What’s Happening at America’s Largest Turkey Farms Before Thanksgiving 2026

With less than three weeks to go, millions of Thanksgiving dinner tables across America will light up with a golden, roasted turkey. Behind the ultimate symbol of the holiday season lies a little-known secret. The U-Bot S has quietly been stockpiling nearly 400 million pounds of frozen meat months in advance. Behind those colossal warehouses is a $5.5 billion industrial machine. where hundreds of millions of turkeys are born through artificial insemination, raised in closed-loop farms, and processed on maximum-capacity production lines. How does this system operate? Join Agriculture Insight as we pull back the curtain on the industry driving America's biggest holiday. America stands as one of the largest turkey production hubs on the planet, Stretching across key states like Minnesota, North Carolina, and Indiana. Nearly 200 million turkeys are raised each year, yielding roughly 2.2 million tons of meat for the market. Thanksgiving is merely the tip of the iceberg. In reality, turkey is consumed by Americans year-round, from whole bird roasts to an endless array of processed products like deli meats, sausages, ground meat, and turkey bacon lining supermarket aisles. Crucially, not a single part goes to waste. From feathers and bones to processing byproducts, everything is recovered through recycling technologies to be transformed into protein-rich feed, biofertilizers, or energy. It is this closed-loop network, running from farm to factory, that generates up to $172.5 billion in economic impact and sustains over 500,000 jobs. Far beyond just a holiday symbol, the turkey has truly become a multi-billion dollar empire within American agriculture. Unlike wild turkeys, the vast majority of commercial turkeys in America belong to broad-breasted white strains, selectively bred over generations for rapid growth and high breast meat yield. However, their oversized breasts make natural mating difficult, forcing the breeding industry to rely heavily on artificial insemination. At breeder farms, male and female turkeys are housed separately in strictly controlled environments. First, technicians select qualified toms, use manual stimulation to collect semen, and then inspect and prepare the samples before introducing them into the hens' reproductive tracts using specialized equipment. This process is typically repeated about once every seven days to maintain high fertility rates in the eggs. Interestingly, female turkeys have the ability to store sperm in their reproductive tracts, allowing multiple consecutive eggs to be fertilized without daily mating. Additionally, lighting is carefully adjusted to regulate reproductive timing, preventing hens from laying eggs too early and ensuring maximum productivity. At around 28 weeks of age, hens begin laying eggs in specialized nesting boxes lined with soft, clean bedding and designed with privacy to make them feel secure. Over an efficient production cycle lasting about 26 weeks, each hen can produce anywhere from 100 to 130 eggs. However, not every egg is successfully fertilized and capable of developing into a healthy chick. Therefore, the subsequent stages play a decisive role in the quality of the entire new generation of turkeys. In the production area, eggs are collected using conveyor belt systems or by farm staff, depending on the facility's design. Each egg is checked for shell condition, sorted, and placed into specialized trays. Cracked or substandard eggs are discarded to minimize any risk of affecting the entire incubation batch. Qualified eggs are transferred to a climate-controlled storage area. In some operations, they are stored for about three to 10 days, allowing the hatchery to accumulate sufficiently large batches and synchronize production schedules. When incubation begins Thousands of eggs are loaded into industrial incubator cabinets. Inside, control systems continuously maintain appropriate temperature, humidity, and airflow, while automated trays tilt the eggs to support uniform embryonic development. Throughout the incubation cycle, technicians use candling techniques to inspect embryonic development, identifying unfertilized or non-viable eggs. Near the end of the cycle, the eggs are transferred to a dedicated hatching area. After about 28 days, the shells begin to crack and tiny turkey poults emerge one by one. Newly hatched turkeys, known as poults, weigh only about 60 grams. They are removed from the hatching trays, separated from the eggshells, and sent to the quality inspection area. Here, workers sort out the healthy ones while determining their sex to design suitable rearing programs. Unlike egg-laying chicken production, both male and female turkeys hold commercial value. Toms can achieve a significantly larger weight while hens are typically brought to market earlier. Depending on the veterinary program, the chicks are vaccinated and subjected to necessary treatments before leaving the facility. Finally, they are counted, placed into ventilated plastic trays, and transported in specialized trucks. In some systems, delivering the chicks to the farm takes place within about 12 hours of hatching. Just hours after leaving the hatchery, these tiny chicks must adapt to a brand new environment, where their growth rate will accelerate dramatically. Before the chicks arrive, farmers must complete sanitation protocols and inspect the ventilation, heating, water supply, and feeding systems. The floor is typically covered with wood shavings or suitable moisture absorbing materials, helping to reduce dampness and improve walking conditions. During the early days, workers maintain appropriate brooding temperatures while ensuring that chicks have easy access to feed and water. This is a particularly sensitive stage, as newly hatched turkeys cannot yet regulate their body temperature effectively. To support their rapid growth rate, their diet primarily consists of corn, soybean meal, vitamins, and minerals which are ground, blended, and processed into nutrient-rich pelleted feed. The finished product is transported to the farm, loaded into large silos, and automatically distributed through pipelines and feeding troughs. Throughout the rearing process, sensor and ventilation systems regulate the barn environment, while biosecurity measures help minimize disease risks. Thanks to selective breeding and farm management, hens can reach six to nine kilograms after 12 to 14 weeks, while toms reach 16 to 19 kilograms after 16 to 19 weeks. Thus, a turkey weighing just 60 grams at hatching can multiply its body weight by more than 250 times in just a few months. Notably, in 2026, researchers at Penn State tested depth cameras combined with AI to estimate turkey weights without the need for manual catching, even forecasting 7, 14, and 21 days in advance, with an average error rate of about 6.5 to 7.7% in the study. When they reach market weight, turkeys are typically caught at night or under low-light conditions to minimize stress. Workers gently catch each bird and place them into specialized transport crates at appropriate densities to prevent overcrowding and injuries. The crates are then loaded onto ventilated trucks and securely fastened before departure. Upon arrival at the processing plant, lifting equipment unloads the crates to the receiving area, where staff inspect the flock's condition before transferring them to the processing line. Inside the plant, turkeys are hung on automated shackles, moving continuously along the processing line. First, they are stunned using electrical or specialized gas systems, then pass through preliminary processing steps before entering the scald tank. Here, the water temperature helps loosen the follicles, facilitating the feather removal process. The carcasses continue through high-speed rotary pickers, where rows of soft rubber fingers continuously provide friction, removing feathers without damaging the skin surface. Next, the turkeys are moved through an automated evisceration system to remove unwanted parts. Specialized equipment processes the internal organs and transfers them to a separate conveyor belt. Finally, the carcasses pass through a washing and quality inspection system before moving on to further processing. After completing primary processing and washing, the turkey carcasses are moved into industrial chilling systems to rapidly lower their temperature and inhibit bacterial growth. Depending on the plant's technology, the birds are either immersed in chilled circulating water tanks or moved on overhead shackles through air-chilling chambers. Temperatures are continuously monitored to ensure the meat meets food safety standards. At large-scale facilities, lines can operate across continuous shifts, processing up to 3,000 to 3,600 turkeys per hour, requiring the chilling system to operate in synchronization to handle the massive production speed. Once completed, the turkeys are drained, quality inspected, and prepared for the next stage. After chilling, the turkeys are sorted by weight and sent to automated packaging lines. Machines place each bird into specialized bags, vacuum out the air, and seal them airtight. Next, the packaging is shrunk tightly around the turkey before it is weighed, labeled, and boxed. After packaging, whole turkeys are moved into industrial blast freezing systems, lowering the core temperature down to minus 18 degrees Celsius or lower for long-term storage. The finished products are transferred into colossal cold storage warehouses, preparing for Thanksgiving. In late August 2026 alone, the U.S. had stockpiled nearly 400 million pounds of frozen turkey, equivalent to about 179,000 tons, an icon of American deli meat. the story of bologna actually began on the other side of the Atlantic in the world of Italian cuisine before becoming affordable slices of meat placed between pieces of bread its predecessor was mortadella di Bologna a luxurious sausage named after the city of Bologna that once appeared on the dining tables of the upper class gradually the reputation of mortadella bologna moved beyond the dining tables of Italian aristocrats Reached the working class, and then crossed the ocean to America. There, it was industrialized into bologna, an inexpensive, convenient, and widely consumed deli meat that became common in students' lunchboxes, workers' lunches, and even meals served in many American prisons. But behind those smooth pink slices lies one of the longest-running controversies in the modern food industry. As a processed meat, bologna often contains high levels of sodium, saturated fat, and nitrites to preserve its color and flavor and extend its shelf life. Consuming it too frequently has repeatedly placed it at the center of discussions about industrial diets, obesity, and health risks. For many Americans, bologna is both a taste taste of childhood and a symbol of an era when inexpensive food dominated the dining table. And to begin that journey, the first stop is Iowa, the capital of the U.S. hog farming industry, home to more than 23 million pigs, equivalent to nearly one-third of the country's total hog population, and an important source of raw materials for the processed meat industry. Here, quality is not determined only when the pigs leave the farm. It begins with the farm's design. Rows of enclosed barns are built using standardized modular systems, integrating ventilation, temperature control, feeding, watering, and automated monitoring systems to help each herd develop uniformly before entering the modern production chain. From their first weeks of life, piglets are raised in temperature-controlled farrowing areas where they nurse from their mothers while gradually becoming accustomed to feed rich in energy, protein, minerals, and vitamins to develop their digestive systems before weaning. After approximately three to four weeks, they are moved to nursery areas where there is more space and the living environment is designed to encourage natural behaviors. bales of straw placed inside the barns not only provide warm bedding but also allow the pigs to root chew and explore helping to reduce stress and limit biting among them in addition their diets continue to be adjusted according to each stage of growth combining grains plant-based protein minerals and vitamins to ensure that the herd develops uniformly on many farms when weather conditions are favorable the pigs are also released into outdoor areas where they can move freely root in the soil forage and wallow in mud to cool down because their bodies have almost no sweat glands when they reach a weight of approximately 110 to 120 kilograms the pigs are loaded onto specialized transport trucks equipped with ventilation systems and suitable space to minimize stress throughout the journey to the processing plant where they are received and inspected before entering the next stage of the bologna production chain after leaving the farm the pigs officially enter the most important stage being transformed from controlled livestock into the foundational raw material for the entire bologna production process inside the factory at the factory the pig carcass is first split in half and then divided into various commercial cuts as each product requires its own combination of ingredients For Bologna, lean cuts from the shoulder and ham, combined with high-quality back fat, are transferred to the cutting area to begin the stage that determines the texture of the entire batch of sausage. Here, tendons, cartilage, lymph nodes, connective tissue, and unsuitable fat are removed from each piece of meat, while the back fat is also cleaned of impurities before being weighed and adjusted to the precise ratio. Even a slight imbalance between lean meat and fat can destabilize the emulsion, reducing the bologna's smoothness, elasticity, and flavor after processing. This is also one of the stages requiring the highest levels of skill and concentration in the entire factory. The cutting knives are always sharpened to a razor-like edge to make clean, decisive cuts, helping to prevent the muscle fibers from tearing and reduce the loss of raw material. Only when every portion of raw material meets the required standards is it transferred to the next stage to create Bologna's characteristic smooth and uniform texture. After trimming, the meat and fat are fed through a coarse grinder. A screw continuously pushes the ingredients toward high-speed rotating blades, cutting them into uniformly sized particles before forcing them through a steel grinding plate. Unlike many types of sausage that retain visible meat particles after grinding, Bologna treats this only as a preparatory step, creating a uniform raw material base for the emulsification stage, where the entire structure will be transformed into its characteristic smooth meat mixture. After coarse grinding, the meat is mixed with salt, nitrite, white pepper, mustard seeds, coriander, nutmeg and various other spices, depending on the recipe. In the United States, bologna usually has a mild, slightly sweet, and less spicy flavor, while the Italian version has stronger notes of pepper and nutmeg, and sometimes contains pistachios. The mixture is then transferred to a high-speed emulsifying cutter, where the blades rotate thousands of times per minute, while crushed ice is added to keep the meat mixture below approximately 10 to 12 degrees Celsius. this allows the proteins to retain their ability to bind water and fat creating a smooth elastic and uniform pink meat base for italian style mortadella cubes of white fat are added at the end to create the characteristic marbling before the mixture is ready for the stuffing stage when the machine lid closes and the vacuum system begins extracting air The mixing paddles continue rotating to force out air bubbles, transforming the meat mixture into a smoother, glossier, and denser pink emulsion when the lid is opened, before it enters the stuffing stage. Once the emulsion reaches the required smoothness, the mixture is transferred to a vacuum stuffer, where a pumping mechanism applies steady pressure to push the meat through a stainless steel tube and fill the outer casing. For Bologna, the casing may be made of collagen, cellulose, or specialized food-grade plastic film, typically measuring approximately 8 to 12 centimeters in diameter and 30 to 60 centimeters in length, depending on the product. This stage must be controlled with great precision. If the casing is filled too loosely, air pockets can easily form inside. If it is filled too tightly, the casing may stretch and rupture during cooking. Once the correct size is reached, both ends of the bologna are twisted, tied, or sealed with metal clips, helping each sausage retain a firm, sealed shape, and preparing it for the heating stage. Today, machinery has almost completely changed the game through speed and productivity. But in Italy, many traditional mortadella bologna producers still preserve the manual stuffing technique as part of their heritage. Workers use hand-cranked machines or slow-filling funnels, feeding the meat mixture into the casing while feeling its tension with their palms, to ensure that the sausage is neither too loose nor packed too tightly. The special feature lies in the casing. Instead of using cellulose, collagen, or food-grade plastic film commonly used in industrial production, some traditional mortadella varieties may use cleaned cattle bladders. This natural casing is tough, highly heat-resistant, and strong enough to hold large mortadella sausages, which may measure approximately 40-70 cm in length and 15-30 cm in diameter, and may even weigh tens of kilograms. It not only helps maintain the product's shape during hours of slow cooking, but also creates an artisanal, classic appearance and distinctive value that modern production lines find difficult to replicate. After being fully stuffed, the mortadella is not placed in the oven immediately, but continues through a completely manual net tying stage. The worker uses twine or food-grade cotton cord to wrap the sausage from one end to the other in a diamond-shaped net pattern, rotating it while tightening each loop evenly so that the pressure is distributed uniformly across the entire surface. This technique prevents the casing from swelling, shifting, or deforming under the weight of the meat. During hours of heating, while also keeping the mortadella evenly rounded and stable when suspended inside the oven, this technique has existed for centuries and is still preserved by many mortadella Bologna PGI producers as a hallmark of Italian craftsmanship. After being tied in nets, the mortadella sausages are hung on stainless steel racks and pushed into a large heating chamber. Unlike grilled sausages, they do not come into direct contact with flames, but are cooked slowly using heat and controlled airflow. If smoking is used, smoke from clean woods such as beech or oak is introduced gently into the chamber only to create aroma and color without burning the surface. This process can last for many hours or even more than half a day for large sausages until the internal temperature reaches approximately 70 to 72 degrees Celsius, allowing the proteins to set, the fat to stabilize, and the meat mixture to retain its characteristically smooth, firm, and aromatic texture After cooling and quality inspection, bologna is packaged in two main forms, depending on market demand. Whole bologna sausages are vacuum sealed or packaged in multi-layer shrink wrap to extend their shelf life and preserve their full flavor during transportation. Meanwhile, most bologna intended for supermarkets is passed through high-speed slicing machines At this stage, sharp blades rotate continuously, cutting the sausage into uniformly thick slices, approximately one to three millimeters thick. The automated system then stacks the slices, checks their weight using electronic scales, and packages them either under vacuum or in a protective gas mixture. The finished packages of bologna continue to be kept refrigerated during transportation to supermarkets and food stores, ready for consumers to take home and eat without without complicated preparation. With its affordable price and simple preparation, bologna has become a familiar filling in sandwiches, providing a quick yet flavorful meal that requires little preparation time. Its convenience and recognizable flavor have helped these slices of meat maintain their place in the eating habits of many Americans. That flavor has also appeared in fast food, As the Bojangles chain once introduced the fried bologna biscuit, combining a biscuit with fried bologna to create a hot, familiar, and appealing option. From cold slices served in sandwiches to hot fried versions, bologna continues to maintain its appeal through its simplicity, convenience, and familiar flavor, which has been part of the American palate for generations. Yet, for an empire of this scale to succeed, management actually begins in the very first hours of a calf's life. This is one of the most critical stages. Newborn calves have virtually no immune system and depend entirely on their mother's colostrum for essential antibodies. But unlike indoor factory farming, calves in the outback are born in the vast desert, dozens of kilometers away from any human. A vulnerable calf can vanish into the desert forever long before anyone even notices. This brutal geographical reality completely redefined Australian livestock farming. Instead of monitoring each calf by hand, cattlemen rely on high-level system management, optimizing maternal nutrition before pregnancy, securing water supplies, and strategically mapping out grazing zones. On top of that, cutting-edge tech, like modern sensors and real-time GPS. is deployed to pinpoint laboring cows the moment they give birth. By combining groundwork with remote monitoring, Australians have transformed a battle against nature into a scientifically precise, seamless operation. Once early care wraps up, herd management moves to a whole new level, where every single animal is tracked and driven by data. Under the Nile system, cattle wear RFID ear tags with unique ID codes. On high-tech ranches, these smart tags are paired with GPS or satellite tracking to monitor the herd's location and movement across massive grazing grounds. That small tag on the ear effectively becomes a digital passport for the cow's entire life. Every time it moves to a staging area, a feedlot, a livestock market, or a processing plant, its journey is recorded in the system, creating a complete travel history that can be traced at any moment. This is crucial during disease outbreaks or food safety scares. With just one single ID code, authorities can instantly trace everywhere that cow has been, pinpoint exposed herds, and contain potential risks in record time. Once strong enough, the cattle are turned out onto vast natural pastures, roaming freely to forage on native grasses and shrubs while moving between scattered watering holes across the arid landscape. Today, grazing land covers 40% of the entire Australian continent, stretching from northern tropical savannas deep into the semi-arid interior. This massive scale unlocks land too dry or poor for crops, but it also turns herd control into an extraordinary challenge. When hundreds of cattle scatter across thousands of square kilometers, ranches combine electronic tracking and GPS with helicopters, off-road vehicles, and motorbikes to spot herds from above, seal off escape routes, and systematically push the cattle toward assembly points. Since 1976, helicopter musterings have become widely commercialized across the Northern Territory. Today, roughly 80% of large-scale cattle stations in northern Australia rely on helicopters and smart tech to command these massive herds spanning endless horizons. Even as modern tech penetrates deep into Australia's livestock industry, a 19th century practice endures across these giant cattle stations. Skilled stockmen on horseback, working alongside cattle dogs to herd the livestock. Horses were once irreplaceable tools on pastoral stations, while Australia's iconic working dog breeds were developed back in the 1820s and 1830s specifically to manage livestock across vast, punishing terrain. Teamwork is brilliant. Mounted stockmen hold high ground to survey the herd, sweeping around the flanks to block stray routes. The dogs run low to the ground, sprinting through thick brush and cutting off stray cattle to force them back into formation. This high mobility makes horses and working dogs indispensable in dense scrub, dry creek beds, muddy flats, and rugged terrain where off-road vehicles simply can't maneuver safely. Instead of just blindly chasing cattle, the team applies calculated pressure from the rear and sides while keeping the path ahead wide open, guiding hundreds of cattle into a single flowing stream toward the assembly yards. That is why, despite helicopters and motorbikes drastically reducing the reliance on horses, this traditional mustering skill remains alive and thriving to this day. Free-range grazing doesn't mean leaving cattle to roam wild year-round. When extreme weather strikes or pastures run dry of nutrients, the herd is driven back to central yards for supplemental feed, health checks, and routine vaccinations. The past Funneling thousands of cattle from wide open plains into tight enclosures was a massive hurdle. If just a few panicked animals turned back, the entire herd could instantly collapse into chaos. Today, this process is completely optimized through steel fencing systems, narrow chutes, and automated sorting gates. From a large holding yard, the cattle's path is steadily narrowed as gates behind them close continuously, locking them onto the right course. As a result, herding and quality inspections are carried out with total order, safety, and precision. Australia's feedlots and holding yards, cattle are fed far more than just hay. They receive precise, scientific diets tailored to replenish missing nutrients from natural pastures. For a cow weighing roughly 450 kilograms, daily feed intake can reach 13.5 to 15 kilograms. To ensure balanced nutrition for every single animal, raw ingredients are dumped into commercial mixers, blending hay, concentrated feeds, minerals, and supplements into a perfectly uniform mix. The hunters must pinpoint the exact location of the hives using knowledge passed down through generations. They scan for massive honeycombs clinging beneath overhangs, rocky hollows, and sheer drops, watching for dense swarms clouding the area. Next comes the anchoring process. The rope ladder is lashed securely to a massive tree, one with a sturdy trunk and deep, unyielding roots capable of bearing the full weight of the climber, the ropes, and the entire rigging system. At this altitude, a single compromised anchor point could turn the expedition into an irrecoverable disaster. Once the ladder is bolted down, they prepare the man who will descend the rock face. The climber cannot wear heavy protective gear Bulky fabric would interfere with every grip, turn, and pivot on a ladder that never stops swaying in midair. Instead, they wear only light clothing, shielding their heads with a simple cloth wrap or net. Bare feet grip directly onto the wooden rungs, while a safety lanyard tethers the hunter to the ladder, keeping him locked in so his body isn't thrown off when leaning out toward combs dangling just beyond reach. The smoke bundle is one of the most critical tools Before the hunter approaches the hive. Down below, the ground crew burns dry grass and foliage to send a thick plume of smoke billowing up the rock face, disorienting the swarm and scattering the bees guarding the comb. Once the smoke thickens, the lead harvester begins his descent, taking the rope ladder one rung at a time. The ladder hangs almost entirely free in midair, demanding slow, measured steps. Shifting weight too abruptly could throw the entire rig into a violent sway. Once level with the hive, the hunter relies on long bamboo poles to work from a safer distance. One pole maneuvers the collection basket into position, while the other carries a blade at its tip to slice sections of honeycomb clean off the rock. He must line up the cut so the severed comb drops squarely into the basket, missed by an inch, and the heavy slab of honey plunges down the cliffside. This is when the hive retaliates with absolute fury. Thousands of giant bees cloud around him, yet the hunter must keep both feet anchored to the rungs, guide the poles with steady hands, and systematically slice away at the comb. From afar, it looks like an aerial acrobatic act, but every calculated motion serves one goal, detaching the comb without losing his footing. Once the basket is full, the ground crew lowers it to empty the yield, then hauls it back up. This cycle repeats until all accessible combs are cleared, clearing the way for the hunter to begin his climb back up the cliff. Right on the mountain slope, the team begins processing the newly gathered yield. The raw honey is strained through a mesh filter to sift out bee larvae, dead bees, wax fragments, and other debris before being funneled into plastic jerry cans for the trek down the mountain. At this stage, the hunters often sample a drop of honey directly or chew on a piece of fresh honeycomb to gauge the batch's flavor and potency. Unlike standard honey, which is primarily sweet, Nepal's mad honey carries a bittersweet, pungent bite that leaves a sharp, burning sensation down the throat. And once those first few drops are swallowed, the most unpredictable chapter of the story truly begins. This happens when a drop of this honey touches your tongue. During the first 10 to 30 minutes, the toxin lulls the body into a false sense of security with a warm, burning glow in the throat and a mild, intoxicating buzz. Then, the trap springs shut. From 30 minutes to two hours in, grayanotoxin launches its full assault. Limbs grow limp, cold sweat pours, and heart rates plummet, triggering violent vertigo and uncontrollable vomiting. With an overdose, between one and three hours later, vision blurs, the body collapses, and the victim slips into a deep coma. Even seasoned native hunters carry no immunity. Spared the worst fate, a victim still faces 24 full hours of agonizing torment just to claw their way back to life. Today, Mad Honey is no longer confined to isolated Himalayan villages. It is sold worldwide as bottled raw honey, limited batches, and specialty products marketed by harvest season or stated potency. Yet this surge in fame brings a dangerous new challenge. Quality, origin, and grayanotoxin concentrations swing wildly from one batch to the next, while buyers have virtually no way to gauge potency by color or aroma alone. What was once gathered on crude rope ladders over Nepalese cliffs has morphed into a global commodity. And the farther it travels from the rock face, the harder it becomes to verify its authenticity, its strength, and its safety. 17 times smaller than the United States, with an area of only around 147,500 square kilometers, Nepal is sandwiched between the world's two largest and most populous markets, India and China. At first glance, this position should have been an economic springboard, giving the country access to billions of consumers, attracting investment, and bringing agricultural products into the largest markets on earth. But Nepal is trapped by that very advantage. Its landscape changes dramatically from the Terai Plains in the south to the Himalayas, with Mount Everest rising to 8,849 meters in the north, while the country has no coastline at all. Export goods must travel through treacherous mountain routes or depend on neighboring countries to reach markets, making logistics costs a major burden. At the same time, this very terrain gives Nepal abundant water resources that nourish fertile fields, while also making the country especially vulnerable to flash floods and landslides. And the disaster on August 26 was a horrifying example. A massive flood from the Himalayan region left more than 1,250 people dead and more than 4,200 missing, while total damage was estimated at nearly $3 billion. But harsh nature is only part of the story. Political instability, weak institutions and limitations in investment, infrastructure and production capacity have kept Nepal among the poorest countries in Asia, while 61% of of the workforce still works in agriculture. And this is where the story begins. How can a country divided by mountains turn every piece of arable land into a source of food for tens of millions of people? In Nepal's agriculture, no crop is more important than rice. As soon as the first summer rains begin to fall across the Terai Plains, millions of rice fields across Nepal enter the most important growing season of the year. To adapt to the country's rugged mountainous terrain, Nepalese farmers have transformed steep mountain slopes into layers of terraces stretching one after another, like giant ribbons embracing the mountainsides. Seeds are sown in nurseries, after which young seedlings are pulled out and transplanted in rows across flooded fields. In areas where mechanization is possible, rice transplanters are used to place thousands of seedlings into the fields within a short period of time With around 1.4 million hectares planted each year, Nepal produces nearly 6 million tons of paddy, making rice one of the country's largest-scale crops. Nevertheless, Nepal still has to import hundreds of thousands of tons of rice every year, mostly from neighboring India. And this is the critical weakness of Nepal's rice industry. production is already very large but mechanization irrigation systems and the ability to create added value have yet to keep pace with its potential that is why at higher elevations nepalese farmers are turning the harsh climate and terrain to their advantage to produce one of their most valuable agricultural products tea