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nonadecane

CAS 629-92-5C19H40MW 268.5

nonadecane (CAS 629-92-5) — formula C19H40, molecular weight 268.5; category organic chemicals.

Product Overview

CAS Number629-92-5
Molecular FormulaC19H40
Molecular Weight268.5
Melting Point89.8 °F (NTP, 1992)
Boiling Point625.5 °F at 760 mmHg (NTP, 1992)
LogP9.9
ApplicationsUses: Used in organic synthesis, [Hawley], Organic synthesis., They are used mainly in applications for which isoalkanes are not acceptable for biological reasons, e.g., the production of detergents or proteins., Higher n-Alkanes, Solid n-alkanes (paraffin waxes) are used in a variety of applications, ... oxidation, and chlorination reactions., Use Classification: Fragrance Ingredients, Methods of Manufacturing: The liquefaction of coal provides the greatest variety of saturated hydrocarbons. The Fischer-Tropsch synthesis produces alkanes from syngas (CO + H2) in the range C1 to C30 or higher depending on the process variant: depending on the catalyst employed, the synthesis yields predominantly liquid hydrocarbons in the gasoline range, along with gases from C1 to C4 when iron-based catalysts are used, while cobalt-based catalysts produce longer chain hydrocarbons in the diesel and wax range that often undergo, depending of the desired product slate, further processing, especially for gasoline generation. While iron-based Fischer-Tropsch catalysts generate complex mixtures that also include branched and olefinic hydrocarbons, cobalt-based catalysts produce streams that are rich in n-alkanes and are therefore suitable raw materials for detergents and for wax products., Saturated Hydrocarbons, Suitable sources for n-alkanes with more than six carbon atoms are the appropriate petroleum distillate fractions, from which the n-paraffins can be isolated in high isomeric purity (= 95% linearity) by selective separation techniques, especially fractional distillation., General Manufacturing Information: Nonadecane: ACTIVE, Gas-phase dehydrogenation of n-alkanes over noble-metal catalysts yield the corresponding n-alkenes at low conversion rates (ca. 10%) with predominantly internal double bonds. The corresponding alkenes can be isolated in high purity by selective molecular-sieve processes.
CategoryOrganic Chemicals

Applications

Documented applications: Uses: Used in organic synthesis, [Hawley], Organic synthesis., They are used mainly in applications for which isoalkanes are not acceptable for biological reasons, e.g., the production of detergents or proteins., Higher n-Alkanes, Solid n-alkanes (paraffin waxes) are used in a variety of applications, ... oxidation, and chlorination reactions., Use Classification: Fragrance Ingredients, Methods of Manufacturing: The liquefaction of coal provides the greatest variety of saturated hydrocarbons. The Fischer-Tropsch synthesis produces alkanes from syngas (CO + H2) in the range C1 to C30 or higher depending on the process variant: depending on the catalyst employed, the synthesis yields predominantly liquid hydrocarbons in the gasoline range, along with gases from C1 to C4 when iron-based catalysts are used, while cobalt-based catalysts produce longer chain hydrocarbons in the diesel and wax range that often undergo, depending of the desired product slate, further processing, especially for gasoline generation. While iron-based Fischer-Tropsch catalysts generate complex mixtures that also include branched and olefinic hydrocarbons, cobalt-based catalysts produce streams that are rich in n-alkanes and are therefore suitable raw materials for detergents and for wax products., Saturated Hydrocarbons, Suitable sources for n-alkanes with more than six carbon atoms are the appropriate petroleum distillate fractions, from which the n-paraffins can be isolated in high isomeric purity (= 95% linearity) by selective separation techniques, especially fractional distillation., General Manufacturing Information: Nonadecane: ACTIVE, Gas-phase dehydrogenation of n-alkanes over noble-metal catalysts yield the corresponding n-alkenes at low conversion rates (ca. 10%) with predominantly internal double bonds. The corresponding alkenes can be isolated in high purity by selective molecular-sieve processes..

Technical Profile

What this product is

nonadecane is a carbon-based organic compound with CAS registry number 629-92-5 and molecular formula C19H40 (molecular weight 268.5), belonging to the organic chemicals segment of chemical raw materials.

Identification

CAS number: 629-92-5

Its molecular formula C19H40 comprises 19 C, 40 H atoms.

Also known as: nonadecane · 十九烷

Category: organic chemicals

Frequently Asked Questions

What is the CAS number of nonadecane?

The CAS registry number of nonadecane is 629-92-5.

What is the molecular formula and molecular weight of nonadecane?

Molecular formula C19H40, molecular weight 268.5.

What other names is nonadecane known by?

It is also registered under: nonadecane, 十九烷.

What are the documented applications of nonadecane?

Recorded applications: Uses: Used in organic synthesis, [Hawley], Organic synthesis., They are used mainly in applications for which isoalkanes are not acceptable for biological reasons, e.g., the production of detergents or proteins., Higher n-Alkanes, Solid n-alkanes (paraffin waxes) are used in a variety of applications, ... oxidation, and chlorination reactions., Use Classification: Fragrance Ingredients, Methods of Manufacturing: The liquefaction of coal provides the greatest variety of saturated hydrocarbons. The Fischer-Tropsch synthesis produces alkanes from syngas (CO + H2) in the range C1 to C30 or higher depending on the process variant: depending on the catalyst employed, the synthesis yields predominantly liquid hydrocarbons in the gasoline range, along with gases from C1 to C4 when iron-based catalysts are used, while cobalt-based catalysts produce longer chain hydrocarbons in the diesel and wax range that often undergo, depending of the desired product slate, further processing, especially for gasoline generation. While iron-based Fischer-Tropsch catalysts generate complex mixtures that also include branched and olefinic hydrocarbons, cobalt-based catalysts produce streams that are rich in n-alkanes and are therefore suitable raw materials for detergents and for wax products., Saturated Hydrocarbons, Suitable sources for n-alkanes with more than six carbon atoms are the appropriate petroleum distillate fractions, from which the n-paraffins can be isolated in high isomeric purity (= 95% linearity) by selective separation techniques, especially fractional distillation., General Manufacturing Information: Nonadecane: ACTIVE, Gas-phase dehydrogenation of n-alkanes over noble-metal catalysts yield the corresponding n-alkenes at low conversion rates (ca. 10%) with predominantly internal double bonds. The corresponding alkenes can be isolated in high purity by selective molecular-sieve processes..

Which category does nonadecane belong to?

Category: Organic Chemicals.

PubChem Public Data

Independent reference data for nonadecane (CAS 629-92-5), compiled from public chemistry databases.

Registry identifiers across databases

CAS Registry Number629-92-5
PubChem CID12401
Molecular formulaC19H40
IUPAC namenonadecane
UNII (FDA)NMY21D3Y5T

Computed descriptors

Molecular Weight268.5
XLogP39.9
Hydrogen Bond Donor Count0
Hydrogen Bond Acceptor Count0
Rotatable Bond Count16
Exact Mass268.313001276
Monoisotopic Mass268.313001276
Topological Polar Surface Area0
Heavy Atom Count19

Physicochemical values on record

Physical DescriptionWax. (NTP, 1992)
Boiling Point625.5 °F at 760 mmHg (NTP, 1992)
Boiling Point330 °C
Boiling Point329.00 to 331.00 °C. @ 760.00 mm Hg
Melting Point89.8 °F (NTP, 1992)
Melting Point31.50 °C
Melting Point32 °C
Flash Point100 °C (212 °F) - closed cup
Density0.7855 g/cu cm at 20 °C
Autoignition Temperature446 °F (NTP, 1992)

Documented uses on record

    Used in organic synthesis; [Hawley]They are used mainly in applications for which isoalkanes are not acceptable for biological reasons, e.g., the production of detergents or proteins. /Higher n-Alkanes/

    Synonyms and trade names

    NONADECANE; n-Nonadecane; 629-92-5; NMY21D3Y5T; NSC-77136; DTXSID9047170; CHEBI:32927; RefChem:43814; DTXCID7027170; 211-116-8; Nonadekan; MFCD00009012; CH3-[CH2]17-CH3; Nonadecane; NSC 77136; n-Nonadecane; UNII-NMY21D3Y5T; nonadecan

    Regulatory listings held on file

    GHS notification summary94.9% (150 / 158)

    GHS hazard classification

    GHS notification summary94.9% (150 / 158)

    This chemical does not meet GHS hazard criteria for 94.9% (150 of 158) of all reports.

    Reported as not meeting GHS hazard criteria by 150 of 158 companies (only 5.1% companies provided GHS information). For more detailed information, please visit ECHA C&L website.

    What the public record says

    nonadecane · CAS 629-92-5 · C19H40. UNII NMY21D3Y5T. Physical Description: Wax. (NTP, 1992); Boiling Point: 625.5 °F at 760 mmHg (NTP, 1992); Boiling Point: 330 °C.

    Physical description and handling notes

    Source: PubChem / Wikidata; the batch COA governs where values differ.

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