Journal of Heat and Mass Transfer Research

Journal of Heat and Mass Transfer Research

 

Journal of Heat and Mass Transfer Research
ISO Abbreviation J. Heat Mass Transf. Res.
Start Publication 2013
Acceptance Rate 28%
Number of Volumes 13
Number of Issues 28
Number of Articles 306
Number of Contributors 736

Contributing Countries (Authors)

32

Contributing Countries (Reviewers)

36

Contributing Countries (Editorial/Advisory Board)

19
Number of Reviewers 451
Number of Indexing Databases 14
                   
Article View 449,436
PDF Download 273,573
View Per Article 1468.75
PDF Download Per Article 894.03

SCImago Journal & Country Rank


CiteScore Categories:

 

Mechanical Engineering

 

Fluid Flow and Transfer Processes

 

Condensed Matter Physics

The Journal of Heat and Mass Transfer Research is an international, bi-annual publication (both in print and online) established in 2013 by Semnan University Press. The journal disseminates cutting-edge and innovative research findings in the domain of heat and mass transfer. This encompasses various subfields including conduction, convection, radiation, phase change phenomena, heat exchanger design and testing, nuclear reactors, geothermal heat recovery, and alternative energy systems. Additionally, it covers emerging technologies such as Micro-Electro-Mechanical Systems (MEMS), micro-channels, fuel cells, bio- and nano-technology, transport in porous media, ice formation and melting, reactor design, microreactors, multiphase reactors, multiscale modeling, and gas-solid reactions, as well as heat transfer in machinery and welding operations.

The Journal encourages contributions that facilitate the exchange of ideas and foster scholarly dialogue between practitioners, educators, and researchers in Mechanical and Chemical Engineering globally. The journal’s scope includes peer-reviewed original research articles, technical reports, review papers, short communications, and editorial notes. It welcomes high-quality research papers and reviews on any aspect of heat and mass transfer, whether theoretical, numerical, or experimental. The journal is published in English, with accepted papers available online immediately and subsequently in print.

We are pleased to inform you that, following the recent approval of the Editorial Board and the relevant authorities, the publication frequency of the journal will change from Semiannual to Quarterly, effective January 2026. This decision is intended to enhance the journal’s scientific quality, expedite the publication process, and strengthen dynamic engagement among researchers and authors.

New Article Processing Charge (APC) Policy

In accordance with the publishing policy of Semnan University Press, an Article Processing Charge (APC) applies to all manuscripts accepted for publication in the Journal of Heat and Mass Transfer Research (JHMTR). For manuscripts submitted on or after August 1, 2026, the APC is 400 USD for non-Iranian corresponding authors and 20,000,000 IRR for Iranian corresponding authors. Please note that this fee applies only to manuscripts that successfully pass the peer-review process and are accepted for publication; there are no fees associated with initial submission or the review process.

The APC supports the various stages of the publishing workflow, including editorial handling, peer review, copyediting, typesetting, online hosting, and long-term digital archiving. These charges enable the journal to maintain high scholarly standards and ensure the broad dissemination and accessibility of published research to the international scientific community. Partial or full APC waivers may be granted upon request by the corresponding author and are subject to the approval of the Editorial Board. To apply for a waiver, please direct your request to: samanrashidi@semnan.ac.ir

Member of COPE

COPE We are pleased to announce that the application for COPE  membership of the Journal of Heat and Mass Transfer Research has been accepted on July, 2024.

https://members.publicationethics.org/members/journal-heat-and-mass-transfer-research

 

Journal of Heat and Mass Transfer Research (JHMTR) utilizes "Plagiarism Detection Software (iThenticate)" for checking the originality of submitted manuscripts in the reviewing process.

Keywords Cloud

  • Heat transfer
  • Nanofluid
  • Nusselt number
  • Nanofluids
  • Pressure drop
  • Mixed convection
  • Entropy Generation
  • turbulent flow
  • Magnetic field
  • convective heat transfer
  • chemical reaction
  • Porous medium
  • Heat and mass transfer
  • viscous dissipation
  • Natural convection
  • heat transfer enhancement
  • Thermal conductivity
  • MHD
  • CFD
  • Numerical simulation
  • Free convection
  • Lattice Boltzmann method
  • Temperature
  • porous media
  • heat transfer coefficient
  • Heat exchanger
  • friction factor
  • Unsteady Flow
  • Non-Newtonian fluid
  • couple stress fluid
  • Baffle
  • radiation
  • thermal radiation
  • OpenFOAM
  • Casson fluid
  • Stretching Sheet
  • Phase change material
  • thermal performance
  • Conjugate heat transfer
  • Experimental Study
  • Computational fluid dynamics (CFD)
  • Fluid flow
  • Radiation absorption
  • viscosity
  • Shell and tube heat exchanger
  • Boundary Layer
  • modeling
  • Variable thermal conductivity
  • Heat source
  • Nanoparticles
  • Variable properties
  • Magnetohydrodynamic
  • Laminar flow
  • finite element method
  • Diesel Engine
  • Soret and Dufour effects
  • Ferrofluid
  • machine learning
  • heat sink
  • Casson nanofluid
  • Economic analysis
  • Entropy
  • Flow characteristics
  • Overall heat transfer coefficient
  • Forced convection
  • Variable viscosity
  • emissions
  • Numerical modeling
  • Response surface methodology
  • Double pipe heat exchanger
  • Silica gel
  • Genetic algorithm
  • Adsorption
  • Brownian motion
  • Hydrogen
  • Constant Heat Flux
  • Bejan number
  • Solar Radiation
  • Optimization
  • Channel
  • hybrid nanofluids
  • cooling effectiveness
  • Drying
  • magnetic nanoparticles
  • Water harvesting
  • thermal efficiency
  • Nano-fluid
  • Mathematical model
  • Hybrid nanofluid
  • Runge-Kutta method
  • Resistance to Flow
  • Effectiveness
  • thermodynamics
  • Lattice Boltzmann
  • PCM
  • Wavy channel
  • Hydrodynamic cavitation
  • Heat flux
  • Thermophoresis
  • Permeable wall
  • Contact angle
  • turbine blade
  • Turbulent forced convection
  • gas turbine
  • Combustion
  • Parameter estimation
  • Convection
  • Non-Fourier heat conduction
  • Magnetic hyperthermia
  • thermal enhancement
  • Dufour effect
  • Thermal comfort
  • Peritoneal metastasis
  • Computational fluid dynamics
  • Vertical plate
  • Cooling load
  • Slip flow
  • Desalination
  • Homotopy Analysis Method
  • Finite element analysis
  • Solar still
  • separation
  • Film cooling
  • Mass transfer coefficient
  • Double-diffusive convection
  • PEMFC
  • Finite difference method
  • Aspect Ratio
  • amplitude
  • Micropolar fluid
  • Perturbation
  • turbulence
  • artificial roughness
  • Computer simulation
  • Vortex generators
  • Flow Pattern
  • performance
  • Least Square method (LSM)
  • exergy efficiency
  • Wall shear stress
  • pulse frequency
  • transition
  • Heat generation
  • Heat transfer augmentation
  • Biodiesel
  • Thermophysical properties
  • Cooling system
  • Microchannel
  • Perturbation Method
  • Hall current
  • Concave surface
  • Energy
  • Exergy
  • Jet Impingement
  • Dean number
  • Mass transfer
  • Nanoparticle shape
  • Hyperthermia
  • Convective heat transfer enhancement
  • Gas-Particle flow
  • wall temperature
  • Curvature ratio
  • Shear Stress
  • coupled integral equations approach
  • Linear regression model
  • Therml Convection
  • Vapor explosion
  • Moving wall, Merck-Chao
  • Circular sector
  • Lowrance invariant
  • agri-residues
  • MATLAB
  • shooting technique
  • Diffusive thermal penetration
  • Photovoltaic
  • SolidWorks Flow Simulation
  • Deep learning
  • string cavitation
  • Enviromental analysis
  • Cavity
  • dynamic water circulation rate
  • Toluene additive
  • Vortex Roll
  • resuspension
  • Channels
  • Nu
  • Double-tube heat exchanger
  • Radiation effects
  • Nickel
  • distribution coefficient
  • Deposition
  • Volume of Fluid
  • Exergy evaluation
  • Markov chains
  • MHD fluid flow
  • Least square method
  • Solar stills
  • Mini-Channel Heatsink
  • C-shaped enclosure
  • Hydrogen production