Recombinant Rhesus Macaque IL1RAP Protein Pre-coupled Magnetic Beads

• Cat.No.: IL1RAP-2062R-B
• Product Overview: The Recombnant protein was conjugated to magnetic beads. This ready-to-use, pre-coupled magnetic beads are in uniform particle size and narrow size distribution with large surface area, which is conducive to convenient and fast capture target molecules with high specificity and achieve magnetic separation. This product can be equipped with automation equipment for high-throughput operations.

Specification

• Source: HEK293
• Species: Rhesus Macaque
• Form: Solution
• Particle size: ~2 μm
• Beads Surface: Hydrophilic
• Capacity: > 200 pmol rabbit IgG/ mg beads
• Applications: Immunoassay, In vitro diagnostics, cell sorting, Immunoprecipitation/Co-precipitation, Protein/antibody separation and purification.
• Stability: Stable for at least 6 months from the date of receipt of the product under proper storage and handling conditions.
• Storage: 2-8℃. Do not to freeze thaw the Beads
• Concentration: 10mg beads/mL
• Storage Buffer: PBS buffer

Gene Information

• Gene Name: IL1RAP interleukin 1 receptor accessory protein [ Macaca mulatta (Rhesus monkey) ]
• Official Symbol: IL1RAP
• Synonyms: IL1RAP; interleukin-1 receptor accessory protein; IL-1 receptor accessory protein; IL-1RAcP
• Gene ID: 574387
• mRNA Refseq: NM_001032960
• Protein Refseq: NP_001028132
• UniProt ID: P59822

Reviews

05/25/2021

High solubility.

07/22/2019

Good for intracellular staining.

05/13/2018

Effective in apoptosis assays.

Q&As

How can single-cell RNA sequencing and proteomics uncover IL1RAP's interactions with immune receptors within complex networks?

Single-cell RNA sequencing and proteomics unveil IL1RAP's interactions in networks.

Can genome-wide mapping and functional assays reveal the epigenetic regulation and context-specific expression of the IL1RAP gene?

Genome mapping and assays unveil IL1RAP's epigenetic control.

How can we unravel IL1RAP's varied distribution across cell types and tissues, clarifying its functional versatility?

Innovative methods clarify IL1RAP's distribution diversity, revealing its functional adaptability.

How do advanced imaging and genetic knockout models shed light on IL1RAP's role in immune cell dynamics and functions?

Advanced imaging and genetic models illuminate IL1RAP's immune role.

What insights do computational simulations and in vitro experiments provide into IL1RAP's interaction kinetics and stability?

Simulations and experiments reveal IL1RAP's interaction details.

Do engineered cellular models clarify IL1RAP's mechanisms in inflammasome activation and cytokine release?

Engineered cell models shed light on IL1RAP's role in inflammation.

Can structural biology techniques elucidate IL1RAP's conformational changes and ligand interactions in inflammation?

Structural techniques provide insights into IL1RAP's ligand interactions.

What strategies unveil the influence of post-translational modifications on IL1RAP's localization and signaling pathways?

Strategies uncover post-translational effects on IL1RAP's signaling.

How do organ-on-chip technologies mimic tissue microenvironments to explore IL1RAP's impact on signaling pathways?

Organ-on-chip tech explores IL1RAP's impact on pathways.

What innovative methods decode IL1RAP isoforms in different cells, revealing their impact on cellular responses?

Novel techniques decode IL1RAP isoforms, exposing their influence on cell responses.