Ethane gas is a crucial component in various industries and applications due to its versatile nature and wide range of uses. This colorless, odorless, and highly flammable hydrocarbon is an essential raw material in many industrial processes. Its versatility, high purity, and efficiency make it an invaluable component in processes ranging from petrochemical production to energy generation and refrigeration.
Ethane, a significant hydrocarbon, was first identified by the renowned scientist Michael Faraday in the year 1834. His discovery came about during an experiment involving the electrolysis of potassium acetate, a process in which electrical current breaks down the chemical compound. This groundbreaking experiment led to the identification of ethane, expanding the understanding of chemical compounds at the time.
The name "ethane" finds its roots in the word "ether," which is derived from both Latin and Greek origins. In Latin, it comes from "aether," and in Greek, from "aithēr," both of which translate to "upper air." This nomenclature reflects the almost ethereal nature of the gas, which is colorless and odorless, linking it symbolically to the concept of the clear upper layers of the atmosphere.
When working with Ethane, it's important to know which materials are compatible to ensure safety and efficiency. Here’s a comprehensive list detailing how various materials respond to exposure with Ethane:
Metals:
Plastics:
Elastomers:
Lubricants:
This breakdown provides a clear view of which materials are best suited for use with Ethane, covering various categories such as metals, plastics, elastomers, and lubricants. Each listed material has been evaluated to ensure that they perform efficiently when exposed to Ethane, making it easier to make informed choices for industrial and manufacturing processes. Remember, it's essential to avoid using materials that exhibit swelling or degradation for optimal results and safety.
Ethane, a chemical compound primarily used as a petrochemical feedstock, is characterized by specific physical properties that differentiate it from other hydrocarbons.
Key Physical Properties of Ethane
Molar Mass:Ethane has a molar mass of 30.069 grams per mole, which influences both its reactivity and physical behavior under different conditions.
Critical Point:The critical point of a substance is where it cannot be distinguished as either a liquid or a gas. For ethane, this occurs at a temperature of 32.17 degrees Celsius and a pressure of 48.72 bar. This is relevant in applications involving ethane under extreme conditions.
Triple Point:Ethane's triple point — the temperature and pressure at which it can exist simultaneously as a solid, liquid, and gas — is observed at -182.78 degrees Celsius with a pressure of 1.13E-5 bar. This feature is crucial for scientific experiments involving phase changes.
Melting and Boiling Points:Ethane transitions from a solid to a liquid at a melting point of -183.3 degrees Celsius and boils into a gas at -88.58 degrees Celsius. These thermal properties are essential for its handling and storage in industrial applications.
Understanding these properties ensures safe and effective usage of ethane in various chemical and industrial processes. Whether storing it as a compressed gas or using it in refrigeration systems, knowledge of its physical characteristics is indispensable.
Disclaimer:
Please consult our Material Safety Data Sheet (MSDS) and follow all recommended safety protocols and guidelines when handling Ethane. Misuse or mishandling of this chemical can result in serious health risks and environmental hazards.
Note:
This product page is intended to provide an informative overview of Ethane. For specific inquiries, technical details, or orders, please contact our sales team.
Note: Always adhere to industry-specific safety guidelines and consult with professionals for proper handling, storage, and usage of pressurized gases.
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