Article

Repurposing Textiles Industry for human well-being and transition to net zero

Textiles industry through history: Prehistoric times to 19th century  In order to understand the complex issues of the textile sector especially with regard to sustainability right from production to manufacturing to processes to product life cycles to storage to transportation to waste-handling and subsequent pathway to transition of the sector to net zero status, it would …

Repurposing Textiles Industry for human well-being and transition to net zero Read More »

Air Conditioning Towards Sustainability

IntroductionIn a truly product-focused environment, companies take proactive steps to decarbonize their operations and supply chains, addressing climate change with precision and urgency. Leveraging machine learning, data science, and sustainability expertise, they make informed decisions to effectively reduce emissions. Achieving net-zero emissions requires a commitment to shared accountability across the company and its supply chain. …

Air Conditioning Towards Sustainability Read More »

Busan: between stalemate and a fresh political wind for the global plastic treaty negotiations

The Global Plastics Treaty, initiated by Rwanda and Peru at the Fifth Session of the UN Environment Assembly (UNEA) in Nairobi in 2022, aims to address plastic pollution through a legally binding international agreement covering the entire lifecycle of plastics.The UNEA resolution, supported by over 175 countries, mandated formal negotiations under the United Nations Environment …

Busan: between stalemate and a fresh political wind for the global plastic treaty negotiations Read More »

Leveraging Technology for Adopting Circular Economy: Enhancing Efficiency and Sustainability

Since industrial revolution global economies are following the “take-make-dispose” processes for production and consumption activities resulting in ecological degradation in form of soil erosion, deforestation and land degradation. New technologies, such as artificial intelligence (AI), Internet of Things (IoT), and blockchain, offer significant opportunities to reverse this trend by driving the adoption of circular economy practices. AI optimizes resource use through predictive maintenance in manufacturing, reducing waste and improving energy efficiency. Blockchain technology ensures transparent supply chains, better tracking of raw materials, and responsible sourcing, particularly for rare earth metals. The depletion of essential resources like fresh water, rare earth metals, and fossil fuels poses both ecological and geopolitical challenges. Global water scarcity affects over 40% of the population, with regions like Sub-Saharan Africa and the Middle East particularly vulnerable. Rare earth metals are increasingly difficult to extract, with China controlling around 85% of the global supply. Renewable energy is proving to be a significant driver for transitioning to more sustainable systems, with renewable capacity reaching 3,372 GW globally by 2022. The United Nations has established the Sustainable Development Goals (SDGs) and the European Union’s Circular Economy Action Plan, focusing on industries with high environmental impacts. The Global Environment Outlook report by the UN Environment Programme (UNEP) stresses that business-as-usual economic models are untenable and requires significant systemic changes to avoid irreversible damage to ecosystems. By leveraging technological advancements and aligning global policies, the transition from linear to circular economic models can mitigate environmental impacts,
safeguard essential resources, and foster sustainable development. The circular economy is a paradigm shift that addresses environmental, social, and economic challenges. It goes beyond traditional linear models by focusing on minimizing waste, designing out pollution, and regenerating natural systems. This approach offers a blueprint for a sustainable, equitable, and prosperous future. Adopting a circular economy could reduce global greenhouse gas emissions by 39%, demonstrating its potential impact on climate change. The circular economy decouples economic growth from resource consumption, as “urban mining” allows the recovery of valuable materials from discarded electronics and infrastructure. This could stabilize markets, reduce dependence on finite resources, and boost economic resilience. The circular economy aligns with several Sustainable Development Goals (SDGs), such as SDG 12 (responsible consumption and production), SDG 6 (clean water and sanitation), and SDG 13 (climate action). By promoting resource efficiency and regeneration, circular practices can help achieve these targets by 2030. In the water sector, circular solutions like wastewater recycling and water-efficient irrigation systems can reduce pressure on 2.3 billion people living in water-stressed countries by up to 40%. The European Union’s Circular Economy Action Plan is an example of government-led initiatives integrating circular principles across industries, particularly textiles, plastics, and electronics. By integrating reuse, recycling, and regeneration into policy frameworks, economies can shift from waste-heavy practices to resource-efficient and environmentally sound practices. The circular economy is projected to generate a $4.5 trillion economic opportunity by 2030, fostering innovation in sustainable materials, renewable energy, and resource management. In conclusion, the circular economy is not just an alternative system but a crucial shift towards long-term ecological balance, market volatility reduction, and resource security. Emerging technologies are driving the transition towards a circular economy, reshaping industries and promoting environmentally sustainable production systems. These technologies can enhance circularity by enabling efficient reuse, recycling, and regeneration of materials, opening up new employment opportunities in sectors like recycling, sustainable product design, and resource management.

Roadmap to Digital Circular Economy in India

This article seeks to explore the potential of AI-driven interventions in addressing climate-related issues, with a particular focus on fostering critical discourse surrounding the socio-cultural implications of digital innovation across climate streams and human collectives. As a fellow in the social enterprise Karo Sambhav, this article will examine selected AI use cases that promote the development of circular economy, assessing both their potential contributions and perceived risks to future employment prospects and socio-cultural dynamics, particularly in the context of India. Critically, the article will offer a qualitative methodology, through an Environmental, Social and Governance (ESG) analysis of AI-driven waste management.
The main goal of the author is to highlight the ambiguity of digital interventions in the modern era across cultures, communities, and agile weather conditions. The article will conclude with relevant recommendations to foster responsible usage of AI in waste verticals.

Sustainable Packaging Solutions in India: Navigating the Transition to a Circular Economy

Packaging is one of India’s fastest-growing industries, contributing to technological
advancements across various manufacturing sectors, including agriculture and
fast-moving consumer goods (FMCG). The India Packaging Market size is estimated at
USD 84.37 billion in 2024. It is expected to reach USD 142.56 billion by 2029, growing
at a CAGR of 11.06% during the forecast period (2024-2029) (India Packaging Market
Insights, n.d.-b). In 2019, India produced around 17 million tons of plastic, among them
approximately 59% was used in packaging, of which only 15% was effectively recycled
with the rest either incinerated or dumped in landfill (UNEP, 2021). The trend of plastic
consumption in packaging in India is higher compared to the global average, accounting
for approximately 59% of total consumption of 19.8 million tonnes in 2020. (Hossain et
al., 2023)

A Detailed Analysis of Circular Economy and Climate strategy in Fashion industry

A circular economy in fashion industry or circular fashion industry is termed as regenerative system, the garments are circulated so long till the retained maximum value and safely returned to biosphere when they not in use for longer period of time. The products are designed and established with reuse in mind. Best thing anyone can do is lesser buy and more repurpose, extending the product lifecycle. It resulted in greater positive effect on the planet. Nowadays, circular economy concept is considered as highly efficient and closed loop economy is developed as viewpoint in transformation to less wasteful and highly sustainable fashion industry. The circular economy is developed as the reason for the higher challenge handled by fashion industry. This kind of involvements at waste stage are addressing the fashion industry’s environmental impact. A circular economy is defined as it can redesign the idea of materials fabrication and use the resources to make, use, and dispose in regarding recycling. While concentrating on circular economy with greater lifetime and materials reusing, full value of products are gained and waste over-generation is avoided. The circular e-fashion industry is developed by Anna Bismar, Green strategy(Shirvanimoghaddam, Motamed, Ramakrishna, & Naebe, 2020).

The Black Soldier Fly: Nature’s Recycler and Protein Powerhouse

The black soldier fly (Hermetia illucens) has recently gained global attention for its remarkable ability to contribute to sustainable practices, particularly in food production and waste management. Originally found in warm, tropical climates, this insect has now adapted to environments worldwide, thriving in areas rich in organic waste. With an extraordinary life cycle that turns waste into valuable resources, the black soldier fly stands as a powerful symbol of environmental stewardship and circular economy innovation.

Measuring 16–20 millimetres in length, the adult black soldier fly features a sleek, metallic black body that resembles a wasp. Despite its formidable appearance, the adult fly is entirely harmless—it doesn’t bite, sting, or spread disease. The true magic happens in the larval stage. These greyish-white, legless larvae, voraciously consume organic waste, including food scraps and manure. In doing so, they convert discarded material into nutrient-dense biomass, rich in proteins and fats. This larval biomass is processed into high-quality feed for livestock such as poultry, fish, pigs, and pets, creating a sustainable alternative to traditional animal feeds.
Beyond its role in producing animal feed, the black soldier fly also contributes to soil health. After the larvae have completed their feeding cycle, the remaining organic residue, known as frass, is an excellent source of natural fertilizer and soil conditioner. This by-product helps to close the loop in waste management systems by turning waste into renewable resources, reducing the need for chemical fertilisers and promoting healthier soils.