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Significant Exploration Results Continue at Bald Hill
Tawana Resources NL
(Incorporated in Australia)
(Registration number ACN 085 166 721)
Share code on the JSE Limited: TAW
JSE ISIN: AU0000TAWDA9
Share code on the Australian Securities Exchange Limited: TAW
ASX ISIN: AU000000TAW7
(“the Company” or “Tawana”)
Significant Exploration Results Continue at Bald Hill
PLEASE NOTE: ALL GRAPHICS HAVE BEEN REMOVED FOR SENS PURPOSES. PLEASE REFER TO TAWANA WEBSITE FOR THE
COMPLETE ANNOUNCEMENT.
Tawana Resources NL (ASX:TAW) (“Tawana” or the “Company”) and Alliance Mineral Assets Limited (SGX: AMA)
(AMAL) are pleased to announce that extensional step-out drilling and mapping at the Bald Hill Project, in the
Eastern Goldfields region of Western Australia has significantly increased the footprint of the known lithium and
tantalum pegmatite swarm. The Bald Hill Project is a joint project between Tawana and AMAL.
Highlights - Drilling
- Eastern high-grade extension. Significant results include:
- 31m at 1.46% Li2O from 143m, including 18m at 1.88% Li2O in LRC0702;
- 35m at 1.74% Li2O from 146m including 15m at 2.11% Li2O in LRC0703.
This mineralised zone remains open to the east and south.
- Boreline South Eastern Extension. Significant results include:
- 7m at 1.38% Li2O from 113m in LRC0665;
- 6m at 1.45% Li2O from 150m LRC0675;
- 9m at 0.93% Li2O from 41m and 10m at 1.11% Li2O from 117m in LRC0677.
This mineralised zone remains open to the south.
- Initial lithium drilling at Fenceline prospect. Significant results include:
- 7m at 1.35% Li2O from 29m in LRC0672;
- 7m at 0.54% Li2O from 65m and 5m at 0.80%Li2O from 82m in LRC0674.
- Deeper pegmatite below starter pit. Significant results include:
- 7.78m at 2.46% Li2O from 234m including 2.78m at 4.27% Li2O in LDD0001;
- 6m at 2.03% Li2O from 135m in LDD0003.
Highlights – Mapping, Water Exploration Drilling
- Several outcropping lithium and tantalum pegmatites discovered SW of the Fenceline prospect.
- A single water exploration drill hole drilled on R15/001, 700m west of the starter pit, intercepted 3 spodumene
pegmatites.
Tawana Resources Managing Director Mark Calderwood stated: “With a number of significant resource targets,
the Joint Venture is considering increasing the pace of drilling in the new year. One rig will continue with infill
drilling whilst one to two rigs will work on step out drilling and testing newly discovered lithium pegmatites.
We remain on track to joining the lithium producer ranks in 1Q18.”
Recent Drilling
A further 87 Reverse Circulation drill holes totalling 12,222m and 7 core holes totalling 750m were completed between
2 August and 4 October 2017. Of these 94 holes drilled, only 20 were completed in time to be included in the October
Resource Estimate (Refer ASX Release 11 October 2017). Recent intercepts are summarised in Tables 3, 4 and 5 in
Appendix A.
Areas of focus for recent drilling were:
- Eastern high-grade extension, six holes completed. Significant results include:
- 17m at 0.93% Li2O from 119m in LRC0685;
- 19m at 0.98% Li2O from 156m, including 9m at 1.26% Li2O in LRC0701;
- 31m at 1.46% Li2O from 143m, including 18m at 1.88% Li2O in LRC0702;
- 35m at 1.74% Li2O from 146m including 15m at 2.11% Li2O in LRC0703.
This mineralised zone remains open to the east and south.
- Boreline South Eastern Extension, eight holes completed. Significant results include:
- 7m at 1.38% Li2O from 113m in LRC0665;
- 6m at 1.45% Li2O from 150m LRC0675;
- 9m at 0.93% Li2O from 41m and 10m at 1.11% Li2O from 117m in LRC0677.
This mineralised zone remains open to the south.
- Initial lithium drilling at Fenceline prospect, four holes completed. Significant results include:
- 7m at 1.35% Li2O from 29m in LRC0672;
- 7m at 0.54% Li2O from 65m and 5m at 0.80%Li2O from 82m in LRC0674.
- Deeper pegmatite below starter pit, two prior holes partly assayed. Significant new results include:
- 7.78m at 2.46% Li2O from 234m including 2.78m at 4.27% Li2O in LDD0001;
- 6m at 2.03% Li2O from 135m in LDD0003.
- Notable intercepts from Resource Infill drilling not included in the October Resource Estimate include:
- 23m at 1.31% Li2O from 115m in LRC0494;
- 11m at 2.01% Li2O from 132m followed by 10m at 1.00% Li2O from 146m in LRC0495;
- 28m at 1.48% Li2O from 110m including 12m at 2.04% Li2O from 124m in LRC0499;
- 22m at 1.03% Li2O from 83m in LRC0500;
- 29m at 0.90% Li2O from 105m followed by 11m at 1.35% Li2O from 133m in LRC0636;
- 14m at 1.59% Li2O from 133m including 7m at 2.03% Li2O from 138m in LRC0637;
- 31m at 1.50% Li2O from 134m in LRC0638;
- 11m at 1.72% Li2O from 40m and 12m at 1.17% Li2O from 80m in LRC0640;
- 14m at 1.56% Li2O and 296ppm Ta2O5 from 63m including 6m at 2.93% Li2O in LRC0695.
Exploration has recently focused on initial grade control, water bore installation and water exploration drilling. A
recently completed water exploration hole (LRC0706) drilled 700m west of the current proposed starter pit (refer Figure
2) intercepted four pegmatites at shallow depths, three of which contained visible spodumene; 23-25m - moderate
spodumene; 27-31m - high spodumene; and 43-49m - moderate spodumene.
Mapping and Sampling
Outcrop mapping and sampling has been undertaken on R15/01. Several outcropping spodumene and tantalum
pegmatites have been located highlighting the potential, at depth, for the more important sub-horizontal pegmatites.
A total of 75 rock chip and channel samples were collected over a wide area of which 54 contained visual spodumene
or anomalous lithium, tantalum or tin. Refer Table 1.
Table 1| Surface Rock Chip and Channel Sampling Results
Sample Sample
Sample ID Easting Northing Anomalous Cs2O Li2O Rb2O Ta2O5 Nb2O5 SnO2
Material Method
BHRK0001 420810 6510139 OC CHIP Ta
178 43 3,273 192 64 17
BHRK0002 420790 6510154 OC CHIP Ta <20
113 2,342 305 79 41
BHRK0003 420741 6510233 OC CHIP Ta
110 22 2,222 277 64 11
BHRK0004 420541 6509773 OC CHIP
225 22 5,175 110 29 27
BHRK0005 420600 6509795 OC CHIP <20
104 3,340 46 64 18
BHRK0006 420845 6512205 SC CHIP Ta
86 86 1,712 359 107 155
BHRK0007 420844 6512233 SC CHIP Ta
65 129 1,225 199 143 46
BHRK0008 420856 6512152 SC CHIP Ta
38 86 734 253 100 58
BHRK0009 420872 6512107 SC CHIP Ta
70 108 1,096 315 122 84
BHRK0010 420709 6511857 SC CHIP Ta, Sn <20
46 331 324 93 401
BHRK0011 420706 6511866 SC CHIP Ta
66 43 696 304 72 99
BHRK0012 420683 6511878 SC CHIP Ta, Sn
523 172 3,783 1,243 129 419
BHRK0052 419882 6509722 OC CHNL Ta, Sn
53 65 870 212 114 359
BHRK0053 419958 6509535 OC CHIP Li
126 4,952 2,232 44 64 123
BHRK0054 420565 6510503 SC CHIP Ta <20
187 3,378 326 200 79
BHRK0057 420071 6509928 SC CHIP Ta
55 43 645 199 79 36
BHRK0061 419985 6510005 OC CHNL Sn
28 43 571 96 93 424
BHRK0063 419936 6510059 OC CHNL Ta
124 43 2,126 372 143 94
BHRK0064 419921 6510097 OC CHNL Ta <20
152 2,482 233 93 99
BHRK0066 419833 6509954 OC CHNL Sn
103 22 1,757 127 114 404
BHRK0067 419857 6509849 OC CHNL Sn
85 108 1,332 114 93 453
BHRK0068 419759 6509798 SC CHIP Li, Sn
36 20,303 560 81 136 269
BHRK0069 419758 6509825 SC CHIP Li
91 14,511 1,454 70 114 207
BHRK0070 419733 6509935 SC CHIP Li, Sn
66 15,609 1,954 49 107 413
BHRK0071 419683 6510060 OC CHNL Li, Sn
32 4,995 735 49 79 321
BHRK0072 419686 6510076 OC CHNL
77 129 2,475 61 79 226
BHRK0074 420046 6509393 OC CHIP Li, Sn
46 7,815 729 54 86 250
Sample Sample
Sample ID Easting Northing Anomalous Cs2O Li2O Rb2O Ta2O5 Nb2O5 SnO2
Material Method
BHRK0075 420069 6509357 OC CHNL Li, Sn
83 14,683 1,163 53 100 363
BHRK0078 420151 6509143 OC CHNL Sn
30 65 945 48 50 278
BHRK0081 420499 6509589 OC CHIP Ta <20
12 138 239 107 14
BHRK0083 420983 6511676 SC CHIP Ta
41 86 387 222 86 56
BHRK0084 420930 6511673 SC CHIP Ta
45 86 340 333 79 169
BHRK0085 420904 6511681 OC CHIP Ta
100 65 892 680 79 154
BHRK0087 420901 6511500 FT GRAB Ta, Cs
907 560 9,164 230 29 122
BHRK0088 420914 6511336 OC CHIP Ta, Sn
101 172 1,067 1,082 129 859
BHRK0089 420955 6511260 SC CHIP Sn
248 108 3,356 168 72 260
BHRK0090 420843 6511014 OC CHIP Li, Sn
230 9,322 1,900 116 122 724
BHRK0091 420837 6511095 SC CHIP Ta, Sn
32 86 579 187 129 537
BHRK0092 420837 6511045 SC CHIP Sn
263 108 4,344 122 100 456
BHRK0093 420814 6511000 SC CHIP Li
273 9,968 3,091 67 72 147
BHRK0094 420653 6511678 SC CHIP Ta
85 108 705 591 100 211
BHRK0095 420672 6511573 SC CHIP Ta, Sn
111 517 1,178 670 143 649
BHRK0096 420624 6511662 SC CHIP Ta, Sn
235 151 2,155 630 114 330
BHRK0097 420476 6511672 SC CHIP Ta
43 43 510 377 122 152
BHRK0099 420482 6511211 OC CHIP Ta
154 86 2,886 217 179 191
BHRK0204 421125 6509832 FT GRAB Li
236 11,583 1,989 4 7 51
BHRK0206 421225 6509984 OC CHIP Ta
135 43 2,440 258 114 70
BHRK0207 421462 6509995 OC CHIP Ta
24 65 307 592 150 15
BHRK0208 421556 6510008 OC CHIP Ta
53 86 982 437 272 189
BHRK0209 421665 6510662 SC CHIP Li
46 8,547 1,450 138 143 72
OC CHIP Li
P51 421821 6510441 30 16,737 689 46 142 65
OC CHIP Li
P52 421824 6510409 58 20,968 769 61 102 64
OC CHIP Li
P53 421592 6510302 43 24,040 1,143 62 114 194
OC CHIP Li, Sn
P54 421601 6510204 85 17,635 2,410 88 136 295
Notes : OC = outcrop, SC = sub-outcrop, FT = float,
CHIP = chip sample, CHNL = channel sample, GRAB = grab sample.
Samples BHRK0004, 0005 and 0072 contained visible weathered spodumene however were not analytically anomalous.
Competent Persons Statement
The information in this news release that relates to Exploration Results is based on and fairly represents information and supporting
documentation compiled by Mr Mark Calderwood and Mr Gareth Reynolds, both employees of Tawana Resources NL (“Tawana”). Mr
Calderwood is a member of The Australasian Institute of Mining and Metallurgy and Mr Reynolds is a member of the Australian Institute
of Geoscientists. Mr Calderwood and Mr Reynolds have sufficient experience relevant to the style of mineralisation under consideration
and to the activity which they are undertaking to qualify as a Competent Person as defined in the 2012 edition of the “Australasian Code
for Reporting of Exploration Results, Mineral Resources and Ore Reserves”. Mr Calderwood and Mr Reynolds consent to the inclusion in
this report of the matters based on their information in the form and context in which it appears. Mr Calderwood and Mr Reynolds meet
the requirements to act as a Qualified Person (as defined in the SGX Catalist rules).
Mr Calderwood is a significant shareholder in Tawana. Mr Calderwood and Tawana do not consider these to constitute a potential conflict
of interest to his role as Competent Person. Mr Calderwood is not aware of any other relationship with Tawana which could constitute a
potential for a conflict of interest.
Mr Reynolds is an employee of Tawana. Mr Reynolds is not aware of any other relationship with Tawana which could constitute a potential
for a conflict of interest.
Forward Looking Statement
This report may contain certain forward looking statements and projections regarding estimated, resources and reserves; planned
production and operating costs profiles; planned capital requirements; and planned strategies and corporate objectives. Such forward
looking statements/projections are estimates for discussion purposes only and should not be relied upon as representation or warranty,
express or implied, of Tawana Resources NL and/or Alliance Mineral Assets Limited. They are not guarantees of future performance and
involve known and unknown risks, uncertainties and other factors many of which are beyond the control of Tawana Resources NL and/or
Alliance Mineral Assets Limited. The forward looking statements/projections are inherently uncertain and may therefore differ materially
from results ultimately achieved.
Tawana Resources NL and/or Alliance Mineral Assets Limited does not make any representations and provides no warranties concerning
the accuracy of the projections, and disclaims any obligation to update or revise any forward looking statements/projects based on new
information, future events or otherwise except to the extent required by applicable laws. While the information contained in this report
has been prepared in good faith, neither Tawana Resources NL and/or Alliance Mineral Assets Limited or any of their directors, officers,
agents, employees or advisors give any representation or warranty, express or implied, as to the fairness, accuracy, completeness or
correctness of the information, opinions and conclusions contained in this presentation. Accordingly, to the maximum extent permitted
by law, none of Tawana Resources NL and/or Alliance Mineral Assets Limited, their directors, employees or agents, advisers, nor any
other person accepts any liability whether direct or indirect, express or limited, contractual, tortuous, statutory or otherwise, in respect
of, the accuracy or completeness of the information or for any of the opinions contained in this announcement or for any errors, omissions
or misstatements or for any loss, howsoever arising, from the use of this announcement.
06 December 2017
Sponsor
PricewaterhouseCoopers Corporate Finance (Pty) Ltd
Appendix A
Table 2 | Drill Summary, Infill and Exploration Holes with Pegmatite Intercepts
Easting Northing RL Depth From To Width Pegmatite
Hole ID Azm Dec. Type
m m m m m m m Type
LRC0487 422137 6512003 277 110 90 -60 RC 48 57 9 Li, Ta
87 102 15 Li, Ta
LRC0488 422222 6512001 277 164 90 -60 RC 6 7 1 Ta
54 57 3 Li, Ta
115 133 18 Li, Ta
LRC0489 422161 6512079 278 102 0 -90 RC 29 34 5 Ta
72 84 12 Li, Ta
LRC0490 422194 6512079 278 102 0 -90 RC 40 43 3 Li, Ta
71 79 8 Li, Ta
LRC0491 422240 6512079 278 138 0 -90 RC 40 42 2 Ta
63 75 12 Li
78 85 7 Li, Ta
LRC0492 422279 6512080 279 150 0 -90 RC 38 40 2 Ta
67 71 4 Ta
82 87 5 Li
98 106 8 Li, Ta
113 125 12 barren
126 127 1 Ta
LRC0493 422321 6512079 279 144 0 -90 RC 44 47 3 Ta
104 116 12 Li, Ta
LRC0494 422360 6512079 279 162 0 -90 RC 49 51 2 Ta
95 97 2 Ta
103 105 2 Ta
106 112 6 Li, Ta
113 123 10 Li, Ta
125 145 20 Li, Ta
LRC0495 422402 6512079 279 174 0 -90 RC 70 71 1 Ta
131 156 25 Li, Ta
LRC0496 422039 6512122 279 116 90 -60 RC 41 51 10 Li, Ta
80 95 15 Li, Ta
LRC0497 422120 6512120 279 134 90 -60 RC 17 26 9 Li, Ta
44 45 1 Ta
86 97 11 Li, Ta
LRC0498 422201 6512121 279 164 90 -60 RC 23 25 2 Ta
83 89 6 Li, Ta
119 120 1 Li
122 134 12 Li, Ta
142 153 11 Li, Ta
LRC0499 422362 6512121 280 152 270 -80 RC 36 40 4 Ta
101 102 1 Ta
109 138 29 Li
LRC0500 422002 6512161 280 116 90 -60 RC 82 106 24 Li, Ta
LRC0597 422080 6512165 280 86 0 -90 RC 32 40 8 Li, Ta
62 67 5 Li, Ta
LRC0598 422117 6512162 280 80 0 -90 RC 19 25 6 Li, Ta
48 67 19 Li, Ta
LRC0599 422161 6512158 280 92 0 -90 RC 43 49 6 Li, Ta
71 80 9 Li
LRC0600 422200 6512158 280 104 0 -90 RC 17 19 2 Ta
36 39 3 Ta
68 77 9 Li
85 87 2 Li
LRC0622 421920 6512081 278 180 90 -60 RC 93 96 3 Ta
124 126 2 Ta
127 128 1 Li
149 161 12 Ta
173 175 2 Li, Ta
LRC0623 421840 6512080 278 180 90 -60 RC 157 168 11 Li, Ta
Easting Northing RL Depth From To Width Pegmatite
Hole ID Azm Dec. Type
m m m m m m m Type
169 172 3 Ta
LRC0624 421759 6512079 279 169 90 -60 RC 7 10 3 Ta
119 131 12 Li, Ta
136 153 17 Li, Ta
156 161 5 Li, Ta
LRC0625 421682 6512077 280 193 90 -60 RC 26 30 4 Ta
67 69 2 Ta
111 115 4 Li, Ta
133 150 17 Li, Ta
170 178 8 Li, Ta
LRC0626 421599 6512075 282 204 90 -60 RC 57 60 3 Ta
112 129 17 Li, Ta
141 163 22 Li, Ta
188 194 6 Li, Ta
LRC0627 421878 6512040 278 199 90 -60 RC 110 117 7 Ta
146 150 4 Ta
153 161 8 Li, Ta
182 189 7 Ta
197 198 1 Ta
LRC0628 421797 6512040 278 163 90 -60 RC 117 120 3 Ta
131 151 20 Li, Ta
LRC0629 421720 6512040 279 187 90 -60 RC 134 141 7 Li, Ta
160 180 20 Li, Ta
181 182 1 Li
LRC0630 421638 6512041 282 175 90 -60 RC 44 45 1 Ta
76 77 1 Ta
78 79 1 Ta
115 125 10 Li, Ta
133 144 11 Li, Ta
150 164 14 Li, Ta
LRC0632 422140 6512317 286 49 0 -90 RC 0 4 4 Ta
34 43 9 Li, Ta
LRC0633 422047 6512282 283 126 90 -60 RC 27 28 1 Ta
46 56 10 Li, Ta
79 95 16 Li, Ta
LRC0634 422249 6512158 280 158 0 -90 RC 23 26 3 Ta
68 72 4 Li
86 120 34 Li, Ta
LRC0635 422283 6512158 280 140 0 -90 RC 25 32 7 Ta
49 55 6 Ta
57 60 3 Li
70 74 4 Li
104 121 17 Li
LRC0636 422324 6512159 280 164 0 -90 RC 34 37 3 Ta
104 147 43 Li
151 154 3 Li, Ta
LRC0637 422357 6512158 281 176 0 -90 RC 23 27 4 Ta
132 148 16 Li
LRC0638 422404 6512160 280 182 0 -90 RC 134 165 31 Li
LRC0639 422047 6512204 281 110 90 -60 RC 36 37 1 Ta
40 47 7 Li, Ta
48 49 1 Ta
63 74 11 Ta
102 104 2 Ta
LRC0640 422126 6512197 281 110 90 -60 RC 39 54 15 Li, Ta
55 56 1 Ta
70 72 2 Li
74 76 2 Li, Ta
80 92 12 Li
LRC0641 422242 6512199 281 140 90 -80 RC 65 110 45 Li, Ta
111 112 1 Li
113 122 9 Li
Easting Northing RL Depth From To Width Pegmatite
Hole ID Azm Dec. Type
m m m m m m m Type
LRC0642 422360 6512198 282 170 0 -90 RC 15 19 4 Ta
134 158 24 Li
LRC0643 422041 6512238 282 122 0 -90 RC 74 93 19 Li, Ta
LRC0644 422087 6512239 281 104 0 -90 RC 55 59 4 Ta
LRC0645 422123 6512245 283 86 0 -90 RC 23 32 9 Ta
54 69 15 Li, Ta
LRC0646 422163 6512241 282 98 0 -90 RC 31 39 8 Li, Ta
62 76 14 Li, Ta
LRC0647 422207 6512240 282 116 0 -90 RC 16 18 2 Ta
43 53 10 Ta
72 77 5 barren
88 95 7 Ta
LRC0648 422240 6512239 283 134 0 -90 RC 10 15 5 Ta
45 61 16 Li, Ta
101 113 12 Ta
LRC0649 422397 6512239 282 194 0 -90 RC 160 182 22 Li, Ta
LRC0650 422357 6512241 283 170 0 -90 RC 18 22 4 Ta
129 158 29 Li, Ta
LRC0665 422674 6511520 272 180 0 -90 RC 104 106 2 Ta
112 121 9 Li, Ta
LRC0667 422675 6511361 271 180 0 -90 RC 94 96 2 Ta
97 112 15 Li, Ta
121 122 1 Li
132 151 19 Ta
157 160 3 Li, Ta
LRC0670 421840 6510280 269 162 90 -60 RC 27 30 3 Ta
LRC0671 420758 6510601 274 162 0 -90 RC 0 12 12 Ta
27 31 4 Ta
LRC0672 420678 6510598 275 84 0 -90 RC 27 38 11 Li, Ta
51 55 4 Li
LRC0674 420598 6510598 275 114 0 -90 RC 65 73 8 Li
82 89 7 Li
LRC0675 422679 6511199 271 252 0 -90 RC 147 167 20 Li, Ta
178 181 3 Li
187 193 6 Ta
216 220 4 Ta
234 244 10 Li, Ta
LRC0677 422517 6511279 272 144 0 -90 RC 41 53 12 Li
71 73 2 Ta
113 131 18 Li, Ta
LRC0678 422835 6511360 271 244 0 -90 RC 204 212 8 Li, Ta
217 222 5 Li, Ta
LRC0679 422114 6512039 277 110 90 -60 RC 26 39 13 Li, Ta
87 100 13 Li, Ta
LRC0680 422205 6512040 277 140 90 -60 RC 49 50 1 Ta
81 95 14 Li, Ta
97 100 3 Ta
110 121 11 Li, Ta
LRC0681 422071 6512002 277 128 90 -60 RC 54 65 11 Li, Ta
84 113 29 Li, Ta
LRC0682 422123 6511963 276 122 0 -90 RC 47 51 4 Ta
73 91 18 Li, Ta
LRC0683 422199 6511962 276 122 0 -90 RC 43 46 3 Ta
83 102 19 Li
LRC0684 422280 6511961 277 140 0 -90 RC 54 58 4 Ta
68 69 1 Li
71 73 2 Li
101 116 15 Li, Ta
LRC0685 422358 6511960 277 164 0 -90 RC 63 66 3 Ta
119 138 19 Li, Ta
LRC0686 422438 6511957 278 218 0 -90 RC 66 69 3 Ta
145 200 55 Li
Easting Northing RL Depth From To Width Pegmatite
Hole ID Azm Dec. Type
m m m m m m m Type
LRC0691 421642 6512843 288 86 90 -60 RC 61 75 14 Li, Ta
LRC0692 421603 6512841 287 86 90 -60 RC 61 72 11 Li, Ta
LRC0693 421562 6512841 287 98 90 -60 RC 77 85 8 Li, Ta
LRC0694 421523 6512839 286 98 90 -60 RC 7 9 2 Ta
82 87 5 Ta
LRC0695 421605 6512804 287 92 90 -60 RC 2 5 3 Ta
62 77 15 Li, Ta
LRC0696 421520 6512802 286 113 90 -60 RC 15 16 1 Ta
25 26 1 Ta
82 83 1 Ta
88 100 12 Li, Ta
LRC0697 421642 6512760 288 92 90 -60 RC 56 59 3 Ta
69 80 11 Li, Ta
LRC0698 421600 6512768 287 93 90 -60 RC 74 85 11 Li, Ta
89 94 5 Li, Ta
LRC0699 421559 6512768 286 122 90 -60 RC 16 19 3 Ta
83 93 10 Li, Ta
100 107 7 Li, Ta
LRC0700 421522 6512760 286 122 90 -60 RC 27 29 2 Ta
86 102 16 Li, Ta
LRC0701 422442 6512157 279 198 0 -90 RC 155 175 20 Li
LRC0702 422443 6512120 279 183 0 -90 RC 81 83 2 Ta
143 177 34 Li
LRC0703 422440 6512077 279 199 0 -90 RC 74 75 1 Ta
146 183 37 Li, Ta
LRC0704 422441 6512239 280 234 0 -90 RC 69 70 1 Ta
155 156 1 Li
159 160 1 Li
174 178 4 Li, Ta
190 207 17 Li, Ta
LDD0001 421749 6512322 284 245.9 270 -60 DD Met 232.75 241.78 9.03 Li
LDD0003 421880 6512400 286 150.4 90 -60 DD Met 113 114.91 1.91 Ta
132.84 142.37 9.53 Li, Ta
LDD0007 421820 6512559 297 84 85 -60 DD 60.16 72.23 12.07 Li, Ta
LDD0008 421817 6512800 291 42.4 87 -60 DD 24.95 32.64 7.69 Li, Ta
LDD0009 421797 6512301 283 111.4 295 -60 DD GeoTech 84 90.53 6.53 Ta
91 94.83 3.83 Ta
LDD0010 422066 6512351 285 109.9 60 -60 DD GeoTech 62.22 64.3 2.08 Ta
76.14 82.87 6.73 Li, Ta
87.88 90.22 2.34 Li
LDD0011 422049 6512260 282 110 135 -60 DD GeoTech 74.68 76.35 1.67 barren
LDD0012 421835 6512148 279 152 160 -60 DD GeoTech 125.85 128.23 2.38 Li, Ta
128.56 140.5 11.94 Li, Ta
LDD0013 421678 6512234 283 140 295 -60 DD Geotech 57.19 59.01 1.82 barren
71.81 73.46 1.65 barren
126.45 128.3 1.85 Li, Ta
129.15 132.62 3.47 Li, Ta
LRCD0041 421598 6512199 282 297.15 90 -60 RC/DD 259.13 265.35 6.22 Li, Ta
281.08 283.5 2.42 Ta
291.65 294.5 2.85 Li, Ta
Notes 1) The true width of pegmatites are generally considered 80-95% of the intercept width.
2) Only pegmatite intercepts of 1m or more in width are included.
Table 3 | Significant Exploration Drill Intercepts
From To Interval Li2O Ta2O5 Nb2O5 SnO2
Hole ID
m m m % ppm ppm ppm
LDD0001 234 241.78 7.78 2.46 49 64 220
incl 239 241.78 2.78 4.27 32 20 276
LDD0003 113 114.91 1.91 0.06 336 115 118
135 141 6 2.03 137 63 183
LRC0665 104 105 1 0.15 159 36 1914
113 120 7 1.38 97 102 61
120 121 1 0.09 306 122 156
LRC0667 95 96 1 0.19 236 64 94
98 112 14 0.56 80 91 74
incl 107 108 1 1.66 81 143 56
121 122 1 0.42 4 -5 58
143 144 1 0.03 187 279 47
157 158 1 0.35 7 7 117
158 159 1 0.12 182 64 116
LRC0670 27 28 1 0.12 193 186 62
LRC0671 2 3 1 0.02 327 301 248
28 29 1 0.04 385 150 370
LRC0672 29 36 7 1.35 108 118 143
52 54 2 0.47 49 79 102
LRC0674 65 72 7 0.54 56 86 83
82 87 5 0.80 70 104 78
incl 86 87 1 1.59 107 193 99
LRC0675 147 167 20 0.77 70 85 99
incl 150 156 6 1.74 88 128 71
179 180 1 0.36 125 93 51
188 190 2 0.07 411 154 108
217 218 1 0.02 247 79 22
235 237 2 1.29 52 65 32
incl 236 237 1 2.27 76 93 37
237 238 1 0.16 330 122 22
LRC0677 41 50 9 0.93 63 62 81
incl 43 46 3 1.89 46 79 63
71 72 1 0.07 370 343 131
114 115 1 0.09 155 79 93
117 127 10 1.11 84 67 80
124 127 3 1.75 64 64 113
127 128 1 0.27 171 86 102
LRC0678 204 205 1 0.04 181 122 36
205 207 2 0.71 89 100 41
211 212 1 0.32 9 7 116
217 219 2 0.78 81 61 96
219 220 1 0.15 287 93 117
LRC0685 119 136 17 0.93 93 89 60
LRC0686 67 68 1 0.05 231 86 93
147 156 9 0.99 81 110 63
160 161 1 0.45 57 79 156
195 197 2 0.23 183 165 82
199 200 1 0.39 85 72 103
LRC0692 61 62 1 0.06 554 114 257
62 69 7 1.29 456 206 240
incl 63 64 1 3.10 84 50 258
From To Interval Li2O Ta2O5 Nb2O5 SnO2
Hole ID
m m m % ppm ppm ppm
and 66 68 2 1.20 1255 547 379
70 71 1 0.05 194 79 472
LRC0693 77 81 4 0.83 164 95 313
82 85 3 0.09 405 150 822
LRC0694 7 8 1 0.09 198 43 146
85 86 1 0.02 415 207 413
LRC0696 15 16 1 0.11 155 36 70
25 26 1 0.08 203 43 311
82 83 1 0.21 672 229 216
89 97 8 1.36 74 50 189
incl 92 94 2 2.95 56 61 151
99 100 1 0.07 233 64 122
LRC0700 27 28 1 0.11 171 79 269
87 88 1 0.19 173 86 237
88 90 2 0.35 42 32 290
91 92 1 0.09 204 86 175
96 98 2 1.42 221 118 409
99 100 1 0.14 166 50 1057
LRC0701 156 175 19 0.98 83 91 48
incl 157 166 9 1.26 76 79 46
LRC0702 81 82 1 0.06 159 21 58
143 174 31 1.46 56 65 54
incl 148 166 18 1.88 46 68 55
LRC0703 74 75 1 0.05 288 36 71
146 181 35 1.74 35 84 63
incl 156 171 15 2.11 48 79 46
LRC0704 69 70 1 0.04 204 29 113
155 156 1 0.44 2 7 44
159 160 1 0.47 2 7 22
175 176 1 0.09 223 100 98
176 177 1 0.34 42 29 97
191 197 6 0.83 78 97 56
205 206 1 0.15 181 64 62
Note: Only intercepts of 0.3% Li2O or 150ppm Ta2O5 considered significant.
Table 4 | Significant Infill Drill Intercepts for Drill Holes Included in Current Resource
From To Interval Li2O Ta2O5 Nb2O5 SnO2
Hole ID
m m m % ppm ppm ppm
LRC0487 49 57 8 0.21 231 60 101
87 101 14 1.38 130 66 129
incl 91 98 7 2.15 143 65 104
LRC0624 120 129 9 0.76 310 122 134
incl 122 123 1 0.34 1134 322 212
137 149 12 0.86 105 91 98
LRC0626 112 125 13 0.87 181 92 94
incl 117 122 5 1.52 178 109 102
151 162 11 0.78 292 148 105
and 156 157 1 1.35 1149 601 151
LRC0628 132 149 17 0.82 163 90 95
incl 135 144 9 1.05 175 91 113
LRC0629 137 141 4 0.63 342 122 200
160 173 13 1.26 193 110 112
incl 161 170 9 1.58 200 114 114
LRC0679 27 35 8 1.21 165 81 113
incl 27 32 5 1.51 129 82 135
35 38 3 0.03 726 160 133
incl 37 38 1 0.05 1210 172 258
87 98 11 1.34 201 101 124
incl 93 96 3 2.26 329 150 133
LRC0681 55 64 9 0.76 542 143 122
incl 56 59 3 2.02 827 219 160
and 60 61 1 0.05 1234 229 72
86 109 23 1.58 193 99 120
incl 86 87 1 0.51 1021 429 249
and 88 92 4 2.14 148 102 134
and 95 105 10 1.99 187 83 130
Note: Only intercepts of greater than 5.0m% Li2O or 2000 mppm Ta2O5 considered significant.
Table 5 | Significant Infill Drill Intercepts for Drill Holes Completed since the Last Resource
From To Interval Li2O Ta2O5 Nb2O5 SnO2
Hole ID
m m m % ppm ppm ppm
m m m % ppm ppm ppm
LDD0007 61 69 8 1.48 360 168 186
incl 61 65 4 2.26 209 86 219
67 70 3 0.36 739 327 189
LRC0489 29 34 5 0.07 340 92 105
72 83 11 0.90 142 102 70
incl. 79 83 4 1.71 91 90 78
LRC0492 67 71 4 0.09 978 978 67
incl 68 69 1 0.07 3083 3277 58
LRC0493 104 114 10 1.32 67 89 54
incl 105 110 5 2.07 74 103 66
LRC0494 115 138 23 1.31 92 108 78
incl 116 122 6 2.19 76 111 105
LRC0495 132 143 11 2.01 57 87 49
146 156 10 1.00 111 85 49
LRC0497 17 26 9 0.64 244 90 117
86 92 6 1.21 122 76 93
From To Interval Li2O Ta2O5 Nb2O5 SnO2
Hole ID
m m m % ppm ppm ppm
LRC0499 110 138 28 1.48 70 79 58
incl 124 136 12 2.04 72 86 66
LRC0500 83 105 22 1.03 114 81 89
incl 92 100 8 2.00 77 85 77
LRC0600 68 77 9 1.24 70 65 115
68 71 3 2.61 48 57 85
LRC0634 108 110 2 0.10 893 312 153
incl 108 109 1 0.09 1548 487 203
LRC0636 105 130 25 0.90 65 77 64
incl 105 123 18 1.10 67 87 49
133 144 11 1.35 75 84 62
incl 138 143 5 2.13 66 83 82
LRC0637 133 147 14 1.59 70 79 59
incl 138 145 7 2.03 72 86 62
LRC0638 134 165 31 1.50 78 74 56
incl 136 139 3 2.64 55 81 63
and 143 151 8 1.90 61 89 50
and 156 160 4 2.42 105 91 70
LRC0640 40 51 11 1.72 213 72 93
incl 40 47 7 2.16 263 74 109
51 53 2 0.05 513 97 118
80 92 12 1.17 57 60 86
and 87 90 3 2.00 59 69 100
LRC0642 134 156 22 0.87 73 89 48
incl 141 150 9 1.24 68 88 50
LRC0643 74 85 11 0.75 279 165 106
incl 75 77 2 1.58 626 179 220
LRC0647 88 94 6 0.02 637 161 62
incl 91 93 2 0.02 1255 258 95
LRC0649 160 179 19 1.20 80 83 54
LRC0650 129 145 16 1.00 50 60 109
incl 137 145 8 1.34 60 88 53
LRC0682 47 50 3 0.05 1011 198 107
incl 48 49 1 0.02 2241 415 124
73 87 14 1.38 149 91 105
incl 74 77 3 2.71 344 146 182
LRC0683 83 100 17 1.14 85 80 78
incl 90 95 5 1.92 110 94 103
LRC0695 63 77 14 1.56 296 152 235
incl 63 69 6 2.93 231 197 232
LRC0697 69 80 11 1.26 223 98 369
incl 72 75 3 3.22 160 122 300
Note: Only intercepts of greater than 5.0m% Li2O or 2000 mppm Ta2O5 considered significant.
Appendix B
Section 1 Sampling Techniques and Data
Criteria JORC Code Explanation Commentary
Sampling Nature and quality of sampling (e.g. cut channels, Reverse Circulation Drilling, 1m samples collected
techniques random chips, or specific specialised industry standard
measurement tools appropriate to the minerals under Diamond drilling, ½ core nominally 1m crushed to
investigation, such as down hole gamma sondes, or
10mm. ½ of crushed sample assayed as below, ½
handheld XRF instruments, etc.). These examples should
retained.
not be taken as limiting the broad meaning of sampling.
Include reference to measures taken to ensure sample Samples jaw crushed and riffle split to 2-2.5kg for
representivity and the appropriate calibration of any pulverizing to 80% passing 75 microns.
measurement tools or systems used.
Prepared samples are fused with sodium peroxide and
Aspects of the determination of mineralisation that are
digested in dilute hydrochloric acid. The resultant
Material to the Public Report. In cases where ‘industry
standard’ work has been done this would be relatively solution is analysed by ICP, by Nagrom Laboratory.
simple (e.g. ‘reverse circulation drilling was used to
obtain 1 m samples from which 3 kg was pulverised to Certified standards. Field duplicates submitted at
produce a 30 g charge for fire assay’). In other cases irregular intervals at the rate of approximately 1:20.
more explanation may be required, such as where there
is coarse gold that has inherent sampling problems.
Unusual commodities or mineralisation types (e.g.
submarine nodules) may warrant disclosure of detailed
information.
Drilling Drill type (e.g. core, reverse circulation, open-hole RC and Diamond drilling conducted in line with general
techniques hammer, rotary air blast, auger, Bangka, sonic, etc.) and industry standards.
details (e.g. core diameter, triple or standard tube, depth
of diamond tails, face-sampling bit or other type, All diamond drill holes and approx. 70% of RC drill
whether core is oriented and if so, by what method, holes are angled. Approx. 30% of RC drill holes are
etc.). vertical.
Diamond tails have been drilled to a max depth of
330m.
Diamond core has been oriented where possible using
the Reflex Ezi-Ori tool.
Drill sample Method of recording and assessing core and chip sample Chip recovery or weights for RC drilling were not
recovery recoveries and results assessed. conducted.
Measures taken to maximise sample recovery and Each metre of drill sample recovery and moisture
ensure representative nature of the samples. content is visually estimated and recorded.
Whether a relationship exists between sample recovery
and grade and whether sample bias may have occurred Opportunity for sample bias is considered negligible
due to preferential loss/gain of fine/coarse material. for dry samples.
Logging Whether core and chip samples have been geologically Geological logs exist for all drill holes with lithological
and geotechnically logged to a level of detail to support codes via an established reference legend.
appropriate Mineral Resource estimation, mining studies
and metallurgical studies. Drill holes have been geologically logged in their
Whether logging is qualitative or quantitative in nature. entirety. Where logging was detailed the subjective
Core (or costean, channel, etc.) photography indications of mineral content (spodumene, tantalite)
The total length and percentage of the relevant have been recorded.
intersections logged. Assays have generally only been submitted through
and adjacent to the pegmatites.
Criteria JORC Code Explanation Commentary
Sub-sampling If core, whether cut or sawn and whether quarter, half or RC samples were collected at 1m intervals and riffle or
techniques all core taken. cone split on-site to produce a subsample less than
and sample If non-core, whether riffled, tube sampled, rotary split, 5kg.
preparation etc. and whether sampled wet or dry.
For all sample types, the nature, quality and The RC drilling samples are considered robust for
appropriateness of the sample preparation technique. sampling the spodumene and tantalite mineralisation.
Quality control procedures adopted for all sub-sampling
stages to maximise representivity of samples. Most samples were dry.
Measures taken to ensure that the sampling is
representative of the in situ material collected, including Sampling is in line with general industry sampling
for practices.
instance results for field duplicate/second-half sampling.
Whether sample sizes are appropriate to the grain size of Field duplicates, standards, laboratory standards and
the material being sampled. laboratory repeats are used to monitor analyses.
Sample size is considered appropriate.
Quality of The nature, quality and appropriateness of the assaying The assay technique is considered to be robust as the
assay data and laboratory procedures used and whether the method used (see above) offers total dissolution of the
and technique is considered partial or total. sample and is useful for mineral matrices that may
laboratory For geophysical tools, spectrometers, handheld XRF resist acid digestions.
tests instruments, etc., the parameters used in determining
the analysis including instrument make and model, Standards and duplicates were submitted in varying
reading times, calibrations factors applied and their frequency throughout the exploration campaign and
derivation, etc. internal laboratory standards, duplicates and
Nature of quality control procedures adopted (e.g. replicates are used for verification
standards, blanks, duplicates, external laboratory checks)
and whether acceptable levels of accuracy (i.e. lack of
bias) and precision have been established.
Verification of The verification of significant intersections by either Twinning of holes undertaken to date show good
sampling and independent or alternative company personnel. continuity
assaying
The use of twinned holes. The Ta and Li assays show a marked correlation with
the pegmatite intersections via elevated downhole
Documentation of primary data, data entry procedures, grades.
data verification, data storage (physical and electronic)
protocols. Drill logs exist for all holes as electronic files and/or
hardcopy (all 2017 logging has been input directly to
Discuss any adjustment to assay data. field logging computers).
Digital log sheets have been created with inbuilt
validations to reduce potential for data entry errors.
All drilling data has been loaded to a database and
validated prior to use.
Location of Accuracy and quality of surveys used to locate drill holes Accurate surveying using RTK DGPS is currently being
data points (collar and down-hole surveys), trenches, mine workings undertaken on site. Hole collars have been preserved
and other locations used in Mineral Resource estimation. until completion of survey.
Specification of the grid system used. All collars are surveyed using MGA Z51.
Quality and adequacy of topographic control.
Criteria JORC Code Explanation Commentary
Data spacing Data spacing for reporting of Exploration Results. Initial exploration has been conducted on an 80m x
and 80m grid. The majority of infill drilling has been
distribution Whether the data spacing and distribution is sufficient to conducted on a 40m x 40m grid with a 15,000m2 area
establish the degree of geological and grade continuity drilled out to 20m x 20m.
appropriate for the Mineral Resource and Ore Reserve
estimation procedure(s) and classifications applied. The spacing of holes is considered of sufficient density
to provide an ‘Indicated’ or ‘Inferred’ Mineral
Whether sample compositing has been applied. Resource estimation and classification.
There has been no sample compositing.
Orientation of Whether the orientation of sampling achieves unbiased Approximately 2/3 of drilling is angled. Vertical holes
data in sampling of possible structures and the extent to which have been drilled in areas where pegmatites are
relation to this is known, considering the deposit type. interpreted to be flat lying.
geological If the relationship between the drilling orientation and
structure the orientation of key mineralised structures is The lithium tantalite-bearing pegmatites are generally
considered to have introduced a sampling bias, this flat to shallowly dipping in nature. The true width of
should be assessed and reported if material. pegmatites are generally considered 80-95% of the
intercept width, with minimal opportunity for sample
bias.
Sample The measures taken to ensure sample security. The RC samples are taken from the rig by experienced
security personal and stored securely and transport to the
laboratory by a registered courier and handed over by
signature.
Audits or The results of any audits or reviews of sampling An external review of sampling techniques and data
reviews techniques and data. has been carried out by CSA Global. No issues
identified.
Section 2 Reporting of Exploration Results
Criteria Explanation Commentary
Mineral Type, reference name/number, location and ownership The portfolio of mineral tenements, comprising mining
tenement and including agreements or material issues with third leases, exploration licences, prospecting licences,
land tenure parties such as joint ventures, partnerships, overriding miscellaneous licences, a general-purpose lease, and a
status royalties, native title interests, historical sites, retention lease are in good standing.
wilderness or national park and environmental settings.
The security of the tenure held at the time of reporting
along with any known impediments to obtaining a
licence to operate in the area.
Exploration Acknowledgment and appraisal of exploration by other Alluvial tantalite has been mined periodically from the
done by other parties. early 1970s.
parties Gwalia Consolidated Limited undertook exploration for
tantalite-bearing pegmatites from 1983-1998. Work
included mapping, costeaning, and several phases of
drilling using RAB, RC, and diamond methods. The work
identified mineral resources that were considered
uneconomic at the time.
Haddington entered agreement to develop the
resource and mining
? commenced in 2001 and continued until
2005.
? Haddington continued with exploration until
2009.
Criteria Explanation Commentary
Living Waters acquired the project in 2009 and
continued with limited exploration to the north of the
main pit area.
Geology Deposit type, geological setting and style of The Bald Hill area is underlain by generally north-
mineralisation. striking, steeply dipping Archaean metasediments
(schists and greywackes) and granitoids.
Felsic porphyries and pegmatite sheets and veins have
intruded the Archaean rocks. Generally, the pegmatites
cross cut the regional foliation, occurring as gently
dipping sheets and as steeply dipping veins.
The pegmatites vary in width and are generally
comprised quartz-albite- muscovite-spodumene in
varying amounts. Late-stage albitisation in the central
part of the main outcrop area has resulted in fine-
grained, banded, sugary pegmatites with visible fine-
grained, disseminated tantalite. A thin hornfels
characterised by needle hornblende crystals is often
observed in adjacent country rocks to the pegmatite.
Tantalite generally occurs as fine disseminated crystals
commonly associated with fine-grained albite zones, or
as coarse crystals associated with cleavelandite.
Weathering of the pegmatites yields secondary
mineralised accumulations in alluvial/eluvial deposits.
Drill hole A summary of all information material to the Only results for drill holes that have intercepted lithium
Information understanding of the exploration results including a and or tantalum pegmatites of 1m or more in width
tabulation of the following information for all Material that have been assayed for lithium and tantalum have
drill holes: been included in the release.
• easting and northing of the drill hole collar
• elevation or RL (Reduced Level – elevation All drill hole details are contained in Table 1 and 2 of
above sea level in metres) of the drill hole collar the release.
• dip and azimuth of the hole
• down hole length and interception depth
• hole length.
If the exclusion of this information is justified on the
basis that the information is not Material and this
exclusion does not detract from the understanding of
the report, the Competent Person should clearly explain
why this is the case.
Data In reporting Exploration Results, weighting averaging No cutting to intercept grades has been undertaken.
aggregation techniques, maximum and/or minimum grade
methods truncations (e.g. cutting of high grades) and cut-off Assays are report as pure elements such as Li, Ta, Nb,
grades are usually Material and should be stated. Sn and converted to oxides using atomic formulas.
Where aggregate intercepts incorporate short lengths of
high grade results and longer lengths of low grade Reported intervals in Table 1 and 2 represent the
results, the procedure used for such aggregation should aggregation of the intercepts containing samples of at
be stated and some typical examples of such least 0.3% Li2O and/or 150ppm Ta2O5, lower grade
aggregations should be shown in detail. zones are included adjacent to higher grade zones
The assumptions used for any reporting of metal where the grade varies significantly from the average
equivalent values should be clearly stated. of the entire width of the mineralised pegmatite. Only
lithium, tin, niobium and tantalum oxide results are
Criteria Explanation Commentary
tabled, other potential by-products are currently
considered to be insignificant in economic importance.
Relationship These relationships are particularly important in the Approximately 2/3 of drilling is angled. Vertical holes
between reporting of Exploration Results. have been drilled in areas where pegmatites are
mineralisation interpreted to be flat lying.
widths and If the geometry of the mineralisation with respect to the
intercept drill hole angle is known, its nature should be reported The lithium tantalite-bearing pegmatites are generally
lengths If it is not known and only the down hole lengths are flat to shallowly dipping in nature. The true width of
reported, there should be a clear statement to this pegmatites are generally considered 85-95% of the
effect (e.g. ‘down hole length, true width not known’). intercept width, with minimal opportunity for sample
bias.
Diagrams Appropriate maps and sections (with scales) and Drilling locations are shown on figure 1 of the release.
tabulations of intercepts should be included for any Appendix A comprises is a long section through the
significant discovery being reported These should principal pegmatites.
include, but not be limited to a plan view of drill hole
collar locations and appropriate sectional views.
Balanced Where comprehensive reporting of all Exploration Results for all drill holes that have intercepted lithium
reporting Results is not practicable, representative reporting of pegmatites that have been assayed for lithium have
both low and high grades and/or widths should be been included in the release.
practiced to avoid misleading reporting of Exploration
Results.
Other Other exploration data, if meaningful and material, No metallurgical test work is referred to in this
substantive should be reported including (but not limited to): announcement.
exploration geological observations; geophysical survey results;
data geochemical survey results; bulk samples – size and
method of treatment; metallurgical test results; bulk
density, groundwater, geotechnical and rock
characteristics; potential deleterious or contaminating
substances.
Further work The nature and scale of planned further work (e.g. tests Further RC and diamond drilling is warranted at the
for lateral extensions or depth extensions or large-scale various deposits to explore for additional resources
step-out drilling). and improve the understanding of the current
resources prior to mining.
Diagrams clearly highlighting the areas of possible
extensions, including the main geological interpretations
and future drilling areas, provided this information is not
commercially sensitive.
Date: 06/12/2017 08:50:00 Produced by the JSE SENS Department. The SENS service is an information dissemination service administered by the JSE Limited ('JSE').
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