Inside the Netherlands' Tulip Industry: How Tulip Farmers Harvest Their Crops | Farming Documentary

Every spring, tulip fields across the Netherlands transform into enormous bands of color, stretching across the country's flat, low-lying landscape. But surprisingly, the most valuable part of these fields is not the brilliant flowers, visible above the ground. It lies deep beneath the surface, where millions of tulip bulbs continue to grow. For the small bulbs planted in autumn to become commercial products, growers must wait through the winter, care for the plants during spring, remove the most beautiful flowers, and then use machinery to lift the bulbs from the soil. So why are the flowers cut off? And what happens to tulip bulbs after they are harvested? Today we will explore the entire process of planting, caring for, and harvesting tulip bulbs in the Netherlands. Tulips are widely regarded as a symbol of the Netherlands, but the country's colorful fields are not planted solely for tourism. Most of them are large-scale commercial fields used for bulb production. In 2024, the area devoted to tulip cultivation in the Netherlands reached approximately 14,740 hectares. A total of 909 farms were involved in growing the crop, making tulips the country's largest bulb flower crop by cultivated area. Two major production regions are the IJ Silmier polders and Westelijk Holland. These areas have flat terrain, advanced drainage systems, and soil types that are well-suited to mechanized farming. The level fields also allow planting, crop care, and harvesting machinery to travel accurately along each bed. Commercial tulips are not normally grown from seed. To preserve the exact color, shape, and characteristics of each variety, the plants are mainly propagated through bulbs. During a single growing season, one mother bulb can produce several new bulbs. Before planting, the bulbs are inspected and graded. Bulbs that are soft, rotten, infected with fungi, or damaged during storage are removed. Only healthy bulbs of the correct variety and suitable size are returned to the field. Once the planting bulbs have been prepared, soil preparation begins. Tulip bulbs are generally planted outdoors in the field during autumn. Before the planting machines arrive, the soil is plowed, broken into a fine texture, and leveled. The drainage system must function properly so that rainwater does not accumulate around the bulbs. On many farms, tulips are rotated with other crops. Avoiding continuous cultivation on the same piece of land helps limit the buildup of pathogens and protects the structure of the soil. When conditions are suitable, specialized planting machines begin moving across the field. The planting bulbs are loaded into large hoppers. From there, conveyor systems carry them down into the beds at a relatively even density. The machine opens the soil, places the bulbs, and covers them again in a single operation. Some farms also place netting beneath the bulb beds. The net remains in the soil throughout the growing season and is pulled up during harvest, helping reduce the number of bulbs left behind. Once planting is complete, the surface of the field may be covered with a layer of straw. The straw helps reduce erosion, stabilize soil temperature, and protect the planted beds from the direct effects of winter weather. From above, the field now appears almost empty. Only long soil beds and a layer of straw remain visible on the surface. But underneath, millions of bulbs are beginning to develop their root systems. Throughout the winter, most of the plant's activity takes place silently below ground. The bulbs begin producing roots and preparing for spring growth. Cold temperatures are an essential part of the tulip's natural cycle, helping the plant complete bud development and prepare to emerge when warmer weather returns. During this period, growers must still monitor the field regularly. It is a long period of waiting. Almost no greenery can be seen above the soil, yet the entire crop has already been placed underground. As temperatures begin to rise in late winter and early spring, the first tulip shoots break through the soil. Within a short time, the empty field is transformed into thousands of straight rows of green plants. Spring is the period of fastest tulip growth, but it is also the time when growers must monitor the plants most closely. Water and nutrients are adjusted according to soil and weather conditions. The plants need enough moisture to develop their leaves and bulbs, but excessive water increases the risk of root and bulb rot. At the same time, growers must control weeds, fungal diseases, and viruses. In bulb production, the uniformity and purity of each variety are extremely important. The fields are usually inspected several times as the plants grow and begin forming buds. After spending months beneath the soil, the tulips begin to develop flower buds. Soon afterward, the fields transform into striking bands of red, yellow, pink, purple, and white. This is the most beautiful stage of the entire cycle, but it is also when one of the most surprising operations begins. When the tulips bloom, growers conduct a final inspection of the color and purity of each variety. After that, flower topping machines enter the field. The machines travel above the beds, cutting off the flower heads, while attempting to preserve the stems and all of the leaves. Within a short period, the brilliant bands of flowers are transformed into rows of green plants with no blossoms remaining. At first glance, the process appears incredibly wasteful. The flowers are removed at the peak of their beauty and allowed to fall into the field. But the purpose of these fields is not to sell flowers. Their purpose is to produce bulbs. If the flowers remain for too long, the plants continue using energy to maintain them and may begin producing seeds. Once the flowers are removed, the leaves continue photosynthesizing, but most of the nutrients are redirected toward the bulbs below. This gives the mother bulbs and newly formed daughter bulbs more time to increase in size, store energy, and develop buds for the following season. It is hard to believe that the most beautiful tulip fields must lose every flower in order to produce the valuable crop hidden beneath the soil. After the flowers are removed, the plants remain in the field for several more weeks. The remaining green leaves function like biological solar panels. They absorb sunlight, produce energy, and transfer nutrients down into the bulb system. Below the soil, the original planted bulb is gradually replaced by a cluster of new bulbs. This cluster usually includes one larger main bulb and several smaller daughter bulbs of different sizes. Gradually, the leaves change from green to yellow and begin to dry. This indicates that the plant is nearing the end of its cycle in the field and that most of its energy has been transferred into the bulbs. Before harvesting begins, the condition of the soil is carefully assessed. When conditions are suitable, the harvest season begins. The harvesting machine moves slowly along each bed. A digging unit passes beneath the depth of the bulbs, lifting the soil, roots, and bulbs onto a conveyor system. Shaking bars and screens allow the loose soil to fall back into the field while the bulbs continue moving upward. When netting has been used, the machine lifts both the net and the entire layer of bulbs. This method improves collection efficiency and reduces the number of bulbs left behind in the soil. Dry leaves, roots, stones, and large clumps of soil are separated from the product flow. Workers positioned on the machine continue inspecting the material and removing unwanted objects. Finally, the bulbs are transferred into large containers or trailers, moving alongside the harvester. This is the moment when the full result of the growing season is finally revealed. After leaving the field, the bulbs are quickly transported to a processing facility. First, they are partially dried to reduce the amount of soil attached to their surfaces and remove excess moisture. Machinery then removes roots, soil, loose skins, and plant debris. The newly formed bulb clusters must also be separated. Large bulbs, medium-sized bulbs, and smaller daughter bulbs are divided into different groups. Grading machines usually sort them according to circumference or diameter because size determines both their intended use and commercial value. Large bulbs may be sold to professional flower growers or packaged for the home gardening market. Smaller bulbs often do not yet contain enough stored energy to produce flowers that meet commercial standards, so they are retained and planted for another season. Quality inspection takes place alongside the grading process. Once each bulb has been sorted, its next destination is largely determined. The market, a greenhouse, an export shipment, or a return to the field. A tulip bulb remains a living organism even after it has been lifted from the soil. Inside every bulb, the plant shoot and flower bud continue developing. For this reason, temperature, humidity, and airflow inside the storage facility must be precisely controlled. The bulbs are placed in ventilated crates. Fans force air through the mass of bulbs, removing remaining moisture and reducing the risk of fungal disease. Dutch tulip fields are famous for the colors visible above the ground, but their true value develops in darkness beneath the soil. A tulip bulb must be selected, planted in autumn, exposed to the cold of winter, allowed to grow in spring, and continue receiving energy even after its flower has been removed. The bulbs are then lifted by machine, cleaned, graded, dried, and stored before beginning another journey. Some bulbs will enter greenhouses to produce cut flowers. Others will be sold to gardens thousands of kilometers away from the Netherlands, and some will return to the field for another growing season. Behind every tulip that blooms in spring is a production cycle that lasts for almost an entire year. The flowers appear only briefly, but inside every bulb, the beginning of the next spring is already waiting. Across tropical regions, mangoes grow under intense sunlight, turning vast orchards into one of the most valuable fruit industries in the world. But what many people don't see is how fresh mangoes are transformed into high-value products like dried mango that travel across continents. In recent years, global mango production has exceeded 55 million tons, with a growing share processed into long-lasting products. This transformation requires not only perfect fruit, but also precise harvesting handling and advanced processing systems. So how do farmers turn delicate fresh mangoes into premium export fruit and chewy dried snacks? Let's begin at the most time-sensitive moment of the journey, the harvest season. Mango harvest season usually takes place during the hot summer months, depending on the region and variety. As the fruit matures, its skin gradually changes color and releases a distinct aroma. Farmers carefully monitor orchards to identify the exact moment when mangoes reach optimal maturity. Harvesting too early reduces flavor while harvesting too late shortens shelf life. This creates a narrow window where timing becomes critical to both quality and market value. Harvesting mangoes is a careful process that prioritizes precision to protect the fruit's delicate skin and internal quality. Workers move through the orchard selecting only fruits that have reached the ideal stage of maturity based on color size and natural aroma. Using long picking poles fitted with blades and collection nets, they cut each mango cleanly from the branch. This method allows the fruit to be lowered gently, avoiding impact that could cause bruising or sap damage. In lower branches, workers may harvest by hand twisting the fruit slightly while keeping the stem intact. Harvesting is typically carried out during cooler hours of the day to reduce heat stress and preserve freshness. Each mango is placed carefully into lined baskets or crates to minimize friction during handling. The harvested fruit is then quickly transported out of the orchard to maintain quality before entering sorting and processing stages. After harvest, mangoes are transported quickly to packing and processing facilities to preserve freshness and quality. The first stage focuses on processing fresh fruit. First, mangoes are fed into a washing system using clean pressurized water combined with a food-safe disinfectant solution to remove dirt, resin residue, and bacteria from the surface. Rotating brushes and multi-stage rinsing ensure that each fruit is thoroughly cleaned without damaging the skin. The fruit is then graded based on size, weight, color, and surface quality using a combination of automated systems and manual inspection. High-quality mangoes are selected for fresh export and carefully packed into protective cartons. These cartons are labeled and placed into refrigerated systems to maintain freshness during transport. At the same time, selected mangoes are directed to processing lines for dried products. The fruit is washed thoroughly to remove impurities and ensure food safety. Skilled workers or automated systems peel the mangoes and remove the seed. The flesh is then sliced into uniform pieces to ensure consistent drying. Before drying, slices may be treated with controlled solutions to enhance flavor and texture. The mango slices are placed into drying chambers where temperature and airflow are precisely controlled. Over several hours, moisture is gradually removed while preserving color sweetness and nutrients. The result is soft, chewy, dried mango with concentrated flavor. After drying, the product is inspected, graded, and packaged into sealed bags to protect quality. This process transforms fresh fruit into a high-value product with extended shelf life. Mangoes are sold both as fresh fruit and processed products across global markets. Fresh mangoes are distributed through cold chain systems to maintain quality during transport. Dried mango has become increasingly popular due to its convenience and long shelf life. Export markets include North America, Europe, and Asia. Processing allows producers to reduce waste and increase profitability. Mango farming begins with selecting suitable varieties adapted to local climate conditions. Farmers prioritize cultivars known for sweetness, texture, shelf life, and suitability for both fresh consumption and drying. Most commercial orchards use grafted plants combining strong root stocks with high-quality fruit varieties to ensure consistent performance. Before planting, farmers prepare the soil by deep plowing and leveling the land to create a loose, well-aerated structure. Good drainage systems are also established to prevent water accumulation around the roots. Trees are planted in carefully spaced rows allowing sufficient sunlight airflow and access for maintenance and harvesting. Irrigation systems are installed early to provide controlled water supply during the establishment phase. This early stage determines long-term productivity and fruit quality. Maintaining a productive mango orchard requires continuous monitoring and precise management throughout the growing cycle. Farmers use irrigation systems to provide stable moisture, especially during dry periods when water stress can affect fruit development. Fertilization is applied in planned cycles, supplying essential nutrients that support both vegetative growth and fruit production. Pruning is carried out regularly to shape the canopy, improve light penetration, and enhance airflow within the tree. Farmers also manage pests and diseases to protect yield and quality. Careful monitoring ensures stable growth throughout the season. Mango trees begin flowering after several years of growth. Clusters of small flowers develop into fruit under favorable conditions. Pollination plays a key role in determining yield and fruit quality. After flowering, mangoes grow and mature over several weeks to months. As they ripen, changes in color, texture, and aroma signal readiness for harvest. Behind every mango orchard is a network of farmers, workers, and technicians. Farmers manage cultivation harvesting and quality control. Workers handle delicate processes, such as picking, sorting, and slicing. Processing plant staff ensure hygiene, precision, and consistency. Their combined effort drives the success of the mango industry. The journey of mangoes from orchard to dried product is a process of transformation and precision. From careful harvesting to advanced drying technology, every step adds value to the fruit. What begins as a delicate tropical fruit becomes a global product with extended shelf life. This system reflects how modern agriculture combines tradition and innovation, and behind every piece of dried mango is a story of timing, care, and human effort. Over 1.36 billion pounds of peaches, equivalent to 682,500 tons, are harvested across the United States. You heard that right. California alone produces approximately 520,000 tons, accounting for three-quarters of the nation's total peach production. Peaches are one of the most perishable fruits in American agriculture. Their soft skin can be bruised with the slightest impact, their sweetness depends on the perfect harvest time, and their freshness can quickly disappear in the summer heat. How do American farmers manage to harvest and preserve hundreds of millions of tons of peaches to supply the market? Let's explore that secret now. Before we delve into the secrets of the harvest, let's first learn about how peaches are grown and cared for. Peaches are grown in several regions across the United States, but California is the clear leader. California is truly a paradise for many types of fruit in America, with vast areas of fertile farmland, warm summers, and advanced irrigation systems. All of these factors create a favorable environment for peach cultivation. The journey begins with the orchard. Peach trees grow best in well-drained soil with enough sunlight and good air movement. Before planting, farmers prepare the field by clearing old vegetation, loosening the soil, improving drainage, and adding organic matter or nutrients when needed. Most commercial orchards do not begin from ordinary seeds. Instead, farmers plant young nursery trees that have been grafted onto selected rootstocks. This helps create stronger trees, more uniform fruit quality, and better adaptation to soil and climate conditions. Spacing is carefully planned. Trees must be close enough for efficient land use, but far enough apart to receive sunlight, airflow, and access for pruning, spraying, and harvesting. Once the young trees are planted, they are watered and protected carefully. A peach orchard is a long-term investment. Farmers must shape the trees for several years before they reach full commercial production. Pruning is one of the most important jobs in a peach orchard. From the first year, farmers begin shaping the tree. They remove weak, damaged, diseased, or crowded branches and create an open canopy that allows sunlight to reach the center. This matters because peaches need light. Good sunlight helps fruit color develop. It also improves airflow, reduces disease pressure, and makes harvesting easier. Pruning is often done during the dormant season before spring growth begins, but farmers may also manage shoots and canopy structure during the growing season. Water and nutrition are also carefully controlled. Peach trees need enough moisture to support fruit development, but too much water can weaken the tree or reduce fruit quality. Fertilizers are applied based on soil tests, tree age, and crop load. Farmers also monitor pests and diseases throughout the season. A healthy peach orchard is not created in one moment. It is built through repeated care, year after year. In late winter or early spring, peach orchards begin to bloom. Pink blossoms appear before the leaves fully expand, turning the orchard into a soft, colorful landscape. But this beautiful stage is also one of the most dangerous. A late frost can damage the flowers and reduce the entire crop before fruit even begins to form. That is why farmers watch weather forecasts closely during bloom. In some orchards, frost protection may be used when temperatures drop suddenly. Pollination is helped by insects, especially bees. Once flowers are pollinated, small green peaches begin to form. But a strong bloom does not automatically mean a strong harvest. The young fruit still needs months of protection, water, nutrition, and careful management before it becomes market-ready. After pollination, peaches grow slowly over the next few months. At first, they are small, green, and firm. As the season progresses, they increase in size, develop color, and begin building sugar and aroma. During this stage, farmers manage irrigation carefully. If the tree does not receive enough water, fruit size can suffer. If water is excessive or poorly timed, fruit quality and tree health may decline. Fruit thinning is another critical step. Peach trees often set more fruit than they can support. Workers remove extra young peaches by hand, leaving enough space for the remaining fruit to grow larger and more uniform. This may reduce the total number of peaches on the tree, but it improves quality and market value. Harvest begins when peaches reach the right balance of size, color, firmness, and flavor. Timing is everything. Farmers look at background color, surface blush, fruit size, firmness, and variety characteristics. Some peaches are picked at a firm ripe stage, so they can survive shipping while still ripening properly for consumers. Harvest is often done during cooler parts of the day, such as early morning or late afternoon. This helps protect fruit quality and slows heat stress after picking. For peaches, harvest is not simply a race. It is a careful decision made fruit by fruit. Fresh market peaches are usually harvested by hand. Workers move through the orchard and select fruit carefully. Each peach is gently twisted or lifted from the branch and placed into padded picking bags, bins, or crates. The movement must be controlled. A rough pull can tear the skin. A drop can bruise the flesh. Too much pressure can leave marks that appear later in storage. Experienced harvest workers can pick large volumes in a day, but the work requires speed, concentration, and skill. Because peaches do not all ripen at the same time, the same orchard may be harvested several times. Workers return again and again, selecting only the fruit that has reached the right maturity. This selective harvest helps protect quality. After harvest, peaches must leave the orchard quickly. Field heat can speed up softening and reduce shelf life, so the fruit is transported to packing facilities as fast as possible. One of the first steps is cooling. Some facilities use forced air cooling or hydro-cooling systems to remove heat from the fruit. This slows ripening, helps maintain firmness, and gives the peaches a better chance of reaching markets in good condition. After cooling, peaches move to washing lines. Water systems and soft brushes remove dust, field residue, and fine fuzz from the skin. The process must be gentle because the fruit surface is delicate. Some peaches may receive a thin food-grade coating to help reduce moisture loss and improve appearance. At this point, the fruit begins its transition from orchard crop to market-ready product. After washing, peaches are sorted. Workers and machines check the fruit for size, color, firmness, ripeness, bruises, cuts, and defects. Premium peaches with strong appearance and proper maturity are selected for the fresh market. They may be packed into trays, cartons, boxes, or clamshells depending on buyer needs. Packaging is designed to protect the fruit. Peaches cannot be piled carelessly like harder produce. Pressure damage can quickly reduce quality. Once packed, the boxes are moved into cold storage and then loaded onto refrigerated trucks. From there, rare fresh peaches travel to supermarkets, farmers markets, restaurants, wholesalers, and food service buyers. Not every peach is sold fresh. Some peaches are too small, too soft, oddly shaped, or visually imperfect for premium fresh markets. But if the internal quality is good, they can still become valuable processed products. For canned peaches, the fruit is washed, peeled, pitted, and cut into halves or slices. Workers and machines inspect the pieces to remove bruised or damaged areas. The peach slices are then packed into cans with syrup, juice, or another preserving liquid. After sealing, the cans are heat treated to ensure food safety and extend shelf life. Frozen peaches follow a different path. The fruit is peeled, sliced, treated to protect color, and quickly frozen. Frozen peach slices are used in smoothies, pies, bakery products, desserts, and food service kitchens. Peaches can also become puree, jam, pie filling, juice, sauces, baby food, and dessert ingredients. Processing helps reduce waste and extends the value of the harvest beyond the fresh season. The American peach market depends on both freshness and processing. California remains the backbone of the U.S. peach industry, particularly for both the fresh and processed peach markets. In 2025, California peach production reached 520,000 tons, including 230,000 tons of pitted peaches and 290,000 tons of loose peaches. But behind the numbers is a human story. Farmers spend years shaping trees before full production begins. Workers prune, thin, pick, cool, sort, and pack fruit with precision. Processing plants turn part of the harvest into canned, frozen, and shelf-stable foods that can travel far beyond the orchard. From pink blossoms in spring to ripe peaches in summer, every fruit carries a full chain of effort. So the next time you bite into a peach, remember this. It is not just sweetness. It is winter pruning, spring bloom, careful thinning, hand harvesting, rapid cooling, modern packing, and the work of people who protect a delicate fruit from orchard to table. Have you ever wondered how a simple rose becomes one of the most expensive natural oils in the world? In Bulgaria's famous Rose Valley, this journey begins before sunrise. While most people are still asleep, farmers and workers are already walking through rows of damask roses, carefully picking flowers covered in morning dew. These roses are not grown only for beauty. They are grown for their fragrance, their oil, and their value in luxury perfumes, cosmetics, rose water, and traditional products. But here is what makes this crop so special. The harvest season lasts only a few short weeks each year, and the flowers must be picked at exactly the right time. Join Ashley as she explores the damask rose harvest season right now. Before the harvest begins, Bulgaria's Rose Valley goes through one of the most beautiful transformations in agriculture. For most of the year, the rose bushes look quiet and ordinary. But when late spring arrives, everything changes. Small buds begin to appear along the branches. Then, one by one, the first petals open. Soon the fields are covered in soft pink flowers, and the air becomes filled with the deep, sweet fragrance of damask roses. This flowering period usually happens around May and June. But in recent years, warmer weather has caused some seasons to begin earlier than usual. For visitors, it looks peaceful. But for farmers, flowering means pressure. Each rose has only a short period of peak fragrance. When the flowers open, the race begins. Harvesting begins before sunrise. Workers enter the fields in the cool morning air when the petals are still fresh and covered with dew. This is the best time to collect roses because the fragrance and oil content are at their strongest. The picking window is short, often only a few hours each morning. Once the sun rises higher and the temperature increases, the flowers begin to lose quality. Each flower is picked by hand. Machines can harvest wheat, corn, potatoes, and many other crops, but roses are too delicate. A machine could bruise the petals, break the flowers, or collect material that is not suitable for premium oil. Workers move quickly, but they must also be gentle. A skilled picker knows which flowers are ready and how to remove them carefully. After picking, the roses are placed into breathable bags or containers. This helps prevent heat from building up inside because heat can damage the fragrance. The flowers must not be crushed, packed too tightly, or left in the field too long. In this industry, every detail matters. A single flower may seem small, but thousands of these flowers together become the foundation of one of the world's most valuable essential oils. After harvesting, the roses must move quickly. Fresh petals begin to lose quality soon after they are picked. Their fragrance can weaken, and oxidation can affect the final oil. That is why farmers rush the flowers to the distillery as fast as possible. At the processing facility, the roses are weighed and inspected. Workers check freshness, cleanliness, and overall quality before the petals enter the distillation process. This step is all about speed and control. If the flowers arrive fresh, the distillery can produce better oil. If they arrive too late or too warm, the yield and aroma may suffer. For Bulgarian rose farmers, time is not just time. Time is fragrance. Time is quality. Time is money. Inside the distillery, the soft pink flowers enter a completely different world. The petals are loaded into large stills, often using traditional steam distillation. Steam passes through the rose petals, releasing their aromatic compounds. The vapor then travels through cooling pipes and condenses into liquid. From this liquid, two valuable products are created, rose essential oil and rose water. At first glance, the amount of oil seems almost impossible. From thousands of kilograms of petals, producers may collect only a small amount of essential oil. The oil naturally separates from the water, forming a thin aromatic layer that can be carefully collected. The remaining fragrant water becomes rose water, a valuable product used in skincare, food cosmetics, and traditional applications. This is why rose processing is not only about the oil. This process combines old tradition with modern precision. Temperature timing and equipment must be carefully controlled to protect the delicate aroma. After distillation, the rose oil is separated, filtered, tested, and stored carefully. High-quality Bulgarian rose oil is used in luxury perfumes, premium cosmetics, aromatherapy, and beauty products. Its fragrance is complex, rich floral, and long-lasting. Rose water is bottled for wider use. It can be found in facial sprays, creams, soaps, desserts, and wellness products. Even the remaining rose material can be reused. Some farms turn it into compost and return it to the fields, helping support a more sustainable production cycle. This is what makes the Damask rose so valuable. It is not just one product. It can become essential oil, rose water cosmetics, food ingredients, natural skincare, and even part of local tourism. From one delicate flower, an entire industry is created. Bulgarian Damask rose oil is valued worldwide because it is rare, labor-intensive, and difficult to produce. It is used in luxury perfumes, cosmetics, skincare products, aromatherapy, and rose water. Buyers care about purity, fragrance, quality, and origin, which is why Bulgarian rose oil has such a strong reputation. But the market also faces pressure. Climate change can shift, flowering time labor costs continue to rise, and farmers must work within a very short harvest season. Still, every small bottle carries high value because behind it are thousands of hand-picked roses and a process that cannot be rushed. Would you pay more for a product if you knew it came from this much work? From quiet fields before sunrise to glass bottles sold around the world, the Damask rose has a remarkable journey. It begins with delicate flowers picked by hand, then moves quickly to the distillery where steam turns fresh petals into rose oil and rose water. Only a tiny amount of oil comes from a huge amount of roses, which is why this product is so precious. So next time you smell rose perfume or use rose water, remember the farmers, the early mornings, and the careful process behind every drop. What surprised you most about Bulgaria's Damask rose harvest?