HRP Conjugated Anti-β-Tubulin Mouse Monoclonal Antibody (3G6)

β-Tubulin is a major component of microtubules (~50 kDa) and is broadly expressed in many mammalian cells. Anti-β-Tubulin antibodies are frequently used as a housekeeping/reference target in Western blot (WB) and as a microtubule marker in imaging assays.

Why buyers use anti-β-Tubulin

• WB loading control: Common reference band for normalization, especially for cytosolic/structural proteins.
• Microtubule marker: Useful in IF/IHC to visualize microtubule networks and cell structure.
• Workflow QC: Consistent tubulin signal can help confirm sample quality and transfer efficiency.

When to consider another control

β-Tubulin may vary in:

• conditions that disrupt microtubules (e.g., microtubule-targeting drugs) or strongly change cell cycle/state
• certain specialized samples or fractionation workflows where a different compartment marker is needed

If microtubules are perturbed, consider alternative references such as GAPDH or β-Actin depending on your biology and sample type.

Clone 3G6 is the unique monoclonal antibody clone designation for this product. If you previously used a β-Tubulin antibody labeled “3G6,” this clone number is the key identifier that helps you select the same antibody lineage for better experiment-to-experiment consistency.

What “Clone 3G6” tells you (and what it doesn’t)

• It tells you: this antibody comes from a single monoclonal clone (3G6), meaning the antibody population is uniform and targets one dominant epitope/epitope region.
• It does not guarantee: identical performance across all suppliers, because formulation, purification, conjugation, and validation standards can differ even when the clone number matches.

When choosing Clone 3G6 is especially helpful

• Replacing an antibody: If your previous antibody was “β-Tubulin (Clone 3G6),” matching the clone is the best first step to keep band patterns and background similar.
• Protocol/paper matching: Many published protocols specify the clone. Using the same clone reduces variability when reproducing literature results.
• Standardization across projects: Clone-based standardization is useful when multiple people or sites run the same workflows.

Buyer checks before committing

• Application validation: Confirm Clone 3G6 is validated for your intended assay(s) listed on the product page (e.g., WB vs IF/IHC vs IP).
• Specificity expectations: Review validation images (if available) and confirm the expected signal pattern for your sample type.
• Plan controls: If you are switching from a different clone, run side-by-side comparisons and include positive/negative controls to confirm specificity and background.

For WB, the target is commonly observed around ~50 kDa (apparent size can vary by sample prep and gel conditions).

Tip: This product is HRP-conjugated for direct WB detection, which can simplify workflows by reducing secondary antibody steps. Clone-matching still helps keep results consistent.

Monoclonal antibodies are produced from a single B-cell clone and recognize one dominant epitope/epitope region on the target. They are often chosen for their consistent performance and lot-to-lot reproducibility.

Why buyers choose monoclonal antibodies

• Reproducibility: More consistent results across experiments and over time.
• Specificity: Typically cleaner signals when the epitope is well exposed.
• Standardization: Easier to match literature protocols when a clone is specified.

When to consider another option

• if the target epitope is masked by fixation, folding, or complex formation
• if you need broader recognition across isoforms or modified forms of the protein

In these cases, a polyclonal antibody can sometimes provide stronger overall signal because it recognizes multiple epitopes.

Application(s) indicate which experimental methods this antibody has been tested/validated for. Choosing an antibody validated for your specific method is one of the best ways to reduce troubleshooting.

What the listed application(s) mean

• Western blot (WB): Detects proteins in denatured samples separated by gel electrophoresis; ideal for confirming size and expression changes.
• Immunohistochemistry (IHC): Stains tissue sections; assay conditions (fixation, retrieval, blocking) strongly influence signal and background.

Buyer guidance

• Match your workflow: If your main use is WB, IF, IHC-P, or IP, prioritize antibodies validated for that exact application.
• Sample prep matters: Fixation, permeabilization, antigen retrieval, and lysis buffer can change epitope accessibility and background.
• Use controls: Include positive/negative controls and, when possible, compare with a known antibody or sample.

Host refers to the species in which the primary antibody was raised (here: Mouse). Host selection mainly affects which secondary antibody you should use and can influence background in certain sample types.

Why buyers care about the host

• Secondary antibody matching: Choose an anti-mouse secondary (e.g., anti-mouse IgG) with the right conjugate for your detection method.
• Background control: If your sample contains endogenous immunoglobulins from the same species as the host, background can increase (common in some tissue IHC workflows).
• Multiplex design: Using primaries from different host species helps avoid cross-reactivity in multi-target staining.

When to take extra care

• Mouse-on-mouse IHC/IF (mouse primary on mouse tissue) can increase background; consider mouse-on-mouse kits, highly cross-adsorbed secondaries, or alternative host species.
• For complex staining panels, use cross-adsorbed secondaries and include no-primary controls to check nonspecific binding.

Reactivity describes which species the antibody is expected to recognize based on validation and/or target sequence conservation. Reported reactivity for this product includes: Human, Mouse, Rat, Monkey, Dog, Chicken, Rabbit, Sheep, Insect, Yeast, Hamster.

Why buyers should check reactivity

• Species compatibility: Make sure your sample species is included in the reported reactivity list before ordering.
• Sequence conservation: Even when species are closely related, small sequence differences can affect binding (especially for monoclonals).
• Sample context: Tissue type, expression level, and sample prep can influence whether reactivity translates into a clean signal.

Buyer guidance

• If your species is not listed, consider requesting additional validation or testing a small pilot first.
• Use a positive control sample from a listed species whenever possible to confirm performance.
• For tag antibodies (e.g., GFP/HA/FLAG), reactivity often reflects where the tag is used rather than a native species protein—fusion design and expression level still matter.

HRP-conjugated primary antibodies have horseradish peroxidase (HRP) attached for direct chemiluminescent/colorimetric detection, most commonly in Western blot (WB). This format can reduce steps because no HRP-labeled secondary is required.

Why buyers choose HRP-conjugated primaries

• Faster WB workflow: Eliminates the need for a secondary antibody step.
• Reduced cross-reactivity: Can help avoid background from species-matched secondary antibodies in some setups.
• More consistent detection: Direct labeling can improve standardization for routine assays.

When to consider another format

• If you need IF/IHC multiplexing, an unconjugated primary paired with different fluorophore secondaries may be more flexible.
• If you need IP/Co-IP, bead-conjugated formats (agarose/magnetic) are typically more convenient.