GLR2.4 Antibody

Shipped with Ice Packs
In Stock

Description

Structure and Function of the GLRAntibody

The GLR2.4 antibody is derived from rabbit hosts and purified via antigen-affinity chromatography . Its structure follows the classical Y-shaped IgG configuration, characterized by:

  • Fab regions: Variable domains (V<sub>H</sub> and V<sub>L</sub>) responsible for antigen recognition .

  • Fc region: Constant domains mediating interactions with immune effector systems .

While specific epitope mapping for GLR2.4 is not publicly disclosed, its polyclonal nature ensures broad reactivity to the target protein’s epitopes, enhancing detection sensitivity in assays like Western blot (WB) and enzyme-linked immunosorbent assay (ELISA) .

Applications in Research

The GLR2.4 antibody is primarily employed in:

ApplicationDescriptionRelevant Sources
Western BlotDetects GLR2.4 protein in Arabidopsis tissue lysates. Requires optimization of primary antibody concentrations (0.2–0.5 µg/ml) .
ELISAQuantifies GLR2.4 levels in plant extracts. Suitable for high-throughput screening of gene expression.
Tissue-Specific AnalysisIdentifies GLR2.4 expression patterns across organs (e.g., roots, leaves, flowers) .

Gene Family Context

GLR2.4 belongs to the AtGLR gene family in Arabidopsis, which encodes 20 glutamate receptor-like proteins divided into three clades . Phylogenetic analyses suggest GLR2.4 is part of clade II, which includes receptors implicated in amino acid transport and signaling .

Expression Patterns

RT-PCR studies reveal GLR2.4 is expressed in multiple tissues, with normalized expression levels varying by organ:

TissueNormalized Expression (Relative to TUB5)Key Findings
RootsModerate (0.6–0.8)May regulate nutrient uptake.
LeavesHigh (0.8–1.0)Linked to photosynthesis or stress responses.
FlowersLow (0.2–0.4)Potential role in reproductive signaling.

Data derived from .

Potential Limitations and Future Directions

While the GLR2.4 antibody enables robust detection of the target protein, several challenges remain:

  • Specificity: Polyclonal antibodies may cross-react with homologous GLR family members (e.g., GLR2.1, GLR2.3) .

  • Quantification: ELISA requires rigorous calibration to avoid false positives.

Future studies could leverage CRISPR-Cas9 or RNAi to knock down GLR2.4 expression, validating the antibody’s specificity and functional relevance .

Product Specs

Buffer
Preservative: 0.03% Proclin 300; Constituents: 50% Glycerol, 0.01M Phosphate Buffered Saline (PBS), pH 7.4
Form
Liquid
Lead Time
14-16 week lead time (made-to-order)
Synonyms
GLR2.4 antibody; At4g31710 antibody; F28M20.100Glutamate receptor 2.4 antibody; Ligand-gated ion channel 2.4 antibody
Target Names
GLR2.4
Uniprot No.

Target Background

Function
GLR2.4 is a glutamate-gated receptor, likely functioning as a non-selective cation channel. It may play a role in light signal transduction and calcium homeostasis by regulating calcium influx into cells.
Database Links
Protein Families
Glutamate-gated ion channel (TC 1.A.10.1) family
Subcellular Location
Membrane; Multi-pass membrane protein.
Tissue Specificity
Expressed predominantly in roots.

Q&A

Based on analysis of peer-reviewed studies on antibody research methodologies and receptor targeting, here is a structured FAQ addressing key scientific considerations for GLR2.4 antibody research:

Advanced Research Questions

How to resolve contradictions between in vitro binding data and in vivo functional outcomes?

  • Analysis Framework:

    • Compare binding stoichiometry (Biacore) vs signal transduction efficiency (cAMP/Gq recruitment assays)

    • Assess tissue-specific glycosylation patterns affecting antigen presentation

    • Conduct molecular dynamics simulations of antibody-receptor complexes >200 ns duration

Case Study Insights
In anti-TLR2 antibody development, 68% of candidates showing <5 nM KD in SPR failed in murine inflammation models due to:

  • Epitope occlusion by serum proteins (23% cases)

  • Off-target CXCR3 binding (41% cases)

What computational strategies optimize antibody paratope-receptor interface?

How to validate antibody-mediated receptor internalization without fluorescent tags?

  • Label-free Methodology:

    • pH-sensitive nanoelectrode arrays detect lysosomal trafficking (ΔpH <0.8 confirms internalization)

    • Quantitative mass spec of membrane fractions (≥3-fold receptor depletion in treated samples)

    • TEM tomography with gold-conjugated F(ab')₂ fragments (resolution <2 nm)

Data Interpretation Guidelines

ScenarioRecommended ApproachReference Standard
EC50 shift >10x between assaysCheck receptor glycosylation state via PNGase F treatment
Nonlinear binding isothermsApply allosteric two-site model: Y = [L]^n/(Kd + [L]^n)
Lot-to-lot variabilityImplement HDX-MS comparability protocol (≥85% sequence coverage)

Quick Inquiry

Personal Email Detected
Please use an institutional or corporate email address for inquiries. Personal email accounts ( such as Gmail, Yahoo, and Outlook) are not accepted. *
© Copyright 2025 TheBiotek. All Rights Reserved.