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Oleylamine

Oleylamine is a long-chain unsaturated amine compound with the chemical formula CH₃(CH₂)₇CH=CH(CH₂)₈NH₂.
It is commonly used as a surfactant, dispersant, and emulsifier in various applications such as nanotechnology, pharmaceuticals, and cosmetics.
Oleylamine plays a crucial role in the synthesis and stabilization of nanoparticles, and it has been explored for its potential in drug delivery systems.
Researchers can optimize their oleylamine-related studies by utilizing PubCompare.ai, an AI-driven platform that helps identify the best protocols from literature, preprints, and patents, enhanceing reproducibility and accuracy.
This platform allows researchers to compare key details and find the optimal solution for their experiments.

Most cited protocols related to «Oleylamine»

Cationic Liposomal Formulation of JP4-039

Cited 7 times

The GS-nitroxide JP4-039 has been described in detail previously (17 (link)-21 (link)). JP4-039 (21 (link)) was formulated at final drug concentrations of 8 mg/ml in cationic mutilamellar liposomes termed F-15. F-15 is a unique form of multilamellar liposome (N,N-dioleylamine amido-L-glutamate), which was utilized as a solvent for JP4-039 in order to facilitate adherence of the drug to the esophageal mucosa. The drug is entrapped between lipid bilayers and allows slow release over time from the liposome particles. F-15 was cationically charged to facilitate surface coating and retention for esophageal mucosa. Its composition was: soy PC: Tween-80: N,N-dioleylamine amido-L-glutamate (4:1:1w/w) with a final drug concentration of 8 mg/ml in PBS. It has low toxicity to cultured mammalian cells (>0.5 mg/ml).
Soy phosphatidyl choline, Lissamine rhodamine-phycoerythrin were obtained from Avanti Polar Lipids (Alabaster, AL, USA); Tween-80, tert-boc-L-glutamic acid, oleylamine, dicyclohexylcarbodiimide, N-hydroxysuccinimide, trifluoroacidic acid were obtained from Sigma-Aldrich (St. Louis, MO, USA). Dulbecco's phospate-buffered saline (d-PBS) was obtained from Lonza (Walkersville, MD, USA). A cationic lipid, L-glutamic acid-1,5,-dioleyl amide [NH₂-L-Glu(NHC₁₈H₃₆)₂] was synthesized using a modified route as previously described (37 (link)), by coupling tert-boc-L-glutamic acid and oleylamine with dicyclohexylcarbodiimide and N-hydroxysuccinimide as the coupling agents, followed by use of trifluoroacidic acid as the deprotecting agent.
The lipid mixture (6 mg) and drug to be encapsulated (1 mg) were dissolved in 100 μl tert-butanol, frozen on dry ice, and lyophilized overnight into a cake. The next day, a 62.5 μl d-PBS was added to the lipid cake which was allowed to hydrate for 24 h at room temperature. Cationic liposomes were prepared from the hydrated lipid suspension by manual homogenization using a pair of custom-made tight-fit tube and pestle until a homogeneous consistency were reached. Finally, the liposome suspension was removed from the tube and another 62.5 μl d-PBS was used to rinse the tube and pestle and the wash solution was combined with the liposome suspension. Thus, 1 mg JP4-039 was formulated in 225 μl volumes. The final particle sizes were measured by a laser dynamic scattering method (NP-4 Particle Sizer, Beckman Coutler, Inc., Brea, CA, USA) and found to be in the range of 200-300 nm with a mean of ~255 nm in diameter. Each mouse received an intraesophageal injection of 110 μls of F15 formulation containing 400 μg JP4-039. To determine whether Tween-80 was required for effective uptake, an identical formulation (F14) without Tween-80 was tested.

EPPERLY M.W., GOFF J.P., LI S., GAO X., WIPF P., DIXON T., WANG H., FRANICOLA D., SHEN H., RWIGEMA J.C., KAGAN V., BERNARD M, & GREENBERGER J.S. (2010). Intraesophageal Administration of GS-Nitroxide (JP4-039) Protects Against Ionizing Irradiation-induced Esophagitis. In vivo (Athens, Greece), 24(6), 811-819.

Publication 2010

Acids Alabaster Amides Cations Cultured Cells Dicyclohexylcarbodiimide Dry Ice Esophageal Mucosa Freezing Glutamate Glutamic Acid JP4-039 Lecithin Lipid Bilayers Lipids Liposomes Mammals Mice, House N-hydroxysuccinimide nitroxyl oleylamine Pharmaceutical Preparations Phycoerythrin Retention (Psychology) Rhodamine Saline Solution Solvents tert-Butyl Alcohol TERT protein, human Tween 80

Synthesis of OA/OLA-Stabilized CdSe/CdS QDs

Cited 4 times

The oleic acid (OA)/oleylamine (OLA)-stabilized CdSe/CdS-core/shell-QDs were synthesized according to a modified synthesis described by Carbone et al., Nightingale et al. and Chen et al.^{65 (link)–67 (link)} which is described in detail in the Supplementary Information (SI).

Scholtz L., Eckert J.G., Elahi T., Lübkemann F., Hübner O., Bigall N.C, & Resch-Genger U. (2022). Luminescence encoding of polymer microbeads with organic dyes and semiconductor quantum dots during polymerization. Scientific Reports, 12, 12061.

Publication 2022

Anabolism Oleic Acid oleylamine

Synthesis of Alloyed Quantum Dots

Cited 4 times

Binary CdSe and CdS and ternary CdSeS alloyed cores were synthesized from a non-injection heat-up synthesis using a cadmium carboxylate (cadmium behenate or cadmium myristate), SeO₂, and elemental S as precursors and 1-octadecene (ODE) as solvent. In a typical synthesis, CdSe_xS_1−x (0 ≤ x ≤ 1) QDs were synthesized by mixing Cd behenate (0.2 mmol), SeO₂ (0.2x mmol), and S (0.2(1−x) mmol) in ODE (4 mL) at room temperature and heating to ∼230°C at a rate of ∼20°C/min. The temperature was maintained at 230°C for ∼15 min and the reaction was quenched by decreasing the temperature to ∼100°C and diluting with chloroform (10 mL) containing oleylamine (OLA; 0.6 mL) and oleic acid (1 mL). Finally, a mixture of acetone and methanol was added to precipitate the pure cores. Alloyed HgCdSe(S) cores were prepared via mercury cation exchange on CdSe(S) cores. Typically, CdSe cores dispersed in oleylamine were heated to 50–150°C and mixed with mercury octanethiolate (Cd:Hg = 1:2) to induce cation exchange. After a desired amount of redshift was observed in the absorption spectrum, the reaction was quenched by precipitating the particles with a mixture of acetone and methanol. Details on the chemicals and synthetic parameters for cores with different sizes and compositions are provided in Supplementary Notes 1 and 2

Lim S.J., Zahid M.U., Le P., Ma L., Entenberg D., Harney A.S., Condeelis J, & Smith A.M. (2015). Brightness-equalized quantum dots. Nature Communications, 6, 8210.

Publication 2015

1-octadecene Acetone Anabolism Cadmium Chloroform Methanol Myristate Oleic Acid oleylamine Solvents

Synthesis and Catalytic Properties of Ag3PO4 Nanocrystals

Cited 4 times

Synthesis of Ag₃PO₄ nanocrystals: Ag₃PO₄ nanocrystals were synthesized with reported methods with minor adjustments [6] . In brief, 8.5 g of AgNO₃ and 32 mL of oleylamine were dispersed in 150 mL of toluene and stirred for about 2 h at room temperature. After AgNO₃ was fully dissolved, an ethanol solution containing 50 mL of ethanol, 2 mL of H₂O, 2.84 mL of H₃PO₄ was added into the above solution. The solution tuned into yellow colloid quickly. After reaction for 30 mins at room temperature, Ag₃PO₄ nanocrystals were precipitated by adding ethanol, and washed several times with toluene and ethanol. The dark-yellow precipitate was dried in an oven.
Characterization of Ag₃PO₄ nanocrystals: The phase structure of the as-synthesized products were characterized using X-ray diffraction (XRD, Bruker D8 ADVANCE) with Cu-Kα radiation (λ = 1.5406 Å) at a scanning rate of 6° min⁻¹. The morphology and size of the products were examined by a transmission electron microscope (TEM, JEOL JEM-2100) with an accelerating voltage of 200 kV. The Ag₃PO₄ product dispersed in ethanol was dropped onto a holey copper grid covered with an amorphous carbon film for the TEM examination.
Surface modification for Ag₃PO₄ nanocrystals: Before property investigation, the obtained Ag₃PO₄ nanocrystals were firstly treated through usual ligand exchange route [54] (link) to transfer it to being hydrophilic state. Briefly, about 50 mg of Ag₃PO₄ nanocrystals were dispersed into the mixture of hexane (35 mL), distilled water (15 mL), and ethanol (30 mL) through magnetic stirring. Then, 6-amino caproic acid (0.13 g) and equivalent molar NH₃·H₂O in 5 mL of distilled water was added into the above system. After that, the mixture was heated to 70°C and kept at that temperature for 4 h. The nanocrystals were then collected by centrifugation and washed with water. Through this process, the hydrophobic Ag₃PO₄ nanocrystals were transformed into hydrophilic state, which can be dispersed in water.
Peroxidase-like catalytic activity of Ag₃PO₄ nanocrystals: The peroxidase-like activity of freshly treated Ag₃PO₄ nanocrystals was determined by measuring the formation of a blue charge-transfer complex of diamine from TMB at 652 nm (ε = 39000 M⁻¹cm⁻¹). The TMB oxidation activity measurement, unless otherwise specified, was conducted in sodium acetate buffer (pH 4.0) in the presence of Ag₃PO₄ nanocrystals (2 mg mL⁻¹) with 0.3 mM of TMB and 3.6 mM of H₂O₂. The reaction proceeded at 25°C with time of 30 min.
pH Measurements: The activity of the Ag₃PO₄ nanocrystals at different pH values was performed using the same conditions as above, except different buffer compositions (with different concentration ratios of HAc to NaAc) for different pH values were employed. The reaction was carried out with 2 mg mL⁻¹ of Ag₃PO₄ nanocrystals to which TMB (0.3 mM) and H₂O₂ (3.6 mM) were added. The pH of the different buffers was adjusted by using a pH meter.
Determination of kinetic parameters: The steady-state kinetics were performed by varying one of the concentrations of Ag₃PO₄ nanocrystals (0–4 mg mL⁻¹), H₂O₂ (0.35–7 mM), or TMB (0–0.45 mM) at a time. The reaction was carried out in acetate buffer (pH 4.0) for 30 min and monitored by measuring the absorbency at 652 nm. The kinetic curves were adjusted according to the Michaelis-Menten model.

Liu Y., Zhu G., Yang J., Yuan A, & Shen X. (2014). Peroxidase-Like Catalytic Activity of Ag3PO4 Nanocrystals Prepared by a Colloidal Route. PLoS ONE, 9(10), e109158.

Publication 2014

6-Aminocaproic Acid Acetate Buffers Carbon Centrifugation Colloids Copper enzyme activity Ethanol Hexanes Kinetics Ligands Molar oleylamine Peroxidase Peroxide, Hydrogen Radiation Sodium Acetate Toluene Transmission Electron Microscopy Trypan Blue X-Ray Diffraction

Scalable Synthesis of InAs-CdSe Core-Shell QDs

Cited 3 times

For CSS QD synthesis InAs QDs were synthesized using (TMGe)₃As or (TMSi)₃As as a precursor and purified as described above. The diameter and the concentration of the synthesized particles in solution was determined by using a sizing curve46 (link). Based on QD size a rough estimate of shell precursor material that is necessary to grow a certain amount of shell monolayers was calculated5 (link). However, as InAs QDs do not exhibit a perfectly spherical shape the actual amount of deposited shell material per shell monolayer was found to slightly vary from the calculated values. The shell growth process was monitored by taking frequent aliquots throughout the growth process to determine absorption and fluorescence spectra, as well as QY values such that the final emission peak could be tuned to the desired wavelength. In a typical reaction, purified InAs QDs (96 nmoles, diameter of 4.7 nm, PL emission at 1,039 nm) in hexanes were transferred to a mixture of octadecene (3 ml) and oleylamine (3 ml) in a four neck flask. The mixture of octadecene and oleylamine was previously degassed at 115 °C for at least 1 h. The solution was switched to vacuum to remove the hexanes for 30 min at room temperature and another 10 min at 110 °C. Subsequently, the solution was heated to 280 °C for the shell growth. As soon as the mixture reached 240 °C, shell precursor injection was started using 0.05 M shell precursor solutions in octadecene. Cd(Ol)₂ (111 μmoles) and TOPSe (111 μmoles) were added over the course of 67 min (injection speed 2 ml h⁻¹). InAsCdSe CS QDs were purified using the above described procedure (however using acetone and methanol as non-solvents) and stored in hexanes. In contrast to bare InAs cores, the InAs core-shell QDs were not transferred to a glovebox but stored in air. The size was measured to be 5.1 nm (TEM) and the QDs exhibited a PL peak at 1,296 nm. The resulting InAsCdSe (roughly 86 nmoles, 10% loss through aliquots and purification) were redispersed in octadecene (3 ml) and oleylamine (3 ml), and degassed at room temperature for 30 min and at 100 °C for 10 min. To that solution 3 ml of a 0.05 M Cd(Ol)₂ and 3 ml of a 0.045 M sulfur solution in octadecene were added (150 μmoles Cd and 135 μmoles S) at 240 °C within 1 h. The final QD diameter was determined to be 6.9 nm (TEM) with a PL emission at 1,307 nm.

Franke D., Harris D.K., Chen O., Bruns O.T., Carr J.A., Wilson M.W, & Bawendi M.G. (2016). Continuous injection synthesis of indium arsenide quantum dots emissive in the short-wavelength infrared. Nature Communications, 7, 12749.

Publication 2016

Acetone Anabolism Fluorescence Hexanes indium arsenide Methanol Neck oleylamine Solvents Sulfur Vacuum

Most recents protocols related to «Oleylamine»

Colloidal Nanocrystal Synthesis Protocols

Molybdenum(V) chloride (95%), cobalt (ii)
chloride (97%), bis(trimethylsilyl)sulfide (a.k.a.,
hexamethyldisilathiane, synthesis grade), oleylamine (70%, technical
grade), oleic acid (90%, technical grade), 1-ODE (90%, technical grade),
cyclo hexane (≥99%, ACS reagent grade), hexane (95%, anhydrous),
methanol (99.8% anhydrous), thiophene (≥99%), and n-decane (≥99%, synthesis grade) were purchased from Sigma-Aldrich.
Acetone (99.8%, extra dry) and 1,2,3,4-tetrahydronaphthalene (a.k.a.
tetralin, TCI America, ≥ 97%) were purchased from VWR. All
chemicals were used without further purification with the exception
of oleylamine and 1-ODE, which were each separately degassed for 1
h by cycling between nitrogen flow and vacuum on a Schlenk line at
80 °C prior to use.

Farrell S.L., Khwaja M., Paredes I.J., Oyuela C., Clarke W., Osinski N., Ebrahim A.M., Paul S.J., Kannan H., Mo̷lnås H., Ma L., Ehrlich S.N., Liu X., Riedo E., Rangarajan S., Frenkel A.I, & Sahu A. (2024). Elucidating Local Structure and Positional Effect of Dopants in Colloidal Transition Metal Dichalcogenide Nanosheets for Catalytic Hydrogenolysis. The Journal of Physical Chemistry. C, Nanomaterials and Interfaces, 128(11), 4470-4482.

Publication 2024

Fabrication of Pt Nanoparticle Monolayers

Gold (Au, Sigma-Aldrich, St. Louis, MI, USA, 99.99+%)-coated silicon (Si) substrates were prepared by physical vapor deposition on a Kurt J. Lesker PVD75 system (Lesker Company, Jefferson Hills, PA, USA). To enhance the interaction between Au and Si, a 10 nm adhesive layer of titanium (Ti, Sigma-Aldrich, 99.99%) was first deposited on Si, with a deposition rate of 0.5 Å/s. Then, a 100 nm Au layer was deposited onto the Ti-Si substrate with a deposition rate of 1.0 Å/s. The obtained Au substrate was analyzed by atomic force microscopy (AFM) on a Park NX20 atomic force microscopy.
Surfactant-encapsulated Pt nanoparticles were synthesized by a chemical reduction method [39 (link)]. In a typical synthesis, 2.5 mg chloroplatinic acid hexahydrate (H₂PtCl₆·6H₂O, Sigma-Aldrich, ACS reagent) and 20.0 mg hexadecyltrimethylammonium bromide (CTAB, Sigma-Aldrich, BioXtra, >99%) were mixed in 4.5 mL deionized (DI) water. The solution was heated to 50 °C under constant stirring (400 rpm) for 2 h. Then, 3.0 mg sodium borohydride (NaBH₄, Sigma-Aldrich, ReagentPlus, 99%) was dissolved in 0.5 mL ice-cooled DI water and added dropwise into the solution. The resulting mixture was stirred for another 12 h at 50 °C. The Pt nanoparticles were purified by discarding the precipitate following centrifugation at 3000 rpm for 30 min. The procedure was repeated four times.
To obtain oleylamine-encapsulated Pt nanoparticles, CTAB encapsulated Pt nanoparticles were collected by centrifugation at 13,000 rpm for 30 min. The resulting precipitate was washed with DI water twice and redispersed in oleylamine (Sigma-Aldrich, >98% primary amine)-water solution (0.8 mL oleylamine in 1 mL DI water). The suspension in a closed container was heated to 50 °C and stirred for 12 h. The obtained oleyamine encapsulated Pt nanoparticles were washed three times with methanol (anhydrous, Sigma-Aldrich, 99.8%) and then redispersed in 0.5 mL toluene (anhydrous, Sigma-Aldrich, 99.8%).
The solution was slowly dropped onto a water subphase on a Langmuir-Blodget trough to produce a monolayer of oleylamine-encapsulated Pt nanoparticles. After evaporation of the toluene for 1 h, the film was compressed until a surface tension of 15 mN·m⁻¹ was achieved. The resulting film was then aged for 30 min before being transferred to an Au-coated Si substrate via a pull-out method.

Li G., Zakharov D.N., Sikder S., Xu Y., Tong X., Dimitrakellis P, & Boscoboinik J.A. (2024). In Situ Monitoring of Non-Thermal Plasma Cleaning of Surfactant Encapsulated Nanoparticles. Nanomaterials, 14(3), 290.

Publication 2024

Synthesis of Ni(acac)2 Nanoparticles

Nickel(II) acetylacetonate (Ni(acac)₂, 90%), Dioctyl ether (99%), trioctylphosphine (90%), oleylamine (70%) and low-density polyethylene were purchased from Sigma-Aldrich (St. Louis, MO, USA). Zeolite HY (zeolite Y modified with hydrogen) was purchased from Thermo Scientific (Waltham, MA, USA).

Cho H., Jin A., Kim S.J., Kwon Y., Lee E., Shin J.J, & Kim B.H. (2024). Conversion of Polyethylene to Low-Molecular-Weight Oil Products at Moderate Temperatures Using Nickel/Zeolite Nanocatalysts. Materials, 17(8), 1863.

Publication 2024

Oleylamine and Oleic Acid Characterization

Not available on PMC !

The measurements were performed with a Cary 630 FTIR from Agilent Technologies. Oleylamine and oleic acid were mixed with hydrazine in a glass vial and a drop of this mixture was casted onto the device sample holder. In case of the ligands

Schoske L., Lübkemann-Warwas F., Morales I., Wesemann C., Eckert J.G., Graf R.T, & Bigall N.C. (2024). Magnetic aerogels from FePt and CoPt₃ directly from organic solution. Nanoscale, 16(8).

Publication 2024

Synthesis of CdSe/CdS Core-Shell Nanoplatelets

CdSe/CdS-core/shell-NPLs with a shell thickness of 4.5 ML, surface stabilized with oleic acid and oleylamine, were synthesized according to a procedure adapted from Tessier et al. Abécassis et al. Miethe et al. and Rossinelli et al.^{48 (link)–51 (link)} The NPL synthesis is detailed in the SI.

Scholtz L., Eckert J.G., Graf R.T., Kunst A., Wegner K.D., Bigall N.C, & Resch-Genger U. (2024). Correlating semiconductor nanoparticle architecture and applicability for the controlled encoding of luminescent polymer microparticles. Scientific Reports, 14, 11904.

Publication 2024

Top products related to «Oleylamine»

Oleylamine by Merck Group

Sourced in United States, Germany, United Kingdom, Japan, China, India, Cameroon, Singapore, Belgium, Italy, Spain

Oleylamine is a chemical compound used as a surfactant, emulsifier, and lubricant in various industrial applications. It is a long-chain aliphatic amine with a hydrocarbon backbone and an amino group at one end. Oleylamine is commonly used in the formulation of lubricants, coatings, and personal care products.

Oleic acid by Merck Group

Sourced in United States, Germany, China, Italy, Japan, France, India, Spain, Sao Tome and Principe, United Kingdom, Sweden, Poland, Australia, Austria, Singapore, Canada, Switzerland, Ireland, Brazil, Saudi Arabia

Oleic acid is a long-chain monounsaturated fatty acid commonly used in various laboratory applications. It is a colorless to light-yellow liquid with a characteristic odor. Oleic acid is widely utilized as a component in various laboratory reagents and formulations, often serving as a surfactant or emulsifier.

1 octadecene by Merck Group

Sourced in United States, Germany, China, Japan, Poland, Spain, Singapore, United Kingdom, Italy

1-octadecene is a linear alkene with the molecular formula C18H36. It is a colorless, oily liquid that is commonly used as a chemical intermediate in various industrial and laboratory applications.

Toluene by Merck Group

Sourced in United States, Germany, Italy, United Kingdom, India, Spain, Japan, Poland, France, Switzerland, Belgium, Canada, Portugal, China, Sweden, Singapore, Indonesia, Australia, Mexico, Brazil, Czechia

Toluene is a colorless, flammable liquid with a distinctive aromatic odor. It is a common organic solvent used in various industrial and laboratory applications. Toluene has a chemical formula of C6H5CH3 and is derived from the distillation of petroleum.

Hexane by Merck Group

Sourced in Germany, United States, United Kingdom, Italy, India, Spain, France, Brazil, Ireland, Sao Tome and Principe, Canada, Japan, Poland, Australia, Portugal, China, Denmark, Belgium, Macao, Switzerland

Hexane is a colorless, flammable liquid used in various laboratory applications. It is a saturated hydrocarbon with the chemical formula C6H14. Hexane is commonly used as a solvent, extraction agent, and cleaning agent in scientific and industrial settings.

Ethanol by Merck Group

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Ethanol is a clear, colorless liquid chemical compound commonly used in laboratory settings. It is a key component in various scientific applications, serving as a solvent, disinfectant, and fuel source. Ethanol has a molecular formula of C2H6O and a range of industrial and research uses.

Oleylamine by Thermo Fisher Scientific

Sourced in United States, Belgium, Germany

Oleylamine is a long-chain, unsaturated primary amine compound. It is a colorless to pale-yellow liquid with a characteristic amine odor. Oleylamine is commonly used as a surfactant and emulsifier in various applications, including the synthesis of nanoparticles and the formulation of lubricants and personal care products.

Octadecene by Merck Group

Sourced in United States, Spain

Octadecene is a long-chain hydrocarbon compound with the chemical formula CH3(CH2)16CH=CH2. It is a colorless, oily liquid at room temperature. Octadecene is commonly used as a chemical intermediate in various industrial applications.

Cesium carbonate by Merck Group

Sourced in United States, Germany

Cesium carbonate is an inorganic compound with the chemical formula Cs2CO3. It is a white, crystalline solid that is soluble in water and commonly used in various laboratory applications.

1 2 hexadecanediol by Merck Group

Sourced in United States, Germany

1,2-hexadecanediol is a chemical compound used in various industrial and laboratory applications. It is a long-chain diol with the chemical formula C16H34O2. This product is commonly used as a reagent, intermediate, or additive in various chemical processes and formulations.

What is Oleylamine and what are its common uses?

What are some common challenges in using Oleylamine for research?

One of the main challenges in using Oleylamine is finding the optimal protocols and experimental conditions for your specific research goals. With the vast amount of literature, preprints, and patents available, it can be time-consuming and difficult to identify the most effective protocols. Additionally, subtle variations in experimental details can significantly impact the outcomes, making it crucial to have a thorough understanding of the existing protocols and their relative effectiveness.

How can PubCompare.ai help with Oleylamine research?

PubCompare.ai allows you to more efficiently screen protocol literature and leverage AI to pinpoint critical insights. The platform can help researchers identify the most effective protocols related to Oleylamine for their specific research goals. The AI-driven analysis can highlight key differences in protocol effectiveness, enabling you to choose the best option for reproducibility and accuracy. This can save time, enhance the quality of your experiments, and ultimately lead to more reliable and impactful results.

Are there different types or variations of Oleylamine?

Yes, there are several variations of Oleylamine that may have slightly different properties and applications. For example, some common forms include technical grade Oleylamine, which may contain impurities, and purified Oleylamine, which has been further refined to remove impurites. Researchers should carefully consider the specific needs of their experiments and select the appropriate Oleylamine variation to ensure optimal results.

What are some key applications of Oleylamine?

Oleylamine has a wide range of applications, including: 1. Nanoparticle synthesis and stabilization: Oleylamine is commonly used in the synthesis and stabilization of various nanoparticles, such as metal, semiconductor, and magnetic nanoparticles. 2. Drug delivery systems: Oleylamine has been explored for its potential in drug delivery applications, particularly for the encapsulation and delivery of hydrophobic drugs. 3. Cosmetics and personal care products: Oleylamine is used as an emulsifier, dispersant, and surfactant in cosmetic formulations, such as skincare and haircare products. 4. Lubricants and fuels: Oleylamine can be used as an additive in lubricants and fuels to improve performance and stability.

More about "Oleylamine"

Oleylamine is a long-chain unsaturated amine compound with the chemical formula CH₃(CH₂)₇CH=CH(CH₂)₈NH₂.
It is also known as octadecenylamine, n-octadecylamine, or cis-9-octadecenylamine.
This versatile molecule is commonly employed as a surfactant, dispersant, and emulsifier in a variety of applications, including nanotechnology, pharmaceuticals, and cosmetics.
Oleylamine plays a crucial role in the synthesis and stabilization of nanoparticles, making it an important component in nanomaterial research and development.
Its ability to interact with and stabilize nanoparticles has been leveraged in drug delivery systems, where it can enhance the bioavailability and targeting of therapeutic agents.
Researchers can optimize their oleylamine-related studies by utilizing PubCompare.ai, an AI-driven platform that helps identify the best protocols from literature, preprints, and patents.
This enhances the reproducibility and accuracy of their experiments.
PubCompare.ai allows researchers to compare key details, such as reaction conditions, reagents (e.g., Oleic acid, 1-octadecene, Toluene, Hexane, Ethanol, Octadecene, Cesium carbonate, 1,2-hexadecanediol), and characterization methods, to find the optimal solution for their specific needs.
By taking advantage of this powerful tool, researchers can streamline their oleylamine-related studies, leading to more efficient and effective research outcomes.
Whether you're working on nanoparticle synthesis, drug delivery systems, or other applications involving oleylamine, PubCompare.ai can help you navigate the available literature and protocols to achieve your research goals.