催化裂解

  • 网络catalytic cracking;dcc;FCC
催化裂解催化裂解
  1. 催化裂解工艺的能耗与可用能分析

    Analysis on energy consumption and energy conservation of DCC unit

  2. 催化裂解催化剂的新进展

    Advances of DCC catalyst

  3. C4烯烃催化裂解微反应评价工艺的改进

    Improvement on Process of Micro-reactor Evaluation for Catalytic Cracking of C_4 Olefins

  4. C4烯烃催化裂解增产丙烯技术进展

    Advances in Catalytic Cracking of C_4 Olefin to Propylene

  5. 重油催化裂解C4烃的二次裂解性能研究

    Study on secondary cracking performance of c_4 hydrocarbon from heavy oil catalytic pyrolysis

  6. 对催化裂解装置裂解气分离回收单元的中冷油吸收脱甲烷塔的主要工艺参数应用大型化工软件PROCESS进行了优化和全面分析。

    The major process parameters of demethanizer in the recovery section of FCC unit are optimized and analysed by using the chemical simulator process .

  7. 乙烯裂解油中芳烃的生产技术系统压差和pH值对催化裂解产物烯烃的影响

    Effect of system pressure difference and pH values on the olefine products of catalytic pyrolysis

  8. 催化裂解C2H2制备空心碳球

    Preparation of Hollow Carbon Spheres by Catalytic Pyrolysis of C_2H_2

  9. 激光诱导H2S催化裂解制备H2的研究

    The Study of Catalytic Decomposition of H_2S to H_2 Induced by Laser

  10. 混合C8芳烃中的乙苯选择性催化裂解为苯和乙烯,对于裂解C8芳烃的加工有重要意义。

    In this study the catalytic cracking of the mixed C_8 aromatics in the presence of hydrogen gas has been studied .

  11. 热等离子射流法Co2O3/FeS催化裂解甲烷制备碳纳米管的研究

    The synthesis of carbon nanotubes by Co_2O_3 / FeS catalyzing from methane using thermal plasma jet

  12. Cu/La2O3催化裂解乙炔制备碳纳米纤维

    Preparation of Carbon Nanofibers by Catalytic Pyrolysis Ethine using Cu / La_2O_3 as the Catalyst

  13. 催化裂解CH4制备不同形貌的碳纳米管

    Production of Carbon Nanotubes With Different Shapes By Catalytic Pyrolysis of Methane

  14. 催化裂解CH4或CO制碳纳米管结构性能的谱学表征

    Studies on Structure and Property of Carbon nanotubes Formed Catalytically from Decomposition of CH 4 or CO

  15. ZRP沸石对FCC汽油催化裂解产丙烯的影响

    The effects of ZRP zeolites on FCC gasoline catalytic cracking for propylene

  16. C4烯烃催化裂解制丙烯/乙烯

    Catalytic Cracking of C_4 Alkenes to Propene / ethene

  17. Al-MCM-48中Al含量对高密度聚乙烯催化裂解的影响

    Catalytic degradation of HDPE over Al-MCM-48 : effect of aluminum content

  18. 采用无碱脱臭Ⅱ型工艺,在较低的操作空速下对安庆催化裂解(DCC)汽油进行了脱臭试验。

    DCC gasoline of Anqing refinery was sweetened on caustic free sweetening experimental unit .

  19. 以化学改性膨润土为催化剂,利用化学气相沉积法催化裂解CH4,在高温条件下成功地制备了碳纳米管,并用透射电镜对其形貌与结构特征进行了表征。

    Titanate-modified bentonite could catalyze acetylene into synthesis carbon nanotubes at high temperature by thermal chemical vapor deposition .

  20. 深度催化裂解(DCC)技术

    Deep Catalytic Cracking ( DCC ) Technology

  21. 催化裂解(DCC)新技术的开发与应用

    Development and Application of DCC New Technology

  22. 利用脉冲微反色谱技术对C5~C8的烃类进行了催化裂解的研究。

    Pulse micro-reactor was used to investigate the catalytic pyrolysis of hydrocarbons .

  23. 以白云石为载体制备的Ni基催化剂对松木粉在700℃下气化产生的焦油进行了催化裂解实验研究,并与重油裂解催化剂进行了对比。

    Study on biomass tar made of pine powder gasified using Ni base catalyst with dolomite carrier at 700 ℃ was worked out and compared with heavy oil cracking catalyst .

  24. SAPO-34分子筛上丁烯催化裂解制乙烯和丙烯

    Catalytic Cracking of Butene to Ethylene and Propylene over SAPO-34 Molecular Sieves

  25. 并介绍了C4烯烃芳构化、催化裂解、歧化制低碳烯烃等新技术的研究进展情况。

    The technique advance of C4 olefin aromatization , catalytic cracking and disproportionation for producing low-carbon olefin were introduced too .

  26. 安庆催化裂解(DCC)汽油硫醇硫难以脱除的原因分析

    Analysis on the reasons of mercaptan sulfur in DCC gasoline of Anqing refinery difficult to reach gasoline standards

  27. MGD技术在催化裂解装置中的工业实践

    Industry Practice of MGD Technique in the Catalytic Cracking Plant

  28. 以萘为生物质焦油模型化合物,在以白云石为载体制备的Ni基催化剂上进行了催化裂解实验研究,对催化剂的制备技术、活性、积炭失活性能和再生方式进行了实验分析。

    With naphthalene as model compound , the catalytic cracking experiments on biomass tar are made on Ni catalysts , and its catalyst preparation , activity , coke forming , and regeneration is analyzed .

  29. 中孔分子筛Al-MCM-41催化裂解聚烯烃反应研究

    Study on catalytic pyrolysis of polyolefins over Al-MCM-41

  30. 还对催化裂解法制备CNTs固定床、沸腾床、移动床和浮动催化法等四种工艺进行了对比。

    Also the comparisons with four catalytic cracking processes of producing ( CNTs ), including fixed bed , fluidized bed , moving bed and floating catalysis , are carried out .