Technology Reports of Kansai University

Technology Reports of Kansai University (ISSN: 04532198) is a monthly peer-reviewed and open-access international Journal. It was first built in 1959 and officially in 1975 till now by kansai university, japan. The journal covers all sort of engineering topic, mathematics and physics. Technology Reports of Kansai University (TRKU) was closed access journal until 2017. After that TRKU became open access journal. TRKU is a scopus indexed journal and directly run by faculty of engineering, kansai university.

Submission Deadline

Volume - 62 , Issue 09
09 Oct 2020
Day
Hour
Min
Sec

Upcoming Publication

Volume - 62 , Issue 08
30 Sep 2020

Aim and Scope

Technology Reports of Kansai University (ISSN: 04532198) is a peer-reviewed journal. The journal covers all sort of engineering topic as well as mathematics and physics. the journal's scopes are in the following fields but not limited to:

Electrical Engineering and Telecommunication Section:

Electrical Engineering, Telecommunication Engineering, Electro-mechanical System Engineering, Biological Biosystem Engineering, Integrated Engineering, Electronic Engineering, Hardware-software co-design and interfacing, Semiconductor chip, Peripheral equipments, Nanotechnology, Advanced control theories and applications, Machine design and optimization , Turbines micro-turbines, FACTS devices , Insulation systems , Power quality , High voltage engineering, Electrical actuators , Energy optimization , Electric drives , Electrical machines, HVDC transmission, Power electronics.

Computer Science Section :

Software Engineering, Data Security , Computer Vision , Image Processing, Cryptography, Computer Networking, Database system and Management, Data mining, Big Data, Robotics , Parallel and distributed processing , Artificial Intelligence , Natural language processing , Neural Networking, Distributed Systems , Fuzzy logic, Advance programming, Machine learning, Internet & the Web, Information Technology , Computer architecture, Virtual vision and virtual simulations, Operating systems, Cryptosystems and data compression, Security and privacy, Algorithms, Sensors and ad-hoc networks, Graph theory, Pattern/image recognition, Neural networks.

Civil and architectural engineering :

Architectural Drawing, Architectural Style, Architectural Theory, Biomechanics, Building Materials, Coastal Engineering, Construction Engineering, Control Engineering, Earthquake Engineering, Environmental Engineering, Geotechnical Engineering, Materials Engineering, Municipal Or Urban Engineering, Organic Architecture, Sociology of Architecture, Structural Engineering, Surveying, Transportation Engineering.

Mechanical and Materials Engineering :

kinematics and dynamics of rigid bodies, theory of machines and mechanisms, vibration and balancing of machine parts, stability of mechanical systems, mechanics of continuum, strength of materials, fatigue of materials, hydromechanics, aerodynamics, thermodynamics, heat transfer, thermo fluids, nanofluids, energy systems, renewable and alternative energy, engine, fuels, nanomaterial, material synthesis and characterization, principles of the micro-macro transition, elastic behavior, plastic behavior, high-temperature creep, fatigue, fracture, metals, polymers, ceramics, intermetallics.

Chemical Engineering :

Chemical engineering fundamentals, Physical, Theoretical and Computational Chemistry, Chemical engineering educational challenges and development, Chemical reaction engineering, Chemical engineering equipment design and process design, Thermodynamics, Catalysis & reaction engineering, Particulate systems, Rheology, Multifase flows, Interfacial & colloidal phenomena, Transport phenomena in porous/granular media, Membranes and membrane science, Crystallization, distillation, absorption and extraction, Ionic liquids/electrolyte solutions.

Food Engineering :

Food science, Food engineering, Food microbiology, Food packaging, Food preservation, Food technology, Aseptic processing, Food fortification, Food rheology, Dietary supplement, Food safety, Food chemistry.

Physics Section:

Astrophysics, Atomic and molecular physics, Biophysics, Chemical physics, Civil engineering, Cluster physics, Computational physics, Condensed matter, Cosmology, Device physics, Fluid dynamics, Geophysics, High energy particle physics, Laser, Mechanical engineering, Medical physics, Nanotechnology, Nonlinear science, Nuclear physics, Optics, Photonics, Plasma and fluid physics, Quantum physics, Robotics, Soft matter and polymers.

Mathematics Section:

Actuarial science, Algebra, Algebraic geometry, Analysis and advanced calculus, Approximation theory, Boundry layer theory, Calculus of variations, Combinatorics, Complex analysis, Continuum mechanics, Cryptography, Demography, Differential equations, Differential geometry, Dynamical systems, Econometrics, Fluid mechanics, Functional analysis, Game theory, General topology, Geometry, Graph theory, Group theory, Industrial mathematics, Information theory, Integral transforms and integral equations, Lie algebras, Logic, Magnetohydrodynamics, Mathematical analysis.

Latest Articles of

Technology Reports of Kansai University

Journal ID : TRKU-13-04-2020-10683
Total View : 271

Title : Optimization of yarn texturing process DTY-150D/96F using taguchi method

Abstract :

A study of the optimization of the TDY 150D/96F yarn production process parameters located at PT X has been conducted. In the process of making yarn, tenacity and filament force are some of the response variables that must be controlled to ensure the quality of the yarn meets the specified specifications. Draw ratio and temperature are input variables that will affect both response variables. Experiments were carried out using the L16 Taguchi orthogonal array with parameters, draw ratio and temperature. The draw ratio parameter uses the limits of 1: 1.23, 1: 1.30, 1: 1.40 and 1: 1.55. While the temperature parameters used are 150°C, 160°C, 170°C and 180°C. This study aims to obtain the optimum tenacity and filament force values from a combination of set process parameters. This optimization method has succeeded in improving the value of tenacity and filament force that consistently meets specifications. The highest average Tenacity value of DTY 150D/96F reaches 4.22 g/den, while the highest average filament force value of DTY 150D/96F reaches 6.55 N. For both parameters given, draw ratio is the parameter that gives the highest impact on tenacity and filament force with S/N ratio respectively 12.09 and 12.31. This result is expected to be used to develop DTY 150D/96F yarn quality in other significant aspects

Full article
Journal ID : TRKU-13-04-2020-10682
Total View : 250

Title : DEVELOPMENT OF WATER TREATMENT TABLET FROM THE LEAVES AND OIL EXTRACTED FROM THE SEEDS OF MORINGA OLEIFERA AND ACTIVATED CARBON

Abstract :

In the event of natural or manmade disaster, clean water might be a very precious commodity. Commercial water treatment tablet might be able to purify water but it might also poses health hazard when consumed in large amount. This research focused on the development of naturally derived water treatment tablet formed from the leaves and oil extracted from the seeds of Moringa Oleifera and activated carbon (from coconut shells). The characterization of the activated carbon and Moringa Oleifera was carried out by Fourier Transform Infrared Spectroscopy (FTIR), X-ray diffraction (XRD) and Brunauer, Emmett and Teller (BET), while the efficiency of water treatment tablet was analysed by Turbidity Meter. FTIR results shows that there are hydroxyl groups and carboxylic group in the activated carbon sample which correlates well with literatures. XRD results indicated that both activated carbon and Moringa Oleifera was amorphous in structure which might facilitates towards the dynamicity of the water treatment process. BET’s results shows that activated carbon have larger surface area compared to Moringa Oleifera leaves. The results obtained from turbidity meter analysis showed that the existence of Moringa Oleifera oil contributes toward better water treatment capability while the leaves of Moringa Oleifera on its own was less effective as water treatment agent. It can be concluded that the combination of Moringa Oleifera oil and leaves with activated carbon at a ratio of 125:50:250 (in mg) can be considered effective in removing impurities from water where 59.22% of the contaminant was successfully removed

Full article

Certificates