Hay Feeders: Save Hay Across Species

Are farms losing a third of their hay to sloppy feeders? A 1,000 lb horse consumes about 15–25 lb of hay daily and annual hay costs range $1,000–$2,000. Cattle intake runs about 24–36 lb daily for a 1,200 lb cow, so feed sizing and waste rate drive budget outcomes. Open-ground feeding commonly wastes 20–40% of forage, whereas well-designed feeders target under 10–15% waste. A guest-ranch recorded a 31% hay-cost reduction after switching to a slow-graze feeder, showing measurable ROI. The guide compares five hay-feeder designs, species-specific sizing, and a weigh-before/after audit that quantifies savings and sets performance targets.

Related reading: compare hay feeders by cost per day | round bale hay feeder designs ranked

Hay Feeders: Why Reducing Waste Pays Off (Economics & Baseline Metrics)

Measuring hay waste converts a vague loss into an actionable line-item on the budget and a measurable sustainability metric for the operation.

Accurate waste metrics let managers compare feeder options, calculate payback periods, and prioritize upgrades that lower both feed cost and environmental footprint.

Concrete intake and cost figures help size feeders and forecast savings when waste is reduced.

• Horse daily intake: 1.5–2.5% body weight ≈ 15–25 lb/day for a 1,000 lb horse.
• Cattle daily intake: 2–3% body weight ≈ 24–36 lb/day for a 1,200 lb cow.
• Typical annual hay cost for an adult horse: $1,000–$2,000.
• Baseline waste rates: open-ground feeding often yields 20–40%+ waste; well-designed feeders commonly limit waste to under 10–15%.
• Measured outcome example: a guest ranch reported a 31% reduction in hay costs after switching to a slow-graze feeder; run a simple weigh-before/after test across one 48-hour feed cycle to estimate current waste and project savings.

Hay Feeders: Types Compared — Round, Square, Racks, Nets and Slow-Feed Designs

Major feeder families reduce waste through containment, restricted access, raised feeding surfaces, or roofed protection.

Slow-feed systems can cut visible hay loss to "almost zero" by forcing slow intake and reducing pull-out, and one guest ranch reported a 31% drop in hay costs after switching.

Metal covered units preserve bale dryness and disease risk, but high-capacity horse metal feeders commonly fall in the $1,000–$5,000 range.

Operators should match feeder type to species behavior, herd size, site drainage and maintenance capacity to reach target waste levels without overspending.

Feeder Type	Best for	Primary waste-reduction feature	Approx price range
Round bale	Pastured herds and large-bale feeding	Containment ring prevents drag-out and trampling when elevated	$200–$2,000
Square bale	Small farms and manual feeding	Bunk or rack with catch pan reduces floor losses	$50–$800
Slow-feed / Net	Horses, obese animals, operations prioritizing low waste	Restricted openings force slow intake; reported "almost zero" waste	$50–$1,500 (metal slow-feed units $1,000–$5,000)
Rack / Manger	Mixed-species barns and mangers	Raised troughs and slatted access prevent trampling and soiling	$100–$1,200
Ground bunk / Trench	High-volume feedlots and confined cattle	Low-cost distribution but higher trampling unless raised	$50–$800

• Round bale — Pros: contains large bales, reduces drag-out when ring is raised, low labor per bale, durable for pastures.
• Round bale — Cons: open designs allow trampling and soiling, heavier anchors needed, water pooling under ring if not elevated, not ideal for selective feeders.
• Square bale — Pros: low upfront cost, bunk designs can include grain/catch pans, simple to repair, good for small operations.
• Square bale — Cons: high labor to refill, exposure to weather unless covered, moderate trampling without raised floor, limited for large herds.
• Slow-feed / Net — Pros: enforces slow intake and long chew time, greatly reduces pull-out, benefits obese or gastric-sensitive animals, compatible with many feeder bodies.
• Slow-feed / Net — Cons: nets can clog or tear, higher initial cost for durable units, extra cleaning if wet hay accumulates, slower loading for large bales.
• Rack / Manger — Pros: raised feeding reduces soiling, easy to pair with catch pans, good for barns and mixed species, configurable mount heights.
• Rack / Manger — Cons: metal racks require rust inspection, exposed edges must be checked for safety, moderate cost for heavy-duty models, can encourage monopolization without sufficient linear space.
• Ground bunk / Trench — Pros: low-cost distribution, simple to deploy, high throughput for feedlots, minimal mounting work.
• Ground bunk / Trench — Cons: high trampling and waste on bare ground, moisture and mud accelerate spoilage, higher ongoing forage loss rates, not recommended for horses or picky feeders.

Hay Feeders: Materials, Durability and Weatherproofing

Wood, metal and plastic offer distinct service-life and maintenance profiles that directly affect waste and replacement costs.

Untreated softwood feeders typically last 2–5 years in outdoor use.

Cedar or pressure-treated wood commonly provides 5–15 years with routine maintenance, and metal-reinforced wooden feeders extend usable life under heavy traffic.

All-metal feeders with galvanizing or powder-coating will often exceed 15 years in corrosive environments if coatings are maintained.

Annual wood treatment and biannual hardware checks markedly reduce rot and fastener failure that lead to spoiled hay.

Use galvanized or stainless fasteners, powder-coat or galvanize exposed metal, and design roofs with 6–12 inch overhangs and raised floors to keep bales dry and off wet ground.

Selecting a more durable material and applying a modest finish premium lowers long-term waste by preventing mold, splintering and structural failure that render hay uneaten.

A one-time higher upfront cost for corrosion-resistant finishes frequently pays back through fewer replacements and lower spoilage rates.

• Seal or treat exterior wood annually to prevent moisture absorption and rot.
• Use galvanized or stainless fasteners and inspect them every six months.
• Powder-coat or galvanize metal surfaces; touch up damaged paint spots promptly.
• Fit a 6–12 inch roof overhang and raise feeder floor several inches above grade for drainage.
• Grade site and install drainage to keep water away from feeder footprint.
• Replace worn slats every 2–5 years depending on wear and animal use.
• Sand edges and cap exposed fasteners to eliminate splinters and chewing targets.

5 Hay Feeders: Save Hay Across Species

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Species-specific feeder sizing and access reduce selective feeding, trampling and soiling that drive waste.

This section gives numeric space, mounting-height ranges and mouth/slat guidance to size feeders for minimal loss and safe ergonomics.

Horses

Choose linear feed space 24–36 inches per horse to prevent monopolization and pulling of adjacent hay.

Mount feeder mouths at 36–48 inches above ground to align with the horse's shoulder and keep head-neck posture neutral, limiting neck strain and pull‑out.

Design slat spacing or net openings to restrict large pull-throughs; 3–4 inch vertical slot spacing or slow-feed hole sizes that allow only muzzle access will reduce drag-out.

• 24–36 in linear space per horse
• Mounting height 36–48 in above ground
• Recommend slow-feed inserts or nets with 3–4 in openings for picky or gastric-sensitive horses

Cattle

Provide 18–24 inches of linear trough or ring space per mature cow to allow simultaneous access without crowding.

Set trough rim or ring top at 30–42 inches, adjusted for breed and size, so cattle feed with a comfortable head angle and minimize nose-down drag of hay onto the ground.

Use wider mouth widths and robust anchoring to resist pushing; 4–6 inch slat spacing works for cattle that pull larger mouthfuls, while rings prevent trampling if elevated and anchored.

• 18–24 in linear space per cow
• Mounting height 30–42 in above ground
• For confined herds use troughs; for pastured groups use raised rings with strong anchors

Small Ruminants (Sheep & Goats)

Allocate 8–12 inches linear space per animal to reduce selective access and head‑butting displacement.

Mount feeder openings at roughly 24–36 inches to suit smaller shoulder heights, and fit slat gaps or net holes at 2–3 inches to limit mouth‑through access.

Guard against entrapment by rounding edges and keeping slot heights short; use anti-climb features where goats might stand or vault.

• 8–12 in linear space per animal
• Mounting height 24–36 in above ground
• Use 2–3 in slat/net openings and anti-climb barriers for goats

Alpacas & Llamas

Provide 10–16 inches of linear feed space per camelid to account for crowding tendencies and timid feeding behavior.

Mount feeder lips at 30–36 inches where most camelids feed comfortably with a neutral head angle, reducing wasted pull-out.

Favor low-profile slow-feed racks or modest netting; rigid high racks can intimidate camelids and increase selective nibbling.

• 10–16 in linear space per animal
• Mounting height 30–36 in above ground
• Prefer low slow-feed racks or small-net openings to reduce selectivity

Species	Linear space per animal	Mounting height	Daily intake example
Horses	24–36 in	36–48 in	15–25 lb/day (1,000 lb horse)
Cattle	18–24 in	30–42 in	24–36 lb/day (1,200 lb cow)
Sheep & Goats	8–12 in	24–36 in	3–5 lb/day (typical adult)
Alpacas & Llamas	10–16 in	30–36 in	2–5 lb/day (typical adult)

Hay Feeders: Placement, Surfaces, Anchoring and Trampling Prevention

Correct feeder placement and a designed pad cut visible waste by limiting trampling, soiling and mud-related spoilage.

Operators should locate feeders on high ground with a slight grade to shed water, avoiding depressions that collect runoff and create saturated, wasted forage.

Choose a pad sized to the feeder and herd; example: a 10 ft diameter ring-feeder pad works well for small herds, while multiple 6–8 ft pads suit staggered access for larger groups.

Anchor selection and embed depth are critical in exposed sites; use heavy-duty screw anchors or driven rebar with an 18–24 inch embed for rings and standalone feeders to resist wind and livestock force.

1. Site selection — place feeders on well-drained, elevated locations away from low points and barn corners.
2. Pad material & thickness — concrete slabs 4–6 in thick, compacted gravel 6–8 in over geotextile, or raised pallet decks with 4–6 in clearance.
3. Drainage — install 1–2% slope away from pad, add perimeter trenches or French drains where runoff concentrates.
4. Anchors & stakes — use galvanized screw anchors, driven rebar, or embedded posts; embed 18–24 in in high-wind zones.
5. Spacing & pad size — allow 10 ft diameter for small ring feeders or 4–6 ft linear pads per 2–3 animals to reduce crowding and pawing.
6. Roof overhang & cover — specify 6–12 in overhangs and raised roofs to keep rain off bales and limit edge wetting.

Pad Type	Advantages	Typical cost per sq ft
Concrete	Long-lasting, low maintenance, firm footing; cleanable surface	$4–$8
Compacted gravel	Good drainage, hoof-friendly traction, lower install cost than concrete	$1.50–$4
Wooden pallet system	Low upfront cost, quick install, portable but needs regular replacement	$0.50–$2

Hay Feeders: How to Measure Waste and Feeding Efficiency (Protocols & Templates)

Quantifying hay loss turns guesswork into a measurable performance metric that managers can use to compare feeders and calculate payback timelines.

A simple, repeatable waste audit focused on a 24–72 hour feeding window (48 hours recommended) yields consistent, comparable results across feeder types.

1. Select a representative feeder run and label a bale with a unique Bale ID.
2. Weigh the bale before placement and record as Starting weight (lb).
3. Note the exact start time and weather conditions; place bale in normal feeding position.
4. Allow animals access for the chosen window; 48 hours is the standard test period.
5. Remove leftover and visibly soiled hay at the end of the window and weigh; record as Leftover/soiled weight (lb).
6. Calculate Waste % = (Leftover weight ÷ Starting weight) × 100.
7. Convert to dry-matter if hay is wet or frozen by applying forage analysis moisture% or using a field dry estimate (subtract moisture percentage from wet weight).
8. Repeat across feeders, ranks, or groups to average results and identify outlier designs.

Sample calculation: a horse with an annual hay bill of $1,500 that reduces waste by 31% lowers its bill to $1,035, saving $465 annually.

To annualize from per-pound price, compute annual consumption = daily intake (lb) × 365, then multiply by hay price per lb to get baseline cost.

Apply measured Waste% reductions to baseline cost to model feeder ROI.

Date	Bale ID	Starting weight (lb)	Leftover/soiled weight (lb)	Waste %	Notes
2026-03-01	B-01	1,200	180	15.0%	Clear weather, slow-feed net
2026-03-01	B-02	1,150	345	30.0%	Ground bunk, muddy pad
2026-03-03	B-03	1,250	125	10.0%	Covered metal feeder
2026-03-03	B-04	1,180	236	20.0%	Square-bale rack, no catch pan

5 Hay Feeders: Save Hay Across Species

The DIY plans below give two buildable feeders aimed at cutting drag‑out and soiling losses while remaining serviceable for mixed herds.

Each plan includes exact cut lists, fastening points, anchoring options and practical loading tips that reduce labor and waste.

Estimated labor ranges 2–6 hours depending on skill level and tools available.

Plan A: Small multi-species slow feeder (4' × 2' × 3')

Design a slow-feed pen 4 ft long × 2 ft wide × 3 ft high to hold roughly 100–200 lb of loose hay or small bales.

Use a 2x6 perimeter frame with 2x4 vertical supports every 16 in on center; attach 3/4 in hardware cloth or 1/2 in metal slats internally at 6–8 in spacing to force nibbling and reduce pull‑through.

Fasten floor joists with galvanized brackets and raise floor 4–6 in on treated sleepers to keep hay off wet ground; fit a 6–12 in roof overhang to shed rain.

Cut list highlights: two 4 ft 2x6 (long sides), two 2 ft 2x6 (short ends), six 3 ft 2x4 uprights, three 4 ft 2x4 floor joists, one 4 ft × 2 ft floor sheet (exterior-grade plywood), hardware cloth panel 4 ft × 2 ft, roof sheet 4.5 ft × 2.5 ft.

Anchoring: use 12–18 in ground spikes for portable placement or 24 in embedded posts for permanent mounts.

Loading tips: lift small bales in with a pallet jack or carry them in short end first to minimize drag‑out; orient loose hay perpendicular to slats for uniform feed access.

Retrofit note: slow‑feed inserts and soft nets bolt to the interior slats; install inserts in 30–60 minutes and expect feed-rate reductions of 20–50% in trials.

• Exterior-grade 2x6 and 2x4 lumber, galvanized screws, hardware cloth, metal slats, exterior plywood, galvanized brackets, roof panels, ground spikes, sanded edges, slow-feed net insert.

Diagram note: front view shows 4 ft length with three vertical uprights, hardware-cloth face, raised floor 4–6 in, and sloped roof with 6–12 in overhang.

Plan B: Portable round-bale saver ring (6 ft diameter)

Construct a 6 ft internal diameter ring of 1.5 in square steel tubing or heavy 2x6 treated lumber with metal wear bands to accept a single round bale.

Ring height 30–36 in to fit most round bale diameters while preventing dragging; include a 12 in high inner skirt of hardware cloth to stop nose-through and trampling.

Fasten sections with galvanized couplers and provide three equidistant anchor points; for portable use employ 18 in drive‑in anchors, for permanent use set 24 in concrete footings with embedded anchor plates.

Load with a bale lifter, tractor spear, or by tipping the bale onto platform; orient bale seam up to reduce outer-layer shedding and minimize drag‑out.

Retrofit options: add a slow‑feed ring insert or net system that reduces access openings to 3–4 in for horses and smaller for ruminants; expect installation time 1–3 hours for inserts.

• Steel tubing or treated 2x6 ring sections, galvanized couplers, hardware cloth skirt, metal wear bands, drive-in anchors or concrete footings, bolts and washers, paint or powder-coat finish, bale lift or fork adapter.

Safety checklist:

• Round edges and cap exposed fasteners to prevent cuts and chewing.
• Verify anchor embed depth matches wind exposure: 18 in portable, 24 in permanent.
• Inspect slats and wear bands monthly and replace worn components promptly.
• Keep a clear unloading zone and use appropriate lifting gear when loading bales.

Material	Quantity	Estimated cost
Exterior-grade 2x6 lumber	8 pcs	$80
Exterior-grade 2x4 lumber	10 pcs	$40
Galvanized screws & brackets	1 kit	$25
Hardware cloth (3/4 in)	2 panels	$30
Metal slats / wear bands	6 pcs	$60
Corrugated metal roofing	1 sheet	$35
Galvanized anchors (drive-in)	6 pcs	$48
Slow-feed insert / net	1 unit	$75

• Circular saw, drill/driver and impact wrench.
• Tape measure, speed square and level.
• Posthole digger or auger for permanent anchors.
• Pallet jack or bale spear/fork adapter for loading.
• Hammer, socket set and adjustable wrenches.

Hay Feeders: Cost-Benefit, ROI and Case Studies

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Evaluating upfront feeder cost against ongoing feed savings gives a clear capital-allocation metric for managers deciding upgrades.

Typical market ranges to budget against are: metal horse feeders $1,000–$5,000; heavy-duty commercial $800–$2,500; prefabricated wooden feeders $150–$800; small wooden DIY feeders $50–$300.

Non-dollar returns include improved animal health, lower labor for cleanup, reduced spoilage and fewer emergency bale replacements.

A documented operational outcome: a guest ranch reported a 31% drop in hay costs after switching to slow-graze feeders, proving measurable payback from reduced waste.

Run the worked ROI below to estimate payback for a given herd bill and feeder choice.

1. Baseline: annual hay cost = $1,500.
2. Waste reduction target = 30%. Annual savings = $1,500 × 0.30 = $450.
3. For a higher bill: annual hay cost = $3,000 → savings = $3,000 × 0.30 = $900.
4. Payback example: if feeder costs $1,500 and annual savings are $450, payback = $1,500 ÷ $450 = 3.33 years.
5. Provide conservative and optimistic ranges by using feeder cost and savings bounds from the table below to estimate payback variability.

Feeder Type	Typical upfront cost	Estimated annual waste reduction	Estimated annual $ savings (baseline $1,500)	Payback years (range)
DIY small	$50–$300	10–25%	$150–$375	0.1–2.0
Wooden prefab	$150–$800	15–30%	$225–$450	0.3–3.6
Heavy-duty metal	$800–$2,500	25–40%	$375–$600	1.3–6.7
Slow-feed insert	$75–$1,500	20–50%	$300–$750	0.1–5.0
Ring feeder	$200–$2,000	15–30%	$225–$450	0.4–8.9

Shop our recommended feeders: hay feeder | premium hay feeder

Hay Feeders: Maintenance, Cleaning Schedules, Troubleshooting and FAQs

Routine maintenance preserves feeder integrity, limits forage spoilage, and reduces labor associated with cleaning and bale replacements.

A disciplined schedule—covering weekly debris removal, biannual hardware inspections, and annual wood treatment—lowers mold risk, minimizes splintering, and extends feeder service life.

Operational staff should keep a log of inspections, repairs and replacement dates to track component lifespans and spot recurring failure modes.

Rodent-proof storage and feeder design reduce feed loss: store hay in sealed bins or under tarps on raised pallets, remove spill feed promptly, and compost or remove spoiled material to avoid pest attraction.

• Weekly: clean catch pans and remove soiled hay; dry and ventilate feeder area in wet climates.
• Monthly: sweep feeder rims, clear debris, and verify anchor security.
• Quarterly: deep-clean feeder interior, inspect for mold, and check roof flashing and overhang condition.
• Every 6 months: inspect fasteners, brackets and slats for looseness or corrosion; tighten or replace galvanized hardware.
• Annual: treat or seal exposed wood and touch up painted/powder-coated metal surfaces.
• Replace slats and wear bands every 2–5 years depending on visible wear.
• Seasonal (pre-winter): verify drainage, raise floors or add pads to avoid freeze‑thaw wetting.
• Storage actions: stack hay on raised pallets, use sealed bins, and rotate inventory FIFO.
• Waste handling: compost spoiled hay on a managed pile away from feeders; record composted tonnage for waste audits.

Troubleshooting Checklist

• Pawing — Add a trip board or larger pad; increase linear space to reduce frustration.
• Trampling — Raise floor or use ring feeders and concrete/gravel pads to limit ground contact.
• Wet bales — Install 6–12 in roof overhangs or covered feeders; move feeders off low spots.
• Rusted hardware — Replace with galvanized or stainless fasteners and touch-up coatings.
• Sharp edges and splinters — Sand and round edges; cap exposed fasteners with protective covers.
• Excessive access/pull‑out — Fit slow‑feed inserts or narrow slats to restrict large mouthfuls.
• Pest attraction — Remove spilled hay daily, seal storage, set up traps or exclusion barriers.
• Feeder tipping — Add embedded posts or drive‑in anchors with 18–24 in embed depth for stability.
• Q: How to detect mold in fed hay? A: Smell musty odor, look for discoloration and heat; remove and compost suspect bales immediately.
• Q: Best rodent-proof steps? A: Use sealed bins, raised pallets, metal bins for long-term storage and clear spilled feed nightly.
• Q: How often to seal wood? A: Annually for exterior feeders in wet climates; document date in maintenance log.
• Q: Can slow-feed inserts trap moisture? A: They can; allow airflow during cleaning and avoid using wet hay with inserts.
• Q: What is safe disposal for spoiled hay? A: Compost on a managed pile away from livestock or remove to offsite disposal; record volumes.
• Q: How to train staff on inspections? A: Use a short checklist, train in-person on 1–2 cycles, and require sign-off in the maintenance log.

Hay Feeders: Buying Checklist, Top Brands, Accessories and Integration with Systems

Purchasing decisions should balance upfront cost, expected waste reduction and serviceability over the feeder’s lifecycle.

Buyers must compare vendor lead times, shipping and installation costs alongside warranty and spare‑parts support to avoid unexpected downtime.

Modular designs that accept slow‑feed inserts, catch pans and covers simplify multi‑species operations and reduce retrofit expense.

Request product diagrams and measured dimensions from suppliers to verify linear feed space, mounting heights and clearances for the target species before purchase.

• Match capacity to herd intake and intended refill cadence (use lb/day per animal).
• Verify species fit: linear space, mounting height and mouth/slat sizing.
• Select materials and finish (pressure‑treated or cedar, galvanized or powder‑coat metal).
• Confirm ease of cleaning, disassembly and access to catch pans.
• Specify mounting, pad compatibility and anchoring kit requirements.
• Document maintenance needs and expected service life for comparison.
• Review warranty terms, spare parts availability and local service support.
• Run an ROI estimate using measured waste% and regional hay cost.
• Check accessory compatibility (slow‑feed inserts, catch pans, roof options).
• Compare vendor lead times, shipping/installation fees and request product diagrams/dimensions.

Accessory	Function	Estimated cost range
Slow-feed insert	Restricts access to reduce pull‑out and extend bale life	$75–$1,500
Catch pan	Catches drag‑out to prevent floor losses and soiling	$50–$300
Roof / cover	Protects bales from wetting and mold	$150–$1,200
Anchoring kit	Stabilizes feeders against tipping and wind	$30–$200

Final Words

Cut hay loss matters: the guide presented intake figures, annual cost ranges, baseline waste rates, feeder-type comparisons, sizing and placement guidance, materials and maintenance, measurement protocols, DIY plans and ROI case studies.

Investment in properly sized, weatherproof, anchored feeders with routine weigh-before/after audits yields measurable savings; the guest-ranch example reported a 31% hay-cost reduction after switching to a slow-graze feeder.

• Run a 48-hour weigh-before/after test to quantify current waste.
• Size feeders by species intake and linear space guidelines.
• Choose durable finishes, good drainage and secure anchoring to limit soiling.

Hay Feeders: The Complete Guide to Reducing Waste Across Species presents clear, actionable steps and realistic payback math, leaving operators well placed to cut costs and improve forage efficiency.

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FAQ

Q: What are the advantages of metal, covered, large hay feeders for horses?

A:
Metal, covered, large feeders keep bales dry, limit trampling and spoilage.
They suit high‑use horse operations. Typical metal units cost $1,000–$5,000 and last longer.

Q: What feeder types and practices minimize hay waste for cattle, and why do cows waste so much hay?

A:
Containment rings, raised troughs, slow‑feed nets and catch pans reduce trampling and selective pulling.
Cattle waste stems from ground feeding, weather exposure, overcrowding, and unrestricted access.

Q: How many bales of hay per cow are needed for winter or per month?

A:
A 1,200 lb cow consumes about 24–36 lb/day.
Estimate roughly 1.2–1.5 round bales per cow per month for typical pasture‑quality hay, adjusted for season length.

Q: How can goat waste be reduced so they stop wasting hay?

A:
Goats waste by pulling and stepping through hay.
Elevated racks, narrow‑mouth feeders, anti‑entrapment slats and slow‑feed nets limit pull‑through and trampling.

Q: What intake numbers and waste targets should feeders aim for?

A:
Intake guides: horses 15–25 lb/day (1,000 lb), cattle 24–36 lb/day (1,200 lb).
Recommended waste target is under 10–15% with good feeders versus 20–40% for open‑ground feeding.

Q: What savings and ROI can operators expect from switching to slow‑feed or improved feeders?

A:
A documented guest ranch cut hay costs 31% after adopting slow‑graze feeders.
That reduction can recoup mid‑range metal feeder costs within one to a few seasons.