u/Aggressive_Rush2357

Solar has been one of the biggest parts of the silver demand story, but manufacturers are finding ways to use less of it.

Global solar installations can keep growing while the industry’s total silver consumption falls. Manufacturers are reducing the amount used in each cell, improving efficiency and substituting other materials where it makes economic sense.

At current silver prices, they have every reason to keep doing that.

This is one reason industrial silver demand is expected to decline slightly in 2026. It is a real risk to the bullish case, especially for anyone assuming solar demand will keep rising at the same pace forever.

Solar is not the entire industrial market, though.

Silver is also used throughout electronics, vehicles, power equipment and data centre infrastructure. Growth in those areas is expected to offset some of the decline from solar. Total industrial fabrication is still forecast at roughly 650 million ounces this year.

The next few years will show which side can move faster.

Manufacturers will keep reducing the amount of silver used in individual products. At the same time, more electronics, vehicles, data centres and electrical equipment are being built.

If efficiency and substitution win, industrial demand could continue falling and help close the supply deficit. If overall growth absorbs those savings, the market may stay tight even without another surge in solar demand.

Silver has climbed back to around $65 after gaining roughly 15 percent over the past month.

That looks like a strong rally until you zoom out and see that it traded above $100 in January.

Silver is now more than 70 percent above its level from a year ago while remaining over 40 percent below its January high. That pretty much sums up the silver market.

It trades partly like gold and partly like an industrial commodity. It also has a much smaller market than gold, so investment flows can move the price quickly in either direction.

The current rebound has been helped by stronger gold prices, a weaker US dollar and shifting expectations around interest rates. The supply picture is supportive too. Another annual deficit is expected this year and physical investment demand is recovering.

January was still a warning. A legitimate supply story turned into a momentum trade, silver went almost vertical and the correction was brutal.

Silver equities add another layer of risk. They can outperform the metal when prices rise, but operating costs, financing needs and project quality still matter. A strong silver price cannot fix a weak balance sheet or a poor project.

Do you see the current move as the rally restarting, or is silver still working through the excess from January?

A higher commodity price normally encourages miners to produce more of it. Silver does not respond quite that cleanly.

Only about 28 percent of expected 2026 production will come from mines where silver is the main product. Most of the world’s silver is recovered while mining lead, zinc, copper or gold.

That matters because those operators make production decisions based mainly on the economics of their primary metal.

A copper producer may benefit from higher silver credits, but it is not going to approve a major expansion based on silver alone. If copper prices weaken and the mine cuts production, its silver output can fall even while silver prices are rising.

Primary silver producers have more incentive to respond, but they still face the usual problems. New mines need financing, permits, construction and years of development. Existing operations may be able to expand, although that depends on available reserves, grades and processing capacity.

Higher prices can bring more recycled silver into the market much faster than they can create new mine production. That is already happening, but recycling has not been enough to eliminate the deficit.

Silver supply will eventually respond if prices stay high. It just may take longer than people expect because most of the metal comes from mines that are primarily producing something else.

The latest silver forecast is a strange one.

Total demand is expected to fall this year. Industrial fabrication is also forecast to decline as solar manufacturers reduce the amount of silver used in each panel and substitute other materials where they can.

Jewelry and silverware demand are dropping too. At these prices, buyers are cutting back.

Despite all of that, the market is still expected to record its sixth consecutive annual deficit. The latest Metals Focus estimate puts the 2026 shortfall at roughly 46 million ounces, up from about 40 million ounces last year.

Physical investment is one reason. Demand for bars and coins is recovering after several quieter years, particularly in the US. Silver’s price run has brought retail investors back into the market.

Supply has also disappointed. Mine output is not growing quickly enough to close the gap, and the increase in recycling only covers part of it.

This makes the outlook harder to read than the usual bullish or bearish silver argument.

Manufacturers are responding to higher prices exactly as you would expect. They are using less silver, finding substitutes and recycling more. But even with that demand destruction, the market is still short of metal.

How much more demand needs to disappear before silver finally returns to a surplus?

Silver is trading around $65, but Thu Lan Nguyen at Commerzbank says its underlying fair value may be closer to $40.

That sounds extremely bearish, but there is some context to it.

Commerzbank’s model looks at things like interest rates, the US dollar and industrial activity. Without gold included, the model reportedly puts silver near $40. Once gold is factored in, the current price makes more sense.

So the argument is not really that silver has no reason to be above $40. It is that gold pulled it higher and the move was not driven entirely by silver’s own fundamentals.

That is fair after what happened in January. Silver ran above $100 and then lost nearly half its value within a few months. There was obviously plenty of speculation mixed into that move.

Still, $40 feels low for a market heading toward its sixth consecutive annual supply deficit. Mine production is growing slowly, physical investment is picking up again and industrial demand is still expected to reach roughly 650 million ounces this year.

There is also a larger question here. Silver has always traded partly as a monetary metal. If investors consistently buy it alongside gold, should gold really be excluded when calculating silver’s fair value?

Maybe Commerzbank is right that silver got ahead of itself. I am less convinced that its supply and demand fundamentals only justify $40.

What do you think? Is silver still overpriced, or does the model miss what is happening on the supply side?

This is something I have been thinking about quite a bit with the Athabasca juniors.

Everyone wants the giant discovery.

That is obviously never going to change. If somebody finds 100M pounds of high grade uranium, nobody is going to complain that it is too big.

But I am not sure a uranium discovery necessarily needs to be as large today as it did 10 or 15 years ago to become interesting.

Historically, conventional underground development naturally favoured scale.

If you are going to spend hundreds of millions of dollars building a mine, you better have enough pounds in the ground to justify the capital.

That makes life pretty difficult for a smaller standalone deposit, even if the grades are good.

ISR potentially changes that equation for certain deposits.

Denison is now advancing Phoenix around an ISR mining plan, so we are going to get a real Athabasca test of whether that model can work commercially.

It is important not to take that too far.

ISR is very deposit specific. The geology and hydrogeology have to work, and it is not suddenly going to turn every small uranium occurrence into a mine.

But if you do find the right kind of deposit, the economics could be completely different.

That is part of why I have been watching Stallion Uranium (TSXV: STUD, OTCQB: STLNF).

Stallion is a Canadian uranium explorer drilling the Moonlite Project in the southwestern Athabasca Basin. Their current focus is the Coyote target, where the first phase of drilling has encountered elevated radioactivity, alteration and plenty of structural complexity. They also expanded the original drill program after the first few holes.

Still way too early to know what they actually have there, and obviously nobody should be talking about mining methods at Coyote at this stage.

But take Stallion out of the equation for a second.

Say two companies both eventually define a 15M or 20M pound high grade uranium deposit.

One needs a conventional underground mine with a big capital bill.

The other happens to have the right characteristics for ISR and can potentially be developed with a very different cost structure.

Those are probably not worth the same thing.

That is why I think ISR could become a much bigger exploration story than people realize.

Maybe the next successful Athabasca discovery does not necessarily have to be the biggest one.

Maybe it just needs to be high grade, recoverable and the right type of deposit.

One thing I always pay attention to with exploration companies is what they actually do with their money once drilling starts.

Companies can say all kinds of things about encouraging geology.

Committing more capital and adding more metres is a little different.

Stallion Uranium (TSXV: STUD, OTCQB: STLNF) is a Canadian uranium explorer focused on the Moonlite Project in Saskatchewan's southwestern Athabasca Basin. Their main target right now is Coyote, which they built up through geophysics and geological work before putting the first holes into it this year.

The original drill program was around 4,000 metres.

After getting into the first few holes, they increased the program to 5,500 metres based on what they were seeing.

The first three completed holes on the main Coyote target all showed elevated radioactivity along with alteration and structural features that you want to see when you are looking for an Athabasca uranium system.

None of that replaces assays.

Radioactivity is not the same thing as uranium grade, and alteration or structure obviously does not mean you have an economic discovery.

But I still think the decision to add metres matters.

The technical team is seeing a lot more information than the market is.

They are looking at the core as it comes out of the ground. They have the radioactivity, alteration, structures, downhole data and geophysics, and they are constantly updating their interpretation as each hole is completed.

If the first few holes were telling them the geological model was wrong and there was nothing worth following, you would think the easiest thing to do would be to finish the original program and move on.

Instead, they increased the metres.

That does not mean they have found uranium in economic grades, but it tells me the geological team still sees enough there to justify continuing to spend money.

They have also continued doing more geophysical work around the broader Coyote corridor, which is another thing I like to see. They are not treating it as a single hole or single target story.

How much weight do people here put on that kind of thing?

Do you basically ignore everything until assays come back?

Or does management putting more money behind the target give you at least some indication that the geological model is moving in the right direction?

This is one of the more interesting things happening in Saskatchewan uranium right now in my opinion, and it does not really have anything to do with where spot uranium trades this week.

ISR could potentially change the economics of exploration in the Basin.

Finding uranium in the Athabasca has never really been the entire problem. You still have to figure out how to mine it, and conventional underground development can get extremely expensive pretty quickly.

That has historically put a lot of emphasis on finding something big enough and high grade enough to justify the capital required to build the mine.

Denison's Phoenix project is starting to challenge that thinking by moving ahead with ISR in the Athabasca.

Obviously ISR is not some magic solution you can apply to every uranium deposit. You still need the right geology, permeability, groundwater conditions and deposit geometry.

But if Phoenix proves the model works commercially in the Basin, it opens up a pretty interesting question.

Does every uranium discovery still need to be huge?

Stallion Uranium (TSXV: STUD, OTCQB: STLNF) is one junior I have been following around this idea. They are a Canadian uranium explorer focused on the Moonlite Project in the southwestern Athabasca Basin, with most of the current drilling centred around the Coyote target.

They are still very early, so nobody knows what Coyote ultimately turns into.

But imagine you find a smaller high grade deposit with the right geometry and hydrogeology for ISR.

That might be a completely different economic proposition than finding the exact same number of pounds somewhere that requires a large conventional underground operation.

That is what I think gets interesting.

Maybe investors eventually stop looking only at the headline number of pounds.

Grade, geometry, permeability, recovery and ultimately how cheaply those pounds can be produced could become just as important.

If ISR works the way people hope it will in Saskatchewan, could a 10M or 20M pound discovery become significantly more valuable than the market would have considered it during the last uranium cycle?

Silver has had some pretty wild moves this year, and sentiment seems to change almost as quickly as the price does.

But I keep wondering how much has actually changed underneath all of that.

The silver market is still expected to run another deficit in 2026, which would make it the sixth straight year. Mine supply is not exactly exploding, and the market is still relying on above ground inventories to make up the difference between what gets produced and what gets consumed.

There are definitely things worth watching.

Industrial demand is not going straight up forever. Solar manufacturers are using less silver per panel, for example, and at these prices you are obviously going to see more effort put into substitution and thrifting.

But that is a lot different from saying the silver thesis has fallen apart.

That is one reason I have been more interested in the producer side lately.

Sierra Madre Gold and Silver (TSXV: SM, OTCQX: SMDRF) is producing silver and gold from the La Guitarra Mine Complex in Mexico. They restarted the operation and reached commercial production at the beginning of 2025.

Q1 this year came in at US$10.1M in net revenue and US$2.8M in adjusted EBITDA, and they are still working on increasing production.

To me, that is a different setup than owning something where the entire thesis depends on silver being much higher five years from now when the mine finally gets built.

SM is already producing today.

If La Guitarra works at more conservative silver prices, then higher silver becomes operating leverage rather than something you absolutely need to make the economics work.

And now they have Del Toro sitting behind it as another potential growth asset.

That is why I think the producer versus developer debate is pretty interesting here.

If you are bullish on silver over the next few years, what do you prefer?

Physical silver, a massive undeveloped resource with maximum torque, or a smaller producer where stronger prices are already flowing through the business?

I have been thinking about this because Sierra Madre looks pretty different today than it did even a year or two ago.

Sierra Madre Gold and Silver (TSXV: SM, OTCQX: SMDRF) is a Mexico focused precious metals producer. The original story was pretty straightforward. They acquired the past producing La Guitarra silver and gold mine from First Majestic and set out to get it running again.

For a while, that was basically the whole thesis.

Can they restart the mine?

Can they get the plant running properly?

Can they actually turn La Guitarra into a business that generates cash?

They have answered a lot of those questions now.

La Guitarra reached commercial production at the start of 2025. They just reported a record quarter with US$10.1M in net revenue and US$2.8M in adjusted EBITDA, and they are working on expanding the operation beyond where it started.

They also paid off the First Majestic loan in July, leaving the company debt free and generating positive operating cash flow.

Then they added Del Toro.

For anyone who has not followed the story, Del Toro is another past producing silver mine in Mexico that Sierra Madre acquired from First Majestic this year. It has existing infrastructure and gives SM a second potential production asset behind La Guitarra.

That is the part I think changes the story.

It is not really just “can these guys restart La Guitarra?” anymore.

Now it becomes whether management can take what they learned there and repeat the model with another past producing asset.

There is still plenty happening at La Guitarra itself too. They have expansion work underway and a large drill program planned for the East District, so there is still room to grow the existing operation rather than simply moving on to Del Toro.

At some point, I would think the market has to start looking at SM less like a restart story and more like an emerging multi asset silver producer.

The question is what gets them there.

Another few strong quarters?

A clear development plan for Del Toro?

Or does the market need to actually see a second mine operating before the valuation changes?

One thing I keep coming back to with silver is that the supply side still looks pretty tight, even with all the noise around the price.

The Silver Institute is expecting another deficit in 2026, which would make it six years in a row that demand has been running ahead of supply. Mine production is only expected to grow modestly too, so it is not like higher prices are suddenly bringing a massive amount of new silver onto the market.

And silver has a bit of a unique supply problem because so much of it is produced as a byproduct of lead, zinc, copper and gold mines. If silver goes up, a copper miner is not necessarily going to change its production plans just to produce more silver.

That is partly why I have been paying more attention to producers.

Sierra Madre Gold and Silver (TSXV: SM, OTCQX: SMDRF) is a Mexico focused silver and gold producer operating the La Guitarra Mine Complex. They bought La Guitarra from First Majestic, restarted the operation and brought it back into commercial production at the start of 2025.

They are now actually selling metal into this market. Q1 2026 was a record quarter with US$10.1M in net revenue and US$2.8M in adjusted EBITDA, and they are still working on increasing production at La Guitarra.

To me, that is an interesting position to be in if the silver market stays tight.

There are plenty of developers out there with huge resources, but they still have to finance and build the mine before they can take advantage of these prices. That can take years.

A producer like SM is already on the other side of that hurdle.

If silver stays strong over the next few years, where do you think the best leverage is?

The big developers with hundreds of millions of ounces in the ground, or smaller producers like Sierra Madre where stronger silver prices can start showing up in the numbers right away?

Picture a nuclear plant and you probably see a massive facility beside the ocean, a lake or a wide river.

That image is not disappearing, but it is no longer the only model being developed.

At Darlington, Ontario Power Generation has started building the first of four planned BWRX 300 reactors. The first unit is expected to produce 300 MW, with the full fleet reaching 1.2 GW if all four are completed.

In Wyoming, TerraPower has secured an NRC construction permit for its Natrium project at the site of a retiring coal plant. That is an important part of the advanced nuclear pitch: existing grid connections and energy infrastructure can potentially be reused instead of starting from scratch.

Not every advanced reactor has the same cooling system or siting requirements. The broader shift is toward smaller units that can be added in stages and placed at a wider range of industrial and power generation sites.

Cameco is the established Athabasca Basin name most Canadian investors know. Further down the risk curve, Stallion Uranium (STUD.V) has roughly 1,700 square kilometres of Basin ground and recently expanded its Phase 1 drill program at the Coyote target to 5,500 metres.

The juniors are still highly speculative, but this uranium cycle has a much more visible reactor pipeline behind it.

The reactor announcements are getting most of the attention, but the fuel supply chain may be the bigger bottleneck.

Many advanced reactor designs require HALEU, which is enriched to a higher level than the fuel used by most conventional reactors. Centrus has been producing HALEU through a US Department of Energy demonstration program, with capacity of roughly 900 kilograms per year.

That is a start, but it is nowhere near enough for a large commercial reactor fleet. The DOE recently awarded $2.7 billion to expand domestic enrichment capacity for both conventional fuel and HALEU over the next decade.

Enrichment is only one part of the chain. Uranium still has to be mined, converted, enriched and fabricated into reactor fuel. Every stage takes time to expand.

Denison and Atha Energy are two Athabasca Basin names that get plenty of attention. Smaller explorers are also trying to position themselves, including Stallion Uranium (STUD.V), which recently expanded its drilling program at the Coyote target in the western Basin.

The reactor pipeline is becoming easier to see. The question is whether the fuel supply chain can grow quickly enough to support it.

Amazon is working with X energy and Energy Northwest on an initial four Xe 100 reactors producing 320 MW. The project has the option to expand to 12 units and 960 MW.

Meta has gone even bigger. Its agreement with TerraPower covers up to eight Natrium units with 2.8 GW of baseload capacity, while its Oklo partnership could add another 1.2 GW in Ohio.

That puts the potential total from those projects at almost 5 GW.

These are not all the same type of reactor, but they share a few advantages Big Tech clearly values: reliable power, smaller increments of capacity and more flexibility than building one enormous conventional plant.

Somebody still has to supply the uranium behind all of it. Cameco and NexGen are the Basin names most people already know. Further down the risk curve, Stallion Uranium (STUD.V) recently expanded its Phase 1 drill program at the Coyote target to 5,500 metres after encouraging early results. The project is being advanced with Atha Energy.

There is obviously a long road between an exploration target and a producing mine. But the demand side of the uranium story looks more concrete than it did a year ago.

Large nuclear plants have traditionally relied on rivers, lakes or the ocean to help reject waste heat. That is why so many existing plants were built near major bodies of water.

Some advanced reactor designs can use air cooled or hybrid systems instead. The basic idea is similar to a large radiator, with fans moving air across heat exchangers rather than relying entirely on a constant supply of water.

There is a tradeoff. Air cooling can reduce efficiency, especially during hot weather, and running the fans consumes some of the electricity being generated. It also does not necessarily mean the entire facility uses no water.

What it can do is dramatically reduce the need for a massive nearby water source. That opens up more potential sites, including retired coal plants, industrial areas, remote communities and inland locations closer to where the electricity is actually needed.

Existing transmission lines and other infrastructure at retired power plants could make those locations particularly interesting. Instead of building an entirely new energy site, an advanced reactor could potentially reuse parts of what is already there.

Not every SMR uses air cooling, and smaller does not automatically mean water free. But having more cooling options is one reason advanced reactors could be deployed in places where a traditional nuclear plant would have been difficult to build.

AI is turning access to dependable electricity into a competitive issue.

Advanced data centres use enormous amounts of power and operate around the clock. Interruptions are costly, which makes reliable electricity a major part of deciding where and how these facilities are built.

This is already showing up in the nuclear market.

Microsoft is supporting the restart of the Crane Clean Energy Center in Pennsylvania. Google has signed agreements involving advanced reactors and the restart of the Duane Arnold nuclear plant. Amazon has invested in small modular reactors and entered several nuclear power agreements of its own.

The uranium requirements provide some perspective on the potential scale.

A typical one gigawatt light water reactor requires about 24 tonnes of low enriched uranium each year. Producing that fuel takes roughly 195 tonnes of natural uranium under standard enrichment assumptions.

The initial core requires more fuel than later reloads. For a typical one gigawatt reactor, the initial core can require roughly three times as much low enriched uranium as a routine reload.

A one gigawatt data centre does not automatically need its own one gigawatt reactor. Grid capacity, reactor output, backup requirements and other power sources all affect that calculation.

In the nearer term, the impact may come from keeping existing reactors open, restarting closed facilities, increasing output and signing long term power agreements. New reactor construction will take longer.

Uranium demand was already expected to rise as new reactors entered construction and existing plants secured future fuel supplies. The United States is also investing in domestic conversion and enrichment capacity to reduce its reliance on foreign sources.

AI could add another source of pressure.

Technology companies can order servers much faster than the industry can develop uranium mines, fuel facilities or nuclear reactors.

If AI electricity consumption keeps growing, where will the additional reliable power and nuclear fuel come from?

AI models may be digital, but they run on a lot of physical equipment.

Every major AI data centre requires servers, semiconductors, networking equipment, cooling systems, substations and extensive electrical infrastructure. Silver is used throughout that chain because of its conductivity and its role in high performance electronics.

The difficult part is figuring out how much.

There is no reliable public estimate for the amount of silver contained in a single data centre. Different calculations include different pieces of the supporting infrastructure, making direct comparisons difficult.

The demand picture is also much wider than one server.

Scaling AI means installing more chips, circuit boards and electrical components. Larger facilities also require additional cooling systems, substations, transmission equipment and backup power.

Then there is the electricity itself. Expanding the grid and adding new solar generation or energy storage could create further sources of silver demand.

This is happening while the silver market is already tight. The Silver Institute reported a fifth consecutive structural market deficit in 2025 and expects another deficit in 2026.

Supply cannot necessarily respond quickly either. Primary silver mines accounted for only about 28% of global mine production in 2025. Most silver came from mines producing lead, zinc, copper or gold, which means silver output also depends on the economics of those metals.

AI will be another source of demand alongside solar, automotive, electronics, investment and jewellery.

The important question is not how much silver sits inside one server. It is how much will be needed across the entire AI buildout, and whether supply can keep up.

Most of the conversation around AI still focuses on software and chips. But the data centres behind it require a massive amount of physical infrastructure.

Servers are only one part of it. These facilities also need cooling systems, substations, transmission equipment and dependable electricity around the clock.

That creates two interesting demand stories.

Silver is used in circuit boards, electrical contacts and other electronic components. It is also found throughout the power equipment and grid infrastructure needed to support large data centres.

Uranium enters the picture through electricity. Nuclear plants can provide the steady power that AI facilities need, which is why several major technology companies are now pursuing nuclear energy agreements.

For some perspective, a typical one gigawatt light water reactor requires about 24 tonnes of low enriched uranium each year. Producing that fuel takes roughly 195 tonnes of natural uranium under standard enrichment assumptions.

That is not a one reactor per data centre calculation. Data centre demand, reactor output and grid capacity do not match up that neatly. It does show how uranium requirements could grow if nuclear becomes a larger part of the AI power mix.

The silver side is harder to measure. There is no reliable estimate for how much silver goes into a single data centre, especially once the supporting electrical and power infrastructure is included.

That makes the total buildout more important than the amount of silver inside one server.

Mines, nuclear fuel facilities and reactors all have long development timelines. AI companies are pushing ahead with new infrastructure now.

Has the market accounted for the materials behind the AI buildout, or is it still looking at AI mainly as a software and semiconductor story?

Most of the conversation around AI still focuses on software and chips. But the data centres behind it require a massive amount of physical infrastructure.

Servers are only one part of it. These facilities also need cooling systems, substations, transmission equipment and dependable electricity around the clock.

That creates two interesting demand stories.

Silver is used in circuit boards, electrical contacts and other electronic components. It is also found throughout the power equipment and grid infrastructure needed to support large data centres.

Uranium enters the picture through electricity. Nuclear plants can provide the steady power that AI facilities need, which is why several major technology companies are now pursuing nuclear energy agreements.

For some perspective, a typical one gigawatt light water reactor requires about 24 tonnes of low enriched uranium each year. Producing that fuel takes roughly 195 tonnes of natural uranium under standard enrichment assumptions.

That is not a one reactor per data centre calculation. Data centre demand, reactor output and grid capacity do not match up that neatly. It does show how uranium requirements could grow if nuclear becomes a larger part of the AI power mix.

The silver side is harder to measure. There is no reliable estimate for how much silver goes into a single data centre, especially once the supporting electrical and power infrastructure is included.

That makes the total buildout more important than the amount of silver inside one server.

Mines, nuclear fuel facilities and reactors all have long development timelines. AI companies are pushing ahead with new infrastructure now.

Has the market accounted for the materials behind the AI buildout, or is it still looking at AI mainly as a software and semiconductor story?