Skip to main content

AI assistant

Sign in to chat with this filing

The assistant answers questions, extracts KPIs, and summarises risk factors directly from the filing text.

EQ RESOURCES LIMITED Capital/Financing Update 2007

Apr 23, 2007

64867_rns_2007-04-23_444ef994-db69-42c5-a3ae-dc82d904fe84.pdf

Capital/Financing Update

Open in viewer

Opens in your device viewer

24 April 2007

ASX Announcement

Tara Drilling to Recommence 30th April 2007

Icon Resources' Board of Directors would like to provide shareholders with the following update on the Company's activities at its Tara tenement (EL 6825).

Summary

Highly encouraging tin grades have been recorded in recent drilling by Icon at Tara (T2 and T3) as well as in earlier drilling and Icon is about to commence follow up drilling in combination with further geophysical surveys.

An attempt to commence a second drilling campaign was undertaken in March using an interim smaller rig but this proved inadequate and drilling was halted until the larger, multi-purpose, rig was available. This rig is now scheduled to commence drilling on Monday, 30th April.

Managing Director Dr John Bishop comments that despite the disappointing delays in the commencement of drilling, this program is exciting given that the tin grades that have been intersected in past drilling are potentially economic at current commodity prices. The project also has the capacity to contain a large orebody given the distance between mineralized drillholes and the sparse previous drilling. Furthermore, the mineralized alluvial overburden could prove to be a significant resource in itself and the success of a trial resistivity in locating palaeochannels is likely to reduce costs and accelerate exploration for this secondary target.

Drilling Program

A trial resistivity survey appears to have been successful in identifying buried palaeochannels at Tara and Icon's recent drilling program has suggested that encouraging tin grades occur in basal sediments of these palaeochannels (see Figure 1).

Icon's third drilling campaign will test these palaeochannels in the upper parts of several holes that are designed to continue into basement to test for primary mineralization.

A flexible program is planned. Icon's portable XRF ('Niton') will be used to provide 'real time' (approximate) assays and this will allow flexibility as the program advances.

A line of resistivity surveying will also be carried out across the Tara leases to map all of the palaeochannels and to better establish the basement topography. Evidence to-date suggests there could be extensive palaeochannel development in the area while the presence of near-surface tin in recent drilling indicates that there is potential for undiscovered areas of shallow mineralized basement.

Resistivity section through Icon drillholes T1 and T2 showing correlation of tin with base of Figure 1. palaeochannels and the top of the basement metasediments.

As previously reported by Icon, only some of the mineralization intersected in earlier drilling has been analysed for tin. Icon is now in the process of assaying drill core not previously sampled. Results for the completed holes are given in the Appendix and the more significant values are shown in Figure 2. (Tin values from the four holes drilled by Icon were included in Icon's 22 November, 2006 release to the ASX.)

Figure 2. The previously drilled holes were only partially assayed for tin and Icon is now in the process of assaying all of the mineralised zones. This plan shows the significant tin values from the holes assayed to date. All of the tin, copper and zinc assays obtained from the previously drilled holes are outlined in the Appendix.

Geological Model

The widespread, elevated tin levels at Tara suggest that Icon has discovered a major new tin prospect, in the same district as the Ardlethan tin field. However, the source granite at Ardlethan outcrops, whereas at Tara it is interpreted to be buried at a depth of ~1400m (Rudowski, 2004). This setting is similar to Peru's San Rafael mine, the world's richest tin mine. At San Rafael, tin ore with an average head grade of 5% tin is produced from bonanza veins up to 1500 m above the source granite.

The style of alteration and mineralisation discovered at Tara fits with the alteration and mineralisation found at several of the world's great tin provinces including Cornwall, the Herberton district in north Queensland, San Rafael, and not least, Ardlethan. A feature of all these tin provinces is the association of tin with zinc at some distance from the source granite and with copper closer to the source granite (Cornwall produced over 1 million tonnes of copper through a 4000 year history). A schematic diagram is outlined in Figure 3.

Figure 3. Interpreted style of tin, zinc and copper mineralisation at Tara. This has noted similarities to the rich San Rafael mine in Peru; including the depth to the granite and the style of alteration.

For further information, contact John Bishop, Managing Director 02 9279 1252 or 0418 373 429 Digital copies of this and other reports are available on our website www.iconresources.com.au. To receive email copies of future releases, subscribe by email to [email protected]

Appendix

Tin Assays from Pre-Icon Drilling

Holes drilled by previous explorers were only partially assayed for tin. Icon is now in the process of assaying drill core not previously sampled. This table presents the results to date.

HoleID From To Interval (m) Sn
(ppm)
Cu
(ppm)
Zn
(ppm)
Sn (ppm) Composite
intervai (m)
PDT12 455 456 1 226 142 182
PDT12 456 457 1. 421 148 827
PDT 12 457 458 1 481 113 651
PDT12 458 459 1 2690 405 5210 2690 1
PDT12 459 460.25 1.25 264 88 443
PDT12 460.25 461 0.75 253 $\overline{81}$ 196
PDT 12 461 462 1 118 78 129
PDT 12 654 655 1 1765 326 4780 4116 16.1
PDT 12 655 656 1 6600 649 18900
PDT12 656 657 1 833 139 787
PDT12 657 658 1 2320 650 6240
PDT 12 658 659 1 7520 772 19500
PDT12 659 660 1 1155 119 2740
PDT12 660 661 1 2950 206 1920
PDT12 661 662 1 331 95 637
PDT 12 662 663 1 5680 295 6290
PDT 12 663 664 1. 7880 185 3530
PDT 12 664 665 1 3170 90 1515
PDT 12 665 666 $\overline{1}$ 79 29 113
PDT 12
PDT12
682.9
684
684
685
1.1
1
500
3460
282
292
2010
3890
PDT12 685 686 1 14000 674 16400
PDT 12 686 687 1 7980 769 11800
PDT12 687 688 1 586 120 556
PDT 12 688 689 1 121 30 145
PDT12 689 690 1 $\overline{103}$ $\overline{18}$ 112
PDT 12 698.1 699.6 $\overline{1.5}$ 650 125 664
PDT12 699.6 700.38 0.78 3090 354 4390 3090 0.78
PDT 12 700.38 701.28 0.9 $\overline{377}$ 74 514
PDT 12 701.28 701.8 0.52 5340 329 6040 5340 0.52
PDT 12 701.8 702.5 0.7 165 112 554
PDT 12 702.5 703.5 1 $\overline{343}$ 56 330
PDT 13 197 198 1 281 114 338
PDT 13 198 199 1 168 68 344
PDT 13 199 200 1 101 69 1300
PDT13 200 201 1 309 31 268
PDT 13 201 202 1 205 53 189
PDT 13 202 203 1 274 104 881
PDT 13 203 204 1 125 69 241
PDT 13 204 205 1 187 111 471
PDT 13 205 206 1 121 60 104
PDT 13 206 207 1 120 84 95
HoleID From To Interval (m) Sn Cu Zn Sn (ppm) Composite
(ppm) (ppm) (ppm) Interval (m)
PDT 13 $\overline{207}$ 208 1 104 72 69
PDT 13 208 209 1 29 53 152
PDT 13 282
283
283 1 49
$\overline{32}$
30
23
87
60
PDT13 284 1
PDT13
PDT13
284
285
285
286
1
1
78
23
26
20
82
71
PDT13 286 287 1 248 $\overline{51}$ 97
PDT13 287 288 1 52 38 47
PDT 13 288 289 1 139 $\overline{71}$ 87
PDT13 289 290.2 $\overline{1.2}$ 50 $\overline{27}$ 22
PDT 13 298 299 1 40 $\overline{18}$ $\overline{13}$
PDT13 299 300 1 26 15 $\overline{9}$
PDT 13 300 300.75 0.75 133 36 422
PDT 13 300.75 301.25 0.5 1685 238 10900 1685 0.5
PDT13 301.25 302.2 0.95 83 39 166
PDT 13 302.2 303.2 1 17 21 24
PDT 13 303.2 304.1 0.9 $\overline{20}$ $\overline{20}$ $\overline{29}$
PDT 13 346 347 1 880 8 169
PDT 13 $\overline{347}$ 348 1 600 59 1080
PDT13 348 348.6 0.6 629 165 3850
PDT13 348.6 349.5 0.9 120 54 364
TRD 8 $\overline{54}$ 55 1 687 $\overline{95}$ 60
TRD 8 55 56 1 747 35 53
TRD8 56 $\overline{57}$ 1 625 29 59
TRD 8 57 58 1 739 88 75
TRD 8 58 59 1 526 41 61
TRD 8 59 60 1 440 19 63
TRD 8 60 61 1 596 30 188
TRD 8 61 62 1 541 $\overline{30}$ 62
TRD 8 62 63 1 627 52 57
TRD 8 63 64 1 512 $\overline{37}$ 66
TRD 8 64 65.5 1.5 792 83 41
TRD 8 65.5 67.9 2.4 833 93 53
TRD 8 67.9
70
70
73
2.1
3
29 6
6
226
TRD 8
TRD 8
$\overline{73}$ 74.6 1.6 35
162
10 1490
63
TRD 8 74.6 76.6 $\overline{2}$ 663 66 47
TRD 8 76.6 77.7 1.1 88 89 92
TRD 8 77.7 78.8 1.1 36 39 61
TRD8 78.8 79.5 0.7 152 90 98
PD88TR10 150.06 153.1 3.04 82 47 415
PD88TR10 153.1 154.1 1. 407 45 122
PD88TR10 154.1 156.5 2.4 44 24 91
PD88TR10 156.5 158.5 $\overline{2}$ 86 59 514
PD88TR10 158.5 160 1.5 98 54 705
PD88TR10 160 160.3 0.3 1020 152 4950 1020 $0.3 -$
PD88TR10 160.3 162 1.7 $\overline{28}$ $\overline{31}$ 169
PD88TR10 162 162.7 0.7 241 49 94
PD88TR10 162.7 163.9 1.2 109 41 313
PD88TR10 163.9 165 1.1 573 150 4640
PD88TR10 165 166 1. 174 104 900
HoleID From To Interval (m) Sn Cu Zn Sn (ppm) Composite
PD88TR10 166 167 1 (ppm)
141
(ppm)
101
(ppm)
724
$ $ ntervai $ $ $\langle$ m $\rangle$
PD88TR10 167 168 1 31 38 105
PD88TR10 168 168.95 0.95 7 20 87
PD88TR10 168.95 170 1.05 $\overline{22}$ 17 105
PD88TR10 170 171 1 186 99 1010
PD88TR10 171 172 1 63 $\overline{53}$ 145
PD88TR10 172 173 1 276 180 668
PD88TR10 173 174.05 1.05 77 93 187
PD88TR10 174.05 175 0.95 10 25 99
PD88TR10 175 176.05 1.05 41 $\overline{47}$ 129
PD88TR10 176.05 177 0.95 $\overline{22}$ $\overline{41}$ 143
PD88TR10 177 177.95 0.95 99 84 266
PD88TR10 177.95 179.7 1.75 77 71 361
PD88TR10 179.7 180.85 1.15 25 $\overline{35}$ $\overline{70}$
PD88TR10 180.85 181.83 0.98 120 110 881
PD88TR10 181.83 182.75 0.92 175 75 482
PD88TR10 182.75 184.5 1.75 730 73 1050
PD88TR10 184.5 185.8 1.3 121 42 324
PD88TR10 185.8 187.7 1.9 51 38 245
PD88TR10 187.7 189.25 1.55 91 35 111
PD88TR10 189.25 190.55 1.3 102 43 139
PD88TR10 190.55 192 1.45 43 $\overline{22}$ 123
PD88TR10 192 193 1 58 49 85
PD88TR10 193 194.7 1.7 20 $\overline{27}$ 106
PD88TR10 194.7 195.5 0.8 98 67 124
PD88TR10 195.5 196.5 1 53 51 525
PD88TR10 196.5 198.6 $\overline{2.1}$ 21 26 86
PD88TR10 198.6 200.47 1.87 13 15 $\overline{52}$
PD88TR10 210.1 212 1.9 111 28 162
PD88TR10 212 213.5 1.5 31 21 75
PD88TR10 213.5 214.7 1.2 395 $\overline{71}$ 665
PD88TR10 214.7 215.6
$\overline{217}$
0.9 43 44 78
PD88TR10
PD88TR10
215.6
217
218.3 $\overline{1.4}$
1.3
195
278
61
194
1060
6780
PD88TR10 218.3 219.5 $\overline{1.2}$ 155 79 619
PD88TR10 219.5 221.2 1.7 50 52 115
PD88TR10 221.2 222.2 1 117 78 114
PD88TR10 222.2 224.3 2.1 49 56 129
PD88TR10 224.3 226.2 1.9 294 173 980
PD88TR10 226.2 228 1.8 170 157 759
PD88TR10 228 229.4 1.4 62 58 101
PD88TR10 229.4 231.25 1.85 776 1820 614
PD88TR10 231.75 232.9 1.15 559 274 798
PD88TR10 232.9 233.85 0.95 790 340 569
PD88TR10 243.35 244.7 1.35 311 174 321
PD88TR10 244.7 246.33 1.63 1755 87 373 1755 1.63.
PD88TR10 246.5 247.23 0.73 141 103 214
PD88TR10 247.23 247.42 0.19 5450 10100 6540 5450 0.19
PD88TR10 247.42 248.1 0.68 217 236 1100
PD88TR10 248.1 249.4 1.3 171 58 408
PD88TR10 249.4 250 0.6 1500 174 1250 1500 0.6
HoleID From To Interval (m) Sn Cu Zn Sn (ppm) Composite
(ppm) (ppm) (ppm) Interval (m)
PD88TR10 250.5 251.7 $\overline{1.2}$ 173 56 $\overline{212}$
PD88TR10 251.7 252.85 1.15 190 38 162
PD88TR10 252.85 253.73 0.88 517 308 1230
PD88TR10 253.9 254.5 0.6 961 226 327
PD88TR10 255 256.2 1.2 183 153 275
PD88TR10 256.2 257.15 0.95 71 46 130
PD88TR10 257.15 257.8 0.65 12000 $\overline{721}$ 1020 12000 0.65
PD88TR10 257.8 259.75 1.95 53 $\overline{36}$ 105
PD88TR10 263.4 264.4 1 1310 494 224 1410 1.17
PD88TR10 264.4 264.57 0.17 2000 4890 3690
PD88TR10 264.57 265.68 1.11 378 697 167
PD88TR10 265.68 267.2 1.52 162 153 142
PD88TR10 316.9 318.5 1.6 621 185 122
PD88TR10 319 320.7 1.7 $\overline{78}$ $\overline{37}$ 181
PD88TR10 320.7 322.74 2.04 1405 245 1780 1405 2.04
PD88TR10 339.5 341.21 1.71 113 $\overline{142}$ 106
PD88TR10 341.21 342.3 1.09 2720 659 766 2720 1.09
PD88TR10 342.3 344 1.7 63 54 118
PD88TR10 345 346.1 1.1 69 81 434
PD88TR10 346.1 348.12 2.02 892 149 411
PD88TR10 348.12 350.22 2.1 165 90 241
PD88TR10 350.22 350.31 0.09 60 408 14700
PD88TR10 350.31 351.26 0.95 1030 300 417 1088 $1.93 -$
PD88TR10 351.26 352.24 0.98 1145 486 1630
PD88TR10 352.24 354.2 1.96 369 109 996
PD88TR10 354.2 356 1.8 302 169 931