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2, 5- Furandicarboxylic Acid (FDCA) Custom

2, 5- Furandicarboxylic acid (FDCA)

2, 5- Furandicarboxylic acid (FDCA)

As an aromatic dibasic acid with a scarce rigid structure derived from HMF downstream, FDCA has the same functional group, similar aromaticity, and reactivity with terephthalic acid(PTA), and is considered an ideal substitute and modifier for PTA. The U.S. Department of Energy has identified FDCA as one of the 12 promising biobased platform compounds for building the "green" chemical industry of the future.

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  • Physical and chemical properties of the product
  • Product Name
    2, 5- Furandicarboxylic acid
    CAS No.
    3238-40-2
    Molecular Formula
    C6H4O5
    Molecular Weight
    156.09
    Melting Point
    >310℃
    Boiling Point
    419.2℃ at 760 mmHg
    Relative Density
    1.604g/cm³ at 25℃
    Stability
    Stable at room temperature, airtight storage in a cool and dry environment
  • Application fields
  • Fine chemical industry: Plasticizer

    Packaging industry: Bottle, Thin film

    Transportation industry: Special plastic material, Special rubber material

    Building materials industry: Engineering plastics

    Textile industry: Fiber

    New energy industry: Fiber

about Sugar Energy Technology

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Zhejiang Sugar Energy Technology Co., Ltd.

Zhejiang Sugar Energy Technology Co., Ltd. (Sugar Energy Technology), established in 2017, is a national high-tech enterprise co-founded with participation from the Ningbo Institute of Materials Technology and Engineering, Chinese Academy of Sciences. As a professional China Green Chemical Industry Acid Manufacturers and 2, 5- Furandicarboxylic acid (FDCA) Suppliers, focusing on the R&D, production and sales of bio-based furan new materials, the company leverages its advanced raw material production capabilities and downstream application innovation strengths to build a furan materials system of “1 high-end raw material + 5 platform molecules + N high-value products,” and aspires to become a leading bio-based materials enterprise driven by innovation and a strong sense of social responsibility.
Sugar Energy Technology’s flagship product, 5-hydroxymethylfurfural (HMF), is derived from a wide range of biomass feedstocks, including starch, cellulose, sucrose and agar. Featuring rare dual reactive functional groups and an aromatic structure, HMF not only helps improve the performance of other bio-based materials, but also opens up broader possibilities for the modification of conventional fossil-based products.
Guided by its founding mission, “Shaping the Beauty of Biology, Creating New Materials,” and its vision of “Building the world’s leading HMF monomer platform and making bio-based materials accessible to all,” Sugar Energy Technology continues to move forward toward a greener and more sustainable future.

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2, 5- Furandicarboxylic acid (FDCA) Industry knowledge

Bio-Based 2,5-Furandicarboxylic Acid (FDCA) from Sugar Energy Technology

As a 2 5 Furandicarboxylic Acid manufacturer, we match product configuration to the application, operating limits, interfaces and acceptance criteria defined for each project.

Zhejiang Sugar Energy Technology Co., Ltd. is a China-based FDCA manufacturer and a dedicated 2, 5- Furandicarboxylic acid (FDCA) supplier. We produce FDCA from HMF for polyester, packaging, fiber and fine-chemical customers. Established in 2017 as a national high-tech enterprise co-founded with the Ningbo Institute of Materials Technology and Engineering, Chinese Academy of Sciences, we operate the furan chain from biomass-derived HMF through downstream derivatives. Our HMF capacity of 2,000 tons/year gives FDCA a stable feedstock base and the same batch discipline as our HMF line.

FDCA is available on its own or as part of a furan monomer package with HMF, PEF and other derivatives. Our proposal work begins with the specification priorities below.

Why FDCA Is a Strategic Bio-Based Monomer

FDCA is an aromatic dibasic acid with a rigid furan ring and two carboxylic acid groups. The molecule has the same functional-group chemistry and similar aromatic reactivity as terephthalic acid, so it can enter existing polyester, resin and plasticizer synthesis routes with relatively limited reformulation. Its furan oxygen changes the polymer chain geometry, which is the basis for the gas barrier and thermal behavior of PEF.

The U.S. Department of Energy has identified FDCA as one of the 12 promising bio-based platform compounds for the future 'green' chemical industry. For a manufacturer converting from PTA to bio-based feedstocks, FDCA is the direct replacement point: the dicarboxylic acid monomer that controls polyester backbone performance.

  • PTA replacement or co-monomer for bio-based polyesters
  • Monomer for polyamides, polyester polyols and engineering plastics
  • Platform for ester derivatives such as FDME used in transesterification
  • Fine-chemical intermediate for plasticizers and other carboxyl-functional products

Physical and Chemical Properties

The table below gives the main property baseline for specification work. For each commercial batch, we confirm the actual values in the batch inspection report.

Property Value
Product name 2,5-Furandicarboxylic acid
CAS No. 3238-40-2
Molecular formula C6H4O5
Molecular weight 156.09
Melting point >310°C
Boiling point 419.2°C at 760 mmHg
Relative density 1.604 g/cm³ at 25°C
Stability Stable at room temperature; store airtight in a cool, dry environment

Application Fit Across Industries

FDCA is supplied mainly as a solid acid monomer for downstream polymerization or esterification. Application fit depends on the resin target, process temperature and required final property.

Industry FDCA Role Typical End Products
Fine chemical industry Plasticizer raw material, ester intermediate Plasticizers, polyester polyols, specialty esters
Packaging industry Bio-based polyester monomer with improved barrier properties Bottles, thin film, food packaging materials
Transportation industry Special plastic and rubber modifier Engineering plastic parts, seal and interior materials
Building materials industry Engineering plastics monomer Durable profiles, panels, compound formulations
Textile industry Bio-based fiber-forming monomer Polyester fiber, yarn, nonwoven fabrics
New energy industry Fiber and composite resin intermediate Lightweight structural parts, high-performance fiber

Production Route and Quality Control

Our FDCA chain starts from HMF, which we produce from biomass feedstocks including starch, cellulose, sucrose and agar. We have industrialized continuous HMF production through a 100-ton line and a subsequent 1,000-ton line that raised both product quality and batch stability. FDCA follows the same production logic: upstream feedstock control, catalytic conversion, purification and controlled packing.

After each process step we carry out corresponding inspections. The final product receives full inspection according to customer requirements and international standards. Our in-house testing laboratory supports batch release with analytical checks on the agreed specification.

For polymer-grade FDCA, the release criteria normally include assay, moisture, color, acid value and relevant impurity limits. If your process uses metal-sensitive catalysts, we review the impurity profile at quotation stage so the specification matches the polymerization route.

Configured Around a Furan Materials System

FDCA is one platform molecule in our '1 high-end raw material + 5 platform molecules + N high-value products' system. Customers working on bio-based packaging, polyester and fine chemicals can qualify several monomers in one program because the products share the same HMF origin.

5- Hydroxymethylfurfural (HMF)

Our flagship biomass-derived platform monomer and the upstream feedstock for FDCA chemistry.

Poly (ethylene 2,5-furandicarboxylate) (PEF)

Polyester made by condensation of FDCA and ethylene glycol for packaging and film applications.

2, 5- Furandicarboxylicacid dimethyl ester (FDME)

Methyl ester derivative of FDCA for transesterification routes where a more soluble monomer is preferred.

The same furan system also includes FDM, THFDM, BAMTHF, THFDCA and OBMF for customers working on diols, diamines and rigid furan intermediates. We can coordinate multi-product orders from one factory and schedule production around your project phases.

Information We Use to Configure Your FDCA Solution

Our proposal is based on the working point, material and production target. Tell us:

  • Conversion route: PEF resin, fiber, plasticizer, ester derivative or another targeted application.
  • Release criteria: assay, moisture, color, acid value, residual by-products and metal limits that matter to your process.
  • Process interface: powder charging, melt-phase operation, solvent system and catalyst sensitivity.
  • Volume and logistics: order size, frequency, packaging preference, destination port and delivery schedule.
  • Documentation: batch inspection report, safety data sheet, origin information and any customer-specific international standard.

Handling, Storage and Packaging

FDCA is stable at room temperature and is supplied as a solid monomer. Keep the packaging sealed between charging operations and store the material in a cool, dry warehouse. This avoids moisture pickup and maintains the product condition agreed for downstream reactions.

Packaging is matched to order size and feeding system. For automated powder dosing lines, we discuss particle size and lot packaging before quotation. Our facility is located in Ningbo near Ningbo Port, which simplifies export container coordination and delivery scheduling.

Quotations and specification questions are answered within 24 hours on working days. For multi-monomer qualification programs, we can provide a combined supply plan instead of separate purchase discussions.

FDCA Supply Questions

Can FDCA directly replace terephthalic acid in an existing polyester line?

FDCA has the same dicarboxylic acid functionality and similar aromatic reactivity as PTA, but a drop-in replacement without process adjustment is not automatic. The furan ring changes solubility, melting behavior and polymerization kinetics. We supply FDCA with the specification data needed for lab-scale evaluation and can also supply PEF if you want a polymer already converted from FDCA.

What quality parameters matter most for FDCA polymerization?

Assay, moisture, color, acid value and catalyst-poisoning impurities are typically the critical data for polymer routes. Moisture affects stoichiometry and catalyst consumption, color transfers to the final resin, and residual by-products can change reaction rate. We agree these release points at the quotation stage.

Can we source FDCA together with HMF or FDME?

Yes. We produce these molecules in the same furan materials system and can coordinate combined orders from the same factory. Share the volumes and project phases, and we will schedule production and documentation accordingly.

How does HMF production capacity affect FDCA supply stability?

Our HMF production capacity is 2,000 tons/year using continuous production technology, scaled from a 100-ton line after a year of stable operation. Because FDCA shares that upstream base, we control feedstock rather than buying HMF on the open market, which improves batch stability and delivery reliability.

What final inspection is done before shipment?

Each process step is inspected during production. Final products receive full inspection according to customer requirements and international standards, and the acceptance criteria are agreed before production. The batch inspection report accompanies the shipment and reflects those agreed parameters.