• Retrofitting refinery FCC operations to condition flue gas while maintaining uptime and stable process performance
• Enabling carbon capture integration by reducing operational disruption and supporting measurable emissions reduction

• Overview of a passive, bio-based Direct Air Capture technology that removes CO? from the atmosphere and can be adapted for industrial emissions.
• Explanation of how the technology works, how it scales, and why it stands out from other carbon removal solutions.
• Insight into the commercial model, including carbon credit monetization and the value of CDR byproducts.

• Assessing the evolution of voluntary carbon markets, including offtaker participation, pricing dynamics, and long-term revenue signals
• Identifying CO? utilization pathways beyond enhanced oil recovery, supporting diversified revenues across construction, materials, and industrial sectors
• Translating financing and risk-mitigation lessons from geothermal and nuclear projects into stronger investor confidence for CCUS

• Northern Lights project as a model for cross border CO2 transport storage and open access infrastructure
• Examining CCS as a mature mitigation technology supported by decades of safe commercial operation
• Outlining capture transport and geological storage pathways enabled through public and private coordination

• Highlighting shared supply chain constraints as CCUS competes with LNG, hydrogen and data centers
• Examining fabrication capacity engineering availability and skilled labor shortages shaping CCUS timelines
• Assessing the impact of material inflation and interest rates on CCUS project cost and execution risk
• Discussing pathways for scaling CCUS reliably through coordinated planning and global execution hubs

• Positioning waste brine as a strategic input for scalable carbon removal while recovering usable freshwater
• Integrating direct air capture with industrial saltwater processes to reduce disposal costs and unlock new value
• Enhancing project economics through waste valorization, green chemical production, and flexible deployment models
• Demonstrating real-world performance through an integrated desalination and carbon capture facility in California

• Review of opposition and issue landscape
• Responding to common myths and correcting the record

• Building early stakeholder alignment by integrating community engagement into project planning and approvals
• Streamlining permitting timelines by aligning regulatory processes technical data and public communication

• Phased expansion of the Northern Lights project to scale annual CO2 injection capacity beyond five million tonnes
• Infrastructure additions including storage tanks transport vessels injection wells and onshore facilities
• Role of large scale CCS projects in national emissions reduction and long term commercial deployment

• Reviewing historic atmospheric CO2 levels alongside market demand pricing trends and policy influences
• Defining non geological sequestration destinations across advanced fuels chemicals and building materials
• Combining CO2 with hydrogen using electrochemical and thermochemical pathways for fuels polymers and plastics
• Comparing market values tax credits and merchant use cases to evaluate viable sequestration options

• Review US EPA requirements and guidance
• Cover corrosion simulation and laboratory testing considering formation brines, CO2 stream, and mixing
• Cover final selection factors in addition to technical factors including lead times and business needs

• Reducing security operations alert fatigue through AI-based triage and behavioural baselining across IT and OT environments
• Prioritising vulnerabilities using AI-driven risk scoring based on exploitability, operational exposure, and industrial safety impact
• Detecting and containing ransomware early through anomaly analytics spanning enterprise IT and operational technology systems
• Monitoring PLCs, HMIs, DCS, and field sensors to protecting process integrity across CCUS and critical infrastructure operations

• A CCS project to enable acceleration of CO2 transport and storage within the Netherlands and Europe while aiming meeting 2030 climate goals.
• Building a CO2 transportation network for the future with a 22 mpta capability through a 32”trunkline and offshore distribution hub by linking and potentially expanding CO2 storage complex opportunities on the North Sea.