Search or ask a question

What are some specific biotechnological applications that have been developed to address environmental issues related to ecosystem restoration ?

Phytoremediation

Environmental remediation

Best insight from top research papers

Various biotechnological applications have been developed to address environmental issues related to ecosystem restoration. Phytoremediation is one such eco-friendly method that helps in the remediation of polluted ecosystems and revegetation of contaminated sites . Biotechnology also plays a crucial role in developing biosensors for monitoring pollution levels . Additionally, the utilization of renewable resources like lignocellulosic wastes for producing value-added materials contributes to ecosystem restoration . Furthermore, the integration of biotechnological approaches with artificial intelligence and machine learning aids in developing cutting-edge technologies for cleaning up contamination and restoring pollution-free ecosystems . These applications showcase the significant impact of biotechnology in addressing environmental challenges and promoting sustainable development.

Answers from top 5 papers

PDF

Open Access

More filters

Papers (5)	Insight
Book Chapter•DOI Application of Biotechnology for Providing Alternative of Fossil Fuel to Protect Environment Federico Ferretti 01 Jan 2022	Biotechnological applications like bioethanol and biodiesel production from various substrates are developed to address environmental issues and ecosystem restoration by reducing reliance on fossil fuels.
Open access•Journal Article•DOI Phytoremediation Prospects for Restoration of Contamination in the Natural Ecosystems Shaista Khan, T. H. Masoodi, Nazir A. Pala, Shahnaz Murtaza, J. A. Mugloo, Parvez Sofi, Musaib U Zaman, Ashok Kumar - Show less +7 more 11 Apr 2023-Water	Phytoremediation techniques like phytoextraction, rhizoremediation, and phytostabilization are biotechnological applications used for ecosystem restoration by mitigating pollution and revegetating contaminated sites.
Book Chapter•DOI Emerging Technologies in Environmental Biotechnology 01 Jan 2022	Biotechnological applications like bioremediation, biodegradation, biofiltration, and biosensors are developed to address environmental issues for ecosystem restoration, as discussed in the paper.
Open access•Journal Article•DOI Application of Biotechnology to Address Environmental Issues 01 Sep 2022	Not addressed in the paper.
Book Chapter•DOI Policies and Issues in Environmental Biotechnology Research 12 May 2022	Applications such as soil remediation, cleanup of contaminated sites, and biomembrane reactor technology are developed in environmental biotechnology for ecosystem restoration.

My columns

Related Questions

What are some specific examples of biotechnological applications aimed at mitigating the negative impacts of climate change?5 answersBiotechnological applications offer promising solutions to mitigate the negative impacts of climate change. Examples include the use of genetic engineering, gene editing, MAS, and GMOs to develop crop varieties resilient to pests, diseases, droughts, and extreme temperatures. Additionally, environmental biotechnologies leverage microbial communities to produce renewable energy from organic matter in wastewaters and recover critical materials from various industrial processes, supporting sustainability goals. Biomimicry, inspired by nature, coupled with artificial intelligence, aids in managing climate data and developing efficient adaptation strategies. Furthermore, white biotechnology, GM crops, biofertilizers, biofuels, mycobiotechnology, and biochar are green biotechnological tools that can positively impact climate variability and agricultural production. These diverse biotechnological approaches play a crucial role in addressing the challenges posed by climate change.

Importance of restoration ecology ?5 answersRestoration ecology is important for renewing degraded, damaged, or destroyed ecosystems through human intervention. It aims to reverse environmental degradation, slow biodiversity loss, and improve human livelihoods and relationships with nature. Restoration involves the rejuvenation, revegetation, and revamping of damaged ecosystems, including soil, forest, land, and water. It requires planning, execution, and surveillance to achieve long-term and large-scale restoration. Advanced techniques should be adopted for the sustainability of biodiversity and human well-being. Restoration ecology can improve air quality, reverse forest clearance and desertification, and enhance urban environments. It also recognizes the importance of soil microbes in maintaining soil quality, nutrient cycling, and soil reclamation. The principles of restoration ecology, such as passive restoration and biodiversity enhancement, can be applied to gut medicine, including the treatment of inflammatory bowel disease. Overall, restoration ecology is essential for maintaining a stable climate, producing enough food, and keeping the world livable.

What are some of the challenges and opportunities for using nature-based solutions for ecological reclamation?5 answersNature-based solutions (NBS) offer opportunities for ecological reclamation by providing multiple benefits to ecosystems and society. However, there are several challenges that need to be addressed. One challenge is the lack of knowledge on how to manage and restore ponds to maximize their role in increasing resilience to climate change. Another challenge is the degradation of ecosystems due to urban expansion and agriculture intensification, which increases human vulnerability to climate change-related events. Additionally, there is a need for site-specific technical design criteria, governance strategies, and effectiveness assessment evaluation for the implementation of NBS in urban areas. Furthermore, the implementation of NBS faces barriers such as limited awareness, tradeoffs associated with their application, and the need for strategic planning and capacity building. Despite these challenges, NBS offer a valuable method of urban climate adaptation and can contribute to managing disaster risk.

What are the different applications of biotechnology?3 answersBiotechnology has a wide range of applications in various fields. It is used in the development of drugs and therapeutics, industrial processes, biofuels, and information technology. In agriculture, biotechnology is used for crop improvement through selective breeding and genetic modification. It has also been applied in the production of antibiotics and the development of enhanced food and nutrition security. Biotechnology plays a role in environmental research, manufacturing, and medical science. The field of biotechnology has expanded and advanced in recent years, offering employment opportunities and benefiting society in areas such as medicine, industry, agriculture, and environmental research. The different branches of biotechnology, such as bioinformatics, biopharma, and others, contribute to its diverse applications. Overall, biotechnology has the potential to solve major problems and improve standards of living in various sectors.

What are the main applications of biochemical engineering?3 answersBiochemical engineering has various applications in different fields. It plays a vital role in developing novel clinical diagnostics, therapeutics, biosensing, bioimaging, biomaterials, and bioanalysis. In the context of sustainability goals, biochemical engineering can contribute to achieving the UN goal of "Zero Hunger" by exploring alternative protein sources such as recombinant heme and insect farming. It also has a crucial role in transforming laboratory discoveries in biotechnology into large-scale manufacturing, enabling the commercialization of biotechnology-based processes for the improvement of human life. Additionally, biochemical engineering is involved in the processing of biological or chemical materials using enzymes or living cells as biological catalysts. Enzyme engineering, a subset of biochemical engineering, focuses on modifying enzyme structures and catalytic activities to produce new metabolites for various applications in chemicals, pharmaceuticals, fuel, food, and agriculture.

What are some examples of the application of biotechnology to environmental issues?5 answersBiotechnology has various applications in addressing environmental issues. One example is the use of genetically modified bacteria for bioremediation processes, which helps in the removal and treatment of noxious wastes. Another application is the production of biofuels, which provides improved energy sources and contributes to environmental sustainability. Biotechnology also plays a role in identifying and detecting pollutants through the use of biosensors and biomarkers. Additionally, molecular techniques have advanced the field of bioremediation by allowing scientists to better understand and control the environment, leading to more effective cleanup processes ^[Glowczewski]. Furthermore, environmental biotechnology focuses on the efficient use of the natural environment to produce renewable energy, nutrients, and food, as well as green and clean manufacturing technologies. Overall, biotechnology offers solutions for environmental challenges such as waste management, pollution control, and sustainable development.

See what other people are reading

Palm oil or corn oil had higher acid value?

Palm oil generally has a lower acid value compared to corn oil. Research indicates that palm oil can be used to prepare biologic diesel oil with a high acid value, which can be effectively lowered to meet standards using specific catalysts and alcohol as an esterifying agent. In contrast, high temperatures can significantly increase the acid value of oils like corn oil due to the breakdown of unsaturated fatty acids, leading to a decrease in quality. Additionally, the physico-chemical properties of corn oil show a higher content of highly unsaturated fatty acids, which can contribute to a higher acid value compared to palm oil. Therefore, based on the provided data, corn oil is likely to have a higher acid value than palm oil.How does the combustion of different percentage of ethanol gasoline blends affect fuel efficiency?

The combustion of different percentages of ethanol-gasoline blends significantly impacts fuel efficiency. Research on ethanol-diesel blends showed that increasing ethanol content led to decreased thermal efficiency, increased fuel consumption, ignition delay, and combustion duration, along with reduced in-cylinder pressure and heat release rate. Conversely, blending unleaded fuel with ethanol improved engine efficiency, enhancing brake power, torque, thermal efficiencies, and reducing brake specific fuel consumption. Among various proportions tested, the E20 blend demonstrated the best performance in terms of brake power. Additionally, ethanol-diesel blends altered combustion and emission characteristics, with increased cylinder pressure and temperature, improved thermal efficiency, reduced CO and soot emissions, but decreased power and increased fuel consumption.What is pure diesel?

Pure diesel refers to diesel fuel that has undergone specific processes or is made from particular raw materials to enhance its quality or properties. This can include the use of pure oxygen in diesel engines to improve combustion efficiency and reduce emissions, the production of ultra-pure diesel fuels with improved stability and reduced corrosiveness through the addition of special substances, and the creation of pure biodiesel from raw materials like Hodgsonia macrocarpa oil, which meets national standards for technical performance and environmental friendliness. Additionally, the invention of a pure alcohol-based diesel oil additive allows for the efficient and clean production of alcohol-based diesel oil with enhanced combustion, cleanliness, and safety features.How does the proposed rating system compare to existing sustainability standards for buildings in Oman?

The proposed rating system for existing buildings in Oman, as outlined in Context_4, introduces a novel approach by incorporating a structured checklist with seven main categories and subcategories weighted based on importance. This system was compared to existing sustainability standards like LEED, PRS, and BREEAM. The analysis in Context_2 highlights that the Pearl Rating System (PRS) in Abu Dhabi, while considering cultural aspects, lacks depth in life cycle assessment (LCA). Additionally, the study in Context_1 emphasizes the significance of green building practices in Oman, focusing on energy and resource savings. Furthermore, Context_5 stresses the importance of transitioning to Zero Energy Buildings (ZEBs) and Near Zero Energy Buildings (NZEBs) in Oman to reduce reliance on fossil fuels. Overall, the proposed rating system offers a comprehensive approach tailored to the local context, addressing sustainability factors specific to Oman's construction industry.What are the potential benefits and challenges of implementing biofactories in the coffee industry?

Implementing biofactories in the coffee industry presents significant benefits and challenges. By utilizing coffee by-products, biofactories can extract bioactive compounds for functional food ingredients and nutraceuticals, contributing to waste reduction and sustainability in the industry. However, challenges include the need for comprehensive biorefinery strategies to extract and utilize these compounds effectively, addressing issues such as waste management, regulatory compliance, and technological innovation for commercialization. Additionally, the economic and environmental performance of biofactories processing spent coffee grounds (SCG) varies based on factors like biorefinery size, location, and product focus, with potential negative impacts on greenhouse gas emissions if not managed efficiently. Overall, while biofactories offer promising avenues for value creation and sustainability in the coffee industry, careful planning and optimization are essential to maximize benefits and mitigate challenges.Are carbon emissions associated with stock returns?

Carbon emissions are indeed associated with stock returns, as evidenced by various studies. While some literature initially suggested a strong correlation between unscaled emissions and stock returns, further analysis revealed that these associations disappear when considering factors like firm size, industry clustering of standard errors, and vendor-estimated versus firm-disclosed emissions. Additionally, the impact of carbon emissions on stock prices, returns, and market value has been studied in the context of Iranian automobile companies, showing a negative effect of CO2 emissions on stock returns. Furthermore, research on European listed firms indicates that firms with higher expected future emissions tend to deliver lower contemporary returns, especially post the Paris Agreement, suggesting that more environmentally conscious investors expect lower returns from polluting firms.What's the types of biodegradation of plastic?

The biodegradation of plastic can be categorized into two main types based on the chemical classification of plastic types: C-C (non-hydrolyzable) and C-X (hydrolyzable). Microorganisms, including environmental microbes and gut microbes of insects, play a crucial role in the biodegradation process. Various bacterial enzymes, such as PET hydrolase and PCL-cutinase, have been identified for degrading different polymers like PET and PCL, respectively. Studies have shown that certain bacteria like Bacillus subtilis, Staphylococcus lentus, Aeromonas hydrophila, Sphingomonas paucimobilis, and Kocuria paedia have the ability to degrade oil-based plastics like LDPE, PS, and PVC. Overall, microbial degradation of plastic waste presents a promising solution for addressing the environmental challenges posed by plastic pollution.What are the long-term effects of pharmaceutical pollution on freshwater ecosystems and human health?

Pharmaceutical pollution poses significant long-term effects on freshwater ecosystems and human health. It leads to antibiotic resistance, disrupts aquatic organisms' behavior and reproductive systems, and contaminates drinking water sources, impacting both ecosystems and human health. Chronic exposure to pharmaceuticals alters enzyme activities and metabolic pathways in aquatic organisms, affecting their physiology. The contamination of rivers globally by pharmaceuticals, especially in low- to middle-income countries with poor waste management infrastructure, highlights the widespread nature of this issue. To mitigate these effects, prevention measures like improving pharmaceutical production, sales, and waste handling, as well as implementing advanced technologies for pollution control, are crucial. Efforts to reduce the cost of pharmaceutical waste removal processes are essential for ensuring environmental and human health sustainability.What pollutants are used in 3D printer filaments?

Various pollutants are present in 3D printer filaments, including volatile organic compounds (VOCs) and particulate matter. Studies have highlighted the emission of VOCs like lactide, acetone, and formaldehyde during filament extrusion and 3D printing processes. Additionally, particulate emissions, especially nanoparticles below 50 nm in diameter, are released during printing, with higher concentrations observed at temperatures above 200°C. These emissions pose health risks, as exposure to nanoparticles through inhalation has been linked to adverse health outcomes. Furthermore, the emission of solid particles, particularly during printing, can lead to throat irritation, cardiovascular issues, and stroke, emphasizing the importance of proper ventilation and air purification in spaces with multiple printers.What are the current advancements in photocatalytic CO2 reduction reactions?

Recent advancements in photocatalytic CO2 reduction reactions involve the utilization of various nanomaterials such as quantum dots, metal oxides, g-C3N4, and semiconductors to enhance efficiency. Strategies like surface engineering, co-catalyst loading, and morphology control have been crucial in improving photocatalytic performance. Additionally, the emergence of photothermal catalysis, combining advantages of photocatalysis and thermal catalysis, presents a promising approach for CO2 conversion. Single-atom catalysts, particularly with TiO2, g-C3N4, and MOFs as carriers, have shown significant benefits in CO2 reduction processes. Furthermore, there is a focus on converting CO2 into high-value carbon-containing compounds, especially C2+ products, to address environmental concerns and energy shortages. These advancements collectively aim to enhance energy conversion efficiency, product selectivity, and overall sustainability in photocatalytic CO2 reduction reactions.Why exopolysaccharide precipitate settle down at bottom when trichloroacetic acid tretment followed by ethanol precipitation?

Exopolysaccharide (EPS) precipitates settle down at the bottom during trichloroacetic acid (TCA) treatment followed by ethanol precipitation due to the denaturation of proteins and subsequent removal. This process involves extracting cell-free supernatant from lactic acid bacteria, denaturing proteins using TCA, and then precipitating the EPS with ethanol. Similarly, in another study, EPS was isolated from a bacterial strain using ethanol precipitation after cultivation, and the purified EPS was characterized for its properties. The EPS produced from different substrates displayed high thermal stability, water retention capacity, and gel-forming ability, which contribute to its settling at the bottom during precipitation processes. This settling phenomenon is crucial for the purification and isolation of EPS for various applications in industries like food and pharmaceuticals.