{"id":595,"date":"2026-07-21T02:08:55","date_gmt":"2026-07-21T02:08:55","guid":{"rendered":"https:\/\/forage-balers.com\/?p=595"},"modified":"2026-07-21T02:08:55","modified_gmt":"2026-07-21T02:08:55","slug":"how-large-dairy-farms-in-china-australia-and-central-asia-are-solving-the-hay-supply-chain-problem","status":"publish","type":"post","link":"https:\/\/forage-balers.com\/nl\/application\/how-large-dairy-farms-in-china-australia-and-central-asia-are-solving-the-hay-supply-chain-problem\/","title":{"rendered":"How Large Dairy Farms in China, Australia and Central Asia Are Solving the Hay Supply Chain Problem"},"content":{"rendered":"
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Commercial Forage Production<\/p>\n

Why the world’s fastest-growing dairy markets are turning self-produced forage into a competitive advantage \u2014 and the equipment decisions that make it possible at scale.<\/h2>\n

The farms that control their own hay supply chain do not just save money on feed \u2014 they remove the single largest variable cost risk in their entire operation, and build a structural advantage that competitors dependent on imported forage cannot replicate.<\/p>\n<\/div>\n


\n\"Commercial<\/p>\n

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In 2012, large dairy farms across northern China were paying USD 350\u2013420 per tonne for imported alfalfa from the United States. By 2020, that price had climbed above USD 500 per tonne on some contracts, driven by shipping costs, currency movements, and competition from emerging market buyers in the Gulf region and Southeast Asia. The farms that had spent the preceding decade building their own forage production capability \u2014 investing in irrigation systems, grassland equipment fleets, and hay storage infrastructure \u2014 were insulated from this price spiral. The farms that had not faced margin compression that forced some out of the market entirely.<\/p>\n

This dynamic \u2014 the divergence between farms that control their forage supply chain and farms that depend on imported hay \u2014 is not unique to China. It is playing out simultaneously in large dairy regions across Central Asia, Australia, and the Middle East. In each of these markets, the cost and logistics of hay supply has become one of the primary differentiators between profitable dairy operations and marginal ones. And in each of these markets, the most successful large farms have arrived at a similar strategic conclusion: the single most effective way to manage forage cost risk is to produce a substantial proportion of the herd’s roughage requirement on land under the farm’s direct control, using equipment that can match the herd’s scale and quality requirements.<\/p>\n

This article examines how large dairy farms in three of the world’s most important emerging dairy markets \u2014 China, Australia, and Central Asia \u2014 have approached the hay supply chain problem, what equipment investments have proven most commercially effective, and what lessons their experience offers for farms at an earlier stage of the same strategic transition. For the forage harvesting equipment that makes on-farm hay production viable at commercial dairy scale, see our complete range of hay balers and forage harvesting systems<\/a>.<\/p>\n

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1. The Hay Supply Chain Problem: Why It Is Getting Worse, Not Better<\/h2>\n

The Structural Drivers of Hay Price Volatility<\/h3>\n

Premium dairy forage \u2014 alfalfa at 20%+ crude protein, orchard grass, timothy hay \u2014 is produced in a small number of geographic regions with the climate, water access, and agricultural infrastructure capable of supporting commercial forage crop production. The United States (California, Idaho, Nevada, Washington state), Australia (northern Victoria, South Australia), and Argentina account for the majority of globally traded premium hay. Every large dairy cluster that does not sit within economic transport distance of these production regions must import, and import prices reflect not just the cost of growing and baling the forage, but the cost of packaging (for compressed bale shipping), ocean freight, port handling, customs clearance, domestic transport, and the currency risk embedded in a contract denominated in USD for a farm whose revenue is in local currency.<\/p>\n

The structural demand pressure on this supply is increasing. China’s dairy herd grew from approximately 12 million cows in 2010 to over 15 million in 2022, increasing imported forage demand substantially over that period. Gulf dairy operations that supply fresh milk to populations in Saudi Arabia, UAE, and Qatar have expanded dramatically over the same period. Southeast Asian dairy development programs in Vietnam, Indonesia, and Thailand are adding import demand from a new regional source. The supply of exportable premium hay has not grown commensurately \u2014 water constraints in California, drought impacts in Australia, and land use competition in Argentina have all limited supply growth. The structural consequence is a long-run upward trend in real imported forage prices that shows no sign of reversing.<\/p>\n

The Logistics Complexity Layer<\/h3>\n

Price is only one dimension of the import forage supply chain problem. Logistics complexity is the second. Ocean freight from the US West Coast to Chinese ports takes 14\u201321 days under normal conditions. Port congestion events, shipping container shortages (dramatically illustrated during 2020\u20132022), and customs clearance delays regularly extend this to 30\u201345 days. A large dairy herd consuming 8\u201312 kg of high-quality roughage per cow per day at 5,000 cows requires 40\u201360 tonnes of hay daily. Managing the pipeline of shipments, the buffer stock required to cover logistics variability, and the working capital tied up in hay in transit or in port \u2014 while also managing the quality risk of hay that may have been compressed and shipped months earlier \u2014 is a logistics operation of significant complexity and cost in its own right.<\/p>\n

Farms that have built on-farm forage production capability have not eliminated the need for some imported premium hay \u2014 almost no single farm operation can grow sufficient high-quality alfalfa to meet 100% of a large herd’s roughage requirement without compromising on other feed categories or land use. But farms that produce 40\u201360% of their roughage requirement on-farm have dramatically reduced their exposure to both the price and logistics dimensions of the import forage supply chain problem, and have gained a degree of supply predictability that import-dependent farms structurally cannot achieve.<\/p>\n

\"Large-scale<\/p>\n

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2. The Chinese Model: Integrated Forage-Dairy Operations at Scale<\/h2>\n

The Structural Transition After 2008<\/h3>\n

The 2008 melamine milk scandal fundamentally restructured the Chinese dairy industry. The crisis accelerated the consolidation of dairy production from hundreds of thousands of small household operations toward a smaller number of large, professionally managed farms \u2014 a structural shift that created the scale conditions under which on-farm forage production became economically feasible. Large Chinese dairy enterprises that emerged from this consolidation \u2014 with herds of 2,000 to 30,000 cows and the capital access to invest in agricultural land and equipment \u2014 began acquiring or leasing forage land in grassland provinces like Inner Mongolia, Ningxia, Gansu, and Xinjiang, where land cost and water availability supported alfalfa and grass hay production at competitive cost relative to imports.<\/p>\n

By 2018, the leading Chinese dairy enterprises were publicly reporting that domestically produced forage contributed 30\u201350% of their roughage ration, compared to near-zero domestic production contribution for the same enterprises in 2010. The equipment fleets supporting these on-farm forage programs typically included mower conditioners, finger-wheel or horizontal hay rakes, commercial round balers, and bale transport systems \u2014 the same category of implement available in the forage equipment range<\/a> designed specifically for this application. The scale of these operations \u2014 1,000 to 5,000 ha of forage land per enterprise \u2014 demanded commercial-grade equipment with high daily throughput, sensor-controlled bale quality, and multi-season mechanical reliability.<\/p>\n

What Large Chinese Dairy Farms Actually Produce<\/h3>\n

The forage mix that large Chinese dairy farms have converged on after a decade of on-farm production experience is revealing. Alfalfa at 3\u20134 cuts per season, producing 14\u201318 tonnes of dry matter per hectare under irrigation, is the premium roughage component \u2014 but it requires significant water, fertiliser, and seed investment per hectare and is most cost-competitive when produced in the higher-altitude, lower-disease-pressure regions of northwest China. Corn silage, produced from irrigated summer corn in the warmer northern Chinese agricultural zones, provides the bulk energy roughage at lower cost per unit of dry matter. Grass hay from natural grassland \u2014 primarily in Inner Mongolia and Xinjiang \u2014 provides the mid-cost roughage that balances ration cost without sacrificing the physical fibre that high-producing dairy herds require for rumen function.<\/p>\n

This three-component domestic forage strategy \u2014 irrigated alfalfa, corn silage, and natural grassland hay \u2014 requires different equipment for each component. The alfalfa and grass hay components specifically require round balers capable of handling the diverse range of crop types and field conditions across these different environments, with the bale density consistency that allows stored bales to be managed as fungible inventory rather than variable-quality product requiring individual assessment before ration formulation. Sensor-controlled density round balers \u2014 the S9000 Classic and S9000 Beyond class \u2014 have emerged as the standard equipment specification for the premium alfalfa component of large Chinese dairy farm forage programs, precisely because bale-to-bale density consistency is the specification that makes large-scale ration management tractable.<\/p>\n

The PTO Shaft as a System Reliability Indicator<\/h3>\n

One operational lesson that Chinese dairy farm forage programs have learned through experience: the reliability of the complete power transmission chain \u2014 tractor, pto shaft<\/a>, baler gearbox \u2014 is as important as the reliability of the baler itself. An in-season driveshaft failure during a 72-hour alfalfa cutting window can cause 2\u20133 days of baling downtime while a replacement shaft is sourced and fitted. For a large program producing 200+ bales per day, this downtime means 400\u2013600 bales of alfalfa lying in swath past optimal baling moisture \u2014 dry matter loss, protein degradation, and quality downgrade that can cost more in a single downtime event than the entire annual maintenance budget for the transmission system. Large Chinese dairy farm programs now specify replacement PTO shafts as part of the commissioning inventory for new baler equipment, treating them as a scheduled consumable rather than a breakdown-reactive replacement part.<\/p>\n

\"PTO<\/p>\n

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3. The Australian Model: Mixed-Enterprise Farms and the Self-Sufficiency Calculation<\/h2>\n

Australia’s Unique Forage Production Context<\/h3>\n

Australia occupies an unusual position in the global hay market: it is simultaneously a major exporter of premium hay (particularly high-protein alfalfa for the Japanese and Korean dairy markets), a domestic producer of hay for its own dairy and beef sectors, and a region where hay production is subject to the same climate variability that creates import demand elsewhere. Southern Australian dairy farmers in Victoria and South Australia produce hay on-farm primarily as a drought insurance strategy \u2014 the ability to carry stored feed through dry summers or drought years is the primary economic justification for hay-making equipment investment, rather than year-round forage supply chain management as in China.<\/p>\n

Australian dairy farms that have invested in on-farm hay production equipment typically do so on mixed-enterprise farms where cropping and livestock operations share the same machinery fleet. A hay baler purchased for the on-farm forage program is also used for harvesting hay from crop residues, producing silage bales from cereal crops, and potentially providing custom baling services to neighbouring farms during the peak hay-making season. This multi-use justification changes the equipment economics significantly: a round baler that performs 400 hours of in-season work across on-farm and custom baling activities achieves a much lower cost per operating hour than one used only for on-farm forage, making the investment viable at smaller dairy herd scales than the dedicated-production model implies.<\/p>\n

Drought Resilience as the Investment Driver<\/h3>\n

The 2018\u20132020 drought across eastern Australia \u2014 the most severe in recorded history for some regions \u2014 provided a stark demonstration of the value of on-farm hay storage capacity. Farms with three-to-five-year strategic hay reserves built through their own baling programs were able to maintain cow numbers and milk production through the drought at feed costs based on their own historical production costs. Farms dependent on purchased feed paid spot-market prices that in some regions exceeded AUD 700 per tonne for hay of moderate quality \u2014 a price that made milk production economically irrational at the prevailing farm-gate milk price. The drought accelerated investment in on-farm hay production capability across the Australian dairy sector in a way that years of farm management literature had not achieved, because it made the insurance value of self-produced feed reserves viscerally evident to farmers who had previously relied on market purchasing.<\/p>\n

The equipment configuration that Australian dairy farms have adopted for on-farm hay production reflects the specific requirements of hay-making on irrigated perennial pastures and annual crop paddocks. A mid-size commercial round baler \u2014 in the 9YG-1.25 to S9000 Classic range \u2014 with 2240mm pickup width to handle the wide swaths produced by disc mower conditioners on irrigated perennial ryegrass, sensor-controlled density to produce consistent bales suitable for external sale if the on-farm inventory builds above herd requirements, and net wrap for outdoor storage in southern Australian conditions where summer thunderstorm risk is high \u2014 has emerged as the standard specification for operations of 500\u20132,000 cows producing 200\u2013800 ha of hay per season.<\/p>\n

The Custom Baling Revenue Model<\/h3>\n

A distinctive feature of the Australian on-farm hay production model is the custom baling service revenue that many farms generate from their hay equipment during peak season. An operation that has invested in a commercial-grade round baler, large tractor, and associated harvest equipment has significant underutilised capacity during periods when on-farm hay requirements are met. By offering custom baling services to neighbouring cropping and livestock farms at a per-bale rate that covers the variable operating cost of fuel, maintenance, and labour plus a contribution to fixed costs, hay-equipment-owning dairy farms recover a meaningful fraction of their equipment investment from external revenue. This custom baling model is particularly prevalent in the cropping regions of the Riverina and Wimmera where cereal crop residue baling after harvest creates significant seasonal demand for custom baling services that dairy farm equipment is well-positioned to capture.<\/p>\n

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4. The Central Asian Model: State-Scale Grassland Operations and the Modernisation Imperative<\/h2>\n

The Post-Soviet Agricultural Infrastructure Challenge<\/h3>\n

Kazakhstan, Uzbekistan, Kyrgyzstan, and Tajikistan collectively hold some of the world’s largest areas of natural grassland \u2014 an estimated 180 million hectares of steppe and mountain pasture that supported massive livestock herds during the Soviet period. The agricultural infrastructure that supported Soviet-era livestock production \u2014 equipment depots, veterinary networks, state purchasing systems \u2014 largely collapsed in the 1990s, and the grassland hay production capacity that had supplied winter fodder for millions of cattle was severely damaged. The consequence was a dramatic reduction in livestock numbers across the region through the 1990s and early 2000s as farmers could not produce or purchase sufficient winter fodder to sustain Soviet-era herd sizes.<\/p>\n

The recovery of Central Asian livestock sectors since the mid-2000s has been built around the modernisation of grassland hay production equipment as much as around herd rebuilding. International development programs, national agricultural modernisation funds, and private agricultural investment have all channelled resources into replacing the obsolete Soviet-era hay equipment \u2014 primarily large drum mowers and fixed-chamber variable-geometry balers from 1970s-1980s design generations \u2014 with contemporary commercial equipment capable of operating at the scale and efficiency that commercial dairy and meat production in the twenty-first century requires.<\/p>\n

The Equipment Modernisation Opportunity<\/h3>\n

Central Asian grassland hay production operates at a scale that is unusual even by the standards of large commercial agriculture elsewhere: individual operations managing 50,000 to 200,000 hectares of natural steppe grassland for seasonal hay production are not uncommon in Kazakhstan’s northern steppe regions. At this scale, the productivity difference between outdated equipment and contemporary commercial equipment \u2014 measured in hectares-per-machine-hour rather than per-bale performance \u2014 translates directly into the economic viability of the entire operation. A hay rake that covers 6 ha\/h instead of 3.5 ha\/h represents the difference between completing a 10,000 ha field before the weather window closes and leaving a third of the crop unraked when the rain arrives.<\/p>\n

The equipment configurations being deployed in Central Asian grassland modernisation programs have converged on wide-working-width implements \u2014 9m to 12m finger-wheel rakes, 5m+ cutterbar mower-rake combinations, and commercial round balers with 2240mm pickup and sensor density control \u2014 that match the vast field scales involved. For operations managing 50,000+ ha of steppe hay production, a fleet of 20\u201340 commercial round balers operating simultaneously, each producing 40\u201380 bales per hour, is the logistical model that achieves seasonal hay production targets within the 6\u20138 week window between peak grass yield and first autumn frost.<\/p>\n

Winter Fodder Security as a Development Priority<\/h3>\n

The Central Asian context gives hay supply chain management a dimension that Chinese dairy farms and Australian operations do not face to the same degree: winter fodder security as a matter of food system stability rather than just farm profitability. In regions where livestock are the primary livelihood for rural populations, and where winter temperatures make supplemental feeding essential from October through March, failure to produce adequate hay during the summer production window means livestock losses through winter \u2014 losses that destroy household wealth accumulated over years in a matter of weeks. This food security dimension gives grassland hay production equipment investment a social and policy importance beyond its commercial economics, and has made it a priority area for government agricultural development spending across Kazakhstan, Uzbekistan, and Kyrgyzstan in the past decade.<\/p>\n

\"Diverse<\/p>\n

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5. The Common Thread: What All Three Models Teach About Equipment Strategy<\/h2>\n

Despite the significant differences in the Chinese, Australian, and Central Asian models \u2014 in scale, climate, market structure, and the specific supply chain problem being solved \u2014 the equipment strategies that have proven most commercially durable across all three contexts share a set of common characteristics. Understanding these common threads is more valuable than copying any specific regional model, because the operational context of each farm is unique even within regions.<\/p>\n

Lesson 1: Throughput Is the Primary Specification<\/h3>\n

Across all three regional models, the equipment specification that most directly determines commercial viability is throughput \u2014 the number of hectares processed per day, and by extension, the proportion of the available weather window that can be captured as productive baling time. An implement that covers 2.5 ha\/h instead of 1.5 ha\/h does not just produce more bales per day \u2014 it means a greater fraction of the crop is baled at optimal moisture, more of the available good-weather days are converted into stored hay rather than crop-in-swath risk, and the margin between the harvesting window and the onset of quality-degrading conditions is wider. Operations in all three regions that have invested in wide-working-width, high-throughput equipment \u2014 commercial round balers in the 9YG-1.25 to S9000 class, 9m+ hay rakes, disc mower conditioners at 3.2m+ cutterbar width \u2014 consistently report better forage quality outcomes alongside the expected throughput gains, because high throughput and quality preservation are complementary consequences of completing the harvest cycle quickly.<\/p>\n

Lesson 2: Bale Quality Consistency Is as Important as Production Volume<\/h3>\n

Large Chinese dairy farm ration managers, Australian custom hay operations selling into premium markets, and Central Asian state farm programs selling winter fodder to livestock operations all report the same frustration with variable-density bale production: it makes inventory management unpredictable, ration formulation inaccurate, and external sale pricing complicated when individual bales within a production lot vary significantly in weight and density. Sensor-controlled density systems \u2014 which maintain bale-to-bale density within \u00b15% regardless of windrow density variation, crop type, or working speed \u2014 have been adopted across all three regional contexts precisely because they convert forage production from a variable-quality output into a consistent inventory product that can be managed at scale. The premium of sensor-controlled over manual-pressure systems is justified not just by bale quality but by the downstream simplification it delivers in ration management, inventory accounting, and market pricing.<\/p>\n

Lesson 3: System Reliability During the Harvest Window Is Non-Negotiable<\/h3>\n

In all three regional contexts, the financial consequence of mechanical downtime during the harvest window is disproportionately severe. A hay baler that fails for 48 hours during a 5-day optimal-weather window does not just lose 48 hours of production \u2014 it may lose the entire window if weather deteriorates before the machine is repaired and the backed-up swath has cured past baling moisture. Operations in China, Australia, and Central Asia have all converged on the same practical response to this risk: pre-season maintenance protocols that are more rigorous than the manufacturer’s minimum recommendation, in-season inspection schedules, and strategic spare parts inventories that include the wear items most likely to cause unplanned downtime. Among these spare parts, the PTO driveshaft is consistently identified as a critical item \u2014 a shaft failure that takes 2\u20133 days to source a replacement for in a remote location costs the same in lost production opportunity as a major mechanical failure, but can be avoided entirely by carrying a replacement shaft as standard commissioning inventory when deploying a new baler in a location where parts supply lead times are significant.<\/p>\n

Lesson 4: The Equipment System Matters More Than Any Individual Machine<\/h3>\n

The most productive forage operations across all three regional models share a common architectural feature: they have designed their equipment fleet as a coordinated system where the throughput of each implement is matched to the others, rather than assembling a collection of individual machines that happen to be used in sequence. A 3.2m mower conditioner producing 2.5 ha\/h of cut crop that is raked by a 9m finger-wheel rake at 7.2 ha\/h and baled by a round baler at 40\u201360 bales\/h is a coordinated system where no single implement creates a bottleneck that reduces the system’s overall daily output. When the mowing rate exceeds the raking rate, cut crop accumulates in swath past optimal raking moisture. When the baling rate exceeds the raking rate, the baler waits on windrows that are not yet ready. System design \u2014 matching implement capacities across the complete harvest chain \u2014 delivers more total productive output than optimising any individual machine in isolation. This system perspective is what separates the most productive large-scale forage programs from those that have invested in individual high-performance machines without the matching equipment context to realise their full output potential.<\/p>\n

\"9YG-2.2<\/p>\n

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6. Building an On-Farm Forage Program: A Practical Starting Framework<\/h2>\n

For dairy farm managers considering the transition from fully purchased forage to partial or full on-farm production, the experience of Chinese, Australian, and Central Asian operations offers a practical framework that is more useful than any generic equipment recommendation.<\/p>\n

Step 1: Quantify the Forage Requirement and the Import Cost Exposure<\/h3>\n

Before any equipment decision, calculate your herd’s total annual forage dry matter requirement by category \u2014 high-protein roughage (alfalfa or equivalent), medium-quality roughage (grass hay, crop residue), and silage energy feed. Against this, calculate your current annual imported hay expenditure and the proportion of that expenditure that is in price categories where domestic production could be cost-competitive. This analysis defines the maximum financial justification for on-farm forage investment and sets the scale at which that investment is warranted.<\/p>\n

Step 2: Identify Available Land and Water Resources<\/h3>\n

On-farm forage production requires both land and water. Alfalfa under drip or sprinkler irrigation at 800\u20131200mm annual water application produces 14\u201318 tonnes of dry matter per hectare in suitable climates \u2014 the most cost-effective way to produce high-protein roughage domestically. Natural grassland at 1\u20133 tonnes dry matter per hectare requires much more land to produce equivalent dry matter but has lower production cost per hectare. Inventory the land and water resources available within economic distance of your dairy operation \u2014 including land that could be acquired or leased \u2014 before setting the scale of the on-farm forage program.<\/p>\n

Step 3: Size the Equipment Fleet to the Production Target<\/h3>\n

Once land area and crop yield assumptions define the annual dry matter production target, work backward from bales per season to baler throughput requirement and equipment fleet size. For a 500 ha alfalfa program producing 4 cuts per season at 300 bales per cut per 100 ha, the annual production requirement is approximately 6,000 bales. At 60 bales per hour, one commercial round baler produces this in 100 operating hours \u2014 approximately 25 working days across the four cutting cycles. At this scale, one baler, one mowing, and one raking implement represent an appropriate fleet. At 2,000 ha, the calculation scales proportionately to a fleet of three to four balers with matched mowing and raking capacity.<\/p>\n

Step 4: Plan Storage Before You Plan Production<\/h3>\n

The most common failure mode of on-farm forage programs is producing more hay than can be stored without quality loss. Net-wrapped round bales stored correctly in outdoor rows on well-drained hardstand lose 5\u201310% dry matter over 6\u201312 months of outdoor storage. Bales stored on soft soil that maintains moisture contact with the bottom of the bale lose 15\u201325% from the contact layer alone. Covered storage (hay sheds, barns, or tarpaulin cover) reduces this to under 5% and allows storage periods of 18\u201324 months without significant quality degradation. The storage infrastructure investment should be planned alongside the equipment investment \u2014 not as an afterthought after the first season’s production reveals the storage problem.<\/p>\n

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Planning an On-Farm Forage Program for Your Dairy Operation?<\/h3>\n

Whether you are starting with 100 ha of alfalfa or scaling to 5,000 ha of steppe grassland, our technical team can help you design the equipment system that matches your production target, tractor fleet, and market requirements.<\/p>\n

Browse Forage Equipment<\/a>
\nDiscuss Your Program<\/a><\/div>\n<\/div>\n
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Frequently Asked Questions<\/h2>\n
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Q: At what herd size does on-farm hay production become economically justified?<\/p>\n<\/div>\n

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The crossover point varies significantly by region, land cost, water access, and the price differential between imported and locally produced hay. As a general guide, operations above 500 cows \u2014 with a daily roughage consumption of 4\u20136 tonnes of hay \u2014 typically find that a forage production program on 150\u2013300 ha of irrigated land or 800\u20131500 ha of natural grassland can produce hay at a cost per tonne competitive with imported alternatives, after accounting for equipment depreciation, labour, water, and seed or fertiliser inputs. Below 500 cows, the capital cost of the equipment fleet is harder to justify unless custom baling revenue offsets part of the investment.<\/p>\n<\/div>\n<\/div>\n

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Q: What proportion of a large dairy herd’s roughage requirement can realistically be produced on-farm?<\/p>\n<\/div>\n

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Large Chinese dairy enterprises that have built mature on-farm forage programs typically report 30\u201360% of total roughage dry matter from domestic production, with the remainder still imported. The ceiling is set by land and water resource constraints rather than equipment capability \u2014 most operations do not have access to enough irrigated land to produce 100% of their alfalfa requirement, even if the economics would justify it. Natural grassland can fill more of the total dry matter requirement at lower cost per hectare, but at lower quality than irrigated alfalfa, so the practical optimum blends domestically produced grass hay and silage with imported premium alfalfa rather than eliminating imports entirely.<\/p>\n<\/div>\n<\/div>\n

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Q: How do large grassland operations manage equipment reliability across remote locations?<\/p>\n<\/div>\n

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The approach consistent across Chinese, Australian, and Central Asian large-scale operations is pre-season mechanical inspection and replacement of all scheduled wear items before the season begins, combined with a strategic on-site spare parts inventory that includes the high-consequence failure items. For round balers, the critical in-season spares inventory typically includes pickup tines, net wrap guides, replacement belts or chains for the bale chamber drive, and \u2014 particularly important for remote locations \u2014 a complete replacement pto shaft<\/a> assembly. A driveshaft that can be replaced on-site in 2 hours avoids the 2\u20133 day sourcing delay that a remote location imposes when a shaft fails unexpectedly during a narrow weather window.<\/p>\n<\/div>\n<\/div>\n

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Q: How does on-farm forage quality compare to imported premium hay?<\/p>\n<\/div>\n

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Well-managed on-farm irrigated alfalfa production, properly timed cutting and baling, and adequate storage can produce hay that equals or exceeds imported premium hay on crude protein and relative feed value measures. The key variables are cutting timing (alfalfa cut at late bud stage before first flower maximises protein), baling moisture (12\u201318%), and storage conditions (net wrap, dry hardstand, covered if possible). The consistency advantage of on-farm production over imported hay is frequently underappreciated: you know exactly when it was cut, how it was stored, and what the weather conditions were during curing \u2014 information that is opaque for imported product that may have been produced and shipped months earlier.<\/p>\n<\/div>\n<\/div>\n

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Q: What is the payback period for on-farm hay production equipment investment?<\/p>\n<\/div>\n

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Payback period depends critically on the price differential between imported hay and on-farm production cost, which varies by region and by year. In periods of high imported hay prices \u2014 above USD 400 per tonne delivered \u2014 on-farm production at costs of USD 80\u2013150 per tonne (including equipment depreciation, water, and labour) generates savings that can pay back commercial baler and related equipment investment in 2\u20134 seasons at production scales above 300 ha per year. In periods of lower import prices \u2014 USD 250\u2013300 per tonne \u2014 payback extends to 5\u20137 seasons. The insurance value of supply chain security \u2014 reduced exposure to price spikes and logistics disruptions \u2014 is not captured in the cost-parity payback calculation but represents a real financial value that shortens the effective payback period for risk-adjusted decision making.<\/p>\n<\/div>\n<\/div>\n<\/div>","protected":false},"excerpt":{"rendered":"

Commercial Forage Production Why the world’s fastest-growing dairy markets are turning self-produced forage into a competitive advantage \u2014 and the equipment decisions that make it possible at scale. The farms that control their own hay supply chain do not just save money on feed \u2014 they remove the single largest variable cost risk in their […]<\/p>\n","protected":false},"author":1,"featured_media":0,"comment_status":"open","ping_status":"open","sticky":false,"template":"","format":"standard","meta":{"_et_pb_use_builder":"","_et_pb_old_content":"","_et_gb_content_width":"","footnotes":""},"categories":[1],"tags":[],"class_list":["post-595","post","type-post","status-publish","format-standard","hentry","category-uncategorized"],"_links":{"self":[{"href":"https:\/\/forage-balers.com\/nl\/wp-json\/wp\/v2\/posts\/595","targetHints":{"allow":["GET"]}}],"collection":[{"href":"https:\/\/forage-balers.com\/nl\/wp-json\/wp\/v2\/posts"}],"about":[{"href":"https:\/\/forage-balers.com\/nl\/wp-json\/wp\/v2\/types\/post"}],"author":[{"embeddable":true,"href":"https:\/\/forage-balers.com\/nl\/wp-json\/wp\/v2\/users\/1"}],"replies":[{"embeddable":true,"href":"https:\/\/forage-balers.com\/nl\/wp-json\/wp\/v2\/comments?post=595"}],"version-history":[{"count":2,"href":"https:\/\/forage-balers.com\/nl\/wp-json\/wp\/v2\/posts\/595\/revisions"}],"predecessor-version":[{"id":597,"href":"https:\/\/forage-balers.com\/nl\/wp-json\/wp\/v2\/posts\/595\/revisions\/597"}],"wp:attachment":[{"href":"https:\/\/forage-balers.com\/nl\/wp-json\/wp\/v2\/media?parent=595"}],"wp:term":[{"taxonomy":"category","embeddable":true,"href":"https:\/\/forage-balers.com\/nl\/wp-json\/wp\/v2\/categories?post=595"},{"taxonomy":"post_tag","embeddable":true,"href":"https:\/\/forage-balers.com\/nl\/wp-json\/wp\/v2\/tags?post=595"}],"curies":[{"name":"wp","href":"https:\/\/api.w.org\/{rel}","templated":true}]}}