{"id":772,"date":"2026-07-15T06:17:15","date_gmt":"2026-07-15T06:17:15","guid":{"rendered":"https:\/\/foragebalers.com\/application\/clover-silage-baling-how-to-preserve-clover-nutrition-with-bale-wrapping\/"},"modified":"2026-07-15T06:17:15","modified_gmt":"2026-07-15T06:17:15","slug":"clover-silage-baling-how-to-preserve-clover-nutrition-with-bale-wrapping","status":"publish","type":"post","link":"https:\/\/foragebalers.com\/de\/anwendung\/clover-silage-baling-how-to-preserve-clover-nutrition-with-bale-wrapping\/","title":{"rendered":"Clover Silage Baling: How to Preserve Clover Nutrition with Bale Wrapping"},"content":{"rendered":"
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Grass Forages \u00b7 Red and White Clover \u00b7 Silage Baleage<\/div>\n

Clover Silage Baling: How to Preserve Clover Nutrition with Bale Wrapping<\/p>\n

Buffering capacity explained, mower-conditioner requirements, 8-layer film rationale, phyto-oestrogen management, and the complete wilting protocol for reliable clover baleage.<\/p>\n<\/div>\n<\/div>\n

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The Nitrogen-Fixing Legume That Challenges Every Silage System<\/h2>\n

Red clover (Trifolium pratense<\/em>) and white clover (T. repens<\/em>) are the most valuable temperate legume forages grown outside of alfalfa’s climate zone. On permanent pastures across Ireland, the UK, the Netherlands, Denmark, New Zealand, and the cooler dairy regions of southeast Australia, grass-clover mixed swards produce the most nutritionally complete and economically efficient forage possible from permanent land without bought-in nitrogen fertiliser. The clover component does the nitrogen work \u2014 fixing 100 to 200 kg N per hectare per year from the atmosphere through its root nodule symbiosis with Rhizobium<\/em> bacteria \u2014 while the grass component provides the structural fibre and high dry-matter yield that makes the sward commercially productive.<\/p>\n

As a silage crop, clover is both the most nutritionally rewarding and the most technically demanding option a round bale system can handle. The combination of very high moisture at cutting (75 to 85%), elevated protein content (15 to 25% crude protein on a dry matter basis), and high buffering capacity creates fermentation conditions that routinely defeat operations that apply grass silage management protocols directly to clover. The results of such failures \u2014 butyric, clostridial silage with pH above 5.0, ammonia nitrogen above 10% of total nitrogen, and a characteristic rancid smell \u2014 are a waste of an extraordinarily valuable crop and a significant financial loss per tonne of failed baleage.<\/p>\n

This guide explains the specific biological reasons why clover is a fermentation challenge, the practical management steps that reliably produce good clover baleage, the 8-layer film specification that clover’s extended fermentation requires, and the phyto-oestrogen consideration that sheep farmers must understand before feeding red clover silage to breeding ewes. For producers running grass-clover mixed swards where clover management sits alongside ryegrass silage decisions, our article on how to bale ryegrass silage without clostridial spoilage<\/a> covers the complementary grass side of mixed-sward management.<\/p>\n<\/div>\n

\"Round<\/p>\n

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Section 1: The Buffering Capacity Problem \u2014 Why Clover Is Harder to Ferment Than Grass<\/h2>\n

1.1 Understanding Buffering Capacity<\/h3>\n

Buffering capacity is the fermentation property that most distinguishes clover from grass crops. Technically, it is the quantity of lactic acid (expressed in milliequivalents per 100 g dry matter) that must be produced before pH drops to 4.5 \u2014 the level at which clostridial bacteria are suppressed and fermentation becomes stable. A higher buffering capacity means more lactic acid is required, which means more fermentation substrate (water-soluble carbohydrates, WSC) must be consumed and more time passes before the silage is stable.<\/p>\n

Clover’s buffering capacity is 2 to 3.5 times higher than ryegrass at equivalent moisture levels. The primary reason is protein: crude protein at 18 to 22% of dry matter in red clover at bud stage provides a large pool of amino acids and amides that act as pH buffers \u2014 they absorb hydrogen ions that would otherwise reduce pH, effectively blunting the acidification that the lactic acid bacteria are trying to achieve. At the moisture levels where clover is typically baled (60 to 68%), the WSC available for fermentation is also proportionally lower than in ryegrass at equivalent moisture because the large plant volume is water rather than fermentable carbohydrate.<\/p>\n

The practical consequence: clover silage takes 30 to 50% longer to reach stable pH than ryegrass silage from the same field under the same conditions. The extended fermentation window \u2014 28 to 35 days for clover versus 18 to 25 days for ryegrass \u2014 means a longer period during which oxygen infiltration through film damage or poor wrapping can redirect fermentation from lactic to clostridial pathways. Every hour of additional oxygen exposure during days 1 to 21 post-wrapping is more consequential for clover than for ryegrass.<\/p>\n

1.2 The WSC-to-Buffering-Capacity Ratio<\/h3>\n

Silage fermentation success can be predicted from a simple ratio: WSC content divided by buffering capacity. For ryegrass at 65% moisture, this ratio is typically 2.5 to 4.0 \u2014 sufficient for reliable fermentation without inoculant. For red clover at 65% moisture, the same ratio is 0.8 to 1.5 \u2014 below the threshold for reliable fermentation without a lactic acid bacteria inoculant. This ratio explains, from first principles, why every piece of applied silage research recommends inoculant use for clover as a standard requirement rather than an optional insurance measure.<\/p>\n

\n\n\n\n\n\n\n\n\n
Stage<\/th>\nRohprotein<\/th>\nWSC (DM)<\/th>\nMoisture at cut<\/th>\nFerment difficulty<\/th>\nInoculant<\/th>\n<\/tr>\n<\/thead>\n
Vegetativ<\/td>\n22\u201326%<\/td>\nLow 3\u20135%<\/td>\n83\u201386%<\/td>\nSehr hoch<\/td>\nEssential<\/td>\n<\/tr>\n
Early bud<\/td>\n18\u201322%<\/td>\nMedium 5\u20138%<\/td>\n80\u201384%<\/td>\nHoch<\/td>\nEssential<\/td>\n<\/tr>\n
Late bud \/ early flower \u2713<\/td>\n15\u201320%<\/td>\nMedium-High 7\u201310%<\/td>\n76\u201382%<\/td>\nM\u00e4\u00dfig<\/td>\nStrongly recommended<\/td>\n<\/tr>\n
50% flower<\/td>\n12\u201316%<\/td>\nLower 5\u20137%<\/td>\n72\u201378%<\/td>\nHigh (phytooestrogen)<\/td>\nEssential<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n<\/div>\n<\/div>\n
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Section 2: Correct Cutting Stage and Wilting Protocol<\/h2>\n

2.1 Cutting Stage \u2014 Bud to Early Flower<\/h3>\n

The optimal cutting stage for red clover silage is the late bud to early flower stage \u2014 when the most advanced heads in the paddock show the first petal colour but fewer than 20% of plants have open flowers. At this stage, crude protein is in the 16 to 20% range, NDF is 32 to 40% (still well within digestible range), and WSC content is approaching its seasonal maximum, providing the best available fermentation substrate relative to the buffering capacity load.<\/p>\n

Cutting earlier \u2014 at the vegetative or early bud stage \u2014 produces very high moisture material (83 to 86%) that is extremely difficult to wilt to safe baling moisture within a practical weather window and carries very low WSC relative to protein buffering. Cutting later \u2014 at 50% or more open flowers \u2014 increases phyto-oestrogen content to the range associated with clover disease in sheep (see Section 4) and reduces digestibility as stem lignification accelerates.<\/p>\n

2.2 The Mower-Conditioner Is Not Optional<\/h3>\n

Red clover stems are succulent, thick-walled, and covered with a waxy cuticle that resists moisture evaporation through the stem surface. A plain disc mower cutting red clover at 80% moisture leaves intact stems that dry almost exclusively from the cut end \u2014 a process that takes 48 to 60 hours even in excellent drying conditions. A mower-conditioner (crimper-roller type or flail-conditioner type) physically crushes the stem walls and breaks the cuticle, exposing the internal moisture to direct evaporation across the entire stem length. The result is a 25 to 40% reduction in wilting time \u2014 cutting from 48 to 60 hours to 28 to 36 hours in equivalent conditions.<\/p>\n

For clover silage production, this time saving is operationally significant. It extends the safe baling window, reduces the number of weather risk periods the wilting crop must survive, and allows the crop to reach 60 to 65% moisture with fewer mechanical handling passes (each of which causes some leaf loss and field contamination). A mower-conditioner is not an optional upgrade for red clover silage production \u2014 it is the baseline equipment requirement.<\/p>\n

2.3 Wilting to the Target Moisture Range: 60 to 66%<\/h3>\n
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1<\/div>\n
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Cut in afternoon with mower-conditioner<\/div>\n

Choose an afternoon with at least 4 to 6 hours of remaining drying time. Spread the cut material as wide as the conditioner discharge allows to maximise surface area exposure. Do not cut into a narrow swath \u2014 clover’s high moisture content means that a narrow windrow stays wet in the centre long after the surface appears dry.<\/p>\n<\/div>\n<\/div>\n

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2<\/div>\n
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Ted once, within 90 minutes of cutting<\/div>\n

Immediately after cutting, ted the spread material to invert the windrow and expose the underside of stems to solar radiation. The first few hours after cutting are when clover loses the most moisture per unit time \u2014 capitalise on this peak drying rate by maximising surface area exposure. Do not wait until the next morning to ted.<\/p>\n<\/div>\n<\/div>\n

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3<\/div>\n
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Check moisture with a conductance meter every 4 hours<\/div>\n

Clover moisture drop is not linear. Typically, moisture falls rapidly in the first 12 hours (from 80% to 68\u201372%) then more slowly as the remaining moisture is in the stem core. Use a handheld conductance meter rather than the squeeze test \u2014 clover at 70% moisture can feel similar to grass at 65% due to the waxy stem surface. Do not rely on time estimates alone.<\/p>\n<\/div>\n<\/div>\n

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4<\/div>\n
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Rake and apply inoculant when 62\u201366% moisture is confirmed<\/div>\n

Merge to a baling windrow when moisture is between 62 and 66%. Apply a homofermentative LAB inoculant (Lactobacillus plantarum strains at 1 \u00d7 10^6 cfu\/g or higher) at the baler pickup, set to the application rate specified for clover on the inoculant product data sheet. The inoculant is not optional at any moisture level with clover \u2014 apply it every time, every bale.<\/p>\n<\/div>\n<\/div>\n

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5<\/div>\n
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Wrap within 2 hours of baling \u2014 use 8 layers<\/div>\n

Clover baleage must be film-sealed within 2 hours of baling. The high protein content and moisture provide ideal conditions for both lactic and clostridial bacteria, and the active phase begins immediately. Every hour of delay before wrapping is an hour of uncontrolled microbial activity in the unsealed bale.<\/p>\n<\/div>\n<\/div>\n<\/div>\n

\"9YG-1.25A<\/p>\n

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Section 3: Film Wrapping \u2014 Why Clover Needs 8 Layers<\/h2>\n

3.1 The Extended Fermentation Window Argument<\/h3>\n

The standard recommendation for grass silage round baleage is 6 layers of 25-micron silage stretch film. This provides adequate oxygen barrier for the 18 to 25 day active fermentation period in ryegrass at 60 to 65% moisture, during which pH drops from near-neutral to 4.0 to 4.5 and the system stabilises. For red clover, the same active fermentation period runs 28 to 35 days \u2014 10 to 17 days longer. This extended window means the bale is in an oxygen-sensitive active fermentation state for significantly longer, and the probability of a small film puncture or seal failure causing oxygen ingress during the critical pH-drop period is correspondingly higher.<\/p>\n

Eight layers of 25-micron silage film provides an oxygen transmission rate approximately 33% lower than 6 layers from the same film stock. This additional barrier is the practical response to clover’s extended fermentation timeline \u2014 it is not precautionary excess but a calibrated increase in protection matched to the increased duration of vulnerability. Independent Irish silage research consistently shows 8-layer wrapping of clover baleage produces better fermentation quality outcomes (lower ammonia nitrogen, lower butyric acid) than 6-layer wrapping of the same material.<\/p>\n

3.2 Normal Clover Fermentation Gas vs. Clostridial Inflation<\/h3>\n

Red clover baleage generates more CO\u2082 fermentation gas during the first 14 to 21 days than ryegrass silage of equivalent moisture. This is normal and causes the bale film to appear slightly inflated or balloon-shaped during this period. This CO\u2082 bulging should not be confused with the hard, dome-shaped gas inflation associated with active clostridial butyric acid fermentation, which produces H\u2082, CO\u2082, and CO\u2082 simultaneously and creates a much firmer, more resistant inflation feel with a characteristic rancid-ammonia odour at the wrap surface. Normal CO\u2082 fermentation gas dissipates as the active phase completes; clostridial inflation continues and worsens. A firm squeeze of the inflated bale and a close smell check are the diagnostic tools.<\/p>\n

Der 9YCM-850 B\u00fcndelfolien-Verpackungsmaschine<\/a> is programmable to 8 layers via its revolution counter, ensuring consistent layer count without operator counting across a high-volume clover baleage day. Pair it with the 9YG-1.25A Rundballenpresse mit variabler Kammer<\/a> for the density control needed across the variable-moisture clover crop encountered through a typical cutting day.<\/p>\n

3.3 Storage Site, Inspection Schedule, and Opening Protocol<\/h3>\n

Clover baleage requires the same storage site standards as grass silage (elevated, well-drained, rodent-managed) with two additional requirements: the 8-layer film must be inspected for punctures every 5 to 7 days during the first 35 days of storage (compared to every 10 to 14 days for grass silage), and any puncture must be repaired with silage repair tape within 24 hours of detection. The longer active fermentation window means that a puncture during day 15 of a clover baleage batch is as consequential as a puncture during day 5 of a grass batch \u2014 oxygen ingress redirects fermentation at any point before pH stabilisation.<\/p>\n

Do not open clover baleage bales before 35 days minimum. Well-made clover baleage has a clean, sharp acidic smell \u2014 no ammonia, no rancid or sweaty notes. The colour should be uniform olive green to dark green, the texture firm and moist. Feed out each opened bale within 2 to 3 days \u2014 clover baleage aerobic stability at the exposed face is lower than grass silage due to higher yeast counts in the pre-ensiling material.<\/p>\n<\/div>\n

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Section 4: Phyto-Oestrogens in Red Clover \u2014 What Sheep Farmers Must Know<\/h2>\n

Red clover contains isoflavone compounds \u2014 primarily formononetin, biochanin A, daidzein, and genistein \u2014 that are collectively referred to as phyto-oestrogens because they mimic the biological action of oestrogen when consumed by ruminants. In sheep, these compounds cause a condition known as clover disease (oestrogenism or clover oestrogenism): ewes exposed to high formononetin intakes over the 6 to 8 weeks before and during mating show reduced ovulation rates, impaired embryo implantation, and in severe cases permanent cystic degeneration of the cervical mucosa that causes irreversible infertility \u2014 a condition called ‘clover infertility’ in the Australian sheep industry where it was first characterised.<\/p>\n

The risk is species-specific and dose-dependent. Dairy cattle and beef cattle metabolise isoflavones differently from sheep \u2014 cattle convert formononetin to the inactive compound equol and do not show the reproductive effects documented in sheep at equivalent intakes. Horses are intermediate in sensitivity. For dairy cattle and beef cattle operations, red clover silage at any reasonable inclusion rate in the ration carries no documented reproductive risk and can be fed without restriction through all production phases.<\/p>\n

For sheep operations, the management guidelines are: limit red clover silage to no more than 25 to 30% of total dry matter intake in the breeding ewe ration, do not feed it as the sole roughage in the 8 weeks before mating or during mating, and prefer white clover or grass-white clover mixed silage over pure red clover silage in systems where pre-mating nutrition management is complex. White clover carries significantly lower phyto-oestrogen levels than red clover and does not carry the same documented reproductive risk at normal ration inclusion rates.<\/p>\n<\/div>\n

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Common Mistakes in Clover Baleage Production<\/h2>\n
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\u274c Using a Plain Disc Mower Instead of a Mower-Conditioner<\/div>\n

Plain disc mower cutting of red clover at 80 to 83% moisture leaves intact stem cuticles that restrict moisture evaporation to the cut-end pathway only. Expected wilting time in good drying conditions: 48 to 60 hours. With a mower-conditioner in the same conditions: 28 to 36 hours. The time saving is real, the quality improvement is real, and the capital cost of a mower-conditioner is recovered within 2 to 4 seasons of clover silage production at commercial scale.<\/p>\n<\/div>\n

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\u274c Skipping the Inoculant When Conditions Look Favourable<\/div>\n

The most common rationalisation for skipping LAB inoculant on clover is that the weather was good, the moisture was right, and it looked like ryegrass from a distance. Clover’s buffering capacity makes it a fundamentally different fermentation challenge regardless of weather conditions. LAB inoculant use on clover has been shown in controlled trials to reduce ammonia nitrogen, reduce pH at 21 days, and eliminate the majority of clostridial failures compared to untreated controls at equivalent moisture levels. The cost per tonne of inoculant application is 1 to 2% of the value of the silage being protected.<\/p>\n<\/div>\n

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\u274c Using 6 Layers of Film on Clover Baleage<\/div>\n

Six layers is the minimum for ryegrass silage with a 20 to 25 day active fermentation window. Clover’s 28 to 35 day window needs 8 layers. This is not a precautionary recommendation \u2014 it is based on documented fermentation failure rates in commercial clover baleage operations that switched from 6 to 8 layers and observed statistically significant reductions in spoilage incidence. Apply 8 layers every time on every clover baleage bale.<\/p>\n<\/div>\n

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\u26a0 Baling at 70% or Higher Moisture<\/div>\n

At 70%+ moisture, red clover’s WSC-to-buffering-capacity ratio is below 1.0 \u2014 clostridial fermentation is the expected outcome regardless of inoculant use. If weather forces baling above 68% moisture, use double the standard inoculant rate and apply 10 layers of film \u2014 and accept that this batch carries a higher failure risk than properly wilted material.<\/p>\n<\/div>\n

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Cutting Red Clover Past 50% Open Flowers for Sheep-Focused Operations<\/div>\n

Formononetin concentration in red clover reaches its maximum at full flowering and remains elevated in ensiled material. For sheep operations where breeding ewes will be fed the silage, cutting no later than early-flower stage and limiting inclusion rates in pre-mating rations is the management protocol supported by Australian and New Zealand research in this area.<\/p>\n<\/div>\n<\/div>\n

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H\u00e4ufig gestellte Fragen<\/h2>\n
\nCan red clover silage replace alfalfa in a dairy ration?<\/span>+<\/span><\/summary>\n
For dairy operations in Europe and New Zealand where alfalfa is not locally produced, red clover silage at 16 to 20% crude protein is a nutritionally comparable alternative. Both crops provide similar levels of digestible organic matter and rumen-degradable protein per unit of dry matter intake. The production management requirements differ \u2014 alfalfa is easier to wilt but requires drier climates; red clover is harder to ferment but performs in higher-rainfall temperate environments. In controlled dairy trials across Ireland and New Zealand, clover silage has consistently matched or exceeded alfalfa silage in milk protein response when fermentation quality is equivalent.<\/div>\n<\/details>\n
\nWhat is the shelf life of well-made clover baleage?<\/span>+<\/span><\/summary>\n
Well-fermented clover baleage with 8 layers of intact silage film stored on an elevated, well-drained site in temperate conditions can maintain acceptable quality for 12 to 18 months. The primary storage risk beyond 12 months is UV degradation of the film rather than internal fermentation failure. Film integrity should be assessed visually every 3 months during long-term storage. For storage beyond 14 months, consider wrapping with an additional 2-layer outer coat of film before the original layers begin to show UV brittleness.<\/div>\n<\/details>\n
\nWhat forage analysis values should I expect from good-quality red clover baleage?<\/span>+<\/span><\/summary>\n
Well-made red clover baleage from a late-bud-to-early-flower cutting typically tests: crude protein 14\u201319% (DM), NDF 34\u201342%, ADF 26\u201332%, pH 4.1\u20134.6, ammonia nitrogen <8% of total N, lactic acid 3\u20136% of DM, butyric acid <0.1% of DM. Ammonia nitrogen above 10% of total N and\/or butyric acid above 0.5% of DM indicates clostridial fermentation failure \u2014 this material should not be fed to high-output dairy cows or ewes in late pregnancy as it reduces dry matter intake and provides inadequate safe protein for these production stages.<\/div>\n<\/details>\n
\nCan white clover be baled separately as a commercial silage crop?<\/span>+<\/span><\/summary>\n
White clover is rarely grown or harvested in sufficient quantities as a pure stand for commercial silage production at scale. Its prostrate growth habit and low canopy height make pickup without soil contamination difficult with standard baler pickups. In practice, white clover appears in silage as a component of grass-clover mixed swards (typically 20 to 40% of the sward composition) where it contributes protein and palatability to the baleage without requiring separate harvest management. The resulting mixed grass-clover baleage is fermented as though it were high-protein grass silage \u2014 6 to 8 layers, LAB inoculant, 60 to 65% target moisture.<\/div>\n<\/details>\n
\nHow should I manage clover baleage in a total mixed ration for dairy cows?<\/span>+<\/span><\/summary>\n
Include clover baleage as 20 to 35% of the total forage dry matter in a dairy TMR. Higher inclusion rates (above 40%) can cause milk fat depression in some herds because clover’s high rumen-degradable protein load creates a nitrogen-to-energy imbalance that depresses rumen function and microbial fibre digestion. Pair clover baleage with a high-energy, low-protein energy source (high-quality grass silage, maize silage, or dried sugar beet pulp) to balance the ration. Consult a ruminant nutritionist before formulating clover baleage as the primary silage source for high-producing (>30 litres\/cow\/day) dairy herds.<\/div>\n<\/details>\n<\/div>\n

\"Ever-Power<\/p>\n

\n
EverPower Ballenpressen Australien Pty Ltd \u00b7 Industriegebiet Charlton<\/div>\n

Discuss Your Clover Silage Programme With Our Team<\/h2>\n

Tell us your herd size, clover proportion, and target cutting schedule \u2014 we’ll help specify the right baler and wrapper combination for reliable clover baleage production.<\/p>\n

Angebot anfordern<\/a> \u00dcber EverPower<\/a><\/div>\n
+61 2 9708 3322<\/a>  | \u2709 sales@foragebalers.com<\/a><\/div>\n<\/div>\n<\/div>\n<\/div>","protected":false},"excerpt":{"rendered":"

Grass Forages \u00b7 Red and White Clover \u00b7 Silage Baleage Clover Silage Baling: How to Preserve Clover Nutrition with Bale Wrapping Buffering capacity explained, mower-conditioner requirements, 8-layer film rationale, phyto-oestrogen management, and the complete wilting protocol for reliable clover baleage. The Nitrogen-Fixing Legume That Challenges Every Silage System Red clover (Trifolium pratense) and white clover […]<\/p>","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":[24],"tags":[],"class_list":["post-772","post","type-post","status-publish","format-standard","hentry","category-applications"],"_links":{"self":[{"href":"https:\/\/foragebalers.com\/de\/wp-json\/wp\/v2\/posts\/772","targetHints":{"allow":["GET"]}}],"collection":[{"href":"https:\/\/foragebalers.com\/de\/wp-json\/wp\/v2\/posts"}],"about":[{"href":"https:\/\/foragebalers.com\/de\/wp-json\/wp\/v2\/types\/post"}],"author":[{"embeddable":true,"href":"https:\/\/foragebalers.com\/de\/wp-json\/wp\/v2\/users\/1"}],"replies":[{"embeddable":true,"href":"https:\/\/foragebalers.com\/de\/wp-json\/wp\/v2\/comments?post=772"}],"version-history":[{"count":0,"href":"https:\/\/foragebalers.com\/de\/wp-json\/wp\/v2\/posts\/772\/revisions"}],"wp:attachment":[{"href":"https:\/\/foragebalers.com\/de\/wp-json\/wp\/v2\/media?parent=772"}],"wp:term":[{"taxonomy":"category","embeddable":true,"href":"https:\/\/foragebalers.com\/de\/wp-json\/wp\/v2\/categories?post=772"},{"taxonomy":"post_tag","embeddable":true,"href":"https:\/\/foragebalers.com\/de\/wp-json\/wp\/v2\/tags?post=772"}],"curies":[{"name":"wp","href":"https:\/\/api.w.org\/{rel}","templated":true}]}}