Bouchaib Zazoum
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Associate Professor
Also affiliated: Prince Mohammad bin Fahd University (2020–2023); Université du Québec à Montréal (2020); University of Münster (2004); Hydro-Québec (2015); Royal Military College of Canada (2016–2017); École de Technologie Supérieure (2012–2020)
Faculty Researcher
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Bouchaib Zazoum's research interests encompass the application of machine learning to predict outcomes in systems such as solar photovoltaic power and lithium-ion batteries. He has also investigated advancements in flexible sensors and their integration into wearable electronics, including the development of functional 2D MXene inks. His work extends to theoretical studies of inorganic oxide perovskite materials for optoelectronic applications using DFT. Additionally, Zazoum has explored the catalytic potential of nanocages for nitrogen reduction to ammonia and examined thermoelastic damping in micro/nano-plate vibrations through 3D modeling. His scholarship metrics include an h-index of 12 with 51 publications and 695 citations. Zazoum has collaborated with Abdel Bachri and Mahbub Ahmed at Southern Arkansas University.
Metrics
- h-index: 12
- Publications: 51
- Citations: 720
Selected Publications
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Titanium dioxide as smart nano-photocatalyst: recent advancements in synthesis and enhanced light-responsive characteristics for diverse photocatalytic applications (2026)
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Correction: From lab to tap: 2D material innovations in detection and elimination of waterborne pathogens (2026)
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From lab to tap: 2D material innovations in detection and elimination of waterborne pathogens (2026)
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Graphene-based nanomaterials-driven innovations in biosensors for cancer diagnosis (2026)
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Machine Learning Modeling to Predict Mechanical Properties of Nylon Parts Fabricated via 3D Printing (2025)
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Machine Learning for Forecasting Dielectric Permittivity in Nanodielectrics for Energy Storage (2024)
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An extensive study of structural, electronic, optical, mechanical, and thermodynamic properties of inorganic oxide perovskite materials ScXO3 (X = Ga, In) for optoelectronic applications: A DFT study (2024)
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A computational study on the detection properties of pristine, Al-, and Ga- doped Zn <sub>12</sub> O <sub>12</sub> nanoclusters toward Deferiprone in gas and solvent phases (2024)
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Spatially hybrid control of entanglement between atom and photon (2024)
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Physical vapour deposition fabrication of MoO<sub>3</sub>‐based photoanode for water splitting to generate hydrogen (2024)
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Light management in hole transport layer-free perovskite solar cell by SPP and LSPR (2024)
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Potential of Nanocages (Ni-Si52, Ni-C52 and Ni-B26N26) and Nanotubes (Ni-SiNT (6, 0), Ni-CNT (6, 0) and Ni-BNNT (6, 0)) for CO2 Reduction Reaction (2024)
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Evaluate the potential of BC3 nanosheet in the recognition Methamphetamine drug concentration in the human body: Insights from simulation in the field of medicine (2024)
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Controllable optical bistability and multistability in a V-type three-level atomic system interacting with two broadband independent squeezed baths (2024)
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Thermoelastic damping in micro/nano-plate vibrations: 3D modeling using modified couple stress theory and the Moore–Gibson–Thompson equation (2024)
Collaboration Network
Top Collaborators
- An extensive study of structural, electronic, optical, mechanical, and thermodynamic properties of inorganic oxide perovskite materials ScXO3 (X = Ga, In) for optoelectronic applications: A DFT study
- Silicon, Carbon, Germanium, Aluminum Nitride nanocages (Si60, C60, Ge60, Al30N30) as catalysts of N2 reduction to NH3
- Thermoelastic damping in micro/nano-plate vibrations: 3D modeling using modified couple stress theory and the Moore–Gibson–Thompson equation
- Light management in hole transport layer-free perovskite solar cell by SPP and LSPR
- Fe-C78, Fe-Si78, Fe-CNT (9, 0) and Fe-SiNT (9, 0) as Catalysts for CO2 Reduction Reaction
Showing 5 of 14 shared publications
- Silicon, Carbon, Germanium, Aluminum Nitride nanocages (Si60, C60, Ge60, Al30N30) as catalysts of N2 reduction to NH3
- Thermoelastic damping in micro/nano-plate vibrations: 3D modeling using modified couple stress theory and the Moore–Gibson–Thompson equation
- Light management in hole transport layer-free perovskite solar cell by SPP and LSPR
- Fe-C78, Fe-Si78, Fe-CNT (9, 0) and Fe-SiNT (9, 0) as Catalysts for CO2 Reduction Reaction
- Modeling ionic liquids mixture viscosity using Eyring theory combined with a SAFT-based EOS
Showing 5 of 10 shared publications
- Thermoelastic damping in micro/nano-plate vibrations: 3D modeling using modified couple stress theory and the Moore–Gibson–Thompson equation
- Light management in hole transport layer-free perovskite solar cell by SPP and LSPR
- Fe-C78, Fe-Si78, Fe-CNT (9, 0) and Fe-SiNT (9, 0) as Catalysts for CO2 Reduction Reaction
- Spatially hybrid control of entanglement between atom and photon
- Examination of Potential of C60, Si60, CNT(9, 0) and SiNT(9, 0) as Catalysts for N2O Reduction
Showing 5 of 8 shared publications
- Thermoelastic damping in micro/nano-plate vibrations: 3D modeling using modified couple stress theory and the Moore–Gibson–Thompson equation
- Fe-C78, Fe-Si78, Fe-CNT (9, 0) and Fe-SiNT (9, 0) as Catalysts for CO2 Reduction Reaction
- A computational study on the detection properties of pristine, Al-, and Ga- doped Zn <sub>12</sub> O <sub>12</sub> nanoclusters toward Deferiprone in gas and solvent phases
- Examination of Potential of C60, Si60, CNT(9, 0) and SiNT(9, 0) as Catalysts for N2O Reduction
- Potential of Nanocages (Ni-Si52, Ni-C52 and Ni-B26N26) and Nanotubes (Ni-SiNT (6, 0), Ni-CNT (6, 0) and Ni-BNNT (6, 0)) for CO2 Reduction Reaction
Showing 5 of 6 shared publications
- Silicon, Carbon, Germanium, Aluminum Nitride nanocages (Si60, C60, Ge60, Al30N30) as catalysts of N2 reduction to NH3
- Light management in hole transport layer-free perovskite solar cell by SPP and LSPR
- Modeling ionic liquids mixture viscosity using Eyring theory combined with a SAFT-based EOS
- Spatially hybrid control of entanglement between atom and photon
- Controllable optical bistability and multistability in a V-type three-level atomic system interacting with two broadband independent squeezed baths
- Fe-C78, Fe-Si78, Fe-CNT (9, 0) and Fe-SiNT (9, 0) as Catalysts for CO2 Reduction Reaction
- Spatially hybrid control of entanglement between atom and photon
- Examination of Potential of C60, Si60, CNT(9, 0) and SiNT(9, 0) as Catalysts for N2O Reduction
- Potential of Nanocages (Ni-Si52, Ni-C52 and Ni-B26N26) and Nanotubes (Ni-SiNT (6, 0), Ni-CNT (6, 0) and Ni-BNNT (6, 0)) for CO2 Reduction Reaction
- Thermoelastic damping in micro/nano-plate vibrations: 3D modeling using modified couple stress theory and the Moore–Gibson–Thompson equation
- Fe-C78, Fe-Si78, Fe-CNT (9, 0) and Fe-SiNT (9, 0) as Catalysts for CO2 Reduction Reaction
- Examination of Potential of C60, Si60, CNT(9, 0) and SiNT(9, 0) as Catalysts for N2O Reduction
- Potential of Nanocages (Ni-Si52, Ni-C52 and Ni-B26N26) and Nanotubes (Ni-SiNT (6, 0), Ni-CNT (6, 0) and Ni-BNNT (6, 0)) for CO2 Reduction Reaction
- Light management in hole transport layer-free perovskite solar cell by SPP and LSPR
- Modeling ionic liquids mixture viscosity using Eyring theory combined with a SAFT-based EOS
- Spatially hybrid control of entanglement between atom and photon
- Controllable optical bistability and multistability in a V-type three-level atomic system interacting with two broadband independent squeezed baths
- Thermoelastic damping in micro/nano-plate vibrations: 3D modeling using modified couple stress theory and the Moore–Gibson–Thompson equation
- Fe-C78, Fe-Si78, Fe-CNT (9, 0) and Fe-SiNT (9, 0) as Catalysts for CO2 Reduction Reaction
- Potential of Nanocages (Ni-Si52, Ni-C52 and Ni-B26N26) and Nanotubes (Ni-SiNT (6, 0), Ni-CNT (6, 0) and Ni-BNNT (6, 0)) for CO2 Reduction Reaction
- Fe-C78, Fe-Si78, Fe-CNT (9, 0) and Fe-SiNT (9, 0) as Catalysts for CO2 Reduction Reaction
- A computational study on the detection properties of pristine, Al-, and Ga- doped Zn <sub>12</sub> O <sub>12</sub> nanoclusters toward Deferiprone in gas and solvent phases
- Potential of Nanocages (Ni-Si52, Ni-C52 and Ni-B26N26) and Nanotubes (Ni-SiNT (6, 0), Ni-CNT (6, 0) and Ni-BNNT (6, 0)) for CO2 Reduction Reaction
- Light management in hole transport layer-free perovskite solar cell by SPP and LSPR
- Modeling ionic liquids mixture viscosity using Eyring theory combined with a SAFT-based EOS
- Spatially hybrid control of entanglement between atom and photon
- An extensive study of structural, electronic, optical, mechanical, and thermodynamic properties of inorganic oxide perovskite materials ScXO3 (X = Ga, In) for optoelectronic applications: A DFT study
- Physical vapour deposition fabrication of MoO<sub>3</sub>‐based photoanode for water splitting to generate hydrogen
- A computational study on the detection properties of pristine, Al-, and Ga- doped Zn <sub>12</sub> O <sub>12</sub> nanoclusters toward Deferiprone in gas and solvent phases
- Silicon, Carbon, Germanium, Aluminum Nitride nanocages (Si60, C60, Ge60, Al30N30) as catalysts of N2 reduction to NH3
- Modeling ionic liquids mixture viscosity using Eyring theory combined with a SAFT-based EOS
- Silicon, Carbon, Germanium, Aluminum Nitride nanocages (Si60, C60, Ge60, Al30N30) as catalysts of N2 reduction to NH3
- Modeling ionic liquids mixture viscosity using Eyring theory combined with a SAFT-based EOS
- Silicon, Carbon, Germanium, Aluminum Nitride nanocages (Si60, C60, Ge60, Al30N30) as catalysts of N2 reduction to NH3
- Modeling ionic liquids mixture viscosity using Eyring theory combined with a SAFT-based EOS
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