AIM and Scope

AIM

The International Journal of Mechanical Computational And Manufacturing Research is for original research in the field of Mechanical Computational And Manufacturing where Computational Mechanical And Manufacturing and/or computing is needed to solve a problem. The International Journal of Mechanical Computational and Manufacturing Research is a place for advanced research on Mechanical Computational and Manufacturing. The majority of what it puts out are reviews, regular research papers, and short communications.

The goal of the International Journal of Mechanical Computational and Manufacturing Research is to give researchers from different fields, such as engineering, a place to talk about their work (electrical, mechanical, civil, industrial). Every paper that is sent in will be looked over, and only the best ones with original ideas and research will be published. Authors are asked to publish the results of their experiments and theories with as much detail as possible so that the results can be repeated. Research proposals and ideas that are new and different are very welcome in the form of manuscripts..

SCOPE

Manufacturing and Materials Processing:

  • 3D nanomanufacturing, 3D printing, and 3D bioprinting;
  • Assembling nanoscale objects and materials into more complex structures (e.g., DNA origami-directed assembly, 2D-based heterostructures and superlattices);
  • Assessment and control of process quality, efficiency, and competitiveness
  • Capability enhancement of materials processing and manufacturing through control, measurement, monitoring, and automation Design algorithms for multiscale manufacturing. Design of equipment or the development of tooling for materials processing and manufacturing;
  • Energy-harvesting devices;
  • Establishment of advanced and innovative methodologies for manufacturing operations, including mechanical, thermal, optical, chemical, electrical or other processes
    Integrated circuit fabrication, electronic components miniaturization;
  • Integration of design and manufacturing based on topology optimization and additive manufacturing;
  • Integration of processes and technologies to build nanodevices or nanosystems with added functionality;
  • Lab-on-a-chip and other nanofluidic devices (for separation, reaction, sensing, and other functions);
  • Mechanics analysis and predictive modeling of engineering materials involved in the material heating, solidification, deformation, addition, removal, accretion, and other operations in the manufacturing of parts and components
    Methods to monitor manufacture at the nanoscale (e.g., optical methods, spectroscopic techniques, scanning probe microscopies)
    Micro- and nanoelectromechanical systems (MEMS and NEMS);
  • Miniaturized devices for biology, chemistry, health, and medicine, including nanobiosensors;
  • Nanoelectronic devices, wearable electronics, flexible electronics, and paper electronics;
  • Nanofabrication and nanostructures for art and culture;
    Nanomachines;
  • Nanometrology and ultraprecision measurement science and technology;
  • Nanopatterning and lithography, including nanoimprint and roll-to-roll nanoimprint lithography;
  • Photonic and plasmonic devices;
  • Physical sensors;
  • Plasma surface engineering, plasma etching, and laser surface engineering;
  • Research findings on materials processing to transform material properties and characteristics for subsequent manufacturing steps to be performed
    Scanning probe based fabrication techniques, single-atom manipulation, single-molecule manipulation, chemistry on surfaces;
  • Self-assembly and combinations of top-down and bottom-up nanofabrication;
  • structural mechanics
  • structural modelling
  • structural systems
  • structure integrity
  • Synthesis and/or preparation of nano-objects and nanomaterials (e.g., quantum dots, nanotubes/nanowires, 2D materials);
  • Tools and processes for rapid prototyping, nanomanufacturing, and atomic manufacturing;
  • Wear and tribology

Mathematical and Computational Applications:

  • Applied mathematics
  • Classical mechanics
  • Computational fluid dynamics
  • Computational techniques
  • Differential equations
  • Dynamical systems
  • Evolutionary algorithms
  • Finite element methods
  • Machine learning and data mining
  • Mathematical modelling
  • Neural networks
  • Numerical analysis
  • Numerical simulation
  • Optimization and control
  • Statistics

Applied Mechanics:

  • aerodynamics
  • aerospace engineering
  • analytical mechanics
  • bio-mechanics
  • civil engineering
  • computer methods
  • contact mechanics
  • damage detection and assessment
  • damage mechanics
  • damage modelling
  • dynamics
  • elasticity
  • fatigue of materials
  • finite element analysis
  • fluid dynamics
  • fracture mechanics
  • heat transfer in solids
  • hydrodynamic
  • hydrostatics
  • kinematics
  • material mechanics
  • mathematical modelling
  • mechanical engineering
  • mechanics of composites
  • nuclear engineering
  • ocean engineering
  • plasticity
  • robots
  • solid mechanics
  • structural mechanics
  • structural modelling
  • structural systems
  • structure integrity
  • wear and tribology