📋 Contents of This Guide
- ›Introduction to Fruit Crop Agriculture
- ›Soil Preparation & Site Selection
- ›Apple Cultivation Guide
- ›Mango Cultivation Guide
- ›Citrus Fruit Cultivation
- ›Banana Cultivation Guide
- ›Grape & Vineyard Management
- ›Irrigation & Water Management
- ›Fertilization & Nutrition
- ›Pest & Disease Management
- ›Harvesting Best Practices
- ›Post-Harvest Storage & Marketing
🌱 Introduction to Fruit Crop Agriculture
Fruit farming sustains billions of livelihoods and feeds the global population. Photo: Unsplash (Free to use)
Fruit crop cultivation is one of humanity's oldest and most economically significant agricultural activities. From the apple orchards of temperate Europe to the mango groves of tropical South Asia and the citrus plantations of the Mediterranean — fruit farming feeds billions, generates livelihoods, and shapes entire regional economies.
RAMSPROZONE is your definitive resource for understanding how to establish, grow, and profitably manage fruit crops of all kinds. Whether you are a smallholder farmer in sub-Saharan Africa, a commercial orchardist in New Zealand, or a backyard grower in the United States, the principles in this guide apply across scales, climates, and contexts.
This guide covers the five most important commercial fruit crops globally — apples, mangoes, citrus fruits, bananas, and grapes — alongside universal principles of irrigation, fertilization, integrated pest management, harvesting, and post-harvest handling that apply across all fruit crop types.
Climate Matters First
Every fruit crop has a defined climate range. Matching the crop to your local conditions — temperature, rainfall, humidity, and frost exposure — is the single most important decision you will make before planting.
Plan for Long-Term Returns
Most tree fruit crops (apples, mangoes, citrus) take 3–7 years to reach peak production. Financial planning must account for this establishment phase before commercial yields begin.
Science-Based Approach
Modern fruit farming integrates soil science, plant physiology, integrated pest management, and precision irrigation. Farmers who adopt evidence-based practices consistently outperform those relying on tradition alone.
Market Linkage Is Critical
Growing exceptional fruit means nothing without access to markets. Plan your variety selection, harvest timing, and post-harvest handling around your intended market from day one.
🪱 Soil Preparation & Site Selection
Well-prepared, nutrient-rich soil is the foundation of any successful fruit crop. Photo: Unsplash (Free to use)
The quality of your soil and the suitability of your chosen site will determine the upper ceiling of what your fruit crops can achieve — regardless of how well you manage them later. Excellent site selection and thorough soil preparation before planting are investments that pay dividends for the life of the orchard, often 20–50 years for tree crops.
Begin with a comprehensive soil test from a certified agricultural laboratory. This reveals your soil's pH, macro and micronutrient levels, organic matter content, texture, and drainage characteristics. Most fruit crops prefer a slightly acidic to neutral pH range of 5.5–7.0, though this varies by species.
Key Soil Requirements by Fruit Type
| Fruit Crop | Ideal pH | Drainage | Soil Texture | Organic Matter |
|---|---|---|---|---|
| Apple | 6.0 – 7.0 | Excellent | Sandy loam / Clay loam | High (>3%) |
| Mango | 5.5 – 7.5 | Good | Deep loamy / Alluvial | Medium (2–3%) |
| Citrus | 5.5 – 6.5 | Excellent | Sandy loam | Medium (2–3%) |
| Banana | 6.0 – 7.5 | Good (no waterlogging) | Rich loamy | High (>3%) |
| Grape | 5.5 – 7.0 | Very good | Sandy / Gravelly loam | Low–Medium (1–3%) |
The 4 Phases of Site Preparation
Soil Testing & Analysis (6–12 months before planting)
Collect soil samples from multiple depths (0–30 cm and 30–60 cm) across the site. Send to a certified lab. Results guide all subsequent amendment decisions and prevent costly guesswork.
Land Clearing & Deep Tillage (4–6 months before planting)
Remove tree stumps, rocks, and persistent weeds. Subsoil till to 60–90 cm depth to break up hardpan layers that would restrict root growth. Install land drains if waterlogging is a risk.
Amendment & pH Correction (3–4 months before planting)
Incorporate agricultural lime (to raise pH) or sulfur (to lower pH) based on soil test results. Add generous quantities of well-composted organic matter — at least 30–50 tonnes per hectare — and incorporate thoroughly.
Cover Crop & Final Preparation (4–6 weeks before planting)
Sow a legume cover crop (clover, vetch, or cowpea) to fix nitrogen and suppress weeds. Mow or incorporate shortly before planting. Mark out planting positions according to your orchard layout plan.
🍎 Apple Cultivation — Complete Guide
🍎 Malus domestica — Apple
The world's most widely cultivated temperate fruit, grown commercially on every inhabited continent.
Variety Selection for Apples
Variety selection is the most consequential decision in apple production. Choose varieties based on your local climate's chilling hour accumulation, target market preferences (fresh eating vs. processing vs. cider), and disease resistance profile. Popular commercial varieties include Gala, Fuji, Granny Smith, Honeycrisp, Golden Delicious, and Pink Lady — each with distinct growing requirements.
Always confirm that a selected variety has suitable pollinators available — the vast majority of apple varieties require cross-pollination from a different compatible variety flowering at the same time. Plan for at least 1 pollinator tree per 8–10 production trees.
Apple Orchard Management Calendar
- ▶Planting density: Modern high-density systems plant 1,000–4,000 trees/hectare on dwarfing rootstocks (M.9, M.26), reaching full production in 2–4 years vs. 6–10 for traditional orchards.
- ▶Rootstock selection: Choose rootstock based on soil type, vigour required, and available support systems. Dwarfing rootstocks require staking; semi-dwarfing rootstocks are more self-supporting.
- ▶Pruning philosophy: The goal is maximum light penetration to all fruiting wood. Remove crossing branches, water shoots, and any wood older than 3 years that is not productive.
- ▶Fruit thinning: Thin to one fruit per spur, 15–20 cm apart, within 30–45 days of petal fall. Thinning improves fruit size, quality, and reduces biennial bearing tendency significantly.
- ▶Harvest maturity: Assess using starch-iodine index, firmness (penetrometer), soluble solids (refractometer), and days after full bloom. Never rely on colour alone as a maturity indicator.
🥭 Mango Cultivation — Complete Guide
🥭 Mangifera indica — Mango
The "King of Fruits" — the world's most consumed tropical fruit and a cornerstone crop for South and Southeast Asia, Africa, and Latin America.
Mango Flowering & Pollination
Mango flowering is triggered by a period of cooler, drier weather (a "stress period") followed by warmer temperatures. In tropical environments, this can be managed through strategic irrigation withdrawal 6–8 weeks before the desired flowering period — a technique known as stress-induced flowering, widely practised in the Philippines, Thailand, and India.
Mango flowers are tiny and numerous (up to 3,000–4,000 per panicle), but fruit set is typically very low — often less than 0.1–0.25% of flowers set fruit. This is natural and adequate for commercial yields. Honeybees significantly improve fruit set and should be introduced at approximately 4 colonies per hectare during peak flowering.
Mango trees naturally alternate between heavy and light-bearing years. Combat this with aggressive post-harvest pruning, balanced nutrition (especially phosphorus and potassium), and regulated deficit irrigation programmes. Consistent crop load regulation year over year reduces biennial bearing significantly.
Top Mango Varieties by Market
| Variety | Origin | Flesh Colour | Best Market | Export Potential |
|---|---|---|---|---|
| Alphonso (Hapus) | India | Deep orange | Premium fresh / export | Very High |
| Kent | USA (Florida) | Yellow-orange | Export / fresh | High |
| Tommy Atkins | USA (Florida) | Orange-yellow | International export | Very High |
| Nam Dok Mai | Thailand | Yellow | Asia-Pacific fresh | Medium |
| Keitt | USA (Florida) | Orange | Fresh / processing | Medium |
| Carabao (Philippine) | Philippines | Pale yellow | Asia fresh / dried | High |
🍊 Citrus Fruit Cultivation — Complete Guide
🍊 Citrus spp. — Oranges, Lemons, Limes, Grapefruit & Mandarins
The Citrus genus encompasses the world's most economically important fruit group, spanning subtropical to semi-arid growing regions globally.
Citrus cultivation spans an extraordinary diversity of fruits — from the sweet navel orange to the tart Meyer lemon, the aromatic kaffir lime, and the bitter Seville orange used in marmalades. Each has distinct agronomy, but all share broadly similar management requirements: warm temperatures, excellent drainage, and consistent nutrition through the growing season.
Photo by Antonio Araujo on Unsplash
Critical Citrus Management Practices
- ▶Rootstock selection: Choose rootstocks suited to your soil type and key diseases. Trifoliate orange (Poncirus trifoliata) provides excellent cold-hardiness and Phytophthora resistance; Swingle citrumelo is popular in Florida for nematode resistance.
- ▶Citrus Greening (HLB) awareness: Huanglongbing (HLB), spread by the Asian citrus psyllid, is currently the most devastating disease threatening global citrus production. Monitor vigilantly, control psyllid populations aggressively, and remove infected trees immediately.
- ▶Zinc and iron nutrition: Citrus is particularly susceptible to micronutrient deficiencies, especially zinc, iron, and manganese. Apply chelated foliar micronutrients 2–3 times per year, confirmed by annual leaf analysis.
- ▶Irrigation precision: Citrus requires consistent soil moisture but will not tolerate waterlogged roots. Drip irrigation delivering 4–8 litres per tree per day (adjusted seasonally) is optimal. Never allow soils to dry completely between irrigations.
- ▶Pruning minimal: Unlike apples, citrus requires very little structural pruning. Remove crossing branches, dead wood, and any growth below the bud union. Maintain an open canopy for airflow without aggressive cutting.
- ▶Frost protection: Citrus is frost-sensitive. Protect young trees with frost cloth, micro-sprinklers (overhead ice formation protects tissue down to −5°C), or wind machines in frost-prone areas.
🍌 Banana Cultivation — Complete Guide
🍌 Musa spp. — Banana
The world's most traded fruit and fourth most important food crop globally, underpinning food security for millions across tropical regions.
Banana Production System Essentials
Unlike tree fruits, bananas are giant herbaceous perennials — technically a herb, not a tree. The "trunk" (pseudostem) is composed entirely of tightly packed leaf bases. Each pseudostem produces one bunch of fruit, then dies. The plant perpetuates through suckers (ratoons) arising from the underground corm, creating a continuous production cycle when managed correctly.
Commercial banana production is dominated by the Cavendish subgroup (particularly Grande Naine and Williams varieties), which accounts for approximately 47% of global banana production and virtually all export banana trade. Plantin, Gros Michel, and Lady Finger are other important commercial types.
Tropical Race 4 (TR4) of Fusarium oxysporum cubense is spreading globally and threatens the Cavendish banana — the world's dominant export variety — just as it destroyed the Gros Michel variety in the 1950s. There is currently no chemical cure. Prevention through strict biosecurity (disinfect boots, tools, and machinery between farms), certified disease-free planting material, and excellent drainage is the only defence. Report any suspected TR4 infection to agricultural authorities immediately.
- ▶Planting material: Use only certified tissue-culture plants or disease-indexed suckers. Tissue-culture plants establish faster, are uniform, and free of nematodes and systemic diseases — strongly preferred for new commercial plantings.
- ▶Planting density: Commercial plantations typically plant 1,200–1,800 plants per hectare in a triangular or rectangular layout with 2.5–3 m between plants. Higher densities may suit certain dwarf varieties.
- ▶Ratoon management: Select one primary ratoon (sucker) per mat. Remove all other suckers promptly. Stagger ratoon cycles across your plantation to achieve continuous year-round harvest flow.
- ▶Bunch bagging: Bag developing bunches with perforated blue polyethylene bags 2–3 weeks after bunch emergence. Bags protect against thrips, scarring, and sunburn, improving cosmetic quality for fresh markets by 20–30%.
- ▶Harvest timing: Harvest at 75–80% maturity (finger "full" but still green) for export. Finger diameter (caliper grade) is the standard measure — typically 34–40 mm for premium grade. Colour at harvest should be full green to green-yellow.
🍇 Grape & Vineyard Management
🍇 Vitis vinifera — Table Grape & Wine Grape
One of humanity's oldest cultivated crops, spanning thousands of varieties and grown across 6 continents for fresh consumption, wine, raisins, and juice.
Trellis Systems & Training Methods
The training system you establish in the first 2–3 years of a vineyard's life will shape every management decision for decades. Choose based on your climate, target market (table vs. wine), mechanisation requirements, and labour availability. Common systems include the Vertical Shoot Positioning (VSP) trellis, the Single High Wire Cordon, Scott Henry, and pergola/tendone systems used widely in Southern Europe and Australia.
VSP (Vertical Shoot Positioning) is the global standard for wine grapes in cool to moderate climates — it provides excellent canopy management, disease control, and mechanisation compatibility. For table grapes in warmer climates, overhead pergola systems maximise bunch exposure and quality.
| Vineyard Task | Timing | Purpose | Priority |
|---|---|---|---|
| Dormant Pruning | Winter (bud swell) | Establish fruiting wood structure, control crop load | Critical |
| Shoot Thinning | Early spring (5–15 cm) | Remove non-fruiting and excess shoots for light and air | Critical |
| Shoot Positioning | Spring (30–50 cm) | Direct shoots into trellis wires for canopy management | Important |
| Bunch Thinning | Pre-veraison | Reduce crop load to improve quality and ripening evenness | Important |
| Leaf Removal | Pre-veraison | Improve air circulation, reduce Botrytis pressure | Important |
| Harvest | Late summer / autumn | Pick at target Brix, pH, and anthocyanin accumulation | Critical |
| Post-harvest Nutrition | Immediately after harvest | Replenish reserves to support next season's bud formation | Recommended |
💧 Irrigation & Water Management
Modern drip irrigation delivers water precisely at the root zone, saving up to 50% compared to flood irrigation. Photo: Unsplash (Free to use)
Water is the single most limiting resource in fruit production in the majority of growing regions worldwide. Efficient, precisely timed irrigation can make the difference between a profitable harvest and a failed one. Modern fruit orchards increasingly employ drip and micro-sprinkler systems combined with soil moisture monitoring to maximise water use efficiency.
The key principle of irrigation in fruit crops is matching water supply to crop evapotranspiration demand — providing enough water to avoid stress, while avoiding overwatering that leads to root diseases, poor fruit quality, and waste. The primary tool for this is the concept of crop coefficient (Kc) combined with reference evapotranspiration (ETo) data from local weather stations.
Drip Irrigation
Delivers water at extremely low rates (2–8 L/hour) directly to the root zone via emitters. Saves 30–60% water vs. flood irrigation. Ideal for tree fruits, grapes, and citrus. Enables fertigation (applying nutrients through the drip system).
Micro-Sprinkler / Under-Tree
Delivers water in a small radius under each tree via low-pressure sprinklers. Good for bananas and citrus. Also used for frost protection in citrus — forming an ice layer that protects tissue down to −5°C.
Soil Moisture Monitoring
Tensiometers, capacitance probes, and neutron probes measure soil moisture at root zone depth. Modern smart systems integrate weather data and sensor readings to trigger irrigation automatically at defined thresholds, removing guesswork entirely.
Regulated Deficit Irrigation (RDI)
Deliberately applying less water than full crop demand at specific phenological stages to improve fruit quality (colour, sugar, size) without significant yield loss. Proven effective in apples, grapes, and peaches. Requires careful monitoring to avoid damaging stress.
🌿 Fertilization & Crop Nutrition
Fruit crops are permanent plantings that draw nutrients from the same soil year after year. Without systematic replenishment, soil nutrient reserves decline, tree health deteriorates, and fruit quality and yields fall progressively. A structured nutrition programme, guided by annual soil and foliar analysis, is non-negotiable for profitable long-term production.
The Essential Nutrients for Fruit Crops
| Nutrient | Role in Fruit Crops | Deficiency Symptom | Preferred Form |
|---|---|---|---|
| Nitrogen (N) | Vegetative growth, canopy development, yield | Pale green/yellow older leaves, reduced vigour | Urea, calcium ammonium nitrate |
| Phosphorus (P) | Root development, flowering, fruit set | Purple/red leaf undersides, poor root growth | MAP, DAP (pre-plant incorporation) |
| Potassium (K) | Fruit quality, size, colour, disease resistance | Leaf edge scorch starting on older leaves | Potassium sulphate (lower Cl crops) |
| Calcium (Ca) | Cell wall integrity, prevents bitter pit, cracking | Tip burn, bitter pit in apples, blossom end rot | Calcium nitrate (fertigation or foliar) |
| Magnesium (Mg) | Chlorophyll synthesis, photosynthesis | Interveinal yellowing of older leaves | Epsom salt foliar, kieserite soil |
| Zinc (Zn) | Enzyme function, shoot growth, fruit set | Small leaves, shortened internodes, rosetting | Zinc sulphate foliar spray |
| Boron (B) | Cell division, pollen tube growth, fruit set | Corky fruit, poor set, tip dieback | Borax or Solubor foliar spray |
Sample leaves from at least 30 trees per block (same age, variety, and rootstock) in mid-season — typically 70–100 days after full bloom for tree fruits. Send samples to a certified laboratory. Compare results against published sufficiency ranges for your crop and adjust your fertilizer programme accordingly. This one practice, done consistently, can improve yields and quality significantly while reducing input costs.
🐛 Pest & Disease Management
Regular scouting and early detection are the most cost-effective pest management strategies available to any fruit grower. Photo: EqualStock on Unsplash (Free to use)
Pest and disease pressure represents one of the largest sources of fruit crop losses globally — estimated at 20–40% of production in unmanaged or poorly managed orchards. Integrated Pest Management (IPM) is the globally recognised standard approach that combines biological, cultural, physical, and chemical control methods to manage pests at economically acceptable levels while minimising environmental impact.
IPM is not "no spray" — it is "smart spray." Chemical inputs are used as a last resort when pest populations exceed established economic thresholds, not on a fixed calendar schedule. This approach reduces pesticide resistance development, protects beneficial insects, and reduces input costs significantly.
The IPM Pyramid: From Prevention to Intervention
Prevention (Foundation) — Cultural Controls
Correct variety selection for disease resistance; proper spacing for airflow; sanitation (removing fallen fruit, prunings); balanced nutrition to build plant immunity; clean planting material certification; habitat corridors for beneficial insects.
Monitoring — Regular Scouting and Threshold-Based Decisions
Scout every block weekly during the growing season. Count pest populations (e.g., mites per leaf, aphids per shoot tip). Set pheromone traps for key moths (codling moth, oriental fruit moth). Only intervene when populations exceed economic thresholds.
Biological Controls — Beneficials and Biopesticides
Conserve and augment natural enemy populations: predatory mites (Phytoseiidae), parasitic wasps, lacewings, ladybirds. Use biopesticides: Bacillus thuringiensis (Bt) for caterpillars, Beauveria bassiana for thrips and whitefly, Spinosad for fruit fly.
Chemical Intervention — Targeted and Rotated
When thresholds are exceeded, select the most selective, lowest-toxicity registered chemistry. Always rotate between chemical groups (IRAC/FRAC mode-of-action codes) to prevent resistance. Observe pre-harvest intervals (PHI) strictly for all markets.
Major Pests & Diseases by Crop
| Crop | Key Pest / Disease | Damage Type | Priority Control |
|---|---|---|---|
| Apple | Codling Moth, Apple Scab, Fire Blight | Fruit tunnelling; surface lesions; bacterial canker | Critical |
| Mango | Mango Fruit Fly, Anthracnose, Powdery Mildew | Fruit rot; skin/flesh damage; reduced set | Critical |
| Citrus | Asian Citrus Psyllid (HLB vector), Citrus Leafminer | Disease vector; leaf mining, reduced vigour | Critical |
| Banana | Panama Wilt TR4, Black Sigatoka, Weevil Borer | Plant death; leaf disease; corm tunnelling | Critical |
| Grape | Botrytis, Downy Mildew, Grape Berry Moth | Bunch rot; foliar disease; berry damage | Critical |
🧺 Harvesting Best Practices
All of the effort invested in growing a fruit crop can be undermined in a matter of hours by poor harvesting practices. Mechanical damage during harvest — cuts, bruises, compression injuries — triggers rapid deterioration, opens pathways for pathogens, and dramatically shortens the shelf life of otherwise high-quality produce.
The guiding principle of fruit harvesting is: harvest at the correct maturity index, with clean hands and clean equipment, during the coolest part of the day, and move fruit rapidly into the cool chain. Every hour between harvest and cooling represents quality loss that cannot be recovered.
- ▶Determine correct harvest maturity: Use objective indices — penetrometer firmness, soluble solids content (Brix), starch pattern index, and days after full bloom. Colour alone is not a reliable indicator for most varieties.
- ▶Harvest in cool conditions: Harvest during early morning hours (before 11am) when field heat is lowest. Avoid harvesting during rain — wet fruit is highly susceptible to post-harvest diseases.
- ▶Handle fruit as if it were eggs: Every drop, bump, or compression creates an invisible bruise that darkens and rots within days. Use padded containers, harvest bags with soft inserts, and transfer fruit gently at every stage.
- ▶Field sanitation: Remove and destroy cull fruit, culls, and fallen fruit immediately. Leaving damaged fruit in the field is an inoculum source for next season's diseases and a breeding ground for fruit flies.
- ▶Harvest tool hygiene: Disinfect all picking scissors, bags, bins, and machinery between rows and between blocks. Use a 1% sodium hypochlorite solution or quaternary ammonium compounds registered for produce contact.
- ▶Multiple harvesting passes: Most fruit crops do not ripen uniformly. Plan 2–4 harvest passes through each block over 2–4 weeks, picking only fruit meeting the maturity index at each pass. This maximises both quality and yield.
📦 Post-Harvest Storage & Marketing
Modern packhouses use optical grading and cold chain logistics to deliver premium-quality fruit to global markets. Photo: Unsplash (Free to use)
Post-harvest management is where significant additional value can be captured — or lost. Globally, an estimated 30–40% of all fruit produced in developing countries is lost between harvest and consumption due to inadequate storage, poor handling, and weak market linkages. Addressing these losses is one of the highest-return investments any fruit-growing enterprise can make.
Optimal Storage Conditions by Fruit
| Fruit | Storage Temp | Relative Humidity | Ethylene Sensitivity | Typical Storage Life |
|---|---|---|---|---|
| Apple | 0 – 4°C | 90 – 95% | Produces ethylene | 3–9 months (CA storage) |
| Mango | 10 – 13°C | 90 – 95% | Produces ethylene | 2–4 weeks |
| Citrus (Orange) | 3 – 9°C | 90 – 95% | Low sensitivity | 4–12 weeks |
| Banana | 13 – 15°C | 90 – 95% | Highly sensitive | 2–5 weeks (green) |
| Grape | −1 – 0°C | 90 – 95% | Moderate sensitivity | 2–8 weeks |
Marketing Pathways for Fruit Growers
The most successful fruit enterprises do not compete only on volume — they compete on quality, consistency, and relationships. Understanding your market channel options and selecting the right mix for your scale, location, and product quality allows you to maximise revenue per kilogram of fruit grown.
- ★Export markets: Highest price potential but require strict compliance with importing country phytosanitary requirements, residue standards (MRLs), food safety certifications (GlobalG.A.P., HACCP), and consistent supply of graded, uniform product.
- ★National supermarkets/retail chains: Large volume, year-round demand, strict quality and packaging specifications. Require consistent supply contracts. Good fit for established commercial orchards with packhouse facilities.
- ★Wholesale markets: Lower prices than retail but accept wider quality range. Useful for moving bulk volumes quickly. Can be combined with value-adding (juice, dried fruit, jams) to improve returns on lower-grade fruit.
- ★Farmers' markets and direct sales: Highest margin channel — eliminates all intermediaries. Builds direct consumer relationships and brand loyalty. Ideal for smaller growers with distinctive products, heirloom varieties, or certified organic produce.
- ★Value-added processing: Convert lower grades, surplus, or off-spec fruit into juice, dried fruit, jams, chutneys, wine (for grapes), or frozen product. Dramatically reduces post-harvest losses and improves overall farm profitability.
- ★Community Supported Agriculture (CSA): Pre-sell seasonal fruit boxes directly to subscribers before the season begins. Provides upfront cash flow, guaranteed market, and builds a loyal customer community invested in your farm's success.
🌿 The RAMSPROZONE Core Principles of Fruit Growing
Match your crop to your climate before you plant anything. Invest in your soil once and it will reward you for decades. Apply water precisely — fruit crops need consistency, not floods. Feed your trees according to what analysis tells you, not what tradition assumes. Scout for pests weekly and intervene only when thresholds are crossed. Harvest at the right moment, handle with care, and cool fruit immediately. Build market relationships before the season starts, not during it. These seven principles, applied with consistency and patience, are the foundation of every successful fruit-growing enterprise on Earth — regardless of crop, scale, or geography.
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