• 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.

• Review US EPA requirements and guidance
• Cover corrosion simulation and laborato
• Cover final selection factors in addition to technical factors including lead times and business needs

• Why confidence in long-term storage performance is becoming a critical enabler of large-scale CCUS deployment.
• How monitoring, verification, and digitalization connect evidence to decisions and improve operational assurance across the storage lifecycle.
• What industry leaders can do now to design transparent, adaptive, and scalable carbon storage systems.

• Overcoming the Technical Trap: Identifying the critical "Business Blind Spots" that frequently prevent technically strong engineering and technology companies from scaling successfully.
• Commercial Growth & Sales Strategy: Transforming technical innovations into market-ready, commercially sustainable businesses within the rapidly developing carbon capture value chain.
• Leadership & Strategic Execution: Shifting executive focus from working "in" the day-to-day mechanics of the business to strategically executing growth "on" the business.
• Scaling Teams for High Performance: Navigating the unique recruitment, retention, and team development challenges faced by growing energy organizations.

• Using waste biomass with carbon capture and sequestration to achieve carbon-negative power generation.
• Exploring the business case and monetization of carbon-negative attributes.
• Addressing technical requirements and feedstock management for successful project development.

• Engage stakeholders early to shape viable CO2 pipeline routes
• Build landowner support and secure easements before permitting
• Use documented feedback to strengthen route selection and approvals

• Explore the integration of biomass-derived syngas, carbon separation, hydrogen, synthetic sustainable aviation fuel, biochar, and energy recovery within industrial infrastructure.
• Examine key engineering and operational considerations, including carbon management pathways, lifecycle emissions accounting, and integration of multiple technologies.
• Understand the commercial and investment requirements for bankable projects, including ownership responsibilities, contractual structures, risk allocation, and financing readiness.

• Lessons from five years of CO? monitoring at Krechba.
• Why pre-injection baselines are critical for detecting leakage.
• How PGI enables more sensitive and cost-effective monitoring.

• Examine CO2 source profiles and offtake requirements to define purification needs based on impurity impacts and transport method
• Show how compression and interstage separation can reduce downstream impurity loads
• Demonstrate how fit-for-purpose design can reduce CAPEX, OPEX, and cost of CO2 handling while maintaining specification compliance
• Highlight practical strategies for flexible, reliable CO2 conditioning as CCUS projects scale

• Integrating capture, transport, and storage from FEED to execution.
• Managing technical and operational risks as CCS projects scale.
• Using digital tools and MRV to optimize performance and storage confidence.

• Integrating technical, regulatory, commercial, and stakeholder data for better CCUS decisions.
• Identifying uncertainties and data gaps affecting cost, schedule, permitting, and investment.
• Building evidence-based confidence for investors, regulators, and communities.

• Energy Security: Meeting growing energy demand while reducing emissions through CCUS.
• Enhanced Oil Recovery: Revitalizing mature oil fields through CO? utilization and improved infrastructure.
• Policy & Investment: Leveraging tax incentives and regulatory support to accelerate commercial CCUS deployment.

• Why cement producers need specialized partners for carbon capture and storage.
• How shared transport and storage hubs reduce costs and risks.
• Building partnerships to make carbon capture commercially viable for cement plants.

• Evaluating anchor customers based on emissions volume, project readiness, and commercial commitments.
• Building a scalable carbon storage network with multiple industrial customers.
• Establishing technical and commercial standards for reliable carbon dioxide transportation and storage.

• Power and Infrastructure Readiness: Addressing electricity demand, energy efficiency, and reliable power infrastructure to support large-scale CCS deployment.
• Infrastructure Integration and Regional Advantage: Aligning CO? transportation, storage, and power networks while leveraging Houston’s industrial ecosystem to improve project viability.
• Accelerating Commercial Deployment: Strengthening collaboration among industry, utilities, policymakers, and investors to reduce project risks, attract investment, and maintain competitiveness.

• Structuring bankable marine methanol offtake and carbon intensity guarantees.
• Navigating carbon accounting and certification for low-carbon marine fuels.
• Applying EPC lessons to first-of-a-kind plants: estimate maturity, long-lead strategy and contracting.