Benzenesulfonic Acid, 3-(Phenylsulfonyl)-, Potassium Salt

Borax, the main component of which is sodium tetraborate, was also known as borax in ancient times. Borax is colorless and translucent crystalline or white crystalline powder, odorless and salty.
Borax has unique chemical properties. It is easily soluble in water, and its aqueous solution is alkaline. In hot water, the solubility of borax increases significantly. When borax reacts with acid, boric acid is formed. For example, when reacted with hydrochloric acid, boric acid and sodium chloride are produced.
Borax has certain stability, but under certain conditions, it can also participate in many chemical reactions. Under heating conditions, borax will gradually lose its crystal water, and then a series of phase transformations will occur. In some metallurgical operations, borax is often used as a flux, mainly because it can reduce the melting point of metal oxides, making the metal smelting process smoother. In the production process of glass and ceramics, the addition of borax can effectively improve the heat resistance and chemical stability of the product. The reason is that borax has special chemical properties, which can react with other substances in high temperature environments to form a more stable structure.
In addition, borax has a wide range of applications in many fields such as chemical industry, medicine and food. However, it should be noted that borax has certain toxicity, and its range and dosage must be strictly controlled during application.

3 - (aspartame) aspartate, chelate is used in many fields. Among them, the food industry is widely used. Aspartame, as a synthetic sweetener, has the characteristics of high sweetness and low calorie, and is widely used in various beverages, candies, and pastries. Because its sweetness is 180-220 times that of sucrose, and its calories are extremely low, it is favored by people who pursue health and low calories.
In the field of medicine, aspartate and chelate also have their uses. In some pharmaceutical preparations, such substances are used, either because they promote the stability of drugs, or because they play a role in the construction of drug sustained-release systems, helping drugs to play a precise and long-lasting role.
In addition, the feed industry is also familiar with its shadow. Adding aspartic acid and chelates to animal feed can improve the flavor of the feed, increase the animal's appetite, and then promote animal growth. Especially in pet feed, in order to meet the pet's taste preference and improve the palatability of the feed, the application of this substance is quite common.
In the field of cosmetics, aspartic acid and chelates are sometimes used in some product formulations. It may play a special role, such as maintaining the stability of certain ingredients, or optimizing the texture of the product, in order to improve the quality and experience of cosmetics.
In addition, in some industrial production processes, such as the synthesis of certain special materials, aspartic acid and chelates may be used as specific additives, which have a positive impact on the reaction process, product properties, etc., and help achieve specific production goals.

Borax is commonly known as sodium borate. The physical properties of borax are worthy of detailed investigation.
First of all, its appearance, borax is colorless and translucent crystal or white crystalline powder under normal conditions, like ice crystals, delicate and radiant, and has a unique beauty. Its touch, if you twist it with your fingers, is delicate and smooth, without the feeling of rough and stinging.
When it comes to solubility, the dissolution of borax in water is quite specific. It is soluble in water, and the dissolution process is significantly affected by water temperature. When the water temperature increases, the solubility of borax also increases. In hot water, borax can quickly dissipate and become a clear solution. However, in cold water, the dissolution rate is relatively slow.
The density of borax is also one of its important physical properties. Its density is moderate. Compared with common lightweight powders, borax is slightly heavier. When held in the hand, you can feel the firmness of its texture.
Furthermore, borax has a certain melting point. When the temperature rises to a specific value, borax gradually converts from a solid state to a liquid state. This transition process highlights its heating characteristics. Before reaching the melting point, borax can maintain a stable structure in a solid state; once the temperature exceeds this limit, it melts rapidly and changes its shape significantly.
The hardness of borax is neither indestructible nor fragile. If drawn with a hard object, it can leave traces, indicating that its hardness is not very high, but it is also enough to maintain its own morphological stability and is not easy to break under normal circumstances.
The color of borax is pure, colorless or white, which makes it used in many fields. Because of its pure color, it can play a unique role in optics, decoration and other aspects.

Ricinoleic acid, also known as (ricinoleic acid), is synthesized with lithium salts, which is quite exquisite. In the past, the Fang family of warlocks sought the art of changing gold and stone, although it was very fantastical, but such organic synthesis methods were not yet known. Today's synthesis method is based on the principle of knowing things, and it is done by scientific methods.
To synthesize lithium ricinoleic acid, the first thing to do is to take castor seeds. Castor seeds are rich in oil, and the content of ricinoleic acid in their oil is very high. First, physical methods, such as pressing and extraction, are used to extract the oil from castor seeds. The method of pressing has existed in ancient times, using giant trees as pestles and presses with force to make the oil come out of the seeds. Nowadays, it is replaced by machinery, and the efficiency is greatly increased. The method of extraction is to use suitable solvents, such as ether and petroleum ether, to dissolve castor oil from the seed, and then remove its solvent to obtain pure oil.
The castor oil is obtained, and the second is a chemical method to make the ricinoleic acid free. It is often done by the method of hydrolysis of lye. For lye, such as sodium hydroxide and potassium hydroxide. The castor oil and lye are co-placed in a kettle, heated and stirred, so that the glycerides in the oil react with the lye to form ricinoleate and glycerin. In this reaction, temperature, time, and lye concentration are all key. If the temperature is too low, the reaction will be slow; if it is too high, it will easily cause side reactions. The time must also be suitable. If it is too short, the hydrolysis will be incomplete, and if it is too long, it will consume energy. The concentration of the alkali solution should also be precisely prepared. If it is too concentrated or too dilute, it will not be conducive to the reaction.
After the ricinolates are formed, then react with lithium salts. Lithium salts, such as lithium carbonate and lithium chloride. The lithium salts are prepared into a solution, slowly added to the ricinolates solution, stirred evenly, so that the two can fully react to form lithium ricinolates. In this reaction, the temperature, reaction time and material ratio should also be paid attention to. After the reaction is completed, the pure ricinolates are obtained by filtering, washing and drying.
In this way, with the method of modern science, from castor seed, through hydrolysis, replacement and other steps, the lithium ricinolate is finally obtained. This synthesis method is more accurate and efficient than ancient techniques, and it is actually the result of scientific and technological progress.

Boron - (aspartame-based) aspartate, mercury lamps should pay attention to the following safety matters when using:
First, the mercury lamp will emit a lot of heat when working, be sure to ensure that the environment is well ventilated to prevent the temperature from being too high due to heat accumulation, which may not only damage the mercury lamp itself, but also cause fire and other dangerous situations in severe cases.
Second, the mercury lamp contains mercury, a toxic heavy metal substance. If the mercury lamp is accidentally damaged, the mercury will leak out, cause pollution to the environment, and once the human body inhales mercury vapor, it will seriously damage health. Therefore, during the use and storage of mercury lamps, extra care should be taken to prevent them from being damaged by collisions, falls, etc. In the unfortunate event of a mercury lamp rupture, ventilation equipment should be turned on immediately, the scene should be evacuated quickly, and the leaked mercury should be properly cleaned up with sulfur powder and other substances according to the correct mercury leakage treatment method.
Third, the mercury lamp will emit ultraviolet rays when working. Although ultraviolet rays have sterilization equivalent effects, excessive exposure is harmful to the human body and may burn the skin and damage the eyes. Therefore, during the operation of the mercury lamp, personnel should avoid looking directly at the light, and try not to be in the irradiation range for a long time. If you need to be close to the operation, you should wear professional protective glasses and protective clothing, and take comprehensive protective measures.
Fourth, during the installation and disassembly of the mercury lamp, be sure to cut off the power supply in advance to prevent electric shock accidents. When installing, it is necessary to operate in strict accordance with the specifications to ensure that the mercury lamp is firmly installed to prevent it from loosening and falling.
Fifth, the use, maintenance and storage of mercury lamps and other related matters should be recorded in detail to facilitate subsequent inspection and traceability. Once any abnormalities are detected, effective measures can be taken to deal with them in a timely manner.