Mining & Natural Resources.
From orebody geology to commodity supercycles — we analyze mining equities through the lens of geological fundamentals, metallurgical economics, and geopolitical supply chain dynamics that most financial analysts never touch.
Our Thesis
The mining sector is one of the most fundamentally mispriced corners of the equity market. Wall Street covers mining stocks with financial models built on commodity price assumptions and earnings multiples. We analyze them the way geologists and mining engineers do — starting with the rock.
Every mine is a geological structure with a finite resource, a specific mineralogy, a metallurgical recovery profile, and an extraction cost curve that depends on factors most analysts never examine: ore grade distribution, strip ratios, heap leach vs. mill recovery, acid consumption rates, water table depth, and permitting jurisdiction risk. When you understand these variables, you can see value — and risk — that pure financial models miss entirely.
We combine this geological foundation with macro analysis of commodity supercycles, central bank gold accumulation trends, critical mineral supply chain bottlenecks (lithium, copper, rare earths, uranium), and the geopolitical dynamics that determine which deposits actually get built and which stay in the ground forever.
Research Framework
Geological Analysis
- •Orebody geometry, grade distribution, and continuity modeling
- •Mineral resource vs. mineral reserve classification (NI 43-101, JORC)
- •Deposit type characteristics — porphyry, epithermal, VMS, IOCG, orogenic, sedimentary
- •Structural geology and controls on mineralization
- •Exploration target ranking using geological probability models
Metallurgical Economics
- •Recovery rates by ore type (oxide vs. sulfide, primary vs. transitional)
- •Processing routes — CIL/CIP, heap leach, flotation, SX-EW, HPAL, roasting
- •Reagent consumption, energy intensity, and water requirements
- •All-in sustaining cost (AISC) modeling and margin analysis
- •Byproduct credit economics (silver from gold, molybdenum from copper)
Supply Chain & Geopolitics
- •Jurisdictional risk scoring — permitting timelines, political stability, resource nationalism
- •Critical mineral supply concentration (China rare earths, DRC cobalt, Chile lithium)
- •Sanctions, export controls, and trade route dependencies
- •Infrastructure constraints — rail, port, power, water access
- •ESG and community opposition risk assessment
Macro & Cycle Positioning
- •Commodity supercycle analysis — where are we in the gold, copper, uranium cycles
- •Central bank gold reserves and de-dollarization trends
- •Real interest rates as a gold price driver
- •Electrification demand models for copper, lithium, nickel, cobalt
- •Mine supply depletion curves and discovery replacement rates
How We Analyze a Gold Deposit
Step 1: Deposit Classification
Before looking at a single financial metric, we classify the deposit type. An orogenic gold deposit in the Canadian Shield has fundamentally different characteristics than a Carlin-type deposit in Nevada or an epithermal system in the Pacific Ring of Fire. Deposit type determines grade profile (orogenic deposits tend to be high-grade but narrow; Carlin deposits tend to be low-grade but bulk-mineable), mining method (underground vs. open pit), processing route (refractory vs. free-milling), and ultimately the all-in sustaining cost that determines margin at any given gold price.
Step 2: Resource Quality Assessment
A "5 million ounce gold resource" means nothing without context. We examine: What percentage is Measured & Indicated vs. Inferred? What's the cut-off grade used? How does the grade-tonnage curve behave — is it a narrow high-grade core surrounded by waste, or a broad disseminated system? What's the geological confidence level based on drill spacing? A 2 million ounce deposit at 8 g/t in M&I is often more valuable than a 10 million ounce deposit at 0.5 g/t in Inferred, but you'd never know that from a headline resource number.
Step 3: Metallurgical Recovery
Gold in the ground is not gold in the bank. Recovery rates vary dramatically: a clean, free-milling oxide deposit might achieve 95%+ recovery through simple heap leaching at $5-8/tonne processed. A refractory sulfide deposit might require pressure oxidation or roasting at $25-40/tonne, with recoveries of 85-90%. A complex polymetallic sulfide might need flotation followed by ultra-fine grinding and CIL, with gold locked in arsenopyrite requiring specialized treatment. Each step adds cost and risk. We model these metallurgical pathways to build realistic cost structures that reflect what it actually takes to turn rock into revenue.
Step 4: Jurisdictional & Permitting Risk
The best deposit in the world is worthless if you can't get a permit to mine it. We evaluate jurisdictional risk on a matrix: permitting timeline (Nevada = 7-10 years, some Canadian provinces = 3-5 years), political stability, historical treatment of mining companies, royalty and tax regimes, indigenous rights and community relations, water rights, and environmental baseline requirements. A Tier-1 deposit in a Tier-3 jurisdiction often trades at a permanent discount — and sometimes that discount is justified, and sometimes it's an opportunity.
Step 5: Valuation & Entry
Only after the geological, metallurgical, and jurisdictional analysis do we look at the financial model. We value mining companies on NAV (net asset value) using a discounted cash flow of the mine plan, sensitized across commodity prices, discount rates, and operating cost scenarios. We compare EV/oz for development-stage companies, EV/resource for explorers, and P/NAV for producers. The entry point matters — mining stocks are cyclical, and the difference between buying at 0.3x NAV in a bear market and 1.5x NAV in a bull market is the difference between a multi-bagger and a capital trap.
Coverage Universe
- Barrick Gold (GOLD)
- Newmont (NEM)
- Agnico Eagle (AEM)
- Wheaton Precious (WPM)
- Franco-Nevada (FNV)
- Kinross Gold (KGC)
- Freeport-McMoRan (FCX)
- Southern Copper (SCCO)
- Teck Resources (TECK)
- First Quantum (FM.TO)
- Hudbay Minerals (HBM)
- Capstone Copper (CS.TO)
- Albemarle (ALB)
- Sociedad Quimica (SQM)
- Cameco (CCJ)
- MP Materials (MP)
- Lithium Americas (LAC)
- Uranium Energy (UEC)
- Hycroft Mining (HYMC)
- Midas Gold (MAX.TO)
- Liberty Gold (LGD.TO)
- Artemis Gold (ARTG.TO)
- Osisko Mining (OSK.TO)
- Franco-Nevada (FNV)
- Wheaton PM (WPM)
- Royal Gold (RGLD)
- Osisko Gold Royalties (OR)
- Sandstorm Gold (SAND)
- GDX (Gold Miners)
- GDXJ (Jr Gold Miners)
- COPX (Copper Miners)
- URNM (Uranium Miners)
- SIL (Silver Miners)
Current Themes
Gold Revaluation Thesis
Central banks accumulated more gold in 2023-2025 than any period since 1967. De-dollarization, sanctions risk, and fiscal deficit monetization create structural demand above mine supply replacement. Gold producers with low AISC and long mine lives are leveraged calls on this thesis.
Copper Deficit Acceleration
The electrification transition (EVs, grid infrastructure, renewables, data centers) requires 2-3x current copper production by 2035. Mine supply is declining as major deposits deplete with no Tier-1 discoveries in the pipeline. The copper price needed to incentivize new supply is significantly above current levels.
Uranium Renaissance
Nuclear power is being reclassified globally as clean energy. Reactor restarts (Japan), life extensions (US, Europe), and new builds (China, India, UAE) are accelerating while secondary supply sources (megatons-to-megawatts, underfeeding) are exhausted. The spot uranium market is structurally undersupplied.
Critical Mineral Reshoring
Western governments are spending billions to reduce dependence on Chinese processing of lithium, rare earths, cobalt, and graphite. Companies building processing capacity in allied jurisdictions (US, Canada, Australia) will capture policy tailwinds and strategic premiums.
Interested in our mining research?
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