SAGA Metals Announces Assay Results from Radar Titanium-Vanadium Project

Key Assay Highlights:

Total Samples Analyzed: 388 rock samples.
Titanium Dioxide (TiO2): 49 samples returned assay values over 4.0% TiO2, with a maximum value of 11.1%.
Vanadium Pentoxide (V2O5): 36 samples reported assay values over 0.2% V2O5, with a high value of 0.63%.
Iron (Fe): 34 samples yielded assay values over 20% Fe, with a peak of 46.7%.

Saga Metals Corp. (" TSXV: SAGA ") (" FSE: 20H" ) (" SAGA " or the " Company "), a North American exploration company focused on discovering critical minerals, is pleased to release assay results from its 2024 summer field program at the Radar Titanium-Vanadium (Ti-V) project in Labrador. The project, covering 17,250 hectares, is located approximately 10 km south of Cartwright and is road accessible, with early indications pointing to the potential for a classic layered mafic intrusive ore body.

The 2024 Radar Ti-V exploration program focused on expanding prospecting, geological mapping, and soil sampling in areas near previously identified geophysical anomalies. These efforts have produced encouraging results that reinforce Radar's potential for hosting significant titanium and vanadium mineralization.

Key Total Database Assay Highlights Include:

Titanium Dioxide (TiO2): 49 samples returned assay values exceeding 4.0%, with a peak value of 11.1%.
Vanadium Pentoxide (V2O5): 36 samples exceeded 0.2%, with a high of 0.63%.
Iron (Fe): 34 samples returned values over 20%, reaching a high of 46.7%.

These promising results underscore Radar's potential as a critical mineral asset and support the company's strategic focus on developing critical mineral assets in North America.

SAGA Metals Corp

Radar Project and corresponding geophysics highlight multiple anomalies across the property

Over a 20-day period in July 2024, a team of two geologists and six field technicians conducted detailed mapping, prospecting, and soil sampling across several highly prospective zones.

Key Program Details:

Samples Collected: A total of 221 rock samples and 582 soil samples were collected (including standards, blanks, and duplicates) across the entire property.

Target Zones: Fieldwork focused on three zones hosting significant electromagnetic anomalies, now named:

Hawkeye Zone
Trapper Zone
Unnamed Transitional Zone (between Hawkeye and Trapper)

Rock samples with corresponding titanium oxide (TiO2) and vanadium oxide (V2O5) values throughout the anomalous zones

Field observations consistently identified Gabbro Norite host rock mineralized with magnetite, ranging from fine-grained disseminations to massive magnetite layers. Assay results have confirmed the magnetic anomalies within both the Hawkeye and Trapper zones are mineralized, establishing a combined 8km strike length between the two zones. Preliminary indications suggest a possible connection between the trends through a transitional zone, which increases the mineralized strike to 9.5km through verified samples.

After two years of exploration at Radar, Saga Metals now has a comprehensive database of 388 rock samples. Assay results have yielded the following key values in the table below:

Saga Metals Corp. -3

Summary of 2023 & 2024 assay results with 2% Ti cut-off grade in green and increasing to highest values in red

Hawkeye Zone Yields Strong Titanium and Vanadium Anomalies in Soil and Rock Samples:

Soil sampling in the Hawkeye Zone revealed significant anomalies for titanium (Ti) and vanadium (V) , with values ranging from 1.0 - 2.4% Ti and 200 - 445 ppm V . These soil anomalies closely correlate with rock sample assays, further validating the mineralization potential of the zone.

Rock samples collected from the Hawkeye Zone consistently returned values between 2.5 - 11.1% TiO2 and 0.2 - 0.66% V2O5 , confirming the presence of high-grade titanium and vanadium despite limited surface exposure. Several outcrops were successfully stripped throughout the zone, enabling better access for sampling and future exploration work.

These results underscore the potential of the Hawkeye Zone as a key target for further exploration.

Saga Metals Corp. -4

Ti% in soil samples combined with TiO2% taken in rock samples over the main exposure of the Hawkeye Zone.

SAGA Metals Corp. -5

V ppm in soil samples combined with V2O5% taken in rock samples over the main exposure of the Hawkeye zone

Ti vs V scatter plot for the Hawkeye zone

Trapper Zone Shows Promising Titanium and Vanadium Anomalies Despite Limited Exposure:

The Trapper Zone spans a strike length of 4.3km , slightly longer than the Hawkeye Zone, though it has significantly less surface exposure. The lack of outcrop and subcrop initially posed challenges for the exploration team; however, the implementation of an extensive soil grid successfully yielded the first geochemical confirmation of the Trapper Zone's correlation with previously identified geophysical anomalies.

Key findings from the Trapper Zone include:

Soil anomalies with values ranging from 1.0 - 1.1% Ti and 140 - 190 ppm V .
Rock sample anomalies with values between 2.5 - 8% TiO2 and up to 0.28% V2O5 .

Although only 30 rock samples were collected due to limited exposure and ground cover, the consistent anomalies found in both soil and rock samples provide compelling evidence to justify targeted exploration in this zone.

Further work, including additional surface sampling, trenching, and geophysical surveys, is planned to unlock the full potential of the Trapper Zone.

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Ti in soils and TiO2% in rock samples over the magnetic anomalies of the Trapper zone showing the parallel trend and proof of concept of the area

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V ppm in soils and V2O5% in rock samples over the magnetic anomalies of the Trapper zone showing the parallel trend and proof of concept of the area

Ti vs V scatter plot for the Trapper zone

Transition Zone Presents Key Opportunity for Further Understanding of Radar Ti-V System:

A possible third, transitional zone, located between the Hawkeye and Trapper zones, presents a significant opportunity for further exploration. While its relationship to either zone remains unclear, this transitional area could help determine whether the Hawkeye and Trapper zones are folded limbs of the same system or represent different phases of a multi-phase, complex layered mafic intrusion.

One of the primary objectives of newly appointed Dr. Al Miller (see news release dated Oct 1, 2024 here ) will be to analyze the silicate content and relationships across these zones to uncover differences in their mineral phases. This work will be critical in understanding the genesis and structure of the system. Preliminary scatter plots of assay results confirm that titanium (Ti) and vanadium (V) are consistently locked within magnetite. Dr. Miller will explore how these elements behave across different stratigraphic levels and sample locations.

This research will deepen the company's understanding of the project's geology and inform future exploration strategies.

Ti vs V scatter plot for the Centre zone

Michael Garagan, CGO & Director of Saga Metals Corp., states, "the biggest success of this past season was our proof of concept that Ti and V mineralization exists over a large area of the property. Thanks to geophysical data from Cameron Martin, we were able to test the parallel Trapper zone and prove localized mineralization. The team is preparing detailed geophysics over the Hawkeye zone this fall to delineate drill targets in a future program. I'm truly excited that in only two short field seasons we have moved the Radar project to drill ready status confirming priority zones for a maiden program in 2025."

Comparable Projects in the Grenville Geological Province:

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A Map of the Grenville Geological Province

The Grenville Geological Province is known for its significant deposits of iron, titanium, vanadium (Fe-Ti-V), and Platinum Group Metals (PGM). A key comparison point is North America's largest titanium-vanadium project, located at Lac Tio in Quebec, just southwest of Saga's Radar Project. Notably, both projects share the same rich geological setting.

Strategic Resources is a Montreal-based development company focused on vanadium, high-purity iron ore and titanium with their BlackRock project located in Quebec west of Lac Tio right on the Grenville Front (as seen in the map above).

Like, the Radar Ti-V project, these projects all have basement rock dated over 1 billion years old, and all share components of the deep-rooted mafic rock of the Grenville Province.

Strategic Resources completed an amended feasibility study ¹ on March 26, 2024, on the Southwest deposit hosted within the BlackRock project confirming a proven and probably reserve of 127.8Mt with 0.46% V2O5, 40.2% Fe2O3 and 7.8% TiO2. The Southwest deposit spans 2.5km in length and averaging 110m in mineralized thickness with a projected mine life of 39 years. The projected financial outcome of the mine estimates after-tax cashflows of C$12.055 billion with a 5.4-year payback period including an after-tax net-present-value (8%) of C$1.932 billion and an 18.2% after-tax internal rate of return.

About Saga Metals Corp.

Saga Metals Corp. is a North American mining company focused on the exploration and discovery of critical minerals that support the global transition to green energy. The company's flagship asset, the Double Mer Uranium Project, is located in Labrador, Canada, covering 25,600 hectares. This project features uranium radiometrics that highlight an 18-kilometer east-west trend, with a confirmed 14-kilometer section producing samples as high as 4,281ppm U ₃ O ₈ and spectrometer readings of 22,000cps.

In addition to its uranium focus, SAGA owns the Legacy Lithium Property in Quebec's Eeyou Istchee James Bay region. This project, developed in partnership with Rio Tinto, has been expanded through the acquisition of the Amirault Lithium Project. Together, these properties cover 65,849 hectares and share significant geological continuity with other major players in the area, including Rio Tinto, Winsome Resources, Azimut Exploration, and Loyal Lithium.

SAGA also holds secondary exploration assets in Labrador, where the company is focused on the discovery of titanium, vanadium, and iron ore. With a portfolio that spans key minerals crucial to the green energy transition, SAGA is strategically positioned to play an essential role in the clean energy future.

For more information, contact:
Saga Metals Corp.
Investor Relations
Tel: +1 (778) 930-1321
Email: info@sagametals.com
www.sagametals.com

Qualified Persons

Peter Webster, P. Geo., of Mercator Geological Services Limited are each a "qualified person" as defined under National Instrument 43-101 – Standards of Disclosure for Mineral Projects (" NI 43-101 ") and have reviewed and approved the scientific and technical content of this news release regarding the Radar Property.

The TSX Venture Exchange has not reviewed and does not accept responsibility for the accuracy or adequacy of this release. Neither the TSX Venture Exchange nor its Regulation Service Provider (as that term is defined in the policies of the TSX Venture Exchange) accepts responsibility for the adequacy or accuracy of this release.

Details of Strategic Resources feasibility study conducted on the BlackRock project can be found on their website here or Strategic Resources Inc's sedarplus profile here www.sedarplus.ca

Cautionary Disclaimer

This news release contains forward-looking statements within the meaning of applicable securities laws that are not historical facts. Forward-looking statements are often identified by terms such as "will", "may", "should", "anticipates", "expects", "believes", and similar expressions or the negative of these words or other comparable terminology. All statements other than statements of historical fact, included in this release are forward-looking statements that involve risks and uncertainties. In particular, this news release contains forward-looking information pertaining to plans with respect to samples from its mineral exploration properties. There can be no assurance that such statements will prove to be accurate and actual results and future events could differ materially from those anticipated in such statements. Important factors that could cause actual results to differ materially from the Company's expectations include, but are not limited to, changes in the state of equity and debt markets, fluctuations in commodity prices, delays in obtaining required regulatory or governmental approvals, environmental risks, limitations on insurance coverage, failure to satisfy closing conditions in respect of the Offering, risks and uncertainties involved in the mineral exploration and development industry, and the risks detailed in the Prospectus and available under the Company's profile at www.sedarplus.ca, and in the continuous disclosure filings made by the Company with securities regulations from time to time. The reader is cautioned that assumptions used in the preparation of any forward-looking information may prove to be incorrect. Events or circumstances may cause actual results to differ materially from those predicted, as a result of numerous known and unknown risks, uncertainties, and other factors, many of which are beyond the control of the Company. The reader is cautioned not to place undue reliance on any forward-looking information. Such information, although considered reasonable by management at the time of preparation, may prove to be incorrect and actual results may differ materially from those anticipated. Forward-looking statements contained in this news release are expressly qualified by this cautionary statement. The forward-looking statements contained in this news release are made as of the date of this news release and the Company will update or revise publicly any of the included forward-looking statements only as expressly required by applicable law.

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Critical Minerals Market Expected to Reach $586 Billion by 2032 as Demand Grows for Supply of Essential Minerals

FN Media Group News Commentary - Industry experts project that the global critical minerals market will continue maintaining substantial growth as it has in recent years. The global critical minerals market is experiencing unprecedented growth, primarily driven by the accelerating transition to clean energy technologies. According to the International Energy Agency (IEA), the market size of key energy transition minerals doubled over the past five years, aligning closely with the market size for iron ore mining. This surge is largely attributed to the tripling of lithium demand, a 70% increase in cobalt demand, and a 40% rise in nickel demand between 2017 and 2022, with clean energy applications accounting for significant portions of this demand. The sustainability of the global critical minerals market is increasingly influenced by governmental initiatives aimed at reducing environmental impact and enhancing resource efficiency. A recent report from DataM Intelligence projected that Critical Minerals Market Size reached US$ 328.19 billion in 2024 and is expected to reach US$ 586.63 billion by 2032, growing with a CAGR of 7.53% during the forecast period 2025-2032. The report said: "A notable trend in the critical minerals market is the increasing investment in mineral development, which witnessed a 30% rise in 2022 following a 20% increase in 2021. Lithium saw the sharpest investment increase at 50%, followed by copper and nickel. This investment surge is a response to the soaring demand for minerals like lithium, cobalt, nickel, and copper, driven by the deployment of clean energy technologies such as electric vehicles, wind turbines, and solar panels." Active companies in the markets this week include: Saga Metals Corp. (OTCQB: SAGMF) (TSX-V: SAGA), TMC the metals company Inc. (NASDAQ: TMC), Critical Metals Corp. (NASDAQ: CRML), Rio Tinto Group (NYSE: RIO), Empire Metals Limited (OTCQX: EPMLF) (LON: EEE).

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Altech Batteries Ltd CERENERGY Battery Prototype Reaches Key Milestones

Perth, Australia (ABN Newswire) - Altech Batteries Limited (ASX:ATC,OTC:ALTHF) (FRA:A3Y) (OTCMKTS:ALTHF) is pleased to announce the latest performance results of the CERENERGY(R) cell and battery pack prototypes. These results confirm the technological maturity and robustness of the CERENERGY(R) technology and mark another decisive step towards industrialisation.

Highlights

- 650+ cycles with no capacity loss, proving exceptional material stability and long operational lifespan compared to conventional batteries

- Near 100% Coulombic efficiency, confirming minimal side reactions and strong intrinsic safety of sodium nickel chloride chemistry

- High energy efficiency of up to 92%, surpassing typical 70-80% levels of competing battery technologies

- Proven safety under extreme conditions - cells remained stable during overcharge, deep discharge, and thermal cycling up to 300 degC with no gassing, leakage, or rupture

- Robust and reliable chemistry - sodium nickel chloride avoids flammable electrolytes and runaway risks, confirming suitability for safe, large-scale grid and renewable energy storage

- ABS60 prototype validated under real-world conditions -tested across diverse load profiles, high-current pulses up to 50 A, and thermal variations

- Stable, efficient performance - achieved ~88% round-trip efficiency with no observable capacity fade over 110+ cycles

CELL PERFORMANCE

The CERENERGY(R) prototype cells have successfully completed over 650 charge-discharge cycles without any detectable capacity loss. Cycle life is a critical measure of battery durability, as most conventional batteries experience gradual degradation with every cycle. Achieving such performance highlights the outstanding stability of the materials and points to the potential for a long operational lifespan.

For stationary energy storage systems (ESS), this translates into fewer battery replacements, lower lifetime operating costs, and greater reliability for end users.

The cells also delivered nearly 100% Coulombic efficiency alongside an energy efficiency of up to 92% across 650 cycles. Coulombic efficiency reflects the proportion of charge recovered during discharge relative to what was supplied during charging. A value approaching 100% indicates minimal side reactions or parasitic losses, confirming the intrinsic stability and safety of sodium nickel chloride chemistry. This high efficiency demonstrates that the cells are not expending energy on unwanted processes such as electrode degradation. Such performance is vital for scalability, ensuring reliable, longterm operation in commercial energy storage applications.

Energy efficiency represents the proportion of energy delivered relative to the energy supplied. Competing technologies, including conventional high-temperature batteries and many flow batteries, typically achieve only around 70-80%. By reaching 92%, CERENERGY(R) positions itself in a highly competitive class, offering more cost-effective energy storage, stronger economics for grid operators, and seamless compatibility with the requirements of renewable energy integration.

The cells achieved a nominal capacity of 100 Ah and 250 Wh, with reliable performance even at higher discharge rates. A key feature is their ability to support multiple daily charge-discharge cycles within the 20-80% state of charge (SoC) range at 25 A. This capability positions CERENERGY(R) as a highly flexible solution for grid operators and energy storage providers, enabling cost-efficient, long-life performance in applications that demand frequent cycling such as renewable integration, peak shaving, and backup power.

CERENERGY(R) prototype cells underwent rigorous abuse testing, including overcharge to 4 V, deep discharge to 0.2 V, and thermal cycling between room temperature and 300 degC. In all cases, the cells remained stable with no gassing, leakage, or rupture -clear proof of their outstanding safety. These results highlight the intrinsic stability of sodium nickel chloride chemistry, which avoids the flammable electrolytes and runaway risks common in lithium-ion batteries. The ability to withstand extreme electrical and thermal stress demonstrates CERENERGY(R)'s robustness and confirms its suitability for safe, largescale deployment in grid, renewable, and industrial energy storage applications. This was achieved over 3 cycles with 1.8 Full Charge Equivalent (FCE) into 22 hours.

BATTERY PACK ABS60 (60 kWh) PROTOTYPE

The first ABS60 battery pack prototype has been successfully validated under real-world operating conditions, marking a major step forward in product readiness. Testing included diverse load profiles,

continuous discharges at 25 A (equivalent to C-rate of C/4 (discharges in 4 hours), or one-quarter of the pack's rated capacity per hour) at 80% depth of discharge (DoD), short-duration high-current pulses up to 50 A, and carefully controlled thermal variations.

The pack consistently demonstrated stable performance, achieving ~88% round-trip efficiency while maintaining reliable thermal management. Efficiency refers to the proportion of input energy that can be retrieved during operation-a critical measure of economic viability for large-scale storage. Over more than 110 cycles, results showed no observable capacity fading and only a slight increase in internal resistance. Capacity fading refers to the gradual decline in usable energy over repeated cycles, while internal resistance influences power delivery and heat generation.

The absence of meaningful degradation confirms the durability and electrochemical stability of the ABS60 design. These outcomes are highly significant as they demonstrate that the pack can withstand real-world duty cycles while retaining performance and efficiency, translating into longer service life, fewer replacements, and lower total cost of ownership.

For grid operators and renewable integration projects, this combination of robust cycling capability, efficiency, and thermal stability underscores the ABS60's commercial readiness and competitive advantage in the stationary energy storage market.

These results are a strong confirmation of CERENERGY(R)'s technological leadership and a clear signal of the technology's competitiveness and robustness for future applications in energy storage and industrial markets.

Group Managing Director, Iggy Tan said "These results confirm CERENERGY(R)'s robustness and readiness for market adoption. Demonstrating long cycle life, high efficiency, and unmatched safety, we are now strongly positioned to deliver a competitive and sustainable alternative for grid and industrial energy storage."

*To view photographs, tables and figures, please visit:
https://abnnewswire.net/lnk/17QS44T3

About Altech Batteries Ltd:

Altech Batteries Limited (ASX:ATC,OTC:ALTHF) (FRA:A3Y) is a specialty battery technology company that has a joint venture agreement with world leading German battery institute Fraunhofer IKTS ("Fraunhofer") to commercialise the revolutionary CERENERGY(R) Sodium Alumina Solid State (SAS) Battery. CERENERGY(R) batteries are the game-changing alternative to lithium-ion batteries. CERENERGY(R) batteries are fire and explosion-proof; have a life span of more than 15 years and operate in extreme cold and desert climates. The battery technology uses table salt and is lithium-free; cobalt-free; graphite-free; and copper-free, eliminating exposure to critical metal price rises and supply chain concerns.

The joint venture is commercialising its CERENERGY(R) battery, with plans to construct a 100MWh production facility on Altech's land in Saxony, Germany. The facility intends to produce CERENERGY(R) battery modules to provide grid storage solutions to the market.

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Drill Hole	Interval Length (m)	Average VTM (%)	Maximum VTM (%)
R25-HEZ-01	263.5	25.90%	35.16%
R25-HEZ-07	311.7	22.95%	41.63%
R25-HEZ-04	208.5	29.59%	35.20%
R25-HEZ-05	187.3	26.76%	26.76%


SUMMARY OF DRILLING RESULTS - 2024-25 WINTER PROGRAM - LENGTH WEIGHTED AVERAGES
Hole_ID	From	To	Length_m	Fe (%)	Fe3O4 (%)	TiO2 (%)	V2O5 (%)	Estimated VTM (%)	VTM Habit
R25-HEZ-01	4.5	268.0	263.5	17.53	24.20	3.66	0.17	25.90	Evenly distributed mineralization
R25-HEZ-01	151.1	198.5	47.4	23.27	32.13	4.83	0.25	35.08	Included Semi-Massive to Massive
R25-HEZ-01	206.0	218.7	12.7	23.38	32.29	4.74	0.26	35.16	Included Semi-Massive to Massive
R25-HEZ-01	236.5	246.0	9.5	23.35	32.24	4.65	0.28	35.04	Included Semi-Massive to Massive

R25-HEZ-02	1.5	62.2	60.7	14.29	19.73	3.24	0.10	20.94	Intercumulus
R25-HEZ-02	39.5	62.2	22.7	15.13	20.90	3.43	0.10	22.30	Intercumulus
R25-HEZ-02	122.5	300.0	177.5	12.49	17.25	3.86	0.07	19.04	Intercumulus

R25-HEZ-03	4.0	149.0	145.0	14.69	20.28	3.13	0.10	21.38	Intercumulus

R25-HEZ-04	4.5	98.8	94.3	13.85	19.12	2.96	0.10	20.05	Intercumulus
R25-HEZ-04	99.6	308.0	208.5	19.92	27.51	3.99	0.22	29.59	Intercumulus
R25-HEZ-04	222.0	272.2	50.2	23.40	32.32	4.54	0.29	35.02	Included Semi-Massive to Massive

R25-HEZ-05	4.5	117.2	112.7	14.21	19.62	3.31	0.09	20.89	Intercumulus
R25-HEZ-05	117.2	304.5	187.3	18.06	24.94	3.77	0.18	26.76	Intercumulus

R25-HEZ-06	75.5	293.0	217.5	14.34	19.80	3.07	0.12	20.85	Intercumulus
R25-HEZ-06	265.0	293.0	28.0	20.11	27.77	4.22	0.21	30.08	Included Higher Grade

R25-HEZ-07	2.3	314.0	311.7	15.94	22.02	2.88	0.18	22.95	Intercumulus
R25-HEZ-07	86.8	205.2	118.4	23.22	32.07	4.51	0.30	34.75	Included Semi-Massive to Massive
R25-HEZ-07	225.7	236.0	10.3	27.55	38.05	5.34	0.38	41.63	Included Semi-Massive to Massive

Intervals with >35% VTM = Semi-Massive to Massive VTM
Intervals with >20% VTM = Intercumulus VTM, with some layers of semi-massive to massive VTM.
Fe₃O₄ (%) is calculated as: Fe (%) × 1.381
VTM (%) is calculated using: (Fe₃O₄ − 2.13) + TiO₂ + V₂O₅
Length is the core interval. True thickness are about 80% of the core interval.

Drill Hole	Interval Length (m)	Average VTM (%)	Maximum VTM (%)
R25-HEZ-01	263.5	25.9%	35.2%
R25-HEZ-07	311.7	23.0%	41.6%
R25-HEZ-04	208.5	29.6%	35.2%
R25-HEZ-05	187.3	26.8%	26.8%

SUMMARY OF DRILLING RESULTS - 2024-25 WINTER PROGRAM - LENGTH WEIGHTED AVERAGES
Hole_ID	From	To	Length_m	Fe (%)	Fe3O4 (%)	TiO2 (%)	V2O5 (%)	Estimated VTM (%)	VTM Habit
R25-HEZ-01	4.5	268.0	263.5	17.53	24.20	3.66	0.17	25.90	Evenly distributed mineralization
R25-HEZ-01	151.1	198.5	47.4	23.27	32.13	4.83	0.25	35.08	Included Semi-Massive to Massive
R25-HEZ-01	206.0	218.7	12.7	23.38	32.29	4.74	0.26	35.16	Included Semi-Massive to Massive
R25-HEZ-01	236.5	246.0	9.5	23.35	32.24	4.65	0.28	35.04	Included Semi-Massive to Massive

R25-HEZ-02	1.5	62.2	60.7	14.29	19.73	3.24	0.10	20.94	Intercumulus
R25-HEZ-02	39.5	62.2	22.7	15.13	20.90	3.43	0.10	22.30	Intercumulus
R25-HEZ-02	122.5	300.0	177.5	12.49	17.25	3.86	0.07	19.04	Intercumulus

R25-HEZ-03	4.0	149.0	145.0	14.69	20.28	3.13	0.10	21.38	Intercumulus

R25-HEZ-04	4.5	98.8	94.3	13.85	19.12	2.96	0.10	20.05	Intercumulus
R25-HEZ-04	99.6	308.0	208.5	19.92	27.51	3.99	0.22	29.59	Intercumulus
R25-HEZ-04	222.0	272.2	50.2	23.40	32.32	4.54	0.29	35.02	Included Semi-Massive to Massive

R25-HEZ-05	4.5	117.2	112.7	14.21	19.62	3.31	0.09	20.89	Intercumulus
R25-HEZ-05	117.2	304.5	187.3	18.06	24.94	3.77	0.18	26.76	Intercumulus

R25-HEZ-06	75.5	293.0	217.5	14.34	19.80	3.07	0.12	20.85	Intercumulus
R25-HEZ-06	265.0	293.0	28.0	20.11	27.77	4.22	0.21	30.08	Included Higher Grade

R25-HEZ-07	2.3	314.0	311.7	15.94	22.02	2.88	0.18	22.95	Intercumulus
R25-HEZ-07	86.8	205.2	118.4	23.22	32.07	4.51	0.30	34.75	Included Semi-Massive to Massive
R25-HEZ-07	225.7	236.0	10.3	27.55	38.05	5.34	0.38	41.63	Included Semi-Massive to Massive

Intervals with >35% VTM = Semi-Massive to Massive VTM
Intervals with >20% VTM = Intercumulus VTM, with some layers of semi-massive to massive VTM.
Fe₃O₄ (%) is calculated as: Fe (%) × 1.381
VTM (%) is calculated using: (Fe₃O₄ − 2.13) + TiO₂ + V₂O₅
Length is the core interval. True thickness are about 80% of the core interval.

SAGA Metals Announces Assay Results from Radar Titanium-Vanadium Project

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