COMPANY | NIRUDI.COM

Unlock the Full Potential of Your Honey Production with This Turnkey Line

Sector

MACHINERY FOR FOOD INDUSTRY ➠ MACHINERY AND EQUIPMENT FOR HONEY PRODUCTION ➠ BEE PRODUCTS PROCESSING MACHINE

Denomination or Username

NIRUDI - [Eco Sustainable Digital B2B - B2C ePlatform Tool]

Type of user

COMPANY

Size of the company

1-10

Country

Spain

Description

? Unlock the Full Potential of Your Honey Production with This Turnkey Line!

Are you a honey producer looking to scale up your business?
Are you an investor seeking a profitable agro-processing opportunity?
This fully automated honey processing and packaging line is designed for efficiency, hygiene, and high market value – from hive to shelf-ready jars.

? Step-by-Step Process Included in the Line:

1 Honey Squeezer: Gently extracts raw honey from the comb without damaging wax quality.

2 Honey Melting Pool: Uniformly melts solidified honey at controlled temperatures.

3 Honey Refining Machine: Removes impurities, wax residues, and bubbles to deliver crystal-clear, premium honey.

4 Storage Tank: Food-grade stainless steel tank for hygienic and temperature-controlled intermediate storage.

5 Bottle Washing Machine: Cleans glass or plastic containers before filling.

6 Drying & Sterilizing Machine: Ensures bottle hygiene and extends shelf life of final product.

7 Filling Machine: Precise, non-drip technology for smooth, accurate honey filling.

8 Packing Line: Includes coding, labeling, capping, and sealing for retail-ready packaging.

? Key Advantages:

Boost production capacity while maintaining artisanal quality

Full traceability and compliance with international food safety standards (HACCP, ISO)

Suitable for export markets, organic certifications, and brand expansion

? Ideal for:

Beekeepers cooperatives

SME honey brands

Export-focused agri-businesses

Government & NGO agricultural support projects

? Request a Proposal Today
We'll send you:

? Technical layout & capacity options

? Budget estimate & ROI projections

? List of deliverables (manuals, certifications, training)

? Optional spare parts and maintenance plans

? Contact us now to request your personalized quotation and build your honey success story!

For more information:: ? : Contact Us

Fully Integrated Dumpling Production Line – From Flour to Finished Dumplings

Sector

TURNKEY FOOD INDUSTRY PROJECT ➠ COMPLETE SNACK PRODUCTION LINE

Denomination or Username

NIRUDI - [Eco Sustainable Digital B2B - B2C ePlatform Tool]

Type of user

COMPANY

Size of the company

1-10

Country

Spain

Video Gallery

Description

? Fully Integrated Dumpling Production Line – From Flour to Finished Dumplings

? Streamline your dumpling production with this compact, high-efficiency, stainless steel equipment line – engineered to transform raw flour into beautifully shaped dumplings ready for packaging and distribution. Whether you're a food entrepreneur, catering business, or looking to scale up production, this turnkey solution offers industrial-grade reliability, hygiene, and profitability.

✅ Complete Line Includes:

1️⃣ Powder Grinder Machine

Converts grains or pre-dried raw ingredients into fine flour.

Durable stainless steel grinding discs ensure consistent particle size.

Ideal for wheat, rice, or composite flours used in dumpling wrappers.

2️⃣ Dough Kneading Machine

Automatically mixes and kneads flour and water into uniform, elastic dough.

Programmable settings for hydration levels, mixing time, and texture control.

Food-grade components for hygienic operation and easy cleaning.

3️⃣ Dumpling Making Machine

Precision dual-hopper system for dough and filling.

Forms, presses, and seals dumplings at high speed with consistent shape and weight.

Adjustable size and output rate for different dumpling styles (Chinese, gyoza, samosa, etc.).

? Key Features & Advantages:

High Output: Scalable to commercial production needs (hundreds to thousands per hour).

Compact Footprint: Easily fits into small and medium-sized food factories or kitchens.

Hygienic Design: Made entirely of SUS304 stainless steel, easy to clean and sanitize.

Energy Efficient: Optimized for low power consumption and minimal labor input.

CE Certified Components: For international compliance and export readiness.

? Investment Opportunity:

This fully automated line is ideal for:

SMEs launching packaged frozen dumpling brands.

Hotels/restaurants expanding in-house frozen or ready-to-cook product offerings.

Export-focused agri-food businesses in emerging markets.

Food-tech startups looking to innovate in plant-based or functional dumplings.

? Ready to Upgrade Your Food Production?

? Request the detailed technical catalog, pricing options, and ROI models tailored to your country or region.

For more information:: ? : Contact Us

Transformez les plantes aromatiques en or liquide avec cette ligne complète d’huiles essentielles !

Sector

MACHINERY FOR FOOD INDUSTRY ➠ OTHER MACHINES FOR FOOD INDUSTRY ➠ ESSENTIAL OIL DISTILLER

Denomination or Username

NIRUDI - [Eco Sustainable Digital B2B - B2C ePlatform Tool]

Type of user

COMPANY

Size of the company

1-10

Country

Spain

Video Gallery

Description

? Transformez les plantes aromatiques en or liquide avec cette ligne complète d’huiles essentielles ! ??

Vous cherchez à valoriser vos matières premières naturelles (citron, eucalyptus, lavande, etc.) et à produire des huiles essentielles de haute qualité ?

? Cette ligne de production clé en main est conçue pour vous offrir un processus simple, rapide et rentable, de la matière brute jusqu’au produit fini en flacon.

? Étape 1 – Lavage à bulles haute efficacité
La Bubble Cleaning Machine garantit un nettoyage en douceur mais complet des fruits, herbes ou plantes aromatiques, éliminant impuretés, poussières et résidus sans endommager les matières.

? Étape 2 – Extraction par distillation vapeur
Le cœur de la ligne : une Essential Oil Distillation Extraction Machine dotée de technologies de chauffage avancées et d’un condenseur optimisé pour une extraction rapide, pure et aromatiquement stable.
✔️ Extraction douce
✔️ Rendement maximisé
✔️ Respect des actifs naturels

? Étape 3 – Remplissage automatique en flacons
La Liquid Filling Machine automatise le dosage, le bouchage et l’étiquetage des flacons.
Idéal pour huiles essentielles, hydrolats, extraits botaniques.
Formats de 10 ml à 100 ml disponibles.

? Pourquoi investir dans cette ligne ?

✅ Faible coût opérationnel
✅ Facilité d’utilisation (formation incluse)
✅ Compacte et modulable
✅ Convient aussi bien pour les PME, coopératives agricoles ou projets d’exportation

? Le marché mondial des huiles essentielles dépassera 20 milliards USD d’ici 2030.
Saisissez votre part dès aujourd’hui !

? Contactez-nous pour recevoir le catalogue détaillé, devis, options de personnalisation et délais de livraison.

For more information:: ? : Contact Us

Turnkey Peanut Oil Production Plant Project (1 TPH Capacity)

Sector

EDIBLE OIL INDUSTRY ➠ TURNKEY PROJECT

Denomination or Username

NIRUDI - [Eco Sustainable Digital B2B - B2C ePlatform Tool]

Type of user

COMPANY

Size of the company

1-10

Country

Spain

Video Gallery

Description

? Comprehensive Turnkey Proposal – 1 TPH Peanut Oil Production Plant

Scope: Turnkey delivery—from engineering and procurement to installation, commissioning, training, warranties, and performance guarantees—converting raw in-shell peanuts into refined, bottled edible oil and saleable by-products.

Capacity: 1 TPH raw peanuts → 0.40–0.45 TPH refined oil (typical oil yield 40–45%), 0.50–0.55 TPH press cake.

Economics (indicative): CAPEX (Capital Expenditure) $255k–$370k; OPEX (Operating Expenditure, ex-peanuts) $90–$147 per ton of peanuts; ROI (Return on Investment) 25–35%+; payback 2.5–4 years, driven by oil price, peanut cost, and cake valuation.

Edge: Automated controls (PLC = Programmable Logic Controller, SCADA = Supervisory Control And Data Acquisition), energy-efficient drive systems (VFD = Variable Frequency Drive), rigorous QA/QC, and ESG-positive by-product valorization.

1.0 Detailed Process Flow & Equipment Specification

Design philosophy: continuous, closed-loop, hygienic; minimal human intervention; maximum yield and uptime.

1.1 Raw Material Pre-Cleaning & Storage

Equipment: Vibratory sieve with aspiration hood; magnetic trap; receiving hopper; bag/tote dump.

Purpose: Remove stones, metal fragments, dust, and FM (Foreign Materials) to protect downstream assets.

Storage: Dry, ventilated, rodent-proof room; RH < 65%, temperature < 25 °C; FIFO racking.

KPIs: foreign matter < 0.2%; breakage < 1% during handling.

1.2 Shelling (Decortication)

Equipment: Automated cascading sheller with adjustable rubber rollers; aspiration columns; vibratory graders.

Outputs: Kernels, husk, middlings (recycle to sheller).

By-product use: Husk → biomass boiler fuel or pelletizing.

KPIs: shelling efficiency >98%; kernel breakage <2%.

1.3 Kernel Roasting

Equipment: Indirectly heated rotary drum roaster; PID temperature control via PLC; moisture probe at discharge.

Set-points: 110–130 °C, residence 20–35 min; discharge moisture 3–4%.

Benefits: promotes Maillard flavor, coagulates proteins, lowers press power/viscosity → higher oil yield.

1.4 Peeling (Testa Removal)

Equipment: Abrasive peeler; product cooler; cyclone + aspiration.

Target: >95% testa removal; skins collected for animal feed premix or fuel.

1.5 Oil Pressing (Mechanical Extraction)

Equipment: Heavy-duty continuous screw press/expeller with pre-heater, choke cone, wear-resistant cage/screw, torque monitoring.

Operating window: barrel temp 90–110 °C, pressure up to 850–1100 bar (localized), feed moisture 3–4%.

Outputs: Crude peanut oil (to hot tank) + press cake (~50–55% of input).

Option: Second-stage press for +1–2% oil recovery; or low-capex mini solvent extractor add-on (hexane) for premium yield (requires ATEX compliance—see §10).

1.6 Crude Oil Clarification & Filtration

Train: Vibrating scalper screen → heated balance tank → plate & frame filter press (food-grade cloth) or pressure leaf filter (upgrade).

Goal: solids < 100 ppm before refining; free moisture < 0.1%.

1.7 Refining (Semi-Automatic Batch)

Degumming: water/acid hydration to remove phospholipids.

Neutralization (Chemical) or Deacidification (Physical) depending on FFA (Free Fatty Acids) baseline.

Bleaching: activated earth under vacuum; dosage 0.5–1.5% (oil quality dependent).

Deodorization: high-vacuum steam stripping 210–240 °C; vacuum < 3 mbar; residence 30–90 min.

Cooling & polishing filter to final storage.

Refined Oil Specs (targets): FFA ≤0.1% as oleic, Peroxide Value ≤5 meq O₂/kg, Moisture & volatiles ≤0.1%, Insolubles ≤0.05%, color Lovibond ≤1.5R 20Y (or Gardner equivalent).

1.8 Filling & Packaging

Equipment: 4-head piston or mass-flow filler, rinser, capper, labeler, date coder; conveyors; checkweigher; case pack (manual/auto).

Formats: 200 mL–5 L PET/HDPE/glass; nitrogen flush optional for shelf-life.

Throughput example: with 1 TPH peanuts and 42% yield → ~420 kg/h oil ≈ ~460 L/h (ρ≈0.91 kg/L).

1 L SKU: ~460 bph single lane; scalable to 900–1,200 bph with starwheel or 8-head filler.

2.0 Utility Consumption, Sizing & Daily Loads (per ton of peanuts)

Utility	Range	Notes & Typical Sizing
Electricity	55–70 kWh/t	Installed connected load ~90–120 kW (press 30–40 kW, drives, pumps, fans). Daily at 10 t/day → 550–700 kWh
Process Water	0.8–1.5 m³/t	For refining washes + boiler make-up. Day load at 10 t/day → 8–15 m³
Thermal Energy	900–1,200 MJ/t	Thermal oil heater 350–500 kW or steam boiler 0.2–0.3 t/h @ 8–10 bar
Compressed Air	5–10 Nm³/t	Screw compressor 3–5.5 kW, receiver 500–1,000 L, dryer to -20 °C PDP

CIP (Clean-In-Place) skids: 3× 1,000 L tanks (caustic, hot water, rinse) with return pump and heat exchanger.

3.0 Plant Layout & Facility Requirements

Covered area: ~500–600 m²; clear height > 5.5 m; flow left-to-right to avoid cross-contamination.

Zone 1 – Raw & Packaging Store (150 m²): receiving, pre-cleaning, racking (FM control).

Zone 2 – Processing Hall (200 m²): sheller, roaster, peeler, press; epoxy floor, trench drains, high-volume ventilation.

Zone 3 – Refining & Filling Suite (100 m²): temperature-controlled, positive pressure, smooth wall finishes; segregated from roasting smells.

Zone 4 – Utilities (50 m²): boiler/thermal oil skid, MCC/electricals, compressor, water treatment, vacuum system.

Zone 5 – Finished Goods & Dispatch (100 m²): pallet racks, shaded dock; FIFO.

Hygiene: GMP zoning, pest control program, allergen management, HACCP plan with CCPs (Critical Control Points) at metal detection and deodorization.

4.0 CAPEX (USD, order-of-magnitude)

Phase	Description	Estimate	Scope
1	Pre-Project & Design	$20–30k	Site survey, P&IDs (Piping & Instrumentation Diagrams), GA (General Arrangement) drawings, project controls
2	Equipment & Installation	$200–280k	All machines, structures, piping, electricals, PLC/SCADA, commissioning
3	Contingencies & Working Capital	$35–60k	12–15% contingency; first fills (chemicals, filter media); 1–2 months operating float
	Total Estimated CAPEX	$255–370k	Firm fixed price after data-book validation

Exclusions typically: taxes/duties, land/building, major civil works beyond foundations, grid upgrades, local approvals.

5.0 OPEX Snapshot (per ton of peanuts, excl. peanut cost)

Cost Center	USD/t	Notes
Utilities	15–22	Power, fuel, water
Labor (3-shift)	20–30	2–3 ops/shift + supervisor
Maintenance & Spares	10–15	Preventive program, lubricants
Packaging	25–50	Bottle, cap, label, carton
Chemicals & Consumables	8–12	Bleaching earth, caustic, citric, filter cloths
Admin/QA/QC	12–18	Lab, insurance, overhead
Total	90–147	Excludes peanuts

Per-liter lens: at 42% yield and 0.91 kg/L → ~2.38 t peanuts → 1,000 L oil; OPEX (ex-peanuts) ~$214–$350 per 1,000 L.

6.0 Mass Balance Example (typical)

Feed: 1,000 kg peanuts at 8% moisture →

Refined oil: 420 kg (~462 L)

Press cake: 540 kg (48–50% protein basis; valuable feed)

Losses & process rejects: ~40 kg (fines, gums, moisture, volatiles)

Neutralization chemistry (illustrative): For crude oil FFA 1.5% as oleic → NaOH 12–16 °Bé dose ≈ 7–9 kg/ton oil, producing soapstock (settled & recovered).

7.0 Product & QA/QC Specifications

Refined peanut oil: FFA ≤ 0.1%, PV (Peroxide Value) ≤ 5 meq O₂/kg, moisture ≤ 0.1%, insolubles ≤ 0.05%.

Microbiological: typically not growth-supportive; monitor plate counts in filling zone.

Shelf life: 12–18 months in sealed, light-protected packaging; nitrogen flush recommended.

Compliance: Codex/ISO edible oil specs; food-contact MOC (Materials of Construction) certificates.

8.0 Staffing & Organization (indicative)

Operations: 2–3 operators/shift × 3 shifts.

Maintenance: 1 electro-mechanic + part-time instrumentation tech.

QA/QC & Warehouse: 1 lab tech, 1 storekeeper.

Supervision: 1 production supervisor.
Total: 10–14 persons.

9.0 Automation & Digitalization

PLC/SCADA with recipe management, alarm historian, batch records.

Energy meters on major consumers (press, heater, deodorizer).

OEE (Overall Equipment Effectiveness) dashboard; e-SOPs and e-maintenance (CMMS) optional.

10.0 EHS, Compliance & Risk

ATEX (explosive atmospheres) zoning if solvent add-on is adopted; otherwise standard hot-work precautions.

Fire safety: fryer/roaster hoods, flame arrestors, Class K extinguishers.

Ergonomics: guarded nip points, interlocks, LOTO (Lockout-Tagout).

Effluent: small ETP (Effluent Treatment Plant) 1–2 m³/h with oil trap and DAF (Dissolved Air Flotation) for wash waters.

Food safety: HACCP with CCPs at metal detection, filtration integrity, and deodorizer vacuum.

Key risks & mitigations:

Peanut price volatility: forward contracts, seasonal storage, quality bonuses/penalties.

Oil price swings: product mix (retail/bulk/food service), hedging options.

Yield slippage: strict moisture control at roaster, press settings, refining losses audit.

Unplanned downtime: critical spares (see §11), predictive maintenance.

11.0 Spares & Maintenance Strategy

Critical mechanical: press worms/cages, bearings, seals, V-belts, gear reducers.

Electrical/instrumentation: motors, VFDs, PLC I/O modules, sensors (T/P/level), HMI.

Consumables: filter cloth/paper, bleaching earth, caustic/citric, gaskets, lubricants.

Coverage: 6–12 months minimum; MTBF tracking; quarterly preventive shutdown.

12.0 Project Schedule & Commissioning

Overall schedule (from PO = purchase order): 14–18 weeks to SAT (Site Acceptance Test).
On-site commissioning: 4–5 weeks to first saleable oil.

Week-by-week commissioning (typical):

W1: Mechanical completion, IO check, dry runs (IQ = Installation Qualification).

W2: Utilities proving, interlocks, water-oiling tests (OQ = Operational Qualification).

W3–W4: Hot runs with peanuts, refining tuning, first pass to spec.

W5: PQ = Performance Qualification at 1 TPH; 24-h reliability run; handover & operator certification.

13.0 Deliverables

Engineering: P&IDs, GA layouts, data sheets, cable/pipe lists, cause-and-effect/interlock matrix.

Quality & Operations: SOPs, HACCP plan templates, CIP procedures, sanitation master schedule.

Documentation: manuals, spare lists, MSDS (Material Safety Data Sheets) for chemicals, calibration certificates.

Commercial: 12-month equipment warranty; performance guarantee at 1 TPH within stated specs; training certificates.

14.0 Options & Upgrades

Second-stage press or small solvent extractor (hexane) for additional 4–6% oil recovery (requires ATEX & solvent recovery).

Polishing centrifuge post-bleach for ultra-low particulates.

Mass-flow filler upgrade to 8–12 heads; robotic case packing.

Solar thermal/biomass integration for roasting/steam; heat-recovery to process water.

QA lab kit: rapid FFA/PV meters, bench centrifuge, moisture analyzer.

Next Steps – Your Customized Business Case

Request the detailed financial model (Excel) to input local peanut prices, tariffs (power/water/fuel), labor, packaging, and selling prices—auto-generates ROI, NPV, IRR, payback.

Receive a site-specific technical layout adapted to your plot, utilities, and SKU strategy.

Book a confidential consultation with our project engineers to finalize scope, delivery plan, and guarantees.

Ready to move from concept to commercial oil in weeks—not years?
Contact us today to secure a firm quotation, tailored model, and execution schedule with locked delivery slots.

For more information:: ? : Contact Us

High-Efficiency Turnkey Potato Chips Manufacturing Facility – 2 TPH Capacity

Sector

TURNKEY FOOD INDUSTRY PROJECT ➠ COMPLETE SNACK PRODUCTION LINE

Denomination or Username

NIRUDI - [Eco Sustainable Digital B2B - B2C ePlatform Tool]

Type of user

COMPANY

Size of the company

1-10

Country

Spain

Description

? High-Efficiency Turnkey Potato Chips Manufacturing Facility – 2 TPH Capacity

This proposal details a complete, state-of-the-art 2 Ton Per Hour (TPH) potato chips manufacturing plant. Delivered on a turnkey basis, this project is designed for maximum profitability and operational efficiency. It integrates advanced automation, rigorous quality control, and sustainable practices to produce premium snack products for a rapidly expanding global market. With a clear capital expenditure framework and compelling financial returns, this project represents a low-risk, high-opportunity investment in the lucrative snack food sector.

1.0 Detailed Process Flow & Equipment Specification

The line is engineered for continuous, high-throughput operation with minimal manual handling, ensuring product consistency and food safety.

1.1 Raw Material Reception & Pre-Storage: Incoming potatoes are unloaded via a tipper or conveyor into a Receiving Hopper. To minimize bruising, they are then transported via Water Flumes to a Pre-Cleaning Rotating Drum, which removes stones, soil, and other field debris before storing the potatoes in Ventilated Silos.

1.2 Washing & Peeling: Potatoes are uniformly fed into a High-Capacity Brush Washer. Cleaned potatoes then proceed to either an Abrasive or Steam Peeler. The Steam Peeling Upgrade Option is highly recommended as it significantly reduces peel loss (from ~15% to ~8-10%), saves water, and provides a smoother surface for consistent slicing.

1.3 Inspection & Sorting: Peeled potatoes are conveyed under High-Resolution Optical Sorters. These advanced cameras use AI to identify and eject defects such as green spots, rot, bruises, and remaining peel, which is critical for ensuring the final product's quality.

1.4 Slicing & Washing: Approved potatoes are sliced to a precise thickness (0.8mm - 1.8mm) by an Ultra-High-Speed Slicer equipped with hardened, laser-cut blades. Slices are then rinsed in a De-starching & Washing Drum to remove excess surface sugars and starch. This is a vital step for achieving a uniform golden color and preventing the chips from sticking together during frying.

1.5 Blanching (Optional but Recommended): Slices pass through a Hot Water or Steam Blancher. This step further removes sugars to control color, pre-firms the texture for a better crunch, and significantly reduces the potential for acrylamide formation, a key food safety concern.

1.6 Drying: A High-Velocity Air Dryer (de-watering shaker) removes surface moisture from the slices. This is essential for achieving oil economy, ensuring safety, and producing a crispy final product.

1.7 Frying: This is the core of the line. Slices are conveyed through a Continuous Multi-Zone Fryer with precision temperature control in each zone. Key features include automatic oil level regulation, continuous oil filtration, and indirect heating (via thermal oil or steam) for a clean, consistent product. An integrated Hot Oil Filtration System with paperless pre-coat filters continuously removes fines, extending oil life and maintaining product quality.

1.8 Dewatering & Seasoning: Fried chips pass over a Vibrating Dewatering Screen to drain excess oil, then move through a Seasoning Drum. This tumbler applies oil, salt, and powdered seasonings with pinpoint accuracy for uniform flavor coverage.

1.9 Cooling & Inspection: Chips are cooled on a Multi-Tier Cooling Conveyor to set their structure and crunch. A final Metal Detector and Checkweigher ensure product safety and weight compliance.

1.10 Primary & Secondary Packaging: Chips are fed into an Integrated Vertical Form-Fill-Seal (VFFS) Machine that creates bags from roll-stock film, fills them with a precise weight, flushes with inert gas (Nitrogen) for freshness, and seals them. Finished bags are then conveyed to an Automatic Case Packer and Palletizer.

2.0 Utility Consumption & Sustainability Features (Per Ton of Finished Product)

Utility	Consumption Range	Notes & Sustainable Practices
Electricity	250 - 350 kWh	Major loads are from slicers, fryer conveyors, and compressors. The system uses high-efficiency motors and Variable Frequency Drives (VFDs) as a standard.
Thermal Energy	2.5 - 3.5 GJ	Used for frying, blanching, and seasoning. Options include natural gas, LPG, or biomass boilers. Heat recovery systems are available to pre-heat process water or plant air.
Process Water	4 - 6 m³	Used in fluming, washing, and blanching. A Water Recycling System can reduce fresh water usage by up to 70%.
Compressed Air	15 - 25 Nm³	Powers pneumatic controls, optical sorters, and packaging machines.

3.0 Facility & Layout Requirements

The total building area is estimated at ~1,800 - 2,200 m². The layout is zoned to be GMP/HACCP Compliant:

Raw & Dry Goods Area: Unloading, and storage for potatoes, oil, seasoning, and packaging.

Wet Process Area: Washing, peeling, slicing, and blanching. This area is constructed with stainless steel, sloped floors, and floor drains.

Fried Process Area: Frying, seasoning, and cooling. This section features high-volume exhaust hoods and fire suppression systems.

Packaging Hall: A climate-controlled (low humidity) environment for VFFS machines, case packing, and palletizing. It uses positive air pressure to keep dust out.

Utilities Room: Houses the boiler, electrical panels, air compressors, and water treatment systems.

4.0 Capital Expenditure (CAPEX) Breakdown

Figures in USD, indicative for a complete turnkey project in a standard greenfield scenario.

Category	Estimated Cost	Details & Inclusions
Process Equipment	$1.4M - $2.5M	All machinery from reception to palletizing, including automation (SCADA) and process control sensors.
Utility Systems	$300k - $700k	Boiler, water treatment, electrical substation, compressed air, HVAC for packaging hall.
Installation & Civil Works	$200k - $500k	Foundation, building modification, equipment erection, piping, wiring, insulation.
Project Management & Commissioning	$100k - $300k	Detailed engineering, P&IDs, factory acceptance tests, shipping, on-site commissioning, and performance tests.
Total Estimated CAPEX	$2.0M - $4.0M	The final quote depends on technology selections, the level of automation, and site-specific conditions.

5.0 Operating Expenditure (OPEX) Snapshot

Per ton of finished potato chips, excluding the cost of raw potatoes.

Cost Center	Estimated Cost per Ton	Notes
Raw Materials (Excluding Potatoes)	$400 - $700	Palm/Sunflower oil, seasonings, and packaging materials. This is the largest variable cost.
Utilities	$120 - $200	Highly dependent on local energy prices.
Labor (3-shift operation)	$80 - $150	Requires 8-12 operators per shift for line operations, quality control, and warehouse management.
Maintenance & Spares	$40 - $60	Based on a planned preventive maintenance program.
Quality Control & Admin	$50 - $90	Includes laboratory supplies, management, and overheads.
Total Estimated OPEX per Ton	$690 - $1,200	Yield is critical: 4.0 - 4.5 kg of raw potatoes typically yield 1 kg of finished chips.

6.0 Financial Model & Investment Rationale

Annual Production Capacity: ~4,000 tons (assuming 5,000 hours/year at 80% efficiency).

Revenue Assumptions: Wholesale price is highly variable by region and brand ($2,500 - $5,000/ton).

Gross Profit Margin: A margin of 40% - 50% is achievable with efficient operations and good yield management.

Net Profit Margin (EBITDA): 20% - 30% after accounting for full overhead, depreciation, and finance costs.

Return on Investment (ROI): >35% per annum.

Payback Period: 1.5 - 3 years, contingent on market penetration speed and operational efficiency.

7.0 Risk Mitigation & Project Support

Turnkey Responsibility: Single-point accountability for design, supply, installation, and commissioning eliminates interface risks.

Performance Guarantee: Contractual guarantees on key metrics: Throughput (2 TPH), Product Yield (<4.5:1 raw to finished), Oil Absorption (<36%), and Utility Consumption.

Comprehensive Training: A 3-phase program includes: 1) classroom training at our facility, 2) on-site commissioning training, and 3) an advanced troubleshooting and maintenance workshop.

Spare Parts Package: A recommended initial inventory of critical spares (slicer blades, fryer basket bands, V-belts, bearings, electrical components) ensures >90% plant availability.

Commissioning Timeline (7 Weeks):

Week 1-2: Mechanical completion, power-on, and dry runs.

Week 3-4: Wet runs with water and oil, calibration, and first product.

Week 5-6: Integrated continuous run, optimization, and quality tests.

Week 7: Operator training finalization, performance tests, and handover.

For more information:: ? : Contact Us

Turnkey Cassava Starch Production Plant – 5 TPH Capacity

Sector

TURNKEY FOOD INDUSTRY PROJECT ➠ COMPLETE CASSAVA STARCH PROCESSING LINE

Denomination or Username

NIRUDI - [Eco Sustainable Digital B2B - B2C ePlatform Tool]

Type of user

COMPANY

Size of the company

1-10

Country

Spain

Description

? Turnkey Cassava Starch Production Plant – 5 TPH Capacity

1) Process & Equipment (fit-for-purpose, stainless steel contact parts)

Raw Cassava Reception & Cleaning

Tippers, belt/roller conveyors, dry pre-cleaner (stone trap, bar screen), wet flume to cushion tubers.

Goal: remove soil/stones early to protect downstream pumps/raspers.

Washing & Inspection

Rotary drum/brush washer with high-impact spray bars (closed-loop water).

Manual or camera-assisted inspection table to reject rot/woody pieces.

Size Reduction (Rasping)

High-speed rasper (stator/rotor with replaceable tungsten blades), typical specific power 30–55 kWh/t starch.

Purpose: liberate starch granules from parenchyma cells; maximize extraction.

Pulp Handling & Primary Separation

Fiber screeners / rotary sieves (0.15–0.45 mm), pulp pumps, desanding cyclone to protect cyclones.

Target: coarse fiber removal before fine purification.

Hydrocyclone Purification Train

18–24 stage multi-cyclone system: concentration, dilution, washing, and clarification loops.

Outcomes: ash, pigments, proteins down; whiteness (L*) > 92 achievable for food grade.

Dewatering

Peeler centrifuge or belt press to 36–42% moisture (wet cake).

Optional decanter centrifuge for overflow recovery and water polishing.

Drying

Flash/ring dryer (indirect gas, thermal oil, or steam heat exchanger). Inlet 180–240 °C; outlet 80–95 °C.

Discharge moisture ≤ 12–13%; integrated cyclones + bag filter (ATEX-conscious dust handling).

Cooling, Milling & Sifting

Ambient or chilled air cooler → pin mill / hammer mill (if required) → vibratory sifter 120–200 mesh to set particle size distribution.

Packing & Palletizing

Automatic bagging 25 kg & FIBCs (1 t), checkweigher, metal detector, printer/QR traceability, robotic or conventional palletizer.

Automation

PLC/SCADA recipes, mass-balance dashboard, OEE; VFDs on fans/pumps; historian for utilities and quality.

2) Yield & Mass Balance (typical ranges)

Fresh cassava at 65–70% moisture contains 18–30% native starch (variety/season dependent).

Raw roots → starch ratio: 3.2–4.5 : 1.

Reference case (5 TPH starch): feed 16–23 TPH fresh roots.

Product specs: Moisture ≤ 13%, Ash ≤ 0.2%, pH 5.0–7.0, SO₂ ≤ 50 ppm (if used), micro per food-grade limits.

3) Utility Balance (per ton of starch, excluding raw cassava)

Electricity: 120–220 kWh/t (rasper, cyclones pumps, peeler centrifuge, fans).

Thermal energy: 1.0–1.6 GJ/t (flash/ring dryer; with heat recovery on exhaust).

Process water: 3–7 m³/t (with 70%+ reduction via counter-current washing & recycling).

Compressed air: 0.25–0.45 m³/min at 6–8 bar (actuators, valves, packers).

Steam (if used): 0.2–0.35 t/t starch for heating/CIP depending on dryer type.

Sustainability knobs

Effluent treatment: fiber trap → DAF/anaerobic digester; biogas can offset 15–30% dryer fuel.

Heat recovery: dryer exhaust → air/water preheat; VFDs on large fans.

4) Facility & Plot Plan (GMP/HACCP zoning)

Total building: ~6,000–8,500 m² (for 5 TPH starch output).

Zones:

Raw & Wet Zone: reception, washing, rasping, primary sieving (wet floors, drainage).

Purification Zone: hydrocyclones, tanks, CIP skids (hygienic segregation).

Dry Zone: dewatering, dryer, milling, sifting (dust control, ATEX).

Packing Hall: climate control, positive pressure, low RH.

Utilities & Labs: boiler/thermal oil, compressors, water treatment, QA/QC.

Warehousing & Dispatch: raw bags, finished pallets, forklift lanes.

5) CAPEX & OPEX (expanded)

CAPEX (USD) – order of magnitude, turnkey greenfield, 5 TPH starch output

Process equipment & automation: $4.0–8.2 M

Utilities (thermal, air, water, ETP/biogas): $1.1–2.2 M

Installation & civils (MEP, foundations, insulation): $0.9–2.0 M

Engineering, QA/validation, commissioning, spares, training: $0.6–1.1 M

Total: $7.0–14.5 M (scope, geography, and vendor mix drive variance)

OPEX (per ton of starch, excluding roots)

Energy (power + fuel): $18–35

Water & effluent: $3–8

Chemicals/consumables (CIP, antiscalant, filter media): $6–12

Labor (2–3 shifts, 30–45 staff total): $12–20

Maintenance & spares: $10–18

Packaging/overheads/QA: $11–27

Total OPEX: $60–120 per ton of starch

Raw cassava cost sensitivity (illustrative)

At 4.0:1 ratio and $70/t roots → $280/t starch raw-material cost.

Delivered cost target: $340–400/t (roots + OPEX) before SG&A and margin.

6) Spare Parts & Reliability Program

Critical spares (12–18 months): rasper blades/rotor sleeves, pump seals, hydrocyclone cones/liners (ceramic/PU), peeler screens, rotary valves, bag filter media, bearings, VFDs, PLC I/O modules, sensors (T/P/level), sifter screens, gaskets.

Uptime target: >92% with quarterly PMs; recommended CMMS (Computerized Maintenance Management System) and condition monitoring on fans/pumps.

7) Quality Management & Compliance

Standards: HACCP, ISO 22000/9001; food-contact MOC certificates.

In-line/at-line tests: moisture (NIR), whiteness (L*), ash, sieve analysis, microbial plate counts, viscosity (Brookfield for food grade).

Traceability: ERP/SCADA lot genealogy from farm gate to pallet.

8) Commissioning Timeline (proven 10-week roadmap from mechanical completion)

W1–W2: Mechanical completion, IO checks, dry runs, safety interlocks.

W3–W4: Water runs, CIP validation, pumps/valves tuning, cyclone balance.

W5–W6: First starch with conservative rates; dryer profiling; quality to spec.

W7–W8: Ramp to nameplate 5 TPH; utilities baselining; operator assessments.

W9–W10: Performance guarantee (yield/consumption/quality), documentation handover, spares audit.

Deliverables: PFDs/P&IDs, as-builts, manuals, validated SOPs/CIP, HACCP plan templates, calibration files, training certificates, warranty & performance certificates.

9) Options & Growth Path

Modified starch module (acid/oxidized/cationic) for paper/textile markets.

Biogas-to-steam upgrade to cut fossil fuel; solar thermal preheat on dryer air.

Fiber/pulp valorization: feed, biomaterials, or pellet fuel.

Chilled packing hall for premium food-grade whiteness stability.

10) Business Case & Market

Global cassava starch market projected ~$99.91 B by 2032; resilient demand across food and industrial sectors.

Producers gain market access and price premiums with consistent whiteness/specs.

Investors target gross margin > 42% and net margin > 26% when roots supply and energy are optimized.

Ready to quantify your site-specific returns?

Request the interactive financial model (roots price, utilities, labor, selling price → ROI/IRR/payback).

Ask for a preliminary technical layout matched to your plot and utility envelope.

Schedule a technical–commercial review to lock scope, delivery window, and guarantees.

This turnkey plant is not just machinery—it is a repeatable, bankable platform for sustainable export growth.

For more information:: ? : Contact Us

Invest now 1000 kg/h copper cable and radiator recycling line ready to ship

Read more about Invest now 1000 kg/h copper cable and radiator recycling line ready to ship

10 TPH multi-oilseed plant ready for East Africa

Read more about 10 TPH multi-oilseed plant ready for East Africa

Buyer-ready package for a 10 TPH Palm Oil Production Line, with biomass boiler (fiber/shell/EFB) and grid power.

Read more about Buyer-ready package for a 10 TPH Palm Oil Production Line, with biomass boiler (fiber/shell/EFB) and grid power.

10 TPH palm oil production line

Sector

EDIBLE OIL INDUSTRY ➠ TURNKEY PROJECT

Denomination or Username

NIRUDI - [Eco Sustainable Digital B2B - B2C ePlatform Tool]

Type of user

COMPANY

Size of the company

1-10

Country

Spain

Description

10 TPH palm oil production line

? Process Flow – Detailed Engineering View

?️ FFB Reception, Weighing, Traceability

Truck intake & weighbridge: 60–80 t capacity, legal-for-trade; auto ID + ticketing linked to MES/ERP for lot genealogy.

Unloading & buffering: side/rear tippers, grille pits, chain/belt feeders with VFDs (Variable Frequency Drives) for steady 10 TPH feed.

Sampling & QC: FFB ripeness index, debris %, moisture, temperature; camera-counting optional.

Target KPIs: ±0.05% weighbridge accuracy; <0.5% extraneous matter at reception.

? Sterilization (Saturated Steam)

Vessels: horizontal cage batch (2–4 cages × 2.5–3.5 t/cage) or continuous/vertical.

Steam conditions: 3.0–4.0 bar(g), 143–152 °C; cycle 60–90 min (incl. venting & blow-down).

Objectives: lipase inactivation (limit FFA = Free Fatty Acids rise), fruit softening, micro‐load reduction.

Condensate recovery: 60–80% to hotwell/DA (deaerator); flash steam to feedwater preheat.

Controls: recipe-based sequence, pressure ramps, cold-spot thermocouples, interlocks on doors & pressure relief.

? Threshing

Equipment: heavy-duty rotary drum thresher(s), adjustable 18–22 rpm; replaceable lifters.

Outputs: fruitlets → digestion; EFB (Empty Fruit Bunches) → mulching/compost or boiler co-fuel (after shredding/drying).

KPI: fruit stripping loss < 1.0% of total fruit.

? Digestion

Steam-jacketed digesters: 2–3 vessels × 6–10 m³ each; residence 20–30 min; 90–95 °C slurry temperature.

Agitation: multi-stage paddles (20–35 kW per vessel).

Goal: rupture mesocarp cell walls; create pumpable mash with optimal viscosity for pressing.

? Pressing

Twin-screw presses (preferred): 2 × 6–8 TPH (N+1 redundancy possible) or single-screw at higher specific power.

Operating window: 90–105 °C feed; choke cone adjustable; dilution water 8–12% on slurry as needed.

Outputs: press liquor (oil + water + fines) → clarification; press cake → fiber–nut recovery.

KPIs: residual oil in press cake ≤ 5–7% (wb); oil yield 20–23% on FFB.

? Screening & Sand Trap

Vibrating screens: 1.5–3.0 mm apertures; hot liquor 80–90 °C.

Sand trap tanks: residence 15–25 min; velocity < 0.3 m/s to settle grit.

KPI: < 100 ppm grit to clarifier/decanter; improved purifier life.

? Clarification & Purification

Two options (often combined):

Gravity clarification: continuous settling tanks (1–2 h HRT) + skimming → sludge centrifuge.

Centrifugal train: feed heaters → decanter centrifuge (20–35 m³/h) → disc-stack purifier (10–25 m³/h).

Targets: moisture ≤ 0.25%, impurities ≤ 0.25% in CPO (Crude Palm Oil).

Heat integration: plate heat exchangers to control viscosity; sludge oil recovery via decanter.

?️ Vacuum Drying & Storage

Vacuum dryer: 70–95 °C at 50–150 mbar to reduce final oil moisture → stability.

Storage tanks: insulated, steam coils, high-level/overfill & foam sensors, nitrogen blanketing optional; API-style breather valves.

Instrumentation: temperature/level transmitters, water-in-oil analyzers (optional), sampling ports.

? Fiber–Nut Separation

Depericarper + air-knife: fiber lifted off; nuts fall by gravity.

Fibers: return to boiler as fuel (after fluffing); helps maintain furnace bed.

? Nut Cracking & Kernel Separation

Ripple mills crack nuts; hydrocyclones/air tables split shell vs. kernel.

Kernel dryers: 60–70 °C to safe moisture for storage; PKO (Palm Kernel Oil) line feed.

PK yield: 5–7% on FFB (fruit quality dependent).

? Boiler & Power House (Biomass CHP)

Fuel: press fiber (~12–14% FFB), shell (~6–7% FFB), optionally shredded EFB (20–23% FFB after partial drying) & biogas from POME.

Boiler sizing: for 10 TPH FFB and steam 0.6–1.0 t/t FFB → 6–10 t/h saturated steam; specify 8–12 t/h with 15–20% margin.

Pressure levels: gen. 20–25 bar(a) main → back-pressure turbine to 3–4 bar(g) for process; electricity co-generation 0.6–1.2 MW (site-dependent).

Heat recovery: economizer, air pre-heater, condensate/flash recovery to DA.

? Water Treatment & Utilities

BFP/boiler feed: raw → multimedia filtration → softener/RO (as required) → DA hotwell (105–120 °C).

Compressed air: 6–8 bar(g), dryers to −20 °C PDP; receivers sized for peak actuation.

Thermal oil/hot water loops for steady heating where steam not preferred.

Power distribution: MCCs (Motor Control Centers), smart VFDs, UPS for controls; lightning/earthing grid.

? Effluent & By-product Handling

POME (Palm Oil Mill Effluent): 0.6–1.0 m³/t FFB → cooling, anaerobic (UASB/CSTR) + aerobic polishing; biogas 15–28 m³/m³ POME (55–65% CH₄).

Sludge oil recovery via decanter; EFB composting/windrow systems with leachate control.

Ash & dust: cyclone/multicyclone + bag filter as required by local emissions code.

? Key Equipment – 10 TPH FFB Reference Class

Reception: truck tipper, grille pit, belt/chain feeders (VFD), 60–80 t weighbridge.

Sterilizers: horizontal batch (2–4 cages) or continuous; auto cycle, pressure safety valves, SIL-rated interlocks.

Threshers: 1–2 drums (N+1 optional), wear liners, EFB conveyor to yard/shredder.

Digesters: 2–3 vessels, steam jackets, 20–35 kW drives, level/temperature control.

Presses: twin-screw expellers with adjustable choke, dilution injection, press torque scan.

Clarification: screens → sand trap → feed heaters → decanter → disc-stack purifier → vacuum dryer.

Storage & Piping: steam-traced lines, ANSI flanges, API tanks with coils & insulation.

Kernel section: depericarper, ripple mills, hydrocyclones/air tables, dryers, silos.

Boiler island: 8–12 t/h biomass boiler, economizer, DA, condensate recovery, water treatment; back-pressure turbine-generator optional.

Automation: PLC/SCADA, historian dashboards (yield, energy), condition monitoring (vibration/temperature) on rotating kit.

HSE: fire detection/suppression (foam/water), LOTO, confined-space permits, pressure-vessel compliance; RSPO/ISO documentation support.

? Performance, Mass–Energy & Utilities

Throughput & Yields (indicative, per 10 TPH FFB)

CPO yield: 20–23% on FFB → 2.0–2.3 TPH CPO.

PK yield: 5–7% on FFB → 0.5–0.7 TPH kernel to PKO line.

By-products (typical on FFB): fiber 12–14%, shell 6–7%, EFB 20–23%.

Utility Intensities (per ton FFB) and Daily Loads (24 h)

Electricity: 12–20 kWh/t → 2.9–4.8 MWh/day at 240 t/d.

Steam: 0.6–1.0 t/t → 144–240 t/day.

Water: 0.5–1.5 m³/t → 120–360 m³/day (recycling minimized).

POME: 0.6–1.0 m³/t → 144–240 m³/day to ETP.

CPO Quality: Moisture ≤ 0.25%, impurities ≤ 0.25%, FFA minimized by sterilization discipline.

Values vary with FFB quality, fruit ripeness, integration level, and equipment selection.

? Control, Safety, QA/Traceability

Advanced controls: sterilization “recipes”, press torque/power trends, decanter vibration/temperature, purifier differential pressure, vacuum dryer moisture trending; real-time OEE.

Safety: guarded nip points, emergency stops, pressure relief, compliant platforms and handrails, hot-surface shielding.

QA/QC plan: inline sampling; FFA (hourly), DOBI (Deterioration of Bleachability Index) per batch/shift, moisture/impurities (Karl Fischer & gravimetric), sludge oil losses, tank settlement tests.

RSPO chain of custody: MB (Mass Balance) or SG (Segregated) with digital lot tracking.

? Layout, Civil, Integration

Compact gravity flow: sterilizer → thresher (upper level) → digesters/presses (mid-level) → clarification (lower).

Civil: reinforced floors for heavy rotating equipment; pits for sand traps/clarifiers; truck circulation & EFB yard drainage.

Noise & air: acoustic lagging of blowers; adequate ventilation in digestion/press halls; deodorization hoods where required.

Scalability: press & centrifuge N+1 blocks; boiler/turbine sized with future tie-in points.

? Environmental & Energy Integration

Boiler fuel balance: fiber + shell generally sufficient for steam self-sufficiency; shredded EFB and biogas add margins in wet season.

Biogas use: boiler co-fire or dedicated biogas boiler; flare as last resort; condensate/condensers for H₂S mitigation.

ETP: equalization → anaerobic (UASB/CSTR) → aerobic (facultative/MBR) → polishing; sludge dewatering by decanter/press.

Emissions: dust control (multicyclone/baghouse), stack monitoring; ash reuse in field (per agronomic plans).

? Commissioning & Ramp-Up (10-week plan from Mechanical Completion)

W1–W2: Mechanical completion, IO checks, dry runs; pressure tests; safety interlocks validation.

W3–W4: Boilers/steam system commissioning, hot oil/condensate loops, sterilizer water runs, functionals.

W5–W6: First fruit runs at reduced rate; tuning thresher/digester/press parameters; clarification balance.

W7–W8: Full-rate operation; purifier/vacuum dryer optimization; ETP biological start-up; operator certification.

W9–W10: Performance Test (throughput, yields, utilities, CPO specs); punch-list closeout; documentation handover.

Deliverables include PFDs (Process Flow Diagrams), P&IDs (Piping & Instrumentation Diagrams), GA layouts, utility balance, data sheets, FAT/SAT records, SOPs, maintenance plans, and training certificates.

? Spares, Training, O&M

Initial spares (12 months critical): press wear parts (worms/cages), ripple-mill beaters, purifier seals, decanter bearings, pump mechanical seals, screen panels, V-belts, instruments (T/P/level), VFD/PLC I/O.

Training program: operator & maintainer tracks (process theory, sterilizer discipline, centrifuge & purifier care, boiler firing, ETP biology, LOTO, confined space).

Preventive strategy: monthly condition checks, quarterly PMs, annual statutory inspections of pressure parts; vibration and oil-analysis for rotating equipment.

? Commercial Package (What We Deliver)

Engineering package: PFDs, P&IDs, GA, foundation loads, cable/pipe lists, cause-and-effect matrices.

Scope options: supply-only; supply + supervision; full EPC (Engineering, Procurement, Construction) with performance guarantees.

Financials: CAPEX/OPEX models, BoM, life-cycle cost, energy balance; ROI sensitivity to FFB quality, seasonality, and energy prices.

Compliance dossier: pressure vessel files, electrical/ATEX (where applicable), RSPO/ISO templates, environmental permits support.

✅ Investment Thesis

A 10 TPH RSPO-aligned palm oil mill with biomass CHP and robust clarification delivers bankable yields, low unit energy, and export-grade CPO quality. Integrated by-product valorization (fiber/shell/EFB/biogas) underpins utility self-sufficiency and mitigates fuel risk.

? Next steps for producers & investors

Request the site-specific financial model (yields, utilities, staffing, tariffs → ROI/IRR/payback).

Ask for preliminary technical layouts adapted to your plot and future expansion.

Schedule a technical–commercial session to finalize scope, guarantees, and delivery window.

? Contact us today to secure your comprehensive proposal and move from feasibility to first-oil with confidence.

For more information:: ? : Contact Us

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