RESEARCHER PROFILE

Mohammed J. Alshukri

Islamic University of Najaf

Solar Thermal and Photovoltaic SystemsAdsorption and Cooling SystemsHeat Transfer and OptimizationSolar-Powered Water Purification MethodsPhase Change Materials Research

Mohammed J. Alshukri works in Solar Thermal and Photovoltaic Systems, Adsorption and Cooling Systems, Heat Transfer and Optimization, Solar-Powered Water Purification Methods, Phase Change Materials Research. Recorded institutional associations include Islamic University of Najaf, University of Kufa.

52Publications

777Citations

15H-index

ORCID

Inclusion identifies researchers whose recorded research contributions may inform their university’s understanding of its research community. It does not rank individual research quality or establish current employment.

Selected research works

Up to 100 highly cited works; DOI links open the original research. Counts reflect the collected record, not real-time citation totals.

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Mohammed J. Alshukri

Islamic University of Najaf

Selected research works

A review on applications and techniques of improving the performance of heat pipe-solar collector systems

Thermal performance of heat pipe evacuated tube solar collector integrated with different types of phase change materials at various location

The influence of integrated Micro-ZnO and Nano-CuO particles/paraffin wax as a thermal booster on the performance of heat pipe evacuated solar tube collector

Improving solar still performance via the integration of nanoparticle-enhanced phase change materials: A novel pyramid-shaped design with a numerical simulation approach

Enhancing the melting rate of RT42 paraffin wax in a square cell with varied copper fin lengths and orientations: A numerical simulation

Optimizing the performance of the air conditioning system using an innovative heat pipe heat exchanger

Convective heat transfer analysis in turbulent nanofluid flow through a rectangular channel with staggered obstacles: A numerical simulation

Numerical investigation of heat transfer augmentation of solar air heater with attached and detached trapezoidal ribs

Design and Simulation Studies of Hybrid Power Systems Based on Photovoltaic, Wind, Electrolyzer, and PEM Fuel Cells

Experimental investigation of a solar evacuated tube collector embedded with a heat pipe using different nanofluids and controlled mechanical exciting pulsations

INTEGRATION OF THERMAL ENERGY STORAGE MATERIALS IN HEAT PIPE EVACUATED TUBE SOLAR COLLECTOR SYSTEMS FOR ENHANCED SOLAR THERMAL PERFORMANCE

Enhanced photovoltaic cooling using ZnO/TiO₂ hybrid nanofluids: numerical and experimental analysis

CFD modeling of a horizontal wind turbine by utilizing solar nozzle for power production

Numerical Investigation of Pyramid Solar Stills with PCM‐Nanoparticles and Absorber Fins: Enhanced Thermal Performance for Sustainable Water Desalination

Influence of air velocity on enhancing heat transfer rate in phase change materials for efficient device temperature control

Entropy Generation and Mixed Convection of a Nanofluid in a 3D Wave Tank with Rotating Inner Cylinder

Effect of PCM material and vibration on the performance of evacuated tube solar collector

Exergy analysis of the effects of extreme hot conditions on cooling system efficiency: A case study of a split air conditioner

Hybrid active slab with outer PCM Panels – Geothermal well to reduce the heat gain of a building roof

Numerical and Theoretical Study of Performance and Mechanical Behavior of PEM-FC Using Innovative Channel Geometrical Configurations

Numerical simulation of pyramid solar stills with finned absorbers: Enhancing thermal efficiency for sustainable desalination

Boosting storage collector efficiency with new corrugated absorbers: A numerical simulation approach

High-performance pyramid solar still with hemispherical fins and parabolic collector: A numerical investigation for sustainable water desalination

Enhancing thermal performance of shell and tube heat exchangers using ZnO/water nanofluids: a CFD-based laminar flow study

Prediction of overall heat transfer coefficient in concentric tube heat exchangers using artificial neural networks: A comparative study with empirical correlations