C8 Alkyl glucoside Isooctyl glucoside CAS 125590-73-0

Merchandise has a 60% aqueous liquid that is neutral or weakly acidic. It also has excellent properties such as permeability and dispersion.

About C8 Alkylglucoside It is a liquid that is 60 percent aqueous and neutral or slightly alkaline. It has excellent permeability. The wettability is good, especially in an alkali-rich system. The higher the concentration of alkali, the greater the wettability. The HLB of 13 to 15
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Product Performance of Alkyl C8 Glucoside
It is a liquid that is 60 percent aqueous and neutral or slightly alkaline. It has excellent permeability. The wettability is good, especially in an alkali-rich system. The higher the concentration of alkali, the greater the wettability. The HLB of 13 to 15

Technical Parameters of C8 Alkylglucosides:
Product name HLB Chroma Appearance
C8 Alkylglucoside 13-15 N/A Amber liquid

Applicable C8 Alkylglucoside :
It is often used as a strong alkali system of active agents for cleaning surfaces such as beer bottles, textiles, and metals.

Packing & Shipping for C8 Alkyl glucoside
There are different types of packing depending on what you want to pack. C8 Alkyl glucoside quantity.
C8 Alkylglucoside Packing 1kg per bottle, 25kg per barrel, or 200kg per barrel.
C8 Alkylglucoside shipping The shipment can be made by sea, air, or express as soon after payment as possible.

C8 Alkylglucoside Property

Alternative Names Isoctylglucoside
CAS Number 125590-73-0
Compound Formula (C6H11O5)nOR
Molecular Mass N/A
Appearance Amber liquid
Melting Point N/A
Boiling Point N/A
Density N/A
Solubility In H2O N/A
Exact Mass N/A

Health & Safety Information Alkyl C8 glucoside

Sign Word N/A
Hazard Statements N/A
Hazard Codes N/A
Risk Codes N/A
Safety Declarations N/A
Transport Information

Spherical Aluminum oxide Powder Properties And Applications

Spherical Aluminum Oxide Aluminum oxide a-phase produced by high-temperature melting spraying has high sphericity. It performs well as a ceramic raw material and as a rubber and plastic filler.

Spherical aluminum oxide powder Properties

1. High Filling Spherical Aluminum Oxide has high sphericity with a wide particle distribution. It can fill rubber with high density. The mixture will have low viscosity, good fluidity and a low viscosity.

2. High thermal conductivity
A mixture with good heat dissipation and high thermal conductivity can be achieved by filling spherical silicon powder with aluminum oxide.

3. Low Wear
Aluminum oxide spherical is less abrasive than other types of aluminum oxide. This means that equipment such as kneaders or molding machines can last longer.

Spherical aluminum oxide powder Applications

1. Use as a ceramic material
The high quality ceramics produced with spherical aluminium oxide are a result of its excellent compression molding, blending and sintering qualities.

2. It is used as a material for grinding and polishing
You can prevent scratches by using spherical Aluminum Oxide as a polishing agent.

3. It is used in the petrochemical industries
In the petrochemical industries, the requirements for pore size distribution as well as pore structure are increasing. To control the pore sizes and distributions of the formed carrier particles, it is possible to adjust the particle size configuration for the spherical aluminium oxide powder.

4. Catalysts:
Aluminum oxide spheres can be used as catalysts to reduce abrasion. They also increase the lifespan of the catalysts, which will lower the production costs.

5. Surface protective coating
Spraying a spherical powder of aluminum oxide on metals or plastics can improve their hardness, corrosion resistance, wear resistance, and fire resistance. Surface protection for machinery, knives and chemical pipelines can be improved by using this powder.

6. Used in luminescent material
Aluminum oxide powder spheres have a high density that can reduce the scattering and loss of light.

7. Electronics industry
The excellent properties of spherical aluminium oxide in terms electrical, mechanical and thermal properties make it widely used in semiconductor electronic packaging.

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The Main Synthesis Method of Titanium Carbide

What is titanium carbide?

TiC is a light gray cubic crystal, which is not soluble in water. It has high chemical stability and can be dissolved by aqua regia or nitric and hydrofluoric acids.

TiC has a metallic luster and is gray with an iron grey color. It belongs to a simple cubic NaCl structure. The lattice is 0.4329 nanometers. The space group Fm3m. TiC has strong covalent bonding between the carbon atoms, and titanium atoms. These bonded atoms are similar in many ways to metals. For example, they have a high melting temperature, high boiling temperatures, good electrical conductivity as well as thermal conductivity. TiC can be used to produce cermets as well as heat-resistant metals, cemented carbide, anti-wear material, high temperature radiation materials, and other high temperature vacuum equipment.

Method of synthesis of titanium carbide

As raw materials, titanium dioxide and carbon black are used.

The dry powder mixture of high-purity titania dioxide and carbon black is mixed proportionally and then press-formed under a hydrogen-filled atmosphere in either a horizontal carbon-tube furnace or vertical carbon-tube furnace. At 19002300degC reduction to get block TiC and then pulverization for titanium carbide product. Or, using carbon black and sponge titanium as raw materials. Carbon black (or titanium alloy or titanium waste recovered in carbide solid solutions) and sponge Titanium are fully mixed proportionally and heated to 15001700degC with a high-purity hydrogen stream. Titanium carbide.

Direct carbonization of Titanium Metal:

The carbon is infiltrated by a high-purity stream of hydrogen heated to 1500-17degC. The reaction temperature, holding time and particle size are dependent on the raw material.

Gas phase reaction method:

Hydrocarbons such as benzene and methane are mixed into the steam from titanium tetrachloride. After induction heating (or other methods), the steam is sent to deposit titanium carbide on the substrate. The reaction precipitates titania carbide on substrate. The precipitated form of titanium carbide differs depending on the reaction conditions.

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Canada found that silicon nanoparticles can increase the storage capacity of lithium batteries by 10 times

There are abundant reserves of silicon. Si and Li can be combined to form a Li4.4Si, resulting in a theoretical specific energy of 4200mAh/g. That is almost 10 times more than the lithium-ion that is absorbed by today’s lithium batteries. In the present day, silicon materials are used in lithium-ion cells mainly for two reasons. The anode is formulated by adding nano-silicon. To improve the performance, organosilicon compounds can be added to the electrolyte.
The University Alberta created a brand new generation of lithium batteries based on silicon

Jillian Biriak and her team at the University of Alberta (Canada) discovered recently that forming the silicon into nano-sized particle helps it to resist breaking.
Nano-silicon can be defined as crystalline particles of silicon that have a diameter less than five nanometers. It is a very important non-metal, amorphous substance. Nano-silicon has many properties, including high purity and uniformity, large surface areas, high surface activity and low bulk density. It is also non-toxic and smellless. Nano-silicon can have a variety of uses: It can be used to create high-temperature coatings, refractory material, and cutting tools. It can also be mixed with a carbon-graphite composite to produce silicon-carbon composites. The negative electrode material in lithium-ion cells increases the battery’s capacity. This material can be combined with organic matter to create organic silicon polymer.

The team studied and tested four sizes of nanoparticles of silicon to determine which size would maximize its advantages while minimizing the disadvantages. They are evenly dispersed in a highly conductive graphene-carbon aerogel with nanopores that compensates for the low conductivity silicon.

After multiple cycles of charge and discharge, they found that particles as small as one part per meter showed the most stability. This eliminates the limitations of using silicon for lithium-ion cells. This discovery could result in batteries that have 10 times the current capacity of lithium-ion battery. This is an important step toward the manufacture of new generations of lithium-ion-based batteries. The research findings were published in the journal Materials Chemistry.

The lithium battery industry’s chain of silicon anode sales worth tens or hundreds of millions of dollars

This research can be applied in many fields, including electric vehicles. The batteries will become lighter, travel longer and charge faster. The next step will be to create a method that is faster and cheaper to produce silicon nanoparticles. This will make it easier for industrial production.

Other than new energy vehicles, the need for lithium-ion battery with higher energy and power density is also present in energy storage and shipbuilding. The positive electrode is now made from high-nickel ternary material, while the negative electrode is made of silicon and its Composite material.

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What is amorphous boron and its applications

Amorphous boron Amorphous boron This is a form boron. The element boron occurs rarely in nature as its pure form, but as orthoboric or borates. Boron’s energy gap of 1,50 to 1,556 eV is greater than that of silicon or germanium. It transmits parts of infrared. At room temperature boron is not as good a conductor of electricity. Boron is available in amorphous and crystalline forms. Boron has a tasteless and odorless. Amorphous Boron is a brownish powder. Crystalline Boron is black in color, extremely hard on the Mohs Scale (about 9.5), and is not a good conductor when at room temperatures. In the periodic chart of elements, boron lies between the non-metal and metal element series. Boron’s chemical properties are active due to many of its characteristics. These include a strong electronegative charge, a small atomic radius, and central nuclear charge. The non-metal of boron is very similar to silicon. At high temperature, boron may react with sulfur, oxygen, nitrogen or halogen. Boron remains stable at room temperature. It will oxidize when heated up to 300°C and burn if heated up to 700°C. Boron is easily combined with a variety of metals in order to produce metal boride. High purity boron can be crystalline. The vapor phase reaction of boron chloride or tribromide and hydrogen can be used to prepare crystalline boron.

Boron (B) Metal Powder Info

Chemical Formula: B
Amorphous Boron & Crystalline Boron

Physical Properties
Amorphous Boron : fine powder between 0.5 and 0.8 micron
Crystalline Boron: Granules fine powder and filaments. Crystalline fine Powder available up to -325 Mesh.

Chemical Properties
Amorphous Boron : 90-92% et 95-97%
Crystalline Boron (99%, 99.5%), 99.9+% (99.995%) and 99.9995%

Boracium, bore boron metallic boron boron amorphous boron boron boron boron crystalline boron boron enriched boron boron b-10 pieces CAS #7440 42 8 MIL B 51092 PA PD 451 EINECS 23151-2

Boron (B) Metal Powder CAS Number: CAS# 7440-42-8

What is the purpose of amorphous boran?
  • The amorphous boron used in flares is used to ignite rocket fuel. It gives flares their distinctive green colour. Boric acid, sodium borate and boric oxid are the three most important boron compounds. You can find them in eye drops and mild antiseptics.
  • Oxygen-scavenger; semi-conductor-dopant; rocket-propellant blends; pyrotechnic flashes. Refractory additive. Cementation of iron and special purpose alloys. Neutron absorber for nuclear reactor controls. Radiation hardening.
  • Elemental Boron is used as dopant for semiconductors. However, boron compounds also play an important role as lightweight structural materials, as insecticides and preservation agents, as well as as reagents in chemical synthesis.
  • Boron (amorphous Powder) was used as a boron sources to synthesize hexagonal boran nitride, boron doped diamond (BDD), or europium doped BN nanotubes.
  • A recent study reports on a study that examines the structure and transport properties in situ of long MgB2/Fe Wires. These wires are made by using , amorphous Boros, and nano amorphous Boros powders. The powder-in-tube (PIT), standard method is used to fabricate the wire samples. Transport measurements are performed in Bitter magnets with high magnetic fields of up to nine T. Researchers have found that a mixture of amorphous boron powder and amorphous micro boron powder in equal amounts can be used to produce long wires with no degradation of transport engineering Jce in low and medium magnetic fields.

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N-Methyl-N-cocoylaminoacetic acid CAS 61791-59-1

CS-30, an amino acid series, is a mild surfactant that produces a lot of foam. It is stable and elastic. The result after washing the hair will be soft, natural and fresh.

About N-Methyl-N-cocoylaminoacetic acid CAS 61791-59-1: CS-30 is a surfactant of the amino acid type, mild, foamy, elastic, fresh, natural and not too tight. Good conditioning, soft hair, easy to comb after use.

Product Performance of N-Methyl-N-cocoylaminoacetic acid CAS 61791-59-1:
It is one of the most trusted hydroxypropyl alkyl sulfobetaine suppliers in the world. Please send us an inquiry for the most recent price of Alkyl C12-14 Hydroxypropyl Sulfobetaine. Bulk purchases of Alkyl C12-14 Hydroxypropyl Sulfobetaine are available.

Technical Parameter of N-Methyl-N-cocoylaminoacetic acid CAS 61791-59-1:
Product Code Shortname Solid content Formula Molecular PH NaCl
N-Methyl-N-cocoylaminoacetic acid CS-30 32-36 C3H6NNaO2 8.0~9.5 N/A

Applications N-Methyl-N-cocoylaminoacetic acid CAS 61791-59-1:
It can be used to make high-end skin products, such as facial cleansers and shower gels.
Packing & Shipping of N-Methyl-N-cocoylaminoacetic acid CAS 61791-59-1:
We have many different kinds of packing which depend onN-Methyl-N-cocoylaminoacetic acid CAS 61791-59-1 quantity.
N-Methyl-N-cocoylaminoacetic acid CAS 61791-59-1 packing: N-Methyl-N-cocoylaminoacetic acid CAS 61791-59-1 There are two barrel sizes: 25kg and 200kg.
N-Methyl-N-cocoylaminoacetic acid CAS 61791-59-1 shipping: The shipment can be made by air, sea or express as soon after payment as possible.

N-Methyl-N-cocoylaminoacetic acid CAS 61791-59-1 Properties

Alternative Names N-methyl -N-coconut acid sodium salt
CAS Number N/A
Compound Formula N/A
Molecular Mass N/A
Appearance Colorless clear liquid in light yellow
Melting Point N/A
Boiling Point N/A
Density N/A
Solubility In H2O N/A
Exact Mass N/A

N-Methyl-N-cocoylaminoacetic acid CAS 61791-59-1 Health& Safety Information

Sign Word N/A
Hazard Statements N/A
Hazard Codes N/A
Risk Codes N/A
Safety Declarations N/A
Transport Information

Solder Paste Particle Size

Choosing the right solder paste is a vital step in PCB assembly. The paste is made up of minute tin and copper spheres held within a specialized form of solder flux. The spheres are deposited onto the circuit board surface during assembly, where they melt and join together to create electrical contact and mechanical strength. Several factors must be considered in selecting the correct paste for the job. These factors include:

solder paste particle size is a critical factor in the quality of printed circuit boards (PCBs). The spherical shape of the metal particles reduces surface oxidation, improves print performance and helps to ensure impeccable joint formation with adjacent spheres during reflow. Additionally, the spherical geometry of the particles assists in reducing stencil aperture clogging. Solder pastes are typically classified by size using IPC standards such as J-STD-005 Requirements for Soldering Pastes. Table 3-2 details the main particle size ranges for each type.

As stencil aperture / pad dimension decreases, the number of average spheres in the paste needs to increase. The normal rule of thumb is that the average sphere in the paste should be at least five times smaller than the smallest stencil aperture dimension.

This translates to a typical Type 3 paste needing an aperture at least 20 microns (9 mils) in diameter to function properly. This requirement makes it important to use a good stencil with exceptional release characteristics and a reflow profile that will allow the paste to be deposited without excessive spreading. In general, the reflow temperature profile should be gentle enough to prevent explosive expansion and excessive reflow coalescence, but fast enough to enable quick initiation of flux activity.

Melting Temp of Nickel at Core Pressures

Nickel melts at a temperature higher than copper or zinc but much lower than metals like iron or tungsten. This high melting point is an advantage for alloys like Monel which are used in equipment for handling fluorine gas and corrosive fluorides. It is also a benefit for nickel-titanium alloys which have shape retention properties that can be exploited to provide, among other things, earthquake shock absorbers to help protect stone buildings.

Nickel is also a component of several stainless steel alloys used in industrial and medical applications. In addition, it can be alloyed with many other metals to improve its corrosion resistance and mechanical strength. Chromium and molybdenum are commonly added to nickel to enhance its resistance to reducing acids such as sulfuric, phosphoric and hydrochloric acid.

The melting temperature of nickel is very difficult to measure under core pressures. This is because the atoms of a solid vibrate more rapidly as they are heated, and this increases their kinetic energy. Eventually the vibrations become strong enough to disrupt the interactions between neighboring atoms, which is what triggers the melting process.

To measure the melting temp of nickel at core pressures, I developed a new technique that relies on laser speckle measurements to detect changes in the shape of the sample. This method eliminates the need for crucibles and provides a very precise measurement of the temperature of the sample in liquid phase. I also use X-ray spectroscopy to determine the structure of the sample and to monitor chemical reactions that may change its state.

The Properties And Application of Single-layer graphene

What is single-layer Graphene?
Single-layer Graphene is a two-dimensional honeycomb graphite made of one layer of carbon. The sp2 bond between carbon atoms makes it the thinnest, but stiffest, material in the universe (the fracture resistance is approximately 200 times higher than steel). It is almost completely transparent and absorbs only 2.3% light. The thermal conductivity of this material is up to 5300 W/m. K is higher than diamond and carbon nanotubes; the resistivity only 0.96×10-6 O.cm is currently the smallest resistivity in the world; graphene also has a high specific surface area (2630 m2/g). The graphene’s novel feature is that, in the absence dopings, the Fermi levels are located at the junction of the valence and conduction bands. At this point the electron’s mass is equal to 0, and so appears as a Dirac. Fermions can have excellent carrier conductivity and carry current densities of up to 200,000 cm2/V. The graphene conductivity is still present even without carrier transmission. S=e2/h. Its Hall effect at room temperature expands its original temperature range ten-fold. This shows unique carrier characteristics as well as excellent electrical qualities. The graphene’s unique electronic properties make it possible to confirm relativistic quantum-electrodynamic effects, which are hard to observe with particle physics.
The Application of Single-layer Graphene

Graphene, the most suitable material for creating nanoelectronics devices. The devices made from it are smaller and consume less power. They also transmit electrons more quickly. Graphene is a good material for high-frequency transistors. Even when only one hexagonal structure is present, graphene’s nanometer-scale stability is very important for developing molecular electronic devices. Single-electronic components prepared by electron beam printing and etching technology may break through the limits of traditional electronic technology, and have excellent application prospects in the fields of complementary metal-oxide-semiconductor (CMOS) technology, memory, and sensors, and are expected to be the development of ultra-high-speed computer chips. The medical industry will also benefit greatly from this breakthrough.

Graphene films with a single layer can also be made into microscopic filters to decompose gasses. In medical research, this thin, one-atom thick film can hold molecules to be observed and analyzed by electron microscopes. This will greatly help the medical community create new medical technologies. Graphene is able to detect gases with an external noise and accurately identify individual molecules. It has potential applications as chemical sensors and molecular probes.

Single-layer graphene is widely used as a semiconductor electronic package due to its excellent properties in terms of electrical, mechanical, and thermal properties.

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LF-84mn ethoxylated propoxylated CAS 68002-96-0

Ethoxylated propoxylated, a non-ionic low-foam surfactant, has excellent emulsification of calcium soap and dispersion. It is also resistant to hard water, electrolytes, as well as having excellent lubrication properties.

The ethoxylated and propoxylated: Ethoxylated propoxylated has low foam, is non-ionic, and can be used to improve the lubricity of products. Its properties include excellent emulsification with calcium soap and high resistance against hard water, electrolytes, as well as excellent lubrication.
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Product Performance of ethoxylated, propoxylated:
Ethoxylatedpropoxylated has a high resistance to hardwater and electrolytes, as well as excellent lubrication properties.

Technical Parameter of Propoxylated Ethoxylated:
Model Melting point pH HLB Cloud point Appearance
LF-6842 13 >=99.5 5.0-7.0 5 51-53[1] Transparent to Turbid Liquid
LF-6864 7 8 60-62[1]

Applicable ethoxylated and propoxylated :
Ethoxylated, propoxylated metalworking fluids are a good choice for products with a medium-high oil content. It is used to degrease industrial equipment and replace products that contain oleaginous Polyoxyethylene Ether.

Shipping & Packing of ethoxylated & propoxylated:
We offer a variety of packing depending on what you need. Quantity of ethoxylated and propoxylated material.
The packaging is ethoxylated or propoxylated. 1kg/bottle. 25kg/barrel. 200kg/barrel.
Ethoxylated Propoxylated Shipping: As soon as payment is received, you can ship your order by air or sea.

Properties ethoxylated Propoxylated

Other Name Alcohols, C16-18
CAS Number 68002-96-0
Compound Formula N/A
Molecular Mass N/A
Appearance Transparent liquid that turns turbid
Melting Point N/A
Boiling Point N/A
Density N/A
Solubility In H2O N/A
Exact M. N/A

Health & Safety Information Propoxylated

Sign Word N/A
Hazard Statements N/A
Hazard Codes N/A
Risk Codes N/A
Safety Declarations N/A
Transport Information