Headquarters
The Energy and Resources Institute (TERI)
Darbari Seth Block, Core 6C,
India Habitat Centre, Lodhi Road,
New Delhi - 110 003, India
Textile & Coloration Industry faces the most challenging issue of removal of colour and dissolved organics due to the presence of complex dyes and pigments in the effluent, which are not being able to be removed by conventional and biological treatment technologies. Which in turn impacts the biological treatment making is shock prone and leading to inadequate treatment with discharge of coloured effluent through drains in the rivers.
The rapid expansion of population and industrial activities in India has led to acknowledging the critical importance of water conservation. Addressing the escalating water usage within water-intensive industries is essential, given their significant contribution to the economy alongside their substantial impact on water resources. Amongst the water-intensive industries, thermal power plants are the highest consumer of water, followed by pulp & paper, textiles, and iron & steel industries.
India's enormous financial requirements to address climate change and ensure just transitioning for its economy cannot be met by the lone public sector and would require catalyzing private finance and institutional investment into climate initiatives. Green bonds offer an emerging financial instrument that holds the potential to attract private investors into climate action. However, unlike the exponential growth of green bonds in the global market, they still occupy only a scanty share of the Indian bonds market.
Energy transition is at the core of restricting global climate change and achieving sustainable development. The difference between a gradual and rapid transition will eventually determine the climate future of India. During the last decade, there has been a steep decline in the costs of renewables (solar and wind) and energy storage technologies (BESS), which helped India in reaching a significant milestone of 125 GW renewable capacity in 2021.
India’s continued commitment to achieving the clean energy transition is well recognized worldwide. At COP26, India announced the highly ambitious goal of decarbonizing energy to 50% and achieving 500 GW of fossil fuel-free generating capacity by 2030.
Currently, the packaging material is composed of fossil fuel-based plastics, which are non-biodegradable. Therefore, the biodegradable coating material developed from cellulose can be explored for applications like packaging, cutlery, bowls, straws, etc. The aim of the present study was to develop an agro-waste-based sustainable coating material using a waste-towealth approach. The study focused on transforming cellulose and cellulose nanofibre (CNF) derived from rice straw into biodegradable polymeric coatings.
In the present scenario of accelerated research on production of ecofriendly bioethanol, second-generation bioethanol generation has particularly gained wide attention. These utilize agricultural feedstock and industrial residues, therefore assisting in their management without presenting any competition for food supplies. Rice straw is one such abundantly generated agricultural residue with a great potential for sustainable production of bioethanol.
Temporal variation in forest cover, the largest terrestrial ecosystem on Earth, influences the climate at both local, regional, and global scales through physical, chemical, and biological processes. At the same time, forests sequester and store more carbon dioxide than any other terrestrial ecosystem and act as a "natural brake" in climate variation. Here, we have made an attempt to assess the spaio-temporal variation in forest biomass combining field-based and remote sensing and machine learning approaches.
Rice straw is a waste product generated after the harvesting of rice crops and is commonly disposed of by burning it off in open fields. This study explored the potential for the extraction and conversion of cellulose to cellulose nanofibres (CNFs) to be used as smart delivery systems for fertilizers applications. In this study, alkali, steam explosion, and organosolv treatments were investigated for cellulose extraction efficiency. The morphological characterization of cellulose showed smooth fibrillar structures.
Cellulose nanofibres (CNF) have emerged as advanced systems for controlled, smart delivery of N-fertilizer owing to their surface modification properties. However, to realize the true potential of this nanomaterial, its biodegradation analysis would be crucial to understanding its impact and fate when exposed to the environment. In this study, the main focus was to investigate the effect of N-fertilizer loaded CNF (electrostatic interaction between the negatively charged COO– group on CNF and the positively charged ammonium ion) on the microflora of the soil.