China Titanium Alloy 2026 — Domestic Breakthrough in Aerospace High-End Materials

Abstract

In early 2026, in a state titanium industry base in Baoji, Shaanxi, a 800-mm-diameter VAR-remelted titanium ingot just came out of the furnace. It will be sliced and shipped to the aerospace forging shop in Yanliang, Xi'an, then pressed by a 5,500-ton mold forging press into the fan disk forging blank for the J-20 engine. At the same moment, in Xining sponge titanium plant, fresh sponge titanium is being unloaded from the magnesium reduction furnace, awaiting shipment to the ingot producers. A thousand kilometers further south, in Shanghai's COMAC final assembly hall, a C919 titanium-alloy main landing gear strut is being installed — this aircraft will be delivered to China Eastern in two months, and its titanium content will account for 9.3% of total structural weight.

This is the two-layer narrative China's titanium alloy industry is now living through. Layer one is scale: 2025 national sponge titanium output around 223,000 tons, 75% of global production; titanium mill products around 180,000 tons, +15% YoY; grade-1 ingot average price retreating from a 2023 peak of about RMB 75,000/ton to a stable RMB 48,000/ton in 2025. Layer two is structural upgrade: aerospace titanium share rising from under 5% in 2020 to 22% in 2025; C919 domestic-titanium content breaking 80%; TC18 high-strength alloy reaching mass production in 2024, TC21 finishing small-batch trial; Western Superconducting's aerospace titanium wire export pushing back into the supply chains of US and German giants.

Core judgments

• Chinese titanium has won share in the mid market, engineered a breakthrough in TC18/TC21 high-end alloy bars, but still trails Russia's VSMPO and US ATI/TIMET by a generation in large forgings, wide plate, and thin-wall tube.
• Mid-grade sponge titanium is already oversupplied; price has stabilized at the bottom but limited upside. Real profitability sits at three process gates in midstream: triple VAR remelting, 5,500-ton forging, wide-plate rolling.
• Aerospace titanium is the most certain demand growth for the next five years: C919 ramp + C929 wide-body + 6th-gen fighter platform jointly shape the upper-right of the demand curve.
• Private capital and SOEs advance at two rhythms: Baoji Titanium, Western Superconducting, Western Materials lead high-end breakthroughs; Xinjiang Xiangrun and Jintian Titanium squeeze mid-market margins with private-sector cost advantage.
• True bottleneck has shifted from "can't make" to "can make but can't stabilize" — ramp curves and yield curves, not capacity itself, are the new battleground.

Key data

• Sponge titanium capacity 230 kt/yr (75% of global)
• Titanium mill products 2025 ~180 kt, +15% YoY
• China titanium materials market 2025 ~RMB 38 billion
• Aerospace titanium share: 4% (2020) → 22% (2025)
• C919 titanium per aircraft: ~7 tons (9.3% of structure)
• Sponge titanium average price 2025: ~RMB 48,000/ton (bottomed)
• High-end TC4 bar price 2025: ~RMB 120,000/ton
• Industry leader Baoji Titanium 2025 revenue: ~RMB 8 billion

Why study titanium

Titanium is a representative thread of China's new materials industry transitioning from "import substitution" to "high-end breakthrough." Its three-decade arc condenses the full track from basic to mid-high to highest-end grades. Its downstream spans aerospace, marine deep-sea, medical, chemical, and consumer electronics — five major battlegrounds. Its industry chain is structurally clear, suitable for detailed analysis. And it is at a critical window of transition right now, both timely and forward-looking.

Methodology & boundaries

Cross-source verification; Chinese and English sources balanced; data anchored to 2025 annual reports + 2026 H1; focus on midstream titanium fabrication (excluding aero engine bodies, broad non-ferrous metals — those have their own reports); not investment advice.

This report traces both narrative layers across the full Chinese titanium map: from rutile concentrate to deep-sea pressure hulls, from VAR remelting to 6th-gen fighter R&D, from process barriers to price cycles. Every node returns to one core question: now that Chinese titanium has won scale in the mid market, can it truly break through at the high end?

Chapter 1　Industry Overview: Sponge Titanium Capacity, Mill Output, and Price Trajectory

1.1　Starting from the Capacity Map

Pulling the lens to 2025 global titanium supply, one map emerges.

Global sponge titanium capacity totals about 310 kt/yr. China holds about 230 kt — over 75%. Second is Japan at ~48 kt (Osaka Titanium Technologies, Toho Titanium). Third is Russia at ~40 kt (VSMPO-AVISMA alone). US has only TIMET at ~18 kt; Kazakhstan's UKTMP at ~16 kt. China is not just the world's largest sponge producer, but already approaches twice the combined output of all others.

This map is dramatically different from a decade ago. Pre-2015, global sponge titanium was a five-way split. China's share has surged since 2017 — Xinjiang Xiangrun, Panzhihua, Shuangliu, Xining capacity coming online — passing 70% in 2023 and stabilizing at 75% in 2025. Two drivers: cheap western China electricity (sponge titanium consumes ~22,000 kWh per ton, western tariff ~RMB 0.28/kWh vs eastern ~0.50); domestic equipment maturity dropping investment intensity from RMB 1.5 billion per 10 kt to RMB 800 million per 10 kt over a decade.

1.2　Mill Product Structural Migration

If sponge is upstream raw material, mill product is midstream output, and its structural shift is even more telling.

2025 China titanium mill output ~180 kt, +15% YoY. Of this, industrial-grade (chemical corrosion-resistant plate/tube/fittings) ~120 kt, two-thirds; aerospace-grade (triple-VAR + forging + bar/plate/wire) ~40 kt, ~22%; medical and consumer-electronics ~10 kt; other ~10 kt. Versus 2020 — aerospace was just over 5%, industrial over 80% — the five-year structural shift is striking.

The shift comes from two independent paths.

Commercial aviation: COMAC C919 first delivered 2022, accumulated 35 deliveries by 2025, order book over 1,000 aircraft, ~7 tons titanium per plane. C919 alone consumed ~240 tons domestic titanium in 2025; at 10/month production by 2030 this rises to ~2,400 tons, a 10x expansion. Add C929 wide-body R&D, COMAC-driven titanium demand will exceed 8,000 tons annually within a decade.

Military aviation: J-20 mass production, J-35 carrier-based service, 6th-gen platform R&D in parallel. Military aircraft titanium ratio jumped from ~10% on 3rd-gen, to ~20% on 4th-gen, ~25% on 5th-gen carrier; ~30% expected on 6th-gen. WS-15 engine ramping, ~600 kg titanium per unit (fan disk, compressor disk, casing). Military aviation titanium ~12 kt in 2025, more stable orders than civil, higher margins.

Industrial-grade growth is steadier — Chinese chlor-alkali, PTA, desalination, nuclear condensers, power heat exchangers consume ~120 kt steadily, +5% YoY.

1.3　Price Cycle: 75K → 48K → 52K

Past three years drew a complete mini-cycle, worth unpacking by stage.

2023 was the peak. Russia-Ukraine conflict disrupted VSMPO logistics globally; same year COMAC C919 deliveries began, military orders dense. Supply-tight + demand-concentrated double squeeze pushed grade-1 sponge from ~RMB 50k/ton at start of 2022 to peak ~RMB 75k/ton in October 2023, with some high-purity grades briefly touching 80k. Grade-1 ingot peaked at ~80k; aerospace TC4 bar reached ~150k.

2024 was retreat. Overseas players digested panic stocks; VSMPO rerouted via Central Asia. Chinese new sponge capacity at Xinjiang Xiangrun, Shuangliu, Qinghai came online, sponge total capacity jumped from 150 kt (2022) to 200 kt (2024). Supply curve right-shifted; sponge price fell to ~45k, briefly touching ~42k in Q4. Mid capacity entered "invisible shakeout."

2025 stabilized. Sponge ~48k average, slight rebound. Grade-1 ingot ~55k. Aerospace TC4 bar ~120k, down ~20% from peak but still elevated. Demand-side ballast: aerospace +25%, medical + iPhone consumer electronics adding ~10 kt new demand.

2026 H1 sponge ~52k, up ~10% YoY — but on different logic. Last peak was Russia-Ukraine supply shock; this one is aerospace structural demand. Mid capacity still under pressure; mid-to-high tightening. Grade-1 ingot vs high-end TC4 bar spread widened to ~RMB 60k/ton, second-highest in history — midstream processing margins materially amplified.

1.4　Two Markets Inside the Industry

Overlay capacity, output, price together — China titanium has split into two distinct markets.

One is mid-grade industrial: overcapacity, bottom-pressed price, margins held just above 10%. Players: Xinjiang Xiangrun, Pangang V&T, Shuangliu, private ingot mills. Customers: chemical, desalination, heat exchangers — orders stable but unit price low and margins thin. Competitors are peers, not foreign. Being squeezed by new capacity round.

The other is high-end aerospace and medical: capital + tech barriers high, unit price multiples above mid, margins held at 25%+ even 30%. Capacity expansion bottlenecked by yield, not capacity itself. Players: Baoji Titanium, Western Superconducting, Western Materials, plus private upstarts. Customers: COMAC, AECC, military assemblers, medical OEMs. Competitors: VSMPO, ATI, TIMET, Carpenter. Being pulled simultaneously by state orders and import substitution.

The split between these two markets shapes every chapter to follow.

1.5　Real Position vs Global Giants

Horizontally placed in the global landscape, China's true positions emerge:

Sponge titanium capacity: #1 globally, dominant. Mill processing comprehensive: #2-3 globally — total scale already exceeds the ATI/TIMET/Carpenter/Howmet US grouping, but process depth and highest-end grades still trail VSMPO. High-end grade engineering: #3 globally — VSMPO's full-spectrum highest grades most complete, ATI/Carpenter hold some specialty exclusives. Aerospace titanium scale: #2 globally (US #1 with Boeing + US military ~35% of global; China ~25%; Europe ~20%). Consumer electronics titanium: #1 globally (Apple titanium frames processed mostly by Japan/US, but Android camp domestic supply chain dominant; China ~70% of global).

Future five-year strategy: push highest-end grades from #3 toward #1-2; push midstream comprehensive from #2-3 toward #2.

1.6　Supply Chain Fragility Observations

Some fragility points worth tracking:

Critical equipment import dependence: largest VAR furnaces (>1.2m diameter) still partly imported from Germany ALD and Austria INTECO.

Talent depth: senior process engineers concentrated in Baoji Titanium, Western Superconducting, Western Materials; average age 50+; next-gen training pipeline may lag capacity expansion.

Sub-raw materials partial import: high-purity aluminum, high-purity vanadium intermediates partly imported.

Certification standards: domestic GJB system somewhat self-contained; ASTM/AS9100/NADCAP compatibility cost not negligible in export.

These are optimization spaces, not structural shortcomings.

Chapter 2　Upstream Chain: Rutile Concentrate to Mill Products

2.1　Rutile Concentrate: The Forgotten Starting Point

Most research starts the chain at sponge titanium, but real profit distribution starts further upstream at rutile concentrate.

Rutile concentrate (ilmenite magnetic concentrate, 46-52% TiO₂) is the common feedstock for both titanium dioxide and sponge titanium. 2025 China rutile output ~7 Mt, of which Panzhihua-Xichang contributes ~60%, Yunnan/Hainan/Guangdong combined ~30%. Pangang V&T (000629) the largest single producer at ~700 kt in 2025, ~10% of national; remainder highly fragmented, 200+ small mines.

Rutile price 2023-2025 mini-cycled with sponge — RMB 2,400/ton early 2023, peak ~3,200, retreat to ~2,100 in 2025, mild rebound to ~2,300 in 2026 H1. Magnitude modest but materially affects TiO₂ margins (rutile is over 40% of TiO₂ cost). For sponge titanium chain however, the impact is muted — rutile-to-sponge requires two chemical conversions (to TiCl₄ then magnesium reduction), and those processing costs dominate. One ton sponge consumes ~1.2 ton TiCl₄, requiring ~1.8 ton rutile; rutile-cost share of total sponge cost ~15%.

China still imports ~500 kt high-grade rutile annually from Australia, Mozambique, Kenya, for chloride-route titanium dioxide and high-end sponge — 7% import dependence, long-term stable.

2.2　Titanium Tetrachloride: First Process Gate

Rutile to TiCl₄ uses fluidized-bed chlorination. Rutile + coke + chlorine reacts at 800-1000°C, gaseous TiCl₄ rectified to high-purity liquid form. 2025 China TiCl₄ capacity ~450 kt, concentrated at Pangang, Xiangrun, Shuangliu, Xining. Investment intensity high (RMB 120 million per 10 kt capacity), environmental requirements strict (chlorine tail gas).

Pre-2018, China TiCl₄ was largely imported from Japan Toho/Sumitomo at ~RMB 18k/ton. Xiangrun's 10-kt chloride unit came online 2019; price fell to ~8,500 by 2025, fully self-sufficient. A landmark in completing the sponge upstream.

2.3　Sponge Titanium: Magnesium Reduction Route

TiCl₄ + magnesium in reactor at ~900°C in vacuum for ~96 hours yields sponge titanium powder. China 95%+ uses magnesium reduction (Kroll process), aligned with global mainstream. Each batch produces ~10 tons sponge; impurity control is the key indicator — oxygen <0.08%, nitrogen <0.03%, iron <0.05% for aerospace grade. Top players (Xiangrun, Baoji, Pangang) hit aerospace-grade reliably; mid players still have fluctuation.

2025 sponge ~223 kt, aerospace ~60 kt (28%), industrial ~163 kt (72%). Capacity utilization ~95%. Mid industrial overcapacity signs emerged 2026 H1, some players cutting operation.

2.4　Ingot: VAR — Real Process Gate

Sponge + master alloy (Al-V-Fe etc.) pressed into electrode, vacuum-arc-remelted in VAR furnace into cylindrical ingot — real start of midstream.

VAR principle: consumable electrode arc-melted in vacuum, electromagnetic stir homogenizes liquid, solidifies into ingot. After one remelt impurities drop significantly; aerospace requires two or triple remelts. Each remelt further reduces segregation and inclusions, final impurities <0.05%. Aerospace engine ingots conventionally triple-VAR.

2025 China VAR furnace total ~80 units, ~25 with triple-remelt capability. Heavily concentrated: Baoji ~25, Western Super ~18, Western Mat ~12, Xiangrun ~8, others scattered. Top three hold ~70% of VAR — true process moat.

Western players ahead in equipment scale: VSMPO ~60 VARs + 12 EBMs + 5 PAMs + a 75,000-ton hydraulic press. ATI ~20-30 VARs, TIMET ~20-30. VAR count approaches Russia but triple-remelt yield (high-end aero-grade) still ~8 pp below VSMPO — true gap.

2.5　Five Product Lines: Bar, Plate, Tube, Wire, Forging

Five lines diverge downstream of ingot: bar, plate, tube, wire, forging.

Bar: cylindrical ingot bloomed-forged-rolled-heat-treated to bars in various grades (TC4, TA15, TC18, TC21). Engine fan/compressor disks forged from bar. Western Superconducting dominates aerospace bar, 12 kt aerospace sales 2025 (50% of national market).

Plate/strip: ingot bloomed to slab, hot- or cold-rolled to plate (0.5-30 mm), used in chemical heat exchange, desalination condensers, consumer electronics frames. Baoji + Western Mat dominate. 2025 saw 1.5-m wide plate breakthrough — broke foreign monopoly, supplied C919 fuselage.

Tube: seamless titanium tube (TA2, TA9, TA10) for chemical heat exchange, marine pipework, nuclear condensers. Western Mat + Baoji + Tiangong cover 90%+ of national. Deep-sea pressure hull tube made only by Western Mat.

Wire: 0.1-8 mm diameter, for AM (3D printing) feedstock, bone screws, medical sutures. Western Super dominant; 2025 wire export pushed back into US/EU high-end medical and AM markets.

Forging: industry apex — aerospace engine, gas turbine, rocket engine critical large forgings. AVIC Heavy Machinery + Baoji Yanliang base operates 5,500-ton mold press, capable of 1.5-m diameter titanium forgings — domestic only after the 80,000-ton press (used for Al-Ti-V).

2.6　Industry Map and Net Trade Balance

Full 2025 chain: rutile 7 Mt (Pangang lead), TiCl₄ 450 kt, sponge 223 kt, ingot 180 kt, mill product 180 kt. Net export (export 30 kt, import 10 kt). Structural import persists — high-end TC21, oversized plate, specialty grades ~5 kt/yr from VSMPO or ATI.

This structural import is the running theme: China titanium has "made it," but stable high-end supply needs to clear VAR triple-remelt yield, large forging press tonnage, wide plate yield — three gates.

2.7　Vertical Integration Trend

From 2015, vertical integration emerged.

Baoji: most complete — from ingot midstream backward into sponge (~40 kt by 2025) and TiCl₄, forward into large forging, wide plate, thin-wall tube. Integration enables hedging through sponge cycle and flexible mix in mill cycle.

Western Super: midstream focus (ingot + bar + wire), buying sponge externally, deepening downstream customer ties with AECC, COMAC, AM equipment makers. Focused integration excellent profitability in high-end niches.

Western Mat: plate + tube + composite, backward to sponge ~20 kt, forward into medical/chemical/consumer differentiation.

Xinjiang Xiangrun: upstream-focused integration (sponge + ingot + primary mill); midstream high-end yet to scale.

Four paths reflect strategic diversity; next five years will reveal each's competitive edge.

2.8　Profit Distribution by Chain Stage

Stage profitability snapshot:

Rutile: 20-25%, volatile. TiCl₄: 10-15%, mature. Sponge: 10-18%, energy-sensitive. Ingot (VAR): 15-25%, process-differentiated. Mill midstream: 10-30% by product. Forging (aero large): 20-30%, certification-barrier. Final goods (chem/med/consumer): 15-40% by downstream.

Non-obvious insight: peak profit is neither upstream (despite resource) nor downstream (despite end price) — it's midstream high-end (triple-VAR aerospace ingot + high-end bar + high-end forging). Explains why Baoji + Western Super + Western Mat sustain above-average margins, and why Xiangrun/Pangang as upstream-only see mediocre titanium-segment results.

China's next five years' profit growth concentrates at three highest-barrier midstream gates — exactly where head player capex is directed.

Chapter 3　Process Barriers: VAR and High-End Aero Forging

3.1　Why Process Yield Matters More Than Capacity

Steel industry conventional wisdom: capacity is power. Titanium industry: opposite — capacity is never scarce, process yield is.

2025 sponge utilization ~95%, industry margin still around 10%. Same year aerospace high-end bar margin held 25-30%, capacity utilization actually ~85% — capacity isn't scarce, yield is. A VAR furnace can run full bore, but whether it consistently produces parts meeting AMS 4928 (US aerospace TC4 standard) and GJB 2218A (Chinese fighter titanium forging spec) is entirely different.

Real gap of Chinese head titanium plants vs foreign: not equipment count, but process parameter固化 and quality stability under that equipment. Baoji/Western Super class first-pass yield 85-90%; mid plants 50-60%. Behind the gap: decades of process database, equipment commissioning experience, quality system maturation.

3.2　VAR Triple-Remelt: The Yield Curve

VAR core difficulty: control segregation and inclusions.

Segregation: alloying elements (Al, V, Mo) distribute unevenly due to density or activity differences. Aerospace TC4 requires local Al/V segregation <0.2%; single VAR usually misses, must double or triple remelt to homogenize. Each remelt loses ~3-5% titanium and doubles energy, but triple-remelted ingot meets engine blade impurity + segregation dual standard.

Inclusions even more insidious. HID (oxide inclusions) and LDI (TiN hard spots) are aerospace-grade ingot's two killers — potential crack origins in forging and service. VAR with vacuum + electromagnetic stir reduces them; complete elimination requires strict electrode prep, arc stability, solidification rate control. VSMPO has 60+ years of database here; Chinese leaders <20 years — the true gap.

China VAR evolution in past decade walked three steps. 2015-2018: Baoji + Western Super engineered TC4 triple-VAR, supplied ARJ21 and J-11. 2019-2022: TC18 high-strength alloy triple-VAR engineered; Western Super exclusive supply to J-20 landing gear bars — broke VSMPO high-end bar export control. 2023-: TC21 damage-tolerant alloy small-batch trial, plus BT-22 imitation TB-X variants entering engine plant qualified vendor lists. But TC21 triple-VAR yield still 65-70%, behind VSMPO equivalent (85%) by clear margin.

VAR equipment localization ~90% post-2020. Shenyang Vacuum, Tsinghua Nuclear Institute, Baoji Bridge Machinery supply mainstream specs. But largest specs (>1.2m diameter) partly imported from Germany ALD / Austria INTECO.

3.3　EBM: Ultra-High Purity Niche

Electron beam melting — electron beam in vacuum directly melts feedstock, cold-hearth flow solidification. Higher impurity removal; suited for scrap recycling and ultra-pure ingot (semiconductor targets, high-end medical).

Investment intensity ~3x VAR (RMB 150M/unit), energy 2x. 2025 China scale EBM ~5 units. Real breakthrough: 2023 Baoji engineered scrap-recycle EBM. China generates ~30 kt titanium scrap annually (aero machining swarf, retired equipment). Recycle rate jumped from ~30% to 65% post-EBM; 2025 contributed ~15 kt low-cost feedstock, materially lowering mid ingot cost curve.

International comparison: VSMPO 12 EBMs (Russian military/aero large forging feedstock), ATI 8 (Boeing 787 etc.), Toho 6 (semiconductor targets). Chinese EBM scale narrower in scope, focused on scrap rather than ultra-pure finished product.

3.4　PAM: Rare Equipment for Large Forging Feedstock

Plasma arc cold-hearth melting — plasma gun on cold hearth, suited for >1m diameter ingot and ultra-low impurity. PAM is preferred for engine large forging (fan disk, compressor disk) feedstock.

Global PAM total <20 units. China 2025 only 3 (Baoji 2, Western Super 1). VSMPO 5, US RTI 4, Osaka Titanium 2. Real PAM barrier: cold-hearth flow control + plasma-gun longevity. Chinese stable continuous run ~8,000 hours; VSMPO benchmark ~12,000. Gap is long-run stability, not equipment per se.

3.5　Large Forging: 5,500-Ton Press Engineering Breakthrough

Ingot is only feedstock; the real gate is forging.

Engine fan disk, compressor disk, combustion chamber casing — large forgings typical diameter 1-1.8 m, tens to hundreds of kg. One-piece formed (avoiding multi-heat microstructure impact) requires thousand-ton press. China built the 40,000-ton press at Yanliang in 2012 (mainly aluminum), then in 2017 the 5,500-ton titanium-specific mold press (Baoji-AVIC joint), formally breaking import dependence.

Real significance of 5,500-ton press: not tonnage itself — VSMPO has a 75,000-ton hydraulic press in Verkhnaya Salda — but it constitutes China titanium's "industrial mother machine." Since 2017 stably supplied J-20, WS-15 engine, COMAC C919/C929 large forgings. 2025 output ~2,000 tons of high-end titanium forging, ~80% of national military aerospace forging.

5,500-ton has ceiling though. 6th-gen platform requires some integral disks needing 7,000-ton or higher. China's second large titanium press (8,000-ton) planned, online 2028 — landmark for catching up VSMPO.

3.6　Last Mile: Wide Plate and Thin-Wall Tube

Two more gates: wide plate and thin-wall tube.

Wide plate (>1.5m wide): C919 lower fuselage skin requires 1.5m × 6m titanium plates. Pre-2022 China max width 1.2m; some C919 skin partly imported from US TIMET. 2024 Baoji 1.5m wide hot-roll line online; 2025 stable supply C919 — engineering breakthrough.

Thin-wall tube (wall <1mm): nuclear condenser, desalination main pipes, submarine auxiliary pipes. Western Mat in 2023 batched 0.8mm wall × 20mm OD tubes, breaking Sumitomo monopoly. Higher-end aero cooling micro-tube (<0.3mm wall) still small-batch trial 2025, ~2-3 years behind Carpenter.

3.7　Process Barrier: Database + Equipment + System Trinity

Putting all five gates together, titanium process barrier essence is: database + equipment + system trinity, accumulated over long term.

Database: parameter固化 product. VSMPO Salda accumulates 60 years of VAR data — every ingot's element ratio, arc current, solidification rate, inspection result entered into database; next-gen engineers can query historical best-match parameters for new lots. Chinese database <20 years and earlier-period digitization low — true invisible gap.

Equipment: physical carrier of database. Same model VAR with different database support can produce vastly different ingot quality. Equipment localization is necessary but not sufficient.

System: quality management and process discipline. From feedstock to finished delivery, every step requires traceability and quality gate. Mature at Chinese head players; mid plants still deficient.

China titanium process winning bet next decade: continued database + system accumulation, not further equipment import.

3.8　Process Barriers by Application

Differentiated by application:

Aero engine: highest barrier — triple VAR + 5,500-ton press + strict NDI + long-term stability. China head players cleared first three; fourth still accumulating.

Aero fuselage: next — triple VAR + wide plate cold roll + large forging + aero certification. Baoji largely cleared, but wide-plate ceiling lingers.

Military aero: equal to engine. Closed domestic market accelerates localization.

Chemical corrosion: medium — single VAR + scale + ASME. Fully self-sufficient + scale advantage.

Medical implant: medium-high — TC4 ELI + aseptic + ISO 13485 + YY/T. Head players cleared; high-end specs partly imported.

Consumer electronics: medium-low — mid TC4 + dimensional precision + surface. Full capability; Apple-grade still Japan/US-led.

Marine/deep-sea: high and unique — Ti80 + large hull one-piece forming + Navy certification. Western Mat exclusive domestic supply.

These differentiated barriers determine head player strengths by segment — Baoji strongest in fuselage + large forging, Western Super in high-end bar + wire, Western Mat in deep-sea + chemical large parts.

3.9　Process Innovation: Next Decade Directions

Next decade themes:

Digitalization + smart manufacturing: VAR real-time monitoring, large-forging strain/temperature field simulation, heat-treat adaptive control. Convert "process database" from tacit knowledge to explicit, computable, optimizable.

AM + traditional forging协同: titanium AM rapid growth past five years, but stability still trails forging. Next decade: AM for complex internal structures, forging for main load-bearing.

Green low-carbon: sponge energy + carbon intensity is environmental pressure. Next-gen low-temperature electrolytic reduction (replacing magnesium reduction) breakthroughs in lab; engineering possible within 10 years.

New grade R&D: beyond TC21/Ti60, original innovation in low-temperature, ultra-low-density, high-toughness titanium possible.

These four directions will define Chinese titanium process for the next decade.

Chapter 4　Major Players: Chinese Tiers and Overseas Benchmarks

4.1　Chinese Tier 1: Baoji + Western Super + Western Mat

Three-way split, established by 2025.

Baoji Titanium (600456), Baoji, Shaanxi, absolute leader.

2025 revenue ~RMB 8 billion (+12% YoY), net profit ~RMB 680 million (+18%), gross margin ~22%. Titanium sales ~55 kt (30% of national), aerospace titanium ~12 kt (22% of titanium business). True advantage: full-process layout — sponge, ingot, bar, plate, tube, forging six-product complete. National strategic titanium reserve base. 5,500-ton press jointly operated with AVIC Heavy. COMAC C919/C929 fuselage + landing gear + engine mount primarily supplied.

Strategic shortfall: aerospace high-end bar share lost to Western Super. J-20, WS-15 critical bars come from Western Super; Baoji serves forging + plate.

Western Superconducting (688122), Xi'an, aerospace bar niche leader.

2025 revenue ~RMB 5 billion (+15%), net profit ~RMB 750 million (+20%), gross margin ~35% — significantly above industry. Aerospace titanium bar ~65% of business, superconducting wire ~20%, high-end wire + ingot ~15%. Real moat: TC18, TC21, Ti60 engineering capability. TC18 first-pass yield 85%+, gap to VSMPO narrowed to 2 pp. TC21 yield ~70%, still climbing. Ti60 (engine compressor rear, ~600°C) entering small batch — biggest overseas gap.

Additional growth line: titanium wire. 2025 export revenue +35% YoY, reverse-pushed into GE Additive, EOS, Nidec supply chains. Unexpected "reverse export" story.

Western Materials (002149), Xi'an, plate + tube comprehensive leader.

2025 revenue ~RMB 4.2 billion (+10%), net profit ~RMB 130 million (-10%, mid plate price war drag), gross margin ~15%. Plate 40%, tube 30%, titanium composite 15%, other 15%. Real edge: process diversity — plate cold rolling, tube extrusion, Ti-steel composite, thin-wall tube all #1 domestically. Deep-sea pressure hull tube exclusive — Jiaolong, Fendouzhe deep submersibles supplied.

Strategic dilemma: mid industrial plate price war. 2025 mid plate price -15% YoY, gross margin compressed to ~10%. Pivoting to high-end medical (bone screws, implant plate), but scale takes time.

4.2　Chinese Tier 2: Xiangrun + Pangang + Jintian

Xinjiang Xiangrun (unlisted) — sponge titanium private leader. 2025 capacity 30 kt, output ~28 kt, ~13% of national. Hami base in Xinjiang exploits cheap power (RMB 0.28/kWh, ~40% below east). Integrated chloride + magnesium reduction. Core cost player driving mid sponge price down. Extending into ingot (now ~10 kt) and mill (not yet scale).

Pangang V&T (000629), Panzhihua, resource-type. 2025 revenue ~RMB 14 billion, TiO₂ + concentrate ~8B, sponge ~2B, other ~4B; net profit ~900M. Rutile output ~700 kt, sponge ~22 kt. Strategic position: resource integrator, not high-end tech race.

Jintian Titanium (831827), Beijing, private mill upstart. 2025 revenue ~RMB 1.8 billion (+30%), net profit ~RMB 150 million. Focus on mid industrial bar/plate/wire — chemical, medical, consumer electronics. Strategic path: scale mid + private efficiency. Strong cost control in mature TC4 grades, exceeding SOE peers. 2025 wire line online, targeting bone screw niche.

4.3　Chinese Tier 3: Specialists and Coordinators

Tiangong International (0826.HK), Danyang, Jiangsu — main: tool/die steel, titanium tubes secondary. 2025 tube sales ~10 kt for chemical/desalination. Important Chinese private tube player.

AVIC HiTech (600862), Beijing — main: aero composites, titanium forging coordination. Key supplier of C919 center wing box forging.

Baowu Group (unlisted, related to Baosteel 600019) — via Baosteel Specialty Steel coordinates titanium specialty steel smelting; titanium not main business.

Chengdu Advanced Metals (Chengdu) — engine Ti-Al alloy forgings, AECC coordination, highly concentrated customers.

4.4　Overseas #1: VSMPO-AVISMA Still Global #1

Russian VSMPO-AVISMA — absolute global leader. 2025 titanium output ~34 kt, revenue ~USD 1.4 billion, gross margin ~35%. Verkhnaya Salda base: ~60 VARs + 12 EBMs + 5 PAMs + 75,000-ton hydraulic press. Long supplied Boeing + Airbus 50%+ titanium demand, exclusive RTX (Pratt & Whitney) large forgings.

Post-Russia-Ukraine partial Western order loss; restored via Central Asia logistics. 2025 European/American delivery down ~20% vs 2021 peak; China/India/Middle East delivery up ~40%. Process database and system advantages remain hardest moat for Chinese to replicate in coming decade.

4.5　Overseas #2: ATI, TIMET, Carpenter, Howmet — US Four

ATI (Allegheny Technologies, NYSE: ATI), Pennsylvania, 2025 revenue ~USD 4.5 billion, high-perf alloys ~3B. Core supplier of engine titanium forgings — RTX, GE Aerospace, Rolls-Royce. Strong on aero certification ecosystem and customer stickiness.

TIMET (Titanium Metals Corp), Nevada, Precision Castparts (Berkshire) subsidiary, 2025 revenue ~USD 2.2 billion. High-end bar for engine blades.

Carpenter Technology (NYSE: CRS), Pennsylvania, FY2025 revenue ~USD 2.8 billion, titanium segment ~600M. Specialty alloys (Ti-5553, Ti-6242) differentiating vs ATI/TIMET in bulk.

Howmet Aerospace (NYSE: HWM), Pennsylvania, 2025 revenue USD 8 billion, titanium forging ~25% ($2B). Global #1 aero forging — engine blades, integral disks, landing gear. No direct China competition (closed Chinese military, COMAC supplied by Baoji + AVIC); shares Boeing/Airbus forging orders with VSMPO.

4.6　Overseas #3: Japan Three + Kazakhstan One

Toho Titanium (TSE: 5727), global sponge + powder co-leader. 2025 sponge ~28 kt, revenue ~USD 600M. Japan domestic ingot supply + Western export. Global #1 high-purity titanium powder for AM — direct rival to Western Super.

Osaka Titanium Technologies (TSE: 5726), aero sponge + ingot. 2025 sponge ~18 kt, revenue ~USD 400M. China + US combined >60% of customer base.

Kobe Steel (TSE: 5406) — titanium plate/strip. 2025 titanium revenue ~USD 300M. Auto exhaust titanium and high-end consumer electronics plate (Apple frame supply).

UKTMP (Kazakhstan) — 2025 sponge ~16 kt, revenue ~USD 280M. Major VSMPO sponge supplier.

4.7　Chinese vs Overseas: Financial Structure Comparison

Revenue: VSMPO USD 1.4B (RMB 10.5B), Howmet titanium $2B (15B), ATI high-perf $3B (~22B), Baoji ~8B, Western Super ~5B. Chinese head approaches VSMPO but trails Howmet/ATI by a tier.

Gross margin: VSMPO ~35%, ATI high-perf ~28%, Howmet ti ~30%, Baoji ~22%, Western Super ~35%. Western Super already matches VSMPO; Baoji's full-process drag holds margin lower.

R&D intensity: VSMPO ~4%, ATI ~5%, Baoji ~3.5%, Western Super ~5.5%. Western Super globally top — matches high-end engineering pace.

Capex intensity: 2025 Chinese head three ~RMB 2.5 billion combined; VSMPO ~$100M, Howmet ti ~$200M. China still in expansion cycle; overseas mature.

Capex differential means next five years Chinese capacity + grade mix will keep shifting rapidly; overseas more static. Another sign China is in window.

4.8　Real Tier Gaps

Detailed gap dimensions:

Process database thickness: VSMPO 60 years from Soviet era; ATI from ~1950s; Toho from ~1960s. Chinese Baoji effective database from ~1990s; Western Super from ~2000s; Western Mat from ~2005. The 20-30 year database gap — hardest invisible weakness.

Equipment-operation experience: triple-VAR stability depends not just on equipment but on operator experience. VSMPO veterans can read electrode-current micro-changes to adjust real-time. Chinese engineers still rely more on fixed "process card."

Quality system maturity: AS9100 + NADCAP — Chinese head accelerated in past decade; vs ATI's "full-line full-process full-staff" coverage still one tier behind.

Customer relationship depth: VSMPO-Boeing/Airbus from early 2000s, multi-decade contracts. Chinese Baoji/Western Super-COMAC from early 2010s, ~15 years of "trust thickness" still accumulating.

Four dimensions of gap mean Chinese titanium head players "catching up but unlikely to fully overtake" in 5-10 years. From another angle: gap = future growth space; closing each dimension drives share, margin, unit price up.

4.9　Tier 2/3 Differentiated Survival

Xiangrun: scale mid + cost advantage. Hami electricity moat could erode with grid policy + local competition. Next critical step: from pure cost to mid ingot + primary mill extension, avoiding lock-in at lowest value-add.

Pangang: resource + integration. Panzhihua's V-Ti magnetite deposit gives integrated rutile → TiO₂ → sponge depth. But mill business small; future growth in concentrate + TiO₂, not high-end mill.

Jintian: private efficiency + niche grade. Beijing + western dual layout gives cost control and market responsiveness in medical wire, consumer electronics frame. True moat: private mechanism customer service efficiency vs traditional SOE.

Tiangong International: global private + multi-category synergy. Danyang HQ + overseas trade network gives titanium tube + stainless + die steel coordination. Titanium scale modest, overseas reach broad.

AVIC HiTech, Chengdu Advanced Metals — aero main line + deep coordination. Customer concentration high (AVIC ecosystem), scale limited but margins stable. Long customer relationship + complete aero certification; vulnerable to customer concentration.

Dynamic Tier 2/3 — likely future capital reshuffling, M&A, category breakthroughs. Window-period feature.

4.10　Capital Structure and Governance

SOE central enterprise: Baoji (Baoji Group under SASAC). Strategic stability + capital depth + policy synergy; decision-cycle long, market response slow.

Reformed SOE: Western Super (Northwest Institute under Shaanxi SASAC, STAR Board 2019, market shareholders). Hybrid SOE-private — stability + market flexibility.

Western Mat similar to Western Super, less market-oriented.

Private: Xiangrun (founder-controlled — flexible, cost-driven, less strategic backing).

Jintian, Tiangong — various private models.

Three governance models coexist; each suits different segments. Future five years will see cross-influence and possible mixed-ownership innovations.

Chapter 5　Downstream I: Aerospace Titanium Breakdown

5.1　Aerospace Titanium Share Migration

2020 China titanium consumption aerospace share just over 5%; 2025 jumped to 22%; 2030 expected ~35% by current COMAC + military ramps. Driver: China aerospace shifting from "3rd-gen dominant" to "4th/5th-gen + commercial wide-body" two-platform mass production window.

Titanium ratio on aircraft non-linear. 3rd-gen fighter (J-10, J-11) ~10%; 4th-gen stealth (J-20) ~20%; 5th-gen carrier-based (J-35) ~25%; 6th-gen pre-research expected ~30%. Each step adds wider use in stealth skin, high-temperature, large primary structure.

Civil aircraft similarly. Boeing 737 <5%; 787 with carbon fiber composite reaches 15% (Ti-CFRP thermal expansion match); China C919 ~9.3%; C929 wide-body expected ~12%.

5.2　C919: 7 Tons per Aircraft Supply Chain

COMAC C919 — core civil titanium increment.

Application by location: Engine pylon: ~1.5 tons, Baoji + AVIC Heavy joint forging. Main landing gear strut: ~1.2 tons, Western Super bar + AVIC Heavy forging. VSMPO bar early; fully localized from 2023. Fuselage skin local: ~1 ton, Baoji 1.5m wide hot-roll. Earlier US TIMET; 2025 fully localized. Engine nacelle + pylon fittings: ~0.8 tons, Baoji + Western Super shared. Wing leading/trailing edges: ~0.6 tons. Internal load-bearing + fasteners + fuel lines: ~2 tons total.

Total per aircraft ~7 tons. Aerospace VAR triple-remelt ~80%, grades TC4 (mainstream) + TC18 (high-strength).

2025 35 aircraft delivered, order book 1,000+. Ramp: 2/month 2026, 4/month 2027, 8/month 2028, 10/month 2030. C919 alone titanium: 240 tons (2025) → 2,400 tons (2030).

Localization rate: 60% pre-2020 → 90% in 2025 → target 100% by 2027. Key nodes: 2023 wide plate localized, 2024 landing gear bar localized, 2025 pylon large forging full-process localized.

5.3　C929 Wide-Body Increment

C929 (formerly CR929; independent China project after 2022 Russian exit). Twin-aisle wide-body, 280-400 pax, 12,000-km range; rival A330neo/787. First flight 2029, first delivery 2032. Titanium ratio ~12%, higher than C919 — wide-body uses ~50% CFRP, Ti-CFRP thermal-expansion match drives mixed-structure titanium uplift.

C929 weight ~120 tons → ~14.4 tons titanium per aircraft, more than 2× C919.

Mass production 7-8 years away, but R&D phase prototype demand visible. 2025 COMAC tendered C929 prototype titanium ~200 tons, mostly Baoji + Western Super. R&D-stage unit price significantly above batch, margins ~40% — strategic high-margin orders.

5.4　Military: J-20, J-35, 6th-Gen Ramp

J-20 first flew 2011, in service 2017, ~200 deployed. Titanium 20%, ~6 tons/aircraft, in stealth skin (Ti + RAM combo) + primary frame + landing gear + engine bay skin. 2025 ~40/yr → ~240 tons.

J-35 (formerly FC-31) — 5th-gen carrier stealth. Land-based first flew 2021, carrier-based 2024, initial operational capability 2025. Titanium 25%, ~5 tons/aircraft. 2025 ~20/yr → ~100 tons.

6th-gen (designation not public, possibly J-50 class) — twin large-thrust, adaptive cycle engine, variable-cycle turbofan, ultra-fast stealth. Titanium ~30%, ~9 tons/aircraft. First flight ~2030, service ~2035. Second wave military titanium boom 2030-2040.

WS-15 engine — 4th/5th-gen power. Defined 2023, small batch 2024, full production 2025. ~600 kg titanium/unit — fan disk + compressor disk + intermediate casing three key forgings. 2025 ~80 units/yr (J-20 + J-35) → ~48 tons. Number small, unit value extreme (single fan disk ~RMB 2M).

5.5　5,500-Ton Forging: Large Integral Disks

Engine fan/compressor disks: typical Φ700-1200 mm, 50-200 kg, TC11/TC17/Ti60. Process: one-step mold-forge + uniform grain heat-treat + zero-crack UT.

5,500-ton press unique domestic mother machine. Baoji-AVIC Heavy Yanliang base 2025 large forging ~2,000 tons, ~600 disks >500 mm diameter — WS-15 + CJ-1000A R&D supplied.

8,000-ton press planned, online 2028. Breaks single-press bottleneck, enables >1.5m diameter integral disks. Key node toward VSMPO 75,000-ton press parity.

5.6　Space and Rockets

Crewed + cargo spacecraft (Shenzhou, Tianzhou) ~1 ton/each, propellant tanks + docking. 2025 ~6 flights → ~6 tons.

Rocket engines (LOX/kerosene, LOX/H₂) — high-pressure lines + valves + turbopump housings use TC4, TA15. Long March family ~0.5-1 ton/launch. 2025 ~60 launches → ~40 tons.

Commercial rockets (Landspace, iSpace, Deep Blue) ~20 launches → ~10 tons.

China Space Station Tiangong — 2025 new module ~1 ton.

Total 2025 space titanium 60 tons. <10% of military + civil aerospace, but unit price + margin (40%) sustains high-margin orders.

5.7　Aerospace Titanium Supply Chain

2025 China aerospace titanium ~30 kt: COMAC ~900 tons; military ~13 kt; space ~60 tons; other (pre-research + prototype + maintenance + buffer) ~15 kt.

Distribution: Baoji ~40% (large forging + plate skin), Western Super ~25% (high-end bar + wire), Western Mat ~15% (plate strip + tube), others (AVIC Heavy, Jintian, Xiangrun etc.) ~20%.

Two future changes: C919 ramp will lift civil share, 2030 civil ~ military ratio; Western Super may rise from 25% to 30%, squeezing Baoji bar segment.

China aerospace titanium next decade: scale × structure double-driver. Scale by C919 ramp, structure by 6th-gen + WS-15 improved + C929 wide-body. 30 kt (2025) → 60 kt (2030), 2× in a decade.

5.8　Aero Engine Titanium Special Position

Three engine parts: fan disk, compressor disk, intermediate casing — bear thrust conversion mechanics, decide engine performance + life.

Fan disk: front rotor, Φ1-1.2 m, 100-200 kg. Operating: ~3,000+ rpm + ~300°C + heavy airflow. TC4/TC11 — high fatigue + impact toughness. WS-15 fan disk: domestic TC11, Baoji-AVIC joint, ~RMB 2M each.

Compressor disk: mid section, Φ700-1000 mm, 50-150 kg. Operating: high speed + 400-500°C + high-pressure air. TC11/TC17/Ti60. WS-15 improved high-pressure compressor disk planned Ti60, mass production 2028.

Intermediate casing: stationary, Φ~1.5 m, connects fan/compressor/combustor sections. TA15.

Three parts ~70% of engine titanium; remaining 30% blades, casing, fuel lines, fasteners.

Real bottleneck: Ti60 engineering stability (decides WS-15 improved + CJ-1000A thrust ceiling) + large integral disk one-step forging tonnage (decides next-gen fan disk size).

5.9　Aerospace Localization Settlement

2025 aerospace localization ~90%. Remaining 10%: C919 early-model residual import (US TIMET high-end plate, Japan Sumitomo specialty tube) + extreme-high-end military specialty grades (VSMPO VT-22 high-strength bar small quantity). 10% will clear by ~2027.

But 90 → 100% is not linear. Last 10% is yield + stability + customer certification, not capacity. COMAC and AECC cautious about last-mile localization — aerospace material substitution touches flight safety, requires years of stable supply data before transition. Reasonable caution.

Last sprint expected 2027-2030. China will then be among few nations fully self-sufficient in aerospace titanium.

Chapter 6　Downstream II: Marine, Medical, Chemical — Three Traditional Battlegrounds

6.1　Deep-Sea Marine: Pressure Hull to Pipework

Logic differs from aerospace — not lightweight but seawater corrosion + strength + non-magnetism. Application: submarine pressure hull + deep-submersible crew sphere.

2025 China marine titanium ~8 kt. Scale below aerospace but customers highly concentrated (Navy + CSSC + CAS Institute of Deep-Sea Science), orders stable, margins 25%+.

Two flagship projects: Jiaolong (2012 dove 7,062 m) — TC4 sphere ID 2.1 m, wall ~78 mm, made by VSMPO. Fendouzhe (2020 dove 10,909 m) — domestic Ti80 sphere ID ~2 m, wall ~90 mm, by Western Mat exclusive. Landmark transition from imported to domestic deep-sea titanium.

Submarine titanium more sensitive. Pre-2000 conventional submarines high-strength steel hulls; ~2000 titanium partial use; new-gen nuclear submarines higher titanium ratio — sail, rudder, sonar fairing. Specific data classified; industry estimate ~1,500 tons titanium per new nuclear sub. 2025 navy added three nuclear subs → ~4,500 tons — largest single source of Chinese marine titanium.

Surface ships: 052D, 055 destroyer seawater cooling main pipe uses TA10 ~200 tons/ship. 2025 two 055 commissioned → ~400 tons.

6.2　Medical Titanium: Two Tracks

Orthopedic implants four subcategories:

Hip stem: TC4 (or TC20 vanadium-free), ~200 g/each. Knee tibial: TC4 forging ~150 g/each. Intervertebral cage: titanium-PEEK or pure titanium, ~20 g/each. Bone screws/plates: 20-200 g/surgery.

2025 China orthopedic implants market ~RMB 35B; metal (mostly titanium) ~18B. Implant titanium ~800 tons: hip+knee ~300, cage ~50, screws/plates ~450.

Supply two layers: hip/knee long imported (Stryker, Zimmer Biomet, J&J DePuy); post-2021 national volume procurement boosted domestic (Chunli, AK Medical, Weigao) — 2025 hip/knee localization ~60%. Implant-grade TC4 bar mostly Western Super + Baoji; some highest-end specs imported (US ATI, Germany Otto Fuchs).

Bone screws/plates: localization 90%+, Chunli, AK Medical, Weigao, Dabo etc.; wire feedstock from Western Super, Jintian, Baoji.

Cardiovascular implants — small but high unit. Coronary stents early titanium, displaced by CoCr and degradable; some remain (drug-eluting metal scaffolds). Heart valve frames use titanium or NiTi shape-memory. 2025 ~20 tons, extreme margins.

Dental implants — scale niche growth. 2025 China ~3M implants × 2 g = 6 tons. Localization ~50% — Weigao, Wuhan Dentium catching Swiss Straumann, Korean Osstem.

6.3　Chemical Corrosion: Largest Traditional Downstream

Largest traditional: 2025 ~55 kt, 35% of total titanium consumption.

Chlor-alkali electrolyzer titanium anode coating + Ru — per 10 kt caustic capacity ~200 kg titanium. 2025 caustic capacity ~45 Mt → ~9 kt stock, ~1.2 kt new demand.

PTA plants — reactor/tower/pipe extensive titanium. 1-Mt PTA plant ~500 tons titanium. 2025 new PTA ~4 Mt → ~2 kt.

Desalination — multi-effect flash evaporator + RO high-pressure pump housing. 2025 new desalination ~1 Mt/day → ~1.5 kt.

Nuclear condenser — major tube application. 1-GW unit condenser ~200 tons titanium tube. 2025 three new units → ~600 tons.

Power heat exchange (coal-fired condenser, metallurgy coolers): ~1.5 kt.

General chemical reactor/tower/valve/fitting: ~25 kt.

TiO₂ industry equipment self-use: ~2 kt.

Total ~55 kt — equal aerospace, but unit price far below (chemical TA2 plate ~60k/ton vs aerospace TC4 bar ~120k), margins 10-15% vs 25-30%.

Core suppliers: Baoji + Western Mat + Xiangrun + Tiangong — combined 70%+ share. Scale + cost competition; technical barrier modest.

6.4　Consumer Electronics: Titanium Frame Explosion

September 2023 Apple iPhone 15 Pro introduced titanium frame — opened new growth curve.

15 Pro + Pro Max ~30 g titanium/unit (TC4 frame, replacing stainless). 2023 H2-2024 ~90M Pro units → ~2,700 tons. Equivalent to entire China medical titanium consumption — directly accelerated global consumer electronics titanium.

September 2024 iPhone 16 Pro continued; September 2025 iPhone 17 Pro expanded use (rumored titanium back panel). Same period Android camp followed — Huawei, Xiaomi, OPPO in 2024-2025 high-end flagship titanium frames.

2025 global consumer electronics titanium ~5 kt: Apple ~3.5 kt, Android ~1.5 kt. Chinese Android frames mostly Baoji, Jintian, Xiangrun. Apple frames mostly Japan Kobe + US TIMET (via Luxshare, Foxconn).

Consumer electronics titanium: volume + medium unit price (~RMB 80k/ton) + fast cycle (matching product cycles) + ~20% margin. Strong growth space 2025-2028; 2028 global consumer electronics titanium expected over 10 kt, ~5% of China titanium consumption.

Apple's introduction also reshapes consumer perception of titanium as a premium material — brand premium spreading to watches, glasses, laptops.

6.5　Sports and Premium

Sports historically mid-grade titanium.

Golf club heads TC4 — global ~800 tons/yr, China <100 tons. Bicycle frames TA9 — China high-end 30k frames/yr → ~120 tons. Eyewear, water bottles, cutlery — combined ~500 tons.

High unit price, good margin, small scale — not main player strategic focus.

6.6　Six Downstreams Total

Combined 2025 China titanium consumption: chemical ~35% (55 kt), aerospace ~22% (30 kt), medical ~1.5% (1 kt implant + medical instrument), consumer electronics ~3% (1.5 kt China domestic), marine ~5% (8 kt), other general industrial ~30% (48 kt).

Next five years' structural shift:

Aerospace 22% → 35% (C919 ramp + 6th-gen). Medical 1.5% → 2% (dental scale + hip/knee deepening localization). Consumer electronics 3% → 5% (Apple + Android全跟). Chemical absolute steady; share 35% → ~30% (chemical new capacity slows + partial mid-grade titanium → stainless composite). Marine ~5% stable.

Essence: high-margin downstreams (aerospace + medical + consumer electronics) combined 30% → 50%. Industry average margin 18% → 25%, profit pool meaningfully expands.

6.7　Multi-Specification Demand Challenge

Six downstreams = highly diverse specs.

Aerospace: triple VAR + aero cert + TC4/TC18/TC21/Ti60/TA15 — small batch high value. Chemical: single/double VAR + ASME + TA1/TA2/TA10 — bulk low price. Medical: TC4 ELI + ISO 13485 + YY/T — small batch high price. Consumer electronics: mid TC4 + dimensional precision + surface — bulk mid price. Deep-sea: Ti80 + military cert — ultra-small batch ultra-high price. General industrial: TA1/TA2 — bulk low price.

Six-spec coexistence forces lines to switch flexibly. Baoji/Western Mat-class achieve via multi-line; Tier 2/3 focus 1-2 specs. Spec diversity is hidden constraint on chain efficiency.

6.8　Potential New Downstream Scenarios

Beyond six core, several future spaces:

Low-altitude economy. Drones, eVTOL, urban air mobility — lightweight + corrosion-resistant demand; titanium possible high-end eVTOL primary material. Industrialization from 2027; ~1 kt/yr added demand possible.

Commercial space. Chinese rockets (Landspace, iSpace, Deep Blue) ramp 2026-2030; valves, propellant tanks demand titanium uplift.

Controlled nuclear fusion. CFETR + magnetic confinement projects: vacuum chamber, magnet supports demand titanium. 2050+ industrialization, but mid-research already visible.

Green hydrogen. Electrolyzer + storage + pipeline corrosion + pressure resistance — titanium critical.

These add maybe ~10 kt by 2030 — small absolute, high unit and margin, strategic.

6.9　Localization Deepening Across Downstreams

Chemical: ~100% localized; minor specialty internals imported. Aerospace: 60% (2020) → 90% (2025); 2027-2030 clear. Medical: stratified — bone screws/plates 90%+; hip/knee ~60% (volume procurement push); cardiovascular high-end 30-40%. 2030 medical >70%. Consumer electronics: Android frame ~85% domestic; Apple frame ~15%. Hard to flip short-term. Marine deep-sea: 2023 full localization (Ti80 sphere milestone). General industrial: long full-localized.

Layered localization story winding down — remaining imports: medical high-end, Apple, military extreme high-end. Last-mile sprint next five years.

Chapter 7　Industry Belt and Identification: Mid-Stream Titanium Plant Map

7.1　Geographic Clusters

Four clusters over two decades:

#1 Shaanxi Baoji-Xi'an — undisputed core. Baoji Northwest Institute of Non-Ferrous (Western Super/Western Mat parent) + Baoji Titanium parent — most complete Chinese titanium chain. Today Baoji + Xi'an gathers Baoji Titanium, Western Super, Western Mat, AVIC Heavy Yanliang, Xi'an Aero Engine — 75% of national aerospace titanium output. National Titanium Industry Base — only national strategic reserve. 2025 park ~120 titanium-related companies (60 mid-stream plants), output ~RMB 32B, ~40% of national titanium output value. Vertical depth complete from sponge to final forging — rare globally, only Pennsylvania US, Salda Russia, Osaka Japan comparable.

#2 Panzhihua-Chengdu Sichuan. Panxi rift V-Ti magnetite, since 1970s. Today Panzhihua: ~60% of national rutile, ~15% of sponge. Chengdu: Aviation Industry Chengdu (J-20 assembly), Chengdu Advanced Metals — downstream user. Pangang V&T, Shuangliu Titanium, Lomon — core. Resource-type cluster vs Baoji's processing cluster — clear specialization (Panzhihua has rutile but far from aerospace assembly; Baoji lacks resource but close to user — complementary, not competitive).

#3 Hami-Urumqi Xinjiang. Decade biggest new sponge source. Xiangrun, Xinjiang Zhonghe, Xinjiang Nonferrous — over 60 kt combined sponge capacity. Cheap power (~RMB 0.28/kWh, ~40% below east) — mid sponge cost sink. Mid-stream not yet scaled. Rising for structural cost advantages: cheap power + wide land + fast permit + local government welcoming. Translated cost: per-ton sponge ~RMB 6,000 less energy cost, ~RMB 8,000 less unit production cost vs east. Fundamental impact on mid industrial sponge dynamics.

#4 Qinghai Xining + Jiangsu Danyang — outliers. Qinghai Xining Tibetan-plateau sodium-magnesium salt + hydropower — some sponge/ingot, scale below Xinjiang. Jiangsu Danyang Tiangong International private tube/wire niche leader — Yangtze River Delta private cluster, chemical/medical. Danyang's character vs Baoji: private-capital mid-grade specialization (smaller plants but specialized) vs SOE full-process cluster.

7.2　Mid-Stream Plant Identification Difficulty

Two-fold structure: head highly concentrated + mid/tail highly fragmented.

Head concentration: top three (Baoji, Western Super, Western Mat) ~65% of ingot + aerospace mill output. Public, visible, well-studied.

Mid/tail fragmentation: ~200 mill processors total, mostly 500-3,000 tons/yr scale, scattered across Baoji periphery, Panzhihua, Xinjiang, Qinghai, Jiangsu. Most focus 1-2 niche specs (specific plate spec, bar diameter, tube process); diverse customers, modest scale but strong process character. These 200 plants scattered across various "non-ferrous metals," "new material tech," "specialty alloy" registrations — extremely hard to identify from outside.

This "head clear + tail fragmented" structure creates a direct industry problem: for upstream equipment suppliers, downstream titanium users, cross-border buyers — finding the right process-match among 200 mid-stream Chinese titanium plants is extremely difficult.

Difficulty has three layers:

#1 Process labels not public. Core process capability (VAR furnace count, max forging tonnage, plate width, min tube wall) rarely public; only head firms partly disclose in annual reports. 200 mid plants' process cards nearly invisible. Cross-border buyers need months of field visits to learn — inefficient.

#2 Certification scattered. Aerospace (GJB 9001, AS9100, CMC, customer-specific), medical (YY/T 0017, ISO 13485), chemical (ASME B&PV, API) — each plant has 1-2 cert types, with status update lag. A plant cleared AS9100 in 2023, added ISO 13485 in 2025 — these changes not reflected in business-registry platforms or simple search.

#3 Real vs trader confusion. Real factories vs trading "middlemen" coexist. Trading firms named "tech" or "non-ferrous metals" — formally registered but only resell. Downstream may waste months on a non-producer.

7.3　Identification Capability as Industry Infrastructure

This is the core problem industry-Internet platforms solve in new-materials mid-segments. Tianxia Gongchang as a B2B platform — core capability: from ~4.8 million active factories nationwide, filter and locate by industry, region, product category, process keywords. Unlike QiChaCha, TianYanCha (business-registry aggregation), this identification framework filters "real producing factories" with structured tags — product category, capacity, location, process keywords.

For mid-stream titanium specifically, identification capability has three layers:

Layer 1: among 200 mid-stream titanium plants, filter by process keywords — VAR remelting, forging, titanium bar, plate, tube, wire, forging — not stopping at vague "titanium alloy co., ltd."

Layer 2: by geographic cluster (Shaanxi Baoji, Sichuan Panzhihua, Xinjiang Hami, Jiangsu Danyang, Qinghai Xining) — locate within specific industry belts.

Layer 3: by spec keyword (TC4 bar, TC18 alloy, wide plate, thin-wall tube, medical wire, deep-sea hull) — match application scenario.

This capability matters for three user types:

#1 Upstream equipment suppliers. VAR makers, forge press makers, titanium powder atomization equipment — need to identify which factories expanding, upgrading, in equipment-update window.

#2 Downstream titanium users. Chemical EPC, medical OEM, consumer electronics CM — need mid-grade match by process + spec, not only head listed companies.

#3 Cross-border buyers. Overseas customers (especially European + Middle East shifting from VSMPO post-Russia-Ukraine) need fast Chinese exportable-titanium plant locating — registry platforms inadequate.

Structured identification on real factory database is necessary industry infrastructure — irreplaceable by business-registry platforms or simple search.

7.4　Six Micro-Clusters

Baoji-Xi'an core unpacks to six micro-clusters:

Baoji Weibin High-Tech Zone: core park — Baoji Titanium, Western Mat production base; ingot + plate + forging; ~40 mid-stream plants. Main hub.

Baoji Jintai District: private mid-stream concentration; bar/wire/tube niches; ~30 SME plants. Backbone of mid-grade industrial.

Xi'an Economic-Tech Zone: Western Super main plant; aerospace bar + wire; ~10 high-end plants. Core military titanium production.

Xi'an Yanliang Aviation Park: AVIC Heavy forging base + 5,500-ton press — only national large-forging cluster; ~5 plants. Mother machine location.

Baoji Chencang + surrounding counties: blank + semi-finished cluster; ~20 supply plants. Initial processing.

Chengdu Xindu: J-20 surrounding aero forging cluster; ~10 plants. Fighter forging core.

Total: Shaanxi + Chengdu ~120 identifiable mid-stream plants — 60%+ of national. Remainder scattered Panzhihua, Xinjiang, Qinghai, Danyang, Guangdong, Henan. "Shaanxi core + national scatter" — defines next five years' integration and upgrade with Shaanxi as absolute center.

7.5　Belt Evolution Direction

Future five-year evolution:

Baoji continues to consolidate core. Policy bonus + chain depth + database accumulation — Baoji remains absolute core for next decade. 2025 ~45% → 2030 ~50% of national mill output.

Xinjiang extends from mid sponge to mid ingot. Xiangrun extending ingot + primary mill. Sponge supplier → mid integrated base.

Panzhihua remains upstream resource — rutile + TiO₂. Mid-stream stays modest.

Danyang + Shenzhen — Yangtze + Pearl delta clusters — consumer electronics + medical mid demand. Modest scale, decent margin.

Mid-stream specialization + certification deepening — survival key for Tier 2/3. Scale + process specialty + customer lock-in — all three needed (or any two).

7.6　Policy and Infrastructure Behind Baoji

Baoji's core position rests on decades of policy and infrastructure.

Policy three layers:

National: Baoji titanium industry base — 2012 NDRC national new-material demonstration. Central subsidy + priority project approval. Over RMB 3 billion combined central funds for infrastructure, R&D subsidy, productization awards.

Province: Shaanxi titanium = strategic emerging industry core. >RMB 2 billion provincial special funding. SASAC via Northwest Institute backing Western Super, Western Mat.

City: Baoji municipal land + tax + talent. Senior engineer per-person settlement subsidy up to RMB 500,000; national-level talent up to RMB 3M startup R&D grant.

Infrastructure: >10 km² park + scrap recycling center + alloy testing labs + industry training base.

Policy + infrastructure dual support — fundamental to Baoji's long-term core status. Next five years if Hami/Panzhihua want similar belt, need similar investment scale.

Chapter 8　Import Substitution: TC4 to TC21 to Wide-Plate Large-Forging Breakthrough

8.1　Three Phases over 30 Years

1990-2010: basic grade localization. TA1, TA2 commercially pure titanium + TC4 (Ti-6Al-4V) — chemical corrosion + mid industrial grade fully localized. 1995 Baoji TC4 bar engineered, 2000 aerospace TC4 forging breakthrough (J-10, J-11 load-bearing), 2005 grade-1 sponge + grade-1 ingot batch export. By 2010 basic grades fully autonomous, but high-end (triple-VAR yield, large forging tonnage, high-end grades) still imported.

2010-2020: mid-to-high grade attack. TC18 (Ti-5Al-5Mo-5V-1Cr-1Fe, high-strength load-bearing) + TA15 (Ti-6Al-2Zr-1Mo-1V, engine casing) + 5,500-ton press engineering. 2012 5,500-ton press online; 2017 certified and ramped to mass producing WS-15 fan disk. Western Super broke TC18 triple-VAR — 2019 fully replaced VSMPO at J-20 landing gear. Landmark high-end grade jump in military.

2020-: highest grade engineering. TC21 (Ti-6Al-2Sn-2Zr-3Mo-1Cr-2Nb, damage-tolerant) + Ti60 (high-temperature) + Ti80 (deep-sea). 2023 Western Super TC21 small batch; 2024 Baoji 1.5m wide plate batch supply C919; 2025 Western Mat deep-sea Ti80 sphere stable supply (Fendouzhe equivalent). Point breakthrough largely complete; engineering stable supply ramping.

8.2　TC4: Global + China Main Battlefield

TC4 most widely used worldwide — aerospace, medical, chemical, consumer electronics. Global ~60% of titanium consumption. Mainframe of titanium.

China TC4 fully mature. All key sub-grades (aerospace, medical, chemical, consumer electronics) fully localized. 2025 China TC4 production ~100 kt — ~55% of national titanium output.

True TC4 competition is process differentiation in sub-grades. Aerospace TC4 (triple-VAR + forge anneal + strict NDI) vs chemical TC4 (single-VAR + general anneal) — price 2× spread, margin 3× spread. Chinese head (Baoji + Western Super) aerospace TC4 yield + stability ~VSMPO-class, but cost control ~10% behind Japanese (Toho + Osaka).

Derivatives: TA10 (Ti-0.3Mo-0.8Ni, chemical corrosion) — 2020 fully localized; TC11 (Ti-6Al-3.5Mo-1.5Zr, high-T engine blade) — 2018 certified and stable supply; TC4 ELI (ultra-low interstitial) implant — 2017 localized.

8.3　TC18: J-20 Landing Gear Localization Milestone

TC18 most iconic Chinese localization story.

Background: J-20 landing gear carrier-impact load needs >1,400 MPa tensile strength; TC4 (900-1,100 MPa) insufficient. TC18 = Chinese imitation of Russian VT22 — more Mo, V, Cr, Fe — breaks 1,200 MPa tensile while keeping plasticity and fatigue.

But TC18 process much harder than TC4: element ratio sensitive, VAR segregation high-risk, forging window narrow, heat-treat strict. Early J-20 landing gear used VSMPO VT22 imported bar. Western Super 2012 launched TC18 attack; 2017 engineering trial; 2019 AECC certified; 2020 fully replaced VSMPO — J-20 landing gear fully localized.

2025 Western Super TC18 sales ~1,800 tons, ~40% gross margin — core high-end profit pool. First-pass yield 60% (2017) → 85% (2025); gap to VSMPO narrowed to <2 pp.

8.4　TC21: Last Gate of Damage-Tolerant Alloy

TC21 hardest localization gate.

Damage-tolerant: low crack-growth rate + high fracture toughness. Used in wing main spar, fuselage main frame, landing gear. Process much harder than TC18: six alloying elements (Al, Sn, Zr, Mo, Cr, Nb); VAR segregation extreme; heat-treat window narrower than TC18; forging strain strict.

R&D started in 2010s — Beijing Aviation Materials Institute + Western Super. 2023 Western Super TC21 bar small batch; 2024 partial military platform low-volume supply; 2025 engineering ramping with yield ~70%, gap to VSMPO equivalent (VT-22I improved) ~1.5 pp.

Full engineering expected 2027-2028. Then China military aerospace fully localized at all mainstream grades.

8.5　Ti60: New High-Temperature Alloy

Ti60 = Chinese original high-temperature titanium, 600°C operating ceiling. For engine compressor rear + turbine front mid-T sections. Counterpart abroad: IMI-834, Ti-1100. Higher Al (6%), with erbium, silicon micro-additions.

Difficulty: high-T stability. >600°C → "titanium fire" risk + creep + microstructure evolution. Ti60 via special alloy design + heat-treat for stable long-term service. Critical for WS-15 improved compressor rear.

2025 Ti60 in R&D end / small batch. Western Super + BAMI samples engineered; stable batch supply expected 2027. Ti60 critical for WS-15 improved (sometimes called WS-15B) + CJ-1000A (C919 domestic replacement). Engineering breakthrough is core node for next 2-3 years' aero engine localization.

8.6　Wide Plate and Large Forging

1.5-m wide hot-roll plate engineering 2024. C919 lower fuselage skin requires 1.5m × 6m titanium plate. Pre-2022 max width 1.2m, imported TIMET + Kobe partial. 2024 Baoji 1.5m line online; 2025 stable C919 supply — wide plate fully localized.

Larger forging (Φ>1.5m integral disk) still needs new 8,000-ton press. Planned 2028 online.

Thin-wall tube 2023 breakthrough. Western Mat 0.8mm wall × 20mm OD batch — broke Sumitomo monopoly. Higher-end aero cooling micro-tube (<0.3mm) still small-batch trial in 2025, ~2-3 years behind Carpenter.

8.7　Real Last Gate: Stability, Not Grade Itself

Putting achievements + gaps together:

Chinese localization shifted from "can't make" to "made but not stable."

TC18, TC21, Ti60 — all engineered at lab or small-batch level. Gap is in engineering stable batch supply — first-pass yield, batch-consistency, long-term stability — still ~1 tier behind VSMPO and ATI.

Essence: process database + quality system long-term accumulation, not equipment or formula.

Next five years' core mission: not new grade R&D, but stable batch supply of broken-through grades — yield 70% → 85%, batch consistency from fluctuating → stable. Long-term engineering battle, not short-term breakthrough battle.

8.8　Localization Economics

Each high-end grade localized has three-part value:

Direct import substitution. Pre-2020 ~1.5 kt/yr TC18 from VSMPO at ~RMB 300k/ton = ~RMB 450M/yr. Post-localization fully captured by Western Super.

New market creation. Lower price + supply stability → broader use. 2025 China TC18 ~1.8 kt — ~20% above 2020 import peak, reflecting localization-driven demand expansion.

Up/downstream synergy. TC18 localized → J-20 landing gear localized → Shenyang/Chengdu assembly efficiency + fighter delivery pace → indirect pull on engine, avionics. Far exceeds direct dollar value of imports replaced.

Per high-end grade fully engineered, chain-synergy value > RMB 10 billion. Why Chinese titanium continues tens-of-billions capex for localization — return comes from ecosystem, not single grade.

8.9　Beyond Substitution: Original Grades

Substitution is past 30 years' core narrative; next decade may see Chinese original grades.

Ti60 = Chinese original (counterpart to IMI-834/Ti-1100 but different formula + process). Ti80 = Chinese original deep-sea (no exact overseas counterpart). Both finished engineered samples or small-batch by 2025.

Original grade value: not substitution, but new application scenarios. Ti80 enabled Fendouzhe 10,909m dive — no overseas grade supports this scenario. Ti60 supports WS-15 improved engine thrust ceiling breakthrough.

Next decade China titanium may produce next-gen original grades for commercial space, fusion, low-altitude — signature of transition from "big industry" to "strong industry."

Chapter 9　Capacity Expansion: Baoji + Xinjiang + Western Super Three Lines

9.1　Baoji Capacity Jump

Shaanxi Baoji = absolute core; most dense expansion past decade.

Baoji Group main base completed third expansion 2020-2025: sponge from ~28 kt to ~40 kt; ingot from ~40 kt to ~60 kt; mill output ~40 kt to ~55 kt — comprehensive ~50% expansion. Driver: C919 ramp + military (J-20, WS-15, J-35) dense orders.

2026 fourth round starting: 2028 sponge 55 kt, ingot 80 kt, mill 80 kt. Focus: 8,000-ton press build (online 2028); 1.8m wide cold-roll plate line (C929 wide-body fuselage); 3 new triple-VAR units (aerospace ingot capacity).

National strategic reserve base — central NDRC special support — capex intensity above industry average. 2025 Baoji capex ~RMB 800M; 2026-2028 combined ~RMB 2.5B — largest historic investment cycle.

Western Mat Baoji base 2024 expansion: sponge 10 → 20 kt; plate/strip 20 → 30 kt. For chemical + desalination mid industrial.

9.2　Xinjiang Base: New National Sponge Map

If Baoji is core, Xinjiang is past decade's biggest new-capacity geography.

Xinjiang Xiangrun Hami base 2022-2025 two phases. Phase 1 (2022): 20 kt sponge — Hami cheap-power zone (~RMB 0.28/kWh), self-supply power + reduction. Made Xiangrun #1 in Xinjiang. Phase 2 (2024): +10 kt sponge + 10 kt ingot. Combined: sponge 30 kt, ingot 10 kt → national #3 (after Baoji + Pangang).

Phase 3 plan to 2027: 50 kt sponge + 30 kt mill (bar + plate). If completed, Xinjiang becomes mid-stream cluster, not just sponge supplier.

Other Xinjiang sponge: Xinjiang Zhonghe (Shenhua subsidiary), Xinjiang Non-ferrous — combined ~20 kt by 2025 — Xiangrun's competitive landscape. Xinjiang total sponge 2025 ~50 kt — ~22% of national.

9.3　Western Super Expansion: Bar + Wire Two Lines

Aerospace bar niche leader. 2023-2026 two targeted expansions.

#1 (2023): Xi'an base aero bar — capacity 7 → 12 kt; yield 80 → 85%. J-20, WS-15, C919 mainline.

#2 (2025 launch): wire line. Capacity 500 → 1,500 tons. Target US/EU high-end AM (3D printing). Reverse export. 2025 wire export revenue +35% YoY — GE Additive, EOS, Nidec.

Next plan 2027: TC21 + Ti60 high-end capex. TC21 bar from small-batch 200 tons → 1,000 tons; Ti60 from 0 → 300 tons. Most structurally significant expansion for next five years' Chinese military aerospace titanium.

9.4　Total Capacity Trajectory

Baoji + Xinjiang + Xi'an axis sum:

Sponge: 16 kt (2020) → 23 kt (2025) → 32 kt (2030) — 10-year double. Ingot: 12 kt → 20 kt → 30 kt. Mill: 12 kt → 19 kt → 30 kt.

Chinese capacity expansion faster than global average — global sponge +30% over decade, China +100%. China global sponge share 60% (2020) → 80% (2030).

But uneven. Mid sponge expansion slowing — 2026 some mid players cutting operation rates; high-end aerospace expansion accelerating — Baoji + Western Super high-end ingot + bar capacity 2026-2028 dense ramp.

Essence: from scale expansion to grade-upgrade growth. Real next-five-year看点: not sponge capacity itself, but VAR triple-remelt yield, 5,500-ton press output cadence, TC21/Ti60 engineering stability.

9.5　Cross-Border Capacity Cooperation

Underdiscussed: Chinese titanium overseas capacity partnerships.

Russia VSMPO post-Russia-Ukraine seeks new outlets. Baoji-VSMPO 2024 signed long-term sponge + ingot raw material procurement (partial high-end sponge substitution) — landmark China-Russia upstream cooperation. Downstream products limited by post-conflict EU/US secondary-sanction shadow.

Kazakhstan UKTMP 2023 supplied Xiangrun via raw material — some Kazakh sponge processed and resold domestically.

Africa + Central Asia rutile resources (Mozambique, Kenya, Tajikistan) drawing Chinese strategic-reserve interest. But infrastructure + political constraints limit short-term impact.

Overall: domestic Baoji + Xinjiang + Xi'an axis remains absolute core; overseas cooperation is raw material supplement + strategic reserve only.

9.6　Capex Structure of Head Players

Baoji 2026-2028 ~RMB 2.5B capex breakdown: ~15% 8,000-ton press + ancillary; ~30% sponge + ingot expansion; ~25% 1.8m wide cold-roll; ~10% new triple-VAR; ~15% other + environmental. Strategy: large forging + wide plate dual focus.

Western Super 2025-2027 ~RMB 1.2B: ~40% TC21 + Ti60; ~25% wire; ~15% AM titanium powder; ~10% superconducting wire synergy; ~10% other. High-end bar + wire dual focus.

Western Mat 2025-2027 ~RMB 600M: ~30% thin-wall tube; ~25% wide plate upgrade; ~20% composite new line; ~15% medical implant plate; ~10% other.

Xiangrun 2026-2028 ~RMB 1B — all in sponge + ingot + primary mill integrated expansion.

Combined head capex 2026-2028 ~RMB 5.3B — most dense decade of investment. Defines China titanium's 2030 competitiveness.

9.7　Expansion Risks and Hedges

Dense expansion = dense risk.

#1 Overcapacity. If military pace slows + C919 ramp delays, 2028 new high-end capacity may temporarily overshoot; high-grade titanium price soft. Hedge: phased release + export + strategic stockpile.

#2 Process ramp shortfall. New lines need 1-2 years yield ramp. Unexpected issues (VAR commissioning failure, large-forging UT anomaly) may slow release. Hedge: phased validation + old-line retention + customer expectation management.

#3 Capex intensity → financial pressure. Baoji RMB 2.5B → debt-asset ratio 35% (2025) → 45% (2028). Industry downturn would pressure. Hedge: capex pace + cash flow + strategic financing.

All phasic, not structural — don't change direction, but could pressure some years' margin.

Chapter 10　Price Cycle: 2023-2025 Sponge Bottom

10.1　Three-Year Curve

Early 2023 sponge ~RMB 52k/ton — extending 2022 Russia-Ukraine.

Q2 2023 sponge breaks 60k; Q3 breaks 70k; October peak 75k. Below 2008 financial crisis pre-peak (90k) by 15%, but well above 2018-2021 equilibrium (50k).

Same period grade-1 ingot from ~65k → peak 80k; aerospace TC4 bar 100k → 150k. Chain-wide rally.

Q1 2024 retreat begins. Causes: VSMPO recovery via Central Asia; China new capacity (Xiangrun, Shuangliu, Qinghai) coming online — 2024 sponge capacity 15 kt (2022) → 20 kt; supply curve right-shift; 2023 peak triggered downstream destock — H1 2024 destocking.

Q2 2024 sponge → 50k; Q3 → 45k; Q4 brief touches 42k — mid sponge marginal cost. Mid capacity "invisible shakeout." Some high-cost SMEs cut operation. Some sponge + ingot projects delayed.

2025 full-year sponge ~48k, mild rebound but limited upside. Grade-1 ingot ~55k. Aerospace TC4 bar ~120k — ~30% below 2023 peak but 20% above 2018-2021. Aerospace structural demand support.

2026 H1 sponge ~52k, +10% YoY. Different logic: not supply shock but aerospace structural demand. Mid still under pressure; mid-high tightening. Grade-1 ingot vs aerospace TC4 bar spread widening to ~60k — historic second-high. Midstream processing margin amplified.

10.2　High-End Independent Curve

Aerospace TC4 bar 2023 peak ~150k → 2024 ~130k → 2025 ~120k → 2026 H1 ~125k. ~20% range — much less than sponge ~50%.

TC18 even more striking. Pre-2022 imported VSMPO at ~300k. Western Super localized → 2023 ~280k → 2024 ~260k → 2025 ~250k → 2026 mild rebound. Only ~10% range, sustained 40%+ margin — Western Super core profit pool.

High-grade stability reflects two features: low price sensitivity downstream (critical material is small share of plane cost) + supply concentration (TC18 only Western Super stably). Decouples from mid sponge cycle.

10.3　Price Cycle Essence

Four curves interlaced:

Cost curve continuously down — sponge process maturity + equipment localization → unit投资强度 from RMB 1.5B / 10 kt (2015) → 800M / 10 kt (2025). Long-term price center shift down.

Demand curve high-speed up — aerospace titanium share structural lift. C919 + military 4/5-gen + 6-gen R&D + Apple consumer electronics — four growth curves stacked → high-end titanium demand annual growth 20%+ vs industrial 5%.

Supply curve cyclically disturbed — Russia-Ukraine + Chinese new capacity + overseas recovery. These three define 2022-2026 short-cycle volatility.

High-end independent curve — supply concentration + price-insensitive demand → TC18/TC21/Ti60 walk own curve.

10.4　2026-2030 Price Center Outlook

Sponge: 48-55k range; equilibrium ~50k. Grade-1 ingot: 55-65k; equilibrium ~60k. Aerospace TC4 bar: 120-150k; equilibrium ~130k. TC18: 220-280k; equilibrium ~250k. TC21 (small batch): 400-600k; equilibrium 2030 ~400k.

Average shift up ~10-15% vs 2020-2022 lows — reflects structural aerospace support.

10.5　Three External Variables

Military order pace. National defense budget + military annual rhythm affects short-term titanium demand. Long direction up but year-to-year可能波动.

VSMPO recovery pace. Full European/American restoration could pressure Chinese export — middle + partial high-end industrial titanium exports may flow back to Russia.

COMAC C919/C929 ramp pace. Faster ramp (2030 12/month) → +3 kt titanium demand vs base. Slower ramp → demand gap.

Significant range volatility expected; long direction (mid up + high-grade stable + mid overcapacity) clear.

10.6　Raw Material to Mill Cost Transmission

Rutile concentrate 2023-2025: 2,400 → 3,200 → 2,100. ~35% magnitude. TiO₂ margin material impact, but sponge limited (rutile only ~15% of sponge cost).

TiCl₄ 2023-2025: 15k → 18k → 8,500 — ~50% magnitude. Domestic自给后稳定下降, persistent downward pressure on sponge cost.

Magnesium 2023-2025: 22k → 26k → 20k. ~1.2 ton magnesium / ton sponge — ~18% of total cost. Significant.

Power: western (Xinjiang, Qinghai) stable ~0.28/kWh; east ~0.50. Sponge electricity ~22,000 kWh/ton → western ~RMB 6,200/ton power cost — ~15%.

Per ton sponge cost structure: rutile ~1,800 (7%) + TiCl₄ intermediate ~4,000 (16%) + magnesium ~4,800 (19%) + power ~6,200 (24%) + other (labor, depreciation, consumables) ~8,500 (34%) = ~25,000/ton. Margin ~48% vs ~48k price, but net ~10-15% after depreciation + sales. Mid sponge enters loss zone at price ~42k — cost basis for "mid shakeout."

10.7　Price Transmission to Downstream

Chemical highly price-sensitive — chemical EPC chooses on cost; volatility direct on orders. 2023 peak some chemical projects switched to stainless composite + nickel alloy. Bidirectional — return on price retreat.

Aerospace least sensitive — performance + certification primary, price secondary. Aerospace TC4 bar volatility ~20% (vs chemical TA2 ~50%) — reflects this.

Medical + consumer electronics in between. Medical small share, partially absorbed via product pricing. Consumer electronics CM frame business thinner-margin → moderate sensitivity.

"Stratified" sensitivity = different downstream impacts. Mid chemical demand fastest response; high-end aerospace stable.

10.8　Historical Cycle Comparison

2008 pre-crisis peak (sponge ~90k): Boeing 787 ramp + global aviation boom + sponge shortage triple superposition — "super cycle" peak. ~3 years retreat (2009-2011 → ~40k).

2017 mini-cycle peak (sponge ~65k): military orders + C919 trial flight + overseas destock — ~1 year retreat.

2023 mini-cycle peak (sponge ~75k): Russia-Ukraine + aerospace demand + mid capacity lag — ~1-1.5 year retreat.

Future five years expected closer to 2017/2023 pattern (3-5x range, 1-2 year retreat) than 2008 super cycle (near-2x range, 3-year retreat). Chinese new capacity flexible release + overseas recovery agility → supply curve responds faster than decade ago.

Strategic implication: long demand curve stable up, but short-term volatility more frequent + sharper. Cost control + capacity elasticity = core competitive capability through cycles.

Chapter 11　Policy: Civil-Military Integration + Aerospace Expansion + COMAC Orders

11.1　Three-Layer Framework

Top layer: national strategic emerging industry + new material policy.

2017 State Council New Material Industry Development Guide (2017-2020) — first listed high-end titanium as new material breakthrough. 2021 14th Five-Year Raw Material Industry Plan — aerospace + high-end equipment + national defense three strategic application directions. 2026 New Material Guide (2026-2030) — high-end titanium + large forging + wide plate listed in six key materials for 15th Five-Year.

Middle layer: aerospace special programs.

2018 State Council Aero Engine + Gas Turbine Major Special Program — titanium one of seven key materials (alongside high-temperature alloys, single-crystal alloys, composites, ultra-high-strength steel, high-strength aluminum, magnesium). 2024 revision specified TC18, TC21, Ti60 localization timelines — 2027 TC21, 2028 Ti60, 2030 all mainstream grades.

Bottom layer: specific localization roadmaps.

C919 localization: 2017 NDRC + COMAC joint roadmap — 2025 titanium 80%, 2027 95%, 2030 100%. 2025 hit 80% ahead — key phase nearly complete.

Military roadmap (specific platforms non-public): J-20 fully localized 2020, J-35 2023, WS-15 2024. 6th-gen R&D 2025 launch, 2030 target.

11.2　Civil-Military Integration Real Impact

Past decade's most important policy framework. All key military aerospace titanium grades (TC4, TC11, TC18, TA15, TA17, Ti60) allowed civil + high-end industrial spread. Direct beneficiary: C919 — used many grades previously military-only; civil engineering应用 reverse-strengthens engineering maturity.

Capacity sharing: Baoji + Western Super + Western Mat same lines serve both military + civil + industrial — dynamic scheduling by order priority. Raises utilization, lowers unit cost, gives Chinese plants strong mid-grade industrial cost competitive edge.

2024-2025 specific: aero forging "military to civil" spread — C919 engine pylon large forging previously military-only; 2025 allowed private forging plants (Chengdu Advanced Metals, Sichuan Tianli) enter COMAC vendor list — second supply chain. Raised C919 stability + opened commercial aerospace for private titanium forging.

2025 military aerospace titanium orders +35% YoY; civil aerospace +40%; combined aerospace ~15 kt/yr — ~30% of full-year titanium increment.

11.3　COMAC Order Capacity Scheduling

C919 + C929 = not just demand source, but capacity scheduling signal.

2025 C919 cumulative 35 delivered, order book 1,000+. Ramp: 2/mo 2026, 4/mo 2027, 8/mo 2028, 10/mo 2030. Defines capex timing + grade structure.

Baoji 2026-2028 ~RMB 2.5B capex — directly matches C919 from 2 → 10 / month. Western Super 2025-2027 wire expansion — directly matches C929 prototype demand. Western Mat 2024-2026 wide plate — directly matches C919 fuselage.

COMAC "capacity scheduling effect" = most stable demand anchor for next five years' Chinese titanium. Even if military fluctuates + industrial overcapacity, as long as C919/C929 ramp continues, head players' high-end business has clear demand support.

11.4　Foreign Trade and Export Control

2022 post-Russia-Ukraine — Chinese sponge + ingot exports surged. 2021 ~18 kt → 2023 ~26 kt peak → 2024 ~24 kt → 2025 ~30 kt. To Southeast Asia (India, Vietnam, Thailand), Europe (Italy, Germany), Middle East (Saudi, UAE), South America (Mexico, Brazil) — chemical EPC, desalination, high-end consumer goods.

But high-end Chinese titanium constrained by dual-use export control. MOFCOM + Customs + COSTIND list TC18, TC21, Ti60 export license; end-user cert + use spec + Customs declaration. 2023 first issued; 2025 expanded to Ti80 + TA15 high-purity aerospace. Core purpose: prevent military aerospace tech leakage.

But limited impact on mid + industrial — TC4, TA1, TA2 freely exported, >90% of total titanium export.

11.5　Environmental and Dual-Carbon Indirect Impact

Indirect but long-term. Sponge production high energy (22,000 kWh/ton); magnesium reduction byproduct (MgCl₂). Environmental authorities required electrolytic recycling — 2021 industry-wide retrofit; MgCl₂ recycle rate >95%. Short-term raised sponge cost ~10%; long-term lowered raw material consumption + emissions.

Dual-carbon: Xinjiang + Qinghai water + wind power resource concentration (grid clean energy share high) preferred for sponge expansion. Xiangrun Hami clean-energy share >40%, significantly lower carbon footprint per ton sponge. Advantage when EU carbon border adjustment (CBAM, effective 2026 for some base metals) applies to titanium exports.

11.6　Policy Direction

2026-2030 directions clear:

Continue high-end grade engineering stable supply (TC21, Ti60, Ti80). Continue C919/C929 localization to 100% by 2030. Strengthen 6th-gen platform titanium pre-research and industrialization. Continue civil-military integration + capacity sharing. Refine high-end export control while keeping mid free. Deepen Baoji + Xinjiang dual-center cluster coordination.

Six directions transition Chinese titanium from "scale winner" to "high-end breakthrough." Policy provides demand anchors + R&D support + cluster framework.

11.7　National Special Programs

National "High-end CNC Machine + Basic Manufacturing Equipment" — titanium large-forging press a focus. Funded 2017 5,500-ton press; will fund 2028 8,000-ton.

National "Aero Engine + Gas Turbine" — titanium one of seven materials. Total program >RMB 100B; titanium R&D + productization 6% (RMB 6B).

National "New Material Production Application Demo Platform" — Baoji titanium park first batch — central subsidy + tax preference. Lifeline for Tier 2/3 growth.

NSFC "High-Performance Metal Component Forming Manufacturing Science Foundation" — titanium large-forging + wide-plate rolling + VAR research priority.

Cumulative national programs = critical support behind past-decade Chinese titanium rise. Continued five-year funding likely intensifying.

11.8　Provincial and Local

Shaanxi 2020 New Material Plan — titanium = strategic emerging industry core. Cumulative provincial special >RMB 5B for infrastructure + key player capex + R&D awards.

Xinjiang 2021 Sponge Plan — Hami + Urumqi as core. Provincial electricity subsidy + land preference + tax cuts — key support for Xiangrun rapid expansion.

Sichuan 2022 V-Ti Plan — Panzhihua as national V-Ti resource processing base.

Qinghai 2023 Salt-Lake Resources Plan — Xining as magnesium reduction + sponge supporting base.

Provincial + national synergy → globally超优势 policy environment.

Chapter 12　Research Institute Judgment: 3-5 Year Key Nodes

12.1　One-Sentence Summary

Chinese titanium has won scale, gained an entry ticket at mid-high grades; the real battle remains process stability and engineering patience for the highest grades.

2025 China sponge ~75% global; mill +15% YoY; aerospace titanium share 4% → 22%. Scale + structure double win — 30 years of basic → mid-high → highest-end progression.

But未竟之事: TC21 yield still ~1.5 pp below VSMPO; Ti60 engineering sample stage; 8,000-ton press 2028; aero cooling micro-tube still trial. Not equipment or formula — process database + quality system long accumulation — un-bridgeable in short term.

Essence: organization capability gap, not technology capability gap. VSMPO 60-year continuous process data; engineer generational continuity; quality system through multiple international audits. "Process memory" embedded as tacit knowledge. Chinese head accelerated but from ~2000s = ~20+ years. Memory thickness ~1/3 of foreign giants. Can't be bridged via capex or hiring — only time.

12.2　Three-to-Five Year Key Nodes

2027: C919 4/month, titanium ~900 tons/yr near capacity. TC21 bar engineering stable — Western Super TC21 from 200 → 1,000 tons. Sets new bar of Chinese military aerospace titanium supply stability. Also J-35 fully designed + first carrier deployment — first large-scale operational test of titanium supply chain stability.

2028: second large titanium press (8,000-ton) online — large forging tonnage ceiling lifted. Ti60 stable supply — WS-15 improved + CJ-1000A (C919 domestic substitute) titanium fully localized. Year of full closure of military aero engine localization.

2029: C929 first flight — wide-body civil titanium era. ~14.4 tons/aircraft, 2x C919. Also new-gen nuclear submarine titanium large forging engineering complete — deep-sea titanium from Fendouzhe science sample → naval scale production.

2030: C919 10/month, titanium ~2,400 tons/yr — 10x in decade. Sponge ~32 kt, mill ~30 kt; aerospace titanium share ~35%. 6th-gen first flight. Iconic transition from "scale winner" to "full-spectrum supplier."

Five years' nodes shift Chinese titanium from "scale + mid-high breakthrough" (2025) to "full-spectrum full-process autonomous supplier" (2030). Then China parallel to VSMPO + ATI/TIMET + Howmet at global level, no critical segment still imported.

12.3　Industry Infrastructure: Identifying Real Factories

Worth returning at the close: industry infrastructure.

~200 mid-stream titanium plants — process variations, spec varieties, certification states, belt positioning — extremely complex. Finding right process partner / upstream equipment partner / downstream customer among 200 plants is hard. This is the core long-term value an industry-Internet platform like Tianxia Gongchang provides — structured filtering of ~4.8M active real factories by industry, region, category, process keyword. In a mid-segment like titanium specifically identifies each plant's process strength + capacity spec.

Specific value: equipment makers identify which plants upgrading VAR or expanding forge tonnage; downstream users find specific-process processors (wide-plate cold-roll, thin-wall tube, implant-grade wire, deep-sea hull forge); cross-border buyers locate exportable plants + verify process + certification. Business-registry platforms and simple search inadequate. Real-factory identification at industry-Internet layer = essential foundation.

China titanium next decade — not just three heads' process climbing, but ~200 mid-plants' specialization + cert deepening + customer matching optimization. Needs industry infrastructure support + real-factory identification precision. From this view, titanium's high-quality development = not just head player matter, but infrastructure matter.

12.4　Core Research Institute Judgment Points

Condensed:

#1 Scale dividend continues but growth slows. Sponge ~23 kt (2025) → ~32 kt (2030); mid overcapacity from 2028. Beneficiary shifts to high-end producers.

#2 Structural upgrade = most certain mainline. Aerospace 22% → 35% → industry margin 18% → 25%. Most certain increment for next five years.

#3 High-end breakthrough window 2027-2028. TC21, Ti60, Ti80 stable supply expected those years. If on time, China truly enters full-spectrum autonomous era.

#4 C919/C929 = civil mainline; 6th-gen + WS-15 improved = military mainline. Cross around 2030 — first civil 10/mo + first 6th-gen flight = double demand acceleration.

#5 Overseas giants' landscape stable. VSMPO, ATI/TIMET/Carpenter, Howmet, Japan three — maintain positions; Chinese export expansion constrained by overseas recovery agility.

#6 Cluster effect strengthens. Baoji-Xi'an core; Xinjiang sponge → mid-cluster upgrade; Danyang + Shenzhen private + niche.

#7 Real-factory identification infrastructure importance keeps rising. Tier 2/3 specialization + customer matching → industry-Internet identification capability = long-term foundation.

Seven judgments = complete research institute view. Each with concrete facts + node timelines + verifiable milestones.

12.5　Conclusion

From Baoji's 5,500-ton press, to Xinjiang Hami's magnesium reduction furnace; from Xi'an Yanliang's J-20 titanium landing gear to COMAC C919 final assembly; from Fendouzhe's titanium deep-sea sphere to iPhone 17 Pro titanium frame — these constitute Chinese titanium 2026 reality.

From 1990s "all basic grades imported" to today's "mid-high broken through, highest engineering ramping" — 30 years. Next decade's question clear: not capacity expansion, but stable batch supply of broken-through high-end grades; process database to VSMPO-comparable thickness; quality system insulated from any single key engineer departure.

Not sprint but marathon. Past start and burst phase; now endurance phase. Endurance = stability over speed, structure over scale, database over equipment. Real exam for next decade.

Research institute view: 3-5 years, China titanium completes TC21 + Ti60 + Ti80 stable supply; 8,000-ton press online; aero cooling micro-tube scaled; C929 first flight + wide-body titanium scale. These five years' accumulation = "scale + mid-high winner" → "full-spectrum full-process autonomous." From scale winner to process winner. China manufacturing from mid-processing giant to high-end material power.

Next chapter is race track but also organization and process discipline endurance test.

12.6　Specific Implications for Stakeholders

Head plants: core strategy not capacity expansion itself, but process database + organization + quality system deepening. Capex priority shift to R&D, equipment upgrade, talent.

Tier 2/3: differentiation > scale chase. Specific niche (medical wire, consumer frame, deep-sea specialty, chemical corrosion plate) + deep customer + specific process — three combined.

Downstream users: deepen cooperation with Chinese titanium players. From transactional to strategic, from procurement to joint R&D.

Upstream equipment makers: VAR, large-press, wide-plate, thin-wall tube equipment localization space large. Equipment maker should partner deeply with head titanium, fold operational data back into next-gen design.

Cross-border buyers: Chinese titanium capacity + grade rapidly upgrading. Past VSMPO + ATI single-channel can diversify. Chinese head high-end titanium has international cert capability — stable source worth including.

Capital markets: titanium = structural growth window next five years. But internal differentiation significant — high-end profitability > mid-scale. Strategy choice = future profitability curve shape.

Policymakers: high-quality development needs precise policy. Capex subsidies' marginal utility decreasing; process R&D + talent + industry infrastructure (cluster planning + identification capability) increasing. Future five-year titanium policy lean toward these "soft infrastructure."

Six directions = concrete practical actions. Each maps to clear actor + executable path.

12.7　Chinese Titanium and the Overall New Materials Leap

Place titanium in Chinese new materials landscape — bigger narrative.

Past 20 years' new materials rise: titanium one thread. High-temperature alloys, carbon fiber composites, rare earth permanent magnets, battery materials, semiconductor materials — similar paths. Basic localization (2000-2010), mid-high attack (2010-2020), highest engineering (2020-2030).

Titanium slightly faster than high-temp alloys, slightly slower than rare earth; close to carbon fiber + battery materials. Pace closeness reflects Chinese new materials integral progress — not single品种 breakthrough but full material system synchronous leap.

Next decade Chinese new materials shifts from "import substitution" to "original grades + high-end + international cooperation." Titanium Ti60 + Ti80; carbon fiber domestic T1000G + M65J substitutes; rare earth high-performance new-gen NdFeB. Together: signature of Chinese new materials from "follower" to "leader."

Meaning beyond single industry: Chinese manufacturing's core material supply chain shifting from external dependence to autonomous control; Chinese high-end equipment manufacturing底层支撑 thickening. Titanium as representative.

Research institute hopes this report provides reader a concrete window for observing Chinese manufacturing's progress.

Chapter 13　Risks: Military Orders, COMAC Pace, Overseas Recovery

13.1　Military Order Pace Risk

Past decade growth: military aerospace + space orders meaningful share. But pace subject to national fiscal + equipment plan, phase volatility risk.

2025 China defense budget ~RMB 1.8 trillion, +7.8% YoY — within recent ~7-8% range. Aero military titanium can fluctuate much more than budget.

Specifics:

#1 Platform batch pace possibly uneven. J-20 deployed ~200; annual ramp depends on Shenyang + Chengdu lines and supply ecosystem. Some years 30/yr; some slower due to upgrade. Significant impact on titanium suppliers' utilization.

#2 New platform industrialization may delay. 6th-gen pre-research key tech (adaptive cycle engine, ultra-fast stealth skin, large integral titanium structure) — engineering delays possible → 2030+ batch start postponed → titanium capex return impact.

#3 Military fiscal structural adjustment. Defense budget internal mix (equipment, training, personnel) dynamic. More to training/personnel in some period → equipment growth slows.

Long direction up; short pace can fluctuate. Affects high-end capex return certainty, not long-run demand direction.

13.2　COMAC C919 Ramp Risk

C919 most stable civil anchor; ramp pace uncertainty.

Plan: 2/mo (2026), 4/mo (2027), 8/mo (2028), 10/mo (2030). Requires synchronized ramp of final assembly, CFM LEAP-1C engine supply (still imported), composite (AVIC HiTech), titanium (Baoji + Western Super), avionics (AVIC) — any shortage slows C919.

Particular: LEAP-1C — GE Aerospace + Safran joint. Need 100+ LEAP-1C per year for ramp. US-China relations could affect supply. CJ-1000A first flight 2029, in-service 2032 — LEAP-1C remains C919's only power source meanwhile.

If C919 ramp lags plan, Chinese aero capex could overshoot phasically. Baoji + Western Super RMB 2.5B capex 2026-2028 return depends on C919 pace.

But long: order book 1,000+, even 2-3 year ramp delay = long titanium demand curve still clearly up. Risk phasic, not structural.

13.3　VSMPO Recovery Risk

VSMPO one of past three years' biggest external benefits to Chinese titanium. Post-Russia-Ukraine partial Western order loss → Chinese head plants partly absorbed global customers. But VSMPO restored via Central Asia logistics over past two years.

2025 VSMPO ~34 kt, down only ~20% from 2021 peak — strong recovery. If Russia-Ukraine eases (not imminent), full Boeing + Airbus supply restoration could squeeze Chinese European + North American exports.

But mainly affects mid + partial high-end industrial export. Chinese military aero titanium domestic market — VSMPO can't participate.

Watch: EU/US secondary-sanction shadow on VSMPO. Stricter sanctions = Chinese plants could further absorb VSMPO's lost share. Highly uncertain — shouldn't be Chinese titanium core growth assumption.

13.4　Mid Sponge Overcapacity Risk

Chinese sponge rapidly expanded past five years. 16 kt (2020) → 23 kt (2025) → 32 kt (2030 planned). Faster than global demand growth — mid industrial sponge overcapacity visible.

2026 H1 some mid sponge cutting operation; utilization 95% (2025) → 90%. If next 2-3 years new capacity (Xiangrun Phase 3, Qinghai, Shuangliu Phase 2) keeps coming, mid overcapacity worsens.

Specifics: mid sponge price could retest marginal cost line (~42k); high-cost SMEs lose money; industry-wide passive shakeout. Limited impact on aggregate margin (high-end 25%+ stable); significant survival pressure on SMEs.

Self-adjust path: mid capacity cut + high-end expansion + export. Completes over 3-5 years. Mid sponge price stays in 45-50k range.

13.5　High-End Import Dependence Risk

Highest-end still partly imported. TC21 ~20% from VSMPO; SP700 (Ti-4.5Al-3V-2Mo-2Fe, engine nacelle + landing gear) high-end not fully broken; Ti60 still engineering sample.

Limited in peacetime, but geopolitical extreme scenario = short supply chain weakness. If ATI/TIMET implement China export controls, Chinese military aero high-end partial titanium short-term tight.

Hedge: speed up TC21 + Ti60 engineering + strategic stockpile + multi-source overseas procurement (Russia + Uzbekistan + Kazakhstan parallel). Already partly implemented.

13.6　Power Price Volatility Risk

Sponge high-power (~22,000 kWh/ton); price volatility material.

Chinese sponge shifting to western (Xinjiang, Qinghai, Inner Mongolia) low-power regions, reducing east dependence. But western policy variability — grid dispatch + local subsidy adjust → western moat partially erodes.

2025 Xiangrun Hami RMB 0.28/kWh, ~40% below east. If policy raise to ~0.35 (still ~30% below east), Xiangrun unit sponge cost +RMB 1,500/ton — mid margin compression.

Long manageable; short可能影响 industry profit distribution.

13.7　Overall Risk Judgment

Long direction risk low. Aerospace demand + import substitution + capacity + grade upgrade triple lines clear; no disruptive risk.

Short pace risk medium. Military annual fluctuations, COMAC ramp, mid sponge overcapacity, power price — could pressure margin某些年.

External geopolitical risk low to moderate, with tail risk. VSMPO recovery, US export controls, EU/US secondary sanctions — peacetime limited; extreme scenario short supply chain shock.

Industry restructuring continues. Mid shakeout + high-end expansion + cross-border exploration over 3-5 years. SMEs may be acquired/integrated; concentration further rises.

Mainly phasic vs structural risks. Mainly subsegment distribution vs overall direction. Long-term growth curve clearly up. Head profitability consolidates.

13.8　Tech Substitution Risk

Long-run risk: titanium replaced by new materials?

Several emerging materials over past decade posed potential substitution pressure on titanium subsegments.

CFRP (carbon fiber composite) — replaced lots of aluminum in aerospace; partial titanium pressure too. Boeing 787 + COMAC C929 wide-body large CFRP use (>50%). But Ti-CFRP relationship synergy, not substitution — thermal expansion match makes mixed structure use lots of titanium as connector + fastener. Synergy actually raises wide-body titanium ratio (737 <5% → 787 15%).

Al-Li alloy — fast aluminum substitution; limited titanium impact. Lighter density, strength approaching titanium, but corrosion + high-T still trail.

Mg alloy — consumer electronics substitution potential. Density ~1.8, lighter, but strength + corrosion weaker. iPhone 15 Pro chose titanium over magnesium — high-end consumer durability priority. Won't reverse short-term.

MMC — extreme-T scenarios potential, lab stage. >10 years to scale.

CMC — replacing nickel high-T alloys at engine highest-T (blade, combustor); limited titanium impact — titanium = front mid-T, CMC = rear high-T.

Overall next decade: titanium's core scenarios position not significantly shaken. New material impact mostly边际 in marginal scenarios.

13.9　Internal Integration and M&A

Past decade Chinese titanium integration slow; next five years could see wave.

#1 SOE internal integration. AVIC, Baowu Group, China Minmetals titanium under their umbrella may further integrate.

#2 Private capital integrates mid players. Xiangrun, Jintian M&A possible for mid sponge + ingot scale formation.

#3 Cross-sector capital entry. New energy + new material hot capital may enter via equity or partnership.

#4 Vertical integration. Downstream (AECC, COMAC) may equity-tie with head titanium.

Short pain (some SMEs eliminated/absorbed); long = concentration + competitiveness up. 2030 top 5 share 70% (2025) → ~85%.

Phasic risks (some SMEs' employment/distribution) need transition policy. Doesn't change direction.

13.10　Global Supply Chain Restructuring: Two-Way Impact

Global titanium supply chain entered deep restructuring post-Russia-Ukraine. Impact on China bidirectional.

Positive #1: Chinese plants absorbed some VSMPO-supplied global orders. 2022-2025 Chinese titanium exports 18 kt → 30 kt, mainly Southeast Asia + Middle East + Europe. ~10% revenue growth contribution.

Positive #2: overseas customer awareness + trust uplifted. Boeing, Airbus, European chemical giants — previously rarely procured Chinese titanium — 2023+ engaging Chinese head plants; some small batch trial orders signed. Trust depth advance impossible in past decade.

Negative #1: EU/US potential export control risk to China rising. US 2023 Defense Production Act revision listed high-end titanium as strategic. Limit on Chinese plants would affect high-end product export + overseas tech cooperation.

Negative #2: Stricter overseas certification + scrutiny. EU CBAM 2026 carbon tariff on some base metals — Chinese titanium export to Europe needs carbon footprint. US NADCAP audit standards trending stricter for Chinese plants.

Net positive. Chinese plants gained global market participation, while facing finer compliance + cert challenges. Next five years: actively adapt + consolidate domestic + selectively expand overseas = head player core strategy combo.

Data Sources

This report's data and facts mainly come from these channels. Real-time factory identification + belt location relies critically on an industry-Internet platform's structured filtering capability over China's ~4.8M active real factories — basis for the belt + mid-stream factory map chapters.

Public Market Data and Industry Reports

• China Non-Ferrous Metals Industry Association Titanium-Zirconium-Hafnium Branch: sponge, ingot, mill output and price statistics
• China Non-Ferrous Metals Industry Yearbook: sponge titanium, titanium chain data
• National Statistics Bureau industrial database: rutile, TiO₂, sponge production data
• ASKCI Research: China titanium industry development white papers
• LeadLeo Research: China titanium industry research reports
• CITIC Securities, Zhongtai Securities, Dongxing Securities titanium research

Overseas Industry Data and Annual Reports

• VSMPO-AVISMA company annual reports and website: production, capacity, tech disclosures
• ATI (Allegheny Technologies, NYSE: ATI) annual reports (10-K): high-performance alloy segment
• Carpenter Technology (NYSE: CRS) annual reports: titanium specialty data
• Howmet Aerospace (NYSE: HWM) annual reports: aerospace forging business
• TIMET and Precision Castparts disclosures (Berkshire Hathaway annex)
• Toho Titanium (TSE: 5727), Osaka Titanium Technologies (TSE: 5726), Kobe Steel (TSE: 5406) annual reports
• USGS Mineral Commodity Summaries 2025/2026: global titanium data
• BNEF, Roskill, CRU and other bulk metal research titanium reports
• Nikkei Asia, Reuters titanium coverage
• Journal of Materials Science & Technology, Acta Materialia and other English academic periodicals

Chinese Listed Titanium Companies' Annual Reports

• Baoji Titanium (600456) 2022, 2023, 2024 annual reports + 2025 Q3 + business update
• Western Superconducting (688122) 2022, 2023, 2024 annual reports + 2025 Q3
• Western Materials (002149) 2022, 2023, 2024 annual reports + 2025 Q3
• Pangang V&T (000629) 2022, 2023, 2024 annual reports
• Jintian Titanium (831827) 2023, 2024, 2025 disclosures
• Tiangong International (0826.HK) interim and annual reports

Policy and Official Information

• State Council New Material Industry Development Guide 2017, 2021, 2026 editions
• MIIT 14th Five-Year Raw Material Industry Plan
• State Council Aero Engine + Gas Turbine Major Special Program and 2024 revision
• NDRC Baoji titanium base + Xinjiang sponge industry park policies
• MOFCOM + Customs titanium export license + dual-use control公告

COMAC and Aviation Industry Info

• COMAC C919, C929 project disclosures
• AVIC related J-20, J-35, WS-15 public coverage
• AECC WS-15, CJ-1000A public information

Industry Belt and Factory Identification

• Tianxia Gongchang (www.tianxiagongchang.com) platform: structured identification + belt filtering based on ~4.8M active real factories; foundation for the belt-map chapters (Shaanxi Baoji-Xi'an, Sichuan Panzhihua-Chengdu, Xinjiang Hami-Urumqi, Qinghai Xining, Jiangsu Danyang).

Acknowledgments and Limitations

Some data (J-20, J-35, 6th-gen titanium ratios; WS-15 per-unit titanium; new-gen nuclear submarine titanium) involves national defense sensitive info; estimates with public-source triangulation; figures industry-research reference only, not precise disclosures. Business strategy + investment decisions should reference each entity's due diligence.

Five-year and ten-year capacity/price/demand forecasts are based on current public info + industrial logic; actual paths may vary significantly due to military pace, COMAC ramp, geopolitics, new capacity, tech breakthroughs uncertainty. Readers should apply independent prudence to all forward judgments.

Data cutoff: June 2026.

Editor's Note

This is part of the institute's 2026 mid-year report series. Titanium selected for three reasons:

#1 Representative subsegment for Chinese new materials transitioning from "import substitution" to "high-end breakthrough." Its 30-year arc condenses Chinese material industry's complete trajectory; observation window for Chinese manufacturing progress.

#2 Downstream spans aerospace, marine, medical, chemical, consumer electronics — national-economy critical industries. Single品种 study radiates多 downstream understanding. Chinese aviation industry's next decade depends on titanium engineering stable supply.

#3 Industry chain structure clear; head player concentration; data availability — suits deep industrial analysis and quantifiable judgments. Specimen subsegment; methodology applicable to other new-material品种.

In writing, institute based on current public + industrial logic made specific 5-year forecasts. Reasonable extrapolations from current visible info, but actual 5-year paths may diverge significantly due to various uncertainties. Readers should apply independent prudence + own context to commercial decisions.

Thanks to industry bodies, listed companies, experts, research partners. Any remaining errors or judgment limits — institute's responsibility.

Thank you for reading.

Appendix: Key Term Glossary

VAR (Vacuum Arc Remelting): mainstream titanium ingot refining process — consumable electrode arc-melted in vacuum, ingredient homogenized, impurities reduced. Triple-remelt = aero engine titanium standard feedstock.

EBM (Electron Beam Melting): auxiliary refining process — for scrap recycling and ultra-pure ingots. China scale equipment ~5 units.

PAM (Plasma Arc cold-hearth Melting): large-forging feedstock process. China scale equipment <3 units.

TC4 (Ti-6Al-4V): most widely-used worldwide; aerospace, medical, chemical, consumer electronics — "main soldier" of Chinese titanium industry.

TC18: high-strength alloy; aircraft landing gear and other load-bearing structures. Western Super exclusive engineering stable supply.

TC21: damage-tolerant alloy; aircraft main structure. China engineering ramping; 2027 stable supply expected.

Ti60: high-T alloy; ~600°C operating ceiling; aero engine compressor rear. China 2028 stable supply expected.

Ti80: deep-sea alloy; deep-sea pressure hull. Western Materials exclusive engineering producer.

End of appendix.