391


19.Xiao, Kai.2022.Genome-wide identification of polyphenol oxidase (PPO) family members in eggplant (Solanum melongena L.) and their expression in response to low temperature.IF=2.138


20.Jiajia Wang.2022.LEAF TIP RUMPLED 1 Regulates Leaf Morphology and Salt Tolerance in Rice.IF=6.208


21.Yanfei Wu.2022.Valeric acid delays aril breakdown of longan (Dimocarpus longan Lour.) fruit in relation to the regulation of histone deacetylase activity.IF=6.056


22.Mengzhuo Zhang.2022.Physiological and Transcriptome Analyses of CaCl2 Treatment to Alleviate Chilling Injury in Pineapple.IF=4.658


23.Yigong Zhang.2022.Structure, development, and the salt response of salt bladders in Chenopodium album L..IF=6.627


24.Qiqi Chen.2022.Biocontrol activity and action mechanism of Bacillus velezensis strain SDTB038 against Fusarium crown and root rot of tomato.IF=6.064


25.Yu-Xuan Wu.2022.Inhibitory effect and mechanism of action of juniper essential oil on gray mold in cherry tomatoes.IF=6.064


26.Zhen Wang.2022.DEMETHYLATION REGULATOR 1 regulates DNA demethylation of the nuclear and mitochondrial genomes.IF=9.106


27.Chen, Siting.2022.Overexpression of the intertidal seagrass 14-3-3 gene ZjGRF1 enhances the tolerance of transgenic Arabidopsis to salt and osmotic stress.IF=2.496


28.Yan Li.2022.Melatonin alleviates arsenite toxicity by decreasing the arsenic accumulation in cell protoplasts and increasing the antioxidant capacity in rice.IF=8.943


29.Xuejing Cao.2022.Grape BES1 transcription factor gene VvBES1-3 confers salt tolerance in transgenic Arabidopsis.IF=3.913


30.Jiajia Wang.2023.SEMI-ROLLED LEAF 10 stabilizes catalase isozyme B to regulate leaf morphology and thermotolerance in rice (Oryza sativa L.).IF=13.263


31.Qibin Wu.2023.Genome-wide characterization of sugarcane catalase gene family identifies a ScCAT1 gene associated disease resistance.IF=8.025


32.Feifei An.2023.Flavonoid accumulation modulates the responses of cassava tuberous roots to postharvest physiological deterioration.IF=6.751


33.Jiao Du.2023.A prophage-encoded effector from “Candidatus Liberibacter asiaticus” targets ASCORBATE PEROXIDASE6 in citrus to facilitate bacterial infection.IF=5.52


34.Na Li.2023.Phytic acid is a new substitutable plant-derived antifungal agent for the seedling blight of Pinus sylvestris var. mongolica caused by Fusarium oxysporum..IF=4.966


35.Li, Yanmei.2023.VaSUS2 confers cold tolerance in transgenic tomato and Arabidopsis by regulation of sucrose metabolism and ROS homeostasis.IF=4.964


36.Hang  Yang.2023.Artemisia baimaensis allelopathy has a negative effect on the establishment of Elymus nutans artificial grassland in natural grassland.IF=2.734


37.Zhiyin Jiao.2023.Integration of transcriptome and metabolome analyses reveals sorghum roots responding to cadmium stress through regulation of the flavonoid biosynthesis pathway.IF=6.627


38.Yibo Jing.2023.PS II Subunit P in Lilium pumilum (LpPsbP) Confers Saline-Alkali Resistance to the Plant by Scavenging ROS.IF=6.208


39.Hao Wu.2023.Disruption of LEAF LESION MIMIC 4 affects ABA synthesis and ROS accumulation in rice.IF=4.647


40.Song Jianfei.2023.MhCLC-c1, a Cl channel c homolog from Malus hupehensis, alleviates NaCl-induced cell death by inhibiting intracellular Cl– accumulation.IF=5.3


41.Zhu Jiawei.2023.Isolation of three MiDi19-4 genes from mango, the ectopic expression of which confers early flowering and enhances stress tolerance in transgenic Arabidopsis.IF=4.3


42.Ma Xiaotu.Myoglobin-loaded gadolinium nanotexaphyrins for oxygen synergy and imaging-guided radiosensitization therapy.Nature Communications.IF=16.6


43.Peng Mu.Genomic features of a plant growth-promoting endophytic Enterobacter cancerogenus JY65 dominant in microbiota of halophyte Suaeda salsa.plant and soil.IF=4.9


44.Y. Liang.Sophora tonkinensis: response and adaptation of physiological characteristics, functional traits, and secondary metabolites to drought stress.plant biology.IF=3.9


1、问:官网上试剂盒规格标注的“24样”、“48样”、“96样”是什么意思呢?

     答:“24样”、“48样”、“96样”是试剂盒规格,我们定义了试剂盒可以测多少样,对于试剂盒需要的试剂量都给足的。

          “24样”、“48样”、“96样”规格的试剂盒,可以检测24个样、48个样、96个样;即分别得到24个、48个、96个数据。


2、问:官网上试剂盒检测方法中"可见分光法/紫外分光法"与“微板法”是什么区别?

     答:分光法:指使用紫外可见分光光度计检测,若无紫外可见光分光度计,订购时务必咨询公司技术。公司分光法试剂盒采用的比色皿规格是:光径:1cm,容积:1mL, 狭缝宽3mm;

           微板法:指使用全波段连续酶标仪检测;若无全波段酶标仪,订购指标时务必咨询公司技术, 本公司微板法试剂盒内送96孔普通酶标板,客户无需另外购买耗材。


3、问:分光法试剂盒与微板法试剂盒是否能通用?

     答:公司针对用户实验室具备的实验仪器条件,做了两个体系的试剂盒。两种体系试剂盒检测指标的原理一样,结果可以通用,但是不同体系的试剂盒不可以相互混匀!