Project 1: Analyzing and forecasting rubber future prices at Shanghai (China), Osaka (Japan), Sicom (Singapore) exchanges

Project Title

Analyzing and forecasting rubber future prices at Shanghai (China), Osaka (Japan), Sicom (Singapore) exchanges

PI

Mr. Nguyen Trang Thao – PhD Candidate

Field

Artificial Intelligence

Duration

06 months (1861/HĐ-ĐHVL dated 28/11/2022)

Keywords

Forecast                 Rubber future prices

Objectives

To forecast the exact price of rubber future contracts on three international exchanges

Contents

A future contract is an agreement between a buyer and a seller for a transaction to take place in the future at a predetermined price. Currently, there are about 34 rubber futures tickers traded, with 10-12 rubber futures tickers traded on each exchange according to month-to-month expiration. Analyzing and forecasting the trends of these futures contracts can help businesses be more proactive in business planning, inventory management and product cost reduction through efficient operation. Fruit.

Expected Outputs

To propose 04 accurate price forecasting models for 34 futures contracts at 3 exchanges in 01 week, 01 month and 6 months, and to set up summary reports on pdf files based on forecast results.

Sponsored by

ORO Production Trading Co., Ltd

Project 2: Development of metal dichalcogenides toward accelerated electrochemical hydrogen generation

Project Title

Development of metal dichalcogenides toward accelerated electrochemical hydrogen generation

PI

 

Field

Renewable Energy

Duration

12 months

Keywords

Catalysis

Electrochemical Technology

Hydrogen production

Objectives

The purpose of this study is to synthesize nanocomposite fabricated from metal dichalcogenides and activated carbon derived from waste as a low-cost and efficient electrocatalyst for water splitting.

Contents

In this study, metal dichalcogenides decorated porous carbon composite will be synthesized from the fruit peel. This fruit peel results in a significant amount of organic waste/biowaste. Thus the main aim of this work is focused on the possible reuse of biowaste/food waste by an inexpensive method. Growing global biowaste is a significant impact on environmental issues. Already various bio-sources were used for the preparation of carbon materials. All plant sources consist of polyphenols, carbohydrates, minerals, vitamins, dietary fibers, chlorophylls, carotenoids, antioxidants, etc. Therefore, here the fruit peel would be used as a carbon source to synthesize activated carbon and nano-electrocatalyst composite. The synthesized electrocatalysts will be well characterized by standard surface analytical tools. The electrochemical activity of prepared electrocatalysts will be tested for the hydrogen evolution reaction. It is expected that a large specific surface area and multi-heteroatoms doped waste-derived activated carbon are beneficial for the enhanced dispersion and intimate contact of metal dichalcogenides with carbon frameworks to enhance catalytic activity metal dichalcogenides nanoparticles.

Expected Outputs

The obtained results would show that the synthesized nanocomposites will be a potential candidate as an electrocatalyst for hydrogen production with a green way. Moreover, this investigation throws light on the mere future for more possibilities to transform solid biowaste into environmentally friendly energy conversion applications. The results attained from this study would be published for thesis. In addition, the facile synthesis of hybrid materials is expected to be utilized for the development of effective and low-cost electrocatalysts in the future.

Sponsored by

Korea Institute of Science and Technology, KIST School Partnership Project +

Project 3: Development of advanced approaches for analysis, design optimization, damage diagnosis and vibration control of plate/shell structures using composite materials

Project Title

Development of advanced approaches for analysis, design optimization, damage diagnosis and vibration control of plate/shell structures using composite materials

Field

Computational Mechanics

Duration

24 months (from 12/2022 – 12/2024)

Keywords

advanced approaches

plate/shell structures

composite materials

Bualuang ASEAN Chair Professor (PI)

Prof. Nguyen Thoi Trung

Objectives

The purpose of this study is to develop advanced approaches for analysis, design optimization, damage diagnosis and vibration control of plate/shell structures using composite materials

Contents

+ To develop numerical approaches for structural analysis in multiple physical environments (i.e, structures with new composites, intelligent materials, nonlinear response analysis, dynamic response analysis, structural response analysis in multi-physical interactive environments (foundation, heat, liquid, piezoelectric, magnetic, moisture, etc.).

+ To develop optimization algorithms for solving structural optimization, multi-objective optimization problems for structures in multiple physical environments.

+ To develop new effective hybrid methods (among damaged location diagnosis methods, reduced analysis models, and optimization algorithms) for diagnose the location and extent of damage of structures in multiple physical environments in conditions that limit the number of measurement sensors and noise measurement data.

+ To develop new effective intelligent numerical approaches (using ANN, Deep Learning, etc) for intelligent computing of behavior analysis, optimization and damage diagnose of structures in multiple physical environments in conditions of big data, noise data, or limited experimental data.

+ To conduct the experimental study on the strengthening reinforced concrete members (beams and columns) with FRP materials under flexural/shear/compression loading.

+ To conduct the experimental study on the FRP-reinforced timber beams under flexural loading.

+ To develop the finite element model using commercial software for predicting the behavior of strengthening reinforced concrete members with FRP materials.

+ To conduct the experimental study on the mechanical study on the materials (i.e., steel, FRP, or concrete) after fire exposure.

Expected Outputs

A final report to the Vice Rector for Research and Innovation of Thammasat University. The final report contains activities conducted with the university or faculty or office under the specified research project title and submit at least three research works which have been accepted for publication or which have been published in journals indexed in Scopus or ISI, specifying in the list of authors the Collaborator at Thammasat University or researcher’s affiliation as Thammasat University, among which at least one must be from a journal ranked in the top 25% (or Q1)

Sponsored by

Thammasat University

Project 4: Manufacturing a small capacity bird's nest feather separator for households and owners of bird's nests

Project Title

Manufacturing a small capacity bird’s nest feather separator for households and owners of bird’s nests

Field

Applied Mechanics

Duration

04 months (from 15/05/2023 – 15/09/2023)

Keywords

feather separator

bird’s nests

manufacturing

PI

Mr. Luu Van Toan

Objectives

The purpose of this project is design and manufacturing a bird’s nest feather separator, a machine with small efficiency for households, the owner of the bird’s nest separates feathers, reducing over 80% of the amount of feathers, feces, and eggshells on the bird’s nest compared to when the machine has not been used in the past, 30 minutes use time.

Contents

+ Detailed design of vibrating screen system

+ Detailed design of water supply and drainage system

+ Design of electrical control system

+ Completing the machine design

+ Stainless steel vibrating screen system

+ Pumping system, water supply and drainage

+ Manufacturing machine control system

Expected Outputs

+ 01 summary report in pdf file

+ Machine control system

+ Separator is complete and has been adjusted to the specifications to ensure a feather separation efficiency of over 80%

Sponsored by

Nguyen Thanh Phat Company Limited