Revolutionizing Plastic Waste Management: Fuel Production from Discarded Plastics

Mohankumar A,; Gowtham R,; Suresh Kumar K,

doi:10.46759/iijsr.2023.7308

Cited by 2 publications

(3 citation statements)

References 15 publications

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“…The Smart Agriculture System's response is visible and understandable thanks to the thoughtful placement of the LED components. A 5V supply from the Arduino powers the parts, while separate ground connections provide a ISSN: 2582-3981 [16] shared reference point for the circuit. The connectivity of components is organized to form a cohesive system where each part plays a different role in delivering useful insights into the agricultural environment.…”

Section: Circuit Operationmentioning

confidence: 99%

“…The system's integration of temperature sensors contributes to climate resilience by enabling informed decision-making in response to evolving climate patterns [14], providing farmers with useful information, improving precision agriculture for increased yields, and capitalizing on technological innovations underscore the system's motivation. [16]. High Labor Requirement: This approach requires a lot of time and effort from farm staff and is labor-intensive owing to its manual nature, especially in big agricultural areas.…”

Section: ░ 1 Introductionmentioning

confidence: 99%

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Revolutionizing Automated Agriculture: A Brief Overview of an Advanced Smart Agriculture System Using Arduino UNO

Mohankumar A.,

Gowtham R.

2024

IIJSR

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This project presents a Smart Agriculture System that uses sensor technologies to improve crop monitoring and automate irrigation procedures. A variety of sensors are integrated into the system, such as a temperature sensor, a gas sensor, a photodiode for ambient light sensing, and a soil moisture sensor. When taken as a whole, these sensors offer real-time information on the concentrations of gases, ambient light levels, temperature fluctuations, and soil conditions in agricultural environments. The system’s primary function is to continuously monitor soil moisture levels in order to determine when irrigation is necessary. A water pump is activated when a predetermined moisture threshold is reached, guaranteeing timely and precise irrigation for the best possible crop growth. By monitoring the climate, the temperature sensor helps determine the environmental factors that affect crop health. Farmers can monitor important parameters with ease thanks to the convenient and user-friendly interface that the real-time display of sensor data on an LCD screen provides. Furthermore, by measuring the amount of natural light present, the ambient light sensor helps the system to optimize planting schedules and comprehend the impact of sunlight on crop development. The addition of a gas sensor expands the capabilities of the system by identifying possible environmental risks or variations in gas concentrations that could have an impact on crop quality. In addition to providing farmers with useful information about the health of their crops, this integrated smart agriculture system makes irrigation automation easier, saving water and increasing overall agricultural productivity. Due to its flexibility and scalability, the system is an invaluable resource for contemporary precision agriculture, contributing to sustainable farming practices and increased crop yields.

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Section: Circuit Operationmentioning

confidence: 99%

Section: ░ 1 Introductionmentioning

confidence: 99%

Revolutionizing Automated Agriculture: A Brief Overview of an Advanced Smart Agriculture System Using Arduino UNO

Mohankumar A.,

Gowtham R.

2024

IIJSR

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“…В настоящее время сырьем для пластмасс являются нефтепродукты [36]. Примерно 8 % добытой нефти приходится на производство пластмасс [37].…”

Section: Nzvn124unclassified

Review of bioplastic production strategies as the most environmentally sustainable alternative to traditional plastics

Sergeev,

Velmozhina,

Politaeva

2024

The Eurasian Scientific Journal

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This scientific article provides an overview of contemporary strategies for bioplastic production, considering them as the most environmentally sustainable alternative to traditional plastics. The article analyzes the current state of the technical cycle of plastic use and its impact on the environment, as well as assesses potential effects on human health. Special attention is devoted to the investigation of bioplastics, highlighting their advantages compared to traditional polymers. Particular emphasis is placed on bioplastic film with added chitosan, regarded as an effective component for enhancing the ecological and functional characteristics of the material. The authors present an extensive review of global scientific literature and patents, demonstrating the current level of research in this field. Based on the analysis of proposed strategies for producing chitosan-containing bioplastics, the conclusion is drawn regarding the viability of this direction in creating environmentally sustainable materials, considering the requirements for natural resource conservation and reducing environmental impact. In addition to analyzing the technical cycle of plastic use and its environmental impact, the article also examines contemporary methods and technologies for bioplastic production. Significant attention is given to the investigation of raw materials necessary for bioplastic production and their potential for reducing dependence on petroleum-based products. Furthermore, the article provides an overview of recent studies dedicated to the integration of chitosan-containing bioplastics into various industrial sectors, such as the packaging industry, agriculture, and the medical field. Practical examples of using such materials and their effectiveness compared to traditional plastics are analyzed. In conclusion, the article emphasizes the need for further research in developing new methods for bioplastic production using chitosan and other biodegradable components. Potential obstacles and challenges facing the widespread adoption of bioplastics in industry are discussed, and possible ways to overcome them are proposed with the aim of creating a more sustainable model of consumption and production. Further research in this area could contribute to the development of new bioplastic production technologies and their widespread adoption in industry to reduce negative environmental impact and create a more sustainable consumption model.

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Revolutionizing Plastic Waste Management: Fuel Production from Discarded Plastics

Cited by 2 publications

References 15 publications

Revolutionizing Automated Agriculture: A Brief Overview of an Advanced Smart Agriculture System Using Arduino UNO

Revolutionizing Automated Agriculture: A Brief Overview of an Advanced Smart Agriculture System Using Arduino UNO

Review of bioplastic production strategies as the most environmentally sustainable alternative to traditional plastics

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