Chemical Industry Operations and Landscape Analysis
I. The Essence of the Chemical Industry: The "Base Material Layer" of the Industrial System
The chemical industry is the sector that transforms natural resources (oil, coal, natural gas) into basic and functional materials. It serves as the "intermediate layer" of the industrial system. Nearly all manufacturing costs and performance are ultimately influenced by the chemical industry.
II. Industry Structure: Three Major Segments
1. Basic Chemicals (Commodity Chemicals)
l Typical Products: Basic olefins (ethylene, propylene, butadiene), aromatic PX (benzene, toluene, xylene), the "three acids and two alkalis" (caustic soda, soda ash, hydrochloric acid, sulfuric acid, nitric acid), methane, methanol, ethane, propane, hydrogen, chlorine, titanium dioxide, urea, nitrogen fertilizers, etc.
l Characteristics: Highly cyclical, fluctuating with the economy; high capacity and high capital expenditure; highly homogeneous products.
l Applications: Primarily used to produce plastics, synthetic rubber, and synthetic fibers, widely applied in packaging, apparel, and automotive manufacturing.
2. Fine Chemicals (Functional Chemicals)
l Typical Products: Coatings, dyes, pesticides, pharmaceutical intermediates, auxiliaries, additives, flavors and fragrances, etc.
l Characteristics: High technological barriers; wide variety with small individual product scales; higher profit margins than basic chemicals.
l Applications: Pharmaceuticals, pesticides, daily chemicals, coatings, food additives, feed additives, electronic materials, and other fields.
3. New Chemical Materials (Core Growth Track)
l Typical Products: Lithium battery materials, semiconductor materials, photovoltaic materials, carbon fiber, aramid fibers, high-performance plastics, specialty materials, etc.
l Characteristics: Technology-driven; strongly tied to emerging industries; high growth potential.
l Applications: New energy vehicles, power batteries, energy storage, semiconductors, photovoltaics, wind power, aerospace, robotics, electronic information, and other high-end sectors.
III. Industry Operating Logic: A Classic "Cyclical Industry"
1. Price Formula: Price = Demand – Supply (Capacity).
2. Typical Cycle: Strong demand → Product price rises → Corporate profits increase → Supply glut forms → Prices fall → Next cycle begins.
3. Current Status (2025–2026): Most basic chemicals face significant overcapacity, but some niche segments exhibit structural strength.
IV. Industry Trends and Patterns
1. Demand Structure: Widening Divergence Between Old and New
l Traditional demand (real estate, textiles): Slowing growth.
l Emerging demand (new energy, semiconductors): Booming.
→ Rapid growth in demand for high-end chemicals.
2. Supply Side: Overcapacity Coexists with Structural Upgrading
l Basic chemicals: Widely facing overcapacity.
l High-end materials: Some areas still rely on imports.
→ Industry shift: From "capacity competition" to "structure competition."
3. Diverging Energy Pathways (Key Variable)
l Major routes include the petroleum route (traditional petrochemicals), coal chemical route (China's advantage), and bio-based/green chemicals (future direction).
→ Energy price fluctuations (e.g., rising oil prices) may reshape competitive dynamics, potentially benefiting coal-based chemicals.
4. Green Transition: The Biggest Long-Term Variable
l The chemical industry accounts for about 5–6% of global carbon emissions.
l Future directions include hydrogen-based chemicals, electrified production, and carbon capture, utilization, and storage (CCUS).
→ Essence: Evolving from "highly polluting" to "high-tech."
5. Intelligentization: An Efficiency Revolution
l AI and industrial internet are transforming production methods, potentially improving efficiency by over 20%.
→ Essence: The chemical industry is a combination of "heavy assets + data-driven" operations.
