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Sarama Resources Ltd. — Capital/Financing Update 2022
Aug 8, 2022
46917_rns_2022-08-08_3d779305-d4b7-46a4-9680-7053d796185b.pdf
Capital/Financing Update
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9 AUGUST, 2022

SARAMA RESOURCES EXTENDS HIGH-GRADE GOLD MINERALISATION
First Drill Program After ASX Listing Extends High-Grade Gold Mineralisation in Oxide Material
PERTH, AUSTRALIA / VANCOUVER, CANADA. Sarama Resources Ltd. ("Sarama" or the "Company") (ASX:SRR, TSX-V:SWA) is pleased to announce that assays returned from an initial 1,700m drilling of the ongoing +50,000m program at its 100%-owned(4), multi-million ounce Sanutura Project (the "Project") have extended gold mineralisation in several directions at the Obi Prospect (refer Figure 1) and discovered a new trend for exploration.
The drilling has delineated an extensive zone of flat-lying mineralisation in shallow, oxide material which extends approximately 950m along strike and up to 300m down-dip with mineralisation remaining open down-dip. These results deliver one of the Company's near-term objectives of growing the oxide component of the Project's already large Mineral Resource of 0.6Moz Au (Indicated) plus 2.3Moz Au (Inferred)(1) .
Exploration potential in the area has also been enhanced with the emergence of a new target area immediately along strike to the north-east, which is untested for approximately 1.8km. The Company anticipates drilling its highest priority targets and commencing regional greenfields exploration early in the next field season commencing Q4 2022.
Highlights
- Multiple high-grade intersections returned in oxide material at the Obi Prospect within the Sanutura Project
- Highlighted downhole intersections (approximating true width) in oxide material from recently returned assays include:
- o 12m @ 2.86g/t Au from 39m in TAR022;
- o 10m @ 2.78g/t Au from 38m in TAR003 (including 1m @ 14.80g/t Au);
- o 10m @ 2.07g/t Au from 41m in TAR058;
- o 14m @ 1.53g/t Au from 11m in TAA153;
- o 11m @ 1.80g/t Au from 23m in TAR004 (including 1m @ 11.15g/t Au);
- o 3m @ 4.57g/t Au (ending in mineralisation) from 39m in TAA152; and
- o 4m @ 3.54g/t Au from 65m in TAR006.
- Flat-lying mineralisation extended in all directions with a footprint measuring 950m along strike and up to 300m down-dip
- New target areas for future near-surface exploration identified, including an untested trend extending 1.8km along strike to the north-east
- A number of drill holes contain multiple mineralised intersections, indicating potential for additional lodes to occur within the mineralised package
- Oxide profile extends to 80m vertical depth in local drilled area
- Results are expected to add to the current oxide and transition component of the Mineral Resource which stands at 0.2Moz (Indicated) plus 0.8Moz Au (Inferred)(2)

Sarama's President, CEO & MD, Andrew Dinning commented:
"We are very excited by these first drill results at the Obi Prospect which have defined extensive and shallow, oxidehosted gold mineralisation in single and multiple higher-grade zones.
This drilling has extended a previously minor zone to approximately 950m in length with a further 1.8km of strike potential yet to be tested. The tenor and flat-lying nature of this mineralisation suggests a different mineralising event to the sub-vertical, lower-tenor gold lodes seen in this local area and it has led us to a new target model reminiscent of Endeavour Mining's flat-lying Kari Pump and Boungou Deposits in Burkina Faso.
With further drill results to come, we look forward to providing a series of updates over the coming months.
Sarama's approximate market capitalization of A$20M(6) presents a deeply discounted valuation for the Project's Mineral Resource base of 0.6Moz Au (Indicated) plus 2.3Moz Au (Inferred)(1), even more so considering that the current drill program is anticipated to yield a significant increase."
Webinar:
For more context, please join CEO Andrew Dinning in a live event on August 10th at 9am EST / 9 pm AWST. Q&A will follow the brief presentation. Click here to register: https://my.6ix.com/INN0fY27



Growth-Oriented Drill Program in Oxide Material
An Already Large Mineral Resource with Potential to Grow
The Company's primary focus is its 100%-owned(4) Sanutura Project, which hosts a large Mineral Resource of 0.6Moz Au (Indicated) plus 2.3Moz Au (Inferred)(1), covers an area of 1,420km2 and occupies a commanding position along 70km of strike in the prolific Houndé Belt (refer Figure 1).
The Project lies 60km south of Endeavour Mining's Houndé Mine (5Moz Au); 120km south of Fortuna Silver's high-grade Yaramoko Mine (1Moz Au), and 140km south of Endeavour Mining's Mana Mine (5Moz Au), highlighting the significant gold endowment of the Houndé Belt (refer Appendix B). Endeavour Mining's Bantou Project (1.5Moz Au Inferred Mineral Resource(5)) is located only 6km from the bulk of the Sanutura Project's main deposit, which illustrates the gold camp scale of endowment in the immediate area.
The Project has significant growth potential available and the primary objective of the current +50,000m drill program is to add to the existing 0.2Moz Au (Indicated) plus 0.8Moz Au (Inferred)(2) oxide and transition component of the Project's Mineral Resource to enhance the economics of mine development.
The recently commenced drill program has initially focused on the Obi Prospect, located in the southern part of the Project where drilling is sparse and potential exists to expand the Mineral Resource at shallow depths in oxide material.

Figure 1 –Sanutura Project Location Plan

Drilling Delivers Extensions to Mineral Resource at Obi Prospect
Results are being reported (refer Appendix A) for approximately 700m of aircore ("AC") drilling (15 holes) and 1,000m of reverse-circulation ("RC") drilling (13 holes) which commenced in May 2022 in the south-western part of the Obi Prospect. This area hosts gold mineralisation in multiple flat-dipping lenses which now extend for a strike length of approximately 950m (refer Figure 2). The lenses occur near-surface and the area is considered a prime target for exploration to add to the existing 0.2Moz (Indicated) plus 0.8Moz Au (Inferred)(2) oxide and transition component of the Project's Mineral Resource.

Figure 2 – Obi Prospect – Drilling & Mineralisation Plan
Mineralisation in the area presents as gold-quartz veins, which is significantly different to the more densely drilled areas of the deposit, illustrating diversity in both the geometry and composition of the gold-bearing lodes. The recent drilling follows-up on previously reported (refer Appendix B), high-tenor downhole intersections occurring in oxide material which include:
- 7m @ 11.52g/t Au (ending in mineralisation) from 31m in TAA070 (including 3m @ 25.36g/t Au);
- 8m @ 4.72g/t Au from 34m in TAA077;
- 5m @ 7.26g/t Au from 16m in TAA068;
- 8m @ 4.21g/t Au from 34m in AC3628;
- 5m @ 5.02g/t Au from 22m in TAA071 (including 2m @ 11.68g/t Au);
- 6m @ 4.01g/t Au from 36m in AC3665;
- 17m @ 1.59g/t Au from 34m in TAA080 (including 5m @ 3.45g/t Au); and
- 12m @ 1.80g/t Au from 10m in AC3627.

Recently returned assay results support the interpreted geometry of the flat, easterly-dipping mineralised lodes and have delivered down-dip and up-dip extensions to mineralisation of up to 100m and 40m respectively (refer Figures 2 and 3). Several new strong downhole intersections in the lower extremity, all occurring in oxide material, include:
- 12m @ 2.86g/t Au from 39m in TAR022;
- 10m @ 2.78g/t Au from 38m in TAR003 (including 1m @ 14.8g/t Au);
- 10m @ 2.07g/t Au from 41m in TAR058;
- 3m @ 4.57g/t Au (ending in mineralisation) from 39m in TAA152;
- 4m @ 3.54g/t Au from 65m in TAR006; and
- 6m @ 2.52g/t Au from 36m in TAR056.

Figure 3 –Southern Obi Prospect – Drilling Cross Section A-A' (View to North-East)
Given the shallow position of the mineralisation, these intersections present a compelling target for further down-dip extensions to be tested in future drilling. This is of particular interest as the flat-dipping mineralisation can be projected to intersect a series of steeply dipping lodes to the east; the confluence of which potentially hosts a localised enrichment zone caused by multiple overprinting phases of gold emplacement.
Of note is the significant increase in the vertical depth of the highly weathered oxide zone intersected by drilling to approximately 80m, which is anomalous to that observed in the broader deposit (50m). This increased depth is expected to enhance economics for any contemplated mine development.
The shallow up-dip extent of the mineralisation also remains open, offering a viable exploration target to follow-up of the recently returned downhole intersections of:
- 14m @ 1.53g/t Au from 11m in TAA153;
- 11m @ 1.80g/t Au from 23m in TAR004 (including 1m @ 11.15g/t Au);
- 5m @ 1.48g/t Au from 26m in TAA156; and
- 4m @ 1.94g/t Au from 5m in TAA145.

Adding to the attraction of the area for further exploration is the presence of multiple separate intersections within individual holes and significantly broader intersections than expected in certain areas (refer Figures 2 and 3). These intersections suggest potential for additional mineralised lodes to occur in close proximity to the main, flat-dipping mineralisation.
A New Exploration Horizon in the North-East
The recently returned results have validated and given substance to the Company's interpretation of the mineralised system in the south-west of the Obi Prospect, which has been developed over an extended period. In addition to yielding meaningful extensions to the existing mineralisation in the dip direction, the drilling has extended the mineralised lodes a further 100m along strike in a north-easterly direction, giving a total strike length of 950m.
Of note is the abundance of high-tenor intersections in the north-eastern extremity of this strike length, which are commonly associated with a thickening of the lode(s) and the suggested presence of additional mineralised lodes from multiple intersections in single drillholes. Together, these features suggest a strengthening of the mineralised system in the north, which bodes well for future exploration given the absence of drilling for approximately 1.8km along strike (refer Figure 4).
This new target area broadly sits within the main mineralised corridor of the Project proximal to the well-defined, northnorth-east striking lodes of the Mineral Resource. The area has been covered by a conventional soil geochemical survey grid and several zones of elevated gold-in-soil values have been returned within a generally mottled signature resulting from a variable and disrupted regolith. This environment can produce ambiguous surface geochemistry results, giving potential for blind and semi-blind mineralisation to be present.
The Company plans to conduct detailed surface prospecting and other target generation work in the area to better define targets which are anticipated to be tested by reconnaissance drilling in Q4 2022.

Figure 4 – Untested Trend Extents for 1.8km to North-East (Oblique View)

For further information on the Company's activities, please contact:
Andrew Dinning or Paul Schmiede
e: [email protected] t: +61 8 9363 7600
For media enquiries, please contact:
Angela East
Media & Capital Partners e: [email protected] t: +61 428 432 025
ABOUT SARAMA RESOURCES LTD
Sarama Resources Ltd (ASX: SRR, TSX-V: SWA) is a West African focused gold explorer/developer with substantial landholdings in south-west Burkina Faso. Sarama is focused on maximising the value of its strategic assets and advancing its key projects towards development.
Sarama's 100%-owned(4) Sanutura Project is principally located within the prolific Houndé Greenstone Belt in southwest Burkina Faso and is the exploration and development focus of the Company. The project hosts the Tankoro and Bondi Deposits which have a combined Mineral Resource of 0.6Moz gold (Indicated) plus 2.3Moz gold (Inferred)(1) .
Together, the deposits present a potential mine development opportunity featuring an initial, long-life CIL project which may be established and paid for by the significant oxide Mineral Resource base.
Sarama has built further optionality into its portfolio including an approximate 470km² exploration position in the highly prospective Banfora Belt in south-western Burkina Faso. The Koumandara Project hosts several regional-scale structural features and trends of gold-in-soil anomalism extending for over 25km along strike.
Sarama also holds an approximate 18% participating interest in the Karankasso Project Joint Venture ("JV") which is situated adjacent to the Company's Sanutura Project in Burkina Faso and is a JV between Sarama and Endeavour Mining Corp ("Endeavour") in which Endeavour is the operator of the JV. In February 2020, an updated Mineral Resource estimate of 709koz gold(3) was declared for the Karankasso Project JV.
The Company's Board and management team have a proven track record in Africa and a strong history in the discovery and development of large-scale gold deposits. Sarama is well positioned to build on its current success with a sound strategy to surface and maximise the value of its property portfolio.


FOOTNOTES
-
- Mineral Resource estimate for Sanutura Project 9.4Mt @ 1.9g/t Au for 0.6Moz Au (Indicated) plus 52.7Mt @ 1.4g/t Au for 2.3Moz (Inferred), reported at cut-off grades ranging 0.2-1.6g/t Au, reflecting the mining methods and processing flowsheets assumed to assess the likelihood of the Mineral Resources to have reasonable prospects for eventual economic extraction. The effective date of the Company's Mineral Resource estimate is 16 November 2021. For further information regarding the Mineral Resource estimate refer to the technical report titled "NI 43-101 Independent Technical Report Sanutura Project, South-West Burkina Faso", dated 7 February 2022 and prepared by Paul Schmiede, Rindra Le Grange and Fred Kock, and the Company's ASX Prospectus dated 11 March 2022. Paul Schmiede is an employee of Sarama. Ms Le Grange and Mr Kock are employees of Cube Consulting Pty Ltd and Orway Mineral Consultants Pty Ltd respectivley and are considered to be independent of Sarama. The technical report is available under Sarama's profile on SEDAR at www.sedar.com and the ASX Prospectus is available under Sarama's profile on ASX at www.asx.com.au.
-
- Oxide & transition component of the Mineral Resource for Sanutura Project 3.2Mt @ 1.6g/t Au for 0.2Moz Au (Indicated) plus 23.4Mt @ 1.1g/t Au for 0.8Moz Au (Inferred), reported above cut-off grades of 0.2g/t Au and 0.3g/t Au for oxide and transition material respectively.
-
- Mineral Resource estimate for Karankasso Project 12.74Mt @ 1.73g/t Au for 709koz Au (effective date of December 31, 2019), disclosed on 24 February 2020 by Semafo Inc ("Semafo", since acquired by Endeavour Mining Corp. "Endeavour"). For further information regarding that Mineral Resource estimate, refer to the news release "Semafo: Bantou Project Inferred Resources Increase to 2.2Moz" dated 24 February 2020 and Semafo: Bantou Project NI43-101 Technical Report – Mineral Resource Estimate" dated 3 April 2020 and the Company's ASX Prospectus dated 11 March 2022. The news release and technical report are available under Semafo's and Endeavour's profile on SEDAR at www.sedar.com and the ASX Prospectus is available under Sarama's profile on ASX at www.asx.com.au. The Mineral Resource estimate was fully prepared by, or under the supervision of Semafo. Sarama has not independently verified Semafo's mineral Resource Estimate and takes no responsibility for its accuracy. Semafo, and now Endeavour, is the operator of the Karankasso Project JV and Sarama is relying on their Qualified Persons' assurance of the validity of the Mineral Resource estimate. Additional technical work has been undertaken on the Karankasso Project since the effective date but Sarama is not in a position to quantify the impact of this additional work on the Mineral Resource estimate referred to above.
-
- The Government of Burkina Faso has processed the requisite documents to facilitate the grant of the new, full-term Tankoro 2 and Djarkadougou 2 Exploration Permits (the "Permits") and subsequently issued the invitation to pay the permit issuance fees (the "Fees") and the Fees were paid within the requisite 10-day timeline. Following the payment of the Fee, the issuance of the Permit's arrêté and related paperwork becomes an administrative process during which time the Company may undertake work on the Tankoro 2 and Djarkadougou 2 Properties. The Company expects the arrêtés and related paperwork to be issued in due course. The properties, hosting the Tankoro and Bondi Deposits respectively, were formerly known as Tankoro and Djarkadougou, but have been renamed as part of the process of re-issuing the respective Permits.
-
- Endeavour Mining's Bantou Project Mineral Resource 38.4Mt @ 1.2g/t Au for 1.5Moz Au (Inferred). This is the aggregate of the Mineral Resource listing for the Bantou and Bantou Nord Deposits which are located within the Bantou Project. Data is sourced from Semafo: Bantou Project NI43-101 Technical Report – Mineral Resource Estimate" dated 3 April 2020. The technical report are available under Endeavour's profile on SEDAR at www.sedar.com.
-
- Market capitalisation computed using Sarama's closing price on the ASX on 5 August 2022 of A$0.15/CDI (1 CDI : 1 share) and shares on issue of 137.9M (as at 5 August 2022).
CAUTION REGARDING FORWARD LOOKING INFORMATION
Information in this news release that is not a statement of historical fact constitutes forward-looking information. Such forward-looking information includes, but is not limited to, statements regarding the Company's future exploration and development plans, the potential for the Sanutura and Karankasso Projects to host economic mineralisation, the potential to expand the existing estimated Mineral Resources at the Sanutura Project (including the present oxide and transition component), the potential to extend and add to existing mineralisation at the Obi Prospect, the potential for the receipt of regulatory approvals and the timing and prospects for the issuance of the arrêtés for the Tankoro 2 and Djarkadougou 2 Exploration Permits by the Government of Burkina Faso. Actual results, performance or achievements of the Company may vary from the results suggested by such forward-looking statements due to known and unknown risks, uncertainties and other factors. Such factors include, among others, that the business of exploration for gold and other precious minerals involves a high degree of risk and is highly speculative in nature; Mineral Resources are not mineral reserves, they do not have demonstrated economic viability, and there is no certainty that they can be upgraded to mineral reserves through continued exploration; few properties that are explored are ultimately developed into producing mines; geological factors; the actual results of current and future exploration; changes in project parameters as plans continue to be evaluated, as well as those factors disclosed in the Company's publicly filed documents.
There can be no assurance that any mineralisation that is discovered will be proven to be economic, or that future required regulatory licensing or approvals will be obtained. However, the Company believes that the assumptions and expectations reflected in the forward-looking information are reasonable. Assumptions have been made regarding, among other things, the Company's ability to carry on its exploration activities, the sufficiency of funding, the timely receipt of required approvals, the price of gold and other precious metals, that the Company will not be affected by adverse political events, the ability of the Company to operate in a safe, efficient and effective manner and the ability of the Company to obtain further financing as and when required and on reasonable terms. Readers should not place undue reliance on forward-looking information.
Sarama does not undertake to update any forward-looking information, except as required by applicable laws.

QUALIFIED PERSONS' STATEMENT
Scientific or technical information in this disclosure that relates to the preparation of the Mineral Resource estimate for the Sanutura Project is based on information compiled or approved by Paul Schmiede. Paul Schmiede is an employee of Sarama Resources Ltd and is a Fellow in good standing of the Australasian Institute of Mining and Metallurgy. Paul Schmiede has sufficient experience which is relevant to the commodity, style of mineralisation under consideration and activity which he is undertaking to qualify as a Qualified Person under National Instrument 43-101. Paul Schmiede consents to the inclusion in this news release of the information, in the form and context in which it appears.
Scientific or technical information in this disclosure that relates to exploration activities at the Sanutura Project is based on information compiled or approved by Guy Scherrer. Guy Scherrer is an employee of Sarama Resources Ltd and is a member in good standing of the Ordre des Géologues du Québec and has sufficient experience which is relevant to the commodity, style of mineralisation under consideration and activity which he is undertaking to qualify as a Qualified Person under National Instrument 43-101. Guy Scherrer consents to the inclusion in this disclosure of the information, in the form and context in which it appears.
Scientific or technical information in this disclosure that relates to the quotation of the Karankasso Project's Mineral Resource estimate and exploration activities is based on information compiled by Paul Schmiede. Paul Schmiede is an employee of Sarama Resources Ltd and is a Fellow in good standing of the Australasian Institute of Mining and Metallurgy. Paul Schmiede has sufficient experience which is relevant to the commodity, style of mineralisation under consideration and activity which he is undertaking to qualify as a Qualified Person under National Instrument 43-101. Paul Schmiede consents to the inclusion in this disclosure of the information, in the form and context in which it appears. Paul Schmiede and Sarama have not independently verified Semafo's (now Endeavour's) Mineral Resource estimate and take no responsibility for its accuracy.
COMPETENT PERSONS' STATEMENT
The Mineral Resource estimates referred to in this disclosure were first disclosed in accordance with ASX Listing Rule 5.8 in the Company's ASX Prospectus dated 11 March 2022. The Company confirms that it is not aware of any new information or data that materially affects the information included in the ASX Prospectus and that all material assumptions and technical parameters underpinning the estimates in the ASX Prospectus continue to apply and have not materially changed.
The new Exploration Results reported in this disclosure are based on, and fairly represent, information and supporting documentation prepared by Guy Scherrer. Guy Scherrer is an employee of Sarama Resources and a member of the Ordre des Géologues du Québec. Guy Scherrer has provided their prior written consent as to the form and context in which the new Exploration Results and the supporting information are presented in this disclosure.
The previously reported Exploration Results referred to in this disclosure were first disclosed in accordance with ASX Listing Rule 5.7 in the Company's ASX disclosure listed in Appendix B. The Company confirms that it is not aware of any new information or data that materially affects the information included in those previous items of disclosure.
This announcement has been authorised by the Board of Sarama Resources.
Neither TSX Venture Exchange nor its Regulation Services Provider (as that term is defined in policies of the TSX Venture Exchange) accepts responsibility for the adequacy or accuracy of this release.

APPENDIX A – SUMMARY OF RECENTLY RETURNED DRILL RESULTS
| Prospect | Hole ID | Downhole Intersection | IntersectionMaterialType | DepthFrom(m) | DepthTo(m) | Comments | HoleType | CollarEasting(m) | CollarNorthing(m) | CollarElevation(m) | Dip(°) | Azimuth(°) | HoleLength(m) |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| Obi | TAA144 | 5m @ 1.39 g/t Au | 100% Oxide | 32 | 37 | AC | 40,536 | 94,591 | 362 | -50 | 270 | 59 | |
| Obi | TAA144B | no significant intersections | 0 | 25 | AC | 40,537 | 94,589 | 362 | -50 | 270 | 25 | ||
| Obi | TAA145 | 4m @ 1.94 g/t Au | 100% Oxide | 5 | 9 | AC | 40,478 | 94,619 | 363 | -84 | 269 | 40 | |
| Obi | TAA147 | 3m @ 1.37 g/t Au | 100% Oxide | 16 | 19 | AC | 40,474 | 94,769 | 364 | -81 | 294 | 51 | |
| Obi | TAA148 | no significant intersections | 0 | 71 | AC | 40,568 | 94,781 | 363 | -81 | 270 | 71 | ||
| Obi | TAA149 | no significant intersections | 0 | 48 | AC | 40,433 | 94,764 | 365 | -82 | 294 | 48 | ||
| Obi | TAA150 | 2m @ 1.27 g/t Au | 100% Oxide | 0 | 2 | AC | 40,367 | 94,757 | 366 | -81 | 266 | 48 | |
| 2m @ 0.50 g/t Au | 100% Oxide | 22 | 24 | AC | |||||||||
| Obi | TAA151 | 4m @ 0.41 g/t Au | 100% Oxide | 0 | 4 | AC | 40,406 | 94,778 | 365 | -83 | 266 | 31 | |
| 2m @ 0.78 g/t Au | 100% Oxide | 22 | 24 | AC | |||||||||
| Obi | TAA152 | 3m @ 4.57 g/t Au (EOH) | 100% Oxide | 39 | 42 | ended in mineralisation | AC | 40,502 | 94,843 | 365 | -79 | 266 | 42 |
| Obi | TAA153 | 14m @ 1.53 g/t Au | 100% Oxide | 11 | 25 | AC | 40,341 | 94,872 | 367 | -81 | 272 | 29 | |
| Obi | TAA154 | 4m @ 0.93 g/t Au | 100% Oxide | 27 | 31 | no sample in adjacent 2m interval | AC | 40,329 | 94,992 | 369 | -82 | 270 | 46 |
| Obi | TAA155 | 4m @ 2.07 g/t Au | 100% Oxide | 48 | 52 | AC | 40,474 | 95,014 | 367 | -87 | 112 | 57 | |
| Obi | TAA156 | 5m @ 1.48 g/t Au | 100% Oxide | 26 | 31 | AC | 40,358 | 95,071 | 370 | -81 | 272 | 55 | |
| Obi | TAA157 | no significant intersections | 0 | 49 | AC | 40,322 | 95,048 | 370 | -81 | 272 | 49 | ||
| Obi | TAA158 | 3m @ 1.90 g/t Au | 100% Oxide | 37 | 40 | AC | 40,346 | 95,176 | 372 | -81 | 272 | 55 | |
| Obi | TAR003 | 10m @ 2.78 g/t Au | 100% Oxide | 38 | 48 | including 1m @ 14.80g/t Au | RC | 40,456 | 95,121 | 370 | -85 | 272 | 80 |
| 5m @ 0.90 g/t Au | 100% Oxide | 68 | 73 | no sample in adjacent 2m interval | RC | ||||||||
| 4m @ 1.75 g/t Au (EOH) | 100% Oxide | 76 | 80 | ended in mineralisation | RC | ||||||||
| Obi | TAR004 | 11m @ 1.80 g/t Au | 100% Oxide | 23 | 34 | including 1m @ 11.15g/t Au | RC | 40,354 | 94,948 | 368 | -57 | 274 | 60 |
| Obi | TAR005 | 2m @ 0.51 g/t Au | 100% Oxide | 61 | 63 | RC | 40,517 | 94,970 | 366 | -55 | 273 | 80 | |
| Obi | TAR006 | 4m @ 3.54 g/t Au | 100% Oxide | 65 | 69 | RC | 40,516 | 95,037 | 367 | -84 | 270 | 80 | |
| Obi | TAR015 | 4m @ 1.54 g/t Au | 100% Oxide | 53 | 57 | RC | 40,514 | 94,914 | 366 | -55 | 270 | 74 | |
| Obi | TAR016 | 3m @ 2.23 g/t Au | 100% Oxide | 72 | 75 | no sample in adjacent 1m interval | RC | 40,555 | 94,882 | 365 | -78 | 266 | 89 |
| Obi | TAR017 | 5m @ 0.99 g/t Au | 100% Oxide | 64 | 69 | no sample in adjacent 1m interval | RC | 40,507 | 95,148 | 369 | -85 | 272 | 82 |
| Obi | TAR022 | 12m @ 2.86 g/t Au | 100% Oxide | 39 | 51 | RC | 40,448 | 94,878 | 366 | -54 | 87 | 75 | |
| 2m @ 0.43 g/t Au | 100% Oxide | 55 | 57 | RC | |||||||||
| 3m @ 0.73 g/t Au | 100% Oxide | 61 | 64 | RC |

| Prospect | Hole ID | Downhole Intersection | IntersectionMaterialType | DepthFrom(m) | DepthTo(m) | Comments | HoleType | CollarEasting(m) | CollarNorthing(m) | CollarElevation(m) | Dip(°) | Azimuth(°) | HoleLength(m) |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| Obi | TAR056 | 6m @ 2.52 g/t Au | 100% Oxide | 36 | 42 | RC | 40,439 | 95,111 | 370 | -75 | 272 | 80 | |
| Obi | TAR057 | 2m @ 4.18 g/t Au | 100% Oxide | 39 | 41 | RC | 40,443 | 95,086 | 369 | -75 | 272 | 80 | |
| Obi | TAR058 | 10m @ 2.07 g/t Au | 100% Oxide | 41 | 51 | RC | 40,448 | 95,138 | 371 | -75 | 272 | 80 | |
| Obi | TAR062 | 4m @ 0.45 g/t Au | 100% Oxide | 32 | 36 | RC | 40,380 | 95,138 | 371 | -80 | 270 | 65 | |
| 2m @ 0.48 g/t Au | 100% Oxide | 43 | 45 | RC | 371 | ||||||||
| Obi | TAR063 | 2m @ 0.61 g/t Au | 100% Oxide | 32 | 34 | RC | 40,413 | 95,154 | 371 | -80 | 270 | 80 | |
| 2m @ 1.02 g/t Au | 100% Oxide | 39 | 41 | RC | |||||||||
Notes: The reported composites for the drilling were determined using a cut-off grade of 0.30g/t Au to select significant and anomalous intersections, with a maximum of 2m internal dilution being incorporated into the composite where appropriate. No top-cuts were applied to assays for constituent samples. Isolated mineralised intersections less than 2m in downhole length have not been reported. Collar position reported under Sanutura Project Grid (2022). Intersection material type listing based on visual logging of relative proportions of weathered, transition and fresh material intersected over the downhole length for the reported intersection.

APPENDIX B – REFERENCES TO PREVIOUS ASX DISCLOSURE
| Date | Title |
|---|---|
| 11 March 2022 | Sarama Resources Prospectus |

APPENDIX C – JORC CODE (2012 EDITION) – TABLE 1 INFORMATION
Section 1 Sampling Techniques and Data
(Criteria in this section apply to all succeeding sections.)
| Criteria | JORC Code Explanation | Commentary |
|---|---|---|
| SamplingTechniques | Nature and quality of sampling (e.g. cutchannels, random chips, or specificspecialised industry standard measurementtools appropriate to the minerals underinvestigation, such as down hole gammasondes, or handheld XRF instruments, etc).These examples should not be taken aslimiting the broad meaning of sampling. | PrefaceThe Sanutura Project (the "Project") is comprised of several exploration properties over which exploration has occurred to varying degrees. Themajority of exploration has been conducted over several phases by Sarama Resources ("Sarama") since 2011 and has resulted in the discovery of theTankoro Deposit. Several Mineral Resource estimates have been completed for the deposit over time and exploration activities continue. In 2016,Sarama acquired the Djarkadougou 2 Property, which hosts the Bondi Deposit, from Orezone Gold Corp ("Orezone") and integrated the property intothe greater Sanutura Project. A significant amount of phased exploration work was conducted by Orezone in the period 2003-2016, culminating in anestimate of Mineral Resources in 2009. At present, the bulk of the exploration work on the Djarkadougou 2 Property is attributable to Orezone'soperating era, however Sarama completed an updated Mineral Resource estimate in 2021 and is continuing exploration activities. |
| Grab samples have been collected on an ad-hoc basis in areas of geological interest and for material of geological or mineralogical interest.Soil geochemistry sampling (Sarama) - samples have been collected using both handheld digging (500mm depth) and mechanical auger collectionmethods (average depth ~5m) to sample the sub-surface material. Auger holes were logged on 1m intervals and were partially sampled over 1mintervals at specific downhole points according to the regolith profile. | ||
| Soil geochemistry sampling (Orezone) - significant soil geochemical sampling was undertaken on the Djarkadougou 2 Property by Orezone using similarpractices to those used by Sarama, however specific procedures are not known. | ||
| Rotary-air-blast ("RAB"), aircore ("AC") and reverse-circulation ("RC") drilling (Sarama) – chip samples are collected by cyclones on the drill rigs at 1mdownhole intervals. | ||
| RC drilling (Orezone) – chip samples are collected by cyclones on the drill rigs at 1m downhole intervals. | ||
| AC and RC drilling (other operators aside from Sarama and Orezone) – chip samples were collected on a drilled interval (generally 1m length) basisusing common industry equipment, but the specific details are unknown. | ||
| Diamond drilling ("DC") (Sarama & Orezone) – samples collected half drill core produced from drill core retrieved in barrels and sawn in half alonglongitudinal axis. Core sampled according to geological contacts and was generally ~1m in downhole length. | ||
| In all cases of drilling: | ||
| the use of nominal 1m sample intervals is deemed appropriate for the style of mineralisation being targeted;drilling has generally been oriented close to perpendicular to the expected strike of mineralisation to sample the mineralisation appropriately; anddetails on the preparation of sub-samples, QA/QC protocols and analytical techniques are included in following sections. | ||
| Include reference to measures taken toensure sample representivity and the | The use of digital survey equipment to capture and project point sample locations facilitates spatial referencing and assessment of samplerepresentativity relative to in-site mineralisation: | |
| all drillhole collars and soil geochemistry sample points have been surveyed using digital instruments of appropriate accuracy; and |

| appropriate calibration of any | RC and DC drilling has been downhole surveyed using specialised equipment. | |
|---|---|---|
| measurement tools or systems used. | The calibration details of survey instruments used by other operators is unknown, but Sarama and its drill contractors undertake regular instrumentcalibration. | |
| Drill sampling protocols used by Sarama incorporate consideration of downhole conditions and the use of equipment designed for drilling operations.Sarama typically collects samples in continuous intervals to ensure representativity across the mineralisation. Drilling by other operators appears tohave been carried out using similar protocols, however specific details are unknown. | ||
| Further details on sampling and sub-sampling protocols are listed in the following sections. | ||
| Aspects of the determination ofmineralization that are Material to the | The presence of gold mineralisation has been identified using structured exploration programs which feature soil geochemistry and grab sampling inthe early stages, before drilling in more advanced exploration. | |
| Public Report.In cases where 'industry standard' work hasbeen done this would be relatively simple | The presence of in-situ gold mineralisation that is reported from drilling has been determined using gold assays above background levels (nominally>0.2-0.3g/t Au) which are continuous over lengths >2m. Composite reporting is used to produce a single drill intercept for a particular intersection ofmineralisation. | |
| (eg 'reverse circulation drilling was used toobtain 1 m samples from which 3 kg waspulverised to produce a 30 g charge for fireassay'). In other cases, more explanationmay be required, such as where there iscoarse gold that has inherent samplingproblems. Unusual commodities ormineralization types (eg submarinenodules) may warrant disclosure of detailedinformation. | Details on sampling, sub-sample preparation, analytical techniques and reporting of significant results are contained in the following sections. Thesemethods are industry-standard. | |
| DrillingTechniques | Drill type (eg core, reverse circulation,open-hole hammer, rotary air blast, auger,Bangka, sonic, etc) and details (eg corediameter, triple or standard tube, depth ofdiamond tails, face-sampling bit or othertype, whether core is oriented and if so, bywhat method, etc). | Drilling by Sarama consisted of RAB, AC and RC drill types:RAB drilling used a 90mm diameter cutting blade;AC drilling used a 70-85mm diameter cutting blade (for 2022 drilling, a 70-90mm hole diameter, using either a cutting blade or face samplinghammer according to material type being encountered);RC drilling utilised a face sampling hammer with 127-140mm bit size; andDC drilling was completed with rigs equipped with a conventional core barrel to retrieve HQ (63.5 mm) core, reduced to the NQ (47.6 mm) diameterin the lower part of the hole. Core orientation was initially identified by spear imprint, before a change to digital method (Reflex ACT II & III).Drilling by Orezone (Djarkadougou 2 Property) consisted of AC, RC and DC drill types:AC drilling details are unknown;RC drilling used a 5-inch hammer bit. When water was encountered, the upper portion of the hole was reamed, and the hole was completed bycore drilling; andDC drilling was completed with rigs equipped with a conventional core barrel to retrieve HQ (63.5 mm) core, reduced to the NQ (47.6 mm) diameterin the lower part of the hole. Core orientation was by spear imprint, but details of the method are not known.No details are available for drilling completed by other operators. |
| Drill SampleRecovery | Method of recording and assessing coreand chip sample recoveries and resultsassessed. | RAB, AC and RC sample weights are recorded in the database for each sample length drilled. Comparison of actual vs theoretical sample weights on akg/drilled metre basis (using assumed hole diameter and material SG) gives an indication of the completeness of sample recovery. For DC drilling,recovered core lengths are compared to drilled length to give a measurement of core sample recovery. |

RAB drilling (Sarama) – no sample recovery data is available
| AC drilling (Sarama) – sample recovery data (coarse sample weight/interval) is available for approximately 74% of the total drilling and sub-sampleweights/interval (for lab submission) are recorded for 84% of the drilling with missing primary sample weights. It appears that sufficient sub-sampleswere available for assaying (0.8-1.8kg) in all cases. For the available coarse samples recovered, sample weights varied from 0.4-68kg/m drilled andaveraged (length weighted) 9.0kg/m drilled (compared to a theoretical sample weight of 7.5kg/m drilled for a nominal 75mm hole and a material SGof 1.7) which is considered to be of a high standard. | |
|---|---|
| For the 2022 AC drilling reported in this disclosure, sample recovery data (coarse sample weight/interval) is available for approximately 99% of thetotal drilling and sub-sample weights/interval (for lab submission). It appears that sufficient sub-samples were available for assaying (1.6-1.9kg) in allcases. For the available coarse samples recovered, sample weights varied from 2.5-28kg/m drilled and averaged (length weighted) 10kg/m drilled for70mm holes and 15.1kg/m drilled for 90mm holes. This compares to a theoretical sample weight of 9.6kg/m drilled and 15.3kg/m drilled for a nominal70mm hole with an allowance of 15mm diameter wall overbreak in oxide (SG 1.7) and fresh rock (unweathered quartz vein with SG 2.7) respectivelyand corresponding theoretical weights of 14.7kg/m drilled and 23.4kg/m drilled a 90mm hole with similar allowances. This is considered to be of a highstandard. | |
| RC drilling (Sarama) - sample recovery data (coarse sample weight/interval) is available for approximately 98% of the total drilling and sub-sampleweights/interval (for lab submission) are recorded for 11% of the drilling with missing primary sample weights. It appears that sufficient sub-sampleswere available for assaying (0.8-1.8kg) in all cases. For the available coarse samples recovered, sample weights varied from 0.5-95kg/m drilled andaveraged (length weighted) 24kg/m drilled (compared to a theoretical sample weight of 25.3kg/m drilled for a nominal 125mm hole and a material SGof 2.0) which is considered to be of a high standard. | |
| For the 2022 RC drilling reported in this disclosure, sample recovery data (coarse sample weight/interval) is available for approximately 98% of the totaldrilling and sub-sample weights/interval (for lab submission). It appears that sufficient sub-samples were available for assaying (1.9-2.9kg) in allsubmitted samples. For the available coarse samples recovered, sample weights varied from 6-45kg/m drilled and averaged (length weighted)21.7kg/m drilled for 127mm holes and 28.7kg/m drilled for 140mm holes. This compares to a theoretical sample weight of 26.9kg/m drilled and42.8kg/m drilled for a nominal 127mm hole with an allowance of 15mm diameter wall overbreak in oxide (SG 1.7) and fresh rock (unweathered quartzvein with SG 2.7) respectively and corresponding theoretical weights of 32.1kg/m drilled and 50.9kg/m drilled a 140mm hole with similar allowances.This is considered to be of a high standard. | |
| RC drilling (Orezone) – sample recovery data (coarse sample weight/interval) is available for approximately 93% of the total drilling and sub-sampleweights/interval (for lab submission) are recorded for 0% of the drilling with missing primary sample weights. It appears that sufficient sub-sampleswere available for assaying (1-2kg) in all cases. For the available coarse samples recovered, sample weights varied from 1.0-86kg/m drilled and averaged(length weighted) 27kg/m drilled (compared to a theoretical sample weight of 25.3kg/m drilled for a nominal 125mm hole and a material SG of 2.0)which is considered to be of a high standard | |
| RC drilling (other operators) – no sample recovery data is available. | |
| DC drilling (Sarama) – core length recovery data is available for 100% of drilling and averages 97%. This is a high level of sample recovery. | |
| DC drilling (Orezone) – no specific details are available on procedures and sample recovery is unknown. | |
| Measures taken to maximize samplerecovery and ensure representative natureof the samples. | AC & RC drilling (Sarama) – samples are collected by cyclones on the drill rigs at 1m intervals. The full drilled interval is collected before sub-sampling.In the case of reconnaissance AC drilling, a sub-sample of the drilled interval is produced at the drill site using a riffle splitter. In the case of higher-levelAC and RC drilling, the full drilled interval sample is transported from the drill site to a preparation facility where is it dried before sub-sampling by rifflesplitter. In all cases and since 2012, AC and RC drilling is terminated if water ingress into the hole is deemed significant to reduce the potential forsample smearing. For the RC and AC drilling cyclone and riffle splitters are routinely cleaned before each new interval is drilled. The use of 1m sampleintervals is deemed appropriate for the style of mineralisation being targeted. Drilled sample recovery is computed and gives an indication quality ofsample. |

| RAB drilling (Sarama)–sampling followed a similar procedure for reconnaissance type AC drilling. Due to the passage of drill cuttings up the side ofthe drilled hole, sample contamination is common in the drilling and the sampled interval is not necessarily representative of the drilled interval'smineralisation. | ||
|---|---|---|
| RC drilling (Orezone) – sampling procedures similar to those used by Sarama were adopted. | ||
| AC & RC drilling (other operators) - the procedures and techniques employed by other operators are unknown. | ||
| DC drilling (Sarama & Orezone) - diamond core retrieved on a continuous basis and was reconstructed into continuous runs on an angle iron cradle fororientation. Depths are checked against the depth on the core blocks and rod counts were routinely carried out by the drillers. Core was stored inpurpose-built trays before, during and after sampling. In the case of drilling by Sarama, drilled sample recovery is computed and gives an indicationquality of sample. | ||
| Whether a relationship exists betweensample recovery and grade and whether | Sample recovery for diamond holes is generally very high (97%) within the mineralised zones (>0.2g/t Au). Ground conditions for AC and RC drillingwere good and drilling generally returned consistent size samples. | |
| sample bias may have occurred due topreferential loss/gain of fine/coarsematerial. | No significant bias is expected, and any potential bias is not considered material at this stage of resource development. | |
| Logging | Whether core and chip samples have beengeologically and geotechnically logged to alevel of detail to support appropriateMineral Resource estimation, miningstudies and metallurgical studies. | Sarama - All drilling is geologically logged and recorded in a central database and depending on sample quality may be suitable to the support higherlevel technical work. AC and RC drilling data recorded includes rock types, structures, quartz veining type and percentages, sulphide occurrence andalteration type and intensity. Sample recovery and quality, water table depth and water inflows were also noted during logging. Diamond drilling useda similar logging system, but also included structural measurements, basic geotechnical data and core recovery. Diamond core was logged accordingto geological domains identified by geologists. The data is sufficiently detailed to inform a Mineral Resource estimate. |
| Orezone – logging practices to those used by Sarama were adopted and data is considered suitable for estimation of Mineral Resources. | ||
| Other operators - Geological logging for by other operators is not fully available and it is unlikely that this drilling would be suitable for the purposesof higher-level technical work. | ||
| Whether logging is qualitative orquantitative in nature. Core (or costean,channel etc) photography. | Sarama - Logging has been conducted both qualitatively and quantitatively – full description of lithologies, alteration and comments are recorded, aswell as percentage estimates on veining and sulphide amount. Visual estimates of percentages of key minerals associated with gold mineralization andveining were made. For all diamond core, digital photographs are taken of each core tray in a wet and dry state | |
| Orezone – Where available, logging has been conducted both qualitatively and quantitatively – full description of lithologies, alteration and commentsare recorded, as well as percentage estimates on veining and sulphide amount. Visual estimates of percentages of key minerals associated with goldmineralization and veining were made. For all diamond core, digital photographs are taken of each core tray in a wet and dry state | ||
| Other operators – only basic logging was conducted. | ||
| The total length and percentage of the | Total length of drilling and sampling to 31 December 2021: | |
| relevant intersections logged. | RAB (Sarama) – 14,100m drilled / 14,100m logged / 14,100m sampled & assayed | |
| AC (Sarama) – 141,500m drilled / 141,300m logged / 141,300m sampled & assayed | ||
| AC (Orezone) – 2,200m drilled / 2,200m logged / 1,800m sampled & assayedRC (Sarama) – 92,200m drilled / 91,900m logged / 91,000m sampled & assayed | ||
| RC (Orezone) – 63,300m drilled / 62,800m logged / 62,700m sampled & assayed | ||
| RC (other operators) – 2,000m drilled / 1,500m logged (basic) / 1,600m sampled & assayed | ||
| DC (Sarama) – 38,900m drilled / 38,700m logged / 35,000m sampled & assayed | ||
| DC (Orezone) – 17,100m drilled / 16,800m logged / 16,500m sampled & assayed |

| For the 2022 drilling reported in this disclosure: | |||||||
|---|---|---|---|---|---|---|---|
| AC (Sarama) – 700m drilled / 100% logged / 99% sampled & assayedRC (Sarama) – 1,100m drilled / 100% logged / 98%m sampled & assayed | |||||||
| Sub-Sampling | If core, whether cut or sawn and whether | All core was half-cut lengthwise using a diamond saw parallel to the orientation line. | |||||
| Techniques andSample | quarter, half or all core taken. | One half of the core was sampled, generally on 1m intervals, but shorter intervals were used to honour geological contacts as best as possible. | |||||
| Preparation | If non-core, whether riffled, tube sampled,rotary split, etc and whether sampled wet | Soil geochemistry sampling undertaken by Sarama, sub-samples are produced from the sieving of a dry sample collected at shallow depth from surface.The protocols for other operators are not known. | |||||
| or dry. | RAB, AC and RC drilling (Sarama) - sub-samples are produced from the drilled interval sample using a 'Controlab' stainless steel riffle splitter. In generaldrilling is terminated if/when water ingress into the hole is deemed to be excessive with the result that drilled samples are mainly dry or at the worst,moist. | ||||||
| For reconnaissance RAB and AC drilling, sub-samples are prepared at the drill site and placed into sealed and tagged bags – these sub-samples aremainly dry, but some will be moist.For higher-level AC and RC drilling, drilled samples are bagged at the drill site and transported to preparation facilities where they are placed intodrying trays/tubs for subsequent riffle-splitting – these sub-samples will be dry. | |||||||
| RC drilling (Orezone) - drilled samples are bagged at the drill site and transported to preparation facilities where they are placed into drying trays/tubsfor subsequent riffle-splitting – these sub-samples will be dry. | |||||||
| Other operators' drilling - the sub-sampling practices by other operators is not known. | |||||||
| For all sample types, the nature, quality | The methodologies for initial preparation of sub-samples are discussed above. | ||||||
| and appropriateness of the samplepreparation technique. | Sub-sample weights produced for submission to the analytical laboratories, are generally in the range of 1-2kg (Sarama) and 2-5kg (Orezone) but willdepend on the requirements of specific analytical techniques used. This is considered appropriate for the style of mineralisation and the nature of theexploration programs. | ||||||
| At the analytical laboratories, further sub-sampling takes place as follows: | |||||||
| Soil geochemistry surveys – usually none, as the full sub-sample is generally used as charge for cyanidation-based gold determination; andDrilling – (Sarama) sub-samples are finely crushed (approx. 2mm), pulverised (to typically 85-95% passing 75µm) using a specialised equipmentand an approximate 200g sub-sample of the pulp is taken of which a further sub-sample of 50g is produced by using a simple scoop method forfinal fire assaying. | |||||||
| Drilling – (Orezone) the entire sub-sample for RC (5kg) and DC (2kg) was dried, crushed to 6mm and ground in a vertical continuous Keegor discpulveriser to achieve 75-95% passing 75µm. The samples were further riffle split to 2kg (for BLEG analyses) or 500g (for fire assays). In the eventof leach tail determination by fire assay, the leached tail material is collected, washed and dried before being homogenised and sub-sampled,before a final 50g sub-sample of the leached pulp is taken by a scoop. | |||||||
| These laboratory-based sub-sampling methods are considered appropriate for the style of mineralisation and the nature of the exploration programs. | |||||||
| Details of QAQC protocols implemented by Sarama, other operators and analytical laboratories to monitor sampling and sub-sampling quality arediscussed below. | |||||||
| Quality control procedures adopted for all | Details of primary sampling and methods with the aim of producing representative sample are included above. | ||||||
| sub-sampling stages to maximiserepresentivity of samples. | Diamond core recovery percentage, RC/AC sample weights and sample quality were measured, recorded and monitored to ensure an adequate andrepresentative sub-sample was collected. |

| For its sub-sampling and analytical activities, Sarama used a QAQC system that features the use of field duplicates, pulp duplicates, standard referencematerials and blanks to monitor sampling, sub-sampling and sample representivity, along with analytical precision and repeatability. In particular, thevarious sub-sampling activities are monitored and assessed using the following methodologies: | |
|---|---|
| in the case of chip samples from drilling, production of sub-samples from drilled interval samples is undertaken by purpose-specific riffle splitters(on dry samples for higher-level AC and RC drilling) with field duplicates taken to assess sample splitting effectiveness;for core sampling the same side is consistently sampled, half-core with the bottom of hole line being retained in the tray; andproduction of pulp sub-samples for the analytical stage is undertaken at dedicated analytical laboratories which only sub-samples homogenisedpulverised material, with reference and blank material of known grades inserted into the pulp sample streams at regular intervals to monitor theprecision and accuracy of analytical equipment and the cleanliness of pulp preparation and handling. | |
| For analytical laboratories used by Sarama, the analytical precision and accuracy of the laboratories' equipment and cleanliness of pulp sub-samplepreparation and handling is monitored internally by the lab using certified reference materials (standards and blanks) and repeat assays. Dependingon the laboratory, certain accreditation protocols, both internal and external, will be in place. While not known, it is likely that such procedures werein place for the laboratories used by other operators. | |
| Details of duplicate and reference material insertion rates by Sarama, and where available, by other operators, are in subsequent sections. | |
| The results of the internal laboratory quality control are reported regularly to Sarama on a batch-by-batch basis, and the results were closely monitoredby Sarama personnel. | |
| Ad-hoc QAQC activities, including check assaying and re-sampling, were conducted by both Sarama and Orezone. | |
| Measures taken to ensure that thesampling is representative of the in-situ | Sarama & Orezone - The details of protocols for the collection of primary and sub-samples and their representivity of in-situ material is included inpreceding and succeeding sections. |
| material collected, including for instance | The sub-sample sizes are considered appropriate and representative of the gold mineralisation being sampled based on: |
| sampling. | the style of mineralisation (disseminated veinlet-controlled gold deposit)the width and continuity of the intersectionsthe grain size of the material being collected, andthe assay value ranges for gold at the parts per million accuracy level. |
| Other operators - The specific QAQC protocols of other operators are not known, however sourced data indicates that such systems were in place. | |
| Whether sample sizes are appropriate tothe grain size of the material beingsampled. | The sample and sub-sample sizes (length and weight) are considered appropriate and representative of the style of mineralisation and the form anddistribution of gold within the mineralised area. Future work is planned to examine the volume variance effect on analytical assay results. |
| The nature, quality and appropriateness ofthe assaying and laboratory proceduresused and whether the technique isconsidered partial or total. | SpecificsSoil geochemistry (Sarama & Orezone) - samples of approximately 2kg weight were assayed by the bulk leach extractable gold ("BLEG") methodwhich uses a NaCN solution to leach gold over a 24-hour period, with the liquor subsequently analysed by AAS instrumentation.Soil geochemistry (other operators) – unknown but likely similar to the Sarama analytical technique.RAB, AC, RC and DC drilling (Sarama) - a nominal 50g pulp charge was analysed for gold by lead collection fire assay with AAS instrumentation.AC, RC and DC drilling (Orezone) – samples of approximately 2kg weight were assayed by the bulk leach extractable gold ("BLEG") method whichuses a NaCN solution to leach gold over a 24-hour period, with the liquor subsequently analysed by AAS instrumentation. The leached tails forhead samples with leach grades >0.5g/t Au were commonly subjected to fire assaying to determine gold content of the tail.General |
| results for field duplicate/second-half |

| The fire gold analysis is a total assay method, which is an industry standard for gold analysis, and an appropriate assay method for this type ofmineralisation and for the purpose of the program. | |
|---|---|
| The BLEG method is a partial assay technique, which is an industry standard for gold analysis, and an appropriate assay method for soil geochemistryand early-stage reconnaissance type drilling. The use of the analytical technique is only appropriate for higher-order analytical work if the tail of theleach stage is subsequently analysed (thereby converting the level of gold grade determination from partial to full). | |
| For the samples with assay details available, the analytical laboratories used (SGS and ALS) and currently operate under to internationally recognisedstandards. It is not known whether the laboratories operated to these standards for the historical analytical work, however the laboratories are partof large international organisations that routinely conduct assaying as a core business so it is likely that internal QAQC measures were in place to ensurequality of work. | |
| For geophysical tools, spectrometers,handheld XRF instruments, etc, the | pXRF units were used by other operators for multi-element analysis of soil geochemistry samples, however the calibration details are not known bySarama. The data is not used for higher-order work. |
| parameters used in determining theanalysis including instrument make andmodel, reading times, calibrations factorsapplied and their derivation, etc. | No geophysical tools were used or data analysed for drilling. |
| Nature of quality control procedures | Details of the prevalence of QAQC primary sampling detailed below. In general: |
| adopted (eg standards, blanks, duplicates,external laboratory checks) and whetheracceptable levels of accuracy (i.e. lack ofbias) and precision have been established. | the QAQC regime implemented by Sarama is considered acceptable (accuracy and precision) for the nature of the exploration programs and forthe intended use of the data; andthe QAQC regime implemented by Orezone for its work on the Djarkadougou 2 Property, while comprehensive in design and magnitude, is broadlyineffective in monitoring sampling and analytical practices and as a result the assay database is of low confidence. This results from the generationof gold assays from bulk cyanidation of samples (without leach tail fire assay) for which gold dissolution ranged 60-90%. This issue has produceda negative bias in gold values in the assay database and erodes the effectiveness of QAQC monitoring. The QAQC system implemented was foundto be ineffective in externally monitoring analytical lab performance and sample preparation activities, resulting from the use of in-house preparedreference materials which appear to be highly variable in gold grade. Field practices that Orezone employed for sample collection and sub-samplingwere probably of a reasonable standard, however this can't be assessed definitively because of the above issues.No data on external checks on the results of the primary laboratories are available. |
| The prevalence of QAQC elements in the production streams by various operators is listed below:Sarama QAQC | |
| Soil geochemistry sampling – the QAQC regime featured insertion of uncertified reference materials into the production stream and the use offield duplicate. Design insertion rates for total QAQC elements were 3% (2011-2013) and 6% (2014-present).Auger drilling – the QAQC regime featured insertion of uncertified reference materials into the production stream and the use of field duplicatesampling. Design insertion rates for total QAQC elements were 3% (2011-2012) and 5% (2015-present).RAB drilling – no QAQC elements used.AC drilling – the QAQC regime featured insertion of certified reference materials (2012 activities used uncertified reference materials) into theproduction stream and the use of field duplicate sampling. Actual insertion rates for total QAQC elements were 4% (2012-2014, no field duplicatesused), 9% (2015-2016) and 11% (2016-2019).RC drilling – the QAQC regime featured insertion of certified reference materials into the production stream and the use of field duplicate sampling.Actual insertion rates for total QAQC elements were 6% (2011-2014), 8% (2015-2016) and 5% (2016-2019).DC drilling– the QAQC regime featured insertion of certified reference materials into the production stream sampling. Actual insertion rates fortotal QAQC elements were 6% (2012-2015), 6% (2016) and 8% (2016-2019).For the drilling reposted in this disclosure: the QAQC regime featured insertion of certified reference materials (uncertified reference material for |

| Orezone QAQCSoil geochemistry sampling – details unknown.Auger drilling – details unknown.AC drilling – the QAQC regime actual insertion rates for total QAQC elements was 28% (2003-2016).RC drilling - the QAQC regime actual insertion rates for total QAQC elements was 29% (2003-2016).DC drilling - the QAQC regime actual insertion rates for total QAQC elements was 16% (2003-2016).Other operators' soil geochemistry & drilling - the QAQC practices used by other operators is not known.Verification ofThe verification of significant intersectionsRegional ExplorationSampling andby either independent or alternativeRegional exploration has employed similar procedures s those for the Tankoro and Bondi Deposits (reviews outlined below). Results from regionalAssayingcompany personnel.exploration are not considered 'significant' to the Project given the magnitude of Mineral Resources at he Tankoro and Bondi Deposits.Tankoro DepositCube Consulting assessed the veracity of the drilling data during site visits in 2011 and 2012. Verification work, pertaining to sampling and assayingincluded:the collection of 160 independent samples by Cube comprising field and umpire duplicates for both the RC and diamond drilling; andthe summary logging of 16 diamond holes by Cube and comparison with corresponding Sarama logging and assay results.Cube concluded that the mineralised intercepts returned from the summary logging confirmed the original Sarama logging and assay tenor in theSarama database and that the comparison of the replicate verification assays to the original assays for the mineralised intercepts were consideredacceptable and confirmed the drill assays reported by Sarama. While significant exploration has taken place since Cube's verification work, the practicesemployed for sampling and assaying have remain largely unchanged and the outcomes of the review are considered relevant and have coverage oversampling and assaying considered 'significant' to the Project (excluding the Djarkadougou 2 Property).In 2018, as part of a site visit and re-estimate of the mineral inventory at the Tankoro Deposit, SRK Consulting undertook the following verificationwork:extensive review of the geological and drill database;review of the data collection methodologies during a site visit;QAQC review of sampling and assay data; andgeological modelling of the Tankoro Deposit.SRK concluded that the assay data provided was of sufficiently high quality and had been subjected to a sufficiently high level of checking to support aMineral Resource estimate. Limited exploration has been conducted on the Project since this phase of work so the results of the SRK review areconsidered relevant and have coverage over sampling and assaying considered 'significant' to the Tankoro Deposit.During the period 2012-2021, Cube Consulting completed several phases of QAQC review for the drillhole database as part of updates to MineralResource and mineral inventory estimates. The reviews have focussed on sample collection and assaying, form part of a continuous improvementcycle, and are considered relevant and have coverage over sampling and assaying considered 'significant' to the Tankoro Deposit.For the drilling reported in this disclosure, no independent verification of significant intersections has taken place. In general, all intersections ofsignificance are reviewed by at least 2 company personnel.Bondi Deposit | one blank element) into the production stream and the use of field duplicate sampling. Actual insertion rates for total QAQC elements were 11%for AC drilling and 11% for RC drilling. | |
|---|---|---|

| During Orezone's operatorship of the Djarkadougou 2 Property (hosting the Bondi Deposit), Met-Chem undertook a site visit in 2007 and an audit ofthe databases, the logging and sampling procedures, QAQC program and a visit to the three laboratories in Ouagadougou. Conclusions from the auditincluded the following relevant points: | |
|---|---|
| the performance of the blanks and standards was variable, and they could not be used to monitor accuracy of the laboratories;duplicate assay results verified of 44 RC field duplicates and 15 core pulps by Met-Chem suggested a moderate repeatability, particularly for therange of values above 15 ppb Au;no systematic bias was detected in the underlying assay data;a more aggressive leach extractable assay method (Leachwell) was recommended to counter the incomplete leaching of the gold when using BLEGwhich may have caused a negative bias in the head assays;the homogeneity of the in-house standard and blank materials needed improvement;the source of the poor blank performance needed to be determined and addressed;the origin of the variability between the original and duplicate sample analytical results needed to be determined and controlled if possible; andMet-Chem believed the field data, the geological interpretation and the parameters used for the resource estimate were collected, handled andinterpreted by experienced people and fairly reflected the geological and gold grade continuity of the main deposits. | |
| The bulk of the exploration work for the Bondi Deposit was conducted in the 2005-2007 period so the results of the review are considered relevant andhave coverage over sampling and assaying considered 'significant' to the Bondi Deposit. | |
| In 2021, as part of an updated Mineral Resource estimate for the Bondi Deposit, Sarama undertook a retrospective review of the drillhole database,with particular focus on analytical performance for drilling informing the Bondi Deposit. The review concluded that the gold assays for the depositgenerated during Orezone's operatorship have low confidence. This results from the generation of gold assays from bulk cyanidation of samples(without leach tail fire assay) for which gold dissolution ranged 60-90%. This issue has produced a negative bias in gold values in the assay databaseand erodes the effectiveness of QAQC monitoring. The QAQC system implemented was found to be ineffective in externally monitoring analytical labperformance and sample preparation activities, resulting from the use of in-house prepared reference materials which appear to be highly variable ingold grade. The review determined that the field practices that Orezone employed for sample collection and sub-sampling were probably of areasonable standard, however this couldn't be assessed definitively because of the above issues. The review is considered relevant and has coverageover sampling and assaying considered 'significant' to the Bondi Deposit. | |
| The use of twinned holes. | Tankoro Deposit |
| 5 x RC holes and 1 diamond drill hole were twinned by diamond holes at the MM and MC Prospects in the period 2012-2013. | |
| 10x AC holes were twinned by RC holes at the MC, Phantom, OBI and Kenobi Prospects where shallow AC drilling of oxide mineralisation was completedfrom 2013 to 2019. | |
| Although there are significant variations between the mineralised lengths of the AC, RC and DC drilling and also in the average gold grade for theinterval, all the holes confirm the tenor and veracity of the original drill intercepts | |
| The AC drilling does tend to show a fairly consistent undercall of approximately 24% when compared to the RC drilling and is likely to be a samplesupport issue where the larger volume of the RC sample allows an improved opportunity for the capture of the gold particles and better represents thehigh local variability of the gold mineralisation. | |
| For the drilling reported in this disclosure, no twinned holes were drilled. | |
| Bondi Deposit – no twin drilling undertaken. | |
| Regional Exploration – no twin drilling undertaken. |

| Documentation of primary data, data entry | General Procedures by Sarama | |
|---|---|---|
| procedures, data verification, data storage(physical and electronic) protocols. | Data collection for surface prospecting and soil geochemistry surveys undertaken by Sarama generally involves manual logging of information on paperbased records. This information is then translated into electronic format via spreadsheet templates. Data collection for drilling undertaken by Saramagenerally involves the entry of field logging information directly into electronic format via spreadsheet templates. In both cases, the spreadsheetbased records are uploaded into master databases maintained by specialist external database administrators. | |
| AC, RC and DC drill samples collected by Sarama are retained for future reference. In the case of RC drilling, a small amount of cuttings/chips for eachlogged interval are retained in plastic box trays. | ||
| The data collection and handling procedures of other operators is not known, however all available sampling information has been incorporated intothe master databases (surface prospecting, soil geochemistry and drilling) for the Project after being translated from the various native forms. Retainedsamples of drilling by other operators are generally not available. | ||
| Tankoro Deposit Exceptions | ||
| Drilling completed by Acacia Mining in 2017-2018 was logged and compiled in a separate process. A final Microsoft Access database was used totranslate logging and sampling data from the Acacia Mining system to Sarama's database structure. Validation checks were performed to ensure dataintegrity. The drilling handled by this process is a relatively minor contributor to the total drilling that informs the Mineral Resource estimate for theTankoro Deposit. | ||
| Bondi Deposit Exceptions | ||
| Discuss any adjustment to assay data. | The majority of the drilling at the Bondi Deposit was undertaken by Orezone. Upon acquisition of the property by Sarama, Sarama undertook anextensive database rebuild and translation exercise which imported all available data from various spreadsheets and database exports supplied byOrezone. This exercise was conducted on a first principles basis and included re-matching sampling data with analytical laboratory result reports, whichwere uploaded using script-based processes. Sarama undertook several phases of data validation on the final re-compiled database. | |
| All assay data that is reported as being below analytical detection limit is recorded in the database as a small negative value equivalent to the detectionlimit (for example, <0.01g/t Au is recorded as -0.01g/t Au). For composite reporting, analysis of drill results and modelling, the sample intervals withnegative values recorded in the database were replaced with 'half the detection limit' values (for example -0.01g/t Au replaced with 0.005g/t Au). | ||
| Missing samples and interval gaps denoted by no sample ("NS") or blank records in the databases. For the purposes of composite reporting of drillresults and analysis these intervals were assigned zero grade. | ||
| In both cases, the unaltered base data record is preserved in the database structure. | ||
| Location ofData Points | Accuracy and quality of surveys used tolocate drill holes (collar and down-hole | For RC and DC drilling, hole locations were initially identified by a cement marker or plug at the collars, inscribed with the drillhole name. AC drilling isgenerally unmarked but the density of drilling is such that drilled collars can be located based on design co-ordinates prior to final surveying. |
| surveys), trenches, mine workings andother locations used in Mineral Resourceestimation. | Drillhole collars are surveyed (X, Y, Z) using either handheld GPS, differential GPS or real-time kinematic GPS equipment. Collar locations for holes usedthe estimation of Mineral Resources were surveyed as follows: | |
| Tankoro Deposit - using differential GPS or real-time kinematic GPS equipment which generally provides a level of accuracy of 1-10cm horizontallyand 3-15cm vertically; and | ||
| Bondi Deposit – using several methods including total station and DGPS referenced back to local control points. Survey tolerance is unknown.Potentially low confidence due to local survey control being informed by regional control points that potentially have erroneous co-ordinatesprovided by the government. With this issue present, some collars have been manually adjusted to fit a reasonable topographic model and whilenot ideal, the flat lying terrain allows for an acceptable level of relative accuracy. Future estimates will incorporate better survey control. | ||

| RC drilling, downhole surveys used a gyroscopic or magnetic field-based instrument (Reflex Ez-Gyro or Ez-Gyro). Readings were taken at the collar (oras close as practicable) and end of hole positions, along with intermediate readings down the length at intervals ranging 5-40m. For diamond drilling,early programs used the Reflex instrument to take downhole readings at approximately 6m past the lowest drill tube.In the case of the Tankoro Deposit, recent downhole surveys were conducted using a self-seeking Ez-Gyro was utilised. After completion of thehole there is an additional survey while coming out of the hole at each 10m.In the case of the Bondi Deposit, readings were taken at 25-30m downhole increments using a Reflex magnetic field-based instrument.For diamond tails drilled from an existing RC hole, the new survey data for the diamond hole section was sometimes appended to the existing RCsurvey data and in other times, the hole re-surveyed over its entire length.AC drilling - the holes were not downhole surveyed due to their limited length and probably minor deviation.The 3D location of the individual samples is considered to be adequately established, consistent with accepted industry standards and suitable for theestimation of Mineral Resources to the stated confidence levels.Specification of the grid system used.All drillhole data is measured and recorded in the UTM WGS84 datum in Zone 30P (Northern Hemisphere) coordinate system.For this disclosure, data is presented in a Sanutura Project Grid (2022) which is a planar reference system oriented along the strike of the TankoroDeposit and shifted to an arbitrary origin.Quality and adequacy of topographicSanutura Project (excluding Djarkadougou 2 Property) - no specific topographical control points are used. Surveying conducted using GPS, differentialcontrol.GPS or real-time kinematic GPS equipment which gives acceptable accuracy for the stage of the Project and which doesn't require fixed control points.The majority of drilling has been surveyed using high-accuracy DGPS or real-time kinematic equipment.Djarkadougou 2 Property – historical surveying conducted by Orezone used several points of topographic control but errors possibly existed ingovernment supplied reference co-ordinates which have translated through to the total station measurements.For estimate of Mineral Resources at Tankoro and Bondi Deposits, local topographic models were constructed from drillhole collars within the area ofthe deposits, which is adequate for the stage of the Project and intended use of the information.Data SpacingData spacing for reporting of ExplorationSoil Geochemistry SurveysandResults.The spacing of soil geochemistry surveys varies according to the purpose of the individual campaign and the operators' practices.Distribution800m x 100m grids oriented N090° have been used for initial regional surveys over large areas.400m x 100m grids oriented N090° have been used for follow-up or more focussed surveys.100-200m x 50m grids have been used for infill surveys.In the case of sampling by Sarama, the depth of sample collection is generally 500mm below the surface but is modified by supervising geologistsaccording to the regolith conditions. The sampling depth for other operators is unknown.Auger DrillingThe spacing of auger drilling for soil geochemistry surveys varies, but is commonly:800m x 50m oriented N090° (for broad-spaced initial sampling); and400m x 20-30m oriented N090° (for infill sampling).Two samples were taken in each hole, 1m apart, at an average depth of approximately 6m.RAB, AC & RC DrillingThe spacing of drillholes varies according to the specific purpose of the drill programs. | ||
|---|---|---|

| Fence spacing ranges 10-600m for grid but is typically 50m & 100m. The Tankoro Deposit has typically been drilled on 50-150m fence spacingwhile the Bondi Deposit is drilled on 25-40m spacing for RC (typically 25m spacing) and 50m spacing for DC drilling. Single fence drilling wasemployed to test early-stage targets.Hole spacing (within each fence) ranges 20-50m but is typically 20m.Downhole sample point spacing for drilling varies by drill type and purpose of the program from 1m to 4m (composited RAB and AC holes in early-stagereconnaissance drilling. Overall, sample point spacing is generally 1-2m and that in Mineral Resource is 1m. | ||
|---|---|---|
| For the drilling reported in this disclosure, downhole sampling was conducted using 1m intervals. | ||
| Whether the data spacing, and distributionis sufficient to establish the degree ofgeological and grade continuityappropriate for the Mineral Resource and | Tankoro & Bondi Deposits – The data spacing and distribution is considered sufficient to establish the degree of geological and grade continuityappropriate for the Mineral Resource category applied. Certain areas of the modelled inventory remain unclassified due to insufficient confidence ingeological and/or grade continuity. | |
| Ore Reserve estimation procedure(s) andclassifications applied. | Regional Project Area - The data spacing and distribution is sufficient for the early-stage exploration works completed to date, however increased datadensity is required for estimation of Mineral Resources in these areas. | |
| Whether sample compositing has beenapplied. | Depending on the nature of the drill programs, the drilled samples were either maintained as 1m intervals or were sub-sampled and composited intolonger interval sub-samples (commonly 2m or 4m) prior to assaying. Where significant assays were returned, the retained coarse rejects of theconstituent intervals of the composite were individually sub-sampled, assayed and results stored in the database as primary assays. | |
| Soil geochemistry and grab sampling – no compositing has been used. | ||
| RAB drilling (Sarama) – 2m compositing has been predominantly used. | ||
| AC drilling (Sarama) – some 2m compositing has been used for assaying of first pass or reconnaissance drilling. Where required, constituent 1mintervals were assayed. | ||
| AC drilling (Orezone) – no compositing used. | ||
| RC drilling (Sarama & Orezone) – very limited use of composite samples (2m). | ||
| RC drilling (Other Operators) – no compositing used. | ||
| For the drilling reported in this disclosure, no compositing was used. | ||
| Orientation ofData in | Whether the orientation of samplingachieves unbiased sampling of possible | Surface prospecting (grab samples) and soil geochemistry surveys (hand and auger collected) are point samples and were collected somewhatindependent of geological trends. For the early-stage nature of these samples, this is considered acceptable. |
| Relation toGeological | structures and the extent to which this isknown, considering the deposit type. | Tankoro Deposit Drilling |
| Structure | In general, holes have been drilled on N90°oriented drill fences with holes dipping 40-50° to the east to target the mineralisation which typically dipssteeply to the west. In certain areas of the deposit, drill fences have been oriented N135° and N180° to better intersect mineralisation oblique to themain lodes which trend N020°. Drill holes have dips of 40-90° to optimise intercepts of mineralisation with respect to thickness and distribution. | |
| Although the E-W orientated drill lines are oblique to the orientation of the main mineralised trend, structural logging from the diamond drilling hasconfirmed that the drilling orientation has not introduced any sampling bias. | ||
| To the extent known, the drill orientations provide an unbiased sampling of the mineralised lodes as a whole. | ||
| For the drilling reported in this disclosure, hole orientation was generally N270°, dipping at ~80° to target the principally flat, easterly dippingmineralisation. | ||
| Bondi Deposit Drilling |

| RC and core holes have largely been drilledagainst the dip of the mineralized zones. Most of the holes have been drilled toward the west (N270° andN286°) and the east (N090° and N106°) at a dip of 45-50°. The sub-vertical mineralized zones at the Bondi Deposit are reasonably well determined bythe hole spacing (25 to 50m) and by control on the hole deviation achieved by the down-hole surveys. | ||
|---|---|---|
| To the extent known, the drill orientations provide an unbiased sampling of the mineralised lodes as a whole. | ||
| Regional Project Drilling | ||
| Drilling has been oriented in several directions according to the purpose and targets of specific programs: | ||
| majority of drilling is oriented on fences at N310° to N325° which is approximately perpendicular to the trend of the litho-structural corridor, trendof gold-in-soil anomalism and the interpreted strike of mineralisation intersected by drilling (NE-NNE).majority of drilling has hole inclinations of 50-55° which provides for reasonable sampling of lodes with flat to sub-vertical dips (assuming drillingdirection has opposed the dip of mineralisation). | ||
| The orientation of mineralisation is poorly understood at this stage so the true effectiveness of sampling by drilling is not known. | ||
| If the relationship between the drilling | Tankoro and Bondi Deposits | |
| orientation and the orientation of keymineralised structures is considered to have | Drilling orientations are not considered to have introduced any sampling bias. | |
| introduced a sampling bias, this should be | Regional Project Drilling | |
| assessed and reported if material. | The presence or degree of any sampling bias is not known at this stage. | |
| Drilling to date is generally exploratory in nature and does not support a detailed understanding of the geological setting nor the mineralisation presentat the Project and as such, the relationship of downhole intersection length to true width of the mineralisation is unable to be determined. | ||
| SampleSecurity | The measures taken to ensure samplesecurity. | Sarama - For the works completed by Sarama, samples are collected and placed into specially numbered bags prepared for the programs. This isperformed in the presence of Sarama's field geologists with inventory details recorded for each sample. |
| For soil geochemistry and surface prospecting, samples are generally placed into sealed and tagged bags directly at the site of collection.For reconnaissance AC drilling, sub-samples are prepared at the drill site and placed into sealed and tagged bags.For higher-level AC and RC drilling, samples are bagged securely at the drill site and transported to preparation facilities by Sarama field personnel.Once at the preparation facility, Sarama personnel remove the samples from the bags, place them into drying trays/tubs with tags inserted for thesample numbers and after subsequent riffle-splitting, the sub-sample is placed into sealed and tagged bags.Once the samples are finally bagged, they are transported to analytical labs in Burkina Faso in large batches with full details (sample number, batchnumber, sub-sample weight) recorded by Sarama personnel.Once at the analytical laboratories, the samples are sequentially unbagged, weighed and recorded with comparisons to submission details madeby Sarama personnel. | ||
| All aspects of the sample collection and riffle splitting of the assay sub-sample (in the case of in the case of RAB, AC and RC drilling) were conducted bypersonnel under the supervision of Sarama's geologists | ||
| Orezone – RC and DC drilling: | ||
| RC samples and the drill core retrieved by the drillers was collected and handled at the drill site by Orezone personnel. The samples weretransported to the storage area in Djarkadougou, split and sent to the Orezone warehouse (enclosed building) in Ouagadougou. The storage areawas fenced, and security was provided on a permanent basis by a watchman.The samples were checked and sent to the preparation facilities in Ouagadougou and then returned to Orezone's warehouse after samplepreparation was completed. The assay sub-samples were dispatched to the analytical laboratories.The samples were continually under the direct control of Orezone, who monitored the preparation and shipment of the samples. |

| Other Operators-Sarama is unaware of how previous operators ensured sample security for works completed prior to Sarama's acquisition of theproperties. | ||
|---|---|---|
| Audits or | The results of any audits or reviews of | Regional Exploration |
| Reviews | sampling techniques and data. | Sarama's sampling techniques in regional areas of the at the Project reflect those employed for its work at the Tankoro Deposit, for which audits havebeen undertaken as below. |
| The work undertaken by Orezone on the Djarkadougou 2 Property, as the next most substantial work on the Project, broadly mirror that for the BondiDeposit for which audits and reviews have been undertaken as below. | ||
| Tankoro Deposit | ||
| Cube Consulting assessed the veracity of the drilling data during site visits in 2011 and 2012 which involved the following: | ||
| independent sampling and logging;field inspection of the drilling in progress; andconfirmation of drillholes, geological outcrops, artisanal workings and mineralisation style. | ||
| Based on these site visits and QAQC reviews conducted as part of Mineral Resource estimates conducted in 2013, 2016, 2020 and 2021, Cube concludedthat all logging, sampling and data QAQC procedures implemented by Sarama from 2011 to 2019 were undertaken to a high industry standard. Therecord keeping and data management was considered adequate for an advanced exploration project. | ||
| SRK Consulting (2018) reviewed the data collection methodologies during a site visit and undertook an extensive review of the assay and geologicaldatabase. SRK concluded that the assay data provided was of sufficiently high quality and had been subjected to a sufficiently high level of checking tosupport a Mineral Resource estimate. | ||
| For the drilling reported in this disclosure, no audits or reviews were undertaken apart from routine QAQC checking. | ||
| Bondi Deposit | ||
| During Orezone's operatorship of the Djarkadougou 2 Property (hosting the Bondi Deposit), Met-Chem undertook a site visit in 2007 and an audit ofthe databases, the logging and sampling procedures, QAQC program and a visit to the three laboratories in Ouagadougou. Conclusions from the auditincluded the following relevant points: | ||
| the performance of the blanks and standards was variable, and they could not be used to monitor accuracy of the laboratories;duplicate assay results verified by Met-Chem suggested a moderate repeatability, particularly for the range of values above 15 ppb Au;no systematic bias was detected in the underlying assay data;a more aggressive leach extractable assay method (Leachwell) was recommended to counter the incomplete leaching of the gold when using BLEGwhich may have caused a negative bias in the head assays;the homogeneity of the in-house standard and blank materials needed improvement;the source of the poor blank performance needed to be determined and addressed;the origin of the variability between the original and duplicate sample analytical results needed to be determined and controlled if possible; andMet-Chem believed the field data, the geological interpretation and the parameters used for the resource estimate were collected, handled andinterpreted by experienced people and fairly reflected the geological and gold grade continuity of the main deposits.In 2021, as part of an updated Mineral Resource estimate for the Bondi Deposit, Sarama undertook a retrospective review of the drillhole database,with particular focus on analytical performance for drilling informing the Bondi Deposit. The review concluded that the gold assays for the depositgenerated during Orezone's operatorship have low confidence. This results from the generation of gold assays from bulk cyanidation of samples(without leach tail fire assay) for which gold dissolution ranged 60-90%. This issue has produced a negative bias in gold values in the assay databaseand erodes the effectiveness of QAQC monitoring. The QAQC system implemented was found to be ineffective in externally monitoring analytical labperformance and sample preparation activities, resulting from the use of in-house prepared reference materials which appear to be highly variable in |

gold grade. The review determined that the field practices that Orezone employed for sample collection and sub-sampling were probably of a reasonable standard, however this couldn't be assessed definitively because of the above issues.

Section 2 Reporting of Exploration Results
(Criteria listed in the preceding section also apply to this section.)
| Criteria | JORC Code Explanation | Commentary |
|---|---|---|
| MineralTenement andLand TenureStatus | Type, reference name/number, locationand ownership including agreements ormaterial issues with third parties such asjoint ventures, partnerships, overridingroyalties, native title interests, historicalsites, wilderness or national park andenvironmental settings. | The Sanutura Project (the "Project") is comprised of 11 exploration properties for which Exploration Permits have been issued by the Government ofBurkina Faso:Bamako 2 - Arrêté 2019-180/MMC/SG/DGCMBini - Arrêté 2020-063/MMC/SG/DGCMBotoro - N/A, pending issuance of new arrêté, previously Arrêté 2018-209/MMC/SG/DGCMDanymi 2 - N/A, pending issuance of new arrêté, previously Arrêté 2019-132/MMC/SG/DGCMDjarkadougou 2 - N/A, pending issuance of new arrêté, previously Arrêté 17/118/MMC/SG/DGCMGbingue 2 - Arrêté 2021-229/MEMC/SG/DGCMNakar - Arrêté 2019-126/MMC/SG/DGCMOuangoro 2 - Arrêté 2020-300/MMC/SG/DGCMTankoro 2 - N/A, pending issuance of new arrêté, previously Arrêté 2019-150/MMC/SG/DGCMTyikoro - Arrêté 2020-149/MMC/SG/DGCMWerinkera 2 - N/A, pending issuance of new arrêté, previous permit term expired, renewal application assessed favourably, administrativecorrections required before issue of arrêté, previously Arrêté 2019-133/MMC/SG/DGCM |
| An Exploration Permit has a term of 3-years and, subject to the holder of the Exploration Permit satisfying certain reporting and expenditurerequirements, it can be renewed for a further 2 terms, each of 3-year duration. At the end of the second renewal, the regular tenure regime expires,but the holder of an Exploration Permit may apply for an Exceptional Extension for the Exploration Permit. If granted, this extension provides for asingle 3-year term which cannot be renewed or extended. At the end of the regular tenure regime or the Exceptional Extension tenure period, theholder of an Exploration Permit may apply for the issuance of a new Exploration Permit. | ||
| Sarama indirectly holds a 100% interest in all of properties constituting the Project. | ||
| The Bini, Danymi 2, Gbingue 2, Ouangoro 2, Tankoro 2, Tyikoro and Werinkera 2 Properties (collectively, the "South Houndé Properties") were subjectto an earn in agreement, entered into by Sarama and Acacia Mining plc ("Acacia") in November 2014. The parties terminated this earn-in agreementon 14 May 2019 with subsequent amendments being executed by Sarama and Barrick TZ Limited ("Barrick TZ", the successor company of Acacia) on15 November 2019, 19 June 2020 and 18 November 2021. | ||
| Under the final amended agreement, Sarama retains a 100% interest in the South Houndé Properties and Barrick TZ is entitled to the following propertyrelated payments: | ||
| commercial production-based payments consisting of: | ||
| o US$1M on production of 10,000 oz gold;o US$1M on production of a further 5,000 oz gold; and | ||
| royalty payments, capped at gold production of 1Moz Au, according to sliding-scale royalty rates of: | ||
| o 1.0% for gold price ≤US$1300/ozo 1.5% for gold prices >US$1300/oz and ≤US$1500/oz, ando 2.0% for gold prices >US$1500/oz. | ||
| The Bondi Deposit lies within the Djarkadougou 2 Property, with exploration rights granted via the issuance of the Djarkadougou 2 Exploration Permit(the "Djarkadougou 2 Permit" and formerly the "Djarkadougou Permit") which was originally granted to Orezone Inc (Burkina Faso) ("Orezone |

| Burkina"). On 22 August 2017, Sarama completed an agreement (the "Djarkadougou Agreement") with Orezone Gold Corporation (Canada)("Orezone"), giving Sarama the right to acquire a 100% interest in the Djarkadougou 2 Property subject to payment of certain commercial conditionsbeing satisfied. All conditions precedent was either satisfied or waived by the parties and the Djarkadougou Permit was transferred to SWA SARL (awholly owned subsidiary of Sarama) on 18 August 2017. Pursuant to the agreement with Orezone, the property holder has the obligation to makeroyalty payments to Orezone of US$20/oz sold from the property, up to a maximum of 200,000 ounces. | ||
|---|---|---|
| Several areas of significance for conservation and/or preservation exist in the region of the Project. The highest-ranking protected areas are the ForêtClassée des Deux Balés ("Deux Balés Classified Forests"), which has been informally recognised as a National Park since 1967 and the Reserve Totalede Faune de Bontioli ("Bontioli Full Fauna Reserve"). These areas are located approximately 150km north-east and 75km east of the Project's centroid. | ||
| At a local scale, the Project is positioned amongst lower-level areas of conversation and preservation; namely Reserve Partielle de Faune (Partial FaunaReserves) and Forêts Classés (Classified Forests). | ||
| The majority of the Bondi Deposit (hosted by the Djarkadougou 2 Property) is located in the Reserve Partielle de Faune de Nabéré (the "Nabéré PartialReserve"). The area is designated as IUCN Category IV, which is defined as a protected area managed mainly for conservation through managementintervention. Such an area of land and/or sea is subject to active intervention for management purposes to ensure the maintenance of habitats and/orto meet the requirements of specific species. Whilst being a protected area, the local environment has been significantly degraded by artisanal miningactivity on the Bondi Deposit and an associated village. Sarama has had discussions with the Ministry of Energy Transition, Mines and Quarries and theMinistry of Environment in respect of its activities on the Djarkadougou 2 Property the interaction with the Nabéré Partial Reserve and strategies tomanage the impact of Sarama's proposed exploration activities on the local environment. There is potential for certain special conditions regardingSarama's exploration activities in the Nabéré Partial Reserve to be specified in the new arrete, for which Sarama awaits, by the Ministry of EnergyTransition, Mines and Quarries. | ||
| The Project is subject to legislated NSR royalty payments to the Government of Burkina Faso for gold production sourced from the Project (sliding scale:<us$1000 3%;="" oz="">US$1000/oz and <$1300/oz 4%; and >US$1500/oz 5%). There is also a contribution payable to local community development funds,calculated at 1% and applied on the same basis as the NSR royalty.</us$1000> | ||
| No other commercial, environmental or social encumbrances are known to impact the Project. | ||
| The security of the tenure held at the timeof reporting along with any knownimpediments to obtaining a licence tooperate in the area | Status of Project Exploration Permits as follows:Bamako 2 - granted, currently in 1st term of 3-terms with current term expiring 13 October 2022;Bini - expired, 3rd term of 3-terms expired 6 May 2022 (application for re-issue submitted);Botoro - granted, currently in 3rd term of 3-terms with current term expiring 14 January 2024 (pending issuance of new arrêté);Danymi 2 - granted, currently in 1st term of 3-terms with current term expiring approx. 16 July 2024 (pending issuance of new arrêté);Djarkadougou 2 - granted, currently in 1st term of 3-terms with current term expiring approx. 15 August 2024 (pending issuance of new arrêté);Gbingue 2 - granted, currently in 1st term of 3-terms with current term expiring 13 September 2024;Nakar - granted, currently in 2nd term of 3-terms with current term expiring 20 June 2025 (pending issuance of new arrêté);Ouangoro 2 - granted, currently in 1st term of 3-terms with current term expiring 17 February 2023;Tankoro 2 - granted, currently in 1st term of 3-terms with current term expiring approx. 15 December 2024 (pending issuance of new arrêté);Tyikoro – expired, 3rd term of 3-terms expired 20 June 2022 (application for re-issue submitted); andWerinkera 2 - previous permit term expired, renewal application assessed favourably but administrative corrections required before issue of arrêté(will be 1st term of 3-terms assuming successful grant).No other permits or authorisations are required to be issued to undertake exploration works on the Project. | |
| ExplorationDone by OtherParties | Acknowledgment and appraisal ofexploration by other parties. | Prior to Sarama's involvement, minimal exploration work was conducted on the Project as a whole. Regional mapping and geophysical surveys(Marcelin 1971, SYSMIN 2003) were conducted over much of the country as part of government-sponsored programs aimed at fostering the extractiveresource industry. |

| Minor and early-stage prospecting and soil geochemistry programs were subsequently conducted on select properties within the Project by operatorsother than Sarama (Werinkera Property - Orbis Gold Limited, 2010-2011 and Ouangoro 2 Property – Goldrush Resources Limited, 2006-2007). Theresults of these exploration programs are not known, and these operators relinquished their interests in the properties. | ||
|---|---|---|
| A small RC reconnaissance drilling program was conducted on the Botoro Property by Birim Goldfields in 2007, following target generation works. Thedrilling identified several prospect areas that warrant follow-up as part of a structured exploration program for the whole Project. | ||
| The most significant body of work undertaken by other operators was the multi-phased exploration programs on the Djarkadougou 2 Property(Orezone, 1998-2016). Over this period, Orezone completed several phases of prospecting, soil geochemistry, airborne and ground-based geophysicalsurveys, targeted mechanised auger sampling, trenching and various campaigns of AC, RC and DC drilling. | ||
| A resource estimate was completed by Orezone on the Bondi Deposit (Djarkadougou 2 Property) in 2005 and updated in 2009. These estimates wereundertaken in accordance with Canadian National Instrument NI 43-101 ("NI 43-101"). | ||
| Geology | Deposit type, geological setting and style ofmineralization. | The Sanutura Project is located in the north trending Houndé and Boromo greenstone belts which extend for over 400km. Lower Proterozoic Birimianvolcano-sedimentary and plutonic rock are intruded by large batholiths of Eburnean granitoids. The elongated volcano-sedimentary belts trend northto north-east and form arcuate belts to the north of Ouagadougou. |
| The Houndé and Boromo belts host several important regional structures such as the Houndé-Ouahigouya tectonic zone (Houndé Belt) and the BatieWest shear zone (southern Boromo Belt). Major gold deposits have been found along the regional structures while important gold prospects have beenfound along second and third order structures that splay from these main breaks. | ||
| Two main gold deposits have been discovered within the Project to date; namely, then Tankoro and Bondi Deposits. Outside of these areas, the stylesof gold mineralisation are not well understood given the limited exploration work undertaken to date. It is likely that as a minimum, gold mineralisationis present in the form of gold-quartz veins and stockwork systems which are being exploited by artisanal miners presently. There is potential forintrusive-related and shear-hosted gold mineralisation styles of mineralisation as is observed in other similar belts in SW Burkina Faso. | ||
| Tankoro Deposit | ||
| A north to north-east (NE) trending, regional-scale fault is interpreted to traverse through the central part of Tankoro with a series of district scale,north trending faults are also interpreted from the orientation of quartz veins and breccia zones. | ||
| The gold mineralisation at Tankoro occurs along a semi-continuous 16km strike length within the north north-east striking (025°TN) sub-verticalTankoro Structural Corridor which is up to 1.4km wide. The system has been interpreted as a series of sub-parallel anastomosing shear zones, whichacted as zones of weakness for the emplacement of porphyry bodies and as pathways for mineralising fluids. The strike-slip fault zones have developedmultiple splays and releasing bends or jogs, generating preferential sites for mineralisation. | ||
| The main porphyry zones have developed as linear and continuous bodies, varying from 100m and up to 1.3km in strike length. Well-developed goldmineralisation is preferentially located either in porphyry intrusions or coarse-grained sandstones with high intensity sericite-carbonate floodingalteration and overprinted by albite alteration in the vicinity of quartz-albite-sulphide veinlets, but rarely within fine grained mudstones. | ||
| The highest-grade zones contain quartz-pyrite-stibnite or quartz-pyrite-tetrahedrite and are localised where NE-striking cataclastic faults haveintersected the porphyry intrusions. | ||
| The proportion of vein material is low at between 5-10% by volume and veinlets are commonly in the order of millimetres to 0.5m thick. Gold is typicallyfinely disseminated within the host rocks and has a good correlation with the presence of pyrite and arsenopyrite. | ||
| Arsenopyrite displays a strong host-rock control with a preferential development in sedimentary wall rocks in the periphery of some mineralisedintrusions. The disseminated arsenopyrite defines a wider halo of alteration than the narrow nuggety high grade gold mineralisation. | ||
| The weathering profile in Burkina Faso is generally deep and has developed to depths ranging from 50m to 90m over Tankoro. | ||
| Bondi Deposit |

| The Bondi Deposit is located in the central portion of the Djarkadougou 2 Property which overlies an assemblage of basalt flows, minor rhyolite andsedimentary rocks intruded by various felsic to mafic rocks. It is cut by the regionally significant Houndé-Ouahigouya Shear Zone, which is intimatelyassociated with most of the major gold deposits discovered in the western region of Burkina Faso. | ||
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| The bulk of the mineralisation is contained in several lenses associated with the main sub-vertical N-NNE shear zone system and with second-ordershear splays. The lenses are linearly contiguous but separated by gaps corresponding to weakly or unmineralised portions of the shears. Themineralization lies in a 6km shear zone cutting the contact between the Tarkwa sedimentary trough to the west and north with the eastern volcanicdomain to the south and east. | ||
| Gold mineralization is associated with multi-stage emplacement of quartz-pyrite veinlets into sheared arenite-argillite, mafic dykes and quartz-feldsparporphyry. The mineralization is characterized by alteration that manifests itself by silica, sericite, carbonate and hematite, finely disseminated pyritewith subordinate arsenopyrite and chalcopyrite. | ||
| The weathering profile has developed to a depth of approximately 30m at Bondi. | ||
| Drill HoleInformation | A summary of all information material tothe understanding of the Exploration | The following physicals represent the aggregated drilling undertaken on the Project by Sarama and other operators, including areas of the MineralResource and regional exploration to 31 December 2021: |
| Results including a tabulation of thefollowing information for all Material drillholes: easting and northing of the drill hole,collar elevation or RL (Reduced Level –elevation above sea level in metres) of thedrill hole, collar dip and azimuth of the holedown, hole length and interception holelength. | 330 RAB drillholes (14,127m, average length 43m);2,848 AC drillholes (143,619m, average length 50m);1,843 RC drillholes (157,058m, average length 85m); and56,000m diamond drilling (consisting of diamond tails drilled from RC pre-collars and 161 full length diamond drillholes). | |
| An additional 15 AC holes (706m, average length 47m) 13 RC holes (1,005m, average length 77m) are reported in this disclosure. Details of these holesare included in Appendix A of this disclosure. | ||
| The following drillhole physicals (included in the above) were used directly in the modelling of the mineral inventory for the Tankoro Deposit. TheMineral Resource estimate used only DC, RC and AC drilling data. The drilling was completed in several phases by Sarama and Acacia between 7th June2011 and 6th July 2019. | ||
| 600 AC drillholes (34,216m)568 RC drillholes (60,546m)75 full length diamond drillholes (21,296m), and103 diamond drillhole tails (15,411m) that were extensions to previously drilled RC holes. | ||
| The following drillhole physicals (included in the above) were used directly in the modelling of the mineral inventory for the Bondi Deposit. The MineralResource estimate used only DC, RC and AC drilling data. The drilling was completed in several phases by Orezone and Sarama between January 2003– February 2016 and July 2017 – July 2018 respectively. | ||
| 14 AC drillholes (531m);689 RC drillholes (49,021m); and86 full length diamond drillholes (17,503m). | ||
| If the exclusion of this information isjustified on the basis that the information isnot Material and this exclusion does notdetract from the understanding of thereport, the Competent Person should | For holes reported in this disclosure, a tabulation of all Material drill holes has been provided in Appendix A to this disclosure.Outside of this disclosure as all relevant drilling has been incorporated into the Mineral Resource. This exclusion is not considered Material nor doesit detract from the understanding of the Mineral Resource estimate or Exploration Results that are being reported. |
clearly explain why this is the case.

| DataAggregationMethods | In reporting Exploration Results, weightingaveraging techniques, maximum and/orminimum grade truncations (eg cutting ofhigh grades) and cut-off grades are usuallyMaterial and should be stated. | For holes reported in this disclosure, significant intersections are reported using a length-weighted downhole composite of raw assay grades.Composite intervals are selected using a minimum of 2 adjacent samples at a minimum grade of 0.30g/t Au with inclusion of internal sub-grade intervalsof a maximum 2m downhole length. |
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| Where aggregate intercepts incorporateshort lengths of high-grade results andlonger lengths of low-grade results, theprocedure used for such aggregationshould be stated and some typicalexamples of such aggregations should beshown in detail. | Details are outlined above. Where a reported composite interval contains an anomalously higher-grade interval, the sub-interval is reported. Theprocedure for selection of the sub-interval is based on manual review of the listing of assays and subjective determination that the sub-interval shouldbe reported separately. | |
| The assumptions used for any reporting ofmetal equivalent values should be clearlystated. | No metal equivalent values are being reported. | |
| RelationshipBetweenMineralization | These relationships are particularlyimportant in the reporting of ExplorationResults. | The mineralisation can occur in multiple orientations with splays and cross-cutting structures developed along the length of the mineralised corridors.In general, holes are targeted to intersect mineralised structures/bodies perpendicular to their expected strike and as close as practically possible tothe perpendicular direction of their expected dip. No Exploration Results are being reported, but the following commentary is provided. |
| Widths and | If the geometry of the mineralization with | Regional Exploration |
| InterceptLengths | respect to the drill hole angle is known, itsnature should be reported. | The mineralisation in some areas of the Project is likely to occur in multiple orientations with splays and cross-cutting structures developed along thelength of the mineralised trend. The drilling orientations are a compromise to target all possible mineralisation orientations. |
| If it is not known and only the down holelengths are reported, there should be aclear statement to this effect (eg 'down | Given the early-stage nature of the Project area and the poorly understood spatial aspects of the mineralisation intersected, the relationship ofdownhole intersections to true width of the mineralisation cannot be determined. | |
| hole length, true width not known'). | Tankoro Deposit | |
| The drilling orientation is a compromise to target all possible mineralisation orientations and downhole intercepts of the steep sub-vertical structureswill have a downhole length longer than the true width. The E-W orientated drill lines are slightly oblique to the orientation of the dominant main NNEsub-vertical mineralised trend and will also have marginally longer down hole lengths than the true width. In general, holes fully intersect themineralised zones and inclusion within the estimation process will negate any downhole length bias. | ||
| Bondi Deposit | ||
| Angled holes were drilled perpendicular to the strike of the sub-vertical mineralisation zone. Downhole intercepts of the drilling that are at an obliqueangle to the mineralisation will have a downhole length longer than the true width which is unknown at this stage. In general, holes fully intersect themineralised zones and inclusion within the estimation process will negate any downhole length bias. | ||
| Diagrams | Appropriate maps and sections (withscales) and tabulations of intercepts shouldbe included for any significant discoverybeing reported These should include, butnot be limited to a plan view of drill hole | Drillhole location plans, where relevant, are included within the disclosure. |

| collar locations and appropriate sectionalviews. | ||
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| BalancedReporting | Where comprehensive reporting of allExploration Results is not practicable,representative reporting of both low andhigh grades and/or widths should bepracticed to avoid misleading reporting ofExploration Results. | For the holes reported in this disclosure, a full tabulation of results (both significant and not significant) is included in Appendix A to this disclosure. |
| OtherSubstantive | Other exploration data, if meaningful andmaterial, should be reported including (but | Regional ExplorationSoil geochemistry surveys have been undertaken where first pass samples were collected on a broadly spaced grids which either cover the full property |
| ExplorationData | not limited to): geological observations;geophysical survey results; geochemicalsurvey results; bulk samples – size and | area or selected portions. These are followed up with similarly spaced expanded grids or by infill sampling where increased resolution was required.Defined soil anomalies are followed up using scout RAB and AC drilling. |
| method of treatment; metallurgical testresults; bulk density, groundwater,geotechnical and rock characteristics; | A country-scale, airborne radiometric and magnetic geophysical survey was undertaken in 2003 on behalf of the Government of Burkina Faso. In theregion of the Project, this survey facilitated the interpretation of Project and property-scale lithological units, structural features and topographicalfeatures which culminated in the production of regional geology maps. | |
| potential deleterious or contaminating | Tankoro Deposit | |
| substances. | Geophysical Surveys - to better define the geological and structural setting of gold mineralization discovered in key areas of the Project, thefollowing geophysical surveys were completed: | |
| o high-resolution airborne magnetic-radiometric survey was acquired by New Resolution Geophysics, in March 2015, over the whole of the Projectarea (818.6 km²) with a flight line spacing of 100m in a 120-300 degrees flight line direction and a mean terrain clearance of 45m; ando high-resolution gradient array resistivity ("RES") and induced polarization ("IP") survey was undertaken in selected locations of the Project. | ||
| The surveys proved to be effective in mapping shallow resistive and chargeable zones with geological and structural features clearly defined. Theinterpretation proposes a series of north to north-east trending, narrow elongated units. Faults and shears were inferred from breaks and bendsalong the resistive and/or chargeable units. The important observations from the RES/IP survey have been integrated with existing geological | ||
| information to build a solid lithological and structural picture.Metallurgical Testwork - considerable metallurgical testwork over successive phases have been undertaken on the mineralisation in the area ofthe Mineral Resource and on outlying prospect areas. The testwork programs were conducted by various specialist laboratories under thesupervision of Orway (comminution, direct cyanidation, flotation and oxidative flowsheets), Kappes (heap leach flowsheets), and Sarama (bottleroll type direct cyanidation for initial characterisation) to determine indicative recoveries and understand the metallurgical behaviour of the variousstyle and weathering states of mineralisation within the deposit. The testwork is regarded as preliminary and as such, parameters and flowsheetsare un-optimised.Density Measurements were taken from diamond drill samples selected across a range of rock types and weathering profiles using a waterimmersion technique. | ||
| Bondi Deposit | ||
| Geophysical Surveys - to better define the geological and structural setting of gold mineralization discovered in key areas of the Project, thefollowing geophysical surveys were completed: | ||
| o IP gradient survey, 50km over 100 by 50 m grid; ando High-resolution resistivity survey, 38km over 50 by 10 m grid. |

| Density Measurements were taken from diamond drill samples selected across a range of rock types and weathering profiles using a waterimmersion technique. Specific gravity determination: 5 pits excavated to calculate bulk density.Metallurgical Testwork - considerable metallurgical test work over successive phases has been undertaken on the mineralisation in the area ofthe Mineral Resource. The testwork programs were conducted by various specialist laboratories under the supervision of Orezone and includedcomminution, direct cyanidation, flotation work to determine indicative recoveries and understand the metallurgical behaviour of the variousstyles and weathering states of mineralisation within the deposit. The testwork is regarded as preliminary and as such, parameters and flowsheetsare un-optimised. | ||
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| Further Work | The nature and scale of planned further | Regional Exploration |
| work (eg tests for lateral extensions ordepth extensions or large-scale step-outdrilling). | In regional areas outside the Tankoro and Bondi Deposits, the Project remains at an early stage of exploration and planned activities are broadlydirected towards determining the prospectivity of the Project and seek to generate and test targets for gold mineralisation of economic interest. Theactivities include: | |
| Diagrams clearly highlighting the areas ofpossible extensions, including the maingeological interpretations and futuredrilling areas, provided this information isnot commercially sensitive. | broad-scale surface prospecting and mapping is planned over the Project area;geological mapping and traversing of the identified soil anomalies for all property areas to prioritise the geochemical targets and to enable theexploration effort to focus on the most prospective areas that have geological features consistent with the exploration model;ground-based geophysical surveys are contemplated for select priority areas in the Project area.;AC and/or RC drilling is contemplated for reconnaissance type testing of targets generated by gold-in-soil geochemistry surveys and structuralgeology assessment; | |
| Tankoro Deposit | ||
| Significant work has been conducted at the Tankoro Deposit to date and the following works are broadly aimed at improving the confidence level ofthe Mineral Resource, expanding the Mineral Resource base, improving knowledge of metallurgical behaviour of the mineralisation | ||
| undertake drilling for extensional and additional targets to expand the Mineral Resource base;undertake confirmatory (twin) drilling in certain areas to examine volume variance effects (AC vs RC);undertake analytical tests to examine the volume variance effect of bulk cyanidation vs fire assay methods;undertake metallurgical testwork to improve the geo-metallurgical understanding of the deposit; andundertake mineralogical testwork to gain an understanding of variability in metallurgical performance and in particular, the reasons for free-millingmaterial in certain fresh areas of the deposit. | ||
| Bondi Deposit | ||
| Significant work has been conducted at the Bondi Deposit to date and the following works are broadly aimed at improving the confidence level of theMineral Resource, expanding the Mineral Resource base, improving knowledge of metallurgical behaviour of the mineralisation: | ||
| reclassification of a problematic assays in the historical drillhole database;re-assaying of historical drilling where appropriate and possible;re-logging historical drilling where appropriate and possible;undertaking confirmatory drilling in areas of high geological risk;undertaking re-drilling of the Mineral Resource where assay quality is poor and existing data does not support higher-order estimates;conducting extensional exploration drilling where appropriate;improving the estimate of artisanal mining depletion by higher-order surveying; andexpanded metallurgical testwork to better understand potential variability of the deposit. |