Aims and Scope

Aims

Teknomekanik is an international journal that publishes peer-reviewed articles to the worldwide community. Papers written collaboratively by researchers from various countries are encouraged. It aims to promote academic exchange and increase collaboration among scientists, engineers, and researchers to support the Sustainable Development Goals (SDG).

Scope

This journal welcomes contributions from anyone who wishes to report on new developments within the following fields:

1. Ocean Engineering

  • Ocean Structure: Design, construct and maintain structures operating at sea, such as oil drilling platforms, bridges, ocean current turbines, etc. This involves analysis of material strength, structural dynamics, and environmental factors such as ocean waves and wind.
  • Water transportation: Research on marine vessels, including ship design, energy efficiency, manoeuvrability, and cost-benefit analysis of the latest technologies such as autonomous ships.
  • Ocean Energy: Development of technology to utilize energy from the sea, such as wave power plants, ocean current turbines, and ocean thermal energy technology. The main focus is on sustainability and energy efficiency.
  • Modeling and Prediction: Study of ocean fluid dynamics, including numerical modelling of ocean waves, ocean currents, and sediment transport. This modelling assists in infrastructure planning, disaster mitigation, and environmental protection.
  • Marine Environment: Research on the impact of human technology on the marine environment, including the effects of pollution, climate change, and marine biodiversity conservation. This includes strategies for environmental protection and marine ecosystem restoration.
  • Ocean Sensor Technology: Development and application of sensors and remote sensing systems for marine environmental monitoring, fisheries research and maritime security.
  • Beach and Coastal Engineering: Beach and coastal management and engineering, including protection against coastal erosion, flood management, and coastal zone management for commercial and environmental interests.
  • Underwater Technology Development: Design and development of technology for exploration and exploitation of underwater resources, including research on the seabed and technology for operations in bottomless water.

2. Mechanical Engineering

  • Design and Manufacturing: Research methods and technologies for designing efficient and innovative mechanical products as well as optimal manufacturing techniques such as materials processing, 3D printing technology and industrial robotics.
  • Mechatronics and Automation: Integration of mechanical, electronic, and control technologies to develop advanced automation systems, such as industrial robots, autonomous vehicles, and production automation systems.
  • Materials Mechanics: Study of the behaviour of materials and structures at the atomic to the macroscopic level with a focus on the strength, durability and performance of materials under various environmental conditions and loads.
  • Fluid and Thermal Dynamics: Research on fluid flow, heat transfer, and gas dynamics, with applications in turbine design, cooling systems, and thermal engine performance optimization.
  • Energy and Thermal Systems: Development of technologies for generating, converting, and using energy, including the design of energy machines such as gas turbines, combustion motors, and fuel cells, as well as thermal systems such as cooling and heating.
  • System Dynamics: Mathematical analysis and computer simulation of complex mechanical systems to understand and improve the performance, stability, and control of systems such as vehicles, robots, and production machines.
  • Reliability and Optimization: Development of methods to improve the reliability and performance of mechanical systems through failure analysis, design optimization, and predictive maintenance.
  • Biomechanics and Biotechnology: Application of mechanical principles to understand the structure and function of living organisms as well as the development of medical devices and bionic technology.
  • Vehicles and Transportation: Design, analysis, and development of land, air and sea vehicles to increase transportation efficiency, safety and comfort.
  • Manufacturing and Supply Chain Systems: Study of manufacturing processes, supply chain optimization, and production management systems to increase productivity and operational efficiency.

3. Electrical and Electronic Engineering

  • Electronics: Development and design of electronic devices such as transistors, microprocessors, and other semiconductor components. This research covers signal processing technology, integrated circuit (IC) design, and applications in consumer electronics, communications, and industry.
  • Electricity: Study on the generation, distribution, and use of electrical energy. Research in this area includes efficient and sustainable power generation, transmission and distribution systems as well as energy storage technology.
  • Communications and Signals: Research on theory and applications in data communications, digital and analogue signals, as well as network technologies such as 5G and the Internet of Things (IoT). It includes the development of modulation, demodulation, and signal processing techniques for wireless and wired communications.
  • Control and Automation: Development of automatic control systems to control industrial processes, autonomous vehicles, robotics and manufacturing systems. This includes the utilization of sensors, actuators, and programming techniques for real-time control systems.
  • Optoelectronics and Photonics: Research on optical and photovoltaic devices, including lasers, light detectors and other optoelectronic devices. Applications include optical communications, optical information processing, and photovoltaic technology for renewable energy.
  • Power Electronics: Study on electrical energy conversion, design and control of power devices such as DC-DC converters, inverters, and voltage regulators. The main focus is on energy efficiency, voltage stabilization and the development of power storage technologies.
  • Electronic Components: Research on the development of materials and technology for electronic components such as transistors, capacitors and inductors. The goal is to improve the performance, reliability and efficiency of electronic components in wide applications.
  • Biomedical Engineering: Development of medical devices and health technology using electronics principles and medical engineering. These include medical imaging devices, patient monitors, and rehabilitation aids.
  • Sensors and Sensing Systems: Development of sensors for wide applications such as environmental sensors, bio-medical sensors, and security sensors. It also includes integration of sensors with remote sensing systems for monitoring and control.
  • Cyber ​​Security and System Security: Research on security techniques to protect computer systems, networks, and data from cyber-attacks. It covers cryptography, intrusion detection, and the development of security protocols for different applications.

4. Engineering

  • Civil Engineering: Includes the design and construction of infrastructure such as bridges, roads, buildings, dams, and drainage systems. Research in civil engineering often focuses on sustainability, disaster mitigation, and natural resource management.
  • Environmental Engineering: Focuses on environmental protection and conservation of natural resources, including waste management, pollution control, and green technology for sustainable development.
  • Materials Engineering: Focuses on new materials development, their characterization and applications in various industries, including nanotechnology and smart materials.
  • Aero and Astronautical Engineering: Covers the design, construction, and testing of aircraft, rockets, and space systems, as well as related technologies such as air navigation and avionics.
  • Computer Engineering: Centers on software development, computer systems, networks, and information security. This field also includes artificial intelligence, robotics, and grid computing.

5. Chemical engineering

  • Chemical Processes: Research on the design, development and optimization of chemical processes for the production of various chemical products such as industrial basic materials, pharmaceutical materials, fuels and consumer products. This includes chemical reaction analysis, separation, and purification of chemicals.
  • Reaction Engineering: Study of chemical reaction kinetics, catalysis, and reactor design to increase the efficiency of chemical processes, including the development of new catalysts, reaction modelling, and process control.
  • Process Technology: Development of technology to efficiently process materials on a large scale, including efficient use of energy, process modelling, and system integration to improve operational reliability and safety.
  • Biochemical Engineering: Combining chemical principles with biology to develop biotechnological processes such as biomass production, biopharmaceuticals, bioremediation, and other applications in the health and environmental fields.
  • Separation and Purification: Research on separation techniques such as distillation, adsorption, extraction, membranes, and filtration to separate and purify chemical products in industrial processes.
  • Energy and Environment: Technology development for more efficient energy use, waste management, and reduction of greenhouse gas emissions in the chemical industry. This includes the use of renewable energy and wastewater treatment technology.
  • Materials and Nanotechnology: Research on the development of advanced materials, including nanomaterials, polymers, and smart materials as well as their applications in technologies such as electronics, medical materials, and renewable energy.
  • Modelling and Simulation: The use of mathematical modelling and computer simulation techniques to analyze and predict the behaviour of complex chemical systems, optimize process design, and support decision-making.
  • Occupational Safety and Health: Study of identification, evaluation and control of chemical risks in the work environment to ensure operator and environmental safety.
  • Process Control Systems: Development and implementation of automated control systems to effectively monitor and control chemical processes, including the use of sensors, actuators and computerized technology.