Call for papers

Topics of interest for submission include any topics related with:

1. The Core Engineering Disciplines

These are the traditional, foundational branches. While they heavily overlap now, they started as independent fields of study.

Mechanical Engineering

The study of objects and systems in motion.

  • Statics & Dynamics: How forces affect physical bodies.

  • Thermodynamics & Heat Transfer: Energy conversion and climate control.

  • Fluid Mechanics: Behavior of liquids and gases (aerodynamics, hydraulics).

  • Kinematics & Machine Design: Creating gears, linkages, and moving parts.

Electrical & Electronic Engineering

The study and application of electricity, electronics, and electromagnetism.

  • Power Engineering: Generation, transmission, and distribution of electricity.

  • Control Systems: Using algorithms to control physical systems (like cruise control).

  • Telecommunications: Moving data via waves, fiber optics, and satellites.

  • Microelectronics: Designing computer chips and circuit boards.

Civil & Environmental Engineering

Designing and maintaining the built and natural environment.

  • Structural Engineering: Ensuring buildings and bridges don't fall down.

  • Geotechnical Engineering: How structures interact with soil and rock.

  • Transportation Engineering: Designing roads, transit systems, and traffic flow.

  • Environmental Engineering: Water treatment, waste management, and pollution control.

Chemical & Materials Engineering

The bridge between physical sciences (chemistry/physics) and life sciences with engineering.

  • Process Engineering: Scaling up chemical reactions for mass production.

  • Materials Science: Developing new polymers, ceramics, metals, and composites.

  • Biomolecular Engineering: Manipulating molecules for medicine or agriculture.

2. Modern & Advanced Technology Sectors

These are the rapidly evolving fields that often grew out of the core disciplines listed above.

Computer Science & Information Technology (IT)

  • Software Engineering: The systematic design and coding of software.

  • Cybersecurity: Protecting networks and data from attacks.

  • Data Science & Big Data: Extracting insights from massive amounts of information.

  • Cloud Computing: On-demand availability of computer system resources.

 Artificial Intelligence & Robotics

  • Machine Learning (ML): Teaching computers to learn from data.

  • Computer Vision: Enabling machines to "see" and interpret visual data.

  • Natural Language Processing (NLP): How machines understand human language.

  • Automation & Mechatronics: Creating smart, self-operating machines.

Aerospace & Ocean Engineering

  • Aeronautics: Designing aircraft that fly within Earth's atmosphere.

  • Astronautics: Designing spacecraft that operate outside Earth's atmosphere.

  • Marine Engineering: Designing ships, submarines, and offshore structures.

Biomedical Engineering

  • Tissue Engineering: Growing artificial organs and skin.

  • Medical Devices: Creating pacemakers, MRI machines, and prosthetics.

  • Bioinformatics: Using code to understand biological data (like DNA sequencing).

3. The Interrelated Web 

No technology exists in a vacuum anymore. The most exciting advancements happen where these fields collide. Here are a few examples of how they interlock:

  • The Smart Grid: Electrical Engineering + Computer Science + Civil Engineering. Creating a power grid that uses AI to distribute energy efficiently based on real-time city usage.

  • Autonomous Vehicles: Mechanical + Electrical + Computer Science (AI). A self-driving car needs a mechanical frame, electrical sensors (cameras, LiDAR), and complex AI software to make split-second driving decisions.

  • Renewable Energy Systems: Chemical + Mechanical + Electrical + Environmental. Creating a solar panel or wind turbine requires materials science (Chemical) to capture energy, mechanical design to withstand the elements, and electrical engineering to feed that power back to the grid.

  • Nanotechnology: Materials Science + Quantum Physics + Biomedical Engineering. Creating microscopic machines or materials that can deliver medicine directly to a cancer cell.