ASZAD ALAM
Swinburne University of Technology, Indian Institute of Technology Hyderabad
About
I enjoy working on nanomaterials, especially on the "Interactions at Nanoscale for the Design of the Efficient Drug Delivery Systems". This study involves the experiments and analysis of the different ways of attachment, assembly, and distribution of the inorganic/organic nanoparticles on the nanofiber/biopolymers for achieving the desired attributes in Drug Delivery Systems.
My work focuses on the development of Magnetic Nanocomposites for optimized Magnetic Hyperthermia Performance by tailoring the interactions of Magnetic Nanoparticles (Spinel ferrites, Soft magnets) to the Nanofibrous substrates (Cellulose nanofibers and Carbon nanotubes) and investigating the underlying magnetic phenomenon. Then I utilize these Magnetic Nanocomposites/scaffolds as Drug Delivery Systems by exploiting the Drug-Matrix interactions, Magnetic Hyperthermia effect, and their tailored response in the desired release environment.
#Magnetic Nanocomposites #Magnetic Hyperthermia #Magneto-Thermo-Chemo Response #Nanomedicines #Drug Delivery Systems #Transdermal Drug Delivery #Drug-Matrix Interactions #Magnetic Nanoparticle-Matrix Interaction #Soft Magnets #Spinel Ferrites #Scaffolds #Nanofibers #Biopolymers #Microbial Cellulose #Bacterial Cellulose #Mesoporous Structure #Chamical modifications #Surface Chemistry #Drug Release Kinetics #Biomaterials
Employment
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Swinburne University of Technology Research Scholar2021 - Present
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Indian Institute of Technology Hyderabad Research Scholar2021 - 2025
Education
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Swinburne University of Technology Research Scholar2021 - Present
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Indian Institute of Technology Hyderabad Research Scholar2021 - 2025
Projects & Funding
Projects & funding information is unavailable.
Publications (17)
- Man-material-matters: a dialogue Save
- Integrating life into material design for living materials 4.0: Navigating challenges and future trajectories from static to dynamic evolution Save
- Governing the magnetic hyperthermia performance through assembly effect in superparamagnetic biocomposites: Dispersed chains and clustered assemblies immobilized on the bacterial nanocellulose fibers Save
- Concentration-dependent bacterial cellulose patches: a strategy for modulating the drug release beyond the modifications of the native cellulose hydrogel Save
- Bacterial cellulose in transdermal drug delivery systems: Expanding horizons in multi-scale therapeutics and patient-centric approach Save
- Tailoring magnetic properties of Fe3O4 nanocomposites with amine-functionalized MWCNT for optimal hyperthermia performance Save
- Dual‐Stimuli Chemotherapeutic Delivery From Magnetic Bacterial Nanocellulose: Unraveling the Optimized Loading and Release at Tailored Wetting and Localized Heating Save
- Engineering a Biomimetic Glomerular Filtration Barrier: Coculturing Endothelial Podocytes on Kidney ECM-Bacterial Cellulose Membrane Hybrid Save
- Mechanical, thermal, and electrical properties of 2D nanomaterials for advanced applications Save
- Tailoring the Wettability of Bacterial Cellulose Magnetobots via the Assembly of In Situ Synthesized and Surfactant-Coated Magnetic Nanoparticles Save