0000000000243453

AUTHOR

Maziar Heidari

0000-0002-8081-6602

showing 2 related works from this author

Tackling the Limitations of Copolymeric Small Interfering RNA Delivery Agents by a Combined Experimental–Computational Approach

2019

Despite the first successful applications of nonviral delivery vectors for small interfering RNA in the treatment of illnesses, such as the respiratory syncytial virus infection, the preparation of a clinically suitable, safe, and efficient delivery system still remains a challenge. In this study, we tackle the drawbacks of the existing systems by a combined experimental-computational in-depth investigation of the influence of the polymer architecture over the binding and transfection efficiency. For that purpose, a library of diblock copolymers with a molar mass of 30 kDa and a narrow dispersity (Đ1.12) was synthesized. We studied in detail the impact of an altered block size and/or compos…

Small interfering RNAPolymers and PlasticsBioengineering02 engineering and technologyComputational biologyBiology010402 general chemistry01 natural sciencesVirusBiomaterialsDrug Delivery SystemsText miningMaterials ChemistryHumansComputer SimulationRNA Small Interferingbusiness.industryRNA021001 nanoscience & nanotechnology0104 chemical sciencesHEK293 CellsModels ChemicalMCF-7 Cells0210 nano-technologybusinessHeLa CellsBiomacromolecules
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Combined Experimental and Theoretical Investigation of Heating Rate on Growth of Iron Oxide Nanoparticles

2017

Thermal decomposition is a promising route for the synthesis of highly monodisperse magnetite nanoparticles. However, the apparent simplicity of the synthesis is counterbalanced by the complex interplay of the reagents with the reaction variables that determine the final particle size and dispersity. Here, we present a combined experimental and theoretical study on the influence of the heating rate on crystal growth, size, and monodispersity of iron oxide nanoparticles. We synthesized monodisperse nanoparticles with sizes varying from 6.3 to 27 nm simply by controlling the heating rate of the reaction. The nanoparticles show size-dependent superparamagnetic behavior. Using numerical calcula…

Materials scienceGeneral Chemical EngineeringDispersityNanoparticleNanotechnologyCrystal growthBioengineering02 engineering and technology010402 general chemistry01 natural scienceschemistry.chemical_compoundEngineeringMaterials ChemistryNanotechnologyMaterialsThermal decompositionGeneral Chemistry021001 nanoscience & nanotechnology0104 chemical sciencesChemical engineeringchemistryChemical SciencesParticle sizeClassical nucleation theory0210 nano-technologyIron oxide nanoparticlesSuperparamagnetism
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