Levothyroxine (T4) 400mcg per ml x 30ml

$21.99

  • 400mcg
  • 30mL
  • Suspended in Polyethylene glycol (PEG)
  • Made in the USA
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Description

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Levothyroxine is a synthetic form of the thyroid hormone thyroxine, also known as T4. This compound is of significant interest in scientific research due to its critical role in the regulation of metabolism and its potential applications in various studies. This overview will explore the structural composition, mechanism of action, and key research areas associated with Levothyroxine.

Structural Composition and Mechanism of Action

Levothyroxine is a synthetic analog of the naturally occurring hormone thyroxine. Its molecular structure closely mimics that of endogenous thyroxine, allowing it to interact effectively with thyroid hormone receptors in the body. These receptors are present in nearly all tissues and are crucial for the regulation of metabolism, growth, and development.

The primary mechanism of action for Levothyroxine involves its conversion to the active form, triiodothyronine (T3), within cells. Once converted, it binds to thyroid hormone receptors in the cell nucleus, influencing the expression of various genes involved in metabolic processes. This interaction is essential for the regulation of energy production, protein synthesis, and overall metabolic rate.

Key Research Areas

  1. Thyroid Function and Regulation: One of the primary research areas for Levothyroxine is its impact on thyroid function and regulation. Researchers study how Levothyroxine mimics natural thyroid hormones and its effects on the endocrine system. Studies focus on understanding the molecular mechanisms by which Levothyroxine regulates thyroid hormone levels and influences metabolic processes.
  2. Metabolic Studies: Levothyroxine is extensively studied for its effects on metabolism. By influencing the thyroid hormone receptors, Levothyroxine plays a critical role in regulating basal metabolic rate, energy expenditure, and lipid metabolism. Researchers investigate how Levothyroxine affects these metabolic pathways, providing insights into metabolic regulation and potential therapeutic applications.
  3. Gene Expression and Cellular Metabolism: Another significant area of research involves the role of Levothyroxine in gene expression and cellular metabolism. Studies examine how Levothyroxine influences the transcription of genes involved in metabolic processes. Researchers explore the potential of Levothyroxine to modulate these pathways and its implications for cellular health and metabolic disorders.
  4. Comparative Studies with Other Thyroid Hormones: Levothyroxine is often compared with other thyroid hormones, such as T3, to evaluate its relative efficacy and selectivity. Comparative studies focus on its pharmacological advantages, including its longer half-life and more stable serum levels. These studies help establish Levothyroxine’s unique characteristics and potential benefits over other thyroid hormones.
  5. Pharmacokinetics and Bioavailability: The pharmacokinetics and bioavailability of Levothyroxine are also key research focuses. Researchers investigate how Levothyroxine is absorbed, distributed, metabolized, and excreted in the body. Understanding these factors is crucial for optimizing the use of Levothyroxine in various research applications.

Applications in Scientific Research

Levothyroxine is widely used in scientific research due to its specific action on thyroid hormone receptors and its ability to modulate various metabolic processes. Its applications span multiple fields, including endocrinology, metabolism, gene expression, and pharmacokinetics.

In endocrinology, Levothyroxine is used to study the mechanisms of thyroid hormone regulation. Researchers investigate how Levothyroxine mimics natural thyroid hormones and its effects on the endocrine system, providing insights into thyroid function and potential therapeutic applications.

In metabolic research, Levothyroxine’s role in regulating basal metabolic rate and energy expenditure is a key focus. Studies explore how Levothyroxine influences lipid metabolism and overall metabolic health, offering potential applications in metabolic disorders.

In gene expression studies, Levothyroxine’s impact on the transcription of genes involved in metabolic processes is examined. Researchers explore how Levothyroxine modulates genetic pathways associated with cellular metabolism and its implications for metabolic research.

In pharmacokinetics, the absorption, distribution, metabolism, and excretion of Levothyroxine are studied to optimize its use in research settings. Understanding these factors is crucial for developing effective research methodologies involving Levothyroxine.

Conclusion

Levothyroxine is a powerful synthetic thyroid hormone with significant potential in scientific research. Its ability to mimic natural thyroid hormones and modulate various metabolic processes makes it invaluable for studying thyroid function, metabolism, gene expression, and pharmacokinetics. As research continues, Levothyroxine remains a critical focus for advancing our understanding of these complex biological mechanisms and their potential applications.

Read more about Levothyroxine on Wikipedia

Levothyroxine T4 , also known as L-thyroxine, is a manufactured form of the thyroid hormone thyroxine (T4)

Levothyroxine_200.svg

Molecular Formula C15H11I4NO4
Molecular Weight 776.87
CAS 51-48-9
Physical State & Appearance Liquid (Clear)
Storage Requirements Room Temperature
Terms The products we offer are intended for laboratoryresearch use only. Please familiarize yourself with our terms of service prior to ordering.

ALL PRODUCTS OFFERED ON THIS WEBSITE ARE INTENDED FOR LABORATORY RESEARCH USE ONLY

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Weight 0.0004 g
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