Centrophenoxine

Description

Centrophenoxine Overview

Centrophenoxine is a synthetic research chemical compound examined in laboratory environments. It is studied for its potential interactions with cellular metabolism pathways, membrane transport mechanisms, and intracellular biochemical signaling systems.

The compound is formed through the esterification of dimethylaminoethanol (DMAE) and p-chlorophenoxyacetic acid (pCPA). This molecular structure is investigated by researchers in biochemical and molecular biology studies.

In experimental laboratory contexts, Centrophenoxine is studied to analyze cellular metabolic processes and membrane transport dynamics. It is also examined for molecular regulatory pathways within controlled experimental models.

Centrophenoxine is categorized as a laboratory chemical preparation. It is intended strictly for investigational and analytical research purposes.

Chemical and Molecular Properties

Property	Description
Compound Name	Centrophenoxine
Category	Synthetic research chemical compound
Chemical Type	Investigational cellular metabolic pathway modulator
Molecular Components	Esterified compound composed of Dimethylaminoethanol (DMAE) and p-Chlorophenoxyacetic Acid (pCPA)
Chemical Class	Choline-related synthetic laboratory chemical
Lab Safety Required	Handle as a laboratory chemical reagent and follow standard laboratory safety protocols
Storage Conditions	Store in a cool, dry environment away from direct light
Status	Not for human or animal consumption
Regulatory Status	Not approved by regulatory authorities

Centrophenoxine is frequently examined in laboratory research due to its choline-related molecular structure and intracellular transport characteristics, which are investigated in cellular metabolism and biochemical signaling studies.

Working Mechanism of Centrophenoxine

Below is the proposed mechanism currently being investigated in controlled laboratory models.

Cellular Membrane Transport Investigation

Centrophenoxine is studied as a research chemical in molecular biology research due to its interaction with cellular membrane transport systems.

In laboratory experiments, researchers analyze how the compound interacts with:

• cellular membrane permeability mechanisms
• intracellular molecular transport pathways
• choline-related transport signaling networks
• membrane-associated biochemical interactions

These investigations allow scientists to analyze molecular transport behavior within controlled cellular environments.

Choline-Related Biochemical Pathway Studies

Centrophenoxine contains structural components related to choline-associated molecular systems, which are investigated in biochemical laboratory research.

Experimental studies may explore:

• choline-related molecular signaling pathways
• intracellular biochemical regulatory networks
• enzyme-mediated metabolic interactions
• phospholipid-related biochemical pathways

Such research helps scientists examine how choline-derived compounds interact with intracellular regulatory systems.

Cellular Metabolism and Enzyme Interaction Analysis

In biochemical research environments, Centrophenoxine is examined for its interaction with cellular metabolic pathways and enzyme-related signaling systems.

Laboratory investigations may analyze:

• enzyme activity related to metabolic regulation
• intracellular substrate - enzyme interaction mechanisms
• cellular metabolic pathway signaling
• biochemical regulatory responses within cellular models

These experimental approaches help researchers evaluate molecular interactions between synthetic compounds and metabolic regulatory pathways.

Molecular Regulatory Network Investigation

Centrophenoxine is also studied in laboratory settings to analyze its interaction with intracellular molecular regulatory networks.

Researchers may investigate:

• protein interaction signaling pathways
• transcription-related biochemical responses
• intracellular signaling cascades
• regulatory molecular pathway coordination

Such studies contribute to a broader understanding of cellular signaling networks in molecular biology research.

Biochemical Interaction Analysis

The molecular characteristics of Centrophenoxine enable researchers to examine multiple biochemical signaling pathways simultaneously in controlled experimental environments.

Investigational studies may explore:

• cellular metabolic regulatory pathways
• enzyme-mediated biochemical modulation
• intracellular molecular transport systems
• signaling pathway interactions within cellular models

These experimental models allow scientists to analyze complex biochemical interactions within laboratory research systems.

Centrophenoxine Research Applications

The primary investigational applications for Centrophenoxine include:

Cellular Studies

Researchers may analyze intracellular signaling networks, membrane transport mechanisms, and metabolic pathway responses in experimental cellular models.

Molecular Biology Research

Scientists may conduct receptor interaction studies, intracellular signaling analysis, and molecular regulatory pathway investigations using this laboratory chemical compound.

Biochemistry Research

Centrophenoxine may be utilized as a research chemical probe to study enzyme activity, metabolic signaling pathways, and intracellular biochemical interactions.

Analytical Research

Laboratories may employ this compound in controlled experimental environments to evaluate molecular structure characteristics and cellular biochemical signaling mechanisms.

Investigational Status

Centrophenoxine is considered an investigational research chemical compound and is not approved for therapeutic or clinical use.

Buy Centrophenoxine from Purerawz for Research Use

Research institutions and laboratory professionals can obtain Centrophenoxine through our online platform for investigational laboratory studies.

At Purerawz, this compound is provided exclusively as a research chemical preparation intended for scientific evaluation and controlled experimental analysis. Each batch is independently tested and supplied with Certificates of Analysis (COA) to ensure transparency and reliability in laboratory research applications.

Disclaimer

The information presented is intended strictly for educational and scientific reference. All procedures involving these laboratory chemicals must be conducted in appropriate laboratory environments in accordance with institutional research policies and laboratory safety protocols.

By placing an order through our website, you agree to Purerawz Terms and Conditions. If there is any issue with the product received, please contact our support team at support@staging.purerawz.co

ATTENTION: The products mentioned are laboratory chemicals intended solely for research purposes. They must not be used for human or animal consumption.

Reference Links

Centrophenoxine molecular structure and biochemical research https://pubchem.ncbi.nlm.nih.gov/compound/3614

Dimethylaminoethanol (DMAE) biochemical research studies https://pubmed.ncbi.nlm.nih.gov/16543079/

Cellular membrane transport and choline-related biochemical pathways https://pubmed.ncbi.nlm.nih.gov/11287120/