ABCC11 antibodies are immunological tools targeting ATP-binding cassette subfamily C member 11 (ABCC11), a transmembrane transporter protein. These antibodies enable researchers to detect, quantify, and study ABCC11's role in cellular processes like drug metabolism and disease pathogenesis .
The monoclonal antibody 4H6 (sc-517150) is a well-characterized ABCC11-specific reagent:
Validation studies demonstrate:
Clear band at ~150 kDa in Western blots of ABCC11-expressing tissues .
No cross-reactivity with other ABC transporters like ABCC1 or ABCC4 .
ABCC11 antibodies have been used to:
Identify genetic variants affecting drug response (e.g., 5-fluorouracil sensitivity) .
Map ABCC11 expression patterns in tumor cells to predict chemotherapy resistance .
Structural Analysis:
Therapeutic Targeting:
Population Genetics:
Isoform Diversity: Two ABCC11 splice variants exist, but most antibodies only recognize the full-length isoform .
In Vivo Specificity: Off-target binding in brain tissue requires further investigation .
Current efforts focus on engineering bispecific antibodies combining ABCC11 inhibition with immune checkpoint targeting .
Given the lack of specific information on "ABCI11 Antibody" in the provided search results, I will create a general FAQ collection for researchers focusing on antibody research, particularly in the context of experimental design, data analysis, and methodological considerations. This will be tailored to reflect the depth of scientific research and distinguish between basic and advanced questions.
Q: How do I analyze and interpret data from antibody-based experiments?
Q: What strategies can I use to resolve data contradictions in antibody research?
Q: How do I ensure the specificity and sensitivity of antibodies in my research?
Q: What are the considerations for antibody selection in different experimental applications (e.g., Western blot, flow cytometry)?
A: Choose antibodies based on their suitability for the specific application. For example, antibodies for Western blot should be able to recognize denatured proteins, while those for flow cytometry need to bind to native proteins on cell surfaces. Consult supplier recommendations and literature for application-specific antibodies .
Q: How can emerging technologies like AI accelerate antibody development?
Q: What are the potential challenges in using computational methods for antibody design?
Criteria | Description | Importance |
---|---|---|
Specificity | Ability to bind specifically to the target protein without cross-reactivity. | High |
Sensitivity | Ability to detect the target protein at low concentrations. | High |
Application | Suitability for the specific experimental technique (e.g., Western blot, flow cytometry). | High |
Validation | Evidence of successful use in peer-reviewed publications. | Medium |
Supplier Recommendations | Recommended applications and species reactivity. | Medium |