• Acetic Acid Market Growth 2021, Latest Trends, COVID-19 Impact, and Forecast to 2028
    The global acetic acid market sizeis expected to reach USD 13.79billion by 2027, exhibiting a CAGR of 8.4% during the forecast period. The rising consumption of solvents such as VAM in the chemical industry for paints & coatings, adhesives & sealants will bolster the healthy growth of the market, states Fortune Business Insights, in a report, titled “Acetic Acid Market Size, Share & Industry Analysis, By Application (Vinyl Acetate Monomer (VAM), Purified Terephthalic Acid (PTA), Ester Solvents, Acetic Anhydride, Others), and Geography Forecast, 2020-2027.” The market size stood at USD 8.34 billion in 2019.


    Market Driver:

    Advancements in Polymer Development to Bolster Growth

    The growing technological advancements in polymers and products made out of VAM will significantly aid the expansion of the market. The growing demand for VAM in the production of ethylene vinyl alcohol (EVOH), a barrier resin in food packaging, gasoline tanks, and other engineering polymers will have an excellent effect on the market. Some other VAM derivatives such as vinyl chloride-vinyl acetate copolymers have applications in adhesives & sealants, which, in turn, will bolster the health of the market. Moreover, It also has applications in adhesive due to adhesion properties to different substrates that include wood, paper, metals, and plastic films.

    Decreased Production to Hamper Market in COVID-19 Pandemic

    The reduced production of chemicals has negatively impacted on the market growth. The shutdown of factories due to a shortage of laborers and diminished supply of raw materials can dwindle the sales, in turn, affecting the growth of the market. However, the demand for ethanoic acid alongside the high consumption of sanitizers will subsequently aid in the recovery of the business amid coronavirus. Besides, health and safety concerns in healthcare facilities will further improve the prospects of the market in the near future.

    Regional Analysis:

    Heavy Investments in Polymers to Promote Growth in Asia Pacific

    The market in Asia Pacific is expected to hold the largest share in the global market owing to the rising polymer formulations in the region. The chemical is a key raw material used for the production of polymers in industries across Japan, China, and India. China is a major leader in polymers and chemicals. China's capacity further helps in the high production of ethanoic acid. According, to Chemical Market Associates, Inc. (CMAI) 400,000 tons per year demand is in China, from the global average demand. The improving construction industry in India is expected to further boost growth in the region. Europe is expected to hold a significant share during the forecast period owing to the rising demand from end-use sectors. The growing import activities will aid expansion in Europe. Moreover, the high production of methanol carbonylation, which has accounted for up to 65% of the world capacity, and other process oxidation of acetaldehyde by German producer Wacker will significantly create opportunities for the market in the region.

    Information source:

    https://www.fortunebusinessinsights.com/acetic-acid-market-103386
    Acetic Acid Market Growth 2021, Latest Trends, COVID-19 Impact, and Forecast to 2028 The global acetic acid market sizeis expected to reach USD 13.79billion by 2027, exhibiting a CAGR of 8.4% during the forecast period. The rising consumption of solvents such as VAM in the chemical industry for paints & coatings, adhesives & sealants will bolster the healthy growth of the market, states Fortune Business Insights, in a report, titled “Acetic Acid Market Size, Share & Industry Analysis, By Application (Vinyl Acetate Monomer (VAM), Purified Terephthalic Acid (PTA), Ester Solvents, Acetic Anhydride, Others), and Geography Forecast, 2020-2027.” The market size stood at USD 8.34 billion in 2019. Market Driver: Advancements in Polymer Development to Bolster Growth The growing technological advancements in polymers and products made out of VAM will significantly aid the expansion of the market. The growing demand for VAM in the production of ethylene vinyl alcohol (EVOH), a barrier resin in food packaging, gasoline tanks, and other engineering polymers will have an excellent effect on the market. Some other VAM derivatives such as vinyl chloride-vinyl acetate copolymers have applications in adhesives & sealants, which, in turn, will bolster the health of the market. Moreover, It also has applications in adhesive due to adhesion properties to different substrates that include wood, paper, metals, and plastic films. Decreased Production to Hamper Market in COVID-19 Pandemic The reduced production of chemicals has negatively impacted on the market growth. The shutdown of factories due to a shortage of laborers and diminished supply of raw materials can dwindle the sales, in turn, affecting the growth of the market. However, the demand for ethanoic acid alongside the high consumption of sanitizers will subsequently aid in the recovery of the business amid coronavirus. Besides, health and safety concerns in healthcare facilities will further improve the prospects of the market in the near future. Regional Analysis: Heavy Investments in Polymers to Promote Growth in Asia Pacific The market in Asia Pacific is expected to hold the largest share in the global market owing to the rising polymer formulations in the region. The chemical is a key raw material used for the production of polymers in industries across Japan, China, and India. China is a major leader in polymers and chemicals. China's capacity further helps in the high production of ethanoic acid. According, to Chemical Market Associates, Inc. (CMAI) 400,000 tons per year demand is in China, from the global average demand. The improving construction industry in India is expected to further boost growth in the region. Europe is expected to hold a significant share during the forecast period owing to the rising demand from end-use sectors. The growing import activities will aid expansion in Europe. Moreover, the high production of methanol carbonylation, which has accounted for up to 65% of the world capacity, and other process oxidation of acetaldehyde by German producer Wacker will significantly create opportunities for the market in the region. Information source: https://www.fortunebusinessinsights.com/acetic-acid-market-103386
    Acetic Acid Market Size, Share | Global Research Report [2028]
    The global acetic acid market is projected to grow from $7.29 billion in 2021 to $10.54 billion in 2028 at a CAGR of 5.4% in forecast period, 2021-2028
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  • Acetic Acid Market Growth 2021, Latest Trends, COVID-19 Impact, and Forecast to 2028
    The global acetic acid market size is expected to reach USD 13.79billion by 2027, exhibiting a CAGR of 8.4% during the forecast period. The rising consumption of solvents such as VAM in the chemical industry for paints & coatings, adhesives & sealants will bolster the healthy growth of the market, states Fortune Business Insights, in a report, titled “Acetic Acid Market Size, Share & Industry Analysis, By Application (Vinyl Acetate Monomer (VAM), Purified Terephthalic Acid (PTA), Ester Solvents, Acetic Anhydride, Others), and Geography Forecast, 2020-2027.” The market size stood at USD 8.34 billion in 2019.


    Market Driver:

    Advancements in Polymer Development to Bolster Growth

    The growing technological advancements in polymers and products made out of VAM will significantly aid the expansion of the market. The growing demand for VAM in the production of ethylene vinyl alcohol (EVOH), a barrier resin in food packaging, gasoline tanks, and other engineering polymers will have an excellent effect on the market. Some other VAM derivatives such as vinyl chloride-vinyl acetate copolymers have applications in adhesives & sealants, which, in turn, will bolster the health of the market. Moreover, It also has applications in adhesive due to adhesion properties to different substrates that include wood, paper, metals, and plastic films.

    Decreased Production to Hamper Market in COVID-19 Pandemic

    The reduced production of chemicals has negatively impacted on the market growth. The shutdown of factories due to a shortage of laborers and diminished supply of raw materials can dwindle the sales, in turn, affecting the growth of the market. However, the demand for ethanoic acid alongside the high consumption of sanitizers will subsequently aid in the recovery of the business amid coronavirus. Besides, health and safety concerns in healthcare facilities will further improve the prospects of the market in the near future.

    Regional Analysis:

    Heavy Investments in Polymers to Promote Growth in Asia Pacific

    The market in Asia Pacific is expected to hold the largest share in the global market owing to the rising polymer formulations in the region. The chemical is a key raw material used for the production of polymers in industries across Japan, China, and India. China is a major leader in polymers and chemicals. China's capacity further helps in the high production of ethanoic acid. According, to Chemical Market Associates, Inc. (CMAI) 400,000 tons per year demand is in China, from the global average demand. The improving construction industry in India is expected to further boost growth in the region. Europe is expected to hold a significant share during the forecast period owing to the rising demand from end-use sectors. The growing import activities will aid expansion in Europe. Moreover, the high production of methanol carbonylation, which has accounted for up to 65% of the world capacity, and other process oxidation of acetaldehyde by German producer Wacker will significantly create opportunities for the market in the region.

    Information source:

    https://www.fortunebusinessinsights.com/acetic-acid-market-103386
    Acetic Acid Market Growth 2021, Latest Trends, COVID-19 Impact, and Forecast to 2028 The global acetic acid market size is expected to reach USD 13.79billion by 2027, exhibiting a CAGR of 8.4% during the forecast period. The rising consumption of solvents such as VAM in the chemical industry for paints & coatings, adhesives & sealants will bolster the healthy growth of the market, states Fortune Business Insights, in a report, titled “Acetic Acid Market Size, Share & Industry Analysis, By Application (Vinyl Acetate Monomer (VAM), Purified Terephthalic Acid (PTA), Ester Solvents, Acetic Anhydride, Others), and Geography Forecast, 2020-2027.” The market size stood at USD 8.34 billion in 2019. Market Driver: Advancements in Polymer Development to Bolster Growth The growing technological advancements in polymers and products made out of VAM will significantly aid the expansion of the market. The growing demand for VAM in the production of ethylene vinyl alcohol (EVOH), a barrier resin in food packaging, gasoline tanks, and other engineering polymers will have an excellent effect on the market. Some other VAM derivatives such as vinyl chloride-vinyl acetate copolymers have applications in adhesives & sealants, which, in turn, will bolster the health of the market. Moreover, It also has applications in adhesive due to adhesion properties to different substrates that include wood, paper, metals, and plastic films. Decreased Production to Hamper Market in COVID-19 Pandemic The reduced production of chemicals has negatively impacted on the market growth. The shutdown of factories due to a shortage of laborers and diminished supply of raw materials can dwindle the sales, in turn, affecting the growth of the market. However, the demand for ethanoic acid alongside the high consumption of sanitizers will subsequently aid in the recovery of the business amid coronavirus. Besides, health and safety concerns in healthcare facilities will further improve the prospects of the market in the near future. Regional Analysis: Heavy Investments in Polymers to Promote Growth in Asia Pacific The market in Asia Pacific is expected to hold the largest share in the global market owing to the rising polymer formulations in the region. The chemical is a key raw material used for the production of polymers in industries across Japan, China, and India. China is a major leader in polymers and chemicals. China's capacity further helps in the high production of ethanoic acid. According, to Chemical Market Associates, Inc. (CMAI) 400,000 tons per year demand is in China, from the global average demand. The improving construction industry in India is expected to further boost growth in the region. Europe is expected to hold a significant share during the forecast period owing to the rising demand from end-use sectors. The growing import activities will aid expansion in Europe. Moreover, the high production of methanol carbonylation, which has accounted for up to 65% of the world capacity, and other process oxidation of acetaldehyde by German producer Wacker will significantly create opportunities for the market in the region. Information source: https://www.fortunebusinessinsights.com/acetic-acid-market-103386
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    Acetic Acid Market Size, Share | Global Research Report [2028]
    The global acetic acid market is projected to grow from $7.29 billion in 2021 to $10.54 billion in 2028 at a CAGR of 5.4% in forecast period, 2021-2028
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  • NT CAT PC-8 CAS No.:98-94-2 Synthesis method and application New
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    NT CAT PC-8 CAS No.:98-94-2 Synthesis method and application

    Brief introduction.
    Chemical Chinese name: N,N-dimethylcyclohexylamine
    Chemical English name: N,N-dimethylcyclohexylamine; dimethyl aminocy clohexane
    Chemical Alias: Dimethyl aminocyclohexane
    CAS No.: 98-94-2
    EC No.: 202-715-5
    Molecular formula: C8H17N

    Synthesis method.
    N,N-dimethylaniline catalytic chlorination method
    In 1904, Sabatier et al. carried out the gas-phase hydrogenation of N,N a dimethylamine at a temperature of 160-180°C and at atmospheric pressure to produce DMCHA.

    Phenol method
    This method uses Pd or Rh as the catalyst, and phenol dimethylamine and hydrogen as raw materials. For example, when Pd is the catalyst, the catalyst dosage is 0.2~0.5, and the process conditions are 60~150℃, hydrogen pressure 0.15~0.48MPa, reaction time 6h, and the yield is between 70~80%. The raw material is available, and the reaction conditions are mild, but the catalyst is made of precious metals, and the yield is low.

    Cyclohexylamine method
    The process also uses formaldehyde and formic acid to react with cyclohexylamine, or uses oxides of Bi, Sb, Mg, A1, Lu, etc. as catalysts to react cyclohexylamine with methanol to methylate cyclohexylamine to produce DMCHA. the disadvantage of this method is the low selectivity of the former reaction, and the yield of the later methylation is not high.

    Cyclohexanone method
    Among the methods for the synthesis of DMCHA, the reductive amination method using cyclohexanone as raw material has more advantages: high conversion, yield and selectivity. The processes using Pd/C catalyst or Cu-A1 catalyst have their own characteristics and are currently under development in China.

    Uses.
    [Use I] Mainly used as polyurethane hard foam catalyst
    [Use II] N,N-dimethylcyclohexylamine can be used in a wide range of rigid foams. N,N-Dimethylcyclohexylamine is also suitable for the manufacture of rigid foam furniture frames and decorative parts. It can be used as the main catalyst alone in rigid foam products without the addition of organotin, or it can be supplemented with JD series catalysts according to the process and product requirements. It is also used as intermediate of rubber accelerator and synthetic fiber.
    Use III】It is used as intermediate of dyestuff, used to make vanillin, azo dyestuff, triphenylmethane dyestuff, also can be used as solvent, stabilizer, analysis reagent, etc.. Also used as catalyst.

    Storage and transportation.
    Should be sealed and stored in a dry, cool and ventilated warehouse

    Package: 200KG/drum
    200KG/drum Storage: It is recommended to store in dry and cool area with proper ventilation. Please fasten the lid as soon as possible after original packaging to prevent the mixing of other substances such as moisture and other substances from affecting the product performance. Do not inhale dust and avoid skin and mucous membrane contact. Smoking, eating and drinking are prohibited in the workplace. After work, shower and change clothes. Store contaminated clothes separately and wash them before use. Maintain good hygiene habits.

    More:https://www.newtopchem.com/archives/40458
    NT CAT PC-8 CAS No.:98-94-2 Synthesis method and application Brief introduction. Chemical Chinese name: N,N-dimethylcyclohexylamine Chemical English name: N,N-dimethylcyclohexylamine; dimethyl aminocy clohexane Chemical Alias: Dimethyl aminocyclohexane CAS No.: 98-94-2 EC No.: 202-715-5 Molecular formula: C8H17N Synthesis method. N,N-dimethylaniline catalytic chlorination method In 1904, Sabatier et al. carried out the gas-phase hydrogenation of N,N a dimethylamine at a temperature of 160-180°C and at atmospheric pressure to produce DMCHA. Phenol method This method uses Pd or Rh as the catalyst, and phenol dimethylamine and hydrogen as raw materials. For example, when Pd is the catalyst, the catalyst dosage is 0.2~0.5, and the process conditions are 60~150℃, hydrogen pressure 0.15~0.48MPa, reaction time 6h, and the yield is between 70~80%. The raw material is available, and the reaction conditions are mild, but the catalyst is made of precious metals, and the yield is low. Cyclohexylamine method The process also uses formaldehyde and formic acid to react with cyclohexylamine, or uses oxides of Bi, Sb, Mg, A1, Lu, etc. as catalysts to react cyclohexylamine with methanol to methylate cyclohexylamine to produce DMCHA. the disadvantage of this method is the low selectivity of the former reaction, and the yield of the later methylation is not high. Cyclohexanone method Among the methods for the synthesis of DMCHA, the reductive amination method using cyclohexanone as raw material has more advantages: high conversion, yield and selectivity. The processes using Pd/C catalyst or Cu-A1 catalyst have their own characteristics and are currently under development in China. Uses. [Use I] Mainly used as polyurethane hard foam catalyst [Use II] N,N-dimethylcyclohexylamine can be used in a wide range of rigid foams. N,N-Dimethylcyclohexylamine is also suitable for the manufacture of rigid foam furniture frames and decorative parts. It can be used as the main catalyst alone in rigid foam products without the addition of organotin, or it can be supplemented with JD series catalysts according to the process and product requirements. It is also used as intermediate of rubber accelerator and synthetic fiber. Use III】It is used as intermediate of dyestuff, used to make vanillin, azo dyestuff, triphenylmethane dyestuff, also can be used as solvent, stabilizer, analysis reagent, etc.. Also used as catalyst. Storage and transportation. Should be sealed and stored in a dry, cool and ventilated warehouse Package: 200KG/drum 200KG/drum Storage: It is recommended to store in dry and cool area with proper ventilation. Please fasten the lid as soon as possible after original packaging to prevent the mixing of other substances such as moisture and other substances from affecting the product performance. Do not inhale dust and avoid skin and mucous membrane contact. Smoking, eating and drinking are prohibited in the workplace. After work, shower and change clothes. Store contaminated clothes separately and wash them before use. Maintain good hygiene habits. More:https://www.newtopchem.com/archives/40458
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  • NT CAT PC-8 CAS No.:98-94-2 Synthesis method and application New
    $10
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    Rm1104 ,No. 258, West SongXing Road, BaoShan District, Shanghai, China.
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    NT CAT PC-8 CAS No.:98-94-2 Synthesis method and application

    Brief introduction.
    Chemical Chinese name: N,N-dimethylcyclohexylamine
    Chemical English name: N,N-dimethylcyclohexylamine; dimethyl aminocy clohexane
    Chemical Alias: Dimethyl aminocyclohexane
    CAS No.: 98-94-2
    EC No.: 202-715-5
    Molecular formula: C8H17N

    Synthesis method.
    N,N-dimethylaniline catalytic chlorination method
    In 1904, Sabatier et al. carried out the gas-phase hydrogenation of N,N a dimethylamine at a temperature of 160-180°C and at atmospheric pressure to produce DMCHA.

    Phenol method
    This method uses Pd or Rh as the catalyst, and phenol dimethylamine and hydrogen as raw materials. For example, when Pd is the catalyst, the catalyst dosage is 0.2~0.5, and the process conditions are 60~150℃, hydrogen pressure 0.15~0.48MPa, reaction time 6h, and the yield is between 70~80%. The raw material is available, and the reaction conditions are mild, but the catalyst is made of precious metals, and the yield is low.

    Cyclohexylamine method
    The process also uses formaldehyde and formic acid to react with cyclohexylamine, or uses oxides of Bi, Sb, Mg, A1, Lu, etc. as catalysts to react cyclohexylamine with methanol to methylate cyclohexylamine to produce DMCHA. the disadvantage of this method is the low selectivity of the former reaction, and the yield of the later methylation is not high.

    Cyclohexanone method
    Among the methods for the synthesis of DMCHA, the reductive amination method using cyclohexanone as raw material has more advantages: high conversion, yield and selectivity. The processes using Pd/C catalyst or Cu-A1 catalyst have their own characteristics and are currently under development in China.

    Uses.
    [Use I] Mainly used as polyurethane hard foam catalyst
    [Use II] N,N-dimethylcyclohexylamine can be used in a wide range of rigid foams. N,N-Dimethylcyclohexylamine is also suitable for the manufacture of rigid foam furniture frames and decorative parts. It can be used as the main catalyst alone in rigid foam products without the addition of organotin, or it can be supplemented with JD series catalysts according to the process and product requirements. It is also used as intermediate of rubber accelerator and synthetic fiber.
    Use III】It is used as intermediate of dyestuff, used to make vanillin, azo dyestuff, triphenylmethane dyestuff, also can be used as solvent, stabilizer, analysis reagent, etc.. Also used as catalyst.

    Storage and transportation.
    Should be sealed and stored in a dry, cool and ventilated warehouse

    Package: 200KG/drum
    200KG/drum Storage: It is recommended to store in dry and cool area with proper ventilation. Please fasten the lid as soon as possible after original packaging to prevent the mixing of other substances such as moisture and other substances from affecting the product performance. Do not inhale dust and avoid skin and mucous membrane contact. Smoking, eating and drinking are prohibited in the workplace. After work, shower and change clothes. Store contaminated clothes separately and wash them before use. Maintain good hygiene habits.

    More:https://www.newtopchem.com/archives/40458
    NT CAT PC-8 CAS No.:98-94-2 Synthesis method and application Brief introduction. Chemical Chinese name: N,N-dimethylcyclohexylamine Chemical English name: N,N-dimethylcyclohexylamine; dimethyl aminocy clohexane Chemical Alias: Dimethyl aminocyclohexane CAS No.: 98-94-2 EC No.: 202-715-5 Molecular formula: C8H17N Synthesis method. N,N-dimethylaniline catalytic chlorination method In 1904, Sabatier et al. carried out the gas-phase hydrogenation of N,N a dimethylamine at a temperature of 160-180°C and at atmospheric pressure to produce DMCHA. Phenol method This method uses Pd or Rh as the catalyst, and phenol dimethylamine and hydrogen as raw materials. For example, when Pd is the catalyst, the catalyst dosage is 0.2~0.5, and the process conditions are 60~150℃, hydrogen pressure 0.15~0.48MPa, reaction time 6h, and the yield is between 70~80%. The raw material is available, and the reaction conditions are mild, but the catalyst is made of precious metals, and the yield is low. Cyclohexylamine method The process also uses formaldehyde and formic acid to react with cyclohexylamine, or uses oxides of Bi, Sb, Mg, A1, Lu, etc. as catalysts to react cyclohexylamine with methanol to methylate cyclohexylamine to produce DMCHA. the disadvantage of this method is the low selectivity of the former reaction, and the yield of the later methylation is not high. Cyclohexanone method Among the methods for the synthesis of DMCHA, the reductive amination method using cyclohexanone as raw material has more advantages: high conversion, yield and selectivity. The processes using Pd/C catalyst or Cu-A1 catalyst have their own characteristics and are currently under development in China. Uses. [Use I] Mainly used as polyurethane hard foam catalyst [Use II] N,N-dimethylcyclohexylamine can be used in a wide range of rigid foams. N,N-Dimethylcyclohexylamine is also suitable for the manufacture of rigid foam furniture frames and decorative parts. It can be used as the main catalyst alone in rigid foam products without the addition of organotin, or it can be supplemented with JD series catalysts according to the process and product requirements. It is also used as intermediate of rubber accelerator and synthetic fiber. Use III】It is used as intermediate of dyestuff, used to make vanillin, azo dyestuff, triphenylmethane dyestuff, also can be used as solvent, stabilizer, analysis reagent, etc.. Also used as catalyst. Storage and transportation. Should be sealed and stored in a dry, cool and ventilated warehouse Package: 200KG/drum 200KG/drum Storage: It is recommended to store in dry and cool area with proper ventilation. Please fasten the lid as soon as possible after original packaging to prevent the mixing of other substances such as moisture and other substances from affecting the product performance. Do not inhale dust and avoid skin and mucous membrane contact. Smoking, eating and drinking are prohibited in the workplace. After work, shower and change clothes. Store contaminated clothes separately and wash them before use. Maintain good hygiene habits. More:https://www.newtopchem.com/archives/40458
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  • NT CAT PC-5 CAS No.: 3030-47-5 Product Application New
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    Rm1104 ,No. 258, West SongXing Road, BaoShan District, Shanghai, China.
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    NT CAT PC-5 CAS No.: 3030-47-5 Product Application

    Brief introduction.
    Chemical name: N,N,N′,N′,N″-Pentamethyldiethylenetriamine
    Alias: Pentamethyldiethylenetriamine
    Abbreviation: PMDETA
    English name: N,N,N′,N′,N″-pentamethyldiethylenetriamine
    Molecular formula: C9H23N3
    Relative molecular mass 173.3
    CAS No. 3030-47-5

    Applications.
    Pentamethyldiethylenetriamine (PMDETA) is a highly active tertiary amine foaming catalyst, PMDETA has a strong foaming effect, which can improve the flow of foam and enhance the quality of products.PMDETA can also be used as a ligand for polyurethane foam catalysts and a ligand for functional polymerization materials. In addition, other applications are exemplified as follows.
    1. Preparation of a two-phase amine absorber for capturing CO2.
    The two-phase amine absorber is a three-component system consisting of diethylenetriamine, pentamethylenetriamine, and water, and the total concentration of diethylenetriamine and pentamethylenetriamine in water is 4~5 mol/L, and the molar ratio of diethylenetriamine to pentamethylenetriamine is 1:4~4:1; these two organic amines alone do not have the ability to split the phase after absorbing CO2 in aqueous solution, but the two-phase amine absorber composed of the three-phase system But the two-phase amine absorber composed of this ternary system has the performance of phase separation, which is a homogeneous solution before absorbing CO2, and is divided into two phases after absorbing CO2 saturation. After saturated absorption, CO2 is enriched in the aqueous phase, and after phase separation, only the solution enriched in the CO2 phase needs to be regenerated thermally, thus greatly reducing the amount of enriched liquid required for regeneration, effectively reducing regeneration energy consumption, and also maintaining efficient CO2 absorption performance, which has a wide range of application prospects.

    2. A methanol gasoline power accelerator.
    The accelerator consists of: isooctanol, aminoacetaldehyde diethyl acetal, 1,5-cyclooctadiene, 2-acetylbenzofuran, propargyl alcohol, n-propanol, zinc naphthenate, dinonyl naphthalene sulfonic acid, dipolyoxyvinyl aliphatic amine, and pentamethyldiethylenetriamine. The preparation method includes: a. Add isooctanol, aminoacetaldehyde diethyl acetal, 1,5-cyclooctadiene, 2-acetylbenzofuran to the reaction kettle and stir the reaction for 40-50 minutes at 60-62°C with closed ultrasonic stirring, b. Mix n-propanol, zinc naphthenate, dinonyl naphthalenesulfonic acid and stir for 15-25 minutes; c. Add propargyl alcohol, the mixture in step b, dipolyoxyvinyl fatty amine, pentamethyl diethylenetriamine, add them to the mixture in step a in turn, stir for 20~25 minutes at 33~35℃, and then cool down to obtain.

    Quality index.
    Content: ≥98%
    Specific gravity: 0.8330-0.8410
    Refractive index: 1.4430-1.4450

    Storage and transportation.
    Should be sealed and stored in a dry, cool and ventilated warehouse

    Packing.
    200KG/drum Storage: It is recommended to be stored in dry and cool area with proper ventilation. Please fasten the lid as soon as possible after the original packaging to prevent the mixing of other substances such as water and other substances from affecting the product performance. Do not inhale dust and avoid skin and mucous membrane contact. Smoking, eating and drinking are prohibited in the workplace. After work, shower and change clothes. Store contaminated clothes separately and wash them before use. Maintain good hygiene habits.

    More:https://www.newtopchem.com/archives/668
    NT CAT PC-5 CAS No.: 3030-47-5 Product Application Brief introduction. Chemical name: N,N,N′,N′,N″-Pentamethyldiethylenetriamine Alias: Pentamethyldiethylenetriamine Abbreviation: PMDETA English name: N,N,N′,N′,N″-pentamethyldiethylenetriamine Molecular formula: C9H23N3 Relative molecular mass 173.3 CAS No. 3030-47-5 Applications. Pentamethyldiethylenetriamine (PMDETA) is a highly active tertiary amine foaming catalyst, PMDETA has a strong foaming effect, which can improve the flow of foam and enhance the quality of products.PMDETA can also be used as a ligand for polyurethane foam catalysts and a ligand for functional polymerization materials. In addition, other applications are exemplified as follows. 1. Preparation of a two-phase amine absorber for capturing CO2. The two-phase amine absorber is a three-component system consisting of diethylenetriamine, pentamethylenetriamine, and water, and the total concentration of diethylenetriamine and pentamethylenetriamine in water is 4~5 mol/L, and the molar ratio of diethylenetriamine to pentamethylenetriamine is 1:4~4:1; these two organic amines alone do not have the ability to split the phase after absorbing CO2 in aqueous solution, but the two-phase amine absorber composed of the three-phase system But the two-phase amine absorber composed of this ternary system has the performance of phase separation, which is a homogeneous solution before absorbing CO2, and is divided into two phases after absorbing CO2 saturation. After saturated absorption, CO2 is enriched in the aqueous phase, and after phase separation, only the solution enriched in the CO2 phase needs to be regenerated thermally, thus greatly reducing the amount of enriched liquid required for regeneration, effectively reducing regeneration energy consumption, and also maintaining efficient CO2 absorption performance, which has a wide range of application prospects. 2. A methanol gasoline power accelerator. The accelerator consists of: isooctanol, aminoacetaldehyde diethyl acetal, 1,5-cyclooctadiene, 2-acetylbenzofuran, propargyl alcohol, n-propanol, zinc naphthenate, dinonyl naphthalene sulfonic acid, dipolyoxyvinyl aliphatic amine, and pentamethyldiethylenetriamine. The preparation method includes: a. Add isooctanol, aminoacetaldehyde diethyl acetal, 1,5-cyclooctadiene, 2-acetylbenzofuran to the reaction kettle and stir the reaction for 40-50 minutes at 60-62°C with closed ultrasonic stirring, b. Mix n-propanol, zinc naphthenate, dinonyl naphthalenesulfonic acid and stir for 15-25 minutes; c. Add propargyl alcohol, the mixture in step b, dipolyoxyvinyl fatty amine, pentamethyl diethylenetriamine, add them to the mixture in step a in turn, stir for 20~25 minutes at 33~35℃, and then cool down to obtain. Quality index. Content: ≥98% Specific gravity: 0.8330-0.8410 Refractive index: 1.4430-1.4450 Storage and transportation. Should be sealed and stored in a dry, cool and ventilated warehouse Packing. 200KG/drum Storage: It is recommended to be stored in dry and cool area with proper ventilation. Please fasten the lid as soon as possible after the original packaging to prevent the mixing of other substances such as water and other substances from affecting the product performance. Do not inhale dust and avoid skin and mucous membrane contact. Smoking, eating and drinking are prohibited in the workplace. After work, shower and change clothes. Store contaminated clothes separately and wash them before use. Maintain good hygiene habits. More:https://www.newtopchem.com/archives/668
    0 Comments 0 Shares 643 Views 0 Reviews
  • NT CAT PC-5 CAS No.: 3030-47-5 Product Application New
    $10
    In stock
    Rm1104 ,No. 258, West SongXing Road, BaoShan District, Shanghai, China.
    0 Reviews
    NT CAT PC-5 CAS No.: 3030-47-5 Product Application

    Brief introduction.
    Chemical name: N,N,N′,N′,N″-Pentamethyldiethylenetriamine
    Alias: Pentamethyldiethylenetriamine
    Abbreviation: PMDETA
    English name: N,N,N′,N′,N″-pentamethyldiethylenetriamine
    Molecular formula: C9H23N3
    Relative molecular mass 173.3
    CAS No. 3030-47-5

    Applications.
    Pentamethyldiethylenetriamine (PMDETA) is a highly active tertiary amine foaming catalyst, PMDETA has a strong foaming effect, which can improve the flow of foam and enhance the quality of products.PMDETA can also be used as a ligand for polyurethane foam catalysts and a ligand for functional polymerization materials. In addition, other applications are exemplified as follows.
    1. Preparation of a two-phase amine absorber for capturing CO2.
    The two-phase amine absorber is a three-component system consisting of diethylenetriamine, pentamethylenetriamine, and water, and the total concentration of diethylenetriamine and pentamethylenetriamine in water is 4~5 mol/L, and the molar ratio of diethylenetriamine to pentamethylenetriamine is 1:4~4:1; these two organic amines alone do not have the ability to split the phase after absorbing CO2 in aqueous solution, but the two-phase amine absorber composed of the three-phase system But the two-phase amine absorber composed of this ternary system has the performance of phase separation, which is a homogeneous solution before absorbing CO2, and is divided into two phases after absorbing CO2 saturation. After saturated absorption, CO2 is enriched in the aqueous phase, and after phase separation, only the solution enriched in the CO2 phase needs to be regenerated thermally, thus greatly reducing the amount of enriched liquid required for regeneration, effectively reducing regeneration energy consumption, and also maintaining efficient CO2 absorption performance, which has a wide range of application prospects.

    2. A methanol gasoline power accelerator.
    The accelerator consists of: isooctanol, aminoacetaldehyde diethyl acetal, 1,5-cyclooctadiene, 2-acetylbenzofuran, propargyl alcohol, n-propanol, zinc naphthenate, dinonyl naphthalene sulfonic acid, dipolyoxyvinyl aliphatic amine, and pentamethyldiethylenetriamine. The preparation method includes: a. Add isooctanol, aminoacetaldehyde diethyl acetal, 1,5-cyclooctadiene, 2-acetylbenzofuran to the reaction kettle and stir the reaction for 40-50 minutes at 60-62°C with closed ultrasonic stirring, b. Mix n-propanol, zinc naphthenate, dinonyl naphthalenesulfonic acid and stir for 15-25 minutes; c. Add propargyl alcohol, the mixture in step b, dipolyoxyvinyl fatty amine, pentamethyl diethylenetriamine, add them to the mixture in step a in turn, stir for 20~25 minutes at 33~35℃, and then cool down to obtain.

    Quality index.
    Content: ≥98%
    Specific gravity: 0.8330-0.8410
    Refractive index: 1.4430-1.4450

    Storage and transportation.
    Should be sealed and stored in a dry, cool and ventilated warehouse

    Packing.
    200KG/drum Storage: It is recommended to be stored in dry and cool area with proper ventilation. Please fasten the lid as soon as possible after the original packaging to prevent the mixing of other substances such as water and other substances from affecting the product performance. Do not inhale dust and avoid skin and mucous membrane contact. Smoking, eating and drinking are prohibited in the workplace. After work, shower and change clothes. Store contaminated clothes separately and wash them before use. Maintain good hygiene habits.

    More:https://www.newtopchem.com/archives/668
    NT CAT PC-5 CAS No.: 3030-47-5 Product Application Brief introduction. Chemical name: N,N,N′,N′,N″-Pentamethyldiethylenetriamine Alias: Pentamethyldiethylenetriamine Abbreviation: PMDETA English name: N,N,N′,N′,N″-pentamethyldiethylenetriamine Molecular formula: C9H23N3 Relative molecular mass 173.3 CAS No. 3030-47-5 Applications. Pentamethyldiethylenetriamine (PMDETA) is a highly active tertiary amine foaming catalyst, PMDETA has a strong foaming effect, which can improve the flow of foam and enhance the quality of products.PMDETA can also be used as a ligand for polyurethane foam catalysts and a ligand for functional polymerization materials. In addition, other applications are exemplified as follows. 1. Preparation of a two-phase amine absorber for capturing CO2. The two-phase amine absorber is a three-component system consisting of diethylenetriamine, pentamethylenetriamine, and water, and the total concentration of diethylenetriamine and pentamethylenetriamine in water is 4~5 mol/L, and the molar ratio of diethylenetriamine to pentamethylenetriamine is 1:4~4:1; these two organic amines alone do not have the ability to split the phase after absorbing CO2 in aqueous solution, but the two-phase amine absorber composed of the three-phase system But the two-phase amine absorber composed of this ternary system has the performance of phase separation, which is a homogeneous solution before absorbing CO2, and is divided into two phases after absorbing CO2 saturation. After saturated absorption, CO2 is enriched in the aqueous phase, and after phase separation, only the solution enriched in the CO2 phase needs to be regenerated thermally, thus greatly reducing the amount of enriched liquid required for regeneration, effectively reducing regeneration energy consumption, and also maintaining efficient CO2 absorption performance, which has a wide range of application prospects. 2. A methanol gasoline power accelerator. The accelerator consists of: isooctanol, aminoacetaldehyde diethyl acetal, 1,5-cyclooctadiene, 2-acetylbenzofuran, propargyl alcohol, n-propanol, zinc naphthenate, dinonyl naphthalene sulfonic acid, dipolyoxyvinyl aliphatic amine, and pentamethyldiethylenetriamine. The preparation method includes: a. Add isooctanol, aminoacetaldehyde diethyl acetal, 1,5-cyclooctadiene, 2-acetylbenzofuran to the reaction kettle and stir the reaction for 40-50 minutes at 60-62°C with closed ultrasonic stirring, b. Mix n-propanol, zinc naphthenate, dinonyl naphthalenesulfonic acid and stir for 15-25 minutes; c. Add propargyl alcohol, the mixture in step b, dipolyoxyvinyl fatty amine, pentamethyl diethylenetriamine, add them to the mixture in step a in turn, stir for 20~25 minutes at 33~35℃, and then cool down to obtain. Quality index. Content: ≥98% Specific gravity: 0.8330-0.8410 Refractive index: 1.4430-1.4450 Storage and transportation. Should be sealed and stored in a dry, cool and ventilated warehouse Packing. 200KG/drum Storage: It is recommended to be stored in dry and cool area with proper ventilation. Please fasten the lid as soon as possible after the original packaging to prevent the mixing of other substances such as water and other substances from affecting the product performance. Do not inhale dust and avoid skin and mucous membrane contact. Smoking, eating and drinking are prohibited in the workplace. After work, shower and change clothes. Store contaminated clothes separately and wash them before use. Maintain good hygiene habits. More:https://www.newtopchem.com/archives/668
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  • N-methyl-Methylcyclohexylamine CAS 100-60-7 New
    $10
    In stock
    Jining High-tech Development Zone, Shandong, China/Room a2110, building 55, No. 709, Lingshi Road, Zhabei District, Shanghai
    0 Reviews
    N-methyl-Methylcyclohexylamine CAS 100-60-7

    Descriptions:
    Synonyms:
    Cyclohexylmethylaminecyclohexyl-methyl-aminemethylcyclohexylamine,[corrosivelabel]Cyclohexylamine,N-methyl-1-MethylcyclohexylamineCyclohexanamine,N-methyl-MethylcyclohexylamineN-Cyclohexylmethylamine
    CAS No.:100-60-7
    Molecular Formula:C7H15N ( Isomeride)
    Molecular Weight:113.204
    EINECS:202-869-3
    Category:Pharmaceutical Intermediates


    Physicochemical properties
    Density:0.868
    Melting point:-8℃
    Boiling point:149℃
    Refractive index:1.4545-1.4565
    Flash point:29℃
    Vapor pressure:4.62mmHg at 25°C
    PSA:12.03000
    logP:1.92940
    Appearance:transparent and colorless liquid
    Color: colorless liquid
    Physical Property:transparent and colorless liquid, Miscible with various organic solvents, slightly soluble in water。Melting point:−9-−7 °C(lit.) Boiling point:149 °C(lit.) Density:0.868 g/mL at 25 °C(lit.) Refractive index:n20/D 1.456(lit.) Flash point:85 °F Water solubility:5.4 g/100 mL (20 ºC) transparent and colorless liquid. Miscible with various organic solvents, slightly soluble in water。 transparent and colorless liquid。 Boiling point 147~151℃ Relative density 0.868 Refractive index 1.4456 Flash point 29℃ Solubility Miscible with various organic solvents, slightly soluble in water
    Solubility:Slightly soluble in water, soluble in benzene, alcohol, etc

    Application:
    Used as intermediates in medicine and dyes
    Pharmaceutical and dye intermediates. Used as an intermediate in the drug bromohexamine hydrochloride

    Production Method:
    With cyclohexylamine as raw material prepared. 2. By the reaction of cyclohexanone and methylamine. Soak aluminum sheet in methanol, add high mercury chloride, continue to soak 2h, temperature rise does not exceed 55℃, remove the soaking liquid. Add ethanol to the activated aluminum sheet, drop the mixture of methylamine and cyclohexanone under agitation, heat reflux, and place overnight. Adding 10% sodium hydroxide solution alkalization, extracting with benzene twice, after washing by distillation, benzene recovery that distillation of n-methyl cyclohexylamine. The yield is about 80%. ;

    Storage and transport information::
    It should be sealed and stored in a dry and cool ventilated warehouse

    Packaging:
    200KG/ drum storage: It is recommended to store in dry and cool areas and properly ventilated. After the original packaging, please fasten the packaging cover as soon as possible to prevent moisture and other substances from mixing and affecting the product performance. Do not inhale dust and avoid skin and mucous membrane contact. Smoking, eating and drinking are prohibited in the workplace. After work, shower and change. Store contaminated clothes separately and reuse them after washing. Maintain good hygiene.



    Contact Us
    SHANGHAI OHANS CO., LTD.
    Factory Address :Jining High-tech Development Zone, Shandong, China
    Call Center :021-5161-9971
    Headquarters :Room a2110, building 55, No. 709, Lingshi Road, Zhabei District, Shanghai
    Email Us :honda@ohans.com candy@ohans.com

    More:https://www.ohans.com/n-methyl-methylcyclohexylamine-cas-100-60-7-pdf/
    N-methyl-Methylcyclohexylamine CAS 100-60-7 Descriptions: Synonyms: Cyclohexylmethylaminecyclohexyl-methyl-aminemethylcyclohexylamine,[corrosivelabel]Cyclohexylamine,N-methyl-1-MethylcyclohexylamineCyclohexanamine,N-methyl-MethylcyclohexylamineN-Cyclohexylmethylamine CAS No.:100-60-7 Molecular Formula:C7H15N ( Isomeride) Molecular Weight:113.204 EINECS:202-869-3 Category:Pharmaceutical Intermediates Physicochemical properties Density:0.868 Melting point:-8℃ Boiling point:149℃ Refractive index:1.4545-1.4565 Flash point:29℃ Vapor pressure:4.62mmHg at 25°C PSA:12.03000 logP:1.92940 Appearance:transparent and colorless liquid Color: colorless liquid Physical Property:transparent and colorless liquid, Miscible with various organic solvents, slightly soluble in water。Melting point:−9-−7 °C(lit.) Boiling point:149 °C(lit.) Density:0.868 g/mL at 25 °C(lit.) Refractive index:n20/D 1.456(lit.) Flash point:85 °F Water solubility:5.4 g/100 mL (20 ºC) transparent and colorless liquid. Miscible with various organic solvents, slightly soluble in water。 transparent and colorless liquid。 Boiling point 147~151℃ Relative density 0.868 Refractive index 1.4456 Flash point 29℃ Solubility Miscible with various organic solvents, slightly soluble in water Solubility:Slightly soluble in water, soluble in benzene, alcohol, etc Application: Used as intermediates in medicine and dyes Pharmaceutical and dye intermediates. Used as an intermediate in the drug bromohexamine hydrochloride Production Method: With cyclohexylamine as raw material prepared. 2. By the reaction of cyclohexanone and methylamine. Soak aluminum sheet in methanol, add high mercury chloride, continue to soak 2h, temperature rise does not exceed 55℃, remove the soaking liquid. Add ethanol to the activated aluminum sheet, drop the mixture of methylamine and cyclohexanone under agitation, heat reflux, and place overnight. Adding 10% sodium hydroxide solution alkalization, extracting with benzene twice, after washing by distillation, benzene recovery that distillation of n-methyl cyclohexylamine. The yield is about 80%. ; Storage and transport information:: It should be sealed and stored in a dry and cool ventilated warehouse Packaging: 200KG/ drum storage: It is recommended to store in dry and cool areas and properly ventilated. After the original packaging, please fasten the packaging cover as soon as possible to prevent moisture and other substances from mixing and affecting the product performance. Do not inhale dust and avoid skin and mucous membrane contact. Smoking, eating and drinking are prohibited in the workplace. After work, shower and change. Store contaminated clothes separately and reuse them after washing. Maintain good hygiene. Contact Us SHANGHAI OHANS CO., LTD. Factory Address :Jining High-tech Development Zone, Shandong, China Call Center :021-5161-9971 Headquarters :Room a2110, building 55, No. 709, Lingshi Road, Zhabei District, Shanghai Email Us :honda@ohans.com candy@ohans.com More:https://www.ohans.com/n-methyl-methylcyclohexylamine-cas-100-60-7-pdf/
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  • N-methyl-Methylcyclohexylamine CAS 100-60-7 New
    $10
    In stock
    Jining High-tech Development Zone, Shandong, China/Room a2110, building 55, No. 709, Lingshi Road, Zhabei District, Shanghai
    0 Reviews
    N-methyl-Methylcyclohexylamine CAS 100-60-7

    Descriptions:
    Synonyms:
    Cyclohexylmethylaminecyclohexyl-methyl-aminemethylcyclohexylamine,[corrosivelabel]Cyclohexylamine,N-methyl-1-MethylcyclohexylamineCyclohexanamine,N-methyl-MethylcyclohexylamineN-Cyclohexylmethylamine
    CAS No.:100-60-7
    Molecular Formula:C7H15N ( Isomeride)
    Molecular Weight:113.204
    EINECS:202-869-3
    Category:Pharmaceutical Intermediates


    Physicochemical properties
    Density:0.868
    Melting point:-8℃
    Boiling point:149℃
    Refractive index:1.4545-1.4565
    Flash point:29℃
    Vapor pressure:4.62mmHg at 25°C
    PSA:12.03000
    logP:1.92940
    Appearance:transparent and colorless liquid
    Color: colorless liquid
    Physical Property:transparent and colorless liquid, Miscible with various organic solvents, slightly soluble in water。Melting point:−9-−7 °C(lit.) Boiling point:149 °C(lit.) Density:0.868 g/mL at 25 °C(lit.) Refractive index:n20/D 1.456(lit.) Flash point:85 °F Water solubility:5.4 g/100 mL (20 ºC) transparent and colorless liquid. Miscible with various organic solvents, slightly soluble in water。 transparent and colorless liquid。 Boiling point 147~151℃ Relative density 0.868 Refractive index 1.4456 Flash point 29℃ Solubility Miscible with various organic solvents, slightly soluble in water
    Solubility:Slightly soluble in water, soluble in benzene, alcohol, etc

    Application:
    Used as intermediates in medicine and dyes
    Pharmaceutical and dye intermediates. Used as an intermediate in the drug bromohexamine hydrochloride

    Production Method:
    With cyclohexylamine as raw material prepared. 2. By the reaction of cyclohexanone and methylamine. Soak aluminum sheet in methanol, add high mercury chloride, continue to soak 2h, temperature rise does not exceed 55℃, remove the soaking liquid. Add ethanol to the activated aluminum sheet, drop the mixture of methylamine and cyclohexanone under agitation, heat reflux, and place overnight. Adding 10% sodium hydroxide solution alkalization, extracting with benzene twice, after washing by distillation, benzene recovery that distillation of n-methyl cyclohexylamine. The yield is about 80%. ;

    Storage and transport information::
    It should be sealed and stored in a dry and cool ventilated warehouse

    Packaging:
    200KG/ drum storage: It is recommended to store in dry and cool areas and properly ventilated. After the original packaging, please fasten the packaging cover as soon as possible to prevent moisture and other substances from mixing and affecting the product performance. Do not inhale dust and avoid skin and mucous membrane contact. Smoking, eating and drinking are prohibited in the workplace. After work, shower and change. Store contaminated clothes separately and reuse them after washing. Maintain good hygiene.



    Contact Us
    SHANGHAI OHANS CO., LTD.
    Factory Address :Jining High-tech Development Zone, Shandong, China
    Call Center :021-5161-9971
    Headquarters :Room a2110, building 55, No. 709, Lingshi Road, Zhabei District, Shanghai
    Email Us :honda@ohans.com candy@ohans.com

    More:https://www.ohans.com/n-methyl-methylcyclohexylamine-cas-100-60-7-pdf/
    N-methyl-Methylcyclohexylamine CAS 100-60-7 Descriptions: Synonyms: Cyclohexylmethylaminecyclohexyl-methyl-aminemethylcyclohexylamine,[corrosivelabel]Cyclohexylamine,N-methyl-1-MethylcyclohexylamineCyclohexanamine,N-methyl-MethylcyclohexylamineN-Cyclohexylmethylamine CAS No.:100-60-7 Molecular Formula:C7H15N ( Isomeride) Molecular Weight:113.204 EINECS:202-869-3 Category:Pharmaceutical Intermediates Physicochemical properties Density:0.868 Melting point:-8℃ Boiling point:149℃ Refractive index:1.4545-1.4565 Flash point:29℃ Vapor pressure:4.62mmHg at 25°C PSA:12.03000 logP:1.92940 Appearance:transparent and colorless liquid Color: colorless liquid Physical Property:transparent and colorless liquid, Miscible with various organic solvents, slightly soluble in water。Melting point:−9-−7 °C(lit.) Boiling point:149 °C(lit.) Density:0.868 g/mL at 25 °C(lit.) Refractive index:n20/D 1.456(lit.) Flash point:85 °F Water solubility:5.4 g/100 mL (20 ºC) transparent and colorless liquid. Miscible with various organic solvents, slightly soluble in water。 transparent and colorless liquid。 Boiling point 147~151℃ Relative density 0.868 Refractive index 1.4456 Flash point 29℃ Solubility Miscible with various organic solvents, slightly soluble in water Solubility:Slightly soluble in water, soluble in benzene, alcohol, etc Application: Used as intermediates in medicine and dyes Pharmaceutical and dye intermediates. Used as an intermediate in the drug bromohexamine hydrochloride Production Method: With cyclohexylamine as raw material prepared. 2. By the reaction of cyclohexanone and methylamine. Soak aluminum sheet in methanol, add high mercury chloride, continue to soak 2h, temperature rise does not exceed 55℃, remove the soaking liquid. Add ethanol to the activated aluminum sheet, drop the mixture of methylamine and cyclohexanone under agitation, heat reflux, and place overnight. Adding 10% sodium hydroxide solution alkalization, extracting with benzene twice, after washing by distillation, benzene recovery that distillation of n-methyl cyclohexylamine. The yield is about 80%. ; Storage and transport information:: It should be sealed and stored in a dry and cool ventilated warehouse Packaging: 200KG/ drum storage: It is recommended to store in dry and cool areas and properly ventilated. After the original packaging, please fasten the packaging cover as soon as possible to prevent moisture and other substances from mixing and affecting the product performance. Do not inhale dust and avoid skin and mucous membrane contact. Smoking, eating and drinking are prohibited in the workplace. After work, shower and change. Store contaminated clothes separately and reuse them after washing. Maintain good hygiene. Contact Us SHANGHAI OHANS CO., LTD. Factory Address :Jining High-tech Development Zone, Shandong, China Call Center :021-5161-9971 Headquarters :Room a2110, building 55, No. 709, Lingshi Road, Zhabei District, Shanghai Email Us :honda@ohans.com candy@ohans.com More:https://www.ohans.com/n-methyl-methylcyclohexylamine-cas-100-60-7-pdf/
    0 Comments 0 Shares 574 Views 0 Reviews
  • Acetic Acid Market Latest Trends, COVID 19 Impact Analysis, Key Drivers and Future Demand Forecast 2028
    The global acetic acid industry share is expected to reach USD 13.79billion by 2027, exhibiting a CAGR of 8.4% during the forecast period. The rising consumption of solvents such as VAM in the chemical industry for paints & coatings, adhesives & sealants will bolster the healthy growth of the market, states Fortune Business Insights, in a report, titled “Acetic Acid Market Size, Share & Industry Analysis, By Application (Vinyl Acetate Monomer (VAM), Purified Terephthalic Acid (PTA), Ester Solvents, Acetic Anhydride, Others), and Geography Forecast, 2020-2027.” The market size stood at USD 8.34 billion in 2019.


    Market Driver:

    Advancements in Polymer Development to Bolster Growth

    The growing technological advancements in polymers and products made out of VAM will significantly aid the expansion of the market. The growing demand for VAM in the production of ethylene vinyl alcohol (EVOH), a barrier resin in food packaging, gasoline tanks, and other engineering polymers will have an excellent effect on the market. Some other VAM derivatives such as vinyl chloride-vinyl acetate copolymers have applications in adhesives & sealants, which, in turn, will bolster the health of the market. Moreover, It also has applications in adhesive due to adhesion properties to different substrates that include wood, paper, metals, and plastic films.

    Decreased Production to Hamper Market in COVID-19 Pandemic

    The reduced production of chemicals has negatively impacted on the market growth. The shutdown of factories due to a shortage of laborers and diminished supply of raw materials can dwindle the sales, in turn, affecting the growth of the market. However, the demand for ethanoic acid alongside the high consumption of sanitizers will subsequently aid in the recovery of the business amid coronavirus. Besides, health and safety concerns in healthcare facilities will further improve the prospects of the market in the near future.

    Regional Analysis:

    Heavy Investments in Polymers to Promote Growth in Asia Pacific

    The market in Asia Pacific is expected to hold the largest share in the global market owing to the rising polymer formulations in the region. The chemical is a key raw material used for the production of polymers in industries across Japan, China, and India. China is a major leader in polymers and chemicals. China's capacity further helps in the high production of ethanoic acid. According, to Chemical Market Associates, Inc. (CMAI) 400,000 tons per year demand is in China, from the global average demand. The improving construction industry in India is expected to further boost growth in the region. Europe is expected to hold a significant share during the forecast period owing to the rising demand from end-use sectors. The growing import activities will aid expansion in Europe. Moreover, the high production of methanol carbonylation, which has accounted for up to 65% of the world capacity, and other process oxidation of acetaldehyde by German producer Wacker will significantly create opportunities for the market in the region.

    Information source:

    https://www.fortunebusinessinsights.com/acetic-acid-market-103386
    Acetic Acid Market Latest Trends, COVID 19 Impact Analysis, Key Drivers and Future Demand Forecast 2028 The global acetic acid industry share is expected to reach USD 13.79billion by 2027, exhibiting a CAGR of 8.4% during the forecast period. The rising consumption of solvents such as VAM in the chemical industry for paints & coatings, adhesives & sealants will bolster the healthy growth of the market, states Fortune Business Insights, in a report, titled “Acetic Acid Market Size, Share & Industry Analysis, By Application (Vinyl Acetate Monomer (VAM), Purified Terephthalic Acid (PTA), Ester Solvents, Acetic Anhydride, Others), and Geography Forecast, 2020-2027.” The market size stood at USD 8.34 billion in 2019. Market Driver: Advancements in Polymer Development to Bolster Growth The growing technological advancements in polymers and products made out of VAM will significantly aid the expansion of the market. The growing demand for VAM in the production of ethylene vinyl alcohol (EVOH), a barrier resin in food packaging, gasoline tanks, and other engineering polymers will have an excellent effect on the market. Some other VAM derivatives such as vinyl chloride-vinyl acetate copolymers have applications in adhesives & sealants, which, in turn, will bolster the health of the market. Moreover, It also has applications in adhesive due to adhesion properties to different substrates that include wood, paper, metals, and plastic films. Decreased Production to Hamper Market in COVID-19 Pandemic The reduced production of chemicals has negatively impacted on the market growth. The shutdown of factories due to a shortage of laborers and diminished supply of raw materials can dwindle the sales, in turn, affecting the growth of the market. However, the demand for ethanoic acid alongside the high consumption of sanitizers will subsequently aid in the recovery of the business amid coronavirus. Besides, health and safety concerns in healthcare facilities will further improve the prospects of the market in the near future. Regional Analysis: Heavy Investments in Polymers to Promote Growth in Asia Pacific The market in Asia Pacific is expected to hold the largest share in the global market owing to the rising polymer formulations in the region. The chemical is a key raw material used for the production of polymers in industries across Japan, China, and India. China is a major leader in polymers and chemicals. China's capacity further helps in the high production of ethanoic acid. According, to Chemical Market Associates, Inc. (CMAI) 400,000 tons per year demand is in China, from the global average demand. The improving construction industry in India is expected to further boost growth in the region. Europe is expected to hold a significant share during the forecast period owing to the rising demand from end-use sectors. The growing import activities will aid expansion in Europe. Moreover, the high production of methanol carbonylation, which has accounted for up to 65% of the world capacity, and other process oxidation of acetaldehyde by German producer Wacker will significantly create opportunities for the market in the region. Information source: https://www.fortunebusinessinsights.com/acetic-acid-market-103386
    WWW.FORTUNEBUSINESSINSIGHTS.COM
    Acetic Acid Market Size, Share | Global Research Report [2028]
    The global acetic acid market is projected to grow from $7.29 billion in 2021 to $10.54 billion in 2028 at a CAGR of 5.4% in forecast period, 2021-2028
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  • Acetic Acid Market Trends, Issues, Challenges, Forecasts, Competition Analysis, and Companies involved.
    The global acetic acid market size is expected to reach USD 13.79billion by 2027, exhibiting a CAGR of 8.4% during the forecast period. The rising consumption of solvents such as VAM in the chemical industry for paints & coatings, adhesives & sealants will bolster the healthy growth of the market, states Fortune Business Insights, in a report, titled “Acetic Acid Market Size, Share & Industry Analysis, By Application (Vinyl Acetate Monomer (VAM), Purified Terephthalic Acid (PTA), Ester Solvents, Acetic Anhydride, Others), and Geography Forecast, 2020-2027.” The market size stood at USD 8.34 billion in 2019.


    Market Driver:

    Advancements in Polymer Development to Bolster Growth

    The growing technological advancements in polymers and products made out of VAM will significantly aid the expansion of the market. The growing demand for VAM in the production of ethylene vinyl alcohol (EVOH), a barrier resin in food packaging, gasoline tanks, and other engineering polymers will have an excellent effect on the market. Some other VAM derivatives such as vinyl chloride-vinyl acetate copolymers have applications in adhesives & sealants, which, in turn, will bolster the health of the market. Moreover, It also has applications in adhesive due to adhesion properties to different substrates that include wood, paper, metals, and plastic films.

    Decreased Production to Hamper Market in COVID-19 Pandemic

    The reduced production of chemicals has negatively impacted on the market growth. The shutdown of factories due to a shortage of laborers and diminished supply of raw materials can dwindle the sales, in turn, affecting the growth of the market. However, the demand for ethanoic acid alongside the high consumption of sanitizers will subsequently aid in the recovery of the business amid coronavirus. Besides, health and safety concerns in healthcare facilities will further improve the prospects of the market in the near future.

    Regional Analysis:

    Heavy Investments in Polymers to Promote Growth in Asia Pacific

    The market in Asia Pacific is expected to hold the largest share in the global market owing to the rising polymer formulations in the region. The chemical is a key raw material used for the production of polymers in industries across Japan, China, and India. China is a major leader in polymers and chemicals. China's capacity further helps in the high production of ethanoic acid. According, to Chemical Market Associates, Inc. (CMAI) 400,000 tons per year demand is in China, from the global average demand. The improving construction industry in India is expected to further boost growth in the region. Europe is expected to hold a significant share during the forecast period owing to the rising demand from end-use sectors. The growing import activities will aid expansion in Europe. Moreover, the high production of methanol carbonylation, which has accounted for up to 65% of the world capacity, and other process oxidation of acetaldehyde by German producer Wacker will significantly create opportunities for the market in the region.

    Information source:

    https://www.fortunebusinessinsights.com/acetic-acid-market-103386
    Acetic Acid Market Trends, Issues, Challenges, Forecasts, Competition Analysis, and Companies involved. The global acetic acid market size is expected to reach USD 13.79billion by 2027, exhibiting a CAGR of 8.4% during the forecast period. The rising consumption of solvents such as VAM in the chemical industry for paints & coatings, adhesives & sealants will bolster the healthy growth of the market, states Fortune Business Insights, in a report, titled “Acetic Acid Market Size, Share & Industry Analysis, By Application (Vinyl Acetate Monomer (VAM), Purified Terephthalic Acid (PTA), Ester Solvents, Acetic Anhydride, Others), and Geography Forecast, 2020-2027.” The market size stood at USD 8.34 billion in 2019. Market Driver: Advancements in Polymer Development to Bolster Growth The growing technological advancements in polymers and products made out of VAM will significantly aid the expansion of the market. The growing demand for VAM in the production of ethylene vinyl alcohol (EVOH), a barrier resin in food packaging, gasoline tanks, and other engineering polymers will have an excellent effect on the market. Some other VAM derivatives such as vinyl chloride-vinyl acetate copolymers have applications in adhesives & sealants, which, in turn, will bolster the health of the market. Moreover, It also has applications in adhesive due to adhesion properties to different substrates that include wood, paper, metals, and plastic films. Decreased Production to Hamper Market in COVID-19 Pandemic The reduced production of chemicals has negatively impacted on the market growth. The shutdown of factories due to a shortage of laborers and diminished supply of raw materials can dwindle the sales, in turn, affecting the growth of the market. However, the demand for ethanoic acid alongside the high consumption of sanitizers will subsequently aid in the recovery of the business amid coronavirus. Besides, health and safety concerns in healthcare facilities will further improve the prospects of the market in the near future. Regional Analysis: Heavy Investments in Polymers to Promote Growth in Asia Pacific The market in Asia Pacific is expected to hold the largest share in the global market owing to the rising polymer formulations in the region. The chemical is a key raw material used for the production of polymers in industries across Japan, China, and India. China is a major leader in polymers and chemicals. China's capacity further helps in the high production of ethanoic acid. According, to Chemical Market Associates, Inc. (CMAI) 400,000 tons per year demand is in China, from the global average demand. The improving construction industry in India is expected to further boost growth in the region. Europe is expected to hold a significant share during the forecast period owing to the rising demand from end-use sectors. The growing import activities will aid expansion in Europe. Moreover, the high production of methanol carbonylation, which has accounted for up to 65% of the world capacity, and other process oxidation of acetaldehyde by German producer Wacker will significantly create opportunities for the market in the region. Information source: https://www.fortunebusinessinsights.com/acetic-acid-market-103386
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    Acetic Acid Market Size, Share | Global Research Report [2028]
    The global acetic acid market is projected to grow from $7.29 billion in 2021 to $10.54 billion in 2028 at a CAGR of 5.4% in forecast period, 2021-2028
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