Chapter 10: The Great Resource Land Grab

How the AI Revolution Is Redrawing the Map of American Wealth

In 1848, a carpenter named James Marshall noticed something unusual in the water flowing through a sawmill in the foothills of California’s Sierra Nevada mountains.

Gold.

Marshall had discovered small flakes of the precious metal near Sutter’s Mill, along the American River. Within months, word of his discovery spread across the country and eventually around the world. By 1849, tens of thousands of fortune seekers were pouring into California, hoping to claim a piece of what appeared to be almost limitless wealth.

They became known as the Forty-Niners.

Men abandoned farms, businesses and families to travel thousands of miles across mountains, deserts and oceans. Entire towns sprang up almost overnight. San Francisco transformed from a small settlement into a booming commercial center.

Merchants, bankers, transportation companies and equipment suppliers rushed to provide the goods and services needed by the rapidly expanding population.

But here’s what makes the California Gold Rush so fascinating.

The gold had been sitting in the ground for millions of years. It didn’t suddenly appear in 1848. The geology hadn’t changed. What changed was that someone discovered it, people recognized its economic value, and capital and labor began moving toward the opportunity.

Land that had previously attracted relatively little commercial attention suddenly became extraordinarily valuable. Remote streams became destinations for thousands of prospectors. Transportation routes became strategic assets. Towns appeared where almost nothing had existed before.

The discovery of one resource helped redraw the economic map of America.

And now, nearly 180 years later, I believe we’re witnessing the early stages of another great American resource rush.

Only this time, the prize isn’t simply gold.

It’s copper, uranium, natural gas, electricity, water, industrial land, critical minerals and the infrastructure necessary to transform those resources into productive economic assets.

And the catalyst isn’t a carpenter discovering gold in a California stream.

It’s artificial intelligence.

The Geography of Wealth Is Changing

For decades, the geography of American wealth has been relatively easy to understand.

New York dominated finance. Silicon Valley dominated technology. Washington dominated the government. Hollywood dominated entertainment. Major metropolitan areas attracted capital, educated workers and high-value industries.

But artificial intelligence is beginning to introduce a different set of economic considerations.

The technology companies building the next generation of AI infrastructure need enormous amounts of electricity. They need land large enough to accommodate industrial-scale computing campuses.

They need reliable water supplies or alternative cooling technologies, access to high-capacity fiber-optic networks, and locations where construction crews can build complex facilities without prohibitive delays.

Most importantly, they need access to infrastructure that can support enormous electrical loads.

That means the next generation of technology investment may not flow exclusively toward traditional technology centers.

It may increasingly flow toward places that possess something even more important.

Physical capacity.

A relatively inexpensive parcel of land near a major transmission corridor could become far more strategically valuable than an expensive parcel without sufficient electrical access. A region with abundant natural gas, available generation capacity and favorable industrial infrastructure may suddenly attract projects that would have seemed unlikely a decade ago.

And states with substantial mineral resources could find themselves at the center of a renewed competition to secure domestic supplies of essential materials.

This is the next stage of the MoneyQuake.

The digital economy is beginning to reshape the physical geography of America.

The New Gold Rush Has a Different Map

Think about the places that could become increasingly important as this industrial transformation unfolds.

Northern Virginia has already established itself as one of the world’s most significant data center markets. Its concentration of fiber connectivity, network infrastructure and established operators helped make it an extraordinary hub for digital infrastructure.

But the very success of that market has created new challenges. Electrical capacity, land availability and infrastructure development are becoming increasingly important constraints.

That creates incentives for developers to examine other regions.

Texas offers extensive energy infrastructure, major natural gas production, substantial industrial capabilities and large areas of developable land. Pennsylvania, Ohio and West Virginia possess proximity to the Appalachian natural gas industry and established industrial infrastructure. Parts of the Southeast have attracted growing interest in data center development, manufacturing and energy-intensive industries.

Meanwhile, the American West contains enormous mineral resources that could become increasingly strategic as the nation attempts to expand its domestic supply chains.

Idaho.

Montana.

Wyoming.

Utah.

Nevada.

Alaska.

These places may not dominate the headlines coming out of Silicon Valley, but they contain resources that could become increasingly important to the industrial economy supporting artificial intelligence.

Of course, geology alone doesn’t guarantee economic development. Electricity prices, water availability, environmental requirements, permitting, transportation infrastructure and community acceptance will determine which projects ultimately move forward.

But the direction is becoming clearer.

America’s next generation of wealth creation may increasingly depend upon where the country can produce energy, develop resources and build infrastructure.

A $4 Trillion Reminder

Here’s a number that deserves more attention.

According to the U.S. Geological Survey’s 2026 Mineral Commodity Summaries, the United States produced approximately $112 billion worth of nonfuel minerals in 2025.

But the industries relying upon mineral materials generated approximately $4.09 trillion in economic value.

Think about the difference.

The minerals themselves represent only one part of the economic equation. Once those materials move through manufacturing, construction, transportation, electronics, aerospace and other industries, they help support economic activity worth trillions of dollars.

That’s why the strategic value of a resource can extend far beyond its market price at the mine.

Copper isn’t valuable only because somebody wants to own copper. It’s valuable because electrical infrastructure depends upon it.

Uranium isn’t strategically important merely because it trades in commodity markets. It’s important because nuclear reactors require fuel.

Antimony isn’t important simply because it appears on a list of critical minerals. It’s important because certain defense, industrial and specialty applications depend upon a supply chain that cannot always be replaced quickly.

And increasingly, the companies and governments controlling access to those materials may possess economic advantages that traditional financial models struggle to capture.

This is one reason I believe the coming decade could witness a broader reassessment of America’s natural-resource wealth.

The question isn’t simply how much material lies beneath the ground.

It’s how much of that material can be developed, processed and delivered into the industries that need it.

The Resource That Cannot Be Imported

Now consider electricity.

You can transport natural gas through pipelines or aboard specialized ships. You can ship copper across oceans. You can import semiconductors, steel and industrial equipment from foreign manufacturers.

But electricity is different.

Although electricity can be traded across interconnected power grids, a large AI data center ultimately needs sufficient deliverable electrical capacity at its specific location.

It doesn’t matter how much electricity exists somewhere else in the country if the transmission infrastructure cannot move enough of it to the facility.

That makes local electrical capacity extraordinarily important.

According to Lawrence Berkeley National Laboratory’s June 2026 data center energy report, data centers could account for approximately 11.8% of U.S. electricity consumption by 2030, with modeled scenarios ranging from 9.5% to 15.3%.

Those are projections, not guarantees. The actual outcome will depend upon AI adoption, equipment efficiency, construction schedules and the ability of the electrical industry to expand supply.

Nevertheless, the implications are enormous.

For generations, businesses generally chose locations based upon labor costs, transportation, taxes, customers and proximity to suppliers.

Artificial intelligence is adding another critical factor.

Where can we get the electricity?

And once access to power becomes a strategic consideration, the value of certain physical assets can change dramatically.

Land near available generation and transmission infrastructure becomes more attractive. Existing industrial sites with substantial electrical connections may become candidates for redevelopment. Utilities with the ability to serve new customers may find themselves participating in a new cycle of infrastructure investment.

The competitive advantage may no longer be merely owning land. It may be owning land that can actually be powered.

The New American Treasure Map

Now let’s turn our attention underground.

Because the United States possesses significant deposits of copper, gold, uranium, antimony and other strategically important minerals.

Some have been known for decades. Others remain underexplored. And many have never reached commercial production.

That creates a fascinating economic situation.

A mineral deposit can contain enormous quantities of potentially valuable material while contributing little to current production. The resource may be technically difficult to extract, economically unattractive at prevailing commodity prices or subject to unresolved environmental, regulatory and infrastructure challenges.

But what happens when the economic environment changes?

What happens when commodity prices rise? What happens when domestic supply becomes a national security priority? What happens when new infrastructure reduces transportation or energy costs?

And what happens when technology improves the ability to recover minerals that were previously considered uneconomic?

Suddenly a deposit that attracted little attention for years can become the subject of renewed investment.

That doesn’t mean every undeveloped resource will become a profitable mine. Far from it.

But it does mean that changes in commodity markets, technology and strategic priorities can alter the economic value of resources that have existed for millions of years.

Remember the California Gold Rush?

The gold was already there.

What changed was the world’s willingness to pursue it.

The Pebble Paradox

Consider one of the most controversial mineral deposits in the United States.

Pebble, in southwestern Alaska.

The deposit contains enormous quantities of copper, gold and molybdenum, making it one of the country’s most significant undeveloped mineral resources.

From a purely geological perspective, the scale is extraordinary. But Pebble also demonstrates why the distinction between owning a mineral resource and producing a mineral commodity is so important.

The project faces substantial environmental, regulatory and legal obstacles, including restrictions imposed by the Environmental Protection Agency under the Clean Water Act. Its location near the Bristol Bay watershed has generated longstanding opposition because of concerns about the region’s valuable salmon fisheries.

The deposit’s mineral endowment therefore cannot simply be treated as available future production.

And that is precisely what makes it such a useful case study.

A resource can be geologically enormous and economically inaccessible at the same time.

Its ultimate value depends not merely upon the quantity of metal in the ground, but upon whether the resource can be developed responsibly, legally and profitably.

The same basic distinction applies across the mining industry. Resources are not reserves. Reserves are not production. And production is not necessarily profitability.

But as the demand for strategic minerals increases, investors and policymakers may devote more attention to the economic and national security implications of large undeveloped deposits.

That’s the repricing story.

Not every resource will be developed. But the strategic importance of knowing where those resources exist may increase.

The Critical Minerals Problem

America’s dependence upon foreign mineral supply chains adds another dimension to the story.

According to the U.S. Geological Survey, imports supplied more than half of American consumption for dozens of nonfuel mineral commodities in 2025. The United States also remained dependent upon China as a major source for numerous critical minerals.

That matters because the industrial economy doesn’t operate on raw mineral deposits alone.

It requires processing.

Refining.

Separation.

Metallurgy.

Manufacturing.

A country can possess enormous mineral resources and still depend upon foreign suppliers for the refined materials needed by its industries.

That is one of the central challenges facing America’s efforts to rebuild strategic supply chains.

Mining is only the first step.

The United States also needs the infrastructure required to convert mined materials into products that manufacturers can actually use.

Smelters. Refineries. Processing plants. Chemical facilities. Specialized equipment. Skilled workers. And reliable electricity.

Notice how the MoneyQuake keeps coming full circle.

The nation needs minerals to build its electrical infrastructure.

But it also needs electricity to process the minerals.

The industries are becoming increasingly interconnected.

And that interdependence could make control over strategically located industrial assets more valuable.

Water: The Next Strategic Resource

There’s another resource I believe investors need to pay much closer attention to.

Water.

We tend to think about water as something entirely separate from artificial intelligence. But water plays important roles in electricity generation, industrial manufacturing, semiconductor fabrication and many data center cooling systems.

Not every data center consumes enormous quantities of water. Cooling designs vary substantially, and some facilities rely on air cooling, closed-loop liquid systems or other technologies that can reduce direct water consumption.

But in regions where water is already scarce, additional industrial demand can create complicated economic and environmental challenges.

Think about the American Southwest.

Parts of Arizona, Nevada, Utah and other Western states have experienced persistent water stress. Population growth, agriculture, industrial activity and climate variability all place pressure on water resources.

Now add the possibility of large new computing campuses and semiconductor manufacturing facilities.

Suddenly water availability becomes another consideration in deciding where industrial projects can be built.

And just as with electricity, the economic value of water isn’t simply a question of how much exists nationally. It’s a question of how much is legally and physically available in a particular location.

That could create opportunities for companies involved in water storage, recycling, treatment, conveyance and other infrastructure.

But it also creates responsibilities. Industrial expansion has to account for competing agricultural, residential and environmental needs.

The lesson is that the AI economy is making resources that were once treated as background utilities increasingly important to investment decisions.

The Next Great Real Estate Boom May Not Be Residential

For generations, real estate investors focused heavily on familiar categories.

Residential housing.

Office buildings.

Shopping centers.

Warehouses.

Hotels.

Apartment complexes.

Those assets will remain important, but artificial intelligence is creating demand for a different kind of real estate.

Industrial land with access to enormous quantities of electricity.

Consider two otherwise similar parcels. Both contain several hundred acres. Both are located near major highways. Both have access to fiber-optic infrastructure. But one has a realistic pathway to securing hundreds of megawatts of electrical capacity, while the other faces a decade of potential transmission upgrades.

To a traditional real estate investor, the properties may appear similar.

To an AI infrastructure developer, they could be dramatically different.

The first parcel might support a multibillion-dollar computing campus. The second might remain undeveloped for years.

That’s how infrastructure availability can change land values.

And the implications extend beyond the data center itself.

New industrial development creates demand for roads, substations, construction services, maintenance facilities and supporting businesses. It may attract additional investment into surrounding communities, although the number of permanent jobs and local economic benefits can vary considerably.

The next major real estate opportunity may not always be the land closest to a booming city.

It may be the land closest to the infrastructure required to power the next industrial revolution.

From Silicon Valley to the Resource Valley

Here’s what I find most fascinating about this transformation.

For decades, Silicon Valley became synonymous with innovation because it concentrated extraordinary intellectual capital.

Engineers.

Entrepreneurs.

Universities.

Venture capital.

Software developers.

Semiconductor designers.

That concentration helped create some of the world’s most valuable companies.

But artificial intelligence is forcing those companies to reach beyond the traditional boundaries of the technology industry.

They need natural gas producers.

Nuclear engineers.

Copper miners.

Electrical equipment manufacturers.

Construction companies.

Water infrastructure specialists.

Utilities.

Land developers.

And increasingly, they need access to regions of America that possess the physical resources required to support enormous industrial investment.

The result may be a redistribution of economic opportunity across parts of the country that have long been overshadowed by major financial and technology centers.

Not every mining town will become the next Silicon Valley.

Not every rural county will attract a hyperscale data center.

And not every announced infrastructure project will be completed.

But the broader trend is important.

The digital economy is becoming increasingly dependent upon the geography of the physical economy. And that could change how investors value land, resources, infrastructure and industrial capacity for years to come.

Get to the good, green grass first…

The Prophet of Profit,