1.1 Research Scope

1.2 Research Methodology

1.3 Research Methodology Explained

1.4 Key Findings

2.1 Decarbonization of the Global Energy Industry Increases Demand for Metals

2.2 Use of Steel in Specific Energy Sectors

3.1 Steel that Offers Superior Properties at Lower Temperatures Sought After for LNG Storage

3.2 High Manganese Steel Capable of Lower Operating Temperatures

3.2 High Manganese Steel Capable of Lower Operating Temperatures (contd.)

3.3 Corrosion Resistant Stainless Steel with High Chromium and Nitrogen Content for LNG Storage

3.3 Corrosion Resistant Stainless Steel with High Chromium and Nitrogen Content for LNG Storage (contd.)

4.1 Anti-corrosive Steel Properties Desired in Geothermal Sector

4.2 Corrosion-resistant Coatings for High Temperature Geothermal Applications

4.2 Corrosion-resistant Coatings for High Temperature Geothermal Applications (contd.)

4.3 Corrosion-resistant Steel for Gas Abatement System

4.3 Corrosion-resistant Steel for Gas Abatement System (contd.)

4.4 New Additive Manufacturing Technique Creates Steel with Better Properties than Conventional Steel

4.4 New Additive Manufacturing Technique Creates Steel with Better Properties than Conventional Steel (contd.)

5.1 Austenitic Steel Alloys with Better Creep Strength and Oxidation Resistance for Nuclear Reactors

5.2 Novel Testing Procedure for Analyzing the Mechanical Properties of New Alloys

5.2 Novel Testing Procedure for Analyzing the Mechanical Properties of New Alloys (continued)

5.3 Annealing Solution to Improve the Operational Lifetime of Nuclear Reactors

5.3 Annealing Solution to Improve the Operational Lifetime of Nuclear Reactors (contd.)

6.1 Overview of Industry Needs: Coal Thermal

6.2 High Chromium and Nickel Based Alloys for Better Oxidation Resistance

6.2 High Chromium and Nickel Based Alloys for Better Oxidation Resistance (contd.)

6.3 Oxidation Resistant Steel For High Temperature Steam Applications

6.3 Oxidation Resistant Steel For High Temperature Steam Applications (contd.)

6.4 Austenitic Stainless Steel for Advanced Coal-fired Power Plants

6.4 Austenitic Stainless Steel for Advanced Coal-fired Power Plants (contd.)

7.1 Overview of Industry Needs: Steel for Biomass Based Power Generation

7.2 Improved Corrosion Rates with Adjustment of Alkali Mixtures

7.2 Improved Corrosion Rates with Adjustment of Alkali Mixtures (contd.)

7.3 Corrosion-resistant Coatings for Biomass Based Boilers

7.3 Corrosion-resistant Coatings for Biomass Based Boilers (contd.)

7.4 Glass Lined Steel for Biogas production and Biomass Digesters

7.4 Glass Lined Steel for Biogas production and Biomass Digesters

8.1 High Entropy Alloys Withstand High Temperatures in Nuclear Reactors

8.1 High Entropy Alloys Withstand High Temperatures in Nuclear Reactors (contd.)

8.2 Ni-based Superalloy for Advanced Ultra-supercritical Power Plants

8.2 Ni-based Superalloy for Advanced Ultra-supercritical Power Plants (contd.)

9.1 Better Storage to Improve Effective Transportation and Storage of LNG

9.2 Advanced Manufacturing Presents Geothermal sector with New Possibilities

9.3 Nickel and Chromium-based Alloys Present High Oxidation and Creep Resistance at the Expense of Cost Effectiveness and Mechanical Strength Respectively

9.4 Variation in Temperature and Load Can Have Impact on the Corrosion Profile

10.1 Industry Contacts

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