10–12 T/H Animal Feed Grinding Machine in Canada

Why This Project Belongs in a Commercial Feed Plant, Not an 800-Head Farm

An SFSP66×80 with reference grain output around 10–12 T/H would be substantially oversized for an 800-head beef farm producing only its own daily ration.

The Alberta customer is therefore a regional feed manufacturer supplying multiple cattle operations rather than a single medium-sized ranch.

The mill produces cattle concentrates and pelleted supplements in scheduled campaigns. During busy periods, several formulations may pass through the grinding and mixing sections in one shift, making a 10–12 T/H grain grinder commercially reasonable.

This customer profile also explains why a standalone replacement made sense. Storage bins, ingredient dosing, mixers, pellet mills, coolers and finished-feed handling equipment were still serviceable. Replacing the grinder removed one production bottleneck without rebuilding equipment that did not need to be replaced.

Barley, Not Corn, Drives the Alberta Grinding Requirement

The customer processes several cereal ingredients, but barley is the most important grain in this project.

Alberta cattle feeding has a strong barley base, particularly in western Canadian beef production. Wheat and corn can also enter formulations according to price, nutrient specification and availability, while canola meal, distillers grains and other protein or by-product ingredients can be incorporated downstream during batching and mixing.

The grinder therefore had to perform consistently on barley rather than being specified mainly around corn.

This matters because barley kernels need adequate processing to expose the starch, but excessive grinding produces fines that ferment rapidly in the rumen. The customer wanted controlled particle reduction, not the finest possible meal.

SFSP66×80 Configuration for the Alberta Feed Mill

The 10–12 T/H value is treated as reference capacity for suitable grain rather than a guaranteed output for every ingredient.

Actual throughput changes with grain type, kernel hardness, moisture, screen opening, hammer condition, feeding rate and the target particle-size distribution.

The Customer Does Not Grind Alfalfa Hay through This Machine

The original concept combined grain, alfalfa hay and other fibrous ingredients under one grinder.

That would make the application unnecessarily confusing.

Long-stem hay and forage have very different feeding characteristics from cereal grain. When the customer uses chopped forage or fibre ingredients in a product, those materials are prepared through equipment suited to fibrous feedstocks before entering the batching section.

The SFSP66×80 remains dedicated primarily to dry grain grinding.

This separation improves grinder stability and prevents long fibres from interfering with the feeding and screen system.

Canola Meal Usually Does Not Need the Same Grinding Treatment as Whole Grain

Canola meal is an important western Canadian protein ingredient, but commercially produced meal already arrives in a processed form.

The customer therefore does not automatically send canola meal through the SFSP66×80 merely because it appears in a cattle formulation.

Depending on its physical condition and the finished-feed specification, it can move directly to ingredient storage and batching.

The hammer mill is used where actual size reduction creates value.

Grinding Cattle Grain Is Not a Race to Make the Smallest Particle

The customer initially asked for a narrow 2.5–4 mm finished range.

In practice, cattle-grain processing is better controlled by evaluating the whole particle distribution and the percentage of fines rather than forcing every particle into one exact millimetre band.

Barley that is ground too aggressively can create excessive fine material. That increases the rate at which starch becomes available in the rumen and can contribute to digestive problems when high-grain diets are not managed correctly.

Under-processing is also undesirable because intact or insufficiently opened kernels can reduce utilization.

The plant therefore uses screen selection and routine sampling to find a workable balance.

Why Hammer Milling Was Still Appropriate Even Though Alberta Feedlots Often Roll Barley

Dry rolling is widely used for feedlot barley because the objective is often to crack kernels while minimizing fines.

This customer’s process is different.

The mill manufactures compound and pelleted cattle feeds. For a pelletized product, ingredients eventually need a sufficiently controlled particle size for batching, mixing, conditioning and ring-die pelleting.

A hammer mill therefore makes sense inside this feed-manufacturing process even though a feedlot feeding processed barley directly in a TMR might prefer a roller mill.

The customer selected equipment according to the final feed process rather than assuming one grain-processing technology is best for every Canadian cattle operation.

Screen Selection Is Product-Specific

The SFSP66×80 uses replaceable screens to control the maximum material able to leave the grinding chamber.

The mill does not operate with one screen for every formulation.

A cattle concentrate destined for pelleting can require different grinding conditions from a coarser meal product. Wheat, barley and corn also respond differently to the same screen because kernel structure and hardness differ.

Operators therefore maintain several approved screen specifications and change them according to production schedule.

Screen selection is recorded with each major formulation so that a successful product can be reproduced rather than relying on operator memory.

Grain Moisture Is Monitored before Grinding

The machine is designed primarily for dry feed ingredients.

It is not promoted as a grinder for unrestricted “high-moisture grain.”

High-moisture corn or other wet grain requires different storage and processing considerations. Feeding excessively wet material into a screen-type hammer mill can reduce capacity, increase screen loading and create material buildup.

The Alberta customer therefore checks incoming grain moisture as part of receiving quality control.

Loads outside the mill’s normal specification are managed separately rather than forcing the hammer mill to compensate.

Grain Quality Starts before the Hammer Mill

Processing performance depends heavily on what arrives at the plant.

The customer checks grain not only for moisture but also for test weight, foreign material and visible quality problems.

Where risk warrants it, grain is also screened for mycotoxin contamination.

A grinder can change particle size. It cannot improve nutrient quality or make contaminated grain safe.

This receiving discipline is particularly important because variation in kernel size and density can also change grinding behavior and actual tonnes per hour.

Magnetic Protection Was Retained Ahead of the Grinder

Feed grain can occasionally contain metal contamination from handling, storage or transport equipment.

The existing feed plant already used magnetic protection ahead of key processing machines, and that system was retained when the SFSP66×80 was installed.

Removing ferrous material before it reaches the high-speed rotor protects hammers, screens and other internal components.

It also reduces the risk of a small contaminant creating a much larger mechanical failure.

Stable Feeding Has a Direct Effect on Grinding Quality

A 110 kW hammer mill should not alternate between running nearly empty and receiving sudden surges of grain.

The upstream feeding section was therefore checked during the retrofit.

Consistent feed rate keeps rotor loading more stable and helps maintain a repeatable particle-size distribution.

If the feeder pushes grain too rapidly, motor load rises and the chamber can become overloaded. If feeding is too slow, the machine operates below its useful capacity and energy consumption per tonne can increase.

Aspiration Is Part of the Grinding System

The hammer mill is connected to an aspiration system that helps move air through the grinding chamber and control dust around the discharge.

Correct airflow can also support material movement through the screen and reduce unnecessary recirculation inside the chamber.

The plant therefore reviewed ducting, cyclone or filter capacity and pressure conditions at the same time as the grinder replacement.

A large hammer mill cannot deliver stable performance if its aspiration system is seriously undersized.

Dust Is Controlled, Not Claimed to Disappear

Grinding grain inherently creates fine particles.

The objective is to capture airborne dust and avoid producing more nutritional fines than the feed specification requires.

Those are two different issues.

Dust extraction protects the working environment. Correct screen size and processing intensity control the amount of very fine grain entering the feed.

The customer monitors both rather than claiming that a new grinder produces “almost no dust.”

The Grinder Does Not Produce the Complete TMR

Once grain leaves the SFSP66×80, it moves to the plant’s batching and mixing section.

Protein ingredients, mineral sources, vitamins and other formulation components are added according to the required cattle-feed specification.

For pelleted feeds, the mixed meal continues to conditioning and pelletizing before cooling and screening.

On the farm, those concentrates can later be combined with silage, hay or other roughage as part of the producer’s complete feeding program.

The grinder therefore prepares one component of the feed system; it does not manufacture a complete cattle TMR by itself.

Why the Old Grinder Was Replaced instead of Rebuilt Again

The previous machine had been repaired repeatedly.

Individual repairs were inexpensive compared with buying a new hammer mill, but the cumulative effect became harder to justify as unscheduled downtime increased.

The customer’s concern was not one catastrophic failure.

It was the gradual loss of predictability: output changed with wear, screen replacement became more frequent and production planning had to allow extra time for the grinding section.

The SFSP66×80 was purchased when the cost of unreliable production became more important than extracting another season from the older machine.

Installation Had to Match the Existing 10–12 T/H Process

The animal feed grinding machine was not evaluated in isolation.

RICHI reviewed the capacity of the upstream grain feeder and the downstream conveyor or elevator receiving the ground material.

If either side could move only 7 T/H, installing a nominal 10–12 T/H grinder would not make the plant a 12 T/H system.

Discharge elevation, duct connections, motor position and maintenance access were also checked before installation.

This reduced the amount of modification required after the equipment reached Canada.

The 110 kW Motor Required Proper Electrical Planning

A 110 kW industrial grinder places very different demands on the electrical system from a small farm hammer mill.

Before shipment, the customer confirmed its three-phase supply, voltage and 60 Hz frequency along with transformer capacity, starter arrangement, cable sizing and motor protection.

The machine was configured for the customer’s actual electrical conditions rather than described simply as “Canadian voltage.”

This was particularly important because starting current and plant load have to be considered alongside normal operating power.

Canadian Winter Conditions Affect Storage More Than the Grinding Chamber

The machine itself operates indoors.

The bigger seasonal issue is maintaining suitable ingredient condition when outside temperatures fluctuate sharply.

Condensation can become a problem when cold grain and warmer indoor air interact, especially around bins and conveying equipment.

The customer therefore manages ventilation, grain condition and indoor housekeeping rather than relying on special “anti-corrosion Canadian steel” as the primary winter solution.

Standard preventive maintenance remains more important than marketing the grinder as climate-specific.

What the Production Team Watches during Operation

The customer does not evaluate the SFSP66×80 only by hourly tonnage.

Operators track main-motor load, feed rate, screen condition, hammer wear and representative particle-size samples.

A reduction in capacity can mean worn hammers, blocked screen area, wetter grain or a change in incoming kernel characteristics.

An increase in fines can indicate excessive hammer wear patterns, inappropriate screen selection or overly aggressive processing.

Keeping those observations together makes troubleshooting faster than changing one component at random.

What the Customer Valued after the Replacement

“The biggest difference is that we can plan production around the grinder again. We are not trying to make the grain as fine as possible; we are trying to reproduce the same processing result from batch to batch. Once we matched the screen, feeder and aspiration settings to our barley-based products, the grinding section became much more predictable.”

The maintenance team also moved toward condition-based inspection.

Hammers are checked for wear and balance, screens for damaged or enlarged openings, bearings for abnormal temperature or vibration, and the aspiration system for accumulation that could restrict airflow.

Shipping from Qingdao to Western Canada

The SFSP66×80 animal feed crusher machine was exported from Qingdao Port to the west coast of Canada and then transported inland to Alberta.

For an Alberta project, Vancouver is a practical marine gateway when the confirmed freight schedule and inland arrangement support that route.

RICHI provided equipment dimensions, weight information, electrical drawings, installation interfaces and foundation requirements before shipment so the customer could prepare the replacement position before arrival.

No fixed transit or customs-clearance time was written into the project because those figures change with carrier schedules and port conditions.

The Feed Mill Did Not Need a Pelletizer Next Just because It Bought a Grinder

The customer already had the downstream processing equipment needed for its existing feed products.

There was therefore no automatic “next purchase” of a feed pellet mill or batching system included in the case.

Future investment will depend on which process becomes the next capacity or reliability constraint.

If mixing, pelleting, cooling or storage eventually limits the plant, that section can be evaluated separately rather than adding equipment simply to create an expansion story.

Animal Feed Grinding Machine in Canada for an Alberta Compound Feed Mill

This animal feed grinding machine in Canada project is a commercial grain-processing retrofit rather than an 800-head cattle farm trying to operate a 110 kW industrial hammer mill.

The Alberta customer uses one SFSP66×80 with a 660 mm rotor, 800 mm grinding-chamber width, 110 kW main motor and approximately 10–12 T/H reference capacity on suitable grain. Barley is the principal feed grain, with wheat and corn incorporated according to formulation and procurement conditions.

The machine is dedicated primarily to dry cereal grinding. Long hay is prepared separately, canola meal is not automatically re-ground, and high-moisture grain is not forced through a conventional screen hammer mill simply to demonstrate material versatility.

For another customer evaluating an animal feed grinding machine in Canada, RICHI Machinery would first determine whether the operation is an individual farm or commercial feed mill, which grains are being processed, required tonnes per hour, final feed type, preferred processing intensity, acceptable fines level, grain moisture, existing feeder and aspiration system, downstream mixer capacity, electrical supply and available installation space before confirming the grinder model.

That distinction is particularly important for Canadian beef operations. If the objective is simply to crack barley for direct feedlot use, a roller mill may be the better processing technology. If the grain must be reduced for compound or pelleted feed manufacturing at commercial throughput, an SFSP hammer mill can be the more appropriate choice.