Price range: $250.00 through $6,500.00

Trade names; Buphedrone

Formula; C11H15NO

Molar mass; 177.247 g·mol−1

CAS Number; 408332-79-6 check 166593-10-8 (hydrochloride)

PubChem CID; 53249194

ChemSpider 26286946

 

Exploring Buphedrone: History, Chemical Classification, and Effects

Introduction to Buphedrone

Buphedrone, also known as α-methylamino-butyrophenone (MABP), is a synthetic compound that belongs to both the phenethylamine and cathinone classes of chemicals. Its structure closely resembles other well-known psychostimulants, providing insight into its potential effects on the human body and brain. Understanding its chemical classification is essential for comprehending how buphedrone interacts with neurotransmitter systems and influences mood, energy, and cognition.

Buphedrone was first synthesized in 1928, initially investigated as a potential pharmaceutical agent. Over time, however, its use has extended beyond medicinal applications, gaining attention within recreational drug culture. As a member of the cathinone family, buphedrone shares structural features with compounds like methcathinone, which has fueled research into its pharmacological effects and safety profile.

Its chemical structure—a basic phenethylamine skeleton with additional alkyl and amino groups—enables interactions with dopamine, norepinephrine, and serotonin systems. These interactions underpin its stimulant properties and help explain both its appeal and potential risks, especially as buphedrone continues to appear in legal and underground markets.


Chemical Structure and Classification

Buphedrone is categorized as a synthetic phenethylamine and cathinone, sharing key structural traits that contribute to its psychoactive effects. Its core phenethylamine backbone—a phenyl ring linked to an ethylamine chain—features a ketone group, placing it squarely in the cathinone subfamily. While small structural differences set it apart from related compounds, these nuances are crucial in understanding its pharmacokinetics and pharmacodynamics.

Variations in functional groups and chain branching influence buphedrone’s affinity for neurotransmitter receptors, shaping its stimulant effects. The ketone group, in particular, affects how the compound is metabolized and how it interacts with the central nervous system. Classifying buphedrone within these chemical families provides a framework for researchers and clinicians to predict its effects, explore potential therapeutic applications, and assess risks associated with misuse.


Historical Context and Research

Buphedrone was first synthesized by chemist A. H. C. P. Müller in 1928 as a potential treatment for medical conditions, though its clinical use was limited by the development of more effective drugs. Over the decades, research on buphedrone expanded, revealing stimulant effects similar to other cathinones and demonstrating its ability to influence dopamine levels in the brain.

By the late 20th century, growing interest in synthetic stimulants led to more studies examining buphedrone’s effects and risks. As recreational use increased, governments began regulating the compound. For example, the UK classified buphedrone as a controlled substance under the Misuse of Drugs Act in 2010. This evolution highlights how scientific, societal, and regulatory factors have shaped the understanding and oversight of buphedrone over time.


Effects and Uses of Buphedrone

Buphedrone is a synthetic stimulant noted for its psychoactive properties, producing effects similar to amphetamines. Users report increased energy, heightened euphoria, and enhanced sociability, making it appealing in recreational contexts. Its stimulating effects can also promote prolonged wakefulness, which attracts individuals seeking extended focus or recreational highs.

While buphedrone has been explored for potential therapeutic uses—such as treating attention deficit disorders—its stimulant properties come with risks. Common side effects include increased heart rate, elevated blood pressure, anxiety, and insomnia. Severe use can lead to cardiovascular complications, paranoia, and dependence. Effects may vary between individuals, and long-term consequences remain poorly understood, emphasizing the need for caution and further research.


Current Legal Status and Future Prospects

Buphedrone’s legal status differs worldwide, with many countries classifying it as a controlled substance due to its abuse potential and health risks. In the United States, it is often listed as a Schedule I substance, indicating high potential for abuse and no accepted medical use. Similar regulations exist across Europe, reflecting global concern about synthetic stimulants.

However, legislation is evolving. Some regions are considering limited medical use under strict safety protocols, reflecting growing interest in research-based harm reduction and potential therapeutic applications. Future studies may clarify buphedrone’s pharmacology and open possibilities for responsible use in clinical contexts, particularly for conditions with limited treatment options.

In summary, buphedrone sits at the intersection of science, public health, and policy. Its stimulant effects and therapeutic potential must be weighed against the risks of misuse, highlighting the importance of continued research, regulation, and public awareness.