Date published: 2026-3-10

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Thyroid Receptor Inhibitors

Santa Cruz Biotechnology now offers a broad range of Thyroid Receptor Inhibitors for use in various applications. These inhibitors are a critical tool in the field of endocrinology and molecular biology, providing researchers with the means to study the regulation of gene expression by thyroid hormones. By blocking the activity of thyroid receptors, scientists can investigate the complex pathways involved in metabolic regulation, development, and differentiation. Thyroid receptor inhibitors are also invaluable in studying the receptor's role in various physiological processes and in understanding the mechanisms of thyroid hormone resistance. These inhibitors enable detailed analyses of receptor-ligand interactions and help explain the molecular basis of thyroid hormone action. The availability of these inhibitors in diverse formats and specificities allows for tailored experimental approaches, facilitating advances in both fundamental and applied sciences. View detailed information on our available Thyroid Receptor Inhibitors by clicking on the product name.
Product NameCAS #Catalog #QUANTITYPriceCitationsRATING

Thyroid Hormone Receptor Antagonist, 1-850

251310-57-3sc-222357A
sc-222357B
sc-222357
1 mg
10 mg
5 mg
$77.00
$132.00
$96.00
2
(1)

Thyroid Hormone Receptor Antagonist, 1-850, exhibits a unique ability to disrupt the binding of thyroid hormones to their receptors, altering gene expression pathways. Its molecular structure allows for specific interactions that inhibit receptor activation, influencing downstream signaling cascades. The compound demonstrates distinct kinetic properties, with a competitive inhibition profile that modulates receptor activity. Its solubility and stability facilitate in-depth studies of thyroid hormone signaling mechanisms.

Diisononyl Phthalate-d4

1332965-90-8sc-498727
sc-498727A
sc-498727B
5 mg
100 mg
250 mg
$245.00
$515.00
$983.00
(0)

Diisononyl Phthalate-d4 is a deuterated phthalate that exhibits unique interactions with thyroid hormone receptors, influencing gene expression and metabolic pathways. The incorporation of deuterium modifies its binding affinity, allowing for precise studies of receptor-ligand dynamics. This compound's distinct molecular configuration enhances its ability to mimic natural ligands, providing insights into endocrine disruption mechanisms and the modulation of thyroid function in biological systems.