We transform nature-derived materials 
into high-performance functional polymers.

Annual Agro-Food Waste Generation
1 million tons

Annual Agro-Food Waste Disposal Cost
1.16 billion USD

Impact of OAFE’s Alternative Plastic


Utilization of Agro-Food By-products

→ Reduced Production Costs

 
2

Cost Competitiveness Through 
Mass Production

 
3

Reduction of Agro-Food Waste
and Disposal Expenses

We transform nature-derived materials
into high-performance functional polymers.

Annual Agro-Food Waste Generation

Impact of OAFE’s Alternative Plastic

1  
Utilization of Agro-Food By-products → Reduced Production Costs


Cost Competitiveness Through Mass Production


Reduction of Agro-Food Waste and Disposal Expenses

10 million tons

Annual Agro-Food Waste Disposal Cost 

1.16 billion USD 
This is how STEON, 
our high-performance cellulose composite material, is made.

MANUFACTURING PROCESSES

 

01
Biomass
Pretreatment


Cellulose derived from biomass
through impurity removal
and purification 


Application of solvent extraction technology to remove by-products

Optimization of reaction conditions to maximize impurity removal efficiency

Implementation of solid–liquid separation and filtration technologies



02
Biomass
Materialization


Plasticization through chemical
bonding of biomass-derived 
cellulose


Enhancement of bonding reactions using food-grade additives

Plasticization through starch–cellulose crosslinking

Development of CBP, a cellulose-based biodegradable material



03
Compounding
& Blending


Property optimization and 
functional enhancement through
advanced compounding and
blending technologies


Improved material compatibility using specialized compounding techniques

Blending methods designed to enhance physical properties and control biodegradability

Development and production of compounds for injection molding, extrusion, film, and fiber applications

04
Product Molding



DEVELOPMENT OF CELLULOSE SURFACE 
MODIFICATION TECHNOLOGY

OPTIMIZATION OF COMPOSITE MATERIAL FORMULATIONS

 

We have developed an optimized surface modification technology 
through years of research and development 
to enhance the compatibility between cellulose and other polymers. 
With OAFE’s cellulose surface modification technology, 
we have minimized the deterioration of physical properties in bioplastics.

OPTIMIZATION OF SPECIAL COMPOUNDING PROCESS

 

OAFE possesses specialized compounding expertise and data optimized for bioplastics.
We manufacture high-performance bioplastics by applying process conditions 
tailored to the characteristics of each biomass and polymer used.
STEP 01

Organic Matter / Polymer Mixing Process
Additive blending ratio

Raw material feeding process (RPM)
Side-hopper applicability


STEP 02

Zone-by-zone temperature configuration

Screw RPM control

Torque & pressure control

Mixing Zone design



STEP 03

Air cooling
Water cooling
Cooling capacity

Cooling temperature




STEP 04

Strand take-off RPM

Crystallization process 
& temperature conditions

Pellet Drying temperature: 85℃ 

Pellet Drying duration: 12h



Learn more about STEON — the material that delivers both productivity and sustainability.

CERTIFICATES

TEST TRANSCRIPTS

 

Ready to take your first step toward
true sustainability with innovative materials?
Ready to take your first step
toward true sustainability
with innovative materials?

HEAD OFFICE

CEO l FOUNDER

TEL

Room 522, 57, Jeonpa-ro 44beon-gil, Manan-gu, Anyang-si, Gyeonggi-do, Republic of Korea 

Ginam Han

+82 010-4411-5491

@2025 OAFE. All Rights Reserved.   Created by Fircl   l  Studio Forflow