3-FBA, or 3-Fluorobenzylaminorex, is a synthetic compound that belongs to the aminorex class of stimulants. This class is characterized by structural similarity to amphetamines but exhibits distinct pharmacological properties. As a research chemical, 3-FBA is studied primarily for its stimulant potential, structure-activity relationship (SAR) insights, and interaction with monoamine neurotransmitter systems. It has not been approved for human or veterinary use and is intended strictly for laboratory analysis.

• Aminorex Derivative
  3-FBA is chemically part of the substituted aminorex family. It contains a dihydro-oxazoline ring system bonded to a 3-fluorobenzyl moiety, distinguishing it from other aminorex compounds.

• Stimulant Analog
  Though its effects in humans are undocumented due to lack of clinical trials, structurally it mimics central nervous system stimulants by acting on dopaminergic and noradrenergic systems in lab assays.

• Novel Research Compound
  It is relatively new to the research market and lacks a CAS number, further categorizing it as a novel psychoactive substance (NPS) studied for SAR profiling and forensic toxicology.

• Fluorinated Benzyl Substitution
  The presence of fluorine on the benzyl ring modifies its lipophilicity, potentially enhancing blood-brain barrier permeability and impacting its affinity for neural receptors.

• Not Scheduled Internationally
  In many jurisdictions, 3-FBA is not currently scheduled under controlled substance laws but may fall under analogue legislation, which researchers must evaluate before purchase or use.

The chemical structure of 3-FBA features a substituted oxazoline ring fused with a fluorinated benzyl group. This fluorinated substitution plays a critical role in altering the compound’s pharmacokinetic and pharmacodynamic profiles, which is why it attracts significant interest in SAR and receptor-affinity studies. Understanding its chemical composition helps researchers draw connections to other aminorex-type stimulants.

• Molecular Formula: C10H11FN2O
  This combination of carbon, hydrogen, fluorine, nitrogen, and oxygen atoms reflects a moderately compact molecule with potential for CNS activity due to its structural properties.

• Molecular Weight: 194.21 g/mol
  Its relatively low molecular weight makes it an efficient candidate for rapid transport across lipid membranes, an important aspect in neurochemical research.

• Core Structure
  The core oxazoline ring contributes to its stimulant-like scaffold, which interacts with monoamine transporters in simulated environments.

• Fluorine Substitution at Meta Position
  The fluorine atom at the 3-position on the phenyl ring is known to influence both potency and selectivity in fluorinated analogs.

• Structural Relation to 4-FBA and 3-FPM
  Its design allows for comparative research with analogs like 4-FBA and 3-FPM, especially regarding their effects on dopamine and norepinephrine uptake inhibition.

3-FBA is primarily utilized in chemical, neurobiological, and behavioral research. It is designed for in vitro, ex vivo, and in some cases in silico models that analyze how substituted aminorex compounds interact with central nervous system receptors. Its fluorinated nature makes it particularly interesting in SAR mapping and pharmacological modeling.

• Monoamine Transporter Studies
  Researchers investigate how 3-FBA affects dopamine, norepinephrine, and serotonin reuptake mechanisms by simulating transporter interaction in cell models.

• Structure-Activity Relationship (SAR) Mapping
  It aids in determining how specific substitutions (like fluorination) on the aminorex scaffold influence stimulant potency and selectivity.

• Forensic Toxicology Research
  3-FBA is studied to understand how emerging synthetic compounds might appear in forensic screenings or toxicological samples.

• Behavioral Pharmacology (Rodent Models)
  Though not universally adopted, in some countries, 3-FBA has been utilized in authorized rodent studies to observe activity patterns under stimulant analog exposure.

• Metabolic Pathway Analysis
  Using chromatography and spectrometry, scientists map how 3-FBA breaks down in biological simulations, helping to predict real-world metabolic profiles of similar substances.

3-FBA is not scheduled under most international drug control frameworks, but researchers must exercise caution due to the presence of analogue laws. These laws can apply to unscheduled substances based on structural or functional similarity to controlled compounds. The legal status of 3-FBA varies depending on jurisdiction and intended use.

• Unscheduled in Most Countries
  3-FBA is not specifically listed under the UN Convention on Psychotropic Substances, nor under many national drug laws—making it technically legal for research in several regions.

• Subject to Analogue Legislation
  Countries like the United States, Canada, and Australia may regulate 3-FBA as a controlled substance analogue, depending on its structural similarity to aminorex or stimulant compounds.

• Only for Research Use
  Possession is generally permitted when used by accredited institutions or researchers for legitimate scientific investigation. Use outside of research is prohibited.

• Customs and Import Considerations
  When importing 3-FBA, customs authorities may detain or reject shipments if the substance raises suspicion or violates local interpretation of analogue laws.

• Compliance is the Researcher’s Responsibility
  RC Plug provides appropriate labeling and documentation but the researcher is responsible for ensuring compliance with local regulations.

Proper storage of 3-FBA is critical to preserve its chemical integrity, prevent contamination, and ensure long-term usability in research. Due to its hygroscopic nature and sensitivity to environmental factors, researchers must follow strict storage protocols after receiving the product.

• Cool, Dry Conditions
  3-FBA should be stored in a cool area, ideally at temperatures below 25°C (77°F). Avoid places with fluctuating temperatures like windowsills or near heat sources.

• Avoid Humidity Exposure
  The compound is mildly hygroscopic and can degrade when exposed to moisture. Use silica packs or desiccators for optimal preservation.

• Protect from Light
  Ultraviolet or direct sunlight may affect compound stability. Store in amber or opaque containers to minimize light exposure.

• Use Airtight Containers
  Original vacuum-sealed pouches should be resealed tightly after each use. Airtight glass vials with PTFE-lined caps are ideal for lab use.

• Refrigeration (Optional but Ideal)
  For long-term storage exceeding several months, refrigeration at 2–8°C is recommended to maintain peak purity.

• Label Clearly and Store Safely
  Always label with compound name, concentration (if diluted), and date of receipt. Keep out of reach of unauthorized personnel and ensure compliance with lab safety procedures.

3-FBA is strictly prohibited from any form of human or animal consumption. It is not approved by any regulatory or medical authority for clinical, diagnostic, or therapeutic use. Its purpose is exclusively limited to laboratory-based research under controlled, non-clinical conditions. Using 3-FBA outside of a certified research environment can pose serious health and legal consequences.

• No FDA, EMA, or WHO Approval
  3-FBA has not undergone any form of clinical trial or safety evaluation by regulatory bodies like the FDA (U.S.), EMA (Europe), or WHO. It remains entirely unapproved for consumption.

• Unpredictable Pharmacological Effects
  Without validated human data, the short- and long-term effects of 3-FBA on biological systems are unknown. Any form of human exposure carries unpredictable risks.

• Legal Repercussions
  Unauthorized use or distribution for recreational purposes could result in legal action under analogue laws or drug control acts, especially in countries with broad interpretation of controlled substance analogues.

• Veterinary Use Also Prohibited
  No safety or efficacy studies have been conducted for veterinary subjects. Therefore, its use in animals for anything other than laboratory-based in vitro studies is forbidden.

• Toxicity Potential
  As a synthetic stimulant analogue, 3-FBA may carry risks of cardiotoxicity, neurotoxicity, or other adverse physiological interactions if misused—none of which have been sufficiently studied.

• Ethical Research Guidelines
  Researchers must follow institutional review board (IRB) or ethical committee guidelines, which universally restrict unapproved substances from being tested on live human or animal subjects.

To ensure reliable data and proper identification, 3-FBA is analyzed using advanced laboratory techniques that measure purity, structural identity, and behavior in biological models. Analytical chemistry tools are essential for validating 3-FBA before using it in research.

• Gas Chromatography–Mass Spectrometry (GC-MS)
  This method separates and identifies chemical components in 3-FBA samples. It is widely used to confirm compound purity and detect potential contaminants.

• Nuclear Magnetic Resonance (NMR) Spectroscopy
  NMR is used to confirm the molecular structure of 3-FBA by detecting how nuclei within the molecule interact with magnetic fields. This helps validate that the chemical matches its intended identity.

• High-Performance Liquid Chromatography (HPLC)
  Often used to determine compound stability and monitor degradation, HPLC offers accurate quantification of the active compound over time.

• Fourier-Transform Infrared Spectroscopy (FTIR)
  FTIR detects specific functional groups within the compound, providing additional confirmation of its molecular fingerprint.

• In Vitro Assays
  These include cell line models or enzyme inhibition assays to observe how 3-FBA interacts with biological targets like monoamine transporters.

• Solubility and Stability Testing
  Solubility is assessed across different solvents, while stability is monitored under varied environmental conditions to understand storage and usage behavior.

3-FBA is a chemically active compound that can pose risks to health and safety if not handled according to established laboratory protocols. Due to its classification as a novel synthetic stimulant analog, researchers must treat it with caution to avoid exposure, contamination, or accidental misuse.

• Inhalation Hazard
  Powdered 3-FBA particles may become airborne. Inhalation can lead to unknown systemic effects and potential respiratory irritation, especially in enclosed lab environments.

• Skin and Eye Irritation
  Contact with skin or eyes can result in localized irritation or chemical burns. Laboratory personnel should use gloves, goggles, and long-sleeved coats during handling.

• Contamination of Equipment
  Improper handling may lead to cross-contamination of lab surfaces or instruments, which could compromise research integrity or result in toxic exposure to subsequent substances.

• Unintended Chemical Reactions
  Mixing 3-FBA with reactive chemicals or solvents may result in unknown or dangerous chemical reactions, especially in unmonitored settings.

• Environmental Hazard
  If disposed of improperly, 3-FBA may pose ecological risks by contaminating soil or water systems, particularly due to its fluorinated components.

• Violation of Lab Safety Codes
  Mishandling can violate institutional lab safety standards, potentially leading to revocation of research privileges or institutional penalties.

While 3-FBA and 3-FPM are both fluorinated compounds studied for their stimulant properties, they belong to different chemical classes and exhibit distinct behaviors in research settings. Understanding these differences is critical when designing comparative studies or choosing the appropriate analog for a specific research goal.

• Chemical Class Distinction
  3-FBA is an aminorex derivative, whereas 3-FPM (3-Fluorophenmetrazine) belongs to the phenmetrazine family. This foundational difference affects their structure-activity relationship (SAR) profiles.

• Molecular Structure Variation
  The core structure of 3-FBA includes an oxazoline ring, while 3-FPM contains a morpholine ring. These changes influence their molecular targets and binding affinity.

• Potency and Selectivity
  3-FPM has been shown in research models to be more potent and selective as a dopamine reuptake inhibitor. 3-FBA’s exact binding profile is still under investigation and may be more balanced across multiple monoamines.

• Solubility Profiles
  3-FPM generally exhibits better solubility in water-based solvents, making it easier to handle in aqueous lab environments. 3-FBA tends to favor organic solvents due to its structure.

• Pharmacokinetic Behavior
  While both are lipophilic, 3-FPM may cross biological membranes more rapidly, contributing to a shorter onset of action in test subjects. 3-FBA’s fluorine position may alter its absorption and metabolic stability.

• Research Applications
  3-FPM is often selected for studies focusing specifically on dopaminergic systems, whereas 3-FBA is better suited for broader monoaminergic profiling or SAR comparisons within the aminorex class.

Solubility is a key consideration when preparing 3-FBA for laboratory testing. While it has limited solubility in water, it dissolves more effectively in certain organic solvents. Proper solvent selection is necessary to ensure reliable assay results and compound stability.

• Low Water Solubility
  3-FBA is poorly soluble in water, particularly at room temperature. This limits its use in purely aqueous experiments without a co-solvent or pH adjustment.

• Compatible Organic Solvents
  It dissolves readily in ethanol, methanol, DMSO (dimethyl sulfoxide), and acetonitrile. These solvents are commonly used in receptor-binding assays and chromatography.

• Use of Co-Solvents
  Aqueous preparations may require the addition of 5–20% ethanol or DMSO to improve solubility for biological tests such as enzyme assays or transporter studies.

• Impact on pH and Stability
  Acidic or basic environments can alter solubility and potentially degrade the compound. Neutral to slightly acidic conditions (pH 5.5–7.0) are generally more stable.

• Filterability for HPLC Analysis
  When dissolved in methanol or DMSO, 3-FBA can be easily filtered and injected for chromatographic purity testing without precipitation.

• Storage of Solutions
  Stock solutions should be stored at 2–8°C in amber vials and used within 1–2 weeks to avoid breakdown of active components.

Yes, RC Plug offers international shipping for 3-FBA, provided that the destination country allows the import of such research chemicals. While 3-FBA is not scheduled in many regions, researchers should always verify their local and national regulations before ordering. Our shipping process is designed to prioritize both compliance and discretion.

• Discreet International Delivery
  All international shipments are packaged discreetly to avoid unnecessary scrutiny by customs authorities. Packaging is plain, secure, and devoid of product labeling.

• Legal Responsibility of the Buyer
  Although we facilitate the logistics, it is the buyer’s responsibility to ensure 3-FBA is permitted in their jurisdiction. We advise checking with relevant customs or research regulatory bodies before ordering.

• Documentation Included
  Each shipment includes a declaration of content for research use, batch reference, and MSDS (Material Safety Data Sheet) when requested. These documents can assist with customs clearance in many regions.

• Global Shipping Coverage
  We ship to North America, most of Europe, parts of Asia and Oceania, and select countries in Africa and South America, depending on local import laws.

• Tracking and Replacement
  A tracking number is issued for all international orders, allowing researchers to monitor the package in real-time. If customs seize or reject the product, our 30-day replacement or refund policy applies.

• Fast Processing and Dispatch
  Most international orders are dispatched within 24 hours of payment confirmation. We also offer express courier options (e.g., DHL, FedEx) for urgent research needs.

The shelf life of 3-FBA refers to the period during which the compound remains chemically stable and effective for research use when stored correctly. Maintaining stability is essential for research integrity, reproducibility, and safety. Under ideal conditions, 3-FBA maintains its purity and structural integrity for up to 24 months.

• Up to 2 Years When Properly Stored
  If stored in a sealed container under cool and dry conditions (preferably below 25°C), 3-FBA has a shelf life of up to 24 months.

• Moisture and Light Sensitivity
  Prolonged exposure to moisture and ultraviolet light can degrade the compound, reducing purity and altering its behavior in assays.

• Recommended Storage Practices
  Keep 3-FBA in its original vacuum-sealed packaging until ready for use. Once opened, transfer to an airtight, amber-colored vial.

• Refrigeration Enhances Longevity
  Storing the compound between 2–8°C significantly slows degradation and is recommended for long-term storage.

• Signs of Degradation
  Visible clumping, discoloration (e.g., from white to yellowish), or a chemical odor may indicate product breakdown and require reanalysis before use.

• Stability Documentation
  RC Plug provides stability data and purity reports upon request, so researchers can verify the condition of the compound over time.

3-FBA typically appears as a fine, crystalline powder that ranges from white to off-white in color. Its appearance is consistent with many high-purity synthetic compounds in the aminorex class, but visual inspection alone is not a reliable method for identifying chemical purity or structure.

• Crystalline Powder Form
  3-FBA is delivered in powdered form to ensure accurate weighing and easy dissolution in compatible solvents for lab use.

• Color and Texture
  The product is usually bright white or faintly off-white. A uniform appearance indicates good synthesis and minimal impurities.

• Odorless and Dry
  Properly stored 3-FBA has no significant odor and a dry, flaky texture. Moisture exposure may cause clumping or changes in consistency.

• High Purity, Low Particulate Size
  Our batches are lab-tested to confirm a minimum purity of 98%, and the compound is finely milled for precise measurement and application.

• Not Visually Unique
  Despite its physical appearance, 3-FBA resembles many other powdered compounds. Laboratory validation (GC-MS or NMR) is essential for confirming identity.

• Packaging Integrity
  The compound is sealed in anti-static, vacuum-sealed foil pouches to preserve quality during transit and storage.

Yes, we provide complete laboratory reports with every order of 3-FBA to ensure transparency and quality assurance. These reports confirm the compound’s identity, purity, and batch-specific characteristics, giving researchers full confidence in their materials.

• GC-MS and NMR Reports
  Each batch undergoes Gas Chromatography–Mass Spectrometry and Nuclear Magnetic Resonance analysis to confirm purity and molecular structure.

• COA (Certificate of Analysis)
  A detailed Certificate of Analysis is available with each order, showing the date of synthesis, batch number, purity percentage, and analytical method used.

• MSDS Available Upon Request
  Material Safety Data Sheets can be provided to assist with lab handling, hazard identification, and safety precautions.

• Transparency as a Standard
  We believe researchers deserve to know exactly what they are working with. No product leaves our facility without internal validation.

• Custom Report Options
  For institutions needing additional documentation (e.g., chromatograms or spectral data), we can provide extended reports tailored to your compliance needs.

• Verified by Accredited Labs
  All tests are conducted in partnership with independent analytical laboratories specializing in research chemical validation.

3-FBA is being studied for its potential interaction with dopamine transporters and its structural similarities to other compounds known to affect the central nervous system. While there is no published human data, preclinical research and structural analysis suggest that 3-FBA may modulate dopamine levels, making it a subject of interest in monoamine research.

• Likely Dopamine Reuptake Inhibition
  Based on its chemical class and structure, 3-FBA is presumed to act as a dopamine reuptake inhibitor (DRI), though this is confirmed only in simulated environments.

• Structural Analogy to Aminorex
  Like its predecessor aminorex, 3-FBA features a ring system that supports binding at the dopamine transporter (DAT), which could lead to increased synaptic dopamine.

• Monoaminergic Activity Spectrum
  Besides dopamine, 3-FBA may have secondary interactions with norepinephrine and serotonin transporters, contributing to a broader neurochemical profile.

• SAR Modeling Supports Dopaminergic Action
  Structure-Activity Relationship (SAR) data from related compounds supports the theory that fluorinated aminorex derivatives may show strong central stimulant properties.

• Potential Behavioral Effects in Lab Models
  Rodent studies using analog compounds suggest increased locomotor activity when DAT is inhibited—offering a direction for 3-FBA evaluation in future research.

• Unknown Long-Term Effects
  Due to the absence of clinical studies, any chronic impact on dopamine systems is currently speculative and subject to further lab testing.

Handling 3-FBA requires strict adherence to chemical safety protocols due to its status as a novel synthetic compound with unknown biological risks. All researchers and lab personnel must treat the substance as potentially hazardous, regardless of quantity or form. Following standard laboratory safety measures is essential for minimizing exposure and ensuring a controlled research environment.

• Use of PPE (Personal Protective Equipment)
  Always wear protective gloves (nitrile or latex), laboratory coats, and safety goggles when working with 3-FBA to prevent skin or eye contact.

• Work Under a Fume Hood
  Conduct all transfers and manipulations inside a fume hood or well-ventilated chemical safety cabinet to avoid inhaling airborne particles.

• Prevent Cross-Contamination
  Use designated tools and containers for handling 3-FBA. Do not reuse utensils or labware across multiple compounds without thorough cleaning.

• Avoid Ingestion or Inhalation
  Never eat, drink, or touch your face while handling the substance. Inhalation of even trace amounts may lead to unknown biological effects.

• Keep Away from Open Flames or Heat Sources
  Although 3-FBA is not known to be flammable, unknown reactions under heat could occur, especially in solvent mixtures.

• Wash Hands and Surfaces Thoroughly
  After handling, clean all work surfaces with appropriate solvents and wash hands with soap and water to remove any residual material.

• Secure Storage Post-Use
  Immediately reseal the compound in its airtight container after each use and label clearly with date and batch ID.