Modern Farming Solution Polyhouse cultivation has emerged as a transformative technology in modern agriculture, particularly for farmers engaged in cut flower production. By providing a controlled growing environment, polyhouses protect crops from adverse weather conditions such as heavy rainfall, strong winds, and extreme temperatures, while also reducing pest and disease incidence. This has enabled farmers to cultivate high-value cut flowers like gerbera, rose, carnation, lily, and chrysanthemum with greater confidence and consistency. Premium Flower Quality Maintaining optimum temperature, humidity, and light inside the polyhouse results in superior flower quality. Cut flowers produced under protected conditions have longer stems, larger blooms, vibrant colours, and extended vase life. These quality advantages attract better market demand and fetch premium prices, significantly improving farmers’ income compared to open-field cultivation. Year-Round Income One of the major benefits of polyhouse cut flower cultivation is the ability to grow flowers throughout the year, including during the off-season. Continuous harvesting ensures a steady flow of income and reduces farmers’ dependence on seasonal crops. This regular income pattern provides financial stability and encourages farmers to invest further in advanced agricultural technologies. Reduced Production Risks The controlled environment of the polyhouse minimizes risks associated with climate variability, pests, and diseases. Efficient irrigation and fertigation practices optimize the use of water and nutrients, reducing input costs and crop losses. As a result, farmers experience predictable yields and more reliable returns, making farming less risky and more sustainable. Rural Employment Boost Polyhouse cut flower cultivation generates year-round employment opportunities for rural youth and farm women. Activities such as planting, intercultural operations, harvesting, grading, packing, and marketing require continuous labour. This not only strengthens rural livelihoods but also promotes skill development in modern agricultural practices. Strong Extension Support The success of polyhouse cultivation is further enhanced by technical guidance and extension support from Krishi Vigyan Kendra (KVK). Through training programmes, demonstrations, and regular advisory services, farmers receive scientific knowledge on crop management, pest control, irrigation scheduling, and post-harvest handling, enabling sustainable adoption of protected cultivation. Happy Farming Community Overall, polyhouse cut flower cultivation has transformed traditional farming into a profitable agribusiness. In Krishnagiri district, the favourable agro-climatic conditions, availability of quality water resources, and farmers’ experience in horticulture make the region highly suitable for protected cultivation of cut flowers. The close proximity of Bengaluru, a major metropolitan city with international air cargo facilities, provides excellent opportunities for exporting cut flowers. Flowers such as rose are regularly exported to destinations like Dubai and Malaysia, especially during the peak demand season in February, while other cut flowers are supplied to international markets throughout the year. This strong market linkage has encouraged many progressive farmers, including educated youth and software professionals, to take up polyhouse cultivation of orchid, rose, gerbera, chrysanthemum, gypsophila, and other high-value flowers. Farmers adopting this technology report increased income, improved living standards, and greater confidence in modern farming practices. Their happiness and success clearly demonstrate that polyhouse cultivation holds immense potential for a prosperous and sustainable agricultural future in Krishnagiri district.

Agriculture is the backbone of human civilization, feeding billions across the globe. Yet, farming today faces unprecedented challenges, from climate change and water scarcity to increasing demand and labor shortages. This is where Agricultural Engineering steps in, acting as the unsung hero that integrates technology, science, and design to create sustainable and efficient solutions for the farming community. Agricultural engineers are not just designing tractors; they are the innovators behind every major leap in modern agriculture, ensuring food security and profitability for farmers worldwide Enhancing Efficiency and Productivity Through Advanced Mechanization One of the most visible and impactful contributions of agricultural engineering is the dramatic increase in farming efficiency through sophisticated mechanization. Modern machinery, meticulously designed and optimized by agricultural engineers, allows farmers to plant, cultivate, and harvest crops with incredible speed, precision, and reduced physical strain. This includes everything from autonomous tractors to robotic harvesters. Sustainable Resource Management: Optimizing Water, Soil, and Energy In an era of increasing environmental concern and resource scarcity, agricultural engineers are at the forefront of developing sustainable practices. They design systems and strategies that minimize waste and maximize the longevity of vital agricultural resources. Precision Agriculture: Smart Farming for a Smarter Future The future of farming is smart, and agricultural engineers are building it brick by technological brick. Precision agriculture, often referred to as smart farming, leverages cutting-edge technology to manage fields with unparalleled accuracy and data-driven insights. This leads to healthier crops, reduced input costs, and higher yields. Post-Harvest Technology: From Field to Safe Consumption The work of an agricultural engineer doesn’t stop when crops are harvested; it extends all the way to ensuring food safety and quality until products reach the consumer. They are crucial in designing and improving systems for processing, storing, and transporting agricultural products. Livestock and Aquaculture Management Systems Beyond crop farming, agricultural engineering also plays a vital role in animal agriculture and aquaculture, focusing on animal welfare, efficiency, and environmental impact. Conclusion: The Future of Farming is Engineered and Thriving Agricultural engineering is not merely a supporting role; it is a transformative and indispensable force that empowers farmers to overcome challenges, embrace innovation, and thrive in an ever-changing world. From the smallest seed planted with precision to the largest combine harvester and the most advanced storage facility, their ingenuity ensures that our farming communities remain productive, sustainable, and resilient. Supporting and investing in agricultural engineering is investing in the future of food, the welfare of farmers, and ultimately, the future of humanity.

In an era of climate uncertainty, shrinking farmland, and growing populations, farmers worldwide face a daunting challenge: how to produce more food sustainably and profitably. The answer might not lie in a single, high-tech solution, but in a timeless, holistic approach modernized for today’s world: the Integrated Farming System (IFS). Imagine a farm where waste is a resource, diversity is strength, and each component supports the other. This isn’t just a dream—it’s a practical, profitable, and sustainable model taking root everywhere from backyard plots to large-scale operations. What is an Integrated Farming System? At its core, IFS is a whole-farm management approach. It strategically combines agriculture, livestock, aquaculture, agro-forestry, and sometimes apiculture (beekeeping) into a single, synergistic system. The core principle is simple: the output (or “waste”) of one enterprise becomes the input for another. Think of it as a circular economy on a farm scale. Instead of buying all your inputs (feed, fertilizer) and hauling away waste, you create closed loops that boost resilience and cut costs. The Building Blocks of Successful IFS A typical integrated farm might include: A Day in the Life of an Integrated Farm Let’s visualize how it works: This cycle minimizes external purchases, maximizes resource use, and creates multiple income streams throughout the year. The Tangible Benefits: Why Farmers Are Making the Shift Getting Started: It’s About Mindset, Not Size You don’t need 100 acres to begin. Integration can start small: The Bigger Picture Integrated Farming isn’t about going back to the past; it’s about using modern ecological understanding to create intelligent, future-proof farms. It aligns perfectly with global goals for sustainable development, climate change mitigation, and rural prosperity.  As consumers increasingly seek food that is both healthy and ethically produced, integrated farms are perfectly positioned to tell a powerful story of stewardship and sustainability.  The future of farming isn’t just about growing crops or raising animals in isolation. It’s about cultivating connections. It’s integrated.

To provide relief to the farmers hit by cash crunch, the Indian Government today announced that the farmers were given them an additional two months to repay their crop loans due in November – December period and said that the prompt repayment would be eligible for the 3 per cent interest subsidy. Under the interest subvention scheme, farmers get the short term crop loans upto Rs 3 lakhs for one year at an interest rate of 7 per cent. Following the recent demonetization of specified bank notes, the government said that it is seized of the constraints faced by the farming community in repayment of loan within dues in the prescribed time limit. The government provides crop loans at reasonable interest rate of 7 per cent per annum. This prompt repayment incentive however does not accrue to those farmers who repay after one year of availing such loans.

In India, rice and wheat comprise 70 percent of agricultural produce by area, but less than 25 percent by value. In other words, wheat and rice are low value crops to grow compared to other options. Yet, the land area dedicated to wheat and rice has not seen a significant decrease in the last decade. Government data shows that the consumption of wheat and rice has been declining around 1-2 percent in both urban and rural India, while the demand for fruits and vegetables has been rising by 2-3 percent annually. This again begs the question: Why aren’t farmers shifting to growing more fruits and vegetables? Furthermore, detailed studies across the country have also shown that while farmers just about break ev en (gross return compared to gross costs) on cultivating wheat and rice, growing fruits and vegetables is a profitable undertaking (gross returns are on average double the costs). Besides fruits and vegetables, there are also other crops that generate a higher income than wheat and rice. Having gone through these reports and data, I have been wondering why, despite all this, do farmers choose to grow mostly and rice? In other words, if Indian consumers are demanding more fruits and vegetables, and these crops are more lucrative anyway, why do Indian farmers keep growing more and more wheat and rice?. Are farmers completely unaware of the difference in returns? Or, is it that despite knowing the disadvantages they choose to grow wheat and rice? The first possibility seems rather difficult to believe. While I am sure farmers have not created a detailed profit and loss statement for growing wheat versus okra, it is unlikely that farmers are completely ignorant. They probably do have a rough idea of probable market prices, input costs and likely profits. So what is it about fruit and vegetables that keeps farmers from growing them?. Almost all of the reasons listed above relate to risk – either production risk, logistics risk or market risk. Only two non-risk reasons can be seen in the list besides dignity of transaction: the opportunity cost of choosing crops which require greater care, and use of stored crops as financial assets. In principle, the latter can be addressed with better financial access for small holder farmers. Typical solutions to risk management are insurance products, but typical crop insurance products cover only a limited subset of these risks. And in any case, insurance subscriptions in India have been much lower than hoped for by policy makers and non-profits alike. Out of intellectual as well as professional curiosity, I have being digging deeper into this question, with the help of field visits and people working in the agricultural sector. Here are the results from my own observations and discussions with agri-sector professionals and experts.

Switching to a crop that has not been typically grown in the area brings in additional sets of challenges. First, it goes without saying that the soil and climate have to be conducive to cultivation of the new crop. Second, the farmer has to learn how to grow the new crop (or new variety of the same crop). For example, I visited farmers who were growing baby corn for the first time and had let the cobs grow too much simply because they did not know when to harvest it. While the produce was still usable, a significant portion of its potential value was lost. Third, buyers for the new crop need to either already exist at the local mandi (wholesale market), or brought to the local market, or the produce shipped to wherever the buyers are. In Bihar, I was speaking to farmers who traditionally grow cauliflower. Driving around the area in the cauliflower season, you see miles and miles of cauliflower. I asked a savvy farmer group why they grow the same crop that everyone else does and they replied that since the region is known for cauliflower, it is the cauliflower buyers who come to their local mandi. If they started growing something else, they cannot be confident of finding a buyer. Interventions in crop switching (such as organic farming) work well when a new market-facing intermediary is created to procure the produce directly, or act as a sourcing agent for other buyers.. And lastly, the financial risks of making the transition need to be absorbed or softened. For example, a few organizations working on transitioning farmers to organic farming are experimenting with providing a financial safety net during the first three years of transition and low yields before the produce can be certified as organic. These kinds of arrangements could be considered in this context as well and would help encourage farmers to switch to new kinds of crops.

Eminent agricultural scientist M S Swaminathan says the Indian Council of Agricultural Research (ICAR) and state agricultural universities should coordinate field trials of genetically-modified crops across the country to get over the on-off and go-no-go policy attitude of states to them. Swaminathan says the benefits and risks of GM crops cannot be known without field trials. He wanted the government to create a Biotechnology Regulatory Authority of India (BRAI). A bill was drafted by the previous government and tabled in parliament. It lapsed with the last Lok Sabha. The bill has not be re-introduced. An all India coordinated project, in Swaminathan’s view, would bring uniformity to risk assessments. It will also reassure the public. The ‘sooner this is done, the greater will be the public confidence in the procedures adopted for assessing risks and benefits; said Swaminathan in the backdrop of a complete standstill on the issue of field trials in many states. In a post on the website of his namesake foundation, Swaminathan wrote in June 2015 that Parliament must approve the BRAI bill so India can have an independent regulator which inspires all-round trust. He said his foundation was engaged in the genetic modification of rice for salinity tolerance using genes derived from the medicinal mangrove species Avicennia marina and for drought tolerance with proteins from Prosopis juliflora, a shrub native to Mexico, South America and the Caribbean. Unless field testing was permitted, he said, we cannot assess the benefits and risks in a reliable manner. Hence at least field testing of GMOs should not be prevented. They should be released for cultivation after bio-safety clearances. For this the government must set up an independent regulator without delay. Swaminathan wanted public sector research to be encouraged for inclusiveness in access to technology. There was very good expertise in public sector institutions in the fields of molecular biology and genetic engineering and we should derive the full benefit from them. There was at present no opposition, he said, to medical, industrial and environmental biotechnology as well as the control of technology. Rightly the concerns were around food biotechnology. This is why Parliament’s approval for the BRAI was an urgent need.

Coimbatore: Tamil Nadu Agricultural University and Central Institute for Cotton Research (CICR) entered into agreement for developing indigenous BT Cotton. In order to develop indigenous Bt cotton, TNAU has already developed a potent Bt gene and using this, cotton events resistant to the boll worms were generated, a University release said today. TNAU in collaboration with CICR, Nagpur will further work on the development of indigenous Bt cotton, it said. Boll worm infestation was a serious problem causing enormous yield loss in cotton and farmers were forced to take up frequent insecticidal sprays and conventional breeding to develop boll worm resistant cotton was difficult due to non-availability of resistance source in cultivated cotton. With the advent of recombinant DNA and genetic transformation technology, it was possible to introduce a specific gene from a soil bacterium into cotton plant, which expressed a BT protein and has insecticidal activity against the boll worms, it said. The MoU was signed by Dr C R Anandakumar, Acting vice-chancellor, TNAU and N Gopalakrishnan, Principal scientist, CICR Regional Station, Coimbatore, in the presence Dr. S. Ayyappan, Director General, Indian Council for Agriculture Research, Delhi and Prof K. Ramasamy, Member, State Planning Commission, Tamil Nadu.

In today’s rapidly evolving energy landscape, digital transformation has become central to enhancing efficiency, reliability, and sustainability across power utilities worldwide. For Tenaga Nasional Berhad (TNB) Research Division (TNBRD), integrating cutting-edge technologies like the Internet of Things (IoT) and Artificial Intelligence (AI) into power utilities has proven to be a game-changer. By harnessing the potential of IoT and AI, TNBRD is not only driving operational excellence but also setting the stage for a resilient and future-ready energy infrastructure in Malaysia. The Importance of Digital Transformation in Power Utilities As energy demands continue to grow and the push for sustainability intensifies, power utilities face mounting challenges. Aging infrastructure, increasing energy consumption, and the need to reduce carbon emissions call for innovative solutions. Digital transformation offers power utilities a strategic pathway to address these challenges by enabling enhanced monitoring, data-driven insights, predictive maintenance, and dynamic customer engagement. With IoT and AI as foundational pillars, TNBRD is building a smarter energy grid that adapts in real time, reduces operational costs, and improves service delivery. This transformation aligns with Malaysia’s National Energy Policy, aiming to create a low-carbon, resilient energy ecosystem. IoT and AI: The Cornerstones of TNBRD’s Strategy The convergence of IoT and AI brings a new level of intelligence to power grids. Here’s how TNBRD is leveraging these technologies to modernize Malaysia’s energy landscape: Key Benefits of IoT and AI Integration in TNBRD’s Power Utilities The strategic integration of IoT and AI brings multiple benefits to TNBRD’s operations and the wider Malaysian energy sector: Looking to the Future: TNBRD’s Vision for a Smarter, Greener Grid As TNBRD continues to innovate, the focus remains on scalability and resilience. Future initiatives include the integration of renewable energy sources into the digital grid and the potential use of AI for decentralized energy management. This move aligns with global energy trends, where distributed energy resources (DERs) like rooftop solar and battery storage systems are becoming increasingly common. Additionally, TNBRD is exploring advanced applications of AI, such as reinforcement learning, to make the grid even more adaptive and responsive to changes in demand. In collaboration with local and international technology partners, TNBRD aims to expand its IoT infrastructure, equipping every level of the grid with data-gathering capabilities. Conclusion: Building Malaysia’s Energy Future Through the integration of IoT and AI, TNBRD is paving the way for a resilient and sustainable energy future for Malaysia. The journey of digital transformation not only enables TNBRD to meet today’s challenges but also positions it as a regional leader in energy innovation. By harnessing the power of technology, TNBRD is creating a smarter, greener grid that will serve future generations, contributing to Malaysia’s vision of a sustainable, low-carbon society.