REDSTONE RESOURCES LIMITED — Capital/Financing Update 2014

May 26, 2014

27 May 2014

Company Announcements Office Australian Stock Exchange Limited 20 Bridge Street SYDNEY NSW 2000

Electronic Lodgement

Significant Increase to Conceptual Exploration Target at Redstone's Tollu Project

Redstone Resources Limited (ASX: RDS) ("Redstone" or "the Company") is pleased to announce a significant increase to the Conceptual Exploration Target ("Target") at its 100% owned Tollu Project ("the Project") in the West Musgrave region of Western Australia.

Redstone has estimated the Target to be 22 to 33 million tonnes of mineralisation at a conceptual grade range of 0.9 - 1.3% Cu, containing 198,000 to 445,000 tonnes of copper. This includes an estimate of 4.3 to 6.4 million tonnes of mineralisation at a conceptual grade range of 1.6 - 2.4%, containing 69,000 to 154,000 tonnes of copper on the Chatsworth Prospect.

The potential quantity and grade of the Target is conceptual in nature. It is important to note that there has been insufficient exploration to estimate a Mineral Resource and it is uncertain if further exploration will result in the estimation of a Mineral Resource.

The increased Target was the result of activities undertaken during the recently completed Stage 1 exploration program. The Target was estimated on the current geological understanding of the mineralised outcrop area at Tollu coupled with geophysical evidence to suggest that the mineralised environment extends under cover to the north and south. The Target has been estimated using geological field observations, three dimensional modelling (3DM), known Cu assays and geological analysis of 87 Reverse Circulation (RC) and 3 Diamond Drill Holes (DDH).

Commenting on the significantly increased Target, Redstone's Chairman, Richard Homsany stated:

"We are delighted with the recently announced Cu assay results and work completed in the Stage 1 Exploration Program, which has culminated in the significant increase to the Conceptual Exploration Target at Tollu. The enhanced Target is strong evidence that the Project has the potential to develop into a series of large and high grade deposits with the necessary scale to sustain commercial mining operations.

It also provides Redstone with a robust platform to aggressively advance Tollu. It is envisaged that the next exploration stage will require an extensive drilling program to deliver a maiden Mineral Resource this year.

Further, given that exploration to date has been limited to less than 5% of the tenement, there is potential upside for additional projects of a similar nature to Tollu to be defined. As the final deliverable from the Stage 1 Exploration Program, we expect to announce details of these additional projects very soon".

Tollu Projec ct (Redstone e 100%)

Redstone's Western Au on the Com 100% owne ustralia (Figu mpany's 100% ed Tollu Proje ure 1). The P % owned ten ect is located Project is ap ement E69/2 d in the sou pproximately 2450. th‐east port y 20km south ion of the W h‐east of the West Musgra e Blackstone ve region of Community

The Project covering an surface and t consists of n area of at l d form part o f a large swa least 5km2 . of a dilatation arm of hydr Malachite‐ri nal system b othermal co ich gossans etween two opper rich q associated w major struct uartz veins i with quartz v tures within in a mineral veins are exp the Tollu Fa lised system posed at the ult Zone.

Figu ure 1 – West t Musgrave ‐ Location M Map

Figure 2 2 – Tollu Pro oject – Prosp pect Map

The Project (former Cen (former We t currently c ntral Zone Su estern Zone) comprises 16 ubzone 1), th and the Daw 6 prospects he Eastern R wyck Prospec (Figure 2). T Reef Prospect cts (former C The initial fo t (former Ea Central Zone ocus is on th stern Zone), Subzone 4). he Chatswor the Main Re . rth Prospect eef Prospect

Tollu Project - Conceptual Exploration Target

Redstone has defined an increased Conceptual Exploration Target (Target) for the Tollu Project of 22 to 33 million tonnes of mineralisation at a conceptual grade range of 0.9 - 1.3% Cu, containing 198,000 to 445,000 tonnes of copper. This includes an estimate of 4.3 to 6.4 million tonnes of mineralisation at a conceptual grade range of 1.6 - 2.4%, containing 69,000 to 154,000 tonnes of copper on the Chatsworth Prospect. This Target is based on the current geological understanding of the mineralised outcrop area at Tollu and coupled with geophysical evidence to suggest that the mineralised environment extends beneath cover to the north and south. Table 1 describes the Target breakdown by Prospect.

The Tollu deposit is located in a large, reverse fault system where Cu mineralisation is focused into low stress dilatational jog positions along a north-south structural corridor (Figure 3). High grade Cu mineralisation appears to be constrained to late stage veining within the dilatational positions which results in a limited strike length of the mineralisation. Drilling at the Project has showed these mineralised jogs have a steep plunge competent which has been tested down to a vertical depth of 360 metres. Mineralised jog positions occur at relatively regular intervals of $100 - 300$ metres along the structural corridor.

Geophysical interpretation suggests this structural corridor extends up to 30 km to the north of the Tollu deposit and acts as a transform structure from the Tjuni Purlka Tectonic Zone, a deep-seated crustal suture. For the purpose of the Target estimation, it is assumed that these reoccurring mineralised pods extend 2 km beneath cover to the north and 1 km to the south of the known mineralisation at Tollu (Figure 4).

	Tonnes	Tonnes	Grade	Grade	Contained	Contained
Prospect	Lower	Upper	Lower	Upper	Copper	Copper
			Cu%	Cu%	Lower	Upper
Eastern Reef	11,67,0000	17,500,000	0.6%	1.0%	75.000	168,000
Chatsworth	4,300,000	6.400.000	1.6%	2.4%	69.000	154,000
Main Reef	5,500,000	8,300,000	0.8%	1.2%	44.000	100,000
Dawyck	200,000	310,000	2.0%	3.0%	4,000	9,000
Forio	240,000	360,000	1.2%	1.8%	3.000	6,000
Hampton	180,000	260,000	0.8%	1.2%	1,000	3,000
Boboli	90,000	140,000	1.2%	1.8%	1,000	3,000
Killruddery	50,000	80,000	1.2%	1.8%	1,000	1,000
Tiergarten	40.000	60.000	1.2%	1.8%	500	1,000
	22,270,000	33,410,000	0.9%	1.3%	198,500	445,000

Table 1 - Tollu Project - Target - Prospect Breakdown

Figure 3 - Tollu Project - Exploration Target - Surface Mapping

Target Parameters

Geology

A field visit was completed by BM Geological Services (BMGS) in March 2014 to gather additional data for the purpose of constructing this Target. Outcropping vein geometries were mapped and measured in detail with emphasis placed on paragenesis of mineralisation.

Field observations identified that phases of mineralised quartz veining are located within low stress, dilatational jogs caused by the reactivation of a regional scale reverse fault (Tollu Fault) (Table 2). The Tollu Fault has been interpreted as a deep-seated transform structure of the NW-SE striking Tjuni Purlka Tectonic Zone situated to the north (Figure 4).

An early, uniform, phase of veining appears to be related to an initial structural phase (probably reverse faulting) and is characterised by unmineralised, banded, ferruginous quartz (Table 2). This initial veining is interpreted to represent the primary structural architecture. Subsequent reactivation of this structure has created dilatational jog positions which have been exploited by mineralised fluids. Several quartz vein phases have intruded during this reactivation and at least two of these phases appear to be mineralised (Table 2). The mineralised vein phases are lenticular in shape which limits their strike width and length.

Structural Phase		Veining Type	Mineralisation	Veining size
Early	Reverse Fault?	Banded, ferruginous quartz	Unmineralised	Uniformed vein widths outcropping forseveral km's
Reverse Fault-Reactivation ofinitial fault phasecreating lowpressuredilatational jogs	Very coarse grained,interstitial quartz crystals('Hounds Tooth")	Unmineralised	Small scale lenses over tens of meters
		Fine grained buck quartz +malachite	Low grade Cu	Small, lenticular; 0.5-2m wide and up to20m long at surface
		Faulted quartz + clay +malachite	High grade Cu	Small, lenticular; 0.5-2m wide and up to20m long at surface
Late		Massive buck quartz	Unmineralised	Large quartz blows up to 100m long and30 m wide

Table 2 - Tollu Vein Paragenesis identified during the March 2014 field mapping programme

The dilatational jog positions occur randomly along the strike extent of the Eastern and Main Reefs but generally at intervals of 100-300m. This observation was used as a parameter to assign tonnes and grade to interpreted mineralised positions under cover.

The mineralisation comprises sub-economic to ore-grade copper mineralisation, occasionally containing elevated concentrations of cobalt and minor concentrates of tungsten and silver. The copper mineralogy is chalcopyrite and bornite at depth and malachite within the regolith.

A geological 3DM was created from data collected during the March 2014 field mapping programme and was extended to the north and south where the mineralisation is believed to continue undercover (Figure 3, 4 & 5). Geophysical evidence suggests that the mineralised structure continues under cover (Figure 4) therefore the conceptual model was extended for 2km to the north and 1km to the south. This results in the Target having an overall strike length of 4.75km and a mineralised volume of 10.7 million cubic metres $(Table 1)$ .

Conceptual targets for the Dawyck, Boboli, Hampton, Kilruddery, Forio and Tiergarten Prospects were estimated on average outcrop strike widths and lengths and projected down to 250m. These conceptual targets are included in the Tollu Target (Table 1).

Figure 4 - District scale structural interpretation illustrating the Tollu Fault's relationship with the Tjuni Purlka Tectonic Zone (After Smalley 2014)

Drilling

Close spaced drilling has occurred at the Project, primarily at the Chatsworth and the Eastern Reef Prospects, focusing on the down plunge component of these mineralised veins. A drill hole database has been constructed and 3DM of the mineralised zones has been completed. Due to low quality down hole surveying, accurate spatial positions cannot be determined but the current dataset suggests that the mineralised veins are vertical to steep west dipping with a steep southerly plunge component. Drilling has demonstrated that mineralisation at the Chatsworth and the Eastern Reef Prospects is present down to a vertical depth of 360m. For the purpose of this Target, mineralisation has been extended down to a vertical depth of 400 metres which is the limit of drilling. The remainder of the conceptual targets have been extended from surface down to 340m RL (250m vertical).

Metallurgical Assumptions

No metallurgical assumptions have been made for this Target. It is assumed that mineralisation is easily recovered through density separation, after crushing and grinding; with no known impurities or contaminates. Future test work is required to better understand the metallurgical properties of the potential ores.

Bulk Density Assumptions

No bulk density measurements have been completed at Tollu to date. Bulk density assumptions were used for the major regolith units and are consistent with values used throughout the Eastern Goldfields.

Completely Oxidised	1.8 $t/m^3$
Transitional	2.5 $t/m^3$
Fresh	2.7 $t/m^3$

An over-density value of 2.6t/ $m3$ was used for the Tollu Target which was calculated based on the majority of the target zone being in fresh rock and a small upper portion in transitional material.

Figure 5 - Tollu Project - Exploration Target - 3D Schematic

Assaying

The current assay dataset was analysed for the purpose of assigning a grade range to the Target. The majority of assay data inside the mineralised wireframes has now been analytically assessed at a commercial laboratory with the remainder of the dataset analysed with a hand held XRF (Table 3). Assay data was queried inside the Eastern Reef and Chatsworth geological models and basic statistics calculated on 1, 2 & 4m composite data (Table 4). The purpose for this analysis was to determine any effect from extreme outliers and/or localised biases. This analysis demonstrated that the dataset is positively skewed but with no large variances (i.e. low coefficient of variation). The mean grade of 0.83% Cu was assigned to the mineralisation at Eastern Reef and a mean grade of 2.0% Cu was attributed to Chatsworth. These grades were then attributed to other prospects that display similar characteristics i.e. Eastern Reef grade assigned to the dilatational jog positions on the Main Reef.

Mineralised Zone	Total Of Samples	Laboratory	XRF
Chatsworth	250	207
Eastern Reef (Mineralised zone only)	ר 1	226	86

	Eastern Reef			Chatsworth
Composite Size	$\mathbf{1}$	$\overline{2}$	4	$\mathbf{1}$	$\overline{2}$	4
Variable	$Cu_{26}$	$Cu_{8}$	$Cu_{26}$	$Cu_{26}$	$Cu_{26}$	$Cu_{26}$
Number of samples	273	132	67	241	114	55
Minimum value	0.00	0.00	0.02	0.01	0.01	0.01
Maximum value	6.16	5.38	4.58	12.28	8.29	6.72
Mean	0.83	0.83	0.83	1.89	1.95	1.97
Median	0.31	0.29	0.29	1.34	1.37	1.56
Variance	1.41	1.17	0.95	3.81	3.08	2.52
Standard Deviation	1.19	1.08	0.98	1.95	1.76	1.59
Coefficient of variation	1.42	1.30	1.18	1.03	0.90	0.81
25.0 Percentile	0.09	0.11	0.17	0.46	0.69	0.81
50.0 Percentile (median)	0.31	0.29	0.29	1.34	1.37	1.56
75.0 Percentile	1.04	1.03	1.24	2.78	2.72	2.73
90.0 Percentile	2.51	2.52	2.40	4.24	4.33	4.16
95.0 Percentile	3.50	3.17	3.05	5.84	5.64	5.32
98.0 Percentile	5.14	3.71	3.85	7.20	7.70	6.35
99.0 Percentile	5.44	5.07	3.85	9.86	8.01	6.35

Table 3 - Cross tabulation of sample analytical technique vs. mineralised zone

Table 4 - Basic statistics completed on 1, 2 & 4m composites within the Eastern Reef and Chatsworth deposits

Mining and Processing Options

Due to the relative isolation of the Tollu project, mining and processing options are limited. Several exploration projects including Nebo-Babel (Cassini Resources Ltd) are located within the region although no active mining is undertaken. Economic considerations have been included in the exploration strategy to ensure the correct scale deposit is explored for given the remote nature of the tenement.

It is thought that a concentration process will be required to upgrade potential ores into a high-grade product for transportation.

Further Work

The current dataset is deemed sufficient for generating a Target for the Tollu Project however, further work required if this project is to become a JORC-compliant resource, includes:

• Additional drilling program.
• DGPS surveying all collar positions. $\bullet$
• Detailed topographic survey. $\bullet$
• $\bullet$ Detailed down-hole surveying of drill holes (Gyroscopic surveying).
• Re-assaying drill hole intercepts which only have handheld XRF values. $\bullet$
• Re-assaying waste domain intersections. $\bullet$
• $\bullet$ Re-logging of key intersection drill holes.

Subject to funding, it is envisaged that this work will be completed over the course of 2014.

Competent Persons Statement

The information in this announcement that relates to Exploration Targets and Exploration Results was authorised by Mr Darryl Mapleson, a Principal Geologist and a full time employee of BM Geological Services, who are engaged as consultant geologists to Redstone Resources Limited. Mr Mapleson is a Fellow of the Australian Institute of Mining and Metallurgy. Mr Mapleson has sufficient experience which is relevant to the style of mineralisation and type of deposit under consideration to act as a competent person as defined in the 2012 edition of the "Australasian Code for reporting of Exploration results. Mineral Resources and Ore Reserves". Mr Mapleson consents to the inclusion in the report of the matters based on his information in the form and context in which it appears.

Forward-Looking Statements

This document may include forward-looking statements. Forward-looking statements include, but are not limited to statements concerning Redstone Resources Limited's (Redstone) planned exploration program and other statements that are not historical facts. When used in this document, the words such as "could", "plan", "estimate", "expect", "intend", "may", "potential", "should", and similar expressions are forwardlooking statements. Although Redstone believes that its expectations reflected in these forward-looking statements are reasonable, such statements involve risks and uncertainties and no assurance can be given that actual results will be consistent with these forward-looking statements.

ABOUT REDSTONE RESOURCES

Redstone Resources Ltd (ASX: RDS) is a Perth-based company focused on highly prospective copper exploration properties in the West Musgrave region of Western Australia.

Redstone's 100% owned Tollu Project is located in the south-east portion of the West Musgrave region of Western Australia. The Tollu Project consists of a large swarm of hydrothermal copper rich quartz veins in a mineralised system covering an area at least 5km2. Malachite-rich gossans associated with quartz veins are exposed at surface and form part of a dilatational system between two major structures within the Tollu Fault Zone.

The Tollu Project has a Conceptual Exploration Target estimated to be 22 to 33 million tonnes of mineralisation at a conceptual grade range of 0.9 - 1.3% Cu, containing 198,000 to 445,000 tonnes of copper. This includes 4.3 to 6.4 million tonnes of mineralisation at a conceptual grade range of $1.6$ -2.4%, containing 69,000 to 154,000 tonnes of Copper on the Chatsworth Prospect.

For further information please contact:

Richard Homsany Chairman Redstone Resources Limited +61 (08) 9328 2552 contact@redstone.com.au

Miranda Conti Company Secretary Redstone Resources Limited +61 (08) 9328 2552 contact@redstone.com.au

APPENDIX 1: JORC Code, 2012 Edition – Table 1: Tollu Conceptual Exploration Target; March 2014

Section 1 Sampling Techniques & Data

(Criteria in this section apply to all succeeding sections.)

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stages of the sample collection process.

Criiater	OCCodelanioJRtexpan	Cotammenry
lfQityuaoda&taassaylabotorarytests	helfhelaboTi&iaing&tutytettonare,quaapproprnessoassayrarydud&hehehehnded pl oiqisiiatttetproceres usewrcueconsrearrl.totahylls,hadheldFoicaXRFinstotrotetruts,tc.r geopsospecmers,nmene,heddehelyludininingisincinginsttetettrutparamersusermanasmenkedel,dlbrfldhe&ingimiionie&irtttotmamoreaescaasacrsapp,deivaionttc.re,	helabol cing&dudeigdTrattototaassayoryproceresaresnemeasureopperdhekeleminhele.helaboduTottstratanryeensamporyproceresarefof cidediatheinghisdeit.ttestattconsreappropreroopperpos
		Salesdigdbyiddigdlydbyduively4Intetctmpwereesaacesananase()ColedlasOpicalissionSpICOSInduivelyPEmP‐Ettrotryctupmaecmeorlelas().CodSpICSPMaP‐Mtrotryupmassecme
		foSoleslydld.helydby0ghaT5mesampwereanaser gosewereanasecrgehbsfh.hefireAsitAticAionSpinisireFTttrotrysaywanomorpecmeassay
	fll pdudod(dadsblanks,Naitutytrotetareoquaconroceres ape.g. snr,dulllaboheks)heheblelevlsica&testetottapexrnararyccwr accepe,f(lack ofb)&habeblhed.i.eiasisionistaoaccuracyprecveenes	fhniqinvlveding0glehaithleadluxhichis5tecueousasampcrgewaw,fudedinithheltingillbeingllydigdby2ttotatecomposearnace,wresupres()idsC&O3befofheld cbyCOSHIHNIP‐Et ottentacremeasuremengoonanShineAAormac
		hellffAHaddNIONXi00XinsddeineT7RFtrunttonmewasuseareasolouinelisaionheinshadlibrionTttruntattestanomacsoppermrameaca0 sles5everyamp
		C&Clesbmittdhelabod&iledRDtotratrtesampsueoryaresoreconcinshebmissiondohelesdbe200Fo7ttntsttwagasucumersampassayeeenffel()(blanks)‐2012,CeiiediaCdads&ReMaRMrttestarencernrwereinelyinsdinthelingf001:1Reuterttt aratntroeosampsequence ae ocere‐'sfinghahadCinsd aio1:3RM5.ertt aratassayprogrammesveeo
		heiallaboiesdekeintlQCheksbaTNoratrtacommercorunernaccrrenflushedekebedinelisedlertzrtatwtequaswereunneenexpecmrasamp()intlhilelveizingervaswpur
		foItisknhadudQC rltst punowwnrocerewas user anyerroneousesu
fVeiicaiontrfling&osamp	hefffbyhededeTiicaionigiicainioniintttettt overosnnrsecserpennrll.ivetetarnacompanypersonnehefinndholesTtwseoeufdadadudaDoionimtatta,tatrytacumenopraryenproceres,fda(hyl&lec)ls.iicaionicaicttatotrotoversragepsenproco	dedeificaionf sigificaintionhabedudbyInnttntctctepenveronersessenconindedelogical gntanpengeoroup
ingassay		logldallatdheletfhePriming&ingiontaatttarygsampwascoecompofdrillingheigiicaimlapdlHotnttprogramweverrewas asneseanpersonne
		fofohabehisinionlisedintingledabatattratacngerermwas ceno asse
	,iscdjdaDtmttotauss anyausenassay	djlibriondedadinhisNotmtsattotatausenorcas were maanyassayuset.repor

iiaCrter	delanioJORCCotexpan	Cotammenry
		dicad'twinndholes'habedrilled ahisjDetetttt.evenoenproec
fLoion(&lifdlocdrillholesllar&tActytotecaocuracyquaosurveys useacodaindo‐hle),hekhelocdtatsineing&iontrettpownosurveysncs,mworsoras uselinMineReimionttrasourceesaffheSpiicaionid sd.ttteecogrysmuseldefhl.Qi&ictytotrouaaquacyopograpcon		lldrllholeshabedfoh&dudlevl.Aiingingtrtveensurveyer easnorecee,llecdinlocl gid o&DaMGA94Zo52AHD.tatewascoarrneillholellaritionhabedbyimbleiffeialDrTrDGPSntcopossveensurveyere
	fo%fhedrilledholes%fhedrilledholeshabedby374ttrooveensurveyehadheldhltdehedrllholesGPS witityituTiningitoncapacmeasure aremahalocdbuhedohohioninaisionisattettntattveco‐orsrenocumewkettameasuremenwasn.
		hebsfdoholedalandhaDuieniontotta,tateaenceownsurveypneorsvehadbedfodrillholesTLC001–TLC008,TLC016‐TLC017,TLC019,touserhbo%fhedTLC022,TLC045,TLC081‐TLC086.Tis23RCtsuttrepresenaoanddrllholesfohehedrllholeshadoDiamijTiningitt.onrproecremavewnholelhafrointies50 m120t att vettosurveys anervaarmeveryresupeverytremes.
		holedhlDoineitCAMTEQDigitatsattwnsurveymeasuremenwereawalecl.heldd nh%lblduEicSuTiit100iaiityingtrototoottenrveyoooperawrerhedltel wd.hefodrllholesiveTitrattoprogramannoaoassourcereresomehalddoholelbleimiteNoiaveverywnsurveycoverage.resurveys werellecdfoTLC016,TLC017,TLC019,TLC029,TLC030,TLC041,TLC042,tecordhedaTLC065‐TLC067,TLC080TLD004.Tiningistatanremasurveseyblehelfhebeionitysttttsotqueaasquaosurveymeasuremencannd.ineatta
		hl wdfrofbledToicixtTrimGPS aGPS.ntatepograpcoroasgenerma mure on
ingDataspacdbu&isiiontrt	fflorlDaingingExionRetattts.spacorreporopasu	befheldhadlowdefAineiseiveitytnumr omrazonesvereceaverynsodrll(drlllor)iingiingionutatscoexpprograms
	hehehedadbuffblhheWing&isiionisicienistttatrtttotatrspacsuesdeflogl&defhelicainiiaMinettytetgree ogeograconuapproprorra()&imiondu&lasificaionReOrRetttsourceeserve esaproceressscld.ieapphehelehabeld.Wiingiettr sampcompossenapp	hef mlhabedlyheInineisaionttetaetstareaswreazoneorasenrepearg,drlliingis45m30mspacx
		hehadvdfflydlTProjicieniscMineRettttoecsnoaancesuussrasourcelasfiicaiontcs
fOrieniontatodainta	heheheienionflinghievbiasd slingfWtttatrorosampacesuneampoblehehhhkndei&icisisiingtrututtettotpossscresexnwown,consr	ldrllleshddudrlllatfoOpimiintionieviingttt atoaersecangwerenoceeprmlimitaionhelimitaiondbyhehighhicliefinTttttos.ses were causepograpre

iiaCrter	delanioJORCCotexpan	Cotammenry
laionttoreloglicageotrutuscre	hedeitttypospe.fhelahbehedrllheIionipiingienion&ieniontttwttatttatreseenororfkeld sdedhadudineiseisiintrututotrooymracresconsreveceaflingbiashisholdbed&diial.ttetesampsuassesserepormar,	hejtt aproecreall udedhefdrllhhTaiesimiingicettrt wrstatttrgeomewerenoenooeogwltedldrllholeshalowleshheiniingintionitcttresseveraveryerseanguvwdhefolyflatheldth.iningineisaionitttorzeone anreregrossmraw
leSampitysecur	hekeleTitatotymeasuresnensuresampsecur	leshabehefheHisticddeitytottorsampareassumeveenunrsecuroholde/ldeldheliveiiveiattentatottotrespecnemersoperrsunrecommerclabohelesldbedhabedeictdrattetotrorywresampwouexpecveenunr reseaccess.
dAuitsoriewrevs	helfdflhndaTiiewingiq&tststetaresuoanyauorrevs osampcues	fhehabeletd adit ohelinghniqddaATttetaresennocompeusampcues anf clhalybelethisingdaddistratatsttprocessoensesrecenencompeanffivityhaideiiedbeisshich abeingddrdduingtntacsa numr oues wreaesserSta1aivitiesctge

Section 2 Reporting of Exploration Results

(Criteria listed in the preceding section also apply to this section.)

Criiater	OCCodelanioJRtexpan	Cotammenry
lMinera&tetnemenlandtenuretatuss	/fbelochludTyion&ipincingtpe,reerencenamenumr,aownerslhhd phiaissiiriesjintstettttagreemenormarues warsucasohipidingliesiveileintutntttttets,venres,parerss,overrroanaresy,hlldel pkl sisicaiiion&iroingtotesttattrswrness or naaarenvnmenes.,hefheheldheflonhTiimingityttetttttsecuronureae oreporagwkndblheimiminingiceintstotatotetanyownpeenoanceoperaarea	helluloch/(l).hTTojisditinE692450WAuiaTistatetestrproecwesrnalorionliceisheldbydsReReattoexpnsenesources.heknTind sding&imdimisttentstatsnemearegoonnoownpeenex
lorionExtpadobyhetneoriestpar	knledg&l oflorbyheAcisaioniesttttowmenappraexpaor par	hehabeld rlordekebyheTimiteioniest eatrtaotartresenecenxpunnr p
logGeoy	logl slefliicaing&ineisaionDettytttytpospe,geoesomra	heiciginis clydeiewTetntgenorurreunr rev
llholeDri	fllflhededfheAinioniaingttetottatsummaryoaormamarunrsno	dSeApix2epen

Criiater	OCCodelanioJRtexpan	Cotammenry
fIniontorma	lorlludbulafheflloionincingioningttstattexparesuaoowinfionfllialdrillholesMtteormaoraar:
	hfhedrllholellarEaing&ingitttsnorocoo
	(leviondudl –levionbolevlinRLReLetteaorceveeaaveseaeo)fhedrllholellaritretmesoco
	fdip&imhheholettazoou
	doholelenh&dehinionttettwngrceppo
	holelenh.tgo
	fhelusfhffdhebahaheIionisinionisjiieisttttttttexcoormausonsinfionisial&hislusiondodefheMtttetttrattormanoarexcesnocromdedfheheholdlealyingCoPetatt,ttetunrsnorepormpenrson sucrlahyhheinisisttexpwcase
Dataiontaggregahodstme	inglorionlighinginghniqInExRettts,ttereporpasuweaveragcues,/dde(fhhiminimioningigtrutttmaxumanormumgrancase.g. cuode)&cffdellyl&holdbed.Miat‐otetategrasugras areusuaarsusfheinincholenhshighdeWtetetstettreaggregarceporporasrgograllonlenhsflodelhedudf&tstts,tresugergowgraresuprocereuseorhholdbed&l elesfhionicattatetysucaggregasussomepxamposucholdbehodel.ioninittaaggregas suswnhedffl elenlueTioningivatttat vassumps useoranyreporomequasholdbelealyd.tatesucrs	ll rdllculatdlenhfAineintinginttetsttepormraercepwerecaeusgoercephtedheigTiminimiontruatweaveragesrewerenomaxumormumncsld.ieappldefd alesd%Mineintineing0.3Cutsraercepweres sampexceeheholenh,ldlutdddWintintiioni2tsrttt ereercepwereona sgernanoxceehehedef'slWintin10inttretsttremes.reercepwereorromes,ernadilutionldbededbulyifheinelisaion4tetotretttcouexnmes,onmrabsddrll chdrll cdhefheiniipitettwarttoerves orore suggeso zoneswerepol(dbylarlasf ckineisingi.ettet ontsamemraeven. separaagecouryrochbritin
laionhipRetsbetweeninelisaiotmradhsi&tnwintetrceplenhstg	helahlarlyhefTionipicuiminingtttatttseress areparpornreporolorlExionRetts.pasufhefhelhhedrllholeIineisaioniittrytttttotgeomeomrawrespecleiskniholdbed.tstuteangown,naresreporufknlyhedoholelenhsd,heIiis&tttttetnoownonwngare reporreholdbeleahff('doholelenh,istatettotttsuacr smeneece.gwng	).iasteaeccsymwhelfhehInins3Diaitionintittatattstoetmanyncesspposoercepgrwdfacbledellf sfffdeingicienit ctomappesureoccurrencesenamooonnce;udthsfheblehhabeded.iintWiisittruts.trepore woercepreposssenprov

iiaCrter	delanioJORCCotexpan	Cotammenry
	dhkn').itruttewnoown
Diagrams	(h sles)bulafApia&ioni&ionintetttattetsproprmapssecswcas orcepholdbeincludedfigificadiscbeingdheTttesuoranysnnoveryreporseholdludebubeldlanfdrllholellarincimiiewit nttetosuoa pvoco,loc&l vioniaioniewttetasapproprsecas.	dSeApix1.epen
landBaceingtrepor	heheflllorlWiveingExionReistttstrecomprensreporoapasunoble,fbohlohhdeicaiveing&igttatttpracrepresenreporowgras/ddhsholdbeddleadfiiceiisingingtttotanorwsupracavomreporolorionlExRetts.pasu	lllorltsdhabed.llholesAExionReing0.3%CuDriattepsuexceeveenreporhltshahahhrholdhabedlonitisinttt mettttewresuvenoesveenrepresengddebed ahaf().ioniingNoSigiicaIntionNSIctntctseanscrsnersev
heOtrbsivetatsunloriontexpadata	helordaffll,holdbedOioniing&iattta,teter expameanumarsureporlud(buld)logl obshylincingimiicaionicat nttetoto: geoervas;geopslhel slbulk slesicaize&ts;ts;surveyresugeocmurveyresuamp– shodfllurllbulkdeicaittretmt;tatest rts;ty,meoaenmegesunsdwhnl&k chalicaisicsiatetetettetgrounar,geocrocracr;pondelebsioinaingtetattarusor conmsunces	heloriondallecdisidedialhisNootattatetetotrexpcoconsremarntannounceme
hekFutrwror	heleflandfhek(flalT&tutteststenarescaopneurr wore.gorradehlarledrll).ionioniingtetteteptexnsosrpexnss orge‐scas‐ou	deledlogl adhyl sdydeddefyAiicaicaisiitatutontgeongeopsrecommendf pjivityt ataacenreas orospec
	lealyhhlhhefbleiagigigingiionDttteramscrareas opossexnss,ludhelogl&fdrllincinginicainioniingttetattumageorpresureareas,idedhisinfionisiallyiivettt ctprovormanoommercsens	deledlogl mdellfheCringi3Dicaingjttatt aeaageoooproecrea

Appendix 2: A drill hole summary table and a plan section showing the collar locations of the relevant drill holes.

		MGA94 (Zone 52)							Intersection
									Width (m)
Hole_ID	Prospect			RL	Dip	Azim	Depth	From	Down	True	Cu
		Easting	Northing	(m)	(degree)	(degree)	(m)	(m)	hole	Width	(%)
									(m)	(m)
TLC001	Prater	438520	7108401	567	‐60	266	49				IFA
TLC002	Prater	438539	7108401	567	‐60	266	79				IFA
TLC003	Prater	438580	7108401	563	‐60	266	88				IFA
TLC004	Sanssouci	438195	7108801	581	‐60	266	79				NSI
TLC005	Chatsworth	438017	7108642	596	‐60	246	52				IFA
TLC006	Forio	438712	7108998	556	‐60	266	27				NSI
TLC007	Forio	438692	7108998	556	‐60	266	100				IFA
TLC008	Killruddery	438833	7109213	561	‐60	86	162				IFA
TLC009	Killruddery	438840	7109002	563	‐60	95	186				IFA
TLC010	Unnamed	439519	7107793	562	‐60	315	306				NSI
TLC011	Forio	438522	7108776	571	‐60	100	174				IFA
TLC012	Chatsworth	438058	7108637	591	‐60	240	168	126	14		3.50
TLC013	Chatsworth	437970	7108757	589	‐60	85	47				NSI
TLC013B	Chatsworth	437969	7108759	575	‐60	80	168				NSI
TLC014	Unnamed	439585	7107072	561	‐60	266	132				NSI
TLC015	Chatsworth	438087	7108554	585	‐60	266	246	178	20		2.46
TLC016	Chatsworth	438031	7108681	598	‐60	245	222				NSI
TLC017	Chatsworth	438044	7108659	595	‐60	245	186				NSI
TLC018	Chatsworth	438066	7108641	591	‐62	238	198	142	18		2.08
TLC019	Prater	438461	7108250	578	‐60	240	240	99	6		0.94
TLC020	Chatsworth	438109	7108556	583	‐60	266	235	187	12		2.75
TLC021	Chatsworth	438132	7108555	580	‐60	266	271	248	6		1.80
TLC022	Chatsworth	438100	7108657	587	‐60	240	13				NSI
TLC022a	Chatsworth	438102	7108657	575	‐60	240	235	201	5	2.6	1.51
TLC023	Chatsworth	438110	7108600	586	‐60	236	259	209	11		1.57
TLC024	Chatsworth	438120	7108515	582	‐60	260	247	193	11		1.36
TLC025	Boboli	438150	7108518	579	‐60	260	286				IFA
TLC026	Killruddery	438700	7108400	566	‐90	0	252				IFA
TLC027	Eastern Reef	438210	7107600	580	‐90	0	226				IFA
TLC028	Unnamed	438800	7107400	564	‐90	0	150				IFA
TLC029	Unnamed	438565	7107400	567	‐60	266	253	187	5		0.75
TLC030	Chatsworth	438070	7108510	584	‐60	266	127	87	8		1.44
TLC031	Chatsworth	438090	7108510	583	‐60	266	157	126	9		2.82
TLC032	Chatsworth	438075	7108550	586	‐60	260	121	55	9		3.08
TLC032	Chatsworth	438075	7108550	586	‐60	260	121	100	7		2.45
TLC033	Chatsworth	438060	7108600	592	‐60	266	139	100	5		2.21
TLC034	Chatsworth	438080	7108600	590	‐60	266	175	136	14		1.49
TLC035	Chatsworth	438090	7108470	581	‐60	266	139	90	4	2.8	0.92
TLC036	Chatsworth	438120	7108470	579	‐60	266	199				NSI
TLC037	Hampton	438220	7108400	570	‐60	266	247				NSI
TLC038	Chatsworth	438105	7108435	580	‐60	260	200	70	6		2.26
TLC039	Prater	438135	7108430	580	‐60	260	250	43	4		1.73
TLC039	Prater	438135	7108430	580	‐60	260	250	181	3		0.67
TLC040	Sanssouci	438260	7108750	580	‐60	260	301				IFA
TLC041	Eastern Reef	438460	7108400	577	‐60	274	247				NSI
TLC042	Eastern Reef	438470	7108300	575	‐60	274	250	247	3		4.98

	Prospect	MGA94 (Zone 52)							Intersection
Hole_ID									Width (m)
				RL	Dip	Azim	Depth	From	Down	True	Cu
		Easting	Northing	(m)	(degree)	(degree)	(m)	(m)	hole	Width	(%)
									(m)	(m)
TLC043	Chatsworth	438040	7108675	598	‐60	240	223				NSI
TLC044	Hampton	438230	7108405	570	‐60	86	250	92	2		0.51
TLC044	Eastern Reef	438230	7108405	570	‐60	86	250	167	1		0.76
TLC044	Eastern Reef	438230	7108405	570	‐60	86	250	190	1		0.30
TLC045	Eastern Reef	438461	7108297	575	‐60	266	401	232	27	9.9	1.45
TLC046	Eastern Reef	438308	7108300	585	‐60	86	163				IFA
TLC047	Eastern Reef	438288	7108300	582	‐60	90	181				IFA
TLC048	Hampton	438251	7108300	578	‐60	90	319				IFA
TLC049	Eastern Reef	438200	7108298	575	‐60	86	355				IFA
TLC050	Eastern Reef	438230	7108000	575	‐60	90	247				NSI
TLC051	Hampton	438105	7108290	576	‐60	86	235	72	4		1.69
TLC052	Prater	438465	7108280	577	‐60	270	319	192	3		1.23
TLC052	Prater	438465	7108280	577	‐60	270	319	200	1		0.29
TLC052	Eastern Reef	438465	7108280	577	‐60	270	319	271	22	8.3	1.31
TLC052	Eastern Reef	438465	7108280	577	‐60	270	319	301	3	1.1	0.36
TLC053	Chatsworth	438172	7108280	574	‐60	90	403				IFA
TLC054	Eastern Reef	438438	7108260	577	‐60	269	325	199	5	2.3	0.62
TLC054	Eastern Reef	438438	7108260	577	‐60	269	325	276	23	10.6	0.81
TLC055	Prater	438475	7108295	573	‐60	266	355	158	3		0.76
TLC055	Prater	438475	7108295	573	‐60	266	355	244	1		0.32
TLC055	Prater	438475	7108295	573	‐60	266	355	266	4		0.22
TLC055	Prater	438475	7108295	573	‐60	266	355	280	5		0.28
TLC056	Prater	438469	7108323	576	‐60	266	319	244	1		0.32
TLC057	Unnamed	438370	7107405	568	‐60	90	217				IFA
TLC058	Bodnant	439860	7109860	558	‐60	270	247				IFA
TLC059	Unknown	438150	7107400	572	‐60	90	295				IFA
TLC060	Prater	438479	7108276	576	‐60	266	331				IFA
TLC061	Eastern Reef	438130	7107700	577	‐60	90	379	306	6		0.43
TLC061	Eastern Reef	438130	7107700	577	‐60	90	379	333	2		0.41
TLC061	Eastern Reef	438130	7107700	577	‐60	90	379	340	2		0.49
TLC062	Hampton	438172	7108280	575	‐60	270	280				NSI
TLC063	Unnamed	439295	7109140	562	‐60	220	241				NSI
TLC064	Hampton	438120	7108255	576	‐60	86	265				IFA
TLC065	Chatsworth	437930	7108665	582	‐60	86	223	89	6		0.82
TLC066	Chatsworth	438750	7108702	566	‐60	270	295				IFA
TLC067	Forio	438635	7108700	567	‐60	270	283				IFA
TLC068	Forio	438551	7108899	569	‐60	90	295				IFA
TLC069	Chelsea	437740	7107900	599	‐60	264	193				IFA
TLC070	Hampton	438201	7108261	576	‐60	270	271				IFA
TLC071	Hampton	438200	7108300	575	‐60	270	241				IFA
TLC072	Hampton	438100	7108340	573	‐60	90	247	162	3		2.66
TLC072	Hampton	438100	7108340	573	‐60	90	247	47	5		1.17
TLC072	Hampton	438100	7108340	573	‐60	90	247	186	1		0.86
TLC072	Hampton	438100	7108340	573	‐60	90	247	204	6		0.63
TLC073	Hampton	438060	7108340	574	‐60	90	295	191	2		2.90
TLC073	Hampton	438060	7108340	574	‐60	90	295	254	4		0.78
TLC075	Hampton	438140	7108340	572	‐60	90	428	308	1		1.33
TLC075	Hampton	438140	7108340	572	‐60	90	428	151	2		1.74
TLC076	Eastern Reef	438185	7108340	572	‐60	86	402	238	1		1.29
TLC076	Eastern Reef	438185	7108340	572	‐60	86	402	267	23		1.45
TLC076	Eastern Reef	438185	7108340	572	‐60	86	402	131	1		1.70
TLC077	Eastern Reef	438225	7108340	572	‐60	86	265	227	12		1.65
TLC077	Hampton	438225	7108340	572	‐60	86	265	160	1		1.25
TLC078	Eastern Reef	438180	7108380	571	‐60	86	325	287	11		2.03

	Prospect	MGA94 (Zone 52)							IntersectionWidth (m)
Hole_ID				RL	Dip	Azim	Depth	From	Down	True	Cu
		Easting	Northing	(m)	(degree)	(degree)	(m)	(m)	hole	Width	(%)
									(m)	(m)
TLC079	Eastern Reef	438060	7108380	573	‐60	86	625	407	1		1.28
TLC079	Hampton	438060	7108380	573	‐60	86	625	269	1		0.83
TLC079	Hampton	438060	7108380	573	‐60	86	625	299	6		0.80
TLC079	Hampton	438060	7108380	573	‐60	86	625	358	1		1.31
TLC080	Chatsworth	437773	7108555	604	‐60	86	499	424	13		2.95
TLC081	Chatsworth	437799	7108646	605	‐60	86	499	340	2	1.6	1.47
TLC081	Dawyck	437799	7108646	605	‐60	86	499	81	1		0.33
TLC082	Dawyck	437850	7108645	603	‐60	86	325	31	2		0.81
TLC083	Dawyck	437935	7108460	589	‐60	86	301	28	1		0.59
TLC083	Chatsworth	437935	7108460	589	‐60	86	301	136	1	0.8	1.14
TLC083	Chatsworth	437935	7108460	589	‐60	86	301	146	1	0.8	0.94
TLC083	Chatsworth	437935	7108460	589	‐60	86	301	175	1		0.68
TLC084	Eastern Reef	438220	7108380	571	‐60	86	277	186	1		0.40
TLC084	Eastern Reef	438220	7108380	571	‐60	86	277	194	8		0.34
TLC084	Eastern Reef	438220	7108380	571	‐60	86	277	207	1		0.39
TLC085	Chatsworth	437773	7108537	603	‐60	86	499	408	10		1.63
TLC085	Dawyck	437773	7108537	603	‐60	86	499	139	10		1.38
TLC086	Chatsworth	437772	7108520	602	‐60	86	500	400	6		1.19
TLC086	Dawyck	437772	7108520	602	‐60	86	500	179	1		0.55
TLD001	Eastern Reef	438463	7108291	575	‐60	266	311.1	273.75	9.53		2.67
TLD001	Eastern Reef	438463	7108291	575	‐60	266	311.1	287.15	1.35		0.35
TLD001	Eastern Reef	438463	7108291	575	‐60	266	311.1	289.03	0.50		0.52
TLD001	Eastern Reef	438463	7108291	575	‐60	266	311.1	293.07	1.88		1.00
TLD001	Eastern Reef	438463	7108291	575	‐60	266	311.1	296.54	0.36		0.87
TLD001	Prater	438463	7108291	575	‐60	266	311.1	143	1		0.56
TLD001	Prater	438463	7108291	575	‐60	266	311.1	157	2		0.84
TLD001	Prater	438463	7108291	575	‐60	266	311.1	166	1		0.99
TLD002	Chatsworth	438061	7108635	591	‐60	240	147.4	126.9	6.08		4.83
TLD002	Chatsworth	438061	7108635	591	‐60	240	147.4	135.4	1.12		2.70
TLD003	Hampton	438020	7108340	575	‐60	90	658.9	155	4		0.87
TLD003	Hampton	438020	7108340	575	‐60	90	658.9	175	1		0.54
TLD003	Hampton	438020	7108340	575	‐60	90	658.9	219	2		1.45
TLD003	Hampton	438020	7108340	575	‐60	90	658.9	184	2		0.99
TLD003	Hampton	438020	7108340	575	‐60	90	658.9	370	2		1.35

NSI – No significant intersection

IFA – Sample identified for future assaying program

N/C – Not calculated