Manufacturing, Production, and Operation Research
This research domain aims to research on the avenues of improving industrial manufacturing techniques, enhancing productivity and efficiency, and finding betters solutions to critical industrial problems. Developing and examining products that are not currently made in Bangladesh is another key aspect of this research group. Creating new jobs, fostering circular economy, skill development, and promoting SDG are few of the core objectives of this research domain.INTEREST(S)
Warranty Policy and Warranty Period Optimization. Operations Management and Emergency Resource Allocation Planning. Fabrication and Characterization of Composite Materials. Synthesis of a biocompatible 3D printing filament with recyclable plastic bottles using PET Machine.Fabrication and characterization of an industrial grade valve. Design and manufacturing of a low-cost CNC router prototype. Electrodeposition of Cr Metal on the Mild Steel Substrate. Alloy Fabrication and their Characterization. Green Synthesis by Sol-Gel Method.
VISION
Our vision is to be one of the leading research team in Bangladesh to attain sustainable development goals in manufacturing, production, and industrial operation research.
MISSION
The mission of Manufacturing, Production and Operation research domain is conducting research on sustainable development of industrial manufacturing technologies, enhancing productivity and efficiency, and finding out better solutions to critical industrial problems. Developing, analyzing, and manufacturing industrial products that are not currently made in Bangladesh. Creating new jobs, fostering circular economy, skill development, and promoting SDG.
MEMBER(S)
Molecular Dynamics Modeling of Thermomechanical Characteristics of Polymer Nanocomposites
Polymer nanocomposites are increasingly gaining industrial attractiveness due to their versatility of materials design. Behavior of these materials are dependent on the composition as well their micro...
Sustainable Manufacturing of Bamboo Fiber Reinforced Composites: Techniques, Properties, and Commercialization Challenges
This study investigates the various manufacturing techniques used in the development of bamboo fiber reinforced composites, highlighting their environmental benefits and mechanical properties. The stu...
Multiscale Damage Modeling of Tropocollagen Fibrils: Integrating Finite Element and Molecular Dynamics Simulations
Tropocollagen, the fundamental building block of collagen fibrils, plays a critical role in the mechanical properties of connective tissues. Understanding the damage mechanisms at the molecular and st...
Lean Manufacturing and Managerial Solutions for Textile Industries in Sirajgang, Bangladesh
Lean Manufacturing and Managerial Solutions for Textile Industries in Sirajganj" aims to establish a Lean ecosystem in a textile factory in Sirajganj, Bangladesh. This project will focus on ways to reduce production costs, increase manufacturing productivity, improve inventory management, workplace safety, factory layout optimization, and productivity enhancement of workers.
Exploring the Effectiveness of VSM in Identifying and Reducing Waste and Lead Time in Carbonated Beverages Industry
Reducing waste and lead time is a critical challenge for the food industry to meet customer demands and remain profitable. Value stream mapping (VSM) has been used in various industries to identify and eliminate waste and reduce lead time. Value-stream mapping, also known as material- and information-flow mapping, is a lean-management tool for analyzing the current state and designing a future state for the series of events that take a product or service from the beginning of the specific process until it reaches the customer. The results of this research can be used by the beverage industry to adopt VSM as a waste reduction and lead time reduction tool. The research will also contribute to the body of knowledge in VSM and its applications in the beverage industry.
Electro-Deposition of Trivalent Chromium on Mild Steel Substrate
The electro-deposition of trivalent chromium on mild steel substrate requires knowledge of electrochemistry. This project aims to optimize the parameters involved in the electro-deposition of trivalent chromium on mild steel substrates to achieve the desired coating thickness, uniformity, and properties such as hardness, optical reflectivity, corrosion resistance, and adhesion. The expected outcome of this project will provide the optimum plating parameters that contribute to achieving good quality coating and create opportunities for potential application in various industries such as automotive, aerospace, and construction.
Fabrication and Characterization of Composite Materials
Composite materials are widely utilized across industries for their exceptional mechanical properties and versatility. However, the development of composite materials involves a deep understanding of material science, manufacturing processes, and performance characterization. This project aims to fabricate a composite material that surpasses traditional materials in terms of mechanical strength, durability, and flexibility by combining nylon mesh, epoxy, hardener, polyethylene, and polyester. The complexity of this project lies in optimizing the composite's composition, selecting suitable manufacturing techniques, and conducting comprehensive characterization to assess its mechanical, thermal, and chemical properties. Expertise in material selection, composite fabrication, testing methods, and analysis is essential to tackle the complexities involved in this project.
Recycling Low-Density Polyethylene (LDPE) using Waste Plastic Bottles for 3D Printer Filament Production Via Fused Deposition Modeling (FDM)
Creating 3D printing filament from plastic bottles is an innovative and sustainable approach that addresses both environmental concerns and the growing demand for 3D printing materials. This method not only repurposes plastic waste that would otherwise end up in landfills or oceans but also reduces the need for new plastic production. By utilizing plastic bottles as a source for filament, this process showcases the potential for circular economy practices within the realm of additive manufacturing, demonstrating how waste can be transformed into valuable resources. In this project, low-density polyethylene (LDPE) will be recycled from waste plastic bottles for the production of 3D printer filament. Fused Deposition Modeling (FDM) technique will be used for producing the filament with required diameter. Extensive characterizations of the fabricated filament will be carried out for examining its viability in various 3D printing applications. Sample 3D printed components will be manufactured and investigated.
Designing and Manufacturing of an Industrial Grade Globe Valve
The usage of valves is all around us for controlling water, steam, chemicals, gas, oil, and all kinds of liquid and semi-solid materials. Glove valve is one of the most popular valves worldwide. In Bangladesh, the market of globe valve is massively large of estimated 100 crores, however, unfortunately there is no local manufacturer. All these valves are imported. In this project, the main objective is to take a pioneering step in Bangladesh by manufacturing globe valves using locally sourced raw materials, while ensuring they meet all the necessary industry standards for effective use in these sectors. The design must prioritize functionality, safety, durability, precision, and manufacturing efficiency, with extensive testing and quality control measures carried out throughout the process to ensure the Globe valve meets the required standards and specifications.
Revolutionising Precision: Innovating Los-Cost CNC Routing Machines for Accessible Manufacturing
The increasing demand for precision manufacturing has highlighted the need for affordable CNC machines. The limited availability of low-cost computer numerical control (CNC) machines hinders access to precision manufacturing for small-scale businesses, educational institutions, and individuals with constrained budgets. This research proposal aims to address this problem by developing an affordable CNC machine that maintains functionality, safety, and precision while prioritizing cost-effectiveness, unlocking opportunities for innovation, economic growth, and skill development in these sectors. Through in-depth analysis, component integration, optimization, and testing, the research seeks to enable wider access to CNC technology, fostering innovation, economic growth, and skill development. The outcomes will enhance accessibility to precision manufacturing processes, benefiting targeted sectors and promoting sustainable development.