At5g53635 Antibody

Shipped with Ice Packs
In Stock

Product Specs

Buffer
Preservative: 0.03% Proclin 300
Components: 50% Glycerol, 0.01M PBS, pH 7.4
Form
Liquid
Lead Time
Made-to-order (14-16 weeks)
Synonyms
At5g53635 antibody; MNC6.17 antibody; Putative FBD-associated F-box protein At5g53635 antibody
Target Names
At5g53635
Uniprot No.

Q&A

Here’s a structured FAQ collection for researchers investigating the At5g53635 Antibody, synthesized from peer-reviewed methodologies and experimental insights:

How to validate the specificity of At5g53635 antibodies in plant protein studies?

  • Methodology:

    • Perform Western blotting against recombinant At5g53635 and homologous F-box proteins (e.g., Arabidopsis FBD-associated proteins) to test cross-reactivity .

    • Use knockout/knockdown plant lines (e.g., CRISPR-edited Setaria italica) as negative controls to confirm antibody binding specificity .

    • Validate via immunoprecipitation-mass spectrometry to identify co-purified proteins and confirm target interaction networks .

What experimental controls are critical for At5g53635 antibody-based assays?

  • Key controls:

    • Pre-immune serum from the same host species to rule out nonspecific binding.

    • Competitive blocking with purified At5g53635 antigen to verify signal reduction.

    • Isotype-matched irrelevant antibodies to assess background noise in techniques like immunofluorescence .

How to resolve contradictions in At5g53635 localization data across studies?

  • Analytical framework:

    • Compare cell fractionation protocols (e.g., nuclear vs. cytoplasmic extraction buffers) used in conflicting studies .

    • Employ super-resolution microscopy to distinguish true subcellular localization from artifacts .

    • Conduct meta-analysis of published datasets to identify methodological biases (e.g., fixation methods affecting epitope accessibility) .

What computational tools optimize At5g53635 antibody design for structural studies?

  • Approach:

    • Use energy-based preference optimization to refine antibody-antigen binding interfaces, prioritizing residues critical for At5g53635’s F-box domain .

    • Apply AI-guided CDRH3 sequence design (e.g., germline template-based generation) to enhance binding affinity while minimizing off-target interactions .

Methodological Comparison Table

TechniqueApplicationLimitationsKey Source
Library-on-library screeningHigh-throughput binding affinity profilingLimited to in vitro conditions
Residue-level energy decompositionAntibody-antigen interface optimizationRequires high-resolution structural data
Active learning strategiesCost-effective OOD binding predictionDependent on initial labeled dataset quality

Interpreting variable binding kinetics in surface plasmon resonance (SPR) assays

  • Steps:

    • Normalize response units (RUs) to account for baseline drift between runs .

    • Apply global fitting models (e.g., 1:1 Langmuir binding) across multiple concentrations to refine kinetic parameters (ka, kd) .

    • Use Biacore T200 evaluation software for outlier removal and statistical validation .

Reproducibility Checklist

  • Deposit raw imaging data in public repositories (e.g., PRIDE, Zenodo) with metadata .

  • Report antibody clonality, host species, and RRID in methods sections .

  • Validate findings across ≥2 independent plant models (e.g., Setaria italica and Arabidopsis) .

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.