Carbon Dioxide, Food Grade

Carbon dioxide, food grade is a gaseous ingredient used to carbonate beverages and preserve packaged foods. It is supplied in compressed gas cylinders or bulk liquid form for industrial food processing.

Prices, specifications and international trade for carbon dioxide, food grade under HS 281121.

Carbon Dioxide, Food Grade Price

$3.40USD/t

Published reference · Jul 1, 2026

Carbon Dioxide, Food Grade Historical Unit Values

Carbon dioxide, food grade is quoted in USD/t at NLD. Historical customs values may differ from the headline reference.

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Carbon Dioxide, Food Grade Exports and Imports

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Netherlands led reported carbon dioxide, food grade exports in 2025, at $169M.

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Carbon Dioxide, Food Grade Specifications and Quality

Carbon dioxide, food grade grading factors include Purity, Moisture Content, and Carbon Monoxide (CO) Level.

Grading Factors

Quality assessment for carbon dioxide, food grade considers Purity, Moisture Content, and Carbon Monoxide (CO) Level.

  • Purity

    Buyers verify that the CO₂ meets the specified purity level, typically 99.9 % or higher for food‑grade applications.

  • Moisture Content

    The moisture (water) level must be low, usually below 50 ppm, to prevent microbial growth and maintain product stability.

  • Carbon Monoxide (CO) Level

    CO must be limited, often below 10 ppm, because it can affect taste and safety of food and beverage products.

  • Sulfur Compounds

    Sulfur‑containing impurities such as hydrogen sulfide must be minimal (typically < 5 ppm) to avoid off‑odors.

  • Odor and Color

    Food‑grade CO₂ must be colorless and odorless; any detectable smell or discoloration indicates contamination.

Typical Specification Ranges

Carbon dioxide, food grade specifications record purity, moisture, carbon monoxide. These are typical ranges, not guarantees for an individual lot.

Purity100–100 %
Moisture0–50 ppm
Carbon Monoxide0–10 ppm
Sulfur Compounds0–5.00 ppm

Common Defects

Recorded defects for carbon dioxide, food grade include Excess Moisture, Impurity Contamination, and Discoloration.

  • Excess Moisture

    Elevated water content can lead to microbial growth and reduced shelf life.

  • Impurity Contamination

    Presence of gases such as CO, H₂S, or other contaminants can affect product safety and sensory qualities.

  • Discoloration

    Any visible color indicates possible contamination or degradation of the CO₂.

  • Odor Presence

    Detectable odor signals impurity and may render the CO₂ unsuitable for food applications.

Certifications

Certifications documented for carbon dioxide, food grade include ISO 9001, ISO 22000, and FDA GRAS. Their applicability depends on the individual product and shipment.

  • ISO 9001

    Quality management system certification applicable to CO₂ production.

  • ISO 22000

    Food safety management certification ensuring suitability for food‑grade use.

  • FDA GRAS

    Recognition that the CO₂ is Generally Recognized As Safe for food applications in the United States.

  • EU Food‑Grade Certification

    Compliance with EU regulations for food‑grade gases, including purity and contaminant limits.

Carbon Dioxide, Food Grade Facts and HS Code

Carbon dioxide, food grade belongs to beverage alcohol and other within produce, nuts, spices and food ingredients. Its customs classification covers HS 281121.

Carbon Dioxide, Food Grade HS Code

Product typeIntermediate
FormRefined
Position in the chainPrimary
CategoryBeverage alcohol and other — Produce, nuts, spices and food ingredients
HS codes281121
Quoted inUSD/t
Reference locationNLD

Production & Handling

Carbon dioxide, food grade storage guidance: Stored as a liquefied gas in pressurized cylinders

Production and Storage

PerishabilityNone
Storage conditionsStored as a liquefied gas in pressurized cylinders
Processing steps
  1. Production byproduct capture (e.g., from ammonia synthesis or fermentation)
  2. Compression and drying
  3. Filtration to remove impurities
  4. Liquefaction and storage in bulk tanks or high‑pressure cylinders

Packaging

Typical carbon dioxide, food grade packaging includes High‑Pressure Cylinders and Bulk Storage Tanks.

  • High‑Pressure Cylinders

    Standard steel or aluminum cylinders rated for 200–300 bar, commonly used for bulk food‑grade CO₂ supply.

  • Bulk Storage Tanks

    Large insulated tanks for on‑site storage, equipped with safety valves and purity monitoring systems.

Uses & Risks

Carbon dioxide, food grade is used in Beverage carbonation, Modified atmosphere packaging (MAP), and Cryogenic freezing.

End Uses

  • Beverage carbonation

    Carbon dioxide is injected into soft drinks, sparkling water, and alcoholic beverages to provide effervescence.

  • Modified atmosphere packaging (MAP)

    Used to displace oxygen in packaged fresh foods, extending shelf life.

  • Cryogenic freezing

    Liquid carbon dioxide provides rapid freezing for food products such as ice cream and frozen desserts.

  • Fire suppression systems

    Carbon dioxide is released to extinguish fires in food processing facilities.

Uses and Related Commodities

Downstream industriesBeverage manufacturing, Food packaging and processing, Refrigeration and cryogenics, Industrial fire protection

Sourcing risks

RiskMitigation
Impurity contamination
Food safetyHigh

If carbon dioxide is not verified as food grade, residual impurities can enter food products, potentially causing health issues or off‑flavors.

Require a Certificate of Analysis for each batch and verify compliance with FDA 21 CFR §184.1240 and ISBT QVL impurity limits.
Purity misrepresentation
FraudHigh

Suppliers may label CO₂ as food‑grade while the actual purity falls below regulatory limits, introducing contaminants such as hydrocarbons or moisture that can affect product quality and safety.

Require third‑party certification of CO₂ purity, perform independent analytical testing (e.g., gas chromatography), and enforce strict supplier audits.
Cylinder over‑pressurization and rupture
LogisticsHigh

Improper handling or storage of high‑pressure CO₂ cylinders can lead to over‑pressurization, causing rupture and release of large gas volumes, creating safety hazards and product loss.

Follow standard operating procedures for cylinder filling, use pressure relief devices, store cylinders in temperature‑controlled areas, and train personnel on safe handling protocols.
Microbial contamination of CO₂
Food safetyMedium

If the gas is not properly filtered and sterilized, microorganisms can be introduced, posing a risk of spoilage to food products that use the CO₂ for carbonation or preservation.

Implement high‑efficiency filtration and sterilization steps, and conduct routine microbial testing of the gas before release.
Improper pressure handling
LogisticsMedium

Food‑grade CO₂ is stored as a liquefied gas under pressure; mishandling cylinders can lead to rapid gas release, creating asphyxiation hazards and product loss.

Train personnel on cylinder filling levels, pressure limits (above 5.2 bar), and use weighing methods to monitor inventory.

Carbon Dioxide, Food Grade Questions

What are the typical storage requirements for carbon dioxide, food grade?
Carbon dioxide, food grade should be stored in a cool, well‑ventilated area away from sources of heat or ignition. It must be kept in approved pressure vessels or cylinders that are protected from physical damage and sealed to prevent moisture ingress.
How is carbon dioxide, food grade commonly used in food and beverage production?
Food‑grade carbon dioxide is used as a preservative and carbonation agent in beverages, as a protective atmosphere for packaged foods, and for freezing or chilling applications such as dry ice production. It must meet food‑grade purity specifications before being introduced into the product line.
What safety precautions should buyers observe when handling carbon dioxide, food grade?
When handling food‑grade carbon dioxide, buyers should wear appropriate personal protective equipment, ensure proper ventilation to avoid asphyxiation, and follow cylinder handling guidelines to prevent rapid pressure release. Any leaks should be addressed immediately, and cylinders must be secured during transport.