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Vortex Energy Announces Key Insights from Core Logging and Analysis at Robinsons River Salt Project

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VORTEX ENERGY CORP
VORTEX ENERGY CORP

Core Analysis Highlights Key Geological Features Supporting Hydrogen Storage Potential at Robinsons River Salt Project

VANCOUVER, British Columbia, Dec. 16, 2024 (GLOBE NEWSWIRE) -- Vortex Energy Corp. (CSE: VRTX | OTC: VTECF | FRA: AA3) (“Vortex” or the “Company”) is pleased to announce the completion of core logging and preliminary analysis of samples from Well VW231, part of the Robinsons River Salt Project (“The Project”) in Newfoundland. This study was conducted in collaboration with Dr. Hassan Dehghanpour and his research team at the University of Alberta under an NSERC Alliance research partnership, the findings highlight the geological suitability of the site for underground hydrogen storage (UHS).

The primary objective of the study was to evaluate the feasibility and safety of using the salt dome within the Robinsons River Formation for hydrogen storage. This involved assessing the structural integrity of the dome, the sealing capacity of the overlying rock layers, and the potential geochemical interactions between the salt formation and stored hydrogen. Samples were collected from Well VW231, which was drilled to a depth of 608 meters, terminating in the salt rock layer before encountering the pure halite reservoir. The samples were analyzed using advanced techniques, including:

  • Thin Section Microscopy: Provided detailed insights into mineral grain morphology and depositional history.

  • X-Ray Diffraction (XRD): Identified the mineral composition and confirmed halite as the dominant phase.

  • Raman Spectroscopy: Differentiated between key minerals such as gypsum and anhydrite and detected organic material, including bitumen.

  • Scanning Electron Microscopy (SEM): Analyzed microstructures, revealing impurities such as potash and carbonates within the halite matrix.

  • Insoluble Mineral Testing: Quantified impurity levels, showing an average of 20% insoluble material in the halite layers.

The analysis revealed that the overlying gypsum and mixed mudstone layers, composed primarily of insoluble minerals, exhibit excellent sealing capabilities essential for hydrogen containment. Core samples showed no vertical or horizontal fractures, affirming the structural integrity of the caprock and its ability to prevent gas leakage. Additionally, rare minerals such as clinoatacamite and antarcticite were identified, shedding light on the site's complex geochemical evolution. The presence of bitumen within the halite layers further indicates a rich depositional history and potential for hydrocarbon preservation.

"The preliminary results provide valuable insights into the geological suitability of the Project for underground hydrogen storage," said Paul Sparkes, CEO of Vortex Energy Corp. "These findings represent an important step in assessing the site’s potential and addressing the technical requirements for safe and efficient storage."