Title First Name Last Name Institution/Organization Country Domain Subdomain/Subject/Service Area Category Last Name Biography
Assist Prof DrSeyedeh LeiliMirtaheriUniversity of CalabriaItalyComputational NanotechnologyPopular Tag Recommendation by Neural Network in Social MediaAcademician/Research ScholarMirtaheri
DrIlariaRagoINFN Sezione di RomaItalySynthesis and self assembly of nanomaterialsSintesi e caratterizzazione di nanomaterialiAcademician/Research ScholarRagosciencefather.com
DrManuelaMauroUniversity of PalermoItalyNanobiotechnologyBioactive molecules from aquatic organismsAcademician/Research ScholarMaurosciencefather.com
ProfDiegoBagnascoUniversity of GenoaItalyNanotheranosticsAsthma, Respiratory diseasesAcademician/Research ScholarBagnascosciencefather.com
ProfElenaAngeliUniversity of GenovaItalyNanoscale characterisationBiofisicaAcademician/Research ScholarAngelisciencefather.com
DrSaqibRashidUniversity of Roma TreItalyNanoscale characterisationMateials nanomechanical characterizationAcademician/Research ScholarRashidsciencefather.com
DrTomohiroNobeyamaUniversity of TsukubaJapanNanobiotechnologyBiophysicsAcademician/Research ScholarNobeyama
Prof. DrYOICHIRONARAThe Nippon Dental UniversityJapanNanobiotechnologyResin Composite Dental RestorationAcademician/Research ScholarNARAsciencefather.com
Prof. DrYukihikoSugimotoKumamoto University Graduate School of Pharmaceutical SciencesJapanNanoscale characterisationLipid signaling in implantationAcademician/Research ScholarSugimotosciencefather.com
DrRezaNadimiTokyo Institute of TechnologyJapanNanomaterials for EnergyFuel consumption of diesel generator in the presence of renewable energy technologiesAcademician/Research ScholarNadimi
DrOmila Kasun MeetiyagodaThenuwara ArachchigeSaitama UniversityJapanNanophotonics & NanoelectronicsElectrocoagulation–flotationAcademician/Research ScholarThenuwara Arachchige
Prof. DrMuralidharMiryalaShibaura Institute of TechnologyJapanCommercialization of NanotechnologyMgB2 cryo-magnetsAcademician/Research ScholarMiryala
ProfKeiichiMotoyamaKumamoto UniversityJapanNanobiotechnologyNanoparticle design/Drug delivery systemAcademician/Research ScholarMotoyama
ProfTakeshiFujinoSaitama UniversityJapanNanoscale characterisationWater Quality ManagementAcademician/Research ScholarFujino
DrSachinPawarRitsumeikan UniversityJapanNanomaterials for EnergyNanomaterials and NanotechnologyAcademician/Research ScholarPawar
Assoc. Prof. DrToshiyukiTanakaVeterinary Advanced Diagnosis and Treatment, Osaka Metroplitan UniversityJapanComputational NanotechnologyDiagnostic imagingAcademician/Research ScholarTanakasciencefather.com
ProfMohammadHamdanApplied Science Private UniversityJordanSynthesis and self assembly of nanomaterialsSolar Energy, combustion and water desalination and disinfectionAcademician/Research ScholarHamdansciencefather.com
Assist Prof DrEnasArrasheedJadara universityJordanNanocompositesIn this work, NiAl-ferrite/PANI/x (PANI) Nano composite Films (x = 0.2, 0.4, 0.6 and 0.8) were prepared using a solution casting process. Films were synthesized to achieve a good magnetic property of polymer and add more conductive properties to NiAlxFe2-xO4. The NiAlxFe2-xO4 nanoparticles are synthesized by flash auto combustion method, and PANI is synthesized by situ-chemical oxidative polymerization method. Characterization was carried out by XRD, FTIR, TGA, TEM, EDAX, SEM, and UV–vis to investigate thermal, dielectric and linear -nonlinear optical properties of nanocomposite films. The average crystallite size was calculated using and Williamson - Hall (W–H) method. The FTIR spectra confirm the incorporation of nano ferrite particles in polyaniline matrix. The SEM and TEM images show that, the NiAlxFe2-xO4 particles are highly agglomerated in granular-like morphology and have spherical coral-like particles embedded in the PANI matrix in a core–shell structure. From TGA curves, the average activation energy of three main stages of weight loss of decomposition are 37.93, 50.91 and 55.36 kJ/mol. The optical energy gap Eg value decreases from 4.47 to 4.07 eV and 4.24 to 3.84 eV for direct and indirect transitions with increasing Al content. The refractive index and real part of dielectric values are high in the UV region, while the extinction coefficient, imaginary part of dielectric and the dielectric loss tangent are high in the visible region and near-infrared region. The optical conductivity values increase slightly with increasing UV photon energy, rapidly grows above 4 eV. Non-uniform changes are noticed in the values of dispersion energy, Ed, and the single oscillator energy, Eo, and the values of linear optical constants (λo, n∞, So, ε∞ and (e2/πc2) (N/m*)). The nonlinear optical constants including third order nonlinear optical susceptibility , and reflective index were calculatedAcademician/Research ScholarArrasheed
Assist Prof DrBasharAljawrnehAl-Zaytoonah University of JordanJordanNanomaterials for EnergySynthesis of Nanomaterials and Nanocomposites for Energy Storage and HarvestingAcademician/Research ScholarAljawrneh
MrAbylayAbilkhanNational Laboratory AstanaKazakhstanNanocompositesФотокатализAcademician/Research ScholarAbilkhansciencefather.com
 Title First Name Last Name Institution/Organization Country Domain Subdomain/Subject/Service Area Category Last Name Biography
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