Professor

Hajjar Ahmad

Affiliation: VinUniversity, Hanoi, Viet Nam

hajjar.ahmad@vinuni-scopus.fake

Introduction

Affiliation: VinUniversity, Hanoi, Viet Nam

Research Output

Thermal Performance and Melting Behavior of Partially Funnel-Shaped Anisotropic Copper Foam/Paraffin PCM Within an LHTES

Mozaffari Masoud, Hajlaoui Khalil, Younis Obai, Ahmed Awadallah, Khidhir Dana Mohammad, Hajjar Ahmad, Ghalambaz Mehdi, Alrasheedi Nashmi H.
  • anisotropic metal foam layer
  • anisotropic metal foams
  • copper metal foam
  • funnel-shaped geometry
  • latent heat thermal energy storage
  • phase change

Comprehensive review of optimization strategies for phase change materials: Techniques, applications, and challenges in thermal storage systems

Izadi Mohsen, Pop Ioan, Shehzad Sabir Ali, Alqurashi Faris, Mohamed Mohamed H., Hajjar Ahmad, Mahariq Ibrahim
  • Extended surfaces
  • Finned PCM
  • Melting and solidification process
  • Nano-PCM
  • Passive parameter
  • PCM-filled porous media

The impact of orientation and scale of kite-shaped anisotropic metal foam layers on paraffin-based latent heat thermal energy storage units

Aljibori Hakim S. Sultan, Hajjar Ahmad, Raizah Zehba, Alresheedi Faisal, Akremi Ali, Elhassanein Ahmed, Ghalambaz Mohammad
  • Anisotropic metal foams
  • Copper metal foam
  • Kite-shaped geometry
  • Latent heat thermal energy storage (LHTES)
  • Phase change material

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Keyphrases

  • anisotropic metal foam layer
  • anisotropic metal foams
  • copper metal foam
  • funnel-shaped geometry
  • latent heat thermal energy storage
  • phase change
  • Extended surfaces
  • Finned PCM
  • Melting and solidification process
  • Nano-PCM
  • Passive parameter
  • PCM-filled porous media
  • Anisotropic metal foams
  • Copper metal foam
  • Kite-shaped geometry
  • Latent heat thermal energy storage (LHTES)
  • Phase change material
  • Anisotropic Metal Foam Layer (AMFL)
  • Asymmetric Hexagon Geometry
  • Copper Metal Foam
  • Latent Heat Thermal Energy Storage (LHTES)
  • Phase Change
  • Ferromagnetic fluids
  • Permanent magnetic-natural convection
  • Porous triple enclosure
  • Two-equation energy model
  • Beeswax
  • Paraffin
  • PCM
  • Thermal management
  • Anisotropic porous structure
  • Hexagonal enclosure
  • Passive control of fluid flow
  • Permanent magnetic field
  • Electronic device
  • Magnetic Rayleigh number
  • Magneto-gravitational convection
  • Non-Newtonian ferrofluid
  • Permanent magnet
  • All-around review
  • Heat exchanger
  • Inserts
  • Passive strategies
  • Thermal storage
  • Turbulators
  • Anisotropic porous medium
  • Partitioned hexagonal enclosure
  • Simultaneous magnetic-convection effect
  • Double wavy wall cavity
  • Energy storage
  • Melting heat transfer
  • NePCM
  • Taguchi optimization method
  • Local thermal non-equilibrium model
  • NEPCM suspension
  • Porous enclosure
  • Thermal vibrational convection
  • Partitioned triple porous enclosure
  • Permanent magnetic-gravitational heat transfer
  • Twin magnets
  • Various configuration
  • Melting phenomenon
  • Multilayer roof structure, energy loss
  • Mechanical vibration
  • Melting temperature
  • Nano-encapsulated phase change material
  • Stefan number
  • Vibrational Rayleigh number
  • Comsol multiphysics
  • Energy losses
  • Innovative block structure
  • Roof structures equipped by PCM
  • Metal foam
  • Building enclosures
  • Comsol Multiphysics
  • Phase change materials
  • Thermal resistance
  • Energy loss
  • Magnetic field
  • PCM layer
  • Roof structure
  • Round-corner double semi-hexagonal
  • Nano-PCM-Building material
  • Natural convection
  • Ferrofluid
  • Magnetic convection
  • Porous double semicircle enclosure
  • Two permanent magnets

Computer Science

  • Condensed Matter Physics

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