Automatic Molded Pulp Equipment

Complete Automatic Egg Tray Production Line

Richon designs integrated egg tray production lines for pulping, forming, drying, stacking, and project layout planning. The final capacity, power, labor arrangement, dryer configuration, and installation schedule should be confirmed according to the selected equipment model and local operating conditions.

  • Matched pulping, forming, drying, and stacking workflow
  • Drying solution selected by capacity, climate, fuel, and factory space
  • Engineering support for layout, configuration, and project evaluation
Complete automatic egg tray production line with forming, drying, and stacking equipment
Automatic egg tray production line configuration depends on output target, drying method, factory utilities, and local operating conditions.

System-Level Production Planning

Egg Tray Production Line Built as One Integrated System

A complete egg tray production line converts recycled paper into molded pulp trays through coordinated pulping, forming, drying, stacking, and packing stages. Stable output depends on how these systems are matched, not only on the forming machine itself.

A high-quality egg tray is not produced by a single machine. Pulp consistency, vacuum dewatering, mold drainage, wet tray transfer, drying airflow, and stacking timing all affect the final tray strength and shape.

Richon evaluates capacity target, raw material source, drying method, workshop space, utility conditions, and local labor situation before recommending a line configuration. Exact production capacity, power, fuel use, labor arrangement, and installation period should be confirmed according to the final equipment selection.

Learn how the production process works →

Why System Matching Matters

Why a Complete Egg Tray Production Line Matters

In industrial egg tray manufacturing, long-term stability comes from matching every stage of the process. Pulping, forming, drying, stacking, utilities, and workshop layout must be planned as one production system.

01

Balanced Production Flow

When pulping, forming, drying, and stacking capacities are matched correctly, the line is less likely to suffer from bottlenecks, idle equipment, or unstable daily output.

02

Consistent Product Quality

Tray quality depends on pulp consistency, mold drainage, vacuum dewatering, wet tray transfer, and drying control. Weakness in one stage can affect final tray shape and strength.

03

Practical Cost Control

A correctly configured line helps reduce avoidable energy waste, repeated manual handling, and maintenance pressure. Exact operating cost still depends on local energy, labor, and equipment configuration.

04

Adaptation to Local Conditions

Different regions need different line designs. Raw material quality, climate, fuel availability, power supply, and factory space all influence the recommended configuration.

Two factories using similar forming machines can still have different production costs and tray quality. The difference often comes from drying design, pulp preparation, factory layout, and operating discipline.

Read real cost factors →

Production Workflow

Egg Tray Production Line Process Flow

A complete egg tray production line works through four connected stages: pulp preparation, vacuum forming, drying, and stacking. Each stage must be matched to the selected capacity, raw material quality, drying method, and factory layout.

Egg tray production line process flow showing pulping, forming, drying, stacking, and packing stages
Process flow reference for an automatic egg tray production line. Exact equipment layout depends on final configuration.
01

Pulping & Stock Preparation

Waste paper is mixed with water, pulped, screened, and adjusted into slurry. Fiber quality, impurity removal, and pulp consistency directly influence forming stability.

Key focus: raw material adaptability
02

Vacuum Forming & Transfer

Pulp fibers are deposited onto molds by vacuum suction. Mold drainage, vacuum balance, and wet tray transfer affect tray weight, surface quality, and deformation risk.

Key focus: forming consistency
03

Drying System

Wet trays are dried by natural drying, brick drying rooms, or metal dryer systems. The best method depends on output target, climate, fuel source, workshop space, and investment plan.

Key focus: moisture and shape control
04

Stacking & Packing

Dried trays are counted, stacked, and prepared for storage or shipment. Cooling, stacking pressure, and packing method should match the final product type and logistics requirement.

Key focus: stable handling and storage

Need a deeper breakdown of each production stage, equipment selection, and process control points?

Read the process guide →

Process Questions

Egg Tray Production Line Process FAQ

These answers explain the main engineering factors behind egg tray production line configuration, raw material preparation, drying selection, capacity planning, and factory setup.

How does an egg tray production line work?

An egg tray production line converts recycled paper into molded pulp trays through pulping, vacuum forming, drying, stacking, and packing. The process should be planned as one continuous system because unstable pulp, poor vacuum dewatering, or unsuitable drying can affect final tray quality.

What raw materials are used in egg tray production?

Common materials include waste cartons, old newspapers, office paper, mixed recycled paper, and prepared pulp. Fiber quality, impurity level, and pulp consistency all affect tray strength and forming stability. For more detail, see the egg tray raw materials guide.

How should production capacity be selected?

Capacity should be selected according to sales demand, available workshop space, drying method, utility supply, labor arrangement, and budget. The exact output depends on forming machine model, mold quantity, dryer configuration, and operating conditions. Compare common options in the 3K vs 5K vs 8K vs 10K capacity guide.

What drying system is best for an egg tray production line?

There is no single best drying system for every project. Natural drying can fit small or climate-friendly projects, brick drying rooms are practical for many medium-capacity factories, and metal dryer systems are often used when automation, stable output, and compact layout are required. Review the egg tray dryer system options before finalizing a layout.

How much factory space is required?

Factory space depends on capacity, drying method, raw material storage, finished tray storage, utility area, and internal material flow. Natural drying usually needs more open space, while metal dryer systems can support more compact layouts. Exact workshop size should be confirmed after final equipment configuration. See the egg tray factory layout guide for planning factors.

Can the same production process work in different countries?

Yes, but the configuration should be adapted. Local raw materials, humidity, fuel availability, power standard, labor cost, environmental rules, and maintenance conditions can all change the recommended pulping, drying, and automation setup.

Raw Material Planning

Raw Material Adaptability

Different regions use different recycled paper sources. A stable egg tray production line should be configured around fiber quality, impurity level, pulp consistency, water circulation, and the strength requirement of the final tray.

Raw materials for egg tray production including waste paper, recycled cartons, and molded pulp slurry
Raw material quality affects pulping, forming stability, drying behavior, and final tray strength.
OCC

Waste Corrugated Cartons

Corrugated cartons usually provide stronger fiber support, but impurities, tape, and coating should be controlled during stock preparation.

ONP

Old Newspapers

Newspapers can be easy to pulp and useful in mixed furnish, but the final tray strength depends on blending ratio and fiber condition.

MWP

Mixed Waste Paper

Mixed recycled paper is common in many markets. Screening, consistency adjustment, and stable pulp circulation are important for reliable forming.

PULP

Pulp Board or Plant Fiber

Prepared pulp or plant fiber can be used for specific molded pulp products, but food-contact requirements and product standards should be confirmed for each project.

Lower-grade paper may still be usable when pulping, screening, pulp ratio, mold drainage, and drying conditions are adjusted correctly. The suitable formula should be tested according to local raw material samples.

Read raw material guide →

Main Equipment Systems

Key System Components of an Egg Tray Production Line

A stable egg tray production line is built from coordinated systems. Each component affects forming quality, drying performance, maintenance workload, and long-term production reliability.

Pulp Preparation

Pulping System for Fiber Consistency and Cleanliness

The pulping system prepares recycled paper into usable slurry. Fiber condition, impurity control, water circulation, and pulp consistency influence tray weight, drainage, and forming stability.

  • Pulping and screening layout selected according to raw material quality
  • Consistency control to support stable fiber distribution before forming
  • Impurity removal to reduce mold blockage and unstable production

Engineering focus: stable pulp quality is more important than short-term output spikes.

Egg tray pulping system with screening and pulp consistency control
Forming and Mold

Forming System and Mold Design for Tray Shape Control

The forming system defines tray geometry, thickness distribution, and wet tray transfer stability. Mold drainage, mesh structure, vacuum matching, and transfer timing must be considered together.

  • Forming machine type matched to capacity target and automation level
  • Mold structure designed for drainage, product shape, and demolding behavior
  • Transfer process planned to reduce wet tray deformation before drying

Learn more about mold structure in the mold technology guide.

Egg tray forming system with molds and vacuum forming station
Vacuum Dewatering

Vacuum System for Dewatering and Forming Stability

Vacuum performance affects fiber deposition, dewatering speed, wet tray moisture, and forming cycle stability. Under-sized or poorly balanced vacuum piping can create unstable tray weight and higher operating pressure.

  • Vacuum capacity calculated from mold quantity, forming area, and cycle requirement
  • Piping layout planned to reduce unnecessary pressure loss
  • Pump selection confirmed according to final machine model and operating conditions

Exact vacuum pump configuration should be confirmed after the final forming system is selected.

Industrial vacuum system for egg tray forming and dewatering
Drying and Moisture Control

Drying System for Final Strength and Dimensional Stability

Drying is often the stage where earlier forming problems become visible. Uneven wet tray thickness, unstable airflow, or unsuitable heat control can lead to deformation, cracking, or inconsistent moisture.

  • Natural drying, brick drying room, or metal dryer selected by project conditions
  • Heat source reviewed according to local fuel availability and operating cost
  • Airflow and temperature planning adjusted to tray type and capacity requirement

Compare dryer choices in the brick dryer vs metal dryer guide.

Egg tray drying system for molded pulp tray moisture control

Drying System Selection

Egg Tray Drying Solution Options

Drying is one of the most important decisions in an egg tray production line. The right solution depends on output target, climate, fuel availability, workshop space, labor conditions, and investment plan.

Natural drying yard for egg tray production using sunlight and ambient airflow
Low Investment Option

Natural Drying

Natural drying uses sunlight and ambient airflow. It can fit small projects where land is available and weather conditions are suitable.

  • Lower dryer equipment investment
  • Simple operation and maintenance
  • Requires larger drying area
  • Output is affected by rain, humidity, and season

Best fit: small-scale projects, pilot production, or regions with reliable sunlight and low daily output pressure.

Metal dryer system with conveyor for automatic egg tray production line
Automation and Compact Layout

Metal Dryer System

A metal dryer system is used when continuous drying, automation, and a more compact layout are important. Final dryer layers, length, and heat source depend on project configuration.

  • Supports automated tray transfer and continuous operation
  • Better fit for higher output and compact factory planning
  • Requires higher initial investment
  • Fuel, airflow, and temperature design must match tray moisture load

Best fit: larger factories, export-focused production, or projects requiring higher automation and stable daily output.

Drying cost and drying quality should be evaluated before finalizing the line layout. Richon engineers review capacity, local energy cost, humidity, fuel source, and factory space before recommending a drying configuration.

Verified Model Data

Egg Tray Production Line Capacity Configurations

Richon egg tray production line models cover 800 to 9,000 pcs/h reference capacity ranges. Capacity, total power, estimated running power, labor, and drying method should be checked together before selecting a model.

Starter Scale

REM3-1 / REM4-1

Reference capacity: 800-1,500 pcs/h.

  • Total power: 32 kW to 36-60 kW
  • Estimated running power: 22.4 kW to 25.2-42 kW
  • Labor reference: 3-6 persons
Small Commercial

REM3-4 / REM4-4

Reference capacity: 1,700-3,000 pcs/h.

  • Total power: 55-74 kW to 58-88 kW
  • Estimated running power: 38.5-61.6 kW
  • Labor reference: 4-6 persons
Industrial Scale

REM6-8 / REM8-8

Reference capacity: 6,000-9,000 pcs/h.

  • Total power: 226-374 kW
  • Estimated running power: 158.2-261.94 kW
  • Labor reference: 6-8 persons
Model Production Capacity Molding Stations Total Power Estimated Running Power Labor Required Capacity Link
REM3-1 800-1000 pcs/h 3 32 kW 22.4 kW 3-5 persons
REM4-1 1000-1500 pcs/h 4 36-60 kW 25.2-42 kW 4-6 persons
REM3-4 1700-2200 pcs/h 12 55-74 kW 38.5-51.8 kW 4-6 persons
REM4-4 2000-3000 pcs/h 16 58-88 kW 40.6-61.6 kW 4-6 persons 3000 pcs/h solution
REM4-8 4000-4500 pcs/h 32 127-144 kW 88.9-100.8 kW 4-6 persons 4000 pcs/h solution
REM5-8 5000-5500 pcs/h 40 153-190 kW 107.1-133 kW 5-7 persons 5000 pcs/h solution
REM6-8 6000-6500 pcs/h 48 226-239 kW 158.2-167.3 kW 6-8 persons 6000 pcs/h solution
REM8-8 8000-9000 pcs/h 64 374 kW 261.94 kW 6-8 persons 8000 pcs/h solution

The estimated running power above follows the model power table reference of approximately 70% of total power. Actual power consumption, labor arrangement, fuel use, and drying performance depend on selected dryer type, raw material moisture, tray weight, local operating conditions, and final equipment configuration.

Before selecting a model, compare forming capacity with drying capacity, workshop layout, utility supply, labor plan, and local energy cost. Oversizing the forming machine without matching drying capacity can create a production bottleneck.

Selection Method

How to Choose the Right Egg Tray Production Line

A suitable production line is not selected by capacity alone. Richon reviews forming model, drying method, power supply, raw material condition, labor plan, and workshop space together before recommending a configuration.

Step 01

Confirm Market Demand First

The model should match realistic daily sales volume, not only a desired maximum output. Oversizing too early may increase drying pressure and working capital.

  • Estimate daily tray sales volume
  • Check buyer type: farms, distributors, or packaging users
  • Plan capacity around confirmed market channels
Step 03

Review Utilities and Operating Cost

Total power and estimated running power vary by model. Fuel source, local electricity cost, water condition, and operator arrangement also affect daily production cost.

  • Check available transformer and power supply
  • Compare gas, diesel, biomass, coal, or other local fuels
  • Review water circulation and drainage conditions
Step 04

Plan Factory Layout and Expansion

Space should be reserved for raw material storage, pulping, forming, drying, finished tray storage, maintenance access, and future expansion if needed.

  • Keep material flow simple and safe
  • Reserve drying and storage space early
  • Leave access for maintenance and mold change

Engineering rule: choose the forming model and drying system together. For example, selecting a higher-capacity REM model without matching drying space, heat source, and airflow design can create a bottleneck even when the forming machine itself has enough output.

Send your target capacity, available workshop size, raw material type, local fuel source, and expected automation level. Richon engineers can help check which model range and dryer type fit your project conditions.

Investment Planning

Cost and Investment Considerations for Egg Tray Production Lines

The price of an egg tray production line is not a fixed number. It depends on model selection, drying method, automation level, factory layout, local fuel cost, labor plan, and final equipment configuration.

Egg tray production line investment including pulping, forming, drying, and stacking systems
Equipment Configuration

Model, Capacity, and Automation Cost

Equipment investment changes with the selected REM model, molding station quantity, transfer method, control system, and stacking configuration.

  • REM3-1 to REM8-8 model selection
  • Forming machine capacity and molding stations
  • Manual, semi-automatic, or automatic handling
Egg tray factory layout investment planning for workshop, utilities, labor, and storage
Factory Conditions

Workshop, Utilities, and Maintenance

Total investment also includes the factory environment around the machine. Poor layout or weak utility planning can increase operating pressure after installation.

  • Raw material, drying, and finished tray storage space
  • Power supply, water circulation, drainage, and fuel system
  • Spare parts, mold maintenance, and operator training

A low machine quotation does not always mean a lower project cost. Richon recommends comparing equipment price with drying cost, power demand, factory layout, maintenance access, and long-term operating conditions before making the final decision.

Mold and Product Planning

Applications and End Products

The main purpose of an egg tray production line is egg tray manufacturing. With suitable molds and process adjustment, selected molded pulp products can also be produced, but product feasibility should be confirmed by mold design, raw material, drying behavior, and quality requirements.

30-cell molded pulp egg trays and egg cartons produced by egg tray production line
Core Product

Egg Trays and Egg Cartons

Standard egg trays and cartons are the main products for poultry farms, egg distributors, and packaging suppliers.

  • 30-cell egg trays
  • 6, 10, 12, or 15-cell egg cartons
  • Stackable transport trays
Molded pulp fruit tray product made with adapted molded pulp molds
Optional Mold Product

Fruit and Agricultural Trays

Fruit trays may require different mold depth, drainage design, and drying control compared with standard egg trays.

  • Apple trays
  • Pear or mango trays
  • Light agricultural packaging
Industrial molded pulp packaging for bottles and electronics
Custom Project

Industrial Molded Pulp Packaging

Industrial packaging is project-specific. The line may need adjusted forming, transfer, drying, and trimming requirements.

  • Bottle trays
  • Electronics inner packaging
  • Industrial spare part trays
Custom molded pulp products produced with interchangeable molds
Engineering Review Needed

Custom Molded Pulp Products

Custom products should be reviewed by sample structure, mold feasibility, raw material formula, and final drying performance.

  • OEM packaging projects
  • Special-shaped pulp products
  • Brand-specific molded pulp designs

Before using an egg tray line for non-egg-tray products, confirm mold structure, pulp formula, drying behavior, and product standard. Not every molded pulp item can share the same configuration without adjustment.

Read mold technology guide →

Project Support and Manufacturing Experience

Why Choose Richon

Richon supports international egg tray production line projects with equipment configuration, drying system planning, factory layout review, and long-term operating guidance based on real molded pulp production logic.

Richon egg tray machine manufacturing workshop for molded pulp equipment
Equipment manufacturing, assembly, inspection, and project configuration support

Manufacturing and Assembly Control

Richon pays attention to equipment structure, assembly quality, mold matching, vacuum system layout, and pre-delivery checking before shipment.

Engineering-Driven Line Configuration

Production line recommendations are based on capacity target, raw material condition, drying constraints, power supply, fuel source, and workshop layout.

Drying and Automation Experience

Richon helps match forming output with natural drying, brick drying rooms, or metal dryer systems so the drying stage does not become the main bottleneck.

International Project Support

Support can include layout discussion, packaging for export shipment, remote technical guidance, spare parts planning, and operating suggestions after delivery.

Need a supplier who can discuss machine model, drying system, factory layout, and operating conditions together before quotation?

Buyer FAQ and Related Guides

FAQ and Expert Topic Hub

These questions help buyers connect model selection, drying system, investment planning, raw materials, and maintenance before requesting a final egg tray production line quotation.

What affects egg tray production line capacity?

Capacity depends on forming machine model, molding station quantity, mold design, pulp preparation, drying capacity, and operation stability. Do not select capacity by forming output alone; the dryer and workshop layout must match the selected model. See the 3K vs 5K vs 8K vs 10K capacity comparison.

Which drying solution should I choose?

The suitable drying solution depends on capacity, climate, fuel source, factory space, and budget. Natural drying can fit small projects, brick drying rooms are practical for many medium projects, and metal dryers are often used for automated or higher-output factories. Compare options in the egg tray dryer system guide.

How do I estimate egg tray production line investment?

Investment includes equipment model, drying system, installation conditions, utility preparation, raw material handling, spare parts, molds, and operator training. A quotation should reflect final configuration rather than a generic machine price. Read the real production cost guide for planning factors.

Can one line produce products other than egg trays?

Some molded pulp products can be produced by changing molds and adjusting the process, but feasibility depends on product shape, mold structure, pulp formula, drying behavior, and quality standard. For mold-related planning, review the mold technology guide.

What should be checked before placing an order?

Confirm target capacity, raw material source, dryer type, power supply, fuel availability, workshop space, labor plan, installation conditions, and after-sales support. Exact power consumption, fuel use, and installation period should be confirmed according to the final equipment configuration.

Need a configuration recommendation based on your target capacity, factory space, raw material, and local fuel conditions?

Talk to Richon engineers →

Project Consultation

Need to confirm capacity, drying layout, or investment plan?

Share your target output, factory conditions, and drying preference. Richon engineers will help review a suitable egg tray production line configuration for your project.

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