Science topic

Recycling - Science topic

The extraction and recovery of usable or valuable material from scrap or other discarded materials. (from McGraw-Hill Dictionary of Scientific and Technical Terms, 6th ed.)
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Which mixing approach is the best for producing recycled concrete ? in term of performance, cost and time ?
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The key advantages of using different mixing approaches for producing recycled concrete:
NMA (No Mixing Approach)
- Very simple process, no special equipment needed
- Lower energy and resource use compared to other approaches
TSMA (Two-Stage Mixing Approach)
- Allows more controlled blending of new and recycled materials
- Can optimize fresh and hardened concrete properties better than NMA
MMA (Multiple Mixing Approach)
- Achieves more uniform blending and dispersion of materials
- Allows higher replacement rates of recycled concrete aggregate
- Gives better control over concrete workability and strength
SEMA (Selective Mixing Approach)
- Can customize mixing for specific performance targets
- Allows higher total replacement with more variability in aggregate
- Useful when recycled aggregate has higher variability
In summary, NMA is the simplest, MMA provides the best uniformity and control, TSMA offers a compromise approach, and SEMA supports highly customized concrete production. The choice depends on the application, performance needs, and variability in the recycled concrete aggregate supply. Using different approaches provides more flexibility for increased sustainability.
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Are there technologies available to produce biofuels based on organic compost, from organic crop waste, that could serve as engine fuel to power tractors and other agricultural machinery in sustainable, organic, pro-environmental, pro-climate farming?
In recent years, in connection with the inclusion of the agricultural sector in the process of green transformation of the economy as well, new solutions are being sought, created and implemented to enable the transformation of productive farms into sustainable, pro-environmental, pro-climate, organic farms growing crops and other aspects of agricultural activity in accordance with the principles of organic farming and with the simultaneous implementation of sustainable development goals. Accordingly, on a farm operated in accordance with the formula of sustainable organic agriculture, pesticides and other chemical pesticides and chemically produced fertilizers are not used in agricultural crops, energy is obtained from renewable and emission-free energy sources, water is obtained mainly from rainwater catchment facilities, organic manure and processed organic waste from composters are used to fertilize farm fields, crop rotations are used within the framework of multi-year cycles to restore high soil quality and prevent soil aridity, individual farm fields are separated by green belts and flower meadows to provide foraging areas for pollinating insects, on-farm mini-treatment plants are built to treat wastewater generated on the farm and not used in a specific way for farm purposes, etc. Besides, on a farm run according to the formula of sustainable organic farming, available technologies for the production of biofuels based on organic compost, from organic waste from agricultural crops, through which motor fuel is produced to power tractors and other agricultural machinery, should be used. These may include the construction of biogas plants, where biogas can be produced, which can then be used to power agricultural machinery. Besides, in a sustainable, ecological, pro-environmental, pro-climate farm, agro-tourism activities may also be developed, and certain preserves, food products, such as jams, juices, cheeses, etc., may be produced within the framework of a micro-production activity or manufactory, within the framework of local brands on the basis of organically produced, cultivated crops. In addition, such sustainable, organic agritourism farms may be associated within a local producers' cooperative with silos, warehouses, etc. in which crops from the cultivation of several or more locally operating farms and/or agritourism farms are stored, including or mainly, only those operating under the formula of sustainable organic farming.
In view of the above, I address the following question to the esteemed community of scientists and researchers:
Are there technologies available for the production of biofuels based on organic compost, from organic crop waste, which could be used as motor fuel to power tractors and other agricultural machinery in a sustainable, organic, pro-environmental, pro-climate farm?
Could biofuels from agricultural waste be used as engine fuel to power tractors in sustainable organic farming?
And what is your opinion on this topic?
What is your opinion on this issue?
Please answer,
I invite everyone to join the discussion,
Thank you very much,
Warm regards,
Dariusz Prokopowicz
The above text is entirely my own work written by me on the basis of my research.
In writing this text I did not use other sources or automatic text generation systems.
Copyright by Dariusz Prokopowicz
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Dariusz Prokopowicz The question has principally been ansered on the image that you attached. :)
You do not need composting agricultural wastes to produce tractor biofuels, such as bioethanol or pyrolysis gas. But if you wish to use biogas, some raw materials need pre-treatment before digestion. Such pre-treatment may consist of a partial composting.
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Hello, This is Romesha & I am working on a research project based on Reduce, Recycle & Reuse Wastes in Hospitals. So should i add the AI factor to improve the system more effectively or leave it for the way ahead?
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Dear Romesha,
You already received quite some suggestions on what exactly you could do with AI. I'd still recommend to take one step back first, for the following considerations:
AI should be considered a tool - one out of many that we have available as engineers. So the question in my opinion on such a holistic zoom level in my opinion is not about whether you should use AI or not. Questions are: what is the state of the art? Are there low hanging fruits of easy potentials for improvements? Are there not so easy but promising (in terms of implementation success and/or high impact) potential improvements? And if you start to tackle these: what are the best tools for that? Where might AI be better/cheaper/more helpful than other things. There you should apply AI.
Then there is still also the other way around: I don't know about your experiences with AI: get a good understanding about what AI can do (and also about what it can't so far). And ask: what could AI do, that would not be possible at all without it: that is the search for disruptive potentials of the new technologies - where they reshape processes rather than just improving them.
Again: consider them in comparison with low hanging fruits ect. At the end of the day we want to get the most benefit out of the ressources available to us - although looking at disruptive potentials we are allowed to take a longer-term view in research.
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Can recycling materials lead to environmental sustainability and recycling process of waste have any impact on the environment?
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Dr Bruno Peeters thank you for your contribution to the discussion
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I want to apply green supply chain process to reduce, reuse & recycle wastes which I think is a very critical case for hospitals.
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According to wastecare.com, recycle.com, recycle.com, mcfenvironmental.com, and buildingbetterhealthcare.com, here are some ways hospitals can reduce, reuse, and recycle waste:
Reduce:
  1. Evaluate and improve ordering practices to eliminate outdating and waste of perishable products.
  2. Buy cleaning substances in 55-gallon refillable drums and use concentrated cleaning solutions that staff mixes as needed.
  3. Share magazines and journals between departments to reduce multiple subscriptions.
Reuse:
  1. Switch to reusable medical instruments instead of disposable ones.
  2. Use washable surgical and nursing gowns and sterilization trays.
  3. Use washable plates, utensils, and cups in the cafeteria.
  4. Use reusable items versus disposables (bedpans, water pitchers, etc.) in patient rooms.
Recycle:
  1. Compost kitchen and food waste.
  2. Set up an area for employees to share gently used items such as binders, folders, containers, etc.
  3. Recycle non-traditional waste streams.
As for the costs, one estimate suggests that the nearly 5,000 hospitals in the U.S. produce more than 7,000 tons per day and spend $10 billion annually in disposal costs. People typically pay $200 to $400 monthly for medical waste pickup. The NHS spends more than £700m each year on waste disposal. However, by implementing more efficient waste management practices, hospitals can potentially save millions.
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Hi All
How is chemical recycling of composite materials done in Simapro?
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Full recycling of the composite materials requires reclaiming fibers and matrices which are suitable for remanufacturing in new composites. There are several methods for recycling CFRP and the processes can be classified, depending on the main method used to break down the waste, as: mechanical process, pyrolysis, fluidized bed process and chemical process
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How does the uniqueness of each sperm relate to the probability reincarnation? The fact that each sperm fertilizing the egg results in a different individual being conceived, and then maybe born, causes reincarnation to fall in probability. The recycling of consciousness(the theme of reincarnation) is further lowered in probability by the uniqueness of each sperm. Also each sperm, forming a completely different individual than another sperm, creates a completely different consciousness than another sperm would have. How could someone who had died have their consciousness recycled through the genitals of others? Thus, the uniqueness of each sperm( and the randomness of which sperm fertilizes which egg) causes reincarnation to be a less parsimonious explanation of the afterlife than heaven without reincarnation is.
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The discussion reminds me of something I've read in, AFAIR, Gödel Escher Bach. It was said that primitive worms have neurons whose wiring structure is entirely encoded in the genes. According to the text, these worms have isomophic brains - there exists only one worm.
Regards,
Joachim
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How can we maintain environmental sustainability and what are the effects of recycling and reuse for environmental sustainability?
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Without the proper reverence for the Earth, we may run out of necessary natural sources that afford us the comforts of life to which we've become accustomed. Additionally, environmental protections save lives by reducing world hunger, global warming, natural disasters, polluted water and soil, and pesticides. This not only ensures the survival of countless species but also bolsters the resilience of natural environments against the impacts of climate change. Environmental sustainability is the ability to maintain an ecological balance in our planet's natural environment and conserve natural resources to support the wellbeing of current and future generations. Recycling reduces the need to grow, harvest or extract new raw materials from the Earth. That in turn lessens the harmful disruption and damage being done to the natural world: fewer forests cut down, rivers diverted, wild animals harmed or displaced, and less pollution of water, soil and air. Reduces greenhouse gas emissions that contribute to climate change and prevents pollution caused by reducing the need to harvest new raw materials. Saves energy and reduces greenhouse gas emissions that contribute to global climate change. One ton of recycled plastic saves 16.3 barrels of oil. Recycling Metals means producing less need for risky, expensive, and damaging mining and extraction of new metal ores. Recycling Glass reduces the need to use new raw materials like sand to make glass. Recycling reduces the need to grow, harvest or extract new raw materials from the Earth. That in turn lessens the harmful disruption and damage being done to the natural world: fewer forests cut down, rivers diverted, wild animals harmed or displaced, and less pollution of water, soil and air. Recycling also saves other forms of energy that may have been used to mine or collect raw materials that can otherwise be found in recycled waste such as aluminum and paper. Which in turn prevents pollution that is often a result of acquiring raw materials, and incinerating excess waste that ends up in landfills.
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Currently, I am studying related to integrated assessment model for modelling of plastic waste recycling using system dynamics approach. The factors will be considered in model framework are environmental, economic and material performance (mechanical properties). I am still confused, how to evolve the last factor (mechanical properties) in System dynamics. Anybody has the experience related to the similar case?
Thank you in advance.
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Integrating mechanical properties, such as those related to the material performance of recycled plastic, into a system dynamics model is indeed a challenging but feasible task. System dynamics models typically focus on representing the feedback loops and dynamic relationships among various factors within a system. Here are some steps and considerations for evolving material properties, specifically mechanical properties, in a system dynamics model:
  1. Define Variables:Identify the key mechanical properties that are relevant to your study. This could include tensile strength, elasticity, hardness, etc.
  2. Feedback Loops:Explore the feedback loops associated with material properties. For example, changes in recycling technologies or processes might influence the quality of recycled plastic, which, in turn, affects its mechanical properties.
  3. Stocks and Flows:Represent the accumulation of recycled plastic stocks and flows between different stages of the recycling process. Mechanical properties can evolve over time as plastic goes through various stages (collection, processing, remanufacturing).
  4. Delays:Consider incorporating delays in the model to account for the time it takes for changes in recycling processes to impact the mechanical properties of recycled plastic.
  5. Influencing Factors:Identify factors that influence mechanical properties. These could include the type of recycling technology used, the quality of collected plastic, and any external factors affecting the recycling industry.
  6. Data and Calibration:Gather data on the relationships between recycling processes, material properties, and other relevant factors. Calibrate your model based on available data to ensure it accurately represents the real-world dynamics.
  7. Sensitivity Analysis:Conduct sensitivity analyses to understand how changes in different parameters and relationships impact the evolution of mechanical properties in the model.
  8. Documentation:Clearly document the assumptions, data sources, and relationships incorporated into the model. This is crucial for transparency and reproducibility.
  9. Collaboration:Collaborate with experts in material science and recycling to ensure that the representation of mechanical properties in your model aligns with scientific understanding.
  10. Validation:Validate your model against historical data or expert opinions to ensure that it reasonably captures the behavior of the system.
Remember that system dynamics models are simplifications of real-world systems, and their effectiveness lies in capturing essential feedback mechanisms and relationships. Consulting literature on system dynamics and collaborating with experts in material science and recycling can provide valuable insights and guidance for your specific case.
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A lot seems to be coming out in publications about the circular economy or sustainable development and the circular economy or circular economy and sustainability or circular economy, sustainable development and global warming...and so on.
All researchers and publications seems to have the same theme of directly or indirectly indicating that the broken circularity traditional market economy can be made circular by non-green market means; and hence, they advocate circularity without indicating where the circularity problem came from or comes from; hence, without indicating whether they are fixing a broken circularity problem or patching that broken circularity problem plus their circularity thoughts seem to be disconnected from the need to one day transition away from the pollution production based economies to the pollution free economies....
They seem to start with addressing the consequences of the broken circularity problem without any regards with respect to fixing the root cause of the broken circularity problem.
And this raises the question, Can you have a circular green economy without green markets? If No, why No? If Yes, why yes?
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They are interdependent
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What are the 5 R's of waste reduction and what are the habits we can adopt to reduce waste and promote recycling?
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According to roadrunnerwm.com and brainly.in, the 5 R’s of waste reduction are:
  1. Refuse: This involves refusing to buy wasteful or non-recyclable products. For example, when working with vendors, refuse unnecessary product packaging and request reusable or returnable containers.
  2. Reduce: This means reducing harmful, wasteful, and non-recyclable products. For instance, always use the minimum amount required to avoid unnecessary waste.
  3. Reuse: This involves reusing items throughout the workplace instead of buying new ones. For example, replace all single-use eating utensils, Styrofoam cups, water bottles, and paper plates with compostable or reusable alternatives.
  4. Repurpose: This involves finding new uses for items that would otherwise be thrown away.
  5. Recycle: This is the last resort after attempting to refuse, reduce, reuse, or repurpose. It involves breaking down waste into its constituent materials to manufacture new products from them.
As for habits to reduce waste and promote recycling, here are some suggestions:
  • Use a reusable bottle/cup for beverages on the go.
  • Use reusable grocery bags, not just for groceries.
  • Purchase wisely and recycle.
  • Compost organic waste.
  • Avoid single-use food and drink containers and utensils.
  • Buy secondhand items and donate used goods.
By adopting these habits, we can significantly reduce waste and promote recycling in our daily lives.
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Is recycling green marketing and how does green marketing affect consumers andchallenges of green marketing?
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green marketing can be a powerful tool for promoting sustainability and influencing consumer behavior. However, it comes with challenges, including credibility concerns, regulatory compliance, and the need to adapt to changing consumer attitudes and preferences. To be effective, green marketing should be genuine, transparent, and aligned with real environmental efforts.
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Hello everyone
Why the aim of the agglomeration is to increase the bulk density of the waste?
Thanks in advance
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Thank you Gaurav H Tandon
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Hello all dear
The shear mechanism is mentioned on this site, can anyone explain more?
Thanks in advance
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You are welcome.
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How matter is recycled used over and over again in an ecosystem and why does energy flow but matter is recycled?
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Dr Renato Conti thank you for your contribution to the discussion
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Thanks in advance
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Dear Aynaz Biuky please,
In the context of plastic recycling, the terms "bare" and "bare greetings" do not have recognized or established meanings. It's possible that these terms are specific to a particular organization, region, or industry, but they do not appear to be standard terminology in the broader field of plastic recycling.
Plastic recycling typically involves terms and concepts related to the collection, sorting, processing, and reuse of plastic materials. Common terms in plastic recycling include "plastic resin," "post-consumer waste," "recyclable plastics," "recycling rates," and "recycled content," among others.
If you have encountered the terms "bare" or "bare greetings" in a specific context related to plastic recycling, it may be helpful to provide additional context or information so that I can offer a more accurate explanation or address any specific questions you have regarding those terms.
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Remark_1: science is not only about publishing papers dealing with problems that are acceptable (well seeing) by the "normal" academic canon or, on the other hand, with problems that are, relatively speaking, much easier to solve or, at least, it is not highly complicated to try to "solve".
Remark_2: scientists from the developing world, regardless the discipline, might start thinking farther on what does the "hard" Sustainable Development (SD) version mean for their countries, and how bad is to replicate (to support) discourses that comes from communities (whether interested stakeholders, nations, international organizations, think-tanks...) that want to keep the high rates of economic growth regardless any physical, ecological, and climate-based constraints. Much to my regret, there is a concerning amount of advocates to such an approach (outer-space mining) in Latin America as a whole... We need to rethink what development is all about and what will be the fate of the Latin American nations under such sustained trend of a lack of governance of the outer space domain.
- Is it really necessary to go far beyond Earth atmosphere to carry out very risky outer-space mining activities...?
- Why specific sectors are pushing for investing in the outer space mining when it is highly visible and measurable (at naked eye) the amount of thrash that it is piling up and surrounding all cities in the world...?
- What about the amount of metal, plastic and other "strategic" material (including wood/timber) that should be recycled at great scale in all continents and regions in the planet...?
- What education policies should transfer the current effort aimed at funding already useless careers and titles to empower the next generation of skilled workers, technicians, and experts in recycling al at levels of the society....? What impede that transformations in the labor force worldwide...?
- To the fans and advocates of the circular economy scheme: (1) have you already thought about the huge amount of energy that would be required for such a large-scale recycling (The thermodynamics laws always will matter despite economics could claim)...? (2) Shouldn't be a maximum number of human population that make circular economy feasible...? (Human population trends) are not in the equations of the hard SD version). (3) Do we (humans) have time for a step-by-step circular economy development (more action and less "floppy" business papers)...?
As I have pointed out in all my questions, the 2030 SDGs agenda is already compromised and no major advancement is being achieved regarding the speeding up overlapping and non-linear climate and Earth's ecology breakdowns, therefore, why humanity should embark in another wishful-thinking reckless economic push within the "New Space Economy"...?
As we keep trying to keep humans outside the equations..., all what be published regarding sustainability (science), governance, and the so-called cutting-edge research on Climate Policies and Action will be just a futile act of absolute incompleteness and despair.
Thus, I call scholars from all the disciplines to carry out their major effort in adding the humans into their equations (schemes, models) and start writing as we are the root of the current problems , but also the solutions to those human-sparked messes... A major shift must be empowered in the way science is made... Science has being under crisis for twenty years or so... We all know by 2000 the problem will be greater and will advance faster than our potential response as a species... All has been an unprecedented large-scale denial...
Willing to interact to write more realistic (with policy implications) papers and for teaming (network-building) in searching for implementing sound "cutting-edge" research proposals whenever funds will be available.
Regards,
Hernan L. Villagran
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Congrats for the policy draft; it raises key questions, with methodical respect to the applied development of sustainability science.
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How do nutrients move through biotic and abiotic parts of an ecosystem and why is it important for matter to be recycled in ecosystem?
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Nutrients move through the ecosystem in biogeochemical cycles. A biogeochemical cycle is a circuit/pathway by which a chemical element moves through the biotic and the abiotic factors of an ecosystem. It is inclusive of the biotic factors, or living organisms, rocks, air, water, and chemicals. Within the biotic part of the cycle, nutrients move by feeding they move through the food chain when consumers eat the producers. Nutrient elements return to the abiotic reservoir via death, excretion, wastes. There are various types of abiotic reservoirs (air - atmospheric cycle such as for carbon and nitrogen; water hydrological cycle especially for hydrogen and oxygen; rock sedimentary cycle as for phosphorus). Nutrient recycling involves both biotic and abiotic components. The main abiotic components are air, water, soil. Recycling of Carbon, Hydrogen, Nitrogen and Oxygen occurs in water, air and soil, whereas calcium, phosphorus, potassium, etc. are recycled mainly in soil and are available locally. Chemical elements and water are constantly recycled in the ecosystem through biogeochemical cycles. During the water cycle, water enters the atmosphere by evaporation and transpiration, and water returns to land by precipitation. An ecosystem (or ecological system) consists of all the organisms and the abiotic pools (or physical environment) with which they interact. The biotic and abiotic components are linked together through nutrient cycles and energy flows. Recycling of nutrients is one of the most important aspects of an ecosystem. This makes the ecosystem self-sufficient. Decomposers break down the organic matter that is present in dead and decaying plants and animals into inorganic nutrients, which can then be used by plants. In an ecosystem, every organism depends on the other organism for food, and shelter and also depends on non-living materials like air, water, minerals, etc. Matter needs to get transferred from living and non-living materials by Nutrient Recycling. Carbon is the key constituent of all living cells. Matter cycles within ecosystems and can be traced from organism to organism. Plants use energy from the Sun to change air and water into matter needed for growth. Animals and decomposers consume matter for their life functions, continuing the cycling of matter.
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Is energy recycled in the biosphere and matter recycled within and between ecosystems?
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The movement of nutrients through the biosphere is different from the transfer of energy because, whereas energy flows through the biosphere and cannot be reused, elements are recycled. Unlike the one-way flow of energy, matter is recycled within and between ecosystems. Elements pass from one organism to another and among parts of the biosphere through closed loops called biogeochemical cycles, which are powered by the flow of energy. Energy flows straight through the ecosystem; it is lost as heat at each step, but it is never recycled. Matter is recycled and is not lost from the ecosystem. Matter can be recycled in the biosphere because they are only. This is supported by the Law of Conservation of Matter, which states that one cannot create nor destroy matter. The elements and compounds in the biosphere are repurposed in different cycles, but the amount of matter remains the same. This is because, as energy goes through a system, it is slowly lost as heat. But, matter is a constant material, which cannot be lost in any form and is used for another purpose, and gains energy that again collapses by losing energy. The cycling of matter because there are only finite amounts of nutrients available on the earth, they must be recycled in order to ensure the continued existence of living organisms. Energy flows through an ecosystem as it is transferred from one organism to another through the food chain, while nutrients are cycled within an ecosystem because they are constantly reused by different organisms, through processes such as decomposition and uptake by plants. Energy flows and matter recycles in ecosystems, with the Sun as the primary energy source. Plants, as primary producers, convert sunlight into energy-storing biomolecules. Consumers, like animals, obtain energy by eating plants or other animals. Decomposers break down dead organisms, recycling matter and nutrients.Matter cycles within ecosystems and can be traced from organism to organism. Plants use energy from the Sun to change air and water into matter needed for growth. Animals and decomposers consume matter for their life functions, continuing the cycling of matter.
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Is energy recycled through Earth's ecosystems and how energy flows and chemical recycling in ecosystems?
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Dr Gaurav H Tandon thank you for your contribution to the discussion
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In which stage would minerals be added during the formation of soil and recycling of matter between living things in the environment?
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Dear Rk Naresh please do recommend my answer if helpful,
Minerals are introduced and cycled through various stages in the formation of soil and the recycling of matter in the environment. These stages are typically part of the biogeochemical cycles that involve both living organisms and geological processes. The primary stages where minerals are added and recycled include:
  1. Weathering and Rock Breakdown: The initial stage in soil formation involves the physical and chemical breakdown of rocks and minerals. Physical weathering, such as freeze-thaw cycles and abrasion, as well as chemical weathering processes like dissolution and oxidation, release minerals from parent rocks into the soil.
  2. Mineralization of Organic Matter: As plants and other organic matter decay, they release organic molecules and nutrients, including minerals, into the soil. These minerals become available for uptake by plants and contribute to soil fertility.
  3. Nutrient Uptake by Plants: Plants play a crucial role in mineral cycling as they absorb essential nutrients (minerals) from the soil through their roots. These minerals are then incorporated into plant tissues.
  4. Consumption by Herbivores: Herbivorous animals feed on plants, transferring the minerals from plants to their own tissues. When these animals die and decompose, the minerals are returned to the soil.
  5. Predator-Prey Relationships: The minerals continue to cycle as predators consume herbivores and are subsequently consumed by other predators. In each step of this food chain, minerals are passed along.
  6. Decomposition: The decomposition of dead plants and animals by decomposers (such as bacteria and fungi) releases minerals back into the soil. This is a critical stage in mineral recycling.
  7. Leaching and Groundwater Movement: Some minerals may be leached from the soil by water, moving downward into groundwater. Conversely, minerals can be brought back to the surface when groundwater interacts with subsurface rocks.
  8. Geological Processes: Geological processes, such as volcanic eruptions and tectonic activity, can introduce new minerals to the environment. Volcanic eruptions, for example, can release minerals from the Earth's interior to the surface.
  9. Weathering of Minerals Deposited in Soil: Over time, minerals can weather further within the soil, releasing additional ions and nutrients that are available for plant uptake.
  10. Human Activities: Human activities, such as agriculture, mining, and the use of fertilizers, can significantly influence the cycling of minerals in the environment. These activities can both introduce and remove minerals from the natural cycles.
In summary, minerals are introduced to the soil and recycled within the environment through a complex interplay of geological processes, biological activities, and human interactions. These stages collectively contribute to the maintenance of nutrient cycles and soil fertility in ecosystems.
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How does energy get transferred and recycled within an ecosystem and energy recycled through an ecosystem why or why not?
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Energy in an ecosystem is transferred and not recycled in the same way that matter, such as nutrients, is recycled. This distinction is due to the fundamental laws of thermodynamics and the nature of energy flow and transformations in living systems.
Let's explore how energy gets transferred and why it is not recycled within an ecosystem:
1. Energy Transfer in Ecosystems:
  • Energy enters an ecosystem primarily in the form of sunlight. This energy is captured by photosynthetic organisms, such as plants and algae, through the process of photosynthesis. During photosynthesis, solar energy is converted into chemical energy stored in organic compounds like glucose.
  • Once captured and stored, this energy is transferred through the ecosystem as organisms consume other organisms. For example, herbivores eat plants, and carnivores eat herbivores.
  • As energy is transferred from one trophic level to the next, it is used for various metabolic processes (e.g., respiration, digestion) and is ultimately converted into heat energy. This heat is lost to the environment and cannot be used to do further work in the ecosystem.
  • Energy transfer is unidirectional and follows the second law of thermodynamics, which states that energy spontaneously flows from a more ordered (higher energy) state to a less ordered (lower energy) state. In ecological terms, this means that energy flows from primary producers to herbivores to carnivores and is not recycled.
2. Matter Cycling vs. Energy Flow:
  • While matter (such as carbon, nitrogen, and phosphorus) can be recycled within ecosystems through biogeochemical cycles (e.g., carbon cycle, nitrogen cycle), energy cannot be recycled in the same way.
  • Matter is transformed and transferred through various organisms and ecosystems repeatedly, whereas energy is continually lost as heat and does not return to its original form or state.
3. Conservation of Energy:
  • The principle of the conservation of energy dictates that energy cannot be created or destroyed but can only change forms. In an ecosystem, the energy from sunlight is transformed into chemical energy during photosynthesis and then into kinetic energy (movement) and other forms within organisms. However, it eventually dissipates as heat and is lost to the environment.
In summary, energy in ecosystems follows a unidirectional flow from the sun to primary producers and through trophic levels, with a substantial portion being lost as heat at each step. This loss of energy as heat makes it fundamentally different from matter, which can be cycled and recycled within ecosystems. As a result, energy is not recycled within ecosystems but is continuously transferred and eventually dissipated.
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When addressing the socio-environmental challenges associated with the traditional economy mainstream researchers and organizations start from the point of view "Our current economy is linear” “ The economy of the future is circular”, taking the position that linearity is the root cause of sustainability problems, see for example: https://www.metabolic.nl/what-we-do/circular-economy/?gad=1&gclid=CjwKCAjwpJWoBhA8EiwAHZFzfoJkA5YMY6R6Crk_hIVmoam5SZZ8zjojNJOsh6PgMWygbt0t8LV8TRoCupMQAvD_BwE
They seem to be doing this without asking themselves the question, why is the current economy linear? Since when it has been linear? Could not be that the root cause of that linearity is the root cause of sustainability problems? If this was the case, then addressing linearity by going circular a la traditional market still leaves the root cause of the problem untouched and active.
And this raises the question: Is economy linearity the root cause of social, economic, and environmental challenges? If yes, why?. If not, why not?
What do you think?
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Stephen, thank you for commenting, My views and the reason for bringing to the attention this idea that bringing circularity to a linear problem without addressing the root cause of linearity or the broken circularity goes deeper than accounting principles as it comes from the inside the model, The root cause is distorted traditional market prices as they reflect and have always reflected only the economic costs of production at a profit. If markets are linear because they are based on distorted market prices, then making circular distorted market prices can not be the solution as the root cause is still in place and active..... As you know environmental cost internalization leads to green markets and to green market circularity as now the environmental issue is an endogenous and profit making issue.
In the coming years I will address views of great thinkers in the past from the sustainability point of view to highlight that as paradigm shifts take place, previous ideas are left behind or need to be adjusted due to the closing of paradigm shift knowledge gaps that are created and which is needed to be able to operate in the higher level paradigm.....It is a fact, traditional market thinking is inconsistent with green market thinking....For example, a shift to green market thinking affects ideas such as the working of corporations/monopolies and other market forms as green market entities or the ideas of pareto optimality or ideas like the Tobin tax or Q ratio as green concepts or the ideas of the thinkers you mentioned when looked from the distorted market price point of view.
In summary as related to the question here, addressing linearity by bringing external circularity leaving the internal root cause of linearity problem in place may give us the opportunity to see the environment collapsing in front of our eyes as the world pretends to do something.
I do appreciate your comment
Respectfully yours;
Lucio
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What are the recycling pathways in the ecosystem and why is the transfer of energy in an ecosystem referred to as energy flow not energy cycling?
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There are three major ways to recycle organic matter and nutrients in terrestrial ecosystems: microbial decomposition; vertebrate herbivore; and wildfires. The nutrient cycle is a system where energy and matter are transferred between living organisms and non-living parts of the environment. This occurs as animals and plants consume nutrients found in the soil, and these nutrients are then released back into the environment via death and decomposition. Nutrients consumed by plants and animals are returned to the environment after death and decomposition and the cycle continues. Soil microbes play an important role in nutrient recycling. They decompose organic matter to release nutrients. The recycling of matter is essential for the maintenance of life on Earth. Decomposing bacteria and fungi break down dead organisms. They help recycle minerals and nutrients to the environment, which can then be used by other organisms. Most decomposers are microscopic organisms, including protozoa and bacteria. Other decomposers are big enough to see without a microscope. They include fungi along with invertebrate organisms sometimes called detritivores, which include earthworms, termites, and millipedes. Chemical nutrients and energy tend to flow in the same direction for most of an ecosystem, but the main difference is that the nutrient cycle is recycled in the ecosystem while the energy flow is ultimately lost from the ecosystem to the universe at large. In the ecosystem, energy comes from the sun. The energy changes its form and flows into the following species or organic nutrient cycle. Thus, the energy is passed on to the next in an ecosystem, like entering an ecosystem as sunlight and leaves in the form of heat. Since the energy is not recycled, it is referred to as energy flow. Energy is transferred between organisms in food webs from producers to consumers. The energy is used by organisms to carry out complex tasks. The vast majority of energy that exists in food webs originates from the sun and is converted (transformed) into chemical energy by the process of photosynthesis in plants. The flow of energy in an ecosystem follows the 10% rule, meaning only 10% of the energy is transferred to the successive trophic level and the rest is lost in the atmosphere. The energy is produced by the autotrophs, as they have photosynthetic pigments to harness the sunlight into chemical energy via photosynthesis. Energy flow in an ecosystem would begin with the autotrophs that take energy from the sun. Herbivores then feed on the autotrophs and change the energy from the plant into energy that they can use. Carnivores subsequently feed on the herbivores and, finally, other carnivores prey on the carnivores.
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How does carbon affect the growth of microorganisms and how do microorganisms recycle carbon back into the atmosphere?
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Carbon dioxide is effective for extending the shelf-life of perishable foods by retarding bacterial growth. The overall effect of carbon dioxide is to increase both the lag phase and the generation time of spoilage microorganisms; however, the specific mechanism for the bacteriostatic effect is not known. The carbon cycle in microorganisms is part of a larger cycling of carbon that occurs on the global scale. The actions of microorganisms help extract carbon from non-living sources and make the carbon available to living organisms. Also, carbon has adsorptive properties that enrich oxygen and nutrient concentrations inside the carbon matrix, and this provides ample food for a bacteria colony. Soil microorganisms exist in large numbers in the soil as long as there is a carbon source for energy. A large number of bacteria in the soil exist, but because of their small size, they have a smaller biomass. In order to grow successfully, microorganisms must have a supply of water as well as numerous other substances including mineral elements, growth factors, and gas, such as oxygen. Virtually all chemical substances in microorganisms contain carbon in some form, whether they be proteins, fats, carbohydrates, or lipids.Photosynthesis by land plants, bacteria, and algae converts carbon dioxide or bicarbonate into organic molecules. Organic molecules made by photosynthesizers are passed through food chains, and cellular respiration converts the organic carbon back into carbon dioxide gas. Organisms return carbon dioxide to the atmosphere by respiration . It is not just animals that respire. Plants and microorganisms do, too. Carbon dioxide is also released by combustion. Carbon is released back into the atmosphere when organisms die, volcanoes erupt, fires blaze, fossil fuels are burned, and through a variety of other mechanisms. Some microbes can synthesize certain organic molecules that they need from scratch, as long as they are provided with carbon source and inorganic salts. Other microbes require that certain organic compounds exist within their environment. The carbon cycle in microorganisms is part of a larger cycling of carbon that occurs on the global scale. The actions of microorganisms help extract carbon from non-living sources and make the carbon available to living organisms. Carbon is the chemical backbone of life on Earth. Carbon compounds regulate the Earth's temperature, make up the food that sustains us, and provide energy that fuels our global economy.
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Which is one way that the movement of matter through an ecosystem is different from the transfer of energy and substances in the ecosystem recycled by?
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So, the energy that enters an ecosystem as sunlight eventually flows out of the ecosystem in the form of heat. In contrast, the matter in an ecosystem is continuously recycled as atoms are combined and recombined in different ways. Unlike the one-way flow of energy, matter is recycled within and between ecosystems. Unlike the one-way flow of energy, matter is recycled within and between ecosystems. Energy flows and matter recycles in ecosystems, with the Sun as the primary energy source. Plants, as primary producers, convert sunlight into energy-storing biomolecules. Consumers, like animals, obtain energy by eating plants or other animals. Decomposers break down dead organisms, recycling matter and nutrients. The movement of matter within or between ecosystems is biogeochemical gateways. This cycle involves biological, geological and chemical processes. Energy flow is the flow of energy through living things within an ecosystem. All living organisms can be organized into producers and consumers, and those producers and consumers can further be organized into a food chain. Each of the levels within the food chain is a trophic level. Energy changes from one form to another. Therefore it is said as energy flow and not energy cycle. The nutrients are used up or recycled by living beings. Water molecules and elements such as nitrogen and carbon constantly move among the ocean, the atmosphere, and terrestrial ecosystems. Energy is converted to heat as it passes through a community, but matter is recycled and reused over and over again. Chemical nutrients and energy tend to flow in the same direction for most of an ecosystem, but the main difference is that the nutrient cycle is recycled in the ecosystem while the energy flow is ultimately lost from the ecosystem to the universe at large. Energy in the aquatic ecosystem is transferred from lower to higher trophic levels, but it moves in the opposite direction in aquatic ecosystems. Hint: A terrestrial ecosystem is a community of land-based organisms having an interaction of biotic and abiotic components in an area.
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As the demand for sustainable energy solutions continues to surge, the importance of battery recycling has never been more evident. Batteries power our lives, from mobile devices to electric vehicles, and their responsible disposal is a pressing concern. 🌍 However, the path to effective battery recycling is not without its challenges. One of the key hurdles is the diverse range of battery chemistries and designs. Each type requires a unique recycling process, making it complex and costly to handle them all efficiently. ♻️💡 Additionally, the shortage of specialized recycling facilities and infrastructure poses a significant challenge. Developing proper collection, transportation, and recycling systems is crucial to prevent improper disposal and environmental damage. 🚮🌱 Technological advancements are crucial in overcoming these challenges. Innovation in battery design for easier disassembly, improved sorting techniques for better segregation of materials, and refining recycling processes can all contribute to a more sustainable future. 🛠️🔬 Any conversation starters about current gaps in the industry?
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Thanks Brian ! Much appreciated!
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What is recycling in waste management and why are microorganisms important in recycling carbon in the environment?
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Dr Safwan Alhaiek thank you for your contribution to the discussion
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I have heard that the shampoo which is about to expire can be recycled into to cleaning agents etc. Is that possible ? What is the process? Also, most of shampoo has oil in it. So, how will the oil be removed? Will it be through chemical dispersion?
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Thanks for the response, Professor, Mirgorod. \
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Hello everyone friends
Is the issue of recycling TetraРak packaging relevant now? What do you say about the production of composites from ТetraРak?
Thank you very much
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This is a website where ECOALLENE is described
Regards
Beatrice
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According to the Regulation, issued by the Commission Regulation (EU) 2017/833, it is not allowed to produce insect biomass on manure and catering wastes. Is it because of potential contamination of these wastes with deleterious chemicals, like pesticides, antibiotics, and endocrine disruptors (which can be applied in farming processes and in kitchens), or because of potential contaminations with pathogens, which is common for agricultiral animals and human? This legislative restriction significantly reduce the opportunity of the recycling of the valuable compounds (fat, amino acids etc.) from the by-products. So, I want to understand, what can we do in order to make the by-product save for recycling by means of insects, earthworms and other invertebrates? For instance, we can use manure from animals, which are free from pharmaceutical usage (I mean veterinary treatments), or we can thermally sterilize the by-products to prevent the propagation of human pathogens.
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It is a pity that the insect sector cannot use some abundant waste streams so far (e.g. post-consumer food waste or manures), due to risks involved. However, I believe this (and other) sector(s) will only be properly stimulated to grow, for real, when these restrictions end.
In order to make things safer I think we should focus on some topics in research, such as evaluating the inactivation of pathogens and final concentrations of those when feeding insects (and other invertebrates) with contaminated substrates; finding out how the post-processing of the resulting products (e.g. larval biomass and fertiliser) affect the safety of those (for instance how the heat involved in producing insect meal/oil ends up sanitising the materials and how pelletization does that also); how to optimize the mechanisms behind the sanitisation needed in those products and even within the waste bioconversion process itself; and evaluate what accumulates and how it accumulates (metals, pesticides, etc) in those animals.
The ban on catering (post-consumer) waste for insects must be taken down as soon as possible, as it is one of the main waste sources for the insect sectors, considering its limited possibilities for use.
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What do you understand by the adaptations in organisms and why do they adapt and types of organisms recycle nutrients in a food web?
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An adaptation of an organism is the modification or change in the organism's body or behavior that helps it to survive. Animals adapt to their environment so that they can perform a task easily or to provide them with higher chances of survival.An adaptation is any heritable trait that helps an organism, such as a plant or animal, survive and reproduce in its environment. The type of organism that recycles nutrients in a food web is decomposers. Decomposers are organisms that consume dead or decaying matter and recycle the nutrients back into the soil. An adaptation is a change to the structure or behavior of the organism which helps the organism survives better in the habitat. This means the organism will have to adapt to the climatic conditions, predators and compete for the same resources with the other organisms living in that habitat. In a food web nutrients are recycled in the end by decomposers. Animals like shrimp and crabs can break the materials down to detritus. Then bacteria reduce the detritus to nutrients. Decomposers work at every level, setting free nutrients that form an essential part of the total food web.Decomposers, like fungi and bacteria, complete the food chain. Decomposers turn organic wastes, such as decaying plants, into inorganic materials, such as nutrient-rich soil. They complete the cycle of life, returning nutrients to the soil or oceans for use by autotrophs. Every organism follows this food chain by depending on another organism. If an organism is removed from the food chain, it spoils the flow of energy and nutrient in the ecosystem. It disrupts the balance of the food chain. As a result, the organisms which depend on others for food will die due to starvation. In some food webs, there is one critical "keystone species" upon which the entire system depends. In the same way that an arch collapses when the keystone is removed, an entire food chain can collapse if there is a decline in a keystone species.
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Gasification and pyrolysis are two thermochemical processes that are compared for plastics recycling. Gasification breaks down solid waste into simple molecules, mainly CO and H2, which can be converted into value-added liquid chemicals through catalytic synthesis processes. This route is preferred for its ability to produce several key petrochemical products in high yield. Pyrolysis, on the other hand, involves the conversion of plastics into liquid fuel. Catalytic pyrolysis of homogeneous waste plastics produces better quality and higher quantity of liquefied fuel compared to non-catalytic pyrolysis at lower temperatures. The pyrolysis process allows for the transformation of plastic mix into profitable liquids, gases, and solids, with the composition of the plastic waste affecting the products obtained. Both gasification and pyrolysis offer potential solutions for plastic waste recycling, with gasification being favored for its ability to produce high-value petrochemical products and pyrolysis being effective in producing liquid fuel from plastics
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Considerations should also include
  • characteristics of the waste plastic feedstock (contaminants, mix of plastic types, volume)
  • energy and carbon inputs and outputs (footprints)
  • emissions and residuals disposal
  • appropriateness for the siting in the intended location
  • fire and explosion containment
  • availability and proximity of users of the CO, H2, fuels, and other products of the processes
  • maintenance periods and repair parts and expertise
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Which ecosystem stores most nutrients in biomass and which group of organisms is essential for recycling nutrients in the ecosystem?
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Nutrient cycling in forest ecosystems these nutrients are stored in the leaves, flowers and other parts of plants. The nutrients are either transferred to animals when animals eat the plants or they are transferred back into the soil. Nutrients are fairly evenly shared between the stores; however, the biomass is the largest store due to a large number of trees. The soil nutrient store is quite large due to the input of nutrients from the weathered rock below the surface combined with nutrients transferred from the litter layer through decomposition. An energy pyramid, also known as a trophic or ecological pyramid, is a graphical representation of the energy found within the trophic levels of an ecosystem. The bottom and largest level of the pyramid is the producers and contains the largest amount of energy.The trophic level that contains the greatest biomass in most ecosystems is the producers. Producers are organisms that are able to make their own food from sunlight or chemicals. Since the source of energy is the sun, the trophic level representing producers (plants) contains the most energy. The base of the trophic pyramid is the source of energy for all consumers. The amount of energy decreases at each tropic level as you go up the pyramid. Decomposers in ecosystems act as environmental cleaners by decaying dead plants and animals. They aid in the recycling of nutrients. They make room for a new life in the biosphere by decaying the dead. Nature has its own recycling system: a group of organisms called decomposers. Decomposers feed on dead things: dead plant materials such as leaf litter and wood, animal carcasses, and feces. They perform a valuable service as Earth's cleanup crew. Decomposers in ecosystems act as environmental cleaners by decaying dead plants and animals. They aid in the recycling of nutrients. They make room for a new life in the biosphere by decaying the dead. The soil ecosystem is extremely important. Terrestrial plants obtain their water and much of the nutrients they need from the soil, absorbing them through their roots. Soil also provides habitat for a great diversity of animals and microorganisms that play a crucial role in litter decomposition and nutrient cycling. Bacteria, fungi, insects, earthworms, bugs, and other creatures dig and digest the compost into fertile soil. The minerals and nutrients in the soil are recycled back into the production of crops. Decomposers play a vital role in keeping the food chain functioning properly. As decomposers break down the remains of dead organisms and produce waste, nutrients are recycled back into the soil for producers to absorb through their roots. Decomposers or saprotrophs recycle dead plants and animals into chemical nutrients like carbon and nitrogen that are released back into the soil, air and water.
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What are the roles of microbes in waste and role of useful microbes in recycling minerals and nutrients?
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Micro-organisms, earthworms and insects help break down crop residues and manures by ingesting them and mixing them with the minerals in the soil, and in the process recycling energy and plant nutrients. Sticky substances on the skin of earthworms and those produced by fungi and bacteria help bind particles together. The microbes that work in the recycling role use the organic carbon in the organic matter as an energy sourceRecycling frees up nutrients like nitrogen, potassium, and phosphorus that are important to plant health. With regards to trophic levels, microorganisms are capable of being: primary producers, engaging in photosynthesis or other autotrophic processes; heterotrophic consumers that consume other microorganisms; or decomposers, breaking down dead plant and animal material to recycle their components as nutrients. Decomposing bacteria and fungi break down dead organisms. They help recycle minerals and nutrients to the environment, which can then be used by other organisms. As they decompose dead matter, the decomposers also respire and so release carbon dioxide to the environment, contributing to the carbon cycle. Microbes also play an essential role in the natural recycling of living materials. All naturally produced substances are biodegradable, that is, they can be broken down by living organisms such as bacteria or fungi. Microorganisms and fungi break down wood and return carbon to the biogeochemical cycles. If these organisms become absent, carbon would accumulate in the wood, where it could not be recycled into the environment. The fixation of nitrogen is dependent on microorganisms mostly through biological nitrogen fixation. Waste removed during the process is digested by microbes, and what remains is dried and disposed of in landfills, incinerators or applied to soil as a conditioner, depending on the source and process.
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In the context of the human-induced accelerating process of global warming, the increasing scale of environmental degradation, the extinction of many species of flora and fauna, the decline in the biodiversity of the planet's natural ecosystems, people are increasingly asking themselves: where do you think each of us can start in terms of protecting the climate, nature and biodiversity of the planet?
A key premise for formulating such questions is the adage that a drop beats a rock. Often, when we wonder whether to choose a bicycle instead of an internal combustion car as a means of transportation in a situation of driving to a nearby store, the answer appears that, after all, with this one gesture, this action performed only by us in a situation where many other people, including neighbors, friends, etc. do not do it, we ourselves will not save the climate and the biosphere. But, after all, this is what many people think. And each individual, if this thinking would change and replace the car with a bicycle then one drop will turn into thousands and then into millions of drops, into rain, into a river and large-scale changes will be realized. The same applies, for example, to the issue of segregating waste, to the use of pesticides in the home garden, to the creation of a flower meadow instead of mowing the lawn, to changing consumption habits to more prudent and sustainable ones, on the reuse of used products and recyclables in the sharing economy, etc. Of course, green financial subsidies, regulatory change are key instruments to motivate this kind of change, to systemically address the issue of smoothly carrying out the green transformation of the economy to build a sustainable, zero-carbon, green closed-loop economy. However, the adage that a drop drills the scale is valid. In this regard, it is particularly important to change the consciousness and mentality of individual people individually and, at the same time, of many people in society.
In view of the above, I address the following question to the esteemed community of scientists and researchers:
In the context of the human-induced accelerating process of global warming, the increasing scale of environmental degradation, the extinction of many species of flora and fauna, the decline in the biodiversity of the planet's natural ecosystems, people are increasingly asking themselves: what do you think each of us can start with in terms of protecting the climate, nature and biodiversity of the planet?
Where do you think each of us can start in terms of protecting the climate, nature and biodiversity of the planet?
And what is your opinion about it?
What is your opinion on this topic?
Please answer,
I invite you all to join the discussion,
Thank you very much,
Warm regards,
Dariusz Prokopowicz
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Climate, nature, and biodiversity are linked together in the biosphere. Global warming effects everything. It is a long-term problem that humans will be dealing with for hundreds of years or more. There is no quick fix or any one thing an individual can do. It will take a commitment over the course of one’s life.
E. O. Wilson in his 2012 book The Social Conquest of the Earth says: “If global changes caused by HIPPO (Habitat destruction, Invasive species, Pollution, overPopulation, and Overharvesting, in that order of importance) are not abated, half the species of plants and animals could be extinct or at least among the “living dead”—about to become extinct—by the end of the century.” We can now add human-induced climate change to this list as the first and most important.
One would also be well-advised to consider Jared Diamond’s thinking in his 2005 book Collapse:
If you want to make a difference, then plan to commit yourself to a consistent policy of actions over the duration of your lifetime.
  1. Vote. (Think of the 2016 and 2020 U.S. presidential elections)
  2. Consider what you buy or don’t buy in terms of carbon output.
  3. Draw public attention to company policies and products that are carbon intensive.
  4. Join other people who vote, buy stuff, and work to defend the Earth.
  5. If religious, further multiply power by developing support within church, synagogue, or mosque.
  6. Invest time and effort in improving your own environment. Set an example for others to follow at home and abroad.
  7. Donate discretionary money and time to an organization promoting policies of your choice.
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How to solve the problem of illegal toxic waste dumps, which contribute greatly to environmental pollution, threaten the biosphere and the health of people, local residents?
In some countries, especially poorer developing countries in recent years, the scale of the problem of illegal toxic waste dumps, which greatly contribute to environmental pollution, threaten the biosphere and the health of people, local residents, has grown. The problem is caused, among other things, by the low scale of waste segregation and recycling and the illegal import of toxic waste from other countries. This illegal practice has become one of the most profitable illegal businesses run by organized crime groups. Some of the illegal toxic waste dumps become fires after some time, in whose combustion processes toxic, carcinogenic, carcinogenic chemical compounds that are harmful to human health are formed and enter the atmosphere, soil and water. In addition, some illegally created toxic waste dumps, before they become a source of dangerous fires for the environment and human health, can also be a source of pollution of the surrounding groundwater, subsoil and surface water, if the landfill was created without adequate protection of the land on which it was created. This problem also affects the country in which I operate. I am very much asking for your recommendations, advice, recommendations on how to solve this problem. I ask for publications that describe the results of research on this issue and recommendations for solving this serious problem. What are the practical and effective solutions to this problem used in various countries? What technologies should be used to dispose of illegally stored toxic chemicals? What changes in national legal norms should be applied to effectively reduce to a large extent the scale of the aforementioned practice of creating more illegal toxic waste dumps? How should environmental and waste management policies be improved? How to increase the scale of waste sorting and recycling? How to increase the scale of development of sharing economy? How to solve the problem of illegal toxic waste dumps, which greatly contribute to environmental pollution, threaten the biosphere and the health of people, local residents? How to solve the problem of illegal toxic waste dumps?
And what is your opinion on this topic?
And what is your opinion about it?
What is your opinion on this issue?
Please answer,
I invite you all to join the discussion,
Thank you very much,
Best wishes,
Dariusz Prokopowicz
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Solving the problem of illegal toxic waste dumps is a complex task that requires a coordinated effort from governments, communities, and various stakeholders. Here are some key steps that can be taken to address this issue:
  1. Strengthen laws and regulations: Enforce strict environmental laws and regulations related to waste disposal and establish severe penalties for illegal dumping. This can act as a deterrent and discourage individuals and companies from engaging in such activities.
  2. Increase monitoring and enforcement: Improve surveillance and monitoring systems to detect illegal waste dumping activities. Employing advanced technologies like drones, satellite imagery, and sensors can help identify illegal dumpsites more effectively.
  3. Raise awareness and community engagement: Educate the public about the dangers of toxic waste dumping and involve communities in reporting illegal dumping activities. Community members can act as watchdogs and help authorities identify and address the issue at the local level.
  4. Provide proper waste management infrastructure: Ensure that there are sufficient legal waste disposal facilities available to handle toxic waste. Investing in waste management infrastructure can incentivize proper disposal and make it easier for businesses and individuals to adhere to legal waste disposal practices.
  5. Collaborate with international partners: Toxic waste dumping can often cross international borders, making it a global issue. Collaborate with neighboring countries and international organizations to address illegal dumping collectively and share best practices.
  6. Encourage responsible corporate practices: Hold corporations accountable for their waste management practices. Implement measures that promote corporate social responsibility and environmentally friendly waste disposal methods.
  7. Support recycling and waste reduction initiatives: Encourage recycling programs and waste reduction strategies to minimize the production of toxic waste in the first place.
  8. Establish whistleblower protection: Create mechanisms to protect individuals who report illegal dumping activities. Whistleblower protection can encourage people with valuable information to come forward without fear of retaliation.
  9. Conduct regular clean-up initiatives: Organize regular clean-up drives to remove toxic waste from illegal dumpsites. Collaborate with local communities, NGOs, and volunteers to ensure proper disposal of the collected waste.
  10. Strengthen international conventions: Work towards strengthening international agreements and conventions on hazardous waste disposal to ensure cooperation and adherence across countries.
Addressing illegal toxic waste dumps requires a combination of legal, technological, social, and environmental interventions. It demands a proactive and collective effort from governments, communities, businesses, and individuals to protect the environment and public health from the harmful effects of toxic waste.
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What microorganisms are important in recycling nutrients and role of microorganisms in the decomposition of organic matter and the recycling of carbon?
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Bacteria constitute the foundation of all of Earth's ecosystems, being responsible for the degradation and recycling of essential elements such as carbon, nitrogen and phosphorus.
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How can organic waste be appropriately recycled and role do microbes play in the recycling of nutrients within an ecosystem?
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Organic waste can be appropriately recycled through composting and microbial decomposition. Composting is a natural process that involves the controlled decomposition of organic materials, such as food scraps, yard waste, and agricultural residues, into nutrient-rich compost. Microbes, specifically bacteria, fungi, and other decomposers, play a crucial role in this recycling process within an ecosystem.
In composting, microbes break down the organic matter into simpler compounds through a series of biochemical reactions. Bacteria are primarily responsible for breaking down complex organic compounds into simpler ones like sugars and amino acids. Fungi then further decompose these compounds, converting them into humus, a stable form of organic matter rich in nutrients.
The role of microbes in recycling nutrients is significant for several reasons:
  1. Nutrient cycling: Microbes break down organic waste and release essential nutrients, such as nitrogen, phosphorus, and potassium, back into the soil. These nutrients become available to plants, promoting healthy growth and productivity.
  2. Humus formation: The decomposition of organic matter by microbes contributes to humus formation, which improves soil structure, water retention, and nutrient-holding capacity.
  3. Disease suppression: Some microbes in the soil can act as biocontrol agents, suppressing harmful pathogens that could affect plant health.
  4. Carbon sequestration: Microbial activity in composting helps sequester carbon in the form of stable humus, reducing carbon dioxide emissions and contributing to climate change mitigation.
To appropriately recycle organic waste, communities and individuals can set up composting systems to facilitate the natural decomposition process. This involves providing the right balance of organic materials, moisture, and aeration to support microbial activity. By harnessing the power of microbes, we can efficiently recycle organic waste, enrich the soil, and promote a sustainable nutrient cycle within ecosystems.
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Why can matter be recycled through the biosphere and what is the importance of recycling nitrogen and carbon in an ecosystem?
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Chemical elements and water are recycled through biogeochemical cycles. The cycles include both biotic and abiotic parts of ecosystems. The water cycle takes place on, above, and below Earth's surface. In the cycle, water occurs as water vapor, liquid water, and ice. Unlike energy, matter is recycled in ecosystems. Decomposers release nutrients when they break down dead organisms. nutrients are taken up by plants through their roots and nutrients pass to primary consumers when they eat the plants. All living organisms, biomolecules and cells are made up of carbon, hydrogen, oxygen, nitrogen, sulphur and phosphorus. These elements are essential for life. It is important to recycle and continuously replenish nutrients into the environment for life to exist. The importance of the carbon and nitrogen cycles to ecosystems is that both are essential elements for living things. These cycles help in moving these elements between living things and the environment, and they provide the raw materials for biosynthesis.All living organisms, bimolecular and cells are made up of carbon, hydrogen, oxygen, nitrogen, sulphur and phosphorus. These elements are essential for life. It is important to recycle and continuously replenish nutrients into the environment for life to exist. This ensures that there is no real long-term drain on the Earth's nutrients, despite millions of years of plant and animal activity. Nutrient recycling is the way in which elements are continuously being broken down and/or exchanged for reuse between the living and non-living components of an ecosystem. Plant and animal wastes decompose, adding nitrogen to the soil. Bacteria in the soil convert those forms of nitrogen into forms plants can use. Plants use the nitrogen in the soil to grow. People and animals eat the plants; then animal and plant residues return nitrogen to the soil again, completing the cycle. Nitrogen is important to all living things, including us. It plays a key role in plant growth: too little nitrogen and plants cannot thrive, leading to low crop yields; but too much nitrogen can be toxic to plants. Nitrogen is necessary for our food supply, but excess nitrogen can harm the environment. A nutrient cycle (or ecological recycling) is the movement and exchange of inorganic and organic matter back into the production of matter. Energy flow is a unidirectional and noncyclical pathway, whereas the movement of mineral nutrients is cyclic. Recycling helps reduce greenhouse gas emissions by reducing energy consumption. Using recycled materials to make new products reduces the need for virgin materials. This avoids greenhouse gas emissions that would result from extracting or mining virgin materials. Carbon is the chemical backbone of life on Earth. Carbon compounds regulate the Earth's temperature, make up the food that sustains us, and provide energy that fuels our global economy. Most of Earth's carbon is stored in rocks and sediments.It is one of the primary building blocks of all organic matter on Earth and a key element in setting Earth's temperature. Carbon moves from the atmosphere to the land, ocean, and life through biological, chemical, geological and physical processes in a cycle called the carbon cycle. Unlike the one-way flow of energy, matter is recycled within and between ecosystems. Elements pass from one organism to another and among parts of the biosphere through closed loops called biogeochemical cycles, which are powered by the flow of energy.
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What are the roles of microorganisms in wastewater recycling and role of microorganism in the recycling of elements?
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Microorganisms play vital roles in wastewater recycling by aiding in the breakdown and removal of organic pollutants. They break down complex organic compounds, converting them into simpler forms that are less harmful to the environment. Certain microorganisms, like bacteria and fungi, also have the ability to remove or reduce contaminants such as nitrogen and phosphorus through processes like nitrification and denitrification. In the recycling of elements, microorganisms are essential in decomposing organic matter and releasing nutrients like carbon, nitrogen, and phosphorus back into the ecosystem, supporting the growth of plants and the functioning of natural cycles. Their activity is crucial in maintaining the balance and sustainability of ecosystems and water resources.
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What is the role of microorganisms in the recycling of elements and role of various microorganisms in recycling of organic waste?
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Microorganisms play a crucial role in the recycling of elements by breaking down complex organic compounds into simpler forms. Bacteria secrete enzymes to decompose organic matter, fungi excel at breaking down cellulose and lignin, actinomycetes aid in decomposing tough materials like wood, and protozoa help regulate bacterial populations. Together, these microorganisms form food webs, facilitating the decomposition of organic waste and releasing essential nutrients back into the ecosystem. Harnessing their power enables sustainable waste management practices like composting and bioconversion, promoting efficient recycling of organic waste while minimizing environmental impact.
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Why is recycling a productive and sustainable way of managing solid waste and how is recycling waste a way to conserve environment?
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Dr Phil Geis thank you for your contribution to the discussion
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Is recycling an environment friendly way of solid waste management if so why and how can recycling materials lead to environmental sustainability?
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Dr Phil Geis thank you for your contribution to the discussion
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How can I recover a folder containing remote sensing data in TIF format that was deleted from the desktop and emptied from the recycle bin on Windows 10? The folder was deleted on July 1st.
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Disk Drill and Recuva are good.
To ensure successful recovery of a deleted folder, avoid writing any new data to disk until the recovery process is complete. If necessary, store new data in a separate location to prevent it from being written and indexed in the file system, potentially overriding the deleted folder's information. Failing to follow this precaution may result in permanent loss of the folder and its contents.
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How do we recycle materials in an ecosystem and how is matter recycled used over and over again in an ecosystem?
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Decomposing bacteria and fungi break down dead organisms. They help recycle minerals and nutrients to the environment, which can then be used by other organisms. As they decompose dead matter, the decomposers also respire and so release carbon dioxide to the environment, contributing to the carbon cycle. Animals eat plants and other animals, incorporating carbon into their bodies. Carbon is then passed through the food chain. Microorganisms such as bacteria and fungi feed on dead plants and animals, helping them to decay. These microorganisms respire, releasing carbon dioxide back into the air.The nutrient cycle is a system where energy and matter are transferred between living organisms and non-living parts of the environment. This occurs as animals and plants consume nutrients found in the soil, and these nutrients are then released back into the environment via death and decomposition. In the environment, waste and dead materials are continually recycled to support various life forms. This is not just limited to organic materials. Both organic and inorganic minerals are continuously exchanged and moved in the ecosystems to support the production of matter. Unlike energy, matter is recycled in ecosystems. Decomposers release nutrients when they break down dead organisms and nutrients are taken up by plants through their roots.Dead producers and consumers and their waste products provide matter and energy to decomposers. Decomposers transform matter back into inorganic forms that can be recycled within the ecosystem. So, the energy that enters an ecosystem as sunlight eventually flows out of the ecosystem in the form of heat. Unlike energy, matter is recycled in ecosystems. Decomposers release nutrients when they break down dead organisms and nutrients are taken up by plants through their roots and nutrients pass to primary consumers when they eat the plants. Most of the energy needed to cycle matter through earth's systems comes from the sun. The cycling of matter because there are only finite amounts of nutrients available on the earth, they must be recycled in order to ensure the continued existence of living organisms.
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Can we save environment by recycling and difference between recycling and sustainability?
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The collection and conversion process of waste materials into usable and new materials is Recycling. It is one of the eco-friendly methods of solid waste management for a sustainable society instead of letting it go to landfills. Sustainability is the ability to exist and develop without depleting natural resources for the future. “Going by this definition, we must not deplete natural resources. The only way we can do it is by recycling, and hence recycling is important to gain sustainability. Sustainability involves taking into account economic, social, and environmental factors, and balancing them in a way that promotes long-term well-being. Recyclability, on the other hand, refers to the ability of a material or product to be recycled or reused at the end of its life. Recovering products and components and the reuse of materials for recycling purposes fosters sustainable development because it reduces the need to use precious natural resources and raw materials. The goal of sustainable waste management is to reduce the amounts of natural resources consumed, reusing the materials taken from nature as much as it is possible, and creating as minimal waste as possible. Reduce, reuse and recycle: The “three Rs” to help the planet. Zero waste is a philosophy and design framework that promotes reuse, recycling, and conservation programs, but also, and more importantly, emphasizes sustainability by considering the entire life cycle of products, processes, and systems. Sustainable waste management aims to keep materials in use for as long as possible and minimize the amount of solid waste that is disposed of in landfill or through incineration. Recycling prevents the emissions of many greenhouse gases and water pollutants, and saves energy. Using recovered material generates less solid waste. Recycling helps to reduce the pollution caused by the extraction and processing of virgin materials. Recycling reduces the need to grow, harvest or extract new raw materials from the Earth. That in turn lessens the harmful disruption and damage being done to the natural world: fewer forests cut down, rivers diverted, wild animals harmed or displaced, and less pollution of water, soil and air. Recycling helps to reduce energy usage, reduce the consumption of fresh raw materials, reduce air pollution and water pollution by reducing the need for “conventional” waste disposal and also reduces greenhouse gas emissions. When people recycle, material can turn into new products. Using recycled material can use less energy than non-recycled material. Recycling reduces the need for extracting, refining and processing raw materials all of which create air and water pollution. Each year's celebration of this important day reminds us of all the ways we can help the environment every day in our own homes. In particular, recycling (and otherwise re-using packaging) can be hugely beneficial to our planet. Some of the most common recyclable packaging is food and beverage packaging.
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What is the importance of recycling waste materials in the environment and importance of reduce recycle and reuse to save the environment?
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Dr Xiangyang Lou thank you for your contribution to the discussion
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How does sustainability relate to environment and relationship between recycling and sustainability?
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Environmental sustainability is the ability to maintain an ecological balance in our planet's natural environment and conserve natural resources to support the wellbeing of current and future generations. The environment performs four crucial functions: Supplying Resources: The environment contains both renewable and non-renewable resources. While the former are re-usable and do not get depleted soon, non-renewable resources come with the fear of depletion. The goal of sustainable development is to create a balance between the social, environmental, and economic needs of a person or community. A clean, healthy, and safe environment is important for everybody. This can be achieved through the reduction of poverty, pollution, unemployment, and poor housing. The more we recover and reuse products and materials instead of throwing them away, the less impact we have on our environment and the more sustainable our production and consumption practices become. Recycling and Reusing of the wastes play a significant role in sustainability because it reduces the negative impact that human activities have on the environment. You may be an individual consumer or be part of a business organization or government, but you have an important role in making recycling a success. Reducing energy consumption reduces greenhouse gas emissions. Tree Preservation-Recycling one ton of paper saves trees from being cut down. Each tree helps reduce global warming by capturing and holding carbon dioxide, a major greenhouse gas. Recycling means using raw material that has already been extracted; this reduces the need to extract even more of it to meet consumption wants. Simply enough, to be sustainable or to avoid depletion, the rate of extraction must be brought lower or equal to the natural replenishment rate. There are six factors of sustainability: climate change, environment, innovation, technology, people, and ethics. Being committed to sustainability will reduce your carbon footprint and the amount of toxins released into the environment, making it safe. When we focus on sustainability, the entire world benefits and gets to live in clean, more healthy living conditions. Being committed to sustainability will reduce your carbon footprint and the amount of toxins released into the environment, making it safe. When we focus on sustainability, the entire world benefits and gets to live in clean, more healthy living conditions. Dead producers and consumers and their waste products provide matter and energy to decomposers. Decomposers transform matter back into inorganic forms that can be recycled within the ecosystem. So, the energy that enters an ecosystem as sunlight eventually flows out of the ecosystem in the form of heat. One of the primary benefits of recycling is the preservation of natural resources. Harvesting virgin materials encroaches on wildlife habitats and involves heavy energy use. Recycling also indirectly helps to preserve animal habitats by lowering greenhouse gas emissions that cause climate change.
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How can you help in the process of reduce reuse and recycling of waste and does recycling impact the environment?
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Pollution levels have started to rise swiftly. The usage of plastics and other non-biodegradable materials has only made matters worse. Reducing the use of such items and recycling and reusing them are ways to combat this. Thus, the idea of "reduce, reuse, recycle" has gained popularity on a global scale. Reducing, reusing and recycling waste helps save landfill space by keeping useful materials out. The amount of energy and natural resources needed to produce or collect the raw materials and manufacture the product are reduced. Reducing, reusing and recycling plastic is key in countering the devastation wreaked by climate change. Plastics are a major source of pollution on Earth. Unbridled manufacturing and low recycling rates of plastic products threaten our planet. Recycling helps reduce greenhouse gas emissions by reducing energy consumption. Using recycled materials to make new products reduces the need for virgin materials. This avoids greenhouse gas emissions that would result from extracting or mining virgin materials. It provides habitat for native plants and wildlife. It supports natural processes (soil regeneration, flood prevention, waste decomposition, crop pollination, seed dispersal), which we depend on for our survival. Reduce means to minimise the amount of waste we create. Reuse refers to using items more than once. Recycle means putting a product to a new use instead of throwing it away. Rethink is about considering how our actions affect the environment. “The three R's reduce, reuse and recycle help to cut down on the amount of waste we throw away. They conserve natural resources, landfill space and energy. They save land and money that communities must use to dispose of waste in landfills. Perhaps most importantly for health, the environment can create or reduce stress, which in turn impacts our bodies in multiple ways. This is because our brain and our nervous, endocrine, and immune systems are constantly interacting. Therefore, it is the collective responsibility of every human to clean the environment and protect the planet from further environmental degradation. It is time to become responsible citizens and maintain sustainable waste practices such as recycling, reusing and reducing waste wherever possible.
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Does recycling have a future and why sustainability is important in the environment?
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From one point of view, recycling should have a future, taking into account its role in preventing waste from becoming pollution, strengthening thus sustainability.
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How is plastic recycle does the recycling process have an impact on the environment and can we save our environment from plastic?
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Dr Phil Geis thank you for your contribution to the discussion
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What is the role of recycling of waste in sustainable development and importance of recycle and reduce waste management?
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Dr Mohammad Saddam Hosen thank you for your contribution to the discussion
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Is waste recycling business profitable in India and why recycling is not a bankable venture in India?
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Dr Rana Hamza Shakil thank you for your contribution to the discussion
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What is the scope of recycling in India and value of recycling industry in India and size of recycling market in India?
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Dr Rana Hamza Shakil thank you for your contribution to the discussion
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Is recycling a form of sustainability and what is the value of recycling? What is the value of recycling and scope of recycling in India?
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Recycling also conserves resources and protects the environment. Environmental benefits include reducing the amount of waste sent to landfills and combustion facilities; conserving natural resources, such as timber, water and minerals; and preventing pollution by reducing the need to collect new raw materials. Recycling is central to sustainability because it helps save materials that can be reused from ending up in landfills. It is one of the eco-friendly methods of solid waste management for a sustainable society instead of letting it go to landfills. Current disposal methods threaten our environment and health, but with sustainable recycling, we conserve natural resources and decrease the harm we cause to the world.Recycling plastics provides a sustainable source of raw materials to the manufacturing industry. Once the plastics are recycled, they are sent to manufacturing industries to be redesigned and converted into new shapes and used in different appliances. In India, the metal recycling sector currently employs nearly 1.75 million people and contributes around 2 per cent to GDP. For India, recycling has the potential to create six times more jobs and generate around ₹14-lakh crore of additional cost savings by 2030, which is approximately 11 per cent of our annual GDP. Recycling plastics provides a sustainable source of raw materials to the manufacturing industry. Once the plastics are recycled, they are sent to manufacturing industries to be redesigned and converted into new shapes and used in different appliances. When we recycle, used materials are converted into new products, reducing the need to consume natural resources. If used materials are not recycled, new products are made by extracting fresh, raw material from the Earth, through mining and forestry. The most important benefit of industrial recycling is the fact that you are putting less strain on the Earth's resources by finding ways to reuse or recycle industrial waste. When industrial waste materials and by-products are reused, it decreases the need to produce new raw materials.Reduces the amount of waste sent to landfills and incinerators. Conserves natural resources such as timber, water and minerals. Prevents pollution and reduces greenhouse gases by reducing the need to mine and process new raw materials. It is a specific aspect of sustainability that focuses on reducing waste and conserving resources by diverting materials from landfills and incinerators. Recyclability involves designing products and materials in a way that allows them to be easily taken apart, sorted, and processed into new materials or products.
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Why is it important to recycle and reuse plastic waste and role of bacteria in increasing fertility of the soil?
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Plastic recycling reduces the need to extract new, raw materials from the earth as it reuses the stuff that's already processed and protects natural resources. This can help reduce emissions of heat-trapping gases into the atmosphere. It also prevents adding more rubbish to landfills. Bacteria increase soil fertility through nutrient recycling such as carbon, nitrogen, sulphur and phosphorus. Bacteria also help in the decomposition of dead organic matter and then give out simple compounds in the soil, which can be used up by plants. Bacteria perform many important ecosystem services in the soil including improved soil structure and soil aggregation, recycling of soil nutrients, and water recycling. Soil bacteria form micro aggregates in the soil by binding soil particles together with their secretions. Bacteria change the soil environment so that certain plant species can exist and proliferate. Where new soil is forming, certain photosynthetic bacteria start to colonize the soil, recycling nitrogen, carbon, phosphorus, and other soil nutrients to produce the first organic matter.Nitrogen-fixing bacteria in the soil saturate it with inorganic N-containing compounds, which are necessary crop nutrients. When fixation bacteria die, the accumulated N in their biomass is released into the soil. This way, they boost soil fertility naturally, allowing farmers to save on synthetic fertilizers. Soil fertility can be further improved by incorporating cover crops that add organic matter to the soil, which leads to improved soil structure and promotes a healthy, fertile soil; by using green manure or growing legumes to fix nitrogen from the air through the process of biological nitrogen fixation.
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What is sustainable waste management and why is recycling important and role of citizens in waste management?
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Sustainable waste management is the treatment, disposal, and reduction of waste products in an effective and responsible manner while minimizing the harm done to the environment, human health, and natural resources. It entails implementing methods that encourage waste reduction, recycling, reuse, composting, as well as the proper handling and disposal of trash that cannot be recycled or reused.
The handling of garbage in a sustainable way must include recycling. It entails gathering, classifying, processing, and turning used materials into new goods. Recycling reduces the demand for landfill space, lowers energy usage, lowers greenhouse gas emissions, and helps preserve natural resources. By recycling, we can increase resource longevity, lower pollution, and promote a more circular economy.
Sustainable waste management strategies require the participation of citizens. Here are some significant ways that people can contribute:
1. Reduce, reuse, and repair: Citizens can minimize waste generation by reducing their consumption of single-use items, opting for reusable alternatives, and repairing items rather than discarding them. This approach helps conserve resources and reduces the overall waste burden.
2. Source separation and proper disposal: Citizens should separate recyclable materials from non-recyclable waste at the source and dispose of them correctly in designated recycling bins. This helps ensure that recyclable materials can be effectively processed and reused.
3. Participate in recycling programs: Citizens should actively participate in local recycling programs and initiatives. This includes using recycling facilities, supporting recycling campaigns, and staying informed about the types of materials that can be recycled in their area.
4. Educate and raise awareness: Citizens can actively participate in spreading knowledge about waste management practices within their communities. By educating others about the importance of recycling, composting, and responsible waste disposal, they can inspire positive behavior change and encourage sustainable practices.
5. Composting organic waste: Citizens can compost organic waste, such as food scraps and yard trimmings, to reduce the amount of waste sent to landfills. Composting not only diverts organic materials from disposal but also produces nutrient-rich compost that can be used in gardens and agriculture.
6. Proper hazardous waste disposal: Citizens should be aware of the proper methods for disposing of hazardous waste, such as batteries, electronics, chemicals, and pharmaceuticals. These items should not be thrown in regular waste bins, as they can pose significant environmental and health risks.
Citizens can help to preserve the environment, conserve resources, and promote a sustainable future for future generations by actively participating in waste management activities.
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How is recycling well for environment & importance of recycling & reuse of solid waste in its treatment & importance of recycling & reusing plastics?
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Recycling is the recovery and reuse of materials from wastes. Solid waste recycling refers to the reuse of manufactured goods from which resources such as steel, copper, or plastics can be recovered and reused. Recycling also reduces the need for extracting, refining and processing raw materials all of which create substantial air and water pollution. This helps to save energy, reducing greenhouse gas emissions and helping to tackle climate change. By reducing air and water pollution and saving energy, recycling offers an important environmental benefit: it reduces emissions of greenhouse gases, such as carbon dioxide, methane, nitrous oxide and chlorofluorocarbons, that contribute to global climate change. As we save energy the number of greenhouse gases and oxides are produced in less quantity. Because most of the toxic gases are produced by factories. In addition, recycling reduces the amount of waste that takes years to decompose. Also, the recycled material can be sold.Separating, recovering, and reusing components of solid waste that may still have economic value is called recycling. One type of recycling is the recovery and reuse of heat energy, a practice discussed separately in incineration. The three R's - reduce, reuse and recycle - all help to cut down on the amount of waste we throw away. They conserve natural resources, landfill space and energy. The three R's save land and money communities must use to dispose of waste in landfills. Open and unsanitary landfills contribute to contamination of drinking water and can cause infection and transmit diseases. The dispersal of debris pollutes ecosystems and dangerous substances from electronic waste or industrial garbage puts a strain on the health of urban dwellers and the environment. Plastic recycling reduces the need to extract new, raw materials from the earth as it reuses the stuff that's already processed and protects natural resources. This can help reduce emissions of heat-trapping gases into the atmosphere. It also prevents adding more rubbish to landfills. Reduces greenhouse gas emissions that contribute to global climate change. Helps sustain the environment for future generations. Reduces the amount of waste that will need to be recycled or sent to landfills and incinerators.
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What do you understand by waste management what is its importance and what impact does recycling have on the environment?
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Waste management is intended to reduce the adverse effects of waste on human health, the environment, planetary resources, and aesthetics. The aim of waste management is to reduce the dangerous effects of such waste on the environment and human health. A waste management system or waste disposal is a streamlined process that organizations use to dispose of, reduce, reuse, and prevent waste. It is also an approach where companies implement comprehensive strategies to efficiently manage wastes from their origin until their final disposal. Waste management reduces the effect of waste on the environment, health, and so on. It can also help reuse or recycle resources, such as; paper, cans, glass, and so on. There is various type of waste management that includes the disposal of solid, liquid, gaseous, or hazardous substances. Waste directly impacts the environment and its disposal pollutes the air, water and soil. Waste management reduces greenhouse gas emissions and improves the quality of air and water, and the condition of any area affected by the waste. Recycling also reduces the need for extracting refining and processing raw materials all of which create substantial air and water pollution. This helps to save energy, reducing greenhouse gas emissions and helping to tackle climate change. By reducing air and water pollution and saving energy, recycling offers an important environmental benefit: it reduces emissions of greenhouse gases, such as carbon dioxide, methane, nitrous oxide and chlorofluorocarbons, that contribute to global climate change. Waste management is the best way to reduce harmful gases that lead to air pollution and prevent the garbage from disposing of waste, leading to water pollution. Over time, excessive land clearing can result in the extinction of many of these species, and a significant loss of biodiversity. Once the natural habitat has been removed by land clearing, many native species may no longer be able to compete with non-native species such as weeds, vermin, flies and rats. Prevents pollution caused by reducing the need to harvest new raw materials. Saves energy and eeduces greenhouse gas emissions that contribute to global climate change. Helps sustain the environment for future generations.
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How are plastics recycled? Does the recycling process have any impact on the environment ?i
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Plastic wastes are isolated from garbage and sent to recycling unit. Plastics are melted in the unit and then remoulded to form various plastic items for reuse. The recycling process reduces plastic wastes from the environment. Plastic recycled is a two-stage process: Sorting is mainly done automatically with a manual sort to ensure all contaminants have been removed. Once sorted and cleaned, plastic can either be shredded into flakes or melt processed to form pellets before finally being moulded into new products. Plastic recycling reduces the need to extract new, raw materials from the earth as it reuses the stuff that's already processed and protects natural resources. This can help reduce emissions of heat-trapping gases into the atmosphere. It also prevents adding more rubbish to landfills.About 91% of plastic isn't recycled, but why? The reasons behind the low percentage of plastic recycling are manifold. We often simply throw plastics away into the recycling bin; however, due to the material properties of plastics, not all can be recycled.India produces 3.4 million tonnes of plastic waste in a year, only 30 per cent of it is recycled. By reducing air and water pollution and saving energy, recycling offers an important environmental benefit: it reduces emissions of greenhouse gases, such as carbon dioxide, methane, nitrous oxide and chlorofluorocarbons, that contribute to global climate change. Recycling plastic reduces the release of carbon dioxide and harmful gases into the environment. Plastic recycling conserves the space used as landfills. It makes it possible to use those landfills for other purposes. Recycling saves petroleum that producers may use to make new plastics. Yes' the recycling process have an impact on the environment. Plastic materials don’t decompose so it is not a environment friendly. Recycling also conserves resources and protects the environment. Environmental benefits include reducing the amount of waste sent to landfills and combustion facilities; conserving natural resources, such as timber, water and minerals; and preventing pollution by reducing the need to collect new raw materials. Recycling plastic reduces the release of carbon dioxide and harmful gases into the environment. Plastic recycling conserves the space used as landfills. It makes it possible to use those landfills for other purposes. Recycling saves petroleum that producers may use to make new plastics.
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Why is recycling important to the environment and importance of recycling and waste management and its impact on environment?
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Recycling helps to reduce the quantities of solid waste deposited in landfills, which have become increasingly expensive to dispose. Recycling also reduces air, water and land pollution caused by poor waste disposal. Waste management is important as it saves the environment from the toxic effects of inorganic and biodegradable element present in waste. Mismanagement of waste can cause water contamination, soil erosion and air contamination. Improper waste disposal is a contributor to excess gases entering the atmosphere and causing these problems. The breakdown of the waste releases gases like methane, which is a major factor in global climate change. Poor waste management - ranging from non-existing collection systems to ineffective disposal -causes air pollution, water and soil contamination. Open and unsanitary landfills contribute to contamination of drinking water and can cause infection and transmit diseases.Recycling also reduces the need for extracting refining and processing raw materials all of which create substantial air and water pollution. This helps to save energy, reducing greenhouse gas emissions and helping to tackle climate change. By reducing air and water pollution and saving energy, recycling offers an important environmental benefit: it reduces emissions of greenhouse gases, such as carbon dioxide, methane, nitrous oxide and chlorofluorocarbons, that contribute to global climate change. Recycling saves the planet by protecting the natural resources of the environment. It helps to reduce air, water and land pollution. Recycling leads to a significant reduction in greenhouse emissions and global warming. It helps to keep the surroundings neat.
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Can recycling save energy and what is the importance of 5 R's of waste management?
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Recycling often saves energy and natural resources. Natural resources include land, plants, minerals, and water. When we use materials more than once, we conserve natural resources. The most energy-intensive part of the glass-making process is the heat necessary to melt the mineral mixture. Because recycled glass still needs to be re-melted to make new glass products, the energy savings from recycling glass are relatively small roughly 10-15%. Recycling saves energy by lowering the demand for the production of new usable materials. Since the same materials are being reused over and over again, fewer raw materials will need to be extracted from the Earth and converted to new usable materials. Recycling water on site or nearby reduces the energy needed to move water longer distances or pump water from deep within an aquifer. Tailoring water quality to a specific water use also reduces the energy needed to treat water. Refuse, Reduce, Reuse, Recycle and Repair are also known as “the most important 5R's” of waste management. The concept of 5R's is to decrease the amount of things we use and simultaneously also decrease the amount of things we throw away. In practice the 5 Rs will break down the waste lifecycle into stages so that businesses can identify actions they can take to reduce the amount of waste and pollution they produce. There are four basic approaches to responsible waste management. The three R's - reduce, reuse and recycle are three approaches and the most environmentally preferred. Reducing, reusing and recycling waste helps save landfill space by keeping useful materials out.
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What is the importance of waste management and recycling and what is the most important waste management?
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Waste management is important as it saves the environment from the toxic effects of inorganic and biodegradable element present in waste. Mismanagement of waste can cause water contamination, soil erosion and air contamination. Waste can be recycled if collected and managed efficiently. Waste management is important as it saves the environment from the toxic effects of inorganic and biodegradable element present in waste. Mismanagement of waste can cause water contamination, soil erosion and air contamination. Waste can be recycled if collected and managed efficiently. Waste directly impacts the environment and its disposal pollutes the air, water and soil. Waste management reduces greenhouse gas emissions and improves the quality of air and water, and the condition of any area affected by the waste. Reducing, reusing and recycling your waste is important for the environment, but it can also be profitable. It decreases the amount of waste for disposal, saves space in landfills, and conserves natural resources. Finally, waste management is also important for public health.One of the essential aspects of waste management is recycling, and when you do it, you're helping in the conservation of natural resources by reusing materials such as glass, plastic, oil, and paper. Although there's no specific “best” method of waste management per se, sustainable waste management practices such as reusing, recycling, and composting are generally considered ideal since they are more environmentally friendly and efficient. The most suitable method for an organization, however, will still depend on factors such as the type of waste, local regulations, and other pre-determined requirements.
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What is the relationship between sustainable waste management and climate change and how much does recycling reduce greenhouse gas emissions?
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Recycling helps reduce greenhouse gas emissions by reducing energy consumption. Using recycled materials to make new products reduces the need for virgin materials. This avoids greenhouse gas emissions that would result from extracting or mining virgin materials. By recycling half of your annual household waste, you can divert 2,400 pounds of carbon dioxide from entering the atmosphere. Buy energy-efficient products: light bulbs & appliances. Estimates vary with the type of recycling process used, but researchers agree that recycling and re-manufacturing plastic saves at least 30 percent of the carbon emissions that original processing and manufacturing produces. Recycling reduces the risks of air and water pollution from manufacturing processes. Recycling paper cuts air pollution by about 75%. Substituting steel scrap for virgin ore reduces air emissions by 85% and water pollution by 76%. The manufacture, distribution, and use of products-as well as management of the resulting waste-all result in greenhouse gas emissions. Waste prevention and recycling are real ways to help mitigate climate change. Solid waste contributes directly to greenhouse gas emissions through the generation of methane from the anaerobic decay of waste in landfills, and the emission of nitrous oxide from our solid waste combustion facilities. The environment is a huge element linked to climate change due to the impact climate change has on the environment. This means that environmental sustainability is crucial in reducing the impacts of climate change. Environmental sustainability focuses on sustainability within the natural environment.
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Is an economics model based on the concept of sharing economy an essential element of a sustainable circular economy?
Is the sharing economy model an essential element of a sustainable circular economy and an important factor in protecting the climate, biosphere and biodiversity of the planet's natural ecosystems?
Is the sharing economy model an essential element of a sustainable circular economy and thus a sustainable green zero-carbon economy or one that strives for zero-carbon, green transformation of the economy, protection of the climate, the biosphere and the biodiversity of the planet's natural ecosystems?
The sharing economy model, i.e. the sharing economy, the sharing economy, the collaborative economy, is an important element of what is more broadly referred to as a sustainable circular economy. On the other hand, the processes of green transformation of economies aimed, among other things, at reducing the consumption of natural resources, decreasing waste generation and decreasing greenhouse gas emissions are expected to lead to a reduction in the scale of carbon emissions, i.e. greenhouse gas emissions and thus slow down the progressive process of global warming and reduce the scale of environmental pollution, reduce the scale of loss of biodiversity of natural ecosystems and the consumption of strategic natural resources such as water and rare raw materials. The phenomenon is based on people's willingness to cooperate, help others and share their time and resources, which is reciprocated in various ways (material and non-material). In the past, this form of cooperation was limited to a narrow circle of family, friends and neighbours, and with mass production, the development of trade and services and stronger migration resulting in the separation of multi-generational families and the loss of networks of acquaintances, this phenomenon slowly lost its importance and its functions were taken over by companies and institutions (e.g. public institutions). The other side of human nature, which is the desire to compete and look after narrowly defined self-interest, is the basis of classical economics, but under market economy conditions it sometimes leads to distortions (exploitation, fraud, etc.). Thanks to the development and application of new technologies, collaborative economics is once again gaining popularity and economic rationality. A key determinant of the dynamic development of the sharing economy was the financial crisis in 2008, as well as the need to save money, make better use of resources and change social relations. The development of the concept of a sustainable circular economy should therefore also take the sharing economy into account. The circular economy takes into account, among other things, the minimisation of the environmental impact of the production cycle. An important element of the closed loop economy can be the production method called in Polish 'from cradle to cradle'. This idea specifies methods for designing and producing objects in accordance with the concept of sustainable development, so that, at the end of their useful life, they can be put back into the production cycle. The circular economy also has a territorial dimension. In the context of the functioning of regions and especially urban areas, it refers to yet other economic solutions, e.g. the concept of the sharing economy, according to which unlimited consumption or accumulation of property gives way to sharing, exchanging or borrowing. According to this concept, people give up many goods for their own exclusive use in favour of others, i.e. they reduce the need for products whose production cycle often requires large amounts of raw materials and energy. The sharing economy is defined as a social and economic phenomenon that involves a shift in organisational and distribution models towards distributed networks of interconnected individuals and communities, involving both the direct provision of services by people to each other, as well as sharing, co-creation, co-direction, etc., enabling a radical increase in resource efficiency. Accordingly, the sharing economy model is an essential component of a sustainable circular economy and thus a sustainable green zero-carbon economy or one that strives towards zero-carbon.
In view of the above, I address the following question to the esteemed community of scientists and researchers:
Is the sharing economy model an essential element of a sustainable closed loop economy and thus a sustainable green zero-carbon economy or one that strives for zero-carbon, a green transformation of the economy, the protection of the climate, the biosphere and the biodiversity of the planet's natural ecosystems?
What is your opinion on this subject?
Please respond,
I invite you all to discuss,
Thank you very much,
Best wishes,
Dariusz Prokopowicz
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The sharing economy model can be an important element of a sustainable circular economy. By allowing people to share and reuse resources, rather than always buying new items, the sharing economy can reduce waste and promote resource efficiency. This can lead to a more sustainable use of materials, which is a key goal of the circular economy. However, it's worth noting that not all sharing economy models are created equal. Some sharing platforms may still encourage excessive consumption and waste, particularly if they focus on short-term rentals of disposable goods. To truly promote a sustainable circular economy, sharing platforms should prioritize long-term use, durable goods, and resource-efficient practices.
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Take a look at Merlin Sheldrake's book, Entangled Life for a deep and delightful view of fungi by a committed scientist. Also se arch on Paul Stamets.
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