Iranian Journal of Numerical Analysis and Optimization

Iranian Journal of Numerical Analysis and Optimization

 

SCImago Journal & Country Rank           Journal Metrics

Cite Score  (2024)   1.0
SJR (2025)
  0.294
SNIP (2024)
  0.251
SJR   Q3
MSRT Grade    International
Publication  format   Online
Number of Issues   39
Number of Articles   427
Number of Contributors   844
Number of Reviewers   2438
Submission Count   1,569
Accept Count   406
Reject Count   941
Acceptance Rate   26%
Article View   13,361,243
PDF Download    7,025,696
Time to Accept (Days)   108

 

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CALL FOR PAPERS

Special Issue on

Machine Learning in Numerical Analysis and Optimization:
Theory and Computation

Iranian Journal of Numerical Analysis and Optimization (IJNAO)

Scopus Indexed  •  Indexed in DOAJ and zbMATH Open  •  No Article Processing Charge (APC)  •  Open Access

Call for Papers

The Iranian Journal of Numerical Analysis and Optimization (IJNAO) is pleased to announce a Special Issue entitled “Machine Learning in Numerical Analysis and Optimization: Theory and Computation.”

The rapid development of machine learning and artificial intelligence is creating new opportunities for the design, analysis, and implementation of advanced numerical and optimization methods. At the same time, numerical analysis and mathematical optimization provide essential theoretical foundations for assessing the accuracy, stability, convergence, robustness, efficiency, and reliability of learning-based computational methods.

This Special Issue focuses on recent theoretical, methodological, and computational advances in machine learning for numerical analysis and optimization, with particular emphasis on mathematically grounded, reliable, and efficient approaches for scientific computing.

We welcome high-quality original research articles, methodological contributions, and comprehensive review papers presenting new theoretical results, numerical algorithms, computational frameworks, or applications. Contributions that combine machine-learning techniques with established numerical or optimization methods, as well as those providing mathematical analysis of learning-based computational approaches, are particularly encouraged.

Guest Editors

Professor Ali Emrouznejad

Director of the Centre for Business Analytics in Practice

Surrey Business School

University of Surrey, UK

a.emrouznejad@surrey.ac.uk

Professor Milan Hladík

Numerical Analysis, Scientific Computing & Optimization

Charles University, Czech Republic

hladik@kam.mff.cuni.cz

Professor Reza Mokhtari

Numerical Analysis, Scientific Machine Learning

Isfahan University of Technology, Iran

mokhtari@iut.ac.ir

Professor Majid Soleimani-damaneh

Optimization, Operations Research & Machine Learning

University of Tehran, Iran

m.soleimani.d@ut.ac.ir

Dr. Max Winkler

Numerical Analysis, Scientific Computing & PDEs

Technische Universität Chemnitz, Chemnitz, Germany

max.winkler@mathematik.tu-chemnitz.de

 

Scope and Topics

Topics of interest include, but are not limited to:

·  Machine learning-assisted numerical methods

·  Scientific Machine Learning (SciML)

·  Neural networks for numerical computation and approximation

·  Physics-informed neural networks (PINNs) and related methods

·  Neural operators and operator-learning methods, including DeepONet-type approaches

·  Data-driven numerical methods for differential and integral equations

·  AI-accelerated methods for integer- and fractional-order ODEs, PDEs, and integral equations

·  Mathematical analysis of learning-based numerical methods, including error analysis, stability, convergence, and robustness

·  Numerical approximation and approximation theory for machine-learning models

·  Adaptive, multiscale, and data-driven discretization methods

·  Machine learning for mesh generation, refinement, and adaptive computation

·  Numerical linear algebra combined with machine learning

·  Iterative solvers, preconditioning, eigensolvers, and low-rank methods enhanced by learning

·  Tensor methods and high-dimensional numerical computation

·  Reduced-order models and surrogate modeling

·  Inverse problems, parameter identification, and data assimilation

·  Uncertainty quantification and Bayesian computational methods

·  High-performance and parallel scientific computing enhanced by machine learning

·  Learning-based optimization algorithms

·  Machine learning for mathematical programming and numerical optimization

·  Machine-learning-enhanced metaheuristic algorithms

·  Deep learning and reinforcement learning for optimization and decision-making

·  Automated algorithm selection and parameter or hyperparameter optimization

·  Large-scale and high-dimensional optimization using machine learning

·  Convex and nonconvex optimization with learning-based techniques

·  Bayesian optimization and multi-fidelity optimization

·  Optimization under uncertainty

·  Large language models (LLMs) for numerical computation, mathematical reasoning, algorithm design, solver selection, and optimization

We also consider novel applications in computational physics, engineering, finance, healthcare, energy, climate modelling, logistics, and other scientific and technological fields. We particularly encourage studies supported by sound mathematical formulation, theoretical analysis, numerical validation, or demonstrable computational advantages, rather than purely empirical applications of standard machine-learning techniques.

Instructions for Authors

Authors should submit a cover letter and manuscript via the journal’s online submission site. Manuscripts submitted after the deadline may not be considered for the special issue and, if accepted, may be transferred to a regular issue.

Please see the Author instructions on the website. When submitting, please select the special issue’s title “SI: NAO-ML” to ensure that it will be reviewed for this special issue (https://ijnao.um.ac.ir).

Submitted papers must be original and should not have been previously published or currently under consideration for publication elsewhere. All papers will undergo a rigorous peer review process managed by the Guest Editors. Accepted papers will be published online individually before the print publication.

Important Dates

Date

Milestone

1 October 2026

Submission open

31 May 2027

Submission close

31 July 2027

Notification of status and acceptance of paper

30 September 2027

Revised manuscripts

31 October 2027

Final version of paper

Submission website: https://ijnao.um.ac.ir

Early submission is recommended: the referee process starts once the paper is received; accepted papers will be published individually online as they are accepted.

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The Iranian Journal of Numerical Analysis and Optimization (IJNAO) publishes original papers of high scientific value in all areas of numerical analysis and optimization. All research articles accepted and published by IJNAO are immediately freely available online to read, download, and share, without any subscription charges or registration barriers.

 IJNAO is indexed in

    

Current Issue: Volume 16, Issue 4 - Serial Number 39, December 2026, Pages 1189-1621 

Mathematical modeling and control strategies for meningitis transmission

Pages 1401-1431

10.22067/ijnao.2026.96797.1789

Mohamed Baroudi, Benyounes Bettioui, Mohamed Belam, Abderrahim Labzai

Keywords Cloud

  • optimal control
  • Stability analysis
  • Stability
  • error analysis
  • Operational matrix
  • Convergence
  • Collocation method
  • Convergence Analysis
  • Caputo fractional derivative
  • Caputo derivative
  • Uniform convergence
  • Numerical simulation
  • Mathematical model
  • Global convergence
  • Optimal control problem
  • Radial basis functions
  • Genetic algorithm
  • Hopf bifurcation
  • Nonlinear equations
  • Singular perturbation
  • sensitivity analysis
  • Mathematical modeling
  • Unconstrained optimization
  • Conjugate Gradient Method
  • Covid-19
  • Singularly perturbed problem
  • Iterative method
  • Chebyshev polynomials
  • Pontryagin’s maximum principle
  • Fixed point
  • Constrained optimization
  • Data Envelopment Analysis
  • Pontryagin maximum principle
  • order of convergence
  • Bifurcation
  • Global stability
  • Fractional differential equation
  • Singular perturbation problem
  • Multi-Objective Optimization
  • Basic reproduction number
  • Boundary value problems
  • Conformable fractional derivative
  • Stochastic Gradient Descent
  • Weak solution
  • Volterra integral equation
  • Singularly perturbed
  • fractional derivative
  • Machine learning
  • finite difference method
  • Wave equation
  • Numerical Solution
  • Iterative methods
  • Operational matrices
  • Inverse source problem
  • Ordinary differential equation
  • Image denoising
  • Interpolation
  • Legendre wavelet
  • Time delay
  • Line search
  • Fractional differential equations
  • Neural Network
  • Runge-Kutta methods
  • Accuracy
  • simulation
  • collocation
  • Particle swarm optimization
  • measure theory
  • Optimal control problems
  • boundary layer
  • Partial differential equations
  • Numerical evaluation
  • Liquidity
  • Higher-order strain field
  • Homotopy Analysis Method
  • Genocchi polynomials
  • variational iteration method
  • Environmental Transmission
  • Pontryagin Maximum
  • asymptotically stable
  • Cacti plants
  • Chaos
  • Reproduction number
  • Khalouta transform
  • fractional integro-differential equation
  • delay differential equation
  • Power series method
  • Interior layers
  • Shishkin mesh
  • Metaheuristic optimization
  • Lane–Emden equation
  • compartmental model
  • Uncertainty
  • Bessel polynomials
  • Volterra integral equations
  • Jacobian matrix
  • Sturm–Liouville problem
  • Wavelet approximation
  • s maximum principle
  • Credit default swap (CDS)
  • Lucas polynomials
  • Vector optimization
  • Vaccination reproduction number
  • Convection-diffusion problem
  • Integro-differential equations
  • E-commerce
  • Spatio-temporal Model
  • Jacobi polynomials
  • Drilling degrees of freedom
  • Approximate solution
  • Equilibrium condition
  • Hybrid methods
  • Upwind scheme
  • Optimality conditions
  • Duality
  • Optimal control theory
  • Fredholm integral equation
  • Fractional-order model
  • Penalty method
  • Approximation
  • Fractional diffusion equation
  • Tension spline
  • controllability
  • Eigenvalues
  • Bernstein polynomial
  • Green’s function
  • Reproducing kernel space
  • Nonlocal boundary conditions
  • Network
  • Primal-dual algorithm
  • Linear stability
  • Allen–Cahn equation
  • Bernstein polynomials
  • Observability
  • Priority rule
  • Laplace Transform
  • Sliding mode control
  • Total variation
  • Resource measure
  • Interior layer
  • matrix equation
  • Differential Transform Method
  • Best approximation
  • Fractional partial differential equation
  • Finite difference scheme
  • Haar wavelet
  • sine-Gordon equation
  • Nondominated
  • Local discontinuous Galerkin method
  • Optimization
  • Numerical Simulations
  • Elzaki transform
  • Limit cycle
  • Linear programming
  • Nonstandard finite difference scheme
  • Finite Element
  • Chebyshev wavelets
  • Krylov subspace methods
  • Linear multistep methods
  • Nonmonotone line search
  • Sensitivity
  • General linear methods
  • Adaptive radius
  • Staircasing effect
  • Diffusion equation
  • Operational matrix of integration
  • Finite Element Method
  • Burgers equation
  • Fractional order
  • Inverse Problem
  • Huxley equation
  • Nonmonotone technique
  • Fuzzy theory
  • Operational matrix of derivative
  • Multiple right-hand sides
  • Numerical Method
  • Adomian polynomials
  • Stochastic differential equations
  • Variable neighborhood search
  • Image restoration
  • Second derivative methods
  • Volterra integro-differential equations
  • Acceleration parameter
  • Strain-based formulation
  • Decision Making Units (DMUs)
  • Splitting iteration method
  • Skew- Hermitian matrix
  • Hermitian matrix
  • semi-analytical solution
  • Normal matrix
  • Non-Hermitian matrix
  • Inverse heat conduction problem
  • MMPDE
  • Local time stepping refinement
  • polycyclic groups
  • Hybrid
  • Dynamic Programming
  • Moving mesh
  • Level contours
  • FC-groups