Earth
How IIT Kanpur is Paving the Way for a Solar-Powered Future in India’s Energy Transition
At IIT Kanpur, an ambitious solar energy project is reshaping the way India approaches renewable energy. By integrating solar power with smart grids and energy storage, the project aims to make communities more energy-independent and sustainable
The narrow roads within IIT Kanpur’s campus wind through a vibrant residential neighbourhood, where compact, beautifully designed homes house the staff. Above these homes, solar panels gleam in the sunlight—not merely as an aesthetic feature, but as a symbol of a much larger energy transformation underway. This gleam reflects a bold vision for India’s energy future, one that’s driven by solar power, smart technology, and community participation.
At the heart of this transformation is IIT Kanpur, located in India’s Uttar Pradesh, lighting the way toward an energy future powered by clean, renewable energy. With innovation as its cornerstone, IIT Kanpur is shaping a new model of energy independence for India—a model that could be replicated across the country.
The spark of change
In 2017, the Indo-US partnership, known as the US-India Collaborative for Smart Distribution System with Storage (UI-ASSIST), was launched, bringing together top institutions from both countries. Led by Washington State University in the U.S. and IIT Kanpur in India, the partnership also includes IIT Delhi, IIT Madras, IIT Roorkee, IIT Bhubaneswar, and TERI (The Energy and Resources Institute). Their collective goal: to create scalable, sustainable solutions for integrating renewable energy into India’s power grid. “This new consortium demonstrates the U.S. and India’s commitment to ensuring access to affordable and reliable energy in both countries,” said then-U.S. Energy Secretary Rick Perry. “We know that continued grid innovation will foster economic growth and enhance energy security in both the United States and India.”
IIT Kanpur’s residential area has become a testing ground for this vision. Out of the 51 homes in residential lanes 32 and 33, 30 houses were selected based on a shadow analysis survey. These homes have been equipped with 5kWp Solar Photovoltaic (PV) systems and state-of-the-art smart meters, turning residents into active energy producers. This transformation was part of a larger vision to create a microgrid capable of providing energy independence to the community.

A model of solar empowerment
Imagine this: families, once entirely dependent on the grid, now waking up to homes powered by the sun. “In Lane 32, 12 of the 21 homes are now powered by solar energy, while 18 out of 30 homes in Lane 33 have solar PV installations,” says Shiv Kumar Singh, Research Establishment Officer at IIT Kanpur’s Department of Electrical Engineering.

These homes are no longer passive consumers. With 5 kW of solar capacity, they actively contribute to the energy network, providing power to the grid and helping to reduce the community’s overall carbon footprint. For IIT Kanpur, this project is more than just an experiment—it’s a proof of concept for how solar energy can be scaled beyond cities and industries and into residential communities.
The hidden power: Energy storage and control
At the core of this experiment lies a powerful duo: energy storage and smart management. According to Shiv Kumar Singh, the project integrates two centralized lithium-ion battery storage systems—one with a 140 kWh capacity and another with 100 kWh. These systems store excess solar energy generated during the day and return it to the grid during the evening, when the sun sets.
But it doesn’t stop there. The project is made even smarter by the use of data. Smart meters, installed throughout the system, constantly collect data on energy consumption. This data is fed into a SCADA control center, where it’s analyzed in real-time to optimize energy usage and ensure the grid operates as efficiently as possible. This intelligent, data-driven approach maximizes every watt of energy generated and consumed.

Driving the future of clean transportation
As solar energy begins to power homes, another puzzle piece is being put in place: clean transportation. At IIT Kanpur, two new electric vehicle (EV) charging stations have been set up near the main gate and the nearby Community Centre. These stations are equipped with a variety of chargers, including 50kW DC fast chargers, 22kW AC chargers, and 7.6kW Vehicle-to-Home (V2H) chargers, integrated with a 25kW solar PV array.
This isn’t just about charging vehicles; it’s about creating a self-sustaining ecosystem where transportation and energy generation are interconnected. By using clean energy to charge electric vehicles, IIT Kanpur is contributing to a future where urban mobility is powered by renewable resources, significantly reducing the carbon footprint of transportation.
Smart and sustainable: The microgrid revolution
The centerpiece of this entire initiative is the microgrid, which is controlled and optimized by a sophisticated Microgrid Controller. This technology ensures that energy is distributed efficiently among solar PV systems, storage units, and EV charging stations, keeping everything balanced and functioning smoothly. Thanks to real-time data analysis from the smart meters and SCADA center, the system isn’t just reactive—it’s proactive, learning from its environment and optimizing energy use as it goes.
Urban field demonstration pilot at IIT Kanpur
With growing urban energy demands, India faces a unique set of challenges. Multi-story buildings, high air-conditioning loads, and reliance on Diesel Generators (DGs) for backup power add significant strain to the grid and contribute to pollution. IIT Kanpur is tackling these issues head-on with two groundbreaking sub-pilots that demonstrate innovative energy solutions.

The first sub-pilot features a small, grid-connected microgrid designed to supply energy to two multi-story residential towers. By integrating Solar PV systems and Battery Energy Storage Systems (BESS), this project reduces the reliance on DGs and provides a more sustainable, reliable energy source. During power outages, BESS ensures uninterrupted power for essential services, such as lifts and lighting in common areas.
The second sub-pilot showcases the potential of Thermal Energy Storage (TES) system, which, inaugurated in November 2020, help reduce peak air-conditioning loads. By storing cool energy during off-peak hours, TES systems cut energy consumption during peak demand times. This system has already been installed at IIT Kanpur’s Centre for Environmental Science and Engineering, where a 775 TRHR TES system is actively reducing air-conditioning loads, further enhancing energy efficiency.
The environmental impact
IIT Kanpur’s approach goes beyond technology; it’s about creating lasting environmental and social benefits. By integrating TES and solar PV systems, the initiative not only reduces peak load but also cuts carbon emissions, contributing to India’s carbon-neutral goals. The integration of BESS ensures that the urban microgrid remains reliable even during power outages, helping foster long-term sustainability.
The 775 TRHR TES system at the Centre for Environmental Science and Engineering plays a key role in reducing the building’s air-conditioning demand. By using phase change materials with glycol solution as the coolant, it absorbs off-peak energy to cool the building during peak periods, leading to significant energy savings.
According to a research paper (2022) by Suresh Chandra Srivastava, Sameer Khandekar, Shiv Kumar Singh, Vinay Kumar Tiwari, and Ankush Sharma from IIT Kanpur, this system has led to a reduction in peak load energy consumption, as verified through data recorded by the SCADA system monitoring the Institute’s power distribution network. By discharging during peak hours and charging during off-peak hours, the system helps reduce peak load and offers potential cost savings, as electricity costs are higher during peak times.

This technology has the potential for widespread adoption in smart cities and data centers across India, further advancing the country’s renewable energy vision.
Shaping India’s renewable energy future
India’s goal of achieving 500 GW of renewable energy capacity by 2030, with a significant portion coming from solar, is ambitious but increasingly attainable with projects like IIT Kanpur’s. With nearly 40% of solar PV installations expected to be on rooftops connected to the distribution network, initiatives like this one are essential for meeting the country’s renewable energy targets.
By demonstrating how solar energy, energy storage, and sustainable infrastructure can be integrated at the community level, IIT Kanpur is not just building a model for India—it’s creating a blueprint for the world. As the world shifts towards a cleaner, more sustainable future, IIT Kanpur is leading the way.
(This story is produced as part of the Internews Earth Journalism Network’s Science Communicators Workshop on renewable energy)
Earth
Vantara: Inside a Billionaire-Backed Bid to Build a Global Wildlife University
The launch comes at a time when conservation challenges are becoming increasingly complex.
A new private university focused on wildlife conservation and veterinary sciences is being positioned as an ambitious attempt to reshape how the world trains the next generation of conservation professionals—backed by one of Asia’s most influential business families.
The institution, Vantara University, has been launched in western India by a wildlife initiative founded by Anant Ambani, part of the Reliance group. Framed as an integrated academic ecosystem, the project reflects a growing trend where private capital is stepping into areas traditionally led by public institutions and global nonprofits.
Vantara officially describes the university as the “world’s first integrated global university” dedicated to wildlife conservation and veterinary sciences. While the scale and integration may be distinctive, similar disciplines are already taught across universities worldwide, often through specialised schools, research centres, and veterinary colleges.
The claim, therefore, rests less on the existence of such education and more on the attempt to consolidate it within a single, purpose-built institutional framework.
A Shift Toward Education-Led Conservation
The launch comes at a time when conservation challenges are becoming increasingly complex. Climate change, habitat fragmentation, and the spread of zoonotic diseases are reshaping ecosystems and exposing the limits of traditional conservation models.
There is a growing recognition that protecting biodiversity will require not just field interventions, but a systemic expansion of expertise—from wildlife veterinarians and epidemiologists to policy specialists and conservation planners.
Vantara University aims to respond to this gap by bringing together disciplines such as wildlife medicine, genetics, behavioural sciences, epidemiology, and conservation policy under one academic structure.
Blending Science, Scale, and Philosophy
The university’s vision combines scientific training with a philosophical framing rooted in compassion and stewardship. Its design draws inspiration from historical centres of learning, while positioning itself as a modern, purpose-led institution.
“The future of conservation will depend on how we prepare minds and institutions to serve life with compassion, knowledge, and skill,” Anant Ambani said in a statement.
“Vantara University is shaped by a deeply personal journey of witnessing animals in distress and recognising the need for greater capability in their care… the university seeks to nurture a new generation committed to protecting every life.”
Global Ambitions, Local Foundations
Although based in India, the project is clearly aimed at a global audience.
The university plans to offer undergraduate, postgraduate, and specialised programmes, supported by research infrastructure and international collaborations. It also emphasises action-oriented learning, linking academic work with real-world conservation practices.
This approach reflects a broader shift in higher education, where institutions are increasingly expected to produce not just knowledge, but deployable expertise.
The Rise of Private Influence in Conservation
The initiative also highlights a larger structural shift: the growing role of private capital in shaping conservation agendas.
Historically, conservation has been driven by governments, multilateral agencies, and non-profit organisations. However, large-scale funding gaps and the urgency of environmental crises are opening the door for philanthropic and corporate actors to play a more prominent role.
This raises both opportunities and questions.
Private initiatives can accelerate innovation and investment, but they also bring concerns around governance, accountability, and long-term alignment with public interest.
Questions of Access and Impact
As with many specialised institutions, accessibility will be a critical test.
While the university has announced scholarships aimed at supporting students from diverse backgrounds, the broader question remains: can such models scale inclusively, particularly for communities most directly affected by environmental change?
The effectiveness of the initiative will also depend on its ability to influence policy, contribute to global research, and produce professionals equipped to address complex ecological challenges.
A Changing Conservation Landscape
The launch of Vantara University signals a deeper transition in how conservation is being imagined.
Increasingly, the field is moving beyond isolated interventions toward integrated systems that connect science, education, and practice. In this context, universities are not just centres of learning—they are becoming critical infrastructure in the fight to preserve biodiversity.
Whether this particular model succeeds will depend on execution, collaboration, and its ability to move beyond vision into measurable impact.
But its emergence underscores a central reality:
The future of conservation may depend as much on classrooms and laboratories as it does on forests and protected areas.
Earth
Study Reveals How Ocean Bacteria Drive Plastic Biodegradation
Plastic biodegradation is emerging as a critical solution to the global waste crisis, and new research from Massachusetts Institute of Technology offers important insights into how this process actually works in nature.
A new study by researchers at Massachusetts Institute of Technology has shed fresh light on how bacteria in marine environments collaborate to break down biodegradable plastics—offering critical insights into tackling the global plastic waste crisis.
Biodegradable plastics have long been seen as a potential solution to mounting environmental pollution. However, scientists have struggled to determine how long these materials persist in real-world conditions and how microbial communities contribute to their breakdown.
The study, published in Environmental Science and Technology, marks one of the first efforts to identify the specific roles individual bacterial species play in plastic biodegradation.
“Plastic biodegradation is highly dependent on the microbial community where the plastic ends up,” says lead author Marc Foster, a PhD researcher in the MIT-WHOI Joint Program. “It’s also dependent on the chemistry of the plastic itself.”
Unlike earlier studies that focused on single microbes, the MIT team examined how multiple bacterial species work together—a more realistic representation of how plastics degrade in nature.
The researchers studied a widely used biodegradable plastic known as an aromatic aliphatic co-polyester, commonly found in shopping bags, food packaging, and agricultural films.
Samples of this plastic were first exposed to seawater in the Mediterranean, allowing natural bacterial communities to form biofilms on their surface. Scientists then isolated and analysed these microbes in the lab.
Key findings include:
- One bacterium, Pseudomonas pachastrellae, was able to break down the plastic polymer into smaller chemical components.
- Other bacterial species were needed to consume those individual chemicals, including terephthalic acid, sebacic acid, and butanediol.
- No single bacterium could complete the entire degradation process alone.
When researchers combined five complementary bacterial species, they were able to replicate the full degradation process observed in a larger microbial community.
“This complementary function was essential,” Foster explains. “None of the bacteria alone could achieve the same level of degradation as when they worked together.”
Why Plastic Biodegradation Rates Vary
The findings suggest that the speed and efficiency of plastic biodegradation depend on several key factors:
- Microbial diversity in the environment
- Chemical composition of the plastic
- Environmental conditions such as temperature and depth
Notably, the study also found that the same bacterial community could not degrade a different type of plastic, indicating that microbial systems may be highly material-specific.
Implications for Future Plastic Recycling Solutions
The research represents an important step toward developing microbial recycling systems that could convert plastic waste into useful materials.

By understanding how bacteria interact with plastics at a molecular level, scientists could:
- Design plastics that degrade more predictably
- Engineer microbial communities for faster plastic breakdown
- Develop biological recycling technologies
Foster notes that future work will explore how to optimise bacterial combinations and improve enzyme interactions with plastic surfaces.
A Step Forward in Tackling the Plastic Waste Crisis
With more than half of global plastic waste ending up in landfills or the environment, understanding plastic biodegradation is crucial for sustainable material design.
This study highlights a fundamental shift in perspective: plastic degradation is not driven by a single organism, but by complex microbial collaboration.
As research advances, such insights could help bridge the gap between biodegradable materials and real-world environmental outcomes—bringing science closer to solving one of the planet’s most pressing pollution challenges.The study, published in Environmental Science and Technology, marks one of the first efforts to identify the specific roles individual bacterial species play in plastic biodegradation.
“Plastic biodegradation is highly dependent on the microbial community where the plastic ends up,” says lead author Marc Foster, a PhD researcher in the MIT-WHOI Joint Program. “It’s also dependent on the chemistry of the plastic itself.”
Unlike earlier studies that focused on single microbes, the MIT team examined how multiple bacterial species work together—a more realistic representation of how plastics degrade in nature.
Earth
EP Investigation: Hidden Epidemic, Tuberculosis Spreads Among Kerala’s Captive Elephants
An EP Investigation into tuberculosis in Kerala’s captive elephants reveals human transmission risks, weak screening systems, and urgent policy gaps.
Tuberculosis in Kerala’s captive elephants has become a silent but persistent threat, driven largely by human-to-animal transmission, chronic stress, and systemic failures in veterinary public health. An EdPublica (EP) Investigation reveals how the absence of routine screening, weak governance, and prolonged neglect could turn a preventable disease into a far larger crisis in the years ahead.
By Lakshmi Narayanan | EP Investigation
Tuberculosis is quietly spreading among Kerala’s captive elephants, sustained not by wildlife exposure but by human contact, chronic stress, and systemic neglect. Long treated as a marginal veterinary issue, the disease represents a serious and largely ignored public health and animal welfare crisis—one that experts warn could intensify in the coming years if left unaddressed.
Kerala hosts one of the largest populations of captive Asian elephants in India, housed by temples, private owners, and festival organisers. According to a Forest Department survey concluded in February 2025, the state currently has 389 captive elephants, marking a steady decline from 521 in 2018 and over 700 in 2010, with the majority now owned by private individuals. This sharp reduction over the past decade reflects broader stresses within the captive elephant system, including ageing animals, declining ownership viability, and chronic health concerns.
Within this shrinking population, tuberculosis is neither new nor rare; it is endemic. Historical veterinary records and animal welfare documentation indicate that in earlier years, TB may have contributed to as many as 25 captive elephant deaths annually. Yet in recent times, detailed and transparent reporting on TB-related infections and fatalities has largely disappeared from public view, creating a misleading impression that the risk has diminished when, in reality, surveillance itself has weakened.
This absence of attention does not signal reduced risk. Tuberculosis is a slow, insidious disease that can remain latent or undiagnosed for years. Without mandatory screening or transparent surveillance, infection can circulate undetected within captive elephant populations—allowing animals to suffer prolonged illness and potentially function as silent reservoirs of infection.

The persistence of tuberculosis among captive elephants is not accidental. It is the result of a convergence of vulnerabilities: constant exposure to infected humans, immune suppression driven by captivity-related stress, and systemic failures in veterinary public health governance. Together, these factors have created ideal conditions for a preventable disease to endure—largely unseen, and largely unchallenged.
The Human–Elephant Interface: A Critical Transmission Pathway
The primary route of TB transmission among Kerala’s captive elephants is reverse zoonosis: the spread of infection from humans to animals. The causative agent, Mycobacterium tuberculosis, is a human-adapted pathogen transmitted through respiratory aerosols. In settings where elephants live and work in close proximity to people, this pathway becomes epidemiologically decisive.
Mahouts and handlers represent the most significant source of chronic exposure. Their daily routines—feeding, bathing, training, and transporting elephants—require prolonged, close physical contact. If a handler carries an active or latent TB infection, the opportunity for transmission to the animal is constant and cumulative.
In addition to handlers, the general public constitutes a secondary but important exposure source. Kerala’s festival culture routinely places elephants amid dense crowds, often for extended periods. These gatherings create intermittent but high-volume opportunities for transmission from undiagnosed or untreated individuals within the broader population. Together, these human reservoirs ensure that captive elephants are rarely insulated from the pathogen. Yet exposure alone does not fully explain disease persistence. The risk of infection is significantly magnified by conditions that undermine the elephants’ immune defenses.
“Tuberculosis in captive elephants is a severe and often underestimated disease. What is seen during post-mortem examinations is extensive, chronic organ damage that reflects prolonged suffering rather than sudden illness. These findings are consistent with long-term exposure to Mycobacterium tuberculosis and delayed detection, Dr. Arun Vishvanathan, a veterinary expert based in Kerala’s Palakkad district, tells EdPublica.
“From a medical and public health perspective, this condition is particularly concerning because it is largely driven by human-to-animal transmission. Elephants living in close, continuous contact with people—especially under stressful captive conditions—experience immune suppression, which allows the infection to progress unchecked. This is not an unavoidable disease; it is a preventable one. Without routine screening of both handlers and elephants, early diagnosis, and strict biosecurity measures, such cases will continue to occur, resulting in needless animal suffering and ongoing public health risk,” Dr. Arun Vishvanathan adds.
Stress, Captivity, and Immune Compromise
Captive environments impose profound physiological and psychological stress on elephants, a species evolved for expansive movement, complex social structures, and environmental autonomy. Confinement to restricted spaces, prolonged chaining, limited exercise, and forced participation in noisy, crowded festivals all contribute to chronic stress.
Scientific evidence across species demonstrates that sustained stress suppresses immune function. In elephants, this immunosuppression reduces resistance to opportunistic infections such as TB and increases the likelihood that latent infections will progress to active disease.
Crowding further compounds the problem. Elephants housed in close quarters or transported frequently between venues are exposed not only to more humans but also to environments conducive to airborne disease transmission. In these conditions, respiratory pathogens can spread efficiently, especially when animals are already physiologically compromised.

”Tuberculosis in Kerala’s captive elephants spreads primarily through close, repeated contact with infected humans, and is sustained by conditions that weaken the animals’ natural defenses. Unlike many wildlife diseases, this is not an infection originating in forests—it is largely a human-driven disease cycle. Mahouts and handlers are the most significant transmission source. Daily activities such as feeding, bathing, chaining, and transport require close physical proximity, often for hours at a time. If a handler has active or undiagnosed TB, the elephant is repeatedly exposed to infectious aerosols,” says Manuprasad, an elephant welfare worker from Thrissur.
Festival crowds and tourists create additional exposure. During temple festivals and public events, elephants are surrounded by dense crowds, sometimes for entire days. In these settings, even brief exposure to multiple infected individuals can result in infection.
Systemic Gaps in Veterinary Public Health
Perhaps the most critical vulnerability lies not in biology but in governance. Kerala lacks a standardized, mandatory TB screening programme for captive elephants. As a result, infected animals—many of them asymptomatic—remain undiagnosed for years. This failure in routine surveillance effectively blinds any meaningful public health response and allows elephants to function as silent reservoirs of infection.
Experts warn that tuberculosis in Kerala’s captive elephants could expand if mandatory screening and biosecurity measures are not urgently implemented.
Nutritional inadequacy is another systemic issue. Economic pressures within the temple and festival ecosystem often translate into suboptimal feeding regimes. Poor nutrition weakens immune responses, lowering the infectious dose required for TB to establish and spread.
Compounding these challenges is a widespread lack of awareness among elephant owners and handlers regarding TB transmission and prevention. Clear, enforceable biosecurity protocols—covering quarantine, treatment, and movement restrictions for TB-positive animals—are largely absent or inconsistently applied. Without such measures, even identified cases pose an ongoing risk to other elephants and to humans.

”As an animal rights and welfare activist, I have personally witnessed the post-mortem of an elephant affected by tuberculosis, and it was deeply distressing. The extent of internal damage revealed the severe and prolonged suffering this animal endured—far beyond what most people realize. Seeing such devastation in an animal of immense strength and dignity is heartbreaking,” explains Ambili Purackal, founder of DAYA, a Kerala-based NGO known for its proactive role in the state’s animal rights movement.
What makes this suffering even harder to accept is that it is largely the result of human exposure. Elephants do not face tuberculosis at these levels in the wild; they contract it through forced, prolonged contact with humans under stressful captive conditions that weaken their immunity. This is not just a veterinary concern but a moral one. These elephants are silent victims of preventable disease, and their suffering is a consequence of human neglect and systemic failure,” Ambili Purackal says.
Secondary and Less-Documented Risks
While human-to-elephant transmission remains the dominant concern, other pathways cannot be entirely dismissed. Interactions with domestic livestock or wildlife in shared environments may contribute to transmission chains, though this remains poorly documented in the Indian context. These ancillary risks further underscore the need for comprehensive epidemiological research.
A Convergence of Vulnerabilities
Taken together, the vulnerabilities facing Kerala’s captive elephants form a self-reinforcing cycle. Constant exposure to a human TB reservoir, chronic immune compromise driven by captivity-related stress and poor nutrition, and systemic failures in disease detection and control create ideal conditions for TB persistence.
Breaking this cycle will require a multi-layered public health approach—one that integrates routine screening, improved nutrition, handler health monitoring, and enforceable management protocols. Without such intervention, tuberculosis will remain a silent epidemic, exacting a slow but devastating toll on one of Kerala’s most culturally significant animal populations.
Silence, in this case, is not neutrality—it is risk.
What Needs to Change
Addressing tuberculosis among Kerala’s captive elephants requires coordinated action across animal welfare, public health, and governance. Experts and welfare workers interviewed by EdPublica point to the following urgent priorities:
1. Mandatory TB Screening
· Routine, standardised tuberculosis testing for all captive elephants
· Regular TB screening for mahouts, handlers, and caretakers
· Immediate isolation and treatment protocols for positive cases
2. Handler Health Monitoring
· Integration of mahout health checks into public TB control programmes
· Confidential diagnosis and treatment access to reduce stigma and underreporting
3. Improved Living Conditions
· Reduced chaining and confinement
· Adequate daily exercise and social interaction
· Limits on festival exposure, crowd density, and noise-related stress
4. Nutritional Standards
· Enforced minimum nutrition guidelines
· Regular veterinary audits to ensure immune-supportive diets
5. Biosecurity and Movement Controls
· Quarantine protocols for newly acquired or transferred elephants
· Restrictions on inter-district or inter-state movement of TB-positive animals
6. Transparent Reporting and Oversight
· Publicly accessible data on TB cases and outcomes
· Independent audits of temple and private elephant management practices
7. Interdepartmental Coordination
· Formal collaboration between forest, animal husbandry, and public health departments
· Recognition of TB in captive elephants as a One Health issue—linking human, animal, and environmental health
Some sources in this investigation have requested anonymity due to professional or personal safety concerns. Their identities are known to EdPublica and their statements have been independently verified.
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