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- Part I. General subjects
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1. Need for drug delivery systems 1
- Prof. Ana Catarina Silva
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2. Need for drug delivery systems 2
- Prof. João Nuno Moreira
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3. Routes of drug delivery
- Prof. Dr. Sven Stegemann
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4. Transporters in drug delivery
- Dr. Pravin Shende
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5. The theory and applications of controlled release principles
- Dr. Michael J. Rathbone
- Part II. Routes for drug delivery
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6. Oral drug delivery
- Dr. Vineet Kumar Rai
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7. Transdermal drug delivery
- Prof. Sabine Szunerits
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8. Pulmonary drug delivery
- Prof. Anthony J. Hickey
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9. Gastrointestinal drug delivery
- Prof. Susan Hua
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10. Mucoadhesive drug delivery systems
- Dr. Panoraia I. Siafaka
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11. Ocular drug delivery
- Prof. Emily Dosmar
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12. Vaginal and uterine drug delivery
- Prof. José Luis Arias Mediano
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13. Drug-eluting implants
- Dr. Aliasger K. Salem
- Part III. Materials for drug delivery
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14. Polymers as nanocarriers for controlled drug delivery
- Prof. Dr. Marcelo Calderón
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15. Polymeric gels for drug delivery
- Dr. G. Roshan Deen
- Ms. Dora Safar
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16. Liposomes as a drug delivery system
- Dr. G. Roshan Deen
- Ms. Bushra Hasan
- Ms. Renad AlAnsari
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17. Solid lipid nanoparticles (SLN) and nanostructured lipid carriers (NLC)
- Prof. Ana Catarina Silva
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18. Micellar drug delivery
- Prof. Francesco Cellesi
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19. Nanocrystals in drug delivery
- Prof. Eliana Souto
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20. Layer-by-layer assemblies for drug delivery
- Prof. Szczepan Zapotoczny
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21. Inorganic nanostructured interfaces for therapeutic delivery
- Prof. Tejal Desai
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22. Inorganic porous drug delivery carriers
- Prof. Jessica Rosenholm
- Part IV. Specifics of drug delivery
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23. Delivery of genes and nucleotides
- Prof. Esam Yahya
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24. Vaccine delivery
- Prof. Sevda Şenel
- Part V. Drug delivery in various diseases
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25. Drug delivery for cancer therapeutics
- Prof. Tejraj Aminabhavi
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26. Nanomedicines for brain diseases
- Prof. Giovanni Tosi
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27. Drug delivery to the colon
- Prof. Susan Hua
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28. Role of the lymphatic system in drug absorption
- Dr. Kishor M. Wasan
Printable Handouts
Navigable Slide Index
- Introduction
- Lecture outline
- Definition of a micelle
- Micelle formation
- Critical micelle concentration
- Key micelle characteristics
- 1. Size
- 2. Shape
- 3. Drug encapsulation
- Methods of drug encapsulation
- Drug encapsulation parameters
- Nanocarriers and nanomedicine
- Administration routes
- Major nanocarrier entry routes
- Biological barriers
- Passive targeting
- Active targeting
- Opsonization
- The mononuclear phagocyte system
- Stealth characteristics
- Biodistribution
- Micelle design for drug delivery
- Typical micelle polymers in nanomedicine
- Ligand conjugation
- Drawbacks of the CMC
- Unimolecular micelles (1)
- Unimolecular micelles (2)
- Polymer architecture
- Multifunctional micelles
- Stimuli responsive micelles
- Labile chemical bonds
- Advanced encapsulation strategies
- Targeted delivery of paclitaxel via π–π stacking
- pH sensitive micellar pro-drug system
- Cisplatin loaded micelles
- Clinical tested polymer micelles
- Conclusions and future directions
- References
Topics Covered
- The definition of micelles
- Micelles formation
- Critical micelles concentration
- Micelles characteristic: size shape and drug encapsulation
- Methods of drug encapsulation
- Micelles as nanocarriers
- Micelle design for drug delivery
- Advanced drug delivery strategies: multifunctional micelles, stimuli responsive micelles, pH sensitive micellular pro-drug system, cisplatin loaded micelles
Talk Citation
Cellesi, F. (2020, February 27). Micellar drug delivery [Video file]. In The Biomedical & Life Sciences Collection, Henry Stewart Talks. Retrieved December 26, 2024, from https://doi.org/10.69645/RRRA7694.Export Citation (RIS)
Publication History
Financial Disclosures
- Prof. Francesco Cellesi has not informed HSTalks of any commercial/financial relationship that it is appropriate to disclose.
A selection of talks on Pharmaceutical Sciences
Transcript
Please wait while the transcript is being prepared...
0:00
Hello, I'm Francesco Cellesi,
Associate Professor at the Department of Chemistry,
Materials and Chemical Engineering,
"Giulio Natta", Politecnico di Milano in Italy.
The title of this presentation is Micellar Drug Delivery,
a topic which is gaining particular attention in the field of nanomedicine.
0:23
Firstly, I will give you a definition of micelles and
then I will introduce the basic physico-chemical aspects,
which are essential to understand the mechanism of micelle formation.
Afterwards, we'll discuss about the key mechanism
of drug encapsulation in this micellar systems,
and a brief overview on how micelles can act as a nanocarriers will be provided.
Finally, I will show you which tools are
typically used in micelles design for drug delivery,
and some examples of advanced drug delivery strategies will also be provided.
1:06
According to IUPAC definition,
a micelle is a particle of a colloidal dimension that exist in
equilibrium with the molecules or ions in solutions from which it is formed.
In other words, micelles are formed by self-assembling amphiphilic molecules.
This amphiphilic molecules contain hydrophilic polar region,
so we call it head and hydrophobic non-polar region, the tail.
Micelles are formed in aqueous solution,
whereby the polar region phases the outside surface of
the micelle and the non-polar region forms the core.