N-ethylhexylcyclohexylamine is a lesser-known experimental compound classified within the alkylamine family. Its structure features a cyclohexyl ring substituted with an ethyl and a hexyl chain, making it unique among related amines. This structural configuration gives it potential relevance in neuropharmacological and chemical research, especially in studies focused on amine transport, receptor interaction, and structure-activity relationship (SAR) exploration.

• Classified as a secondary amine: The nitrogen atom in N-ethylhexylcyclohexylamine is bonded to two alkyl groups (ethyl and hexyl), which defines it chemically as a secondary amine—commonly studied for their role in neurotransmitter mimetics and receptor modulation.

• Not approved for human or veterinary use: This compound has not undergone clinical trials or toxicological evaluation for human safety. It is strictly reserved for laboratory and analytical research.

• Physicochemical properties: Its molecular weight of 211.39 g/mol, oil-like consistency, and high thermal stability make it manageable in experimental assays that require consistent evaporation points or solvent compatibility.

• Amphiphilic behavior: With both hydrophobic (alkyl chains) and mildly polar (amine group) components, this molecule is of interest in permeability and membrane diffusion studies.

• Research potential in neurochemical models: Preliminary structure-based modeling suggests this compound may interact with central nervous system targets, particularly within monoamine transporter or sigma receptor research.

• Novel compound in chemical databases: N-ethylhexylcyclohexylamine does not yet have a recognized CAS number, reflecting its status as a research-only compound outside traditional commercial or pharmacological classification.

N-ethylhexylcyclohexylamine is primarily employed in exploratory research settings where amine functionality, receptor binding affinity, or synthetic derivative modeling are under investigation. Its non-standard configuration makes it especially valuable in advanced pharmacological design or early-stage compound screening.

• Neuropharmacology: Researchers use this compound to investigate its interaction with amine transporters such as dopamine, serotonin, and norepinephrine systems. Its binding potential is of interest in modulating synaptic activity in preclinical models.

• Receptor-ligand modeling: The dual alkyl groups allow modeling of how hydrophobic modifications affect ligand-receptor fit in molecular docking software, helping chemists optimize candidate drug structures.

• SAR (Structure-Activity Relationship) testing: Due to its structural deviation from traditional amines, it serves as a base structure to test how side chain lengths affect potency, lipophilicity, and metabolic stability.

• Comparative analog studies: It is often tested alongside structurally similar amines to determine differential effects on physiological systems, especially in in vitro assay comparisons.

• Permeability assays: Because of its lipophilic profile, the compound is useful in studies of membrane crossing, blood-brain barrier modeling, and compound retention inside lipid bilayers.

• Precursor research for synthetic analogs: Some research teams investigate the potential of this molecule to serve as a precursor or scaffold for novel psychoactive compounds under strictly controlled conditions.

Legality depends on your jurisdiction, but in most regions, N-ethylhexylcyclohexylamine is unregulated and legal to purchase strictly for research purposes. It is not classified as a controlled substance in many parts of the world but still must be handled within the framework of legal chemical handling guidelines.

• Unscheduled in most countries: As of now, N-ethylhexylcyclohexylamine is not listed under international control conventions such as the UN Psychotropic Substances list or the U.S. Controlled Substances Act.

• Intended strictly for laboratory use: Most suppliers, including RC Plug, enforce that this compound is sold for non-human research use only, and buyers must acknowledge this purpose before purchasing.

• Customs requirements may vary: While the chemical is not banned, import regulations in countries like Australia, Sweden, or Japan may impose additional scrutiny or documentation.

• No DEA registration required: In jurisdictions like the United States, this compound does not currently require DEA scheduling permits, although institutional buyers may be subject to lab certification or internal compliance protocols.

• Buyer responsibility: It is the researcher’s duty to ensure compliance with local, state, or institutional laws when acquiring and handling N-ethylhexylcyclohexylamine.

• Research-only documentation: We provide all necessary product data and COAs (certificates of analysis) to assist with academic or regulatory verification.

Proper storage of N-ethylhexylcyclohexylamine is essential to maintain chemical stability, prevent degradation, and ensure consistent research outcomes. Due to its oily, volatile nature, it must be stored in sealed containers under controlled environmental conditions.

• Cool, dark environment: The compound should be kept at 2°C to 8°C (refrigerated but not frozen) to prevent molecular breakdown or oxidation over time.

• Airtight, inert containers: It should be stored in amber glass or HDPE containers to avoid exposure to light and air, both of which can catalyze degradation.

• Avoid moisture and humidity: As a hydrophobic substance, exposure to water can cause emulsion or layer separation, which affects accuracy in measurements and reactions.

• Limited access storage: This is a research-grade chemical that must be kept away from unauthorized personnel, students, or untrained handlers.

• Do not freeze unless required: Freezing may affect viscosity or chemical distribution unless specifically stated in technical handling sheets.

• Labeling and documentation: Containers should be clearly labeled with the full name, date of acquisition, and hazard warnings to ensure lab safety.

N-ethylhexylcyclohexylamine is classified as a chemical reagent and must be handled with standard laboratory precautions. While not known to be acutely hazardous in small quantities, its amine structure requires safety protocols due to possible skin, eye, or respiratory irritation.

• Use personal protective equipment (PPE): Always wear gloves, goggles, and a lab coat when working with the compound. Avoid direct skin or eye contact.

• Work in a ventilated area: A chemical fume hood is recommended to manage vapors or accidental spills, as amine odors can be irritating and persistent.

• Avoid inhalation and ingestion: Although toxicity data is limited, all unknown amines should be considered potentially hazardous if consumed or inhaled.

• Clean spills immediately: Use absorbent materials and neutralizing agents designed for organic bases. Dispose of cleanup materials according to your institution’s chemical waste protocols.

• Keep away from ignition sources: As a flammable organic compound, it should not be used near flames, heat sources, or ungrounded electronic devices.

• Emergency procedures: In case of accidental exposure, follow standard chemical safety protocols—rinse affected area, seek ventilation, and consult medical professionals if symptoms arise.

Understanding the physical and chemical profile of N-ethylhexylcyclohexylamine is essential for researchers working with it in controlled environments. These properties help determine the compound’s behavior under different conditions and guide decisions regarding storage, solubility, and experimental setup.

• Physical state: It typically appears as a pale yellow to clear oily liquid, which indicates its non-crystalline nature and relative stability at room temperature.

• Molecular weight: At 211.39 g/mol, it falls into the mid-range category for small research molecules, making it manageable for precise weighing and molarity calculations.

• Boiling point: Estimated to range between 280°C and 320°C, it has a high boiling point consistent with long-chain alkylamines, which allows for stability in heated applications.

• Solubility: It is insoluble in water but dissolves well in non-polar and moderately polar organic solvents such as ethanol, chloroform, ether, and DCM, facilitating its use in chromatographic and synthesis procedures.

• Odor and volatility: Possesses a faint amine odor that may linger; although it is not highly volatile, adequate ventilation is recommended during handling.

• Stability: The compound is chemically stable when stored away from heat, light, and moisture. It does not degrade rapidly under standard lab conditions.

• Flash point: Its flash point lies between 120°C and 140°C, placing it in the category of flammable liquids that must be kept away from ignition sources.

• pH behavior: As a weak base, it can participate in acid-base reactions but does not ionize easily in aqueous environments due to its low water solubility.

The solubility of N-ethylhexylcyclohexylamine affects its experimental applications, particularly in analytical chemistry, synthesis, and extraction procedures. Being a hydrophobic amine, it behaves differently than water-soluble salts or acids.

• Insoluble in water: Due to the presence of long non-polar hydrocarbon chains, this compound resists dispersion in water, limiting its use in aqueous assays.

• Highly soluble in organic solvents: It dissolves easily in alcohols (ethanol, isopropanol), ethers, hydrocarbons (hexane, toluene), and halogenated solvents like dichloromethane and chloroform.

• Use in biphasic reactions: Researchers can use it in biphasic systems where the organic phase serves as the carrier, especially in solvent partitioning and separations.

• Not suitable for polar aqueous buffers: Due to low polarity, it fails to disperse uniformly in phosphate-buffered saline (PBS) or Tris buffers commonly used in biochemical assays.

• Extraction protocols: When recovering the compound from a synthesis mixture, liquid-liquid extraction using a non-polar solvent is most effective.

• Chromatography compatibility: It is suitable for use in reverse-phase liquid chromatography (RPLC) with organic eluents like acetonitrile or methanol.

• Impact on pH: When dissolved in organic media, it can still behave as a weak base and may require buffering to prevent unwanted reactions.

In experimental settings, N-ethylhexylcyclohexylamine is utilized in a range of exploratory protocols due to its chemical reactivity, membrane permeability, and base strength. While it is not used in clinical trials, its applications in receptor interaction and chemical synthesis modeling are growing.

• Ligand-binding models: The amine group allows for protonation and hydrogen bonding, making it suitable in ligand design experiments.

• Lipophilicity tests: Its extended alkyl chains provide data for evaluating lipophilic compound behavior in tissue models or artificial membranes.

• Analytical calibration standards: It can be diluted and used as a reference material in GC-MS or LC-MS platforms for compound identification.

• Structural analog development: Its framework is used to synthesize related molecules with variations in chain length, polarity, or saturation for SAR studies.

• Neuropharmacological screening: Although not psychoactive itself, it serves as a scaffold to model theoretical interaction with CNS receptors.

• Reaction intermediate in synthesis: In organic synthesis, it may be tested for its reactivity in forming amides, ureas, or Schiff bases with appropriate partners.

As an experimental research chemical, N-ethylhexylcyclohexylamine is not widely documented in regulatory safety databases. However, general safety guidance can be drawn from similar alkylamines regarding handling, toxicity, and hazard classification.

• Lack of full toxicological profile: No comprehensive studies on human or animal toxicity are publicly available, highlighting the need for maximum caution.

• Expected irritant properties: Based on its amine structure, it may cause skin and mucous membrane irritation upon contact, especially at higher concentrations.

• Volatile amine exposure risk: Though not extremely volatile, exposure to vapors in poorly ventilated labs may cause headaches or mild respiratory discomfort.

• Classified as flammable liquid: The estimated flash point classifies it as a flammable substance, requiring safe storage and restricted access in lab environments.

• No known mutagenic or carcinogenic data: There are no official classifications under IARC or NTP, but absence of data should not be interpreted as proof of safety.

• Material Safety Data Sheet (MSDS) required: We provide a detailed MSDS upon request, covering handling, storage, first aid, and disposal procedures.

• Use under institutional review: For academic or private research, usage should be disclosed under the institution’s chemical safety board or equivalent authority.

Yes, N-ethylhexylcyclohexylamine serves as a useful base compound in the synthesis of chemical analogs. Its structure provides flexibility for functional group manipulation, making it attractive for medicinal chemistry and material science researchers seeking to build novel derivatives.

• Useful scaffold for modifications: The secondary amine group allows for straightforward substitution or acylation, ideal for building complex amide structures.

• Alkyl chain tuning: The hexyl and ethyl groups can be modified to assess the impact of chain length on solubility, lipophilicity, and reactivity.

• Potential precursor for amide bonds: It reacts readily with acid chlorides, carboxylic acids (with coupling agents), and anhydrides to form substituted amides or urethanes.

• Involved in heterocyclic synthesis: Can serve as a reactant in ring-closing reactions or condensation steps that lead to nitrogen-containing heterocycles.

• Role in SAR libraries: Frequently used in the creation of compound libraries where incremental changes are made to evaluate binding, efficacy, or permeability in drug discovery.

• Alkylamine donor: Acts as a nucleophile in substitution reactions where the nitrogen targets electrophilic centers such as halides or epoxides.

N-ethylhexylcyclohexylamine stands out due to its hybrid aliphatic-cyclic structure. While many amines fall into clear categories of primary, secondary, or tertiary based on simple alkyl chains, this compound merges a cyclohexyl ring with two distinct alkyl substitutions, enhancing its lipophilic profile and potential receptor interaction diversity.

• Cyclohexyl core with dual substitutions: The cyclohexyl ring gives the molecule a rigid, non-linear backbone, which influences how it interacts with biological receptors or enzymes during modeling.

• N-substitution with ethyl and hexyl groups: The nitrogen atom is bonded to two differently sized alkyl chains—ethyl (short) and hexyl (long)—which creates steric and electronic asymmetry.

• Secondary amine classification: Because only two organic groups are bonded to the nitrogen, the compound is classified as a secondary amine, which typically shows different reactivity and biological behavior compared to primary or tertiary amines.

• Increased lipophilicity: The extended hydrocarbon chains contribute to strong membrane permeability, useful for modeling blood-brain barrier (BBB) penetration or bioaccumulation scenarios.

• Steric hindrance: The spatial arrangement limits certain reactions, making the compound useful for studying bulky ligand interactions or receptor selectivity.

• Electrochemical neutrality: Despite having a reactive nitrogen atom, the molecule maintains a non-ionic profile at physiological pH, which affects how it partitions in organic versus aqueous systems.

While there is no direct clinical data on N-ethylhexylcyclohexylamine’s blood-brain barrier (BBB) penetration, its structural characteristics strongly suggest that it has the potential to cross the BBB, making it interesting for central nervous system (CNS) modeling in research settings.

• High lipophilicity favors diffusion: The long hydrophobic chains (ethyl and hexyl) promote passive diffusion through lipid bilayers, a key requirement for BBB traversal.

• Small molecular size: With a molecular weight of 211.39 g/mol, it remains well below the general 400–500 Da upper limit for BBB permeability.

• Lack of ionization at physiological pH: Because it doesn’t carry a strong charge under typical pH conditions, it can avoid repulsion by the polar extracellular fluid around the barrier.

• No polar functional groups: The absence of hydroxyl, carboxylic, or amide groups reduces its hydrogen-bonding potential, increasing transmembrane mobility.

• Unlikely to be substrate for efflux transporters: Its structure doesn’t resemble known substrates for P-glycoprotein or other common efflux pumps, which often remove xenobiotics from the brain.

• Still unverified in vivo: Despite these indicators, actual BBB permeability would require in vivo testing or in vitro BBB model assays for confirmation.

Yes, N-ethylhexylcyclohexylamine shares chemical similarities with various amines used in industrial, pharmacological, and research contexts. These analogs can offer insights into its expected behavior and utility by comparison.

• N,N-dimethylcyclohexylamine: A tertiary amine that also features a cyclohexyl core, often used as a catalyst in industrial applications. It differs by having two methyl groups instead of long alkyl chains.

• Hexylamine: A primary aliphatic amine with a linear six-carbon chain. It is structurally simpler and lacks the ring structure and ethyl substitution found in N-ethylhexylcyclohexylamine.

• N-ethylcyclohexylamine: Very closely related, but without the extended hexyl group. Often used to study how chain length affects amine basicity and lipophilicity.

• Cyclohexylamine: The parent compound with no alkyl substitution on the nitrogen. Frequently used in synthetic chemistry and pharmacological research.

• N-methylcyclohexylamine: A mono-alkylated secondary amine used in receptor binding models, similar in purpose but chemically less bulky than the ethyl-hexyl version.

• N-alkylamines used in CNS studies: Other secondary or tertiary amines with structural similarities are studied for potential CNS effects, especially when lipophilicity and low molecular weight are present.

Transporting N-ethylhexylcyclohexylamine requires careful handling to prevent degradation, spills, or unauthorized access. Although not classified as a highly dangerous good, it must be treated as a flammable, sensitive research chemical and shipped in compliance with regional transport safety laws.

• Use of sealed, airtight containers: Packaging must be tightly sealed in inert or non-reactive containers to prevent leaks and preserve chemical integrity.

• Discreet external labeling: Shipments from RC Plug never reference the chemical name externally to ensure customs safety and buyer confidentiality.

• UN classification compliance: If applicable, the product should be labeled under the appropriate flammable liquids designation, depending on quantity and region.

• Shock-absorbing materials: Items should be cushioned during transport to prevent breakage or container rupture during transit.

• Temperature control (where applicable): While stable at room temperature, excessive heat may degrade the compound or increase vapor pressure. Climate-sensitive packaging is recommended for long-distance or high-heat regions.

• Courier selection: RC Plug partners with experienced carriers familiar with chemical shipments to reduce risk of customs interception or delay.

• Tracking number provided: Every shipment includes tracking so the recipient can monitor its location and ensure timely delivery.

Analytical techniques are essential for verifying the identity, purity, and concentration of N-ethylhexylcyclohexylamine in research settings. Due to its structure, the compound is amenable to several standard chemical analysis methods.

• Gas Chromatography–Mass Spectrometry (GC-MS): Especially effective due to the compound’s volatility and stable molecular structure, allowing accurate mass determination and fragmentation pattern analysis.

• High-Performance Liquid Chromatography (HPLC): Often used when separation of components in a mixture is necessary, especially in purity testing or during synthesis verification.

• Nuclear Magnetic Resonance (NMR) Spectroscopy: ^1H and ^13C NMR are used to determine the structural integrity of the molecule by identifying the chemical environments of protons and carbons.

• Infrared (IR) Spectroscopy: Helps identify functional groups like the secondary amine (–NH–) through specific absorption peaks around 3300 cm^-1 and 1600 cm^-1.

• Elemental Analysis: Confirms the molecular formula by comparing expected versus found percentages of C, H, and N atoms.

• Thin Layer Chromatography (TLC): May be used as a quick screening tool in synthetic workflows or solvent behavior testing.

• pH titration: Can confirm the basicity of the amine functional group, which is valuable in studies involving acid-base reactions or buffer stability.

In receptor binding studies, N-ethylhexylcyclohexylamine can be explored as a model ligand or scaffold to investigate how molecular shape, lipophilicity, and nitrogen placement affect interactions with neurological and peripheral receptors. Although it is not classified as a pharmacologically active compound, its amine group and structure provide insights into drug-receptor dynamics.

• Secondary amine interaction: The nitrogen group can engage in hydrogen bonding or ionic interactions with receptor sites, mimicking neurotransmitter behavior in certain receptor families.

• Cyclohexyl ring influence: The rigid, saturated ring can alter receptor affinity through steric bulk, impacting how the molecule fits into receptor binding pockets.

• Hydrophobic domain testing: The extended alkyl chains simulate lipophilic moieties often found in active drugs, making the compound suitable for modeling lipid domain interactions on membrane-bound receptors.

• SAR comparison model: Researchers use the compound in side-by-side studies to compare binding affinity differences across analogs with varying chain lengths or substitution patterns.

• Passive versus active targeting: Its profile helps test whether molecules with similar properties can bind passively (due to lipophilicity) or require specific active sites.

• Sigma receptor modeling: Structurally, it bears similarities to some sigma-1 receptor ligands and may be explored for theoretical or in vitro binding studies in that class.