AMA Monomer / Allyl methacrylate CAS 96-05-9

(1 customer review)

Description

AMA Monomer / Allyl methacrylate CAS 96-05-9

Item Specification
CAS No 96-05-9
Color(Pt-Co),Hazen 20
Pueity,% ≥ 99.5
Water content,% ≤ 0.1
VAcidity(as methacrylic acid),% ≤ 0.03

 

Allyl methacrylate is an important cross-linking agent that provides second-stage effective cross-linking of bifunctional groups with good pharmaceutical resistance, impact strength, adhesion, hardness and low shrinkage. It is used in dental materials, industrial paints, silicone intermediates, antiglare agents, optical polymers, elastomers and some vinyl and acrylate polymer systems.

Other Name:

Ageflex AMA;

Allylester kyseliny methakrylove;

allyl 2-methacrylate;

Allylmethacrylate;

Visomer AMA;

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Polythiol/Polymercaptan
DMES Monomer Bis(2-mercaptoethyl) sulfide 3570-55-6
DMPT Monomer THIOCURE DMPT 131538-00-6
PETMP Monomer 7575-23-7
PM839 Monomer Polyoxy(methyl-1,2-ethanediyl) 72244-98-5
Monofunctional Monomer
HEMA Monomer 2-hydroxyethyl methacrylate 868-77-9
HPMA Monomer 2-Hydroxypropyl methacrylate 27813-02-1
THFA Monomer Tetrahydrofurfuryl acrylate 2399-48-6
HDCPA Monomer Hydrogenated dicyclopentenyl acrylate 79637-74-4
DCPMA Monomer Dihydrodicyclopentadienyl methacrylate 30798-39-1
DCPA Monomer Dihydrodicyclopentadienyl Acrylate 12542-30-2
DCPEMA Monomer Dicyclopentenyloxyethyl Methacrylate 68586-19-6
DCPEOA Monomer Dicyclopentenyloxyethyl Acrylate 65983-31-5
NP-4EA Monomer (4) ethoxylated nonylphenol 50974-47-5
LA Monomer Lauryl acrylate / Dodecyl acrylate 2156-97-0
THFMA Monomer Tetrahydrofurfuryl methacrylate 2455-24-5
PHEA Monomer 2-PHENOXYETHYL ACRYLATE 48145-04-6
LMA Monomer Lauryl methacrylate 142-90-5
IDA Monomer Isodecyl acrylate 1330-61-6
IBOMA Monomer Isobornyl methacrylate 7534-94-3
IBOA Monomer Isobornyl acrylate 5888-33-5
EOEOEA Monomer 2-(2-Ethoxyethoxy)ethyl acrylate 7328-17-8
Multifunctional monomer
DPHA Monomer 29570-58-9
DI-TMPTA Monomer DI(TRIMETHYLOLPROPANE) TETRAACRYLATE 94108-97-1
Acrylamide monomer
ACMO Monomer 4-acryloylmorpholine 5117-12-4
Di-functional Monomer
PEGDMA Monomer Poly(ethylene glycol) dimethacrylate 25852-47-5
TPGDA Monomer Tripropylene glycol diacrylate 42978-66-5
TEGDMA Monomer Triethylene glycol dimethacrylate 109-16-0
PO2-NPGDA Monomer Propoxylate neopentylene glycol diacrylate 84170-74-1
PEGDA Monomer Polyethylene Glycol Diacrylate 26570-48-9
PDDA Monomer Phthalate diethylene glycol diacrylate
NPGDA Monomer Neopentyl glycol diacrylate 2223-82-7
HDDA Monomer Hexamethylene Diacrylate 13048-33-4
EO4-BPADA Monomer ETHOXYLATED (4) BISPHENOL A DIACRYLATE 64401-02-1
EO10-BPADA Monomer ETHOXYLATED (10) BISPHENOL A DIACRYLATE 64401-02-1
EGDMA Monomer Ethylene glycol dimethacrylate 97-90-5
DPGDA Monomer Dipropylene Glycol Dienoate 57472-68-1
Bis-GMA Monomer Bisphenol A Glycidyl Methacrylate 1565-94-2
Trifunctional Monomer
TMPTMA Monomer Trimethylolpropane trimethacrylate 3290-92-4
TMPTA Monomer Trimethylolpropane triacrylate 15625-89-5
PETA Monomer 3524-68-3
GPTA ( G3POTA ) Monomer GLYCERYL PROPOXY TRIACRYLATE 52408-84-1
EO3-TMPTA Monomer Ethoxylated trimethylolpropane triacrylate 28961-43-5
Photoresist Monomer
IPAMA Monomer 2-isopropyl-2-adamantyl methacrylate 297156-50-4
ECPMA Monomer 1-Ethylcyclopentyl Methacrylate 266308-58-1
ADAMA Monomer 1-Adamantyl Methacrylate 16887-36-8
Methacrylates monomer
TBAEMA Monomer 2-(Tert-butylamino)ethyl methacrylate 3775-90-4
NBMA Monomer n-Butyl methacrylate 97-88-1
MEMA Monomer 2-Methoxyethyl Methacrylate 6976-93-8
i-BMA Monomer Isobutyl methacrylate 97-86-9
EHMA Monomer 2-Ethylhexyl methacrylate 688-84-6
EGDMP Monomer Ethylene glycol Bis(3-mercaptopropionate) 22504-50-3
EEMA Monomer 2-ethoxyethyl 2-methylprop-2-enoate 2370-63-0
DMAEMA Monomer N,M-Dimethylaminoethyl methacrylate 2867-47-2
DEAM Monomer Diethylaminoethyl methacrylate 105-16-8
CHMA Monomer Cyclohexyl methacrylate 101-43-9
BZMA Monomer Benzyl methacrylate 2495-37-6
BDDMP Monomer 1,4-Butanediol Di(3-mercaptopropionate) 92140-97-1
BDDMA Monomer 1,4-Butanedioldimethacrylate 2082-81-7
AMA Monomer Allyl methacrylate 96-05-9
AAEM Monomer Acetylacetoxyethyl methacrylate 21282-97-3
Acrylates Monomer
IBA Monomer Isobutyl acrylate 106-63-8
EMA Monomer Ethyl methacrylate 97-63-2
DMAEA Monomer Dimethylaminoethyl acrylate 2439-35-2
DEAEA Monomer 2-(diethylamino)ethyl prop-2-enoate 2426-54-2
CHA Monomer cyclohexyl prop-2-enoate 3066-71-5
BZA Monomer benzyl prop-2-enoate 2495-35-4

 

Factors affecting the glass transition temperature Tg, melting temperature Tm, and viscous flow temperature Tf of polymers

The glass transition temperature (Tg), melt temperature (Tm) (crystalline polymers), and viscous flow temperature (Tf) (non-crystalline polymers) of polymers are important temperature parameters, with Tg determining the service temperature of the polymer and Tm and Tf determining the processing temperature of the polymer. Although there are many factors that affect the Tg, Tm and Tf values of polymers, but in general two, one is the influence of the structure and properties of oligomers, and the other is the influence of other factors. First, the impact of polymer chain structure. Any chain structure factors that increase the chain rigidity can make Tg, Tm and Tf values increase, any chain flexibility to increase the chain structure factors can make Tg, Tm and Tf values decrease. When rigid groups such as phenyl group, biphenyl group and conjugated double bond are introduced to the main chain, the rigidity of the chain will increase, and Tg, Tm and Tf will all increase; when ether bond and isolated double bond are introduced to the main chain, the chain will become flexible, and Tg, Tm and Tf will all decrease; when the side chain is a rigid group, the flexibility of the chain will decrease as the volume of the side group increases, and Tg, Tm and Tf will all increase; when the side chain is a flexible group or a flexible chain, the The larger the side chain, the better the flexibility, the better the flexibility of the whole molecular chain, Tg, Tm and Tf are reduced. Second, intermolecular forces. For polar polymers, there is strong interaction between polar groups on the molecular chain, and the intermolecular force is strong, and the values of Tg, Tm and Tf are larger than the corresponding values of non-polar polymers; and the values of Tg, Tm and Tf increase with the increase of intermolecular force. Third, molecular weight. Since Tm is related to crystallization, in general, molecular weight has little effect on Tm, and both Tg and Tf increase with the increase of molecular weight. For Tg, this trend is more obvious when the molecular weight is low, while the change of Tg is extremely slow when the molecular weight increases to a certain degree. The effect of molecular weight on Tf is much more significant than that on Tg. This is because the effect of molecular weight on Tg is attributed to the chain end effect, which can only show its effect when the chain end content in the system is relatively high, i.e., the molecular weight is relatively low; after the molecular weight is high to a certain extent and the weight of the chain end is small to almost negligible, its effect on Tg will not be obvious. The movement of the whole chain is achieved by the coordinated movement of all chain segments. The larger the molecular weight is, the more chain segments are needed to achieve the whole chain motion, and the more frictional force needs to be overcome during the motion, and the Tf will rise. Therefore, the Tf value is strongly dependent on the molecular weight. The following are the effects of external factors on the Tg, Tm and Tf values of polymers. Fourth, small molecule soluble additives. Polymer molding process, sometimes to add plasticizers or other soluble additives in the ingredients. For polymers, these small molecules are equivalent to diluents, they will make the polymer Tg, Tm and Tf lower. V. External forces. Unidirectional external force has a driving effect on the chain segments, so increasing the external force can make Tg and Tf lower. And the extension of the external force is also conducive to the movement of molecules in the direction of the external force, which can also reduce Tf. The increase in pressure reduces the free volume and increases Tg and Tf. The effect of external force on Tm is as follows: when the polymer is crystallized under the action of tensile force, the crystallization ability is increased, which improves the crystallinity and also raises the melting point of crystallization, i.e., Tm is increased; crystallization under pressure can increase the thickness of the wafer, thus increasing the perfection of the crystal, which also makes Tm increase. VI. Test rate. This is in terms of the magnitude of the test value obtained from the temperature test aspect. Since the motion of polymer chains is a relaxation process and is time dependent, there is a relationship between the Tg test value and the experimental time scale: increasing the rate of temperature increase or the frequency of dynamic experiments will increase Tg. The same is true for Tf, while the opposite is true for Tm. When testing the Tm value, if the temperature is increased slowly, the imperfect grains can be melted first and then recrystallized into more perfect and stable crystals at a slightly higher temperature. The last measured “melting point” is the temperature at which all the more perfect crystals melt, and is higher than the value measured at a rapid temperature rise.

1 review for AMA Monomer / Allyl methacrylate CAS 96-05-9

  1. Alexander Lee

    From start to finish, the entire shopping experience was seamless. The product arrived well-packaged and in pristine condition. A definite five-star!

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