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REGIS RESOURCES LIMITED Interim / Quarterly Report 2021

Nov 21, 2021

65733_rns_2021-11-21_3b873536-cbb7-4471-8cfa-4034973ae65f.pdf

Interim / Quarterly Report

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BI-ANNUAL EXPLORATION UPDATE FOR DUKETON & TROPICANA

Regis Resources Limited (ASX Code: RRL) (Regis or the Company) is pleased to provide an update on near mine and regional exploration activities across the Duketon Belt and Albany Fraser Belt.

HIGHLIGHTS

  • Garden Well Further strong mineralisation from drilling beneath Garden Well Main pit continues to demonstrate the potential for establishing a new underground resource and potentially an additional underground production area, with the deepest hole in this system intersecting: 24.5m @ 3.2 g/t gold
  • Rosemont Numerous, exceptionally high-grade intervals, including free gold, were intersected up to: 3.9m @ 28.6 g/t gold
  • Ben Hur Thick, high-grade intersections indicate extensions of high-grade zones down dip at Ben Hur which are expected to grow the open pit resources and provide for early indications of potential underground lode positions. Results include: 18m @ 5.2 g/t gold, 7m @ 5.4 g/t gold, 9m @ 4.9 g/t gold, 19m @ 3.7 g/t gold
  • Moolart Well Drilling has returned the most significant fresh-rock mineralisation in Moolart Well's 11-year history. There is excellent potential to define high-grade shoots beneath the extensive oxide pits with results including: 10m @ 13.2 g/t gold, 26m @ 7.6 g/t gold, 19m @ 5.7g/t gold
  • Commonwealth – An extensive 2km by 2km area of supergene gold mineralisation is under definition drilling. Better results include: 16m @ 7.6 g/t gold, 8m @ 3.1 g/t gold, 8m @ 2.6 g/t gold
  • Regional Betelgeuse remains the most advanced regional exploration project with multimillion-ounce potential. Wide spaced reconnaissance drilling has returned anomalous results over a 6km strike length. Better gold results are broadly coincident with arsenic geochemistry in proximity to the late basin structural contact which are positive signs of a large mineralised system.

Tropicana

Duketon

  • Boston Shaker Strong results continue to demonstrate down-plunge growth potential up to 200m below the current resource envelope and improve resource confidence at depth. Results include: 35m @ 4.3 g/t gold (within resource envelope), 22m @ 3.0 g/t gold (down-plunge)
  • Havana Drilling to increase confidence in the potential Havana UG is returning consistent intersections: Results include: 15m @ 5.1 g/t gold, 19m @ 3.7 g/t gold
  • Havana South Holes designed to test the down dip extension of high-grade ore shoots have increased confidence in the underground potential. Results include: 9m @ 2.2 g/t gold, 14m @ 6.5 g/t gold, 8m @ 8.1 g/t gold from 557m
  • Regional Drill testing across multiple prospects has returned economic intercepts and identified the prospective Tropicana mine geological sequence in areas previously not recognised.

Regis Resources Managing Director, Jim Beyer, said: "Our investment in organic growth continues to return positive results at both Duketon and Tropicana. This supports our view that these operations will have mine lives well in excess of the current reserves.

Regional exploration continues to advance early stage projects, showing the potential for further discoveries in the belts. Drill testing of target areas is identifying strong vectors to economic mineralisation and increasing the geological understanding in new highly prospective but poorly explored areas."

Duketon Gold Project Overview

Exploration continues across the Duketon Greenstone Belt with 131,301 metres of drilling completed on priority target areas both extending resources and completing first pass testing across regional targets (Figure 1). All drill assay results received during the period and considered material are presented in Appendix 1.

Figure 1: Location of exploration activities across the Duketon Greenstone Belt

Tropicana Gold Project Overview

(AngloGold Ashanti 70% & Manager / Regis 30%)

Exploration has continued across the Tropicana Gold Project with 46,905 metres of drilling completed on priority target areas both extending resources within the mining lease and testing regional targets (Figure 2). All drill assay results received during the period and considered material are presented in Appendix 1.

Figure 2: Location of exploration activities across the Tropicana Gold Project

Drill Type DuketonApril to Sept-2021 TropicanaApril to Sept-2021
AC 6,610 0
Resource RC 50,316 3,372
Definition Drilling(metres) DD/RCD 0 5,737
Total 56,926 9,109
AC 46,924 12,402
Exploration RC 5,312 19,431
Drilling (metres) DD/RCD 22,139 15,072
Total 74,375 46,905

Table 1: Drilling in both Resource Definition and Exploration activity.

DUKETON GOLD PROJECT

The Duketon Gold Project covers a large portion of the Duketon Greenstone Belt (Figure 1), within the Archaean Yilgarn Craton. The belt is comprised of mafic and ultramafic rocks, felsic volcanic and volcaniclastic rocks, and associated sedimentary rocks. The sequence has been disrupted in part by intermediate-felsic intrusions. Cainozoic regolith deposits cover much of the Duketon greenstone belt. These consist of proximal colluvial deposits, low gradient sheet wash and sand plain deposits, which are dissected by drainage systems.

The Duketon greenstone belt is a structurally complex zone bound by granitic rocks to the west and east, the contacts of which are intensely deformed and the stratigraphy is dissected by several major structures. Axial surfaces of folds typically trend north-northwest with limbs commonly sheared by major structures. Metamorphism within the greenstone belt varies from greenschist to amphibolite facies. Amphibolite facies rocks are restricted to narrow zones proximal to granitic intrusions where primary textures are commonly obliterated.

The exploration strategy is focused on resource and reserve growth from both surface and UG drilling and on the regional exploration pipeline to discover further potential satellite open pit and UG deposits (Figure 3).

Figure 3: Duketon Project Pipeline

Garden Well Underground: Underground potential shaping up under GDW Main

Drilling has continued within the target area 1km to the north of the approved Garden Well South (GWS) underground mine. This mineralisation extends down plunge of the Garden Well Main (GWM) pit mineralisation (Figure 4). Two separate high grade shoots, hosted in sheared ultramafic rocks have been identified and diamond drilling is continuing to test the continuity of the gold mineralisation.

Drilling results continue to firm up the high-grade south plunging shoots beneath main pit with the better intercepts below demonstrating the potential:

RRLGDDD188
RRLGDDD191
RRLGDDD193
RRLGDDD195
RRLGDDD195
RRLGDDD195W1

These strong results demonstrate the potential value of establishing early access to this zone via a decline between the GWS underground mine and the growing GWM area. While broadly spaced, the drilling intersections along with knowledge gathered while mining the open pit above the target zone, provide confidence that a small production area could deliver enough ounces to at least payback potential decline establishment costs and provide a modest return. The decline would then provide the ideal platform for both infill and extensional drilling at GWM plus allowing the follow-up of high-grade results in the very prospective area between GWS and GWM as shown in Figure 4. The potential for an exploration decline will continue to be investigated as further drilling is completed and confidence grows over the next 3-6 months.

Drill hole and sample details for all holes are included in Appendix 1 to this report. Garden Well intersections are calculated using a 2.0 g/t gold lower cut, no upper cut, maximum 2m internal dilution. All diamond drill assays determined on half core (NQ2) samples by fire assay.

Figure 4. Garden Well long section looking west showing high grade intersections under Main pit, and the approved underground mine at Garden Well South.

Rosemont: Testing depth extent & new area in the south

The orebody at Rosemont is hosted in a steeply dipping north trending quartz-dolerite unit intruding into a mafic-ultramafic sequence. Drilling has continued at Rosemont to explore the high-grade shoots which extend at depth beneath existing underground infrastructure and along strike to the south. During the period 16,539m of diamond drilling was completed to test both the extensions of high-grade gold mineralisation outside the current underground resource domains and to infill drill new resource areas.

Drilling focused on Rosemont South to test the continuity of grade and thickness of two new ore shoots with multiple intersections over widths amenable to underground mine development. Drilling will provide sufficient information to delineate the tenor of the new high-grade shoots and inform resource estimation. Numerous narrow, very high-grade intervals, including free gold, were intersected. Some of the better results are shown below:

  • 1.3m @ 20.4 g/t gold from 461m RRLRMDD068
  • 3.9m @ 28.6 g/t gold from 538m RRLRMDD069W1
  • 1.6m @ 23.6 g/t gold from 583m RRLRMDD073
  • 1.0m @ 30.6 g/t gold from 614m RRLRMDD078
  • 1.0m @ 28.2 g/t gold from 564m RRLRMDD078W1
  • 0.3m @ 42.6 g/t gold from 525m RRLRMDD078W2
  • 1.4m @ 11.9 g/t gold from 530m RRLRMDD083W1

Figure 5 illustrates some of the recent high-grade drill hole intersections for the period with economic gold grades up to 500m below the southern underground workings.

Drill hole and sample details for all holes are included in Appendix 1 to this report. Rosemont intersections are calculated using a 2.0 g/t gold lower cut, no upper cut, maximum 2m internal dilution. All diamond drill assays determined on half core (NQ) samples by fire assay.

Figure 5. Rosemont South long section showing high grade intersections indicating the potential for underground resource growth

Ben Hur: Continues to Grow

Mineralisation at Ben Hur is analogous to Rosemont and Baneygo with gold associated with quartz veins and quartz-albite-sericite alteration. Mineralisation extends for 2km of strike and is open at depth and along strike. A total of 55 holes for 10,612m of RC drilling were completed during the current phase of step out drilling, which investigated the down plunge potential beneath and lateral to the Ben Hur pit designs.

Drill intersections indicate potential to extend high-grade zones down dip at Ben Hur and grow the open pit resources and also provide for early indications of potential underground lodes.

Better intersections include:

18m @ 1.4 g/t gold from 169m RRLBENRC147
7m @ 5.4 g/t gold from 150m RRLBENRC150
9m @ 4.9 g/t gold from 199m RRLBENRC152
19m @ 3.7 g/t gold from 196m RRLBENRC160
14m @ 2.6 g/t gold from 208m RRLBENRC164
25m @ 1.4 g/t gold from 266m RRLBENRC165
16m @ 2.0 g/t gold from 244m RRLBENRC168
25m @ 1.3 g/t gold from 124m RRLBENRC171
23m @ 1.3 g/t gold from 175m RRLBENRC175
31m @ 1.6 g/t gold from 227m RRLBENRC176
16m @ 1.9 g/t gold from 142m RRLBENRC184
18m @ 5.2 g/t gold from 243m RRLBENRC190

Drill hole and sample details for all holes are included in Appendix 1 to this report. Ben Hur intersections above calculated using a 0.4 g/t gold lower cut, no upper cut, maximum 2m internal dilution.

Figure 6. Ben Hur long section displaying broad, moderate to high grade intersections down plunge and along strike

Gloster: Extending Reserves and Pursuing New Underground Resources

The Gloster gold deposit is hosted in intermediate volcanic and intrusive rocks. Gold mineralisation is structurally complex; consisting of steeply dipping shears and multiple flat lying mineralised vein sets. Mineralised zones are characterised by several metres of quartz-carbonate-sulphide veins, which commonly host visible gold.

Mineralised intercepts drilled to 500m beneath the pit and consist of multiple narrow, high grade, strike limited quartz veins. RC drilling tested beneath the pit returning numerous narrow high-grade results which may grow the open pit resource. In addition, a total of 49 holes for 10,822m were drilled to investigate grade continuity in an area being considered for an underground operation (nominally 100m beneath the base of the current pit). Initial results from this drilling are returning typical narrow highgrade intervals. A comprehensive review of structure and continuity of selected lodes will be undertaken when the current phase of drilling is complete

Better RC drill results received include:

6m @ 3.9 g/t gold from 59 m RRLGLRC533*
1m @ 17.8 g/t gold from 88 m RRLGLDD533*
4m @ 14.4 g/t gold from 142 m RRLGLDD536*
2m @ 10.7 g/t gold from 67 m RRLGLRC540*
1m @ 21.3 g/t gold from 88 m RRLGLRC540*
1m @ 17.4 g/t gold from 24 m RRLGLRC541*
3m @ 22.0 g/t gold from 80 m RRLGLRC545*
4m @ 5.1 g/t gold from 162 m RRLGLRC547*
1m @ 9.4 g/t gold from 320 m RRLGLDD556
1m @ 7.1 g/t gold from 305 m RRLGLRC557
3m @ 4.3 g/t gold from 326 m RRLGLRC558
3m @ 30.1 g/t gold from 175 m; and
1m @ 8.2 g/t gold from 311 m RRLGLRC559
2m @ 13.5 g/t gold from 292 m; and
9m @ 4.6 g/t gold from 314 m RRLGLRC560

* Drilled from the pit floor

Drill hole and sample details for all holes are included in Appendix 1 to this report. Gloster intersections are calculated using a 2.0 g/t gold lower cut, no upper cut, maximum 2m internal dilution. All diamond drill assays determined on half core (NQ), all RC drill assays determined on 1m split samples by fire assay.

Figure 7: Gloster cross section. High grade intersections with potential for UG development.

Moolart Well: expediting additional resources and discovering high grade lodes

189 RC holes for 26,774m were completed at Moolart Well (Wellington and Buckingham pit areas) to test for resources extensions. The results of this drilling will be utilised to inform an updated resource estimate and mining study.

Selected high grade intersections indicate excellent potential to define high-grade shoots beneath the extensive oxide mineralisation (Figure 8). Better results include:

  • 10m @ 13.2 g/t gold from 107 m RRLMWRC1942
  • 26m @ 7.6 g/t gold from 128 m RRLMWRC1950
  • 19m @ 5.7g/t gold from 183 m RRLMWRC1979

These results represent some of the most significant fresh-rock mineralisation received since production commenced at Moolart. Follow-up drilling has been planned to test the extension to this mineralisation.

Drill hole and sample details for all holes are included in Appendix 1 to this report. Moolart Well intersections are calculated using a 0.4 g/t gold lower cut, no upper cut, maximum 2m internal dilution. All RC drill assays determined on 1m split samples by fire assay.

Figure 8. Moolart Well long section with significant intersections

Commonwealth: Early results showing promise

The Commonwealth prospect is located 4km north-east along strike from the Petra Gold Deposit. Recent Aircore drilling totalling 148 holes for 13,760m was completed on an 80m x 160m nominal grid spacing to investigate extensive supergene gold mineralisation across a 2km by 2km zone occurring in hematiterich clays at the saprock boundary (Figure 9).

Future exploration will focus on infill drilling and targeting a number of deeper holes where mineralisation is interpreted to extend into the bedrock.

Figure 9. Commonwealth Prospect plan with aircore drilling

Regional Exploration: Betelgeuse, White Nile, Doris Well,

Regional exploration is designed to test conceptual targets and identify new gold anomalies as well as increase the geological understanding in target areas. Research projects are also being undertaken to advance our geological knowledge of the belt.

The three prospects described below are at the early reconnaissance stage, with new results this period showing strong gold mineralisation and provide a focus for further discovery in the coming months.

Betelgeuse - The Betelgeuse Trend, situated to the north-west of Rosemont, lies on one of the major regional structures of the Duketon Belt in proximity to late sedimentary basin stratigraphy (Figure 1). Previous wide-spaced reconnaissance drilling has broadly delineated an anomalous gold mineralised trend over approximately 6 km strike length.

A multifaceted program of diamond, RC and AC drilling commenced in June, with AC drilling (67 holes for 6,438m) completed in June and July. Highly significant results include 4m @ 8.08 g/t Au and 4m @ 1.19 g/t Au. These gold results are broadly coincident with anomalous arsenic geochemistry, and occur in proximity to the conglomerate and basalt contact in the south of the prospect. A comprehensive geological review is in progress to understand the significance of the mineralisation in the context of the current geological model.

White Nile is generally located near Baneygo in the south-west of the Duketon Project (Figure 1). The broader prospect area covers portions of the King John Trend and the Rosemount Trend. Historical shallow RAB drilling returned anomalous results up to 2g/t Au which were followed up with a program of wide spaced reconnaissance AC drilling (87 holes for 3,777m). Highly significant results including 4m @ 1.11 g/t Au and 7m @ 8.50g/t Au are located on the inferred continuation of the Rosemont Trend and are hosted within quartz dolerite rocks which are the host rocks to mineralisation at Rosemont, Banyego and Ben Hur.

Doris Well is situated in the south of the Garden Well Trend. The western portion of the prospect covers extensions of the Rosemont (Ben Hur) trend (Figure 1). The central to eastern portions of the area are largely undrilled. A total of 47 holes for 2,020m of AC drilling was completed to provide broad reconnaissance drill coverage over unexplored areas. Results such as, 4m @ 0.51g/t Au, 4m @ 1.48g/t Au, and 8m @ 1.19 g/t Au were returned and will be followed up in the coming period.

TROPICANA GOLD PROJECT

The Tropicana gold deposits are hosted by high metamorphic granulite-grade gneissic rocks in the shear-bounded Plumridge Terrain, at the western margin of the Proterozoic age Albany-Fraser belt. The Neoarchean age Tropicana Gneiss of the Plumridge Terrain hosts the Tropicana gold mineralisation.

The 5km long strike of gold mineralisation at Tropicana (Figure 10) is subdivided into five shear-offset zones from north to south – Boston Shaker, Tropicana, Havana, Havana Deeps, and Havana South. The mineralised corridor is ~1.2km wide and extends up to 1.5km down dip to the current deepest drill intercepts (Figure 11).

The exploration strategy is focused on resource and reserve growth at Tropicana from both surface and UG drilling and on the regional exploration pipeline to discover further potential satellite open pit and UG deposits (Figure 12).

Regional exploration includes prospects outside of the active mining area on the Tropicana mine lease. Targets are at different stages of exploration from early stage aircore based exploration to identify suitable geology and low-level gold anomalies to advanced RC/DDH programmes to understand prospect-scale structural architecture and in-basement gold distribution.

Further objectives are to build on the understanding of the Tropicana Belt geology to facilitate further discoveries.

Figure 10: Geology plan of Tropicana Gold Mine area

Figure 11: Havana Deposit northeast looking A—B section

Figure 12. Tropicana JV Project Pipeline

Boston Shaker: Underground continuing to grow

Exploration drilling at Boston Shaker is designed to test the margins of the mineralisation both laterally and down plunge, and to better define the fault zones which offset the mineralisation. Numerous significant results have been returned during the period highlighting the potential for the Boston Shaker UG resource to grow further (Figure 13). Highlights include:

  • 7m @ 4.8 g/t gold from 456m BSD336
  • 22m @ 5.4 g/t gold from 471m BSD338A
  • 25m @ 1.3 g/t gold from 588m BSD345A
  • 17m @ 1.4 g/t gold from 706m BSD347
  • 25m @ 2.3 g/t gold from 699m BSD348
  • 14m @ 2.2 g/t gold from 740m BSD350
  • 35m @ 4.3 g/t gold from 761m BSD352A
  • 22m @ 3.0 g/t gold from 703m BSD354

Some of the drilling results at the edge of the mineralisation model have highlighted the impact of cross structures and late stage dykes. The down plunge results have intersected strong mineralisation demonstrating the robustness of the lodes.

Drill hole and sample details for all holes are included in Appendix 1 to this report. Boston Shaker intercepts above calculated using a 0.7 g/t gold lower cut, no upper cut, maximum 2m internal dilution. All diamond drill assays determined on half core (NQ2) samples by fire assay.

Figure 13. Boston Shaker long-section displaying gram metre pierce points and 0.3g/t Au mineralisation zone

Tropicana UG Extensions – the next UG production area growing

The Tropicana underground forms part of the production schedule for the operation and continues to grow with further exploration. A programme of six RC/diamond holes is planned from surface targeting the potential down-dip extension of the Tropicana mineralisation. Drilling from the underground platforms has increased confidence in the Tropicana mineralisation. During the period, six pre-collars were drilled with the first diamond tail having commenced in September.

Figure 14: West facing long-section of Tropicana deposit showing drilling locations relative to existing mineralisation wireframes.

Havana Underground – another potential production zone shapes up

The Havana underground programme is designed to convert a portion of the underground inferred resource to indicated beneath the base of the planned Havana Pit (Figure 14). Drill density will increase over 550m strike and 150m down-dip delineated by the UG scoping study, below the latest iteration of the Havana cutback pit shell. This drilling will continue and will contribute to the 2022 Havana UG Prefeasibility Study.

Highlights include:

15m @ 5.1 g/t gold from 527m HDD390

• 19m @ 3.7 g/t gold from 522m HDD391

Drill hole and sample details for all holes are included in Appendix 1 to this report. Havana UG intercepts above calculated using a 0.7 g/t gold lower cut, no upper cut, maximum 2m internal dilution. All diamond drill assays determined on half core (NQ2) samples by fire assay.

Figure 14. Long section of Havana deposit, showing assays returned the programme

Havana South UG: showing continuity

Havana South Deeps drilling consisted of four holes designed to test the down dip extension of highgrade ore shoots at Havana South and increase confidence in the potential for future underground development.

Highlights include:

9m @ 2.2 g/t gold from 470m HSD158
14m @ 6.5 g/t gold from 574m HSD160

• 8m @ 8.1 g/t gold from 557m HSD161

Drill hole and sample details for all holes are included in Appendix 1 to this report. Havana South UG intercepts above calculated using a 0.7 g/t gold lower cut, no upper cut, maximum 2m internal dilution. All diamond drill assays determined on half core (NQ2) samples by fire assay.

Figure 15. Long section with infill confirmatory drilling results

Regional Exploration: Angel Eyes, Angel Double Vision

Regional exploration activity is designed to test conceptual target areas to identify new gold anomalies. Early drill testing of these anomalies and target areas is designed to identify an economic gold intercept, determine the extent of the gold anomaly or to increase the geological understanding in the target area. Research projects are also being undertaken to advance our geological knowledge of the belt.

Ten diamond holes were drilled for a total of 1,847 metres, across Angel Eyes, Double Vision and Maple Leaf prospects (Figure 2 and Figure 16).

At Angel Eyes basement geology intersected includes a similar stratigraphy to Tropicana whereby a mafic gneiss (+/- garnet) is constrained in the hanging wall with an interbedded pyrite / pyrrhotite flooded chert. Shearing with chlorite and sericite alteration has occurred in some holes (AED032, AED035, AED036, AED040, AERC100AD). Sheared intervals as well as graphite rich intervals have been common in the southern Angel Eyes area. At Double Vision, geology is dominated by a thick package of garnet bearing gneiss. At Maple Leaf, geology is dominantly garnet bearing gneiss, interleaved with quartzo-feldspathic gneiss.

Intervals for potential gold mineralisation include:

  • AED029: 85.9m, coarse visible gold proximal to a calcite/chlorite vein with a chlorite/magnetite halo (Figure 16).
  • AED035, three zones of potential mineralisation: 191-196m, chlorite schist with 1% pyrite; 245-250m, a potential felsic gneiss with 1% pyrite and 281-287m, pyrite / pyrrhotite flooded chert with up to 10% sulphides.
  • AED040 415.9-419.5m strongly sericite altered schist with 5-10% quartz veining and 0.5 – 1% pyrite.
  • MLD003 278.5-283m, quartz vein with sericite alteration and up to 2 % pyrite and pyrrhotite.

Figure 16. Angel Eyes**,** AED029 at ~85.9m coarse visible gold proximal to a calcite/chlorite vein with a chlorite/magnetite halo

Bushwacker RC & Diamond drilling

Drilling at Bushwacker and Bumbo is the first phase of RC/DDH drilling in the area (Figure 2). Part of this programme is funded through the Western Australian Government's Exploration Incentive Scheme (EIS). This phase of drilling is to test for basement gold targets that have been identified through aircore drilling and structural/geophysical interpretation. During the period drilling comprised 1,840m of RC and 606m of diamond drilling across 18 holes.

Significant assays from the Bushwacker drilling are as follows:

6m @ 2.0 g/t gold from 189m BURC021 (Target 2)
3m @ 5.7 g/t gold from 62m BURC032 (Target 1)
3m @ 6.6 g/t gold from 109m BURC034 (Target 1)

Transported barren cover sequences at Bushwacker/ Bumbo are typically 20-30m thick. Dominant basement rock types include biotite schists, interleaved with packages of quartzo-feldspathic and mafic gneiss. Amphibole-rich garnet-bearing gneisses were observed between 120m to 130m hole depth, and they were usually associated with minor (<1%) pyrite and/or pyrrhotite. Thin (<5m) dolerite dykes or amphibole-rich gneisses were intersected within the quartzo-feldspathic rock units.

Figure 17. Summary of targeted areas in the Bushwacker-Bumbo trend.

COMPETENT PERSON STATEMENT

The information in this report that relates to exploration results for the Duketon Gold Project is based on and fairly represents information and supporting documentation that has been compiled by Mr Kevin Joyce, who is a member of the Australian Institute of Geoscientists. Mr Joyce has sufficient experience which is relevant to the style of mineralisation and type of deposit under consideration and to the activity which he is undertaking to qualify as a Competent Person as defined in the 2012 edition of the 'Australasian Code for the Reporting of Exploration Results, Mineral Resources and Ore Reserves'. Mr Joyce is a full-time employee of Regis Resources Ltd and consents to the inclusion in the report of the matters based on his information in the form and context in which it appears.

The information in this report that relates to exploration results for the Tropicana Gold Project is based on and fairly represents information and supporting documentation that has been compiled by Mr Fraser Clark, who is a member of the Australian Institute of Geoscientists. Mr Clark has sufficient experience which is relevant to the style of mineralisation and type of deposit under consideration and to the activity which he is undertaking to qualify as a Competent Person as defined in the 2012 edition of the 'Australasian Code for the Reporting of Exploration Results, Mineral Resources and Ore Reserves'. Mr Clark is a full-time employee of AngloGold Ashanti Limited (70% Owner & JV Manager) and consents to the inclusion in the report of the matters based on his information in the form and context in which it appears.

JORC 2012 Mineral Resource and Ore Reserves

Regis confirms that it is not aware of any new information or data that materially affects the information included in the original market announcements and that all material assumptions and technical parameters underpinning the definition of the Mineral Resource and Ore Reserves in the relevant market announcements continue to apply and have not materially changed. The Company confirms that the form and context in which the Competent Persons findings are presented have not been materially modified from the original market announcements.

FORWARD LOOKING STATEMENTS

This ASX announcement may contain forward looking statements that are subject to risk factors associated with gold exploration, mining and production businesses. It is believed that the expectations reflected in these statements are reasonable but they may be affected by a variety of variables and changes in underlying assumptions which could cause actual results or trends to differ materially, including but not limited to price fluctuations, actual demand, currency fluctuations, drilling and production results, Reserve estimations, loss of market, industry competition, environmental risks, physical risks, legislative, fiscal and regulatory changes, economic and financial market conditions in various countries and regions, political risks, project delay or advancement, approvals and cost estimates.

Forward-looking statements, including projections, forecasts and estimates, are provided as a general guide only and should not be relied on as an indication or guarantee of future performance and involve known and unknown risks, uncertainties and other factors, many of which are outside the control of Regis Resources Ltd. Past performance is not necessarily a guide to future performance and no representation or warranty is made as to the likelihood of achievement or reasonableness of any forward looking statements or other forecast.

CORPORATE DIRECTORY

**Regis Resources Ltd (**ACN 009 174 761) Registered Office Second Floor, 516 Hay Street Subiaco, WA Australia 6008 Tel +618 9442 2200

Website www.regisresources.com Email [email protected]

Company Secretary Ms Elena Macrides

Share Registry

Computershare Ltd GPO Box D182 Perth WA 6840 Shareholder Enquiries: 1300 557 010 (local) +613 9415 4000 (international)

Directors

Mr James Mactier (Non-Executive Chairman) Mr Jim Beyer (Managing Director) Mrs Fiona Morgan (Non-Executive Director) Mr Steve Scudamore (Non-Executive Director) Mrs Lynda Burnett (Non-Executive Director) Mr Russell Barwick (Non-Executive Director)

ASX Listed Securities (as at 17 November 2021)

Security Code No. Quoted
Ordinary Shares RRL 754,776,298

Regis Resources will be hosting a conference call with institutional investors and analysts on 22 November 2021 at 11am AEDT to cover this release with Managing Director and CEO Mr Jim Beyer and General Manager Growth, Mr Wade Evans.

Please register for the call on the following link: https://webcast.openbriefing.com/8181/

APPENDIX 1 JORC Code, 2012 Edition – Section 1 Sampling Techniques and Data

(Criteria in this section apply to all succeeding sections)

SECTION 1 – DUKETON – SAMPLING AND DATA
-----------------------------------------
JORC Criteria Explanation
Sampling The reported results are from Aircore (AC), Reverse Circulation (RC) and Diamond (DD) drilling undertaken at the Duketon Gold Project.
techniques AC Drilling
•Aircore (AC) holes were routinely scoop sampled as 4m composited intervals to collect a nominal 2 - 3 kg sub sample.•Routine standard reference material, sample blanks, and sample duplicates were inserted/collected at every 25th sample inthe sample sequence.RC Drilling
•Reverse Circulation (RC) drill holes were routinely sampled at 1m intervals down the hole.•Samples were collected at the drill rig using a rig-mounted MetzkeTM rotary or cone splitter to collect a nominal 2 - 3 kg subsample.•Routine standard reference material, sample blanks, and sample duplicates were inserted/collected at every 25th sample in
the sample sequence.DD Drilling
•Nominal <2.5kg sub samples were collected from half sawn NQ sized diamond drill core.•DD holes were sampled at variable geological intervals down the hole.•Routine standard reference material and blanks were inserted/collected at least every 20th sample in the sample sequence.
All samples were submitted to Bureau Veritas Laboratory (Perth) for preparation and analysis for gold by 50g Fire Assay (AAS finish).
Drilling •AC drilling was typically completed using a 89mm diameter AC blade bit.
techniques •RC drilling was completed using a 139mm to 143mm diameter face sampling hammer.
•DD was completed using PQ, HQ, or NQ diameter drill sizes (standard tube). Drill core was routinely orientated using aREFLEX ACT III tool.
Drill samplerecovery AC and RC Drilling•A qualitative estimate of sample recovery was done for each sample collected from the drill rig.•A qualitative estimate of sample weight was done to ensure consistency of sample size and to monitor sample recoveries.•Appropriate drill techniques were employed to maximize recovery and sample quality. Holes were terminated when excessivewater was encountered in the hole.•All material was typically dry when sampled.•Drill sample recovery and quality is considered to be adequate for the drilling technique employed.DD Drilling•A quantitative measure of sample recovery was done for each run of drill core.
Drill sample recovery approximates 100% in mineralised zones. Sample quality is considered to be excellent.
Logging AC and RC Drilling•All drill intervals were geologically logged.•Where appropriate, geological logging recorded the abundance of specific minerals, rock types and weathering using astandardized logging system.•A small sample of drill material was retained in chip trays for future reference and validation of geological logging.DD Drilling•All drill core intervals were geologically logged.•Where appropriate, geological logging recorded the abundance of specific minerals, rock types and weathering using astandardized logging system.•Half core is retained in the core trays and stored for future reference. Wet and dry photographs were collected for each coretray.
Sub-samplingtechniques andsamplepreparation AC Drilling•All composite samples were scoop sampled at the drill rig.•Routine field sample duplicates were taken to evaluate whether samples were representative.•Additional sample preparation was undertaken by Bureau Veritas laboratory.RC Drilling•All 1m samples were cone/rotary split at the drill rig.•Routine field sample duplicates were taken to evaluate whether samples were representative.•Additional sample preparation was undertaken by Bureau Veritas laboratory.
DD Drilling•Drill core was sawn in half along its long axis. One half of the drill core was taken for geochemical analysis. Samples werecollected at variable geological intervals down the hole (sample length ranged from 0.14m to 1.84m)•Additional sample preparation was undertaken by Bureau Veritas laboratory.
At the laboratory, samples were weighed, dried and crushed to -2mm in a jaw crusher. The crushed sample was subsequently bulkpulverised in a ring mill to achieve a nominal particle size of 85% passing 75um.

JORC Criteria Explanation
Sample sizes and laboratory preparation techniques are considered to be appropriate for the stage of evaluation and the commoditybeing targeted.
Quality of assaydata andlaboratory tests •Analysis for gold only was undertaken at Bureau Veritas by 50g Fire Assay with AAS finish to a lower detection limit of 0.01ppm.Fire assay is considered a "total" assay technique.•No geophysical tools or other non-assay instrument types were used in the analyses reported.•Review of routine standard reference material and sample blanks suggest there are no significant analytical bias or preparationerrors in the reported analyses.•Results of analyses for field sample duplicates are consistent with the style of mineralisation being evaluated and consideredto be representative of the geological zones which were sampled.•Internal laboratory QAQC checks are reported by the laboratory. Review of the internal laboratory QAQC suggests thelaboratory is performing within acceptable limits.
Verification ofsampling andassaying •Drill hole data is compiled and digitally captured by geologists at the drill rig.•The compiled digital data is verified and validated before loading into the drill hole database.•Twin holes were not utilized to verify results.•Reported drill hole intersections are compiled by the Company's database manager and reviewed by Company personnel.•There were no adjustments to assay data.
Location of datapoints •Drill holes are reported in MGA94_51 coordinates.•Drill hole collars were set out in local mine grids and MGA94_51 coordinates.•For AC and some RC, drill hole collars were positioned using hand held GPS.•For RC and DD, drill hole collars were typically positioned and picked up using Trimble RTK GPS, calibrated to a base station(expected accuracy of 20mm).•RC and DD drill holes are routinely surveyed for down hole deviation at approximately 30m spaced intervals down the holeusing Reflex EZ-Shot downhole survey nstrument or North Seeking Gyro downhole tools.•The topographic surface for all projects is derived from a combination of the primary drill hole pickups and the pre-existingphotogrammetric contouring.•Locational accuracy at collar and down the drill hole is considered appropriate for the stage of evaluation.
Data spacingand distribution •Depending on the location and target, holes were drilled on variably spaced sections and hole spacings, as follows;Ben Hur – nominal 80m x 40moGarden Well – nominal 40m x 40moRosemont – nominal 80m x 40moGloster – nominal 25m x 25mo•Other AC and regional RC prospects were drilled on nominal sections between 200m to 800m, with hole spacing varyingbetween 40m to 200m on sections.•The reported drilling has not been used to estimate any mineral resources or reserves.•Sample compositing was not applied to the reported intervals.
Orientation ofdata in relationto geologicalstructureSample security AC DrillingAt regional prospects, exploration is at an early stage and the true orientation of mineralisation has not been confirmed, however thereported drill hole orientations are considered appropriate for the geological setting and similar style deposits within the region.RC and DD DrillingThe orientation of mineralisation has generally been confirmed by earlier drilling, and is believed to have intersected the targetedmineralisation at an angle which does not introduce significant sampling bias.Samples are securely sealed and stored onsite, before delivery to Perth laboratories via contract freight Transport. Chain of custody
Audits orreviews consignment notes and sample submission forms are sent with the samples. Sample submission forms are also emailed to the laboratoryand are used to keep track of the sample batches.There has been no external audit or review of the sampling techniques or data.

SECTION 1 – DUKETON – SAMPLING AND DATA

APPENDIX 1 Section 2 - Reporting of Exploration Results

(Criteria listed in the preceding section also apply to this section.)

Section 2 contains relevant data on projects and prospects discussed in the main body text or those included below and considered to be material.

SECTION 2 – DUKETON – EXPLORATION RESULTS
JORC Criteria Explanation
Mineraltenement andland tenurestatus Ben HurThe Ben Hur gold deposit is located on M38/339. Current registered holder of the tenement is Brightstar Resources Limited, pendingtransfer to Regis Resources Limited. Normal Western Australian state royalties apply and a further 1% royalty up to $5m to BrightstarResources Limited after 100koz production, and a royalty to Parkerville Enterprises for $1/t of ore processed > 1g/t Au.
Garden WellThe Garden Well gold deposit is located on M38/1249, M38/1250, M38/283. Current registered holders of the tenements are: M38/1249Regis Resources Ltd; M38/1250 and M38/283 Regis Resources Ltd and Duketon resources Pty Ltd (100% subsidiary of RegisResources Ltd); 2% Royalty to Franco Nevada. Normal Western Australian state royalties apply. T
GlosterThe Gloster gold deposit is located on M38/1268. Current registered holders are M38/1268 – Regis Resources Ltd; 2% Royalty toWilliam Robert Richmond. Normal Western Australian state royalties apply.
RosemontThe Rosemont gold project is located on M38/237, M38/250 & M38/343. Current registered holders of the tenements are RegisResources Ltd & Duketon Resources Pty Ltd (100% subsidiary of Regis Resources Ltd). Normal Western Australian state royaltiesapply plus there is a 2% Royalty to Franco Nevada.
Regional Prospects are located on granted exploration tenure. There are no registered Native Title Claims over Regis tenure
Explorationdone by otherparties Previous historical exploration work by other Companies includes geochemical surface sampling, mapping, airborne and surfacegeophysical surveys, RAB, AC, RC and DD drilling. Substantial resource drilling and detailed mining studies have been undertaken ona number of deposits.
Geology Reported drilling is located within the Duketon Gold Project Area and covers part of the Duketon Greenstone Belt, within the ArchaeanYilgarn Craton.
The Duketon Greenstone Belt is comprised of mafic and ultramafic rocks, felsic volcanic and volcaniclastic rocks, and associatedsedimentary rocks. Cainozoic regolith deposit cover much of the Duketon greenstone belt, comprising proximal colluvial deposits, lowgradient sheet wash and sand plain deposits, which are dissected by drainage systems.Relevant geological characteristics of selected deposits and prospects are discussed in the body of the announcement.
Drill holeInformation Drill hole information including collar location and drill direction are documented in Appendix 1 and in the body of the announcement.
Dataaggregationmethods The reported intersections are length-weighted average grade intervals calculated using the following parameters:AC Drilling•Minimum 0.2 g/t Au cut off with a maximum of 4m consecutive internal waste within the interval.RC Drilling
•Minimum 0.4 g/t Au cut off with a maximum of 2m consecutive internal waste within the interval, or•Minimum 2.0 g/t Au cut off with a maximum of 2m consecutive internal waste within the interval.
DD Drilling•Minimum 2.0 g/t Au cut off with a maximum of 2m consecutive internal waste within the interval.No upper gold cut off has been applied.No metal equivalents are reported.
Relationshipbetweenmineralisationwidths andintercept lengths Drilling intersects the mineralisation at a high angle and as such approximates true thicknesses in most cases.
Diagrams Refer to the body of the announcement.
Balancedreporting Results have been comprehensively reported with the exception of infill drilling at Moolart Well and regional AC drilling.Appropriate plans and long sections show the distribution of all drilling (mineralised and unmineralised) relative to the reportedintersections.

SECTION 2 – DUKETON – EXPLORATION RESULTS
JORC Criteria Explanation
Othersubstantiveexploration data There is no other exploration data which is considered material to the results reported in this announcement.
Further work RC and diamond drilling where appropriate will be undertaken to follow up the results reported in this announcement.Appropriate diagrams are included in the body of the announcement.

APPENDIX 1 JORC Code, 2012 Edition – Section 1 Sampling Techniques and Data

SECTION 1 – TROPICANA JV – SAMPLING AND DATA
JORC Criteria Explanation
Samplingtechniques Reverse circulation drilling has been carried out using industry standard drilling and sampling equipment to collect a 3-4kgsubsample from a 1m sample. Sub-sampling has been conducted using a cone splitter for sample reduction.Drill core has been sampled predominantly from half core of NQ2 diameter.
Drillingtechniques Reverse circulation (RC) percussion drilling using face-sampling bits (5¼ inch or 133mm diameter) have been used to collectsamples from the shallower (up-dip) part of the deposits with a nominal maximum RC depth of ~150m.Diamond core drilling (DD) has been used for deeper holes, with diamond tails drilled from RC pre-collars. To control the deviationof deep DD holes drilled since 2011, many of these holes were drilled from short ~60m RC pre-collars or using 63.5mm (HQ)diameter core from surface.Diamond core drilling for MRE definition is predominantly 47.6mm (NQ) diameter core, with a lesser number of holes drilled forcollection of metallurgical and/or geotechnical data using 63.5mm (HQ2, HQ3) or 85mm (PQ) core diameters.In fresh rock, cores are oriented wherever possible for collection of structural data. Prior to 2009, core orientations are made usingthe EzyMark tool with the Reflex Ace Tool replacing the system in later drilling programs.
Drill samplerecovery RC recovery:− Prior to 2008 semi-quantitative assessment was made regarding RC sample recovery with recovery visually estimated as 25%,50%, 75% or 100% of the expected volume of a 1m drilling interval.− Since 2008, AGAA has implemented quantitative measure on every 25th interval where the masses of the sample splits arerecorded and compared to the theoretical mass of the sampling interval for the rock type being drilled.− AGAA found that overall RC recovery in the regolith was >80% and total recovery in fresh rock.DD recovery:− DD recovery has been measured as a percentage of the total length of core recovered compared to the drill interval.− Core recovery is consistently high in fresh rock with minor losses occurring in heavily fractured ground or for DD in the regolith.The main methods to maximise recovery have been recovery monitoring as described above and DD below a ~150m depth.No relationship exists between sample recovery and grade and the Competent Person considers that grade and sample biases thatmay have occurred due to the preferential loss or gain of fine or coarse material are unlikely.
Logging RC cuttings and DD cores have been logged geologically and geotechnically with reference to AGAA's logging standard library, tolevels of detail that support MRE work, Ore Reserve estimation (ORE) and metallurgical studies.Qualitative logging includes codes for lithology, regolith, and mineralisation for both RC and DD samples, with sample quality datarecorded for RC such as moisture, recovery, and sub-sampling methods.DD cores are photographed, qualitatively and structurally logged with reference to orientation measurements where available.Geotechnical quantitative logging includes QSI, RQD, matrix and fracture characterisation.The total lengths of all drill holes have been logged.
Sub-samplingtechniques andsamplepreparation RC – Primary splitting:−Prior to 2007, RC samples were collected from the RC cyclone stream using a tiered riffle splitter. From 2007, a static conesplitter was introduced and replaced the use of riffles splitting on all rigs.The RC sampling interval is generally 1m but from 2016, 2m intervals were introduced for RC pre-collar holes.−−The splitters collected a ~12% split from the primary lot with two 12% splits collected – the first for laboratory submission andsecond as a reference or duplicate.−Most samples were collected dry with <2% of samples recorded as being split in moist or wet state.−The main protocol to ensure the RC samples were representative of the material being collected was monitoring of samplerecovery and collection and assay of replicate samples.DD – Primary sample:

SECTION 1 – TROPICANA JV – SAMPLING AND DATA
JORC Criteria Explanation
−DD cores are collected of intervals determined by geological boundaries but generally targeting a 1m lengthAll NQ cores have been half-core sampled with the core cut longitudinally with a wet diamond blade.−−A few of the DD whole cores have been sampled from HQ3 cores drilled to twin RC holes in the regolith or for geotechnical ormetallurgical testing.In 2005, some 1,150m of cores drilled in the oxide zone were chisel split rather than wet-cut, but this poorer sub-sampling−represents <0.01% of the core drilled.Laboratory preparation:−Sample preparation has taken place at three laboratories since commencement of MRE definition drilling including SGS Perth(pre- 2006), Genalysis Perth (2006 to April 2016) and SGS (Tropicana Gold Mine) TGM onsite laboratory (2015 BostonShaker samples and post-April 2016 to December 2017 samples), and SGS Perth and SGS TGM from January 2018onwards.RC samples are oven dried then pulped in a mixer mill to a particle size distribution (PSD) of 90% passing 75 µm before−subsampling for fire assay.−SGS prepared DD half-core samples by jaw-crushing then pulverisation of the whole crushed lot to a PSD of 90% passing 75µm. A 50g subsample of the pulp was then collected for fire assay.−Genalysis prepared the samples in a 'Boyd' crusher rotary splitter combo with nominally 2.5kg half-core lots crushed to <3mmthen rotary split to ~1 kg before pulverisation and sub-sampling for fire assay.−At SGS Tropicana laboratory samples are processed in automated sample preparation system from 2013 - 2021, wheresamples are crushed in a Boyd crusher to a PSD of 90% passing 2mm then subsampled using a linear sample divider to~1kg. Samples with mass <800g are pulped in a LM2 mill to a PSD of 75 microns before sub-sampling for fire assay. In 2021the automated preparation facility was decommissioned. From 2021 onwards samples have been prepared manually in LM5pulverisers.From May 2016, a jaw crusher has been used to crush core samples to a PSD of 100% passing 6mm allowing for core−preparation at the SGS Tropicana laboratory.Quality controls for representativity:SGS inserted blanks and standards at a 1:20 frequency in every batch with a duplicate pulp collected for assay every 20th−sample. Further replicates were also completed at a 1:20 frequency in a random manner.−Sieve checks were completed on 5% of samples to monitor PSD compliance.−Genalysis inserted blanks and standards in every batch and a replicate pulp was collected for assay on every 25th sampleand 6% of each batch was randomly selected for replicate analysis. Sieve checks were completed on 5% of samples tomonitor PSD compliance.− Tropicana laboratory used barren basalt and quartz to clean equipment between routine samples.Sample size versus grain size:No specific heterogeneity tests have been completed but the sample sizes collected are consistent with industry standards for−the style of mineralisation under consideration.A 2008 sampling variability study found that 72% of the gold in the samples tested was in size fraction <300 µm, and that−repeated sampling of the same lot have very low variance between replicates.
Quality of assaydata andlaboratory tests No geophysical tools have been used to determine any element concentrations material to the MRE.All MRE prepared pulps have undergone 50g fire assay, which is considered a total assay for gold.As discussed above all laboratories have used industry-standard quality control procedures with standards used to monitor accuracy,replicate assay to monitor precision, blanks to monitor potential cross contamination and sieve tests to monitor PSD compliance.AGAA has also used other 'umpire' laboratories to monitor accuracy including Genalysis Perth (prior to November 2006 and 2016and to June 2017), SGS Laboratory (from November 2006 to August 2007, June 2017 to June 2019) and ALS Perth (since August2007), with these check assaying campaigns coinciding with each MRE update. All check assay results have been deemedacceptable.AGAA has reviewed the quality sample results on a batch by batch and monthly basis and has found that the overall performance ofthe laboratories used for MRE samples is satisfactory.
Verification ofsampling andassaying Significant drill hole intersections of mineralisation are routinely verified by AGAA's senior geological staff and have also beeninspected by several independent auditors as described further below.Twin holes have been drilled to compare results from RC and DD drilling with the DD results confirming that there is no materialdown hole smearing of grades in the nearby RC drilling and sampling.All logging and sample data is captured digitally in the field using Field Marshall Software, prior to upgrade to Micromine's Geobankdatabase in 2016. Data is downloaded daily to the Tropicana Exploration Database (Datashed) and checked for accuracy,completeness and structure by the field personnel.Assay data is merged electronically from the laboratories into a central Datashed database, with information verified spatially inVulcan software. AGAA maintains standard work procedures for all data management steps.

JORC Criteria Explanation
An assay importing protocol has been set up to ensure quality samples are checked and accepted before data can be loaded into theassay database
All electronic data is routinely backed up to AGAA's server in Perth.
There have been no adjustments or scaling of assay data other than setting below detection limit values to half detection for MREwork.
Location of datapoints All completed drill hole collar locations of surface holes have been using real time kinematic global positioning (RTK GPS)equipment, which was connected to the state survey mark (SSM) network.
The grid system is GDA94 Zone 51 using AHD elevation datum.
Prior to 2007, drill hole path surveys have been completed on all holes using 'Eastman' single shot camera tools, with down hole gyrotools used for all drilling post 2007.
A digital terrain model was prepared by Whelan's Surveyors of Kalgoorlie from aerial photography flown in 2007, which has beensupplemented with collar data surveyed using RTK GPS. This model is considered to have centimetre-scale accuracy.
The MRE and ORE are on a local Tropicana Gold Mine grid (TMG), which is derived by a two-point transform from Map GridAustralia (MGA) and Australian Height Datum (AHD) as follows:
−Point 1:
MGA Zone 51: 617.762.61mE = TMG: 50,000.00mE■
■MGA Zone 51: 6,727,822.78mN =TMG: 95,000.00mN
■AHD elevation = TMG: MGA elevation + 2,000m
−Point 2:■MGA Zone 51: 688,473.50mE = TMG: 50,000.00mE
MGA Zone 51: 6,798,533.48mN = TMG: 195,000.00mN■
■AHD elevation = TMG: MGA elevation + 2,000m
Data spacing anddistribution The drill hole spacing used to define MREs nominally ranges from 25mN by 25mE to 100mN by 100mE (local grid) over most of theMRE area with a small area of 10mN by 10mE used for grade control calibration work.
Most of the open pit MRE has been tested on a 50mN by 50mE grid with closer spaced 25mN by 25mE patterns in the upper parts ofthe deposit.
The Boston Shaker underground MRE is drilled at 50mN by 25mE in the upper levels and out to 100mN by 100mE at deeper levels.The Havana Deeps underground MRE has been drilled at 50mN by 25mE pattern in the upper area and out to 100mN by 100mE atdeeper levels.
Down-hole sample intervals are typically 1m, with 2m compositing applied for MRE work.
The Competent Person considers that these data spacings are sufficient to establish the degree of geological and grade continuityappropriate for the MRE and ORE estimation procedures, and the JORC Code classifications applied.
Orientation ofdata in relation togeologicalstructure Most drill holes are oriented to intersect the shallowly east dipping mineralisation at a high angle and as such, the Competent Personconsiders that a grade bias due to the orientation of data in relation to geological structure is highly unlikely.
Sample security The chain-of-sample custody is managed by AGAA. Samples were collected in pre-numbered calico bags, which are then
accumulated into polywoven bags for transport from the collection site.The accumulated samples are then loaded into wooden crates and road hauled to the respective laboratories (Perth) or processed
onsite at the TGM laboratory.
Sample dispatches are prepared by the field personnel using a database system linked to the drill hole data.Sample dispatch sheets are verified against samples received at the laboratory and any issues such as missing samples and so on
are resolved before sample preparation commences.The Competent Person considers that the likelihood of deliberate or accidental loss, mix-up or contamination of samples is very low.
Audits or reviews Field quality control data and assurance procedures are reviewed on a daily, monthly and quarterly basis by AGAA's field personnel
and senior geological staff.The field quality control and assurance of the sampling was audited by consultant Quantitative Geoscience in 2007 and 2009. Theconclusion of the audit was that the data was suitable for MRE work.
In 2017, MRE consultants Optiro reviewed data collections and assay quality as part of an MRE review and found no material issues.

SECTION 1 – TROPICANA JV – SAMPLING AND DATA

APPENDIX 1 Section 2 - Reporting of Exploration Results

SECTION 2 – TROPICANA JV – EXPLORATON RESULTS
JORC Criteria Explanation
Mineral tenementand land tenurestatus The TGM MREs are located wholly within WA mining lease M39/1096, which commenced on 11 March 2015 and has a term of 21years (expiry 10 March 2036).TGM in a joint venture between AGAA (70%) and RRL (30%) with AGAA as manager.Gold production is subject to WA State royalties of 2.5% of the value of gold produced.The Competent Person has confirmed that there are no material issues relating to native title or heritage, historical sites, wildernessor national parks, or environmental settings.The tenure is secure at the time of reporting and there are no known impediments to exploitation of the MRE and ORE and on-goingexploration of the mining lease.Regional exploration has been conducted on EL's E39/952 (Angel Eyes prospect), E39/1012 (Sazerac prospect) and E39/1990(Bushwacker prospect). These EL's sit north and south of the main M39/1096 tenement and are part of the Tropicana Joint Venture.
Exploration doneby other parties AGAA entered a joint venture (JV) with IGO in early 2002 with the main target of interest being a Western Mining Corporation (WMC)gold soil anomaly of 31ppb, which was reporting in a WA government open file report.Prior to the JV, the WMC soil sampling program was the only known exploration activity and the only dataset available were WAgovernment regional magnetic and gravity data.
Geology TGM is on the western margin of a 700km long magnetic feature that is interpreted to be the collision suture zone between theArchean age Yilgarn Craton to the west and the Proterozoic age Albany-Fraser Orogen to the east of this feature. The gold depositsare hosted by a package of Archean age high metamorphic grade gneissic rocks.Four distinct structural domains have been identified – Boston Shaker, Tropicana, Havana and Havana South, which represent thesame mineral deposit disrupted by northeast striking faults that post-date the mineralisation.The gold mineralisation is hosted by a shallowly southwest dipping sequence of quartz-feldspar gneiss, amphibolite, granulite andmeta-sedimentary chert lithologies.The gold mineralisation is concentrated in a 'favourable horizon' of quartz-feldspar gneiss, with a footwall of garnet gneiss,amphibolite or granulite.Mineralisation is characterised by pyrite disseminations, bands and crackle veins within altered quartz-feldspar gneiss. Higher gradesare associated with close-spaced veins and sericite and biotite alteration.Mineralisation presents as stacked higher grade lenses within a low-grade alteration envelope.Geological studies suggest the mineralisation is related to shear planes that post-date the development of the main gneissic fabricand metamorphic thermal maximum.
Drill holeinformation Drill hole information including collar location and drill direction are documented in Appendix 1 and in the body of the announcement
Data aggregationmethods The reported intersections are length-weighted average grade intervals calculated using a 0.7 g/t gold lower cut, no upper cut, maximum2m internal dilution. All diamond drill assays determined on half core (NQ2) samples by fire assay.
Relationshipbetweenmineralisationwidth andintercept lengths Drilling intersects the mineralisation at a high angle and as such approximates true thicknesses in most cases.Regional exploration intercepts are reported as downhole widths which in most cases is approximately perpendicular to the plane ofmineralisation.
Diagrams Refer to the body of the announcement.
Balancedreporting Results have been comprehensively reported with the exception regional RC & AC drilling.Appropriate plans and long sections show the distribution of all drilling (mineralised and unmineralised) relative to the reportedintersections.
Further work Exploration drilling is continuing across the project area

APPENDIX 1 – Exploration Results

Hole ID Project Y X Z Dip Azimuth TotalDepth(m) From(m) To(m) Interval(m) Auppm
RRLBTGAC093 Betelgeuse 6933445 416531 520 -60 270 91 56 64 8 1.91
RRLBTGAC102 Betelgeuse 6932646 416343 520 -60 270 112 64 68 4 3.32
RRLBTGAC103 Betelgeuse 6932656 416749 520 -60 270 92 88 92 4 1.9
RRLBTGAC146 Betelgeuse 6932825 416177 520 -60 270 104 40 44 4 8.08
RRLBTGAC151 Betelgeuse 6932602 417057 520 -60 269 86 68 76 8 1.37
RRLCMAC102 Commonwealth 6944540 425000 540 -60 88 110 48 60 12 0.66
RRLCMAC105 Commonwealth 6944539 424762 540 -60 88 98 64 72 8 1.16
RRLCMAC106 Commonwealth 6944536 424681 540 -60 90 92 52 56 4 2.39
RRLCMAC112 Commonwealth 6944312 425347 540 -60 90 97 32 52 20 0.87
RRLCMAC112 84 88 4 1.56
RRLCMAC114 Commonwealth 6944313 425187 540 -60 90 97 28 44 16 0.91
RRLCMAC115 Commonwealth 6944315 425097 540 -60 90 85 36 40 4 1.55
RRLCMAC115 44 48 4 1.82
RRLCMAC116 Commonwealth 6944315 425020 540 -60 90 95 36 40 4 1.36
RRLCMAC125 Commonwealth 6944750 425405 540 -60 90 84 24 36 12 0.78
RRLCMAC130 Commonwealth 6944750 425006 540 -60 90 89 84 89 5 1.84
RRLCMAC135 Commonwealth 6945114 425204 540 -60 88 82 40 44 4 2.35
RRLCMAC140 Commonwealth 6945114 424792 540 -60 92 92 48 56 8 0.99
RRLCMAC142 Commonwealth 6945435 425600 540 -60 90 86 64 68 4 2.64
RRLCMAC143 Commonwealth 6945435 425520 540 -60 89 72 56 64 8 0.75
RRLCMAC145 Commonwealth 6945435 425354 540 -60 91 76 60 68 8 0.72
RRLCMAC164 Commonwealth 6943995 425260 540 -60 90 87 44 52 8 1.4
RRLCMAC165 Commonwealth 6943995 425180 540 -60 90 89 64 80 16 7.63
RRLCMAC166 Commonwealth 6943995 425107 540 -60 90 88 32 44 12 1.23
RRLCMAC169 Commonwealth 6943995 424861 540 -60 90 87 56 60 4 3.1
RRLCMAC171 Commonwealth 6943995 424700 540 -60 90 104 48 52 4 1.45
RRLCMAC173 Commonwealth 6943995 424540 540 -60 90 100 56 60 4 1.88
RRLCMAC182 Commonwealth 6943760 424876 540 -60 91 99 64 72 8 0.92
RRLCMAC184 Commonwealth 6943763 424712 540 -60 90 102 44 56 12 0.73
RRLCMAC186 Commonwealth 6943756 424555 540 -60 90 95 52 60 8 3.06
RRLCMAC187 Commonwealth 6943760 424483 540 -60 90 90 40 44 4 2.88
RRLCMAC188 Commonwealth 6943758 424392 540 -60 86 93 44 56 12 0.58
RRLCMAC217 Commonwealth 6943289 424878 540 -60 90 92 52 60 8 1.23
RRLCMAC218 Commonwealth 6943288 424795 540 -60 88 75 40 48 8 2.62
RRLCMAC221 Commonwealth 6943285 424558 540 -60 90 112 40 48 8 0.63
RRLCMAC223 Commonwealth 6943285 424395 540 -60 90 102 44 56 12 0.47
RRLCMAC233 Commonwealth 6942965 424796 540 -60 90 122 104 108 4 3.23
RRLCMAC253 Commonwealth 6946235 424960 540 -60 270 116 64 76 12 1.06
RRLDORAC029 Doris Well 6889180 439588 490 -60 90 67 4 8 4 0.51
RRLDORAC029 40 44 4 1.48
RRLDORAC058 Doris Well 6891443 439134 500 -60 74 49 32 40 8 1.19
RRLSIAC185 Swincer 6882978 441650 515 -60 90 31 16 24 8 0.45
RRLSIAC251 Swincer 6881759 439896 504 -60 254 43 0 12 12 0.65
RRLWHNAC030 White Nile 6909100 429151 500 -60 268 59 32 36 4 1.11
RRLWHNAC099 White Nile 6897527 434219 500 -60 254 25 16 23 7 8.5

Appendix 1b - Significant intersections (>5GxM) from RC drilling. 0.4 g/t gold lower cut, no upper cut, maximum 2m internal dilution.

Hole ID Project Y X Z Dip Azimuth TotalDepth(m) From(m) To(m) Interval(m) Auppm
RRLBENRC135 Ben Hur 6882278 438142 483 -60 253 100 No significant intersection
RRLBENRC136 Ben Hur 6882288 438173 483 -60 257 172 No significant intersection
RRLBENRC140 Ben Hur 6884981 437209 475 -60 257 210 No significant intersection
RRLBENRC141 Ben Hur 6884951 437201 475 -60 257 192 151 158 7 0.72
RRLBENRC142 Ben Hur 6884927 437217 475 -60 257 198 No significant intersection
RRLBENRC143 Ben Hur 6884914 437249 475 -60 257 228 No significant intersection

APPENDIX 1 – Exploration Results

Hole ID Project Y X Z Dip Azimuth TotalDepth From(m) To(m) Interval(m) Auppm
RRLBENRC144 Ben Hur 6884920 437273 476 -60 257 (m)252 233 234 1 7.26
RRLBENRC145 Ben Hur 6884889 437271 476 -60 257 233 No significant intersection
RRLBENRC146 Ben Hur 6884796 437288 476 -60 253 210 160 168 8 0.65
RRLBENRC147 Ben Hur 6884766 437310 476 -60 257 222 169 187 18 1.37
RRLBENRC148 Ben Hur 6884745 437316 476 -60 257 219 163 179 16 1
RRLBENRC149 Ben Hur 6883353 437716 479 -60 257 120 No significant intersection
RRLBENRC150 Ben Hur 6884651 437347 477 -60 257 196 150 157 7 5.42
RRLBENRC151 Ben Hur 6884656 437366 477 -60 257 220 33 35 2 3.1
RRLBENRC151 176 184 8 2.68
RRLBENRC152 Ben Hur 6884703 437353 477 -60 257 238 199 208 9 4.94
RRLBENRC153 Ben Hur 6884639 437392 478 -60 257 250 204 208 4 2.34
RRLBENRC154 Ben Hur 6884608 437370 478 -60 257 196 23 25 2 4.56
RRLBENRC154 151 154 3 4.06
RRLBENRC155 Ben Hur 6884555 437377 478 -60 257 172 No significant intersection
RRLBENRC156 Ben Hur 6884560 437398 478 -60 257 196 27 31 4 1.95
RRLBENRC156 39 45 6 2.75
RRLBENRC157 Ben Hur 6884565 437416 479 -60 257 226 No significant intersection
RRLBENRC158 Ben Hur 6884030 437516 476 -60 249 172 132 135 3 1.76
RRLBENRC159 Ben Hur 6884036 437538 476 -60 251 190 No significant intersection
RRLBENRC160 Ben Hur 6883375 437805 479 -60 257 252 196 215 19 3.73
RRLBENRC162 Ben Hur 6883283 437762 480 -60 257 150 No significant intersection
RRLBENRC163 Ben Hur 6883297 437821 480 -60 253 216 173 180 7 1.73
RRLBENRC164RRLBENRC165 Ben HurBen Hur 68833036883311 437841437869 480480 -60-60 257257 258318 208266 222291 1425 2.591.38
RRLBENRC166 Ben Hur 6883205 437759 480 -60 256 96 No significant intersection
RRLBENRC167 Ben Hur 6883213 437790 481 -60 256 150 No significant intersection
RRLBENRC168 Ben Hur 6883352 437833 479 -60 257 270 236 239 3 3.79
RRLBENRC168 244 260 16 1.97
RRLBENRC169 Ben Hur 6883358 437854 480 -60 255 312 268 295 27 0.92
RRLBENRC170 Ben Hur 6883982 437549 476 -60 257 184 148 155 7 1.68
RRLBENRC171 Ben Hur 6883928 437558 476 -60 257 172 124 149 25 1.28
RRLBENRC172 Ben Hur 6883932 437581 476 -60 257 202 163 177 14 0.88
RRLBENRC173 Ben Hur 6883667 437740 478 -60 257 274 No significant intersection
RRLBENRC174 Ben Hur 6883672 437764 478 -60 257 298 255 268 13 1.33
RRLBENRC175 Ben Hur 6883603 437702 478 -60 257 202 155 178 23 1.3
RRLBENRC176 Ben Hur 6883617 437763 478 -60 257 316 227 258 31 1.64
RRLBENRC177 Ben Hur 6883571 437768 478 -60 257 304 224 246 22 2.75
RRLBENRC178 Ben Hur 6883577 437789 478 -60 257 340 32 40 8 0.64
RRLBENRC178 253 255 2 4.4
RRLBENRC178 262 274 12 0.93
RRLBENRC178 279 311 32 0.82
RRLBENRC179 Ben Hur 6883133 437780 482 -60 257 130 No significant intersection
RRLBENRC180 Ben Hur 6883143 437813 483 -60 257 166 75 82 7 1.66
RRLBENRC181 Ben Hur 6883152 437847 483 -60 257 196 138 145 7 0.85
RRLBENRC182 Ben Hur 6883982 437574 476 -60 257 220 172 183 11 0.97
RRLBENRC183RRLBENRC184 Ben HurBen Hur 68839366883893 437602437586 476476 -60-60 257255 232190 142 158 No significant intersection16 1.91
RRLBENRC185RRLBENRC185 Ben Hur 6883896 437607 476 -60 255 220 166182 179188 136 0.783.86
RRLBENRC186 Ben Hur 6883899 437631 476 -60 255 244 197 216 19 0.77
RRLBENRC187 Ben Hur 6883792 437632 476 -60 257 196 152 158 6 0.97
RRLBENRC188 Ben Hur 6883796 437654 477 -60 257 220 173 179 6 1.28
RRLBENRC189 Ben Hur 6883801 437675 477 -60 257 262 181 188 7 0.74
RRLBENRC189 198 225 27 0.81
RRLBENRC190 Ben Hur 6883807 437695 477 -60 255 304 220 232 12 0.68
RRLBENRC190 243 261 18 5.16
RRLBENRC191 Ben Hur 6883243 437886 481 -60 250 318 273 288 15 1.12

APPENDIX 1 – Exploration Results

Hole ID Project Y X Z Dip Azimuth TotalDepth(m) From(m) To(m) Interval(m) Auppm
RRLBENRC192 Ben Hur 6883246 437906 481 -60 254 294 256 263 7 1.07
RRLBENRC193 Ben Hur 6883249 437922 481 -60 255 354 313 324 11 1.65
RRLBENRC194 Ben Hur 6884487 437410 479 -62 255 220 16 23 7 0.77
RRLBENRC195 Ben Hur 6884495 437444 479 -62 255 280 No significant intersection
RRLBENRC196 Ben Hur 6885505 436955 475 -60 257 90 No significant intersection
RRLBENRC197 Ben Hur 6885514 436995 475 -60 257 150 No significant intersection
RRLBENRC198 Ben Hur 6885525 437036 476 -60 255 186 No significant intersection
RRLBENRC199 Ben Hur 6885410 437002 474 -60 257 102 28 41 13 0.57
RRLBENRC200 Ben Hur 6885423 437065 475 -60 257 210 No significant intersection
RRLBENRC201 Ben Hur 6885314 437014 473 -60 258 132 No significant intersection
RRLBENRC202 Ben Hur 6885324 437057 474 -60 257 126 81 86 5 1.51
RRLBENRC203 Ben Hur 6885333 437094 474 -60 257 198 No significant intersection
RRLBENRC204 Ben Hur 6885328 437060 474 -90 1 48 No significant intersection
RRLCMRC004 Commonwealth 6944844 425548 540 -60 270 126 No significant intersection
RRLCMRC005 Commonwealth 6944851 425474 540 -60 91 132 36 48 12 0.48
RRLCMRC006 Commonwealth 6944847 425424 540 -60 90 168 28 40 12 1.51
RRLCMRC007 Commonwealth 6944749 425596 540 -60 87 140 No significant intersection
RRLCMRC008 Commonwealth 6944536 425429 540 -60 273 150 No significant intersection
RRLCMRC009 Commonwealth 6944539 425264 540 -60 88 162 No significant intersection
RRLCMRC010 Commonwealth 6944956 424993 540 -60 269 140 No significant intersection
RRLCMRC011 Commonwealth 6944954 425157 540 -60 269 140 No significant intersection
RRLCMRC012 Commonwealth 6944155 424837 540 -60 270 168 No significant intersection
RRLCMRC013 Commonwealth 6944155 425144 540 -60 90 140 No significant intersection
RRLCMRC014 Commonwealth 6944154 425056 540 -60 90 140 No significant intersection
RRLMNRC006 Moolart North 6957555 433040 515 -60 270 196 124 132 8 1.28
RRLMNRC006 148 152 4 1.3
RRLMNRC007 Moolart North 6957560 433139 515 -60 270 182 No significant intersection
RRLMNRC008 Moolart North 6955957 433407 515 -60 270 202 No significant intersection
RRLMNRC009 Moolart North 6955960 433531 515 -60 270 202 No significant intersection
RRLMNRC010 Moolart North 6954124 433993 515 -60 270 202 44 56 12 0.57
RRLMNRC010 160 172 12 1.05
RRLMNRC011 Moolart North 6954442 434560 515 -60 270 202 92 104 12 0.58
RRLMNRC011 188 200 12 1.07
RRLMNRC012 Moolart North 6951465 434871 540 -60 269 196 No significant intersection
RRLMNRC013 Moolart North 6951464 435429 540 -60 270 208 No significant intersection
RRLMNRC014 Moolart North 6953756 434085 500 -60 270 204 52 60 8 0.97
RRLMNRC015 Moolart North 6951464 435549 540 -60 270 208 No significant intersection
RRLMNRC016 Moolart North 6953603 434295 500 -60 270 198 No significant intersection
RRLMNRC017 Moolart North 6951652 435485 540 -60 271 202 No significant intersection
RRLMNRC018 Moolart North 6953055 434685 540 -60 270 202 No significant intersection
RRLMNRC019 Moolart North 6952455 434655 500 -60 270 202 No significant intersection
RRLMNRC020 Moolart North 6952459 434760 500 -60 270 202 No significant intersection
RRLTMRC001 Ten Mile Bore 6941503 414241 480 -60 270 204 No significant intersection
RRLTMRC002 Ten Mile Bore 6941503 414280 480 -60 270 198 No significant intersection
RRLTMRC003 Ten Mile Bore 6941503 414320 480 -60 270 210 8 16 8 2.92
RRLTMRC004 Ten Mile Bore 6941503 414361 480 -60 270 198 No significant intersection
RRLTMRC005 Ten Mile Bore 6942159 413414 480 -60 220 198 No significant intersection
RRLTMRC006 Ten Mile Bore 6941139 414664 480 -60 220 204 No significant intersection
RRLTMRC007 Ten Mile Bore 6941112 414589 480 -60 220 198 No significant intersection
RRLTRMRC001 Terminator 6944099 401977 540 -60 270 84 No significant intersection
RRLTRMRC002 Terminator 6944099 402016 540 -60 270 144 No significant intersection
RRLTRMRC003 Terminator 6944099 402058 539 -60 270 166 No significant intersection
RRLTRMRC013 Terminator 6944502 401893 539 -60 270 190 No significant intersection
RRLTRMRC014 Terminator 6944524 401860 539 -60 270 170 50 73 23 0.69
RRLTRMRC014 77 107 30 0.62
RRLTRMRC018 Terminator 6944605 401798 539 -66 270 150 48 81 33 0.72
RRLTRMRC019 Terminator 6944017 402037 540 -60 271 114 95 104 9 0.76

APPENDIX 1 – Exploration Results

Hole ID Project Y X Z Dip Azimuth TotalDepth(m) From(m) To(m) Interval(m) Auppm
RRLTRMRC020 Terminator 6944018 402076 540 -60 271 192 115 116 1 7.62
RRLTRMRC020 172 174 2 6.15

Appendix 1c - Significant intersections (>5GxM) from RC drilling at Gloster. 2 g/t gold lower cut, no upper cut, maximum 2m internal dilution.

RRLGLRC531Gloster6950715408759450-7066100989915.54RRLGLRC532Gloster6950736408739450-522100No significant intersectionRRLGLRC533Gloster6950716408757450-862461242318.8RRLGLRC533596563.86RRLGLRC5338889117.8RRLGLRC534Gloster6950707408798450-866616613413732.63RRLGLRC53414514722.75RRLGLRC535Gloster6950707408798450-7866130No significant intersectionRRLGLRC536Gloster6950707408798450-84246160142146414.39RRLGLRC537Gloster6950671408831450-74661542425111.7RRLGLRC537949733.18RRLGLRC537143144110.2RRLGLRC538Gloster6950758408675450-5666106979817.65RRLGLRC539Gloster6950758408675450-6332382No significant intersectionRRLGLRC540Gloster6950691408819450-900172606222.58RRLGLRC5406769210.74RRLGLRC5408889121.3RRLGLRC541Gloster6950667408832450-85661562425117.4RRLGLRC54113813917.01RRLGLRC54115015115.86RRLGLRC542Gloster6950624408842450-87661503742.25RRLGLRC542394015.45RRLGLRC543Gloster6950624408843450-7666168586022.63RRLGLRC543666932.52RRLGLRC54313313415.26RRLGLRC544Gloster6950691408819450-826617212812915.24RRLGLRC544154155110.3RRLGLRC54416616715.13RRLGLRC545Gloster6950624408843450-6566180676924.34RRLGLRC5458083322.04RRLGLRC5459910015.72RRLGLRC546Gloster6950692408821450-74661844628.13RRLGLRC54616917232.97RRLGLRC547Gloster6950624408844450-5666192757832.09RRLGLRC547139140110.6RRLGLRC54716216645.13RRLGLRC548Gloster6950693408821450-66661965724.62RRLGLRC54818919015.49RRLGLRC549Gloster6950669408832450-576619610310853.17RRLGLRC550Gloster6950669408832450-6566196293235.73RRLGLRC5508890223.88RRLGLRC55016616715.46RRLGLRC551Gloster6950668408829450-85246161252945.24RRLGLRC551676815.65RRLGLRC552Gloster6950642408835450-9001321216.81RRLGLRC552464716.5RRLGLRC553Gloster6950641408834450-75631620223.01RRLGLRC553505115.94RRLGLRC553697018RRLGLRC553919215.9RRLGLRC553145146112.6 Hole ID Project Y X Z Dip Azimuth TotalDepth(m) From(m) To(m) Interval(m) Auppm
RRLGLRC553 151 155 4 2.3

APPENDIX 1 – Exploration Results

Hole ID Project Y X Z Dip Azimuth TotalDepth(m) From(m) To(m) Interval(m) Auppm
RRLGLRC554 Gloster 6950643 408836 450 -65 63 174 0 2 2 2.71
RRLGLRC554 6 7 1 13
RRLGLRC554 80 83 3 4.89
RRLGLRC555 Gloster 6950642 408836 450 -57 63 180 53 57 4 2.18
RRLGLRC556 Gloster 6950800 408925 552 -59 246 342 101 106 5 4.34
RRLGLRC556 144 145 1 8.8
RRLGLRC556 320 321 1 9.44
RRLGLRC556 333 335 2 3.93
RRLGLRC557 Gloster 6950793 408927 552 -63 250 336 193 194 1 5.41
RRLGLRC557 305 306 1 7.09
RRLGLRC558 Gloster 6950794 408929 553 -67 250 346 216 217 1 9.04
RRLGLRC558 277 278 1 7.32
RRLGLRC558 326 329 3 4.29
RRLGLRC559 Gloster 6950834 408900 553 -57 246 360 91 96 5 2.87
RRLGLRC559 153 155 2 3.01
RRLGLRC559 175 178 3 30.14
RRLGLRC559 311 312 1 8.24
RRLGLRC560 Gloster 6950832 408899 553 -53 246 330 195 196 1 6.63
RRLGLRC560 271 272 1 7.39
RRLGLRC560 292 294 2 13.48
RRLGLRC560 314 323 9 4.62

Appendix 1d - Significant intersections (>5GxM) from RC drilling at Moolart Well. 0.4 g/t gold lower cut, no upper cut, maximum 2m internal dilution.

Hole ID Project Y X Z Dip Azimuth TotalDepth(m) From(m) To(m) Interval(m) Auppm
RRLMWRC1825 Moolart Well 6946885 435575 524 -60 270 76 33 46 13 0.61
RRLMWRC1828 Moolart Well 6946384 435561 528 -60 270 84 37 44 7 0.91
RRLMWRC1834 Moolart Well 6946383 435632 527 -63 270 120 57 64 7 0.8
RRLMWRC1835 Moolart Well 6946859 435656 523 -60 270 122 93 96 3 1.68
RRLMWRC1837 Moolart Well 6946838 435631 522 -60 270 104 70 73 3 2.45
RRLMWRC1839 Moolart Well 6946770 435586 487 -84 90 92 12 33 21 1.25
RRLMWRC1841 Moolart Well 6946631 435734 537 -60 270 182 131 144 13 2
RRLMWRC1843 Moolart Well 6946632 435763 537 -60 270 122 119 121 2 3.04
RRLMWRC1844 Moolart Well 6946336 435829 539 -60 275 230 69 72 3 1.97
RRLMWRC1849 Moolart Well 6946609 435580 522 -90 0 86 33 38 5 1.08
RRLMWRC1850 Moolart Well 6946132 435609 540 -60 271 114 96 100 4 1.36
RRLMWRC1853 Moolart Well 6946623 435573 522 -60 289 67 52 61 9 0.83
RRLMWRC1855 Moolart Well 6946623 435604 525 -60 290 92 42 46 4 3.92
RRLMWRC1856 Moolart Well 6946131 435681 540 -60 271 162 99 105 6 1.12
RRLMWRC1856 147 159 12 1.18
RRLMWRC1857 Moolart Well 6946582 435740 537 -54 270 194 131 147 16 1.81
RRLMWRC1858 Moolart Well 6946133 435738 540 -60 271 192 117 120 3 5.63
RRLMWRC1858 154 161 7 1.84
RRLMWRC1858 165 169 4 1.3
RRLMWRC1859 Moolart Well 6946611 435720 537 -65 270 188 121 134 13 1.44
RRLMWRC1859 144 156 12 0.52
RRLMWRC1860 Moolart Well 6946133 435763 540 -60 271 216 124 125 1 22.9
RRLMWRC1860 163 170 7 1.18
RRLMWRC1860 175 197 22 1.36
RRLMWRC1862 Moolart Well 6946134 435788 540 -60 271 228 53 55 2 3.07
RRLMWRC1862 187 204 17 1.21
RRLMWRC1863 Moolart Well 6946406 435779 538 -60 270 212 172 188 16 0.78
RRLMWRC1864 Moolart Well 6946135 435811 540 -60 271 156 153 156 3 4.06
RRLMWRC1865 Moolart Well 6946432 435512 527 -60 270 50 45 49 4 1.81
RRLMWRC1866 Moolart Well 6946135 435814 540 -70 271 174 120 132 12 3.47
RRLMWRC1871 Moolart Well 6946431 435612 526 -60 270 92 57 64 7 1.02
RRLMWRC1871 71 75 4 1.27

APPENDIX 1 – Exploration Results

Hole ID Project Y X Z Dip Azimuth TotalDepth(m) From(m) To(m) Interval(m) Auppm
RRLMWRC1875 Moolart Well 6946456 435638 528 -64 270 98 37 44 7 1.19
RRLMWRC1875 62 70 8 0.71
RRLMWRC1875 74 82 8 3.3
RRLMWRC1877 Moolart Well 6946458 435566 527 -60 270 70 37 43 6 1.71
RRLMWRC1879 Moolart Well 6946508 435543 525 -60 270 88 40 46 6 3.22
RRLMWRC1880 Moolart Well 6946105 435708 540 -60 270 180 119 122 3 2.77
RRLMWRC1883 Moolart Well 6946179 435729 529 -60 270 184 93 96 3 5.09
RRLMWRC1883 147 158 11 1.26
RRLMWRC1884 Moolart Well 6946105 435764 540 -60 271 210 130 139 9 3.5
RRLMWRC1884 142 150 8 1.78
RRLMWRC1884 176 188 12 0.86
RRLMWRC1885 Moolart Well 6946205 435676 529 -60 271 148 80 82 2 2.7
RRLMWRC1887 Moolart Well 6946205 435735 531 -60 271 178 92 98 6 4.47
RRLMWRC1887 138 141 3 1.71
RRLMWRC1888 Moolart Well 6946082 435683 540 -60 271 150 107 113 6 0.9
RRLMWRC1889 Moolart Well 6946258 435733 529 -60 271 172 82 88 6 1.33
RRLMWRC1889 132 154 22 1.24
RRLMWRC1896 Moolart Well 6946077 435780 533 -60 273 210 132 136 4 2.18
RRLMWRC1896 144 149 5 1.1
RRLMWRC1896 163 179 16 0.88
RRLMWRC1900 Moolart Well 6946183 435785 531 -60 271 214 41 54 13 2.26
RRLMWRC1900 182 184 2 3.6
RRLMWRC1901 Moolart Well 6946233 435604 529 -60 271 94 72 79 7 2.43
RRLMWRC1902 Moolart Well 6946232 435635 528 -60 271 118 105 108 3 2.88
RRLMWRC1903 Moolart Well 6946228 435680 528 -60 271 142 118 124 6 1.25
RRLMWRC1904 Moolart Well 6946230 435735 530 -60 271 172 91 94 3 1.85
RRLMWRC1904 140 160 20 0.72
RRLMWRC1904 164 171 7 0.78
RRLMWRC1905 Moolart Well 6946229 435786 530 -60 271 202 35 39 4 1.51
RRLMWRC1905 178 182 4 1.95
RRLMWRC1906 Moolart Well 6946228 435837 532 -60 271 244 84 86 2 3.45
RRLMWRC1906 188 198 10 2.22
RRLMWRC1906 204 218 14 0.94
RRLMWRC1907 Moolart Well 6946228 435837 532 -75 270 124 67 68 1 5.38
RRLMWRC1908 Moolart Well 6946258 435787 529 -60 271 214 3 4 1 5.1
RRLMWRC1909 Moolart Well 6946256 435847 532 -60 270 244 217 229 12 1.16
RRLMWRC1910 Moolart Well 6946280 435736 530 -60 270 172 136 145 9 1.82
RRLMWRC1911RRLMWRC1911 Moolart Well 6946278 435843 531 -60 270 238 61180 63181 21 8.455.69
RRLMWRC1911 218 226 8 1.43
RRLMWRC1913 Moolart Well 6946305 435829 531 -60 270 232 139 141 2 4.15
RRLMWRC1918 Moolart Well 6946729 435685 536 -60 270 148 105 112 7 1.26
RRLMWRC1919 Moolart Well 6946684 435712 536 -60 270 160 116 124 8 1.01
RRLMWRC1920 Moolart Well 6946632 435685 536 -60 270 148 103 108 5 1.19
RRLMWRC1920 113 124 11 0.64
RRLMWRC1921 Moolart Well 6946658 435784 537 -60 270 100 78 90 12 0.44
RRLMWRC1922 Moolart Well 6946659 435834 537 -60 271 100 85 94 9 0.72
RRLMWRC1923 Moolart Well 6946634 435833 537 -60 271 124 78 89 11 0.87
RRLMWRC1924 Moolart Well 6946609 435793 537 -60 271 118 76 91 15 0.5
RRLMWRC1926 Moolart Well 6946610 435842 538 -60 270 118 74 80 6 0.9
RRLMWRC1926 101 102 1 13.6
RRLMWRC1927 Moolart Well 6946561 435660 537 -60 271 142 95 98 3 2.42
RRLMWRC1930 Moolart Well 6946357 435807 539 -60 271 232 40 57 17 1.31
RRLMWRC1930 175 183 8 2.73
RRLMWRC1930 203 213 10 0.69
RRLMWRC1931 Moolart Well 6946379 435783 538 -60 270 216 50 54 4 2.55
RRLMWRC1931 158 172 14 1.41
RRLMWRC1931 177 187 10 0.59
RRLMWRC1932 Moolart Well 6946380 435807 538 -60 270 228 39 58 19 2.21

APPENDIX 1 – Exploration Results

Hole ID Project Y X Z Dip Azimuth TotalDepth From To Interval Au
(m) (m) (m) (m) ppm
RRLMWRC1932 174 192 18 1.82
RRLMWRC1933 Moolart Well 6946382 435872 539 -90 270 150 69 71 2 12.74
RRLMWRC1933 126 129 3 1.67
RRLMWRC1933 135 136 1 9.36
RRLMWRC1934 Moolart Well 6946382 435871 539 -75 270 144 91 94 3 2.41
RRLMWRC1935 Moolart Well 6946382 435870 539 -60 270 150 92 95 3 4.51
RRLMWRC1937 Moolart Well 6946330 435881 539 -60 270 150 124 128 4 1.45
RRLMWRC1939 Moolart Well 6946333 435930 539 -60 270 162 158 162 4 14.77
RRLMWRC1941 Moolart Well 6946286 435917 540 -60 270 162 105 109 4 1.44
RRLMWRC1942 Moolart Well 6946233 435922 540 -60 270 180 57 59 2 4.02
RRLMWRC1942 107 117 10 13.21
RRLMWRC1942 146 155 9 0.67
RRLMWRC1943 Moolart Well 6946233 435949 540 -60 270 174 74 79 5 1.07
RRLMWRC1943 108 115 7 2.85
RRLMWRC1943 138 143 5 1.3
RRLMWRC1943 154 156 2 3.94
RRLMWRC1946 Moolart Well 6946184 435898 540 -60 270 150 55 56 1 5.18
RRLMWRC1948 Moolart Well 6946681 435858 537 -60 270 84 54 56 2 3.46
RRLMWRC1950 Moolart Well 6946186 435940 540 -68 270 162 128 154 26 7.59
RRLMWRC1953 Moolart Well 6946508 435816 538 -60 270 240 85 95 10 0.71
RRLMWRC1953 189 208 19 1.23
RRLMWRC1954 Moolart Well 6946509 435844 538 -60 270 120 90 97 7 7.88
RRLMWRC1956 Moolart Well 6946485 435802 538 -60 270 222 179 186 7 1.55
RRLMWRC1957 Moolart Well 6946483 435851 538 -60 270 132 79 89 10 0.7
RRLMWRC1962 Moolart Well 6946457 435828 538 -60 270 222 195 206 11 1.5
RRLMWRC1962 210 216 6 0.96
RRLMWRC1963RRLMWRC1963 Moolart Well 6946093 435837 539 -60 262 180 80159 86160 61 6.336.68
RRLMWRC1966 Moolart Well 6946432 435812 538 -60 270 234 177 183 6 1.12
RRLMWRC1967 Moolart Well 6946432 435709 537 -60 271 156 141 143 2 3.91
RRLMWRC1968 Moolart Well 6946433 435855 538 -60 271 138 95 109 14 0.71
RRLMWRC1969 Moolart Well 6946432 435881 538 -60 273 132 54 55 1 5.73
RRLMWRC1969 112 117 5 4.37
RRLMWRC1975 Moolart Well 6946093 435711 544 -60 212 190 103 108 5 2.82
RRLMWRC1977 Moolart Well 6946099 435731 544 -63 211 216 161 169 8 1.6
RRLMWRC1977 179 187 8 0.83
RRLMWRC1978 Moolart Well 6946099 435731 544 -60 262 204 125 127 2 2.89
RRLMWRC1978 154 160 6 2.33
RRLMWRC1979 Moolart Well 6946084 435810 536 -60 271 234 102 106 4 14.05
RRLMWRC1979 109 119 10 8.95
RRLMWRC1979 135 148 13 1.13
RRLMWRC1979 183 202 19 5.73
RRLMWRC1981 Moolart Well 6945974 435702 510 -52 281 156 70 75 5 2.46
RRLMWRC1986 Moolart Well 6946339 435562 529 -60 261 90 35 41 6 1.03
RRLMWRC1987 Moolart Well 6946844 435646 523 -55 261 132 40 44 4 2.12
RRLMWRC1991 Moolart Well 6946457 435878 539 -60 271 144 112 115 3 3.56
RRLMWRC1991 127 133 6 0.95
RRLMWRC1991 136 139 3 5.01
RRLMWRC1992 Moolart Well 6946457 435877 539 -75 271 132 124 125 1 11.1
RRLMWRC1993 Moolart Well 6946534 435810 538 -60 271 132 81 97 16 0.57
RRLMWRC1994 Moolart Well 6946534 435834 538 -60 271 132 78 83 5 1.13
RRLMWRC1994 94 99 5 1.55
RRLMWRC1994 104 105 1 8.56
RRLMWRC1995 Moolart Well 6946534 435861 537 -80 271 132 103 105 2 6.13
RRLMWRC1995 117 125 8 0.75
RRLMWRC1996 Moolart Well 6946583 435752 537 -60 271 192 143 153 10 0.75
RRLMWRC1998 Moolart Well 6946199 435632 529 -60 271 132 72 78 6 1.08
RRLMWRC2000 Moolart Well 6946273 435561 530 -60 278 66 38 43 5 1.28
RRLMWRC2000 50 52 2 3.43

Report to 30 September 2021 APPENDIX 1 – Exploration Results

Appendix 1e - Significant intersections (>10GxM) from DD drilling at Garden Well and Rosemont. 2 g/t gold lower cut, no upper cut, maximum 2m internal dilution.

Hole ID Project Y X Z Dip Azimuth TotalDepth From To Interval Au
(m) (m) (m) (m) ppm
RRLGDDD187 Garden Well 6913026 437348 498 -57 264 547 501 505.4 4.4 3.72
RRLGDDD188 Garden Well 6912621 437328 494 -57 290 610 479.23 488.8 9.57 4.43
RRLGDDD189 Garden Well 6912840 437314 497 -66 246 568 No significant intersection
RRLGDDD189W1 Garden Well 6912840 437314 497 -66 246 544 430 433 3 3.51
RRLGDDD189W1 440 444 4 3.28
RRLGDDD190 Garden Well 6912658 437328 494 -56 284 535 404 410 6 2.32
RRLGDDD191 Garden Well 6912658 437331 494 -60 289 562 431.36 441 9.64 3.65
RRLGDDD191 493.64 495 1.36 8.5
RRLGDDD192BRRLGDDD192B Garden Well 6912655 437337 494 -66 288 592 436.81457.93 443.12464.13 6.316.2 3.258.7
RRLGDDD192BW1 Garden Well 6912655 437337 494 -66 288 499 417 418.09 1.09 20.1
RRLGDDD192BW1 426.05 430 3.95 4.58
RRLGDDD192BW1 432.1 433 0.9 23.8
RRLGDDD193 Garden Well 6912908 437358 498 -58 272 552 430 433.44 3.44 5.76
RRLGDDD193 473.14 476.16 3.02 6.23
RRLGDDD193 485.66 496.42 10.76 2.26
RRLGDDD194 Garden Well 6912621 437325 494 -69 263 532 395.93 403.12 7.19 3.12
RRLGDDD194 406.8 411.23 4.43 3.79
RRLGDDD194 442 448 6 2.98
RRLGDDD195 Garden Well 6912620 437334 494 -75 261 601 482.26 489.32 7.06 2.85
RRLGDDD195 492.44 516.93 24.49 3.16
RRLGDDD195W1 Garden Well 6912620 437334 494 -75 262 589 460 468.9 8.9 3.22
RRLGDDD196 Garden Well 6912746 437369 496 -53 266 547 467 471 4 2.52
RRLGDDD197RRLGDDD197 Garden Well 6912746 437372 496 -58 266 571 434.07481 438.51489 4.448 2.782.11
RRLRMDD065W1 Rosemont 6918981 429456 503 -67 247 613 No significant intersection
RRLRMDD065W2 Rosemont 6918981 429457 503 -67 248 715 No significant intersection
RRLRMDD066 Rosemont 6918556 429487 499 -66 261 506 394.5 396.8 2.3 4.36
RRLRMDD067 Rosemont 6918557 429491 499 -72 261 693 469 475.41 6.41 3.65
RRLRMDD068 Rosemont 6918978 429444 502 -54 234 556 461.34 462.66 1.32 20.36
RRLRMDD069 Rosemont 6918925 429503 503 -62 244 724 No significant intersection
RRLRMDD069W1 Rosemont 6918925 429503 503 -62 244 634 531.7 534.37 2.67 6.98
RRLRMDD069W1 538.03 541.97 3.94 28.55
RRLRMDD069W2 Rosemont 6918925 429503 503 -62 244 604 No significant intersection
RRLRMDD070 Rosemont 6918925 429501 503 -55 248 553 No significant intersection
RRLRMDD071 Rosemont 6918828 429483 502 -56 251 513 No significant intersection
RRLRMDD072 Rosemont 6918829 429487 502 -62 250 563 459.46 460 0.54 22.2
RRLRMDD072 504.51 509 4.49 8.11
RRLRMDD073 Rosemont 6918830 429489 502 -66 249 672 582.92 584.49 1.57 23.62
RRLRMDD073 589.11 592.27 3.16 3.24
RRLRMDD074 Rosemont 6920905 428022 507 -78 86 511 No significant intersection
RRLRMDD075 Rosemont 6918772 429515 502 -55 247 525 449 450.83 1.83 8.02
RRLRMDD076 Rosemont 6918773 429518 502 -61 245 561 480.23 486.11 5.88 2.45
RRLRMDD077 Rosemont 6918818 429484 502 -59 244 529 No significant intersection
RRLRMDD077W1 Rosemont 6918818 429484 502 -59 244 475 399.78 402 2.22 6.47
RRLRMDD078 Rosemont 6918821 429496 502 -67 242 697 528.25 533.25 5 2.11
RRLRMDD078 535.74 536.63 0.89 16.1
RRLRMDD078RRLRMDD078 578.25614 583.65615 5.41 4.7330.6
RRLRMDD078W1 Rosemont 6918821 429496 502 -67 242 609 564 565 1 28.2
RRLRMDD078W2 Rosemont 6918821 429496 502 -67 242 574 508.93 510.74 1.81 6.57
RRLRMDD078W2 525.2 525.5 0.3 42.6
RRLRMDD079 Rosemont 6918888 429518 502 -53 248 532 467.8 468.92 1.12 10.2
RRLRMDD079W1 Rosemont 6918888 429518 502 -53 248 484 459.98 460.59 0.61 21.4
RRLRMDD080 Rosemont 6918892 429411 502 -56 253 442 No significant intersection

APPENDIX 1 – Exploration Results

Hole ID Project Y X Z Dip Azimuth TotalDepth(m) From(m) To(m) Interval(m) Auppm
RRLRMDD081 Rosemont 6918888 429518 502 -55 247 550 505.2 509.87 4.67 2.82
RRLRMDD082 Rosemont 6919177 429336 502 -69 245 682 610 612.21 2.21 5.16
RRLRMDD083 Rosemont 6918889 429521 502 -63 246 673 547.55 552.69 5.14 3.33
RRLRMDD083W1 Rosemont 6918889 429521 502 -61 246 618 529.84 531.2 1.36 11.9
RRLRMDD084 Rosemont 6919224 429334 502 -65 251 670 No significant intersection

Appendix 1f – Intersections from drilling at Tropicana.

Hole ID Project Y X Z Dip Azimuth TotalDepth(m) From(m) To(m) Interval(m) Auppm
AED032 Angel Eyes 6771766 657258 314 -55 252 405 132 133 1 2.44
AED032 Angel Eyes 140 141 1 0.79
AED033 Angel Eyes 6771710 657739 316 -55 231 294 50 52 2 0.82
AED034 Angel Eyes 6771773 657817 316 -55 228 351 No Significant Intercepts
AERC077 Angel Eyes 6774863 658472 332 -60 230 60 No Significant Intercepts
AERC078 Angel Eyes 6774920 658540 333 -60 231 72 No Significant Intercepts
AERC079 Angel Eyes 6774968 658597 334 -59 229 60 No Significant Intercepts
AERC080 Angel Eyes 6775026 658666 335 -60 230 66 No Significant Intercepts
AERC081 Angel Eyes 6775078 658734 335 -60 230 60 No Significant Intercepts
AERC091 Angel Eyes 6772391 655707 317 -55 270 156 No Significant Intercepts
BSD334 Boston Shaker 6763587 652636 347 -63 303 620 504 505.2 1.2 2.22
BSD334 Boston Shaker 512 519 7 2.69
BSD336 Boston Shaker 6763713 652584 348 -67 294 507 456 463 7 4.82
BSD337A Boston Shaker 6763537 652701 348 -69 303 600 555 560 5 2.62
BSD337A Boston Shaker 563 565 2 1.29
BSD338A Boston Shaker 6763663 652616 348 -67 301 537 471 493 22 5.42
BSD338A Boston Shaker 530 531 1 1.25
BSD339 Boston Shaker 6763723 652574 348 -68 310 510 461 467 6 2.84
BSD340 Boston Shaker 6763889 652645 347 -68 306 540 463 464 1 1.12
BSD341 Boston Shaker 6763833 652713 347 -67 308 591 498 504 6 1.29
BSD342 Boston Shaker 6764179 652484 344 -61 308 423 370 374 4 0.88
BSD343 Boston Shaker 6763980 652712 347 -62 308 568 No Significant Intercepts
BSD344 Boston Shaker 6763787 652937 348 -64 304 700 640 642.4 2.4 1.12
BSD345A Boston Shaker 6763138 652466 346 -65 299 637 588 613 25 1.31
BSD347 Boston Shaker 6763010 652660 347 -64 305 771 698 700 2 4.14
BSD347 Boston Shaker 706 723 17 1.36
BSD348 Boston Shaker 6763114 652608 347 -65 307 738 699 724 25 2.31
BSD349W1 Boston Shaker 6762910 652814 348 -64 303 850 780 783 3 1.56
BSD350 Boston Shaker 6763091 652711 348 -65 305 785 740 754 14 2.15
BSD350 Boston Shaker 767 768.3 1.3 5.56
BSD351 Boston Shaker 6762993 652922 349 -63 304 918 838 841 3 2.78
BSD352A Boston Shaker 6763217 652796 350 -62 310 851 761 796 35 4.26
BSD353 Boston Shaker 6763419 653012 355 -64 301 781 765 767 2 3.76
BSD354 Boston Shaker 6763541 653032 354 -65 302 761 703 725 22 2.98
BUD001 Bushwacker 6702608 635479 305 -56 302 207 No Significant Intercepts
BUD003 Bushwacker 6697928 629345 301 -55 318 201 No Significant Intercepts

APPENDIX 1 – Exploration Results

BUD004 Bushwacker 6697643 629629 303 -56 311 204 No Significant Intercepts
BUD005 Bushwacker 6697224 630054 301 -56 315 246 No Significant Intercepts
BUD007 Bushwacker 6698128 628128 309 -55 316 210 57 58 1 1.29
BUD007 Bushwacker 70.2 71 0.8 1.64
BUD007 Bushwacker 73.1 74 0.9 1.35
BUD007 Bushwacker 128 129 1 1.79
BUD007 Bushwacker 136 141 5 2.68
BUD009 Bushwacker 6698062 628054 308 -55 317 247 54 55 1 1.24
BUD009 Bushwacker 60 61 1 0.77
BUD009 Bushwacker 91 92 1 1.01
BUD009 Bushwacker 127 128 1 1.22
BURC001 Bushwacker 6702763 635220 304 -56 305 150 No Significant Intercepts
BURC002 Bushwacker 6702711 635303 303 -55 304 150 No Significant Intercepts
BURC003 Bushwacker 6702660 635392 304 -55 301 150 No Significant Intercepts
BURC004 Bushwacker 6702560 635565 304 -57 302 156 No Significant Intercepts
BURC011A Bushwacker 6699521 632071 300 -56 318 150 No Significant Intercepts
BURC012 Bushwacker 6699450 632142 301 -55 317 150 No Significant Intercepts
BURC013 Bushwacker 6699378 632215 299 -57 318 150 No Significant Intercepts
BURC017 Bushwacker 6698375 630831 298 -57 316 150 No Significant Intercepts
BURC018 Bushwacker 6698303 630903 298 -56 315 150 No Significant Intercepts
BURC019 Bushwacker 6698230 630972 298 -55 315 150 No Significant Intercepts
BURC020 Bushwacker 6698067 629209 301 -56 318 200 No Significant Intercepts
BURC021 Bushwacker 6697790 629488 301 -56 317 200 121 122 1 1.51
BURC021 Bushwacker 189 195 6 1.97
BURC022 Bushwacker 6697504 629773 301 -56 317 200 39 40 1 0.8
BURC022 Bushwacker 84 85 1 0.72
BURC023 Bushwacker 6697364 629911 304 -55 322 200 No Significant Intercepts
BURC024 Bushwacker 6697086 630198 300 -57 319 200 47 48 1 1.28
BURC028 Bushwacker 6698339 628061 309 -55 316 150 No Significant Intercepts
BURC029 Bushwacker 6698269 628132 309 -56 316 150 No Significant Intercepts
BURC030 Bushwacker 6698199 628202 309 -56 314 180 55 56 1 0.73
BURC031 Bushwacker 6698268 627986 309 -55 316 150 24 29 5 1.64
BURC031 Bushwacker 33 34 1 0.93
BURC032BURC032 BushwackerBushwacker 6698197 628057 308 -56 315 150 3750 3951 21 1.150.71
BURC032 Bushwacker 54 57 3 1.59
BURC032 Bushwacker 62 65 3 5.7
BURC032 Bushwacker 69 70 1 2.56
BURC033 Bushwacker 6698196 627919 308 -55 316 150 No Significant Intercepts
BURC034 Bushwacker 6698126 627987 308 -55 319 150 12 13 1 0.88
BURC034 Bushwacker 66 67 1 2.22
BURC034 Bushwacker 87 90 3 1.18
BURC034 Bushwacker 109 112 3 6.55
HDD390 Havana 6761479 650349 363 -60 301 571 521 523 2 2.5
HDD390 Havana 529 544 15 5.12
HDD391 Havana 6761475 650351 363 -63 300 574 522 523 1 0.86
HDD391 Havana 528 547 19 3.74

Report to 30 September 2021 APPENDIX 1 – Exploration Results

HSD158 Havana South 6760606 649945 360 -65 296 646 406 407 1 1.43
HSD158 Havana South 438 439 1 0.74
HSD158 Havana South 470 479 9 2.24
HSD158 Havana South 484 485 1 0.74
HSD158 Havana South 517 523 6 2.39
HSD159C Havana South 6760681 650012 362 -67 290 606 481 482 1 1.13
HSD159C Havana South 485 487 2 4.11
HSD159C Havana South 491 494 3 1.27
HSD159C Havana South 518 520 2 1.01
HSD159C Havana South 523 524 1 10.3
HSD160 Havana South 6760714 650044 364 -64 327 625 304 305 1 1.37
HSD160 Havana South 506 512 6 2.49
HSD160 Havana South 515 516 1 1.54
HSD160 Havana South 520 520.8 0.8 1.51
HSD160 Havana South 524 526 2 1
HSD160 Havana South 560 561 1 1.05
HSD160 Havana South 565 569 4 0.97
HSD160 Havana South 574 588 14 6.51
HSD160 Havana South 591 592 1 0.74
HSD161 Havana South 6760843 650059 364 -70 312 615 492 500 8 1.13
HSD161 Havana South 503 508 5 1.01
HSD161 Havana South 553 554 1 3.9
HSD161 Havana South 557 565 8 8.11