Features
- Carrier-free formats: Our unconjugated immunoglobulins are offered in carrier-free formulations, free from additives like BSA, sodium azide, and glycerol. This purity ensures superior efficiency in labeling and conjugation processes without the need for additional purification steps.
- High sensitivity and specificity: Each antibody is developed to provide highly sensitive detection and outstanding specificity for target molecules. This design helps obtain reliable and accurate experimental outcomes across various assays.
- Versatile applications: Our antibodies are compatible with a broad range of research techniques. Their flexibility makes them suitable for both basic research and complex experimental studies.
- User-friendly protocols: We provide clear and easy-to-follow protocols that simplify the workflow for users at all technical levels. These streamlined procedures help save time and minimize experimental errors.
- Validated reagents: All our antibodies and reagents undergo rigorous validation.
- Automation-ready: Many of our antibody products are fully compatible with automated systems, enabling seamless integration into high-throughput workflows. This compatibility boosts efficiency and supports large-scale experimental operations.
Applications
- Flow cytometry: Metal-conjugated antibodies are ideal for achieving precise cell analysis and sorting, offering the advantage of minimal spectral overlap during flow cytometry experiments.
- Immunohistochemistry (IHC): Unconjugated and carrier-free antibodies provide dependable and high-quality staining results for tissue samples in immunohistochemistry applications.
- Mass cytometry: Researchers can utilize metal-conjugated immunoglobulins to perform high-dimensional data analysis and multiplex imaging, enhancing the depth and resolution of mass cytometry studies.
- PLA: Oligonucleotide-conjugated antibodies are used to detect protein-protein interactions with high sensitivity in PLA workflows.
- Biochemical assays: Enzyme-conjugated antibodies can be employed to significantly amplify signals in a wide range of biochemical assays, improving detection sensitivity.
- Imaging and biosensing: Nanoparticle-conjugated antibodies are applied in advanced imaging and biosensing technologies, offering unique advantages for sensitive detection and visualization.
- Multiplex IHC: Carrier-free antibodies are ideal for multiplex IHC, making it easier for researchers to perform high-dimensional tissue analysis and uncover the complexities of cellular environments.
What are carrier-free antibodies?
Carrier-free antibodies are made without the need for additives like BSA, sodium azide, or glycerol. By excluding these substances, they are better suited for direct labeling and conjugation, making them a great choice for researchers who need reliable, high-quality results in their experiments without worrying about interference from these additives.
Why use metal-conjugated antibodies?
Metal-conjugated antibodies are perfect for advanced techniques like mass cytometry and multiplex imaging. They help researchers gather detailed, high-dimensional data while minimizing the issue of spectral overlap, making it easier to analyze complex biological samples with greater precision.
What are oligonucleotide-conjugated antibodies used for?
Oligonucleotide-conjugated antibodies are commonly used in techniques such as proximity ligation assays (PLA) and DNA-based barcoding. These advanced methods allow researchers to detect protein-protein interactions with exceptional sensitivity, enabling deeper insights into cellular processes and molecular relationships.
What are the advantages of nanoparticle-conjugated antibodies?
Nanoparticle-conjugated antibodies offer unique detection capabilities for enhanced imaging and biosensing. Their properties improve sensitivity and enable novel analytical applications.
How do enzyme-conjugated antibodies work?
Enzyme-conjugated antibodies are designed to boost the signal in biochemical assays. They work by attaching to specific target molecules, and when activated, the enzyme produces a detectable signal that is much stronger than the original signal. This amplification helps researchers detect even small amounts of the target with high sensitivity and precision, making the detection process both more accurate and reliable.