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Natural Dyed Cotton Fabric – Organic Cotton

650.0

Product: Natural Dyed Cotton Fabric

Quality:  Cambric

Width: 59 inch ( 150 cm)

Weight: Light Weight

Colour: Natural herbal colours  ( different colours to choose from )

Price : the price stated is for 1 meter of fabric. Quantity 1 is equal to 1 meter.

Wash and care: Hand wash or Machine wash with cold water, gentle cycle, do not bleach, use mild soap preferable soap nut powder or liquid.

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Description:

This Natural Dyed Cotton Fabric is dyed using different natural herbs raw materials like Turmeric, Sandalwood, Neem, Tulsi , Aloevera, jasmine, banyan bark, clove etc. to make different colours and these fabric are also skin friendly. Fabric is dyed in herbal solutions made by using basic ayurveda principles.

For natural color different natural raw materials are used like Indigo, Sappanwood, madder, catchu, heena, myrobalan, turmeric etc.

 

Dimensions 59 mm

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Carbon Footprint Comparison 1. Organic Cotton vs. Conventional Cotton: Organic Cotton: According to a study by Kering (2020), organic cotton can have a carbon footprint that is approximately 25% lower than conventional cotton. This reduction is due to lower emissions from synthetic fertilizers and pesticides, improved soil carbon sequestration, and reduced energy use. Conventional Cotton: Conventional cotton farming is associated with high carbon emissions due to intensive use of synthetic chemicals and high energy inputs in the production process. 2. Organic vs. Conventional Fabrics (General):A broader comparison: Studies have shown that organic farming practices typically result in a carbon footprint reduction of 20-30% compared to conventional farming. This range can vary based on factors such as the specific agricultural practices employed and the type of organic certification (e.g., GOTS, OEKO-TEX). Key Factors Contributing to Lower Carbon Footprint in Organic Fabrics: Reduced Synthetic Inputs: Lower emissions from the reduced use of synthetic fertilizers and pesticides. Energy Efficiency: Less energy-intensive production processes and improved energy efficiency in organic farming. Soil Carbon Sequestration: Increased carbon sequestration in soils due to organic farming practices. Reference Data Points: Kering Study (2020): This study indicates that organic cotton production emits around 25% less CO₂ equivalent compared to conventional cotton. Lal (2004): Highlights the potential for organic farming to sequester more carbon in soils, contributing to a lower overall carbon footprint. Conclusion: In general, organic fabrics can have a carbon footprint that is approximately 20-30% lower than conventional fabrics, with specific reductions like 25% noted in organic cotton production. The exact percentage can vary based on specific circumstances and practices involved in the fabric's production. Organic fabric material is considered sustainable for several reasons related to its production process, environmental impact, and social benefits. Here’s a detailed breakdown of why organic fabrics are regarded as more sustainable: 1. Environmental Benefits a. Reduced Chemical Use: Explanation: Organic fabrics are made from fibers grown without synthetic pesticides, herbicides, or fertilizers. These chemicals are often harmful to ecosystems, wildlife, and human health. Organic farming practices avoid these substances, reducing soil and water contamination and supporting healthier ecosystems. Scientific Reference: Studies have shown that organic farming reduces the risk of water pollution and soil degradation associated with chemical runoff (Kremer & Means, 2009). b. Soil Health and Carbon Sequestration: Explanation: Organic farming practices, such as crop rotation, composting, and reduced tillage, enhance soil health by increasing organic matter and microbial activity. Healthy soils can sequester more carbon, mitigating greenhouse gas emissions. Scientific Reference: Research by Lal (2004) indicates that organic farming practices can increase soil carbon sequestration, which helps offset carbon dioxide emissions. c. Water Conservation: Explanation: Organic farming often improves soil structure and water retention, leading to more efficient water use and reduced irrigation needs. Additionally, organic farming reduces the risk of water pollution from synthetic chemicals. Scientific Reference: Glover et al. (2000) found that organic farming systems generally use water more efficiently due to improved soil properties. 2. Biodiversity and Ecosystem Health a. Enhanced Biodiversity: Explanation: Organic farming practices support greater biodiversity by avoiding monocultures and encouraging diverse plant and animal species. This contributes to healthier ecosystems and greater resilience to pests and diseases. Scientific Reference: Altieri (1999) highlights that organic farming promotes biodiversity through practices like crop rotation and the use of cover crops. b. Ecosystem Services: Explanation: Healthy ecosystems supported by organic farming provide valuable services such as natural pest control, pollination, and soil fertility. These services are essential for sustainable agricultural production. Scientific Reference: The benefits of ecosystem services in organic farming are well-documented in literature on sustainable agriculture (Altieri, 1999). 3. Energy and Resource Efficiency a. Lower Energy Inputs: Explanation: Organic farming typically uses fewer energy-intensive inputs compared to conventional farming, such as synthetic fertilizers and pesticides. This results in a lower overall energy footprint. Scientific Reference: Studies indicate that organic farming systems often have a lower energy footprint due to reduced reliance on synthetic inputs (Pimentel et al., 2005). b. Sustainable Resource Use: Explanation: Organic farming practices focus on sustainable resource management, including the use of renewable resources and minimizing waste. This approach contributes to the long-term viability of agricultural systems. Scientific Reference: Organic farming principles emphasize sustainable resource management and conservation (Lal, 2004). 4. Social and Economic Aspects a. Support for Small Farmers: Explanation: Organic farming often supports small-scale and family-owned farms, promoting fair labor practices and improving local economies. This contrasts with industrial agriculture, which can prioritize large-scale operations. Scientific Reference: Research on the socioeconomic impacts of organic farming highlights benefits for smallholder farmers and local communities (Michelsen et al., 1999). b. Health and Safety: Explanation: Organic farming practices reduce exposure to harmful chemicals for both farmers and consumers. This contributes to better health outcomes and safer food products. Scientific Reference: The reduced use of synthetic chemicals in organic farming can lower health risks associated with chemical exposure (Kremer & Means, 2009). Conclusion Organic fabric materials are sustainable due to their reduced environmental impact, support for biodiversity, efficient use of resources, and positive social benefits. These factors collectively contribute to a more environmentally friendly and socially responsible production system. Low carbon footprint of organic fabric material: The carbon footprint of organic fabric material is generally lower than that of conventional fabric material due to several key factors related to the production and processing of the fibers. Here’s an in-depth look at why this is the case: 1. Reduced Chemical Inputs Explanation: Synthetic Fertilizers and Pesticides: Conventional fabric production, particularly for materials like cotton, often involves synthetic fertilizers and pesticides. The production of these chemicals is energy-intensive and contributes significantly to greenhouse gas emissions. Organic Farming: Organic farming avoids synthetic chemicals, relying instead on natural fertilizers, compost, and integrated pest management. This leads to a reduction in the carbon emissions associated with chemical production and application. Scientific Reference: Pimentel et al. (2005): This study notes that organic farming systems generally have lower greenhouse gas emissions because they avoid the use of energy-intensive synthetic inputs. 2. Energy Efficiency Explanation: Lower Energy Use: Organic farming practices often involve less energy-intensive processes compared to conventional methods. For example, organic farming typically uses less energy for irrigation and avoids the energy-intensive processes involved in producing synthetic fertilizers and pesticides. Processing: The processing of organic fibers can also be less energy-intensive. For instance, some organic fabrics are processed with fewer chemicals and require less energy for dyeing and finishing. Scientific Reference: Glover et al. (2000): This study indicates that organic farming systems generally use less fossil fuel energy compared to conventional systems, contributing to a lower carbon footprint. 3. Soil Carbon Sequestration Explanation: Improved Soil Health: Organic farming practices improve soil health by increasing organic matter and enhancing soil structure. Healthy soils can sequester more carbon from the atmosphere, offsetting some of the carbon emissions associated with farming. Carbon Storage: Organic soils can store more carbon compared to conventional soils due to practices such as reduced tillage and the addition of organic matter (e.g., compost and cover crops). Scientific Reference: Lal (2004): Research shows that organic farming practices can increase soil carbon sequestration, helping to mitigate climate change by capturing carbon dioxide from the atmosphere. 4. Biodiversity and Ecosystem Services Explanation: Natural Pest Control: Organic farming promotes biodiversity and the presence of natural predators and pollinators, reducing the need for synthetic pesticides. This reduces the carbon footprint associated with chemical production and application. Ecosystem Resilience: Diverse ecosystems are more resilient and can better manage natural resources, which can contribute to a lower overall carbon footprint. Scientific Reference: Altieri (1999): Highlights the role of biodiversity in enhancing ecosystem services and reducing reliance on chemical inputs, which can lower the carbon footprint. 5. Reduced Water and Soil Pollution Explanation: Water Use: Organic farming often improves soil water retention and reduces the need for irrigation, which can lower the carbon footprint associated with water usage and energy for irrigation. Pollution Reduction: By avoiding synthetic chemicals, organic farming reduces the risk of water and soil pollution, which can mitigate the carbon emissions related to cleaning up polluted environments and dealing with contamination. Scientific Reference: Kremer & Means (2009): The absence of synthetic chemicals in organic farming reduces the risk of pollution, which can have downstream effects on the overall carbon footprint. Conclusion: The lower carbon footprint of organic fabric materials is attributed to several factors: reduced use of energy-intensive synthetic chemicals, energy-efficient farming and processing practices, improved soil carbon sequestration, enhanced biodiversity, and reduced pollution. These elements collectively contribute to a more sustainable and environmentally friendly production system.

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