• Plastic Additives Market Innovation: Advancing Polymer Science
    Plastic Additives: Examining the Role of Additives in Shaping Material Properties and Applications


    Understanding what goes into plastics

    Modern plastics contain a variety of chemical additives that are added during the manufacturing process to enhance performance or prolong the lifespan of plastic products. However, many of these additives raise health concerns that consumers may not be aware of. This article explores some of the main additives used in plastics and the potential issues associated with them.

    Phthalates

    One class of additives used widely in plastics is phthalates. These chemicals are added to plastic to increase their flexibility and durability. Phthalates are used in products such as vinyl flooring, plastic toys, medical tubing, blood storage containers and more. Studies have linked certain phthalates to health effects such as reproductive issues, birth defects, respiratory problems, hormonal imbalances and cancer. In toys and childcare items, phthalates are especially concerning given how children interact with products through mouthing. The European Union has banned certain phthalates from toys and childcare items, but they remain legal in many other products in the U.S. and Canada.

    Bisphenol A (BPA)

    Another familiar plastic additive is bisphenol A or BPA. This chemical is used in hard, clear plastics and in the linings of food and beverage cans. It makes plastics shatter-resistant and durable. The main health concern with BPA is that it mimics the hormone estrogen once inside the body. Numerous studies link BPA exposure to reproductive issues, heart disease, diabetes, neurological problems and more. BPA easily leaches out of plastics and into food and drink. In 2012, the FDA banned BPA from baby bottles and sippy cups in the U.S. due to health risks. However, BPA remains legal in other food packaging.

    Flame Retardants

    Flame retardant chemicals are added to plastics, textiles, electronics and other materials to meet flammability standards and regulations. One category of flame retardants, called PBDEs, bioaccumulate in human tissues and breastmilk. Studies link them to reproductive and developmental harm as well as damage to thyroid function. Another class of flame retardants called chlorinated Tris was banned by the Consumer Product Safety Commission in 1977 after being linked to cancer. However, the chemical industry continues to produce alternative flame retardants of uncertain safety. Their health effects are difficult to properly assess partly due to industry secrecy around chemical identities and health data.

    Metal Compounds

    Plastics also frequently include heavy metals that pose health and environmental concerns in some applications. For example, plastic food packaging may contain compounds with antimony, which is a metalloid linked to reproductive toxicity and endocrine disruption. Some plastics like PVC piping contain compounds like lead stabilizers. The heavy metal lead remains a development neurotoxin even at low levels of exposure. While banning heavy metals is preferable, product reformulations often prompt regulators and legislation to merely lower permitted concentrations rather than eliminate them altogether.

    Impacts on Vulnerable Groups

    Certain populations appear especially vulnerable to harm from plastic additives and their byproducts. Fetuses, infants and children face greater risks due to their developing organ systems and ability to metabolize and excrete toxins. Food contact with plastics poses dangers when plastic chemicals migrate into ingested foods and drinks. One study even detected BPA in the placental tissues of pregnant women. Workers in plastic manufacturing facilities face direct occupational hazards, and epidemiological studies link some plastic worker cancers and other adverse health outcomes to chemical exposures on the job. Overall, a paradigm shift towards inherently safer plastic materials requires major reforms in industry and government policies.

    Greenwashing and Lack of Accountability

    In summary, the hidden health impacts of plastic additives illustrate important gaps that future policies and safer product innovations ought to address. Full chemical transparency, rigorous independent safety testing before widespread use, and emphasis on non-toxic alternative materials wherever practicable would better protect vulnerable groups at developing stages. Achieving genuinely safer plastics also depends on reforming industry lobbying influence and empowering consumers with right-to-know laws and informed choices. By shedding light on additive components and associated concerns, more accountable approaches to plastic chemical management can help minimize troubling health legacies moving forward.
    Plastic Additives Market Innovation: Advancing Polymer Science Plastic Additives: Examining the Role of Additives in Shaping Material Properties and Applications Understanding what goes into plastics Modern plastics contain a variety of chemical additives that are added during the manufacturing process to enhance performance or prolong the lifespan of plastic products. However, many of these additives raise health concerns that consumers may not be aware of. This article explores some of the main additives used in plastics and the potential issues associated with them. Phthalates One class of additives used widely in plastics is phthalates. These chemicals are added to plastic to increase their flexibility and durability. Phthalates are used in products such as vinyl flooring, plastic toys, medical tubing, blood storage containers and more. Studies have linked certain phthalates to health effects such as reproductive issues, birth defects, respiratory problems, hormonal imbalances and cancer. In toys and childcare items, phthalates are especially concerning given how children interact with products through mouthing. The European Union has banned certain phthalates from toys and childcare items, but they remain legal in many other products in the U.S. and Canada. Bisphenol A (BPA) Another familiar plastic additive is bisphenol A or BPA. This chemical is used in hard, clear plastics and in the linings of food and beverage cans. It makes plastics shatter-resistant and durable. The main health concern with BPA is that it mimics the hormone estrogen once inside the body. Numerous studies link BPA exposure to reproductive issues, heart disease, diabetes, neurological problems and more. BPA easily leaches out of plastics and into food and drink. In 2012, the FDA banned BPA from baby bottles and sippy cups in the U.S. due to health risks. However, BPA remains legal in other food packaging. Flame Retardants Flame retardant chemicals are added to plastics, textiles, electronics and other materials to meet flammability standards and regulations. One category of flame retardants, called PBDEs, bioaccumulate in human tissues and breastmilk. Studies link them to reproductive and developmental harm as well as damage to thyroid function. Another class of flame retardants called chlorinated Tris was banned by the Consumer Product Safety Commission in 1977 after being linked to cancer. However, the chemical industry continues to produce alternative flame retardants of uncertain safety. Their health effects are difficult to properly assess partly due to industry secrecy around chemical identities and health data. Metal Compounds Plastics also frequently include heavy metals that pose health and environmental concerns in some applications. For example, plastic food packaging may contain compounds with antimony, which is a metalloid linked to reproductive toxicity and endocrine disruption. Some plastics like PVC piping contain compounds like lead stabilizers. The heavy metal lead remains a development neurotoxin even at low levels of exposure. While banning heavy metals is preferable, product reformulations often prompt regulators and legislation to merely lower permitted concentrations rather than eliminate them altogether. Impacts on Vulnerable Groups Certain populations appear especially vulnerable to harm from plastic additives and their byproducts. Fetuses, infants and children face greater risks due to their developing organ systems and ability to metabolize and excrete toxins. Food contact with plastics poses dangers when plastic chemicals migrate into ingested foods and drinks. One study even detected BPA in the placental tissues of pregnant women. Workers in plastic manufacturing facilities face direct occupational hazards, and epidemiological studies link some plastic worker cancers and other adverse health outcomes to chemical exposures on the job. Overall, a paradigm shift towards inherently safer plastic materials requires major reforms in industry and government policies. Greenwashing and Lack of Accountability In summary, the hidden health impacts of plastic additives illustrate important gaps that future policies and safer product innovations ought to address. Full chemical transparency, rigorous independent safety testing before widespread use, and emphasis on non-toxic alternative materials wherever practicable would better protect vulnerable groups at developing stages. Achieving genuinely safer plastics also depends on reforming industry lobbying influence and empowering consumers with right-to-know laws and informed choices. By shedding light on additive components and associated concerns, more accountable approaches to plastic chemical management can help minimize troubling health legacies moving forward.
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  • The Need for Concrete Cutters and Grinders(https://www.dastool.cc/product/power-tool/concrete-grinder/): Concrete cutters and grinders are prevalent in modern construction projects, ranging from buildings and bridges to roads and sidewalks. However, there are situations where modifications or repairs are necessary, such as creating openings for doors or windows, removing damaged sections, or achieving a smooth and even surface. This need led to the development of concrete cutters and grinders, specifically designed to tackle the challenges associated with concrete modifications, saving time, labor, and money.

    Advantages of Concrete Cutters: Concrete cutters and grinders offer numerous advantages over traditional cutting methods, such as manual labor or utilizing general-purpose tools: a. Precision and Accuracy: Concrete cutters and grinders are equipped with powerful blades and advanced cutting mechanisms. This allows for precise and accurate cuts, ensuring minimal damage to surrounding areas and reducing the need for additional repairs. b. Speed and Efficiency: With their high-powered engines and specialized cutting blades, concrete cutters are capable of completing cutting tasks quickly and efficiently. This saves valuable time on construction projects, enabling faster progress and reducing overall costs. c. Safety: Concrete cutters prioritize safety by incorporating features such as ergonomic designs, vibration dampeners, and dust collection systems that minimize the risk of accidents or health hazards. The use of specialized tools ensures workers can maintain a safe distance from the cutting area. d. Versatility: Concrete cutters come in various types and sizes to meet the specific requirements of different projects. From handheld cutters for smaller tasks to large walk-behind or ride-on machines for extensive cutting operations, these tools offer versatility and adaptability.
    The Need for Concrete Cutters and Grinders(https://www.dastool.cc/product/power-tool/concrete-grinder/): Concrete cutters and grinders are prevalent in modern construction projects, ranging from buildings and bridges to roads and sidewalks. However, there are situations where modifications or repairs are necessary, such as creating openings for doors or windows, removing damaged sections, or achieving a smooth and even surface. This need led to the development of concrete cutters and grinders, specifically designed to tackle the challenges associated with concrete modifications, saving time, labor, and money. Advantages of Concrete Cutters: Concrete cutters and grinders offer numerous advantages over traditional cutting methods, such as manual labor or utilizing general-purpose tools: a. Precision and Accuracy: Concrete cutters and grinders are equipped with powerful blades and advanced cutting mechanisms. This allows for precise and accurate cuts, ensuring minimal damage to surrounding areas and reducing the need for additional repairs. b. Speed and Efficiency: With their high-powered engines and specialized cutting blades, concrete cutters are capable of completing cutting tasks quickly and efficiently. This saves valuable time on construction projects, enabling faster progress and reducing overall costs. c. Safety: Concrete cutters prioritize safety by incorporating features such as ergonomic designs, vibration dampeners, and dust collection systems that minimize the risk of accidents or health hazards. The use of specialized tools ensures workers can maintain a safe distance from the cutting area. d. Versatility: Concrete cutters come in various types and sizes to meet the specific requirements of different projects. From handheld cutters for smaller tasks to large walk-behind or ride-on machines for extensive cutting operations, these tools offer versatility and adaptability.
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  • Technical Textiles refer to specially engineered materials that are designed to serve specific functions or provide unique properties beyond their conventional textile counterparts. These textiles are developed by incorporating advanced technologies, specialized fibers, and innovative manufacturing techniques. They find applications in various industries, including automotive, aerospace, healthcare, sports, construction, and defense. One of the key features of textiles is their enhanced performance characteristics. They can possess properties such as high strength, durability, flame resistance, chemical resistance, water repellency, breathability, and thermal insulation. These properties make them suitable for demanding applications where conventional textiles would not suffice. For example, in the automotive industry, textiles are used in airbags, seatbelts, upholstery, and sound insulation materials, providing safety, comfort, and noise reduction.

    Read More: Https://Theluminouslines.Blogspot.Com/2023/07/Technical-Textiles-Are-Designed-To.Html

    #TechnicalTextiles #CoherentMarketInsights #Fashion #Design #Sustainability #TraditionalTextiles #UVProtectiveTextiles
    Technical Textiles refer to specially engineered materials that are designed to serve specific functions or provide unique properties beyond their conventional textile counterparts. These textiles are developed by incorporating advanced technologies, specialized fibers, and innovative manufacturing techniques. They find applications in various industries, including automotive, aerospace, healthcare, sports, construction, and defense. One of the key features of textiles is their enhanced performance characteristics. They can possess properties such as high strength, durability, flame resistance, chemical resistance, water repellency, breathability, and thermal insulation. These properties make them suitable for demanding applications where conventional textiles would not suffice. For example, in the automotive industry, textiles are used in airbags, seatbelts, upholstery, and sound insulation materials, providing safety, comfort, and noise reduction. Read More: Https://Theluminouslines.Blogspot.Com/2023/07/Technical-Textiles-Are-Designed-To.Html #TechnicalTextiles #CoherentMarketInsights #Fashion #Design #Sustainability #TraditionalTextiles #UVProtectiveTextiles
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  • Methylcyclohexane CAS108-87-2
    Rm1104 ,No. 258, West SongXing Road, BaoShan District, Shanghai, China.
    Methylcyclohexane CAS108-87-2
    Cyclohxylmethane;
    heptanaphthene;
    methyl-cyclohexan;
    methylecyclohexane;
    Metylocykloheksan

    RTECS No. GV6125000
    Molecular Formula C7H14
    CAS No. 108-87-2
    EINECS No. 203-624-3
    UN Dangerous Goods Code (UN No.): 2296
    Shipping name: Methylcyclohexane
    Hazardous classification :3
    Packing Group II
    Customs code 2902 19 00
    grade anhydrous
    Quality Level 100
    vapor density 3.4 (vs air)
    vapor pressure 37 mmHg ( 20 °C)
    83.2 mmHg ( 37.7 °C)
    Assay ≥99%
    form liquid
    autoignition temp. 545 °F
    impurities <0.002% water
    <0.005% water (100 mL pkg)
    evapn. residue <0.0005%
    refractive index n20/D 1.422 (lit.)
    bp 101 °C (lit.)
    mp −126 °C (lit.)
    density 0.77 g/mL at 25 °C (lit.)
    SMILES string CC1CCCCC1
    InChI 1S/C7H14/c1-7-5-3-2-4-6-7/h7H,2-6H2,1H3
    InChI key UAEPNZWRGJTJPN-UHFFFAOYSA-N


    Application
    Methylcyclohexane may be used as a solvent for the synthesis of unsolvated n-butylmagnesium chloride by the reaction of 1-chlorobutane with magnesium powder. It may also be used as the starting material to synthesize 1-methylcyclohexanecarboxylic acid.
    Pharmaceutical intermediates. Methylcyclohexane is an important organic solvent and extractant, which can be used as a solvent for rubber, paint, varnish (some paint solvents also use methylcyclohexane), and can be used as oil extractant. Methylcyclohexane can be used in organic synthesis as solvent and analytical reagent. In addition, methylcyclohexane can also be used as a standard for thermometer calibration. The correction solution is usually made of methylcyclohexane as the main component.



    Description
    Catalogue Number 806147
    Description Methylcyclohexane
    Product Information
    CAS number 108-87-2
    EC index number 601-018-00-7
    EC number 203-624-3
    Hill Formula C₇H₁₄
    Chemical formula C₆H₁₁CH₃
    Molar Mass 98.19 g/mol
    HS Code 2902 19 00
    Structure formula Image
    Quality Level MQ200
    Physicochemical Information
    Appearance Form:
    liquid
    Color: colorless
    Explosion limit 1.1 - 6.7 %(V)
    Flash point -4 °C
    Ignition temperature 260 °C
    Melting Point -126.6 °C
    Solubility 0.014 g/l
    Initial boiling point and boiling range 101 °C 214 °F - lit.
    Upper/lower flammability or explosive limits Upper explosion limit: 6.7 %(V) Lower explosion limit: 1.1 %(V)
    Toxicological Information
    LD 50 dermal LD50 Rabbit > 86000 mg/kg
    Safety Information according to GHS
    Hazard Pictogram(s)

    Hazard Statement(s) H225: Highly flammable liquid and vapour.
    H304: May be fatal if swallowed and enters airways.
    H315: Causes skin irritation.
    H336: May cause drowsiness or dizziness.
    H410: Very toxic to aquatic life with long lasting effects.
    Precautionary Statement(s) P210: Keep away from heat, hot surfaces, sparks, open flames and other ignition sources. No smoking.
    P233: Keep container tightly closed.
    P273: Avoid release to the environment.
    P301 + P310: IF SWALLOWED: Immediately call a POISON CENTER/doctor.
    P303 + P361 + P353: IF ON SKIN (or hair): Take off immediately all contaminated clothing. Rinse skin with water.
    P331: Do NOT induce vomiting.
    P403 + P233: Store in a well-ventilated place. Keep container tightly closed.
    Signal Word Danger
    RTECS GV6125000
    Storage class 3 Flammable liquids
    WGK WGK 2 obviously hazardous to water
    Safety Information
    Categories of danger highly flammable, irritant, harmful, dangerous for the environment
    Storage and Shipping Information
    Storage Store below +30°C.
    Transport Information
    Declaration (railroad and road) ADR, RID UN 2296 , 3, II
    Declaration (transport by air) IATA-DGR UN 2296 , 3, II
    Declaration (transport by sea) IMDG-Code UN 2296 , 3, II
    Specifications
    Assay (GC, area%) ≥ 99 %
    Density (d 20 °C/ 4 °C) 0.769 - 0.770
    Identity (IR) passes test

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

    Package:
    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 packing to prevent the mixing of other substances such as moisture 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.
    https://www.newtopchem.com/archives/43090
    Email us: info@newtopchem.com
    Methylcyclohexane CAS108-87-2 Cyclohxylmethane; heptanaphthene; methyl-cyclohexan; methylecyclohexane; Metylocykloheksan RTECS No. GV6125000 Molecular Formula C7H14 CAS No. 108-87-2 EINECS No. 203-624-3 UN Dangerous Goods Code (UN No.): 2296 Shipping name: Methylcyclohexane Hazardous classification :3 Packing Group II Customs code 2902 19 00 grade anhydrous Quality Level 100 vapor density 3.4 (vs air) vapor pressure 37 mmHg ( 20 °C) 83.2 mmHg ( 37.7 °C) Assay ≥99% form liquid autoignition temp. 545 °F impurities <0.002% water <0.005% water (100 mL pkg) evapn. residue <0.0005% refractive index n20/D 1.422 (lit.) bp 101 °C (lit.) mp −126 °C (lit.) density 0.77 g/mL at 25 °C (lit.) SMILES string CC1CCCCC1 InChI 1S/C7H14/c1-7-5-3-2-4-6-7/h7H,2-6H2,1H3 InChI key UAEPNZWRGJTJPN-UHFFFAOYSA-N Application Methylcyclohexane may be used as a solvent for the synthesis of unsolvated n-butylmagnesium chloride by the reaction of 1-chlorobutane with magnesium powder. It may also be used as the starting material to synthesize 1-methylcyclohexanecarboxylic acid. Pharmaceutical intermediates. Methylcyclohexane is an important organic solvent and extractant, which can be used as a solvent for rubber, paint, varnish (some paint solvents also use methylcyclohexane), and can be used as oil extractant. Methylcyclohexane can be used in organic synthesis as solvent and analytical reagent. In addition, methylcyclohexane can also be used as a standard for thermometer calibration. The correction solution is usually made of methylcyclohexane as the main component. Description Catalogue Number 806147 Description Methylcyclohexane Product Information CAS number 108-87-2 EC index number 601-018-00-7 EC number 203-624-3 Hill Formula C₇H₁₄ Chemical formula C₆H₁₁CH₃ Molar Mass 98.19 g/mol HS Code 2902 19 00 Structure formula Image Quality Level MQ200 Physicochemical Information Appearance Form: liquid Color: colorless Explosion limit 1.1 - 6.7 %(V) Flash point -4 °C Ignition temperature 260 °C Melting Point -126.6 °C Solubility 0.014 g/l Initial boiling point and boiling range 101 °C 214 °F - lit. Upper/lower flammability or explosive limits Upper explosion limit: 6.7 %(V) Lower explosion limit: 1.1 %(V) Toxicological Information LD 50 dermal LD50 Rabbit > 86000 mg/kg Safety Information according to GHS Hazard Pictogram(s) Hazard Statement(s) H225: Highly flammable liquid and vapour. H304: May be fatal if swallowed and enters airways. H315: Causes skin irritation. H336: May cause drowsiness or dizziness. H410: Very toxic to aquatic life with long lasting effects. Precautionary Statement(s) P210: Keep away from heat, hot surfaces, sparks, open flames and other ignition sources. No smoking. P233: Keep container tightly closed. P273: Avoid release to the environment. P301 + P310: IF SWALLOWED: Immediately call a POISON CENTER/doctor. P303 + P361 + P353: IF ON SKIN (or hair): Take off immediately all contaminated clothing. Rinse skin with water. P331: Do NOT induce vomiting. P403 + P233: Store in a well-ventilated place. Keep container tightly closed. Signal Word Danger RTECS GV6125000 Storage class 3 Flammable liquids WGK WGK 2 obviously hazardous to water Safety Information Categories of danger highly flammable, irritant, harmful, dangerous for the environment Storage and Shipping Information Storage Store below +30°C. Transport Information Declaration (railroad and road) ADR, RID UN 2296 , 3, II Declaration (transport by air) IATA-DGR UN 2296 , 3, II Declaration (transport by sea) IMDG-Code UN 2296 , 3, II Specifications Assay (GC, area%) ≥ 99 % Density (d 20 °C/ 4 °C) 0.769 - 0.770 Identity (IR) passes test Storage and transportation: Should be sealed and stored in a dry, cool and ventilated warehouse Package: 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 packing to prevent the mixing of other substances such as moisture 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. https://www.newtopchem.com/archives/43090 Email us: info@newtopchem.com
    Type
    New
    Price
    Rs.10 (PKR)
    Status
    In stock
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  • Laminated Glass is a specialized type of safety glass that offers enhanced strength, security, and protection against various hazards. It is composed of two or more layers of glass bonded together with a layer of polyvinyl butyral (PVB) or ethylene-vinyl acetate (EVA) interlayer. This interlayer acts as a cohesive element, keeping the glass layers intact even when shattered, preventing them from breaking into sharp, dangerous pieces. With its unique construction, glass finds widespread application in automotive, architecture, and security. One of the primary advantages of Laminated Glass is its ability to provide safety in the event of breakage. When subjected to impact or force, the glass may crack, but the interlayer holds the fragments together, reducing the risk of injury from sharp shards.

    Read More: Http://Themarketingmarvel.Weebly.Com/Articles/Laminated-Glass-Is-A-Glass-That-Offers-Enhanced-Strength-Security-And-Protection-Against-Various-Hazards

    #LaminatedGlass #CoherentMarketInsights #Safety #Security #SoundInsulation #Architecture #PVB #EVA
    Laminated Glass is a specialized type of safety glass that offers enhanced strength, security, and protection against various hazards. It is composed of two or more layers of glass bonded together with a layer of polyvinyl butyral (PVB) or ethylene-vinyl acetate (EVA) interlayer. This interlayer acts as a cohesive element, keeping the glass layers intact even when shattered, preventing them from breaking into sharp, dangerous pieces. With its unique construction, glass finds widespread application in automotive, architecture, and security. One of the primary advantages of Laminated Glass is its ability to provide safety in the event of breakage. When subjected to impact or force, the glass may crack, but the interlayer holds the fragments together, reducing the risk of injury from sharp shards. Read More: Http://Themarketingmarvel.Weebly.Com/Articles/Laminated-Glass-Is-A-Glass-That-Offers-Enhanced-Strength-Security-And-Protection-Against-Various-Hazards #LaminatedGlass #CoherentMarketInsights #Safety #Security #SoundInsulation #Architecture #PVB #EVA
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  • Self-Storage is a concept that has gained significant popularity over the years, offering individuals and businesses a convenient solution to their storage needs. In essence, it involves renting out a secure and private space for the storage of personal belongings, excess inventory, or any items that require a temporary or long-term storage solution. One of the primary advantages of self storage is its flexibility. Individuals can rent units in various sizes, allowing them to choose the space that best fits their requirements. Whether it's a small locker for a few boxes or a larger unit to store furniture during a home renovation, self storage facilities can accommodate a wide range of storage needs. These facilities are equipped with state-of-the-art security measures to ensure the safety of stored items.

    Read More: Https://Theluminouslines.Blogspot.Com/2023/07/Self-Storage-Offering-Individuals-And.Html

    #SelfStorage #CoherentMarketInsights #SmartSolution #Students #Secure #Furniture #Security
    Self-Storage is a concept that has gained significant popularity over the years, offering individuals and businesses a convenient solution to their storage needs. In essence, it involves renting out a secure and private space for the storage of personal belongings, excess inventory, or any items that require a temporary or long-term storage solution. One of the primary advantages of self storage is its flexibility. Individuals can rent units in various sizes, allowing them to choose the space that best fits their requirements. Whether it's a small locker for a few boxes or a larger unit to store furniture during a home renovation, self storage facilities can accommodate a wide range of storage needs. These facilities are equipped with state-of-the-art security measures to ensure the safety of stored items. Read More: Https://Theluminouslines.Blogspot.Com/2023/07/Self-Storage-Offering-Individuals-And.Html #SelfStorage #CoherentMarketInsights #SmartSolution #Students #Secure #Furniture #Security
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  • Active Pharmaceutical Ingredient (API) refers to the biologically active component of a pharmaceutical drug. It is the key ingredient responsible for the therapeutic effect of the medication. APIs are synthesized through various chemical and biotechnological processes and are used in the production of various dosage forms, including tablets, capsules, injections, and topical formulations. These ingredients are crucial for the development and manufacture of pharmaceutical drugs. APIs undergo rigorous research and development processes to ensure their safety, efficacy, and quality. Initially, scientists identify potential compounds with therapeutic properties through drug discovery and screening processes. Once a promising compound is identified, it undergoes extensive testing in preclinical studies to assess its pharmacological activity, toxicity, and potential side effects.

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    #ActivePharmaceuticalIngredient(API) #CoherentMarketInsights #medicines #pharmacological #treatment #diseasesandhealthconditions
    Active Pharmaceutical Ingredient (API) refers to the biologically active component of a pharmaceutical drug. It is the key ingredient responsible for the therapeutic effect of the medication. APIs are synthesized through various chemical and biotechnological processes and are used in the production of various dosage forms, including tablets, capsules, injections, and topical formulations. These ingredients are crucial for the development and manufacture of pharmaceutical drugs. APIs undergo rigorous research and development processes to ensure their safety, efficacy, and quality. Initially, scientists identify potential compounds with therapeutic properties through drug discovery and screening processes. Once a promising compound is identified, it undergoes extensive testing in preclinical studies to assess its pharmacological activity, toxicity, and potential side effects. Read More: Https://Theluminouslines.Blogspot.Com/2023/07/Active-Pharmaceutical-Ingredient-Api-Is.Html #ActivePharmaceuticalIngredient(API) #CoherentMarketInsights #medicines #pharmacological #treatment #diseasesandhealthconditions
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  • Octanedioic acid CAS 68937-75-7 Nonanoic acid
    Rm1104 ,No. 258, West SongXing Road, BaoShan District, Shanghai, China.
    Octanedioic acid CAS 68937-75-7 Nonanoic acid
    Common name Octanedioic acid English name Nonanoic acid
    CAS No. 68937-75-7
    Molecular weight 158.23800
    Density N/A Boiling point 254.5ºC
    Molecular formula C9H18O2 Melting point 12.4ºC
    MSDS US version
    Flash point N/A
    Synonyms: Caprylic acid (8-10 acid, C8C10 acid); 810 mixed acid; Caprylic acid C8-10; Caprylic acid C8-10,68937-75-7; Fatty acid C8C10 (caprylic acid); 810 acid; C8-10 acid; Caprylic acid
    CAS:68937-75-7;
    EINECS: 273-086-2
    C810 acid: Caprylic-CapricAcidBlend; Caprylic/CapricAcid; Octanoic/DecanoicAcid
    English Name:FattyAcidsC8C10;CAPRYLIC/CAPRICACID; Octanoic/DecanoicAcid/FattyAcidC8-C10

    Molecular Formula:
    C8H16O2+C10H20O2;

    Properties:
    Light amber to colourless clarified liquid with an oily odour.

    Parameters:
    Content >99.9%, Acid value/360, Saponification value/361, Iodine value/0.18, Fatty acid composition: C8 is 59.5, C10 is 40.1.
    Name of octanedecanoic acid
    Chinese name Octanedioic acid
    English name Nonanoic acid
    Physical and chemical properties of octanedecanoic acid
    Boiling point 254.5ºC
    Melting point 12.4ºC
    Molecular formula C9H18O2
    Molecular weight 158.23800
    Precise mass 158.13100
    PSA 37.30000
    LogP 2.82160
    Octanedioic Acid Safety Information
    Customs code 2942000000
    Octanedioic acid Customs
    Customs Code 2942000000
    Fatty acids are a class of carboxylic acid compounds consisting of hydrocarbon groups linked to carboxylic acids. They are widely used as raw materials in various industries and as intermediate products in the chemical synthesis of antibacterial pesticides and other products.
    It is used as a raw material for plasticizers, stabilizers and flame retardants in the plastics industry; lubricants, rust inhibitors and hydraulic fluids in the petroleum and metalworking industries; surfactants for textile coatings and mineral processing; the production of alkyl chlorides of agricultural products, methyl octanoate; and synthetic triglycerides of caprylicacid, pentaerythritol esters and polyol esters as metal lubricants, lubricants and emollients for personal care products.
    https://www.newtopchem.com/archives/42953
    Technical and business contact number: Manager Wu +86-183-0190-3156
    Octanedioic acid CAS 68937-75-7 Nonanoic acid Common name Octanedioic acid English name Nonanoic acid CAS No. 68937-75-7 Molecular weight 158.23800 Density N/A Boiling point 254.5ºC Molecular formula C9H18O2 Melting point 12.4ºC MSDS US version Flash point N/A Synonyms: Caprylic acid (8-10 acid, C8C10 acid); 810 mixed acid; Caprylic acid C8-10; Caprylic acid C8-10,68937-75-7; Fatty acid C8C10 (caprylic acid); 810 acid; C8-10 acid; Caprylic acid CAS:68937-75-7; EINECS: 273-086-2 C810 acid: Caprylic-CapricAcidBlend; Caprylic/CapricAcid; Octanoic/DecanoicAcid English Name:FattyAcidsC8C10;CAPRYLIC/CAPRICACID; Octanoic/DecanoicAcid/FattyAcidC8-C10 Molecular Formula: C8H16O2+C10H20O2; Properties: Light amber to colourless clarified liquid with an oily odour. Parameters: Content >99.9%, Acid value/360, Saponification value/361, Iodine value/0.18, Fatty acid composition: C8 is 59.5, C10 is 40.1. Name of octanedecanoic acid Chinese name Octanedioic acid English name Nonanoic acid Physical and chemical properties of octanedecanoic acid Boiling point 254.5ºC Melting point 12.4ºC Molecular formula C9H18O2 Molecular weight 158.23800 Precise mass 158.13100 PSA 37.30000 LogP 2.82160 Octanedioic Acid Safety Information Customs code 2942000000 Octanedioic acid Customs Customs Code 2942000000 Fatty acids are a class of carboxylic acid compounds consisting of hydrocarbon groups linked to carboxylic acids. They are widely used as raw materials in various industries and as intermediate products in the chemical synthesis of antibacterial pesticides and other products. It is used as a raw material for plasticizers, stabilizers and flame retardants in the plastics industry; lubricants, rust inhibitors and hydraulic fluids in the petroleum and metalworking industries; surfactants for textile coatings and mineral processing; the production of alkyl chlorides of agricultural products, methyl octanoate; and synthetic triglycerides of caprylicacid, pentaerythritol esters and polyol esters as metal lubricants, lubricants and emollients for personal care products. https://www.newtopchem.com/archives/42953 Technical and business contact number: Manager Wu +86-183-0190-3156
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  • NT CAT T CAS:2212-32-0 Analysis and Precautions
    Rm1104 ,No. 258, West SongXing Road, BaoShan District, Shanghai, China.
    NT CAT T CAS:2212-32-0 Analysis and Precautions

    Introduction.
    CAS No.:2212-32-0
    Molecular Formula: (CH3)2NCH2CH2N(CH3)CH2CH2OH
    Molecular weight: 146.23
    Chinese name: 2-{[2-(dimethylamino)ethyl]methylamino}ethanol
    English name: 2-{[2-(Dimethylamino)ethyl]methylamino}ethanol
    English alias: 2-{[2-(Dimethylamino)ethyl]methylamino}ethanol
    Precise molecular weight/precise mass: 146.23

    Molecular structure.
    1、 Molar refractive index: 43.45
    2. Molar volume (m3/mol): 156.0
    3、 Isotropic specific volume (90.2K): 378.7
    4、 Surface tension (dyne/cm): 34.6
    5、 Dielectric constant (F/m): not available
    6、 Dipole distance (D): not available
    7、 Polarization rate (10 -24cm 3): 17.22

    Oil-water partition coefficient / LogP.
    LogP value refers to the logarithmic value of the partition coefficient of a substance in the n-octanol/water two-phase system, reflecting the partition of the substance in the oil-water two-phase. The larger the LogP value, the more lipophilic the substance is; conversely, the smaller the LogP value, the more hydrophilic the substance is.

    Product use.
    Trimethylhydroxyethyl ethylenediamine is a low odor reactive foaming catalyst.
    Trimethylhydroxyethyl ethylene diamine is mainly used as a catalyst for polyether-based polyurethane flexible foam, molded foam, semi-rigid foam and rigid foam, and is especially recommended for automotive foam.

    Applications.
    2-{[2-(dimethylamino)ethyl]methylamino}ethanol (dmemH) has been used for the preparation of new iron clusters:
    [Fe7O4 (O2CPh) 11 (dmem) 2]
    [Fe7O4 (O2CMe) 11 (dmem) 2]
    [Fe6O2 (OH) 4 (O2CBut) 8 (dmem) 2]

    Conditions to be avoided.
    Heat, flame and sparks.

    Incompatible substances.
    Strong oxidizing agent, strong acid

    Waste disposal methods:
    This explosive product can be burned in a chemical incinerator with post-combustion treatment and scrubbing action
    Dispose of the remaining and non-recyclable solution to a licensed company.
    Contact a licensed professional waste disposal facility to dispose of the substance.
    Contaminated containers and packaging
    Dispose of as unused product.

    Safety Information.
    Hazardous Transport Code: Not available
    Hazardous Material Marking: Irritant
    Safety Marking: S26
    Hazardous Marking: R36/37/38

    Description of necessary first aid measures.
    Consult a physician for general advice. Show this safety technical note to the physician who arrives at the scene.
    Inhalation
    If inhaled, move patient to fresh air. If breathing stops, perform artificial respiration. Consult a physician.
    Skin contact
    Flush with soap and plenty of water. Consult a physician.
    Eye contact
    Flush thoroughly with plenty of water for at least 15 minutes and consult a physician.
    Ingestion
    Do not induce vomiting. Do not give anything by mouth to an unconscious person. Rinse mouth with water. Consult a physician.

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

    Packaging.
    200KG/drum Storage: It is recommended to store in a dry and cool area with proper ventilation. Please fasten the lid of the package as soon as possible after the original packaging to prevent the mixing of other substances such as moisture from affecting the performance of the product. 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.
    https://www.newtopchem.com/archives/40573
    NT CAT T CAS:2212-32-0 Analysis and Precautions Introduction. CAS No.:2212-32-0 Molecular Formula: (CH3)2NCH2CH2N(CH3)CH2CH2OH Molecular weight: 146.23 Chinese name: 2-{[2-(dimethylamino)ethyl]methylamino}ethanol English name: 2-{[2-(Dimethylamino)ethyl]methylamino}ethanol English alias: 2-{[2-(Dimethylamino)ethyl]methylamino}ethanol Precise molecular weight/precise mass: 146.23 Molecular structure. 1、 Molar refractive index: 43.45 2. Molar volume (m3/mol): 156.0 3、 Isotropic specific volume (90.2K): 378.7 4、 Surface tension (dyne/cm): 34.6 5、 Dielectric constant (F/m): not available 6、 Dipole distance (D): not available 7、 Polarization rate (10 -24cm 3): 17.22 Oil-water partition coefficient / LogP. LogP value refers to the logarithmic value of the partition coefficient of a substance in the n-octanol/water two-phase system, reflecting the partition of the substance in the oil-water two-phase. The larger the LogP value, the more lipophilic the substance is; conversely, the smaller the LogP value, the more hydrophilic the substance is. Product use. Trimethylhydroxyethyl ethylenediamine is a low odor reactive foaming catalyst. Trimethylhydroxyethyl ethylene diamine is mainly used as a catalyst for polyether-based polyurethane flexible foam, molded foam, semi-rigid foam and rigid foam, and is especially recommended for automotive foam. Applications. 2-{[2-(dimethylamino)ethyl]methylamino}ethanol (dmemH) has been used for the preparation of new iron clusters: [Fe7O4 (O2CPh) 11 (dmem) 2] [Fe7O4 (O2CMe) 11 (dmem) 2] [Fe6O2 (OH) 4 (O2CBut) 8 (dmem) 2] Conditions to be avoided. Heat, flame and sparks. Incompatible substances. Strong oxidizing agent, strong acid Waste disposal methods: This explosive product can be burned in a chemical incinerator with post-combustion treatment and scrubbing action Dispose of the remaining and non-recyclable solution to a licensed company. Contact a licensed professional waste disposal facility to dispose of the substance. Contaminated containers and packaging Dispose of as unused product. Safety Information. Hazardous Transport Code: Not available Hazardous Material Marking: Irritant Safety Marking: S26 Hazardous Marking: R36/37/38 Description of necessary first aid measures. Consult a physician for general advice. Show this safety technical note to the physician who arrives at the scene. Inhalation If inhaled, move patient to fresh air. If breathing stops, perform artificial respiration. Consult a physician. Skin contact Flush with soap and plenty of water. Consult a physician. Eye contact Flush thoroughly with plenty of water for at least 15 minutes and consult a physician. Ingestion Do not induce vomiting. Do not give anything by mouth to an unconscious person. Rinse mouth with water. Consult a physician. Storage and transportation. Should be kept sealed and stored in a dry, cool and ventilated warehouse Packaging. 200KG/drum Storage: It is recommended to store in a dry and cool area with proper ventilation. Please fasten the lid of the package as soon as possible after the original packaging to prevent the mixing of other substances such as moisture from affecting the performance of the product. 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. https://www.newtopchem.com/archives/40573
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  • DMAEE CAS:1704-62-7 Usage and Manufacturing Method
    Rm1104 ,No. 258, West SongXing Road, BaoShan District, Shanghai, China.
    DMAEE CAS:1704-62-7 Usage and Manufacturing Method

    Brief introduction.
    Dimethyldiethanolamine is a chemical substance.
    Alias: Dimethylaminoethoxyethanol
    Abbreviation: DMAEE
    English name: dimethyaminoethoxyethanol, dimethyl2-(2-aminoethoxy)ethanol
    Molecular formula: C6H15NO2
    Relative molecular weight:133.2
    CAS No.:1704-62-7

    Formulation.
    Recipe weight:133.19
    Purity percentage: ≥98.0% (GC)
    Physical form: Liquid

    Experimental operation.
    [ 50-00-0 ] + [ 929-06-6 ] = [ 1704-62-7 ]
    Phase I: 0.5 hr.
    Phase II: 100 - 110 °C; 2 h.
    Phase III: 120 °C; 4 h.
    Synthesis To a 250 ml three-necked flask was added 63.1 g of diethyleneglycolamine (0.6 mol), 34.5 g of paraformaldehyde (1.2 mol), stirred for 30 min and 63 g of formic acid (1.2 mol, 88%) was added dropwise at a temperature of 100 to 110 °C and reacted at about 100 °C for 1 h. Distill out 30 g under reduced pressure (vacuum - 0.094 MPa, kettle temperature 80°C). The distillation ended with 90.0% product and 9.8% impurity (S-2) content. _: The liquid from step 2) was transferred to a 500 ml distillation flask and distilled under reduced pressure at a vacuum of -0.094 mpa. 62°C component was n-butanol ester exchanged down to formic acid as butanol, 121° C DMAEE component that is the product. Collected 121 ° C component 128.3g, yield 96.5%, the Uses.
    DMAEE is a low odor reactive foaming catalyst, mainly used in rigid packaging foam, also used in molded flexible foam and polyether urethane flexible foam.DMAEE is also an important intermediate, used in polyurethane coatings, surfactants, mine reinforcement and many other fields. Zhongke's organic amine catalyst and curing agent series products will be put into production one after another, and the core catalyst and curing agent products will be used as the basis for the subsequent development of new materials for high value-added polyurethane and epoxy resin by precisely matching the market changes.

    Integrated manufacturing method of dmae and dmaee in microtubular reactor.
    A method of integrated preparation of DMAE and DMAEE in microtube reactor is disclosed, which includes the following steps in turn: pumping ethylene oxide and aqueous dimethylamine solution formed by mixing dimethylamine with water as catalyst as materials into the microtube reactor respectively, controlling the molar ratio of ethylene oxide to dimethylamine as 1~2:1; setting the reaction temperature in the microtube reactor as 60~90°C and pressure as 1.3 ±0.2 Pa, and the residence time of the material in the microtubular reactor is controlled to be 15~90s; the effluent from the microtubular reactor is an aqueous solution of DMAE and DMAEE. The method of the present invention has the advantages of high atomic economy, good reaction selectivity, mild reaction conditions, short reaction time, simple catalyst, and simple product separation.

    Safety information :
    Risk terminology
    R21:Harmful in contact with skin.
    R41:Risk of serious damage to the eyes.

    Safety Terminology
    S26:In case of contact with eyes, rinse immediately with plenty of water and seek medical advice.
    S36/37/39:Wear suitable protective clothing, gloves and eye/face protection.

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

    Packaging.
    200KG/drum Storage: It is recommended to store in a dry and cool area with proper ventilation. After the original packaging

    , please fasten the lid as soon as possible to prevent the mixing of other substances such as moisture to affect the performance of the product. 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.
    https://www.newtopchem.com/archives/40565
    DMAEE CAS:1704-62-7 Usage and Manufacturing Method Brief introduction. Dimethyldiethanolamine is a chemical substance. Alias: Dimethylaminoethoxyethanol Abbreviation: DMAEE English name: dimethyaminoethoxyethanol, dimethyl2-(2-aminoethoxy)ethanol Molecular formula: C6H15NO2 Relative molecular weight:133.2 CAS No.:1704-62-7 Formulation. Recipe weight:133.19 Purity percentage: ≥98.0% (GC) Physical form: Liquid Experimental operation. [ 50-00-0 ] + [ 929-06-6 ] = [ 1704-62-7 ] Phase I: 0.5 hr. Phase II: 100 - 110 °C; 2 h. Phase III: 120 °C; 4 h. Synthesis To a 250 ml three-necked flask was added 63.1 g of diethyleneglycolamine (0.6 mol), 34.5 g of paraformaldehyde (1.2 mol), stirred for 30 min and 63 g of formic acid (1.2 mol, 88%) was added dropwise at a temperature of 100 to 110 °C and reacted at about 100 °C for 1 h. Distill out 30 g under reduced pressure (vacuum - 0.094 MPa, kettle temperature 80°C). The distillation ended with 90.0% product and 9.8% impurity (S-2) content. _: The liquid from step 2) was transferred to a 500 ml distillation flask and distilled under reduced pressure at a vacuum of -0.094 mpa. 62°C component was n-butanol ester exchanged down to formic acid as butanol, 121° C DMAEE component that is the product. Collected 121 ° C component 128.3g, yield 96.5%, the Uses. DMAEE is a low odor reactive foaming catalyst, mainly used in rigid packaging foam, also used in molded flexible foam and polyether urethane flexible foam.DMAEE is also an important intermediate, used in polyurethane coatings, surfactants, mine reinforcement and many other fields. Zhongke's organic amine catalyst and curing agent series products will be put into production one after another, and the core catalyst and curing agent products will be used as the basis for the subsequent development of new materials for high value-added polyurethane and epoxy resin by precisely matching the market changes. Integrated manufacturing method of dmae and dmaee in microtubular reactor. A method of integrated preparation of DMAE and DMAEE in microtube reactor is disclosed, which includes the following steps in turn: pumping ethylene oxide and aqueous dimethylamine solution formed by mixing dimethylamine with water as catalyst as materials into the microtube reactor respectively, controlling the molar ratio of ethylene oxide to dimethylamine as 1~2:1; setting the reaction temperature in the microtube reactor as 60~90°C and pressure as 1.3 ±0.2 Pa, and the residence time of the material in the microtubular reactor is controlled to be 15~90s; the effluent from the microtubular reactor is an aqueous solution of DMAE and DMAEE. The method of the present invention has the advantages of high atomic economy, good reaction selectivity, mild reaction conditions, short reaction time, simple catalyst, and simple product separation. Safety information : Risk terminology R21:Harmful in contact with skin. R41:Risk of serious damage to the eyes. Safety Terminology S26:In case of contact with eyes, rinse immediately with plenty of water and seek medical advice. S36/37/39:Wear suitable protective clothing, gloves and eye/face protection. Storage and transportation. Should be kept sealed and stored in a dry, cool, ventilated warehouse Packaging. 200KG/drum Storage: It is recommended to store in a dry and cool area with proper ventilation. After the original packaging , please fasten the lid as soon as possible to prevent the mixing of other substances such as moisture to affect the performance of the product. 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. https://www.newtopchem.com/archives/40565
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