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Price InquiryLiposomal technology has emerged as a transformative platform in the formulation of bioactive compounds, offering enhanced stability, targeted delivery, and controlled release. Fatty acids, due to their inherent physicochemical instability and susceptibility to oxidative degradation, benefit profoundly from liposomal encapsulation strategies. At BOC Sciences, we leverage cutting-edge liposome-based systems to encapsulate a wide range of fatty acids - saturated, unsaturated, short-chain, and long-chain—with unmatched precision and efficiency.
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Price InquiryLiposomal encapsulation significantly improves the aqueous solubility and systemic stability of fatty acids, particularly polyunsaturated fatty acids (PUFAs), such as EPA and DHA, which are notoriously prone to peroxidation. The bilayer membrane structure shields encapsulated fatty acids from environmental stressors, enzymatic hydrolysis, and oxidative reactions.
Liposomal carriers can be engineered with specific surface ligands for tissue or cell-type targeting (e.g., hepatic, neural, or adipose tissues), ensuring the fatty acids are preferentially delivered where they are functionally required. Additionally, controlled-release profiles can be achieved through manipulation of lipid composition and vesicle size.
Liposomal structures enable encapsulation of a wide range of fatty acids, regardless of polarity. Hydrophobic fatty acids are embedded within the phospholipid bilayer, while amphipathic or polar derivatives can be solubilized within the aqueous core or at the interface.
Using natural phospholipids and sterols, our liposomes exhibit high compatibility with biological systems, minimizing immunogenicity and toxicity, thereby aligning with safety profiles required for preclinical evaluation.
Schematic structure of liposomes encapsulated with a variety of fatty acids, such as omega-3, CLAs, etc. (BOC Sciences Original)
At BOC Sciences, our liposomal encapsulation services for fatty acids are engineered to support a diverse array of research needs in metabolic science, lipid biology, neurobiology, and preclinical drug delivery. Rather than offering generic liposomal formulations, we specialize in tailored encapsulation strategies based on the specific class, polarity, chain length, and functional role of the fatty acid.
We provide specialized encapsulation for essential long-chain polyunsaturated fatty acids such as:
These PUFAs are highly prone to oxidation. Our liposomal formulations utilize antioxidant-stabilized phospholipid bilayers and oxygen-reducing processing environments to maintain integrity, prolong shelf life, and protect against oxidative degradation.
We support the delivery of structurally stable fatty acids such as:
Liposomal carriers for these hydrophobic molecules are engineered with high bilayer integration capacity and optimized lipid-to-drug ratios to ensure sustained release and membrane incorporation efficiency.
BOC Sciences also formulates:
These water-soluble or partially soluble acids are encapsulated in liposomes designed with dual-phase partitioning strategies or inclusion in aqueous core systems, ideal for gut microbiota modulation or metabolic disease models.
We provide advanced encapsulation for modified fatty acids, including:
Such complex molecules require customized lipid compositions and encapsulation methods (e.g., microfluidic mixing, ethanol injection) to achieve stability and functional delivery in vitro or in vivo.
BOC Sciences implements a rigorously standardized yet fully customizable workflow for liposomal fatty acids encapsulation, designed to ensure optimal efficiency, batch reproducibility, and molecular stability for diverse preclinical applications. The process integrates analytical development, formulation science, and lipid technology under one unified platform.
We begin with a detailed discussion to understand the fatty acid type, desired delivery profile, application context (e.g., metabolic, neurological, or inflammatory studies), and required physicochemical parameters. Our scientific team provides feasibility analysis and preliminary strategy planning.
Based on the input parameters, we design a liposomal system using appropriate lipid types (e.g., phospholipids, cholesterol, PEGylated lipids) and structural configurations (e.g., MLVs, SUVs). Encapsulation strategies are aligned with the hydrophobicity, volatility, or oxidation susceptibility of the fatty acid.
Using industry-standard or proprietary techniques—such as thin-film hydration, ethanol injection, or controlled microfluidics—we generate small batches of fatty acid-loaded liposomes. Parameters like lipid-to-drug ratio, hydration buffer, and process temperature are optimized iteratively.
All formulations undergo rigorous quality assessments, including:
These metrics ensure consistency, reproducibility, and alignment with experimental needs.
We perform accelerated and real-time stability studies, as well as in vitro release kinetics assays, to assess performance under physiological and storage conditions. Custom testing (e.g., enzymatic release, pH-triggered release) is available upon request.
Once the formulation is validated, we scale up the process to deliver research-grade quantities. Each batch is prepared under strict quality protocols to ensure reproducibility and homogeneity.
All final products are subjected to quality verification and delivered with comprehensive documentation, including protocol sheets, and technical reports. Products are packaged under inert or temperature-controlled conditions as required.
Selecting BOC Sciences means partnering with a globally recognized leader in preclinical CRO services, underpinned by unmatched expertise in liposomal technologies.
Liposomal encapsulation of fatty acids enables a range of advanced applications across preclinical research domains. By offering enhanced solubility, targeted biodistribution, and protection against oxidative degradation, this delivery system significantly expands the research utility of bioactive lipids.
Liposomal formulations of omega-3 and omega-6 fatty acids have demonstrated enhanced uptake in hepatic and vascular tissues, enabling accurate modeling of lipid metabolism, inflammation modulation, and plaque formation in atherosclerosis studies. The protection conferred by the liposome ensures that fragile fatty acids remain bioactive throughout experimental timelines, supporting mechanistic studies of lipid-induced cardiometabolic pathways.
Fatty acids such as DHA and EPA play critical roles in neurodevelopment and cognitive function. Encapsulation in liposomes improves their passage across the blood-brain barrier (BBB), facilitating precise delivery to neuronal tissues. Our service supports preclinical investigations into Alzheimer's disease, Parkinson's disease, and other CNS disorders where fatty acid balance is disrupted. PEGylated or ligand-functionalized liposomes further enhance CNS targeting specificity.
In simulated gastrointestinal environments or in vivo digestion models, liposomal fatty acids show markedly improved solubility, stability against digestive enzymes, and increased uptake by enterocytes. This positions our formulations as powerful tools for studying fatty acid absorption kinetics, nutrient bioaccessibility, and digestive fate in functional food or nutraceutical development pipelines.
Liposomal delivery platforms can be used to modulate hepatic lipid synthesis and β-oxidation pathways by providing consistent, bioavailable doses of specific fatty acids. These applications are especially relevant in studies of non-alcoholic fatty liver disease (NAFLD), steatohepatitis, and metabolic syndrome models, where lipid-induced toxicity and metabolic overload must be tightly controlled and reproducibly modeled.
Fatty acids are known to act as signaling molecules in immune pathways. Liposomal encapsulation allows for their targeted delivery to immune cells such as macrophages, dendritic cells, and T-cells. Preclinical researchers utilize our encapsulated fatty acid systems to investigate immunomodulatory functions, including anti-inflammatory signaling cascades, cytokine modulation, and lipid-mediated activation of peroxisome proliferator-activated receptors (PPARs).
We incorporate antioxidants such as α-tocopherol and use inert processing environments (e.g., nitrogen purging) during formulation. Additionally, lipid bilayer composition is carefully selected to protect against peroxidation, particularly for PUFAs like EPA and DHA.
Yes. We offer functionalized liposomes with ligands (e.g., peptides, antibodies, sugar moieties) for targeting specific cell receptors or tissues, such as hepatic or neural delivery, enhancing the precision of fatty acid biodistribution.
Yes. Co-encapsulation of fatty acids with synergistic agents such as polyphenols, peptides, or nucleic acids is available. This is particularly relevant for studies on synergistic anti-inflammatory or metabolic effects.
Absolutely. We routinely develop formulations optimized for in vivo bioavailability, with validated biocompatibility and stability data in serum-mimicking environments to ensure reproducibility in animal studies.
Both options are supported. Clients may provide high-purity fatty acids, or we can source from validated suppliers. In either case, all input materials undergo strict quality checks prior to formulation.
For scientifically-driven, high-performance liposomal fatty acids encapsulation services, contact BOC Sciences today. Let our lipid formulation experts transform your fatty acid-based research into robust, reproducible, and scalable delivery solutions.
Fatty acids are carboxylic acids with long hydrocarbon chains, typically ranging from 4 to 28 carbon atoms, which may be saturated or unsaturated. They are essential lipid building blocks involved in cellular membrane integrity, energy storage, and signaling pathways, making them vital bioactives in numerous physiological and pathological processes.
Fatty acids are primarily classified based on the presence and number of double bonds into saturated fatty acids (SFAs), monounsaturated fatty acids (MUFAs), and polyunsaturated fatty acids (PUFAs). They can also be grouped by chain length—short-chain (≤6 carbons), medium-chain (6–12), long-chain (13–21), and very-long-chain (≥22)—each category exhibiting distinct metabolic and pharmacokinetic properties.
Omega-3 fatty acids, particularly eicosapentaenoic acid (EPA) and docosahexaenoic acid (DHA), are PUFAs renowned for their anti-inflammatory, cardioprotective, and neuroregenerative effects. In preclinical studies, they demonstrate potent bioactivity in modulating lipid metabolism, reducing pro-inflammatory cytokines, and supporting cognitive and cardiovascular health.