Does BMA mean n-butyl methacrylate or isobutyl methacrylate?

In most commercial usage the bare abbreviation means the normal isomer, n-butyl methacrylate, CAS 97-88-1. The branched isomer, isobutyl methacrylate, is a different substance with its own identifiers and a different contribution to copolymer hardness, and the tertiary isomer is different again. Because all three are abbreviated loosely in day-to-day correspondence, an order written as BMA alone is ambiguous. Write the full chemical name and the CAS number on every enquiry, purchase order and goods-inwards record.

Why must the monomer not be blanketed with pure nitrogen?

Because the stabiliser used in commercial methacrylate monomers requires dissolved oxygen to function. It intercepts radicals by a mechanism that consumes oxygen, so a drum stripped of oxygen contains an inhibitor that is chemically present and functionally absent. The correct headspace is air, or air diluted with nitrogen to a specified oxygen content, never an inert blanket. This is one of the very few cases in a chemical store where displacing oxygen makes a material more dangerous rather than less, and it catches people whose instinct is trained on flammable solvents.

How should inhibitor content be read on a certificate?

As a starting condition rather than a permanent property. The certificate reports the inhibitor level at release; that level falls in storage as the stabiliser does its job, and it falls faster in warm conditions, in light and in the presence of contamination. A long-stored drum can meet its original certificate on every other line while having very little inhibitor left. Where storage has been long or uncertain, retest the inhibitor level before charging a reactor rather than relying on the release figure.

What is popcorn polymerisation and why does it matter here?

It is a self-propagating, expanding polymer growth that forms in dead legs, vapour spaces, valve bonnets and residues where inhibitor cannot reach. Once seeded it continues under conditions that would not start a normal polymerisation, and it grows mechanically enough to jam valves and distort equipment. The controls are housekeeping controls: no unswept dead legs, no long-standing residues, no lines left full between campaigns, and clean vessels before refilling. It is not a reason to avoid methacrylate monomers, but it is a reason to design the pipework as if the monomer were reactive, because it is.

How does the butyl ester change a copolymer compared with the methyl one?

The four-carbon ester side chain is flexible and bulky, so it loosens chain packing and lowers the temperature at which the polymer softens. Against the methyl ester it gives a softer, more flexible and more extensible polymer, better adhesion and easier film formation, at the cost of hardness and block resistance. Against the corresponding acrylate it gives a harder polymer with the weathering advantage of the methacrylate backbone. Formulators use it as the soft component of an all-methacrylate system, which keeps the durability while tuning flexibility.

Che cos'è Dipropylene glycol monobutyl ether?

Dipropylene glycol monobutyl ether è un composto chimico registrato con il numero CAS 29911-28-2. Formula bruta: C10H22O3. Massa molare: 190.28 g/mol. IUPAC: 1-(1-butoxypropan-2-yloxy)propan-2-ol.

Qual è il numero CAS di Dipropylene glycol monobutyl ether?

Il numero CAS di Dipropylene glycol monobutyl ether è 29911-28-2 — un identificativo univoco del Chemical Abstracts Service (CAS).

Qual è la formula bruta di Dipropylene glycol monobutyl ether?

Formula bruta: C10H22O3. Massa molare: 190.28 g/mol. logP (XLogP3): 1.4. PSA: 38.7 Å².

Quali sono i pericoli GHS di Dipropylene glycol monobutyl ether?

Secondo la classificazione GHS, Dipropylene glycol monobutyl ether deve riportare le seguenti indicazioni di pericolo: H373 (Può provocare danni agli organi in caso di esposizione prolungata o ripetuta.).

Dove acquistare Dipropylene glycol monobutyl ether?

Dipropylene glycol monobutyl ether è disponibile nel nostro negozio. Vedi il prodotto: https://epchems.online/products/dipropylene-glycol-monobutyl-ether/

Da dove provengono i dati chimici di Dipropylene glycol monobutyl ether?

I dati chimici di Dipropylene glycol monobutyl ether provengono da fonti autorevoli: PubChem (NIH). PubChem CID: 24752. Conformi al Regolamento CLP (CE 1272/2008), disponibili con licenza CC-BY 4.0.

Dipropylene glycol monobutyl ether

Dipropylene glycol n-butyl ether

CAS 29911-28-2 · C₁₀H₂₂O₃ · MW 190.28 g/mol

Informazioni su Dipropylene glycol monobutyl ether

Dipropylene glycol monobutyl ether è un composto chimico registrato con il numero CAS 29911-28-2, con formula bruta C₁₀H₂₂O₃, e massa molare di 190.28 g/mol.

La molecola contiene 35 atomi collegati da 34 legami chimici. Il nome sistematico IUPAC completo di questo composto è 1-(1-butoxypropan-2-yloxy)propan-2-ol. Il modello 3D interattivo qui sopra permette di visualizzare la disposizione spaziale degli atomi — puoi ruotarlo con il mouse, zoomare con la rotellina e passare tra le modalità di visualizzazione scheletro / Ball & Stick / Space Fill.

Dal punto di vista delle proprietà chimico-fisiche, il coefficiente di ripartizione logP = 1.4 (valore positivo, composto lipofilo), superficie polare PSA = 38.7 Å², 1 donatori e 3 accettori di legami a idrogeno. Questi parametri sono fondamentali per valutare la biodisponibilità e l'interazione con le biomolecole.

I dati chimici di questo composto provengono da PubChem (NIH NLM NCBI), uno dei più grandi database chimici al mondo. Tutte le informazioni sono aggiornate automaticamente e arricchite con le traduzioni delle indicazioni di pericolo GHS conformi al Regolamento CLP (CE 1272/2008). Il widget qui sopra può essere utilizzato per scopi educativi, di ricerca e commerciali.

Proprietà chimico-fisiche

Wzór sumaryczny	C₁₀H₂₂O₃
Masa molowa	190.28 g/mol
IUPAC	1-(1-butoxypropan-2-yloxy)propan-2-ol
SMILES	`CCCCOCC(C)OCC(C)O`
InChIKey	`CUVLMZNMSPJDON-UHFFFAOYSA-N`
logP (XLogP3)	1.4
PSA	38.7 Å²
HBD / HBA	1 / 3
PubChem CID	CID 24752 ↗

Sicurezza GHS

Sygnał: Uwaga

GHS08

H373 — Może powodować uszkodzenie narządów poprzez długotrwałe lub powtarzane narażenie

Letteratura scientifica

Literatura naukowa

20 artykułów · 15 open access · Źródła: PubMed, OpenAlex, Semantic Scholar

📈 Timeline publikacji (20 artykułów)

Wysokość słupka = liczba artykułów w roku. Hover dla szczegółów.

Dermal and pulmonary absorption of propan-1-ol and propan-2-ol from hand rubs.

Alexander Usche, Bessonneau, Vincent, Ivo Partecke et al. (2012) · Elsevier

Cytowania: 24$ PaywallDOI ↗

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1-[2-(2-Methoxyphenylamino)ethylamino]-3-(naphthalene-1- yloxy)propan-2-ol May Be a Promising Anticancer Drug

Tomoyuki Nishizaki, Takeshi Kanno, Ayako Tsuchiya et al. (2014) · Molecules

Cytowania: 10Open AccessDOI ↗PDF ↗

Vapor-liquid equilibrium data for binary systems of 1-Methyl-4-(1-methylethenyl)-cyclohexene plus {Ethanol, Propan-1-ol, Propan-2-ol, Butan-1-ol, Pentan-1-ol, or Hexan-1-ol} at 40 kPa

Ramjugernath, Deresh, Ngema, Peterson Thokozani, Naidoo, Paramespri et al. (2023) · American Chemical Society (ACS)

Cytowania: 16$ PaywallDOI ↗

1-[2-(2-Methoxyphenylamino)ethylamino]-3-(naphthalene-1-yloxy)propan-2-ol as a Potential Anticancer Drug

Takeshi Kanno, Akito Tanaka, Tadashi Shimizu et al. (2013) · Pharmacology

Cytowania: 14$ PaywallDOI ↗

Excess Molar Volumes of 1,3-Diethyl Propanedioate with Methanol, Ethanol, Propan-1-ol, Propan-2-ol, Butan-2-ol, 2-Methyl-propan-1-ol, and Pentan-1-ol at <i>T</i> = (288.15, 298.15, 313.15, and 328.15) K

Yihe Wang, Weidong Yan (2010) · Journal of Chemical & Engineering Data

Cytowania: 7$ PaywallDOI ↗

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Total Synthesis of the Proposed Structure of Indolyl 1,2-Propanediol Alkaloid, 1-(1H-Indol-3-yloxy)propan-2-ol

Momoko Kimata, Takumi Abe (2023) · Chemistry

Cytowania: 2Open AccessDOI ↗PDF ↗

Excess molar enthalpies of (propan-1-ol or propan-2-ol + acetonitrile), (propan-1-ol or propan-2-ol + chlorobenzene), and (propan-1-ol or propan-2-ol + acetonitrile + chlorobenzene) at 298.15 K

Isamu Nagata, Kazuhiro Tamura (1988) · The Journal of Chemical Thermodynamics

Cytowania: 24$ PaywallDOI ↗

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Adsorption of Phosgene Gas on Pristine and Noble Metal-Doped B12N12 Nanocages: Insights from Density Functional Theory

Shahariar Chowdhury, Mohammad Abdul Matin, Samiran Bhattacharjee et al. (2026) · arXiv (2609.21678v1)

Open AccessPDF ↗

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Orbital angular momentum accumulation in SrVO3 thin films

Julien Brehin, Montserrat X. Aguilar-Pujol, Dongwook Go et al. (2026) · arXiv (2609.21551v1)

Open AccessPDF ↗

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Single Best Fits Can Be Misleading: Resolving Common Trapping Signatures across FA--Cs Perovskites

Maxim Simmonds, Katarzyna Pydzińska-Białek, Thomas C. Rossi et al. (2026) · arXiv (2609.21545v1)

Open AccessPDF ↗

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From sparse quantum-computing data to atomistic simulation with universal machine-learning interatomic potentials

Tuan Minh Do, Yuichiro Yoshida, Kenji Ishihara et al. (2026) · arXiv (2609.21536v1)

Open AccessPDF ↗

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Granular thermostat implementation within the soft-sphere Discrete Element Method (DEM) framework, considerations and limitations

Marco Previtali, Herbert Eric Huppert, Sergio Andres Galindo Torres (2026) · arXiv (2609.21297v1)

Open AccessPDF ↗

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A Gaussian process coarse-grained potential for Na-montmorillonite

Yalda Pedram, Yaoting Zhang, Laurent Brochard et al. (2026) · arXiv (2609.20645v1)

Open AccessPDF ↗

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Collective Ion Dynamics from Finite-Volume Fluctuations in Model Explicit-Solvent Electrolytes

Jeongmin Kim (2026) · arXiv (2609.20503v1)

Open AccessPDF ↗

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A Computational Method to Simulate Electrostatic Actuation in Polycatenated Architected Materials

Mateus Maciel Vivaldi, Alexandre F. Fonseca (2026) · arXiv (2609.20373v1)

Open AccessPDF ↗

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Anharmonic Phonon Renormalization and Defect Tolerance of the Thermoelectric Power Factor in Monolayer SnSe

Nguyen Tran Gia Bao, Thang Bach Phan, Vu Thi Hanh Thu et al. (2026) · arXiv (2609.20019v1)

Open AccessPDF ↗

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Sensitivity of Nucleation Thermodynamics and Kinetics to the Treatment of Long-Range Interactions

Fernanda Sulantay Vargas, Kimia Sinaeian, Amir Haji-Akbari (2026) · arXiv (2609.19646v1)

Open AccessPDF ↗

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Universality of the $1/9$ Magnetization Plateau and Quantum-Disordered States in the Kagome Family $\mathrm{Cs_8AB_3Ti_{12}F_{48}}$ ($A=\mathrm{Rb},\mathrm{Li}$; $B=\mathrm{K},\mathrm{Na}$)

Prena Chaudhary, Asiri Thennakoon, Tommy Park et al. (2026) · arXiv (2609.19572v1)

Open AccessPDF ↗

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Engineering and Probing a One-Dimensional Dipolar Spin Ensemble in Diamond

Lingjie Chen, Shreyas Parthasarathy, Simon A. Meynell et al. (2026) · arXiv (2609.19496v1)

Open AccessPDF ↗

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The Origin of the Observed Raman Peaks in α-MnTe

Nurul Azam, Syed Mohammad Shahed, Liam T. Schmidt et al. (2026) · arXiv (2609.19467v1)

Open AccessPDF ↗

Dane z PubMed (NIH NLM), OpenAlex (CC0), Semantic Scholar (AI2). AI Summary wygenerowane przez Semantic Scholar TLDR. Artykuły z ikoną wymagają płatnego dostępu.

Fonti dei dati

📊 PubChem CID 24752 — NIH
🔬 NIST WebBook — spektroskopia
💊 ChEMBL — bioaktywność

Acquista nel negozio

Dipropylene glycol monobutyl ether →

Molecole correlate

Citric acid monohydrate CAS 77-92-9 · C6H8O7 L (+)-Arginine CAS 74-79-3 · C6H14N4O2 Maleic anhydride CAS 108-31-6 · C4H2O3 Trichloroethylene CAS 127-18-4 · C2Cl4 Epichlorohydrin CAS 106-89-8 · C3H5ClO N-Methyl-2-pyrrolidone CAS 872-50-4 · C5H9NO