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New chemical manufacturing technologies can pose an opportunity or a threat. Whether you are acquiring a new technology or responding to a rival, the ability to quickly compare technical designs and production costs is a competitive advantage.
Process Economics Program (PEP) Yearbook is the world’s largest online process economics database, with access to 2,000+ process technologies used to produce 600+ chemicals in 6 regions.The only source for new process analysis, PEP Reports and Reviews allow you to uncover the impact of changes in processes, feedstocks, energy prices, and government regulations on chemical and fuel production economics. In addition, with the iPEP Navigator, you can generate process economics tailored to your project needs.
Chemical, energy, engineering and investment firms use PEP to:
Reduce the time and cost it takes to collect and assess new technology information
Make investment and production decisions based on unbiased, expert assessments
Customize process economics data to specific project needs
Compare production costs and technical designs to optimize technology selection
Keep pace with technology, market and regulatory developments
Capitalize on market shifts and mitigate competitor threats
To learn more about each of our PEP products and how you can use them, click on the individual report names below.
Clients can view abstracts, tables of contents, and prices for individual reports by viewing the listing of PEP reports currently available. To view the listing of recently issued reports, see Latest Updates under Chemical News.
The 2025 PEP schedule is available here.
The 2024 PEP schedule is available here.
The 2023 PEP schedule is available here.
| Year | Report Number | Report Name |
|---|---|---|
| 2025 | 44D | Advanced Technologies for Blue Ammonia |
| 148E | Electrified Reforming technologies for Low-Carbon Hydrogen and Methanol | |
| 180K | Emerging Carbon Capture Technologies | |
| 29P | Ethane e-Cracker: Comparative Analysis of Electricity Sources | |
| 211D | Hydrocracking Naphtha to Ethane and Propane (NEP) | |
| 36F | Innovation in Polyethylene Production | |
| 278E | Lifecycle Assessment of Bio-feedstocks and Biofuels | |
| 32I | Low-Carbon Hydrogen: Well-to-Gate | |
| 261C | Methanol to Olefins Technologies | |
| 10E | Sustainable Polyurethane Technology | |
| 2024 | 199L | Advanced Plastic Recycling Update |
| 32G | Ammonia Cracking Technologies for Hydrogen Production | |
| 310B | Batteries for Energy Storage | |
| 265C | Bio-Based Polymers | |
| 180J | Carbon Capture Options for a Coal Gasification Plant | |
| 180I | Carbon Dioxide Capture Economic Model - Part II | |
| 29O | Ethylene e-Cracker: Comparative Analysis of Electricity Sources | |
| 278D | Fuels and Chemicals from Renewable Resources | |
| 32H | Retrofitting for Hydrogen as a Fuel | |
| 303F | TC2C™ Thermal Crude to Chemicals Technology | |
| 2023 | 199J | Base Chemicals from Plastics Pyrolysis Oil |
| 180H | Carbon Dioxide Capture Economics Model | |
| 32F | Commercially Available Blue Hydrogen Production | |
| 32E | Hydrogen by Electrolysis | |
| 199K | Hydrogen from Plastic Waste | |
| 310A | Lithium-based Materials for Battery Production | |
| 29N | Net-zero Ethylene Production by Steam Cracking of Naphtha | |
| 285C | Small-scale CO2 Utilization Plants | |
| 278C | Sustainable Fuels from Waste Residues | |
| 285D | Synthetic Fuels from Hydrogen and Captured Carbon Dioxide | |
| 2022 | 180G | Alternative Carbon Capture Technologies |
| 310 | Batteries for Electric Vehicles | |
| 278B | Bio-based Sustainable Aviation Fuels | |
| 115E | Biodegradable Polymers | |
| 235A | Direct Ethanol to C4 Chemicals and Fuels | |
| 226A | Innovative Reactors and Process Intensification | |
| 303E | Light olefins focused crude oil to chemicals complex | |
| 285B | Monetizing CO2 | |
| 304A | Powering Shipping with Low Carbon Options | |
| 199I | Tire Recycling | |
| 2021 | 309 | Bio-Based Monoethylene Glycol (MEG) |
| 29L | Bioethylene by Ethanol Dehydration | |
| 153G | Catalysts for Reforming Naphtha to Hydrocarbons | |
| 303D | Crude Oil Conversion to Chemicals | |
| 32D | Hydrogen Delivery Options | |
| 199G | Large-scale Pyrolysis—Plastic Chemical Recycling | |
| 180F | Next Generation Carbon Capture | |
| 43G | Reduced Carbon Intensity and Renewable Methanol Production | |
| 29M | Reduced Carbon Intensity Ethylene Production | |
| 199H | Solvent-Based Recycling of Waste Plastics | |
| 2020 | 199E | Advances in Mixed Plastics Chemical Recycling |
| 285A | Carbon Dioxide Utilization Technologies | |
| 153F | Catalysts for Polyolefins | |
| 303C | Crude Oil to p-Xylene—Shenghong Refinery-PX Complex | |
| 199F | Mechanical Recycling of Waste Polymers | |
| 216B | Natural Gas Sweetening by Membrane Separation | |
| 308 | Polyolefin Elastomers/Plastomers (POE/POP) | |
| 195C | Pushing FCC for Maximum Chemicals Production | |
| 303B | Refinery Configurations for Maximizing Crude Oil to Chemicals Production | |
| 278A | Second Generation Biofuels |
| Review Number | Review Name |
|---|---|
| S2025-17 | Navigating the IMO's 2025 Net-Zero Framework: Compliance, Fuel Choices and Costs |
| S2025-16 | CBAM: A Trade-based Carbon Pricing Instrument to Incentivize Global Climate Ambition |
| 2025-15 | Lithium Fluoride |
| 2025-14 | KTS (Invista) P8++ Technology for Purified Terephthalic Acid (PTA) |
| 2025-13 | Biodiesel from Palm Oil Waste |
| 2025-12 | Dynamic Construction Location Factors Update |
| 2025-11 | Low-carbon Methanol Value Chain |
| 2025-10 | Monazite Ore Processing for Rare Earth Oxides and Thorium Extraction — Part 1 |
| 2025-09 | Phosphoric Acid Manufacture by Prayon Process |
| 2025-08 | Microplastics: A Profile |
| 2025-07 | Update on Johnson Matthey LCH™ Technology |
| 2025-06 | Carbon Footprint in Chemical Industry – Fuels and Gases |
| 2025-05 | Carbon Footprint in Chemical Industry – Organic Chemical Products |
| 2025-04 | Lithium Hexafluorophosphate |
| 2025-03 | Industrial Enzymes — Cellulase Production for Bioethanol |
| 2025-02 | Bastnäsite Ore Processing for Rare-earth Oxide Production – Part II |
| 2025-01 | Carbon dioxide Liquefaction for Shipping Transport |
| 2024-16 | Small Modular Reactors White Paper |
| 2024-15 | Polyvinylidene Fluoride using Non-Fluorinated Surfactant |
| 2024-14 | Hydrocracking for Naphtha Part 2: Vacuum Gas Oil |
| 2024-13 | SK Innovation’s Nexlene™ Process |
| 2024-12 | Ammonia as a Direct Fuel for Gas Turbine |
| 2024-11 | Turquoise Hydrogen: Methane Pyrolysis by HAZER® Process |
| 2024-10 | Dynamic Construction Location Factors Update |
| 2024-09 | Biogas from Biomass |
| 2024-08 | Biodiesel from Palm Oil |
| 2024-07 | On-purpose Butadiene Production by LG-Chem Process |
| 2024-06 | Bastnäsite Ore Processing for Rare-earth Oxide Production — Part I |
| 2024-05 | Hydrodealkylation of Toluene for Benzene Production by Axens Technology |
| 2024-04 | Ultrapure Water for Green Hydrogen |
| 2024-03 | Production of MDEA |
| 2024-02 | Per- and Polyfluoroalkyl Substances (PFAS): A Profile |
| 2024-01 | Carbon Footprint of Chemical Industry |
| 2023-15 | Dynamic Location Factors Update |
| 2023-14 | Novolen® Polypropylene Update |
| 2023-13 | TrueBlue Methanol® Process |
| 2023-12 | Vinyl Chloride Monomer |
| 2023-11 | Sour Water Stripping with Ammonia Separation |
| 2023-10 | Monetizing CO2 Impact of IRS Rule 45Q |
| 2023-09 | Hydrochloric Acid from Hydrogen and Chlorine |
| 2023-08 | Diesel Hydrocracking for Naphtha |
| 2023-07 | Oleic Acid Production from Crude Palm Oil (CPO) |
| 2023-06 | UOP’s MaxEne™ Process |
| 2023-05 | XPRIZE Milestone Award Winners — A First Look at Their Commercial Prospects |
| 2023-04 | Green Ammonia via Electrolytic Hydrogen |
| 2023-03 | Gasoline Production by GT-BTX PluS |
| 2023-02 | Blue Ammonia via Casale’s A6000CC™ Technology |
| 2023-01 | CO2 to Ethylene via Electroreduction |
| 2022-15 | Decarbonizing a Palm Oil Mill and Refinery |
| 2022-14 | Isopropyl Alcohol (IPA) from Acetone |
| 2022-13 | Polybutylene Terephthalate |
| 2022-12 | Propylene Glycol from Glycerin by Sulzer GTC’s GT-ProGSM Process |
| 2022-11 | Blue Hydrogen Via Autothermal Reforming |
| 2022-10 | Assessment of a Biogas Refinery |
| 2022-09 | Phthalic Anhydride—An Update |
| 2022-08 | Methanol-to-Hydrogen Conversion Process |
| 2022-07 | Blue Hydrogen |
| 2022-06 | Deep Catalytic Cracking (DCC) |
| 2022-05 | Dow Net-zero Olefins from Ethane |
| 2022-04 | Low Carbon Ethylene Production Via E-Furnace Powered by Allam Cycle |
| 2022-03 | Net-zero carbon ethylene production via recovery of CO2 from cracking furnace flue gas |
| 2022-02 | Natural Gas to Ammonia by Linde Ammonia Concept (LAC™) Process |
| 2022-01 | Mitsubishi Gas Chemicals Methanol Process |
| 2021-15 | Hydrogen from Natural Gas with Carbon Capture |
| 2021-14 | Economics of Cold Energy Recovery in LNG Regasification |
| 2021-13 | Cost Analysis of a Typical Oil and Gas Production Unit |
| 2021-12 | Fertilizer Grade Ammonium Nitrate Production by KBR Process |
| 2021-11 | FCC Revamp Economics |
| 2021-10 | Carbon Footprint and Allocation in an Integrated Refinery-Petrochemical Complex |
| 2021-09 | Wet Sulfuric Acid Process |
| 2021-08 | Hydrogen from Natural Gas with 60% Carbon Dioxide Capture |
| 2021-07 | Hydrogen and Carbon Black by Methane Pyrolysis |
| 2021-06 | Polyethylene Production by Borealis' Borstar® 3G PE Multimodal Process |
| 2021-05 | Natural Gas to Gasoline by Haldor Topsøe’s TIGAS™ Process |
| 2021-04 | Mixed Feed Naphtha Steam Cracking |
| 2021-03 | Sulfur forming—Granulation Process |
| 2021-02 | Electric Power Via NET Power |
| 2021-01 | Processing Lean Natural Gas |
| 2020-15 | Green Ammonia Technology |
| 2020-14 | Maleic Anhydride from n-Butane by Scientific Design Co. process |
| 2020-13 | Plastic Recycling - Value Preservation and Carbon Avoidance |
| 2020-12 | Ethane Export Terminal |
| 2020-11 | Integrated cumene-phenol/acetone/Bisphenol A- Part III: Bisphenol A |
| 2020-10 | Integrated cumene-phenol/acetone/Bisphenol A- Part II: Phenol/Acetone |
| 2020-09 | Integrated cumene-phenol/acetone/Bisphenol A- Part I: Cumene |
| 2020-08 | Maleic Anhydride by Huntsman Technology |
| 2020-07 | Green Methanol Production Process |
| 2020-06 | LNG Regasification Terminal |
| 2020-05 | Floating Methanol Production |
| 2020-04 | KBR K-COT Catalytic Cracking Process |
| 2020-03 | Polyetherketoneketone (PEKK) |
| 2020-02 | Phenol Production by ExxonMobil 3-step Process |
| 2020-01 | Next Wave Ethylene to Alkylate |
| Report Number | Report Name |
|---|---|
| CR001 | Wide Range Linear Alpha Olefin Processes |
| CR002 | On-Purpose Linear Alpha Olefin Processes |
| CR003 | Propylene Oxide |
| CR004 | Oxo Alcohols |
| CR005 | On-Purpose Acetic Acid |
| CR006 | Polypropylene Impact Copolymer |
Access the world’s largest online process economics database. Updated quarterly, the PEP Yearbook includes:
Clients can view abstracts, tables of contents, and prices for individual reports by viewing the listing of PEP reports currently available. To view the listing of recently issued reports, see Latest Updates under Chemical News.
The 2025 PEP schedule is available here.
The 2024 PEP schedule is available here.
The 2023 PEP schedule is available here.
| Year | Report Number | Report Name |
|---|---|---|
| 2025 | 44D | Advanced Technologies for Blue Ammonia |
| 148E | Electrified Reforming technologies for Low-Carbon Hydrogen and Methanol | |
| 180K | Emerging Carbon Capture Technologies | |
| 29P | Ethane e-Cracker: Comparative Analysis of Electricity Sources | |
| 211D | Hydrocracking Naphtha to Ethane and Propane (NEP) | |
| 36F | Innovation in Polyethylene Production | |
| 278E | Lifecycle Assessment of Bio-feedstocks and Biofuels | |
| 32I | Low-Carbon Hydrogen: Well-to-Gate | |
| 261C | Methanol to Olefins Technologies | |
| 10E | Sustainable Polyurethane Technology | |
| 2024 | 199L | Advanced Plastic Recycling Update |
| 32G | Ammonia Cracking Technologies for Hydrogen Production | |
| 310B | Batteries for Energy Storage | |
| 265C | Bio-Based Polymers | |
| 180J | Carbon Capture Options for a Coal Gasification Plant | |
| 180I | Carbon Dioxide Capture Economic Model - Part II | |
| 29O | Ethylene e-Cracker: Comparative Analysis of Electricity Sources | |
| 278D | Fuels and Chemicals from Renewable Resources | |
| 32H | Retrofitting for Hydrogen as a Fuel | |
| 303F | TC2C™ Thermal Crude to Chemicals Technology | |
| 2023 | 199J | Base Chemicals from Plastics Pyrolysis Oil |
| 180H | Carbon Dioxide Capture Economics Model | |
| 32F | Commercially Available Blue Hydrogen Production | |
| 32E | Hydrogen by Electrolysis | |
| 199K | Hydrogen from Plastic Waste | |
| 310A | Lithium-based Materials for Battery Production | |
| 29N | Net-zero Ethylene Production by Steam Cracking of Naphtha | |
| 285C | Small-scale CO2 Utilization Plants | |
| 278C | Sustainable Fuels from Waste Residues | |
| 285D | Synthetic Fuels from Hydrogen and Captured Carbon Dioxide | |
| 2022 | 180G | Alternative Carbon Capture Technologies |
| 310 | Batteries for Electric Vehicles | |
| 278B | Bio-based Sustainable Aviation Fuels | |
| 115E | Biodegradable Polymers | |
| 235A | Direct Ethanol to C4 Chemicals and Fuels | |
| 226A | Innovative Reactors and Process Intensification | |
| 303E | Light olefins focused crude oil to chemicals complex | |
| 285B | Monetizing CO2 | |
| 304A | Powering Shipping with Low Carbon Options | |
| 199I | Tire Recycling | |
| 2021 | 309 | Bio-Based Monoethylene Glycol (MEG) |
| 29L | Bioethylene by Ethanol Dehydration | |
| 153G | Catalysts for Reforming Naphtha to Hydrocarbons | |
| 303D | Crude Oil Conversion to Chemicals | |
| 32D | Hydrogen Delivery Options | |
| 199G | Large-scale Pyrolysis—Plastic Chemical Recycling | |
| 180F | Next Generation Carbon Capture | |
| 43G | Reduced Carbon Intensity and Renewable Methanol Production | |
| 29M | Reduced Carbon Intensity Ethylene Production | |
| 199H | Solvent-Based Recycling of Waste Plastics | |
| 2020 | 199E | Advances in Mixed Plastics Chemical Recycling |
| 285A | Carbon Dioxide Utilization Technologies | |
| 153F | Catalysts for Polyolefins | |
| 303C | Crude Oil to p-Xylene—Shenghong Refinery-PX Complex | |
| 199F | Mechanical Recycling of Waste Polymers | |
| 216B | Natural Gas Sweetening by Membrane Separation | |
| 308 | Polyolefin Elastomers/Plastomers (POE/POP) | |
| 195C | Pushing FCC for Maximum Chemicals Production | |
| 303B | Refinery Configurations for Maximizing Crude Oil to Chemicals Production | |
| 278A | Second Generation Biofuels |
| Review Number | Review Name |
|---|---|
| S2025-17 | Navigating the IMO's 2025 Net-Zero Framework: Compliance, Fuel Choices and Costs |
| S2025-16 | CBAM: A Trade-based Carbon Pricing Instrument to Incentivize Global Climate Ambition |
| 2025-15 | Lithium Fluoride |
| 2025-14 | KTS (Invista) P8++ Technology for Purified Terephthalic Acid (PTA) |
| 2025-13 | Biodiesel from Palm Oil Waste |
| 2025-12 | Dynamic Construction Location Factors Update |
| 2025-11 | Low-carbon Methanol Value Chain |
| 2025-10 | Monazite Ore Processing for Rare Earth Oxides and Thorium Extraction — Part 1 |
| 2025-09 | Phosphoric Acid Manufacture by Prayon Process |
| 2025-08 | Microplastics: A Profile |
| 2025-07 | Update on Johnson Matthey LCH™ Technology |
| 2025-06 | Carbon Footprint in Chemical Industry – Fuels and Gases |
| 2025-05 | Carbon Footprint in Chemical Industry – Organic Chemical Products |
| 2025-04 | Lithium Hexafluorophosphate |
| 2025-03 | Industrial Enzymes — Cellulase Production for Bioethanol |
| 2025-02 | Bastnäsite Ore Processing for Rare-earth Oxide Production – Part II |
| 2025-01 | Carbon dioxide Liquefaction for Shipping Transport |
| 2024-16 | Small Modular Reactors White Paper |
| 2024-15 | Polyvinylidene Fluoride using Non-Fluorinated Surfactant |
| 2024-14 | Hydrocracking for Naphtha Part 2: Vacuum Gas Oil |
| 2024-13 | SK Innovation’s Nexlene™ Process |
| 2024-12 | Ammonia as a Direct Fuel for Gas Turbine |
| 2024-11 | Turquoise Hydrogen: Methane Pyrolysis by HAZER® Process |
| 2024-10 | Dynamic Construction Location Factors Update |
| 2024-09 | Biogas from Biomass |
| 2024-08 | Biodiesel from Palm Oil |
| 2024-07 | On-purpose Butadiene Production by LG-Chem Process |
| 2024-06 | Bastnäsite Ore Processing for Rare-earth Oxide Production — Part I |
| 2024-05 | Hydrodealkylation of Toluene for Benzene Production by Axens Technology |
| 2024-04 | Ultrapure Water for Green Hydrogen |
| 2024-03 | Production of MDEA |
| 2024-02 | Per- and Polyfluoroalkyl Substances (PFAS): A Profile |
| 2024-01 | Carbon Footprint of Chemical Industry |
| 2023-15 | Dynamic Location Factors Update |
| 2023-14 | Novolen® Polypropylene Update |
| 2023-13 | TrueBlue Methanol® Process |
| 2023-12 | Vinyl Chloride Monomer |
| 2023-11 | Sour Water Stripping with Ammonia Separation |
| 2023-10 | Monetizing CO2 Impact of IRS Rule 45Q |
| 2023-09 | Hydrochloric Acid from Hydrogen and Chlorine |
| 2023-08 | Diesel Hydrocracking for Naphtha |
| 2023-07 | Oleic Acid Production from Crude Palm Oil (CPO) |
| 2023-06 | UOP’s MaxEne™ Process |
| 2023-05 | XPRIZE Milestone Award Winners — A First Look at Their Commercial Prospects |
| 2023-04 | Green Ammonia via Electrolytic Hydrogen |
| 2023-03 | Gasoline Production by GT-BTX PluS |
| 2023-02 | Blue Ammonia via Casale’s A6000CC™ Technology |
| 2023-01 | CO2 to Ethylene via Electroreduction |
| 2022-15 | Decarbonizing a Palm Oil Mill and Refinery |
| 2022-14 | Isopropyl Alcohol (IPA) from Acetone |
| 2022-13 | Polybutylene Terephthalate |
| 2022-12 | Propylene Glycol from Glycerin by Sulzer GTC’s GT-ProGSM Process |
| 2022-11 | Blue Hydrogen Via Autothermal Reforming |
| 2022-10 | Assessment of a Biogas Refinery |
| 2022-09 | Phthalic Anhydride—An Update |
| 2022-08 | Methanol-to-Hydrogen Conversion Process |
| 2022-07 | Blue Hydrogen |
| 2022-06 | Deep Catalytic Cracking (DCC) |
| 2022-05 | Dow Net-zero Olefins from Ethane |
| 2022-04 | Low Carbon Ethylene Production Via E-Furnace Powered by Allam Cycle |
| 2022-03 | Net-zero carbon ethylene production via recovery of CO2 from cracking furnace flue gas |
| 2022-02 | Natural Gas to Ammonia by Linde Ammonia Concept (LAC™) Process |
| 2022-01 | Mitsubishi Gas Chemicals Methanol Process |
| 2021-15 | Hydrogen from Natural Gas with Carbon Capture |
| 2021-14 | Economics of Cold Energy Recovery in LNG Regasification |
| 2021-13 | Cost Analysis of a Typical Oil and Gas Production Unit |
| 2021-12 | Fertilizer Grade Ammonium Nitrate Production by KBR Process |
| 2021-11 | FCC Revamp Economics |
| 2021-10 | Carbon Footprint and Allocation in an Integrated Refinery-Petrochemical Complex |
| 2021-09 | Wet Sulfuric Acid Process |
| 2021-08 | Hydrogen from Natural Gas with 60% Carbon Dioxide Capture |
| 2021-07 | Hydrogen and Carbon Black by Methane Pyrolysis |
| 2021-06 | Polyethylene Production by Borealis' Borstar® 3G PE Multimodal Process |
| 2021-05 | Natural Gas to Gasoline by Haldor Topsøe’s TIGAS™ Process |
| 2021-04 | Mixed Feed Naphtha Steam Cracking |
| 2021-03 | Sulfur forming—Granulation Process |
| 2021-02 | Electric Power Via NET Power |
| 2021-01 | Processing Lean Natural Gas |
| 2020-15 | Green Ammonia Technology |
| 2020-14 | Maleic Anhydride from n-Butane by Scientific Design Co. process |
| 2020-13 | Plastic Recycling - Value Preservation and Carbon Avoidance |
| 2020-12 | Ethane Export Terminal |
| 2020-11 | Integrated cumene-phenol/acetone/Bisphenol A- Part III: Bisphenol A |
| 2020-10 | Integrated cumene-phenol/acetone/Bisphenol A- Part II: Phenol/Acetone |
| 2020-09 | Integrated cumene-phenol/acetone/Bisphenol A- Part I: Cumene |
| 2020-08 | Maleic Anhydride by Huntsman Technology |
| 2020-07 | Green Methanol Production Process |
| 2020-06 | LNG Regasification Terminal |
| 2020-05 | Floating Methanol Production |
| 2020-04 | KBR K-COT Catalytic Cracking Process |
| 2020-03 | Polyetherketoneketone (PEKK) |
| 2020-02 | Phenol Production by ExxonMobil 3-step Process |
| 2020-01 | Next Wave Ethylene to Alkylate |
| Report Number | Report Name |
|---|---|
| CR001 | Wide Range Linear Alpha Olefin Processes |
| CR002 | On-Purpose Linear Alpha Olefin Processes |
| CR003 | Propylene Oxide |
| CR004 | Oxo Alcohols |
| CR005 | On-Purpose Acetic Acid |
| CR006 | Polypropylene Impact Copolymer |
Access the world’s largest online process economics database. Updated quarterly, the PEP Yearbook includes:
With PEP, you can visualize each step, from the initial process flow to estimated capital investment costs and more.
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