Organic food isn’t just a trend; it’s a healthier, more sustainable way of living. For decades, researchers have highlighted the benefits of organic farming for both human health and the planet.
Unlike conventional farming, which relies heavily on synthetic fertilisers and pesticides, organic practices work in harmony with nature. By choosing organic, you’re making an investment in your well-being and a better future for the environment.
Here’s a deeper look into why organic food is a smart choice for both your plate and the planet.
Chemical exposure: Organic foods are free from harmful pesticides, contaminants, and synthetic additives found in conventional options, helping you avoid unnecessary chemical intake. Studies show that organic foods have significantly lower pesticide residues compared to conventional produce, which is crucial for reducing exposure to toxic chemicals.
More nutritious: A 2016 European study found that organic meat and milk contain up to 50% more omega-3 fatty acids than conventional options. Additionally, organic produce is often richer in essential vitamins, minerals, and antioxidants. For instance, organically grown berries and corn have been shown to contain up to 58% more antioxidants and higher levels of vitamin C.
Lower health risks: Research suggests that consuming organic foods may help lower the risk of certain health issues, particularly among women. A systematic review indicated that regular consumption of organic products is associated with reduced risks of obesity and certain cancers.
Antioxidants-rich: Organic foods are higher in antioxidants, which protect your cells from damage and may lower the risk of chronic diseases. Studies indicate that antioxidant levels can be up to 69% higher in organic foods compared to conventional ones.
Cleaner, simpler nutrition: Free from artificial colors, flavors, and preservatives, organic foods offer a purer way to nourish your body. This simplicity promotes a healthier lifestyle without the burden of synthetic additives.
No GMO: Organic produce is GMO-free, ensuring you enjoy the freshest and most natural food possible. This aspect aligns with consumer preferences for non-genetically modified options.
Fighting climate change: Organic farming practices like composting and crop rotation help store carbon in the soil, reducing greenhouse gas emissions. Research indicates that organic farms can sequester more carbon compared to conventional farms.
Natural methods: Organic farmers utilise crop rotation, composting, and natural pest control instead of synthetic chemicals. This approach fosters a healthier environment by promoting biodiversity and soil health.
Reduce pollution: By avoiding synthetic fertilisers and pesticides, organic farming minimises harmful chemical runoff into air, soil, and waterways. This protection is vital for maintaining healthy ecosystems.
Eco-friendly packaging: Many organic products come in sustainable packaging options like glass jars or reusable containers, further reducing waste and minimising environmental footprints.
Also read: Against the grain: Lab couple goes organic
Protecting aquatic ecosystems: By avoiding synthetic fertilisers, organic farming prevents toxic runoff that pollutes rivers and lakes. This practice helps maintain cleaner water sources essential for aquatic life.
Healthy pollinators: Organic farming methods create safe havens for pollinators such as bees and butterflies. These insects are crucial for food production; their protection is threatened by conventional farming's heavy pesticide use.
Safeguarding wildlife habitats: By steering clear of toxic herbicides and insecticides, organic farming protects wildlife habitats from chemical accumulation that disrupts natural ecosystems.
Organic farmers often rely on traditional seed varieties known for their resilience to disease and climate stress. This practice enhances genetic diversity within crops, reducing the risk of widespread failures due to disease or environmental changes. In contrast, conventional farming typically depends on a narrow range of seed varieties.
Also read: The tribal seed guardians of Dindori
Going organic isn’t just about what’s on your plate; it’s an investment in a healthier future for yourself and the environment. By choosing cleaner, nutrient-rich food and supporting sustainable practices, every organic choice creates a positive ripple effect–protecting ecosystems while promoting long-term sustainability.
In recent years, India has been making strides to reduce its environmental impact. Algae cultivation could be the answer to many of the nation’s environmental problems, and many organisations are exploring the mass production of microalgae like Spirulina and Chlorella. Quick-growing and packed full of nutrients, microalgae could replace animal feeds, enhance nutritional supplements, and even power our society through the use of biofuels.
“I see that microalgae can play critical roles in many aspects of the circular economy, including the cycling of carbon, nitrogen, and phosphorus that impact the production of food and feed, fertilisers, fuels and chemicals, wastewater treatment, environmental remediation, and metal recovery,” said Jianping Yu, a researcher at the National Renewable Energy Laboratory.
India's carbon dioxide emissions surpassed 2.5 billion tons in 2022. Microalgae can capture substantial amounts of carbon dioxide from the atmosphere, actively reducing air pollution as they grow. By integrating microalgae cultivation with emission-heavy industries, India could turn an ecological crisis into an opportunity for carbon capture.
Meanwhile, India’s Ministry of Science and Technology’s INSPIRE program (Innovation in Science Pursuit for Inspired Research) has spent the last decade advancing biodiesel production from microalgae. Led by T Mathimani from the National Institute of Technology (NIT), the initiative aims to create a sustainable, cost-effective biodiesel production model. INSPIRE's pioneering work marks a critical step towards a future where clean, renewable fuel is the norm.
Oceanic microalgae farming, which involves cultivating various microalgae species in seawater, is emerging as a popular solution due to its high carbon absorption through photosynthesis. The process not only helps combat air pollution but also avoids competition for arable land. Seawater, naturally rich in essential nutrients like phosphorus, provides an ideal growing environment for these tiny powerhouses. Compared to terrestrial plants, microalgae can grow up to a hundred times faster, presenting a highly efficient solution for sustainable agriculture and carbon capture.
Despite its promise, large-scale microalgae farming is not without its hurdles. “Crop protection is a big challenge in large-scale microalgae cultivation. Microalgae could be outcompeted by other algae, or consumed by predators like ameba. Weather events such as heavy rainfalls or gust winds can also lead to crop loss in outdoor ponds,” Yu said. Managing these challenges is essential to maintaining the viability of microalgae farming as a sustainable resource.
As the world seeks sustainable alternatives to resource-heavy crops, microalgae emerges as a remarkable solution, growing at astonishing rates and requiring minimal resources. In carefully designed vessels called photobioreactors, microalgae flourish with little more than light and nutrients, offering a powerful approach to curb the environmental toll of traditional agriculture.
Photobioreactors, transparent chambers that harness sunlight, provide the ideal setting for microalgae growth. Light seeps in through the clear walls, maximising exposure, while osmosis between seawater and freshwater in the chamber intensifies nutrient concentration in the algae, fostering rapid growth. In fact, some microalgae species can be harvested twice a day, underscoring their unmatched efficiency.
By integrating microalgae into livestock feed, we could sharply reduce the need for traditional feed crops like soy and corn. High in essential vitamins (A, B1, B2, B6, B12, C, E) and minerals (such as potassium and calcium), microalgae offer a nutrient-rich feed that also saves freshwater and prevents deforestation. For livestock, it promises not only improved health but also a natural supplement, further benefiting agricultural sustainability.
Microalgae’s nutrient profile doesn’t just benefit animals; it’s equally powerful as a human supplement, containing essential vitamins and minerals that bolster health. This superfood grows with minimal inputs, adding a potent yet environmentally friendly nutritional source to our food options.
As scientists race to replace petroleum-based plastics, microalgae show potential as a base material for eco-friendly composites. By blending microalgae into bioplastics, researchers are tapping into a renewable resource to craft durable, degradable materials–one more step towards a world free of plastic waste.
From efficient feed to plastic alternatives, microalgae could transform our approach to sustainability, combining ecological benefits with practical applications. As India faces the challenge of sustainable energy, microalgae offers a promising solution that could transform biofuel production. Heterotrophic microalgae, which can convert organic compounds into lipids, present a green pathway to biodiesel production. In addition, microalgae can be used to produce bioethanol, making it a versatile option in the quest for eco-friendly fuel. With its ability to grow quickly and thrive in diverse conditions, microalgae could reshape fuel production on a global scale.
Compared to livestock farming and other resource-intensive agriculture, microalgae farming has minimal environmental impact. Growing microalgae in seawater reduces the need for arable land and conserves freshwater, which is critical in a country like India, where water scarcity is a pressing concern. By utilising seawater, microalgae cultivation avoids the high freshwater demands of traditional crops, saving precious resources and reducing waste.
Microalgae have the natural abilities to absorb carbon dioxide through photosynthesis. This ability can help reduce global warming as a whole if the carbon absorbed into microalgae is not released back into the atmosphere.
Microalgae’s natural photosynthesis process captures large amounts of carbon dioxide, actively helping to mitigate climate change. With its rapid growth rate, microalgae offers a faster, more efficient option for reducing pollution than most terrestrial plants.
“Microalgae have the natural abilities to absorb carbon dioxide through photosynthesis. This ability can help reduce global warming as a whole if the carbon absorbed into microalgae is not released back into the atmosphere. For example, if the algal biomass is used to produce polyurethane that is incorporated into furniture, the carbon is locked away at least for decades,” said Yu.
Diseases from polluted water, such as Hepatitis and Cholera, affect millions across India, and microalgae offers another critical benefit: its ability to absorb heavy metals. Using biosorption, bioaccumulation, and metallic transformation processes, microalgae can remove toxins from oceans and rivers, improving water quality and ecosystem health. Studies from 2022 confirm that Indian waters have alarmingly high levels of heavy metal pollution, underscoring the need for effective, natural solutions like microalgae to restore balance. The natural filtration process could be a game-changer for water-stressed regions and polluted rivers across the country.
The microalgae cultivation field is only now starting to be taken seriously, but it may have significant effects on food waste in India and the world as a whole. Through the use of microalgae as a sustainable food and fuel source, carbon emissions and deforestation will be greatly reduced.
Although the future of environmental sustainability will be a challenging road for India, emerging agricultural technologies like oceanic microalgae farming are leading the effort to create a greener planet.
Sugar's fall from grace happened fast. It used to be a rare treat, but now it's everywhere. Back during WWII, sugar was rationed for the war effort–it was essential for things like antiseptics and even explosives. Housewives were told to use syrup from canned fruit to sweeten their cakes. After that, food companies saw the potential of sugar and loaded it into everything to make their products tastier.
Now, we’re dealing with the fallout. Sugar isn’t just about cavities anymore; it’s linked to heart disease, diabetes, and cancer–conditions that kill more people today than infections. Experts are now pushing for tighter regulations, saying sugar’s impact on the body is similar to alcohol.
Today, sugar dominates supermarket aisles worldwide, but few remember its origins in the Indian subcontinent. Born from the sugarcane fields of India, this white powder has become a staple in desi households, inseparable from daily rituals and celebrations. However, this "kuch meetha hojaaye" instinct has significant consequences.
India, dubbed the world’s diabetes capital, is on track to hit a shocking 69.9 million diabetic individuals by 2025. Excessive sugar intake is consistently linked to chronic health issues, including cardiovascular diseases, obesity and even cognitive decline.
Walk into any supermarket, pick up a packaged food item, and chances are, it contains sugar in some form. Companies cleverly disguise it with names like high-fructose corn syrup, agave, or fruit juice. These sneaky labels have allowed sugar to infiltrate nearly everything we eat.
The conversation around unhealthy sugar consumption truly gained momentum with John Yudkin’s 1972 book Pure, White, and Deadly, a groundbreaking expose on the dangers of table sugar. More recently, people have sought alternatives, leading to the rise of one ancient, natural sweetener: the date.
Dates, hailed as one of the “fruits of paradise” in Islamic tradition, have become a wellness favourite. Though dates consist of about 80% sugar, their high fibre content slows down absorption, preventing the sharp spikes in blood sugar often caused by treats like chocolate bars. This dual role makes them a satisfying and healthier option in the ongoing conversation about nutrition and indulgence.
With more than half their weight in sugar, dates are a natural solution for taming sweet cravings. But what sets them apart from other sugary snacks is their dense nutritional profile. Dates boast a treasure trove of essential nutrients: calcium, iron, magnesium, vitamin A, and B vitamins. They’re also rich in potassium, phosphorus, zinc, and manganese–nutrients often lacking in traditional sweets.
Additionally, dates provide essential amino acids like tryptophan, which the body converts into melatonin, the hormone that regulates sleep. Their low fat content and provision of copper, fluorine, and selenium contribute to healthy nerve function and cell growth.
As dates flood social media feeds, their health benefits are in the spotlight. However, the "halo effect" can lead to overindulgence–let’s not forget, sugar in dates is still sugar. Moderation remains key, even with nature’s sweets.
Microplastics have become an insidious presence in our lives – human blood, placentas and breast milk haven't been spared. These fragments, smaller than 5 millimetres, have infiltrated our daily existence– in the clothes we wear, the air we breathe, and yes, the food we eat.
These tiny particles, composed of chemicals, stabilisers, lubricants, fillers, and plasticizers, pose a significant health risk. Laboratory studies have shown that microplastics can damage human cells, causing cell death, allergic responses, and cell wall damage. Some particles are small enough to penetrate human tissues, potentially triggering immune reactions.
A groundbreaking study in early 2024 discovered microplastics in more than 50% of fatty deposits from clogged arteries, establishing a direct link between these particles and human health.
Adults ingest about 900 particles per day, and we defecate about 200 particles per day; the other 700 aren't currently accounted for. The true number can be higher, as only a small number of foods and drinks have been analysed for plastic contamination.
Two theories explain how microplastics cause cell breakdown: either their sharp edges puncture the cell wall or the chemicals within the microplastics harm the cell.
In 2022, more than 400 million metric tons of plastic was produced and a significant part of it went into the food and beverage industry for packaging. When exposed to heat, plastic breaks down into smaller fragments - microplastics - which contaminate our food.
Microplastics also enter the food chain through industrial discharge into irrigation water sources. They're absorbed into the human body from cosmetics and synthetic clothes, leached into water sources during laundering, and shed by vehicle tyres. Rain and wind transport these tiny particles into water bodies.
Even fruits and vegetables absorb microplastics through their roots. These particles spread throughout the plant, reaching seeds, leaves, and fruits, with distribution varying based on particle size.
Exposure to microplastics from plastic packaging poses significant health risks such as:
Some common microplastics that are found in the food we consume include:
Though bringing the usage of plastics to a complete halt in an instant might not be a very practical option, there are things that one can do to reduce their harmful impacts:
Research conducted by Leiden University in the Netherlands reveals that crops have the capability to absorb nanoplastic particles, which are minute fragments measuring between 1-100 nanometers. These particles, significantly smaller than a human blood cell by about 1,000 to 100 times, are taken in from the surrounding water and soil through tiny fissures in the plant roots.
The majority of these plastics accumulate in the roots of the plants, with only a minute portion migrating upwards to the shoots. Consequently, leafy vegetables like lettuce and cabbage are likely to have relatively low concentrations of plastic, whereas root vegetables such as carrots, radishes, and turnips pose a greater risk of containing microplastics for consumption.
The evidence is clear: governments must acknowledge and address this unwanted emission. Tackling the issue requires a proactive approach combining innovation, policy interventions, and individual actions.
By choosing sustainable alternatives to plastic packaging, investing in research for effective mitigation strategies, and promoting public awareness, we can safeguard human health and environmental integrity.
In the 1970s, Japanese scientist Akira Miyawaki introduced a way to grow small forests quickly. His method is now used worldwide to turn empty lots and old parking areas into self-sustaining mini-forests.
Miyawaki planted over 40 million trees in more than 15 countries. Now, these tiny forests are growing all over the world, with hundreds in India and thousands in Japan. But as the method gains traction, a pressing question emerges: Is this truly the panacea for urban greening and urban forestry, or are we overlooking crucial ecological nuances?
Miyawaki grouped Japanese forest plants into four types: main tree species, subspecies, shrubs, and ground-covering herbs.
Here's how the method works:
The forests need maintenance only for the first two to three years. After that, the grove is allowed to develop naturally. The dense planting encourages rapid growth among the seedlings as they compete for sunlight.
Born in Okayama Prefecture in 1928, Akira Miyawaki's early research into weeds piqued the interest of German botanist Reinhold Tüxen. This led to the former’s departure for Germany in 1958 to further his studies.
There, Tüxen introduced him to the idea of potential natural vegetation, which became the foundation of Miyawaki's future work. Inspired by this idea, he returned to Japan in 1960 to document the country's native plant life. Despite centuries of human intervention, Miyawaki found reference points in the undisturbed forests surrounding Shinto shrines.
With the backing of Japanese corporations, Miyawaki’s method gained international recognition. In the late 1980s, Mitsubishi Corporation proposed the first project to restore a tropical rainforest in Malaysia, marking the technique’s expansion into Southeast Asia. Miyawaki's in-depth knowledge of the region's vegetation proved invaluable in this endeavour.
Collaborating with multinational companies to apply his method overseas led Miyawaki in 1999 to propose that “quasi-natural forests can be built in 15-20 years in Japan and 40-50 years in Southeast Asia.”
The forests grown in the Miyawaki fashion have several advantages compared to the traditional forests – but only when done right.
Shubhendu Sharma, founder and director of Afforestt, a native forest-planting firm that popularised the Miyawaki method in India, believes that most opposition to Miyawaki is against poorly executed projects. “Properly following the methods would yield results,” he said.
“Finding the native species in a region is a complex process. Many who say they practise ‘Miyawaki’ don’t take it seriously and go to a nearby nursery to identify the local species. Identifying the right species and the combination of plants that can go together is the crux,” he added.
The forestry technique has a fair share of experts and practitioners raising concerns related to the method:
While some laud the technique as a promising solution for areas with land scarcity and heightened air pollution, many argue that dense and impenetrable Miyawaki forests are not ideal for cities.
Many perceive that these patches of ‘forest’ in cities should be welcoming spaces for people and pets, encouraging interaction with nature while preserving local biodiversity. They should be open, inviting, and visually appealing, allowing plants to flourish naturally.
While creating green spaces in urban areas is the need of the hour, Miyawaki ‘forests’ cannot replace extensive native forests. Efforts must continue to protect and preserve existing forest ecosystems threatened by commercial activities and unsustainable practices.
Carbon is everywhere. It is found in all living things, and life on Earth would not be possible without this unique element.
Carbon is one of the only elements with four electrons in its outermost shell, except for silicon. This allows it to form strong and stable bonds, which are the building blocks of life. These include hydrocarbons, amino acids and other proteins. As a result, carbon-based compounds move constantly through living organisms, the oceans, the atmosphere, and the Earth's crust.
Due to its versatile nature, carbon can also drive changes in the atmosphere and tilt the scales of global temperatures, which now the world struggles with as global warming is no longer just a faraway threat.
Scientists say that life has existed on Earth for about 4.5 billion years; our ancestors have been pretty good at handling carbon, at least 99 per cent of the time. Whatever carbon comes out from different organisms and the atmosphere goes right back to the Earth's core. However, slowly carbon has been destabilizing due to excessive burning of fossil fuels and deforestation of large areas around the globe.
CO2 is also released naturally through the decomposition of plants and animals. Carbon dioxide is a very effective greenhouse gas—with the capability to absorb infrared radiation emitted from Earth’s surface. As CO2 concentration rises in the atmosphere, more infrared radiation is retained, and the average temperature of Earth’s lower atmosphere rises.
According to a 10-year research project undertaken by Deep Carbon Observatory (DCO) since 2009, Earth contains 1.85 billion billion tonnes of carbon. Scientists say that if it were all combined into a single sphere, it would be larger than many asteroids.
Most of the carbon is located deep into the Earth's mantle, and only about one per cent of the total is available in the atmosphere. The carbon in the air, land, and ocean amounts to just 43.5 trillion tonnes, which is gradually changing, tipping the geological scales of carbon dioxide (CO2) in the environment in the other direction causing destruction. The National Oceanic and Atmospheric Administration (NOAA), a regulatory agency in the US, reports that Earth's temperature has risen by an average of 0.11° Fahrenheit (0.06° Celsius) per decade since 1850, or about 2° F in total. The rate of warming since 1982 is more than three times as fast: 0.36° F (0.20° C) per decade.
India, a fast-growing economy, has seen a considerable jump in its carbon dioxide numbers. India recently submitted its Third National Communication (TNC) and Initial Adaptation Communication to the United Nations Framework Convention on Climate Change (UNFCCC) in December 2023. A report by the Down to Earth website noted that India’s net national emissions in 2019 stood at 2.6 billion tonnes of carbon dioxide equivalent (CO2e), a 4.56 per cent increase from 2016 levels and a 115 per cent increase since 1994, the TNC report reflected.
In this fight against climate change, the concept of carbon sequestration has emerged as a powerful ally. It could be our savior in mitigating the impacts of greenhouse gas emissions and leaving a greener planet for our coming generations. At its core, carbon sequestration is the process of capturing carbon dioxide (CO2) from the atmosphere and securely storing it away to prevent its release into the atmosphere. This can be achieved through various natural processes or advanced technological solutions.
Breaking down the terminology ‘sequestration’ also means the act of separating and storing a harmful substance such as carbon dioxide in a way that keeps it safe. Britannica, the encyclopedia, notes that CO2 is produced due to excessive anthropogenic (created by humans) activities such as the burning of fossil fuels from its long-term geologic storage –coal, petroleum, and natural gas- and has pushed it into the atmosphere.
Creating ‘carbon sinks’ can help mitigate these challenges. These sinks can be natural or artificial, and they play a vital role in balancing carbon emissions. These sinks will act as reservoirs that can absorb and store CO2, thereby reducing greenhouse gasses.
Natural carbon sinks include forests, oceans, wetlands, grasslands, and soil. These ecosystems capture CO2 through biological processes such as photosynthesis, in which plants and other organisms absorb CO2 from the atmosphere and convert it into organic matter. The carbon is then stored in biomass—such as trees, vegetables, fruits, flowers, and more. It can also be stored in the soil, where it can remain for varying periods, ranging from years to centuries.
With evolving technology, researchers are continuously on the lookout for newer ways to sequester carbon. Currently, there are very two clear distinctions, natural or biological and the other one being artificial sequestering. According to the Intergovernmental Panel on Climate Change (IPCC), improved agricultural practices and forest-related mitigation activities can make a significant contribution to the removal of carbon dioxide from the atmosphere at a relatively low cost. In simple words, growing more tree species that can hold more carbon in the ground can be a starting point—unfortunately, infrastructural development comes in the way. Researchers say we just don’t need a couple of hundred trees but dense forests and grasslands for this to truly be the solution and reduce our carbon footprint.
In the method of Geological Carbon Sequestration or Carbon Capture and Storage (CCS) carbon is separated from other gasses contained in industrial emissions. It is then compressed and transported to a location that is isolated from the atmosphere for long-term storage. It is injected underground into geological formations such as depleted oil and gas reservoirs or saline aquifers, where they can be stored securely for long periods and later used.
A novel technology in the works is Coastal Carbon Capture which aims to remove carbon dioxide from the atmosphere through the deployment of carbon-removing sand, which increases the alkalinity of seawater, which in turn will enhance the capacity of seawater to absorb CO2. Through this, the carbonic acid to bicarbonate and the consequent and subsequent uptake of CO2 from the atmosphere would be increased in seawater.
While solutions are changing every day, climate action is not a one-time effort and needs strong commitment from policymakers that can be applied in a top-to-bottom fashion for a healthier planet.
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