Packaging gas

In this article, we will explore the issue of Packaging gas in greater depth, analyzing its origins, repercussions, and possible solutions. Packaging gas has been the subject of debate and controversy in recent years, and it is important to examine it from different perspectives to understand its scope and impact on today's society. Through research and analysis, we will seek to shed light on this topic and provide a more complete view of its implications. Additionally, we will examine how Packaging gas has evolved over time and the possible implications it has for the future. This article is intended to be a comprehensive guide to understanding Packaging gas in all its dimensions and to promote an informed debate about its relevance today.

Packets of dry snack foods, such as this packet of Wotsits, commonly use nitrogen as a packaging gas to keep the contents from going stale or damp prior to being opened.

A packaging gas is used to pack sensitive materials such as food into a modified atmosphere environment. The gas used is usually inert, or of a nature that protects the integrity of the packaged goods, inhibiting unwanted chemical reactions such as food spoilage or oxidation. Some may also serve as a propellant for aerosol sprays like cans of whipped cream. For packaging food, the use of various gases is approved by regulatory organisations.[1]

Their E numbers are included in the following lists in parentheses.[2]

Inert and Nonreactive gases

These gas types do not cause a chemical change to the substance that they protect.

Propellant gases

Specific kinds of packaging gases are aerosol propellants. These process and assist the ejection of the product from its container.

Reactive gases

These must be used with caution as they may have adverse effects when exposed to certain chemicals. They will cause oxidisation or contamination to certain types of materials.

Volatile gases

Hydrocarbon gases approved for use with food need to be used with extreme caution as they are highly combustible, when combined with oxygen they burn very rapidly and may cause explosions in confined spaces. Special precautions must be taken when transporting these gases.[4]

See also

References

  1. ^ "The purity of gases". Cleanroom Technology 21 June 2010. Retrieved 15 February 2011.
  2. ^ "Current EU approved additives and their E Numbers". Food standards agency 26 November 2010. Retrieved 15 February 2011.
  3. ^ Spectrum Laboratories : Chemical Fact Sheet - Cas # 75718
  4. ^ "Amendment to Directive 96/77/EC on purity criteria of food additives". Food standards agency 27 June 2002. Retrieved 15 February 2011.