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Liposome Products for
Research & Formulation

Explore ready-to-use liposomes, lipids, preparation tools, and lipid nanoparticle products organized around your payload and application.

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What Are Liposomes?

Liposomes are spherical vesicles composed of one or more phospholipid bilayers surrounding an aqueous core. This structure allows hydrophilic compounds to be carried in the internal aqueous phase and lipophilic compounds to be incorporated within the lipid bilayer, making liposomes versatile delivery and formulation systems.

Liposome performance is influenced by lipid composition, particle size, lamellarity, surface charge, encapsulated payload, and surface modification. These properties can affect stability, loading efficiency, release behavior, biological interactions, and suitability for pharmaceutical, cosmetic, food, and fundamental research applications.

Creative Biostructure organizes its liposome portfolio by application, encapsulated ingredient or payload, and formulation-related need. Researchers can compare ready-to-use products, formulation components, preparation tools, lipid nanoparticles, and encapsulation kits, or request a custom feasibility review when predefined specifications do not meet the study objective.

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Connected development support

From product selection to
liposome characterization

The Mempro™ Liposome Platform supports industry and academic teams from manufacturing through analysis. Match an available product to your study or define a custom project with fit-for-purpose characterization.

Explore the Liposome Platform ↗
01
DefinePayload, application, route
02
FormulateComposition and preparation
03
CharacterizeSize, morphology, properties
04
DeliverProduct and documentation
Case Study

How lipid headgroups shape liposome mechanics and cellular uptake

An independent Langmuir study combined molecular simulations with DOPC-based formulations to examine how secondary-lipid headgroups influence bilayer stiffness, particle properties, and cell-dependent internalization.

Research question

Can lipid headgroup identity be used to tune DOPC liposome mechanics and uptake?

Liposome mechanics can affect circulation, tissue penetration, and cellular internalization, yet the contribution of lipid headgroup chemistry is not always considered during formulation selection. The researchers asked how five saturated 18-carbon secondary lipids—DSPG, DSPA, DSPS, DSPC, and DSPE—alter DOPC bilayer stiffness and how selected formulations behave in normal epithelial and metastatic breast-cancer cells.

Why this matters for product selection

The study shows that nominal lipid identity alone is not sufficient. Headgroup chemistry, molar ratio, particle size, surface charge, diffusivity, and membrane mechanics can act together to influence biological performance.

Experimental workflow

Multiscale simulation followed by focused in vitro validation

  1. 01

    Model mixed bilayers

    All-atom CHARMM36/NAMD and coarse-grained Martini/GROMACS simulations evaluated DOPC with DSPG, DSPA, DSPS, DSPC, or DSPE across multiple molar ratios.

  2. 02

    Calculate molecular interactions

    Area compressibility, lipid order, mixing behavior, contacts, and electrostatic potential were assessed; density-functional calculations supported headgroup-level interpretation.

  3. 03

    Prepare selected liposomes

    Pure DOPC, DOPC/DSPG, and DOPC/DSPA liposomes were synthesized by solvent injection, with the mixed formulations prepared at 85:15 mol/mol.

  4. 04

    Characterize and test uptake

    Dynamic light scattering and zeta-potential measurements were paired with flow-cytometric uptake studies in EpH4-Ev normal epithelial cells and 4T1 metastatic breast-cancer cells.

Key findings

Headgroup chemistry changed stiffness, surface properties, and cell-dependent uptake

≈22%lower area compressibility for 65:35 DOPC:DSPG versus pure DOPC
≈3×higher DOPC/DSPA uptake in EpH4-Ev cells
≈2×higher DOPC/DSPA uptake in 4T1 cells
Formulation Effective diameter Zeta potential
L-DOPC 72 ± 2 nm +2.4 ± 0.1 mV
L-DOPC/DSPG (85:15) 81 ± 1 nm −27 ± 1 mV
L-DOPC/DSPA (85:15) 102 ± 3 nm −36 ± 1 mV

At a given composition, the simulated stiffness trend was DSPG < DSPA < DSPS < DSPC < DSPE, except at 95:5 where values were statistically similar to pure DOPC. The examined 65:35 systems showed no evidence of phase separation or inhomogeneity.

Study takeaway

Lipid headgroups offer a systematic lever for formulation design

The work supports using secondary-lipid headgroup chemistry and composition to tune DOPC bilayer mechanics. Cellular uptake did not follow stiffness alone: the authors interpreted the results as a combined effect of mechanical properties, negative surface charge, effective diameter, and diffusivity.

Interpretation boundary

The maximum simulated stiffness reduction was modest, and the in vitro comparison covered three selected formulations and two mouse cell lines. The authors call for broader experimental mechanical validation before generalizing performance across payloads, routes, or biological models.

Peer-reviewed source

Full reference

Xu, J.; Adepoju, S.; Pandey, S.; Pérez Tetuán, J.; Williams, M.; Abdelmessih, R. G.; Auguste, D. T.; Hung, F. R. “Effects of Lipid Headgroups on the Mechanical Properties and In Vitro Cellular Internalization of Liposomes.” Langmuir 2025, 41 (4), 2600–2618.

View article via DOI

DOI: 10.1021/acs.langmuir.4c04363

Application pathways

Built for diverse research objectives

Drug & biologics delivery
01

Drug & biologics delivery

Small molecules, oligonucleotides, recombinant proteins, and other research payloads.

Cosmetic formulation
02

Cosmetic formulation

Encapsulation of vitamins, peptides, organic acids, botanical extracts, and active complexes.

Food formulation
03

Food formulation

Food-grade liposomal minerals, vitamins, peptides, and bioactive ingredients.

Fundamental research
04

Fundamental research

Cell interaction, recognition, membrane behavior, and delivery-mechanism studies.

Frequently asked questions

What to know before selecting a liposome product

Product requirements depend on composition, payload, application, and analytical needs. A short scientific review is the fastest way to identify an available product or define a custom route.

View All FAQs

Contact the Creative Biostructure sales team through the online inquiry form. Minimum order quantity varies by product and project requirements; the team will confirm the applicable specification and ordering information.

Our scientists work with defined physical and chemical parameters and can support characterization during manufacturing. Available documentation and testing scope should be confirmed for the selected product or custom project.

Yes. Depending on the project, customization may include vesicle size, lipid composition, encapsulated payload, surface properties, or release profile. Share your target application and acceptance criteria for feasibility review.

Choose an off-the-shelf product when its composition and intended application align with your study. A custom project is more suitable when you need a specific payload, lipid ratio, size distribution, surface modification, or analytical package.

Publications

Published research and scientific context

These peer-reviewed publications provide traceable context for liposome characterization, nanomedicine delivery, and formulation design.

  1. 01

    Sizing Extracellular Vesicles Using Membrane Dyes and a Single Molecule-Sensitive Flow Analyzer

    View DOI

    Andronico, L. A., Jiang, Y., Jung, S.-R., Fujimoto, B. S., Vojtech, L., & Chiu, D. T. (2021). Analytical Chemistry, 93(14), 5897–5905.

    The study used Creative Biostructure B-Lipo as defined reference material while developing a membrane-dye workflow for single-vesicle sizing and validating measurements against cryo-EM.

  2. 02

    Nanotechnology for the Efficacious Delivery of Medicinal Cannabis and Pharmaceutical Medicines

    View DOI

    Vitetta, L., Henson, J. D., Hayes, E., Rutolo, D., & Hall, S. (2025). Pharmaceuticals, 18(9), 1385.

    This review examines nanoparticle-enabled drug delivery—including liposomal approaches—as a strategy to improve targeting and address bioavailability limitations associated with oral administration and first-pass metabolism.

  3. 03

    Effects of Lipid Headgroups on the Mechanical Properties and In Vitro Cellular Internalization of Liposomes

    View DOI

    Xu, J., Adepoju, S., Pandey, S., et al. (2025). Langmuir, 41(4), 2600–2618.

    Combining molecular simulations with synthesized DOPC-based formulations, the researchers showed that lipid headgroup identity influences membrane mechanics and cell-dependent liposome internalization.

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