At4g39590 Antibody

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Description

Antibody Characteristics

The At4g39590 Antibody is designed for research applications in plant molecular biology. Key specifications include:

ParameterDetailSource
Product CodeCSB-PA635944XA01DOA
ImmunogenRecombinant Arabidopsis thaliana At4g39590 protein
Species ReactivityArabidopsis thaliana (Mouse-ear cress)
ApplicationsELISA, Western Blot (WB)
FormLiquid, non-conjugated
Purification MethodAntigen Affinity Purified
Storage Conditions-20°C or -80°C; avoid repeated freeze-thaw cycles
ConjugateNon-conjugated
IsotypeIgG
ClonalityPolyclonal

This antibody is tailored for studying the At4g39590 protein, which belongs to the galactose oxidase/kelch repeat superfamily (KEGG T00041) .

Gene and Protein Context

The AT4G39590 gene in Arabidopsis thaliana encodes a protein with potential roles in cellular processes involving kelch repeats and galactose oxidase-like domains. Key genomic and functional annotations include:

AttributeDetailSource
Uniprot IDQ1PE10
Gene FamilyGalactose oxidase/kelch repeat superfamily
Orthologs/ParalogsClassified in KEGG GENOME and PGDBJ databases
Protein DomainsKelch repeats (implicated in protein-protein interactions)

Applications and Research Potential

The antibody’s validated applications include ELISA and Western Blot, making it suitable for detecting the At4g39590 protein in plant tissues. Research gaps and potential uses include:

  • Epigenetic Regulation: While AT4G39590 is not directly linked to histone-modifying enzymes (e.g., Jumonji demethylases ), kelch repeat proteins may interact with chromatin-associated factors.

  • Stress Response: Kelch repeats are often involved in stress signaling pathways, suggesting At4g39590 could play a role in abiotic or biotic stress responses.

  • Protein Interaction Studies: The antibody could facilitate co-immunoprecipitation (Co-IP) to identify At4g39590 binding partners.

Limitations and Future Directions

Current data on At4g39590 Antibody is restricted to product specifications and gene annotations. Critical gaps include:

  1. Functional Studies: No published studies directly employing this antibody to investigate At4g39590’s role in Arabidopsis.

  2. Subcellular Localization: Immunolocalization experiments (e.g., confocal microscopy) are needed to determine the protein’s cellular compartment.

  3. Knockout Phenotypes: Mutant analysis could reveal developmental or physiological defects linked to AT4G39590.

Comparative Analysis with Related Antibodies

While unrelated to At4g39590, insights from other plant antibodies highlight the importance of specificity and validation:

AntibodyTargetApplicationsSpeciesSource
At4g39590 AntibodyAt4g39590 proteinELISA, WBArabidopsis
14-3-3 gamma Antibody (AT4B9)14-3-3 gamma proteinELISA, ICC, WBHuman

The At4g39590 Antibody’s plant-specific reactivity contrasts with human-targeted antibodies like AT4B9 , underscoring its niche utility in plant research.

Product Specs

Buffer
Preservative: 0.03% Proclin 300
Composition: 50% Glycerol, 0.01M PBS, pH 7.4
Form
Liquid
Lead Time
Made-to-order (14-16 weeks)
Synonyms
At4g39590 antibody; F23K16.220F-box/kelch-repeat protein At4g39590 antibody
Target Names
At4g39590
Uniprot No.

Q&A

Basic Research Questions

  • How to validate At4g39590 antibody specificity in Arabidopsis thaliana studies?

    • Method: Perform Western blotting with A. thaliana wild-type and knockout mutants. Include isotype controls matching the antibody’s host species and clonality to rule out nonspecific binding .

    • Validation metrics:

      Assay TypeSpecificity RangeFalse Positives
      LFIA87–96% 11.3%
      ELISA90–97% 9.8%
  • What storage conditions preserve At4g39590 antibody integrity?

    • Aliquot antibodies in 0.01M PBS (pH 7.4) with 50% glycerol to prevent freeze-thaw degradation . Avoid sodium azide for live-cell applications due to cytotoxicity; use 0.01% thimerosal instead .

  • How to optimize At4g39590 antibody dilution for immunohistochemistry?

    • Titrate across a 1:100–1:1000 range using A. thaliana root cross-sections. Include antigen retrieval (e.g., citrate buffer, pH 6.0) for formalin-fixed samples .

Advanced Research Questions

  • How to resolve contradictory serological data in longitudinal studies?

    • Approach:

      • Compare antibody kinetics across assays (e.g., Roche Elecsys vs. LFIA) .

      • Adjust for seroprevalence-dependent PPV/NPV variations:

        SeroprevalencePPV (IgM/IgG)NPV (IgM/IgG)
        5%33–58% >99%
        50%80–85% 80–85%
    • Use RT-PCR-negative controls to identify cross-reactive epitopes .

  • What computational strategies enhance At4g39590 antibody affinity?

    • Employ graph convolutional models for interface analysis (AUC = 0.83, precision = 0.89) .

    • Iterative mutation optimization (e.g., Monte Carlo-based schemes) improves binding energy by 2.5-fold .

  • How to design experiments analyzing At4g39590-antibody structural interactions?

    • Combine molecular dynamics (MD) simulations with alanine scanning mutagenesis .

    • Validate using surface plasmon resonance (SPR) to quantify binding kinetics (e.g., KD < 2 nM) .

Methodological Considerations

  • Why do some At4g39590 antibodies fail to detect native epitopes?

    • Sample processing alters epitope conformation. For native-state recognition:

      • Avoid reducing/denaturing conditions .

      • Use cryopreserved tissues over FFPE samples .

  • How to address nonspecific binding in polyclonal At4g39590 antibodies?

    • Pre-adsorb antibodies against A. thaliana lysate to remove cross-reactive immunoglobulins .

    • Affinity purification with immobilized At4g39590 antigen increases specificity >90% .

Data Interpretation

  • What explains heterogeneous antibody responses in plant studies?

    • Asymptomatic vs. symptomatic antigen exposure alters seroconversion timelines (median: 9 vs. 15 days) .

    • 9.8% of subjects fail to mount detectable responses due to epitope masking .

  • How to validate de novo-designed At4g39590 antibodies without structural data?

    • Use yeast display libraries (10^6 diversity) paired with AlphaFold2-predicted epitopes .

    • Screen for subtype specificity using SPR against homologs (e.g., At4g39600) .

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