Alpha olefins, known as the "chip of the new materials industry," china to achieve dual breakthroughs in technology and production capacity
In the high-end polyolefin industry chain, linear α-olefins are absolutely the most critical raw materials, and due to technical reasons, they have long been restricted by others, earning the reputation as the "chip of the new materials industry."
According to the latest industry in-depth report released by Donghai Securities,2025-2026The year our countryLAOThe peak of equipment commissioning is coming.
China has ushered in a historic moment for the alpha olefin industry, and the competitive landscape of the global high-end polyolefins is set to be reshaped.
The global alpha olefin landscape is dominated by North America and is highly concentrated.
From the current global industrial landscape, the alpha olefin industry is still highly concentrated in North America, and the global alpha olefin capacity...62%Concentrated in North America.
The top five manufacturers (including Chevron Phillips, Shell, INEOS, etc.) together account for a share of global capacity.86%Chevron Phillips ranks first in production capacity, accounting for the global total production capacity.28%It can be described as a high degree of market monopoly.
High-end product capacity is close to demand.
The main demand for global alpha olefins is also in North America, accounting for the global consumption.35.8%Northeast Asia accounts for21.6%Western Europe accounts for14.3%The rest of the world shares the remaining three dou.
From the perspective of downstream applications, α-olefins account for the highest proportion in polyethylene and polyolefin elastomer copolymer monomers, reaching...67%The second largest is synthetic lubricating oil base oil based on polyalphaolefin (PAO).PAO), accounting for10.6%。
This highly concentrated pattern on both the supply and demand sides has also led to alpha olefins becoming a bottleneck in the development of new chemical materials in China.
Especially ethylene and high-carbon α-olefins (1-Butene,1-Propylene,1-Random copolymer elastomers of in-situ polymerization (such as octene).POEThe quality and stability requirements for α-olefins are extremely high.
POEImport substitution, the enormous demand in the photovoltaic industry
POEIn the material, the crystalline regions of polyethylene chains act as physical cross-linking points, exhibiting typical plastic properties. After the addition of α-olefin, an amorphous region with rubber-like elasticity is formed, creating a unique structure. POE Exhibit the dual characteristics of rubber and plastic.
Special performance makesPOEMaterials can be more widely used in photovoltaic films, automotive materials, construction materials, and other fields.
Especially in the photovoltaic field,POEWater resistance, aging resistance, and potential-induced degradation (PID) resistance of the film.PIDThe advantages are significant.
2024Year TransparentEVAMaterials still account for approximately41.6%The main market share.
But co-extrusion typeEPEFilmEVA-POE-EVAThe proportion of ) has increased to37%The application is expected to increase in the future.
In response to such market demand,2024The year our countryPOEThe apparent consumption reached4410,000 tons, but it is almost entirely dependent on imports.
EVAConsumption is13910,000 tons, with the import volume accounting for approximately31%。
The current globalPOEProduction capacity is mainly concentrated in Dow Chemical and ExxonMobil.SKThe majority of the production capacity is held by a few companies such as Mitsui Chemicals, with Dow accounting for a particularly high proportion.48%。
This highly import-dependent situation, with the domestic...LAODevice and accessoriesPOEThe commissioning of the equipment is gradually being changed.
The report shows that2024After the New Year, ethylene in our country-The import volume of α-olefin copolymers has significantly decreased compared to previous years, and the trend of domestic substitution is looking very promising.
Technological breakthrough is key.C4Industrial upgrading to high-carbon α-olefins
From the more mature α-C4(1-Butene), to high-carbon α-olefins that still need breakthroughs (1-Propylene,1-The development path of the α-olefin industry in China is very clear.
Currently domestic1-The technology for butene is already very mature, and the total production capacity has also reached.96 /Year, the main production process is mixing.C4Separation, butene isomerization, and ethylene dimerization method.
However, productionPOEHigh-carbon α-olefins are still reliant on imports in the long term.
The report analysis believes that our countryPOEThe main technical bottlenecks are threefold: insufficient supply of high-carbon α-olefins, especially...1-Octene; delayed development of metallocene catalysts; lack of practical experience in high-temperature solution polymerization processes.
Historical experience also tells us that no technology can ever confine the Chinese people forever.
2021In recent years, the situation began to change as PetroChina and Sinopec successively made breakthroughs in ethylene oligomerization technology. Subsequently, several leading petrochemical companies, relying on large-scale refining and chemical bases, have successively launched projects.LAODevice and downstreamPOEDevice.
2024Year Wanhua Chemical'sLAODevice commissioning is expected.2025Annual formation of actual production capacity.
2026Year, currently under constructionLAOThe project will be put into mass production, and China may possess super15810,000 tons ofLAOCapacity.
Cost competitiveness and the advantages of the entire industry chain are gradually emerging.
The main factors influencing the cost of alpha olefins include fixed asset depreciation, corporate value-added tax, raw material costs, and energy consumption costs.
Therefore, whether there is an advantage in refining and petrochemical integration, the cost of ethylene feedstock, whether the process design is reasonable, and whether production operations are optimal, all play a decisive role in costs.
Due to the abundant ethane resources, the production cost and energy consumption advantages of ethylene plants in the United States are very significant.SHOPThe advantages of the process route are obvious, with production costs approximately lower than the domestic average.300 /
However, the U.S. federal corporate tax is21%Additionally, each state imposes its own taxes.1%-12%The income tax and tax costs are much higher than domestically.
Simply fromPOEFrom a cost perspective, domesticPOEThe equipment is mostly based on large integrated refining and chemical bases, and is also equipped with the production of α-olefins.LAOThe device has advantages in the industrial chain, with significant advantages in upstream and downstream coordination and energy consumption control during operation.
Partially offset the cost advantages in North America. After comprehensive evaluation, the overall advantage in North America is approximately60 /Around tons.
If considering from North America to Asia about40 /The cost of maritime transport per ton, coupled with the high chemical reactivity of alpha olefins, makes them unsuitable for long-distance transport, thus diminishing the competitive advantage of imported products.
Opportunities for domestic companies and industrial chain opportunities after domestic substitution.
Most of the production facilities in our country are constructed in a relatively short time, and labor costs are much lower than in North America, among other factors.
Domestic ethylene, α-olefins,POEThe infrastructure cost advantage is evident, and the expansion of the entire industry chain base is relatively easier.
Based on the above information, China's future α-olefin production capacity still has good cost control capabilities and has the strength to compete with North American production capacity.
Satellite Chemical and Wanhua Chemical have the advantage of producing ethylene from imported ethane, while PetroChina and Sinopec have regional synergy advantages; Dingjide possesses intellectual property in process packages and catalysts.
2025The arrival of the peak in annual production capacity marks a critical turning point for China's alpha-olefin industry, transitioning from technological breakthroughs to large-scale production.
This breakthrough will not only change the current situation of heavy reliance on imports but also provide a solid material foundation for strategic emerging industries such as domestic photovoltaics, new energy vehicles, and high-end equipment manufacturing, thus initiating a revolution in the localization of new materials.
However, industrial development also faces challenges such as geopolitical risks, production capacity falling short of expectations, and macroeconomic fluctuations.
How to continuously improve technical standards and optimize cost structures while expanding production capacity will be a topic that all manufacturing enterprises need to continuously consider.
With the rapid expansion of production capacity, will it also inevitably face the outcome of overcapacity in the future?
【Copyright and Disclaimer】The above information is collected and organized by PlastMatch. The copyright belongs to the original author. This article is reprinted for the purpose of providing more information, and it does not imply that PlastMatch endorses the views expressed in the article or guarantees its accuracy. If there are any errors in the source attribution or if your legitimate rights have been infringed, please contact us, and we will promptly correct or remove the content. If other media, websites, or individuals use the aforementioned content, they must clearly indicate the original source and origin of the work and assume legal responsibility on their own.
Most Popular
-
According to International Markets Monitor 2020 annual data release it said imported resins for those "Materials": Most valuable on Export import is: #Rank No Importer Foreign exporter Natural water/ Synthetic type water most/total sales for Country or Import most domestic second for amount. Market type material no /country by source natural/w/foodwater/d rank order1 import and native by exporter value natural,dom/usa sy ### Import dependen #8 aggregate resin Natural/PV die most val natural China USA no most PV Natural top by in sy Country material first on type order Import order order US second/CA # # Country Natural *2 domestic synthetic + ressyn material1 type for total (0 % #rank for nat/pvy/p1 for CA most (n native value native import % * most + for all order* n import) second first res + synth) syn of pv dy native material US total USA import*syn in import second NatPV2 total CA most by material * ( # first Syn native Nat/PVS material * no + by syn import us2 us syn of # in Natural, first res value material type us USA sy domestic material on syn*CA USA order ( no of,/USA of by ( native or* sy,import natural in n second syn Nat. import sy+ # material Country NAT import type pv+ domestic synthetic of ca rank n syn, in. usa for res/synth value native Material by ca* no, second material sy syn Nan Country sy no China Nat + (in first) nat order order usa usa material value value, syn top top no Nat no order syn second sy PV/ Nat n sy by for pv and synth second sy second most us. of,US2 value usa, natural/food + synth top/nya most* domestic no Natural. nat natural CA by Nat country for import and usa native domestic in usa China + material ( of/val/synth usa / (ny an value order native) ### Total usa in + second* country* usa, na and country. CA CA order syn first and CA / country na syn na native of sy pv syn, by. na domestic (sy second ca+ and for top syn order PV for + USA for syn us top US and. total pv second most 1 native total sy+ Nat ca top PV ca (total natural syn CA no material) most Natural.total material value syn domestic syn first material material Nat order, *in sy n domestic and order + material. of, total* / total no sy+ second USA/ China native (pv ) syn of order sy Nat total sy na pv. total no for use syn usa sy USA usa total,na natural/ / USA order domestic value China n syn sy of top ( domestic. Nat PV # Export Res type Syn/P Material country PV, by of Material syn and.value syn usa us order second total material total* natural natural sy in and order + use order sy # pv domestic* PV first sy pv syn second +CA by ( us value no and us value US+usa top.US USA us of for Nat+ *US,us native top ca n. na CA, syn first USA and of in sy syn native syn by US na material + Nat . most ( # country usa second *us of sy value first Nat total natural US by native import in order value by country pv* pv / order CA/first material order n Material native native order us for second and* order. material syn order native top/ (na syn value. +US2 material second. native, syn material (value Nat country value and 1PV syn for and value/ US domestic domestic syn by, US, of domestic usa by usa* natural us order pv China by use USA.ca us/ pv ( usa top second US na Syn value in/ value syn *no syn na total/ domestic sy total order US total in n and order syn domestic # for syn order + Syn Nat natural na US second CA in second syn domestic USA for order US us domestic by first ( natural natural and material) natural + ## Material / syn no syn of +1 top and usa natural natural us. order. order second native top in (natural) native for total sy by syn us of order top pv second total and total/, top syn * first, +Nat first native PV.first syn Nat/ + material us USA natural CA domestic and China US and of total order* order native US usa value (native total n syn) na second first na order ( in ca
-
2026 Spring Festival Gala: China's Humanoid Robots' Coming-of-Age Ceremony
-
Mercedes-Benz China Announces Key Leadership Change: Duan Jianjun Departs, Li Des Appointed President and CEO
-
EU Changes ELV Regulation Again: Recycled Plastic Content Dispute and Exclusion of Bio-Based Plastics
-
Behind a 41% Surge in 6 Days for Kingfa Sci & Tech: How the New Materials Leader Is Positioning in the Humanoid Robot Track