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QIMC Reports Major Advancements in Ville Marie Geophysical Surveys for Natural Hydrogen Discovery and Launches Underwater Hydrogen Exploration and Sampling

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Lachute, Quebec--(Newsfile Corp. - November 14, 2024) - Quebec Innovative Materials Corp. (CSE: QIMC) (FSE: 7FJ) (OTC Pink: QIMCF) ("QI Materials", "QIMC" or the "Company"), QIMC is pleased to share a major advancement in our geophysical and gravimetric surveys for the Ville Marie Natural Hydrogen discovery, further demonstrating our dedication to our precise and data-driven hydrogen exploration. This recent survey encompassed over 1,000 gravimetric measurements, carefully conducted at 50-meter intervals across an expansive 80-square-kilometer area in the St-Bruno-de-Guigues region. These efforts are critical in evaluating the thickness of sedimentary rock layers that overlay the Archean volcano-plutonic greenstone belt, providing essential insights into the conditions for hydrogen formation and migration.

Our team is now performing advanced 2D and 3D inversion analysis on this comprehensive gravimetric dataset. These analyses will enable us to create detailed gravimetric models for St-Bruno-de-Guigues, which will integrate seamlessly with data from the central and southern areas to establish a district-scale gravity model. This model will further enhance our geological understanding and help identify prime locations for the hydrogen and helium conduits.

We are also optimizing parameters for an upcoming electromagnetic survey (TDEM), scheduled for winter 2024 into early 2025. QIMC's proprietary TDEM system, designed specifically for hydrogen and helium prospecting, is a cutting-edge ground-based system that provides high-resolution electrical resistivity and chargeability profiles. With penetration depths of 100-200 meters and horizontal resolutions as fine as 15 centimeters, this system is vital for identifying key hydrogen conduits and mapping bedrock fracture networks hidden beneath layers of glaciolacustrine sediments. The resulting structural insights will be instrumental in guiding soil-gas prospecting and drilling efforts to pinpoint natural hydrogen dominant advective conduits.

Hydrogen and Helium model

Following a successful hydrogen prospecting season in summer 2024-where our dedicated field team collected 1,100 samples, exceeding our original targets by double-we are setting ambitious goals for helium prospecting, with a comprehensive soil sampling program planned for 2025.

"As our geological model suggests, helium and hydrogen in this area appear to be generated through similar geological processes," notes Professor Marc Richer-Laflèche. "This model reveals a distinct distribution pattern: a helium-hydrogen mix towards the west, influenced by the Cobalt Group's arkosic rocks, which are rich in potassium and actinides, and a hydrogen-rich concentration towards the east, associated with the Baby Group's Iron Greenstone belt, where rocks are comparatively lower in potassium and actinides," states Professor Laflèche.