EDELCOIN ASSET SUPPORTING SYSTEM.

INTRODUCTION

Since ancient times, people from all around the world have been actively using minerals to create various means of life sustenance to make their lives more comfortable and tolerable.

The beginning of the use of metals in human life became one of the turning points in the history of ontogenesis, marking the transition to a whole new stage of human development.

Surprisingly, one of the first metals discovered by humans was copper. According to scientists, initially primitive people treated it like a regular stone. They found copper nuggets and processed them by grinding, breaking, and by user other primitive methods of stone processing.

Around the third millennium BC, people discovered some of the most important properties of other metals. By that time, people had already become familiar with silver and lead, but copper was still used most often, mainly because of its strength and wide choice of available deposits. After having started working with metals, people learned how to process them to create required shapes and make dishes, tools, and weapons out of them

Since those times, metals have become a solid foundation of human civilization development.

As of today, the dynamically developing technological sector of the modern economy is certainly based on the widespread use of rare metals and minerals with unique physical and mechanical properties.

These materials make it possible to develop and implement the most complex technological processes, which, in turn, make it possible to produce more and more unique products and goods.

The development of microelectronics and computer technology requires the widespread use of industrial and rare earth metals. Interestingly enough, it is impossible to imagine the future without them.

Thus, valuable and industrial metals are one of the most liquid and sought-after assets in the modern world.

That is why various valuable industrial and rare earth metals were used to create the Edelcoin asset supporting system:

• Isotope of copper (63 Cu/ 65 Cu) of high purity in the form of a fine powder.
• High purity nickel in the form of the thinnest wire.
• High purity Caesium-133.

Each of these materials is unique in its own way and has its own characteristics both in the way of extraction and in subsequent enrichment to obtain the final product.

After being taken together, these resources can create great value for use in a growing modern economy and improve the use of technology in production.

Now, let's consider each of these metals separately.

COPPER ISOTOPE

Copper isotope is a mixture of two components: An isotope of copper 63 (63 Cu) and an isotope of copper 65 (65 Cu).

It is manufactured and stored as a fine powder.

It is worth noting that this isotope is most valuable only in the form of a material with a high degree of purification (purity of more than 999) and with the smallest and most rounded particle fraction. At the same time, less pure isotopes with large particle sizes are more common, but not so valuable. As it turns out, they do not have a particularly high cost.

The production of highly purified copper isotope samples is associated with high-tech and extremely energy-intensive processes of enrichment and activation of the natural isotope of copper 69 (69 Cu).

Bringing the raw materials to the final required parameters of purity and particle size (no more than 7 microns) requires the most precise and laboratory-like conditions in production. All around the world, there are only a few enterprises that can produce this product of really high quality.

At the same time, the production of a highly purified copper isotope requires a huge amount of raw materials. Let's take a look at the following example. To produce 1 gram of an isotope of 99.9994% purity, about 10 kilograms of ordinary cathode copper must be processed. In other words, about ten thousand mass units of raw materials are required for one mass unit of a high-purity isotope. For a higher degree of purification, an even larger amount of raw materials is required.

The complexity of production and the need for a huge amount of raw materials is the first aspect that defines the high cost of the final product.

However, the demand for this material in modern high-tech production is also enormous.

As of today, copper is one of the best conductors in the world of electricity. At the same time, the high purity and extremely small particle size in the isotope make it possible to use industrial installations with a uniquely small size of spray nozzles in production cycles. In addition, it is worth noting that the best isotope samples have particles of the most spherical shape and a diameter of no more than 7 microns. High-quality and high-purity copper isotope is very fine and very loose, which puts it practically out of competition among other conductive materials.

Thus, the use of a highly purified copper isotope makes it possible to create high-tech products with an incredible set of characteristics. The scope of application of the copper isotope is growing every single day, thus displacing such traditional conductive metals as gold and silver in some technological processes.

As of today, the high-purity copper isotope is used for the manufacture of medical devices, electronic components, circuit boards, optical devices with a high degree of accuracy and transparency, military equipment, robotics, space instruments, and equipment, as well as protective antiviral and antibacterial masks for long-term usage.

Another interesting aspect is the use of copper isotope as a shielding component of various coatings. Its use on the walls of buildings and structures dramatically reduces the impact of electromagnetic radiation. In addition, a multi-component composition with such an isotope is widely used as an integral element of stealth technologies. Modern aircraft and submarines with such a coating become invisible to radars, making the demand for such materials incredibly high in modern conditions.

Another extremely significant area of application of such material is devices for quantum computing or so-called quantum computers, the development of which has recently acquired an increasingly global scale. The development of AI, as well as other modern digital technologies, requires huge computing power and appropriate technological materials, the key of which is the highly purified copper isotope.

This material was first obtained in the late 80s' of the last century, and since then its price and scope have only been growing.

Thus, the high demand for the final material is the second factor that causes a significant price increase for this material.

This material will be of great importance in the future development of quantum computing and artificial intelligence technologies.

Now, we can just take a look at the graph of the cost of ordinary copper to understand the trend of its historical demand.

Even though the correlation with the isotope is indirect, it gives an approximate understanding of the steadily growing demand for the source material. The reason is that the end use of ordinary copper and its isotope are different.

It should be also noted that currently there is a huge amount of surrogate material on the market. By knowing the high demand for this product, unscrupulous manufacturers and traders offer outright fakes under the guise of a high-quality isotope.

Forgery of documents with fake expert assessments is often used by these companies. At the same time, one can purchase a product with characteristics much lower than those stated.

A really high-quality product can be offered only by a few enterprises and sellers from around the world.

In order to carry out a qualitative analysis of materials, one needs to perform an appropriate expert assessment, which can only be carried out by authorized laboratories with the appropriate set of competencies and equipment.

As of today, the expert estimate of the cost of a high-quality copper isotope with a purity of more than three nines and fine particle dispersion (7 microns or less) is more than 2,000 US dollars per gram of product.

At the disposal of Edelcoin AG and, accordingly, in the Edelcoin asset supporting system, there is an isotope of copper in two degrees of purification: 99.9994% and 99.99985%.

Both isotopes are products of one of the highest degrees of purification and dispersion.

The qualitative and quantitative composition of this material in the Edelcoin asset supporting system is the following*:

*Evaluation date: May 5, 2024. EUR/USD = 1.0725

The quality, cost, and availability of these materials are confirmed by the expert opinion of the independent IGAS Institute (Germany, Goslar). Please contact us for an opportunity to review these conclusions.

NICKEL, NP-1, NP-2 STANDARD WIRE

Nickel in the Edelcoin asset supporting system is presented in the form of two types of the thinnest wire corresponding to the NP-1 and NP-2 standards:

These standards have different degrees of purity of the metal: NP-1 has a degree of purification of 99.87%, while NP-2 - 99.84%.

A distinctive feature of this wire is its diameter, which is only 0.025 mm. It turns out that it is several times thinner than human hair (0.1–0.2 mm). One gram of such material contains 227 meters of wire.

Nickel is a fairly common metal in the earth's crust, but it occurs only in the form of compounds, which makes it difficult to obtain pure substances.

Nickel has a huge range of industrial applications. According to the statistics from 2015, 67% of nickel consumption was in the production of stainless steel, 17% - in iron-free alloys, 7% - in nickel plating, and 9% - in other applications such as batteries, powder metallurgy, and chemical reagents.

The consumption of industrial nickel is generally stable, although its price fluctuates within fairly significant limits.

At the same time, if we talk about highly purified nickel samples, and, in particular, about the wire of the previously mentioned standards (NP-1 and NP-2), one of the main areas of their application is touchscreens, without which we can no longer imagine modern society.

In addition, such wire is widely used in the manufacture of chips and equipment for contactless payments, touch devices, modern smartphones, and other high-tech devices, including microelectronics and equipment for quantum calculations. Another interesting area of application of this material is the manufacture of protective stripes in banknotes of different countries.

The process of manufacturing such a wire is a complex task.

In addition, it is necessary to maintain a high purity of the material and have appropriate equipment for stretching the wire of the desired thickness and maintaining it throughout the thread. In the same way, as in the case of the copper isotope, just a few enterprises in the world can produce these products.

The cost of one meter of NP-1 and NP-2 wire exceeds 200 USD.

The qualitative and quantitative composition of this material in the Edelcoin asset supporting system is the following*:

*Evaluation date: May 5, 2024. EUR/USD = 1.0725

CAESIUM-133

Caesium is the rarest earth material from the Edelcoin asset supporting system. Its isotope, Caesium-133, is the only stable isotope of this chemical element. It is not radioactive, unlike other isotopes.

Caesium is a soft metal, because of its low melting point (28.6°C). It also has a semi-liquid state at room temperature and acts like mercury.

Caesium in the form of a metal is a golden-white substance, similar in appearance to gold, but lighter.

The Edelcoin asset supporting system contains not just a pure, but an ultrapure isotope with a purity of 99.999%. It is stored in sealed flasks in a special inert environment.

In the industrial production of Caesium in the form of compounds, it is extracted from the mineral called pollucite.

To obtain Caesium of a sufficient degree of purity, repeated rectification in a vacuum, purification from mechanical impurities on metal-ceramic filters, heating with getters to remove traces of hydrogen, nitrogen, and oxygen, and multiple crystallization sessions are required.

The complexity of obtaining Caesium determines the constant search for its minerals. The extraction of this metal from ores is a complex process. In addition, during the work, the material is dispersed and irretrievably lost. The industry needs a very pure material (at the level of 99.9—99.999%), and this is one of the most difficult tasks in the metallurgy of rare elements.

In other words, the production of pure and ultrapure Caesium is associated with a number of complex chemical and thermomechanical operations, which causes a high cost of the final product. There are only two enterprises in the world capable of producing an ultrapure fraction of Caesium-133.

Caesium found use only at the beginning of the 20th century when its minerals were discovered and a technology for obtaining it in its pure form was developed. Currently, cesium and its compounds are used in electronics, radio, electrical, X-ray engineering, chemical industry, optics, medicine, and nuclear energy. Stable natural Caesium-133 is mainly used. At the same time, its radioactive isotope Caesium-137, isolated from the fission fragments of uranium, plutonium, and thorium in reactors of nuclear power plants, is used in some cases.

As of today, Caesium-133 is used in the operation of the most accurate atomic clock. Since 1967, the phenomenon of transition between two hyperfine levels of the ground state of the Caesium-133 atom has been used to determine one of the main units of measurement of time, seconds.

It turns out that Caesium is used wherever absolute accuracy is needed: Computer technology (quantum computing), imaging equipment, laboratory devices, space exploration equipment, medical devices, and other high-tech products.

The high-tech sector is developing extremely actively, contributing to a constant increase in demand, and the rarity of Caesium and the difficulty of obtaining pure fractions constantly increases its price.

Currently, the cost of the ultrapure isotope of Caesium (133Cs) is more than $30,000 dollars per gram.

The qualitative and quantitative composition of Caesium-133 in the Edelcoin asset-supporting system is the following*:

*Evaluation date: May 5, 2024. EUR/USD = 1.0725

CONCLUSION

The resources in the Edelcoin asset-supporting system have significant value with the potential for stable growth in the near future.

The total quantitative and qualitative composition of metals in the Edelcoin asset supporting system*:

*Evaluation date: May 5, 2024. EUR/USD = 1.0725