Gold Yields - CIG Commodities

Gold Yields - CIG Commodities 

ELECTRIC CURRENT YIELDS 

We have different ways to source, repuroose & grow gold

The Dr Sydney Nicola Bennett approach & Norwegian are two of others 

Gold Synthesis 

https://hi3case19852025.blogspot.com/2025/08/synthetic-diamonds.html

NORWEGIAN APPROACH 

Plants do more than photosynthesize – some of them make gold. In a boreal forest in northern Finland, scientists found tiny gold particles inside Norway spruce needles.
Plants like the Norway spruce host tiny microbial partners that tweak chemistry inside their leaves and needles in ways that science is only beginning to understand.

For the first time, scientists have linked bacteria living inside Norway spruce needles to the formation of gold nanoparticles.
“Our results suggest that bacteria and other microbes living inside plants may influence the accumulation of gold in trees,” says Postdoctoral Researcher Kaisa Lehosmaa from the University of Oulu, Finland.
The finding opens a path to greener gold exploration, and similar microbe-driven processes in mosses could help pull metals out of mining-impacted waters.

Do microbes in trees make gold?

The core question is straightforward: are microbes living inside spruce needles connected to the presence of gold nanoparticles? If yes, what does that mean for plants, microbes, and the way we search for minerals?

Geologists have long known that mineral deposits shed ions as rocks oxidize and bacteria get to work.

Those ions move into surface soils, where plants take up water and nutrients – metals included. With sensitive instruments, you can even detect those metals in plants or snow.

Researchers from the University of Oulu and the Geological Survey of Finland focused on trees growing above a known gold deposit in Finnish Lapland, at a satellite mineral deposit of the Kittilä gold mine.

That setting increases the odds that tiny amounts of gold travel through soil water into roots and up to the needles.

“Such biogeochemical methods have already been used in mineral exploration, but this new research enhances our understanding of what is actually happening in the process,” explains Research Professor Maarit Middleton from the Geological Survey of Finland (GTK).

Tree needles and gold particles

The team collected 138 needle samples from 23 Norway spruce trees and split them into two testing tracks.

One track searched for gold nanoparticles using field-emission scanning electron microscopy paired with energy-dispersive X-ray spectroscopy.

A bright, dense dot that matches gold’s X-ray signal counts as a confirmed particle. The other track sequenced a standard marker gene (16S rRNA) to map the bacteria living inside the needles.

In four trees, gold nanoparticles appeared inside the needles. Where gold appeared, the particles often sat next to clusters of bacterial cells embedded in biofilm – the protective, sticky coating that bacteria build to live in tight communities.

Microbial fingerprints

DNA sequencing of the biofilms pointed to specific bacterial groups linked with gold-containing needles. Taxa such as P3OB-42, Cutibacterium, and Corynebacterium were more common in needles with confirmed gold.

“This suggests that these specific spruce-associated bacteria can help transform soluble gold into solid particles inside the needles,” Dr. Lehosmaa says. “This insight is useful, since screening for such bacteria in plant leaves may facilitate gold exploration.”

How tree microbes make gold

Gold in the ground can move in a soluble, ionic form with water. Inside a needle, the microenvironments created by biofilms can change local chemistry – shifting conditions so that dissolved gold becomes less soluble and starts forming tiny particles.

Plants often isolate metals to keep essential processes running smoothly. Microbes benefit from the shelter of biofilms and may grab trace elements along the way.

“Our recent study provides preliminary evidence of how gold moves into plant shoots and how gold nanoparticles can form inside needles,” Dr. Lehosmaa explains.
“In the soil, gold is present in a soluble, liquid form. Carried by water, the gold moves into spruce needles. The tree’s microbes can then precipitate this soluble gold back into solid, nanosized particles.”

Deciphering the patterns

Not every tree contained gold nanoparticles, and that fact makes perfect sense. Trees tap different water pathways, and their microbiomes can vary even from branch to branch.

Needles with more gold tended to host fewer kinds of bacteria, but the overall communities didn’t split into two separate groups. Certain “indicator” groups were more common in the gold-touched environment.

The co-location of gold dots, bacterial cells, and biofilms suggests microbial involvement, but it isn’t a live-action view of a single bacterium reducing gold in real time.
The exact cause and effect of this process will need targeted experiments that track the transformation step by step.

Real world implications

Biogeochemical exploration already samples plants to look for what lies beneath. The new twist is the microbial angle inside leaves and needles.

If specific microbes correlate with gold particles, screening for those bacteria could sharpen plant-based surveys. That points to fewer blind drill holes, less disturbance, and better odds of finding the right targets.
The approach does not replace geophysics or traditional geochemistry. It adds another line of evidence. In regions where access is tight or environmental stakes are high, that extra signal could pay off.

The same biology that shapes metals inside needles could help pull metals from water. Aquatic plants and their microbes live on the front lines of metal exposure in streams near mines.

If biofilms and plant tissues nudge dissolved metals to form particles, that chemistry could be built into treatment systems.
“Metals can, for example, precipitate within moss tissues. Studying biomineralisation also allows us to explore how bacteria and microbes living in aquatic mosses could help remove metals from water,” Dr. Lehosmaa describes another ongoing study.

Gold inside trees – more answers needed

Plants are holobionts – teams made of the host plus its microbes. Those partners guide how nutrients and trace elements move, how stress is handled, and, in cases like this, how minerals form inside tissues.

In the Lapland spruces, microbes appear to help lock tiny bits of gold into safe, solid form. That tiny record inside a needle hints at the geology underfoot and at practical tools we can use on the surface.

Direct, time-resolved tests will be key. Show microbes taking soluble gold and forming nanoparticles under controlled conditions, and the case gets stronger.

New studies will need to expand beyond spruce and test other plants over different deposits and rock types.

Scientists will track seasons, map the groundwater routes, then tie microbial fingerprints to gold signals in a way that field crews can use.

That’s how science works – follow a clear path from careful observation to a reliable method.

In this case, that clear path runs through a place we’ve overlooked for too long: the small neighborhoods where plant cells and microbial biofilms set the rules for chemistry.

The full study was published in the journal Environmental Microbiome.

Reference 

https://www.earth.com/news/money-might-not-grow-on-trees-but-gold-sure-does-according-to-a-new-study/

GOLD WITH M.D.E C/M CIG ENERGY 

Gold has been a symbol of wealth, power, and luxury for millennia. Its value goes beyond its shiny allure; gold is integral to industries such as electronics, medicine, and jewelry. 

However, traditional gold mining comes with its share of environmental and ethical concerns, prompting scientists to explore alternative ways to produce gold in a laboratory. 

But how exactly is lab-grown gold made? The process involves more than just mimicking nature. It requires an understanding of atomic structures and advanced techniques, ranging from nuclear reactors to bacteria.  
This article delves into the fascinating science behind lab-grown gold, the methods used to create it, and its potential impact on various industries.

The Science Behind Lab-Grown Gold

At its core, the process of creating gold in a laboratory involves changing the atomic structure of elements to produce gold atoms. 
This concept isn't new—it harkens back to alchemy, where people sought to turn base metals into gold. Today, the method is more scientific, relying on a process called gold synthesis or transmutation.

The science behind this involves using nuclear reactors or particle accelerators to bombard certain elements, such as mercury, platinum, or bismuth, with high-energy particles. The goal is to rearrange their atomic structure, transforming them into gold. 

While theoretically possible, this method is highly inefficient, as it requires immense amounts of energy to achieve the necessary atomic transformations.

The production of lab-grown gold through transmutation is, therefore, more of a scientific curiosity than a practical method. 

Here’s something interesting: How Diamonds are Grown and Made in Lab
Now that we've covered the fundamental science, let's examine the different methods used to produce lab-grown gold.

Methods of Producing Lab-Grown Gold

While the idea of creating gold through atomic transmutation is intriguing, more practical methods have emerged, particularly for producing gold nanoparticles, which have a variety of applications. Each method has its unique approach, offering possibilities for different industries.

• Chemical Reactions

One of the most common methods of producing lab-grown gold involves chemical reactions in a controlled environment. In this process, gold salts (ions) are dissolved into a solution and then reduced using a chemical reducing agent. This causes the ions to lose their positive charge and form solid gold nanoparticles. 

The reaction is precise, allowing scientists to control the size and shape of the nanoparticles, which is crucial for specific applications like electronics and medicine. Although this method is effective, it typically yields gold on a small scale, which limits its use for mass production.

• Bacterial Methods 

Certain bacteria strains, such as Cupriavidus metallidurans, have the ability to absorb gold ions and convert them into pure gold particles. These bacteria can thrive in environments with high concentrations of heavy metals, transforming what would otherwise be toxic waste into valuable gold nanoparticles. 

This method is fascinating because it aligns with the growing focus on green technologies and bio-mining, offering a natural, less energy-intensive approach to gold production. However, this process is still being researched and refined for efficiency.

• Laser Method 

The laser method offers a more advanced approach to gold nanoparticle production. By using laser light to irradiate a solution containing gold ions, scientists can induce the formation of gold nanoparticles. 
This technique allows for precise control over the size and shape of the particles, making it useful for industries that require specific nanoparticle configurations. However, like the other methods, it is currently better suited for creating small amounts of gold, primarily for niche applications.

These methods provide a glimpse into the potential of lab-grown gold, but they still face challenges in terms of scalability and efficiency.

With these production techniques in mind, let’s examine the current challenges that need to be addressed for lab-grown gold to truly thrive in commercial markets.

Current Challenges in Lab-Grown Gold Production

Despite the exciting innovations in lab-grown gold production, several challenges remain before these methods can be scaled up for broader, commercial use. These obstacles center around the efficiency of production, scalability, and the cost-effectiveness required to compete with traditionally mined gold.

• Scalability 

One of the biggest hurdles in lab-grown gold production is the ability to scale up the current methods. While techniques like chemical reactions and bacterial transformations can produce gold nanoparticles, they are not yet optimized for large-scale production. 

This is particularly challenging in industries like jewelry and electronics, where demand for gold is substantial. The processes that work in small, controlled laboratory environments need to be refined and expanded to produce larger quantities of gold consistently and reliably. 

• Efficiency and Cost 

Another major challenge is the energy efficiency and cost of producing lab-grown gold. Many of the current methods require significant amounts of energy or time to produce even small quantities of gold. 
For example, the chemical reduction process, while effective, is limited in its ability to produce gold on a large scale without significant energy input. Similarly, the bacterial method, while environmentally friendly, can be slow and difficult to control on an industrial scale. 

• Material Properties 

Maintaining the desirable material properties of gold, such as its malleability and conductivity, during lab-grown production can also be a challenge. 
Ensuring that the gold produced in the lab matches or exceeds the quality of mined gold is crucial, especially in high-demand industries like electronics, where even minor impurities can cause issues. 

Scientists are continually refining their methods to ensure that lab-grown gold meets the exacting standards required for various applications.

• Market Acceptance 

While not a technical challenge, gaining widespread market acceptance is another obstacle. Industries and consumers may be hesitant to adopt lab-grown gold over traditionally mined gold, particularly if it cannot be produced at a competitive price or in sufficient quantities. 

Overcoming this skepticism will require not only technical advances but also education on the sustainability and ethical advantages of lab-grown gold.

Overcoming these challenges is essential for lab-grown gold to become a sustainable and commercially viable alternative. But despite these obstacles, lab-grown gold has several compelling advantages that make it a promising solution for the future.

Advantages of Lab-Grown Gold

Lab-grown gold offers several significant advantages, making it an attractive alternative to traditionally mined gold. These benefits extend beyond environmental concerns, touching on quality control and ethical considerations as well.

• Sustainability 

One of the most compelling reasons to pursue lab-grown gold is its potential to reduce the environmental impact associated with traditional gold mining. Mining activities often lead to deforestation, habitat destruction, and the use of harmful chemicals like cyanide and mercury, which can contaminate water sources and harm ecosystems. 

By creating gold in a lab, we can significantly reduce the environmental footprint of gold production, offering a more sustainable solution for industries that rely on this precious metal. 

Explore a wide range of sustainable lab-grown diamond jewelry at Everyday.

• Ethical Sourcing 

Alongside its environmental benefits, lab-grown gold also addresses the ethical issues tied to mining. Traditional gold mining is often linked to exploitative labor practices and even human rights abuses in some regions. 

Lab-grown gold eliminates the need for labor-intensive mining, offering a more ethical option that aligns with the growing demand for socially responsible products. This is particularly appealing in industries like jewelry, where consumers are increasingly seeking transparency and ethical sourcing in the products they buy.
Customize your diamond jewelry with ethically-sourced lab-grown diamonds with Everyday’s At Home services. 

• Consistency and Purity 

Another advantage of lab-grown gold is the level of control over its quality. Unlike mined gold, which can vary in purity and often requires extensive refining, lab-grown gold is created in a controlled environment. 
This ensures a consistent level of purity and quality, which is particularly important for industries like electronics and medicine, where even slight variations in material composition can affect performance. Consistent purity makes lab-grown gold highly desirable for these high-precision applications.

Despite these benefits, there are also notable disadvantages that could hinder the widespread adoption of lab-grown gold.

Disadvantages of Lab-Grown Gold

While lab-grown gold offers many advantages, it also faces a few key disadvantages that may slow its adoption in certain markets, particularly those that rely on the cultural or symbolic value of gold.

• Cultural and Symbolic Value 

Mined gold holds a deep cultural and historical significance that lab-grown gold may struggle to replicate. In many cultures, gold is more than just a material—it's a symbol of tradition, heritage, and status. 
Mined gold often carries a story, whether it’s passed down through generations or represents wealth earned through hard work. 

Lab-grown gold, though chemically identical, may not evoke the same emotional connection or prestige, especially in luxury markets like fine jewelry or investment. This distinction could limit its appeal in these sectors, where the symbolic value of gold is just as important as its physical properties.

• Cost of Production 

Another potential drawback is the cost. Currently, lab-grown gold can be more expensive to produce than mined gold, particularly when factoring in the energy and equipment needed for the process. 
As technology improves and the processes become more efficient, this may change, but for now, the high cost of production could make lab-grown gold less competitive in price-sensitive markets. 

The premium on lab-grown gold, while justified by its sustainability and ethical advantages, may deter widespread adoption unless production methods become more cost-effective.

Explore the exquisite collection of affordable diamonds, rings, and other jewelry at Everyday.

• Market Perception 

Lastly, there’s the question of consumer and industry perception. Lab-grown diamonds have already faced challenges in gaining acceptance in the luxury market, and lab-grown gold may encounter similar resistance. 

Convincing both consumers and industries to embrace lab-grown gold over mined gold could take time, particularly if there are misconceptions about its quality or authenticity. Public education and marketing will be crucial in overcoming this hurdle and building confidence in lab-grown gold’s value.

As we consider both the advantages and disadvantages, it's clear that lab-grown gold presents a unique set of opportunities and challenges. Now, let’s explore how these opportunities are shaping real-world applications.

Applications of Lab-Grown Gold

Lab-grown gold has a wide range of applications, thanks to its purity and consistency. Here are just a few industries where lab-grown gold could make a significant impact:

• Jewelry Industry 

As consumers become more environmentally conscious, lab-grown gold could serve as a sustainable and ethical alternative to mined gold. This offers an opportunity for jewelers to create high-quality pieces without the environmental baggage of traditional mining.

• Electronics 

Gold’s excellent electrical conductivity and resistance to corrosion make it a valuable material in electronics, particularly in components like circuit boards and semiconductors. Lab-grown gold could provide a reliable source of this critical material for the tech industry.

• Medicine 

Gold nanoparticles are increasingly used in medical applications, particularly for drug delivery and imaging. The ability to produce gold nanoparticles reliably and sustainably makes lab-grown gold an ideal material for these cutting-edge technologies.
As we look to the future, the potential for lab-grown gold is undeniable, but its full realization will depend on overcoming current challenges and further refining production techniques.

Opportunities and Next Steps for Lab-Grown Gold

Lab-grown gold offers a sustainable and ethical alternative to traditional mining, with potential to transform industries like jewelry, electronics, and medicine. 
As production methods improve, lab-grown gold could become more accessible and open up exciting new markets. While it may not completely replace mined gold, it provides a cleaner and more responsible option for those seeking environmentally friendly solutions.

https://everydaydiamonds.in/blogs/everyday-tips/understanding-the-science-of-lab-grown-gold?srsltid=AfmBOopX641E0kkAYOVBhHuRWq9uULB_UJfqayw9j85L-IM2UtGduozM

SCALE LIFE REALITY IS NOT IMPOSSIBLE

We can crystallize & scale in a different way than copper  

"Norwegian gold plant" could refer to a variety of subjects, including specific plant species with "gold" in their name, a study connecting Norway spruce trees and gold nanoparticles, or a company with "Norwegian" and "gold" in its name. 

Plants and gold

Gold nanoparticles in Norway spruce: A 2025 study revealed that bacteria living in the needles of Norway spruce (Picea abies) can create microscopic gold nanoparticles.

Researchers collected spruce needle samples near a gold mine in Lapland, Finland, and found that certain bacteria were linked to the formation of tiny, solid gold particles inside the needles.

These particles are far too small for commercial collection but could be a tool for gold exploration.

Gold Drift Norway Spruce (Picea abies 'Gold Drift'): This is an ornamental weeping evergreen shrub with gold-variegated dark green needles.

Its new spring foliage is a vibrant yellow-gold, which becomes more subdued in the winter.

Princeton Gold Norway Maple (Acer platanoides 'Princeton Gold'): This cultivar features bright yellow or golden leaves in the spring that fade to a lime green in the summer.

Cloudberry ('Mountain Gold'): This amber-colored wild berry is known as "mountain gold" in Norway, partly because of its appearance and because finding a good patch is considered a prized discovery.

The berries are highly valued for their special taste. 

Companies

Arkon Minerals: A Norwegian-registered company that develops gold production and mining resources globally, specifically targeting small to medium-sized projects.Teako Minerals Corp: This Vancouver-based mineral exploration company holds significant mineral exploration licenses in Norway and Finland, and among its Norwegian projects are gold prospects. 

NANO PARTICLE SIZING 

A nanoparticle is a particle with dimensions in the range of 1 to 100 nanometers (nm). This is a scale where a material's properties, such as how it interacts with light or reacts with other substances, can be significantly different from its bulk form. 

What is a nanometer?

A nanometer is an incredibly small unit of length. 

It is one-billionth (10$^{-9}$) of a meter. 

For context, a human hair is about 80,000 to 100,000 nanometers wide. 

Why is the size important?

Unique Properties: 

At the nanoscale, materials exhibit unique properties that differ from larger versions. 

Increased Surface Area: 

Nanoparticles have a large surface area relative to their volume, which affects their reactivity and how they interact with their environment. 

Applications: 

These properties are exploited in various fields, including electronics, medicines, and sunscreens. 

Key characteristics:

Not all particles in the 1-100 nm range are nanoparticles: 

Some definitions may also include larger particles (up to 500 nm) or fibers/tubes that are less than 100 nm in only two dimensions. 

Can be natural or manufactured: 

Nanoparticles can be formed by breaking down larger materials or by grouping atoms together. 

SCALE UP FROM 1 NANO PARTICLE 

From 1 np (nm) to:

Brick 1 kilo

4.57" x 2.01" x 0.35"

Different approach from source or buy low sell high

Time frame to crystal split & grow & keep growing can take 1-5 years per brick from a 1 np (nm) to

A smart small operation scales at least 500,000 np like CIG 

A large operation may do 10 Million np

Add a series of & 100-500 Billion is not impossible in a layered growing area  

DIMENSIONS 

The dimensions of a 1-kilogram (32.15 troy ounces) gold bar can vary slightly depending on the manufacturer and whether it is a cast or minted bar. However, a common size for a standard kilo gold bar is around 116 mm x 51 mm x 9 mm. 

Here are the typical dimensions for a standard 1-kilogram gold bar, presented in both millimeters and inches:

Length: 116 mm (~4.57 inches)

Width: 51 mm (~2.01 inches)

Thickness: 9 mm (~0.35 inches) 

It is worth noting that some manufacturers may produce bars that are shorter and thicker, or longer and thinner. For instance:

PAMP Suisse: 118.18 mm x 53.18 mm x 9.25 mm

The Royal Mint (cast): 118.00 mm x 53.00 mm x 8 mmJ.M. Bullion (standard): 80 mm x 40 mm x 18 mm 

Cast vs. Minted bars

Cast bars are made by pouring molten gold into a mold, giving them a more rustic appearance with rounded edges and irregular surfaces.

Minted bars are made from a precisely cut, rolled, and stamped gold sheet, giving them a smoother finish and uniform dimensions. 

What makes gold so heavy

A kilo gold bar is surprisingly heavy for its compact size due to gold's high density. Gold has a density of 19.3 grams per cubic centimeter, making it much denser than steel, which has a density of about 7.87 g/cm³. 

2025-2026 NORTH AMERICAN GOLD PRICE 

Cost to buy then sell or grow then sell

CIG growth requires a high yield at 75-90% below price averages or less versus source at a little higher exploring & pulling if land can be utilized in other ways

Averages under $48750.00 on one kilo bar

$146,250 or higher profits on one kilo bar if not held as stockpiles (low risk investment)

$146,250 x 500 Billion ÷ beyond trillions (73)

The number 7.3125e+16, which is in scientific notation, is equivalent to 73,125,000,000,000,000 in standard form. 

2.5 Quadrillion is what 50 US State requires for 2025-2026 after debt of $52.5 Tn is covered rather than (73). A haul & high roll. Can be done in 2-5 or under 15 years

CIG has a commodity growth haul like this at for Copper, Gold, Lithium & specifics over others sourced. 2026-2040 & onward growth at US $30 Trillion connected to US $50 Trillion from 12/32 (2025-2026) then add a separate backend of (73+)

Global wealth is 400 Trillion. Global Debt is 350 Trillion (October 2025)

One kilogram of gold is worth approximately CAD $185,000 - $193,000, or USD $130,000 - $138,000, depending on the date, currency exchange rates, and whether you are buying or selling. The price of gold changes constantly based on the spot price, which fluctuates with global market supply and demand. 

Factors influencing the price of 1 kg of gold:

Spot Price: This is the most significant factor, representing the live market price of gold for immediate delivery. 

Currency: The value of gold is reported in various currencies (USD, CAD, EUR), so the price will vary depending on the currency used. 

Market conditions: Investment demand, other market performances (stocks, bonds), and geopolitical events all affect the price of gold. 

Type of transaction: The price can differ slightly if you are buying or selling gold. 

Dealer fees: When buying physical gold bars, you may pay a premium over the spot price. 

To get the most accurate and current price, you can check the live spot price for gold per kilogram on a financial or precious metals website. 

DIAMOND HAUL 

CIG Zero Emissions transfer catalyst (silo-farm)

Growing diamonds from seed after sourcing exploring 

Diamonds can be made in a lab using two main methods: High Pressure High Temperature (HPHT) and Chemical Vapor Deposition (CVD). The HPHT method mimics natural diamond formation by placing a diamond seed under extreme heat and pressure, causing carbon to crystallize around the seed. The CVD method uses a vacuum chamber and carbon-rich gases that are ionized, allowing carbon particles to deposit onto a diamond seed and form a new diamond. 

High Pressure High Temperature (HPHT) 

• Diamond Seed: 

A tiny slice of a real diamond (a "seed") is used as a base. 

• Carbon Source: 

The seed is placed in a controlled environment with a source of pure carbon, such as graphite. 

• Extreme Conditions: 

This setup is then subjected to extremely high temperatures and pressures, similar to conditions deep within the Earth's mantle. 

• Crystallization: 

The intense pressure and heat cause the carbon atoms to attach to the diamond seed and slowly crystallize, forming a new, larger diamond. 

Chemical Vapor Deposition (CVD)

• Diamond Seed: A small diamond seed is placed in a vacuum-sealed chamber. 

• Carbon-Rich Gases: The chamber is filled with carbon-rich gases, such as methane, at high temperatures. 

• Plasma Formation: The gases are ionized, often with a laser, to form a plasma. 

• Crystallization: Within the plasma, carbon atoms break down and deposit onto the diamond seed, slowly building up a new diamond layer by layer. 
Both the HPHT and CVD methods produce high-quality, authentic diamonds that are physically and chemically identical to naturally occurring diamonds. 

https://youtu.be/WlFW2KzRfm4?si=-L5-MeJPOyDJiW63

https://youtu.be/iB4nusgkqbA?si=szjI5_1YtrmjReRE

Double checks like checks & balances because the door should be locked. In a double check if it's not still. It's open

Grain-Driver

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S.B.G & CIG