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DART MINING NL Capital/Financing Update 2012

Jun 18, 2012

64792_rns_2012-06-18_e8ecc789-b5ef-4839-a3c1-d94fdb49915e.pdf

Capital/Financing Update

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==> picture [66 x 74] intentionally omitted <==

ASX ANNOUNCEMENT

19 June 2012

ASX Code: DTM

MINERALISED BRECCIA SUPPORTS RESOURCE UPGRADE & REDUCED STRIP RATIO

  • NORTH END OF DEPOSIT CONTINUES COPPER RICH 20m @ 0.7% Cu

  • NORTHERN PORPHYRY SHOWS UP TO 126m @ 0.08% MoEq[1]

Investment Data

Shares on issue 180.9m Unlisted options 8.55m

Shareholders

Top 20 Hold 36 %

Key Projects / Metals

  • Unicorn Porphyry Mo-Cu-Ag

  • Morgan Porphyry Mo-Ag-Au

  • Mountain View Lode – Au

Mo – Molybdenum Cu – Copper Au – Gold Ag – Silver

Board & Management

Chairman

Mr Chris Bain

Managing Director

  • DRILLING INTERSECTS 178m @ 0.06% MoEq[1] WITHIN BRECCIA

  • RESOURCE UPGRADE TO MEASURED STATUS ON TRACK FOR Q3 2012

Dart Mining NL (ASX:DTM) has received very encouraging assay results from three additional holes of the current resource upgrade drilling program at Unicorn (Figure 1). Porphyry intersections up to 30m @ 0.18% MoEq[1] are associated with significant copper mineralisation (20m @ 0.7%) in the northern part of the deposit.

A total of 19 drill holes of an expanded 20 hole program have been completed to date. Laboratory assay results continue to highlight the potential to extend the deposit to the south and east beyond the current conceptual pit boundary with breccia surrounding the Unicorn porphyry showing significant intersections up to 178m @ 0.06% MoEq[1] .

“The surrounding breccia, which is not included in the current JORC resource estimate, appears to contain consistent grades of Mo - Cu - Ag. These results also suggest the conceptual pit design should have a very low strip ratio which could greatly benefit the economics of the Unicorn deposit,” said Lindsay Ward, Managing Director Dart Mining.

“These additional assay results confirm Dart Mining’s confidence that the Resource upgrade drilling is progressing to plan. The current drilling program will be completed by early July with the Resource upgrade planned for release during the third quarter 2012,” Lindsay Ward added.

DRILLING

Mr Lindsay Ward

Executive Directors

Mr Dean Turnbull Manager – Exploration

Non-Executive Directors

Mr Stephen Poke Mr Richard Udovenya

Contact Details

Dart Mining NL Level 2 395 Collins Street Melbourne VIC 3000 Australia

Mr Lindsay Ward

Phone: +61 (0)3 9621 1299 Email: [email protected] Visit our webpage:

DUNRC005 (Figure 1) has closed up the current drill spacing within the Resource model and confirmed the silica cap and upper porphyry stock work system is strongly mineralised with average drill grade at or above the October 2011 JORC Indicated Resource. DUNRC005 intersected 252m @ 0.06% MoEq[1] (Table 1 – Appendix 1) including 126m @ 0.08% MoEq[1] from surface.

DUNRC007 (Figure 1) was designed to test the extent of mineralisation in the previously undrilled northern breccia that surrounds the main porphyry deposit. Encouragingly, DUNRC007 intersected 252m @ 0.06% MoEq[1] (Table 1 – Appendix 1) including 54m @ 0.08% MoEq[1] from surface. This highlights potential for a significant Resource upgrade as the mineralised breccia was not included in the October 2011 JORC Resource.

DUNRC008 (Figure 1) highlighted the increase in copper within the northern part of the deposit with 108m @ 0.20% Cu with zones showing up to 20m @ 0.7% Cu. Overall the hole intersected 186m @ 0.06% MoEq[1] (Table 1 – Appendix 1) from surface including up to 30m @ 0.18% MoEq[1] from 14m depth within the porphyry.

Page | 1

Table 1. Drill hole locations and significant assay results.

Hole No. Hole Dip Hole Azimuth
(MGA Grid)
MGA
East
(m)
MGA
North
(m)
RL
AHD
(m)
Total
Depth
(m)
DUNRC005 -54 265 588,820 5,978,003 859.0 252.0
DUNRC007 -90 265 588,899 5,978,206 813.8 252.0
DUNRC008 -70 265 588,901 5,978,286 812.0 186.0

Collar Location based on GPS survey.

Hole
No.
From
(m)
To
(m)
Significant Intersections
MoEq1
Significant Intersections
(Mo )
Significant Intersections
(Cu)
Significant Intersections
(Ag )
DUNRC005 0 252 252m @ 0.06% 252m @ 0.04% 252m @ 0.05% 252m @ 3.43ppm
0 126 Inc. 126m@ 0.08%
0 84 Inc. 84m @ 0.06%
42 158 Inc. 116m@ 0.09%
58 184 Inc. 126m @ 5.07ppm
DUNRC007 0 252 252m @ 0.06% 252m @ 0.04% 252m @ 0.05% 252m @ 1.78ppm
0 54 Inc. 54m@ 0.08%
116 188 Inc. 72m@ 0.06%
34 46 Inc. 12m@ 0.4%
0 44 Inc. 44m @ 4.14 ppm
DUNRC008* 0 186 186m @ 0.06% 186m @ 0.02% 186m @ 0.13% 186m @ 2.39ppm
14 124 Inc. 110m@ 0.08%
14 44 Inc. 30m@ 0.18% Inc. 30m@ 5.60ppm
22 130 Inc. 108m@ 0.2%
22 42 Inc. 20m @ 0.7%

Note 1. MoEq based on the same equation as that used in the October 2011 resource estimation (Table 2 below) Molybdenum equivalent MoEq = Mo + Cu/3.65 + Ag X 36.4 (Assumes equal metallurgical recovery for each metal) * - Assay data based on pre-liminary four acid digest technique MS61, results from XRF05 to follow

Table 2. Unicorn Mineral Resource Summary (October 2011)

JORC
CLASSIFICATION
TONNAGE
(Mt)
Mo Cutoff
(ppm)
Mo
(ppm)
Cu
(ppm)
Ag
(ppm)
Mo Eq1
(ppm)
INDICATED 29 200 502 898 4.17 900
INFERRED 76 200 353 450 2.67 574
TOTAL 105 200 394 573 3.08 663

Variables and factors that influence Table 2.

  • MoEq[1] (Molybdenum Equivalent) = Mo + Cu/3.65 + Ag x36.4 (assumes equal metallurgical recovery for each metal) – see Note 1 below.

  • Estimated by ordinary kriging on 50 x 50 x 50m blocks at 200ppm Mo Cutoff grade (Cutoff considered to represent a level at which the combined value of recoverable metals clearly shows reasonable prospects for eventual economic extraction

  • Top Cutting has been applied to high grade drill intersections at different values for each metal, such that grades utilised in the Minerals Resource do not rise above the following limits:

Molybdenum Cutoff: 3000ppm (0.3% Mo). Maximum Value 6260ppm Mo

Copper Cutoff: 5300ppm (0.5% Cu). Maximum Value 10,300ppm Cu

Silver Cutoff: 40ppm (40 g/t Ag). Maximum Value 170ppm Ag

  • Only the M1 and M2 mineralised zones are reported within the Indicated Resource.

  • Specific Gravity assigned by lithology. Silica Cap - 2.72 g/cm[3 ] and Quartz Feldspar Porphyry / Porphyry Breccia 2.67 g/cm[3] and Polymict Breccia 2.73 g/cm[3 ] based on 14 samples representative of each style of lithology / mineralisation estimated in the Minerals Resource .

Note 1: Molybdenum Equivalent Assumptions: Based on relative value (with reference to the average price of each metal in the 3 months 1[st] July to 30[th] September listed on the LME for Molybdenum and Copper and average price for the same period for Silver as follows): Mo US$33,127.27 per tonne Cu US$9061.32 per tonne Ag US$38.90 per ounce

The Molybdenum Equivalent grade should not be interpreted as actual molybdenum grade as the conversion ratios vary with the volatile prices of Mo, Cu and Ag. However, it is the company's opinion that elements considered here have a reasonable potential to be recovered.

Page | 2

About M olybdenum

Molybdenum is both a traditional and new age / future metal with unique characteristics. Its primary use is as an essential metal in the manufacture of steel where it adds strength, hardness and toughness as well as increasing steels resistance to corrosion. Molybdenum also has a range of chemical uses including acting as s a catalyst to remove impurities, including sulphur, during crude oil production. Molybdenum is also used in the paint and plastics industry.

Molybdenum has a growing use in the renewable energy sector where it is used in the manufacture of solar panels and has a potential use as the electrode plate for the separation of hydrogen and oxygen to produce hydrogen energy. Molybdenum is also used in nano technologies to make electrical goods smaller.

Molybdenum is traded on the LME and has worldwide demand of ~ 220,000 tonnes pa that is growing at 5% pa.

About Dart Mining

Dart Mining NL (ASX:DTM), a Victorian-based exploration company, has discovered a new mineralised province hosting molybdenum (Mo) + copper (Cu) + silver (Ag) mineralised climax style porphyry igneous intrusive. The Dart Mining mineral province occurs within the Lachlan Fold Belt near Corryong in north east Victoria and is the only known Australian host of Climax style porphyries which are proven hosts of world class mines around the world. The Lachlan Fold Belt and Gilmore suture that cross from NSW into Dart Mining’s tenements in Victoria are proven hosts of substantial porphyry mines including North Parkes, Cadia and Ridgeway in NSW and the Benambra VMS to the south of Dart Mining’s tenements in Victoria.

Dart Mining recently announced its maiden JORC Resource for its principal project Unicorn, which has very strong geological similarities to the world class Henderson primary Mo mine in Colorado, USA. Dart Mining tenements remain largely underexplored and the potential for identifying additional mineralised porphyries is very strong.

Dart Mining also has two gold projects including Mountain View where drilling identified high-grade gold along a 150 metre strike with results including 6m @ 7.8 g/t Au (including 2m @ 19.3 g/t Au) and 4m @ 8.72 g/t Au (including 1m @ 18.75 g/t Au) as well as the Fairley’s disseminated gold prospect where drilling has confirmed the presence of a very large (up to 22 metres in width) disseminated sulphide related gold system.

COMPETENT PERSON’S STATEMENT

Information in this report that relates to a statement of Exploration Results and Mineral Resources of the Company is based on information compiled by Dean Turnbull B.App.Sc.(Geol) Hons. M. AIG. Mr Turnbull is a Director and full time employee of Dart Mining NL and has sufficient experience relevant to the style of mineralisation and type of deposits under consideration and to the activity he has undertaken to qualify as a competent person as defined in the 2004 Edition of the “Australasian Code for Reporting of Mineral Resources and Ore Reserves” (or “JORC Code”). Mr Turnbull has provided written consent to the inclusion in the report of the matters based on his information in the form and context in which it appears.

Page | 3

Figure 1. Drill Hole Plan – Resource Upgrade Drilling Program

==> picture [546 x 364] intentionally omitted <==

Page | 4

APPENDIX 1 – Assay data (ALS).

HOLE_ID FROM TO SAMPLE ME_XRF05(Mo) ME_MS61(Cu) ME_MS61(Ag)
DUNRC005 0 2 200297 580 229 0.75
DUNRC005 2 4 200298 800 201 0.57
DUNRC005 4 6 200299 488 131.5 1.35
DUNRC005 6 8 200300 569 211 0.71
DUNRC005 8 10 200301 593 241 0.55
DUNRC005 10 12 200302 635 223 0.84
DUNRC005 12 14 200303 572 288 1.03
DUNRC005 14 16 200304 634 209 1.56
DUNRC005 16 18 200305 720 234 1.43
DUNRC005 18 20 200306 688 201 2.04
DUNRC005 20 22 200307 708 156.5 2.88
DUNRC005 22 24 200308 493 196.5 17.05
DUNRC005 24 26 200309 631 137 2.68
DUNRC005 26 28 200310 741 128.5 3.15
DUNRC005 28 30 200311 677 140.5 1.08
DUNRC005 30 32 200312 767 146.5 1.22
DUNRC005 32 34 200313 574 116.5 1.02
DUNRC005 34 36 200314 726 103 1.22
DUNRC005 36 38 200315 692 82.9 2.49
DUNRC005 38 40 200316 1005 201 1.83
DUNRC005 40 42 200317 867 263 1.46
DUNRC005 42 44 200318 755 518 1.88
DUNRC005 44 46 200319 824 563 4.6
DUNRC005 46 48 200320 745 710 2.14
DUNRC005 48 50 200321 874 464 1.77
DUNRC005 50 52 200325 854 1120 2.36
DUNRC005 52 54 200326 1050 2190 2.55
DUNRC005 54 56 200327 519 1595 2.4
DUNRC005 56 58 200328 846 1090 2.67
DUNRC005 58 60 200329 420 838 3.04
DUNRC005 60 62 200330 411 1115 3.71
DUNRC005 62 64 200331 342 783 4.02
DUNRC005 64 66 200332 353 348 21.9
DUNRC005 66 68 200333 517 498 10.85
DUNRC005 68 70 200334 387 865 14.05
DUNRC005 70 72 200335 455 432 10.45
DUNRC005 72 74 200336 344 530 7.65
DUNRC005 74 76 200337 266 385 7.49
DUNRC005 76 78 200338 371 627 9.15
DUNRC005 78 80 200339 314 851 4.52
DUNRC005 80 82 200340 273 584 6.91
DUNRC005 82 84 200341 212 336 5.58
DUNRC005 84 86 200342 239 253 4.89
DUNRC005 86 88 200343 218 252 3.02
DUNRC005 88 90 200344 189 160 2.67
DUNRC005 90 92 200345 349 1245 10

Page | 5

HOLE_ID FROM TO SAMPLE ME_XRF05(Mo) ME_MS61(Cu) ME_MS61(Ag)
DUNRC005 92 94 200346 223 1200 2.71
DUNRC005 94 96 200347 279 1045 2.53
DUNRC005 96 98 200348 255 766 2.21
DUNRC005 98 100 200349 258 724 3.15
DUNRC005 100 102 200353 282 520 1.53
DUNRC005 102 104 200354 288 476 1.32
DUNRC005 104 106 200355 269 591 2.31
DUNRC005 106 108 200356 408 633 1.95
DUNRC005 108 110 200357 221 683 3.6
DUNRC005 110 112 200358 259 1790 5.33
DUNRC005 112 114 200359 310 1335 7.76
DUNRC005 114 116 200360 290 1345 6.08
DUNRC005 116 118 200361 401 2440 4.49
DUNRC005 118 120 200362 334 3360 6.04
DUNRC005 120 122 200363 262 1500 5.89
DUNRC005 122 124 200364 269 1255 6.84
DUNRC005 124 126 200365 539 1085 4.1
DUNRC005 126 128 200366 281 881 3.57
DUNRC005 128 130 200367 423 810 3.81
DUNRC005 130 132 200368 311 1860 5.61
DUNRC005 132 134 200369 461 1650 11.1
DUNRC005 134 136 200370 309 941 13.05
DUNRC005 136 138 200371 175 927 5.06
DUNRC005 138 140 200372 267 782 4.89
DUNRC005 140 142 200373 278 817 7.17
DUNRC005 142 144 200374 286 790 5.68
DUNRC005 144 146 200375 204 680 4.4
DUNRC005 146 148 200376 306 559 3.33
DUNRC005 148 150 200377 339 672 3.85
DUNRC005 150 152 200381 598 1045 5.9
DUNRC005 152 154 200382 395 678 3.92
DUNRC005 154 156 200383 508 275 1.87
DUNRC005 156 158 200384 334 411 2.29
DUNRC005 158 160 200385 195 209 1.42
DUNRC005 160 162 200386 206 231 3.88
DUNRC005 162 164 200387 138 254 2.63
DUNRC005 164 166 200388 383 317 2.24
DUNRC005 166 168 200389 351 212 1.7
DUNRC005 168 170 200390 487 259 1.92
DUNRC005 170 172 200391 328 513 3.72
DUNRC005 172 174 200392 321 368 2.72
DUNRC005 174 176 200393 276 235 2.12
DUNRC005 176 178 200394 233 269 3.34
DUNRC005 178 180 200395 176 155.5 3.26
DUNRC005 180 182 200396 445 415 3.88
DUNRC005 182 184 200397 359 253 3.57

Page | 6

HOLE_ID FROM TO SAMPLE ME_XRF05(Mo) ME_MS61(Cu) ME_MS61(Ag)
DUNRC005 184 186 200398 185 145 2.28
DUNRC005 186 188 200399 307 226 2.87
DUNRC005 188 190 200400 301 234 2.32
DUNRC005 190 192 200401 373 208 2.52
DUNRC005 192 194 200402 304 273 2.78
DUNRC005 194 196 200403 504 201 1.75
DUNRC005 196 198 200404 459 162 1.44
DUNRC005 198 200 200405 245 110.5 1.42
DUNRC005 200 202 200409 143 142.5 1.37
DUNRC005 202 204 200410 297 145 1.87
DUNRC005 204 206 200411 232 107 1.29
DUNRC005 206 208 200412 254 141.5 2.24
DUNRC005 208 210 200413 209 150.5 1.55
DUNRC005 210 212 200414 233 82.7 0.62
DUNRC005 212 214 200415 214 64.9 0.62
DUNRC005 214 216 200416 328 113.5 0.82
DUNRC005 216 218 200417 192 74.2 0.56
DUNRC005 218 220 200418 161 100.5 0.71
DUNRC005 220 222 200419 179 126 1.33
DUNRC005 222 224 200420 223 68.5 0.61
DUNRC005 224 226 200421 190 66 0.73
DUNRC005 226 228 200422 245 114 1.18
DUNRC005 228 230 200423 154 102 0.65
DUNRC005 230 232 200424 215 84.5 0.53
DUNRC005 232 234 200425 174 90.9 0.7
DUNRC005 234 236 200426 208 103.5 1.46
DUNRC005 236 238 200427 344 83.4 1.33
DUNRC005 238 240 200428 289 94 0.83
DUNRC005 240 242 200429 218 74 1.16
DUNRC005 242 244 200430 289 64.7 1.22
DUNRC005 244 246 200431 197 92.9 0.62
DUNRC005 246 248 200432 196 84.3 0.76
DUNRC005 248 250 200433 168 55.8 1.09
DUNRC005 250 252 200437 303 89.1 2.4
HOLE_ID FROM TO SAMPLE ME_XRF05(Mo) ME_MS61(Cu) ME_MS61(Ag)
DUNRC007 0 2 200541 893 252 6.4
DUNRC007 2 4 200542 403 182.5 2.97
DUNRC007 4 6 200543 233 165.5 3.11
DUNRC007 6 8 200544 271 201 4.3
DUNRC007 8 10 200545 249 195 3.9
DUNRC007 10 12 200546 222 159 3.15
DUNRC007 12 14 200547 278 211 3.98
DUNRC007 14 16 200548 292 168.5 5.14
DUNRC007 16 18 200549 269 175 2.86
DUNRC007 18 20 200550 346 283 5.58
DUNRC007 20 22 200551 321 165 4.93

Page | 7

HOLE_ID FROM TO SAMPLE ME_XRF05(Mo) ME_MS61(Cu) ME_MS61(Ag)
DUNRC007 22 24 200552 226 180.5 4.43
DUNRC007 24 26 200553 674 93.1 3.96
DUNRC007 26 28 200554 525 140 5.98
DUNRC007 28 30 200555 662 388 4.29
DUNRC007 30 32 200556 391 137.5 4.35
DUNRC007 32 34 200557 545 325 4.63
DUNRC007 34 36 200558 220 2090 2.88
DUNRC007 36 38 200559 319 3120 5.14
DUNRC007 38 40 200560 734 3220 3.05
DUNRC007 40 42 200561 398 9730 3.04
DUNRC007 42 44 200562 420 4110 3.05
DUNRC007 44 46 200563 299 3170 1.48
DUNRC007 46 48 200564 227 479 1.37
DUNRC007 48 50 200565 194 335 1.08
DUNRC007 50 52 200569 232 456 1.41
DUNRC007 52 54 200570 245 839 2.63
DUNRC007 54 56 200571 175 382 1.09
DUNRC007 56 58 200572 99 389 0.87
DUNRC007 58 60 200573 212 226 0.71
DUNRC007 60 62 200574 687 232 0.35
DUNRC007 62 64 200575 158 250 0.55
DUNRC007 64 66 200576 453 221 0.52
DUNRC007 66 68 200577 299 407 1.12
DUNRC007 68 70 200578 201 375 1.82
DUNRC007 70 72 200579 576 785 2.34
DUNRC007 72 74 200580 138 1260 4.07
DUNRC007 74 76 200581 248 1450 3.26
DUNRC007 76 78 200582 157 1205 1.94
DUNRC007 78 80 200583 234 1340 3.82
DUNRC007 80 82 200584 504 622 1.96
DUNRC007 82 84 200585 378 367 1.09
DUNRC007 84 86 200586 1180 422 1.9
DUNRC007 86 88 200587 236 530 4.17
DUNRC007 88 90 200588 249 308 1.32
DUNRC007 90 92 200589 270 774 2.97
DUNRC007 92 94 200590 532 2420 8.62
DUNRC007 94 96 200591 412 577 1.92
DUNRC007 96 98 200592 238 823 2.21
DUNRC007 98 100 200593 187 781 1.62
DUNRC007 100 102 200597 207 801 1.66
DUNRC007 102 104 200598 146 485 1.56
DUNRC007 104 106 200599 214 529 1.36
DUNRC007 106 108 200600 434 386 1.24
DUNRC007 108 110 200601 371 338 0.8
DUNRC007 110 112 200602 248 418 1.18
DUNRC007 112 114 200603 444 358 0.93

Page | 8

HOLE_ID FROM TO SAMPLE ME_XRF05(Mo) ME_MS61(Cu) ME_MS61(Ag)
DUNRC007 114 116 200604 454 346 0.91
DUNRC007 116 118 200605 826 280 1.48
DUNRC007 118 120 200606 1005 297 1.28
DUNRC007 120 122 200607 804 213 1.26
DUNRC007 122 124 200608 470 276 1.3
DUNRC007 124 126 200609 675 290 0.88
DUNRC007 126 128 200610 738 230 0.73
DUNRC007 128 130 200611 752 197 0.64
DUNRC007 130 132 200612 521 281 0.99
DUNRC007 132 134 200613 398 303 0.85
DUNRC007 134 136 200614 408 261 1.05
DUNRC007 136 138 200615 933 376 1.17
DUNRC007 138 140 200616 464 394 0.74
DUNRC007 140 142 200617 498 397 1.21
DUNRC007 142 144 200618 643 397 1.13
DUNRC007 144 146 200619 538 304 1.09
DUNRC007 146 148 200620 709 328 1.32
DUNRC007 148 150 200621 461 294 0.96
DUNRC007 150 152 200625 579 331 1.23
DUNRC007 152 154 200626 556 381 1.59
DUNRC007 154 156 200627 381 355 1.16
DUNRC007 156 158 200628 446 185 0.71
DUNRC007 158 160 200629 628 365 1.31
DUNRC007 160 162 200630 1195 251 0.8
DUNRC007 162 164 200631 447 437 1.48
DUNRC007 164 166 200632 531 272 1.04
DUNRC007 166 168 200633 489 281 0.96
DUNRC007 168 170 200634 523 249 0.89
DUNRC007 170 172 200635 387 245 1.12
DUNRC007 172 174 200636 466 212 0.7
DUNRC007 174 176 200637 576 252 1.06
DUNRC007 176 178 200638 650 202 1.08
DUNRC007 178 180 200639 401 250 1.12
DUNRC007 180 182 200640 549 335 1.21
DUNRC007 182 184 200641 412 215 0.83
DUNRC007 184 186 200642 1270 314 1.68
DUNRC007 186 188 200643 406 206 5.95
DUNRC007 188 190 200644 287 242 0.72
DUNRC007 190 192 200645 217 231 0.6
DUNRC007 192 194 200646 367 349 1.48
DUNRC007 194 196 200647 584 286 1.03
DUNRC007 196 198 200648 536 221 0.74
DUNRC007 198 200 200649 753 307 0.66
DUNRC007 200 202 200653 375 209 0.63
DUNRC007 202 204 200654 278 610 1.86
DUNRC007 204 206 200655 492 279 0.74

Page | 9

HOLE_ID FROM TO SAMPLE ME_XRF05(Mo) ME_MS61(Cu) ME_MS61(Ag)
DUNRC007 206 208 200656 599 228 0.71
DUNRC007 208 210 200657 404 239 0.68
DUNRC007 210 212 200658 305 247 0.71
DUNRC007 212 214 200659 413 242 0.64
DUNRC007 214 216 200660 208 180.5 0.53
DUNRC007 216 218 200661 325 189.5 0.36
DUNRC007 218 220 200662 571 179.5 0.43
DUNRC007 220 222 200663 628 208 0.55
DUNRC007 222 224 200664 263 138 0.35
DUNRC007 224 226 200665 264 165 0.44
DUNRC007 226 228 200666 260 172 0.6
DUNRC007 228 230 200667 434 92.3 0.45
DUNRC007 230 232 200668 251 150 0.66
DUNRC007 232 234 200669 190 187 0.47
DUNRC007 234 236 200670 323 210 0.53
DUNRC007 236 238 200671 344 181.5 0.36
DUNRC007 238 240 200672 212 189.5 0.52
DUNRC007 240 242 200673 647 166 0.49
DUNRC007 242 244 200674 641 160 0.33
DUNRC007 244 246 200675 336 93.8 0.55
DUNRC007 246 248 200676 279 59.7 1.27
DUNRC007 248 250 200677 169 318 0.82
DUNRC007 250 252 200681 382 181.5 0.5
HOLE_ID FROM TO SAMPLE ME_MS61(Mo) ME_MS61(Cu) ME_MS61(Ag)
DUNRC008 0 2 200683 66.1 111 1.94
DUNRC008 2 4 200684 59.3 115.5 2.79
DUNRC008 4 6 200685 111 175 2.02
DUNRC008 6 7 200686 22.15 70.75 0.77
DUNRC008 7 8 200687 27.85 90 0.755
DUNRC008 8 10 200688 128 141.5 1.77
DUNRC008 10 12 200688 56.7 315 1.78
DUNRC008 12 14 200690 43.1 219 1.39
DUNRC008 14 16 200691 119 193.5 13.15
DUNRC008 16 18 200692 156 1240 5.49
DUNRC008 18 20 200693 67.9 513 3.81
DUNRC008 20 22 200694 78.4 753 2.29
DUNRC008 22 24 200695 64.5 2450 2.12
DUNRC008 24 26 200696 154 5190 2.71
DUNRC008 26 28 200697 87.3 4080 2.95
DUNRC008 28 30 200698 93.3 6120 2.73
DUNRC008 30 32 200699 208 6930 3.22
DUNRC008 32 34 200699a 315 3630 5.07
DUNRC008 34 36 200700 258 4360 11.05
DUNRC008 36 38 200701 650 14650 5.7
DUNRC008 38 40 200702 279 17150 10.15
DUNRC008 40 42 200703 99 6960 7.5

Page | 10

HOLE_ID FROM TO SAMPLE ME_MS61(Mo) ME_MS61(Cu) ME_MS61(Ag)
DUNRC008 42 44 200704 120.5 1725 6.13
DUNRC008 44 46 200705 120.5 967 2.82
DUNRC008 46 48 200706 68.5 382 1.32
DUNRC008 48 50 200707 110.5 354 0.87
DUNRC008 50 52 200711 294 459 1.17
DUNRC008 52 54 200712 87 647 1.26
DUNRC008 54 56 200713 228 706 2.04
DUNRC008 56 58 200714 83.8 786 0.97
DUNRC008 58 60 200715 185 1530 2.8
DUNRC008 60 62 200716 173 644 1.15
DUNRC008 62 64 200717 100.5 677 1.12
DUNRC008 64 66 200718 215 327 0.66
DUNRC008 66 68 200719 458 297 0.55
DUNRC008 68 70 200720 153.5 609 0.95
DUNRC008 70 72 200721 90.7 6190 6.71
DUNRC008 72 74 200722 83.4 1900 4.02
DUNRC008 74 76 200723 187.5 898 2.35
DUNRC008 76 78 200724 112 856 2.13
DUNRC008 78 80 200725 61.9 729 1.77
DUNRC008 80 82 200726 172 541 1.35
DUNRC008 82 84 200727 71.6 880 2.47
DUNRC008 84 86 200728 246 1055 1.75
DUNRC008 86 88 200729 91.8 594 1.52
DUNRC008 88 90 200730 83.8 318 0.91
DUNRC008 90 92 200731 172 561 2.5
DUNRC008 92 94 200732 90.5 353 2.34
DUNRC008 94 96 200733 161 426 2.38
DUNRC008 96 98 200734 248 512 1.66
DUNRC008 98 100 200735 114.5 670 1.82
DUNRC008 100 102 200739 192 465 1.42
DUNRC008 102 104 200740 498 348 0.94
DUNRC008 104 106 200741 64.4 1100 2.56
DUNRC008 106 108 200742 279 824 1.35
DUNRC008 108 110 200743 327 1115 2.82
DUNRC008 110 112 200744 155 1535 3.04
DUNRC008 112 114 200745 163 729 1.56
DUNRC008 114 116 200746 203 563 2.12
DUNRC008 116 118 200747 316 335 1.81
DUNRC008 118 120 200748 205 577 1.74
DUNRC008 120 122 200745 142 1065 3.16
DUNRC008 122 124 200750 113 981 2.83
DUNRC008 124 126 200751 151 305 0.93
DUNRC008 126 128 200752 271 375 5.31
DUNRC008 128 130 200753 155 127 6.14
DUNRC008 130 132 200754 133.5 268 0.95
DUNRC008 132 134 200755 542 449 3.68

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HOLE_ID FROM TO SAMPLE ME_MS61(Mo) ME_MS61(Cu) ME_MS61(Ag)
DUNRC008 134 136 200756 314 394 1.02
DUNRC008 136 138 200757 158 420 1.3
DUNRC008 138 140 200758 83.8 575 1.71
DUNRC008 140 142 200759 72.4 410 0.99
DUNRC008 142 144 200760 33.6 292 0.72
DUNRC008 144 146 200761 255 284 0.75
DUNRC008 146 148 200762 116.5 181.5 0.48
DUNRC008 148 150 200763 66.4 270 0.62
DUNRC008 150 152 200767 469 228 0.76
DUNRC008 152 154 200768 302 257 0.65
DUNRC008 154 156 200769 416 250 0.69
DUNRC008 156 158 200770 132.5 248 0.82
DUNRC008 158 160 200771 88.7 321 0.9
DUNRC008 160 162 200772 119 490 1.17
DUNRC008 162 164 200773 276 213 0.79
DUNRC008 164 166 200774 142 283 0.83
DUNRC008 166 168 200775 292 370 0.88
DUNRC008 168 170 200776 184 396 1.14
DUNRC008 170 172 200777 62.4 1360 2.85
DUNRC008 172 174 200778 104 512 1.1
DUNRC008 174 176 200779 161.5 686 1.5
DUNRC008 176 178 200780 146.5 387 0.69
DUNRC008 178 180 200781 324 320 0.91
DUNRC008 180 182 200782 87.7 519 4.17
DUNRC008 182 184 200783 188 337 1.29
DUNRC008 184 186 200784 124.5 316 0.94

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