Online Database of Chemicals from Around the World

Nortropine
[CAS 538-09-0]

List of Suppliers
Hangzhou Verychem Science And Technology Co., Ltd. China
www.verychem.com
+86 (571) 8816-2785
+86 13606544505
+86 (571) 8816-2787
lucy@verychem.com
Chemical manufacturer since 2004
chemBlink Massive supplier since 2021
Simagchem Corporation China
www.simagchem.com
+86 13806087780
+86 (592) 268-0237
sale@simagchem.com
Chemical manufacturer since 2002
chemBlink Standard supplier since 2008
Tyger Scientific Inc. USA
www.tygersci.com
+1 (609) 434-0144
+1 (609) 434-0143
sales@tygersci.com
Chemical manufacturer since 1992
chemBlink Standard supplier since 2008
Zhongchang Chemical Co., Ltd. China
www.zhongchangchem.com
+86 (575) 8893-2183
+86 (575) 8512-0438
zhongchang@hi2000.com
Chemical manufacturer since 2001
chemBlink Standard supplier since 2009
Hefei TNJ Chemical Industry Co., Ltd. China
www.tnjchem.com
+86 (551) 6541-8684
+86 (551) 6541-8697
sales@tnjchem.com
Chemical manufacturer since 2001
chemBlink Standard supplier since 2010
BOC Sciences USA
www.bocsci.com
+1 (631) 485-4226
+1 (631) 614-7828
info@bocsci.com
Chemical manufacturer
chemBlink Standard supplier since 2010
Hangzhou Leap Chem Co., Ltd. China
www.leapchem.com
+86 (571) 8771-1850
market19@leapchem.com
QQ Chat
Chemical manufacturer since 2006
chemBlink Standard supplier since 2015
Shanghai Fuxin Pharmaceutical Co., Ltd. China
www.fuxinpharm.com
+86 (21) 3130-0828
+86 18645121291
+86 (21) 3130-0828
contact@fuxinpharm.com
Chemical manufacturer since 2016
chemBlink Standard supplier since 2018
Cfm Oskar Tropitzsch GmbH Germany
www.cfmot.de
+49 (9231) 9619-0
+49 (9231) 9619-60
info@cfmot.de
Chemical distributor since 1985
chemBlink Standard supplier since 2022

Identification
ClassificationOrganic raw materials >> Alcohols, phenols, phenolic compounds and derivatives
NameNortropine
SynonymsNortropenol; 2,3-Dihydro-3-hydroxy-nortropidine; (1R,5S)-8-Azabicyclo[3.2.1]octan-3-ol
Molecular StructureNortropine molecular structure (CAS 538-09-0)
Molecular FormulaC7H13NO
Molecular Weight127.18
CAS Registry Number538-09-0
EC Number700-286-3
SMILESC1C[C@H]2CC(C[C@@H]1N2)O
Properties
Density1.096 g/mL (Expl.)
Melting point108 - 110 °C (Expl.)
Boiling point229.6 (760 mmHg) °C (Expl.)
Flash point116.8 °C (Expl.)
Refraction index1.52 (Expl.)
Safety Data
Hazard Symbolssymbol   GHS07 Warning  Details
Risk StatementsH302-H303-H312-H319-H332  Details
Safety StatementsP261-P264-P264+P265-P270-P271-P280-P301+P317-P302+P352-P304+P340-P305+P351+P338-P317-P321-P330-P337+P317-P362+P364-P501  Details
Hazard Classification
up    Details
HazardClassCategory CodeHazard Statement
Acute toxicityAcute Tox.4H302
Acute toxicityAcute Tox.4H332
Acute toxicityAcute Tox.4H312
Eye irritationEye Irrit.2H319
Acute toxicityAcute Tox.5H303
SDSAvailable
up chemBlink Chemical Story
Nortropine (CAS 538-09-0) is a tropane alkaloid framework closely related to tropine but lacking the N-methyl group; its name literally reflects this 'nor' relationship. The bicyclic tropane skeleton is historically important because it forms the core of natural alkaloids such as atropine and scopolamine and of numerous semisynthetic derivatives. Nortropine contains a secondary amine and an alcohol, giving chemists two distinct functional sites for N-substitution and O-acylation or related transformations. Removing or changing the nitrogen substituent is a common medicinal-chemistry strategy for exploring how charge, lipophilicity, and receptor interactions change across tropane derivatives. Public records for nortropine emphasize its role as a chemical and pharmaceutical intermediate rather than an independently used therapeutic drug.

Exact chemical identity matters because free forms, salts, stereoisomers, hydrates, metabolites, intermediates, and finished products can carry different registry numbers even when their names are closely related. These distinctions affect molecular weight, physical properties, analytical standards, formulation, and interpretation of literature. A reliable chemical database therefore follows the exact substance instead of automatically transferring every property of a related form.

Functional groups are also a map of intended reactivity. Carbonyls, alcohols, amines, halides, alkenes, and heterocycles provide different opportunities for bond formation, while hydrocarbon frameworks influence shape and solubility. In multistep synthesis, the usefulness of an intermediate often comes from being able to transform one position selectively while leaving another group available for a later operation.

Modern chemical development depends as much on characterization as on synthesis. Identity, purity, stereochemistry, water or salt content, and process-related impurities may all need control. Well-characterized intermediates and reference materials therefore matter even when they never become a final commercial product: they make complex manufacturing and research reproducible.

A responsible Chemical Story distinguishes documented use from structural possibility. A familiar molecular scaffold can suggest a hypothesis, but resemblance alone does not establish a biological target, approved indication, or commercial application. When exact-CAS literature is limited, verified chemistry and clearly documented uses are more informative than speculation.

Seen broadly, practical performance emerges from the whole molecular system. Structure, stereochemistry, physical form, synthetic route, reaction environment, and, for biological molecules, metabolism can all determine what a substance actually does. Connecting these details to a documented historical, industrial, or biological role turns a registry entry into a meaningful chemical story.

Exact chemical identity matters because free forms, salts, stereoisomers, hydrates, metabolites, intermediates, and finished products can carry different registry numbers even when their names are closely related. These distinctions affect molecular weight, physical properties, analytical standards, formulation, and interpretation of literature. A reliable chemical database therefore follows the exact substance instead of automatically transferring every property of a related form.

Functional groups are also a map of intended reactivity. Carbonyls, alcohols, amines, halides, alkenes, and heterocycles provide different opportunities for bond formation, while hydrocarbon frameworks influence shape and solubility. In multistep synthesis, the usefulness of an intermediate often comes from being able to transform one position selectively while leaving another group available for a later operation.

Modern chemical development depends as much on characterization as on synthesis. Identity, purity, stereochemistry, water or salt content, and process-related impurities may all need control. Well-characterized intermediates and reference materials therefore matter even when they never become a final commercial product: they make complex manufacturing and research reproducible.

References:
1. PubChem and chemical reference records. Nortropine, CAS 538-09-0.
2. Fodor G, Dharanipragada R. Tropane alkaloids: chemistry and stereochemistry. Nat Prod Rep.

Market Analysis Reports
Related Products
Nortilidine Hyd...  Nortrachelogeni...  (-)-Nortrachelo...  Nortricyclyl br...  27-Nor-3,7,12-T...  Nortrilobolide  Nortriptyline  Nortriptyline N...  Nortriptyline h...  Nortropan-3-one  Nortropine hydr...  Nortropinone hy...  24-Norursodeoxy...  24-Nor Ursodeox...  Fmoc-D-Norvalin...  D(-)-Norvaline  Norvaline  DL-Norvaline  7-L-Norvalinecy...  L-Norvaline 1,1...