| Thermal and Catalytic Pyrolysis |
| Wong et al.4
|
different technologies for the production of fuels |
| fuels of single type plastics, mixed and municipal waste plastics |
| |
|
| Anuar Sharuddin et al.5
|
different technologies and operating conditions |
| composition and properties of the gas the liquids products to be used as
fuels |
| |
|
| Al-Salem et al.6
|
reaction technologies |
| role of the catalyst in the pyrolysis |
| |
|
| Lopez et al.3
|
technologies and operating conditions for the production of fuels and raw
materials from different plastics |
| pros and cons of each technology |
| |
|
| Kasar et al.7
|
reaction technologies |
| effects of the operating conditions on obtained products |
| co-pyrolysis of plastics with oil-derived residues |
| |
|
| Qureshi et al.8
|
opportunities and challenges for the commercialization of the liquid product
as a fuel |
| |
|
| Solis and Silveira9
|
pros and cons of the thermochemical routes |
| degree of establishment of different commercial technologies and pilot
plants |
| |
|
| Catalytic Pyrolysis |
| Serrano et al.10
|
effects of the porous structure and acidity of the catalyst on the product
distribution obtained in the cracking of polyolefins |
| |
|
| Miandad et al.11
|
advantages of catalytic pyrolysis |
| catalysts for the pyrolysis of different plastics |
| effects of the catalyst on the product composition and distribution |
| |
|
| Li et al.12
|
different catalysts in the pyrolysis of municipal solid wastes (mixtures of
plastics, paper, textiles, organic wastes, and others) |
| |
|
| Mark et al.13
|
analysis of the performance of different catalysts for the cracking of
plastics |
