Description
PM839 CAS 72244-98-5
Apparence | Liquide transparent incolore |
Viscosité (25℃) , mPas | 12000~14000 |
APHA Color | ≤20 |
Utilisation du PM839:
In the field of material science, PM839 has emerged as a low-temperature fast curing agent for epoxy resins. Its appearance is pure and colorless, or a transparent liquid with a hint of yellowish color. Its viscosity ranges from 12,000 to 14,000 mPa-s at room temperature, i.e., 25°C. This viscosity characteristic makes it useful in a wide range of application scenarios. Its sulfhydryl content is impressive at ≥12 and its coloration is controlled at ≤20, which ensures both performance and good appearance in use.
In terms of practical applications, PM839 is frequently seen in various industrial and electronic fields. In the case of 5-minute AB glue, for example, it can achieve efficient bonding results in a very short time, which meets the needs of rapid production. In the field of electronic adhesives, it provides a reliable guarantee for the fixing and encapsulation of electronic components. In the application of metal epoxy putty, it can effectively fill the tiny gaps on the metal surface and enhance the stability and durability of the metal structure. In the production of electronic thermal conductive adhesive, PM839 not only has good bonding performance, but also can realize efficient heat conduction, to ensure the stability of electronic equipment in the process of operation. In the field of anticorrosive coatings, it provides a strong protective barrier for metal surfaces against the erosion of the external environment.
The field of silicon rod cutting adhesive deserves special mention. Silicon rod cutting, as a key link in the photovoltaic industry, requires high performance of cutting adhesives, and PM839 silicon rod cutting adhesive shows excellent bonding strength and flexibility after curing. From the perspective of historical development, the early silicon rod cutting adhesive due to poor performance, resulting in silicon rod cutting process often appear to fall, edge chips and cracks and other problems, seriously affecting the yield of silicon rod cutting. The appearance of PM839 has greatly improved this situation. For example, in the production line of a large photovoltaic enterprise, after the use of PM839 cutting adhesive, the yield of silicon bar cutting from the original 70% to more than 90%, which not only improves the production efficiency, but also reduces the production cost. Once the silicon rods have been cut, the silicon wafers coated with the adhesive can be quickly and easily separated by immersing them in warm water, which also facilitates large-scale industrial production.
The photovoltaic industry is in a golden age of growth as the global demand for clean energy grows. According to relevant data, the annual growth rate of the global photovoltaic industry has reached more than 20% in the past decade. In this development trend, the fine degree of silicon rod cutting requirements are also rising, which will undoubtedly promote the market demand for silicon rod cutting adhesive shows a rapid growth trend. According to the forecast of market research institutions, in the next five years, the market size of silicone rod cutting adhesive is expected to realize double growth.
In addition, PM839 also plays an important role in the packaging field of electronic and electrical production. As a key process in the production of electronic and electrical appliances, the quality of packaging is directly related to the final quality and service life of the product. In the packaging process of electronic components, packaging adhesive bears the important responsibility of protecting electronic components. From the scientific principle, it can effectively prevent the intrusion of moisture, avoiding the electronic components short-circuit or damage due to moisture. At the same time, it can also block dust and harmful gases to prevent these impurities from corroding electronic equipment or circuit boards. For example, in some electronic enterprises in coastal areas, due to the high humidity of the air, if high-quality packaging adhesives are not used, the failure rate of electronic components will be significantly higher. In addition, packaging adhesives can also slow down or offset the effects of external forces and vibrations on electronic components through their own cushioning effect, thus greatly improving the stability of electronic equipment. As the demand for smart phones, smart homes and other electronic and electrical products continues to climb globally, China, as the world’s largest electronics production and consumption market, is also expanding its market size. According to statistics, China’s electronics market has grown at an annual rate of about 15% over the past five years, which will further drive the steady growth in demand for adhesives for electrical and electronic products.
Paquet PM839
25 kg/tambour ou 220 kg/tambour
PM839 Stockage :
Les produits sont conservés dans un entrepôt sec, propre et bien ventilé.
Éviter l'exposition à la lumière et à la chaleur.
Protéger le produit des fuites, de la pluie et de l'insolation pendant le transport.
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Polythiol/Polymèrecaptan | ||
Monomère DMES | Sulfure de bis(2-mercaptoéthyle) | 3570-55-6 |
Monomère DMPT | THIOCURE DMPT | 131538-00-6 |
Monomère PETMP | 7575-23-7 | |
PM839 Monomère | Polyoxy(méthyl-1,2-éthanediyl) | 72244-98-5 |
Monomère monofonctionnel | ||
Monomère HEMA | Méthacrylate de 2-hydroxyéthyle | 868-77-9 |
Monomère HPMA | Méthacrylate de 2-hydroxypropyle | 27813-02-1 |
Monomère THFA | Acrylate de tétrahydrofurfuryle | 2399-48-6 |
HDCPA Monomère | Acrylate de dicyclopentényle hydrogéné | 79637-74-4 |
Monomère DCPMA | Méthacrylate de dihydrodicyclopentadiényle | 30798-39-1 |
Monomère DCPA | Acrylate de dihydrodicyclopentadiényle | 12542-30-2 |
Monomère DCPEMA | Méthacrylate de dicyclopentenyloxyéthyle | 68586-19-6 |
Monomère DCPEOA | Acrylate de dicyclopentenyloxyéthyle | 65983-31-5 |
Monomère NP-4EA | (4) nonylphénol éthoxylé | 50974-47-5 |
Monomère LA | Acrylate de laurier / Acrylate de dodécyle | 2156-97-0 |
Monomère THFMA | Méthacrylate de tétrahydrofurfuryle | 2455-24-5 |
Monomère PHEA | ACRYLATE DE 2-PHÉNOXYÉTHYLE | 48145-04-6 |
Monomère LMA | Méthacrylate de lauryle | 142-90-5 |
Monomère IDA | Acrylate d'isodécyle | 1330-61-6 |
Monomère IBOMA | Méthacrylate d'isobornyle | 7534-94-3 |
Monomère IBOA | Acrylate d'isobornyle | 5888-33-5 |
EOEOEA Monomère | Acrylate de 2-(2-Éthoxyéthoxy)éthyle | 7328-17-8 |
Monomère multifonctionnel | ||
Monomère DPHA | 29570-58-9 | |
Monomère DI-TMPTA | TÉTRAACRYLATE DE DI(TRIMÉTHYLOLPROPANE) | 94108-97-1 |
Acrylamide monomère | ||
Monomère ACMO | 4-acryloylmorpholine | 5117-12-4 |
Monomère di-fonctionnel | ||
Monomère PEGDMA | Diméthacrylate de poly(éthylène glycol) | 25852-47-5 |
Monomère TPGDA | Diacrylate de tripropylène glycol | 42978-66-5 |
Monomère TEGDMA | Diméthacrylate de triéthylène glycol | 109-16-0 |
Monomère PO2-NPGDA | Propoxylate de diacrylate de néopentylène glycol | 84170-74-1 |
Monomère PEGDA | Diacrylate de polyéthylène glycol | 26570-48-9 |
Monomère PDDA | Phtalate diacrylate de diéthylène glycol | |
Monomère NPGDA | Diacrylate de néopentyle et de glycol | 2223-82-7 |
Monomère HDDA | Diacrylate d'hexaméthylène | 13048-33-4 |
Monomère EO4-BPADA | DIACRYLATE DE BISPHÉNOL A ÉTHOXYLÉ (4) | 64401-02-1 |
EO10-BPADA Monomère | DIACRYLATE DE BISPHÉNOL A ÉTHOXYLÉ (10) | 64401-02-1 |
EGDMA Monomère | Diméthacrylate d'éthylène glycol | 97-90-5 |
Monomère DPGDA | Diénoate de dipropylène glycol | 57472-68-1 |
Monomère Bis-GMA | Méthacrylate de glycidyle de bisphénol A | 1565-94-2 |
Monomère trifonctionnel | ||
Monomère TMPTMA | Triméthacrylate de triméthylolpropane | 3290-92-4 |
Monomère TMPTA | Triacrylate de triméthylolpropane | 15625-89-5 |
Monomère PETA | 3524-68-3 | |
GPTA ( G3POTA ) Monomère | TRIACRYLATE DE GLYCÉRYLE ET DE PROPOXY | 52408-84-1 |
Monomère EO3-TMPTA | Triacrylate de triméthylolpropane éthoxylé | 28961-43-5 |
Monomère photorésistant | ||
Monomère IPAMA | Méthacrylate de 2-isopropyl-2-adamantyle | 297156-50-4 |
ECPMA Monomère | Méthacrylate de 1 éthylcyclopentyle | 266308-58-1 |
Monomère ADAMA | Méthacrylate de 1-Adamantyle | 16887-36-8 |
Monomère de méthacrylates | ||
Monomère TBAEMA | Méthacrylate de 2-(Tert-butylamino)éthyle | 3775-90-4 |
Monomère NBMA | Méthacrylate de n-butyle | 97-88-1 |
Monomère MEMA | Méthacrylate de 2-méthoxyéthyle | 6976-93-8 |
Monomère i-BMA | Méthacrylate d'isobutyle | 97-86-9 |
Monomère EHMA | Méthacrylate de 2-éthylhexyle | 688-84-6 |
Monomère EGDMP | Bis(3-mercaptopropionate) d'éthylène glycol | 22504-50-3 |
Monomère EEMA | 2-méthoxyéthyle 2-méthylprop-2-énoate | 2370-63-0 |
Monomère DMAEMA | Méthacrylate de N,M-diméthylaminoéthyle | 2867-47-2 |
Monomère DEAM | Méthacrylate de diéthylaminoéthyle | 105-16-8 |
Monomère CHMA | Méthacrylate de cyclohexyle | 101-43-9 |
Monomère BZMA | Méthacrylate de benzyle | 2495-37-6 |
Monomère BDDMP | 1,4-Butanediol Di(3-mercaptopropionate) | 92140-97-1 |
Monomère BDDMA | 1,4-Butanedioldiméthacrylate | 2082-81-7 |
Monomère AMA | Méthacrylate d'allyle | 96-05-9 |
Monomère AAEM | Méthacrylate d'acétylacétoxyéthyle | 21282-97-3 |
Monomère d'acrylates | ||
Monomère IBA | Acrylate d'isobutyle | 106-63-8 |
Monomère EMA | Méthacrylate d'éthyle | 97-63-2 |
Monomère DMAEA | Acrylate de diméthylaminoéthyle | 2439-35-2 |
Monomère DEAEA | 2-(diéthylamino)éthyl prop-2-énoate | 2426-54-2 |
Monomère CHA | Prop-2-énoate de cyclohexyle | 3066-71-5 |
Monomère BZA | prop-2-énoate de benzyle | 2495-35-4 |
Xavier Thompson -
Merveilleuse expérience ! Le service était excellent, la qualité du produit a dépassé mes attentes.