{"id":1161,"date":"2026-07-28T08:41:07","date_gmt":"2026-07-28T08:41:07","guid":{"rendered":"https:\/\/foragebaler.com\/how-many-small-square-bales-per-acre\/"},"modified":"2026-07-28T08:41:07","modified_gmt":"2026-07-28T08:41:07","slug":"how-many-small-square-bales-per-acre","status":"publish","type":"post","link":"https:\/\/foragebaler.com\/id\/how-many-small-square-bales-per-acre\/","title":{"rendered":"How Many Small Square Bales Per Acre?"},"content":{"rendered":"
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Yield Guide \u00b7 Small Square Bales \u00b7 All Crop Types<\/p>\n

How Many Small Square Bales Per Acre?<\/h1>\n

Bale count per acre is not fixed \u2014 it depends on crop yield, bale weight setting and the density level you dial in on the plunger. This guide gives realistic estimates for alfalfa, grass hay, wheat straw and corn stover, explains how the baler density setting changes the count, and walks through a revenue-per-acre calculation you can apply to local hay prices.<\/p>\n

\n Lihat Rangkaian Baler Persegi<\/a>
\n Ask a Specialist<\/a>\n <\/div>\n<\/p><\/div>\n<\/div>\n

The Yield Formula: How Crop Tonnage Converts to Bale Count<\/h2>\n

The Basic Calculation<\/h3>\n

Bale count per acre follows a straightforward formula: total crop yield in kilograms per acre, divided by average bale weight in kilograms, equals the number of bales per acre. Every variable in that formula is a range rather than a fixed number \u2014 crop yield varies with field, weather and cutting stage; bale weight varies with crop moisture, species and the density setting on the plunger. The ranges combine to produce the wide bale-count estimates you see from experienced producers (“anywhere from 100 to 250 bales per acre depending on the field”) \u2014 and those ranges are accurate because the variables genuinely span that width.<\/p>\n

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The Formula<\/div>\n

(Yield per acre in kg) \u00f7 (Bale weight in kg) = Bales per acre<\/p>\n

Contoh:<\/strong> Alfalfa field at 2.2 tons per acre (2,000kg\/acre) at first cut, bale weight 25kg at standard density: 2,000 \u00f7 25 = 80 bales. At the same yield and a higher density setting producing 32kg bales: 2,000 \u00f7 32 = 62.5 bales. Same field, same crop \u2014 but 18 fewer bales per acre at higher density. The revenue impact depends on whether you are paid per bale or per tonne.<\/p>\n<\/div>\n

Dry Weight vs Field Weight<\/h3>\n

Crop yield estimates from extension publications are usually given in dry-matter tons per acre. Bale weight is measured in field-fresh weight at baling moisture. To convert: a crop with 1.5 dry-matter tons per acre at 15% baling moisture has a field weight of approximately 1.5 \u00f7 0.85 = 1.76 field-weight tons (1,600kg per acre). This is the figure to use in the bale-count formula \u2014 not the dry-matter yield. The difference is modest at 14\u201318% moisture but becomes significant if you are baling at 20% moisture, where field weight is 1.5 \u00f7 0.80 = 1.875 tons \u2014 12% more per acre in weight but going into bales that will lose that moisture over time in storage.<\/p>\n

Small Square Bale Weight Reference by Crop Type<\/h2>\n
\n\n\n\n\n\n\n\n\n\n
Tanaman<\/th>\nKadar Air Saat Pengepakan<\/th>\nLow Density<\/th>\nStandard Density<\/th>\nHigh Density<\/th>\n<\/tr>\n<\/thead>\n
Jerami alfalfa<\/td>\n14\u201317%<\/td>\n16\u201322kg<\/td>\n22\u201330kg<\/td>\n28\u201338kg<\/td>\n<\/tr>\n
Grass hay (mixed)<\/td>\n14\u201318%<\/td>\n14\u201318kg<\/td>\n18\u201326 kg<\/td>\n24\u201332kg<\/td>\n<\/tr>\n
Jerami gandum<\/td>\n10\u201316%<\/td>\n10\u201316kg<\/td>\n14\u201320kg<\/td>\n18\u201324kg<\/td>\n<\/tr>\n
Jerami jelai<\/td>\n10\u201316%<\/td>\n10\u201315kg<\/td>\n13\u201318kg<\/td>\n16\u201322kg<\/td>\n<\/tr>\n
Jerami jagung<\/td>\n14\u201322%<\/td>\n18\u201324kg<\/td>\n24\u201334kg<\/td>\n32\u201342kg<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n<\/div>\n

Alfalfa Hay: Bales Per Acre by Cutting Stage<\/h2>\n

First and Second Cut \u2014 Highest Yield Cuttings<\/h3>\n

First-cut alfalfa typically produces the highest dry-matter yield of the season \u2014 commonly 1.5\u20132.5 tons per acre in established stands in productive regions, with exceptional stands in irrigated Western production reaching 3\u20134 tons per acre at first cut. In 460\u00d7360mm small square bales at standard density (22\u201328kg per bale), first-cut alfalfa at 2 tons per acre (1,814kg at baling moisture) produces approximately 65\u201382 bales per acre.<\/p>\n

Second cut is typically lower yield than first cut (1.2\u20131.8 tons per acre in most regions) but often produces the highest-quality alfalfa of the year in terms of leaf-to-stem ratio and digestibility. At 1.5 tons per acre and 24kg average bale weight, second cut produces approximately 62\u201370 bales per acre.<\/p>\n

Third and Fourth Cut \u2014 Lower Yield, Dense Stems<\/h3>\n

Later cuts (third through fifth in irrigated production) typically yield 0.8\u20131.3 tons per acre per cutting with stems that are thicker and more mature. In standard compression chamber square balers (9YF-1700\/1900\/2200), thick-stemmed late-season alfalfa compresses with some void zones between intact stems, which means bale density is slightly lower than first or second cut alfalfa at the same plunger setting. The single-stage shredder on the 9YF-2200S breaks stems before compression, producing higher and more uniform bale density from late-season alfalfa. At 1 ton per acre and 20kg bale weight (reflecting slightly lower compression efficiency), a third-cut field produces approximately 50\u201355 bales per acre.<\/p>\n

Grass and Mixed Hay: Bales Per Acre for Common Species<\/h2>\n

\"small<\/p>\n

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Timothy \u00b7 1.5\u20132.5 T\/ac<\/div>\n

Well-established timothy stands in northern production regions yield 1.5\u20132.5 tons per acre for the full season (two to three cuts). At 20kg average bale weight: 75\u2013125 bales per acre per season<\/strong>. Timothy bales are lightweight for their size \u2014 the stem structure leaves some void zones even at maximum plunger density, which is why bale weight per unit length is lower than alfalfa from the same machine setting.<\/p>\n<\/p><\/div>\n

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Orchardgrass \u00b7 2\u20133.5 T\/ac<\/div>\n

Orchardgrass is a high-yield species across two to four cuts per season in suitable climates. At 2.5 tons per acre total and 22kg average bale weight: 113 bales per acre per season<\/strong>. Individual cut yields of 0.8\u20131.2 tons give per-cut bale counts of approximately 36\u201354 bales per acre per cut.<\/p>\n<\/p><\/div>\n

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Bermudagrass \u00b7 3\u20136 T\/ac<\/div>\n

Bermudagrass in the Southern states at full production yields 3\u20136 tons per acre across five to seven cuts per season under irrigation. At 4 tons per acre and 22kg bale weight: 181 bales per acre per season<\/strong> \u2014 one of the highest bale-count species in the small square format.<\/p>\n<\/p><\/div>\n

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Native Prairie \u00b7 0.5\u20131.5 T\/ac<\/div>\n

Native grass prairie hay in the Great Plains typically yields 0.5\u20131.5 tons per acre in a single cut per season. At 1 ton per acre and 18kg bale weight: 55 bales per acre<\/strong>. Native hay bales are lightweight but command specialty market premiums from horse buyers who value the species diversity.<\/p>\n<\/p><\/div>\n<\/div>\n

Wheat and Barley Straw: Bales Per Acre After Combine Harvest<\/h2>\n

Straw Yield and Recovery Rate<\/h3>\n

Wheat straw yield in the field after combine harvest depends on the grain-to-straw ratio of the variety grown (typically 1:1 to 1:1.5) and the combine straw management settings (chopped and spread vs standing windrow). For baling, the relevant figure is the harvestable straw remaining in the field after the combine pass. Average harvestable wheat straw yield for baling is 0.8\u20131.5 tons per acre depending on variety, weather and how much the combine spreads versus windrows the material.<\/p>\n

At 1.0 ton per acre harvestable straw at 13% moisture and 16kg average bale weight (straw is low-density material): approximately 62\u201368 bales per acre<\/strong>. At 1.5 tons per acre and the same bale weight: approximately 94 bales per acre<\/strong>. Straw bale count per acre is sensitive to the combine straw spreading settings \u2014 a field where the combine has fully spread and chopped all straw produces zero harvestable straw regardless of the original yield.<\/p>\n

Corn Stover: Bales Per Acre and Why Density Settings Matter More<\/h2>\n

Stover Yield and Recovery Challenges<\/h3>\n

Corn stover (stalks, leaves, husks and cobs remaining after grain harvest) yields 1.5\u20133.0 tons per acre of dry matter in standard U.S. corn production, with the harvestable fraction for baling typically representing 50\u201370% of total stover mass depending on how much is incorporated by the combine and how well the windrow is formed for the baler pickup.<\/p>\n

Corn stover compresses differently from hay \u2014 whole stalks have hollow internodes that resist uniform compression and leave void channels in the bale cross-section. At standard compression settings on a non-shredder baler, corn stover bales are typically lighter per unit length than hay bales from the same density setting \u2014 approximately 18\u201328kg per bale. With the single shredder on the 9YF-2200S, shredded stover compresses more uniformly and reaches 24\u201338kg per bale at the same plunger setting. This difference in bale weight changes the bale count per acre significantly.<\/p>\n

At 2.0 tons per acre harvestable stover (1,814kg) and 24kg average bale weight (standard compression): approximately 75 bales per acre<\/strong>. With the shredder at 32kg average bale weight: approximately 57 bales per acre<\/strong>. Fewer bales per acre from the shredder model, but each bale weighs more \u2014 total tonnage recovered is the same; the revenue difference comes from whether the market pays by count or by weight.<\/p>\n

How Baler Density Setting Shifts Bale Count and Revenue Per Acre<\/h2>\n

The Density-Count Trade-Off<\/h3>\n

The plunger density setting on a square baler controls how much compression force the plunger applies before the bale reaches the trigger length and the knotters fire. Higher density = more compression per bale cycle = heavier bales = fewer bales per acre from the same crop yield. Lower density = lighter bales = more bales per acre from the same crop yield. The total weight of hay harvested per acre does not change \u2014 it is the number of containers (bales) that changes.<\/p>\n

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When Higher Density Earns More<\/div>\n

When you sell hay by weight per bale or by the tonne: fewer, heavier bales at the same per-kg price returns the same revenue per acre. Higher-density bales also stack more efficiently in barn storage (more kg per cubic metre) and are preferred by retail buyers who expect a firm, heavy bale as a quality signal. For transport efficiency, heavier bales mean fewer bales per truckload to move the same tonnage.<\/p>\n<\/p><\/div>\n

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When Lower Density Earns More<\/div>\n

When you sell hay by the bale at a fixed per-bale price regardless of weight: more, lighter bales return more total revenue per acre. A field that produces 80 bales at high density vs 105 bales at low density earns 31% more revenue per acre at a fixed per-bale price \u2014 even though the hay tonnage is identical. For retail markets that charge per bale, this is a meaningful economic incentive to run lighter density settings.<\/p>\n<\/p><\/div>\n

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Handling Weight and Market Expectations<\/div>\n

The equine and retail hay market has practical weight preferences. A bale under 18kg is sometimes perceived as light or poor quality. A bale above 35kg is difficult to handle for many customers. The 20\u201328kg range satisfies most retail and equine buyers regardless of whether you price per bale or per weight. Set your density to reach this range rather than optimizing purely for bale count.<\/p>\n<\/p><\/div>\n<\/div>\n

\"small<\/p>\n

Revenue Per Acre: A Calculation Guide at Local Hay Prices<\/h2>\n

\"9YF-2200<\/p>\n

Example Revenue Calculations<\/h3>\n

Using local market prices from 2025\u20132026 for illustrative purposes \u2014 verify current rates in your area before production planning:<\/p>\n

\n\n\n\n\n\n\n\n\n
Skenario<\/th>\nYield\/Acre<\/th>\nBales\/Acre<\/th>\nPrice\/Bale<\/th>\nGross\/Acre<\/th>\n<\/tr>\n<\/thead>\n
Premium alfalfa, horse market<\/td>\n2 T\/ac<\/td>\n80<\/td>\n$14<\/td>\n$1,120<\/td>\n<\/tr>\n
Orchardgrass, retail hay market<\/td>\n2.5 T\/ac<\/td>\n113<\/td>\n$9<\/td>\n$1,017<\/td>\n<\/tr>\n
Wheat straw, bedding and retail<\/td>\n1.2 T\/ac<\/td>\n75<\/td>\n$7<\/td>\n$525<\/td>\n<\/tr>\n
Corn stover, cattle feed<\/td>\n1.8 T\/ac<\/td>\n75<\/td>\n$5<\/td>\n$375<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n<\/div>\n

These are gross revenue estimates only. Production costs (mowing, raking, baling fuel and machine depreciation, twine, handling labour) typically run $60\u2013120 per acre depending on equipment and labour costs in your area. Net margin is gross revenue minus total production costs.<\/p>\n

\"square<\/p>\n

Variables That Shift Your Real-World Count Away from Averages<\/h2>\n

The Six Factors That Change Bale Count in Practice<\/h3>\n