4-Methylmorpholine - BioReagent, for protein sequencing, ≥99.5%(GC) , CAS No.109-02-4

CAS: 109-02-4 Cat. No.: M755579 Formula: C5H11NO Molecular Weight: 101.15 Beilstein Registry Number: 102719 EC Number: 203-640-0
AVAILABLE TO ORDER
GRADE & PURITY BioReagent ? BioReagent grade — tested suitable for life-science and molecular-biology use. Use for cell culture, assays, and biochemical work needing biological compatibility. for Protein sequencing ? Protein-sequencing grade — ultra-clean reagents for Edman/MS sequencing. Use where contaminants would obscure sequence determination. ≥99.5%(GC)
Storage
Room temperature
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Size
Germany (EU)
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Price
Qty
25ml
M755579-25ml
Made to order · 8–12 wks
€98.84
100ml
M755579-100ml
Made to order · 8–12 wks
€240.28
500ml
M755579-500ml
Made to order · 8–12 wks
€854.64
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Overview


  • Effect of morpholine, and 4-methylmorpholine on urethane formation: a computational study: This paper explores the role of 4-methylmorpholine in urethane synthesis, highlighting its utility in enhancing reaction efficiencies within computational models (Waleed et al., 2023).

  • Design, Synthesis, Characterization, and In Vitro Evaluation of a New Cross-Linked Hyaluronic Acid for Pharmaceutical and Cosmetic Applications: Incorporates 4-methylmorpholine in the design and synthesis of new hyaluronic acid formulations, underscoring its role in developing innovative pharmaceutical and cosmetic products (Sciabica et al., 2021).

Specifications

Specifications & Purity
BioReagent, for protein sequencing, ≥99.5%(GC)
Storage
Room temperature
Shipped In
FedEx DG Service
Grade
BioReagent, for Protein sequencing
Purity
≥99.5%(GC)
Names and Identifiers
PH
10.6 (20 °C, 50 g/L)
Canonical Smiles
CN1CCOCC1
IUPAC Name
4-methylmorpholine
InChIKey
SJRJJKPEHAURKC-UHFFFAOYSA-N
INCHI
1S/C5H11NO/c1-6-2-4-7-5-3-6/h2-5H2,1H3
Isomeric SMILES
CN1CCOCC1
WGK Germany
1
RTECS
QE5775000
UN Number
2535
Packing Group
II
Molecular Weight
101.15
Beilstein
102719
Reaxy-Rn
102719
Reaxys-RN_link_address
https://www.reaxys.com/reaxys/secured/hopinto.do?context=S&query=IDE.XRN=102719&ln=

Advanced Data

Taxonomic Classification

Taxonomy Tree

KingdomOrganic compounds
SuperclassOrganoheterocyclic compounds
ClassOxazinanes
SubclassMorpholines
Intermediate Tree Nodes Not available
Direct ParentMorpholines
Alternative Parents Trialkylamines  Oxacyclic compounds  Dialkyl ethers  Azacyclic compounds  Organopnictogen compounds  Hydrocarbon derivatives  
Molecular FrameworkAliphatic heteromonocyclic compounds
Substituents Morpholine - Tertiary aliphatic amine - Tertiary amine - Oxacycle - Azacycle - Ether - Dialkyl ether - Organic nitrogen compound - Organic oxygen compound - Organopnictogen compound - Hydrocarbon derivative - Organooxygen compound - Organonitrogen compound - Amine - Aliphatic heteromonocyclic compound
DescriptionThis compound belongs to the class of organic compounds known as morpholines. These are organic compounds containing a morpholine moiety, which consists of a six-member aliphatic saturated ring with the formula C4H9NO, where the oxygen and nitrogen atoms lie at positions 1 and 4, respectively.
External Descriptors Not available
3D Structure
Interactive Chemical Structure Model





Certificates (CoA,COO,BSE/TSE and Analysis Chart)
C of A & Other Certificates(BSE/TSE, COO):
Analytical Chart:
Chemical and Physical Properties
x_refractive_index1.4332
x_flash_point_drop_centigrade12℃
x_boil_point_char111-114°C
x_melt_point_char-65°C
Molecular Weight101.150 g/mol
XLogP3-0.300
Hydrogen Bond Donor Count0
Hydrogen Bond Acceptor Count2
Rotatable Bond Count0
Exact Mass101.084 Da
Monoisotopic Mass101.084 Da
Topological Polar Surface Area12.500 Ų
Heavy Atom Count7
Formal Charge0
Complexity50.000
Isotope Atom Count0
Defined Atom Stereocenter Count0
Undefined Atom Stereocenter Count0
Defined Bond Stereocenter Count0
Undefined Bond Stereocenter Count0
The total count of all stereochemical bonds0
Covalently-Bonded Unit Count1
FAQs and Articles
For Protein Sequencing
Why Do So Many Molecules Incorporate an “Oxadiazole Ring”? A Stability-Oriented Design Guide from Structural Effects to Application Storylines (with Product Navigation Tables 1–3)
β-Acyloxy Alkenyl Amides (AAAs): A New Approach to Amide Bond and Peptide Bond Construction Worth Attention
Understanding ATD-DMAP: From Reagent Design to Esterification, Amidation, and Stereochemical Integrity
A New Balance in Coupling Reagents: How DMT-TU Balances Reactivity, Racemization Control, and Thermal Hazard
The Positioning of TBTU in Practice: Racemization Risk, Extended Uses, and Selection Criteria
The Methodological Value of HATU in Difficult Couplings: Reactivity Advantages, Stereochemical Retention, and Condition Management
The Methodological Value of Boc-Oxyma: Low-Racemization Coupling, Route Continuity, and Extended Applications
Low Racemization in Peptide Synthesis Is Not Just About Reagent Choice: Stereochemical Risk During the Activation Stage and Practical Strategies for Experimental Control
The Methodological Value of TCFH: Advantages in Challenging Amidation and the Switching Logic of Carboxylic Acid Activation Pathways
Decision Logic for Peptide Synthesis Routes: Applicability and Criteria for Choosing among SPPS, LPPS, and Recombinant Expression
Decision Logic for Selecting Coupling Reagents in Amide Bond Formation: Activation Pathways, Side Reactions, Epimerization, Workup, and Safety
Experimental Selection Logic for Carboxylic Acid Preactivation Pathways: Differences and Suitable Use Cases for Classical Mixed Anhydrides, CDI, Sulfonyl Chloride Systems, and the Yamaguchi System
Boc₂O Selection Cannot Be Judged by Protection Installation Alone: Experimental Decision-Making from Substrate Nucleophilicity and Medium Effects to Deprotection Pathways
DMAP Is More Than Just an Organic Base: Experimental Judgment from Nucleophilic Acyl Transfer to Esterification and Macrolactonization
Experimental Evaluation of Triphosgene in Organic Synthesis: Understanding Its Selection Logic Through Reaction Tasks
Experimental Judgment for TFPN in Carboxylic Acid Activation: Suitable Scenarios, Intermediate Distribution, and Nucleophile Compatibility
Selective Acylation of Less Reactive Amines in Complex Substrates: Strategies for N/O and N/N Selectivity Control This article draws on the work of Li et al. on the TCFH/catalytic Oxyma system and transient imine protection, and summarizes design strateg
How to Troubleshoot Abnormal Impurities in Peptide Synthesis? Locating Process Issues Through Amino-Related Side Reactions
Peptide Intermediates Difficult to Dissolve and Separate? Route Design and Workup Strategies for Tag-Assisted Liquid-Phase Peptide Synthesis (TAG-LPPS)
AITF-Mediated Carboxylic Acid Activation for the Synthesis of Amides, Peptides, and Esters: Activation Mechanism and Applicable Scenarios
Formation and Control of Carboxyl- and Hydroxyl-Related Impurities in Peptide Synthesis — Using Asp/Glu and Ser/Thr Residue Side Reactions as Examples
Logic for Selecting Amidation Reagents in Aqueous Media: Competing Reactions, Activated Intermediates, and Substrate Effects
How to Select Morpholine Intermediates: From Connection Sites and Target Bond Types to Synthetic Route Design
Citations of This Product
Solution Calculators
Reviews

Customer Reviews

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