200 mesh zinc powder

Product Name: Zinc powder, classified by production process, standard compliance, content, and shape. Materials required: Zinc ingots. Main applications: Used in paints, nano-coatings, and surface treatment of precision instruments. Due to its high activity, it is suitable for advanced and specialized medical fields. Production capacity: 3000 tons. Distillation powder (GB/T6890-2000 Grade 1, ≥99% content, spherical, 0-2# zinc ingots). Atomization powder (GB/T6890-2000 Grade 1, 96% content, acicular, 1-2# zinc ingots, mainly used in chemical reactions, conversion, tin soil, lithopone, zinc oxide, silk printing, etc.). Packaging: Iron barrels, conforming to GB/T6890-2000 national standard.

Classification :

PRODUCT DETAILS

Product Introduction

Product Name

By Production Process

Compliant Standards

By Content

By Shape

Required Materials

Main Uses

Annual Production

Zinc Powder

Distilled Powder

GB/T6890-2000

Grade 1 content 99% or more

Spherical

No. 0-2 zinc ingots

Mainly used in paints: nano coatings and surface treatment of precision instruments. Due to its high activity, it is suitable for advanced and special medical fields.

3000 tons

Atomized Powder

GB/T6890-2000

Grade 1 content only 96%

Acicular

No. 1-2 zinc ingots

Mainly used in chemical reactions, conversion, tin soil, lithopone, raw materials for zinc oxide, and silk printing, etc.

Iron barrel packaging

Complies with GB/T6890-2000 national standard

Grade

Chemical Composition

Main grade not less than

Impurities not more than

Total Zinc

Metallic Zinc

pb

Fc

Cd

Acid Insoluble

Grade 1

98

96

0.1

0.05

0.1

0.2

Grade 2

98

94

0.2

0.2

0.2

0.2

Grade 3

96

92

0.3

-

-

0.2

Grade 4

92

88

-

-

-

0.2

Note: For grade 4 zinc powder produced using zinc-containing materials as raw materials, the sulfur content should not exceed 0.5%

APPLICATION FIELD

Rubber Products

Rubber Products

Ceramics

Ceramics

Medicine

Medicine

Pesticide

Pesticide

Water Treatment

Water Treatment

Petrochemical

Petrochemical

Polymer Materials

Polymer Materials

Metalworking

Metalworking

Electronic

Electronic

INDUSTRY NEWS

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Zinc sulfate: full analysis of characteristics, preparation and multiple applications

Zinc sulfate (Zinc sulfate) is an important sulfate compound of the zinc element with the chemical formula ZnSO₄. As a widely used inorganic chemical raw material, it has both natural existence and artificial synthetic properties. It can be divided into anhydrous zinc sulfate (Zn) according to the crystal water content. SO₄) and crystalline hydrates, of which zinc sulfate heptahydrate (ZnSO₄·7H₂O), commonly known as "a vitriol", is the most common form in industrial production and daily life. The two complement each other in properties and application scenarios, supporting production activities in many fields.
Zinc sulfate (Zinc sulfate) is an important sulfate compound of the zinc element with the chemical formula ZnSO₄. As a widely used inorganic chemical raw material, it has both natural existence and artificial synthetic properties. It can be divided into anhydrous zinc sulfate (Zn) according to the crystal water content. SO₄) and crystalline hydrates, of which zinc sulfate heptahydrate (ZnSO₄·7H₂O), commonly known as "a vitriol", is the most common form in industrial production and daily life. The two complement each other in properties and application scenarios, supporting production activities in many fields.
Zinc carbonate: analysis of properties, preparation and multi-field applications

Zinc carbonate: analysis of properties, preparation and multi-field applications

Zinc carbonate is an important carbonate compound of the zinc element with the chemical formula ZnCO₃. As a key inorganic chemical raw material, it widely exists in nature and is used in many industrial fields. It is often mentioned in conjunction with basic zinc carbonate (chemical formula 2ZnCO₃·3Zn(OH)₂·H₂O). The latter is more often referred to as "zinc carbonate" in industrial production. The two are related but different in properties and uses.
Zinc carbonate is an important carbonate compound of the zinc element with the chemical formula ZnCO₃. As a key inorganic chemical raw material, it widely exists in nature and is used in many industrial fields. It is often mentioned in conjunction with basic zinc carbonate (chemical formula 2ZnCO₃·3Zn(OH)₂·H₂O). The latter is more often referred to as "zinc carbonate" in industrial production. The two are related but different in properties and uses.
N-Methylallylamine Hydrochloride: Properties, Preparation and Applications

N-Methylallylamine Hydrochloride: Properties, Preparation and Applications

N-Allylmethylamine Hydrochloride, also known as N-allylmethylamine hydrochloride, is an important organic amine salt derivative formed by N-methylallylamine and hydrochloric acid. Compared with free N-methylallylamine, it has stronger chemical stability, better water solubility, and improved reaction controllability, showing unique application value in fine chemicals, pharmaceutical synthesis, water treatment and other fields. This article combines its structural characteristics to systematically and carefully elaborate on basic information, physical and chemical properties, preparation processes, application scenarios, and safety protection.
N-Allylmethylamine Hydrochloride, also known as N-allylmethylamine hydrochloride, is an important organic amine salt derivative formed by N-methylallylamine and hydrochloric acid. Compared with free N-methylallylamine, it has stronger chemical stability, better water solubility, and improved reaction controllability, showing unique application value in fine chemicals, pharmaceutical synthesis, water treatment and other fields. This article combines its structural characteristics to systematically and carefully elaborate on basic information, physical and chemical properties, preparation processes, application scenarios, and safety protection.
N-Methylallylamine: Properties, Preparation and Applications

N-Methylallylamine: Properties, Preparation and Applications

N-Allylmethylamine, also known as N-allylmethylamine and N-methylpropylamine, is an important aliphatic organic amine compound with active chemical properties and broad industrial application potential. Its unique molecular structure (containing allyl and methylamino groups) enables it to play an irreplaceable role in the fields of organic synthesis, pharmaceutical chemicals, and polymer materials. This article will systematically elaborate on N-methylallylamine from the aspects of basic information, physical and chemical properties, preparation methods, application fields and safety protection.
N-Allylmethylamine, also known as N-allylmethylamine and N-methylpropylamine, is an important aliphatic organic amine compound with active chemical properties and broad industrial application potential. Its unique molecular structure (containing allyl and methylamino groups) enables it to play an irreplaceable role in the fields of organic synthesis, pharmaceutical chemicals, and polymer materials. This article will systematically elaborate on N-methylallylamine from the aspects of basic information, physical and chemical properties, preparation methods, application fields and safety protection.
Diallylamine: Characteristics, Preparation and Industrial Applications of Diallyl Substituted Amines

Diallylamine: Characteristics, Preparation and Industrial Applications of Diallyl Substituted Amines

Diallylamine, also known as diallylamine and N,N-diallylamine, is a secondary alkylated derivative of allylamine. Its molecular formula is C₆H₁₁N, its simplified structural formula is (CH₂=CH-CH₂)₂NH, CAS number 124-02-7, and molar mass 97.16 g·mol⁻¹. As a bifunctional organic amine containing two allyl double bonds and one secondary amino group, it combines the high reactivity of allyl groups with the basic characteristics of secondary amines. Compared with primary allyl amines, the alkalinity after alkyl substitution is slightly weakened but the chemical stability is improved. At the same time, the double double bond structure gives it better polymerization and cross-linking capabilities. It has become a key intermediate in the fields of organic synthesis, polymer materials, water treatment, etc., filling the performance gap between monoallylamine and triallylamine.
Diallylamine, also known as diallylamine and N,N-diallylamine, is a secondary alkylated derivative of allylamine. Its molecular formula is C₆H₁₁N, its simplified structural formula is (CH₂=CH-CH₂)₂NH, CAS number 124-02-7, and molar mass 97.16 g·mol⁻¹. As a bifunctional organic amine containing two allyl double bonds and one secondary amino group, it combines the high reactivity of allyl groups with the basic characteristics of secondary amines. Compared with primary allyl amines, the alkalinity after alkyl substitution is slightly weakened but the chemical stability is improved. At the same time, the double double bond structure gives it better polymerization and cross-linking capabilities. It has become a key intermediate in the fields of organic synthesis, polymer materials, water treatment, etc., filling the performance gap between monoallylamine and triallylamine.
Diallylamine: Characteristics, Preparation and Industrial Applications of Diallyl Substituted Amines

Diallylamine: Characteristics, Preparation and Industrial Applications of Diallyl Substituted Amines

Diallylamine, also known as diallylamine and N,N-diallylamine, is a secondary alkylated derivative of allylamine. Its molecular formula is C₆H₁₁N, its simplified structural formula is (CH₂=CH-CH₂)₂NH, CAS number 124-02-7, and molar mass 97.16 g·mol⁻¹. As a bifunctional organic amine containing two allyl double bonds and one secondary amino group, it combines the high reactivity of allyl groups with the basic characteristics of secondary amines. Compared with primary allyl amines, the alkalinity after alkyl substitution is slightly weakened but the chemical stability is improved. At the same time, the double double bond structure gives it better polymerization and cross-linking capabilities. It has become a key intermediate in the fields of organic synthesis, polymer materials, water treatment, etc., filling the performance gap between monoallylamine and triallylamine.
Diallylamine, also known as diallylamine and N,N-diallylamine, is a secondary alkylated derivative of allylamine. Its molecular formula is C₆H₁₁N, its simplified structural formula is (CH₂=CH-CH₂)₂NH, CAS number 124-02-7, and molar mass 97.16 g·mol⁻¹. As a bifunctional organic amine containing two allyl double bonds and one secondary amino group, it combines the high reactivity of allyl groups with the basic characteristics of secondary amines. Compared with primary allyl amines, the alkalinity after alkyl substitution is slightly weakened but the chemical stability is improved. At the same time, the double double bond structure gives it better polymerization and cross-linking capabilities. It has become a key intermediate in the fields of organic synthesis, polymer materials, water treatment, etc., filling the performance gap between monoallylamine and triallylamine.

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