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Enhancing Drug Delivery Efficiency with Nano-Pharmaceuticals

USD $59.00 USD $249.00Price range: USD $59.00 through USD $249.00

Explore nano-pharmaceuticals for drug delivery, month-long course, cutting-edge nanotechnology in medicine, targeted drug delivery, nano-materials like liposomes and dendrimers, expert-led sessions, regulatory challenges.

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Aim

Enhancing Drug Delivery Efficiency with Nano-Pharmaceuticals explains how nanoformulations improve solubility, stability, targeting, and controlled release. Learn nano-carrier selection, formulation design, characterization, safety basics, scale-up concepts, and a capstone delivery strategy plan.

Program Objectives

  • Efficiency Goals: improve bioavailability, reduce dose, lower toxicity.
  • Platforms: liposomes, LNPs, polymer nanoparticles, micelles, SLN/NLC, nanoemulsions.
  • Targeting: passive/active targeting and ligand concepts.
  • Release: sustained and stimuli-responsive release concepts.
  • Characterization: size/PDI, zeta, loading, release, stability.
  • Safety: biocompatibility, immune response, biodistribution concepts.
  • Manufacturing: batch consistency, sterilization, lyophilization concepts.
  • Capstone: build a nano-delivery plan for a selected drug.

Program Structure

Module 1: Why Nano-Pharmaceuticals Improve Delivery

  • Delivery barriers: solubility, degradation, clearance, off-target effects.
  • Efficiency metrics: exposure, targeting index, therapeutic window (intro).
  • Formulation-to-clinical link: why size/surface matters.
  • Case examples: oncology, antimicrobials, vaccines (overview).

Module 2: Nano-Carrier Platforms

  • Liposomes and lipid nanoparticles: use cases and limits.
  • Polymeric nanoparticles and micelles: loading and release logic.
  • SLN/NLC and nanoemulsions: stability and formulation choices.
  • Dendrimers and inorganic carriers (intro): when used and risks.

Module 3: Formulation Design for Efficiency

  • Choosing excipients: lipids, polymers, surfactants (overview).
  • Encapsulation: hydrophilic vs hydrophobic drugs.
  • Process variables: mixing, ratios, temperature, shear.
  • Stability planning: aggregation, oxidation, leakage.

Module 4: Targeting and Controlled Release

  • Passive targeting and circulation-time concepts.
  • Active targeting: ligand selection and attachment concepts.
  • Stimuli-responsive release: pH/redox/enzymes/temperature (intro).
  • Barrier crossing concepts: mucus, tumors, BBB (overview).

Module 5: Characterization and Performance Testing

  • Size/PDI, zeta potential, morphology concepts.
  • Drug loading, encapsulation efficiency, release profiling.
  • Stability testing: stress, shelf-life, storage conditions.
  • In-vitro models: uptake, permeability, hemocompatibility (overview).

Module 6: PK/PD, Biodistribution, and Safety

  • How nanoformulations change ADME (concepts).
  • Protein corona and immune recognition (intro).
  • Toxicity basics: cytotoxicity, inflammation, complement activation (overview).
  • Safety-by-design principles and risk controls.

Module 7: Scale-Up and Quality

  • Reproducibility and batch consistency.
  • Sterile processing, filtration limits, endotoxin control (overview).
  • Lyophilization and reconstitution planning (intro).
  • Quality basics: CQAs/CPPs and control strategy (intro).

Module 8: Product Strategy and Documentation

  • Choosing route and dosage form: IV, oral, topical, inhalation (overview).
  • Risk claims: what can and cannot be concluded from data.
  • Simple CMC-style documentation: specs, tests, batch record (intro).
  • Translational challenges: stability, scalability, variability.

Final Project

  • Select a drug and define the delivery problem (solubility/toxicity/targeting).
  • Deliverables: platform choice + formulation plan + test panel + safety checklist + short report.
  • Submit: nano-delivery strategy dossier.

Participant Eligibility

  • Students/professionals in Pharmacy, Biotechnology, Biomedical/Nanotechnology
  • Researchers in formulation and drug delivery
  • Basic pharmaceutics helpful

Program Outcomes

  • Select nano-carriers based on drug and delivery goals.
  • Plan formulation variables and characterization tests.
  • Understand safety and scale-up constraints.
  • Create a delivery strategy dossier.

Program Deliverables

  • e-LMS Access: lessons, templates.
  • Toolkit: carrier selection sheet, CQA/CPP template, test checklist, report outline.
  • Capstone Support: feedback on dossier.
  • Assessment: certification after submission.
  • e-Certification and e-Marksheet: digital credentials.

Future Career Prospects

  • Nanopharmaceutics Research Associate
  • Formulation Scientist (Trainee)
  • Drug Delivery R&D Associate
  • Analytical Characterization Associate

Job Opportunities

  • Pharma R&D: nanoformulation and drug delivery teams.
  • Biotech: nanoparticle therapeutics and vaccines.
  • CROs: formulation development and testing services.
  • Academic Labs: translational drug delivery research.
Category

E-LMS, E-LMS+Videos, E-LMS+Videos+Live Lectures

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