Genetically modified oncolytic adenoviruses have been proposed as a automobile for most cancers remedy. Nonetheless, a number of issues, similar to toxicity to regular cells and organs, lack of appropriate cell floor receptors to permit viral entry to the specified cell kind(s), and activation of each innate and adaptive immune programs in sufferers, limit the profitable medical software of adenoviral-mediated most cancers gene remedy.
Profitable virotherapy would require environment friendly transductional and transcriptional concentrating on to reinforce therapeutic efficacy by guaranteeing focused adenoviral an infection, replication, and/or therapeutic transgene expression.
Focused modification of viral elements, similar to viral capsid, fiber knob, and the insertion of transgenes for expression, are conditions for the required transductional and transcriptional concentrating on of adenovirus. Nonetheless, the standard method to change the adenoviral genome is advanced, time consuming, and costly. It’s depending on the presence of distinctive restriction enzyme websites that will or will not be current within the goal location.
Clustered often interspaced quick palindromic repeat (CRISPR) together with the RNA-guided nuclease Cas9 (CRISPR/Cas9) is without doubt one of the strongest instruments that has been adopted for exact genome enhancing in a wide range of cells and organisms. Nonetheless, the flexibility of the CRISPR/Cas9 system to exactly and effectively make genetic modification, in addition to introduce gene replacements, in adenoviral genomes, stays basically unknown.
Herein the flexibility of in vitro CRISPR/CAS9-mediated enhancing of the canine adenovirus kind 2 (CAV2) genome to advertise focused modification of the viral genome was assessed. To exhibit the feasibility of this objective, CRISPR/Cas9 has been used to efficiently insert the RFP (purple fluorescent protein) reporter assemble into the CAV2 genome. Preliminary outcomes demonstrated excessive effectivity and accuracy for in vitro CRISPR-mediated enhancing of the massive CAV2 genome.
Moreover, this software was expanded, utilizing a number of information RNAs, to conduct gene alternative within the CAV2 genome by substituting a portion of the E3 gene with a assemble designed to specific a single chain antibody to canine PD-1. Thus, this work offers a considerably improved and environment friendly methodology for focused enhancing of adenoviruses to generate altered and doubtlessly therapeutic viral genomes within the shortest doable time.
Monitoring Autophagy by Optical Microscopy
Because of the advances in optical microscope know-how and our data of autophagic biomarkers, single-molecule occasions of autophagy at the moment are accessible to human eyes. Completely different proteins are concerned hierarchically within the biogenesis and maturation of autophagosomes.
Detecting these autophagy-related proteins both by immunostaining or fluorescent protein labelling makes the dynamic autophagic course of seen. Nonetheless, low antibody specificity and weak endogenous expression of autophagy-related proteins in sure tissues restrict the applicability of immunostaining in autophagy detection.
To deal with this, live-cell imaging mixed with varied fluorescent probes has been developed and employed in monitoring autophagy. As probably the most extensively used autophagic biomarker, LC3 can be utilized to visualise autophagosomes, and fluorescent probes concentrating on LC3, i.e., RFP/mCherry-GFP-LC3, and GFP-LC3-RFP-LC3ΔG, can look at autophagy flux dynamically and quantitatively.
As well as, the appliance of novel fluorophores similar to Keima helps to detect the temporal and spatial traits of autophagy. Moreover, selective autophagy may be clarified by labelling corresponding substrates and autophagosomes or lysosomes concurrently. With the assistance of two-photon microscopy, the method of autophagy in dwell animals has been uncovered. Right here, we summarize the strategies for observing autophagy by optical microscopy and the number of fluorescent markers.
Impaired Autophagy Induced by oxLDL/ β 2GPI/anti- β 2GPI Complicated by PI3K/AKT/mTOR and eNOS Signaling Pathways Contributes to Endothelial Cell Dysfunction
Endothelial cell dysfunction performs a basic position within the pathogenesis of atherosclerosis (AS), and endothelial autophagy has protecting results on the event of AS. Our earlier examine had proven that oxidized low-density lipoprotein/<i>β</i>2-glycoprotein I/anti-<i>β</i>2-glycoprotein I <em>antibody</em> (oxLDL/<i>β</i>2GPI/anti-<i>β</i>2GPI) advanced might promote the expressions of inflammatory cytokines and improve the adhesion of leukocytes to endothelial cells.
Within the current examine, we aimed to evaluate the consequences of oxLDL/<i>β</i>2GPI/anti-<i>β</i>2GPI advanced on endothelial autophagy and discover the related potential mechanisms. Human umbilical vein endothelial cells (HUVECs) and mouse mind endothelial cell line (bEnd.3) had been used as fashions of the vascular endothelial cells. Autophagy was evaluated by analyzing the expressions of autophagic proteins utilizing western blotting evaluation, autophagosome accumulation utilizing transmission electron microscopy, and <em>RFP</em>-GFP-LC3 adenoviral transfection and autophagic flux utilizing lysosome inhibitor chloroquine.
The expressions of phospho-PI3K, phospho-AKT, phospho-mTOR, and phospho-eNOS had been decided by western blotting evaluation. 3-Methyladenine (3-MA) and rapamycin had been used to find out the position of autophagy in oxLDL/<i>β</i>2GPI/anti-<i>β</i>2GPI complex-induced endothelial cell dysfunction. We confirmed that oxLDL/<i>β</i>2GPI/anti-<i>β</i>2GPI advanced suppressed the autophagy, evidenced by a rise in p62 protein, a lower in LC3-II and Beclin1, and a discount of autophagosome era in endothelial cells.
Furthermore, inhibition of autophagy was related to PI3K/AKT/mTOR and eNOS signaling pathways. Rapamycin attenuated oxLDL/<i>β</i>2GPI/anti-<i>β</i>2GPI complex-induced endothelial irritation, oxidative stress, and apoptosis, whereas 3-MA alone induced the endothelial harm.
Our outcomes recommended that oxLDL/<i>β</i>2GPI/anti-<i>β</i>2GPI advanced inhibited endothelial autophagy through PI3K/AKT/mTOR and eNOS signaling pathways and additional contributed to endothelial cell dysfunction. Collectively, our findings supplied a novel mechanism for vascular endothelial harm in AS sufferers with an antiphospholipid syndrome (APS) background.
Seen Immunoprecipitation (VIP) Assay: a Easy and Versatile Methodology forVisual Detection of Protein-protein Interactions
The seen immunoprecipitation (VIP) assay is a handy different to traditional co-immunoprecipitation ( Katoh et al., 2015 ). By processing lysates from cells co-expressing GFP-fusion and RFP-fusion proteins for immunoprecipitation with GST-tagged anti-GFP Nanobody and glutathione-Sepharose beads, protein-protein interactions may be visualized by straight observing the beads bearing immunoprecipitates below a fluorescence microscope.
This assay can look at numerous protein combos at one time, with out requiring time-consuming procedures, together with SDS-PAGE and immunoblotting.
Moreover, the VIP assay can look at difficult one-to-many and many-to-many protein interactions. One other necessary level of the VIP assay is using nanobodies for immunoprecipitation. A Nanobody is a single-domain antibody derived from Camelidae (camels and kinfolk).
 Rainbow Fluorescent Particles |
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| RFP-35-5 | Spherotech | 5 mL | EUR 304 |
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Description: Rainbow Fluorescent Particlesare calibration particles that help you to determine if a flow cytometer is properly aligned and has a clean flow cell with no fluidic blockage. Using SPHERO? Alignment Particles, the coefficients of variation (CVs), peak channels, and histogram distributions can be measured to determine the alignment and functionality of the flow cytometer. |
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Rainbow Fluorescent Particles |
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| RFP-38-5 | Spherotech | 5 mL | EUR 157 |
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Description: Rainbow Fluorescent Particlesare calibration particles that help you to determine if a flow cytometer is properly aligned and has a clean flow cell with no fluidic blockage. Using SPHERO? Alignment Particles, the coefficients of variation (CVs), peak channels, and histogram distributions can be measured to determine the alignment and functionality of the flow cytometer. |
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Rainbow Fluorescent Particles |
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| RFP-50-5 | Spherotech | 5 mL | EUR 314 |
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Description: Rainbow Fluorescent Particlesare calibration particles that help you to determine if a flow cytometer is properly aligned and has a clean flow cell with no fluidic blockage. Using SPHERO? Alignment Particles, the coefficients of variation (CVs), peak channels, and histogram distributions can be measured to determine the alignment and functionality of the flow cytometer. |
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Rainbow Fluorescent Particles |
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| RFP-60-5 | Spherotech | 5 mL | EUR 314 |
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Description: Rainbow Fluorescent Particlesare calibration particles that help you to determine if a flow cytometer is properly aligned and has a clean flow cell with no fluidic blockage. Using SPHERO? Alignment Particles, the coefficients of variation (CVs), peak channels, and histogram distributions can be measured to determine the alignment and functionality of the flow cytometer. |
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Rainbow Fluorescent Particles |
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| RFP-70-5 | Spherotech | 5 mL | EUR 314 |
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Description: Rainbow Fluorescent Particlesare calibration particles that help you to determine if a flow cytometer is properly aligned and has a clean flow cell with no fluidic blockage. Using SPHERO? Alignment Particles, the coefficients of variation (CVs), peak channels, and histogram distributions can be measured to determine the alignment and functionality of the flow cytometer. |
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 RFP Antibody |
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| T0055 | Affbiotech | 1ml | EUR 920 |
 RFP antibody |
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| 20R-1765 | Fitzgerald | 100 ug | EUR 673 |
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Description: Rabbit polyclonal RFP antibody |
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RFP antibody |
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| 70R-12238 | Fitzgerald | 100 ug | EUR 525 |
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Description: Rabbit polyclonal RFP antibody |
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RFP antibody |
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| 10R-10446 | Fitzgerald | 100 ug | EUR 435 |
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Description: Mouse monoclonal RFP antibody |
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RFP antibody |
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| 10R-10447 | Fitzgerald | 100 ug | EUR 435 |
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Description: Mouse monoclonal RFP antibody |
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RFP antibody |
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| 10R-6753 | Fitzgerald | 100 ug | EUR 651 |
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Description: Mouse monoclonal RFP antibody |
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 RFP Antibody |
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| abx018231-100ug | Abbexa | 100 ug | EUR 384 |
RFP Antibody |
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| abx018232-100ug | Abbexa | 100 ug | EUR 384 |
RFP Antibody |
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| 49533-100ul | SAB | 100ul | EUR 333 |
RFP Antibody |
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| 49533-50ul | SAB | 50ul | EUR 239 |
 RFP Tag antibody |
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| 10R-2938 | Fitzgerald | 100 ug | EUR 170 |
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Description: Mouse monoclonal RFP Tag antibody |
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 Antibody) RFP (dsRed) Antibody |
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| 3993-100 | Biovision | EUR 430 | |
RFP (dsRed) Antibody |
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| 3993-30T | Biovision | EUR 185 | |
 RFP-Tag Antibody |
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| 1-CSB-PA000344 | Cusabio |
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Description: A polyclonal antibody against RFP-Tag. Recognizes RFP-Tag from . This antibody is Unconjugated. Tested in the following application: WB;WB:1:5000 |
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RFP-Tag Antibody |
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| 20-abx242886 | Abbexa |
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RFP-Tag Antibody |
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| 20-abx242909 | Abbexa |
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RFP-Tag Antibody |
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| 20-abx330245 | Abbexa |
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RFP-Tag Antibody |
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| 20-abx330283 | Abbexa |
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 RFP-tag Antibody |
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| 20-abx134549 | Abbexa |
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RFP-tag Antibody |
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| 20-abx134550 | Abbexa |
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RFP-Tag Antibody |
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| 20-abx011194 | Abbexa |
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 Anti-RFP antibody |
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| STJ140119 | St John's Laboratory | 150 µg | EUR 408 |
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Description: Goat polyclonal antibody to RFP (Red fluorescent protein). RFP is derived from DsRed, an engineered red fluorescent protein from so-called disc corals of the genus Discosoma. |
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 RFP Conjugated Antibody |
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| C49533 | SAB | 100ul | EUR 397 |
 RFP Mouse Polyclonal Antibody |
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| CSB-PA978335- | Cusabio | EUR 335 | |
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Description: A polyclonal antibody against RFP Mouse Polyclonal. Recognizes RFP Mouse Polyclonal from N/A. This antibody is Unconjugated. Tested in the following application: WB, IHC, IP, ELISA;WB:1/500-1/2000.IHC:1/100-1/300.IP:2-5ug/mglysate.ELISA:1/20000 |
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RFP Mouse Polyclonal Antibody |
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| CSB-PA978335-100ul | Cusabio | 100ul | EUR 316 |
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Description: A polyclonal antibody against RFP Mouse Polyclonal. Recognizes RFP Mouse Polyclonal from N/A. This antibody is Unconjugated. Tested in the following application: WB, IHC, IP, ELISA;WB:1/500-1/2000.IHC:1/100-1/300.IP:2-5ug/mglysate.ELISA:1/20000 |
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 RFP-Tag Polyclonal Antibody |
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| 1-CSB-PA000346 | Cusabio |
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Description: A polyclonal antibody against RFP-Tag Polyclonal. Recognizes RFP-Tag Polyclonal from N/A. This antibody is Unconjugated. Tested in the following application: WB;WB:1:2000-5000 |
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 RFP-Tag Monoclonal Antibody |
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| ABM40169-003ml | Abbkine | 0.03ml | EUR 158 |
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Description: A monoclonal antibody for detection of RFP-Tag from Null. This RFP-Tag antibody is for WB. It is affinity-purified from mouse ascites by affinity-chromatography using the specific immunogenand is unconjugated. The antibody is produced in mouse by using as an immunogen recombinant protein |
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RFP-Tag Monoclonal Antibody |
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| ABM40169-01ml | Abbkine | 0.1ml | EUR 289 |
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Description: A monoclonal antibody for detection of RFP-Tag from Null. This RFP-Tag antibody is for WB. It is affinity-purified from mouse ascites by affinity-chromatography using the specific immunogenand is unconjugated. The antibody is produced in mouse by using as an immunogen recombinant protein |
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RFP-Tag Monoclonal Antibody |
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| ABM40169-02ml | Abbkine | 0.2ml | EUR 414 |
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Description: A monoclonal antibody for detection of RFP-Tag from Null. This RFP-Tag antibody is for WB. It is affinity-purified from mouse ascites by affinity-chromatography using the specific immunogenand is unconjugated. The antibody is produced in mouse by using as an immunogen recombinant protein |
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RFP-Tag Polyclonal Antibody |
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| ABM40174-003ml | Abbkine | 0.03ml | EUR 158 |
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Description: A monoclonal antibody for detection of RFP-Tag from Null. This RFP-Tag antibody is for WB. It is affinity-purified from mouse antiserum by affinity-chromatography using the specific immunogenand is unconjugated. The antibody is produced in mouse by using as an immunogen recombinant protein |
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RFP-Tag Polyclonal Antibody |
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| ABM40174-01ml | Abbkine | 0.1ml | EUR 289 |
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Description: A monoclonal antibody for detection of RFP-Tag from Null. This RFP-Tag antibody is for WB. It is affinity-purified from mouse antiserum by affinity-chromatography using the specific immunogenand is unconjugated. The antibody is produced in mouse by using as an immunogen recombinant protein |
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RFP-Tag Polyclonal Antibody |
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| ABM40174-02ml | Abbkine | 0.2ml | EUR 414 |
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Description: A monoclonal antibody for detection of RFP-Tag from Null. This RFP-Tag antibody is for WB. It is affinity-purified from mouse antiserum by affinity-chromatography using the specific immunogenand is unconjugated. The antibody is produced in mouse by using as an immunogen recombinant protein |
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RFP-Tag Polyclonal Antibody |
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| ABP50149-003ml | Abbkine | 0.03ml | EUR 158 |
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Description: A polyclonal antibody for detection of RFP-Tag from Null. This RFP-Tag antibody is for WB. It is affinity-purified from rabbit antiserum by affinity-chromatography using the specific immunogenand is unconjugated. The antibody is produced in rabbit by using as an immunogen recombinant protein |
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RFP-Tag Polyclonal Antibody |
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| ABP50149-01ml | Abbkine | 0.1ml | EUR 289 |
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Description: A polyclonal antibody for detection of RFP-Tag from Null. This RFP-Tag antibody is for WB. It is affinity-purified from rabbit antiserum by affinity-chromatography using the specific immunogenand is unconjugated. The antibody is produced in rabbit by using as an immunogen recombinant protein |
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Due to its small dimension, high-affinity, high-specificity, and stability, anti-GFP Nanobody expressed in E. coli may be purified on a big scale, and used nearly inexhaustibly for immunoprecipitation experiments. Right here we describe protocols for preparation of GST-tagged anti-GFP Nanobody and the VIP assay.
