Home>>Peptides>>HIV-1 Rev 34-50 (HIV-1 rev Protein (34-50))

HIV-1 Rev 34-50 (HIV-1 rev Protein (34-50)) Sale

(Synonyms: HIV-1 rev Protein (34-50)) 目录号 : GC32342

HIV-1 Rev 34-50(HIV-1 rev 蛋白 (34-50))是一种 17-aa 肽,来源于 HIV-1 中 Rev 的 Rev 反应元件 (RRE) 结合域,具有抗 HIV- 1个活动。

HIV-1 Rev 34-50 (HIV-1 rev Protein (34-50)) Chemical Structure

Cas No.:141237-50-5

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500μg
¥1,964.00
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1mg
¥3,124.00
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5mg
¥4,909.00
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产品描述

HIV-1 Rev (34-50) is a 17-aa peptide derived from the Rev-responsive element (RRE)-binding domains of Rev in HIV-1, with anti-HIV-1 activity.

HIV-1 Rev (34-50) is a 17-aa peptide derived from the Rev-responsive element (RRE)-binding domains of Rev in HIV-1, with anti-HIV-1 activity[1].

[1]. Shimane K, et al. Rev-derived peptides inhibit HIV-1 replication by antagonism of Rev and a co-receptor, CXCR4. Int J Biochem Cell Biol. 2010 Sep;42(9):1482-8.

Chemical Properties

Cas No. 141237-50-5 SDF
别名 HIV-1 rev Protein (34-50)
Canonical SMILES Thr-Arg-Gln-Ala-Arg-Arg-Asn-Arg-Arg-Arg-Arg-Trp-Arg-Glu-Arg-Gln-Arg
分子式 C97H173N51O24 分子量 2437.74
溶解度 Soluble in DMSO 储存条件 Store at -20°C
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1 mM 0.4102 mL 2.0511 mL 4.1022 mL
5 mM 0.082 mL 0.4102 mL 0.8204 mL
10 mM 0.041 mL 0.2051 mL 0.4102 mL
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Research Update

Rev-derived peptides inhibit HIV-1 replication by antagonism of Rev and a co-receptor, CXCR4

Int J Biochem Cell Biol 2010 Sep;42(9):1482-8.PMID:20580677DOI:10.1016/j.biocel.2010.05.005.

Rev, a viral regulatory protein of HIV-1, binds through its arginine-rich domain to the Rev-responsive element (RRE), a secondary structure in transcribed HIV-1 RNA. Binding of Rev to RRE mediates export of singly spliced or unspliced mRNAs from the nucleus to the cytoplasm. It has been previously shown that a certain arginine-rich peptide exhibits not only RRE-binding ability but also cell permeability and antagonism of CXCR4, one of the major coreceptors of HIV-1. Here we designed and synthesized arginine-rich peptides derived from the RNA-binding domain of Rev (Rev(34-50\)) and evaluated their anti-HIV-1 activities. Rev(34-50)-A(4)C, comprising Rev(34-50\) with AAAAC at the C-terminus to increase the alpha-helicity, inhibited HIV-1 entry by CXCR4 antagonism and virus production in persistently HIV-1-infected PM1-CCR5 cells. Interestingly, similar motif of human lymphotropic virus type I Rex (Rex(1-21)) also exerted moderate anti-HIV-1 activity. These results indicate that arginine-rich peptide, Rev(34-50)-A(4)C exerts dual antagonism against CXCR4 and Rev.

Mechanism of neomycin and Rev peptide binding to the Rev responsive element of HIV-1 as determined by fluorescence and NMR spectroscopy

Biochemistry 2000 May 16;39(19):5630-41.PMID:10801313DOI:10.1021/bi992932p.

Rev is an essential HIV-1 regulatory protein that binds the Rev responsive element (RRE) within the env gene of the HIV-1 RNA genome and is involved in transport of unspliced or partially spliced viral mRNA from the cell nucleus to the cytoplasm. Previous studies have shown that a short alpha-helical peptide derived from Rev (Rev 34-50\), and a truncated form of the RRE sequence provide a useful in vitro system to study this interaction while still preserving the essential aspects of the native complex. We have selectively incorporated the fluorescent probe 2-aminopurine 2'-O-methylriboside (2-AP) into the RRE sequence in nonperturbing positions (A68 and U72) such that the binding of both Rev peptide and aminoglycoside ligands could be characterized directly by fluorescence methods. Rev peptide binding to the RRE-72AP variant resulted in a 2-fold fluorescence increase that provided a useful signal to monitor this binding interaction (K(D) = 20 +/- 7 nM). Using stopped-flow kinetic measurements, we have shown that specific Rev peptide binding occurs by a two-step process involving diffusion-controlled encounter, followed by isomerization of the RNA. Using the RRE-68AP and -72AP constructs, three classes of binding sites for the aminoglycoside neomycin were unambiguously detected. The first site is noninhibitory to Rev binding (K(D) = 0.24 +/- 0.040 microM), the second site inhibited Rev binding in a competitive fashion (K(D) = 1. 8 +/- 0.8 microM), and the third much weaker site (or sites) is attributed to nonspecific binding (K(D) >/= 40 microM). Complementary NMR measurements have shown that neomycin forms both a specific binary complex with RRE and a specific ternary complex with RRE and Rev. NMR data further suggest that neomycin occupies a similar high-affinity binding site in both the binary and ternary complexes, and that this site is located in the lower stem region of RRE.

Membrane permeability commonly shared among arginine-rich peptides

J Mol Recognit 2003 Sep-Oct;16(5):260-4.PMID:14523938DOI:10.1002/jmr.635.

Delivery of proteins and other macromolecules using membrane-permeable carrier peptides is a recently developed novel technology, which enables us to modulate cellular functions for biological studies with therapeutic potential. One of the most often used carrier peptides is the arginine-rich basic peptide derived from HIV-1 Tat protein [HIV-1 Tat (48-60)]. Using this peptide, efficient intracellular delivery of molecules including proteins, oligonucleic acids and liposomes has been achieved. We have demonstrated that these features were commonly shared among many arginine-rich peptides such as HIV-1 Rev (34-50\) and octaarginine. Not only the linear peptides but also branched-chain peptides showed efficient internalization with an optimum number of arginines (approximately eight residues). The structural and mechanistic features of the translocation of these membrane-permeable arginine-rich peptides are reviewed.

Distribution of immunoglobulin Fab fragment conjugated with HIV-1 REV peptide following intravenous administration in rats

Mol Pharm 2006 Mar-Apr;3(2):174-80.PMID:16579646DOI:10.1021/mp050064m.

HIV-1 REV peptide (positions 34-50\) is well-known as a cell-permeating peptide. In this study, we investigated the distribution of Fab fragment of immunoglobulin conjugated with REV peptide (REV-Fab) following intravenous administration in rats, and compared with those of the native Fab fragment (nFab). Radioiodinated REV-Fab or nFab ((125)I-REV-Fab or (125)I-nFab, respectively) was given in a single intravenous dose of 2 mg/kg (3 MBq/kg). Total radioactive and TCA-insoluble radioactive concentrations in blood, whole-body autoradiography (ARG), and urinary excretion rates were assayed following administration. Regarding blood and plasma, total radioactive and TCA-insoluble radioactive concentrations for (125)I-REV-Fab were remarkably lower than those for (125)I-nFab. In the whole-body ARG at 4 h after administration, (125)I-REV-Fab produced remarkably higher radioactivity in the adrenal gland, spleen, and liver, compared to (125)I-nFab. Regarding urinary excretion rates, approximately 70% of the radioactive dose was excreted in the form of a low-molecular-weight component by 24 h after administration for both samples. (125)I-REV-Fab may penetrate quickly from blood to adrenal gland, spleen, liver, and other tissues after intravenous administration to rats, and then did not stay in situ and was digested and excreted mostly via the renal route by 24 h. With these features, cell-permeating peptides are expected to help the development of new antibody pharmaceuticals.

Stereospecificity of short Rev-derived peptide interactions with RRE IIB RNA

RNA 2003 Aug;9(8):937-48.PMID:12869705DOI:10.1261/rna.2172103.

The essential HIV-1 regulatory protein Rev binds to the Rev responsive element (RRE) of the HIV-1 mRNA. A short alpha-helical peptide derived from Rev (Rev 34-50\) and a truncated form of the RRE sequence (RRE IIB) provide a useful in vitro system to study the interactions between Rev and RRE. The current studies focus on evaluating the specificity of the binding interactions between Rev 34-50 and RRE IIB. The binding of L- and D-Rev peptides to natural and enantiomeric RRE IIB RNA was studied by fluorescence spectroscopy. D-Rev and L-Rev peptides bind to RRE IIB with similar affinities. CD measurements are consistent with a nonhelical, probably beta-hairpin, conformation for D-Rev in the complex. The binding affinities of D/L Rev peptides to L-RRE IIB RNA are also similar to those with natural D-RRE IIB. Furthermore, the conformations of L- and D-peptides when bound to L-RRE are reciprocal to the conformations of these peptides in complex with D-RRE. RNA footprinting studies show that L- and D-Rev peptides bind to the same site on RRE IIB. Our results demonstrate lack of stereospecificity in RRE RNA-Rev peptide interactions. However, it is quite possible that the interactions between full-length Rev protein and RRE are highly specific.