Please tell me which polypropylene projects in China currently use the Basel process.

Haitian Basel second generation ring pipe polypropylene

Shanghai Petrochemical CNOOC Shell Dalian Petrochemical Organic Plant Zhongyuan Petrochemical Dalian Xitaqing Refinery Fushun Petrochemical Hainan Refinery Maoming Petrochemical Qilu Petrochemical Jiazhuang Refinery

Okay, thank you, sir. Also, do you know what process Zhejiang Petrochemical Phase I uses? There are various versions online

Okay, thank you. Also, do you know what process Zhejiang Petrochemical Phase I uses?

In addition, did Xuzhou Haitian’s original 200,000-ton polypropylene plant use the Basel second-generation ring-pipe polypropylene plant?

Qingdao Jinneng New Materials Selects LyondellBasell's Polypropylene Technology Chemicals Online 2018-08-03 LyondellBasell announced on August 1 that Qingdao Jinneng New Materials Co., Ltd. has selected the company's world-leading fifth-generation polypropylene Spheripol technology for its 450,000 tons/year unit located in the petrochemical base of Qingdao, Shandong Province, China. 　　Dan Coombs, Executive Vice President of LyondellBasell: “The Spheripol process is recognized globally for its proven track record, sound economics and ability to produce industry benchmark products that customers demand. This fifth generation of Spheripol technology is the result of our ability to continually improve to meet our customers' needs. ” 　　Founder and CEO of Jinneng Technology Co., Ltd., the parent company of Qingdao Jinneng New Materials * Executive Officer Mr. Qin Qingping stated: “We chose Spheripol due to its ability to produce a wide range of product boards, high process efficiency and excellent environmental technical performance. Spheripol is a leading polypropylene process technology with over 24 million tons of licensed production capacity. It combines a globally recognized premium polypropylene grade with leading monomer efficiency and investment costs, making it the technology of choice. ”

Zhenhai Refining and Chemical: Three new sets of differentiated polyolefin devices have been added. Polypropylene is expected to use the Basel spherizone process. What about HDPE? Long Pujun Polyolefin People April 2 On March 28, Sinopec Ningbo Zhenhai Refining and Chemical Co., Ltd. launched a multi-section bidding process for the basic engineering design (including some main engineering designs) of the expansion of the 15 million tons/year oil refining to 1.2 million tons/year ethylene project (ethylene part). keywords | Zhenhai Refining and Chemical Ethylene 678 words in total | Recommended reading time: 4 minutes. On March 28, Sinopec Ningbo Zhenhai Refining and Chemical Co., Ltd. launched multiple bidding sections for the basic engineering design (including part of the main engineering design) of the expansion of the 15 million tons/year oil refining to 1.2 million tons/year ethylene project (ethylene part). The bidding announcement shows that Sinopec Ningbo Zhenhai Refining and Chemical Co., Ltd.'s expansion of 15 million tons/year refining and 1.2 million tons/year ethylene project (ethylene part) has been approved for construction by Sinopec Corp. under Petrochemical Corporation [2018] No. 272. The bidder is Sinopec Ningbo Zhenhai Refining and Chemical Co., Ltd., and the bidding agency is Sinopec Group Tendering Co., Ltd. The construction funds are self-raised by the enterprise, and the investment ratio is 100%. The project construction site is located in Ningbo City, Zhejiang Province. The construction scale is to expand the 15 million tons/year oil refining to 1.2 million tons/year ethylene project (ethylene part) with a total of 61 main projects. The total investment approved for the feasibility study is approximately 26.787 billion yuan. The expansion project includes the following sets of equipment, specifically:: 1.2 million tons/year ethylene, 274,000 tons/year PO/SM, 600,000 tons/year pyrolysis gasoline hydrogenation, 160,000 tons/year butadiene extraction, 400,000 tons/year aromatics extraction , 10/40,000 tons/year MTBE/butene-1, 800,000 tons/year ethylene glycol, 300,000 tons/year high-density polyethylene, 300,000 tons/year polyethylene, 300,000 tons/year polypropylene and other devices.

More than half of the 900,000 tons of PDH and 450,000 tons of polypropylene civil construction projects are scheduled to be put into operation in 2021. On September 3, at the construction site of the Jinneng Technology New Materials and Hydrogen Energy Comprehensive Utilization Project, Bing Liangguang, the company’s deputy general manager and deputy project commander, introduced to the media that the first phase of the project included 900,000 tons. Tons/year propane dehydrogenation, 450,000 tons/year polypropylene and 480,000 tons/year rubber polymer material devices. The three projects have more than 20 construction operations. At present, more than half of the civil engineering work has been completed. Equipment installation will begin at the end of the year. The first phase of the project is expected to be put into operation in 2021. The project has introduced the world's most advanced American Lummus propane dehydrogenation technology and Italian Basel polypropylene process. The 900,000 tons/year propane dehydrogenation unit invested and constructed is the world's largest single unit production capacity. The two 900,000 tons/year production capacity of a total of 1.8 million tons/year is also the highest in the world for a single factory. The 450,000 tons/year polypropylene unit will be the largest single unit unit production capacity in the country. Located in Dongjiakou Economic Zone, Qingdao, Shandong Province, as the 33rd tens-billion-level project in the West Coast New Area, the Shandong Jinneng Technology New Materials and Hydrogen Energy Comprehensive Utilization Project was signed, approved, and started that year. Now the first phase of the project, covering more than 2,000 acres of land, has been fully started, and more than half of the civil engineering work has been completed. It will enter the equipment installation stage by the end of the year.

In order to better meet the requirements of downstream applications, the main methods of PP modification are as follows:: Graft modification In the early 1990s, the United States proposed an advanced solid-phase graft modification method, and has now developed related products, such as the chlorinated modified pp (mcpp) resin produced by Eastman Company, which sells for more than 500,000 yuan per ton in the Chinese market. Modified pp (mpp) and mcpp are used as special pp materials. * * It expands the application scope of pp and has great economic benefits. Copolymerization modification Copolymerization modification refers to the modification carried out in the polymerization stage using a catalyst and mainly propylene monomer. Copolymerization of propylene monomer with other olefin monomers can improve the low-temperature toughness, impact performance, transparency and processing fluidity of polypropylene. Cross-linking modification of modified polypropylene is an effective method to increase the heat distortion temperature of polypropylene, and can also improve the mechanical properties of polypropylene. Cross-linking modification mainly includes radiation cross-linking method and chemical cross-linking method. Radiation cross-linking is a cross-linking reaction in which free radicals are generated from polypropylene molecular chains under the action of high-energy rays. Chemical cross-linking generally involves adding peroxide as an initiator to PP and adding a co-cross-linking agent to achieve the cross-linking reaction. Blending modification is a simple and effective modification method. Blending other plastics, rubber or thermoplastic elastomers with PP can produce polymer alloys that have the properties of these polymers. Blending modification of polypropylene can improve the polymer's low-temperature impact resistance, transparency, colorability, antistatic properties, etc. Polymers commonly used for blend modification of polypropylene include polyethylene (PE), polyamide (PA), ethylene-propylene rubber (EPR), ethylene-propylene diene rubber (EPDM), butadiene rubber (ER), styrene-butadiene-styrene block copolymer (SBS), ethylene-vinyl acetate copolymer (EVA), etc.