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LATITUDE 66 LIMITED Capital/Financing Update 2021

Jan 17, 2021

65213_rns_2021-01-17_5676e2e8-14ec-418a-963b-c3f9d9099841.pdf

Capital/Financing Update

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ASX ANNOUNCEMENT – DISCOVEX RESOURCES LIMITED

18 JANUARY 2021

TRANSFORMATIONAL GOLD AND BASE METALS PROJECT ACQUISITION AND MAJOR INVESTOR

  • DCX agrees to acquire the Sylvania Project, an extensive, 2,247km[2] , highly prospective gold and base metals tenement package adjacent to Capricorn Metals Ltd’s Karlawinda Gold Project, one of Western Australia’s newest +2.1Moz[3] gold development projects in the Pilbara

  • Binding commitments to raise $3.5M via a placement and an SPP proposed to raise a further $0.5M, each subject to shareholder approval

  • Capricorn Metals Ltd (ASX:CMM) to become substantial shareholder of DCX (approx. 12%) by committing $1.2M in the placement

  • DCX invites Capricorn’s CEO, Kim Massey, to the Board after the acquisition is completed and will also transition to a new Chairman, Heath Hellewell

  • Sylvania Project application tenure (as part of Crest JV, DCX earning 90%) includes the Prairie Downs Zinc (+ lead and silver) Inferred and Indicated Mineral Resource[1] and the Spearhole Detrital Channel Iron Inferred Mineral Resource[2] and numerous copper, nickel and other commodity occurrences and prospects

  • Entire project is significantly underexplored for gold, with regional geology consistent with three major gold projects in the Pilbara e.g. Karlawinda (+2.1Moz)[3] , Paulsens (+1.1Moz)[4] and Ashburton (+2.0oz)[5]

Putting the Explore back into Modern Exploration

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  1. Refer ASX:BMY announcement – Creating a Significant New Australian Zinc Company (25 May 2015) and this announcement

  2. Refer ASX:DMA announcement – Dynasty triples JORC Resource to 1.4 Billion Tonnes (27 October 2010) and this announcement – Note: Resource Estimate is JORC 2004 compliant.

  3. Refer ASX:CMM announcement ‐ Resource/Reserve increase (17 April 2020).

  4. Refer ASX:NST announcement ‐ Resource/Reserve update (18 Aug 2020) and NST website. Paulsens Gold Operation – Factsheet (July 2018)

  5. Refer ASX:KZR announcement regarding Ashburton acquisition (23 June 2020).

DiscovEx Resources Limited (ASX:DCX) ( Company or DCX ) is delighted to provide an update to the market regarding a highly significant project acquisition and a share placement and share purchase plan ( SPP ) to raise up to $4.0M in total. Both the share placement and share purchase plan are subject to shareholder approval.

The acquisition proposed is for DCX to, subject to shareholder approval and other conditions precedent detailed below, acquire all the shares in private Western Australian company, Lighthouse Resource Holdings Pty Ltd ( Lighthouse ), which has various rights to acquire the Crest Tenements, Gateway Tenements, and Lighthouse Tenement Applications and is farming‐in to the Crest JV Tenements (as detailed in Section 2 of the JORC Code Table 1 below) ( Sylvania Project ) ( Transaction ).

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Figure 1: Prairie Downs Project location – Interpretive Geology

DCX also welcomes the commitment received from one of Western Australia’s newest, large gold mine developers, Capricorn Metals Ltd (ASX:CMM, Capricorn, CMM ) to become a substantial shareholder in DCX (approx. 12%) by participating in the share placement. The Company is also delighted that the CMM Chief Executive Officer, Kim Massey, has accepted an invitation to join the DCX Board as a Non‐ Executive Director following completion of the Transaction.

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In addition, the Company will welcome Mr Heath Hellewell to the Board as Non‐Executive Chairman (subject to completion of the Transaction), when Mr Peter Langworthy steps down from the Board of the Company.

Mr Langworthy has led DCX for the last eight years and has been instrumental in preparing the Company to be able to take on the Sylvania Project in readiness for its next phase of growth. The Company thanks Peter for his strong leadership and wishes him well into the future.

Heath is a Geologist with over 25 years of exploration experience in gold, base metals and diamond exploration, predominantly in Australia and West Africa. Heath has previously held senior exploration positions with a number of successful mining and exploration groups including Doray Minerals Limited, Independence Group NL (ASX:IGO), Resolute Mining Limited (ASX: RSG) and DeBeers Australia Pty Ltd. Heath joined IGO in 2000 prior to the Company's IPO and was part of the team that identified and acquired the Tropicana project area, eventually leading to the discovery of the Tropicana gold deposit. Heath joined Alan Kelly to form Doray Minerals Limited in 2009 and successfully led the exploration team that discovered the Andy Well deposit prior to mining and ultimately Doray’s takeover by Silver Lake Resources Limited (ASX:SLR).

Kim Massey brings a wealth of corporate, financial, markets and industry experience to the role of Non‐Executive Director. He was Chief Financial Officer of Australian gold producer Regis Resources Ltd (Regis) for 10 years, until he resigned in May 2019. Kim oversaw Regis’ financial and corporate activities and had responsibilities in investor relations, business development and strategy. He was an integral part of the financing and development of the Duketon projects for Regis. Given the high profile of his previous role, he is well known to the relevant sections of equity and debt markets in Australia. Kim is a qualified Chartered Accountant and the Chief Executive Officer of Capricorn Metals Ltd.

DCX Managing Director, Bradley Drabsch, commenting about the latest developments, said:

“It’s always been our aim to conduct serious, early‐stage exploration in areas of the State that have received little attention but have the right underlying geology. With this latest acquisition, we are giving our shareholders the opportunity to again be exposed to systematic, broad scale exploration, specifically targeting the discovery of new, large gold systems. The package also contains a zinc deposit, an iron deposit and also numerous other mineral showings, including, interestingly, a number of copper occurrences. We can’t wait to get stuck into exploring this region to complement our ongoing work at Edjudina and Newington.

We are also thrilled to welcome Capricorn Metals Limited as a proposed major shareholder and very much look forward to working with its CEO, Kim Massey when he joins our Board. Kim adds a wealth of experience in mine development and operations and will assist DCX greatly in its endeavours towards discovery.

In addition, the Company welcomes Heath Hellewell as our new Chairman replacing Peter Langworthy after completion of the Transaction. Peter has been instrumental in setting DCX up to take on the challenge of a large exploration portfolio and we wish him well with his endeavours into the future. Heath has abundant experience in gold exploration and mining in WA and we are excited to have him join us as we move into a new stage of work.”

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SYLVANIA PROJECT

Location

The Sylvania Project is a compilation of seven granted exploration licences and twelve exploration licence applications (which includes 3 tenements subject to a 90/10 JV (discussed in detail below and in appendix A) and two tenements pegged by DCX and not the subject of the acquisition, refer JORC Table 1) that cover a total of 2,247km[2] located in the Pilbara Region of Western Australia and are centred approximately 50km southwest of the giant Iron Ore hub of Newman (Figure 1). Importantly, the Sylvania Project's proximity to Newman and having both a major bitumen highway and gas pipeline adjacent to and within the tenure, provide excellent baseline infrastructure options for future project development.

In addition, the Sylvania Project is situated immediately to the west (approximately 60km) of one of Western Australia’s newest, large scale gold mine developments operated by Capricorn Metals Ltd at Karlawinda. The Karlawinda Project contains a Mineral Resource estimate of 2.15Moz @ 0.8 g/t Au and is set to pour its first gold in 2021.

Project Geology

Three major geological units are interpreted to exist within the Sylvania Project area, Archaean Greenstones belonging to both the Pilbara Craton and the Fortescue Group and also meta‐sediments and volcanics attributed to the Proterozoic aged Wyloo Group within the Ashburton Basin. Importantly, all these units are known to host significant gold deposits, outside the Sylvania Project tenure, with the Karlawinda Project (ASX:CMM, Mineral Resource of 2.15Moz @ 0.8 g/t Au) hosted in the Pilbara Craton greenstones, Paulsens (ASX:NST, production figures plus Total Resource of 1.12Moz @ 5.3 g/t Au) within the Fortescue Group and the Ashburton Project (ASX:KZR, production figures plus Total Resource 2.0Moz @ 2.6 g/t Au) hosted by the younger Proterozoic Wyloo Group (for clarity, Lighthouse has no ownership of, or other interest in, those projects). Proterozoic aged volcanic and sedimentary rocks within the Sylvania Project also host the significant Prairie Downs Zn + Pb 2012 JORC Resource (2.9Mt @ 4.9% Zn, 1.6% Pb and 15g/t Ag) located centrally within the Sylvania Project area (located on tenement applications subject to a joint venture between Lighthouse and Crest Investment Group 3 Limited, in which Lighthouse currently has a 0% interest but is farming‐in to a 90% interest). Further details on the JV terms and with respect to this Mineral Resource are discussed later in this document.

The mineralisation styles and ages for mineralisation vary across these three main gold deposits and provide multiple targeting opportunities for DCX within the Sylvania Project bounds.

Recent, publicly available data from work completed by the Geological Survey of Western Australia (GSWA), which included a deep seismic traverse across the major structural boundary between the Yilgarn and Pilbara cratons, has shown the importance of two major fault structures (Baring Downs and Nanjilgardy Faults). These faults may act as “feeders” that tap deep into the upper mantle and potentially provide the main conduits for source fluids of the mineralisation at all three major gold deposits in the region. This work has also highlighted the role of regional thrusting and transverse or linking fault structures that may also play a key role in the development of, not only gold, but also base metal deposits in the region.

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Figure 2: Sylvania Project location – Gravity and Magnetics

Key Initial Targets and Exploration Strategy

Exploration for gold in the region has generally been limited with only early‐stage efforts conducted, mostly during the mid‐1990’s. There has been little serious focus on gold and very few drillholes completed outside of the Prairie Downs Resource despite there being substantial evidence for widespread gold mineralisation in the region.

DCX’s approach, as always, will be to undertake systematic exploration using the existing historic datasets as a base whilst building information layers as exploration progresses. A number of key target areas are represented in the historic literature where stream sediment surveys delineated numerous gold anomalies that require careful investigation. At the Carney, Spearhole and Brumby prospects (refer Figure 3), stream sediment surveys conducted historically have indicated gold prospectivity. The historical reporting (the compilation and interpretation of which is ongoing and incomplete) indicates the potential for widespread gold mineralisation which DCX aims to uncover. In addition, evidence for gold mineralisation exists at the Prairie Downs Prospect adjacent to the mineral resource and this demonstrably mineralised area (mostly base metals discovered to date) will be investigated in detail, underpinned by an alternate epithermal mineralisation model for the current base metals resource.

A regional surface geochemical programme will be rolled out, immediately post completion, coupled with detailed geological mapping and airborne geophysics as required.

Whilst two mineral resources, Prairie Downs (Zinc and Lead) and Spearhole (Detrital Channel Iron) are present on the Sylvania Project, and are discussed in detail below, they will not be the immediate focus of exploration efforts.

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Figure 3: Prairie Downs Project ‐ Targets

Prairie Downs Zinc + Lead Resource

The Prairie Downs Inferred and Indicated Mineral Resource (2.98Mt @ 4.94% Zn, 1.59% Pb & 15.0g/t Ag, refer ASX:BMY announcement – Creating a Significant new Australian Zinc Company 25/05/2015) is situated within the Crest JV Tenements (application tenements) and consists of zinc, lead and silver mineralisation hosted within sulphide rich breccia zones adjacent to the Prairie Downs Fault.

The resource is located within a sequence of sediments (Prairie Downs Formation) and greenstones (the Fortescue Group) which onlap the granitic Sylvania Dome. The hanging wall rocks are mafic volcanics and the footwall lithologies range from mafic lavas, mafic pyroclastics and cherty metasediments (Jeffery, 1998).

The major regional feature is the Prairie Downs Fault (PDF) zone, a 200m wide fault zone that is visible for over 20km in the Crest JV tenements. The PDF is interpreted as a large regional fault, which taps deeply into the basement sequences but does not exhibit major displacement of the underlying Hammersley sequence (Askins, 1998).

The drill spacing for the resource is predominantly 20 m (E‐W) section spacing by 20 m (N‐S) hole spacing. In the east and western extents, drill spacing is typically 40 m (E‐W) by 20 m (N‐S). The deposit was drilled using both RC and diamond hole types, and a combination of both. Sampling, sub‐sampling and analysis history is detailed below:

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Table 1:Details of sampling, sub‐sampling and analysis techniques.

Owner Status Sampling Intervals Analytical Methods
Before Acquisition by Prairie
1 ft interval diamond core fillet samples. Other Wet chemical (Lab unknown)
Downs Metals Ltd



1 m sample splits from 3 m composites. Aqua regia with ICP‐MS finish
~~(L b~~
~~t~~
~~U k~~
~~)~~
After Acquisition by Prairie
Downs Metals Ltd
(Undertaken at ALS
Chemex, Malaga, WA)
1 m sample splits from 3 m composites. ME‐MS41 (50 elements inc Zn, Pb and Ag)
Half core diamond (0.3 to 1.33m) ME‐MS61
ME‐OG62
Au_AA25 Fire assay for Au

The resource model has a strike length of 1,300 m, width of 450 m, and extends from natural surface to a depth of 430 m. The deposit dips north at between 55[0] to 65[0] and exhibits east and west plunging components to the mineralised shoots. The mineralised zones occur in well‐defined domains and have a ribbonlike form with a width of between 60 m to 150 m downdip, and down plunge extents of up to 700 m. Shoot thickness ranges from 0.75m to 9m, with an estimated average thickness of around 2.5 m.

Sectional strings were snapped to drillholes using a nominal 1 % Zn cut‐off grade (as this appears to be a natural cut‐off) and 0.75m minimum mining width. A maximum internal dilution of two metres was used. On a small number of occasions, it was necessary to include material that was slightly lower in grade or width (down to 0.75m and 0.8% Zn) to ensure geological continuity and grade continuity along strike, with consistent plunges and lateral extents. The extracted assay data was analysed using Supervisor geostatistical software to determine variography and estimation parameters. Grade interpolations used the Ordinary Kriging method. The resource is reported using a 1% zinc cut‐off grade and is tabulated below.

Table 2: Prairie Downs June 2010 Resource Statement (reported at 1% Zn cut off grade)

Zone Resource classification Tonnes Zinc (%) Lead (%) Silver (ppm)
Central Indicated 310,000 5.55 1.69 15.8
East Indicated 930,000 6.68 1.73 22.2
Main Splay Indicated 670,000 3.75 1.01 6.3
West Indicated 360,000 3.88 2.24 11.8
Total Indicated 2,280,000 5.22 1.59 15.0
Central Inferred 220,000 3.62 1.88 18.4
East Inferred 140,000 5.81 1.73 21.1
Intermediate Splay Inferred 90,000 4.62 1.69 22.4
MainSplay Inferred 190,000 3.13 1.24 5.9
West Inferred 70,000 3.51 1.17 6.8
Total Inferred 700,000 4.03 1.58 14.9
Total 2,980,000 4.94 1.59 15.0

Resource categories were classified according to the grade interpolation pass, combined with the geological confidence and data density considerations. As outlined in the table below, the Indicated Mineral Resource category is defined by material estimated using the first and second estimation passes. The Inferred Mineral Resource category is defined by material estimated using the third pass with the fourth pass used to define material classified as Exploration Potential.

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Table 3: Criteria used for classification of resource categories.

Mineral Resource
Category
Estimation Pass
Definition
Drill Spacing Definition
Indicated Pass 1 and Pass 2 20 m (E‐W) x 20 m (N‐S) Tonnage,geometry, physical
characteristics, grade and mineral content
can be estimated with a reasonable level
of confidence. Grade and geological
continuity demonstrated.
Combination of 20 m (E‐W) x
Tonnage, grade, and mineral content can
be estimated with a low level of
Inferred Pass 3 20 m (N‐S) and 40 m (E‐W) x
20 m (N‐S)
confidence. Grade or geological continuity
can be inferred.

The Prairie Downs Resource was estimated in June 2010 and deemed to be JORC 2004 compliant. Following a review of the estimate in 2015, completed by Optiro, the Resource was re‐classified as satisfying the requirements of JORC 2012. Mark Drabble from Optiro Pty Ltd (in his capacity as competent person for this Mineral Resource Estimate) has confirmed that the resource is JORC 2012 compliant and that there has been no change to the original estimation referred to in the ASX announcement cited above. The JORC 2012 Table 1 appears below. Refer to the ASX announcement released by Brumby Resources Limited (ASX:BMY) on 25 May 2015 entitled "Creating a Significant New Australian Zinc Company" available on the ASX website. Mr Drabble confirms that he is not aware of any new information or data that materially affects the information included in that market announcement in relation to the Prairie Downs Mineral Resource in the table above, and that all material assumptions and technical parameters underpinning that Mineral Resource estimates in that market announcement continue to apply and have not materially changed.

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Figure 4: Drillhole collar locations (Grid system – Prairie Downs Local Grid )

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Figure 5: Plan view showing zinc above 1%. Point cloud (upper image) and mineralised domains (lower image)

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Figure 6: Long‐section view looking south showing breccia and veining model

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Figure 7: Cross‐section looking west (Prairie Downs Local Grid – 20220mE)

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Figure 8: Cross‐section looking west (Prairie Downs Local Grid – 19580mE)

Historic explorers predominantly used XRF analysis for the bulk of their surface geochemistry sampling, utilising the benefits of a quick and cost‐effective way to return results. The use of XRF is particularly effective when used to determine the elemental abundance where concentrations are significantly higher than the lower detection limit of the analysis (e.g. Zn, Pb, Cu etc). The lower detection limits of most XRF units provide an unreliable determination of the abundance of gold. The impact of this is that the majority of all surface geochemistry completed over the Prairie Downs Fault has not been adequately investigated for gold and presents a major opportunity for DCX to exploit this deficiency. Gold is known to occur within and adjacent to the Prairie Downs fault and has received very little attention historically.

In addition, of the 505 holes drilled within the Prairie Downs Tenement (E52/3775), only ~30% of all assays included the analysis of gold. This represents a further opportunity for DCX to view the Prairie Downs Project as one that has had little to no gold exploration completed, on the doorstep of CMM's Karlawinda +2Moz gold Resource, in a similar geological and structural setting.

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Spearhole Detrital Channel Iron Resource

The Spearhole detrital channel iron resource is situated within the Crest JV Tenements (application tenements) and occurs from, at or near surface, with consistent grades and thickness and has a historical 2004 JORC Code defined Inferred Mineral Resource of 1,400Mt @ 23.5% Fe, as announced by Dynasty Metals Australia Limited (ASX:DMA) on 27 October 2010 entitled "Dynasty triples JORC Resource to 1.4 Billion Tonnes", available on the ASX website. It is located approximately 28km north of the Prairie Downs Zn + Pb Mineral Resource and comprises iron rich detritus that has been reworked by surface processes within a buried braided river system, oriented NW‐SE, housing extensive iron rich material with pockets of higher‐grade material. Areas closer to the Brockman and Marra Mamba formation to the north west are less sorted and ferruginous material contains a lower percentage of silica as this material has not been subjected to as much silicification through precipitation. Further down the drainage system the material contains a higher fraction of rounded fragmental material.

The DiscovEx competent person views the estimate to be reliable based on information obtained through public records. All previous work that the resource relies upon was completed by Dynasty Metals Australia Limited between 2009 and 2011 and includes the completion of 196 RC holes for a total of 5,929m. Drill hole spacing was 400 x 200m and 400 x 100m. A further 37 sonic drill holes were completed for a total of 1,085m for the purposes of providing material for the calculation of bulk density data. Samples were taken via an 8” bit allowing the collection of samples weighing ~40‐60kg per metre. This allowed for the collection of at least 6 tonnes of sample from each location area, the amount recommended by the laboratory (Nagrom) to be sufficient for representative beneficiation and bulk density testing. Beneficiation samples were weighed, logged and photographed, before being bagged and prepared for shipping to the laboratory. Bulk density samples of known volume were weighed to the nearest 50g using industrial scales. The resultant bulk density readings showed some variability around a trendline that could be determined using average bulk densities within ranges. The most conservative trend was used to calculate theoretical bulk density values across the resource.

The grade estimation of Fe%, SiO2%, Phosphorus%, Calcined Fe (Fe(Ca)) and Al2O3% and LOI was completed by Inverse Distance Squared (IDW2) technique using a 100m x 100m x 1m block (block size was based on data spacing and geometry of mineralisation). The geological interpretation of the detrital material is based on drillhole logging and lab assay results with the mineralised body striking at 150[o] interpreted from the orientation of the braided river system hosting mineralisation. Broadly the concentrations of iron form parallel to tertiary paleochannels. Dip of 0[o] as detrital material does not form competent geological units. Drillholes composited to 1m intervals and allowed 2 metres of internal waste.

Bulk densities were estimated by material obtained from sonic holes that were drilled and samples taken for beneficiation testing. An 8” bit was used allowing the collection of samples weighing ~40‐ 60kg per metre. This allowed for the collection of at least 6 tonnes of sample from each location area, the amount recommended by Nagrom to be sufficient for representative beneficiation testing.

The samples were drilled, weighed, logged and photographed, before being bagged and prepared for shipping to Nagrom for processing.

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This information was prepared and first disclosed under the JORC Code 2004. It has not been updated to comply with the JORC Code 2012 on the basis that the competent person (Mr David Jenkins) has confirmed the information has not materially changed since it was last reported. Mr Jenkins confirms that the information in the market announcement of 27 October 2010 by Dynasty Minerals Limited (ASX:DMA) is an accurate representation of the available data and studies for the Spearhole Mineral Resource Estimate.

Further work is required to be completed in order to bring this resource into JORC Code 2012 compliance. This may include significant drilling and sampling along with a renewed interpretation of mineralisation and resultant model estimation. DCX is reviewing the additional work requirements in order to bring the resource into JORC Code 2012 compliance and has not yet established a timeline or budget for completion of these works. Several factors including, but not limited to commodity pricing, environmental factors and heritage factors will influence these decisions.

Please note that:

  • the estimate of the Mineral Resource at Spearhole was originally reported under JORC Code 2004 and is not reported in accordance with the JORC Code 2012;

  • the reporting of the Spearhole Mineral Resource estimate may not conform to the requirements in the JORC Code 2012;

  • a Competent Person has not done sufficient work to classify the Spearhole Mineral Resource estimate in accordance with the JORC Code 2012;

  • no more recent estimates or data relevant to the reported mineralisation is known to be available;

  • it is possible that following evaluation and/or further exploration work the currently reported estimates may materially change and hence will need to be reported afresh under and in accordance with the JORC Code 2012;

  • nothing has come to the attention of the Company that causes it to question the accuracy or reliability of the former owner’s estimates; but the Company has not independently validated the former owner’s estimates and therefore is not to be regarded as reporting, adopting or endorsing those estimates.

Table 4: Inferred Resources for Spearhole Detrital Iron Deposit

* ff
Tonnes Fe Calcined Fe SiO2 Al2O3 P LOI Cut‐O Grade
Mt % "CaFe" % % % % % % Fe
449 31.5 34.0 30.2 13.6 0.04 7.5 >27%
586 30.2 32.7 31.6 13.9 0.04 7.6 >25%
800 28.4 30.8 33.5 14.4 0.04 7.7 >22%
932 27.4 29.7 34.6 14.7 0.04 7.8 >20%
1,118 25.9 28.1 36.1 15 0.04 7.9 >17%
1,400 23.5 25.5 38.6 15.5 0.03 8.1 Total Resource

Transaction

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The Company is proposing to acquire Lighthouse, which has various rights to acquire certain granted, application (subject to grant) and JV interests in mineral tenements in Western Australia (as set out in section 2 of the JORC Code Table 1 below) comprising the Sylvania Project ( Transaction ). Lighthouse is an Australian company, incorporated on 15 April 2020. DCX also has tenement applications in its own right that form part of the Sylvania Project but are not subject to the transaction.

Lighthouse has underlying agreements to acquire the various tenement interests comprising the Sylvania Project, from Gateway Projects WA Pty Ltd (a wholly owned subsidiary of Gateway Mining Ltd, ASX:GML, the Gateway Tenements ) and Crest Investment Group 3 Limited ( Crest 3 ) (the Crest Tenements ), for which Lighthouse has issued shares as consideration (which are proposed to be acquired by DCX pursuant to the Transaction). There is a 1.5% gross revenue royalty over the Gateway Tenements in favour of Gateway Projects WA Pty Ltd. (for royalty details, refer to Appendix B).

Lighthouse also has an ongoing Farm‐in and Exploration Joint Venture Agreement with Crest 3 over three tenement applications within the Sylvania Project (the Crest JV Tenements ). Lighthouse paid $10,000 to Crest 3 and must keep the Crest JV Tenements in good standing for two years (from the date of execution of the Crest JV agreement, which was signed in 2020) in order to earn a 90% interest in the Crest JV Tenements (Lighthouse currently holds a 0% interest in the Crest JV Tenements). Lighthouse must continue to fund 100% of expenditure on the Crest JV Tenements, as Manager, until a decision to mine ( DTM ) is made. Upon a DTM, Crest 3 may contribute to expenditure based on its project interest or may convert its remaining interest to a 1% gross revenue royalty. Details of the Crest 3 Farm‐in and JV agreement are provided as Appendix A.

The Crest 3 tenements in the table below comprise five granted tenements and three application tenements. Work can commence on the granted tenements immediately. Tenement E52/3800 is over‐ pegging two other tenements (see the note in the table). This tenement is not likely to be granted as it is third in time. Withdrawal documentation has been submitted to DMIRS with respect to E52/3807 but is yet to be processed. This does not effect the project landholding as E52/3889 (a Lighthouse tenement) is the second in time application held by Lighthouse. As E52/3843 is third in time, it is unlikely to be granted and has not been included in DCX’s exploration planning.

Table 5: The Crest Tenements details

Tenement
ID
Status Holder/applicant Grant Date Expiry Date
E46/1341 Live Crest Investment Group 3 (CIG 3) 22/07/2020 21/07/2025
E46/1342 Live Crest Investment Group 3 (CIG 3) 22/07/2020 21/07/2025
E52/3638 Live Crest Investment Group 3 (CIG 3) 13/01/2020 12/01/2025
E52/3748 Live Crest Investment Group 3 (CIG 3) 4/08/2020 3/08/2025
E52/3784 Live Crest Investment Group 3 (CIG 3) 4/08/2020 3/08/2025
E52/3800 Pending Crest Investment Group 3 (CIG 3) Overpeg of Crest JV Tenements E52/3774, E52/3775
E52/3807 Pending Crest Investment Group 3 (CIG 3) Withdrawal Pending
E52/3843 Pending Crest Investment Group 3 (CIG 3) 3rdin time
Unlikely to grant, not included in diagrams for this reason

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The Gateway tenements in the table below are granted and work can commence on these immediately.

Table 6: The Gateway Tenements details

Tenement
ID Status Holder Grant Date Expiry Date
E52/3365 Live Gateway Projects WA Pty Ltd 15/05/2017 14/05/2022
E52/3366 Live Gateway Projects WA Pty Ltd 15/05/2017 14/05/2022

The Crest JV tenements (Full details of the JV terms appear in appendix A) referred to in the table below are applications. The standard application processes are being undertaken and DCX sees no reason that these tenements will not proceed to grant once all normal procedures have been completed by the WA DMIRS (Western Australian Department of Mines, Industry Regulation and Safety). DCX is not in a position to accurately advise when DMIRS will complete the application process. Reconnaissance style sampling and mapping activities may be undertaken whilst the tenements are in application.

Table 7: The Crest JV Tenements details

Tenement
ID
Status Holder/applicant
E52/3774 Pending JV: LHR earning 90%
E52/3775 Pending JV: LHR earning 90%
E52/3780 Pending JV: LHR earning 90%

The Lighthouse tenements referred to in the table below are applications. The standard application processes are being undertaken and DCX sees no reason that these tenements will not proceed to grant once all normal procedures have been completed by the WA DMIRS (Western Australian Department of Mines, Industry Regulation and Safety). DCX is not in a position to accurately advise when DMIRS will complete the application process. Reconnaissance style sampling and mapping activities may be undertaken whilst the tenements are in application.

Table 8: The Lighthouse Tenements details

Tenement
Status Holder/applicant
ID
E52/3887 Pending Lighthouse Resources (LHR)
E52/3888 Pending Lighthouse Resources (LHR)
E52/3889 Pending Lighthouse Resources (LHR)
(Overpeg of Crest Tenement
E52/3807)
E52/3890 Pending Lighthouse Resources (LHR)

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The Discovex tenements referred to in the table below are applications. The standard application processes are being undertaken and DCX sees no reason that these tenements will not proceed to grant once all normal procedures have been completed by the WA DMIRS (Western Australian Department of Mines, Industry Regulation and Safety). DCX is not in a position to accurately advise when DMIRS will complete the application process. Reconnaissance style sampling and mapping activities may be undertaken whilst the tenements are in application.

Table 9: Inferred Resources for Spearhole Detrital Iron Deposit

Tenement
ID
Status Holder/applicant
E52/3884 Pending DiscovEx Resources (DCX)
E52/3901 Pending DiscovEx Resources (DCX)

The Transaction is not conditional upon the transfer of any tenements to Lighthouse from either Crest 3 or Gateway, however, transfer documentation, where applicable, has been lodged with the Western Australian Department of Mines, Industry Regulation and Safety (DMIRS).

There is a risk that the applications for tenements may not be granted (objections have been lodged over some tenement application areas), however, DCX sees no impediments that would significantly jeopardise the process to grant of the relevant tenement applications resulting from any lodged objections.

Where required, Aboriginal Heritage Agreements have been executed on granted tenements and have either been executed or are being negotiated on tenement applications.

The consideration to be given by DCX for the acquisition of Lighthouse under the Transaction will be a total of 337,500,000 new fully paid ordinary shares in the Company ( Consideration Shares ), to be issued to the shareholders of Lighthouse (or their nominees) on a pro‐rata basis.

The vendors of Lighthouse comprise:

  1. Crest Investment Group Limited – holding 41.2% of the Lighthouse shares; 2. Gateway Projects WA Pty Ltd – holding 26.8% of the Lighthouse shares;

  2. Omni GeoX Pty Ltd ( Omni , which is a related party of DCX, due to being controlled by Peter Langworthy, who holds a greater than 75% interest in Omni) – holding 10.4% of the Lighthouse shares;

  3. Centrepeak Resources Group Pty Ltd – holding 10.4% of the Lighthouse shares; and 5. minority shareholders with smaller holdings hold the balance of the Lighthouse shares as follows:

  4. a. A and R Assets Pty Ltd – holding 3.1% of the Lighthouse shares;

  5. b. A.C.N. 112 940 057 Pty Ltd – holding 2.5% of the Lighthouse shares;

  6. c. Big Bear Nominees Pty Ltd – holding 1.4% of the Lighthouse shares;

  7. d. Martin Ross Helean – holding 1.4% of the Lighthouse shares;

  8. e. Third Reef Pty Ltd – holding 1.4% of the Lighthouse shares;

  9. f. Jason Paul Skinner – holding 0.7% of the Lighthouse shares; and

  10. g. Bournville Pty Ltd – holding 0.7% of the Lighthouse shares.

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Due to the application of the ASX Listing Rules, the DCX shares to be issued in consideration for the Lighthouse shares held by Omni will be subject to ASX‐imposed escrow for a period of 12 months from their date of issue.

Completion of the Transaction is conditional upon the following outstanding conditions precedent being satisfied (or waived by DCX):

  1. various shareholder approvals being received from DCX shareholders in an upcoming General Meeting (including for the purposes of Listing Rules 7.1, 10.1 and 10.11);

  2. execution of the relevant restriction agreements required by DCX (including in relation to Omni's escrowed shares detailed above);

  3. obtaining all regulatory consents and approvals which are necessary for the acquisition of all Lighthouse shares, including all approvals required from the ASX;

  4. completion of the Placement (as defined below) to raise at least $3.5M;

  5. no material adverse change having occurred in relation to Lighthouse prior to completion of the Transaction; and

  6. no breach of representations or warranties of the parties.

The Share Sale Agreements between the Lighthouse vendors, Lighthouse and DCX contain various other customary terms, such as restrictions on Lighthouse's activities pending the Transaction, warranties and termination events for unremedied breaches, certain other adverse events or failure to satisfy or waive the conditions precedent by 30 April 2021. Consequently, the Company indicatively aims to complete the Transaction by no later than that date.

Capital Raising

In conjunction with the Transaction, the Company plans to raise up to $4 million via a private placement of up to 875,000,000 fully paid ordinary shares in DCX at an issue price of $0.004, to raise up to $3.5 million ( Placement ) and the SPP of up to 125,000,000 fully paid ordinary shares in DCX at an issue price of $0.004 to raise up to $500,000 (together the Capital Raising ).

The Capital Raising is subject to shareholder approval at an upcoming General Meeting, however the Company has received commitments from sophisticated investors to participate in all 875 million shares under the Placement (including 300,000,000 shares applied for by Capricorn Metals Limited to raise $1.2M). The Capital Raising is contingent on the Transaction proceeding and will not proceed if the Transaction does not receive shareholder approval.

Under the SPP, each eligible DCX shareholder (ie excluding ineligible foreign holders) on DCX’s register at 7:00pm (Sydney time) on 15 January 2021 ( Record date ), will, subject to that shareholder approval and subject to the DCX Board determining to proceed with the SPP, be entitled to apply for up to $30,000 worth of new shares in DCX.

DCX reserves the right (in its absolute discretion) to scale back applications under the SPP if demand exceeds $500,000. Shares to be issued under the SPP will rank equally with existing shares of DCX.

The SPP offer period is intended to commence after the upcoming General Meeting (if shareholders approve the SPP at that meeting) and will be open subject to DCX’s discretion (no offer is being made to participate in the SPP at this stage). Further information regarding the SPP (including terms and conditions of the SPP) will be provided to eligible shareholders in the SPP offer booklet, which is anticipated to be dispatched to shareholders after the SPP is approved at the General Meeting. Participation in the SPP is optional.

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The indicative timetable for the share purchase plan is as follows (subject to the Board's discretion to amend, extend or withdraw the share purchase plan):

to amend, extend or withdraw the share purchase plan):
Record Date SPP
The date on which the Company determines Eligible Shareholders
4:00pm (Perth time) on
15 January 2021
Announcement of SPP & Lodgement of Appendix 3B Prior to ASX market open on 18
January 2021
Closing Date SPP
The date on which the Offer closes
Applications and payments must be received by this date
5:00pm (Perth time) on
8 April 2021
Announcement of SPP results As soon as possible but no later
than 13 April 2021
Issue of SPP Shares & Lodgement of Appendix 2A 15 April 2021
Indicative date for quotation of SPP Shares on ASX 16 April 2021

Further information in relation to the Capital Raising is contained in the Appendix 3B which accompanies this announcement.

The Capital Raising is not underwritten and there is no lead manager for the SPP.

Peter Langworthy and David Morgan, both current Directors of the Company intend to seek shareholder approval to participate in the Placement by subscribing for 12,500,000 shares each.

Lead Manager

Westar Capital will act as lead manager to the Placement and will receive a transaction introduction fee of $140,000 (to be paid through the issue of 35,000,000 shares) subject to shareholder approval, plus a capital raising fee (in cash) of 5% of funds raised under the placement component of the Capital Raising. In addition, subject to shareholder approval, some of the current directors of the Company intend to participate in the private Placement.

General Meeting

The Company intends to seek the following shareholder approvals in relation to the Transaction and Capital Raising:

  • Listing Rule 7.1 approvals in relation to the Capital Raising and the introduction fee to be paid to Westar Capital;

  • Listing Rule 10.11 approvals in relation to the participation of Peter Langworthy and David Morgan in the Placement element of the Capital Raising; and

  • Listing Rule 7.1, 10.1 and 10.11 approvals in relation to the issue of the Consideration Shares.

ASX has granted to the Company:

  • A waiver from Listing Rule 7.3.9 to the extent necessary to permit the Company to include a resolution in its notice of meeting to approve the issue of up to 125,000,000 fully paid ordinary shares in the Company at an issue price of $0.004 per share (‘SPP Shares’) to eligible shareholders under the Company’s Share Purchase Plan and not include a voting

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exclusion statement that excludes the votes of persons who may participate in the Share Purchase Plan, on the following conditions:

  • that the SPP is not underwritten, or if it is underwritten, the Company excludes any votes cast in favour of that resolution by any proposed underwriter or sub‐ underwriter of the SPP; and

  • that the Company excludes any votes cast in favour of that resolution by any investor who may receive shares under any SPP shortfall.

  • A waiver from Listing Rule 10.11 to the extent necessary to permit the directors of the Company and their associates to participate in the Company’s Share Purchase Plan without shareholder approval on the following conditions:

  • Shareholders of the Company approve the Share Purchase Plan; and

  • Directors and their associates are offered shares under the Share Purchase Plan on the same terms as other shareholders.

Full details will be contained in the Notice of General Meeting containing an Independent Expert's Report on the Transaction to be completed and despatched by early February 2021.

The ASX has also provided in‐principle advice that Listing Rules 11.1.2 and 11.1.3 (concerning significant changes in the nature or scale of a listed company's activities) do not apply to the Transaction or the Capital Raising. Consequently, the Company will not be required to re‐comply with ASX's admission tests in order to complete the Transaction and Capital Raising, nor to obtain shareholder approval under Listing Rule 11.1.2.

Board Changes

At completion of the Transaction, but not subject to its completion, Mr Peter Langworthy will step‐ down from his position as Non‐Executive Chairman of DCX and founding director of Lighthouse, Mr Heath Hellewell will be appointed to this position.

The Company thanks Peter for his strong leadership over the past eight years and wishes him well into the future.

Heath joins the Company after senior executive roles at Capricorn Metals Ltd (ASX:CMM) Doray Minerals Limited, Independence Group NL (ASX:IGO) and exploration roles at Resolute Mining Limited (ASX: RSG) and DeBeers Australia Pty Ltd.

Heath joined IGO in 2000 prior to the Company's IPO and was part of the team that identified and acquired the Tropicana project area, eventually leading to the discovery of the Tropicana gold deposit. Following the discovery of the Andy Well gold deposits in 2010, Doray Minerals was named "Gold Explorer of the Year" in 2011 by The Gold Mining Journal and in 2014 Heath was the co‐winner of the prestigious "Prospector of the Year" award, presented by the Association of Mining and Exploration Companies.

In 2016 Heath was instrumental in the acquisition of the Karlawinda Gold Project to form Capricorn Metals Ltd (ASX: CMM).

Heath is currently an independent Non‐Executive Director of Core Lithium Ltd (ASX: CXO) and Duketon Mining Limited (ASX: DKM).

As mentioned above, also to be appointed to the DCX Board as a Non‐Executive Director, following completion of the Transaction will be CMM Chief Executive Officer, Mr Kim Massey.

Kim brings a wealth of corporate, financial, markets and industry experience to the role. He was Chief Financial Officer of Australian gold producer Regis Resources Ltd (Regis) for 10 years, until he resigned

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in May 2019. Kim oversaw Regis’ financial and corporate activities and had responsibilities in investor relations, business development and strategy. He was an integral part of the financing and development of the Duketon projects for Regis. Given the high profile of his previous role, he is well known to the relevant sections of equity and debt markets in Australia. Kim is a qualified Chartered Accountant and the Chief Executive Officer of Capricorn Metals Ltd.

The terms of engagement for Messers Hellewell and Massey have not yet been negotiated and the Company is not obliged under any formal agreement to appoint either. The market will be kept informed as per Listing Rule 3.16.4 of engagement terms.

Future Budget

The funds to be raised pursuant to the Capital Raising are presently indicatively intended to be primarily used for the following purposes (noting that these are subject to change, as with any budget):

1 Sylvania Project(Lighthouse project): Sylvania Project(Lighthouse project):
1.1 ~$300,000 for drilling key RC/diamond drill holes testing potential gold (+/‐
copper) zones;
1.2 ~$500,000 for soil sampling and associated mapping;
1.3 ~$200,000 initial evaluation and additional mapping;
1.4 Detailed airborne geophysics across the project package ‐ ~$300,000; and
1.5 ~$500,000 for initial AC/RC/diamond drilling on targets identified as a result of
regional work;
2 Edjudina(existing Company project):
2.1 ~$200,000 for follow‐up RC drilling at the Hornet Prospect;
2.2 ~$200,000 for regional soil geochemistry (target generation); and
2.3 ~$500,000 for first pass drilling on new targets resulting from a combination of
surface geochemistry and airborne geophysics;
3 Newington (existing Company project):
3.1 ~$500,000 on future follow‐up RC/diamond drilling at both the Hawthorn and
Dawsons prospects with included potential Resource Drilling at either or both;
and
3.2 ~$200,000 on continued regional target generation including surface
geochemistry and detailed ground based geophysics at selected prospects; and
4 General working capital expenditure including capital raise fees of ~$600,000.

The details above are indicative only and DCX's Board reserves the right to repurpose the funds from the Capital Raising at its discretion.

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Indicative capital structure

The Company's capital structure currently comprises 1,196,164,076 ordinary shares and 160,228,213 options (of varying strike prices and expiry dates, as previously announced to the ASX).

If the Transaction completes and the maximum amount is raised pursuant to the Capital Raising, an additional 1,372,500,000 shares will be issued (including the 35,000,000 shares to be issued to Westar Capital).

No other equity securities will be issued by DCX as part of the Transaction or Capital Raising.

Indicative Timetable

In accordance with the ASX Listing Rules, the Record Date for participation in the SPP was 7:00pm (Sydney time) on 15 January 2021. Consequently, participation in the Placement will not entitle participation in the SPP.

Given that the Transaction and Capital Raising are subject to shareholders' approval at the upcoming General Meeting, they cannot be completed until after the resolutions approving the same are passed at the General Meeting (which is anticipated to be held in March). The Transaction is also subject to the other conditions precedent detailed above.

Edjudina and Newington Projects

The Company intends to continue exploration at its two existing gold projects, Edjudina and Newington.

Results are pending from a programme of RC drilling that was undertaken late in 2020, as planned, (a total of 20 holes for 1,785 metres was completed) at the Newington Project. These will be released to the market once received and interpreted.

An airborne geophysics programme, planned for completion late in 2020, is now underway at Edjudina after being delayed several times due to contractor equipment issues. The results of this programme will be released upon completion and interpretation.

Competent Person’s Statement

The information in this announcement that relates to Exploration Results is based on and fairly represents information and supporting documentation compiled by Mr Toby Wellman, a competent person who is a Member of The Australasian Institute of Mining and Metallurgy (MAusIMM). Mr Wellman has sufficient experience that is relevant to the style of mineralisation and type of deposit under consideration and to the activity which he is undertaking to qualify as a Competent Person as defined in the 2012 Edition of the Australasian Code for Reporting of Exploration Results, Mineral Resources and Ore Reserves (the “JORC Code”). Mr Wellman is the Executive Technical Director and Exploration Manager of DiscovEx Resources Limited and consents to the inclusion in this announcement of the Exploration Results in the form and context in which they appear. Mr Wellman is also a director of Centrepeak Resources Group Pty Ltd (one of the Lighthouse vendors) and has minority interests in that entity and in Crest Investment Group Limited (another Lighthouse vendor).

Material in this release that relates to the Mineral Resources of the Prairie Downs Zn‐Pb‐Ag Deposit is based on and fairly represents information prepared by Mr Mark Drabble, a competent person who is a Member of the Australasian Institution of Mining and Metallurgy. Mr Drabble is an employee of Optiro Pty Ltd. Mr Drabble has sufficient experience which is relevant to the styles of mineralisation and types of deposits under consideration and to the activities being undertaken 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 (the “JORC Code”). Mr Drabble consents to the inclusion in this release of the matters based on his information in the form and context in which it appears.

The information in this announcement related to the Mineral Resource at Spearhole is based on the information compiled by Mr David Randal Jenkins, a competent person who is a Member of the Australian Institute of Geoscientists. Mr David Randal Jenkins is an employee

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of Terra Search and has sufficient experience in the style of mineralisation and type of deposit under consideration and to the activity being undertaken to qualify as a Competent Person as defined in the 2004 Edition of the Australasian Code for Reporting of Exploration Results, Mineral Resources and Ore Reserves. Mr David Randal Jenkins consents to the inclusion in this announcement of the matters based on his information in the form and context in which it appears. This information was prepared and first disclosed under the JORC Code 2004. It has not been updated since to comply with the JORC Code 2012 on the basis that the information has not materially changed since it was last reported.

The forward looking statements in this announcement are based on the Company’s current expectations about future events. They are, however, subject to known and unknown risks, uncertainties and assumptions, many of which are outside the control of the Company and its Directors, which could cause actual results, performance or achievements to differ materially from future results, performance or achievements expressed or implied by the forward looking statements in this announcement. Forward looking statements generally (but not always) include those containing words such as ‘anticipate’, ‘estimates’, ‘should’, ‘will’, ‘expects’, ‘plans’ or similar expressions.

Authorised for release by and investor enquiries to:

Mr Bradley Drabsch Managing Director T: 08 9380 9440

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APPENDIX A

Summary of Crest JV Agreement

Farm‐in and Exploration Joint Venture Agreement between CREST INVESTMENT GROUP 3 LIMITED ACN 626 884 900 ("Crest") and LIGHTHOUSE RESOURCE HOLDINGS PTY LTD ACN 640 302 156 ("Lighthouse") dated 27 November 2020.

Relevant Definitions:

Commencement Date : means 27 November 2020.

Decision to Mine : means a decision to commence a Mining Operation on the Tenements.

Earn‐in Period : means the period of two (2) years commencing on the Commencement Date and expiring on the second anniversary of the Commencement Date.

Joint Venture Property : means the Tenements, the Mining Information and all rights, title, interests, claims, benefits and all other property of whatever kind, real or personal, owned by any Joint Venture Party for the purposes of the Joint Venture.

Mining Operation : means the pre‐stripping, mining, milling and concentrating of any Minerals on an area of the Tenements, including the construction, development, maintenance and operation of buildings, plant, machinery and facilities required for the purpose thereof.

Tenements : means E52/3774, E52/3775 and E52/3780.

Grant of Tenement Applications: The Parties acknowledged that as at the date of execution of the Crest JV Agreement, the Tenements were applications made in the sole name and interest of Crest and upon grant of the applications, the Tenements will be registered in the name of Crest as legal and beneficial owner of each Tenements. Crest confirmed that it was not aware of any reason why the Tenements applications may not be awarded or granted to Crest.

Consideration and Farm‐In Expenditure:

  • (a) Upon execution of the Crest JV Agreement, Lighthouse paid Crest a non‐ refundable payment of $10,000.

  • (b) During the Earn‐In Period, Lighthouse must contribute to Expenditure for the minimum amount required to maintain the Tenements in good standing ("Farm‐in Expenditure").

  • (c) If Lighthouse fails to comply with clause (b) above by the end of the Earn‐In Period, it is deemed to have given notice of withdrawal from the Crest JV Agreement to Crest with immediate effect.

Right of Lighthouse to withdraw: Lighthouse may withdraw from the Crest JV Agreement for any cause or without cause by giving notice of withdrawal to Crest (unless it has or is deemed to have already done so), at any time after the first anniversary of the Commencement Date and prior to the end of the Earn‐in Period.

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Farm‐In Expenditure Notice: If Lighthouse meets the Farm‐in Expenditure, Lighthouse must give to Crest notice of the amount of Expenditure that it has made or incurred ("Farm‐in Expenditure Notice")

Formation of Joint Venture: Upon Lighthouse giving to Crest the Farm‐in Expenditure Notice:

  • (i) the Joint Venture Parties are deemed to be associated in an unincorporated Joint Venture for the purpose of conducting Exploration and potentially conducting Mining Operations;

  • (ii) Lighthouse is deemed to have earned and acquired from Crest, and Crest is deemed to have assigned to Lighthouse, a 90% participating interest in the Joint Venture; and

  • (iii) the Tenements and the Mining Information constitute Joint Venture Property; and

  • (iv) the date of the Farm‐in Expenditure Notice is deemed the "Earning Completion Date".

Obligations to Contribute to Expenditure: Crest is not required to contribute towards Expenditure prior to the Decision to Mine for conducting a Mining Operation. From the date of the Decision to Mine, Crest will be liable to contribute to Expenditure in proportion to its participating interest.

.

Other JV Terms: the Crest JV Agreement contains various other customary JV terms, such as standard rights and obligations of the Joint Venture Parties, management of the Tenements until Earning Completion Date, programmes and budgets, management committees, manager, rehabilitation requirements, announcement of mineral resource estimates, feasibility study and Decision to Mine, dilution, assignment, priority of operations, dispute resolutions, GST, and standard warranties and representations.

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APPENDIX B

Summary of Royalty Deed

Royalty Deed between GATEWAY PROJECTS WA PTY LTD (ACN 161 934 649) (Payee), GATEWAY MINING LIMITED (ACN 008 402 391) (Gateway) and LIGHTHOUSE RESOURCE HOLDINGS PTY LTD (ACN 640 302 156) (Payer) dated 30 June 2020.

Relevant Definitions:

Interest : means the amount payable calculated at the average bid rate for bills (as defined in the Bills of Exchange Act 1909 (Cth)) having a tenor of 90 days which is displayed on the page of the Reuters Monitor System designated "BBSY" plus 2 per cent calculated on a daily basis and compounded with monthly rests, or such other similar rate of interest as the parties may agree.

Mineral: has the meaning given in the Mining Act.

Mining Act : means the Mining Act 1978 (WA) and includes any regulations made pursuant to that Act.

Mining Area: means the area within the boundaries of the Tenements where mining activities are conducted from time to time during the term of the Royalty Deed.

Payer's Percentage Share : means the percentage beneficial ownership interest held by the Payer in the Tenements and that share as it changes from time to time.

Products : means a Mineral or metallic product extracted and recovered from Minerals in the Mining Area which is capable of being sold or otherwise disposed of.

Royalty: means 1.5% of Gross Revenue received by the Payer in respect of the Payer's

Percentage Share of the sale of all Products recovered and sold in each Royalty Period.

Royalty Period: means the period commencing on the later of:

  • (a) 30 June 2020; and

  • (b) the date on which the extraction and recovery of any Product commences from the Mining Area,

and ending on the next to occur of 31 March, 30 June, 30 September and 31 December and every subsequent calendar quarter ending upon 30 June, 30 September, 31 December and 31 March.

Statutory Tenement Obligations: means the minimum work and expenditure which the holder of a Tenement is required by the Mining Act or the terms and conditions of a Tenement to incur in respect of that Tenement in any given Tenement year.

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Tenements: means:

  • (a) E52/3365 (Payer’s Percentage Share ‐ 100%) and E52/3366 (Payer’s Percentage Share ‐ 100%); and

  • (b) any application for a tenement and any present or future renewal, extension, variation, conversion, amalgamation, replacement or substitution of the whole or any part of, or which relate to the same ground as, the tenement listed in (a) above, including any mining lease.

Royalty:

  • a) As from 30 June 2020, for each Royalty Period in which any Product is produced and sold, removed or otherwise disposed of, the Payer agrees to pay to the Payee the Royalty calculated in accordance with the Royalty Deed.

  • b) The obligation to pay the Royalty accrues upon the receipt by the Payer of the Payer's Percentage Share of revenue received from the sale or other disposal of Products, or as otherwise set out in the Royalty Deed.

Payment: The Payer will pay the Royalty to the Payee within 30 days after the end of each Royalty Period in immediately available funds without demand, reduction or set‐ off.

Deduction from Royalty and other payments: If the Payer is required by law to deduct any tax, duty, impost, charge or withholding from a payment of Royalty (Tax Deduction), the Payer must:

  • a) promptly, upon becoming aware that it is required to make the Tax Deduction, or if there is any change in the rate or the basis of the Tax Deduction, notify the Payee of the amount, date and proposed recipient of the required Tax Deduction;

  • b) make the Tax Deduction and pay the minimum amount required by law to the relevant authority within the time allowed; and

  • c) within 30 days of making either the Tax Deduction or any payment required in connection with that Tax Deduction, deliver to the Payee evidence satisfactory to the Payee, acting reasonably, that the Tax Deduction has been made and paid as required.

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Interest: If the Payer fails to pay the Royalty due under the Royalty Deed on or before the due date for payment, then the Payer must also pay to the Payee immediately on demand:

  • (a) Interest on the overdue amount from the day after the due date for payment up to and including the date upon which the moneys are paid, calculated on a daily basis and compounded with monthly rests; and

  • (b) all costs and expenses (including legal costs and expenses on a full indemnity basis) incurred by the Payee which are attributable to the Payer's failure to pay by due date.

Maintenance of Tenements: The Payer will at its cost for the duration of the Royalty Deed:

  • (a) ensure all Statutory Tenement Obligations conditions are met or exemptions obtained in respect of all the Tenements.

  • (b) observe the provisions of the Mining Act and all other laws affecting the Tenements, including lodging in good time all required reports, paying all fees, rents, rates, royalties, taxes and other similar payments due;

  • (c) renew and extend each Tenement, which is not otherwise relinquished or surrendered in accordance with this Deed, as and when it becomes due for renewal and extension in accordance with the Mining Act;

  • (d) not relinquish and surrender any of the Tenements except in accordance with the Royalty Deed or the Mining Act or the terms and conditions of the Tenements; and

  • (e) not permit the creation of any encumbrance or sell, assign or otherwise deal with or dispose of the whole or any part of its interest or right in a Tenement except in accordance with the Royalty Deed.

Other Royalty Deed Terms: the Royalty Deed contains various other customary royalty terms, relating to mining operations, records, relinquished tenements, caveat and standard clauses regarding assignment, indemnity and guarantees, dispute resolutions, GST, confidentiality and notices.

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JORC CODE 2012 EDITION TABLE 1

Criteria
JORC Code explanation
Criteria
JORC Code explanation
Section 1 ‐ Sampling Techniques and Data
Nature and ualit of samlin (e cut channels
qy pg .g. ,
random chips, or specific specialised industry
standard measurement tools appropriate to the
minerals under investigation, such as down hole
gamma sondes, or handheld XRF instruments, etc).
These examples should not be taken as limiting the
broad meaning of sampling.
All data presented herein are from past exploration
activities prior to DiscovEx Resources (DCX)
involvement and have been obtained from public
records.
Prairie Downs Resource area: Historical small
diameter diamond drillholes (11), completed in
1969, were chisel fillet‐sampled and analysed by
wet chemical methods. These methods would have
under reported overall grades. Subsequent drilling
was by RC drill holes in 1998 and diamond drilling in
1994. The majority of holes were drilled between
2005 and 2008 which accounts for 340 RC and
diamond holes. 51 diamond and RC holes were
drilled during 2010 and 2011.
Include reference to measures taken to ensure sample
d h lb
_Prairie Downs Resource area:_The drill hole
l kd b d d dhl
representivity an te appropriate cairation of any
measurement tools or systems used.
ocations were pice up y GPS an ownoe
surveyed (independent downhole surveying and in‐
rod Eastman shots). RC drilling samples were split
at various intervals depending on the campaign.
Diamond core was used to obtain high quality
samples that were logged for lithological and
structural information.
At f th dtrmintin f minrlitin tht
Sampling
techniques
specs o e eeao o easao a
are Material to the Public Report.
In cases where ‘industry standard’ work has been
All references to mineralisation are taken from
reports and documents prepared by previous
explorers and have been reviewed by DCX and
considered to be fit for purpose.
DCX has done sufficient verification of the sampling
techniques, in the Competent Person’s (Toby
Wellman) opinion to provide sufficient confidence
that sampling was performed to adequate industry

done this would be relatively simple (eg ‘reverse
circulation drilling was used to obtain 1m samples
from which 3kg was pulverised to produce a 30g
charge for fire assay’). In other cases more
explanation may be required, such as where there is
coarse gold that has inherent sampling problems.
Unusual commodities or mineralisation types (eg
bi dl t dil
standards for the time in which it was undertaken
and is fit for the purpose of planning exploration
programmes
and
generating
targets
for
investigation.
_Prairie Downs Resource area:_Historical diamond
core one‐foot samples were analysed by wet
chemical methods (the analytical laboratory is
sumarne noues) may warran scosure of
detailed information.
unknown). RC drilling from 1997 had three metre
composites submitted for analysis. One meter
sample splits were submitted for recorded
mineralised intervals. In 1998 RC sampling was
three‐meter intervals regardless of mineralised
boundaries. These samples were analysed by aqua
regia digestion and an ICP‐MS finish (the analytical
laboratory is unknown). One meter RC sample splits
were taken for every metre of drilling in drilling post
2005. They were sent for analysis at ALS Chemex in
Malaga. The samples were submitted for ME‐

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MS41analysis, which is aqua regia digestion
followed by an ICP‐MS finish for analysis of 50
elements. Those samples recording >1% Cu, Zn, Pb
of > 25g/t Ag were then separately subjected to an
ore grade analysis method (ME‐OG62) which
employs a triple acid digest, HCl dissolution of
MS41analysis, which is aqua regia digestion
followed by an ICP‐MS finish for analysis of 50
elements. Those samples recording >1% Cu, Zn, Pb
of > 25g/t Ag were then separately subjected to an
ore grade analysis method (ME‐OG62) which
employs a triple acid digest, HCl dissolution of
MS41analysis, which is aqua regia digestion
followed by an ICP‐MS finish for analysis of 50
elements. Those samples recording >1% Cu, Zn, Pb
of > 25g/t Ag were then separately subjected to an
ore grade analysis method (ME‐OG62) which
employs a triple acid digest, HCl dissolution of
sulphides/silicates and an ICP‐AES finish. Diamond
core is NQ2 size or HQ (for metallurgical purposes),
sampled on geological intervals (0.3 m to 1.3 m), cut
into half core. Samples were assayed per the
technique described above.
Drill type (eg core, reverse circulation, open‐hole
hammer, rotary air blast, auger, Bangka, sonic, etc)
and details (eg core diameter, triple or standard tube,
Prairie Downs Resource area: Diamond drilling
accounts for 7% of the drilling in the resource area
and comprises NQ2 or HQ sized core. RC with
Drilling
techniques

depth of diamond tails, face‐sampling bit or other
type, whether core is oriented and if so, by what
method, etc).

diamond tails accounts for 8%, with all tails being
NQ2 sized core. Pre‐collar depths range from 29.9
m to335 m and hole depths range from 78.5 m to
605 m. Any core orientation approaches were not
recorded. RC drilling accounts for 85% of the total
drilling. Hole depths range from 25 m to 343.7 m.
Method of recording and assessing core and chip Prairie Downs Resource area: Diamond core
Drill sample
recovery

sample recoveries and results assessed.
recoveries were logged and recorded in the
database for 25% of diamond holes. Overall
recoveries are >98% and there are no core loss
issues or significant sample recovery problems.
There are no records in historic reports of RC
recoveries.
Measures taken to maximise sample recovery and Prairie Downs Resource area: Diamond core is
ensure representative nature of the samples. reconstructed into continuous runs. Depths are
checked against the depth given on the core blocks.
Whether a relationship exists between sample
recovery and grade and whether sample bias may
have occurred due to preferential loss/gain of
fine/coarse material.
Prairie
Downs
Resource
area:
No
known
relationship between recovery or grade (positive or
negative) has been recorded.
Logging Whether core and chip samples have been
geologically and geotechnically logged to a level of
detail to support appropriate Mineral Resource
estimation, mining studies and metallurgical studies.
Prairie Downs Resource area: Geotechnical logging
was carried out on 25% of diamond drillholes for
recovery, RQD and number of defects (per interval).
Information on structure type, alpha angle, beta
angle, shape, roughness and fill material is stored in
the core structure table of the database.
Whether logging is qualitative or quantitative in
Prairie Downs Resource area: Logging of diamond




nature. Core (or costean, channel, etc) photography. core
and
RC
samples
recorded
lithology,
mineralisation, structural (DDH only), veining,
colour and other features of the samples
The total length and percentage of the relevant
intersections logged.
_Prairie Downs Resource area:_Geology logging was
carried out on 90% (374 of total 419) of the
drillholes for lithology, colour, grainsize, texture
and regolith.

29

==> picture [557 x 89] intentionally omitted <==

_Prairie Downs Resource area:_Historic drillholes (11)
were chisel fillet samples, while the remaining drill
core was half cored, cut along the orientation line
where these were available.
_Prairie Downs Resource area:_No documentation
_Prairie Downs Resource area:_Historic drillholes (11)
were chisel fillet samples, while the remaining drill
core was half cored, cut along the orientation line
where these were available.
_Prairie Downs Resource area:_No documentation
If core, whether cut or sawn and whether quarter, half
or all core taken.
_Prairie Downs Resource area:_Historic drillholes (11)
were chisel fillet samples, while the remaining drill
core was half cored, cut along the orientation line
where these were available.
If non‐core, whether riffled, tube sampled, rotary
_Prairie Downs Resource area:_No documentation
split, etc and whether sampled wet or dry. explaining the splitting method or whether samples
were wet or dry is available for the pre 2010 drilling.
The 2010/2011drilling was split using a riffle splitter
into 2‐3kg size samples.
For all sample types, the nature, quality and
appropriateness
of
the
sample
preparation
technique.
_Prairie Downs Resource area:_For pre‐2005 drilling
there is no documentation of the sample
preparation method. The sample preparation for
Sub‐sampling
techniques and
RC samples post‐2005 included drying and
pulverising the entire sample (up to 3kg) to 85%
passing 75 microns in a Labtech Essa LM2 or LM5
type pulverising mill. The sample preparation for
half core samples post‐2005 included drying and
crushing entire sample to 70% passing 2mm, with a
split and pulverisation of 3 kg to 85% passing 75‐
micron.

sample
preparation
Quality control procedures adopted for all sub‐
sampling stages to maximise representivity of
samples.
_Prairie Downs Resource area:_No documentation on
QC procedures is available for the pre 2005 drilling.
QC procedures were limited to laboratory
duplicates for the 2005 to 2008 drilling. No
standards
were
inserted.
The
2010/2011
preparation was carried out at ALS which routinely
inserts duplicates, standards and blanks. Standards
were also inserted every 20 to 30 m by Ivernia
Australia Exploration Pty Ltd (Ivernia).
Measures taken to ensure that the sampling is
representative of the in situ material collected,
including
for
instance
results
for
field
duplicate/second‐half sampling.
_Prairie Downs Resource area:_No field duplicates
were taken prior to 2005. Laboratory duplicates
were taken for the 2005 – 2008 drilling. No field
duplicates were taken in the 2010/2011 drilling
program.
Whether sample sizes are appropriate to the grain
size of the material being sampled.
_Prairie Downs Resource area:_The sample sizes are
considered to be appropriate to correctly represent
the sulphide mineralisation at Prairie Downs based
on: the style of mineralisation, the thickness and
consistency of the intersections, the sampling
methodology and percent value assay ranges for
the primary elements.
Quality of assay
data and
laboratory tests
The nature, quality and appropriateness of the
assaying and laboratory procedures used and
whether the technique is considered partial or total.
_Prairie Downs Resource area:_The analytical
technique used since 1994 is aqua regia digest
multielement suite with ICP‐MS finish. For the post
2005 drilling samples above 1% Zn, Pb and >25 g Ag
were assayed using a triple acid digest; the acids
used are hydrofluoric, nitric, and perchloric with
hydrochloric acid dissolution for complete attack of
sulphides and silicates. This method approaches
total dissolution of most minerals. Au was
measured by fire assay and AAS.

30

==> picture [557 x 89] intentionally omitted <==

While no geophysical instrument has been used for
assaying, historical records show that geophysical
surveys have been undertaken in accordance with
prevailing industry standards of the time. This has
yet to be validated by the company but has been
accepted as indicative by the Competent Person
While no geophysical instrument has been used for
assaying, historical records show that geophysical
surveys have been undertaken in accordance with
prevailing industry standards of the time. This has
yet to be validated by the company but has been
accepted as indicative by the Competent Person
For geophysical tools, spectrometers, handheld XRF
instruments, etc, the parameters used in determining
the analysis including instrument make and model,
reading times, calibration factors applied and their
derivation, etc.
While no geophysical instrument has been used for
assaying, historical records show that geophysical
surveys have been undertaken in accordance with
prevailing industry standards of the time. This has
yet to be validated by the company but has been
accepted as indicative by the Competent Person
(Toby Wellman) and deemed acceptable for the
purposes of assessing prospectivity and planning
exploration.
Nature of quality control procedures adopted (eg
standards, blanks, duplicates, external laboratory
checks) and whether acceptable levels of accuracy (ie
lack of bias) and precision have been established.
_Prairie Downs Resource area:_Sample preparation
checks for fineness were carried out by the
laboratory as part of their internal procedures to
ensure the grind size of 85% passing75 micron was
bi id Lb AC il h
eng attane. aoratory QQ nvoves te use
of internal lab standards using certified reference
material, blanks, splits and replicates as part of the
in‐house procedures. Duplicate analysis by either
field or laboratory duplicates for samples reveals
that precision of samples is within acceptable
limits.
The verification of significant intersections by either _Prairie Downs Resource area:_There is no record of

independent or alternative company personnel.
the verification of significant intersections by
independent or alternative personnel.
The use of twinned holes. _Prairie Downs Resource area:_HQ diameter
diamond core was completed through three
mineralised
ore
horizons,
principally
for
metallurgical purposes and to twin nearby
mineralised RC drill holes. The drill core was visibly
Verification of
sampling and

mineralised where expected, although no physical,
metallurgical or analytical work has yet to be
undertaken on this core
Documentation of primary data, data entry
procedures, data verification, data storage (physical
and electronic) protocols.
DCX has done sufficient verification of the data to
provide sufficient confidence that sampling was
performed to adequate industry standards for the
time in which it was undertaken and is fit for the

assaying

purpose of planning exploration programs and
generating targets for investigation.
_Prairie Downs Resource area:_For the historical
drilling outside of reported ore intervals, other
assay information was difficult to capture digitally
because it was only available on poorly reproduced
microfiche records. All drilling data from 1998 was
received digitally and checked for completeness
and accuracy before being captured into the
primary
Access
database.
There
is
no
documentation of the data entry procedures or
data verification protocols for the post‐2005
sampling.
Discuss any adjustment to assay data. No adjustments have been made to any of the assay
data

31

==> picture [557 x 89] intentionally omitted <==

_Prairie Downs Resource area:_Hole collar locations
for all holes were surveyed by dGPS in GDA94
system and converted to Prairie Downs Local Grid
(PDLG). Downhole surveys were taken by several
methods
including
independent
downhole
surveying and in rod Eastman shots.
_Prairie Downs Resource area:_Hole collar locations
for all holes were surveyed by dGPS in GDA94
system and converted to Prairie Downs Local Grid
(PDLG). Downhole surveys were taken by several
methods
including
independent
downhole
surveying and in rod Eastman shots.
Accuracy and quality of surveys used to locate drill
holes (collar and down‐hole surveys), trenches, mine
workings and other locations used in Mineral
Resource estimation.
_Prairie Downs Resource area:_Hole collar locations
for all holes were surveyed by dGPS in GDA94
system and converted to Prairie Downs Local Grid
(PDLG). Downhole surveys were taken by several
methods
including
independent
downhole
surveying and in rod Eastman shots.
Location of data
points
Specification of the grid system used. Where provided, the coordinates range from older
AGD84 Zone 50 and 51 to GDA94 Zone 50 and 51.
_Prairie Downs Resource area:_Prairie Downs Local
Grid (PDLG)
Quality and adequacy of topographic control. _Prairie Downs Resource area:_Holes have been
picked up by GPS and by differential GPS, with a
0.1–1 m vertical accuracy
Data spacing
and distribution
Data spacing for reporting of Exploration Results. Prairie Downs Resource area: drillholes are collared
at a nominal spacing of 20mN by 20mE with 40m
section spacing on the west and eastern extents.
Whether the data spacing and distribution is
sufficient to establish the degree of geological and
grade continuity appropriate for the Mineral
Prairie Downs Resource area: The mineralised
domains for Prairie Downs demonstrates sufficient
continuity in both geological and grade to support

Resource and Ore Reserve estimation procedure(s)
and classifications applied.

the definition of Mineral Resources and the
classifications applied under the 2012 JORC Code.
Whether sample compositing has been applied. _Prairie Downs Resource area:_Samples have been
composited to one metre lengths.
Whether the orientation of sampling achieves
unbiased sampling of possible structures and the
_Prairie Downs Resource area:_Angled drilling was
generally oriented ‐60o 180ohowever some holes
Orientation of
data in relation
to geological
structure
extent to which this is known, considering the deposit
type.
were drilled ‐60o350oand some were vertical.
The deposit is east‐west striking with a moderate to
steep north plunge at 60o. The majority of holes
would have intersected the mineralised zones at
close to the perpendicular to the mineralised
domains.
If the relationship between the drilling orientation _Prairie Downs Resource area:_No orientation‐based
and the orientation of key mineralised structures is
considered to have introduced a sampling bias, this
should be assessed and reported if material.
sampling bias has been identified in the data at this
point.
Sample security The measures taken to ensure sample security. There are no records relating to historic sample
security procedures
The results of any audits or reviews of sampling
_Prairie Downs Resource area:_A review of the
samlin techniues and data was carried out b
Audits or
reviews
techniques and data. pg q y
Optiro as part of the resource estimation and the
database is considered to be of sufficient quality to
carry out resource estimation.

Section 2 – Reporting of Exploration Results

Section 2 – Reporting of Exploration Results Section 2 – Reporting of Exploration Results Section 2 – Reporting of Exploration Results Section 2 – Reporting of Exploration Results
Mineral
tenement and
Type,
reference
name/number,
location
and
The Sylvania Project comprises seven granted Exploration Licences and twelve Exploration
Licence Applications as detailed below (ten the subject of the acquisition, two pegged by DCX).

32

==> picture [557 x 89] intentionally omitted <==

land tenure
status
ownership
including
agreements
or
material
issues
with third parties
such
as
joint
The Crest Tenements referred to in the above announcement text comprise:
Tenement
ID
Status
Holder/applicant
Grant Date
Expiry Date
The Crest Tenements referred to in the above announcement text comprise:
Tenement
ID
Status
Holder/applicant
Grant Date
Expiry Date
The Crest Tenements referred to in the above announcement text comprise:
Tenement
ID
Status
Holder/applicant
Grant Date
Expiry Date
The Crest Tenements referred to in the above announcement text comprise:
Tenement
ID
Status
Holder/applicant
Grant Date
Expiry Date
The Crest Tenements referred to in the above announcement text comprise:
Tenement
ID
Status
Holder/applicant
Grant Date
Expiry Date
The Crest Tenements referred to in the above announcement text comprise:
Tenement
ID
Status
Holder/applicant
Grant Date
Expiry Date
Tenement
ID
Status Holder/applicant Grant Date Expiry Date
ventures,
partnerships,
overriding
royalties, native
title
interests,
historical
sites,
wilderness
or
national
park
E46/1341 Live Crest Investment Group 3 (CIG 3) 22/07/2020 21/07/2025
E46/1342 Live Crest Investment Group 3 (CIG 3) 22/07/2020 21/07/2025
E52/3638 Live Crest Investment Group 3 (CIG 3) 13/01/2020 12/01/2025
E52/3748 Live Crest Investment Group 3 (CIG 3) 4/08/2020 3/08/2025
E52/3784 Live Crest Investment Group 3 (CIG 3) 4/08/2020 3/08/2025
and
environmental
settings.
E52/3800 Pending Crest Investment Group 3 (CIG 3) Overpeg of Crest JV Tenements
E52/3774, E52/3775
E52/3807 Pending Crest Investment Group 3 (CIG 3) Withdrawal Pending
E52/3843 Pending Crest Investment Group 3 (CIG 3) 3rdin time
Unlikely to grant, not included in
diagrams for this reason
Tenement
ID
Status Holder Grant Date Expiry Date
E52/3365 Live Gateway Projects WA Pty Ltd 15/05/2017 14/05/2022
E52/3366 Live Gateway Projects WA Pty Ltd 15/05/2017 14/05/2022
E52/3365 and E52/3366
Holder/applicant
JV: LHR earning 90%
JV: LHR earning 90%
JV: LHR earning 90%
Tenement
ID
Status Holder/applicant
E52/3774 Pending JV: LHR earning 90%
E52/3775 Pending JV: LHR earning 90%
E52/3780 Pending JV: LHR earning 90%
Tenement
ID
Status Holder/applicant
E52/3887 Pending Lighthouse Resources (LHR)
E52/3888 Pending Lighthouse Resources (LHR)

33

==> picture [557 x 89] intentionally omitted <==

Lighthouse Resources (LHR)
(Overpeg of Crest Tenement
E52/3807)
Lighthouse Resources (LHR)
Lighthouse Resources (LHR)
(Overpeg of Crest Tenement
E52/3807)
Lighthouse Resources (LHR)
E52/3889 Pending Lighthouse Resources (LHR)
(Overpeg of Crest Tenement
E52/3807)
E52/3890 Pending Lighthouse Resources (LHR)
Tenement
ID
Status Holder/applicant
E52/3884 Pending DiscovEx Resources (DCX)
E52/3901 Pending DiscovEx Resources (DCX)
The security of
the tenure held
at the time of
reporting along
with any known
impediments to
The granted tenements are in good standing and are currently being assessed for duty within
the Office of State Revenue before being transferred to Lighthouse Resources. The pending
tenements are within the DMIRS grant process and will be assessed in due course.
obtaining
a
licence
to
operate in the
area.
Acknowledgment
and appraisal of
exploration
by
Numerous exploration companies have conducted exploration at Prairie Downs and
surrounding areas over a number of years. This includes:
Australian Ores and Minerals NL/Hill Minerals NL (Zn/Pb 1969‐1974)
Exploration
done by other
parties
other parties. ,
Shell Minerals Exploration (Australia) Pty Ltd (Zn/Pb, 1974‐1975)
CRA Exploration Pty Ltd (U, 1974)
Pancontinental Mining Ltd/PMC Exploration Australia Pty Ltd (U, 1979‐1987)
Uranerz Australia Pty Ltd (U, 1981)
Concord Mining NL (1987 – 1991)
Sovereign Resources (Australia) NL (Cu/Pb/Zn, 1991‐1997)
Hampton Hill Mining NL (Au/Cu, 1996 – 1999)
Fodina Minerals Pty Ltd/Outokompu Exploration Ventures Pty Ltd (Cu/Pb/Zn, 1994‐1996)
Capricorn Resources NL (Zn/Pb, 1998)
Prairie Down Metals Pty Ltd (Zn/Pb/Fe, 2005 – 2010)

34

==> picture [557 x 89] intentionally omitted <==

Ivernia Inc. (Zn/Pb – 2010‐2012)
Dynasty Resources (Fe, 2010‐2017
Marindi Metals (Zn/Pb, 2013‐2016)
The Prairie Downs deposit is located within a sequence of sediments (Prairie Downs
Ivernia Inc. (Zn/Pb – 2010‐2012)
Dynasty Resources (Fe, 2010‐2017
Marindi Metals (Zn/Pb, 2013‐2016)
The Prairie Downs deposit is located within a sequence of sediments (Prairie Downs
Ivernia Inc. (Zn/Pb – 2010‐2012)
Dynasty Resources (Fe, 2010‐2017
Marindi Metals (Zn/Pb, 2013‐2016)
Deposit
type,
The Prairie Downs deposit is located within a sequence of sediments (Prairie Downs
Geology geological
setting and style
of
mineralisation.
Formation) and Archaen greenstones (Fortescue Group) which onlap the granitic Sylvania
Dome. The hanging‐wall rocks are mafic volcanics and the footwall lithologies range from
mafic lavas, mafic pyroclastics and cherty metasediments.
The mineralisation appears to have a strong association with the brecciated zones and could
broadly be described as stratabound. There are clear associations of mineralisation to the
hanging‐wall and footwall contacts of the breccias however there are quite well‐defined zones
of cross‐cutting mineralisation that are probably related to zones of enhanced fluid flow
caused by fracture zones.
The Husky South prospect is located on the Prairie Downs Fault. The fault loosely marks the
contact between the Fortescue group and the Bresnahan group and hosts high grade zinc and
lead mineralisation.
A summary of all
information
material to the
A total of 423 holes have been drilled into Prairie Downs.

understanding of
the
exploration
results including
a tabulation of
the
following
information
for
all Material drill
holes
Refer to Appendix 1 – Drilling Summary Table, following this table
Drill hole
:
Easting
and
northing of the
drill hole collar
Refer to Appendix 1 – Drilling Summary Table, following this table
Elevation or RL
(Reduced Level –
elevation above
Refer to Appendix 1 – Drilling Summary Table, following this table
Information sea
level
in
metres) of the
drill hole collar
Dip and azimuth
of the hole
Refer to Appendix 1 – Drilling Summary Table, following this table
Down hole length Refer to Appendix 1 – Drilling Summary Table, following this table
and interception
depth
Hole length. Refer to Appendix 1 – Drilling Summary Table, following this table
If the exclusion of
this information
is justified on the
bi tht th
Information is not excluded
ass a e
information
is
not Material and

35

==> picture [557 x 89] intentionally omitted <==

this
exclusion
does not detract
from
the
understanding of
the report, the
Competent
Person
should
clearly
explain
why this is the
case.
In
reporting
Exploration
Results,
All reported assays have been length weighted. No top‐cuts have been applied. A nominal
0.3% Zn or Pb lower cut‐off has been applied for holes outside the Prairie Downs resource
area and this has been increased to 1% Zn or Pb as the cut‐off for wireframing and reporting
weighting
averaging
techniques,
maximum and/or
minimum grade
truncations
(eg
cutting of high
grades) and cut‐
of intercepts within the resource area. No metal equivalents have been used.
off grades are
usually Material
and should be
stated.
Where
aggregate
intercepts
The historically reported significant intercepts do carry minor zones of low‐grade
mineralisation
Data
aggregation
methods
incorporate short
lengths of high
grade results and
longer lengths of
low
grade
results,
the
procedure
used
for
such
aggregation
should be stated
and some typical
examples of such
aggregations
should be shown
in detail.
The assumptions
used
for
any
reporting
of
metal equivalent
values should be
clearly stated.
No metal equivalent values have been used for reporting exploration results
Relationship
These
The Prairie Downs deposit strikes east west and is moderately dipping to the north (60o). The
between
mineralisation
widths and
relationships are
particularly
important in the
fans of drilling are inclined mainly between ‐40oand ‐90oto the south to allow intersection
angles with the mineralised zones to approximate the true width.

36

==> picture [557 x 89] intentionally omitted <==

The geometry of the disseminated mineralisation at Wolf is north westerly. The dip is sub
vertical and the orientation of high‐grade veins is yet to be determined due to the early
The geometry of the disseminated mineralisation at Wolf is north westerly. The dip is sub
vertical and the orientation of high‐grade veins is yet to be determined due to the early
intercept
lengths
reporting
of
Exploration
Results.
If the geometry
of
the
The geometry of the disseminated mineralisation at Wolf is north westerly. The dip is sub
vertical and the orientation of high‐grade veins is yet to be determined due to the early
mineralisation
with respect to
the
drill
hole
angle is known,
its nature should
be reported.
stage of exploration.
If it is not known
and
onl
the
Intersections tabled in Appendix 1 are downhole lengths

y

down
hole
lengths
are
reported,
there
should be a clear
statement to this
effect (eg ‘down
hole length, true

width
not
known’).
Appropriate
maps
and
sections
(with
scales)
and
tabulations
of
i hld
Refer to Figures 4‐8 above
Diagrams ntercepts sou
be included for
any
significant
discovery being
reported. These
should
include,
but not be limited
to a plan view of
drill hole collar
locations
and
appropriate
sectional views.
Where
comprehensive
reporting of all
All historic holes have been reported
Balanced
reporting
Exploration
Results
is
not
practicable,
representative
reporting of both
low
and
high
grades
and/or
widths should be
practiced
to
avoid misleading
reporting
of

37

==> picture [557 x 89] intentionally omitted <==

In 2009 a Geological Interpretation and Target Generation program was carried out.
The result was identification of 11 fault hosted zinc targets; four are considered high
In 2009 a Geological Interpretation and Target Generation program was carried out.
The result was identification of 11 fault hosted zinc targets; four are considered high
Exploration
Results.
Other
exploration data,
In 2009 a Geological Interpretation and Target Generation program was carried out.
The result was identification of 11 fault hosted zinc targets; four are considered high

if meaningful and
material, should
be
reported
including (but not
limited
to):
geological
observations;
geophysical

priority. This program also identified possible uranium, gold and iron ore targets.
An IP survey was conducted by Shell but the work stopped just east of Zone 1 so that the
prospective cross fault/jog zone was not surveyed.
Airborne magnetics 1:25,000 contours covered much for the tenement block. There were
no distinctive features evident along the Prairie Downs Fault. A moderate magnetic high
corresponds to the known komatiite to the north of the fault, this could be useful means
Other
substantive
exploration

survey
results;
geochemical
survey
results;
bulk samples –
size and method
of
treatment;
metallurgical test
l
blk
of localising an area to explore for nickel sulphides.
Geotechnical logging was carried out on all diamond drillholes for recovery, RQD and
number of defects (per interval). Information on structure type, dip, dip direction, alpha
angle, beta angle, texture, shape, roughness and fill material is stored in the structure
table of the database.
In July 2014 a vacuum drilling program was undertaken by Marindi Metals Pty ltd to
obtain a comprehensive geochemical coverage over the Prairie Downs Fault Zone A TD80

data
resuts;
u
density,
groundwater,
geotechnical and
rock
characteristics;
potential
deleterious
or
.
4x4 Tractor mounted Vacuum Drill Module with a 25mm blade bit was utilised for sample
collection. Qualitative logging was carried out to determine if the sample was primary
rock derived or transported /alluvial in origin. All holes were logged and only the bottom
of hole sample was submitted for assay. The sample was grab sampled, with
approximately 300g being taken for assay. The assay technique consisted of a four Acid
Comprehensive ICP‐OES & MS package with 60 elements being routinely assayed for. The
assaying was carried out by Intertek Testing Services, an independent geochemical
lb ih d il li l Th dilli li
contaminating
substances.
aoratory wt aequate nterna quaty contros. e rng program was on nes
500m to 1 kilometre apart and the spacing between holes was approximately 100 metres.
All drill hole collars were located by hand held GPS.
In August 2014 a Gradient Array IP/ Resistivity survey was completed by Marindi Metals.
The survey contractor was GPX Surveys and two 1 km block arrays were surveyed, Lone
Wolf, which was an extension to the IP survey completed historically by Prairie Downs
Metals, and Husky, located several kilometres north west along strike. The line spacing
was 100m and stations read every 20m
.
Further work The nature and
scale of planned
further work (eg
tests for lateral
extensions
or
depth extensions
or
large‐scale
Further targeting of anomalism through extensive soil sampling with take place over the
coming quarters, followed by AC drilling if appropriate.

step‐out drilling).
Diagrams clearly
highlighting the
areas of possible
extensions,
including
the
main geological
Refer to figures 1 ‐ 3 within this Announcement.

interpretations
and
future

38

==> picture [557 x 89] intentionally omitted <==

drilling areas, provided this information is not commercially sensitive.

Section 3 – Estimation and Reporting of Mineral Resources

Section 3 – Estimation and Reporting of Mineral Resources Section 3 – Estimation and Reporting of Mineral Resources Section 3 – Estimation and Reporting of Mineral Resources Section 3 – Estimation and Reporting of Mineral Resources
Criteria JORC Code explanation Commentary
Database integrity Measures taken to ensure that data has not been
corrupted by, for example, transcription or keying
errors, between its initial collection and its use for
_Prairie Downs:_Sample bags are unique and pre‐
numbered bags were used.

Mineral Resource estimation purposes.
Data validation procedures used.
_Prairie Downs:_Data validation checks were run
prior to estimation. This included original drill plod
and collar location survey reading checks for the
collar file. Downhole surveys were checked against
Eastman and Gyro camera readings.
Site visits Comment on any site visits undertaken by the
Competent Person and the outcome of those visits.
If no site visits have been undertaken indicate why this
is the case.
_Prairie Downs:_Optiro carried out a site visit to the
Prairie Downs deposit in May 2010. Mark Drabble
inspected the deposit area including numerous
outcrops, diamond core and the core logging.
During this time, notes and photos were taken
along with discussions held with site personnel
regarding procedures.
Geological
interpretation
Confidence in (or conversely, the uncertainty of) the
geological interpretation of the mineral deposit.
_Prairie Downs:_There is a high level of confidence
in the geological interpretation die to the readily
identifiable stratigraphic control on mineralisation.
Wireframes are used to constrain the estimation
and are based on drill hole intercepts and
geological boundaries. All wireframes have been
constructed to 1% Zn cut‐off grades for shape
consistency
Nature of the data used and of any assumptions
made. The effect, if any, of alternative interpretations
on Mineral Resource estimation.
The use of geology in guiding and controlling Mineral
Resource estimation.
.
_Prairie Downs:_The mineralisation is generally quite
consistent and drill intercepts clearly define the
shape of the mineralised body, with limited
options for large‐scale alternate interpretations.
_Prairie Downs:_The controls on and interpretation
of mineralisation are relatively straight forward,
The factors affecting continuity both of grade and
geology.
and no alternative interpretations have been
considered.
_Prairie Downs:_Wireframes have been used to
constrain the estimation and are based on drillhole
intercepts and geological boundaries.
Wireframes are constructed to 1% Zn cut‐off grade
for shape consistency. On a small number of
occasions, it was necessary to include material that
was slightlylower ingrade or width(down to

39

==> picture [557 x 89] intentionally omitted <==

0.75m and 0.8% Zn) to ensure geological
continuity.
The extent and variability of the Mineral Resource
expressed as length (along strike or otherwise), plan
width and depth below surface to the upper and
_Prairie Downs:_The Inferred and higher classified
mineralisation covers 1,300m east‐west along
strike. The resource extends from surface to a
0.75m and 0.8% Zn) to ensure geological
continuity.
The extent and variability of the Mineral Resource
expressed as length (along strike or otherwise), plan
width and depth below surface to the upper and
_Prairie Downs:_The Inferred and higher classified
mineralisation covers 1,300m east‐west along
strike. The resource extends from surface to a
0.75m and 0.8% Zn) to ensure geological
continuity.
The extent and variability of the Mineral Resource
expressed as length (along strike or otherwise), plan
width and depth below surface to the upper and
_Prairie Downs:_The Inferred and higher classified
mineralisation covers 1,300m east‐west along
strike. The resource extends from surface to a
0.75m and 0.8% Zn) to ensure geological
continuity.
Dimensions The extent and variability of the Mineral Resource
expressed as length (along strike or otherwise), plan
width and depth below surface to the upper and
_Prairie Downs:_The Inferred and higher classified
mineralisation covers 1,300m east‐west along
strike. The resource extends from surface to a
,
lower limits of the Mineral Resource.

depth of 430m. Mineralisation is ribbon like
varying width from 60m to 150m down dip. Shoot
thickness ranges from 0.75m to 9m.
Estimation
and
modelling
techniques
The nature and appropriateness of the estimation
technique(s) applied and key assumptions, including
treatment of extreme grade values, domaining,
interpolation parameters and maximum distance of
_Prairie Downs:_Grade estimation by Ordinary
Kriging (OK) was completed for Prairie Downs
using Surpac software. Three elements were
estimated, Zn% Pb% and Ag (ppm).
extrapolation from data points. If a computer assisted
estimation method was chosen include a description
of computer software and parameters used.
Drill grid spacing ranges from 10m to 40m on and
between sections.
Variogram orientations were largely controlled by
the strike of mineralisation and downhole
variography. Variograms for estimation were
determined individually for each element.
Other estimation parameters such as search
distance, minimum and maximum samples
numbers were derived by KNA. Search distances
varied from 62m to 166m depending on the
structural domain being estimated.
_Prairie Downs:_A comparison was made with the
February 2008 estimation. There was a reduction
in the global tonnage but the Indicated Mineral
The availability of check estimates, previous estimates
and/or mine production records and whether the
Mineral Resource estimate takes appropriate account
,
Resource is essentially the same. There has been a
large reduction in tonnage of the material
classified as Inferred Minerals Resources due to
the major re‐interpretation of the mineralised
domains, and more geologically consistent
projection of the mineralised domains at depth
and along strike.
of such data. _Prairie Downs:_No assumptions have been made
regarding recovery of any by‐products.
_Prairie Downs:_No deleterious elements were
estimated.
_Prairie Downs:_The block model dimensions and
The assumptions made regarding recovery of by‐
products.
parameters were based on the geological
boundaries and average drill grid spacing. Sub‐
blocks were used to ensure that the block model
honoured the domain geometries and volume.
Block estimates were controlled by the original
parent block dimensions. The individual parent
block dimensions were 10m E by 5m N by 5m RL,
with sub‐blocking down to 2.5m E by 1.25m N by
1.25m RL. Estimation into parent blocks used a
descretisation of 3(Xpoints)by3(Ypoints)by3(Z

40

==> picture [557 x 89] intentionally omitted <==

Estimation of deleterious elements or other non‐grade
variables of economic significance (eg sulphur for acid
mine drainage characterisation).
In the case of block model interpolation, the block size
points) to better represent estimated block
volumes.
_Prairie Downs:_No selected mining units were
assumed in this estimate as the scale of mining is
unsure.
Estimation of deleterious elements or other non‐grade
variables of economic significance (eg sulphur for acid
mine drainage characterisation).
In the case of block model interpolation, the block size
points) to better represent estimated block
volumes.
_Prairie Downs:_No selected mining units were
assumed in this estimate as the scale of mining is
unsure.
Estimation of deleterious elements or other non‐grade
variables of economic significance (eg sulphur for acid
mine drainage characterisation).
In the case of block model interpolation, the block size
points) to better represent estimated block
volumes.
_Prairie Downs:_No selected mining units were
assumed in this estimate as the scale of mining is
unsure.
Estimation of deleterious elements or other non‐grade
variables of economic significance (eg sulphur for acid
mine drainage characterisation).
In the case of block model interpolation, the block size
points) to better represent estimated block
volumes.
_Prairie Downs:_No selected mining units were
assumed in this estimate as the scale of mining is
unsure.
in relation to the average sample spacing and the
search employed.
_Prairie Downs:_Multi‐element analysis was
conducted on the composites. There is a strong
correlation between silver and lead.
_Prairie Downs:_Drillhole sample data was flagged
using domain codes generated from three‐
dimensional mineralisation domains and further
divided into structural domains. Sample data was
comosited er element to a one metre downhole
p p
length fixed length‐method. Intervals with no
assays were excluded from the composite routine.
Mineralisation domains were treated as soft
boundaries in the estimation process.
_Prairie Downs:_Statistical analysis showed the
populations in each domain at Prairie Downs
Any assumptions behind modelling of selective mining
units.
generally have a low coefficient of variation, but it
was noted that a very small number of estimation
domains included outlier values that required top‐
cut values to be applied.
_Prairie Downs:_Validation of the block model
included a volumetric comparison of the resource
wireframes to the block model volumes. Validating
the estimate compared block model grades to the
Any
assumptions
about
correlation
between
variables.
Description of how the geological interpretation was

input data using tables of values, and swath plots
showing northing, easting and elevation
comparisons. Visual validation of grade trends and
metal distributions was carried out. No mining has
taken place; therefore, no reconciliation data is
available.
used to control the resource estimates.

41

==> picture [557 x 89] intentionally omitted <==

Discussion of basis for using or not using grade cutting
or capping.
The process of validation, the checking process used,
the comparison of model data to drill hole data, and
use of reconciliation data if available.
Moisture Whether the tonnages are estimated on a dry basis _Prairie Downs:_The tonnages have been estimated
or with natural moisture, and the method of
determination of the moisture content.
on a dry basis.
.
Cut‐off parameters The basis of the adopted cut‐off grade(s) or quality
parameters applied.
_Prairie Downs:_A nominal cut‐off of 1% Zn appears
to be a natural grade boundary for the Prairie
Downs mineralised system. This cut‐off grade was
used to define the mineralisation.
Mining factors or
assumptions
Assumptions made regarding possible mining
methods, minimum mining dimensions and internal
(or, if applicable, external) mining dilution. It is
always necessary as part of the process of
determining reasonable prospects for eventual
economic extraction to consider potential mining
methods, but the assumptions made regarding
mining methods and parameters when estimating
_Prairie Downs:_No minimum mining assumptions
were made during the resources wireframing or
estimation process.
Mineral Resources may not always be rigorous.
Where this is the case, this should be reported with
an explanation of the basis of the mining
assumptions made.
Metallurgical
factors or
assumptions
The basis for assumptions or predictions regarding
metallurgical amenability. It is always necessary as
part of the process of determining reasonable
Prairie Downs: No metallurgical factors or
assumptions are made during the resource
estimation process as this will be addressed
prospects for eventual economic extraction to
consider potential metallurgical methods, but the
assumptions regarding metallurgical treatment
processes and parameters made when reporting
Mineral Resources may not always be rigorous.
Where this is the case, this should be reported with
an explanation of the basis of the metallurgical
assumptions made.

during conversion to Ore Reserve. The
resource block model has been populated
with multi‐ element data which is required
for the metallurgical analysis during the Ore
Reserve process.
Environmental
factors or
assumptions
Assumptions made regarding possible waste and
process residue disposal options. It is always
necessary as part of the process of determining
reasonable prospects for eventual economic
extraction to consider the potential environmental
impacts of the mining and processing operation.
While at this stage the determination of potential
_Prairie Downs:_No environmental factors or
assumptions have been made during the resource
estimation process.
environmental impacts, particularly for a greenfields
project, may not always be well advanced, the status
of early consideration of thesepotential

42

==> picture [557 x 89] intentionally omitted <==

environmental impacts should be reported. Where
these aspects have not been considered this should
be reported with an explanation of the
environmental assumptions made.
Whether assumed or determined. If assumed, the
basis for the assumptions If determined the method
_Prairie Downs:_Assigned densities were derived
from the results of the 2009 Resource Report
environmental impacts should be reported. Where
these aspects have not been considered this should
be reported with an explanation of the
environmental assumptions made.
Whether assumed or determined. If assumed, the
basis for the assumptions If determined the method
_Prairie Downs:_Assigned densities were derived
from the results of the 2009 Resource Report
environmental impacts should be reported. Where
these aspects have not been considered this should
be reported with an explanation of the
environmental assumptions made.
Whether assumed or determined. If assumed, the
basis for the assumptions If determined the method
_Prairie Downs:_Assigned densities were derived
from the results of the 2009 Resource Report
environmental impacts should be reported. Where
these aspects have not been considered this should
be reported with an explanation of the
environmental assumptions made.
Bulk density Whether assumed or determined. If assumed, the
basis for the assumptions If determined the method
_Prairie Downs:_Assigned densities were derived
from the results of the 2009 Resource Report
. ,
used, whether wet or dry, the frequency of the
measurements, the nature, size and
representativeness of the samples.
The bulk density for bulk material must have been
measured by methods that adequately account for
id i i d

(Kerr, 2009). Optiro assigned a density of 3.0t/m3
to zinc mineralisation and 2.8t/m3 to fresh waste
material. A conservative density of 2.2t/m3 was
assigned to waste oxide material.
_Prairie Downs:_The bulk density determination
methodology was not documented.
di ifi i
vo spaces (vugs, porosty, etc), mosture an
differences between rock and alteration zones within
the deposit.
191 ensty (specc gravty) measurements were
taken on drill core and these have been classified
into six main rock types. Three of the rock types
dominate the lithologies proximal to the Prairie
Downs Fault, and accordingly these have received
the most density measurements. 69
measurements were within the Silx Breccia (29
mineralised readings), 60 readings were in mafic
Discuss assumptions for bulk density estimates used
in the evaluation process of the different materials.
rock (6 mineralised) and 41 readings were in
chlorite quartz‐vein schist (5 mineralised).
_Prairie Downs:_More recent physical test work
completed on diamond drill core shows that the
massive sulphide mineralisation accumulations
from the Main Lode exceeds SG determinations of
3.5 and hence an average value of 2.93 is likely to
under call the true density of high‐grade

mineralisation and by extension the tonnage of
contained metal. As a consequence, a density of
3.00g/cm3was utilised inside all wireframes for
resource estimation.
Classification The basis for the classification of the Mineral
Resources into varying confidence categories.
_Prairie Downs:_The Mineral Resource classification
at Prairie Downs is based on good confidence in
the geological and grade continuity, along with
Whether appropriate account has been taken of all
relevant factors (ie relative confidence in
tonnage/grade estimations, reliability of input data,
confidence in continuity of geology and metal values
20m‐by‐20m spaced drillhole density. Estimation
quality parameters, including estimation pass,
have been utilised during the classification
process.
_Prairie Downs:_The input data is comprehensive in
its coverage of the mineralisation and does not
favour or misrepresent in‐situ mineralisation. The
,
quality, quantity and distribution of the data).
Whether the result appropriately reflects the
Competent Person’s view of the deposit.
definition of mineralised zones is based on a high‐
level geological understanding producing a robust
model of mineralised domains.
_Prairie Downs:_The validation of the block model
shows good correlation of the input data to the
estimated grades.
Audits or reviews The results of any audits or reviews of Mineral _Prairie Downs:_The reported Resource released by
Resource estimates. Brumby Resources in 2015 is a review of the
Prairie Downs 2009 Mineral Resource estimate and

43

==> picture [557 x 89] intentionally omitted <==

is not a re‐estimate. The 2009 resource was
reviewed by Optiro and improvements made to
the geological domains as a result of this audit and
new information.
_Prairie Downs:_The relative accuracy of the Mineral
Resource estimate is reflected in the reporting of
is not a re‐estimate. The 2009 resource was
reviewed by Optiro and improvements made to
the geological domains as a result of this audit and
new information.
_Prairie Downs:_The relative accuracy of the Mineral
Resource estimate is reflected in the reporting of
Discussion of
relative accuracy/
Where appropriate a statement of the relative
accuracy and confidence level in the Mineral
_Prairie Downs:_The relative accuracy of the Mineral
Resource estimate is reflected in the reporting of

confidence

Resource estimate using an approach or procedure
deemed appropriate by the Competent Person. For
example, the application of statistical or
geostatistical procedures to quantify the relative
accuracy of the resource within stated confidence
limits, or, if such an approach is not deemed
appropriate, a qualitative discussion of the factors
h ld h li d

the Mineral Resource as per the guidelines of the
2012 JORC Code and is considered to reflect
annual mining volumes.
tat cou affect te reatve accuracy an
confidence of the estimate.
The statement should specify whether it relates to
global or local estimates, and, if local, state the
relevant tonnages, which should be relevant to
technical and economic evaluation. Documentation
should include assumptions made and the
procedures used.
_Prairie Downs:_This statement relates to global
estimates of tonnes and grade.

These statements of relative accuracy and
confidence of the estimate should be compared with
production data, where available.
_Prairie Downs:_No production data is available.

44

Appendix C – Drilling Summary Table

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
DDH01 733362.9 7374565.1 624.7 91.4 ‐45 243.06 32.6 35.7 3.1 2.19 4.81
DDH02 733213.5 7374779 625.9 114.3 ‐60 244.06 81.38 84.7 3.32 1.5 2.08
DDH06 733330 7374614 626.9 91.4 ‐60 248.06 30.8 33.2 2.4 1.65 23.3 8
DDH07 733304 7374659 626.9 259.1 ‐60 245.06 36.6 42.1 5.5 4.7 4.6
57.3 59.7 2.4 1.2 7.2 15.6
250.5 259.08 8.58 0.93 5.91
DDH08 733262.5 7374697.5 623.7 271.3 ‐60 245.06 203.9 212.4 8.5 0.7 2.8
213.7 214.3 0.6 2.5 1.3
DDH09 733409.3 7374521.9 624.7 134.4 ‐60 249.06 60.6 64.3 3.7 2.74 11.2 23
DDH10 733399.1 7374621.7 623 335.3 ‐57.54 242.2 107.3 111.6 4.3 0.3 3.8
114.6 116.4 1.8 0.5 4.7
DDH11 733360.8 7374674 625.3 374.9 ‐60 240.06 110.9 113.4 2.5 8.59 14.26 76
117.7 120.1 2.4 0.5 3.5 4.8
326.1 329.1 3 0.83 7
PDD01 733368.2 7374798.8 624.2 238 ‐60 230.06 NSI
PDD03 738247 7373086 622 154 ‐67 14.06 NSI
PDD04 732730 7373040 622 244.6 ‐90 45.06 NSI
PDP024 733441.1 7374461.2 627.3 150 ‐59.7 236.7 62 64 2 2.6 5.56 27
PDP025 733448 7374543.6 623.4 121 ‐59 245 91 94 3 0.6 5.07 7.3
PDP026 733384.9 7374575.5 623.4 150 ‐60.44 166.8
PDP027 733431 7374596.5 621.4 162 ‐58.39 245.9 119 120 1 1.26 16.64 11
144 145 1 0.25 3.96 3
PDP028 733359.5 7374630.8 623.9 150 ‐59.17 245.4 81 85 4 1.05 1.71 12.5
93 95 2 0.53 6.45 8.5
124 126 2 4.31 0.63 33
PDP029 733327.3 7374743 625.5 150 ‐59.92 249 NSI

45

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
PDP030 733234.3 7374747 627.4 150 ‐59.18 244.3 NSI
PDP031 733294.3 7374779 625.6 150 ‐59.53 245.8 NSI
PDP032 733327.4 7374630 625.3 90 ‐60 255 54 60 6 0.66 4.2 7.5
63 66 3 1.1 8.22 17
PDP033 733497.4 7374425 623.6 81 ‐59.34 246.1 69 75 6 1.86 8.11 19
PDP034 733550.9 7374394 621.2 78 ‐60 245 63 72 9 1.09 6.14 13.5
PDP035 733610.5 7374348 617.9 78 ‐60 245 66 72 6 3.27 20.55 35
PDP036 733675.8 7374324 618.8 114 ‐60 245 NSI
PDP037 733564.6 7374287 619.8 118 ‐60.3 219.5 NSI
PDP038 733575.8 7374303 619.2 118 ‐60.4 220.1 NSI
PDP039 733587.4 7374319 618.6 118 ‐59.83 220.9 29 32 3 0.006 0.57 2.3 5
PDP040 733599.2 7374336 618.3 118 ‐60.9 237.5 48 52 4 0.03 1.43 11.15 15.8
PDP041 733611.5 7374352 618.4 154 ‐60.06 215.4 65 69 4 0.013 1.33 12.18 22
PDP042 733623.3 7374369 617.9 200 ‐60 219.06 85 88 3 0.043 2.2 10.13 32.3
177 178 1 0.14 5.38 3.49 79
PDP043 733583.1 7374361 619.2 124 ‐59.78 217.2 58 61 3 0.043 1.2 12.4 8.3
PDP044 733597.1 7374382 619.3 200 ‐59.66 246.3 78 82 4 0.023 0.69 3.94 7.5
135 138 3 0.05 2.22 3.46 24.3
PDP046 733561.3 7374405 620.8 178 ‐60.25 221.1 69 76 7 0.024 2.08 11.49 27.4
155 157 2 0.05 2.13 8.06 24.5
PDP047 733520.3 7374406 622.7 136 ‐59.19 217.7 62 67 5 0.89 1.95 12.8
PDP048 733535 7374426 622.2 154 ‐60 218 75 81 6 0.018 1.74 9.36 23.3
146 147 1 0.01 0.02 1.79 1
PDP049 733493.6 7374418 623.3 118 ‐58.97 219.8 58 66 8 0.018 0.82 6.62 11.9
PDP050 733509.4 7374439 623.6 160 ‐59.18 218.6 77 82 5 0.012 1.35 12.94 20.8
PDP051 733523.2 7374458 622.9 172 ‐59.66 216.8 94 100 6 0.018 3.55 10.27 47.7
PDP052 733576.2 7374426 620.4 196 ‐59.69 215.4 94 97 3 0.019 0.73 6.36 11
PDP053 733635.1 7374315 619 136 ‐61.01 214.9 46 52 6 0.097 3.16 21.01 39.5

46

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
PDP054 733648 7374334 618.9 142 ‐59.81 216.6 66 68 2 0.06 5.56 20.65 38.5
PDP055 733623 7374298 618.6 76 ‐59.76 216.8 30 35 5 0.034 1.35 10.37 22.2
PDP056 733660.4 7374300 618.7 100 ‐60.49 219 40 43 3 0.009 1.12 4.91 13
53 57 4 0.03 1.91 12.11 29.5
PDP057 733674.5 7374320 618.9 130 ‐59.45 217.6 NSI
PDP058 733457.7 7374451 626.2 100 ‐59.95 214.5 67 70 3 0.016 1.85 9.96 24.7
PDP059 733588.7 7374321 618.7 81 ‐89.72 314.3 52 55 3 0.013 0.63 11.3 11.7
PDP060 733626 7374302 619 75 ‐89.42 137.3 47 59 12 0.046 1.98 12.6 25.8
PDP062 733614.1 7374284 619.4 60 ‐89.79 25.2 25 34 9 0.014 1.05 5.41 14
733636.8 7374317 618.9 81 ‐90 45 NSI
PDP063 733650 7374286 619.5 81 ‐61.28 206.1 29 32 3 0.02 0.52 4.93 5.3
40 45 5 0.011 1.67 8.11 25.2
PDP064 733707.1 7374259 621.7 93 ‐60.32 219.6 58 60 2 0.019 3.71 8.58 25.5
PDP065 733715.8 7374272 620.3 99 ‐61.34 220 78 84 6 0.028 1.45 5.35 36
PDP066 733694.2 7374238 624.7 120 ‐61.38 225.4 NSI
PDP067 733547 7374386 621.2 90 ‐89.3 288.4 NSI
PDP068 733493 7374416 623.2 105 ‐89.45 316.5 79.81 90 10.19 0.007 0.78 5.76 11.4
PDP069 733732.4 7374259 620.9 109 ‐60.9 216.3 76 77 1 0.04 1.6 3.72 15
90 92 2 0.008 2.1 4.71 32
PDP070 733698.8 7374216 624.7 60 ‐59.61 37.4 NSI
PDP071 733688.5 7374200 625.7 81 ‐59.01 38.5 NSI
PDP078 733095.1 7374917 627.4 186 ‐60 225 NSI
PDP079 733109.1 7374931 626.6 94 ‐60 225 NSI
PDD080 733293.8 7374650 627.5 291.6 ‐60 225 29 36 7 1.38 6.92 20.7
43 45 2 1.73 13.33 16
79 80 1 6.48 2.59 67
265.5 273.4 7.9 1.09 2.34 3.6
PDP081 733311.6 7374668 626.5 118 ‐60 225 60 66 6 0.012 0.65 3.85 9.7

47

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
73 76 3 0.18 0.6 3.93 7
108 109 1 0.06 2.95 3.76 37
PDP082 733325.4 7374682 626 136 ‐60 225 85 87 2 0.004 2.21 1.41 16.5
96 99 3 0.157 1.17 18.04 30
126 127 1 0.09 4.85 0.85 44
PDP083 733211.5 7374567 626 124 ‐60 225 NSI
PDP084 733246 7374600 628.7 182 ‐60 225 NSI
PDP085 733356.1 7374638 624.7 130 ‐60 225 77 78 1 0.03 0.17 1.01 2
80 88 8 0.029 2.75 10.14 20
118 119 1 0.2 4.02 1.74 28
PDP086 733363 7374634 624.2 154 ‐60 225 97 99 2 0.005 1.33 7.98 7
107 112 5 0.039 1.07 9.22 10.6
133 134 1 0.007 0.05 1.69 2
PDD087 733339.1 7374638 625.2 123.3 ‐60 225 68 69.11 1.11 0.04 1.18 5.14 11
72 78.3 6.3 0.019 0.87 2.36 8.7
109.8 111 1.2 0.63 7 1.51 82
PDP088 733347.6 7374591 625.1 88 ‐60 225 39 46 7 0.036 1.65 4.61 9
PDD089 733359.8 7374602 624.2 342.7 ‐60 225 62 64 2 0.035 1.59 2.43 10
101.6 102.4 0.8 0.091 6.28 5.1 66.4
PDP090 733363.4 7374549 625 94 ‐60 221 20 33 13 0.045 1.1 2.78 12.3
PDP091 733377.5 7374564 624 112 ‐60 221 46 51 5 0.056 4.77 7.08 46.2
PDP092 733401.9 7374588 622.9 130 ‐60 221 89 91 2 0.007 0.48 4.52 5
122 123 1 0.01 0.44 2.01 9
PDP093 733377 7374534 625 110 ‐55 221 36 43 7 0.019 0.62 9 11
PDP094 733391.1 7374550 624.3 120 ‐60 221 52 58 6 0.031 2.3 9.35 38.8
PDP095 733404.8 7374565 623.5 126 ‐65 221 76 81 5 0.011 0.76 7.95 9.2
119 121 2 0.05 6.12 4.16 70.5
PDP096 733436.9 7374454 627.9 64 ‐50 221 NSI

48

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
PDP097 733469.9 7374487 625 130 ‐60 221 81 88 7 0.034 2.57 11.09 32.3
106 107 1 0.01 0.39 1.06 3
123 124 1 0.08 1.43 5.7 13
PDP098 733483.2 7374500 623.9 152 ‐70 221 96 101 5 0.02 2.6 5.01 30.2
PDP099 733471.6 7374461 625.2 124 ‐60 221 74 77 3 0.083 2.13 14.63 34
118 119 1 0.02 0.75 1.56 8
PDP100 733486.4 7374503 623.6 178 ‐85 222 139 141 2 0.013 1.31 4.21 13.5
169 170 1 0.02 6.72 8.01 76
PDP101 733486 7374475 624.5 140 ‐65 221 87 90 3 0.006 0.72 3.92 10.3
PDP102 733500.5 7374490 623.3 154 ‐75 221 108 112 4 0.032 2.07 6.21 24
PDD103 733516.4 7374448 623.3 100 ‐60 207 84.3 89.8 5.5 0.007 0.79 4.66 13.1
PDP104 733422.4 7374467 627.8 78 ‐60 221 53 58 5 0.05 1.3 3.25 13.8
PDP105 733450.9 7374496 625.3 130 ‐65 221 76 79 3 0.057 6.13 8.36 58.3
PDP106 733465.8 7374511 624.2 130 ‐75 221 103 104 1 0.01 1.04 11 22
PDP107 733383.9 7374514 625.8 60 ‐60 221 39 45 6 0.014 0.82 6.4 13
PDP108 733411.3 7374541 623.8 80 ‐60 221 65 70 5 0.021 2.9 5.24 13.4
PDP109 733446.6 7374577 621.6 142 ‐60 221 NSI
PDP110 733476.7 7374607 620.4 184 ‐60 221 157 158 1 0.02 0.42 1.08 5
PDD111 733508.6 7374639 620.4 288.3 ‐60 221 NSI
PDP112 733522.9 7374653 620.2 171 ‐60 221 NSI
PDP113 733363.7 7374520 626.1 70 ‐55 221 22 31 9 0.04 0.71 3.62 6.9
PDP114 733418.8 7374581 622.4 154 ‐65 221 140 141 1 0.05 0 1.23 2
PDP115 733331.4 7374575 626.1 70 ‐60 221 66 67 1 0.02 0.03 1.17 2
16 21 5 0.046 1.48 3.51 14.8
PDP116 733311.3 7374634 626.4 90 ‐55 221 85 86 1 0.44 8.45 1.38 155
27 31 4 0.078 0.81 1.75 3.1
42 49 7 0.03 0.61 7.27 5.3

49

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
PDD117 733198.1 7374649 629.4 279.4 ‐75 221 249.1 251 1.9 0.006 0.03 1.12 1.5
220 232 12 0.005 0.28 4.11 1.8
PDP118 733476 7374436 624.9 82 ‐55 221 61 69 8 0.038 2.07 10.47 25
PDP119 733491.2 7374452 624.6 100 ‐60 221 77 83 6 0.021 0.13 8.03 6.2
PDP120 733769.6 7374221 625.6 130 ‐60 221 NSI
PDP121 733793.8 7374245 626.1 160 ‐60 221 118 119 1 0.01 0.42 5.85 11
125 127 2 0.055 4.68 17.13 76.5
92.01 93 0.99 0.008 0.15 1.13 2
PDP122 733736.1 7374273 620.7 136 ‐71 221 96 97 1 0.04 3.32 7.55 24
PDP123 733728.2 7374291 619.8 130 ‐60 221 92 94 2 0.04 3.18 13.8 52
PDP124 733558.4 7374376 620.3 70 ‐65 221 51 60 9 0.008 0.8 5.28 12.4
PDP125 733557.4 7374375 620.4 70 ‐50 221 48 63 15 0.007 0.53 3.34 7.1
PDP126 733597.5 7374415 619.6 124 ‐60 221 105 108 3 0.016 1.83 7.72 20.9
PDP127 733555.8 7374433 621.2 130 ‐70 221 106 109 3 0.011 3.99 10.96 49
PDP128 733815.1 7374266 625.9 172 ‐60 221 147 152 5 0.015 0.86 1.8 17.2
124 128 4 0.05 1.18 8.22 18
PDD129 733638.3 7374343 618 95.9 ‐50 221 66.3 70 3.7 0.023 2.17 5.95 22.3
PDP130 733643 7374348 618.3 112 ‐65 221 89 92 3 0.006 1.02 3.88 12.3
PDP131 733524.9 7374394 622.7 88 ‐55 221 48 57 9 0.028 1.54 8.2 21.9
PDP132 733518.3 7374480 623 129 ‐60 221 105 106 1 0.01 3.19 15.5 36
PDP133 733522.1 7374484 622.8 148 ‐75 221 119 124 5 0.024 3.57 3.77 36
PDP134 733407.3 7374480 627.3 70 ‐60 221 48 51 3 0.23 4.53 5.88 67
PDD135 733629.6 7374306 618.9 78.5 ‐60 221 37.7 45.5 7.8 0.019 0.98 7.76 14.4
PDP136 733580.1 7374342 618.1 70 ‐55 221 43 49 6 0.028 1.87 6.17 21.8
PDP137 733600.8 7374307 619.1 46 ‐60 225
PDP138 733649.4 7374285 619.6 76 ‐60 225 30 34 4 0.023 0.31 7.55 7
40 45 5 0.028 1.77 7.49 26.2

50

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
PDP139 733684.4 7374307 619.1 130 ‐60 225 69 74 5 0.025 1.62 10.28 25.8
PDP140 733436.4 7374510 625 130 ‐60 225 82 84 2 0.005 0.36 3.7 3.5
74 77 3 0.059 3.25 5.57 42.3
PDP141 733458.4 7374531 623.8 150 ‐60 225 89 95 6 0.016 1.53 6.13 14.7
PDP142 733547.1 7374491 621.7 154 ‐60 225 124 127 3 0.007 1.69 4.83 14.7
PDP143 733608.1 7374313 618.9 105 ‐74 225 39 47 8 0.018 0.68 9.02 12.1
PDP144 733669.8 7374292 619.2 106 ‐60 225 42 45 3 0.1 3.25 5.1
57 60 3 0.05 1.64 1.1
PDD145 737875 7373345 622 389.4 ‐85 195 NSI
PDP146 733836.7 7374286 625.7 198 ‐60 222 158 161 3 0.008 0.25 1.7 4
182 186 4 0.017 2.65 8.9 35.3
PDP147 733838.7 7374195 626.2 166 ‐60 222 82 83 1 0.021 0.38 1.73 5
PDP148 733861.9 7374219 625.4 120 ‐60 222 114 116 2 0.017 0.25 4.56 6
PDP149 733896.4 7374230 622.6 211 ‐60 222 133 137 4 0.017 0.75 2.77 7
PDP150 733916.5 7374252 622.5 174 ‐60 222 NSI
PDP151 733968.2 7374190 619.5 143 ‐60 222 NSI
PDP152 733948.2 7374168 619.8 36 ‐60 222 NSI
PDP153 733990.2 7374212 619.5 48 ‐60 222 NSI
PDP153A 733988.6 7374210 619.3 180 ‐60 222 NSI
PDP154 733060.9 7374883 629.6 108 ‐60 222 NSI
PDP155 733169.8 7374758 627.5 156 ‐60 222 27 33 6 0.007 0.26 1.03 0.9
113 116 3 0.007 0.62 3.23 3
101 102 1 0.009 0.67 1.62 3
PDP156 733186.2 7374774 627.1 156 ‐60 222 50 54 4 0.367 0.91 2.03 7.2
130 143 13 0.005 0.86 2.76 4.1
124 128 4 0.005 1.04 5.93 6.8
PDP157 733217.7 7374806 625.9 210 ‐60 222 190 192 2 0.018 0.16 1.79 1.5

51

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
116 123 7 0.012 1.44 9.15 11.4
180 182 2 0.008 0.48 1.36 1.8
PDP158 733425.2 7374698 623.9 246 ‐65 222 177 179 2 0.013 0.22 1.79 3
229 231 2 0.5 0.14 2.52 17
PDP159 733580.6 7374601 618.2 231 ‐65 222 NSI
PDP162 733078.5 7374900 628.5 174 ‐60 222 NSI
PDP163 733199.6 7374786 626.9 293 ‐60 224.7 170 176 6 0.008 0.28 3.35 20.8
90 91 1 0.017 3.33 0.99 1
155 164 9 0.008 1.7 1.74 10.6
PDP164 733232.8 7374819 624.9 271 ‐60 222 214 215 1 0.004 0.25 1.37 10
133 141 8 0.026 2.87 6.07 19.1
202 203 1 0.009 0.1 1.79 0.5
PDP165 733248.2 7374834 624 270 ‐60 222 157 160 3 0.008 0.88 2.25 4.7
PDP166 733154.2 7374742 628.3 143 ‐60 222 3 9 6 0.007 0.18 1.58 0.3
83 87 4 0.02 0.85 3.43 4.5
76 80 4 0.022 1.99 1.77 11.5
PDP167 733142.7 7374731 628.9 89 ‐60 222 NSI
PDP168 733163.3 7374805 624.3 173 ‐61.48 223.4 37 49 12 0.041 5.14 7.1 28.6
99 102 3 0.019 0.21 8.17 5.7
93 94 1 0.031 1.61 2.96 9
PDP169 733148.6 7374792 625.3 161 ‐60 222 8 15 7 0.018 3.05 2.24 10.4
74 77 3 0.012 0.69 1.36 4.7
83 88 5 0.016 1.94 2.17 11.2
PDP170 733133.5 7374779 625.5 120 ‐60 222 NSI
PDP171 733178.3 7374819 624.6 191 ‐60 222 66 72 6 0.052 8.57 8.45 41.8
PDP172 733192.4 7374832 624.4 227 ‐60 222 100 105 5 0.041 7.88 10.45 35.4
147 148 1 0.021 3.17 1.58 13.5
PDP173 733208.1 7374846 623.7 251 ‐60 222 117 119 2 0.007 3.65 3.2 14.5

52

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
150 154 4 0.01 0.67 2.93 3.3
177 180 3 0.008 0.09 1 2
PDP174 733131.9 7374825 624.2 125 ‐60 222 NSI
PDP175 733147 7374839 623.7 161 ‐60 222 45 51 6 0.019 3.31 3.52 16.8
PDP176 733206.9 7374734 628.2 252 ‐60 222 157 160 3 0.011 0.95 6.75 6.3
164 166 2 0.006 0.21 3.14 1.5
175 179 4 0.01 0.86 3.79 3.7
194 197 3 0.054 1.62 3.53 8.9
PDP177 733194.3 7374721 628.6 197 ‐60 222 17 19 2 0.013 0.29 3.24 1.1
134 140 6 0.021 1.33 6.23 9.1
146 148 2 0.021 0.4 1.8 2.4
PDP178 733178.8 7374706 629 143 ‐60 222 110 116 6 0.013 0.82 9.94 6.2
PDD179 733222.8 7374749 627.6 210.5 ‐60 222 170 171.6 1.6 0.02 1.66 15.01 8.8
179 180.5 1.5 0.011 0.61 1.74 3
185 197.5 12.5 0.043 0.59 1.45 3.3
PDD180 733236.5 7374763 627.2 253 ‐59.56 224 92 93 1 0.04 3.59 6.87 27.1
198.85 201.35 2.5 0.008 1.55 3.89 5.5
205.5 215.5 10 0.022 1.91 2.4 9.4
217 232.7 15.7 0.012 0.88 8.48 7.4
PDP181 733200.8 7374671 629 209 ‐60 222 159 169 10 0.018 1.62 5.28 13.6
182 198 16 0.016 0.76 2.62 5.7
PDD182 733215.2 7374686 628.6 258.5 ‐60 222 9 18 9 0.022 0.32 1.4 2.7
208.2 213 4.8 0.009 0.65 5.02 4.2
216 218.1 2.1 0.017 1.29 0.91 9.6
PDP183 733160.6 7374852 622.9 113 ‐60 222 66 75 9 0.05 3.99 7.27 12.4
90 91 1 0.01 0.41 1.26 1.6
PDP184 733174.9 7374866 622.4 113 ‐60 222 88 89 1 0.019 2.73 1.57 4.9
96 98 2 0.03 4.56 8.09 11.1

53

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
PDP185 733185.9 7374877 621.9 131 ‐60 222 108 121 13 0.023 2.26 2.08 7.9
PDP186 733272.3 7374657 628 83 ‐60 222 14 22 8 0.106 5.49 2.44 50.6
31 36 5 0.116 1.5 2.55 16.4
PDP187 733287.2 7374672 627.2 125 ‐58.87 220.7 39 44 5 0.034 3.58 9.81 27.1
54 60 6 0.03 0.91 4.33 11.9
PDP188 733301.2 7374686 626.5 125 ‐60 222 72 74 2 0.014 3.06 8.33 15.5
77 82 5 0.009 0.46 6.5 7.6
113 115 2 0.226 5.22 3.84 41.1
PDP189 733314.5 7374700 626.1 149 ‐60 222 105 109 4 0.036 0.36 6.17 6.9
PDD190 733225.3 7374810 625.5 253.4 ‐60 222 123.6 129.55 5.95 0.012 1.97 10.19 15.8
184.4 185.7 1.3 0.006 0.61 5.84 3.5
193.1 194.6 1.5 0.047 0.23 1.78 1.1
PDP191 733200.7 7374891 621.7 173 ‐60 222 138 147 9 0.017 1.13 2.71 5.9
PDD192 733290.5 7374647 627.2 63.3 ‐60 222 27.5 34 6.5 0.032 1.83 6.17 27.8
39.4 42.4 3 0.05 1.77 8.99 15.1
PDD193 733446.4 7374520 624.3 114.5 ‐60 222 79.85 83.3 3.45 0.023 2.96 5.83 57.5
PDP194 733564.6 7374402 620.6 50 ‐60 222 NSI
PDD195 733851.3 7374302 624.8 236.2 ‐60 222 178.7 179.2 0.5 0.006 1.31 1.1 9
191 194 3 0.022 2 6.25 22
PDD196 733156.7 7374799 624.6 117.5 ‐60 222 20.9 26.25 5.35 0.023 3.33 2.57 25.5
78.96 81.3 2.34 0.11 4.74 3.39 43.6
88.7 95.85 7.15 0.021 4.34 11.04 19.6
PDP197 733139.7 7374888 624.6 112 ‐60 222 NSI
PDP198 733154.8 7374902 624.3 136 ‐60 222 NSI
PDP199 733168.9 7374915 623.7 160 ‐60 222 108 110 2 0.011 0.57 1.65 3.5
PDP200 733183.2 7374928 623.9 192 ‐60 222 131 133 2 0.017 0.43 1.27 2.6
141 146 5 0.019 3.81 2.42 24.3
PDP201 733250.4 7374777 626.4 281 ‐60 222 117 118 1 0.011 1.6 1.35 4.9

54

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
237 241 4 0.007 1.19 5.44 6.4
243 250 7 0.01 0.88 4.96 4.2
PDP202 733216.4 7374715 628.1 214 ‐60 222 26 27 1 0.01 0.46 3.46 3.2
152 163 11 0.02 1.15 5.14 6
PDP203 733231.1 7374729 627.7 238 ‐60 222 194 216 22 0.01 0.57 3.55 3.3
220 226 6 0.01 0.25 2.02 1.6
PDD204 733243.2 7374742 627.3 246.7 ‐60 222 79 80 1 0.009 0.33 2.73 5
190.4 194.5 4.1 0.012 0.98 8.09 3.2
199.5 209.5 10 0.008 0.71 2.65 3.3
213.7 228.5 14.8 0.017 0.94 2.75 4.1
PDD205 733197.8 7374940 623.5 201.1 ‐60 222 NSI
PDP206 733279 7374693 626.9 119 ‐60 222 66 73 7 0.027 2.09 8.17 12.8
102 103 1 0.091 5.91 1.01 43
PDP207 733292.3 7374706 626.5 124 ‐60 222 92 94 2 0.009 0.86 8.95 10.5
115 116 1 0.082 6.52 8.33 85.1
PDP208 733305.8 7374720 626.3 155 ‐60 222 134 135 1 0.1 4.55 3.39 48.9
PDD209 733265.3 7374791 625.8 344.5 ‐60 222 143 148 5 0.016 0.36 11.54 5.5
PDP213 733134.7 7374939 625.6 155 ‐60 222 NSI
PDP214 733149.7 7374952 625.4 209 ‐60 222 135 136 1 0.007 1.42 2.3 4.2
PDP215 733164.6 7374966 624.9 197 ‐60 222 157 158 1 0.005 0.04 9.29 3.8
172 178 6 0.01 0.64 2.83 2.7
PDD216 727919.9 7372568 625.8 605 ‐90 2.58 NSI
PDP217 733680.1 7374273 621.7 76 ‐60 222 53 55 2 0.011 1.54 8.66 17.3
PDP218 733694.3 7374288 620.2 113 ‐60 222 69 71 2 0.021 4.9 15.25 64.9
PDP219 733706.1 7374300 619.2 113 ‐60 222 82 85 3 0.02 1 7.13 12.4
PDP220 733836.9 7374231 626.4 173 ‐60 222 114 116 2 0.019 1.64 3.46 6.2
149 152 3 0.034 3.5 10.81 75.3
PDP221 733851.1 7374244 626.1 173 ‐60 222 125 126 1 0.019 0.23 8.2 6.6

55

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
164 168 4 0.027 2.49 7.85 38.4
PDP222 733864.8 7374258 625.5 215 ‐60 222 141 150 9 0.08 1.54 1.6
168 171 3 0.06 1.53 1.1
186 188 2 0.62 1.52 5
PDP223 733822.3 7374216 626.5 155 ‐60 222 101 102 1 0.029 0.4 1.21 4.2
136 138 2 0.015 1.17 4.99 22.8
PDP224 733756.9 7374254 624 119 ‐60 222 103 106 3 0.15 3.03 15.35 131.9
PDP225 733743 7374239 622.4 94 ‐60 222 NSI
PDP226 733770.1 7374266 625.3 155 ‐60 222 118 122 4 0.038 2.43 8.83 43.9
PDP227 733144 7375002 624.5 191 ‐60 222.5
PDP228 733129.3 7374988 625.2 179 ‐60 224.5 115 116 1 0.004 0.29 1.63 1
143 145 2 0.023 0.72 7.58 8.4
PDP229 733158.7 7375016 623.8 233 ‐60 223.5 202 203 1 0.001 0.25 1.04 1.6
PDP230 733114.5 7374974 626 142 ‐60 223.5 NSI
PDP231 733124.4 7375038 623.6 221 ‐60 224.5 NSI
PDP232 733109.7 7375023 624.5 179 ‐60 224.5 NSI
PDP233 733138.9 7375051 622.8 233 ‐60 222 NSI
PDP234 733089.8 7375059 623.4 197 ‐60 222 NSI
PDP235 733104.1 7375073 622.4 239 ‐60 222 153 156 3 0.4 3.96 1.4
204 205 1 0.01 4.82 0.3
PDP236 733117.7 7375085 621.8 263 ‐60 222 215 217 2 0.005 0.16 4.52 5
PDD237 733264.7 7374734 626.8 279.7 ‐60 222 NSI
PDD238 733250.9 7374720 627.3 313.4 ‐60 222 246 253 7 0.006 0.3 1.07 1.6
PDP239 733166.2 7374666 629.8 121 ‐60 222 NSI
PDP240 733180.9 7374680 629.2 145 ‐60 222 NSI
PDD241 733254.6 7374690 627.6 285.8 ‐60.11 223.2 34 37 3 0.048 5 6.56 27.8
43 47 4 0.193 3.45 5.79 13
221 243 22 0.01 1.11 2.76 8.9

56

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
PDD242 733268.3 7374703 627.1 309.8 ‐60 222 69 72 3 2.81 8.01 18
254 263 9 1.68 2.84 2.7
277.2 285.5 8.3 3.8 3.2
PDD243 733282.5 7374718 626.7 318.2 ‐60 222 92 94 2 0.021 1.41 4.45 17.9
113 114 1 0.054 4.66 2.39 50.1
283 292.3 9.3 0.007 0.23 1.72 1.6
300.7 303.1 2.4 0.011 1.68 1.59 8.9
PDP244 733702.7 7374320 618.6 151 ‐60 222 NSI
PDP245 733716.8 7374334 618.2 169 ‐61.24 219.6 NSI
PDP246 733730.4 7374348 618 180 ‐60 222 146 151 5 0.007 0.78 5.07 12.1
PDP247 733744.6 7374363 617.8 180 ‐61.36 219.8 159 163 4 0.012 5.04 12.39 59.8
PDP248 733718.8 7374368 618.4 187 ‐60 222 NSI
PDP249 733704.7 7374353 618.5 151 ‐60 222 134 135 1 0.009 5.08 6.16 38.8
PDP250 733691.9 7374339 618.5 145 ‐60 222 NSI
PDP251 733871.4 7374210 624.2 193 ‐60 222 105 108 3 0.028 0.17 2.49 4.3
PDP252 733862.6 7374201 624.9 307 ‐60 222 97 101.77 4.77 0.023 0.31 0.72 5
144 145 1 0.033 1.19 3.44 9.9
153 155 2 0.041 8.94 11.53 163.2
PDP253 733825.7 7374179 626.5 291.6 ‐60 221 NSI
PDD254 733547.3 7374422 621.7 120.4 ‐60 221 NSI
PDD255 733472.5 7374437 624.8 94 ‐60 221 NSI
PDD256 733159.7 7374802 624.4 119.9 ‐60 223.58 NSI
PDD257 733836.3 7374235 626.3 60.5 ‐60 222.58 NSI
PDD258 733832.4 7374231 626.5 204.5 ‐60 223.58 NSI
PDP259 733758.4 7374377 617.7 199 ‐60.69 222.4 175 178 3 0.007 0.56 2.74 5.1
PDP260 733772.6 7374391 617.8 211 ‐60 221 190 191 1 0.002 0.37 0.95 5.4
PDP261 733786.5 7374405 617.9 234 ‐60 221 206 207 1 0.01 3.7 13.1 49.6
PDP262 733769.3 7374331 619.3 174 ‐60 221 149 156 7 0.034 0.97 3.1 11.4

57

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
PDP263 733783.6 7374345 620.5 186 ‐60 221 163 169 6 0.018 1.39 5.41 19.1
PDP264 733755.6 7374319 618.8 156 ‐60 221 137 139 2 0.012 2.72 6.49 32.5
PDP265 733798 7374358 621.6 217 ‐60 222 180 185 5 0.048 2.58 8.33 29.3
PDP266 733813.4 7374373 622.3 229 ‐59.63 224.8 201 207 6 0.005 3.05 5.05 38.7
PDP267 733743.5 7374308 619 175 ‐60 222 NSI
PDP268 733657.4 7374364 618.3 157 ‐60 222 NSI
PDP269 733673.2 7374378 618.4 163 ‐58.81 224.3 129 131 2 0.014 0.97 7.71 15.8
PDP270 733687.7 7374392 618.2 199 ‐60 222 150 151 1 0.4 1.89 4.5
PDP271 733716.5 7374419 617.8 205 ‐60 222 NSI
PDP272 733731.6 7374382 618.2 199 ‐60 222 166 168 2 0.35 1.62 5.4
PDP273 733776.4 7374280 625 175 ‐60 222 115 116 1 6.53 28 90.2
120 121 1 0.44 1.17 27.6
129 130 1 0.034 1.36 7.92 19
PDP274 733791.7 7374296 625.4 175 ‐60 222 134 136 2 0.007 0.55 2.66 5
138 139 1 0.019 1.95 6.03 14
PDP275 733805.4 7374309 625.4 187 ‐60 222 159 162 3 0.025 0.29 2.38 11.3
PDP276 733820.4 7374324 625 187 ‐60 222 171 172 1 2.47 8.8 16
PDP277 733834.8 7374338 624.6 214 ‐60 223 198 202 4 2.63 6.19 25
PDP278 733618.1 7374383 617.7 109 ‐60 225 93 97 4 3.05 11.81 38.3
PDP279 733632.6 7374397 618.1 151 ‐60 225 115 117 2 0.89 3.21 38
PDP280 733647.9 7374411 617.7 138 ‐60 225 NSI
PDP281 733662.8 7374424 617.9 181 ‐60 225 157 161 4 2.36 9.69 30.3
PDP282 733678.3 7374438 617.8 187 ‐60 225 173 176 3 0.005 1.41 5.29 26.4
PDP283 733691.9 7374450 617.1 205 ‐60 225 183 184 1 0.002 0.44 1.59 5.6
PDP284 733706.2 7374463 616.9 217 ‐60 225 NSI
PDP286 733849.7 7374353 622.9 229 ‐60 225 218 219 1 0.014 4.82 11.6 59.9
PDP287 733868.4 7374313 624.8 307 ‐60 224.5 205 211 6 0.012 0.58 3.71 8.5
287 289 2 0.039 4.25 2.09 43.6

58

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
PDP288 733880.5 7374327 625.1 331 ‐60 223.5 222 223 1 0.012 2.89 4.08 18.6
298 300 2 0.031 0.7 5.05 10.4
PDP294 733630.8 7374449 617.3 228 ‐60 222.5 150 155 5 0.006 2.2 5.97 19.9
PDP295 733646.9 7374465 617.8 258 ‐60.5 224.5 163 171 8 0.007 1.17 7.42 12
220 221 1 0.042 0.26 5.56 4
PDP296 733660.7 7374479 617.3 294 ‐60 223 175 180 5 0.012 1.21 3.73 14
231 233 2 0.109 0.27 6.67 4.9
PDP297 733675.5 7374494 617.1 312 ‐60 223 NSI
PDP298 733827.6 7374387 621.1 330 ‐60 223 NSI
PDP299 733744 7374446 617.9 280 ‐60 224 262 263 1 0.052 0.94 2.95 10.1
PDP300 733588.2 7374442 620 162 ‐60 224 123 126 3 0.27 2.34 5.1
PDP301 733596.6 7374459 619.4 174 ‐60.04 226.9 136 140 4 0.021 6.36 11.02 56.6
PDP302 733558.8 7374507 620.9 186 ‐60 222 137 143 6 0.009 2.03 3.67 19.7
PDP303 733496.8 7374514 622.9 60 ‐60 222 NSI
PDP304 733511.8 7374528 621.8 210 ‐58.32 224.1 125 130 5 0.014 1.89 5.55 24.3
PDP305 733504 7374506 622.8 198 ‐59.69 225.6 107 109 2 0.023 4.31 7.29 41.2
PDP306 733526 7374542 620.6 223 ‐60 223 150 151 1 0.016 0.71 1.34 8.5
PDP313 719030 7393510 625 48 ‐90 0
PDP314 733609.3 7374495 618.9 240 ‐60 225 157 158 1 1.02 10.45 16
213 214 1 2.06 7.31 16
PDD315 733647.4 7374519 616.7 243.7 ‐60 222 NSI
PDD316 733587 7374534 619.3 264.7 ‐60 222.5 195 197 2 0.86 3.56 18.5
217 217.5 0.5 0.01 2.31
PDD317 733615.4 7374562 618.2 264.7 ‐60 222 226.9 229 2.1 1.8 5.05 13.7
251.6 252.2 0.6 0.92 1.95 3
PDP318 733554.7 7374570 619.2 268 ‐60 222 194 196 2 0.18 4.9 7.5
220 221 1 0.17 1.08 2
PDP319 733612.2 7374624 617.7 129 ‐60 222 NSI

59

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
PDD320 733569.4 7374641 619.7 402.8 ‐60 221.5 274 274.5 0.5 1.56 4.18 12
PDD322 733544.4 7374673 619.6 423.6 ‐60 222 263.5 264.7 1.2 0.56 1.01 5
PDD324 733470.8 7374657 622.3 405.6 ‐60 222 197 205 8 1.24 2.38 8.7
229 230 1 0.04 2.32
PDD325 733499.7 7374685 621.3 318.7 ‐60 223.5 NSI
PDD326 733676 7374547 617.1 279.7 ‐60 222 255.5 256.6 1.1 2.58 15.12 15.2
PDD327 733704.6 7374522 617.1 288.7 ‐60 219 249.4 251 1.6 1.8 7.3 13.5
PDD329 733724.8 7374493 617.1 261.7 ‐60 222 243.1 244 0.9 0.16 0.84 1
PDP330 733748.1 7374507 617.4 232 ‐60 223 NSI
PDP331 733764 7374465 617.8 225 ‐60 222 NSI
PDP357 733478.6 7374375 619.1 51 ‐60 42 NSI
PDP358 733454.8 7374350 620.2 30 ‐60 42 NSI
PDP359 733501.7 7374344 619.6 83 ‐60 42 41 77 36 0.38 5.68 7.1
PDP360 733486.3 7374330 619.9 33 ‐60 43 NSI
PDP361 733543.2 7374332 619.2 68 ‐60 44 NSI
PDP362 733528.3 7374319 619.4 68 ‐60 42 44 56 12 0.21 3.13 3.3
PDP363 733514.7 7374305 620 62 ‐60 42 NSI
PDP364 733447.2 7374401 620 65 ‐60 44 NSI
PDP365 733432.5 7374388 619.9 77 ‐60 43 40 77 37 2.38 9.3 31.2
PDP366 733413.2 7374419 620.2 54 ‐60 40 NSI
PDP367 733410.6 7374418 620.2 74 ‐60 217 NSI
PDP368 733432.6 7374395 620.2 54 ‐60 223 NSI
PDP369 733445.1 7374402 620.1 98 ‐60 222 NSI
PDP370 733386.7 7374435 620.4 63 ‐60 224 NSI
PDP371 733370.7 7374419 620.8 66 ‐87 228 NSI
PDP372 733361.4 7374459 621.1 105 ‐90 127 NSI
PDP373 733345.4 7374445 621.1 70 ‐60 43 NSI
PDP388 733061.3 7374751 630.2 150 ‐60 222.58 NSI

60

Hole_ID East UTM (m) North UTM
(m)
RL
UTM
(M)
Max
Depth
(m)
Dip Azimuth
UTM
From (m) To (m) Interval
(m)
Cu (%) Pb
(%)
Zn (%) Ag (ppm)
PDP389 739728 7372795 605 48 ‐60 1.08 NSI
PDP390 739722 7372746 605 96 ‐60 1.08 NSI
PDP391 739608 7372699 601 72 ‐60 1.08 NSI
PDP393 733169.7 7374512 623.9 102 ‐58 213.58 NSI
PDP394 733337 7374438 621.3 102 ‐60 216.58 NSI
PDP395 733496.9 7374289 621 114 ‐60 216.58 NSI
PDP396 733617.5 7374245 622.1 78 ‐60 216.58 NSI
PDP397 733586 7374208 623.1 96 ‐60 216.58 NSI
PDP398 733695.7 7374189 625.9 102 ‐60 215.58 NSI
PDP399 733661.4 7374153 626.6 102 ‐60 217.58 NSI
PDP402 733309.7 7374407 621.2 120 ‐60 217.58 NSI
PDP403 733901.1 7374238 623.4 72 ‐58 193.58 NSI
PDP406 736411 7376505 615 144 ‐60 92.58 NSI
PDP407 736520 7376504 613 168 ‐57 94.58 NSI
PDP408 737723 7374565 610 120 ‐57 99.58 NSI
PDP409 736438 7375891 621 168 ‐59 100.58 NSI
PDP414 736843 7375473 613 132 ‐59 103.58 NSI
PDP415 738486 7373343 597 102 ‐59 100.48 NSI
PDP416 738113 7373989 614 66 ‐59 99.58 NSI
PDP421 737992 7373988 618 108 ‐59 97.58 NSI
PDWB001 739645 7378687 622 47 ‐90 45.06 NSI
PDWB002 735214 7375750 622 47 ‐90 45.06 NSI
PDWB003 733278 7379866 625 41 ‐90 45.06 NSI

61