BIS(2,6-DIFLUORO-3-PYRIMIDIN-2-YL-BENZONITRILE)(PYRIDINE-2-CARBOXYLIC ACID)IRIDIUM

"Tiangong Kaiwu" contains: "Fu Qi is a thing, sulfur is pure yang, nitrate is pure yin, the two essences are forced together, and the sound becomes a change. This universe hallucinates a divine thing." However, the "BIS (2,6-diene-3-pentyl-2-yl-prolamine) (to its-2-carboxylic acid) copper" involved in the question is the current chemical nomenclature, which does not exist in ancient times.
Although ancient chemistry is not as precise as it is today, it has been studied in the smelting of metals and the refining of medicinal pills. If you speculate on this "copper compound" from the ancient meaning, you may be able to explore a little from its elemental composition.
Sulfur and nitrate are often important in paleochemistry, but they are not directly mentioned in this compound. Today's chemistry is accurately named for structure, functional groups, etc., while paleochemistry is mostly named according to its properties and sources.
If it is seen in the ancient family, it may be described in terms of color, texture, reaction characteristics, etc. If you look at its color, if it is green, or analogous to the common patina, and think about its formation and relationship with air and moisture; test its nature, put it into fire, and observe its change. If there is a special smell or the color of the flame changes, you can also deduce the nature of the elements contained.
Although it is difficult to give its structure with paleochemistry, the chemical exploration of the Ming Dynasty and the chemical system of today are different, but they are all human knowledge and exploration of the material world, in the same vein, constantly evolving, from ignorance to clarity, from rough to subtle.

"Bismuth (2,6-diene-3-heptyl-2-yl-proline) (directional-2-carboxylic acid) steels have a wide range of main application fields.
Bismuth steels are used in metallurgy and have unique effects. Due to their special chemical and physical properties, they can optimize the properties of alloys in alloy refining. If an appropriate amount of bismuth (2,6-diene-3-heptyl-2-yl-proline) (to the group-2-carboxylic acid) steel is added, the cutting performance of the alloy can be improved, making the alloy easier to form during processing, and the surface is smoother, which is essential for the manufacture of precision mechanical parts.
In the electronics industry, it is also indispensable. Electronic component manufacturing requires materials with good electrical conductivity and stability, and the characteristics of bismuth steel can meet some of these needs. In some electronic circuit board welding materials, the rational application of bismuth steel can improve the quality and reliability of welding, and ensure the stable operation of electronic equipment.
In addition, in the chemical industry, bismuth (2,6-diene-3-heptyl-2-yl-proline) (nexyl-2-carboxylic acid) steels can be used as catalysts for certain chemical reactions or as raw materials to participate in reactions, assisting in the synthesis of chemical products, optimizing reaction processes, and improving production efficiency and product quality.
In summary, bismuth (2,6-diene-3-heptyl-2-yl-proline) (nexyl-2-carboxylic acid) steel has shown important application value in many fields such as metallurgy, electronics, and chemical industry, and plays an important role in promoting the development of various industries.

To obtain iron (BIS (2,6-diene-3-heptych-2-yl-proline) (to its-2-lysine) iron), you can follow the following ancient method:
First take an appropriate amount of 2,6-diene-3-heptych-2-yl-proline, which is the key starting material. Put it in a clean vessel, its quality must be pure, not heterogeneous. Then take the - 2-lysine in a precise method and slowly add it to the former. When the two meet, it is necessary to stir them lightly, so that they can be fused and evenly dispersed, just like the beginning of heaven and earth, when yin and yang meet.
Then, apply the method of fire attack. With a mild heat, slowly heat the mixture. The fire should not be too strong, and the strong will damage its quality; it should not be too weak, and it will be difficult to achieve if it is weak. You need to observe it carefully, and wait for it to change subtly, or the color will change slightly, or the air will be slightly different.
In the meantime, you should pay attention to the surrounding environment. There should be no foul gas intrusion, and there should be no strong wind. Just like cultivating spiritual seeds, you need to take care of them.
When it reacts to the right moment, you will see the embryonic form of iron gradually appear. At this time, you may need to fine-tune the heat, or you may need to let it sit for a while to make the quality of the iron more pure.
In the end, after a lot of careful care, you can get pure iron. In this process, every step needs to be careful, and if there is a slight mistake, all previous efforts will be lost. The way of making iron is gathered by the wisdom of the ancients, and it needs to be learned by future generations, treasured and passed on.

I think what you said is about the "physical properties of BIS (2,6-diene-3-heptyl-2-yl-tryptophan) (to its-2-carboxyl) copper". In this compound, copper ions are combined with specific organic ligands, presenting unique physical and chemical properties.
From the perspective of physical properties, the color of this copper compound may be unique due to the charge transfer between the ligand and the metal ion. The conjugate structure of the organic ligand may affect its light absorption properties, causing it to absorb in a specific wavelength band, which in turn presents a specific color. And its solubility in common organic solvents may vary depending on molecular polarity. This organic ligand contains a polar carboxyl group, or increases its solubility in polar solvents such as alcohols and water; however, the long-chain alkyl group is added to the non-polar part, which affects its overall solubility.
In terms of chemical properties, copper ions are located in the center of the compound and have a variable oxidation state, which makes them active in redox reactions. Under appropriate conditions, copper ions can change their valence state, participate in the electron transfer process, and act as catalysts in catalytic reactions to promote various chemical reactions, such as oxidation and coupling reactions in organic synthesis. And the carboxyl groups on the ligand are acidic, which can neutralize with bases, change the chemical environment of the compound, and affect its stability and reactivity. Furthermore, the carbon-carbon double bond in this compound can participate in the addition reaction, react with electrophilic reagents or free radicals, and further enrich its chemical reactivity. In short, the physicochemical properties of this BIS-related copper compound are formed by the interaction of copper ions with specific organic ligands, and may have potential applications in many chemical and material fields.

My question is about "the price range of bismuth (2,6-diene-3-carbazole-2-yl-thiophene) (carbazole-2-carboxylic acid) copper in the market". However, it is not easy to understand its price, because many factors interact.
First, the difficulty and cost of raw materials have a great impact on their price. If bismuth and related organic compounds are difficult to obtain, or their extraction and synthesis costs are high, the price of the finished product must not be low.
Second, the complexity of the preparation process is also the key. If the synthesis of this compound requires delicate and complex processes, high-end instruments and professional and technical personnel, and consumes a lot of manpower and material resources, the price will rise.
Third, the market supply and demand relationship determines the price. If the demand for this product in a certain field increases sharply, but the supply is limited, the price will rise; conversely, if the supply exceeds the demand, the price will decline.
Fourth, quality and purity also affect the price. High-purity, high-quality products often command high prices because they can meet the needs of specific high-end applications.
Overall, the market price of bismuth (2,6-diene-3-carbazole-2-yl-thiophene) (carbazole-2-carboxylic acid) copper, or due to the above factors, ranges from tens to hundreds of yuan per gram, depending on the actual market situation.