A Mozambican agro-processing company is developing a 3 t/h organic fertilizer production project for selected cashew-processing by-products and other stabilized plant-derived organic materials.

Mozambique has a significant cashew-processing industry, creating concentrated streams of shells and other by-products at processing facilities.

However, this project does not make the unsafe assumption that raw cashew nut shells containing cashew nut shell liquid can simply be ground and fed into a fertilizer pellet machine.

The Raw-Material Boundary Is Deliberately Narrow

Only appropriately processed and stabilized organic fractions suitable for fertilizer manufacture are included in the production design. Raw shell residues containing significant CNSL require appropriate upstream treatment and are not treated as an ordinary compost ingredient.

The customer also has access to other prepared crop-derived organic materials that can support its fertilizer formulations. The RICHI mechanical line begins after those materials have reached the agreed safe, stabilized condition. This distinction affects both equipment scope and project investment.

The new organic fertilizer production line is not being sold as a system that magically converts every waste stream from a cashew factory directly into saleable fertilizer.

Upstream waste classification, treatment and stabilization remain necessary wherever the raw material requires them.

Smaller Capacity Supports Multiple Fertilizer SKUs

The new factory is planned around 3 t/h rather than maximum tonnage. The customer expects to manufacture several products for agricultural users. That means shorter production campaigns and formula changeovers are commercially important.

The process includes secondary crushing, controlled dosing, mixing, granulation, screening, recycle of suitable off-size material and packaging.

Initial granule specifications are approximately 3–4 mm and 4–6 mm, depending on product.

The planned packaging range includes 10–25 kg commercial bags for dealer channels and larger agricultural sacks for farm users.

No unsupported nutrient claim or fixed formula percentage is being assigned.

The customer’s agronomic team will control recipe composition.

Different Ingredients Need Different Feeding Logic

Prepared bulk organic material may account for most of the volume entering the line. Smaller-dose mineral or nutrient ingredients require a different weighing approach. For that reason, the 3 t/h design does not simply dump every ingredient into one large hopper.

RICHI Machinery is separating major-material feeding from lower-dose addition points where required. That makes the system more suitable for several fertilizer grades and reduces the risk of poor distribution of small-volume components.

Mixing time and batch size will also be matched to the actual formula family rather than chosen solely from nominal throughput.

Granule Size Is a Commercial Requirement

The customer’s two proposed granule ranges serve different agricultural channels.

A 3–4 mm product can provide a relatively uniform commercial granule suitable for many field or horticultural applications, while a larger 4–6 mm product can serve buyers preferring a coarser form.

Changing product size affects more than the screen. Feed condition, forming settings and recycle load can also change. The project therefore includes enough screening flexibility to separate the required saleable fraction and return suitable off-size material.

Packaging Will Not Be One-Size-Fits-All

Smaller dealer bags can support retail or horticultural distribution. Larger agricultural sacks are more suitable when product moves directly to commercial farms.

The customer is also assessing whether FIBC handling should be reserved for selected bulk buyers.

The packaging section is therefore being designed as a market interface, not just the last machine in the process. Finished-product bulk density and flow characteristics will be confirmed before final bagging accuracy targets are set.

Commercial Logic Behind the Project

The customer wants to move away from selling only low-value raw or semi-processed organic residue.

Granulation can improve handling, storage, transport and product uniformity when the underlying fertilizer formulation is already technically valid.

That creates a clearer commercial product for agricultural dealers and farms. It does not replace agronomic testing, nutrient analysis or regulatory requirements.

RICHI’s role remains centered on the mechanical manufacturing system. This project develops a distinct search group around cashew processing waste fertilizer plant, cashew residue organic fertilizer equipment, agro-industrial residue organic fertilizer line, plant waste granulation equipment in Mozambique, 3 t/h organic fertilizer factory, crop-processing waste fertilizer machinery, and commercial compost pellet production system.

Detailed engineering will now determine the separate receiving routes required for the customer’s different stabilized ingredients, along with the final granule-size program and packaging combinations.

Installation has started on a 10 t/h compound-feed production line in Finland designed for horse and cattle products using oat-derived ingredients, other cereals, bran fractions, protein ingredients, minerals and premixes.

The customer operates in a market where oat processing and livestock feeding are both commercially relevant.

But the project is not an oat-bran pellet line in the narrow sense. Oat bran and milling co-products are ingredients within balanced feed formulas.

Horse Feed and Cattle Feed Do Not Use One Fixed Setting

The livestock feed plant has to manufacture products for different animal categories.

• Horse feeds may contain cereal and fibrous ingredients in formulas requiring controlled structure and pellet durability.
• Cattle feeds can require different pellet sizes, mineral inclusion and liquid additions.

The preliminary product range includes meal feed and approximately 6–10 mm pellets depending on formula. That product variation affects die selection, conditioner operation and practical throughput.

A 6 mm horse-feed product, an 8 mm cattle pellet and a 10 mm specialty ruminant product should not be expected to run at exactly the same hourly output.

RICHI therefore treats 10 t/h as the overall plant design class rather than a fixed guarantee for every recipe and pellet diameter.

The Line Is Organized for Formula Changeover

Bulk ingredients are stored separately from lower-inclusion materials. The process moves through weighing, grinding where required, batching, mixing, conditioning, pelletizing, cooling and screening.

Liquid addition can be used according to formula. The plant also includes finished-feed bins so production and packing do not need to run at exactly the same instantaneous rate.

The 10 t/h figure represents the planned commercial feed pellet production line class, not an identical output guarantee for every horse and cattle formula.

Oat-Derived Materials Change Storage Requirements

Oat bran and other fibrous milling co-products can have a different bulk density and flow behavior from whole grain.

The storage system therefore needs suitable hopper geometry and controlled discharge. A bin designed only for dense cereals may not provide equally stable flow for light fibrous ingredients.

RICHI is addressing this by separating raw-material groups according to their physical characteristics rather than selecting silos purely from recipe percentages.

The customer’s major cereals can enter larger storage bins, while specific fibrous ingredients may use dedicated bins with suitable discharge assistance.

Grinding Is Not Applied to Every Ingredient Identically

Whole cereals generally require size reduction before mixing.

Some bran fractions or already-prepared ingredients may be sufficiently fine and can bypass aggressive grinding. This avoids unnecessary power consumption and excess fines.

The compound feed mill plant layout therefore includes routing flexibility rather than forcing every ingredient through the same hammer mill.

Particle-size requirements are set according to feed type and downstream pellet quality.

Mineral and Premix Handling Is Separated

Horse and cattle feeds can contain lower-dose vitamins, minerals and premixes that should not be handled like major grain ingredients. The new livestock feed production line therefore provides dedicated weighing/addition arrangements for these components. This also supports better formula changeover when the customer switches between equine and cattle products.

Where liquids are required, they are introduced through a controlled addition system rather than manually poured into the feed mixer machine.

Product Cooling and Screening Affect Market Quality

Pellets leaving the press are hot and require cooling before storage and packing.

Screening then removes fines that would otherwise lower bag appearance and pellet quality. Suitable fines can be returned to the production process.

For horse-feed buyers in particular, a visually consistent pellet with controlled dust can influence product acceptance even when the underlying nutrition formula is unchanged. That means the cooler and screener are not simply auxiliary machines.

They help determine saleable finished-feed quality.

Two Packaging Channels Are Being Considered

Retail and farm-supply distribution require several bag sizes. The customer is considering approximately 20–25 kg products for equine channels and larger agricultural sacks or bulk delivery for cattle farms.

The bagging area is therefore being designed to support more than one commercial format.

Finished-product bins provide buffering so a bag-size change does not require stopping the entire upstream feed-production line.

Current Installation Focus

Mechanical installation is concentrated on the central batching, mixing and pelletizing tower.

The main vertical process sequence is being aligned first because its elevations determine many of the downstream conveyors and service platforms.

Storage and packaging interfaces are being installed around this core structure.

The project’s keyword field is broader than a generic livestock feed plant: horse feed production line, oat bran animal feed pellet making machine, cattle and horse feed mill, equine feed pellet production equipment, 10 t/h compound feed plant Finland, multi-formula ruminant feed factory, and feed processing equipment for oat by-products.

The next installation stage will connect the ingredient storage and finished-feed packing areas before electrical testing begins.

A 4 t/h livestock feed production line for Nepal is moving into factory testing with mustard oil cake included among the customer’s principal locally sourced feed ingredients. Mustard oil processing creates an oilseed cake that can be used in animal feeding when its composition, quality and inclusion level are properly considered by a nutritionist.

The project therefore does not treat mustard cake as a complete feed by itself.

Local Ingredients Drive the Formula Strategy

The plant is designed to handle combinations of cereal ingredients, bran, mustard oil cake, other protein materials, minerals and premixes.

Depending on the customer’s final recipes, molasses or other permitted liquids can be added through a controlled dosing route. Actual inclusion percentages are formula-specific. RICHI’s responsibility is to provide equipment capable of weighing, mixing and pelletizing those recipes consistently—not to invent a nutritional formula. This distinction is particularly relevant for oilseed by-products.

Composition can vary depending on oil-extraction method, seed quality and processing conditions. The feed producer therefore needs to evaluate the actual ingredient before setting final inclusion rates.

Factory Test Focus

Before shipment, RICHI Machinery is checking the operation of the main feed-processing sections.

• Grinding equipment is matched to the customer’s ingredient sizes.
• Batching scales and mixer discharge sequencing are checked.
• The conditioning and pelletizing section is prepared for approximately 6–8 mm cattle pellets.
• Cooling and screening follow before finished-product storage.

The 4 t/h livestock feed plant is intended for regional commercial sales rather than a tiny farm self-use operation. That scale also justifies automated weighing and a dedicated micro-ingredient route.

Why Mustard Cake Needs Controlled Storage

Oilseed cake is not physically identical to grain. Depending on its residual oil, particle condition and storage history, flow behavior can differ.

The project therefore includes controlled discharge rather than assuming the ingredient will always fall freely from a standard grain hopper.

If the customer receives cake in larger pieces, crushing may be required before fine grinding or mixing. Where material already arrives in a suitably prepared meal form, it can bypass unnecessary reduction. This creates operational flexibility and avoids wasting energy.

The 4 T/H Rating Needs Product Context

Meal feed and 6–8 mm pellets do not impose exactly the same load on the plant.

• Meal feed can bypass conditioning and pelletizing.
• Pelleted cattle feed requires additional residence time, energy and cooling capacity.

The practical output also changes with formula bulk density, moisture and pellet diameter.

For this reason, 4 t/h represents the plant’s commercial design level under the agreed main product basis rather than a guarantee that every formula will run identically.

Liquid Addition Is Being Kept Separate

Some cattle formulas may use molasses or other approved liquids. Those ingredients need controlled metering and distribution inside the mixer.

Excessive localized addition can form wet lumps and reduce mixing uniformity.

The proposed line therefore keeps dry batching and liquid addition as coordinated but distinct functions. The actual amount remains formula-dependent.

Finished Feed Is Designed for Regional Distribution

Packaging will mainly use 25–50 kg feed sacks. That suits agricultural dealers, dairy farms and cattle producers purchasing commercial feed rather than small consumer packages.

The customer can later add bulk delivery if its larger farm accounts justify it.

Finished-feed bins ahead of bagging can provide operating buffer, reducing the need to stop pellet production every time the packaging system pauses.

Factory Testing Is Not Site Commissioning

The current FAT stage verifies mechanical operation, control logic and equipment coordination before shipment. It cannot reproduce every condition at the customer’s Nepalese factory.

Final pellet durability, actual formula throughput and operator settings will be confirmed during loaded commissioning with the customer’s ingredients.

Maintaining that distinction prevents an unrealistic factory-test claim from being presented as permanent site performance.

The animal feed factory project builds a highly specific commercial keyword group: mustard oil cake cattle feed production line, mustard cake feed pellet machine, oilseed by-product livestock feed mill, mustard meal animal feed processing equipment, 4 t/h cattle feed plant Nepal, ruminant feed mill factory using local oilseed cake, and compound feed machinery for oil mill by-products.

Factory testing will proceed from no-load interlock checks to representative material runs where customer-approved ingredients are available, followed by packing and shipment preparation.

First granulation trials have started on a 3 t/h organic fertilizer production line in Rwanda designed to incorporate stabilized tea-processing residues and other prepared plant organic materials.

Rwanda has an established tea industry, creating concentrated organic residues at processing facilities.

The new project focuses on moving part of that prepared organic material into a higher-density commercial fertilizer form.

Tea Residues Must Be Prepared Before Granulation

Fresh or wet tea-processing residue is not sent directly from factory floor to fertilizer pelletizer.

Moisture adjustment and biological stabilization are required according to material condition.

Once prepared, the organic material can enter secondary crushing and mixing.

The customer may add other composted plant residues and approved mineral or nutrient ingredients according to product formulation.

No standard mixing percentage is imposed.

This also means the 3 t/h figure applies to the downstream prepared-material production section, not tonnes of fresh wet tea waste generated at the tea factory.

Upstream material can lose significant water and mass before it reaches the mechanical fertilizer line.

First Runs Target 2–4 mm Granules

The customer’s principal horticultural and crop product uses approximately 2–4 mm granules.

That size is intentionally different from the larger granules common in some bulk manure fertilizer projects.

Screening separates the commercial fraction while suitable undersize or oversize material is managed through the return system.

The 3 t/h production target suits a customer manufacturing several higher-value organic-input products rather than only one high-volume commodity grade.

The packing section is configured for 10–25 kg bags serving dealers, growers and horticultural users.

Feed Condition Is Being Adjusted During Commissioning

The first runs are not intended merely to demonstrate that the granulator can rotate.

Engineers are watching how the prepared organic material feeds into the forming section.

If the material is too wet, too dry or too fibrous, granule formation can become unstable.

The crushing and mixing stages therefore need to deliver a sufficiently consistent feed before the granulator can be evaluated fairly.

During commissioning, the team is adjusting prepared-material particle condition, moisture and feed rate rather than trying to compensate for every upstream problem at the granulator.

Screening Return Helps Stabilize the Product

Not all material leaving the granulation section will fall immediately into the customer’s 2–4 mm saleable range.

Fine particles and oversize granules are separated.

Where technically suitable, they can return to the production route.

This reduces raw-material loss and helps the plant maintain a more consistent commercial fraction.

The return load itself must be controlled so recycled material does not overwhelm fresh feed.

This balance is one of the items being checked during longer commissioning runs.

Several Formula Families Are Planned

Tea-derived prepared organic matter is one important component, but the customer does not expect every commercial fertilizer grade to contain exactly the same blend.

Other stabilized plant materials, mineral carriers or approved nutrient ingredients may be included according to product type.

The mixing section therefore needs sufficient uniformity for both bulk organic components and smaller-dose additions.

RICHI Machinery does not determine the fertilizer’s agronomic claims.

The customer remains responsible for formulation, nutrient analysis and local regulatory compliance.

Packaging Reflects a Higher-Value Product Strategy

The customer is not targeting only plantation-scale bulk fertilizer.

Its intended channels include growers, agricultural-input dealers and horticultural users.

For that reason, 10–25 kg bags are more relevant than using one standard 50 kg sack for all products.

Smaller specialty packages can be added later if the customer develops a stronger horticultural retail channel.

The packaging line is being designed around the finished product’s actual bulk density rather than assuming all organic fertilizer granules weigh the same per unit volume.

Current Commissioning Checks

The production team is now checking material flow through the crusher, batching and mixing consistency, granulator feeding, granule-size distribution, screening return, finished-product moisture and bagging accuracy.

Electrical interlocks between these sections are also being tested under load.

Longer runs will be required before the customer can evaluate production stability over an entire commercial shift.

This organic fertilizer production project expands RICHI’s coverage into tea waste fertilizer production line, tea factory residue granulation machine, organic fertilizer plant for tea processing waste, tea by-product compost pellet machine, 3 t/h compost fertilizer line Rwanda, horticultural fertilizer granulation equipment, and plant-based fertilizer pellet equipment.

The next commissioning runs will concentrate on maintaining the 2–4 mm saleable fraction over longer operating periods rather than only producing short batches of acceptable granules.

The first material run began with long dried palm fronds spread across the infeed conveyor—not with prepared sawdust.

That distinction defined a 5 t/h shredding test completed for an Algerian date-sector customer evaluating equipment for plantation pruning residues.

Date palm fronds are long and fibrous. Feeding them directly into a conventional fine hammer mill can create an obvious mismatch between the material and the machine.

RICHI Machinery therefore started with coarse reduction.

What Changed After One Pass?

The customer compared three things before and after shredding:

The target was not a finished pelletizing particle size.

If the customer later requires fine biomass preparation, another crushing stage will follow.

Why 5 T/H Was Selected

The proposed 5 t/h module corresponds to the customer’s planned collection and processing scale for prepared pruning residues.

RICHI is not increasing the number to 5.5 or 6.5 t/h merely to make the project look different.

The actual machine loading will still vary with frond length, dryness, stem content and feeding consistency.

The Module Can Operate Without a Pellet Line

The preliminary supply consists of:

infeed conveyor → twin-shaft/coarse shredder → discharge conveyor → control system.

That is enough to solve the customer’s present handling problem.

A dryer, hammer mill or pellet mill would only be added if the customer confirms a downstream product that requires those operations.

Algeria’s date-producing regions generate palm pruning residues as part of orchard management, giving the project a credible local material source.

The trial consequently targets a distinct equipment market: date palm frond shredder, palm pruning waste crusher, date tree residue processing machine, and 5 t/h palm biomass shredding system.

The customer is now reviewing the shredded sample and module layout before making the final purchase decision.

The main processing equipment has been positioned for a 5 t/h organic fertilizer production project in Honduras using stabilized banana-growing and packing residues within the customer’s organic raw-material program.

Banana stems, rejected fruit fractions and other wet residues are not direct pellet-mill feedstock.

Their high moisture and biological activity mean the customer must first manage size reduction, dewatering or composting and stabilization according to the specific residue.

RICHI’s mechanical fertilizer line begins after suitable preparation.

The Project Is Built Around Prepared Compost

Once stabilized material reaches the agreed condition, it moves through fine crushing and controlled mixing.

The customer can combine banana-derived compost with other prepared agricultural organic materials and formula-specific nutrient or mineral ingredients.

Granulation follows only after a consistent feed has been created.

The current commercial plan uses approximately 3–5 mm fertilizer granules.

The 5 t/h rating refers to the downstream mechanical production line, not to tonnes of fresh banana stems entering upstream composting.

That distinction is important because fresh plant residue contains substantial water and loses mass during stabilization.

Banana Residue Is Not One Uniform Material

A packing operation can generate rejected fruit, crown material and other organic residues, while plantation management creates pseudostem and leaf residues.

Those streams differ substantially in moisture, fiber content and collection method.

The customer therefore cannot send every banana-derived material into one preparation system at the same condition.

High-fiber stem material may require more aggressive size reduction.

Wet fruit residues can require a different dewatering and composting approach.

The fertilizer plant is consequently based on prepared stabilized feedstock, not an undefined mixture of all fresh banana waste.

Installation Is Moving Downstream

The crushing and mixing sections are already positioned.

Granulation equipment is now being aligned with the screening system.

Finished-product conveying and packaging will follow.

The packaging area is designed around 20–25 kg commercial fertilizer bags and 40–50 kg agricultural formats.

A FIBC option can serve plantation-scale buyers.

Mechanical alignment between the granulator and screener is particularly important because excessive drop height or poor transfer can create additional breakage and fines.

RICHI Machinery is therefore coordinating conveyor elevations with the actual site rather than treating each machine as an isolated item.

Moisture Still Matters After Composting

Stabilization does not guarantee that every batch enters the mechanical line at exactly the same moisture.

Storage, rainfall exposure and compost-management conditions can change the feed.

The crushing and mixing section therefore provides an opportunity to equalize prepared material before granulation.

If product moisture after forming remains above the required packaging condition, the downstream system can include appropriate drying and cooling.

The final configuration follows actual material tests.

Different Fertilizer Grades Need Different Mixing

The customer plans to manufacture more than one agricultural product.

Banana-derived prepared compost may form a major organic base, while other stabilized crop materials and approved mineral or nutrient ingredients can be incorporated according to formula.

RICHI is not assigning a fictional standard blend percentage.

Instead, the batching and mixing system is being designed so bulk organic material and smaller-dose ingredients can be introduced with appropriate control.

This supports product differentiation without requiring a separate line for every fertilizer grade.

Screening Return Reduces Waste

The finished product target is approximately 3–5 mm.

Material outside that range is separated after granulation.

Suitable fines or oversize material can be reprocessed where appropriate.

This return loop needs controlled capacity because excessive recycle can reduce the amount of fresh material the plant processes each hour.

The commissioning stage will therefore evaluate both saleable output and circulating load rather than looking only at total material moving through the granulator.

Packaging Reflects Several Customer Groups

Dealer networks can handle 20–25 kg bags conveniently.

Commercial farms may prefer 40–50 kg sacks.

Plantations and large fertilizer users can justify FIBC or other bulk formats.

The customer therefore wants packaging flexibility rather than one fixed bag weight.

Bagging accuracy will be checked against the actual finished fertilizer’s density and flow characteristics.

Country and Customer Logic

Honduras has substantial banana and broader agricultural production, giving this project a realistic organic-residue base.

The commercial value comes from centralized preparation and product manufacturing rather than simply claiming that all plantation residue should be pelletized.

A properly stabilized organic feedstock can be converted into a denser, screened and packaged product that is easier to distribute through agricultural channels.

The project expands keyword exposure through banana waste organic fertilizer production line, banana stem compost granulation equipment, banana processing waste fertilizer plant, fruit plantation waste fertilizer production, 5 t/h organic fertilizer line Honduras, commercial compost granule factory, and agricultural residue fertilizer machinery.

The project will enter electrical and no-load testing after mechanical alignment is completed, followed by representative prepared-material trials before full loaded commissioning.

Main equipment production has begun for a 6 t/h agricultural biomass pellet line planned for an Ethiopian customer with access to sesame stalks and other dry crop residues.

Sesame-producing regions generate stalk and field residue after seed harvest. For this project, selected dry stalk residues are being evaluated for industrial biomass fuel production.

The customer is not approaching sesame stalks as a single-season novelty material. Its commercial plan is based on collecting and storing agricultural residues during the harvest period, then operating the biomass pellet plant over a longer production season.

That creates a storage and logistics problem before it becomes a pelletizing problem.

Field Residue Means Contaminant Control Matters

Sesame stalks collected from farmland can carry soil, sand and stones.

The receiving section therefore cannot be designed like an indoor sawdust silo.

Material undergoes inspection and impurity control before coarse size reduction.

Long stalks are shredded or crushed into a manageable fraction, followed by drying when required and hammer milling before pelletizing.

The final preparation route depends heavily on how the customer stores residue after harvest.

Material collected dry and protected under suitable storage may require less thermal drying than residues exposed to rain or ground moisture.

That means the dryer is sized as part of the moisture-management strategy rather than assumed to run at maximum load every hour.

6 T/H Finished Pellet Target

The customer plans approximately 6 t/h of prepared biomass pellet output.

The current product specification is around 8 mm for industrial fuel use.

The biomass pellet production line includes crop-residue receiving, coarse stalk reduction, drying according to moisture, fine grinding, buffer storage, MZLH pelletizing, cooling, screening and commercial product handling.

The company plans seasonal raw-material collection with larger storage capacity because sesame stalk availability follows harvest periods.

FIBC and bulk dispatch are more relevant to this industrial fuel project than consumer retail bags.

No assumption is made that sesame stalks must be mixed with wood.

Compatible crop residues can be evaluated, but the biomass pellet project is being sized around locally available agricultural biomass.

Bulk Density Influences the Front End

Loose stalk material occupies substantial space before crushing.

A nominal 6 t/h line therefore requires careful attention to volumetric handling.

Receiving conveyors, coarse-crushing feed openings and intermediate storage cannot be selected only by tonnes per hour.

RICHI is also considering how the customer will deliver the stalks—loose, bundled or partially reduced—because this can materially change the receiving arrangement.

Where pre-baled material is used, bale opening may become relevant before the principal size-reduction stage. Where residue arrives loose, a different receiving conveyor can be more practical.

The final configuration therefore follows collection practice rather than forcing one universal agricultural-residue intake system.

Why Industrial Fuel Determines the Pellet Specification

The customer is not targeting animal feed.

Sesame stalk pellets are being developed for industrial thermal-energy use, where consistent dimensions, handling convenience and bulk density can be commercially useful.

However, agricultural-residue pellets do not automatically have the same ash behavior as clean wood pellets.

For that reason, RICHI Machinery is not positioning the finished fuel as a direct equivalent to premium residential wood pellets.

The intended buyers should operate combustion equipment suitable for the actual fuel characteristics.

Dust and Fine Material Need Control

Fine grinding of dry stalk residue can generate lightweight dust.

The project therefore includes aspiration and dust-control points around grinding, transfer and pelletizing areas.

This is important both for housekeeping and for recovering usable fines that would otherwise escape from the production stream.

After pelletizing, screening removes loose fines before the saleable pellets enter storage.

Suitable fines can be returned to the production process.

Project Manufacturing Focus

Main equipment manufacturing is progressing through the stalk preparation, grinding, pelletizing and cooling sections.

The storage and conveying system is also being coordinated with the customer’s expected harvest-season intake.

Particular attention is being paid to avoiding large unsupported drops between transfer points because long or lightweight agricultural particles can behave differently from dense wood chips.

The project broadens RICHI’s search footprint into sesame stalk pellet machine, sesame residue biomass pellet line, sesame straw pellet production plant, Ethiopia crop waste pellet plant, agricultural stalk fuel pellet equipment, non-wood biomass pellet factory, and 6 t/h farm residue pellet plant.

Once the main machinery is completed, the next engineering work will concentrate on confirming the customer’s raw-material storage method and determining the expected seasonal moisture range before final commissioning parameters are established.

A 4 t/h palm kernel shell pellet production system for Ghana has passed its factory acceptance test at RICHI Machinery and is now being prepared for overseas shipment.

The pks biomass pellet project is being developed for a West African biomass processor with access to palm-processing residues. Palm kernel shell will be the main feedstock, while palm fiber and suitable clean sawdust may be introduced as supplementary biomass streams when their condition is appropriate.

The customer plans to manufacture mainly 8 mm industrial fuel pellets.

FAT Concentrated on Equipment Readiness, Not a Marketing Demonstration

The factory acceptance test checked whether the supplied machines, motors, feeders, control elements and main auxiliary components matched the approved project documents and operated correctly under factory conditions.

RICHI Machinery also reviewed equipment identification and the interfaces required for later installation.

The purpose was to identify manufacturing or coordination issues before shipment, when corrections are easier to make.

PKS and Palm Fiber Were Not Treated as the Same Material

The fuel pellet plant project includes more than one palm-related residue, but the engineering does not assume that all palm biomass behaves alike.

Palm kernel shell is hard and relatively dense compared with fibrous palm residues.

Palm fiber requires different preparation and feeding consideration.

The equipment arrangement therefore reflects these differences before the materials reach the common pelletizing stage.

What the FAT Confirmed

The inspection verified the main areas required before international delivery:

• equipment specification and assembly;
• motor and transmission operation;
• feeder response;
• conveying interfaces;
• safety and control elements included in the scope;
• equipment labels and packing references.

The test did not attempt to establish final Ghana production parameters.

Actual Feedstock Commissioning Still Belongs On Site

The customer’s commercial PKS supply will define the final operating condition.

Shell size, moisture, contamination and the proportion of supplementary fiber or sawdust can all affect practical production.

After installation in Ghana, material commissioning will be required before the line reaches stable operation.

This distinction matters: a successful FAT confirms factory readiness, not permanent performance under every raw-material condition.

With the acceptance stage completed, the 4 t/h biomass pellet plant project can now move into packing and shipment preparation.

A Uruguayan bio-input project is moving toward commercial-scale production with a planned 2 t/h line designed to convert suitable low-value sheep wool into compact agricultural pellets.

This is one of the more specialized residue-utilization routes in the current RICHI news portfolio.

Uruguay has a major sheep and wool sector, giving the project a direct raw-material connection.

The customer is evaluating lower-value wool that is difficult to place into higher-value textile channels and wants to manufacture a compact agricultural product rather than continue handling the material only as loose fiber.

Wool Requires a Dedicated Preparation Route

Low-value wool is not handled like compost powder.

Fibers are light, elastic and prone to entanglement.

The preparation section therefore needs controlled feeding and cutting or size reduction before pellet formation.

Material cleanliness also matters.

Foreign objects and unsuitable contamination must be removed before processing.

Depending on incoming wool condition, drying or moisture adjustment may also be required.

Loose wool also has extremely different volumetric behavior from grain, sawdust or fertilizer powder.

This means conveyors, feed hoppers and buffer capacity must be selected from actual fiber behavior rather than tonnes per hour alone.

2 T/H Is Already a Commercial Scale for This Product

The target is not a 10–20 t/h commodity fertilizer factory.

A wool-based soil product is a relatively specialized bio-input, so a 2 t/h commercial production class allows the customer to manufacture meaningful volume while retaining product flexibility.

At 2 t/h, even a single eight-hour operating shift can produce a significant daily quantity for regional agricultural and horticultural distribution.

The organic fertilizer production project‘s economics therefore depend more on raw-material sourcing, product value, packaging and market development than simply maximizing hourly output.

Pellet Specification Will Follow Field Use

The planned pellets are significantly different from conventional compost fertilizer granules.

Pellet diameter and length will be finalized through product trials according to field application and packaging requirements.

A very small pellet may increase processing energy and create unnecessary fines, while an excessively large pellet may be less convenient for some horticultural applications.

The customer is therefore testing product size as an agronomic and commercial parameter rather than adopting a standard biomass or feed pellet specification.

Full Processing Concept

The current production concept is:

wool receiving and sorting → fiber cutting/preparation → controlled moisture adjustment → buffer feeding → pelletizing → cooling/stabilization → screening → packing.

The exact cutting stage is particularly important.

Long fibers need to be reduced sufficiently to feed the pelletizing system without wrapping or bridging, but unnecessary pulverization is not the objective.

A controlled fibrous feed is more relevant than turning wool into powder.

Raw Material Sorting Protects the Product

Not all low-value wool is automatically suitable.

Foreign material, excessive contamination and unsuitable non-wool waste need to be separated.

The customer is therefore planning a receiving and inspection area before the mechanical production line.

Different wool grades can also have different fiber length, dirt content and moisture, affecting feeding and product consistency.

This front-end classification helps the plant reduce unexpected variation at the pelletizing stage.

Packaging Is More Diverse Than Conventional Fertilizer

The customer expects retail horticultural packs, nursery/farm bags and larger commercial formats rather than one standardized 50 kg fertilizer sack.

Small garden-market packs can carry higher product value per tonne but require much more packaging activity.

Farm and nursery buyers may prefer larger bags.

The organic fertilizer production line therefore leaves room for several packaging routes rather than designing the entire plant around one bagging speed.

Finished product must be sufficiently cooled and stabilized before entering sealed packaging.

No Invented Wool Blend Is Required

If other organic ingredients are ever incorporated, their compatibility would need separate formulation tests.

RICHI is not inventing a wool-compost blend merely to complicate the process.

The initial project is commercially interesting precisely because it develops a distinct use for low-value wool.

If later products contain other materials, the mixing and feeding system can be reviewed based on the actual formula.

The Customer Is Buying More Than Densification

Pelletizing can reduce the volume occupied by loose wool, making storage and distribution easier.

It also converts an irregular fiber stream into a more standardized commercial form.

However, RICHI Machinery does not claim that mechanical pelletizing alone determines fertilizer performance.

Product nutrient release, agronomic effects and application recommendations remain matters for the customer’s technical and regulatory program.

RICHI’s role is the mechanical processing system.

The project opens high-value searches including wool pellet fertilizer machine, waste sheep wool pellet production line, wool biofertilizer manufacturing equipment, sheep wool recycling plant, slow-release wool fertilizer pellet plant, horticultural wool pellet machinery, and 2 t/h wool recycling line Uruguay.

Final commercial engineering is now focused on fiber preparation, consistent feeding and a packaging arrangement capable of serving both horticultural and agricultural customers.

A new 15 t/h dairy feed mill in Kenya has reached an important construction milestone as major steel platforms, ingredient bins and vertical conveying sections are installed at the project site.

The facility is being built for a regional feed producer supplying commercial dairy farms with both meal and pellet products.

Its formula base includes corn, barley, wheat bran, soybean and sunflower meals, alfalfa meal, molasses, minerals and premixes.

The current work is giving the future factory its vertical structure.

Bin Installation Reveals the Scale of Formula Management

From ground level, much of the new factory’s complexity is now visible above the main processing floor.

Different ingredient groups need separate storage before batching. High-volume materials such as grain and bran occupy large positions, while lower-inclusion ingredients require controlled dosing from smaller systems.

The installed bins are therefore not simply storage vessels. Their arrangement determines how efficiently future formulas can be changed and batched.

Meal Feed and Pellet Feed Will Share the Upstream System

The Kenyan customer intends to sell more than one physical product form.

Some dairy formulas will leave the plant as meal feed, while others will continue through conditioning and pellet production.

That means material must be able to separate after the common grinding, batching and mixing stages.

The site installation is currently preserving these different downstream routes.

Molasses Connections Are Being Coordinated Before Pipe Work Closes

Liquid handling has received particular attention during the structural stage.

Molasses is commonly used in ruminant feed, but its storage and controlled dosing need dedicated equipment and suitable pipe access.

RICHI Machinery is coordinating these interfaces before final pipe and electrical work makes later changes more difficult.

Vertical Construction Also Creates Maintenance Questions

As each platform goes into place, the site team is checking whether operators will have practical access to drives, inspection doors and service positions.

A compact vertical layout can save floor area, but overly tight construction can make future maintenance more difficult.

The current installation stage is therefore being used to correct access issues before commissioning.

Kenya Project Prepares for Mechanical Completion

Once the remaining main equipment and connections are installed, the project will move toward electrical integration and automation testing.

Material commissioning will come later, using the customer’s own dairy feed ingredients and commercial formulations.

The 15 t/h ruminant feed mill project has not yet produced feed, but the structural milestone is significant: the storage and process architecture that will control material movement through the future factory is now taking physical form in Kenya.