• Ethylene and Propylene Important Feedstocks for Plastics

    The Ethylene and Propylene forms the basis for production of numerous plastics including polyethylene in all its forms - high-density polyethylene, low-density polyethylene, linear low-density polyethylene and cross-linked polyethylene.

    Polyethylene finds widespread usage in packaging films, plastic bags and containers, bottles, tubing,GEO membranestank linings and coatings due to its resistance to chemicals.

    Other derivatives of ethylene include ethylene oxide, ethylbenzene and ethylene glycol which are important petrochemical intermediates.

    Get More Insights: Ethylene and Propylene
    (https://fortunetelleroracle.com/business/ethylene-and-propylene-key-chemicals-950965
    )
    Ethylene and Propylene Important Feedstocks for Plastics The Ethylene and Propylene forms the basis for production of numerous plastics including polyethylene in all its forms - high-density polyethylene, low-density polyethylene, linear low-density polyethylene and cross-linked polyethylene. Polyethylene finds widespread usage in packaging films, plastic bags and containers, bottles, tubing,GEO membranestank linings and coatings due to its resistance to chemicals. Other derivatives of ethylene include ethylene oxide, ethylbenzene and ethylene glycol which are important petrochemical intermediates. Get More Insights: Ethylene and Propylene (https://fortunetelleroracle.com/business/ethylene-and-propylene-key-chemicals-950965 )
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  • Anionic Surfactants: An Overview of Their Properties and Applications

    Ammonium lauryl sulfate are among the most widely used types of surfactants today due to their excellent cleansing properties and low toxicity. Let's take a deeper look into their structure, properties and various applications.

    Some of the most frequently used ammonium lauryl sulfate are linear alkylbenzene sulfonates (LAS), which contain an aromatic ring with multiple alkyl chains attached. Anionic Surfactants are mainly used in laundry detergents and account for over 50% of global surfactant production.

    Get more insights: Anionic Surfactants (https://articlescad.com/anionic-surfactants-understanding-anionic-factants-636365.html)

    #CoherentMarketInsights #AnionicSurfactants #AlkylBenzeneSulfonate #Sarcosinates #AlkylNaphthaleneSulfonates #Lignosulfonate #PhosphateEster #PersonalCare #OilandGas #Agrochemical
    Anionic Surfactants: An Overview of Their Properties and Applications Ammonium lauryl sulfate are among the most widely used types of surfactants today due to their excellent cleansing properties and low toxicity. Let's take a deeper look into their structure, properties and various applications. Some of the most frequently used ammonium lauryl sulfate are linear alkylbenzene sulfonates (LAS), which contain an aromatic ring with multiple alkyl chains attached. Anionic Surfactants are mainly used in laundry detergents and account for over 50% of global surfactant production. Get more insights: Anionic Surfactants (https://articlescad.com/anionic-surfactants-understanding-anionic-factants-636365.html) #CoherentMarketInsights #AnionicSurfactants #AlkylBenzeneSulfonate #Sarcosinates #AlkylNaphthaleneSulfonates #Lignosulfonate #PhosphateEster #PersonalCare #OilandGas #Agrochemical
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  • Aniline: A Versatile Organic Chemical Building Block

    It is an aromatic organic compound with the molecular formula C6H5NH2. It is a colorless, toxic oily liquid that is soluble in water and has a sweet smell similar to ammonia. Aniline was first isolated from the dye indigo in 1826 and has played an integral role in the development of the chemical industry ever since.

    It is industrially produced by the catalytic reduction of nitrobenzene. Nitrobenzene is produced by the nitration of benzene using a mixture of concentrated nitric and sulfuric acid as the nitrating agent. Nitrobenzene is then reduced to it, usually by hydrogenation over an iron or zinc catalyst.

    Get more insights: Aniline (https://articlescad.com/a-closer-look-at-aniline-a-versatile-chemical-building-block-598820.html)

    #CoherentMarketInsights #Aniline #MethyleneDiphenylDiisocyanate #Insulation #RubberProducts #ConsumerGoods #Automotive #Packaging
    Aniline: A Versatile Organic Chemical Building Block It is an aromatic organic compound with the molecular formula C6H5NH2. It is a colorless, toxic oily liquid that is soluble in water and has a sweet smell similar to ammonia. Aniline was first isolated from the dye indigo in 1826 and has played an integral role in the development of the chemical industry ever since. It is industrially produced by the catalytic reduction of nitrobenzene. Nitrobenzene is produced by the nitration of benzene using a mixture of concentrated nitric and sulfuric acid as the nitrating agent. Nitrobenzene is then reduced to it, usually by hydrogenation over an iron or zinc catalyst. Get more insights: Aniline (https://articlescad.com/a-closer-look-at-aniline-a-versatile-chemical-building-block-598820.html) #CoherentMarketInsights #Aniline #MethyleneDiphenylDiisocyanate #Insulation #RubberProducts #ConsumerGoods #Automotive #Packaging
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  • Global Toluene : Rising Demand Projected to Drive Growth

    Regional Dynamics
    Asia Pacific dominates Global Toluene demand and production with a share of over 50% as of 2020. China represents the world's largest toluene led by resurgent domestic demand from construction and automotive sectors. Major Asian economies like India, Indonesia, Malaysia, and Vietnam are also projected to witness strong gains in toluene consumption in line with their industrial growth.

    North America and Western Europe account for a combined volume share of over 30%, predominantly driven by penetration of benzene-toluene-xylene (BTX) complexes. However, growth has moderated in mature s. The Middle East is rapidly emerging as a key supplier led by new world-scale grassroots toluene plants in Saudi Arabia, UAE, and Kuwait.

    Dynamics Influencing Future Growth Trajectory
    Several factors are indicating that toluene demand could trend higher globally in the coming years:

    - Economic recovery post-Covid: The outbreak had dampened industrial activity and demand across key s in 2020 and early 2021. However, a sustained economic rebound will underpin renewed volume gains.

    Get More Insights: Global Toluene
    (https://www.trendingwebwire.com/global-toluene-analysis/
    )

    Global Toluene : Rising Demand Projected to Drive Growth Regional Dynamics Asia Pacific dominates Global Toluene demand and production with a share of over 50% as of 2020. China represents the world's largest toluene led by resurgent domestic demand from construction and automotive sectors. Major Asian economies like India, Indonesia, Malaysia, and Vietnam are also projected to witness strong gains in toluene consumption in line with their industrial growth. North America and Western Europe account for a combined volume share of over 30%, predominantly driven by penetration of benzene-toluene-xylene (BTX) complexes. However, growth has moderated in mature s. The Middle East is rapidly emerging as a key supplier led by new world-scale grassroots toluene plants in Saudi Arabia, UAE, and Kuwait. Dynamics Influencing Future Growth Trajectory Several factors are indicating that toluene demand could trend higher globally in the coming years: - Economic recovery post-Covid: The outbreak had dampened industrial activity and demand across key s in 2020 and early 2021. However, a sustained economic rebound will underpin renewed volume gains. Get More Insights: Global Toluene (https://www.trendingwebwire.com/global-toluene-analysis/ )
    Overviewing Usage of Global Toluene
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  • N-methyl-Methylcyclohexylamine CAS 100-60-7
    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
    Headquarters :Room a2110, building 55, No. 709, Lingshi Road, Zhabei District, Shanghai
    Technical support and business contacts E-mail:info@newtopchem.com
    More:https://www.ohans.com/n-methyl-methylcyclohexylamine/
    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 Headquarters :Room a2110, building 55, No. 709, Lingshi Road, Zhabei District, Shanghai Technical support and business contacts E-mail:info@newtopchem.com More:https://www.ohans.com/n-methyl-methylcyclohexylamine/
    Type
    New
    Price
    $10 (USD)
    Status
    In stock
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  • cyclohexylamine CAS 108-91-8
    cyclohexylamine CAS 108-91-8

    Descriptions:
    Product:cyclohexylamine
    Synonyms:
    Cyclohexylamine(6CI,8CI);1-Aminocyclohexane;1-Cyclohexylamine;Aminocyclohexane;Aminohexahydrobenzene;Benzenamine, hexahydro-;Hexahydroaniline;
    Monocyclohexylamine
    Molecular Formula:C6H13N
    Molecular Weight:99.17
    CAS:108-91-8
    EINECS:203-629-0
    InChI:1S/C6H13N/c7-6-4-2-1-3-5-6/h6H,1-5,7H2

    Physical and chemical properties:
    Melting point: -17ºC
    Boiling point: 133-134ºC
    Water solubility: MISCIBLE
    Refractive index: 1.458-1.46
    Flash point: 27ºC
    Density: 0.867
    Properties descriptions: Colorless and transparent liquid,stimulating odor,freezing point -17.7℃,Boiling point 134℃,36.4℃(2.66kPa),Relative density0.8647(25/25℃),0.8191(20/4℃),Refractive index1.4585(20℃),Flash point(open cup)32.22℃。Miscible with water and general organic solvents,including alcholos,esters,ketones, ethers, aliphatic, hydrocarbons, aromatic hydrocarbons and chlorine-containing compounds. Form an azeotrope with water, boiling point 96.4℃,containing water 55.8℃。It has strong organic base properties, and the PH value of 0.01 aqueous solution is 10.5.

    Safety information:
    Safety descriptions: S45:If have an accident or feel unwell, go to your doctor for help immediately (preferably with a product container label).
    S1/2:Keep sealed and keep away from children.
    S36/37/39:Wear appropriate protective clothing, gloves and use goggles or face masks
    Dangerous mark:C:Corrosive substance
    Risk code : R10:Flammable。
    R34:Causes burns.
    R21/22:Harmful in contact with skin and if swallowed.
    UN code:UN2357
    MSDS report: cyclohexylamine MSDS report

    Storage:
    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
    Headquarters :Room a2110, building 55, No. 709, Lingshi Road, Zhabei District, Shanghai
    Technical support and business contacts E-mail:info@newtopchem.com
    More:https://www.ohans.com/cyclohexylamine/
    cyclohexylamine CAS 108-91-8 Descriptions: Product:cyclohexylamine Synonyms: Cyclohexylamine(6CI,8CI);1-Aminocyclohexane;1-Cyclohexylamine;Aminocyclohexane;Aminohexahydrobenzene;Benzenamine, hexahydro-;Hexahydroaniline; Monocyclohexylamine Molecular Formula:C6H13N Molecular Weight:99.17 CAS:108-91-8 EINECS:203-629-0 InChI:1S/C6H13N/c7-6-4-2-1-3-5-6/h6H,1-5,7H2 Physical and chemical properties: Melting point: -17ºC Boiling point: 133-134ºC Water solubility: MISCIBLE Refractive index: 1.458-1.46 Flash point: 27ºC Density: 0.867 Properties descriptions: Colorless and transparent liquid,stimulating odor,freezing point -17.7℃,Boiling point 134℃,36.4℃(2.66kPa),Relative density0.8647(25/25℃),0.8191(20/4℃),Refractive index1.4585(20℃),Flash point(open cup)32.22℃。Miscible with water and general organic solvents,including alcholos,esters,ketones, ethers, aliphatic, hydrocarbons, aromatic hydrocarbons and chlorine-containing compounds. Form an azeotrope with water, boiling point 96.4℃,containing water 55.8℃。It has strong organic base properties, and the PH value of 0.01 aqueous solution is 10.5. Safety information: Safety descriptions: S45:If have an accident or feel unwell, go to your doctor for help immediately (preferably with a product container label). S1/2:Keep sealed and keep away from children. S36/37/39:Wear appropriate protective clothing, gloves and use goggles or face masks Dangerous mark:C:Corrosive substance Risk code : R10:Flammable。 R34:Causes burns. R21/22:Harmful in contact with skin and if swallowed. UN code:UN2357 MSDS report: cyclohexylamine MSDS report Storage: 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 Headquarters :Room a2110, building 55, No. 709, Lingshi Road, Zhabei District, Shanghai Technical support and business contacts E-mail:info@newtopchem.com More:https://www.ohans.com/cyclohexylamine/
    Type
    New
    Price
    $10 (USD)
    Status
    In stock
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  • PU Catalyst: BDMA (benzyldimethylamine) CAS:103-83-3
    PU Catalyst: BDMA (benzyldimethylamine) CAS:103-83-3

    Over view:
    Common Name: Benzyl Dimethyl Amine
    Other Chemical Names: N,N-Dimethylbenzylamine, Benzenemethamine, N,N-dimethyl-;Benzenemethanamine,N,N-dimethyl-;Benzylamine,

    Physical and chemical properties:
    Appearance Form: transprant light yellow liquid
    Odour no data available
    PH 10 at 10 g/l at 20 °C
    Melting point/freezing point Melting point/range: -75 °C - lit.
    Initial boiling point and boiling range 181 - 184 °C at 1.020 hPa - lit.
    Flash point 53 °C - closed cup
    Evaporation rate no data available
    Flammability (solid, gas) Upper explosion limit: 6,3 %(V)
    Upper/lower flammability
    or explosive limits Lower explosion limit: 0,9 %(V)
    Relative density 0,9 g/cm3 at 25 °C
    Water solubility soluble
    Partition coefficient: noctanol/water log Pow: 1,87
    Molar formular C9H13N
    Molar mass 135.21

    Features and uses:
    A liquid tertiary amine catalyst. Can improve foam cure and demolding time. It is an excellent candidate to consider for use in water-NCO reaction in rigid polyurethane foams.
    BDMA is typically suitable to replace DMCHA in formulations using a high level of water as blowing or co-blowing agent can reduce surface friability and improve adhesion of foam to substrates.
    BDMA promotes the urethane reaction and is commonly used in high-water rigid foam applications to reduce friability. It has a characteristic but low amine odor, and is soluble in water and in most organic solvents.
    BDMA is used in flexible slabstock and rigid foam applications.
    It promotes the urethane reaction and is commonly used in high-water rigid foam applications to reduce friability.
    BDMA is also used for flexible slabstock foam applications.
    Storage Information
    Recommends that our catalysts be stored in a dry and cool area under appropriate ventilation conditions. Each container should be closed tightly to avoid contamination with moisture or other negative influences that could change the products' performance in the end use.

    Package:
    180KG/Steel Drum
    (DABCO BDMA/Niax BDMA/ PC Cat NP60/ Addocat DB/ Jeffcat BDMA/ Lupragen N103)

    More :https://www.newtopchem.com/archives/516
    PU Catalyst: BDMA (benzyldimethylamine) CAS:103-83-3 Over view: Common Name: Benzyl Dimethyl Amine Other Chemical Names: N,N-Dimethylbenzylamine, Benzenemethamine, N,N-dimethyl-;Benzenemethanamine,N,N-dimethyl-;Benzylamine, Physical and chemical properties: Appearance Form: transprant light yellow liquid Odour no data available PH 10 at 10 g/l at 20 °C Melting point/freezing point Melting point/range: -75 °C - lit. Initial boiling point and boiling range 181 - 184 °C at 1.020 hPa - lit. Flash point 53 °C - closed cup Evaporation rate no data available Flammability (solid, gas) Upper explosion limit: 6,3 %(V) Upper/lower flammability or explosive limits Lower explosion limit: 0,9 %(V) Relative density 0,9 g/cm3 at 25 °C Water solubility soluble Partition coefficient: noctanol/water log Pow: 1,87 Molar formular C9H13N Molar mass 135.21 Features and uses: A liquid tertiary amine catalyst. Can improve foam cure and demolding time. It is an excellent candidate to consider for use in water-NCO reaction in rigid polyurethane foams. BDMA is typically suitable to replace DMCHA in formulations using a high level of water as blowing or co-blowing agent can reduce surface friability and improve adhesion of foam to substrates. BDMA promotes the urethane reaction and is commonly used in high-water rigid foam applications to reduce friability. It has a characteristic but low amine odor, and is soluble in water and in most organic solvents. BDMA is used in flexible slabstock and rigid foam applications. It promotes the urethane reaction and is commonly used in high-water rigid foam applications to reduce friability. BDMA is also used for flexible slabstock foam applications. Storage Information Recommends that our catalysts be stored in a dry and cool area under appropriate ventilation conditions. Each container should be closed tightly to avoid contamination with moisture or other negative influences that could change the products' performance in the end use. Package: 180KG/Steel Drum (DABCO BDMA/Niax BDMA/ PC Cat NP60/ Addocat DB/ Jeffcat BDMA/ Lupragen N103) More :https://www.newtopchem.com/archives/516
    Type
    New
    Price
    $10 (USD)
    Status
    In stock
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  • Genotoxicity Testing: Unlocking the Future Safety Assessment Opportunities

    Genotoxicity testing refers to the evaluation of detrimental effects of chemical or physical agents on the genetic processes and related hereditary material of living cells.

    On the other hand, mutagenicity is the process of inducing irreversible and transmissible alterations in the genetic material of organisms either spontaneously or through mutagenic activity.

    Disruption of the integrity and function of DNA at the gene or chromosomal level can lead to heritable mutations, resulting in genetic disorders, birth abnormalities, or cancer. Potential targets for DNA damage include somatic cells (confined to the exposed generation), germinal cells (potentially inherited effects), and mitochondria (detrimental to the exposed individual and progeny via maternal inheritance).

    Detrimental Effects of Genotoxins and Mutagens
    Genotoxins are chemical substances or radiations which causes genotoxicity leading to DNA or chromosomal damage, further leading to mutations. In eukaryotic organisms, damage to genetic material of somatic cell can lead to malignancy (cancer) whereas genetic damage to germ cells can result in heritable mutations that induce birth defects.

    Mechanism of Genotoxicity / Mutagenicity
    The interaction of genotoxins / mutagens with the structure of DNA causes damage to the genetic material. These genotoxic / mutagenic substances interact with the DNA structure at a specific base sequence, inducing deletion, mis-segregation, or non-disjunction, resulting in damage and mutation.

    Techniques Used for Genotoxicity / Mutagenicity Testing
    Genotoxins can be classified based on their effects into the following types:
    • Carcinogens: These have the ability to cause cancer. Examples – Asbestos, Benzene, Vinyl chloride and Carbon tetrachloride
    • Mutagens: These can induce mutations in the genetic material of an organism. Examples – Chloroform, Ethylene oxide, and Lead
    • Teratogens: These agents cause birth defects, abnormalities, or developmental problems in the offspring. Examples – Carbon monoxide, Lead and Xylene

    GENE MUTATION
    Ames Test: It is used to evaluate an agent’s mutagenic potential by reversing mutations in the tester mutant bacteria (E. coli, Salmonella typhi), as well as its ability to synthesize an essential amino acid required for growth
    MLA / HPRT: It is used to evaluate an agent’s mutagenic potential by reversing mutations in the tester mutant bacteria (E. coli, Salmonella typhi), as well as its ability to synthesize an essential amino acid required for growth
    Mutation Assay: Transgenic rodent somatic and germ cell gene mutation assay specifies an in vivo assay that perceives gene mutation causing agents.
    DNA DAMAGES
    Comet Assay: The comet assay, also known as single cell gel electrophoresis (SCGE), is an efficient technique for identifying DNA strand breaks in a cell. It is used in molecular epidemiology, genotoxicity testing, and basic studies on DNA damage and repair.
    CHROMOSOMAL DAMAGES
    Chromosomal Aberration Test: The comet assay, also known as single cell gel electrophoresis (SCGE), is an efficient technique for identifying DNA strand breaks in a cell.
    Micronucleus Test: The micronucleus identifies chemicals (liquid or solid) that lead to cytogenetic damage, resulting in the formation of micronuclei containing complete or lagging chromosomal segments.
    Applications of Genotoxicity / Mutagenicity
    Genotoxicity testing and mutagenicity testing can be employed in a wide range of industries. It detects the potential long-term effects of the compounds which are marketed without knowing their ability to affect human and environmental health.
    Recent Development and Future Perspectives
    Recent advancements in informatics and instrumentation technologies have facilitated the necessity to evaluate mutations and chromosomal damage caused by various chemicals.
    For additional details, please visit https://www.rootsanalysis.com/blog/genotoxicity-mutagenicity-testing/

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    About Roots Analysis
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    Genotoxicity Testing: Unlocking the Future Safety Assessment Opportunities Genotoxicity testing refers to the evaluation of detrimental effects of chemical or physical agents on the genetic processes and related hereditary material of living cells. On the other hand, mutagenicity is the process of inducing irreversible and transmissible alterations in the genetic material of organisms either spontaneously or through mutagenic activity. Disruption of the integrity and function of DNA at the gene or chromosomal level can lead to heritable mutations, resulting in genetic disorders, birth abnormalities, or cancer. Potential targets for DNA damage include somatic cells (confined to the exposed generation), germinal cells (potentially inherited effects), and mitochondria (detrimental to the exposed individual and progeny via maternal inheritance). Detrimental Effects of Genotoxins and Mutagens Genotoxins are chemical substances or radiations which causes genotoxicity leading to DNA or chromosomal damage, further leading to mutations. In eukaryotic organisms, damage to genetic material of somatic cell can lead to malignancy (cancer) whereas genetic damage to germ cells can result in heritable mutations that induce birth defects. Mechanism of Genotoxicity / Mutagenicity The interaction of genotoxins / mutagens with the structure of DNA causes damage to the genetic material. These genotoxic / mutagenic substances interact with the DNA structure at a specific base sequence, inducing deletion, mis-segregation, or non-disjunction, resulting in damage and mutation. Techniques Used for Genotoxicity / Mutagenicity Testing Genotoxins can be classified based on their effects into the following types: • Carcinogens: These have the ability to cause cancer. Examples – Asbestos, Benzene, Vinyl chloride and Carbon tetrachloride • Mutagens: These can induce mutations in the genetic material of an organism. Examples – Chloroform, Ethylene oxide, and Lead • Teratogens: These agents cause birth defects, abnormalities, or developmental problems in the offspring. Examples – Carbon monoxide, Lead and Xylene GENE MUTATION Ames Test: It is used to evaluate an agent’s mutagenic potential by reversing mutations in the tester mutant bacteria (E. coli, Salmonella typhi), as well as its ability to synthesize an essential amino acid required for growth MLA / HPRT: It is used to evaluate an agent’s mutagenic potential by reversing mutations in the tester mutant bacteria (E. coli, Salmonella typhi), as well as its ability to synthesize an essential amino acid required for growth Mutation Assay: Transgenic rodent somatic and germ cell gene mutation assay specifies an in vivo assay that perceives gene mutation causing agents. DNA DAMAGES Comet Assay: The comet assay, also known as single cell gel electrophoresis (SCGE), is an efficient technique for identifying DNA strand breaks in a cell. It is used in molecular epidemiology, genotoxicity testing, and basic studies on DNA damage and repair. CHROMOSOMAL DAMAGES Chromosomal Aberration Test: The comet assay, also known as single cell gel electrophoresis (SCGE), is an efficient technique for identifying DNA strand breaks in a cell. Micronucleus Test: The micronucleus identifies chemicals (liquid or solid) that lead to cytogenetic damage, resulting in the formation of micronuclei containing complete or lagging chromosomal segments. Applications of Genotoxicity / Mutagenicity Genotoxicity testing and mutagenicity testing can be employed in a wide range of industries. It detects the potential long-term effects of the compounds which are marketed without knowing their ability to affect human and environmental health. Recent Development and Future Perspectives Recent advancements in informatics and instrumentation technologies have facilitated the necessity to evaluate mutations and chromosomal damage caused by various chemicals. For additional details, please visit https://www.rootsanalysis.com/blog/genotoxicity-mutagenicity-testing/ You may also be interested in the following titles: 1. Quantum Computing in Drug Discovery Services Market : - Industry Trends and Global Forecasts, 2023-2035 2. Viral Clearance and Viral Testing Services Market : - Industry Trends and Global Forecasts, 2023-2035 About Roots Analysis Roots Analysis is a global leader in the pharma / biotech market research. Having worked with over 750 clients worldwide, including Fortune 500 companies, start-ups, academia, venture capitalists and strategic investors for more than a decade, we offer a highly analytical / data-driven perspective to a network of over 450,000 senior industry stakeholders looking for credible market insights. Contact: Ben Johnson +1 (415) 800 3415 Ben.johnson@rootsanalysis.com
    Genotoxicity Testing: Unlocking the Future Safety Assessment Opportunities
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