Carbon Capture and Storage
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January 2024. Carbon Capture is the process of capturing Carbon Dioxide gas (CO2) produced by industrial processes, preventing its release into the atmosphere. The primary goal of carbon capture is to reduce carbon emissions, because carbon dioxide is the primary Greenhouse Gas (GHG) contributing to climate change. Carbon Capture, Utilization, and Storage (CCUS), also known as (CCS), refers to a suite of technologies that perform carbon capture. CCUS involves four stages: capture, transport, storage, and use. CCUS technologies include Enhanced Oil Recovery (EOR), carbon sequestration, Direct Air Capture (DAC), and carbon absorption by Ammonia. Policy wise, growing recognition of CCUS role in meeting net zero goals is translating into increased policy support for CCUS deployment. The Intergovernmental Panel on Climate Change (IPCC) have outlined an important role for CCUS to reach net zero emissions by 2050, directly supporting Sustainable Development Goal SDG13: Take urgent action to combat climate change and its impacts. In this slideshow, you will learn about the definition, technologies, benefits, challenges, UN policy, and global statistics of carbon capture. Discover how CCUS technologies can reduce global carbon emissions by up to 90% to accelerate the clean energy transition and meet net zero emission goals by 2050.
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Carbon Capture and Storage
This document discusses carbon capture and storage (CCS) technologies which aim to prevent carbon dioxide emissions from fossil fuel use. It describes three main methods for capturing CO2 - pre-combustion, post-combustion, and oxyfuel combustion. The captured CO2 can be transported via pipeline and stored underground in geological formations or utilized for enhanced oil recovery. CCS has the potential to reduce CO2 emissions by 80-90% but also increases energy needs and costs for power plants. There are environmental concerns about the impacts of long-term CO2 storage or leakage.
Decarbonisation Futures: Innovation Pathways to Net Zero Emissions
The document summarizes a presentation by ClimateWorks Australia on innovation scenarios for achieving net zero emissions. It discusses ClimateWorks' mission to advise on accelerating the transition to net zero emissions through research and action. Three key drivers for decarbonization are identified: technology improvements, policy shifts, and societal changes. The presentation outlines ClimateWorks' scenario analysis approach, which models pathways to meet temperature goals based on varying levels of influence from the three drivers. Disruptive technologies across sectors that could significantly impact decarbonization pathways are also assessed.
The Role of Carbon Capture Storage (CCS) and Carbon Capture Utilization (CCU)...
The role of Carbon Capture and Storage & Carbon Capture and Utilization-
Capturing carbon dioxide and storing (CCS) is a climate change mitigation technology which is aimed at reducing CO2 emissions. The utilization of CO2 (CCU) in the manufacture of commercial products is also a technology used to complement CCS technology.
This paper presents a literature review on the mechanisms, developments, cost analysis, life cycle environmental impacts, challenges and policy options that are associated with these technologies.
Development of Carbon Capture, Utilization, and Storage (CCUS) in the United ...
Development of Carbon Capture, Utilization, and Storage (CCUS) in the United ...Economic Research Institute for ASEAN and East Asia
The Asia CCUS Network has been successfully launched on 22-23 June 2021 with initially 13 countries (all ASEAN member countries, the United States, Australia, and Japan) and more than 100 international organisations, companies, financial and research institutions that share the vision of CCUS development throughout the Asian region.
The Network members have expressed their intention to participate to share the vision of the Asia CCUS Network that aims to contribute to the decarbonisation of emissions in Asia through collaboration and cooperation on development and deployment of CCUS.
The Asia CCUS Network provides opportunities for countries in the region to work and collaborate on the low emission technology partnership that will eventually help to build countries’ capability to lower the cost of CCUS technology and its deployment through the collaboration of research and innovation.
At the 2nd Asia CCUS Network (ACN) Knowledge Sharing Conference, the Asia CCUS Network is very pleased to invite experts from the Department of Energy, United States of America (USDOE) to share their insights and experiences about CCUS development and policy to support the deployment of CCUS technology.
The ACN will be an active forum to bridge the knowledge gap on CCUS technologies, policy development to support the development and deployment of CCUS in Asia. Thus, this conference hosted in collaboration with IEA will help to bring in update knowledge, opportunity for investment in CCUS in Asia.
Capture of CO2
This document discusses carbon dioxide (CO2) capture from power plant flue gases. It begins by outlining the need to reduce CO2 emissions due to constraints on emissions and fossil fuel resources. It then discusses various CO2 capture technologies currently used or under development for post-combustion, pre-combustion, and oxy-fuel combustion processes. These include chemical absorption, adsorption, membranes, and cryogenic separation. The document also addresses the costs, challenges, and energy penalties associated with implementing CO2 capture at power plants.
Carbon capturing
This document provides an overview of carbon capture and storage (CCS) systems. It discusses the need to reduce CO2 emissions to mitigate climate change. CCS systems aim to capture over 80% of CO2 emissions from power plants and industrial facilities, transport it via pipelines or ships, and store it underground in geological formations or in the deep ocean. The document describes different capture methods including pre-combustion, post-combustion, and oxyfuel combustion. It also discusses transportation and storage options as well as some real-world CCS project sites. While CCS could significantly reduce emissions, the technology is currently very expensive and poses risks if CO2 leaks from storage locations. More research is still needed to improve C
CO2 capturing & sequestration process- CCS
The seminar discusses carbon dioxide capturing and sequestration (CCS) technologies. It identifies major sources of CO2 emissions and explains the CCS process involving carbon capture, transportation, and storage. Methods of carbon capture discussed include pre-combustion, post-combustion, and oxy-combustion approaches. Storage options covered are terrestrial sequestration in plants/soil, geological sequestration underground, and ocean sequestration. The seminar also addresses environmental impacts of CCS, the current maturity of CCS systems, and the potential of direct air capture technologies to reduce atmospheric CO2 levels.
Carbon capture and storage technology
This document discusses carbon capture, storage, and utilization (CCUS) technology. It describes how CCUS can capture up to 90% of carbon dioxide emissions from fossil fuel use and prevent it from entering the atmosphere. There are three main techniques for carbon capture: pre-combustion, post-combustion, and oxy-fuel combustion. Captured carbon can be transported via pipelines or trucks and stored underground in geological formations or utilized to create useful products. CCUS plays an important role in reducing carbon emissions and meeting climate targets.
Recommandé
Carbon Capture and Storage
This document discusses carbon capture and storage (CCS) technologies which aim to prevent carbon dioxide emissions from fossil fuel use. It describes three main methods for capturing CO2 - pre-combustion, post-combustion, and oxyfuel combustion. The captured CO2 can be transported via pipeline and stored underground in geological formations or utilized for enhanced oil recovery. CCS has the potential to reduce CO2 emissions by 80-90% but also increases energy needs and costs for power plants. There are environmental concerns about the impacts of long-term CO2 storage or leakage.
Decarbonisation Futures: Innovation Pathways to Net Zero Emissions
The document summarizes a presentation by ClimateWorks Australia on innovation scenarios for achieving net zero emissions. It discusses ClimateWorks' mission to advise on accelerating the transition to net zero emissions through research and action. Three key drivers for decarbonization are identified: technology improvements, policy shifts, and societal changes. The presentation outlines ClimateWorks' scenario analysis approach, which models pathways to meet temperature goals based on varying levels of influence from the three drivers. Disruptive technologies across sectors that could significantly impact decarbonization pathways are also assessed.
The Role of Carbon Capture Storage (CCS) and Carbon Capture Utilization (CCU)...
The role of Carbon Capture and Storage & Carbon Capture and Utilization-
Capturing carbon dioxide and storing (CCS) is a climate change mitigation technology which is aimed at reducing CO2 emissions. The utilization of CO2 (CCU) in the manufacture of commercial products is also a technology used to complement CCS technology.
This paper presents a literature review on the mechanisms, developments, cost analysis, life cycle environmental impacts, challenges and policy options that are associated with these technologies.
Development of Carbon Capture, Utilization, and Storage (CCUS) in the United ...
Development of Carbon Capture, Utilization, and Storage (CCUS) in the United ...Economic Research Institute for ASEAN and East Asia
The Asia CCUS Network has been successfully launched on 22-23 June 2021 with initially 13 countries (all ASEAN member countries, the United States, Australia, and Japan) and more than 100 international organisations, companies, financial and research institutions that share the vision of CCUS development throughout the Asian region.
The Network members have expressed their intention to participate to share the vision of the Asia CCUS Network that aims to contribute to the decarbonisation of emissions in Asia through collaboration and cooperation on development and deployment of CCUS.
The Asia CCUS Network provides opportunities for countries in the region to work and collaborate on the low emission technology partnership that will eventually help to build countries’ capability to lower the cost of CCUS technology and its deployment through the collaboration of research and innovation.
At the 2nd Asia CCUS Network (ACN) Knowledge Sharing Conference, the Asia CCUS Network is very pleased to invite experts from the Department of Energy, United States of America (USDOE) to share their insights and experiences about CCUS development and policy to support the deployment of CCUS technology.
The ACN will be an active forum to bridge the knowledge gap on CCUS technologies, policy development to support the development and deployment of CCUS in Asia. Thus, this conference hosted in collaboration with IEA will help to bring in update knowledge, opportunity for investment in CCUS in Asia.
Capture of CO2
This document discusses carbon dioxide (CO2) capture from power plant flue gases. It begins by outlining the need to reduce CO2 emissions due to constraints on emissions and fossil fuel resources. It then discusses various CO2 capture technologies currently used or under development for post-combustion, pre-combustion, and oxy-fuel combustion processes. These include chemical absorption, adsorption, membranes, and cryogenic separation. The document also addresses the costs, challenges, and energy penalties associated with implementing CO2 capture at power plants.
Carbon capturing
This document provides an overview of carbon capture and storage (CCS) systems. It discusses the need to reduce CO2 emissions to mitigate climate change. CCS systems aim to capture over 80% of CO2 emissions from power plants and industrial facilities, transport it via pipelines or ships, and store it underground in geological formations or in the deep ocean. The document describes different capture methods including pre-combustion, post-combustion, and oxyfuel combustion. It also discusses transportation and storage options as well as some real-world CCS project sites. While CCS could significantly reduce emissions, the technology is currently very expensive and poses risks if CO2 leaks from storage locations. More research is still needed to improve C
CO2 capturing & sequestration process- CCS
The seminar discusses carbon dioxide capturing and sequestration (CCS) technologies. It identifies major sources of CO2 emissions and explains the CCS process involving carbon capture, transportation, and storage. Methods of carbon capture discussed include pre-combustion, post-combustion, and oxy-combustion approaches. Storage options covered are terrestrial sequestration in plants/soil, geological sequestration underground, and ocean sequestration. The seminar also addresses environmental impacts of CCS, the current maturity of CCS systems, and the potential of direct air capture technologies to reduce atmospheric CO2 levels.
Carbon capture and storage technology
This document discusses carbon capture, storage, and utilization (CCUS) technology. It describes how CCUS can capture up to 90% of carbon dioxide emissions from fossil fuel use and prevent it from entering the atmosphere. There are three main techniques for carbon capture: pre-combustion, post-combustion, and oxy-fuel combustion. Captured carbon can be transported via pipelines or trucks and stored underground in geological formations or utilized to create useful products. CCUS plays an important role in reducing carbon emissions and meeting climate targets.
CO2 Capture and Storage (CCS) Model PTKS
This document discusses strategies for carbon capture and storage as well as carbon dioxide utilization at PT Krakatau Steel in Indonesia. It analyzes models for CO2 capture from steel production and power plants, as well as sequestration methods like injection into geological formations or for enhanced oil recovery. Utilization strategies examined include microalgae cultivation for biofuels, seaweed farming to sequester carbon, and thermal decomposition of CO2 into synthesis gas. The document provides an overview of these various carbon reduction program options and references supporting literature.
Carbon capture and storage
This document discusses carbon capture and storage (CCS) technologies. It describes different carbon capture methods such as pre-combustion, post-combustion, and cryogenic capture. Post-combustion requires large volumes of solvent and can produce toxic byproducts. Pre-combustion has high construction costs and decreased flexibility. The captured carbon is then transported via pipelines and stored geologically. However, CCS projects face economic challenges like a lack of market incentives and need for large storage volumes. While CCS could enable a transition away from fossil fuels, the technology has yet to be widely implemented due to these technical and economic difficulties.
Perspectives on the role of CO2 capture and utilisation (CCU) in climate chan...
Perspectives on the role of CO2 capture and utilisation (CCU) in climate chan...Global CCS Institute
Achieving the target set during COP21 will require the deployment of a diverse portfolio of solutions, including fuel switching, improvements in energy efficiency, increasing use of nuclear and renewable power, as well as carbon capture and storage (CCS).
It is in the context of CCS that carbon capture and utilisation (CCU), or conversion (CCC), is often mentioned. Once we have captured and purified the CO2, it is sometimes argued that we should aim to convert the CO2 to useful products such as fuels or plastics, or otherwise use the CO2 in processes such as enhanced oil recovery (CO2-EOR). This is broadly referred to as CCU.
In this webinar, Niall Mac Dowell, Senior Lecturer (Associate Professor) in the Centre for Process Systems Engineering and the Centre for Environmental Policy at Imperial College London, presented about the scale of the challenge associated with climate change mitigation and contextualise the value which CO2 conversion and utilisation options can provide.Carbon Capture And Storage
Carbon capture and storage aims to prevent CO2 emissions from large stationary sources like power plants from entering the atmosphere. It involves capturing about 90% of CO2 emissions, compressing and transporting it, then permanently storing it underground. CO2 can be stored in deep saline formations or depleted oil and gas fields, where it becomes trapped between rock grains and in the pores of reservoir rocks. Several CCS projects have already stored millions of tons of CO2 underground for decades. While CCS could help slow the rise of atmospheric CO2, it is still a relatively new technology that requires further development and legal/regulatory frameworks to become widely implemented.
Carbon Capture and Storage
Carbon capture and storage (CCS) involves three main steps: (1) capturing CO2, typically at fossil fuel power plants or industrial sites; (2) transporting the captured CO2 via pipelines; and (3) depositing and storing the CO2 in underground geological formations to prevent it from entering the atmosphere. There are three main methods for carbon capture - pre-combustion, post-combustion, and oxy-fuel combustion. New absorbent systems being researched include liquid-liquid biphasic systems using solvents with lower critical solution temperatures and liquid-solid systems using solutions of amines and ethanol or emulsions of amines and ionic liquids. Once captured, CO2 can be
Carbon Capture and Storage breakfast seminar
Tony Booer, Director of Schlumberger Carbon Services speaks at Blake Lapthorn's Green Breakfast on Carbon Capture and Storage
The path to net-zero emissions
My presentation at the "Third Annual Conference of the Transatlantic University Collaboration for Climate and Energy Law" on 28 April 2021 in Oslo https://www.jus.uio.no/nifs/english/research/events/2021/04-28-tucccel.html
Carbon Capture & Storage
This document discusses carbon capture and storage (CCS) as a solution to reducing CO2 emissions and global warming. It covers various aspects of CCS including CO2 capture technologies like post-combustion capture using solvents, compression and transport of captured CO2, and geological storage options in saline aquifers or for enhanced oil recovery. The high cost of CCS technologies is also addressed.
What does net-zero emissions mean?
A presentation on net-zero CO2 and GHG emissions. I focus mainly on the conceptual background, discussing also the role of Carbon Dioxide Removal and offsets... Details https://klimastiftelsen.no/arrangement/klimafrokost-hva-betyr-netto-nullutslipp-i-2050-for-beslutninger-og-investeringer-i-dag/
Carbon Capture, Utilization and Storage (CCUS)
This document provides an overview of carbon capture, utilization, and storage (CCUS) technologies from a presentation. It defines key CCUS terms and concepts, describes the physics and geology of CO2 storage, reviews CO2 transport and storage methods like pipelines and shipping, and discusses CO2 utilization options. The presentation aims to illustrate how CCUS can help address global warming by keeping CO2 out of the atmosphere while also creating economic opportunities for the petroleum industry.
carbon capture and sequestration
Carbon capture and storage (CCS) involves capturing CO2 emissions from large stationary sources like power plants, transporting it, and storing it away from the atmosphere. There are three main technologies for capturing CO2: post-combustion, pre-combustion, and oxy-fuel combustion. Transportation is usually via pipelines or ships. Storage options include injecting CO2 deep underground in geological formations like depleted oil and gas fields, or under the seafloor. CCS aims to reduce pollution and climate change impacts while enhancing oil recovery, though it is an expensive process with risks of leakage.
The role of CCS/CCUS in the Climate Action Plan - Dr S. Julio Friedmann
The role of CCS/CCUS in the Climate Action Plan
Global CCS Institute, delivered at the Global CCS Institute's Third Americas Forum
Feb. 27th, 2014, Washington, DC
carbon capture and storage
Khushboo Choudhary presented on carbon capture and storage (CCS) technology. The presentation covered: (1) the basic CCS process involving capturing CO2 at large emission sources, transporting it, and storing it long-term underground; (2) the three main capture systems - pre-combustion, post-combustion, and oxy-fuel combustion; (3) methods of transporting and storing CO2; (4) current CCS projects around the world; and (5) remaining challenges for CCS including costs, uncertainties about long-term storage, and need for more research.
Carbon Capture and Storage (CCSP) research program overview
This document provides an overview of Carbon Capture and Storage (CCS) technologies and research in Finland. It defines CCS as the capture, transportation, and storage of carbon dioxide emissions from power plants and industrial facilities to reduce CO2 in the atmosphere. It then outlines Finland's Carbon Capture and Storage Program from 2011-2015 that involves industry and research partners developing CCS concepts and technologies, with a goal of pilots and demonstrations. Key research areas include capture solutions, transportation, storage sites in the Baltic Sea, utilization of CO2, and regulatory frameworks. Recent projects developed new seismic sensors to monitor CO2 storage and a process to convert steelmaking waste into calcium carbonate.
Emirates Steel Industry Carbon Capture Usage & Storage Project and ADNOC Ruma...
Emirates Steel Industry Carbon Capture Usage & Storage Project and ADNOC Ruma...Global CCS Institute
The document outlines two carbon capture, usage, and storage projects in Abu Dhabi: the Emirates Steel Industry CCUS Project and the ADNOC Rumaitha/Bab CO2 Project. It discusses the drivers for CCUS in Abu Dhabi including meeting strategic gas demand, environmental commitments, leadership in CCUS, and commitment to clean energy. It provides an overview of the technical aspects of the two projects including CO2 capture at Emirates Steel, compression, transportation via pipeline, and injection at Rumaitha for enhanced oil recovery. Execution involves Masdar and ADNOC working on the different components, and there is potential for future CCUS projects linked to ADNOC's CO2 demand.Carbon capture and storage
Brief study of carbon capture and its storage. All types of CCS are discussed along with its necessity and safety measures.
Introduction to Carbon Capture and Storage
Barry Jones, General Manager - Asia Pacific for the Global CCS Institute, provides an overview of carbon capture and storage technology including its rationale and a summary of current projects. The presentation also examines impediments to its deployment and recommendations for how to overcome them.
Carbon capture and storage
Carbon Capture and Storage (CCS) aims to reduce CO2 emissions from large sources like power plants. It involves three steps: CO2 capture using technologies like post-combustion, pre-combustion, or oxy-fuel combustion; transportation mostly via pipelines; and geological storage in oil/gas reservoirs, unmineable coal beds, or saline aquifers. Challenges include the costs of infrastructure and risk of leakages from transportation or storage affecting the environment. CCS could help mitigate climate change but drawbacks need to be addressed.
CARBON CAPTURE AND STORAGE
Carbon capture and storage (CCS) is a technology that captures up to 90% of carbon dioxide emissions from fossil fuel power plants and industrial facilities before they enter the atmosphere. It consists of three parts: capturing CO2 through pre-combustion, post-combustion, or oxy-fuel combustion; transporting the captured CO2 via pipelines or ships; and storing the CO2 deep underground in porous rock formations. There are currently four commercial-scale CCS plants operating globally. While CCS could reduce CO2 emissions by 80-90% compared to plants without it, it also increases energy costs and requires significant energy to capture and compress the CO2.
UNDERSTANDING THE IMPLEMENTATION OF CCUS BUSINESS CASE
The document summarizes technologies for building a carbon capture, utilization, and storage (CCUS) value chain. It describes current mature carbon capture technologies like amine-based capture and discusses future developments. It outlines the full CCUS process from capture to transportation, purification, liquefaction, and storage. Industrial hubs around the North Sea are positioned to be early parts of the CCUS value chain due to existing infrastructure and proximity to storage in the North Sea. Technologies are at a commercial level to design an integrated CCUS network, with the largest opportunities in northwest Europe.
Scientific Facts on CO2 Capture and Storage
Carbon dioxide (CO2) is a major greenhouse gas that contributes to Earth’s global warming. Over the past two centuries, its concentration in the atmosphere has greatly increased, mainly because of human activities such as fossil fuel burning.
One possible option for reducing CO2 emissions is to store it underground. This technique is called Carbon dioxide Capture and Storage (CCS).
How does it work? Could it really help addressing climate change?
Introduction to Carbon Capture and Storage.docx
Carbon Capture and Storage (CCS) involves capturing carbon dioxide emissions from sources like power plants and factories, transporting it, and storing it underground to prevent it from entering the atmosphere and contributing to global warming. CCS aims to address the large volumes of CO2 produced by industries that account for much of the world's greenhouse gas emissions. The CCS process typically consists of three stages - capturing CO2, transporting it via pipelines, and injecting it into geological formations like depleted oil and gas reservoirs for secure, long-term storage. While CCS faces challenges like costs and public acceptance, it offers a promising solution for reducing emissions and enabling continued fossil fuel use during the transition to renewable energy.
Contenu connexe
Tendances
CO2 Capture and Storage (CCS) Model PTKS
This document discusses strategies for carbon capture and storage as well as carbon dioxide utilization at PT Krakatau Steel in Indonesia. It analyzes models for CO2 capture from steel production and power plants, as well as sequestration methods like injection into geological formations or for enhanced oil recovery. Utilization strategies examined include microalgae cultivation for biofuels, seaweed farming to sequester carbon, and thermal decomposition of CO2 into synthesis gas. The document provides an overview of these various carbon reduction program options and references supporting literature.
Carbon capture and storage
This document discusses carbon capture and storage (CCS) technologies. It describes different carbon capture methods such as pre-combustion, post-combustion, and cryogenic capture. Post-combustion requires large volumes of solvent and can produce toxic byproducts. Pre-combustion has high construction costs and decreased flexibility. The captured carbon is then transported via pipelines and stored geologically. However, CCS projects face economic challenges like a lack of market incentives and need for large storage volumes. While CCS could enable a transition away from fossil fuels, the technology has yet to be widely implemented due to these technical and economic difficulties.
Perspectives on the role of CO2 capture and utilisation (CCU) in climate chan...
Perspectives on the role of CO2 capture and utilisation (CCU) in climate chan...Global CCS Institute
Achieving the target set during COP21 will require the deployment of a diverse portfolio of solutions, including fuel switching, improvements in energy efficiency, increasing use of nuclear and renewable power, as well as carbon capture and storage (CCS).
It is in the context of CCS that carbon capture and utilisation (CCU), or conversion (CCC), is often mentioned. Once we have captured and purified the CO2, it is sometimes argued that we should aim to convert the CO2 to useful products such as fuels or plastics, or otherwise use the CO2 in processes such as enhanced oil recovery (CO2-EOR). This is broadly referred to as CCU.
In this webinar, Niall Mac Dowell, Senior Lecturer (Associate Professor) in the Centre for Process Systems Engineering and the Centre for Environmental Policy at Imperial College London, presented about the scale of the challenge associated with climate change mitigation and contextualise the value which CO2 conversion and utilisation options can provide.Carbon Capture And Storage
Carbon capture and storage aims to prevent CO2 emissions from large stationary sources like power plants from entering the atmosphere. It involves capturing about 90% of CO2 emissions, compressing and transporting it, then permanently storing it underground. CO2 can be stored in deep saline formations or depleted oil and gas fields, where it becomes trapped between rock grains and in the pores of reservoir rocks. Several CCS projects have already stored millions of tons of CO2 underground for decades. While CCS could help slow the rise of atmospheric CO2, it is still a relatively new technology that requires further development and legal/regulatory frameworks to become widely implemented.
Carbon Capture and Storage
Carbon capture and storage (CCS) involves three main steps: (1) capturing CO2, typically at fossil fuel power plants or industrial sites; (2) transporting the captured CO2 via pipelines; and (3) depositing and storing the CO2 in underground geological formations to prevent it from entering the atmosphere. There are three main methods for carbon capture - pre-combustion, post-combustion, and oxy-fuel combustion. New absorbent systems being researched include liquid-liquid biphasic systems using solvents with lower critical solution temperatures and liquid-solid systems using solutions of amines and ethanol or emulsions of amines and ionic liquids. Once captured, CO2 can be
Carbon Capture and Storage breakfast seminar
Tony Booer, Director of Schlumberger Carbon Services speaks at Blake Lapthorn's Green Breakfast on Carbon Capture and Storage
The path to net-zero emissions
My presentation at the "Third Annual Conference of the Transatlantic University Collaboration for Climate and Energy Law" on 28 April 2021 in Oslo https://www.jus.uio.no/nifs/english/research/events/2021/04-28-tucccel.html
Carbon Capture & Storage
This document discusses carbon capture and storage (CCS) as a solution to reducing CO2 emissions and global warming. It covers various aspects of CCS including CO2 capture technologies like post-combustion capture using solvents, compression and transport of captured CO2, and geological storage options in saline aquifers or for enhanced oil recovery. The high cost of CCS technologies is also addressed.
What does net-zero emissions mean?
A presentation on net-zero CO2 and GHG emissions. I focus mainly on the conceptual background, discussing also the role of Carbon Dioxide Removal and offsets... Details https://klimastiftelsen.no/arrangement/klimafrokost-hva-betyr-netto-nullutslipp-i-2050-for-beslutninger-og-investeringer-i-dag/
Carbon Capture, Utilization and Storage (CCUS)
This document provides an overview of carbon capture, utilization, and storage (CCUS) technologies from a presentation. It defines key CCUS terms and concepts, describes the physics and geology of CO2 storage, reviews CO2 transport and storage methods like pipelines and shipping, and discusses CO2 utilization options. The presentation aims to illustrate how CCUS can help address global warming by keeping CO2 out of the atmosphere while also creating economic opportunities for the petroleum industry.
carbon capture and sequestration
Carbon capture and storage (CCS) involves capturing CO2 emissions from large stationary sources like power plants, transporting it, and storing it away from the atmosphere. There are three main technologies for capturing CO2: post-combustion, pre-combustion, and oxy-fuel combustion. Transportation is usually via pipelines or ships. Storage options include injecting CO2 deep underground in geological formations like depleted oil and gas fields, or under the seafloor. CCS aims to reduce pollution and climate change impacts while enhancing oil recovery, though it is an expensive process with risks of leakage.
The role of CCS/CCUS in the Climate Action Plan - Dr S. Julio Friedmann
The role of CCS/CCUS in the Climate Action Plan
Global CCS Institute, delivered at the Global CCS Institute's Third Americas Forum
Feb. 27th, 2014, Washington, DC
carbon capture and storage
Khushboo Choudhary presented on carbon capture and storage (CCS) technology. The presentation covered: (1) the basic CCS process involving capturing CO2 at large emission sources, transporting it, and storing it long-term underground; (2) the three main capture systems - pre-combustion, post-combustion, and oxy-fuel combustion; (3) methods of transporting and storing CO2; (4) current CCS projects around the world; and (5) remaining challenges for CCS including costs, uncertainties about long-term storage, and need for more research.
Carbon Capture and Storage (CCSP) research program overview
This document provides an overview of Carbon Capture and Storage (CCS) technologies and research in Finland. It defines CCS as the capture, transportation, and storage of carbon dioxide emissions from power plants and industrial facilities to reduce CO2 in the atmosphere. It then outlines Finland's Carbon Capture and Storage Program from 2011-2015 that involves industry and research partners developing CCS concepts and technologies, with a goal of pilots and demonstrations. Key research areas include capture solutions, transportation, storage sites in the Baltic Sea, utilization of CO2, and regulatory frameworks. Recent projects developed new seismic sensors to monitor CO2 storage and a process to convert steelmaking waste into calcium carbonate.
Emirates Steel Industry Carbon Capture Usage & Storage Project and ADNOC Ruma...
Emirates Steel Industry Carbon Capture Usage & Storage Project and ADNOC Ruma...Global CCS Institute
The document outlines two carbon capture, usage, and storage projects in Abu Dhabi: the Emirates Steel Industry CCUS Project and the ADNOC Rumaitha/Bab CO2 Project. It discusses the drivers for CCUS in Abu Dhabi including meeting strategic gas demand, environmental commitments, leadership in CCUS, and commitment to clean energy. It provides an overview of the technical aspects of the two projects including CO2 capture at Emirates Steel, compression, transportation via pipeline, and injection at Rumaitha for enhanced oil recovery. Execution involves Masdar and ADNOC working on the different components, and there is potential for future CCUS projects linked to ADNOC's CO2 demand.Carbon capture and storage
Brief study of carbon capture and its storage. All types of CCS are discussed along with its necessity and safety measures.
Introduction to Carbon Capture and Storage
Barry Jones, General Manager - Asia Pacific for the Global CCS Institute, provides an overview of carbon capture and storage technology including its rationale and a summary of current projects. The presentation also examines impediments to its deployment and recommendations for how to overcome them.
Carbon capture and storage
Carbon Capture and Storage (CCS) aims to reduce CO2 emissions from large sources like power plants. It involves three steps: CO2 capture using technologies like post-combustion, pre-combustion, or oxy-fuel combustion; transportation mostly via pipelines; and geological storage in oil/gas reservoirs, unmineable coal beds, or saline aquifers. Challenges include the costs of infrastructure and risk of leakages from transportation or storage affecting the environment. CCS could help mitigate climate change but drawbacks need to be addressed.
CARBON CAPTURE AND STORAGE
Carbon capture and storage (CCS) is a technology that captures up to 90% of carbon dioxide emissions from fossil fuel power plants and industrial facilities before they enter the atmosphere. It consists of three parts: capturing CO2 through pre-combustion, post-combustion, or oxy-fuel combustion; transporting the captured CO2 via pipelines or ships; and storing the CO2 deep underground in porous rock formations. There are currently four commercial-scale CCS plants operating globally. While CCS could reduce CO2 emissions by 80-90% compared to plants without it, it also increases energy costs and requires significant energy to capture and compress the CO2.
UNDERSTANDING THE IMPLEMENTATION OF CCUS BUSINESS CASE
The document summarizes technologies for building a carbon capture, utilization, and storage (CCUS) value chain. It describes current mature carbon capture technologies like amine-based capture and discusses future developments. It outlines the full CCUS process from capture to transportation, purification, liquefaction, and storage. Industrial hubs around the North Sea are positioned to be early parts of the CCUS value chain due to existing infrastructure and proximity to storage in the North Sea. Technologies are at a commercial level to design an integrated CCUS network, with the largest opportunities in northwest Europe.
Tendances (20)
Perspectives on the role of CO2 capture and utilisation (CCU) in climate chan...
Perspectives on the role of CO2 capture and utilisation (CCU) in climate chan...
The role of CCS/CCUS in the Climate Action Plan - Dr S. Julio Friedmann
The role of CCS/CCUS in the Climate Action Plan - Dr S. Julio Friedmann
Carbon Capture and Storage (CCSP) research program overview
Carbon Capture and Storage (CCSP) research program overview
Emirates Steel Industry Carbon Capture Usage & Storage Project and ADNOC Ruma...
Emirates Steel Industry Carbon Capture Usage & Storage Project and ADNOC Ruma...
UNDERSTANDING THE IMPLEMENTATION OF CCUS BUSINESS CASE
UNDERSTANDING THE IMPLEMENTATION OF CCUS BUSINESS CASE
Similaire à Carbon Capture and Storage
Scientific Facts on CO2 Capture and Storage
Carbon dioxide (CO2) is a major greenhouse gas that contributes to Earth’s global warming. Over the past two centuries, its concentration in the atmosphere has greatly increased, mainly because of human activities such as fossil fuel burning.
One possible option for reducing CO2 emissions is to store it underground. This technique is called Carbon dioxide Capture and Storage (CCS).
How does it work? Could it really help addressing climate change?
Introduction to Carbon Capture and Storage.docx
Carbon Capture and Storage (CCS) involves capturing carbon dioxide emissions from sources like power plants and factories, transporting it, and storing it underground to prevent it from entering the atmosphere and contributing to global warming. CCS aims to address the large volumes of CO2 produced by industries that account for much of the world's greenhouse gas emissions. The CCS process typically consists of three stages - capturing CO2, transporting it via pipelines, and injecting it into geological formations like depleted oil and gas reservoirs for secure, long-term storage. While CCS faces challenges like costs and public acceptance, it offers a promising solution for reducing emissions and enabling continued fossil fuel use during the transition to renewable energy.
239807518 ccs-report-for-print
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Carbon Sequestration the Need of Humanity
Carbon sequestration is the process involved in carbon capture and the long-term storage of atmospheric carbon dioxide (CO
2)[1] and may refer specifically to:
"The process of removing carbon from the atmosphere and depositing it in a reservoir."[4] When carried out deliberately, this may also be referred to as carbon dioxide removal, which is a form of geoengineering.
Carbon capture and storage, where carbon dioxide is removed from flue gases (e.g., at power stations) before being stored in underground reservoirs.
Natural biogeochemical cycling of carbon between the atmosphere and reservoirs, such as by chemical weathering of rocks.
Carbon Capture & Storage
This document presents information on carbon capture and storage (CCS). It defines CCS as a process to separate CO2 from large industrial sources, transport it, and store it long-term to isolate it from the atmosphere. It discusses why CCS is needed to address rising CO2 levels and potential climate change. It also outlines the key components of CCS - carbon capture techniques, storage options like depleted oil/gas fields and saline aquifers, and costs. Finally, it briefly describes some existing CCS projects around the world.
CCS_Vivek Kumar_NEERI
Carbon dioxide capture, storage, and sequestration (CCS) involves three key steps: (1) capturing CO2 from large stationary sources like power plants, (2) transporting the captured CO2, and (3) storing it in underground geological formations or mineralizing it through chemical reactions. The document discusses methods for CO2 capture including absorption, adsorption, membranes, and cryogenics. It also addresses challenges like cost, efficiency losses during capture, and developing more effective materials. Storage relies on trapping CO2 in porous rock formations through mechanisms like structural traps or dissolution into water. Sequestration aims to permanently remove CO2 from the atmosphere through natural sinks like forests or converting it to
carbon capture webinar
Carbon capture and storage has the potential to allow continued use of fossil fuels while mitigating climate change. It involves capturing carbon dioxide emissions from large point sources like power plants, compressing and transporting the CO2 via pipeline, and injecting it into deep geological formations for long-term storage. While the technology is possible with current science, large-scale demonstration projects are still needed to reduce costs and prove safety and effectiveness. If a policy framework creates incentives to reduce carbon emissions, carbon capture and storage at the scale of the oil and gas industry could cost around $1 trillion annually but help achieve climate goals.
carbon_capture_storage_webinar.ppt
Carbon capture and storage has the potential to allow continued use of fossil fuels while mitigating climate change. It involves capturing carbon dioxide emissions from large point sources like power plants, compressing and transporting the CO2 via pipeline, and injecting it into deep geological formations for long-term storage. While the technology is possible with current knowledge, large-scale implementation faces challenges of high costs estimated at $1 trillion per year globally, an incomplete legal framework, and open questions about safety and permanent storage that require further study. Pilot projects demonstrate the technical feasibility of capturing CO2 and storing it underground, like the Sleipner gas field in Norway that has stored over 1 million tons of CO2 annually since 1996.
carbon_capture_storage_webinar (1).ppt
Carbon capture and storage has the potential to allow continued use of fossil fuels while mitigating climate change. It involves capturing carbon dioxide emissions from large point sources like power plants, compressing and transporting the CO2 via pipeline, and injecting it into deep geological formations for long-term storage. While the technology is possible with current knowledge, large-scale implementation faces challenges of high costs estimated at $1 trillion per year globally, an incomplete legal framework, and open questions about safety and permanent storage that require further study. Pilot projects demonstrate the technical feasibility of capturing CO2 and storing it underground, like the Sleipner gas field in Norway that has stored over 1 million tons of CO2 annually since 1996.
carbon_capture_storage_webinar.ppt
Carbon capture and storage has the potential to allow continued use of fossil fuels while mitigating climate change. It involves capturing carbon dioxide emissions from large point sources like power plants, compressing and transporting the CO2 via pipeline, and injecting it into deep geological formations for long-term storage. While the technology is possible with current knowledge, large-scale implementation faces challenges of high costs estimated at $1 trillion per year globally, an incomplete legal framework, and open questions about safety and permanent storage that require further study. Pilot projects demonstrate the technical feasibility of capturing CO2 and storing it underground, like the Sleipner gas field in Norway that has stored over 1 million tons of CO2 annually since 1996.
carbon capture storage.pdf
As that known carbon dioxide recorded high level of this last years and as agreed in IPCC, that must take serious steps to prevent it and, carbon capture storage is the best candidate thing that has can be done to this issue.
Health, Safety and Environment Aspects of Carbon dioxide Sequestration | By: ...
This document summarizes a presentation on the health, safety, and environmental aspects of carbon dioxide sequestration. It discusses what carbon dioxide sequestration is, the risks associated with it, and how those risks can be monitored and mitigated. Specifically, it covers the properties of CO2, hazards of exposure to humans, potential leakage issues, monitoring technologies like intelligent pigs and SCADA systems, and historical accidents involving CO2 releases. Regulatory frameworks and conclusions on ensuring safe sequestration projects are also mentioned.
Capture of carbondioxide , entrapement of Co2
This document summarizes a seminar presentation on carbon dioxide (CO2) capture. It discusses how CO2 emissions have rapidly increased due to population growth and energy consumption. There are three main options to reduce CO2 emissions: improving energy efficiency, switching to non-fossil fuel energy sources, and developing carbon capture and storage (CCS) technologies. The document then describes the three main methods of CCS - pre-combustion, post-combustion, and oxyfuel combustion. It also discusses transporting the captured CO2 via pipelines and storing it underground through geo-sequestration in depleted oil fields, aquifers, and other rock formations. The advantages and disadvantages of CCS technologies are
From CO2 to Coal: Turning Back the Clock
Over the much longer term, global warming could cause countless animal extinctions and even threaten the very existence of mankind itself. Thankfully, several leading solutions are being developed that could rewind the CO2 emissions clock. While scrubbing carbon dioxide from the air might seem impossible, it is very close to becoming a reality.
Shashi report
This document discusses carbon dioxide capture in the cement industry using calcium looping technology. It provides background on CO2 emissions from cement production and discusses calcium looping (CaL) as a promising option for CO2 capture. The key points are:
1. CaL involves the reversible reaction of CO2 with CaO to form CaCO3, with regeneration of CaO in an oxy-fired calciner. This allows for efficient CO2 capture with low energy penalties compared to other methods.
2. Integrating CaL with cement plants is attractive as cement facilities already handle CaO materials and CaO purge could be used in cement production.
3. Studies show CaL may be the most appropriate CO2 capture
Carbondioxideremovalcdrintheatmosphere 141228031039-conversion-gate01
This document discusses various carbon dioxide removal (CDR) methods that can reduce CO2 levels in the atmosphere. It outlines technologies such as bioenergy with carbon capture and storage (BECCS), biochar, direct air capture using artificial trees or scrubbing towers, ocean fertilization, and enhanced weathering. BECCS is currently the only method deployed at an industrial scale, capturing 550,000 tons of CO2 per year. Other methods discussed include biochar production from biomass pyrolysis, artificial trees that can absorb more CO2 than natural trees, and scrubbing towers that use chemical processes to remove CO2 from air.
This paper was prepared by Dr Steve Whittaker and Dr Ernie Per
This paper was prepared by Dr Steve Whittaker and Dr Ernie Perkins, respectively Principal
Manager–Carbon Storage and Consultant–Projects, during their time at the Institute.
October 2013
Version Final 2
1.1 Background
The injection of carbon dioxide into oil fields is one method of enhancing oil recovery that has been used
commercially for more than 40 years. For enhanced oil recovery (EOR), carbon dioxide gas (CO2) is
compressed at surface and injected as a liquid into the oil reservoir at depth where it effectively acts as a
solvent to increase the amount of oil that can be produced from the field. Typically, CO2 EOR is a tertiary
method applied to reservoirs that have declining oil production and that have progressed through primary
and secondary production stages.
Primary production uses the reservoirs’ natural pressure to drive the oil to surface whereas secondary
production typically involves pumping the oil to surface and injection of water to restore or increase reservoir
pressure to drive oil production. The reason CO2 is used in a tertiary method is because water does not mix
with the oil (they are immiscible) whereas CO2 and oil can mix (they are miscible) at reservoir conditions.
This results in the oil becoming less viscous so that it flows more easily. Very generally, if a secondary water
injection program is successful, it bodes well for a CO2 EOR program being successful. It must be noted that
not all oil fields are suitable for CO2 injection as oil composition, depth, temperature and other reservoir
characteristics significantly influence the effectiveness of this method (Melzer, 2012).
The amount of oil that can be recovered during the different production stages is again highly dependent on
the nature of the geological reservoir and oil composition, but in very general terms fields typically targeted
for CO2 EOR have had primary recovery of about 10–20 per cent of the original oil in place, secondary
recovery of an additional 10–20 per cent, and expectations from CO2 EOR of another 10–20 per cent. Thus
CO2 EOR provides an opportunity to improve the efficiency of resource extraction and clearly can lead to
significant economic benefits through sales from additional oil production and through extending the
productive life of suitable oil fields by decades. An additional noteworthy benefit of this method is that when
the CO2 mixed with the oil is produced it can be separated and re-injected and ultimately retained in the
reservoir so that incidental geological storage of CO2 is an intrinsic part of the overall process.
A number of excellent overview papers on the geological and engineering aspects CO2 EOR, including
potential for storage, have been released recently (such as Hill et al, 2013; National EOR Initiative, 2012;
Melzer, 2012; Berenblyum et al. 2011; Kuuskraa et al. 2011; and Hovorka and Tinker, 2010).
Currently, about 130 commercial CO2 EOR operations, ...
Progressing CCS - From source to use: the role of fossil fuels in delivering...
Progressing CCS - From source to use: the role of fossil fuels in delivering...UK Carbon Capture and Storage Research Centre
Progressing CCS - From source to use: the role of fossil fuels in delivering a sustainable energy future. Presented by Jon Gibbins at the UNECE Committee on Sustainable Energy, Geneva, 19-20 November 20142013 iea - potential for CO2 storage in oil gas shale reservoirs
The document discusses potential implications of gas production from shales and coals for geological storage of CO2. It finds that exploiting gas from shales and coals increases permeability and injectivity, potentially enhancing CO2 storage capacity. However, large-scale demonstration is still needed to confirm CO2 storage capabilities and capacities. Overlap between potential shale gas areas and saline aquifer storage sites may be considerable geographically but less so in 3D, so both resources could be used with care. Injectivity issues like coal swelling upon CO2 injection require further research.
Carbon capture and sequestration
Severe concerns over the consequences of climate change may lead us to make a forced choice between energy and environment. Averting such a crisis will be difficult, because fossil energy resources are an essential part of the world’s energy supply and climate change is mainly driven by the build-up of carbon dioxide in the atmosphere.
Carbon capture and sequestration is a boon in a carbon constrained world and a study of this topic may help us understand more about this process and its importance in today's world. In this presentation, I have tried to highlight the important steps involved in the overall process of carbon capture and sequestration and it is supported by some graphs.
Similaire à Carbon Capture and Storage (20)
Health, Safety and Environment Aspects of Carbon dioxide Sequestration | By: ...
Health, Safety and Environment Aspects of Carbon dioxide Sequestration | By: ...
Carbondioxideremovalcdrintheatmosphere 141228031039-conversion-gate01
Carbondioxideremovalcdrintheatmosphere 141228031039-conversion-gate01
This paper was prepared by Dr Steve Whittaker and Dr Ernie Per
This paper was prepared by Dr Steve Whittaker and Dr Ernie Per
Progressing CCS - From source to use: the role of fossil fuels in delivering...
Progressing CCS - From source to use: the role of fossil fuels in delivering...
2013 iea - potential for CO2 storage in oil gas shale reservoirs
2013 iea - potential for CO2 storage in oil gas shale reservoirs
Plus de Dr. Salem Baidas
Water Pollution
May 2024. Water pollution, also known as marine pollution, is the contamination of water sources by substances that make it unusable for human activities and disrupt aquatic ecosystems.
Major contributors of water pollution include industrial waste, agriculture and farming, accidental oil spills, sewage, and marine dumping.
The effects of water pollution include severe health issues, economic disruption, and disrupting the food chain.
Water pollution affects both surface and groundwater sources, with groundwater pollution causing unsafe use and surface water pollution affecting all water sources above ground.
Types of water pollution include chemical, physical, and nutrient-rich fertilizers.
Water pollution control, prevention, and mitigation strategies include effective wastewater treatment, stormwater management, soil and sediment erosion control, organic farming, biodegradable plastics, and water conservation.
Deforestation
May 2024. Deforestation is the permanent removal of trees from forests. It includes land clearing for farming, livestock, and timber use for fuel, building, and manufacturing.
Causes of Deforestation:
(1) Natural Causes of deforestation include wildfires, hurricanes, droughts, invasive species, tree diseases, and parasites.
(2) Man-Made causes of deforestation include logging, agriculture, livestock farming, wood plantations, energy and mining activities, and urbanization.
Effects of Deforestation include:
(1) Biodiversity Loss: Animals lose their habitat and are unable to survive.
(2) Soil Degradation: Loss of trees to fertilize the soil.
(3) Global Warming: Tree logging releases carbon stored in trees into the atmosphere.
In this slideshow, you will learn about the Definition, Causes, Effects, Mitigation Strategies, UN policy, and Global Statistics of Deforestation.
Climate Change
May 2024. Climate change is a long-term shift in weather conditions, causing sea level rise and global warming.
Climate change is caused by greenhouse gases (GHGs), including carbon dioxide, methane, and nitrogen oxide.
Indicators of climate change include greenhouse gas concentrations, global air temperatures, sea levels, and glacier melting rates.
Effects of climate change include rising global air and ocean temperatures, melting ice sheets, rising sea levels, biodiversity loss, deforestation, floods, and droughts.
Climate change mitigation strategies include renewable energy, electric vehicles, reforestation, pollution reduction, clean, sustainable fuels, carbon capture technologies, and a circular economy.
In this slideshow, you will learn about the definition, indicators, causes, effects, mitigation, UN policy, and global statistics of climate change.
For more slideshows on environmental sustainability, please visit www.s2adesign.com
Green Marketing
May 2024. Green Marketing, or Sustainable Advertising, promotes environmentally friendly business practices, products, or services, highlighting corporate and brand commitments to sustainability.
It offers benefits such as brand recognition, competitive advantage, positive social impact, regulatory compliance, increased revenue, reduced environmental impact, and enhanced climate change resilience.
Challenges include greenwashing risk, lack of standards, complex logistics, and lack of awareness.
Solutions include transparency, developing internal standards, collaborating with suppliers, and launching campaigns to raise awareness.
Green marketing strategies include sustainable eco-friendly products, digital advertising, and paper recycling programs.
The three Pillars of Green Marketing are environmental, social, and economic. The United Nations launched the ActNow green campaign in 2018 to encourage sustainable behavior and environmental protection.
Sustainable Packaging
May 2024. Sustainable Packaging, also called Green Packaging, or eco-friendly Packaging is a type of packaging that is easily recyclable and manufactured with minimal environmental impact, such as reduced pollution, carbon footprint, and energy consumption.
Sustainable Packaging Features:
(1) Easily recyclable, repulpable, or compostable.
(2) Contains Post Consumer Recycled (PCR) materials.
(3) Minimum packaging weight is achieved with barrier coatings.
(4) Designed with high Biorenewable content.
Sustainable Packaging Benefits and Advantages:
(1) Environment: Saves on resource and energy costs. Increases revenue as eco-conscious consumers choose sustainable products.
(2) Social: Improves health, well-being, and social responsibility of consumers as sustainable packaging produces less waste and pollution.
(3) Economy: Saves on resource and energy Costs. Increases revenue as eco-conscious consumers choose sustainable products.
Sustainable Packaging Challenges and Solutions:
(1) Cost: Sustainable packaging is usually more expensive than conventional packaging options.
Solution: The high initial cost of sustainable packaging is offset by cost savings from reduced waste and energy consumption.
(2) Compatibility: Sustainable packaging may not be suitable for certain products that require special protection, or have specific packaging requirements.
Solution: Develop alternative packaging materials that meets product specifications while still being sustainable.
(3) Logistics: Implementing sustainable packaging requires changes to logistics and supply chain which can be challenging to coordinate.
Solution: Work with suppliers and logistics providers to develop and implement sustainable packaging solutions.
(4) Policies: Sustainable packaging is subject to various policies and regulations which can be complex depending on the region.
Solution: Get familiar with policies and regulations and collaborate with policymakers and experts to ensure compliance.
(5) Awareness: Consumers lack awareness and education about sustainable packaging.
Solutions: Launch marketing campaigns to educate and raise awareness about the benefits of sustainable packaging.
Policy wise, in 2019, SoScience and Perrier Inc. launched "the future of positive packaging" to promote sustainable packaging solutions through multi-stakeholder cooperation. Sustainable packaging directly supports Sustainable Development Goal (SDG12): Ensure sustainable consumption and production patterns.
In this slideshow, you will learn about the Definition, Features, Benefits, Challenges, Solutions, UN policy, and Global Statistics of Sustainable Packaging.
For more slideshows on environmental sustainability, please visit www.s2adesign.com
E Waste Management
May 2024. Electronic waste (E-waste) is discarded electronics generated by industries and consumers, including IT, healthcare, and automotive.
E-waste takes thousands of years to decompose and contains toxic chemicals, highlighting the importance of proper e-waste management and recycling.
E-waste pollution is caused by the improper disposal of e-waste.
E-waste pollution affects human health, wildlife, the food chain, the environment, and climate change.
In 2018, seven UN agencies signed a letter of intent to enhance cooperation in e-waste management.
The International Telecommunication Union is implementing e-waste management policies and supporting Sustainable Development Goals.
Green Banking
May 2024. Green Banking, also called Sustainable Banking, or Sustainable Financing, promotes environmentally friendly practices, and reduces the carbon footprint in banking activities by adopting green initiatives and projects.
Green Banks are mission-driven institutions that use innovative financing strategies to accelerate the clean energy transition towards net-zero emissions by 2050.
Green banking Benefits and Advantages:
(1) Environmental: Reduces energy use, water use and carbon emissions, while using renewable energy to minimize the environmental impact.
(2) Distinction and Recognition: Enhances competitive advantage by promoting low carbon investments, attracting eco-conscious customers and generating revenue.
(3) Transparency: Builds trust and loyalty among customers by regularly publishing financial and sustainability reports on investments and carbon footprint.
(4) SDG Alignment: Contributes to a sustainable future by promoting a just transition towards net zero emissions and reducing exposure to unsustainable activities.
Green banking Challenges and Solutions:
(1) Higher Cost: Requires a highly skilled and experienced staff, including loan officers to provide access to green financing services.
Solution: The high cost of highly skilled staff is offset by cost savings from reduced energy and paper consumption.
(2) Lack of Diversification: Will restrict business to meet sustainability requirements, resulting in a smaller customer base and lower profit margins.
Solution: Green banks are more appealing to investors and lenders attracting new funding sources and diversifying their funding base.
(3) Risk of Greenwashing: Significantly reduces the effectiveness of green banking strategies and can harm reputation and long-term growth.
Solution: By adhering to sustainability regulations, green banks can mitigate greenwashing risk and focus on their core business operations.
(4) Complex Policies: Subject to complex policies and regulations. Compliance requires implementing time-consuming and expensive procedures.
Solution: Review policies and regulations and collaborate with regulators and policymakers to ensure compliance.
Green banking Products include Green Car Loans, Green Home Loans, Green Mortgages, and Green Savings and Bonds.
Green banking Services include Paperless Billing, Online Banking, and Remote Deposit Capture (RDC).
Policy wise, in 2021, the Net-Zero Banking Alliance (NZBA) was established by 43 United Nations (UN) members. The NZBA alliance brings together banks committed to aligning their operations with the goal of reaching net-zero emissions by 2050.
In this slideshow, you will learn about the definition, benefits, challenges, solutions, products, services, strategies, UN policy, and global statistics of Green Banking and Sustainable Financing.
For more slideshows on environmental sustainability, please visit www.s2adesign.com
Sustainable Clothing Strategies and Challenges
May 2024. Sustainable Clothing, also called Sustainable Fashion, or Sustainable Apparel, is a type of clothing that is designed, manufactured, marketed, worn, and recycled with minimal impact on the environment, such as reduced waste, carbon emissions and energy consumption.
Sustainable clothing is made of biodegradable materials derived from natural or recycled fabric, which reduces energy, water, emissions, and chemical consumption, lowering the overall carbon footprint and pollution.
Sustainable clothing benefits and advantages:
(1) Economic: Saves on resource and energy costs. Increases revenue as environmentally conscious consumers choose sustainable clothing.
(2) Social: Improves the health, well-being, and social responsibility of both employees and consumers.
(3) Environmental: Reduces environmental impact by minimizing carbon footprint and emissions.
(4) Quality: Focuses on producing durable, high-quality clothing, minimizing the need for frequent replacements, and reducing waste.
Sustainable clothing challenges and solutions:
(1) Cost: Sustainable clothing is usually more expensive than traditional non-sustainable clothing options.
Solution: The high initial cost of sustainable clothing is offset by cost savings from reduced waste and energy consumption. Also, high-quality clothes lead to satisfied customers, resulting in repeat purchases, positive reviews, and increased sales and revenue.
(2) Logistics: Implementing sustainable clothing requires changes to logistics and supply chain, which can be challenging to manage.
Solution: Work with suppliers and logistics providers to develop and implement efficient sustainable clothing strategies and procedures.
(3) Policies: Sustainable clothing is subject to various policies and regulations, which can be complex depending on the region.
Solution: Get familiar with policies and regulations and collaborate with policymakers and experts to ensure compliance.
(4) Awareness: Lack of awareness and education promoting sustainable clothing among consumers.
Solution: Launch marketing and educational programs and campaigns to raise awareness about the benefits of sustainable clothing among consumers.
Policy wise, in 2018, at the Fourth United Nations (UN) Environment Assembly in Kenya, the UN Alliance for Sustainable Fashion (UNASF) initiative was adopted to promote projects and policies that align the sustainable fashion value chain with the Sustainable Development Goals (SDGs), directly supporting SDG12: Ensure sustainable consumption and production patterns.
In this slideshow, you will learn about the definition, features, benefits, advantages, challenges, solutions, UN policy, circular economy, and global statistics of Sustainable Clothing and Sustainable Fashion.
For more slideshows on environmental sustainability, please visit s2adesign.com
Smart Grids
January 2024. A Smart Grid is an electrical grid that utilizes advanced communication monitoring and control technologies to optimize energy efficiency, reliability, and environmental sustainability. Smart grid technologies enables the effective management and distribution of renewable energy sources. By leveraging the Internet of Things (IoT), a smart grid connects a variety of energy sources to the electricity grid.
Demand for electricity is expected to rise as a result of the clean energy transition, urban expansion, and population growth. Smart grid technologies can meet the increased demand by making the grids more efficient, reliable, and resilient. A smart meter is an electronic device that provides detailed consumption data including smart grid status. Smart meter use encourages better energy habits, reduces electricity bills, and improves Quality of Service (QoS).
Compared to conventional grids, smart grids offer many benefits such as emissions and pollution reduction, health and wellbeing improvement, new job creation, and saving on energy, resources, and waste management costs.
However, smart grid adoption faces some challenges, such as privacy issues concerning consumer's usage data and personal information. In addition, smart grids are vulnerable to cyberattacks because they are always connected to the network.
Smart grid technologies include Advanced Metering Infrastructure (AMI), Demand Response (DR), Wide-Area Situational Awareness (WASA), Distributed Energy Resources (DER), and Distribution Management System (DMS). The smart grid value chain includes generation, transmission, distribution, and consumption.
Policy wise, in 2015, the Global Energy Interconnection (GEI) initiative was launched to develop interconnected grids for the transmission and consumption of clean, renewable energy worldwide. GEI is coordinated by the United Nations Department of Economic and Social Affairs (UNDESA) and the Global Energy Interconnection Development and Cooperation Organization (GEIDCO). GEI directly supports Sustainable Development Goals (SDGs) 7 and 9.
In this slideshow, you will learn about the definition, benefits, challenges, technologies, value chain, UN policy, and global statistics of smart grid utilization. For more slideshows on environmental sustainability, please visit s2adesign.com
Green Aviation
January 2024. Green Aviation, also called sustainable aviation, is the pursuit of decarbonizing the aviation industry, making it more environmentally sustainable. It includes green technologies to improve aircraft fuel efficiency and engineering processes to lower carbon emissions and reach net zero worldwide.
Green aviation offers numerous benefits, including reduced pollution, lower carbon emissions, climate change mitigation, cleaner air, health improvements, job creation, and economic growth.
Sustainable Aviation Fuel (SAF) is a liquid fuel used in commercial aviation. SAF use reduces carbon emissions by 80% and can be produced from various sources such as waste oil, food waste, and farming crops.
Green Airport certification is a program for airports demonstrating environmental sustainability. It measures performance in energy efficiency, water consumption, waste management, and air quality. The program was developed by the Airports Council International (ACI).
Policy wise, in 2021, during the Conference of the Parties (COP26), the international aviation climate ambition coalition was launched to unite efforts in decarbonizing the aviation industry via the International Civil Aviation Organization (ICAO) and SDG development supporting Sustainable Aviation Fuel (SAF) deployment and aligning with the Carbon Offsetting and Reduction Scheme for International Aviation (CORSIA).
Green aviation directly supports Sustainable Development Goal SDG11 Target 11.2: Provide access to safe, affordable, accessible, and sustainable transport systems.
In this slideshow, you will learn about the definition, benefits, UN policy, global statistics, and outlook of green aviation. For more slideshows on environmental sustainability, please visit s2adesign.com
Green Building
January 2024. Green Building (GB), or sustainable building, is the practice of creating structures using processes that are environmentally responsible and resource-efficient throughout the building life-cycle: design, construction, operation, maintenance, and demolition. Green building goals are to maximize efficiency, minimize resource consumption, protect health and safety, improve productivity, and reduce the environmental impact.
Green building offers many benefits including energy and resource cost savings, property value increase, government incentives, job creation, improved health for occupants, efficient energy use, and reduced pollution.
However, sustainable green building faces challenges such as high initial costs, lack of political support, public awareness, market demand, and lack of green building expertise.
The Leadership in Energy and Environmental Design (LEED) certificate, developed by the United States Green Building Council (USGBC), is the most widely used green building rating system worldwide. LEED certified buildings are more environmentally friendly than conventional buildings.
Policy wise, in 2006, the United Nations Environment Program (UNEP) launched the Sustainable Buildings and Climate Initiative (SBCI) to promote sustainable building practices worldwide. The World Green Building Council (WorldGBC) cooperates with various organizations to achieve the Paris Agreement goals. Green building development supports Sustainable Development Goal SDG11: make cities and human settlements inclusive, safe, resilient, and sustainable.
In this slideshow, you will learn about the definition, goals, benefits, challenges, LEED certification, UN policy, and global statistics of the green building industry. For more slideshows on environmental sustainability, please visit s2adesign.com
Solid Waste Management
January 2024. Solid Waste (SW), commonly known as trash or garbage, is the waste generated from household consumption. Solid waste sources include homes, businesses, schools, and hospitals.
Solid Waste Management (SWM) is the process of collecting, treating, and disposing of waste in a safe and environmentally sustainable manner.
Solid waste management involves budgeting, planning, organization, and implementation to reduce the health and environmental impacts of solid waste handling and disposal.
The most common methods of solid waste management include landfilling, incineration, composting, and recycling.
Solid waste management process includes four stages: (1) Collection (2) Sorting and segregation (3) Recycling and recovery, and (4) Final disposal in a landfill.
A sustainable solid waste management strategy depends on not creating waste from the beginning by (1) Avoiding wasteful and non-recyclable products (2) Reducing wasteful and non-recyclable products (3) Using compostable or reusable products and, (4) Upcycling, which means using waste products for new functions.
Policy wise, in 1992, the United Nations Environmental Program (UNEP) established the International Environmental Technology Center (IETC) to support the implementation of proper solid waste management systems. IETC aims to optimize the management of solid waste (plastics, electronics, agriculture, and food waste) in countries around the world.
In this slideshow, you will learn about the definition, types, methods, stages, strategies, UN policy, and global statistics of solid waste management. Discover the importance of an effective solid waste management system for public health protection and pollution prevention and the outlook for 2050. For more slideshows on environmental sustainability, please visit s2adesign.com
Biodiversity Loss
January 2024. Biodiversity is defined as the variety of life on earth in all its forms. It comprises the number and genetic variety of organisms, species, and biological ecosystems. Biodiversity is considered in terms of species variety, called species richness.
Biodiversity has many benefits, including revenue from agriculture, forests, fisheries, and tourism, stable food supply, job creation, air and water quality improvements, and climate change mitigation.
Biodiversity Loss is the reduction or extinction of species in a specific habitat, resulting in global biodiversity depletion and ecosystem instability and collapse.
Causes of biodiversity loss include deforestation, habitat loss, overhunting, overfishing, urbanization, pollution, invasive species, and climate change.
Biodiversity loss leads to increased extreme weather events, infectious diseases, increased atmospheric carbon dioxide levels, species extinction, and food production decline.
Strategies to combat biodiversity loss include sustainable forestry and agriculture, public awareness and education, reforestation, habitat restoration, decarbonization, pollution reduction, government policies, renewable energy, and invasive species control.
Policy wise, in 2022, during the United Nations biodiversity conference, the Kunming Montreal Global Biodiversity Framework (GBF) was adopted to mitigate biodiversity loss and to halt overhunting and overfishing, pollution, and unsustainable agricultural practices. The framework promotes green investment and directly supports Sustainable Development Goal SDG15: life on land.
In this slideshow, you will learn about the definition, causes, effects, mitigation strategies, UN policy, and global statistics of biodiversity loss. You will also learn about the importance of global biodiversity in terms of its economic, social, and environmental benefits. For more slideshows on environmental sustainability, please visit s2adesign.com
Sustainable IT
January 2024. Sustainable IT (Information Technology), also called Green IT, includes the development, manufacturing, utilization, management, and disposal of Information Technology in ways that are resource-efficient and environmentally responsible.
Sustainable IT benefits: (1) Cost savings: energy, water, resources, materials, and waste management (2) Enterprise social image enhancement: many customers prefer to buy from businesses with sustainable practices (3) Positive environmental impact: less emissions and waste generation maximized by the use of clean renewable energy sources.
Sustainable IT challenges: (1) High initial costs (2) Lack of green software (3) Lack of coding standards (4) Lack of implementation experience (5) Difficulty in identifying optimum sustainable practices (6) High energy use and emissions during development.
Sustainable IT implementation steps using Artificial intelligence (AI): (1) Reduce emissions and water consumption (2) Improve energy efficiency (3) Monitor compliance (4) Benchmark sustainability efforts (5) Improve social impact and data governance.
A green data center is an enterprise-class data center that is entirely designed, run, and operated using green technologies to maximize energy efficiency and minimize the carbon footprint.
Examples of green technologies include software optimization, artificial intelligence, multi-site resilience, liquid cooling, renewable energy, waste heat utilization, idle time minimization, smart grids, and efficient lighting.
Policy wise, in September 2023, the SDG Digital Summit was launched with the aim of scaling digital SDG solutions through high impact initiatives. The SDG Digital Acceleration Agenda is a collaboration between the International Telecommunication Union (ITU) and the United Nations Development Program (UNDP) that highlights the importance of digital technologies in achieving 70% of the 169 Sustainable Development Goals (SDGs).
In this slideshow, you will learn about the definition, benefits, challenges, green data center, green technologies, UN policy, global statistics, and market value of the sustainable IT industry. For more slideshows on environmental sustainability, please visit s2adesign.com
Sustainable E-Commerce
January 2024. Sustainable E-Commerce (Electronic Commerce) refers to sustainable practices by online retailers to meet market demand while minimizing their negative impact on the environment using sustainable practices in every step of the process: from production to delivery to waste disposal.
Sustainable E-commerce benefits: (1) Economic benefits: cost savings in energy, water, resources, materials, and waste management (2) Social benefits: many customers prefer to purchase from businesses with sustainable practices, enhancing the social image of the business (3) Environmental benefits: less emissions, pollution, and waste generation maximized by the use of clean and renewable energy sources.
Sustainable E-commerce implementation steps: (1) Assess the carbon footprint and set sustainability goals (2) Engage suppliers and help consumers make sustainable choices (3) Measure progress and lead the industry forward on sustainability.
Sustainable E-commerce stakeholders are suppliers, investors, online retailers, consumers, employees, communities, governments, media, and shipping operators.
Sustainable E-commerce strategies include sustainable shipping and packaging, recycling, waste reduction, renewable energy, efficiency increase, and employee training on sustainable practices.
Sustainable E-commerce business growth challenges (barriers) are (1) Production: lack of efficiency in production (2) Logistics: outdated technology (3) Recycling: non-recyclable packaging (4) Companies and resellers: difficulties in sustainable business implementation (4) Consumers' perspective: lack of trust towards business and greenwashing.
Sustainable E-commerce business growth solutions are (1) Production: advanced technology integration such as AI, IoT, and cloud services (2) Logistics: technology solutions such as drones, robots, and green software (3) Recycling: recyclable and biodegradable packaging (4) Companies and resellers: implement sustainable business practices to increase competitive advantage and attract environmentally aware consumers (5) Consumers' perspective: provide information about sustainability to build trust and loyalty.
Policy wise, in 2016, during the United Nations Conference on Trade And Development (UNCTAD), the eTrade for all initiative was established to promote sustainable E-commerce practices around the world.
In this slideshow, you will learn about the definition, benefits, implementation steps, stakeholders, strategies, business growth challenges and solutions, UN policy, and global statistics of sustainable E-commerce adoption. For more slideshows on environmental sustainability, please visit s2adesign.com
Sustainable Food Production
This document discusses sustainable food production. It defines sustainable food production as using non-polluting, efficient, and economically viable processes to farm crops, livestock, poultry, and seafood. It outlines advantages like reducing fossil fuel use and pollution while protecting resources. Challenges include high costs and lack of standards/incentives. The UN aims to improve sustainable food systems through policies ensuring access to nutritious food. Global rankings show most sustainable food in East Asia/Pacific and least in the Middle East and North Africa region.
Sustainable Tourism
January 2024. Sustainable Tourism, or Green Tourism, refers to sustainable practices by the tourism industry to minimize its negative impact on the environment and culture, while contributing to the local economy and ecosystem.
Sustainable tourism goals are (1) Protect natural environments, wildlife, and resources (2) Conserve heritage and culture (3) Create social and economic benefits for communities through employment and income earning.
Sustainable tourism offers many environmental, social, and economic benefits:
(A) Environmental benefits include habitat protection, climate change mitigation, pollution, emission, and waste reduction.
(B) Social benefits include local job creation which supports the community's livelihood and standard of living, food security enhancement, and social responsibility encouragement.
(C) Economic benefits include revenue generation and reduced energy and resource costs.
Sustainable tourism implementation strategies are (1) Analyze social, economic, and cultural needs (2) Measure tourism growth drivers and barriers (3) Use tourism as an asset for economic development and (4) Encourage local involvement in planning and decisions.
Sustainable tourism business growth drivers are (1) Preference change: travelers are shifting their focus from traditional concerns like price, quality, and convenience to social, cultural, and environmental issues (2) Awareness: growing awareness of the importance of protecting the natural and cultural habitat of the destination (3) New trend: sustainable tourism is a new concept which presents significant opportunities in the global tourism industry and (4) Social media: younger generations are embracing sustainable tourism, paying more for environmentally and socially committed businesses.
Sustainable tourism business challenges (barriers) are (1) Overtourism: caused by cheap flights and hotels which lead to increased energy consumption and pollution (3) Higher cost: sustainable tourism is higher in cost, leading to a lower profit margin and decreased market share and (4) Implementation lack: no political will to enforce policies and offer incentives.
Policy wise, In 2002, during the Johannesburg summit, organized by the World Tourism Organization (WTO), the Sustainable Tourism – Eliminating Poverty (ST-EP) initiative was established to promote sustainable tourism strategies, job creation, and poverty reduction. The initiative directly supports Sustainable Development Goal (SDG8) Target 8.9: By 2030, devise and implement policies to promote sustainable tourism which creates jobs, promotes local culture and products.
In this slideshow, you will learn about the definition, goals, economic, social, and environmental benefits, stakeholders, implementation strategies, business growth drivers and challenges, UN policy, and global statistics of sustainable tourism. For more slideshows on environmental sustainability, please visit s2adesign.com
Healthcare Waste Management
January 2024. Healthcare Waste (HCW), also called Medical Waste, refers to the hazardous and non-hazardous waste generated from healthcare facilities, including used needles, blood, body parts, chemicals, diagnostic samples, medical devices, and pharmaceuticals.
HCW sources include hospitals, laboratories, blood banks, dental clinics, ambulance centers, nursing homes, autopsy centers, veterinary clinics, and medical colleges.
Hazardous HCW types include infectious, pathological, pharmaceutical, genotoxic, and radioactive.
Non-hazardous HCW types include paper, plastic packaging, food (organic), aerosols, electronics, and glass.
Improper handling and disposal of HCW has negative impacts on the environment, human health, and on the economy: Incineration of waste produces carbon and GHG emissions, releases harmful pollutants, and can contaminate groundwater. Health risks include transmission of infectious diseases, radiation burns, immune and endocrine system impairment. Economically, lack of recycling leads to increased waste volume and higher landfill costs, while lost productivity is due to health problems associated with exposure to contaminants. Healthcare facilities failing to comply face large fines.
Healthcare Waste Management (HCWM) is defined as the sustainable disposal of HCW using environmentally safe and cost-effective technologies while minimizing health risks associated with waste handling.
A sustainable HCW management strategy aims to avoid creating HCW from the beginning, or minimizing it to a large degree by (1) Using recyclable materials and biodegradable plastics (2) Reusing items such as glass, ceramic cups, and thermometers (3) Reducing packaging and medication waste and (4) Using food waste for compost and biofuel production.
Sustainable HCW management stages are (1) Collection by healthcare facility staff (2) Segregation of waste into regular non-hazardous waste, which will be sent to conventional municipal treatment facilities, and HCW. (3) Transportation of HCW from the healthcare facility to HCW treatment facility (4) Treatment using appropriate methods to achieve desired disinfection and (5) Disposal of treated waste in a HCW designated landfill.
Policy wise, in 2015, the World Health Organization (WHO) and the United Nations Children's Fund (UNICEF) launched a global initiative to ensure adequate water, sanitation and hygiene services in healthcare facilities, including addressing proper HCW treatment. Successful and sustainable global HCW management system can significantly contribute to achieving Sustainable Development Goals (SDGs) 3, 6, 8 ,12, and 13.
In this slideshow, you will learn about the definition, sources, types, effects, sustainable HCW management, UN policy, and global statistics of healthcare waste. For more slideshows on environmental sustainability, please visit s2adesign.com
Smart Farming
January 2024. Smart Farming, or Smart Agriculture, is a modern approach to farming that utilizes information and communication technologies (ICTs) to enhance productivity, optimize human labor, reduce cost, increase revenue, minimize the environmental impact, and enhance sustainability.
Smart farming technologies include sensors, software, connectivity, robotics, and data analytics.
The Internet of Things (IoT) is the driving force behind smart farming, integrating machines and sensors to make farming processes data-driven, automated, and constantly improving. Where Artificial Intelligence (AI) is used in smart farming to enhance harvest quality and accuracy in detecting crop disease and poor nutrition.
The IoT based smart farming cycle stages are observation, diagnostic, decision, and finally, action.
Smart farming applications include precision farming, vertical farming, robotic farming, and Agrivoltaics.
Smart farming stakeholders are suppliers, farmers, retailers, consumers, employees, communities, governments, NGOs, Telecom providers, and smart farming equipment manufacturers.
There are many advantages to using smart farming technologies, such as increased production and yield, waste minimization, accuracy and precision improvements, resource and energy conservation, revenue increase, cost reduction, sustainability enhancement, deficiency identification, and the competitive edge over farms not using smart technologies.
However, there are challenges (barriers) to smart farming adoption, such as poor connectivity and network coverage, difficulties for farmers to analyze large data volumes (big data) across multiple growing seasons, lack of knowledge in setting up complex IoT systems for farmers, tough farming conditions, as equipment must withstand extreme weather conditions, the high cost of cutting-edge equipment requiring costly updates, service, and maintenance.
There are environmental, social, and economic benefits to smart farming utilization, such as emission and pollution reduction, fertilizer and chemical use reduction, new job opportunities, and increased food security for local communities.
Policy wise, in 2019, the Food and Agriculture Organization (FAO) launched the Climate Smart Agriculture (CSA), a sustainable approach to transforming agricultural food systems, aiming to increase productivity, build resilience to climate change, and reduce emissions. CSA supports the Paris Agreement and the Sustainable Development Goals (SDGs).
In this slideshow, you will learn about the definition, technologies, applications, stakeholders, advantages, challenges; environmental, social, and economic benefits, United Nations (UN) policy, and global statistics of smart farming utilization. For more slideshows on environmental sustainability, please visit s2adesign.com
Food Waste Management
This document summarizes information about food waste, including its definition, impacts, management strategies, and global statistics. It notes that food waste has negative environmental impacts through greenhouse gas emissions and resource use, social impacts like reduced food security and health issues, and economic costs of over $1 trillion annually. Sustainable food waste management includes reducing waste, reuse, recycling, and using food scraps for composting or biofuel. The UN aims to halve global per capita food waste by 2030 to support sustainable development.
Plus de Dr. Salem Baidas (20)
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Lessons from operationalizing integrated landscape approaches
Presented by James Reed at "9th Landscape Sustainability Science Forum" on 11 May 2024
原版制作(Manitoba毕业证书)曼尼托巴大学毕业证学位证一模一样
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留信网认证的作用:
1:该专业认证可证明留学生真实身份
2:同时对留学生所学专业登记给予评定
3:国家专业人才认证中心颁发入库证书
4:这个认证书并且可以归档倒地方
5:凡事获得留信网入网的信息将会逐步更新到个人身份内，将在公安局网内查询个人身份证信息后，同步读取人才网入库信息
6:个人职称评审加20分
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8:在国家人才网主办的国家网络招聘大会中纳入资料，供国家高端企业选择人才
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本公司拥有海外各大学样板无数，能完美还原。
1:1完美还原海外各大学毕业材料上的工艺：水印，阴影底纹，钢印LOGO烫金烫银，LOGO烫金烫银复合重叠。文字图案浮雕、激光镭射、紫外荧光、温感、复印防伪等防伪工艺。材料咨询办理、认证咨询办理请加学历顾问微bwp0011
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二.真实使馆公证(即留学回国人员证明,不成功不收费)
三.真实教育部学历学位认证（教育部存档！教育部留服网站永久可查）
四.办理各国各大学文凭(一对一专业服务,可全程监控跟踪进度)
如果您处于以下几种情况：
◇在校期间，因各种原因未能顺利毕业……拿不到官方毕业证【微bwp0011】
◇面对父母的压力，希望尽快拿到；
◇不清楚认证流程以及材料该如何准备；
◇回国时间很长，忘记办理；
◇回国马上就要找工作，办给用人单位看；
◇企事业单位必须要求办理的
◇需要报考公务员、购买免税车、落转户口
◇申请留学生创业基金
留信网认证的作用:
1:该专业认证可证明留学生真实身份
2:同时对留学生所学专业登记给予评定
3:国家专业人才认证中心颁发入库证书
4:这个认证书并且可以归档倒地方
5:凡事获得留信网入网的信息将会逐步更新到个人身份内，将在公安局网内查询个人身份证信息后，同步读取人才网入库信息
6:个人职称评审加20分
7:个人信誉贷款加10分
8:在国家人才网主办的国家网络招聘大会中纳入资料，供国家高端企业选择人才
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本公司拥有海外各大学样板无数，能完美还原。
1:1完美还原海外各大学毕业材料上的工艺：水印，阴影底纹，钢印LOGO烫金烫银，LOGO烫金烫银复合重叠。文字图案浮雕、激光镭射、紫外荧光、温感、复印防伪等防伪工艺。材料咨询办理、认证咨询办理请加学历顾问Q/微741003700
【主营项目】
一.毕业证【q微741003700】成绩单、使馆认证、教育部认证、雅思托福成绩单、学生卡等！
二.真实使馆公证(即留学回国人员证明,不成功不收费)
三.真实教育部学历学位认证（教育部存档！教育部留服网站永久可查）
四.办理各国各大学文凭(一对一专业服务,可全程监控跟踪进度)
如果您处于以下几种情况：
◇在校期间，因各种原因未能顺利毕业……拿不到官方毕业证【q/微741003700】
◇面对父母的压力，希望尽快拿到；
◇不清楚认证流程以及材料该如何准备；
◇回国时间很长，忘记办理；
◇回国马上就要找工作，办给用人单位看；
◇企事业单位必须要求办理的
◇需要报考公务员、购买免税车、落转户口
◇申请留学生创业基金
留信网认证的作用:
1:该专业认证可证明留学生真实身份
2:同时对留学生所学专业登记给予评定
3:国家专业人才认证中心颁发入库证书
4:这个认证书并且可以归档倒地方
5:凡事获得留信网入网的信息将会逐步更新到个人身份内，将在公安局网内查询个人身份证信息后，同步读取人才网入库信息
6:个人职称评审加20分
7:个人信誉贷款加10分
8:在国家人才网主办的国家网络招聘大会中纳入资料，供国家高端企业选择人才
Evolving Lifecycles with High Resolution Site Characterization (HRSC) and 3-D...
The incorporation of a 3DCSM and completion of HRSC provided a tool for enhanced, data-driven, decisions to support a change in remediation closure strategies. Currently, an approved pilot study has been obtained to shut-down the remediation systems (ISCO, P&T) and conduct a hydraulic study under non-pumping conditions. A separate micro-biological bench scale treatability study was competed that yielded positive results for an emerging innovative technology. As a result, a field pilot study has commenced with results expected in nine-twelve months. With the results of the hydraulic study, field pilot studies and an updated risk assessment leading site monitoring optimization cost lifecycle savings upwards of $15MM towards an alternatively evolved best available technology remediation closure strategy.
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留信网认证的作用:
1:该专业认证可证明留学生真实身份
2:同时对留学生所学专业登记给予评定
3:国家专业人才认证中心颁发入库证书
4:这个认证书并且可以归档倒地方
5:凡事获得留信网入网的信息将会逐步更新到个人身份内，将在公安局网内查询个人身份证信息后，同步读取人才网入库信息
6:个人职称评审加20分
7:个人信誉贷款加10分
8:在国家人才网主办的国家网络招聘大会中纳入资料，供国家高端企业选择人才
留信网服务项目：
1、留学生专业人才库服务（留信分析）
2、国（境）学习人员提供就业推荐信服务
3、留学人员区块链存储服务
→ 【关于价格问题（保证一手价格）】
我们所定的价格是非常合理的，而且我们现在做得单子大多数都是代理和回头客户介绍的所以一般现在有新的单子 我给客户的都是第一手的代理价格，因为我想坦诚对待大家 不想跟大家在价格方面浪费时间
对于老客户或者被老客户介绍过来的朋友，我们都会适当给一些优惠。
选择实体注册公司办理，更放心，更安全！我们的承诺：客户在留信官方认证查询网站查询到认证通过结果后付款，不成功不收费！
一比一原版西澳大学毕业证学历证书如何办理
原版定制【微信:741003700】《西澳大学毕业证学位证成绩单》【微信:741003700】成绩单 、雅思、外壳、留信学历认证永久存档查询，采用学校原版纸张、特殊工艺完全按照原版一比一制作（包括：隐形水印，阴影底纹，钢印LOGO烫金烫银，LOGO烫金烫银复合重叠，文字图案浮雕，激光镭射，紫外荧光，温感，复印防伪）行业标杆！精益求精，诚心合作，真诚制作！多年品质 ,按需精细制作，24小时接单,全套进口原装设备，十五年致力于帮助留学生解决难题，业务范围有加拿大、英国、澳洲、韩国、美国、新加坡，新西兰等学历材料，包您满意。
【业务选择办理准则】
一、工作未确定，回国需先给父母、亲戚朋友看下文凭的情况，办理一份毕业证【Q微信741003700】文凭即可
二、回国进私企、外企、自己做生意的情况，这些单位是不查询毕业证真伪的，而且国内没有渠道去查询国外文凭的真假，也不需要提供真实教育部认证。鉴于此，办理一份毕业证【Q微信741003700】即可
三、进国企，银行，事业单位，考公务员等等，这些单位是必需要提供真实教育部认证的，办理教育部认证所需资料众多且烦琐，所有材料您都必须提供原件，我们凭借丰富的经验，快捷的绿色通道帮您快速整合材料，让您少走弯路。
留信网认证的作用:
1:该专业认证可证明留学生真实身份
2:同时对留学生所学专业登记给予评定
3:国家专业人才认证中心颁发入库证书
4:这个认证书并且可以归档倒地方
5:凡事获得留信网入网的信息将会逐步更新到个人身份内，将在公安局网内查询个人身份证信息后，同步读取人才网入库信息
6:个人职称评审加20分
7:个人信誉贷款加10分
8:在国家人才网主办的国家网络招聘大会中纳入资料，供国家高端企业选择人才
【关于价格问题（保证一手价格）】
我们所定的价格是非常合理的，而且我们现在做得单子大多数都是代理和回头客户介绍的所以一般现在有新的单子 我给客户的都是第一手的代理价格，因为我想坦诚对待大家 不想跟大家在价格方面浪费时间
对于老客户或者被老客户介绍过来的朋友，我们都会适当给一些优惠。
在线办理(lboro毕业证书)拉夫堡大学毕业证学历证书一模一样
学校原件一模一样【微信：741003700 】《(lboro毕业证书)拉夫堡大学毕业证学历证书》【微信：741003700 】学位证，留信认证（真实可查，永久存档）原件一模一样纸张工艺/offer、雅思、外壳等材料/诚信可靠,可直接看成品样本，帮您解决无法毕业带来的各种难题！外壳，原版制作，诚信可靠，可直接看成品样本。行业标杆！精益求精，诚心合作，真诚制作！多年品质 ,按需精细制作，24小时接单,全套进口原装设备。十五年致力于帮助留学生解决难题，包您满意。
本公司拥有海外各大学样板无数，能完美还原。
1:1完美还原海外各大学毕业材料上的工艺：水印，阴影底纹，钢印LOGO烫金烫银，LOGO烫金烫银复合重叠。文字图案浮雕、激光镭射、紫外荧光、温感、复印防伪等防伪工艺。材料咨询办理、认证咨询办理请加学历顾问Q/微741003700
【主营项目】
一.毕业证【q微741003700】成绩单、使馆认证、教育部认证、雅思托福成绩单、学生卡等！
二.真实使馆公证(即留学回国人员证明,不成功不收费)
三.真实教育部学历学位认证（教育部存档！教育部留服网站永久可查）
四.办理各国各大学文凭(一对一专业服务,可全程监控跟踪进度)
如果您处于以下几种情况：
◇在校期间，因各种原因未能顺利毕业……拿不到官方毕业证【q/微741003700】
◇面对父母的压力，希望尽快拿到；
◇不清楚认证流程以及材料该如何准备；
◇回国时间很长，忘记办理；
◇回国马上就要找工作，办给用人单位看；
◇企事业单位必须要求办理的
◇需要报考公务员、购买免税车、落转户口
◇申请留学生创业基金
留信网认证的作用:
1:该专业认证可证明留学生真实身份
2:同时对留学生所学专业登记给予评定
3:国家专业人才认证中心颁发入库证书
4:这个认证书并且可以归档倒地方
5:凡事获得留信网入网的信息将会逐步更新到个人身份内，将在公安局网内查询个人身份证信息后，同步读取人才网入库信息
6:个人职称评审加20分
7:个人信誉贷款加10分
8:在国家人才网主办的国家网络招聘大会中纳入资料，供国家高端企业选择人才
Kinetic studies on malachite green dye adsorption from aqueous solutions by A...
Kinetic studies on malachite green dye adsorption from aqueous solutions by A...Open Access Research Paper
Water polluted by dyestuffs compounds is a global threat to health and the environment; accordingly, we prepared a green novel sorbent chemical and Physical system from an algae, chitosan and chitosan nanoparticle and impregnated with algae with chitosan nanocomposite for the sorption of Malachite green dye from water. The algae with chitosan nanocomposite by a simple method and used as a recyclable and effective adsorbent for the removal of malachite green dye from aqueous solutions. Algae, chitosan, chitosan nanoparticle and algae with chitosan nanocomposite were characterized using different physicochemical methods. The functional groups and chemical compounds found in algae, chitosan, chitosan algae, chitosan nanoparticle, and chitosan nanoparticle with algae were identified using FTIR, SEM, and TGADTA/DTG techniques. The optimal adsorption conditions, different dosages, pH and Temperature the amount of algae with chitosan nanocomposite were determined. At optimized conditions and the batch equilibrium studies more than 99% of the dye was removed. The adsorption process data matched well kinetics showed that the reaction order for dye varied with pseudo-first order and pseudo-second order. Furthermore, the maximum adsorption capacity of the algae with chitosan nanocomposite toward malachite green dye reached as high as 15.5mg/g, respectively. Finally, multiple times reusing of algae with chitosan nanocomposite and removing dye from a real wastewater has made it a promising and attractive option for further practical applications.
Improving the viability of probiotics by encapsulation methods for developmen...
Improving the viability of probiotics by encapsulation methods for developmen...Open Access Research Paper
The popularity of functional foods among scientists and common people has been increasing day by day. Awareness and modernization make the consumer think better regarding food and nutrition. Now a day’s individual knows very well about the relation between food consumption and disease prevalence. Humans have a diversity of microbes in the gut that together form the gut microflora. Probiotics are the health-promoting live microbial cells improve host health through gut and brain connection and fighting against harmful bacteria. Bifidobacterium and Lactobacillus are the two bacterial genera which are considered to be probiotic. These good bacteria are facing challenges of viability. There are so many factors such as sensitivity to heat, pH, acidity, osmotic effect, mechanical shear, chemical components, freezing and storage time as well which affects the viability of probiotics in the dairy food matrix as well as in the gut. Multiple efforts have been done in the past and ongoing in present for these beneficial microbial population stability until their destination in the gut. One of a useful technique known as microencapsulation makes the probiotic effective in the diversified conditions and maintain these microbe’s community to the optimum level for achieving targeted benefits. Dairy products are found to be an ideal vehicle for probiotic incorporation. It has been seen that the encapsulated microbial cells show higher viability than the free cells in different processing and storage conditions as well as against bile salts in the gut. They make the food functional when incorporated, without affecting the product sensory characteristics.
Environment Conservation Rules 2023 (ECR)-2023.pptx
Bangladesh Environment Conservation Rules 2023 (ECR-2023).
Optimizing Post Remediation Groundwater Performance with Enhanced Microbiolog...
Results of geophysics and pneumatic injection pilot tests during 2003 – 2007 yielded significant positive results for injection delivery design and contaminant mass treatment, resulting in permanent shut-down of an existing groundwater Pump & Treat system.
Accessible source areas were subsequently removed (2011) by soil excavation and treated with the placement of Emulsified Vegetable Oil EVO and zero-valent iron ZVI to accelerate treatment of impacted groundwater in overburden and weathered fractured bedrock. Post pilot test and post remediation groundwater monitoring has included analyses of CVOCs, organic fatty acids, dissolved gases and QuantArray® -Chlor to quantify key microorganisms (e.g., Dehalococcoides, Dehalobacter, etc.) and functional genes (e.g., vinyl chloride reductase, methane monooxygenase, etc.) to assess potential for reductive dechlorination and aerobic cometabolism of CVOCs.
In 2022, the first commercial application of MetaArray™ was performed at the site. MetaArray™ utilizes statistical analysis, such as principal component analysis and multivariate analysis to provide evidence that reductive dechlorination is active or even that it is slowing. This creates actionable data allowing users to save money by making important site management decisions earlier.
The results of the MetaArray™ analysis’ support vector machine (SVM) identified groundwater monitoring wells with a 80% confidence that were characterized as either Limited for Reductive Decholorination or had a High Reductive Reduction Dechlorination potential. The results of MetaArray™ will be used to further optimize the site’s post remediation monitoring program for monitored natural attenuation.
REPORT-PRESENTATION BY CHIEF SECRETARY, ANDAMAN NICOBAR ADMINISTRATION IN OA ...
Green Tribunal Andaman
学校原版(unuk学位证书)英国牛津布鲁克斯大学毕业证硕士文凭原版一模一样
原版定制【微信:bwp0011】《(unuk学位证书)英国牛津布鲁克斯大学毕业证硕士文凭》【微信:bwp0011】成绩单 、雅思、外壳、留信学历认证永久存档查询，采用学校原版纸张、特殊工艺完全按照原版一比一制作（包括：隐形水印，阴影底纹，钢印LOGO烫金烫银，LOGO烫金烫银复合重叠，文字图案浮雕，激光镭射，紫外荧光，温感，复印防伪）行业标杆！精益求精，诚心合作，真诚制作！多年品质 ,按需精细制作，24小时接单,全套进口原装设备，十五年致力于帮助留学生解决难题，业务范围有加拿大、英国、澳洲、韩国、美国、新加坡，新西兰等学历材料，包您满意。
【业务选择办理准则】
一、工作未确定，回国需先给父母、亲戚朋友看下文凭的情况，办理一份就读学校的毕业证【微信bwp0011】文凭即可
二、回国进私企、外企、自己做生意的情况，这些单位是不查询毕业证真伪的，而且国内没有渠道去查询国外文凭的真假，也不需要提供真实教育部认证。鉴于此，办理一份毕业证【微信bwp0011】即可
三、进国企，银行，事业单位，考公务员等等，这些单位是必需要提供真实教育部认证的，办理教育部认证所需资料众多且烦琐，所有材料您都必须提供原件，我们凭借丰富的经验，快捷的绿色通道帮您快速整合材料，让您少走弯路。
留信网认证的作用:
1:该专业认证可证明留学生真实身份
2:同时对留学生所学专业登记给予评定
3:国家专业人才认证中心颁发入库证书
4:这个认证书并且可以归档倒地方
5:凡事获得留信网入网的信息将会逐步更新到个人身份内，将在公安局网内查询个人身份证信息后，同步读取人才网入库信息
6:个人职称评审加20分
7:个人信誉贷款加10分
8:在国家人才网主办的国家网络招聘大会中纳入资料，供国家高端企业选择人才
【关于价格问题（保证一手价格）】
我们所定的价格是非常合理的，而且我们现在做得单子大多数都是代理和回头客户介绍的所以一般现在有新的单子 我给客户的都是第一手的代理价格，因为我想坦诚对待大家 不想跟大家在价格方面浪费时间
对于老客户或者被老客户介绍过来的朋友，我们都会适当给一些优惠。
Biomimicry in agriculture: Nature-Inspired Solutions for a Greener Future
Presentation made for the Webinar Series on Biomimicry for sustainability on 1st June 2024 organized by Green Building Council Sri Lanka
Dernier (18)
BASIC CONCEPT OF ENVIRONMENT AND DIFFERENT CONSTITUTENET OF ENVIRONMENT
BASIC CONCEPT OF ENVIRONMENT AND DIFFERENT CONSTITUTENET OF ENVIRONMENT
Lessons from operationalizing integrated landscape approaches
Lessons from operationalizing integrated landscape approaches
Evolving Lifecycles with High Resolution Site Characterization (HRSC) and 3-D...
Evolving Lifecycles with High Resolution Site Characterization (HRSC) and 3-D...
Kinetic studies on malachite green dye adsorption from aqueous solutions by A...
Kinetic studies on malachite green dye adsorption from aqueous solutions by A...
Improving the viability of probiotics by encapsulation methods for developmen...
Improving the viability of probiotics by encapsulation methods for developmen...
Environment Conservation Rules 2023 (ECR)-2023.pptx
Environment Conservation Rules 2023 (ECR)-2023.pptx
Optimizing Post Remediation Groundwater Performance with Enhanced Microbiolog...
Optimizing Post Remediation Groundwater Performance with Enhanced Microbiolog...
REPORT-PRESENTATION BY CHIEF SECRETARY, ANDAMAN NICOBAR ADMINISTRATION IN OA ...
REPORT-PRESENTATION BY CHIEF SECRETARY, ANDAMAN NICOBAR ADMINISTRATION IN OA ...
world-environment-day-2024-240601103559-14f4c0b4.pptx
world-environment-day-2024-240601103559-14f4c0b4.pptx
Biomimicry in agriculture: Nature-Inspired Solutions for a Greener Future
Biomimicry in agriculture: Nature-Inspired Solutions for a Greener Future
Carbon Capture and Storage
- 2. ENVIRONMENTAL SUSTAINABILITY SLIDESHOWS FROM S2ADESIGN.COM S2ADESIGN.COM
- 5. Carbon capture The Process of Capturing Carbon Dioxide Gas Produced by Industrial Processes Preventing its Release into the Atmosphere.
- 7. REDUCE EMISSIONS Reduce Carbon Emissions as Carbon Dioxide is the Primary Greenhouse Gas Contributing to Climate Change.
- 8. CCUS TECHNOLOGY Carbon Capture Utilization & Storage: a Suite of Technologies that Perform Carbon Capture. Involves Four Stages Capture, Transport, Storage, and Use.
- 9. IEA.ORG
- 10. Enhanced oil recovery (eor) Captured Carbon is Injected Into Oil Wells to Enhance Oil Extraction Resulting in Carbon Storage. Direct air capture (dac) Directly Capturing Carbon from the Atmosphere for Sequestration or Utilization. Carbon Sequestration Captured Carbon is Deposited into Geological Formations or through Mineralization in Rocks. Carbon Absorption by Ammonia Aqueous Ammonia Captures CO2 from Flue Gas at a Quick Rate and High Removal Efficiency. Ccus Technologies Carbon capture ENERGY.GOV
- 11. CCUS Captures Carbon Emissions from Industries, Preventing their Entry into the Atmosphere and Mitigating Climate Change. Climate CCUS Deployment Generates Job Opportunities in Many Industries such as Engineering, Construction, and Operations. economy CCUS Technology Enhances National Energy Security by Increasing Domestic Energy Supply. Energy security Carbon Dioxide Based Steam Cycles can Enhance Power Efficiency by Transferring More Heat and Reducing Energy Consumption. efficiency Carbon Dioxide, Captured and Stored Using CCUS, can be Utilized for EOR, Chemical Feedstock, and Various Other Applications. Future use advantages Carbon capture SOLARTRONISA.COM
- 12. The Current Cost of Capturing and Storing Carbon can be too High to be Economically Viable, Especially for Smaller Industrial Facilities. High cost Remote Carbon Storage Requires New Pipelines and Retrofitting of Existing Infrastructure, which is Complex and Expensive. Infrastructure Carbon is Typically Stored in Former Oil and Gas Wells with Limited Capacity, and Finding Suitable Sites is Time-Consuming and Costly. Storage Carbon Dioxide can Cause Significant Damage to Materials, such as Corrosion, Degradation, Embrittlement, and Scaling. safety Lack of an International and Comprehensive Regulatory Framework for CCUS Deployment and Carbon Pricing. regulation SOLARTRONISA.COM challenges Carbon capture
- 14. unfccc Growing Recognition of CCUS Role in Meeting Net Zero Goals is Translating into Increased Policy Support for CCUS Deployment. The IPCC have Outlined an Important Role for CCUS to Reach Net Zero Emissions by 2050. UNFCCC.INT United Nations Climate Change Global Climate Action
- 15. This is a placeholder text. This text can be replaced with your own text. This text can be replaced with your own text. This is a placeholder text. This text can be replaced with your own text. This text can be replaced with your own text. 9.7 6.6 4.1 3.6
- 16. 0 10 20 30 40 50 60 1940 1950 1960 1970 1980 1990 2000 2010 2020 Can Be Captured By CCUS (90%) Carbon Emissions 8X INCREASE ICOS-CP.EU GLOBAL CARBON EMISSIONS GIGATON CO2
- 17. 2000 2005 2010 2015 2018 2019 2020 10 12 13 28 37 37 42 ENERGYMONITOR.AI carbon emissions captured by ccus MILLION metric tons – CO2 4X INCREASE
- 18. 275 240 125 75 50 Reforestation DAC E. Weathering Biochar BECCS ENERGYMONITOR.AI AVERAGE COST OF CARBON REMOVAL BYTECHNOLOGY DollarPer Metric Ton CO2 (2020)
- 19. 42MMT Of Carbon Emissions was Captured by CCUS in 2020. $50 Per MTCO2 was the Lowest Cost to Remove Carbon Using Bioenergy with Carbon Capture and Storage (BECCS) Technology in 2020. 37GT Global Carbon Emissions in 2021. Their Highest Level to Date. ENERGYMONITOR.AI GLOBAL Ccus technology Key highlights
- 20. S2ADesign.com