From Natural Gas to Urea: How We Gradually Understand CF Industries

— Cost Advantages, Geopolitics, and Cyclical Valuation in the Fertilizer Industry October 26, 2026 I. Starting with a Seemingly Simple Industry We initially began researching the fertilizer industry because it possesses a highly attractive characteristic: demand is virtually perpetual. People need food; agriculture needs fertilizer. Regardless of whether the economy is booming or in recession, humans simply cannot stop eating. From this perspective, fertilizer production should be a stable and enduring business. Yet reality is precisely the opposite. While fertilizer companies’ revenues may remain relatively stable, their profits often fluctuate dramatically. The same company can generate enormous profits during industry upcycles, yet barely break even during downturns. This leads us to our first question: Why is profitability so unstable in an industry with such stable demand? To answer this, we must first clarify what fertilizer actually is. The three primary nutrients in modern agriculture are nitrogen (N), phosphorus (P), and potassium (K)—commonly referred to as NPK. Nitrogen fertilizers primarily promote stem and leaf growth; phosphorus fertilizers support plant energy metabolism and root development; potassium fertilizers play a critical role in water regulation and stress resistance. Although all three are called fertilizers, their production methods differ entirely. Phosphate fertilizers require phosphate rock; potash fertilizers rely on potash resources; and one of the most important raw materials for nitrogen fertilizers—surprisingly—is natural gas. This insight gradually narrowed our research focus to the nitrogen fertilizer sector—and specifically to CF Industries (NYSE: CF), a major U.S. nitrogen fertilizer producer. II. CF Industries: A Company That Turns Natural Gas into Fertilizer CF’s business model is straightforward. It purchases natural gas, uses industrial processes to manufacture synthetic ammonia, and then converts that ammonia into nitrogen-based fertilizers—including urea and UAN—which it sells to agricultural markets. The core process is the Haber-Bosch process—a century-old technology. In simple terms, methane from natural gas provides hydrogen via steam reforming, while air supplies nitrogen; under high temperature, high pressure, and catalytic conditions, these combine to form ammonia. Chemical reaction: N₂ + 3H₂ ⇌ 2NH₃ Ammonia can be applied directly as fertilizer—or further reacted with carbon dioxide to produce urea. Though this process sounds ordinary, it forms the foundational bedrock enabling modern agriculture to sustain the world’s massive population. We then noticed an intriguing fact: Natural gas serves not only as the energy source for nitrogen fertilizer production but also as the raw material for hydrogen—the essential feedstock for ammonia synthesis. This means natural gas prices directly determine nitrogen fertilizer producers’ cost competitiveness. Assume producing one ton of ammonia requires 30 MMBtu of natural gas. MMBtu stands for “million British thermal units,” a standard energy unit in natural gas markets. One MMBtu equals approximately 293 kilowatt-hours of thermal energy. Thus, the natural gas cost per ton of ammonia at various price levels would be roughly: Natural Gas Price Cost per Ton of Ammonia $3/MMBtu $90 $6/MMBtu $180 $9/MMBtu $270 $12/MMBtu $360 The above is a simplified illustrative model intended solely to convey cost sensitivity—not CF’s actual full production cost per ton of ammonia.

Cross Pattern: Case Collection

The Cross Pattern represents new information in Bayesian analysis—not a condition used to construct the prior probability. Rather, the prior probability is determined by fundamental enterprise analysis—for example, key factors such as resource endowment and strategic commitments. Continuously collecting cases helps reveal derivative tradable patterns. These patterns exhibit strong resilience against noise shocks, and institutional weight increases accordingly. Optimal positioning involves selecting bets with the lowest discount value and strongest correlation to purchasing power parity. The more qualitative and quantitative case studies we accumulate on fundamentals, the clearer the boundaries for trade judgment become—and the narrower the gray zone of uncertainty grows. BGI Genomics: Monthly cross pattern accumulation in June 2026; second-quarter cross pattern. Positioned below the zero line, with the fast line approaching the slow line. Dingpeng Holdings: Consecutive cross patterns in Q4 2023 and Q1 2024. MACD green histogram shows the fast line plunging below the zero line. Annual and quarterly cross patterns—especially when combined with MACD signals—will become focal points. ACM Research: In April 2026, exhibited a red weekly cross pattern, aligned with the divergence between the MACD fast and slow lines at that time.

CF Industries Holdings, Inc. (CF) Stock Forecasts

Nov 1, 2026

CF Industries Holdings shares declined following earnings results below consensus estimates, though Morningstar maintains its valuation. The company remains a key global producer of nitrogen primarily used for fertilizers.

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