Concept build for management review. Copy, project status and figures are drafts pending verification; items marked verify need an owner’s sign-off before publication.

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Project profile

Alberta gas-plant decarbonization

Integrated oxy-fuel generation, facility electrification, air separation and CO₂ compression for sequestration at a large natural-gas processing plant in the Western Canadian Sedimentary Basin.

In development Stage: Pre-feasibility / project definition verify Last reviewed: 14 September 2026

Summary

Host facility
One of the larger natural-gas processing plants of a Calgary-based oil and gas producer. Host name not disclosed under confidentiality.
Location
Alberta, Canada — Western Canadian Sedimentary Basin. Sub-region not disclosed.
Valverde’s role
Project developer; prospective equity partner in the generation and carbon-management assets.
Technology
Clean Energy Systems Direct Steam Gas Generator (DSGG) oxy-fuel unit with gas-turbine generators, under Valverde’s master licence.
Fuel
Pipeline-quality natural gas from the plant.
Capacity basis
Not publicly disclosed. not disclosed
Carbon destination
Geological sequestration after compression. Storage site and operator not disclosed. design intent
Power offtake
Plant operations first; surplus zero-emission electricity to the Alberta grid. design intent
Next milestone
To be stated by management (for example: completion of a scoped feasibility study, or a development agreement). verify

The facility problem

A large gas plant runs continuous compression, refrigeration and treating loads, today driven by natural-gas engines and turbines that emit CO₂ and NOx from exhaust stacks. Its emissions exposure is rising under federal and provincial methane and carbon rules, while its power demand is not going anywhere.

The proposed project replaces that gas-driven equipment with electric drives powered by on-site oxy-fuel generation, so the plant’s own fuel becomes zero-emission electricity and the combustion CO₂ becomes a captured, compressed stream for sequestration rather than a stack emission.

Problem statement drafted from the public project description; to be validated with the host operator.

Proposed configuration

Scope of the project

As described publicly by Valverde. Each element is a design intent until feasibility confirms it.

01

Oxy-fuel generation

Install the CES Direct Steam Gas Generation unit and connect gas-turbine generators to produce electricity from the steam and CO₂ stream.

02

Facility electrification

Convert natural-gas-driven generators and compression to electric drive, removing their exhaust emissions and consolidating fuel use into the oxy-fuel unit.

03

Air separation unit

Implement a properly sized ASU to supply the oxygen the combustor requires.

04

CO₂ compression

Compress the captured CO₂ for transport and geological sequestration.

05

Grid export

Sell surplus zero-emission electricity into the Alberta grid, subject to interconnection.

06

Facility upgrades

Upgrade the affected existing facilities so that they operate with zero stack emissions. design target

Integrated oxy-fuel power and carbon-management system Fuel gas and oxygen from an air separation unit are combusted in an oxy-fuel generator. The steam and carbon dioxide drive a turbine generator that supplies the facility and exports to the grid. After condensing, water is recovered and the carbon dioxide stream is compressed for storage or enhanced oil recovery. INPUTS GENERATION POWER DELIVERY CARBON MANAGEMENT Fuel gas Pipeline gas, low-BTU or CO₂-rich streams Air separation unit Oxygen supply, sized to the site Oxy-fuel generator Combustion in oxygen, not air: no nitrogen, low NOx Output: steam + CO₂ (licensed CES design) Turbine generator Steam-driven electrical output Facility loads Electrified compression, generators, plant Grid export Dispatchable supply, where interconnected Condenser Separates the exhaust stream Water Recovered CO₂ stream High purity Compression To pipeline or injection pressure Storage or EOR Geological storage or enhanced recovery Exhaust Power CO₂
Illustrative system configuration. The Alberta project applies this arrangement to an existing plant; the actual configuration, capacities and interfaces are set during feasibility and FEED.
Progress

Milestones and dependencies

Completed

  • Host operator engaged; project scope defined at concept level (public)
  • Technology basis established: CES DSGG unit under Valverde master licence
  • Further completed items to be listed by management verify

Outstanding dependencies

  • Load, gas and site data sufficient for a scoped feasibility assessment
  • Oxygen supply configuration (on-site ASU sizing or over-the-fence supply)
  • Carbon destination: storage site, transport interface, pore-space and regulatory route
  • Alberta grid interconnection and export arrangements
  • Commercial model and development agreement between the host, Valverde and partners
  • Incentive determinations (CCUS ITC, TIER, other) for the specific project — professional review required

Next decision

To be stated by management. The project page will show the date of the next gate and what evidence it requires. verify

Responsibilities

Who does what

ElementResponsibleStatus
Project development, structuring, partner coordinationValverdeActive
Oxy-fuel technology, DSGG unitClean Energy Systems (licensor)Licensed
Host facility, site, fuel supplyHost operatorEngaged
Engineering (feasibility / FEED)To be appointedOpen
Oxygen supplyTo be appointedOpen
CO₂ transport and storageTo be appointedOpen
Power offtake / gridHost + AESO processOpen
Development and project capitalValverde + partnersModel to be confirmed

“Open” means no counterparty has been publicly named. Management may have appointed parties that are not yet disclosed. verify

Evidence

How to read the numbers on this project

Every figure attached to this project is one of the following. Where a number is not yet available at that standard, we say so instead of implying completion or scale.

ItemTypeCurrent basis
Electrical outputnot disclosedCapacity basis not published. The CES oxy-fuel solution is designed for roughly 10–100 MW per installation (supplier statement).
CO₂ captureddesign targetFull capture of combustion CO₂ from the oxy-fuel unit is the design intent. Denominator, downtime and bypass treatment to be defined in feasibility; no measured figure exists.
Stack emissions after conversiondesign targetZero stack emissions from the converted equipment is the target; residual emissions from any unconverted equipment are excluded from that statement.
Capital and operating costnot disclosedNo cost figures are published. Comparisons with post-combustion capture are project-specific and will be made in the feasibility study.
Fuel flexibilitysupplier dataPipeline gas at this site; CES data for other compositions is not needed for this configuration.
Independent assessmentnone publishedNo independently assessed or measured results have been published for this project.

A two-page project summary matching this page, with a version date, will be available on request once approved. Sensitive models and contracts are shared in a controlled diligence environment, not through a public download.

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