S.No |
Name of the project |
Abstract |
1 |
DEEP LEARNING BASED ON MULTICAST SEGR OF E WASTE |
In this design, the categorization of global artifacts into recyclable and non-recyclable is proposed. Degradable artifacts encompass materials naturally decomposed by microorganisms, such as organic waste. The waste from degradable materials can be repurposed through composting. On the other hand, non-degradable plastic artifacts consist of materials that do not naturally decompose, like plastics and inorganic elements, which can only be reused by transforming them into new products. This study employs deep learning methodologies, specifically Convolutional Neural Network (CNN), for the classification task. Using images as the dataset, a percentage is allocated for training, validation, and testing. Pretrained neural networks within deep learning models are employed. The algorithms’ performance is evaluated by classifying artifacts into degradable and non-degradable plastics. This study aims to enhance waste management by providing a method to identify, track, sort, and process artifacts based on their classification. The classification into degradable and non-degradable categories is particularly significant for environmental monitoring and marine conservation efforts. YOLOv5’s efficiency in object detection, combined with its adaptability to different debris types, positions this project as a valuable tool in addressing the environmental challenges associated with marine pollution. Through the integration of cutting-edge technology, this initiative contributes to enhancing our understanding of the composition of sea debris and aids in the development of targeted strategies for sustainable marine ecosystem management. |
2 |
INTEGARTED AN EFFICIENT E-WASTE MANAGEMENT USING DEEP LEARNING AND WEB BASED PLATFORM |
This proposed work aims to revolutionize e-waste management by integrating image processing, embedded systems, and web application domains. Leveraging advanced image processing techniques, the system accurately identifies and categorizes various types of e-waste, enhancing the efficiency of sorting processes. Through an embedded system setup, the detected e-waste data is transmitted to a Java-based web application, facilitating seamless communication between users and recyclers. The proposed solution offers several advantages compared to existing methodologies. Firstly, it streamlines e-waste sorting processes, reducing manual labor and minimizing errors associated with traditional sorting methods. Secondly, by providing a user-friendly web interface, the system promotes transparency and accessibility in e-waste recycling, empowering users to make informed decisions about their discarded electronics. Additionally, the solution integrates payment functionalities, allowing users to conveniently purchase recycled products directly from the platform. Compared to existing methodologies, which often rely on manual sorting processes and lack user-friendly interfaces, the system offers a more efficient and accessible solution for e-waste management. Through an innovative approach, the system aim to revolutionize the e-waste recycling industry and contribute to a cleaner and greener future for generations to come. |
3 |
A COMPARATIVE STUDY OF MUNICIPAL SOLID WASTE TREATMENT METHODS USING LCA APPROACH |
India produces 62 million tonnes of waste annually, with 70% collected, and only12 million tonnes treated, while 31 million tonnes end up in landfills. The generation of municipal solid waste is expected to rise to 165 million tonnes by 2030 due to changing consumption patterns and rapid economic growth. Solid waste poses significant environmental, social, and economic challenges if not managed properly. Improper disposal of waste can lead to pollution of land, water, and air, causing harm to ecosystems and human health. It also contributes to the depletion of natural resources and exacerbates climate change through greenhouse gas emissions from landfill sites and waste incineration. Life Cycle Assessment (LCA) tool can be used for environmental assessment of Municipal Solid Waste Management (MSWM) system and helps to incorporate LCA models to simplifying the MSWM systems and for the calculations of environmental benefits and burdens. The present study aims to evaluate the impact of MSWM system in kundrathur town, under four different scenarios.i.e, Open composting (S1), In vessel composting (S2), Enhanced biological phosphorous removal (S3) and bio-drying (S4) using LCA tool. The scenarios were compared using Open LCA software with ecoinvent database (Recipe midpoint (H), impact 2002+). Scenario 2(In-vessel composting) and Scenario 4(Bio-drying) was found to have the least environmental impacts on global warming (33.053 and 13.884 kg Co2 eq), human toxicity (41.7 E-3 and 12.208 kg1, 4-DCB), eutrophication (0.42 and 0.239 kg PM 2.5 eq), ecotoxicity (6.956E-4 and 22.004E-4 kg1, 4-DCB), acidification (2.956 and 3.18 kgSo2eq), carbon monoxide (0.341 and 0.245 kg) and ozone formation (0.536 and 0.158 kg NOx eq). |
4 |
EXPERIMENTAL INVESTIGATION ON PARTIAL REPLACEMENT OF CEMENT WITH COCONUT SHELL ASH AND SAND WITH GLASS POWDER IN CONCRETE. |
In the study investigating the Sustainable Use of Alternative Materials in Concrete Production through Partial Replacement of Cement with Coconut Shell Ash and Sand with Glass Powder, the sustainable use of alternative materials in concrete production is investigated to reduce environmental impact while maintaining structural performance. The study evaluates the feasibility of utilizing coconut shell ash (CSA) as a partial replacement for cement. Concrete mixes with varying replacement levels (5%, 10%, and 15%) were investigated. At 28 days, the compressive strength ranged from 25.47 MPa to 30.98 MPa, and the tensile strength values were found to be 2.2 N/mm2, 1.9 N/mm2, and 1.7 N/mm2 for 5%, 10%, and 15% replacement levels of CSA, respectively. The corresponding environmental impact reductions in global warming potential exceeded 15% to 5%. Based on the structural performance and environmental impact, the optimal replacement level was determined to be 5%, achieving an average compressive strength of 28 MPa, and over 5% reduction in global warming potential. This project also investigates the potential of utilizing glass powder (GP) as a sustainable alternative to natural sand in concrete production. By replacing natural sand with GP at 20%, the study compares the tensile strength, compressive strength (cubes and cylinders), and flexural strength of the resulting concrete with that of high-performance concrete made with natural sand. The initiative not only offers an innovative solution for waste glass disposal but also contributes to a greener environment through the adoption of GP in concrete manufacturing. The findings from this investigation demonstrate the potential for utilizing coconut shell ash and glass powder in concrete production to achieve sustainable and environmentally friendly concrete with enhanced mechanical and durability properties, thus contributing to the advancement of sustainable construction practices. |
5 |
SUSTAINABLE ECO-FRIENDLY CONCRETE USING PLASTIC BOTTLES AND POLYPROPYLENE FIBERS |
Issues with environmental protection are currently being experienced. Though more and more buildings throughout the world are incorporating eco-friendly design concepts on a daily basis. In order to solve this problem, small amount of plastic fibers were added to the M25. This study explores the use of waste Polyethylene Terephthalate (PET) bottles that are used as a partial replacement of coarse aggregate and Polypropylene (PP) as fiber, as 100% natural coarse aggregate replacement is not feasible. The characteristics such as specific gravity, fineness, consistency, setting time, soundness and compressive strength are analyzed. The specific gravity and water absorption of the coarse aggregate were determined to be 2.74 and 1.19 %, respectively, while the fine aggregate’s values were found to be 1.40 % and 2.65. A 0.50 water-to-cement ratio was used to make concrete of the M25 grade. For 2.5% coarse aggregate replacement with 0%, 1.0% and 1.5% of PP fiber, water absorption was reduced by 4.08%, 10.20%, 18.36%, and 22.44% respectively. The mix concrete by 2.5% PET bottle fiber with 0.5% PP fiber showed a 14.67% increase in compressive strength compared to the control sample. If the fiber content exceeds 2.5%, the strength decreases due to decreased bond strength between fibers. When the 2.5% plastic PET bottle fiber and 0.5% PP fiber mix concrete is compared to the Control concrete sample, the split tensile strength of the former exhibits a 2.64 % strength improvement. |
6 |
METHOD OF IMPROVING MECHANICAL PROPERTIES OF RECYCLED COURSE AGGREGATE CONCTRETE THROUGH PARTIAL REPLACEMENT OF GLASS WASTE AGGREGATE |
This research project presents an innovative approach to enhance the mechanical properties of recycled aggregate concrete (RAC) by incorporating broken glass waste (BGW). The methodology involves procuring recycled coarse aggregate (RCA) from construction and demolition waste, followed by rigorous crushing, sieving, and cleansing processes to meet quality standards. Subsequent enhancement of RCA is achieved through mechanical treatment and bio-deposition using urease-producing bacteria, ensuring optimal conditioning. The integration allows for partial replacement of treated RCA with BGW at varying rates, resulting in well-proportioned RAC mixes. Additionally, a comprehensive comparative analysis of mechanical treatment and bio-deposition treatment for enhancing the properties of recycled aggregate concrete, focusing on compressive, tensile, and flexural strengths, is presented. The results reveal that the bio-deposition method consistently outperforms mechanical treatment in terms of compressive strength, with the bio-deposited mix incorporating 20% broken glass waste exhibiting the highest strength at 39.18 kN/m2. While the comparison for tensile strength varies, the bio-deposited mix with 20% broken glass waste achieves the second-highest strength at 3.25 kN/m2. Regarding flexural strength, the bio-deposited mix with 20% broken glass waste showcases the highest strength at 5.33 kN/m2. These findings underscore the superior performance of the bio-deposition method in enhancing concrete properties, particularly at 20% broken glass waste incorporation. However, the mechanically treated method remains efficient and economically viable, especially for applications prioritizing cost considerations. Overall, the optimum percentage for achieving high strength appears to be 20% broken glass waste replacement in place of recycled coarse aggregate, irrespective of the treatment method employed. |
7 |
EXPERIMENTAL INVESTIGATION ON NANO MATERIAL BASED CONCRETE WITH HUMAN HAIR |
The demand for sustainable and innovative construction materials has led to the exploration of various alternatives to traditional concrete. This study presents an experimental investigation on the use of human hair as a reinforcing fiber in concrete, supplemented with nano materials. Human hair, abundantly available as a waste product, possesses mechanical properties that make it a potential candidate for enhancing the performance of concrete. The research focuses on assessing the mechanical properties, such as compressive strength, flexural strength, and durability, of concrete specimens containing varying proportions of human hair fibers. Additionally, the incorporation of nano materials aims to further enhance the mechanical and durability properties of the concrete. The experimental results indicate that the addition of human hair fibers improves the flexural strength and ductility of the concrete, while the nano materials contribute to increased compressive strength and durability. This study provides valuable insights into the utilization of human hair fibers in combination with nano materials to develop sustainable and high-performance concrete, with potential applications in the construction industry. The construction industry constantly seeks sustainable and innovative solutions to enhance the performance and durability of concrete. This study presents a detailed experimental investigation on the utilization of human hair fibers as a reinforcement in concrete, augmented with nano materials. Human hair, readily available as a waste product, possesses unique mechanical properties that make it a promising candidate for improving concrete performance. The research focuses on comprehensively evaluating the mechanical properties, including compressive strength, flexural strength, and durability aspects, of concrete specimens incorporating varying proportions of human hair fibers. |
8 |
FAKE PRODUCT IDENTIFICATION USING BLOCKCHAIN |
Blockchain innovations have acquired interest in the course of the most recentyears. One of the most talked about issues is currency exchange, but its application is not limited only to Digital currency. So it has the potential to influence different business sectors. Blockchain technology has brought greater transparency and ease in large transactions. We can detect counterfeit goods using blockchain technology. The question that arises when buying any item in today’s world is whether it is fakeor not. And the lack of these things has been shown a huge impact on economic progress. Therefore, in order to curb all counterfeit goods, it is important to bring transparency about the goods to the notice of the consumers. The growing presence of counterfeit and unsafe products in the world is a cause for concern and blockchain technology has taken the next step towards its complete annihilation. Not only the use of technology will reduce the production of counterfeit goods, but everyone needs to be aware of this. By producing and packaging the right items each of those items needs to be given a digital code with its own identity. The software implementation process in which the product code is scanned using this applicationand then verify if the given product is counterfeit or not. |
9 |
VIBRATION ANALYSIS AND DYNAMIC BALANCING OF RECIPROCATING TYPE AIR COMPRESSED MACHINE |
The environmental pollution in the metropolitan cities is increasing rapidly mostly because of the increased number of fossil fuel powered vehicles. Many alternative options are now being studied throughout the world. One of the alternative solutions can be a compressed air powered vehicle. Main advantage of this engine is that no hydrocarbon fuel is required which means no combustion process is taking place. In this project, an SI engine is converted into a compressed air engine. A four-stroke single cylinder SI engine is converted to two stroke engine which operates using compressed air because of its design simplicity. As we converted the already existing conventional engine into an air powered one, this new technology is easy to adapt. Another benefit is that it uses air as fuel which is available abundantly in atmosphere. All automobile engines consume the petroleum fuel.Considering the demand of fuel and cost of fuel, other resources of energy is required to operate the vehicle. So that we are go for other type of energy like electric power, solar power etc… It may be noted that the air energy is readily available with free of cost. So we are consider that air engine in our project. All automobile engines consume the petroleum fuel. Considering the demand of fuel and cost of fuel, other resources of energy is required to operate the vehicle. So that we are go for other type of energy like electric power, solar power etc… It may be noted that the air energy is readily available with free of cost. |
10 |
ENHANCINGMECHANICALPROPERTIESOFPOLYLACTICACID (PLA) COMPOSITES THROUGH WOOD REINFORCEMENT: A COMPREHENSIVE INVESTIGATION |
Wood fiber reinforced composites have emerged as promising materials due to their sustainable nature and potential to replace traditional non-biodegradable polymers in various applications. Polylactic acid (PLA) is a biodegradable polymer derived from renewable resources like corn starch or sugarcane, making it environmentally friendly. When combined with wood fibers, PLA forms composite materials that exhibit improved mechanical properties and biodegradability. This study focuses on utilizing finite element analysis (FEA) to investigate the mechanical behavior of wood fiber reinforced with PLA composites under different loading conditions. One of the key aspects studied in this research is the influence of different fiber orientations and volume fractions on the mechanical properties of the composite. By varying these parameters in the FEA models, the stress distribution, deformation characteristics, and failure modes of the wood fiber/PLA composite were analyzed. The stress distribution maps generated by the simulations help identify areas of high stress concentration within the composite structure, which is essential for predicting potential failure points. Additionally, the deformation characteristics observed during the simulations provide information about the material’s ability to withstand loads and deformations without catastrophic failure. In conclusion, this study highlights the importance of finite element analysis in evaluating the mechanical performance of wood fiber reinforced with PLA composites. The insights gained from the FEA simulations can guide the design and optimization of these materials for applications ranging from automotive and construction to packaging and consumer goods, contributing to a more sustainable future. |
11 |
Mechanical, Physical, and Microstructural Characterization of Aluminium Hybrid Composites with Agro-Industrial Wastes as Reinforcements |
Progressive research on Aluminum hybrid composites with the effect of agro- industrial wastes as reinforcement is encouraged. This comprehensive investigation examines the effect of both the Agro-waste, Coconut shell ash (CSA) and industrial-waste, Red Mud (RM) at each 1, 2, 3 wt. % concentration on mechanical and corrosion characteristics of the base Aluminum 6061 alloy. Al hybrid composites are developed via the bottom pouring stirring process. Characterization studies on the developed composites are carried out to evaluate their morphology using FESEM, physical characteristics via examining density and porosity and mechanical characteristics using tensile, compression, and micro-hardness tests. The obtained results are congruent which reveals that the reinforcements are properly dispersed in the base Al alloy. The produced Al hybrid composite (AA6061 + 2 wt. %CSA + 2 wt. % RM) exhibits better compression (163.54 Mpa) and tensile (128.21 Mpa) strength, hardness (164.5 HV) and better physical characteristics than the base Al alloy and other produced composite samples. Overall, the newly developed reinforced Al hybrid composites utilizing the bio-mass wastes as reinforcements would potentially be used as a supportive engineering structural composite material for any integrated engineering applications. |
12 |
Experimental Investigation of Bio-Degradable Metal Working Fluid Replacing Mineral Oil-Based Metal Working Fluid |
This experimental investigation aims to assess the feasibility and performance of biodegradable metalworking fluids as replacements for conventional mineral oil-based fluids in machining processes. With growing concerns over environmental sustainability and regulatory pressures, the exploration of eco-friendly alternatives has become imperative in industrial practices. One of the biggest utilization of oils in the world is in the field of Manufacturing industries especially in the machining process as Metal working fluid. Over the past 20 years, bio-based Metal working fluids have been proven to be competent with traditional Mineral oil-based metal working fluids. The need for biodegradable metal working fluid has increased due to the harmful and negative effects caused by using Mineral oil-based metal working fluids on the ecological and environmental aspects. an overview of the charm of biodegradable metal working fluids, including the possible modifications, characterization, applications, and challenges has been highlighted in this article. Various types of chemical modification techniques aimed at enhancing the biodegradable metal working fluid grade for replacing it with mineral oil-based metal working fluids in manufacturing industries and also the protocols for assessing their biodegradability have also been discussed.The need for biodegradable metal working fluid has increased due to the harmful and negative effects caused by using Mineral oil-based metal working fluids on the ecological and environmental aspects. Various parameters such as surface roughness, tool wear, cutting forces, and machining quality will be analyzed to assess the suitability and efficacy of biodegradable fluids across different machining applications and materials. The findings of this research endeavor aim to provide valuable insights for industrial stakeholders, policymakers, and environmental advocates seeking to promote sustainable practices in metalworking operations. Ultimately, this investigation strives to facilitate the transition towards more environmentally responsible manufacturing practices while maintaining operational efficiency and productivity. |
13 |
DEVELOPMENT AND CHARACTERIZATION OF SUSTAINABLE BIO-COMPOSITE USING CHICKEN FEATHER WASTE AND GRAPHITE |
Biopolymers, derived from renewable resources, offer biodegradability and reduced environmental impact, yet they often possess inferior mechanical properties compared to synthetic polymers and can be more expensive to produce. The addition of chicken feather and graphite to PLA improved the mechanical and moisture absorption properties of PLA. In this current study, the PLA reinforced with 5-15% of chicken Feather and graphite to make a hybrid bio composite. The hybrid composite with 15% chicken feather, and 5% graphite shows significant improvements compared to pure PLA. The tensile and flexural strength of the hybrid composite are 48 MPa and 132 MPa which are 152.6 % and 60% higher than neat PLA. Further, the compression and impact strength of 68 MPa and 3.1 kJ/m2 are measured, which is higher by 34% and 121%. Whereas, increasing the graphite content from 5-15% decreased the hardness to 68, 12.8% lower than pure PLA. The study explored the potential current biopolymer composite made from chicken feathers and abundant available graphite as fillers, in various industries. Further, the composite not only reduces reliance on traditional petroleum-based materials but also offers a sustainable solution for waste management. |
14 |
PERFORMANCE EVALUATION OF 3D PRINTED VIRGIN AND RECYCLED POLYPROPYLENE FOR RIGID PACKAGING APPLICATIONS |
The study delves into extrusion-based additive manufacturing, particularly Fused Filament Fabrication (FFF), for repurposing recycled polypropylene from bottles into 3D printing filaments, termed Recycled Polypropylene (R-PP). Mechanical and physical attributes of 3D printed R-PP are compared with Virgin Polypropylene (V-PP) specimens, covering dimensional accuracy, tensile, flexural, and compression strength, D-shore hardness, and surface roughness. Printing orientation significantly affects properties, with the 0° direction offering superior length accuracy and the 90° direction enhancing thickness accuracy. The 0° direction exhibits the highest tensile strengths (R- PP: 30.14 MPa, V-PP: 33.21 MPa), resisting delamination. Conversely, the 90° direction displays the highest compressive strengths (R-PP: 86.59 MPa, V-PP: 90.24 MPa), indicating deformation resistance. Increased Shore D hardness values (R-PP: 69, V-PP: 70) at 90° suggest greater hardness. Moreover, the 90° direction shows higher surface roughness (R-PP: 11.45 μm, V- PP: 13.65 μm) due to layer deposition. These findings contribute to creating functional polypropylene parts for rigid packaging applications. |
15 |
BORROW BAY- THINGS RENTAL APPLICATION |
BORROW BAY is a rental web application that facilitate the seamless rent of all kind of items for a particular period of time. The basic functionality is to borrow items needed for a short period of time instead of buying them. Some of the use case that this app comes into handy, includes DIY project camping gear, party supplies for a special occupation. Simply search for what is needed, request it and enjoy the facility. It’s a cost-effective access of things, makes life easier and efficient. It Harnesses the functionalities of HTML, CSS, Bootstrap, Java and SQL. It consists of interactive interface and proficient data management. Java governs the intricacies of business logic, encompassing user authentication and transactional orchestration. In essence this app provides a sophisticated solution, promising a convivial and secure rental experience. |
16 |
SCRAP SYMPHONY SANCTUARY-Advancing sustainable living through waste transformation and charitable impact |
Scrap Symphony Sanctuary emerges as a pioneering force in waste management and charitable impact, integrating innovative initiatives to foster sustainable living and community engagement. This paper presents an overview of Scrap Symphony Sanctuary, highlighting its core initiatives and their transformative potential. Central to the project is Scrapyard, an avant-garde e-commerce platform redefining societal perceptions of waste and promoting responsible consumption. The Eco-Friendly Donation initiative encourages community participation in charitable causes, fostering a culture of giving and positive impact. Additionally, the Eco Clean Waste Management initiative streamlines waste disposal practices, rewarding eco-conscious efforts and contributing to a cleaner environment. Through a comprehensive examination, this paper elucidates the multifaceted capabilities of Scrap Symphony Sanctuary and its pivotal role in advancing sustainable living practices and environmental stewardship. |
17 |
AUGMENTED REALITY RETAIL: NAVIGATING THE VIRTUAL SUPERMARKET LANDSCAPE |
Augmented Reality (AR) has emerged as a powerful technology, opening up new possibilities in various domains. The proposed work introduces an innovative AR application designed to create a virtual supermarket experience. Users can enter the augmented supermarket, explore virtual aisles, inspect product details including nutrient levels, and seamlessly add items to their virtual shopping cart. The application tream lines the shopping process by automating the addition of selected items to the cart and concludes with an integrated payment system at a virtual bill counter. Through the AR Virtual Supermarket, users enjoy the benefits of traditional grocery shopping without the constraints of time, location, or physical space. The proposed work exemplifies the potential of AR technology to transform the retail industry, offering a glimpse into the future of shopping experiences that are immersive, interactive, and tailored to individual preferences. |
18 |
Experimental and Numerical Investigation on 3D Printed PLA/Ceramic Reinforced PLA Based Functionally Graded Multilayered Materials |
Analyze the mechanical properties (tensile strength, flexural strength, compressive strength) of 3D printed specimens made of PLA, CRPLA, and FGMLM composite structures. Employ Finite Element Analysis (FEA) to simulate the behavior of the materials under different loads until fracture. Conduct microstructural analysis using scanning electron microscopy to understand bonding and fracture morphology. Perform calorimetry analysis (DSC) to determine glass transition temperature (Tg), crystallization temperature (Tc), and melting temperature (Tm) of the materials. Investigate mesh convergence to determine the minimum number of elements required for accurate results. Define failure through a ductile damage model in the simulation process. |