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S2 RESOURCES LTD Regulatory Filings 2021

May 20, 2021

65745_rns_2021-05-20_16a87596-a3b8-4426-8941-37a2e49af7ad.pdf

Regulatory Filings

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AIRCORE DRILLING IDENTIFIES NEW MINERALISED TRENDS AT JILLEWARRA

Key Points

  • All assays received for S2's first aircore drilling program testing zones south and southwest of the Dorothy and Margueritta prospects, part of the Jillewarra JV
  • Aircore results include 16m @ 1.5g/t Au from surface, including 4m @ 4.8g/t Au from 4m and 12m @ 1.0g/t Au from 28m, including 4m @ 2.8g/t Au
  • Aircore drilling highlighted a new gold-arsenic trend southwest and parallel to Dorothy-Margueritta and another south of Margueritta
  • Assays also received for the first five RC holes drilled at the Dorothy prospect with an intercept of 20m @ 1.9g/t Au from 92m, including 4m @ 6.8g/t from 92m
  • Reconnaissance aircore program underway in northern Jillewarra testing an area where limited historic drilling and geochemistry detected anomalous gold in a zone of structural and geological interest proximal to historic workings

S2 Resources Ltd ("S2" or the "Company") has received assay results for the first aircore program drilled by the Company at the Jillewarra Joint Venture (JV, S2 earning a 70 % interest, see ASX announcement dated 10th October 2020). This program targeted southerly strike extensions to the Dorothy-Margueritta trend, as well as a potential parallel zone of mineralisation to the southwest of the Margueritta prospect (Figure 1). Results from aircore holes include (downhole widths):

  • SJWA0022: 16 metres at 1.5g/t Au from surface, including 4 metres at 4.8g/t Au from 4 metres
  • SJWA0037: 12 metres at 1.0g/t Au from 28 metres, including 4 metres at 2.8g/t Au from 32 metres
  • SJWA0102: 27 metres at 0.5g/t Au from 48 metres to the end of hole, including 4 metres at 1.0g/t Au from 52 metres

Assay results have also been received for the first five of fourteen reverse circulation (RC) holes aimed at testing depth extensions to the Dorothy and Margueritta prospects. Hole SJWC0005 recorded the only significant result with an intercept of 20 metres at 1.9g/t gold from 92 metres downhole, including 4 metres at 6.8g/t gold from 92 downhole. This hole has extended the northern depth extent of known mineralisation by 24 metres down dip.

Figure 1. Location map of recent aircore drilling, showing significant intercepts, relative to the Dorothy and Margueritta prospects.

New mineralised trends identified in the first aircore drilling at Jillewarra

Assays have been received for S2's first aircore drilling campaign at the Jillewarra JV, which comprised 228 holes (7,600 metres) testing two zones. The first zone is directly south of the Margueritta prospect (Margueritta South) where the outcropping Dorothy-Margueritta trend disappears under cover (Figure 2). The second zone is to the southwest of Margueritta along a trend comprising historic workings and anomalous gold in rock chips and historic broad spaced drilling (Western Trend, Figure 3).

At Margueritta South, reconnaissance holes were drilled on 80 to 160 metre line spacing with 20 metre hole spacing targeting southerly extensions to the Dorothy-Margueritta mineralised trend. Encouragingly, anomalous gold and arsenic has been defined over a strike length greater than 600 metres. Better aircore intercepts included:

  • SJWA0022: 16 metres at 1.5g/t gold from surface, including 4 metres at 4.8g/t gold from 4 metres
  • SJWA0037: 12 metres at 1.0g/t gold from 28 metres, including 4 metres at 2.8g/t gold from 32 metres

Figure 2. Zone of anomalous gold and arsenic defined in recent aircore and historic drill holes at Margueritta South (AWR: Awaiting assay results).

Along the Western Trend, wide (240 metre) spaced reconnaissance lines with 20 metre hole spacing were drilled starting approximately 120 metres south of historic workings. Hole SJWA0102 in the northernmost line intercepted 27 metres at 0.5g/t gold from 92 metres to the end of hole (Figures 3 and 4). The only drilling to the north is a line of three historic rotary air blast (RAB) holes, which are considered to be ineffective due to being drilled largely parallel to dip. Aircore drilling and rock chips have defined an anomalous gold and arsenic zone greater than 350 metres in strike.

Reconnaissance aircore drilling is an early-stage tool in the exploration process. It is highly encouraging that anomalous gold and arsenic trends (with arsenic being a pathfinder for gold) were delineated in both targeted zones. This warrants infill and deeper drilling at both Margueritta South and the Western Trend.

Figure 3. Zone of anomalous gold and arsenic defined in recent aircore drill holes and rocks chips along the Western Trend

Figure 4. Cross section through aircore line 598,380 mE showing aircore hole SJWA0102

First assays received for Dorothy-Margueritta RC drilling

Assays have been received for the first five of 14 RC holes drilled along the Dorothy-Margueritta trend (Figure 5). The only significant intercepts were recorded in hole SJWC0005 including:

  • 20 metres at 1.9g/t gold from 92 metres downhole,
    • o Including 4 metres at 6.8g/t gold from 92 metres, and
    • o 4 metres at 1.0g/t gold from 100 metres, and
    • o 4 metres at 1.6g/t gold from 108 metres

This was the northernmost of five holes drilled under the Dorothy prospect (Figure 6). Mineralisation was logged in a sheared contact zone between fine grained sediments and basalt. Assays are pending for the remaining nine RC holes drilled under the Margueritta and Margueritta South prospects.

Figure 5. Long projection through the Dorothy prospect showing the location of the five RC holes to test depth extensions to mineralisation defined in historic drilling

Figure 6. Cross section through 7,068,98 mN of the Dorothy prospect showing the mineralised zone defined by historic drilling and RC hole SJWC0005

Aircore drilling underway in the north of the Jillewarra JV

S2 has commenced itssecond aircore program atJillewarra (Figure 7). Broad spaced reconnaissance drilling is targeting an area of interpreted structural and geological interest where aeromagnetic imagery shows a bifurcation of stratigraphy to the NW and NNW. Historic working are present in the area and anomalous gold has been detected in very limited historic drilling and surface geochemistry. This program will comprise 5,000 to 6,000 metres covering an area of approximately three square kilometres.

Jillewarra remains largely under explored with 50 kilometres strike of prospective Archaean greenstone geology and very limited drilling below 70 metres. The Company will continue its systematic approach to identify and drill test targets throughout the Jillewarra Belt, generally commencing with reconnaissance aircore. To date, 30 targets have been identified based on structural and geological interpretation, evidence of historical workings and historic exploration data.

This announcement has been provided to the ASX under the authorisation of Mark Bennett, Executive Chairman.

For further information, please contact:

Matthew Keane Mark Bennett
Chief Executive Officer Executive Chairman
+61 8 6166 0240 +61 8 6166 0240

Past Exploration results reported in this announcement have been previously prepared and disclosed by S2 Resources Ltd in accordance with JORC 2012. The Company confirms that it is not aware of any new information or data that materially affects the information included in these market announcements. The Company confirms that the form and content in which the Competent Person's findings are presented here have not been materially modified from the original market announcement. Refer to www.s2resources.com.au for details on past exploration results.

Competent Persons statements

The information in this report that relates to Exploration Results is based on information compiled by John Bartlett, who is an employee and shareholder of the Company. Mr Bartlett is a member of the Australian Institute of Mining and Metallurgy (MAusIMM) and has sufficient experience of relevance to the style of mineralization and the types of deposits under consideration, and to the activities undertaken, to qualify as a Competent Person as defined in the 2012 Edition of the Joint Ore Reserves Committee (JORC) Australasian Code for Reporting of Exploration Results, Mineral Resources and Ore Reserves. Mr Bartlett consents to the inclusion in this report of the matters based on information in the form and context in which it appears.

Annexure 1

Jillewarra Aircore Drilling

Hole Easting Northing RL Azi Dip Depth From To Interval GradeAu g/t
SJWA0001 599110 7067240 445 270 -60 18 NSI
SJWA0002 599130 7067240 445 270 -60 11 NSI
SJWA0003 599150 7067240 445 270 -60 7 NSI
SJWA0004 599170 7067240 445 270 -60 21 NSI
SJWA0005 599190 7067240 445 270 -60 12 NSI
SJWA0006 599210 7067240 445 270 -60 29 NSI
SJWA0007 599230 7067240 445 270 -60 19 0 4 4 0.2
SJWA0008 599250 7067240 445 270 -60 12 NSI
SJWA0009 599270 7067240 445 270 -60 19 NSI
SJWA0010 599290 7067240 445 270 -60 19 0 4 4 0.1
SJWA0011 599310 7067240 445 270 -60 19 NSI
SJWA0012 599330 7067240 445 270 -60 25 NSI
SJWA0013 599350 7067240 445 270 -60 25 NSI
SJWA0014 599370 7067240 445 270 -60 19 NSI
SJWA0015 599130 7067160 445 270 -60 14 NSI

Hole Easting Northing RL Azi Dip Depth From To Interval GradeAu g/t
SJWA0016 599150 7067160 445 270 -60 20 NSI
SJWA0017 599170 7067160 445 270 -60 18 NSI
SJWA0018 599190 7067160 445 270 -60 35 NSI
SJWA0019 599210 7067160 445 270 -60 39 NSI
SJWA0020 599230 7067160 445 270 -60 43 NSI
SJWA0021 599250 7067160 445 270 -60 46 NSI
SJWA0022 599270 7067160 445 270 -60 34 0 16 16 1.5
Including 4 8 4 4.8
SJWA0023 599290 7067160 445 270 -60 34 NSI
SJWA0024 599310 7067160 445 270 -60 19 NSI
SJWA0025 599330 7067160 445 270 -60 13 NSI
SJWA0026 599350 7067160 445 270 -60 13 NSI
SJWA0027 599370 7067160 445 270 -60 3 NSI
SJWA0028 599390 7067160 445 270 -60 4 NSI
SJWA0029 599130 7067080 445 270 -60 7 NSI
SJWA0030 599150 7067080 445 270 -60 13 NSI
SJWA0031 599170 7067080 445 270 -60 69 NSI
SJWA0032 599190 7067080 445 270 -60 48 NSI
SJWA0033 599210 7067080 445 270 -60 46 0 4 4 1.0
SJWA0034 599230 7067080 445 270 -60 41 NSI
SJWA0035 599250 7067080 445 270 -60 41 NSI
SJWA0036 599270 7067080 445 270 -60 42 41 42 1 0.2*
SJWA0037 599290 7067080 445 270 -60 55 28 40 12 1.0
Including 32 36 4 2.8
and 48 52 4 0.5
SJWA0038 599310 7067080 445 270 -60 21 NSI
SJWA0039 599330 7067080 445 270 -60 30 NSI
SJWA0040 599350 7067080 445 270 -60 7 NSI
SJWA0041 599370 7067080 445 270 -60 11 NSI
SJWA0042 599390 7067080 445 270 -60 7 NSI
SJWA0043 599410 7067080 445 270 -60 5 NSI
SJWA0044 599170 7067000 445 270 -60 76 NSI
SJWA0045 599190 7067000 445 270 -60 24 NSI
SJWA0046 599210 7067000 445 270 -60 16 NSI
SJWA0047 599230 7067000 445 270 -60 26 NSI
SJWA0048 599250 7067000 445 270 -60 40 0 4 4 0.1
SJWA0049 599270 7067000 445 270 -60 31 NSI
SJWA0050 599290 7067000 445 270 -60 47 NSI
SJWA0051 599310 7067000 445 270 -60 34 NSI
SJWA0052 599330 7067000 445 270 -60 19 NSI
SJWA0053 599350 7067000 445 270 -60 21 NSI
SJWA0054 599370 7067000 445 270 -60 12 NSI

Hole Easting Northing RL Azi Dip Depth From To Interval GradeAu g/t
SJWA0055 599390 7067000 445 270 -60 5 NSI
SJWA0056 599410 7067000 445 270 -60 5 NSI
SJWA0057 599210 7066840 445 270 -60 4 NSI
SJWA0058 599230 7066840 445 270 -60 5 NSI
SJWA0059 599250 7066840 445 270 -60 7 NSI
SJWA0060 599270 7066840 445 270 -60 7 NSI
SJWA0061 599290 7066840 445 270 -60 21 NSI
SJWA0062 599310 7066840 445 270 -60 12 NSI
SJWA0063 599330 7066840 445 270 -60 4 NSI
SJWA0064 599350 7066840 445 270 -60 19 NSI
SJWA0065 599370 7066840 445 270 -60 42 NSI
SJWA0066 599390 7066840 445 270 -60 37 NSI
SJWA0067 599410 7066840 445 270 -60 19 NSI
SJWA0068 599430 7066840 445 270 -60 15 NSI
SJWA0069 599450 7066840 445 270 -60 5 NSI
SJWA0070 599470 7066840 445 270 -60 14 NSI
SJWA0071 599490 7066840 445 270 -60 2 NSI
SJWA0072 599210 7066680 445 270 -60 8 NSI
SJWA0073 599230 7066680 445 270 -60 4 NSI
SJWA0074 599250 7066680 445 270 -60 3 NSI
SJWA0075 599270 7066680 445 270 -60 4 NSI
SJWA0076 599290 7066680 445 270 -60 9 NSI
SJWA0077 599310 7066680 445 270 -60 17 NSI
SJWA0078 599330 7066680 445 270 -60 7 NSI
SJWA0079 599350 7066680 445 270 -60 8 NSI
SJWA0080 599370 7066680 445 270 -60 4 NSI
SJWA0081 599390 7066680 445 270 -60 24 NSI
SJWA0082 599410 7066680 445 270 -60 7 NSI
SJWA0083 599430 7066680 445 270 -60 9 NSI
SJWA0084 599450 7066680 445 270 -60 25 NSI
SJWA0085 599470 7066680 445 270 -60 6 NSI
SJWA0086 599490 7066680 445 270 -60 19 NSI
SJWA0087 599510 7066680 445 270 -60 20 NSI
SJWA0088 599530 7066680 445 270 -60 12 NSI
SJWA0089 599550 7066680 445 270 -60 12 0 4 4 0.2
SJWA0090 598140 7067040 445 270 -60 4 NSI
SJWA0091 598160 7067040 445 270 -60 5 NSI
SJWA0092 598180 7067040 445 270 -60 5 NSI
SJWA0093 598200 7067040 445 270 -60 4 NSI
SJWA0094 598220 7067040 445 270 -60 3 NSI
SJWA0095 598240 7067040 445 270 -60 21 NSI
SJWA0096 598260 7067040 445 270 -60 7 NSI

Hole Easting Northing RL Azi Dip Depth From To Interval GradeAu g/t
SJWA0097 598280 7067040 445 270 -60 24 NSI
SJWA0098 598300 7067040 445 270 -60 27 NSI
SJWA0099 598320 7067040 445 270 -60 34 NSI
SJWA0100 598340 7067040 445 270 -60 45 NSI
SJWA0101 598360 7067040 445 270 -60 93 4 8 4 0.2
SJWA0102 598380 7067040 445 270 -60 75 48 75 27 0.5*
Including 52 56 4 1.0
SJWA0103 598400 7067040 445 270 -60 90 4 8 4 0.1
SJWA0104 598420 7067040 445 270 -60 78 8 12 4 0.1
SJWA0105 598200 7066800 445 270 -60 7 NSI
SJWA0106 598220 7066800 445 270 -60 12 NSI
SJWA0107 598240 7066800 445 270 -60 25 NSI
SJWA0108 598260 7066800 445 270 -60 3 NSI
SJWA0109 598280 7066800 445 270 -60 4 NSI
SJWA0110 598300 7066800 445 270 -60 3 NSI
SJWA0111 598320 7066800 445 270 -60 31 NSI
SJWA0112 598340 7066800 445 270 -60 30 NSI
SJWA0113 598360 7066800 445 270 -60 48 NSI
SJWA0114 598380 7066800 445 270 -60 60 NSI
SJWA0115 598400 7066800 445 270 -60 43 NSI
SJWA0116 598420 7066800 445 270 -60 34 NSI
SJWA0117 598440 7066800 445 270 -60 48 NSI
SJWA0118 598460 7066800 445 270 -60 45 NSI
SJWA0119 598480 7066800 445 270 -60 48 NSI
SJWA0120 598410 7067040 445 90 -60 57 NSI
SJWA0121 598390 7067040 445 90 -60 82 28 32 4 0.1
SJWA0122 598370 7067040 445 90 -60 48 NSI
SJWA0123 598350 7067040 445 90 -60 60 4 8 4 0.2
SJWA0124 598330 7067040 445 90 -60 48 28 40 12 0.2
SJWA0125 598310 7067040 445 90 -60 61 NSI
SJWA0126 598290 7067040 445 90 -60 8 NSI
SJWA0127 598540 7066560 445 90 -60 27 NSI
SJWA0128 598520 7066560 445 90 -60 17 NSI
SJWA0129 598500 7066560 445 90 -60 48 NSI
SJWA0130 598480 7066560 445 90 -60 56 NSI
SJWA0131 598460 7066560 445 90 -60 28 NSI
SJWA0132 598440 7066560 445 90 -60 13 NSI
SJWA0133 598420 7066560 445 90 -60 46 NSI
SJWA0134 598400 7066560 445 90 -60 45 NSI
SJWA0135 598380 7066560 445 90 -60 59 NSI
SJWA0136 598640 7066320 445 90 -60 25 NSI
SJWA0137 598620 7066320 445 90 -60 26 NSI

Hole Easting Northing RL Azi Dip Depth From To Interval GradeAu g/t
SJWA0138 598600 7066320 445 90 -60 19 NSI
SJWA0139 598580 7066320 445 90 -60 10 NSI
SJWA0140 598560 7066320 445 90 -60 12 NSI
SJWA0141 598540 7066320 445 90 -60 12 NSI
SJWA0142 598520 7066320 445 90 -60 49 NSI
SJWA0143 598500 7066320 445 90 -60 54 16 20 4 0.2
SJWA0144 598510 7066320 445 90 -60 34 48 52 4 0.1
SJWA0145 598480 7066320 445 90 -60 45 NSI
SJWA0146 598460 7066320 445 90 -60 72 40 44 4 0.1
SJWA0147 598440 7066320 445 90 -60 26 NSI
SJWA0148 598680 7066080 445 90 -60 25 4 12 8 0.9
Including 8 12 4 1.7
SJWA0149 598660 7066080 445 90 -60 12 NSI
SJWA0150 598640 7066080 445 90 -60 48 47 48 1 0.2*
SJWA0151 598623.3 7066081 445 90 -60 12 NSI
SJWA0152 598606.1 7066081 445 90 -60 31 NSI
SJWA0153 598586.4 7066080 445 90 -60 20 NSI
SJWA0154 598566 7066081 445 90 -60 25 NSI
SJWA0155 598542.6 7066085 445 90 -60 43 NSI
SJWA0156 598523.6 7066081 445 90 -60 9 NSI
SJWA0157 598502 7066081 445 90 -60 13 NSI
SJWA0158 598484.7 7066080 445 90 -60 13 NSI
SJWA0159 598445.6 7066083 445 90 -60 20 NSI
SJWA0160 598423.6 7066081 445 90 -60 17 NSI
SJWA0161 598745.2 7065841 445 90 -60 19 NSI
SJWA0162 598725.3 7065840 445 90 -60 9 NSI
SJWA0163 598703.9 7065838 445 90 -60 12 NSI
SJWA0164 598686 7065841 445 90 -60 64 63 64 1 0.2*
SJWA0165 598664.3 7065844 445 90 -60 41 NSI
SJWA0166 598644.6 7065843 445 90 -60 23 NSI
SJWA0167 598620.6 7065839 445 90 -60 99 NSI
SJWA0168 598603.8 7065840 445 90 -60 25 NSI
SJWA0169 598582.5 7065842 445 90 -60 12 NSI
SJWA0170 598564.3 7065844 445 90 -60 13 NSI
SJWA0171 598544.9 7065843 445 90 -60 12 NSI
SJWA0172 598524.8 7065844 445 90 -60 12 NSI
SJWA0173 598501.5 7065844 445 90 -60 12 NSI
SJWA0174 598481.1 7065843 445 90 -60 12 NSI
SJWA0175 598464.8 7065839 445 90 -60 11 NSI
SJWA0176 598445 7065840 445 90 -60 12 NSI
SJWA0177 598837.9 7065604 445 90 -60 26 NSI
SJWA0178 598819.5 7065604 445 90 -60 18 NSI

Hole Easting Northing RL Azi Dip Depth From To Interval GradeAu g/t
SJWA0179 598804.8 7065605 445 90 -60 41 NSI
SJWA0180 598779 7065603 445 90 -60 68 40 44 4 0.1
SJWA0181 598760.1 7065605 445 90 -60 47 NSI
SJWA0182 598736.5 7065603 445 90 -60 73 NSI
SJWA0183 598721 7065605 445 90 -60 80 NSI
SJWA0184 598701.9 7065605 445 90 -60 83 NSI
SJWA0185 598681.6 7065606 445 90 -60 67 44 48 4 0.8
SJWA0186 598665.8 7065602 445 90 -60 84 28 32 4 0.1
SJWA0187 598638.9 7065605 445 90 -60 95 28 32 4 0.6
SJWA0188 598620.3 7065605 445 90 -60 78 44 48 4 0.2
SJWA0189 598599.8 7065605 445 90 -60 88 NSI
SJWA0190 598579.8 7065602 445 90 -60 108 NSI
SJWA0191 598559.4 7065602 445 90 -60 107 NSI
SJWA0192 598537.4 7065603 445 90 -60 65 NSI
SJWA0193 598937.7 7065357 445 90 -60 78 NSI
SJWA0194 598922.6 7065359 445 90 -60 36 NSI
SJWA0195 598903.8 7065357 445 90 -60 32 NSI
SJWA0196 598883.7 7065359 445 90 -60 16 NSI
SJWA0197 598862.6 7065359 445 90 -60 26 NSI
SJWA0198 598844.6 7065361 445 90 -60 22 NSI
SJWA0199 598824 7065364 445 90 -60 15 NSI
SJWA0200 598801 7065363 445 90 -60 20 NSI
SJWA0201 598782.6 7065365 445 90 -60 56 NSI
SJWA0202 598762.6 7065362 445 90 -60 97 NSI
SJWA0203 598742.7 7065358 445 90 -60 77 NSI
SJWA0204 598722.1 7065356 445 90 -60 69 NSI
SJWA0205 598701.3 7065361 445 90 -60 91 NSI
SJWA0206 598685.1 7065360 445 90 -60 115 NSI
SJWA0207 598662.9 7065361 445 90 -60 55 NSI
SJWA0208 599101.4 7065119 445 90 -60 19 NSI
SJWA0209 599084.8 7065120 445 90 -60 45 NSI
SJWA0210 599062.2 7065121 445 90 -60 41 NSI
SJWA0211 599041.9 7065122 445 90 -60 54 20 28 8 0.2
SJWA0212 599021.7 7065121 445 90 -60 73 NSI
SJWA0213 599002.4 7065123 445 90 -60 60 59 60 1 0.2*
SJWA0214 598982.5 7065122 445 90 -60 33 52 53 1 0.1
SJWA0215 598961.3 7065122 445 90 -60 59 NSI
SJWA0216 598940 7065120 445 90 -60 43 NSI
SJWA0217 598921.1 7065123 445 90 -60 54 NSI
SJWA0218 598902 7065123 445 90 -60 38 NSI
SJWA0219 598880.7 7065120 445 90 -60 63 20 24 4 0.8
SJWA0220 598859 7065123 445 90 -60 80 NSI

Hole Easting Northing RL Azi Dip Depth From To Interval GradeAu g/t
SJWA0221 598840 7065122 445 90 -60 96 NSI
SJWA0222 598821 7065123 445 90 -60 109 NSI
SJWA0223 598798 7065124 445 90 -60 112 NSI
SJWA0224 598782 7065122 445 90 -60 65 NSI
SJWA0225 598358 7066560 445 90 -60 27 NSI
SJWA0226 598338 7066560 445 90 -60 52 51 52 1 0.1*
SJWA0227 598318 7066560 445 90 -60 9 0 4 4 0.4
SJWA0228 598303 7066558 445 90 -60 16 NSI

(* denotes EOH)

Dorothy RC Drilling

Hole Easting Northing RL Azi Dip. Depth From To Interval GradeAu g/t
SJWC0001 598235 7068955 460 90 -60 136 NSI
SJWC0002 598255 7068930 460 90 -60 119 NSI
SJWC0003 598260 7068905 460 90 -60 119 NSI
SJWC0004 598235 7068910 460 90 -60 125 NSI
SJWC0005 598227 7068980 460 90 -60 119 92 96 4 6.8
and 100 104 4 1
and 108 112 4 1.6

The following Tables are provided to ensure compliance with the JORC code (2012) edition requirements for the reporting of exploration results.

SECTION 1: SAMPLING TECHNIQUES AND DATA – JILLEWARRA

Criteria JORC Code explanation Commentary
Sampling techniques Drilling on the Jillewarra by S2 comprises 5 RC drill holes and228 aircore drill holes, completed by Strike Drilling, based outof Perth.
Nature and quality of sampling (e.g. cut channels,random chips, or specific specialised industrystandard measurement tools appropriate to theminerals under investigation, such as down hole Sampling of the RC includes 1 metre split samples using anonboard cone splitter through zones of interest, with 4 metrespear composites taken through the remainder of the drillholes.
gamma sondes, or handheld XRF instruments, etc).These examples should not be taken as limiting thebroad meaning of sampling. All RC samples have been forwarded for analyses byMinanalytical Laboratories Services Australia Pty Ltd in Perth.
Aircore sampling has been carried out using nominal 4 metrecomposite samples with a bottom of hole 1 metre samplecollected using a spear.
All aircore samples have been forwarded for analyses byIntertek Genalysis in Perth.

Criteria JORC Code explanation Commentary
Include reference to measures taken to ensuresample representivity and the appropriatecalibration of any measurement tools or systemsused Sampling and QAQC procedures are carried out using S2protocols as per industry best practice.
Aspects of the determination of mineralisationthat are Material to the Public Report. In caseswhere 'industry standard' work has been done thiswould be relatively simple (e.g. 'reverse circulationdrilling was used to obtain 1 m samples fromwhich 3 kg was pulverised to produce a 30 gcharge for fire assay'). In other cases moreexplanation may be required, such as where thereis coarse gold that has inherent samplingproblems. Unusual commodities or mineralisationtypes (e.g. submarine nodules) may warrantdisclosure of detailed information The RC drilling sampled either on 1 metre intervals using anonboard cone splitter, or 4 metre spear samples to give sampleweights under 3 kg. Samples were crushed, dried andpulverised (total prep) to produce a sub sample for analysis by50gram fire assay and four acid digest with an ICP/OES andICP/MSThe aircore drilling has been sampled using 4 metre compositespear sample and assayed using a 25gram aqua regia digest. Asingle metre bottom-of-hole sample has also been collectedand assayed by 50g fire assay and four acid digest with anICP/OES and ICP/MS finish
Drilling techniques Drill type (e.g. core, reverse circulation, open-holehammer, rotary air blast, auger, Bangka, sonic,etc) and details (e.g. core diameter, triple orstandard tube, depth of diamond tails, facesampling bit or other type, whether core isoriented and if so, by what method, etc). RC drilling was completed utilising a 5 ¼ to 5 ¾ inch facesampling bit.Aircore drilling was completed utilizing a 4 ½ inch tungstentipped blade.
Drill sample recovery Method of recording and assessing core and chipsample recoveries and results assessed Qualitative sample recoveries have been recorded for eachmetre
Measures taken to maximise sample recovery andensure representative nature of the samples Use of drilling fluids have been used to maximise recoverieswhere appropriate
Whether a relationship exists between samplerecovery and grade and whether sample bias mayhave occurred due to preferential loss/gain offine/coarse material. No relationship has been seen to exist
Logging Whether core and chip samples have beengeologically and geotechnically logged to a level ofdetail to support appropriate Mineral Resourceestimation, mining studies and metallurgicalstudies. Logging of aircore and RC samples records lithology,mineralogy, mineralisation, structural (DDH only), weathering,colour and other features of the sampleslogging uses a standard legend developed by S2 which issuitable for wireframing of the basement interface.Exploration holes are not routinely geotechnically logged butresource holes are.
Whether logging is qualitative or quantitative innature. Core (or costean, channel, etc)photography. Logging is qualitative in nature
The total length and percentage of the relevantintersections logged All drillholes were logged in full to end of hole.
Sub-samplingtechniques and samplepreparation If core, whether cut or sawn and whether quarter,half or all core taken. No core drilling
If non-core, whether riffled, tube sampled, rotarysplit, etc and whether sampled wet or dry. For RC 1m samples were collected utilising a con-board conesplitter for all metres drilled
For all sample types, the nature, quality andappropriateness of the sample preparationtechnique. The sample preparation follows industry best practice in samplepreparationinvolvingovendrying,coarsecrushandpulverisation of entire sample to minimum of 85% passing -75um.

Criteria JORC Code explanation Commentary
Quality control procedures adopted for all subsampling stages to maximise representivity ofsamples. Full QAQC system in place to determine accuracy and precisionof assays
Measures taken to ensure that the sampling isrepresentative of the in situ material collected, Non-biased sampling using the orientation line as a guide forcutting with the same half used for all sampling.
including for instance results for fieldduplicate/second-half sampling. No duplicate samples have been collected at this stage
Whether sample sizes are appropriate to the grainsize of the material being sampled. The sample sizes are considered to be appropriate to correctlyrepresent the sought after mineralisation style
Quality of assay dataand laboratory tests The nature, quality and appropriateness of theassaying and laboratory procedures used and For RC samples (and bottom of hole aircore samples), fire assayand four acid digest have been sued and are consideredappropriate.
whether the technique is considered partial ortotal. Aqua regia digest has been used for the aircore drilling and isconsidered appropriate through the weathered profile.
For geophysical tools, spectrometers, handheldXRF instruments, etc, the parameters used indetermining the analysis including instrumentmake and model, reading times, calibrationsfactors applied and their derivation, etc. No geophysical tools were used to determine any elementconcentrations.
Nature of quality control procedures adopted (e.g.standards, blanks, duplicates, external laboratorychecks) and whether acceptable levels of accuracy(i.e. lack of bias) and precision have beenestablished. Full QAQC system in place including Certified Standards andblanks of appropriate matrix and levels.
Verification ofsampling and assaying The verification of significant intersections byeither independent or alternative companypersonnel. The S2 Exploration Manager has personally inspected allsampled core and assay results.
The use of twinned holes. No twinned holes were drilled within the main infilled anomaly.
Documentation of primary data, data entryprocedures, data verification, data storage(physical and electronic) protocols. Primary sampling data is collected in a set of standard Exceltemplates. The information is managed by S2's databasemanager for validation and compilation into S2's centraldatabase.
Discuss any adjustment to assay data. No adjustments made
Location of data points Accuracy and quality of surveys used to locatedrillholes (collar and down-hole surveys), trenches,mine workings and other locations used in MineralResource estimation. Drill hole collar locations were recorded using handheld GarminGPS. Elevation values were in AHD RL and values recordedwithin the database. Expected accuracy is + or – 5 m foreasting, northing and 10m for elevation coordinates.
Downhole surveys using an Axis north-seeking gyro withreadings at surface and then every 30m downhole.
Specification of the grid system used. The grid system is MGA_GDA94 (zone 50), local easting andnorthing are in MGA.
Quality and adequacy of topographic control. Topographic surface uses handheld GPS elevation data, which isadequate at the current stage of the project.
Data spacing anddistribution Data spacing for reporting of Exploration Results. Drilling to date has been on individual drill holes into a specifictarget.
Whether the data spacing and distribution issufficient to establish the degree of geological andgrade continuity appropriate for the MineralResource and Ore Reserve estimation procedure(s)and classifications applied. Data spacing, sampling technique and distribution is notsufficient at this stage to allow the estimation of mineralresources.

Criteria JORC Code explanation Commentary
Whether sample compositing has been applied. No sample compositing has been applied.
Orientation of data inrelation to geologicalstructure Whether the orientation of sampling achievesunbiased sampling of possible structures and theextent to which this is known, considering thedeposit type. Insufficient information to determine at this time.
If the relationship between the drilling orientationand the orientation of key mineralised structures isconsidered to have introduced a sampling bias,this should be assessed and reported if material. Drilling of diamond core is on a nominal 60 degrees, either gridwest or east depending on the orientation of the modelled EMplate. The orientation of drilling is broadly orthogonal to theoverall geology.
Sample security The measures taken to ensure sample security. Chain of custody is managed by S2 personnel. Drill samples andcore is visually checked at the drill rig and then transported toS2's logging and cutting facilities on site at the S2 remote camp.Bagged samples were either dropped off in person to the PethLaboratories in Perth, or delivered to the Toll depot inMeekatharra for transport to the laboratory in Perth. Sampleswere tracked until arrival at the laboratory has been confirmed.
Audits or reviews The results of any audits or reviews of samplingtechniques and data. No audits or reviews have been conducted at this stage.

Criteria JORC Code explanation Commentary
Mineral tenementand land tenurestatus The Jillewarra Project is located approximately 50km West toNorth West of Meekatharra, and situated in the Meekatharramineral field of the Murchison Province of Western Australia. Theproject is located on the Belele 250k sheet. The tenure schedulefor the project is listed below:
TENID TENSTATUS HOLDER
E 5101602 LIVE TANZI PTY LTD
E 5101603 LIVE TANZI PTY LTD
E 5101604 LIVE TANZI PTY LTD
E 5101617 LIVE BLACK RAVEN MINING PTY LTD
E 5101906 LIVE BLACK RAVEN MINING PTY LTD
E 5101915 PENDING BLACK RAVEN MINING PTY LTD
E 5101955 PENDING BLACK RAVEN MINING PTY LTD
E 5101956 PENDING BLACK RAVEN MINING PTY LTD
E 5101965 PENDING BLACK RAVEN MINING PTY LTD
E 5101966 PENDING BLACK RAVEN MINING PTY LTD
Type, reference name/number, location andownership including agreements or material M 5100270 LIVE TANZI PTY LTD
issues with third parties such as joint ventures, M 5100353 LIVE TANZI PTY LTD
partnerships, overriding royalties, native titleinterests, historical sites, wilderness or nationalpark and environmental settings. M 5100451 LIVE TANZI PTY LTD
P 5103082 LIVE BLACK RAVEN MINING PTY LTD
M 5100885 PENDING WOOD, SANDRA
P 5102696 LIVE WOOD, SANDRA
P 5102950 LIVE KING, TRENT NATHAN
Third Eye Resources has entered into an earn-in joint venture withBlack Raven Mining Pty Ltd where they are able to earn up to 70%(refer to ASX announcement dated 5 October 2020 for furtherdetails)Royalties – there are various royalties that apply to specific
tenements within the project area.The IRC royalty is a 1.5% NSR royalty that applies to E51/1602,E51/1603 and E51/1604, as well as a 49% interest in M51/270,M51/353 and M51/451.The SBM royalty comprises either a 0.5% gold royalty or a 1.0% NSR"Other Metals" (not gold) and applies to mining leases M51/270,M51/353 and M51/451.The Zebina Royalty is a 0.5% NSR on gold and other metals, payable
on tenements E51/1906 and P51/3082
The security of the tenure held at the time ofreporting along with any known impediments toobtaining a licence to operate in the area. All of the Exploration Licences are in good standing and no knownimpediments exist on the tenements being actively explored.

SECTION 2: REPORTING OF EXPLORATION RESULTS – JILLEWARRA

Criteria JORC Code explanation Commentary
Exploration done byother parties Acknowledgment and appraisal of exploration byother parties. Gold was first discovered at Chesterfield in 1901, and was minedfrom the Dorothy deposit until 1909 to a depth of 30m, and atMargueritta also until 1909 to a depth of 38m (Watkins andHickman, 1990). Production ceased due to heavy water inflows.Gold production from the Big Ben area is also listed for the period1901-1911. The Margueritta mine was reopened from 1935 to1936, and also from 1951 to 1960. However themajority of the recorded production (84%) for Margueritta is fromthe first period of production. Total historic production from theChesterfield mining centre documented was 10,134 ounces, from13,374t treated at a calculated grade of 22g/t. The high-grademineralisation is associated with quartz veins, predominantlywithin the felsic volcanic sequence.Numerous phases of exploration activity have occurred overvarious areas of the Jillewarra project since the mid 1960's, by awide range of companies including:•Mallina Mining & Exp NL (1968-1972) - Nickel•Esso Australia Ltd (1977) – Copper, Zinc•Australian Anglo American Ltd (1980-1981) - Gold•Academus Minerals NL (1969-1970) – Nickel•CSR Ltd (1983-1985) – Copper, Zinc, Gold•CRA Exploration Pty Ltd (1984-1989) - Gold•Western Mining Corp Ltd (1987-1988) - Gold•Kingsgate Consolidated NL (1986-1989) - Gold•Browns Creek Gold NL (1982-1989) - Gold•BHP Minerals (1986-1990) - Gold•Hillmin Gold Mines Pty Ltd (1983-1989) - Gold•Saunders & Associates (1982) - Gold•Homestake Australia Ltd (1991-1992) - Gold•Archaean Gold NL (1993-1995) - Gold•E. Moses (1989-1991) - Gold•CRA Exploration Pty Ltd (1992-1997) – Gold•St Barbara Mines Ltd (1990's) – Gold & Base Metals•Independence Group NL (2000's) – Gold & Base Metals•General Mining (2012 to 2018) - Gold & Base MetalsWork by S2 is ongoing to compile and where possible field verifyhistorical exploration activities.

Criteria JORC Code explanation Commentary
Geology Deposit type, geological setting and style ofmineralisation. The Jillewarra Project is situated along the Archean Mingah Rangegreenstone belt. This belt is interpreted to have a strike length of40km and 9.5km in width. At a regional scale a large southplunging antiform is evident, and a number of northwest tosoutheast trending faults cut through the area.The Mingah Range is composed of a sequence of basalt and finegrained amphibolites, felsic and intermediate volcanics, shale andsiltstones, and layered gabbroic sills. All rocks aremetamorphosed to greenschist facies, and in many casesdeformed, particularly adjacent to the major structures.The geology can be characterised by three main lithologicalgroups:1. A basal sequence of mafic to ultramafic extrusive rocks (highmg basalt, basalt and ultramafic units and minor intrusives)2. An upper sequence of a mixed package of felsic volcanics,sediments, sedimentary iron formation and minor maficvolcanics.3. Both sequences have been intruded by a series ofdifferentiated mafic-ultramafic sills that appear to havepreferentially intruded the upper volcano-sedimentary sequence.The intrusive sills are characterised by a peridotite-pyroxenitebase overlain by a thicker unit of gabbro.Known mineralisation within the project area includes numeroussmall high-grade epigenetic gold deposits within the historicalgold mining centres of Chesterfield and Wardabie, Pb-Ba veindeposits and layered ultramafic and mafic sills containinganomalous Ni and Cu values.ChesterfieldThe Chesterfield Mining Centre lies towards the southern end ofthe drag folded sequence of the Mingah Range Greenstone Beltand is associated with differentiated gabbro, amphibolite andultramafic rocks. It includes historical producers such as; Big Ben,Little Ben and Cashman's Reward to the north and Dorothy andMargueritta Mines to the south. The gold mineralisation is hostedby narrow, high grade quartz-pyrite-pyrrhotite veins which aredeveloped both parallel and discordant toenclosing rock units and are associated with peripheralstockworks hosted by carbonate altered basalts with minorintercalated shale horizons.WardabieThe Wardarbie Mining Centre is situated at the north westernend of the project area, and includes historical producers such asWardarbie and Third Brigade. Workings are hosted by talcchlorite amphibolite schists.The project is considered prospective for mesothermal lode goldmineralisation as well as polymetallic volcanogenic hostedmassive sulphide mineralisation.

Criteria JORC Code explanation Commentary
Drill hole Information A summary of all information material to theunderstanding of the exploration resultsincluding a tabulation of the followinginformation for all Material drill holes:•easting and northing of the drill holecollar•elevation or RL (Reduced Level –elevation above sea level in metres) ofthe drill hole collar•dip and azimuth of the hole•down hole length and interceptiondepth•hole length. All drilling is historical in nature verification and validation ofthese data sets are ongoing.
Data aggregationmethods In reporting Exploration Results, weightingaveraging techniques, maximum and/orminimum grade truncations (e.g. cutting of highgrades) and cut-off grades are usually Materialand should be stated. All results reported are historical in nature and cannot beenverified. Where intervals have been reported (including gram xmetre results), a cut-off grade of 1.0 g/t Au has been used with notop-cut applied.Intervals have been calculated by lengthweighting individual assays and using a nominal maximum internaldilution of 2 metres
Where aggregate intercepts incorporate shortlengths of high grade results and longer lengthsof low grade results, the procedure used for suchaggregation should be stated and some typicalexamples of such aggregations should be shownin detail. Where aggregate intercepts include individual zones of highergrade these are reported, using the same methodology as for thelarger intervals. The lower cut-off grade for the includingintervals is reported in the relevant tables
The assumptions used for any reporting of metalequivalent values should be clearly stated. No metal equivalent results have been reported
Relationship betweenmineralisation widthsand intercept lengths These relationships are particularly important inthe reporting of Exploration Results.If the geometry of the mineralisation withrespect to the drill hole angle is known, its natureshould be reported.If it is not known and only the down hole lengthsare reported, there should be a clear statementto this effect (e.g. 'down hole length, true widthnot known'). All drilling and sampling on the project are historical in nature andverification and validation of these data sets are ongoing. S2 isunable to determine any relationship at this stage and all resultsreported are downhole lengths only and true widths areunknown.
Diagram Appropriate maps and sections (with scales) andtabulations of intercepts should be included forany significant discovery being reported Theseshould include, but not be limited to a plan viewof drill hole collar locations and appropriatesectional views. Refer to Figures in body of text.
Balanced reporting Where comprehensive reporting of allExploration Results is not practicable,representative reporting of both low and highgrades and/or widths should be practiced toavoid misleading reporting of Exploration Results. All historical results considered significant are reported.
Other substantiveexploration data Other exploration data, if meaningful andmaterial, should be reported including (but notlimited to): geological observations; geophysicalsurvey results; geochemical survey results; bulksamples – size and method of treatment;metallurgical test results; bulk density,groundwater, geotechnical and rockcharacteristics; potential deleterious orcontaminating substances. Various historical moving loop electromagnetic surveys have beencarried out within the project. Interpretations of these surveyshave been reviewed by S2 and are reported where meaningful. S2has not undertaken a full detailed evaluation of the geophysicalresults to date.