CIRCLE
CIRCLE
CIRCLE
CIRCLE
Carbon Impact Reduction Calculator for Lifestyle and Environment
Carbon Impact Reduction Calculator for Lifestyle and Environment
Carbon Impact Reduction Calculator for Lifestyle and Environment
Carbon Impact Reduction Calculator for Lifestyle and Environment
The Carbon Calculator CIRCLE is an open-source API that allows anyone to easily calculate the carbon footprint of clothing. By calculating the carbon emissions generated throughout the product lifecycle from production, maintenance, to disposal based on the proportion of materials, it simplifies complex carbon calculations to help companies effectively manage their carbon footprint and enhance sustainability. It contributes to minimizing environmental impact and achieving carbon emission targets through continuous updates.
The Carbon Calculator CIRCLE is an open-source API that allows anyone to easily calculate the carbon footprint of clothing. By calculating the carbon emissions generated throughout the product lifecycle from production, maintenance, to disposal based on the proportion of materials, it simplifies complex carbon calculations to help companies effectively manage their carbon footprint and enhance sustainability. It contributes to minimizing environmental impact and achieving carbon emission targets through continuous updates.
The carbon calculator CIRCLE is an open-source API that allows anyone to easily calculate the carbon footprint of clothing. By analyzing the material composition of products, it calculates the carbon emissions generated throughout the product's life cycle, from production and maintenance to disposal, simplifying complex carbon calculations and enabling businesses to effectively manage their carbon footprint and enhance sustainability. Through continuous updates, it minimizes environmental impacts and contributes to achieving carbon emission targets.
CIRCLE
CIRCLE
CIRCLE
CIRCLE
IMPACT
IMPACT
IMPACT
IMPACT
The Carbon Calculator CIRCLE is an open-source API that anyone can easily utilize, helping companies efficiently manage the carbon footprint of their clothing products. This tool simplifies the complex calculation of carbon emissions based on the material ratios of products, allowing for accurate tracking of carbon emitted during production, maintenance, and disposal stages. It provides quick results with an intuitive interface and is accessible for free as open source. Through continuous updates, it enhances the accuracy of calculations and minimizes environmental impact, establishing itself as an essential tool for companies to achieve their carbon emission goals and strengthen sustainability.
The Carbon Calculator CIRCLE is an open-source API that anyone can easily utilize, helping companies efficiently manage the carbon footprint of their clothing products. This tool simplifies the complex calculation of carbon emissions based on the material ratios of products, allowing for accurate tracking of carbon emitted during production, maintenance, and disposal stages. It provides quick results with an intuitive interface and is accessible for free as open source. Through continuous updates, it enhances the accuracy of calculations and minimizes environmental impact, establishing itself as an essential tool for companies to achieve their carbon emission goals and strengthen sustainability.
The Carbon Calculator CIRCLE is an open-source API that anyone can easily utilize, helping companies efficiently manage the carbon footprint of their clothing products. This tool simplifies the complex calculation of carbon emissions based on the material ratios of products, allowing for accurate tracking of carbon emitted during production, maintenance, and disposal stages. It provides quick results with an intuitive interface and is accessible for free as open source. Through continuous updates, it enhances the accuracy of calculations and minimizes environmental impact, establishing itself as an essential tool for companies to achieve their carbon emission goals and strengthen sustainability.
The Carbon Calculator CIRCLE is an open-source API that anyone can easily utilize, helping companies efficiently manage the carbon footprint of their clothing products. This tool simplifies the complex calculation of carbon emissions based on the material ratios of products, allowing for accurate tracking of carbon emitted during production, maintenance, and disposal stages. It provides quick results with an intuitive interface and is accessible for free as open source. Through continuous updates, it enhances the accuracy of calculations and minimizes environmental impact, establishing itself as an essential tool for companies to achieve their carbon emission goals and strengthen sustainability.
HOW
TO USE
01
Please enter the name of the clothing.
HOW
TO USE
01
Enter clothing name
Please enter the name of the clothing.
HOW
TO USE
01
Enter clothing name
Please enter the name of the clothing.
HOW
TO USE
01
Please enter the name of the clothing.
Methodology
Methodology
Methodology
Methodology
Manufacturing
Manufacturing
Manufacturing
Manufacturing
CARE ID utilizes LCI data from various reliable sources to provide services. We refer to data and reports publicly available from several organizations such as Ecoinvent, ELCD, U.S. Life Cycle Inventory Database, OpenLCA Nexus, Textile Exchange, SAC, and UNFCCC. Through this, we can offer the most comprehensive and up-to-date LCI data to users. CARE ID integrates and analyzes data from these various sources to provide accurate and relevant sustainability information tailored to the fashion industry.
CARE ID utilizes LCI data from various reliable sources to provide services. We refer to data and reports publicly available from several organizations such as Ecoinvent, ELCD, U.S. Life Cycle Inventory Database, OpenLCA Nexus, Textile Exchange, SAC, and UNFCCC. Through this, we can offer the most comprehensive and up-to-date LCI data to users. CARE ID integrates and analyzes data from these various sources to provide accurate and relevant sustainability information tailored to the fashion industry.
CARE ID utilizes LCI data from various reliable sources to provide services. We refer to data and reports publicly available from several organizations such as Ecoinvent, ELCD, U.S. Life Cycle Inventory Database, OpenLCA Nexus, Textile Exchange, SAC, and UNFCCC. Through this, we can offer the most comprehensive and up-to-date LCI data to users. CARE ID integrates and analyzes data from these various sources to provide accurate and relevant sustainability information tailored to the fashion industry.
CARE ID utilizes LCI data from various reliable sources to provide services. We refer to data and reports publicly available from several organizations such as Ecoinvent, ELCD, U.S. Life Cycle Inventory Database, OpenLCA Nexus, Textile Exchange, SAC, and UNFCCC. Through this, we can offer the most comprehensive and up-to-date LCI data to users. CARE ID integrates and analyzes data from these various sources to provide accurate and relevant sustainability information tailored to the fashion industry.
transportation
transportation
transportation
transportation
CARE ID calculates the carbon emissions generated during the transportation process of clothing according to the Product Environmental Footprint (PEF) methodology of the EU. This methodology includes all transport stages from raw material procurement to the end consumer. It considers the carbon emission factors of various transportation modes such as maritime, land, and air transport, allowing companies to establish the most efficient and environmentally friendly logistics strategies to comply with EU regulations.
CARE ID calculates the carbon emissions generated during the transportation process of clothing according to the Product Environmental Footprint (PEF) methodology of the EU. This methodology includes all transport stages from raw material procurement to the end consumer. It considers the carbon emission factors of various transportation modes such as maritime, land, and air transport, allowing companies to establish the most efficient and environmentally friendly logistics strategies to comply with EU regulations.
CARE ID calculates the carbon emissions generated during the transportation process of clothing according to the Product Environmental Footprint (PEF) methodology of the EU. This methodology includes all transport stages from raw material procurement to the end consumer. It considers the carbon emission factors of various transportation modes such as maritime, land, and air transport, allowing companies to establish the most efficient and environmentally friendly logistics strategies to comply with EU regulations.
CARE ID calculates the carbon emissions generated during the transportation process of clothing according to the Product Environmental Footprint (PEF) methodology of the EU. This methodology includes all transport stages from raw material procurement to the end consumer. It considers the carbon emission factors of various transportation modes such as maritime, land, and air transport, allowing companies to establish the most efficient and environmentally friendly logistics strategies to comply with EU regulations.
Management
Management
Management
Management
The carbon emissions occurring during the management stage arise from the maintenance process after the clothing has been delivered to the consumer. This calculation includes the average number of washings per clothing type, the average usage period of the clothing, and the carbon emissions generated per wash. Additionally, factors such as washing temperature, the detergent used, and the drying method are also considered to produce the overall carbon emissions. Based on this data, companies can suggest more environmentally friendly usage methods to consumers and formulate strategies to reduce the environmental impact of their products.
The carbon emissions occurring during the management stage arise from the maintenance process after the clothing has been delivered to the consumer. This calculation includes the average number of washings per clothing type, the average usage period of the clothing, and the carbon emissions generated per wash. Additionally, factors such as washing temperature, the detergent used, and the drying method are also considered to produce the overall carbon emissions. Based on this data, companies can suggest more environmentally friendly usage methods to consumers and formulate strategies to reduce the environmental impact of their products.
The carbon emissions occurring during the management stage arise from the maintenance process after the clothing has been delivered to the consumer. This calculation includes the average number of washings per clothing type, the average usage period of the clothing, and the carbon emissions generated per wash. Additionally, factors such as washing temperature, the detergent used, and the drying method are also considered to produce the overall carbon emissions. Based on this data, companies can suggest more environmentally friendly usage methods to consumers and formulate strategies to reduce the environmental impact of their products.
The carbon emissions occurring during the management stage arise from the maintenance process after the clothing has been delivered to the consumer. This calculation includes the average number of washings per clothing type, the average usage period of the clothing, and the carbon emissions generated per wash. Additionally, factors such as washing temperature, the detergent used, and the drying method are also considered to produce the overall carbon emissions. Based on this data, companies can suggest more environmentally friendly usage methods to consumers and formulate strategies to reduce the environmental impact of their products.
Disposal / Recycling
Disposal / Recycling
Disposal / Recycling
Disposal / Recycling
The CARE ID reflects the waste management hierarchy outlined in the EU's Waste Framework Directive and Circular Economy Action Plan by assessing the environmental impact of the clothing disposal and recycling stages. Considering the EU's goal of mandating the separate collection of textile waste by 2025, it calculates the probabilities and environmental impacts of various treatment methods, including reuse, recycling, energy recovery, and landfill. In particular, it emphasizes the manufacturers' responsibilities for product collection and recycling, in line with the EU's Extended Producer Responsibility (EPR) policy. This enables companies to establish product design and waste management strategies that align with the EU's circular economy goals, contributing to the achievement of the EU's target of reducing landfill waste to below 10% by 2030.
The CARE ID reflects the waste management hierarchy outlined in the EU's Waste Framework Directive and Circular Economy Action Plan by assessing the environmental impact of the clothing disposal and recycling stages. Considering the EU's goal of mandating the separate collection of textile waste by 2025, it calculates the probabilities and environmental impacts of various treatment methods, including reuse, recycling, energy recovery, and landfill. In particular, it emphasizes the manufacturers' responsibilities for product collection and recycling, in line with the EU's Extended Producer Responsibility (EPR) policy. This enables companies to establish product design and waste management strategies that align with the EU's circular economy goals, contributing to the achievement of the EU's target of reducing landfill waste to below 10% by 2030.
The CARE ID reflects the waste management hierarchy outlined in the EU's Waste Framework Directive and Circular Economy Action Plan by assessing the environmental impact of the clothing disposal and recycling stages. Considering the EU's goal of mandating the separate collection of textile waste by 2025, it calculates the probabilities and environmental impacts of various treatment methods, including reuse, recycling, energy recovery, and landfill. In particular, it emphasizes the manufacturers' responsibilities for product collection and recycling, in line with the EU's Extended Producer Responsibility (EPR) policy. This enables companies to establish product design and waste management strategies that align with the EU's circular economy goals, contributing to the achievement of the EU's target of reducing landfill waste to below 10% by 2030.
The CARE ID reflects the waste management hierarchy outlined in the EU's Waste Framework Directive and Circular Economy Action Plan by assessing the environmental impact of the clothing disposal and recycling stages. Considering the EU's goal of mandating the separate collection of textile waste by 2025, it calculates the probabilities and environmental impacts of various treatment methods, including reuse, recycling, energy recovery, and landfill. In particular, it emphasizes the manufacturers' responsibilities for product collection and recycling, in line with the EU's Extended Producer Responsibility (EPR) policy. This enables companies to establish product design and waste management strategies that align with the EU's circular economy goals, contributing to the achievement of the EU's target of reducing landfill waste to below 10% by 2030.
PEF methodology
PEF methodology
PEF methodology
PEF methodology
CARE ID perfectly integrates the EU's Product Environmental Footprint (PEF) methodology to offer an environmental impact assessment solution tailored for the fashion industry. Our platform automates and simplifies the complex evaluation process of PEF, enabling companies to easily and quickly measure and improve the environmental footprint of their products. Through CARE ID, companies can meet the stringent environmental standards of the EU while leveraging the environmental performance of their products as a competitive advantage. Additionally, CARE ID conveys PEF results in a format that consumers can easily understand, helping companies effectively communicate their sustainability efforts.
CARE ID perfectly integrates the EU's Product Environmental Footprint (PEF) methodology to offer an environmental impact assessment solution tailored for the fashion industry. Our platform automates and simplifies the complex evaluation process of PEF, enabling companies to easily and quickly measure and improve the environmental footprint of their products. Through CARE ID, companies can meet the stringent environmental standards of the EU while leveraging the environmental performance of their products as a competitive advantage. Additionally, CARE ID conveys PEF results in a format that consumers can easily understand, helping companies effectively communicate their sustainability efforts.
CARE ID perfectly integrates the EU's Product Environmental Footprint (PEF) methodology to offer an environmental impact assessment solution tailored for the fashion industry. Our platform automates and simplifies the complex evaluation process of PEF, enabling companies to easily and quickly measure and improve the environmental footprint of their products. Through CARE ID, companies can meet the stringent environmental standards of the EU while leveraging the environmental performance of their products as a competitive advantage. Additionally, CARE ID conveys PEF results in a format that consumers can easily understand, helping companies effectively communicate their sustainability efforts.
CARE ID perfectly integrates the EU's Product Environmental Footprint (PEF) methodology to offer an environmental impact assessment solution tailored for the fashion industry. Our platform automates and simplifies the complex evaluation process of PEF, enabling companies to easily and quickly measure and improve the environmental footprint of their products. Through CARE ID, companies can meet the stringent environmental standards of the EU while leveraging the environmental performance of their products as a competitive advantage. Additionally, CARE ID conveys PEF results in a format that consumers can easily understand, helping companies effectively communicate their sustainability efforts.
Reference materials: ISO (International Organization for Standardization) / ISO:14067, ISO:14026, ISO:14064-3, ISO:14027, ISO:14064-1, ISO:14064-2, ESPR (Ecodesign for Sustainable Products Regulation)
Reference materials: ISO (International Organization for Standardization) / ISO:14067, ISO:14026, ISO:14064-3, ISO:14027, ISO:14064-1, ISO:14064-2, ESPR (Ecodesign for Sustainable Products Regulation)
Reference materials: ISO (International Organization for Standardization) / ISO:14067, ISO:14026, ISO:14064-3, ISO:14027, ISO:14064-1, ISO:14064-2, ESPR (Ecodesign for Sustainable Products Regulation)
Reference materials: ISO (International Organization for Standardization) / ISO:14067, ISO:14026, ISO:14064-3, ISO:14027, ISO:14064-1, ISO:14064-2, ESPR (Ecodesign for Sustainable Products Regulation)
EASY COMPARISON
EASY COMPARISON
EASY COMPARISON
EASY COMPARISON
Smartphone charging
Smartphone charging
Smartphone charging
Smartphone charging
The conversion standard is 0.0005kWh per charging hour, which is the average consumption considering the differences between smartphone models. The carbon emissions per 1kWh of electricity also vary by country or region, but it has been calculated based on an average of 0.5kgCO2/kWh. This is a figure that consumers can intuitively understand.
The conversion standard is 0.0005kWh per charging hour, which is the average consumption considering the differences between smartphone models. The carbon emissions per 1kWh of electricity also vary by country or region, but it has been calculated based on an average of 0.5kgCO2/kWh. This is a figure that consumers can intuitively understand.
The conversion standard is 0.0005kWh per charging hour, which is the average consumption considering the differences between smartphone models. The carbon emissions per 1kWh of electricity also vary by country or region, but it has been calculated based on an average of 0.5kgCO2/kWh. This is a figure that consumers can intuitively understand.
The conversion standard is 0.0005kWh per charging hour, which is the average consumption considering the differences between smartphone models. The carbon emissions per 1kWh of electricity also vary by country or region, but it has been calculated based on an average of 0.5kgCO2/kWh. This is a figure that consumers can intuitively understand.
mileage
mileage
mileage
mileage
The fuel efficiency of cars can vary greatly depending on the model and environment, but for the purpose of carbon calculation, we take the average value and assume it to be 10km/L. The carbon emissions per liter of gasoline is about 2.31kgCO2/L, which can be converted into the driving distance of the car.
The fuel efficiency of cars can vary greatly depending on the model and environment, but for the purpose of carbon calculation, we take the average value and assume it to be 10km/L. The carbon emissions per liter of gasoline is about 2.31kgCO2/L, which can be converted into the driving distance of the car.
The fuel efficiency of cars can vary greatly depending on the model and environment, but for the purpose of carbon calculation, we take the average value and assume it to be 10km/L. The carbon emissions per liter of gasoline is about 2.31kgCO2/L, which can be converted into the driving distance of the car.
The fuel efficiency of cars can vary greatly depending on the model and environment, but for the purpose of carbon calculation, we take the average value and assume it to be 10km/L. The carbon emissions per liter of gasoline is about 2.31kgCO2/L, which can be converted into the driving distance of the car.
Tree
Tree
Tree
Tree
This is the number of trees needed to offset carbon. It varies by species, but on average, it is known that one oak tree absorbs about 22 kilograms of carbon dioxide per year. This threshold is used to indicate the number of trees required to offset a carbon footprint.
This is the number of trees needed to offset carbon. It varies by species, but on average, it is known that one oak tree absorbs about 22 kilograms of carbon dioxide per year. This threshold is used to indicate the number of trees required to offset a carbon footprint.
This is the number of trees needed to offset carbon. It varies by species, but on average, it is known that one oak tree absorbs about 22 kilograms of carbon dioxide per year. This threshold is used to indicate the number of trees required to offset a carbon footprint.
This is the number of trees needed to offset carbon. It varies by species, but on average, it is known that one oak tree absorbs about 22 kilograms of carbon dioxide per year. This threshold is used to indicate the number of trees required to offset a carbon footprint.
water
water
water
water
Purified water does not have a direct impact, but ensuring that trees receive sufficient water plays an indirect but important role in CO2 absorption. Considering this, it is necessary to indirectly assess the role of water when calculating the carbon absorption of trees.
Purified water does not have a direct impact, but ensuring that trees receive sufficient water plays an indirect but important role in CO2 absorption. Considering this, it is necessary to indirectly assess the role of water when calculating the carbon absorption of trees.
Purified water does not have a direct impact, but ensuring that trees receive sufficient water plays an indirect but important role in CO2 absorption. Considering this, it is necessary to indirectly assess the role of water when calculating the carbon absorption of trees.
Purified water does not have a direct impact, but ensuring that trees receive sufficient water plays an indirect but important role in CO2 absorption. Considering this, it is necessary to indirectly assess the role of water when calculating the carbon absorption of trees.