The main uses of 5%, 1%, 2% amino group, and 3% carboxylbenzene are related to the general fields of chemical industry, engineering, materials, etc.
In the chemical industry, 5% is often used as a special solution. Its special properties, can dissolve multi-soluble substances, assist in the synthesis of anti-reactive materials. For example, in the synthesis of some polymers, it can be used as a reactive agent to disperse the reactive materials uniformly and improve the reactive efficiency and material density. For 1%, it is often used for thickening. In the production of raw materials, adhesives, etc., it can effectively adjust its viscosity and make it have good construction performance. Adding salt to the material can avoid leakage and increase adhesion.
For example, in the fabrication of micro-electronic devices, it can increase the bonding degree of the material and improve the quality of the device. 1% can be used in biodegradable materials. The blending of other degradable polymers can improve the mechanical properties and degradation performance of the material, making it more suitable for use in the fields of packaging and materials. 2% amino group + 3% carboxylbenzene can be used in the synthesis of functional polymer materials. The polymerization of the two can give special properties of polymer materials, such as the adsorption and adhesion of specific substances. It is widely used in materials such as film and sensor.

The physical rationality of 5-1-Sichuan-2-amino-3-carboxylbenzene is as follows:
This compound is mostly solid. Due to the presence of forces such as water and Vandwall-force in its molecules, the molecular arrangement is orderly, and it forms a fixed aggregation. Its melting temperature is high, usually at 100 degrees Celsius, because it requires a lot of energy to break the molecular density.
In terms of solubility, 5-1-Sichuan-2-amino-3-carboxylbenzene is partially soluble in water. Due to the fact that its molecules contain amino-carboxyl groups, these two can form water molecules and increase the degree of solubility in water. However, the presence of benzene also makes it non-soluble to a certain extent, limiting its solubility in water, so that it is completely miscible. In non-soluble benzene such as ethanol and acetone, its solubility is often better in water, and the non-soluble benzene can better interact with the molecular parts, and the non-benzene parts also have a certain compatibility.
In terms of density, the phase is large, probably between 1.2 and 1.5 g/³ cm. This is because the carbon atoms of benzene in the molecule are densely arranged, and the atomic weight of the amino carboxyl group is high.
The outer layer is usually white or white crystalline powder, and the crystal may have a lattice arrangement due to the interaction mode of molecules. It is given a specific shape under microscopy, and under light irradiation, it may be a certain crystalline light.
Its refractive index also has a specific value, reflecting the refractive properties of light through this material, the distribution of molecular subclouds and molecular arrangement. This is an important factor in the study or application of optical phase.

To make five miles of mercury, one water, two groups, and tricarbonyl silicon, the method is as follows.
First, it can be synthesized by means of chemical synthesis. Using suitable raw materials, according to the principle of chemical reaction, the molecule can be reformed. For example, the mercury-containing compound is extracted to obtain mercury, and then a specific reaction is used to induce the action of mercury and other substances, and the required base is added. The addition of water can be obtained by combining oxidized dioxides according to a fixed ratio of combustion. The introduction of carbonyl groups can be obtained by the reaction of alcohols. Under the catalytic reaction of alcohol, the alcohol can produce a group in the molecule. The formation of carbonyl silicon can be produced from silicon compounds, and a series of synthetic reactions can be synthesized from silicon compounds, such as carbonyl-containing compounds.
Second, it can be studied for biosynthetic methods. In nature, some microorganisms have special processes and can synthesize specific compounds. It can be used to create microorganisms with phase ability to provide an appropriate environment and create the necessary materials for their synthesis. For example, some bacteria can chemically synthesize compounds containing specific groups under specific conditions. If you can find such microorganisms that can promote the synthesis of mercury, alkyl groups, carbonyl silicon, etc., you can use them to synthesize them and synthesize them under the same conditions.
Third, physical methods can also be studied. For example, physical factors such as radiation and high temperature can be used to promote molecular modification. In a high-temperature environment, the atomic and molecular arrangement of the material may be transformed, or under the irradiation of radiation, it may lead to cracking and recombination, and the initial material may be reduced to a compound containing the required group. However, this method requires precise control of the physics, in order to avoid the generation of side effects, and the requirements are high.
For the synthesis of five miles of mercury, one water, two groups, and tricarbonyl silicon, chemical synthesis, biosynthesis, and physical methods each have their own characteristics. According to the requirements of the components, the method of combining or combining multiple methods is required to achieve the best synthesis effect.

In the process of 5% oil, 1% oil, 2% aminoxy, and 3% carboxybenzene, the following things should be paid attention to:
First, the extinction will be dry and good. All three have certain chemical properties, and the tide environment is easy to change and reverse. For example, 5% damp or viscous change will affect its use efficiency; while 1% oil is under damp or oxidized acid, reducing the quality. Poor pass, or the accumulation of toxic substances, which not only increases the safety risk, but also may change the quality of the components due to the degree.
Second, it is necessary to isolate the fire source. 5% flammable, in case of open flame, high temperature flammable; 1% oil is also flammable, and high temperature acceleration, does not cause waves, but also makes the oil evaporation in the environment increased, increasing the explosion. 2% aminoxy and 3% carboxybenzene are non-flammable, but high temperature or chemical activity, resulting in uncontrollable reaction.
Third, to avoid incompatible substances mixed. 5% of some oxidizing bonds, or strong reaction; 1% oil may be acid, biochemical reaction, oil-causing; 2% aminoxy and 3% carboxybenzene have specific properties, if not suitable substances, or secondary reaction, and the composition performance.
Fourth, the package is in good condition. If the package is broken, it is easy to leak and pollute the environment, it may also be damaged due to external objects; if the oil package is broken, it will be lost and polluted. 2% aminoxy group and 3% carboxybenzene package will be damaged, or the ingredients in the package will be reversed, which may also endanger the safety of the environment and the product.
Fifth, the package should follow the phase method. The unloading process should be placed to prevent the package from being damaged; the package should be equipped with a fire protection system to deal with the emergency leakage.

What Wen Jun inquired about is the market value of pentaboronoalkane diaminohydroxytrifuran group. These are all strange chemicals, and their valence cannot be concealed by one word, but depends on many reasons.
The first one is difficult to prepare. The synthesis of pentaboron compounds is often bumpy, and requires delicate methods and high-purity materials. Boron is rarely in pure state in nature, and it is mostly mixed with other substances. To obtain a usable boron source, purification is complex and expensive. One alkane bis amino hydroxyl group, the introduction of a specific functional group, the reaction conditions are harsh, and the choice of temperature, pressure, and catalyst is slightly poor, and the yield is low. The modification of furan groups also adds to the difficulty of synthesis. The more difficult it is to synthesize, the more expensive it is.
Furthermore, the breadth of demand also affects its price. If this chemical is an indispensable key reagent in the field of scientific research, such as new drug research and development, material creation, etc., the price will increase if there is a large number of people who need it. If only a few professional experiments are used occasionally, the demand will be weak, and the price may stabilize.
Moreover, the supply of the market is also a major factor. If several chemical giants can produce on a large scale, competition will promote flat prices. However, if only a few manufacturers can do it, or the technical barriers are high, and it is difficult for others to enter, the supplier will control the market, and the price will be high.
In today's world, the price of such things changes over time and moves according to the market. Or in prosperous chemical places, supply and demand are smooth, and prices are close to the people; in remote and inaccessible places, logistics costs increase, and prices also rise. To get accurate prices, it is advisable to visit chemical markets and consult suppliers to know their current market prices.