GATEWAY MINING LIMITED - Capital/Financing Update 2019

ABN: 31 008 402 391 Level 11, 52 Phillips Street Sydney NSW 2000 GPO Box 225 Sydney NSW 2001 Tel: 61 2 8316 3998 Fax: 61 2 8316 3999 Website: www.gatewaymining.com.au

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ASX Announcement: 3 October 2019

MAIDEN 240,000oz RESOURCE SETS STRONG FOUNDATION FOR NEXT PHASE OF GROWTH AT GIDGEE GOLD PROJECT, WA

Outstanding growth potential to be tested by new drilling program, with maiden Resources open in all directions and covering only a small portion of an 18km long prospective contact

HIGHLIGHTS

Maiden JORC 2012 Mineral Resource estimate completed for the cornerstone Whistler and Montague Gold Deposits at Gateway’s 100%-owned Gidgee Gold Project, WA:
Inferred Resource of 3,425,000 tonnes @ 2.2g/t for 240,000 ounces of contained gold.
The Whistler Resource remains open in all directions, with immediate strong potential to extend the mineralisation along strike to the north and south, down-plunge and in a series of separate flat-lying structures discovered recently.
The Montague Resource also remains open in all directions and has demonstrated potential for multiple parallel structures at depth as well as expansion of the granite stockwork mineralisation.
The maiden Whistler and Montague Resources represent only a minor portion of the prospective contact of the Montague Granodiorite, which extends for at least 18 strike kilometres.
To advance the resource expansion and exploration push, a major new drilling program of ~16,000m of Reverse Circulation and air-core drilling has commenced this week. Drilling will target:
The immediate next stage of resource expansion at both the Whistler and Montague Gold Deposits;
Conversion of a newly-defined Exploration Target for the Achilles Target, which will be announced immediately after this announcement, into a JORC 2012 compliant Mineral Resource; and
A series of positions along the margin of the Montague Granodiorite that have been targeted using the recently acquired detailed gravity dataset.

Gateway Mining Limited (ASX: GML) ( Gateway or Company ) is pleased to report a maiden JORC 2012 Inferred Mineral Resource estimate (MRE) for the Company’s 100%-owned Gidgee Gold Project , Western Australia (Figure 1). This initial Mineral Resource position represents the first step in what is expected to be an ongoing process of resource growth and upgrade, over the short to medium term.

The reported Mineral Resources, comprising a total Inferred Resource of 3.425 million tonnes grading 2.2g/t Au 240,000 ounces of contained gold , relate to the Whistler Gold Deposit and Montague Gold Deposit , which are both located on the prospective margin of the Montague Granodiorite. The two Resources are located approximately 800m apart (see Figure 1). The Montague Resource has a component of quartz-stockwork gold mineralisation in the base of the historical open pit which is now referred to as the Boulder Gold Deposit.

Gateway Mining Managing Director, Mr Peter Langworthy, said the completion of a maiden Resource for these two key deposits represented an important first step in the Company’s strategy to develop a new large-scale gold project at Gidgee.

“We are pleased to publish our first JORC Mineral Resource statement for the Gidgee Project, which sets a strong initial foundation for us to unlock the broader potential of this exciting and highly prospective emerging gold project,” he said.

“We have already embarked on a major new drilling campaign following our recent highly successful raising designed to expand and upgrade both Resources, which remain open in all directions. The new drilling program will also focus on the exciting new Achilles Target, where we will today publish an Exploration Target, and other exciting prospects identified in recent months along the highly prospective Montague Granodiorite.

“This is an exciting time for Gateway as we begin to crystallise the value of the Gidgee Project and fast-track our broader exploration efforts to unlock new discoveries and rapidly build our Mineral Resource base.”

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Figure (1): Gidgee Gold Project Location Plan

Resource Summary

The maiden Mineral Resource Estimate for the Gidgee Gold Project is 3,425,000 tonnes @ 2.2g/t for 240,000 ounces of contained gold and is summarised in Table (1):

TABLE (1): GIDGEE GOLD PROJECT - OCTOBER 2019 MINERAL RESOURCE ESTIMATE SUMMARY

TABLE (1): GIDGEE GOLD PROJECT - OCTOBER 2019 MINERAL RESOURCE ESTIMATE SUMMARY	TABLE (1): GIDGEE GOLD PROJECT - OCTOBER 2019 MINERAL RESOURCE ESTIMATE SUMMARY	TABLE (1): GIDGEE GOLD PROJECT - OCTOBER 2019 MINERAL RESOURCE ESTIMATE SUMMARY	TABLE (1): GIDGEE GOLD PROJECT - OCTOBER 2019 MINERAL RESOURCE ESTIMATE SUMMARY	TABLE (1): GIDGEE GOLD PROJECT - OCTOBER 2019 MINERAL RESOURCE ESTIMATE SUMMARY
Resource	Cut-off grade (g/t Au)		INFERRED
		Tonnes	Grade (g/t)	Contained Gold (oz)
Whistler Open Pit	0.5	1,600,000	2.16	109,000
Whistler Underground	2	100,000	3.32	11,000
Sub-Total Whistler		1,700,000	2.23	120,000
Montague Open Pit	0.5	1,165,000	2.13	80,000
Boulder Open Pit	0.5	500,000	1.30	20,000
Montague Underground	2	60,000	10.3	20,000
Sub-Total Montague		1,725,000	2.18	120,000
Total Gidgee Gold Project		3,425,000	2.20	240,000

▪ The Mineral Resource Estimate has been classified as totally Inferred and is constrained within a A$2,400 per ounce gold price pit shell optimisation.

Geological interpretation and modeling was undertaken using Micromine software.
The model was built utilising Ordinary Kriging (OK) as the interpolation method using Maptek Vulcan 11.0.2 software.
For full detail, refer to the Summary of Mineral Resource Estimate at pages 5 to 12 in this announcement and to the JORC Table attached as Appendix 1 and Appendix 2.

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Figure (2): Whistler Plan – Optimised A$2,400 Pit Shell

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Figure (3): Whistler Long Section Resource and Exploration Summary

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Figure (4): Whistler Cross Section

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Figure (5): Montague Plan – Optimised A$2,400 Pit Shell

RESOURCE EXPANSION AND EXPLORATION – Whistler and Montague Gold Deposits

To advance the resource expansion and exploration push, a major new drilling program of ~16,000m of Reverse Circulation and air-core drilling has now commenced at the Gidgee Gold Project. A significant component of this program will be focused on expanding the Whistler and Montague Gold Deposits.

Whistler Gold Deposit

An opportunity exists to aggressively target a significant expansion of the Whistler Gold Deposit beyond the reported Mineral Resource. The gold deposit remains open in all directions, with immediate strong potential to extend the mineralisation along strike to the north and south, down-plunge and in a series of separate flat-lying structures that have recently been discovered.

The greater Whistler mineralised trend has been defined by shallow drilling over a strike length of approximately 1.25km.

Montague Gold Deposit

The Montague Gold Deposit remains open in all directions and is potentially part of a mineralised system consisting of multiple flat-lying shear zones with the mafic volcanic rock package and quartz-stockwork zones on the margin of the granodiorite. The prospective contact zone remains largely untested to the north and south for approximately 2.2km.

SUMMARY OF GIDGEE GOLD PROJECT MINERAL RESOURCE ESTIMATE

Whistler

Geology, Geological Interpretation and Mineralisation

The Whistler Gold Deposit, within Gateway Mining Ltd’s Gidgee Project is located approximately 630km NE of Perth and 70km north of Sandstone within mining tenement M57/217.

The geology at Whistler comprises of a basalt-granodiorite contact with granodiorite to the west and basalt and minor gabbro dykes to the east, with the mafic rocks being saprock to fresh at the water level. The contact dips steeply west and strikes 345°, and is relatively undeformed at both ends of the pit. The basalt on the east wall is intruded by two gabbro dykes oriented 55-90°→095°. The granodiorite is intruded by a swarm of 1-15m thick biotite-lamprophyre dykes oriented 85-90°→110-115°.

The ore zone at Whistler consists of an en echelon array of NNE-striking veins that cut across a N-S striking, 70° west-dipping foliation which is hosted predominantly in the granodiorite unit.

Drill hole Database

The drill hole database provided for the Whistler deposit contains data for 341 individual drill holes. A restriction has been applied to the database for the estimation of Whistler between the MGA northings of 6,967,900mN and 6,968,400mN and MGS eastings of 751,350mE and 752,000mE. Auger, air core (AC), rotary air blast (RAB) and water bore drill holes have been excluded.

In total, 45 diamond drill holes (DDH) for a total of 7,031.45m and 72 Reverse Circulation (RC) drill-holes for a total of 15,568m have been utilised in the Mineral Resource estimate.

The surface drill hole sections have been predominately drilled on an azimuth of ~270 degrees, with a general dip of -60 degrees. Approximately four historic drill holes were drilled ~090 degrees with a general dip of -60 degrees.

Sampling

Drilling at Whistler was historically drilled by CRA Exploration (1987-1989) and positioned on a grid with a nominal spacing of 20x25m. Verification of data was conducted from open file annual reports. Diamond core was generally half cut sampled over 1m downhole intervals, with infrequent sampling of up to 2m. RC samples were riffle split on 1m downhole intervals. All CRA samples were analysed via 50g fire assay method, a proportion of samples were also analysed for multi-elements.

Gateway RC sampling: 2kg - 3kg samples were split from dry 1m bulk samples. The sample was initially collected from the cyclone in an inline collection box with independent upper and lower shutters. A second 2kg-3kg sample was collected at the same time as the original sample. This sample was stored on site and retained for follow up analysis and test work. The bulk sample of the main ore zone was discharged from the cyclone directly into green bags.

Gateway Diamond sampling: Core was drilled by DDH1 Drilling Pty Ltd. Sample lengths were dominantly 1m in length, but where geological contacts were present, the core was sampled to this contact creating a sample less or greater than 1 metre. Minimum sample length was 0.2m and the maximum sample length was 1.2m. Duplicates were taken by taking a separate pulp in the preparation stage at the lab at a 1:50 ratio.

Assaying

CRA analysed all drill holes by AAS assay at 1-metre intervals. Where the value exceeded 0.5 g/t Au the sample was re-analysed by 50g fire assay. Where the fire assay exceeded 3 g/t Au or where spotty gold was suspected, the sample was re-analysed by screen fire assay. The protocol for a given sample was that screen fire assays were better than fire assays which were in turn better than AAS assays. For all resource/reserve calculations fire assays and screened fire assays only were used.

Gateway drill samples were submitted to ALS (Perth). All samples were analysed by a 50g fire assay (AAS finish) which is a total assay. Ore zones were also submitted for accelerated cyanide leachwell test work. This is involved a 2000g leach with AAS finish.

Field duplicates were collected at a rate of 1:25 with CRM’s inserted at a rate of 1:25 also. The grade ranges of the CRM’s were selected based on grade populations.

Resource Estimation

(a) Geological Modelling

Geological and mineralisation wireframes have been generated inhouse by creating lithology wireframes and applying a cutoff grade of 0.3 g/t Au.

The geological and weathering wireframes have been generated in LeapFrog Geo implicit software from logged lithology and oxidation records.

(b) Variography

Variography has been completed in Supervisor 8.7 software on a grouped domain basis where enough data is present. Domains with too few composites have borrowed variography.

Variograms have been modelled using the following approach:

All variograms are standardised to a sill of one;
The nugget effect has been modelled from the true downhole variogram;
Variograms have been modelled using two or three-structure nested spherical variograms;
The variograms have been evaluated using normal scores transforms rather than traditional variograms. This method produces a clearer image of the ranges of continuity, especially in skewed datasets;
All variogram models have been standardised to a sill of one. The nugget and sill values have been back-transformed in Supervisor to traditional variograms using the discrete Gaussian polynomials technique.

(c) Block Model Estimation

Grade estimation of gold g/t has been completed using Ordinary Kriging (OK) into 29 mineralised domains using Maptek Vulcan 11.0.2 software. Grade assignment of gold at 0 g/t has been undertaken in unestimated blocks only.

Top cutting of grade has not been assigned to any of the assays for the Whistler mineral resource estimation. This affects a single Domain and is not considered material to the total inferred resource. The Domain has a noted amount of coarse visible gold and is considered geological distinct from the rest of the resource and as such a decision was made to not to apply a top-cut. Additional drilling will be required in this Domain to confirm the full characteristics of the gold prior to any increase in resource confidence levels.

(d) Block Model Construction

The block model parent block size is 12.5m (X) by 12.5m (Y) by 5m (Z). A sub-block size of 0.5m (X) by 0.5m (Y) by 0.1m (Z) has been used to define the mineralisation edges, with the estimation undertaken at the parent block scale.

Pass 1 estimations have been undertaken using a minimum of 8 and a maximum of 30 samples into a search ellipse which ranges of 25m (Dir 1) by 25m (Dir 2) by 15m (Dir 3). A sample per drill hole

limit of 4 samples/drill hole has been applied in all domains.

Pass 2 estimations have been undertaken using a minimum of 8 and a maximum of 30 samples into a search ellipse which ranges of 50m (Dir 1) by 50m (Dir 2) by 30m (Dir 3). A sample per drill hole limit of 4 samples/drill hole has been applied in all domains.
Pass 3 estimations have been undertaken using a minimum of 4 and a maximum of 30 samples into a search ellipse which ranges of 100m (Dir 1) by 100m (Dir 2) by 60m (Dir 3). No sample per drill hole limit has been applied.

The following bulk densities have been applied to the resource estimation model:

Domain / Lithology	Weathering	Bulk Density Assigned t/m3
Waste dumpfill	NA	1.4
Basalt	Oxide	1.8
Granodiorite	Oxide	1.8
Biotite Schist	Oxide	1.8
Basalt	Fresh	2.9
Granodiorite	Fresh	2.7
Biotite Schist	Fresh	2.8

High grade yields have been applied in three domains in order to reduce the smearing of high grades during estimation.

(e) Resource Classification

Classification of the Whistler Mineral Resource estimate has been completed in accordance with the Australasian Code for Reporting of Mineral Resources and Ore Reserves (the JORC Code, as prepared by the Joint Ore Reserve Committee of the AusIMM, AIG and MCA and updated in December 2012).

All classifications and terminologies have been adhered to. All directions and recommendations have been followed, in keeping with the spirit of the code. The categories of Mineral Resource as outlined by the code are as follows;

Measured - tonnage, densities, shape, physical characteristics, grade and mineral content can be estimated with a high level of confidence.
Indicated - tonnage, densities, shape, physical characteristics, grade and mineral content can be estimated with a reasonable level of confidence.
Inferred - tonnage, grade, and mineral content can be estimated with a reduced level of confidence.

The resource classification has been applied to the Mineral Resource estimate based on the drilling data spacing, grade and geological continuity, and data integrity. The resource has been classified on the following basis;

The Measured Mineral Resource classification has not been applied to the Whistler mineral resource estimate;
The Indicated Mineral Resource classification has not been applied to the Whistler mineral resource estimate. Whilst drill spacing is sufficient, the limited documented hardcopy assay data reports and documented geological information reduces the confidence of the resource to lower than Indicated;
An Inferred Mineral Resource has been defined by a nominal drill spacing of 25m by 25m, to 25m by 50m.

(f) Mineral Resource Optimised Pitshell

The current in situ, drill-defined resource inventory for the Whistler Deposit has been reported inside an optimized pit-shell at a cut-off of 0.5g/t Au at a gold price of AUD $2,400. The pit-shell has been generated in Whittle by Mining Plus by applying the costs/gold price.

Price Unit	Amount	Comments
Exchange Rate AUD:USD Gold Price AUD / ounce Royalty %	0.77
	$2,400
	2.50%
Nett Metal Value AUD/ gram	75.23
Mining Cost		(incremental cost per 10m bench)
Base Waste Mining Cost AUD / tonne Incremental costper bench AUD/tonne	2.50
	0.06
Mining parameters
Mining dilution % Miningrecovery %	0%
	100%
Geotechnical Parameters
Overall wall angles Oxide deg Transitional deg Fresh deg
	45
	45
	45
Processing Cost
Milling Cost AUD / tonne Ore Differential AUD/tonne	23.00
	1.50
Total Processing Cost AUD/tonne	24.50
Processing Recovery		Assumption
Oxide % Transitional % Fresh %	95%
	95%
	95%
Discounting
Annual discounting %	10.0%
Fixed Costs
General and Admin AUD / tonne	7.50
Whittle COSTP AUD/tonne	32.00

No previous mineral resource estimate block model has been announced for the Whistler deposit.

Montague

Geology, Geological Interpretation and Mineralisation

The Montague Gold Deposit, within Gateway Mining Ltd’s Gidgee Project is located approximately 630km NE of Perth and 70km north of Sandstone within mining tenement M57/98.

The historic open cut pit is interpreted to comprise of two domains of mineralisation, separated by a NW-SE striking fault. The western extent of the pit contains WSW dipping mineralisation of the Montague Lode, and the eastern extent containing SSE dipping Boulder mineralisation.

The Montague and Gordon’s Lode is hosted entirely within a shallow westerly dipping biotite schist which displays significant sericite alteration on the hangingwall margin. This unit is hosted within the aphyric basalt unit on the western margin of the granodiorite. The Boulder lode is hosted entirely within the granodiorite unit.

Drill Hole Database

The drill hole database provided for the Montague deposit contains data from 371 individual drill holes. A restriction has been applied to the database for the estimation of Montague between the MGA northings of 6,967,550mN and 6,966,500mN and MGA eastings of 750,500mE and 751,500mE. Auger, air core (AC), rotary air blast (RAB), Grade Control (GC) and water bore drill holes have been excluded.

In total, 7 diamond drill holes (DDH) for a total of 1,668.9m and 364 Reverse Circulation (RC) drill-holes for a total of 18,886m have been utilised in the Mineral Resource estimate.

The surface drill hole sections have historically been drilled vertically while the more recent Gateway drilling has been drilled both vertically and with an azimuth of 090 degrees and a dip of -60. The more recent drilling has been targeting the shallow dipping Montague mineralised structure.

Sampling

Historic mining of the Boulder lode is reported recovering 7076.4 tonnes @ 19.9g/t Au from 1906 to 1913 underground “room and pillar stoping in a shallowly dipping main lode” (Clackline Ltd NOI report, mp 15, pg3, 1988). Operations drilling conducted by Herald Resources (1986-88) located south of the Boulder surface workings, contain downhole lengths where assays are missing from the hardcopy reports. It is unclear as to whether the samples were assayed or whether stoping was encountered during drilling. Due to the level of ambiguity with these samples, these drill holes were omitted from this resource estimation process.

From the documented assays, Herald Resources RC and diamond sampling was conducted over 1m intervals.

Assaying

Herald Resources RC and diamond sampling was conducted over 1m intervals and submitted to Pilbara Laboratories for a 50g fire assay analysis.

Field duplicates were collected at a rate of 1:25 with CRM’s inserted at a rate of 1:25 also. The grade ranges of the CRM’s were selected based on grade populations.

Resource Estimation

(g) Geological Modelling

Geological and mineralisation wireframes have been generated inhouse by creating lithology wireframes and applying a cutoff grade of 0.5 g/t Au.

The geological and weathering wireframes have been generated in LeapFrog Geo implicit software from logged lithology and oxidation records.

(h) Variography

Variography has been completed in Supervisor 8.7 software on a grouped domain basis where enough data is present. Domains with too few composites have borrowed variography.

Variograms have been modelled using the following approach:

All variograms are standardised to a sill of one;
The nugget effect has been modelled from the true downhole variogram;
Variograms have been modelled using two or three-structure nested spherical variograms;

The variograms have been evaluated using normal scores transforms rather than traditional variograms. This method produces a clearer image of the ranges of continuity, especially in skewed datasets;
All variogram models have been standardised to a sill of one. The nugget and sill values have been back-transformed in Supervisor to traditional variograms using the discrete Gaussian polynomials technique.

(i) Block Model Estimation

Grade estimation of gold g/t has been completed using Ordinary Kriging (OK) into 21 mineralised domains using Maptek Vulcan 11.0.2 software. Grade assignment of gold at 0 g/t has been undertaken in unestimated blocks only.

Top cutting of grade has not been assigned to any of the assays for the Montague mineral resource estimation. The mafic volcanic hosted domains have a recognised nugget effect however the higher grades are considered to be representative on a geological basis. Additional drilling will be required in the mafic volcanic hosted domains to confirm the full characteristics and distribution of the gold prior to any increase in resource confidence levels.

(j) Block Model Construction

The drill hole data spacing is typically 20m by 20m with areas of extensional drilling at 80m by 80m in the downdip and along-strike extents.

The block model parent block size is 10.0m(X) by 10.0m (Y) by 5.0m (Z). A sub-block size of 2.0m (X) by 2.0m (Y) by 0.5m (Z) has been used to define the mineralisation edges, with the estimation undertaken at the parent block scale.

Pass 1 estimations have been undertaken using a minimum of 8 and a maximum of 20 samples into a search ellipse which ranges of 72m (Dir 1) by 30m (Dir 2) by 24m (Dir 3). A sample per drill hole limit of 4 samples/drill hole has been applied in all domains.
Pass 2 estimations have been undertaken using a minimum of 8 and a maximum of 20 samples into a search ellipse which ranges of 120m (Dir 1) by 50m (Dir 2) by 40m (Dir 3). A sample per drill hole limit of 4 samples/drill hole has been applied in all domains.
Pass 3 estimations have been undertaken using a minimum of 4 and a maximum of 20 samples into a search ellipse which ranges of 120m (Dir 1) by 50m (Dir 2) by 40m (Dir 3). No sample per drill hole limit has been applied.

The following bulk densities have been applied to the resource estimation model:

Domain / Lithology	Weathering	Bulk Density Assigned t/m3
Waste dumpfill	NA	1.4
Basalt	Oxide	1.8
Granodiorite	Oxide	1.8
Biotite Schist	Oxide	1.8
Basalt	Fresh	2.9
Granodiorite	Fresh	2.7
Biotite Schist	Fresh	2.8

High grade yields have been applied in seven domains in order to reduce the smearing of high grades during estimation.

(k) Resource Classification

Classification of the Montague Mineral Resource estimate has been completed in accordance with the Australasian Code for Reporting of Mineral Resources and Ore Reserves (the JORC Code, as prepared

by the Joint Ore Reserve Committee of the AusIMM, AIG and MCA and updated in December 2012). All classifications and terminologies have been adhered to. All directions and recommendations have been followed, in keeping with the spirit of the code. The categories of Mineral Resource as outlined by the code are as follows;

Measured - tonnage, densities, shape, physical characteristics, grade and mineral content can be estimated with a high level of confidence.
Indicated - tonnage, densities, shape, physical characteristics, grade and mineral content can be estimated with a reasonable level of confidence.
Inferred - tonnage, grade, and mineral content can be estimated with a reduced level of confidence.

The Measured Mineral Resource classification has not been applied to the Montague mineral resource estimate;
The Indicated Mineral Resource classification has not been applied to the Montague mineral resource estimate. Whilst drill spacing is sufficient, the limited documented hardcopy assay data reports, historic missing assay data, ‘nugget effect’ associated with the Montague domain and limited documented geological information reduces the confidence of the resource to lower than Indicated;
An Inferred Mineral Resource has been defined by a nominal drill spacing of 20m by 20m to 80m by 80m in the down-dip and along strike extents.

(l) Mineral Resource Optimised Pitshell

The current in situ, drill-defined resource inventory for the Whistler Deposit has been reported inside an optimised pit-shell at a cut-off of 0.5g/t Au at a gold price of AUD $2,400. The pit-shell has been generated in Whittle by Mining Plus by applying the costs/gold price.

Price Unit	Amount	Comments
Gold Price AUD / ounce Aboriginal Heritage AUD / ounce Royalty %	$2,400
	-
	2.50%
Nett Metal Value AUD/ gram	75.23

Mining Cost		(incremental cost per 10m bench)
Base Waste Mining Cost AUD / tonne Incremental costper bench AUD/tonne	$2.50
	$0.06

Mining parameters
Mining dilution % Miningrecovery %	0%
	100%

Geotechnical Parameters
Overall wall angles Oxide deg Transitional deg Fresh deg
	45
	45
	45

Processing Cost
Milling Cost AUD / tonne Transport (mine to mill) AUD / tonne Grade Control AUD / tonne Ore Differential AUD/tonne	$23.00
	$-
	$-
	$1.50
Total Processing Cost AUD / tonne	$24.50

Processing Recovery
Oxide % Transitional %	95%
	95%

Fresh %	95%

Discounting
Annual discounting %	10.0%

Fixed Costs
General and Admin AUD / tonne	$7.50

Whittle COSTP AUD/tonne	$32.00

No previous mineral resource estimate block model has been announced for the Montague deposit.

Peter Langworthy Managing Director

For and on behalf of GATEWAY MINING LIMITED

Competent Person Statement

The information in this release that relates to sampling techniques and data, exploration results, geological information and exploration targets is based on information compiled or reviewed by Mr Richard Pugh (Hons) and is a current Member of the Australian Institute of Mining and Metallurgy. Mr Pugh is a full-time employee of OMNI GeoX Pty Ltd and has sufficient experience with the style of mineralisation and types of deposits under consideration, and to the activities undertaken, to qualify as a Competent Person as defined in the 2012 Edition of the “Australian Code of Reporting of Exploration Results, Mineral Resources and Ore Reserves (The JORC Code).

The information in the release that relates to the Estimation and Reporting of Mineral Resources has been compiled and reviewed by Mr Peter Langworthy who is a full-time employee of Gateway Mining Limited and is a current Member of the Australian Institute of Mining and Metallurgy. Mr Langworthy has sufficient experience, which is relevant to the style of mineralisation and types of deposits under consideration and to the activities undertaken, to qualify as a Competent Person as defined in the 2012 Edition of the “Australian Code of Reporting of Exploration Results, Mineral Resources and Ore Reserves (The JORC Code).

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APPENDIX (1): SIGNIFICANT DRILLING INTERSECTIONS JORC Code, 2012 Edition

Table 1

Section 1 Sampling Techniques and Data Whistler

(Criteria in this section apply to all succeeding sections)

Criteria	JORC Code explanation	Commentary
*Sampling* *techniques*	• Nature and quality of sampling (e.g. cut channels, 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. • Include reference to measures taken to ensure sample representivity and the appropriate calibration of any measurement tools or systems used. • Aspects of the determination of mineralisation that are Material to the Public Report. • In cases where ‘industry standard’ work has been done this would be relatively simple (e.g. ‘reverse circulation drilling was used to obtain 1 m samples from which 3 kg was pulverized to produce a 30 g 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 (e.g. submarine nodules) may warrant disclosure of detailed information.	• DIAMOND Drilling– Core was drilled by DDH 1. Gateway staff collected the core from the rig and took the core back to the core yard where the core was cleaned, reassembled and marked up with metre marks for logging by Gateway geologists. The geologist marked up the core for sampling and the HQ and NQ core was half cut in half using a corewise automatic core saw. Sample lengths were dominantly 1m in length, but where geological contacts were present, the core was sampled to this contact creating a sample less or greater than 1 metre. Minimum sample length is 0.2m and maximum sample length is 1.2m. Duplicates were taken by taking a separate pulp in the preparation stage at the lab at a 1:50 ratio • RC drilling - 2kg - 3kg samples were split from dry 1m bulk samples. The sample was initially collected from the cyclone in an inline collection box with independent upper and lower shutters. Once the metre was completed, the drill bit was lifted off the bottom of the hole, to create a gap between samples, when the gap of air came into the collection box the top shutter was closed off. Once the top shutter was closed, the bottom shutter was opened, and the sample was dropped under gravity thorough a Metzke cone splitter. Once drilling reached fresh rock a fine spray of water was used to suppress dust and limit the loss of fines thorough the cyclone chimney. A second 2kg-3kg sample was collected at the same time the original sample. This sample has been stored on site. These duplicate samples have been retained for follow up analysis and test work. The bulk sample of the main ore zone was discharged from the cyclone directly into green bags. • The bulk sample from the waste was collected in wheelbarrows and dumped into neat piles on the ground. • During the sample collection process, the cone split, original and duplicate calico samples and the reject green bag samples were weighed to test for bias’s and sample recoveries. The majority of the check work was undertaken through the main ore zones. • Field duplicates were collected at a ratio of 1:20 through the mineralised zones and collected at the same time as the original sample through the B chute of the cone

Criteria	JORC Code explanation	Commentary
		splitter. OREAS certified reference material (CRM) was inserted at a ratio of 1:20 through the mineralised zone. The grade ranges of the CRM’s were selected based on grade populations and economic grade ranges. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* *Diamond Drilling:*HQ3 and NQ core drilled in fresh rock. Core orientated and mineralised noted and marked for cutting. Sample lengths sampled on 0.5 to 2m intervals and cut to half-core sub-sample collected. Samples were analysed for Au by AAS technique with results greater than 0.5ppm Au re- assayed by Fire Assay. Assays >3g/t Au re-assayed by Screen Fire Assay. This methodology was applied to account for a recognized coarse gold component within the mineralised zones. *RC Drilling:*Samples were collected on 1m intervals, riffle split and 5m composite samples prepared for assay. Re-assays were undertaken on selected 1m samples. Analysis was carried out by Australian Laboratory Services and Sheen Analytical Services. All holes were cased with 50mm PVC to facilitate downhole geophysical logging.
*Drilling* *techniques*	• Drill type (e.g. core, reverse circulation, open-hole hammer, rotary air blast, auger, Bangka, sonic, etc.) and details (e.g. core diameter, triple or standard tube, depth of diamond tails, face-sampling bit or other type, whether core is oriented and if so, by what method, etc.).	• DIAMOND - was drilled by DDH1 (Perth) using a Boart Longyear KWL 1600H drill rig. • RC – Challenge Drilling drill rig was used. The rig consisted of a Schramm truck mounted RC rig with 1150cfm x 350psi on board compressor, an Airsearch 1800cfm x 900psi on board Booster, and a truck mounted Sullair 900cfm x 350psi auxiliary compressor. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* Diamond Drilling:RC percussion or HQ3 pre-collars were drilled to fresh rock. NQ core drilled for remainder of holes. No details available on drilling rig specifications. RC Drilling:RC percussion drilled as pre-collars to fresh rock. No details available on drilling rig specifications.
*Drill sample* *recovery*	• Method of recording and assessing core and chip sample recoveries and results assessed. • Measures taken to maximize sample recovery and ensure representative nature of the samples. • Whether a relationship exists between sample recovery andgrade and whether	• DIAMOND – the holes were rough cored from surface through the broken oxide zone which is well understood from previous drilling. The remnant core was examined by Gateway Geologists and then discarded. Once coherent coring was established the drill sample recovery was measured routinely by Gateway Geologists. Overall recoverywas excellent.

Criteria	JORC Code explanation	Commentary
	sample bias may have occurred due to preferential loss/gain of fine/coarse material.	• During the RC sample collection process, the cone split, original and duplicate calico samples and the reject green bag samples were weighed to test for bias’s and sample recoveries. The majority of the check work was undertaken through the main ore zones. From this process showed that the majority of ore grade samples had recoveries greater than 80% • Once drilling reached fresh rock a fine spray of water was used to suppress dust and limit the loss of fines thorough the cyclone chimney. • At the end of each metre the bit was lifted off the bottom to separate each metre drilled. • The majority of samples were of good quality with ground water having minimal effect on sample quality or recovery. • From the collection of recovery data, no identifiable bias exists. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* Diamond Drilling:Recoveries in fresh rock are recorded as being satisfactory and that no inherent bias has been introduced from drilling or sampling techniques. RC Drilling:There are no records available that capture information on drilling recoveries. Typically a minimum 3kg sample was provided to the laboratory for assay. Samples considered fit for purpose.
*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. • Whether logging is qualitative or quantitative in nature. Core (or costean, channel, etc.) photography. • The total length and percentage of the relevant intersections logged.	• Diamond core was put into core trays on the drill rig and then cleaned, reassembled and marked up with metre marks for logging by Gateway geologists • Reverse circulation chips were washed and stored in chip trays in 1m intervals for the entire length of each hole. Chips were visually inspected and logged to record lithology, weathering, alteration, mineralisation, veining and structure. • Data on rock type, deformation, colour, structure, alteration, veining, mineralisation and oxidation state were recorded. • Logging is both qualitative and quantitative or semi quantitative in nature. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* Reverse circulation chips were washed and stored in chip trays in 1m intervals for the entire length of each hole. Chips were visually inspected and logged to record lithology, weathering, alteration, mineralisation, veining and structure. Records of samples being wet or dry were taken. Diamond core was presented and stored in industry standard core boxes. The core was orientated and core loss noted.

Criteria	JORC Code explanation	Commentary
		Data on rocktype, deformation, colour, structure, alteration, veining, mineralisation and oxidation state were recorded. RQD, magnetic susceptibility and core recoveries were recorded. Logging is considered both qualitative and quantitative or semi-quantitative in nature. The logging information is considered to be fit for purpose.
*Sub-sampling* *techniques and* *sample* *preparation*	• If core, whether cut or sawn and whether quarter, half or all core taken. • If non-core, whether riffled, tube sampled, rotary split, etc. and whether sampled wet or dry. • For all sample types, the nature, quality and appropriateness of the sample preparation technique. • Quality control procedures adopted for all sub-sampling stages to maximise representivity of samples. • 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. • Whether sample sizes are appropriate to the grain size of the material being sampled.	• All diamond core was cut based on geological boundaries or to a maximum length of 1m. Quarter core was sampled from each interval and retained in calico bags. Core is then securely stored in a Perth warehouse. • Samples were split from dry, 1m bulk sample via a cone splitter directly from the cyclone. • The QC procedure adopted through the process includes: `o` Weighing both calicos and reject sample to determine sample recovery and check for sampling bias. `o` Field duplicates were collected at a rate of 1:25, these were collected during RC drilling at the same time as the primary sample. `o` OREAS certified material (CRM) was inserted at a rate of 1:25, the grade ranges of the CRM’s were selected based on grade populations. • 2-3kgs of sample was submitted to the laboratory. • Samples oven dried at 10gdegC then pulverized in LM5 mills to 85% passing 75micron. • All samples were analysed for Au using the Au-AA26 technique which is a 50g lead collection fire assay. • For Diamond core and RC samples the sample preparation technique is appropriate and is standard industry practice for a gold deposit. • Quality control for maximising representivity of samples included sample weights, insertion of field duplicates and laboratory duplicates. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* RC samples were split using a riffle splitter. 1m samples were collected and 5m composites prepared for assay. Re-assays were undertaken on selected 1m samples. Typically 3kg samples were submitted to the assay laboratory. Only minor numbers of samples are recorded as being wet. QA/QC data is not currently available. Sampling processes are considered fit for purpose. Diamond core waspresented and stored in industrystandard core boxes. The core was

Criteria	JORC Code explanation	Commentary
		orientated and core loss noted. Once logged the core was marked up for sampling ranging from 0.5m to 2.0m largely matching geological contacts. Half core samples were collected and submitted to the assay laboratory. Samples were analysed for Au by AAS technique with results greater than 0.5ppm Au re- assayed by Fire Assay. Assays >3g/t Au re-assayed by Screen Fire Assay. This methodology was applied to account for a recognized coarse gold component within the mineralised zones.
*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. • For geophysical tools, spectrometers, handheld XRF instruments, etc., the parameters used in determining the analysis including instrument make and model, reading times, calibrations factors applied and their derivation, etc. • Nature of quality control procedures adopted (e.g. standards, blanks, duplicates, external laboratory checks) and whether acceptable levels of accuracy (i.e. lack of bias) and precision have been established.	• Drill samples were submitted to ALS (Perth). All samples were analysed by a 50g fire assay (AAS finish) which is a total assay. • Ore zones were also submitted for accelerated cyanide leachwell test work. This is involves a 2000g leach with AAS finish. • Field duplicates were collected at a rate of 1:25 with CRM’s inserted at a rate of 1:25 also. The grade ranges of the CRM’s were selected based on grade populations. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* All samples were assayed at Australian Laboratory Services and Sheen Analytical Services. Samples were analysed for Au by AAS technique with results greater than 0.5ppm Au re- assayed by Fire Assay. Assays >3g/t Au re-assayed by Screen Fire Assay. This methodology was applied to account for a recognized coarse gold component within the mineralised zones. QA/QC data is not currently available. Sampling processes are considered fit for purpose.
*Verification of* *sampling and* *assaying*	• The verification of significant intersections by either independent or alternative company personnel. • The use of twinned holes. • Documentation of primary data, data entry procedures, data verification, data storage (physical and electronic) protocols. • Discuss any adjustment to assay data.	• Drilling results are cross checked by company geologists and consulting geologists (OMNI GeoX Pty Ltd.) • Data is recorded digitally at the project within standard industry software, assay results received digitally also. • All data is stored within a suitable database. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* Logging and sampling were recorded directly into a Stratalog T500 digital logging unit.

Criteria	JORC Code explanation	Commentary
		All drilling information is currently stored in a Gateway Access database. All information has been plotted on section and in plan to match against neighbouring holes and determine likely validity of the data QA/QC data is not currently available. Sampling and assay data are considered fit for purpose.
*Location of* *data points*	• 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. • Specification of the grid system used. • Quality and adequacy of topographic control.	• Drill hole location is initially recorded with a handheld Garmin GPS (+/- 3m) and will eventually be recorded by Digital GPs (+/-1cm). A Reflex EZ North Seeking Gyro is used to record the deviation of the drill holes (+/- 1deg) Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* A truncated AMG grid was established across the project area and hole collars were measure from fixed survey pegs. These collar locations have been validated using detailed aerial photography. Downhole surveys were undertaken with an Eastman single shot camera on intervals ranging from 30 to 50m. Location data is considered fit for purpose.
*Data spacing* *and distribution*	• Data spacing for reporting of Exploration Results. • Whether the data spacing and distribution is sufficient to establish the degree of geological and grade continuity appropriate for the Mineral Resource and Ore Reserve estimation procedure(s) and classifications applied. • Whether sample compositing has been applied.	• Refer to tables within text for data spacing. • Holes drilled within this program in combination with the historical holes and their related samples are deemed to be appropriate for resource estimation. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* Please See Appendix 3 Table 1 for Results Historic drilling at Whistler was carried out on a 25 x 25m grid to define the historic open pit resource. At depth the spacing varied between 25m x 25m spacing to 25m x 50m spacing.
*Orientation of* *data in relation* *to geological* *structure*	• Whether the orientation of sampling achieves unbiased sampling of possible structures and the extent to which this is known, considering the deposit type. • If the relationship between the drilling orientation and the orientation of key mineralised structures is considered to have introduced a sampling bias, this should be assessed and reported if material.	• Drill lines were orientated as close to perpendicular as possible to the perceived strike of the mineralized structure. Drilling at Whistler intercepts mineralisation at an oblique angle to the dip (~15deg off). The orientation of drilling is suitable for the mineralisation style and orientation of mineralisation.

Criteria	JORC Code explanation	Commentary
		Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* Drilling at Whistler was drilled perpendicular to strike (270) and in the across dip direction in most cases. The majority of holes have been drilled at a 60 degree dip and intersected the mineralisation at an appropriate angle. In some cases reverse angled holes have been completed to test for short range controls on the gold mineralisation. The orientation of the drilling is suitable for the mineralisation style and orientation of the mineralisation at the Whistler.
*Sample security*	• The measures taken to ensure sample security.	• Calico samples are sealed into green/poly weave bags and cable tied. These are then sealed in bulka bags and transported to the laboratory in Perth by company staff or trusted contractors or established freight companies. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* No information.
*Audits or* *reviews*	• The results of any audits or reviews of sampling techniques and data.	• Drilling results are cross checked by company geologists and consulting geologists (OMNI GeoX Pty Ltd.) Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.*

Section 2 Reporting of Exploration Results Whistler

Criteria	JORC Code explanation	JORC Code explanation	Commentary	Commentary
Mineral	•	Type, reference name/number, location and ownership including agreements or	•	The Whistler gold deposit is situated on Mining Lease M57/217 which is held 100%
tenement and		material issues with third parties such as joint ventures, partnerships, overriding		by Gateway Mining Ltd.
land tenure		royalties, native title interests, historical sites, wilderness or national park and
status		environmental settings.
	•	The security of the tenure held at the time of reporting along with any known
		impediments to obtaining a licence to operate in the area.
Exploration done	•	Acknowledgment and appraisal of exploration by other parties.	•	Whistler open cut was mined from November 1990 (Polaris Pacific NL) and ore was
by other parties				toll treated through the Herald mill. Little attention was paid to mineralisation
				other than gold.
			•	Whistler mineralisation was discovered by CRA in 1987 by RAB drilling traverse and
				defined by RC/Diamond drilling from 1987-89. Polaris Pacific conducted RC drilling
				prior to identification of a measured and indicated reserve to 65m vertical depth
				for 254,000t at 4.38g/t Au. Polaris drilling targeted promising CRA drill intersections
				using shallow (<40m) often with vertical RC holes which are considered generally
				too shallow to test sufficiently below 25m depth of near surface gold depletion.
				Polaris conducted mining of the open cut to 64m depth from Nov. 1990 to Oct.
				1991. Herald drilling targeted below the Whistler pit for which no downhole
				surveys are known and dummy surveys inserted. WRC/Gateway JV drilled 2 depth
				extension diamond holes in 2011 including the significant intersection in WRC017
				(19m@19g/t Au)
Geology	•	Deposit type, geological setting and style of mineralisation.	•	The Whistler orebody is a N-S shear zone hosted at the contact between basalt
				(east) and granodiorite (west) that contains an array of NNE-striking quartz veins
				arranged_en echelon._
			•	The Whistler orebody is hosted in a flat lying (30-45 degrees) N-S trending shear
				zone hosted by basalt on the margin of a large granodiorite intrusion. The
				mineralisation is typically within a defined shear zone with quartz-veining and
				strong biotite-sericite alteration. Minor sulphides are generally present.
Drill hole	•	A summary of all information material to the understanding of the exploration	•	Exploration drill results are contained within Appendix 3: Table 1
Information		results including a tabulation of the following information for all Material drill holes:
		`o` easting and northing of the drill hole collar
		`o` elevation or RL (Reduced Level – elevation above sea level in metres) of the drill
		hole collar
		`o` dip and azimuth of the hole
		`o` down hole length and interception depth

Criteria	JORC Code explanation	JORC Code explanation	Commentary	Commentary
		`o` hole length.
	•	If the exclusion of this information is justified on the basis that the information is not
		Material and this exclusion does not detract from the understanding of the report,
		the Competent Person should clearly explain why this is the case.
Data	•	In reporting Exploration Results, weighting averaging techniques, maximum and/or	•	A weighting average technique was used when generating the different domains at
aggregation		minimum grade truncations (eg cutting of high grades) and cut-off grades are		Whistler. From the geostatistical analysis on all available assay data, a cut-off grade
methods		usually Material and should be stated.		of 0.3g/t and a high grade cut-off of 5g/t were used to domain the different
	•	Where aggregate intercepts incorporate short lengths of high grade results and		wireframes.
		longer lengths of low grade results, the procedure used for such aggregation should	•	Compositing has been undertaken within domain boundaries at 1m with a variable
		be stated and some typical examples of such aggregations should be shown in detail.		length of 0.2m.
	•	The assumptions used for any reporting of metal equivalent values should be clearly
		stated.
Relationship	•	These relationships are particularly important in the reporting of Exploration Results.	•	Drill lines were orientated perpendicular to the perceived strike of the mineralized
between	•	If the geometry of the mineralisation with respect to the drill hole angle is known, its		structure. Drilling at Whistler intercepts mineralisation at an oblique angle to the
mineralisation		nature should be reported.		dip (~15deg off). The orientation of drilling is suitable for the mineralisation style
widths and	•	If it is not known and only the down hole lengths are reported, there should be a		and orientation of mineralisation.
intercept lengths		clear statement to this effect (eg ‘down hole length, true width not known’).
Diagrams	•	Appropriate maps and sections (with scales) and tabulations of intercepts should be	•	Appropriate maps and sections are included in the announcement
		included for any significant discovery being reported These should include, but not be
		limited to aplan view of drill hole collar locations and appropriate sectional views.
Balanced	•	Where comprehensive reporting of all Exploration Results is not practicable,	•	The accompanying document is considered to be a balanced report with a suitable
reporting		representative reporting of both low and high grades and/or widths should be		cautionary note.
		practiced to avoid misleading reporting of Exploration Results.
Other	•	Other exploration data, if meaningful and material, should be reported including	•	3D Gravity and airborne magnetic data is currently being processed, with the
substantive		(but not limited to): geological observations; geophysical survey results; geochemical		resultant model aiding future exploration programs.
exploration data		survey results; bulk samples – size and method of treatment; metallurgical test
		results; bulk density, groundwater, geotechnical and rock characteristics; potential
		deleterious or contaminating substances.
Further work	•	The nature and scale of planned further work (eg tests for lateral extensions or depth	•	A substantial RC program to extend the known resource and test proximal high
		extensions or large-scale step-out drilling).		priority drill targets is ongoing.
	•	Diagrams clearly highlighting the areas of possible extensions, including the main
		geological interpretations and future drilling areas, provided this information is not
		commercially sensitive.

Section 3: Estimation and Reporting of Mineral Resources Whistler

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 Mineral Resource estimation purposes. • Data validation procedures used.	• The drill hole data is stored in a commercial referential SQL database (Datashed). The database is managed by an external consultant, Katrina Garven. • Routine data validations are undertaken on import, such as over-lapping interval checks. • Logging and sampling codes are maintained in library tables ensuring that only valid codes can be stored in the database. • Returned laboratoryassayfiles are loaded into the database usingstandardised loadingschemes.
*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.	• Mr Peter Langworthy has undertaken numerous site visits.
*Geological* *interpretation*	• Confidence in (or conversely, the uncertainty of) the geological interpretation of the mineral deposit. • 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. • The factors affecting continuity both of grade and _geology. _	• Surface diamond and reverse circulation (RC) drill holes have been logged for lithology, structure, alteration and mineralisation data. • The geological interpretation has been undertaken in Micromine using a nominal cut-off of 0.3 g/t gold and logged geological codes. • The geological and weathering wireframes have been generated in LeapfFrog Geo implicit software from logged lithology and oxidation records.
*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 lower limits of the Mineral Resource	• Whistler has a strike extent of 400 m and a down-dip extent of 200 m. • Whistler varies in width from 5 to 60 m, averaging 30 m. • The mineralisation is within 5 to 10 vertical metres of the surface.
*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 extrapolation from data points. If a computer assisted estimation method was chosen include a	• Grade estimation of gold g/t has been completed using Ordinary Kriging (OK) into 29 mineralised domains using Maptek Vulcan 11.0.2 software. Grade assignment of gold 0g/t has been undertaken in unestimated blocks only. • Compositing has been undertaken within domain boundaries at 1m with a variable length of 0.2m. • Variography has been completed in Supervisor 8.7 software on a grouped domain basis where enough data is present. Domains with too few samples have borrowed variography. • The Mineral Resource estimate has been validated usingvisual validation tools,meangrade comparisons

	description of computer software and parameters used. • The availability of check estimates, previous estimates and/or mine production records and whether the Mineral Resource estimate takes appropriate account of such data. • The assumptions made regarding recovery of by- products. • Estimation of deleterious elements or other non- grade variables of economic significance (e.g. sulphur for acid mine drainage characterisation). • In the case of block model interpolation, the block size in relation to the average sample spacing and the search employed. • Any assumptions behind modelling of selective mining units. • Any assumptions about correlation between variables • Description of how the geological interpretation was used to control the resource estimates. • 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. •	between the block model and composite grade means and swath plots comparing the composite grades and block model grades by Northing, Easting and RL. • No assumptions have been made regarding recovery of any by-products. • The drill hole data spacing is typically 25m by 25m with areas of extensional drilling at 50m by 50m in the down-dip and strike extents. • The block model parent block size is 12.5m (X) by 12.5m (Y) by 5m (Z). A sub-block size of 0.5m (X) by 0.5m (Y) by 0.1m (Z) has been used to define the mineralisation edges, with the estimation undertaken at the parent block scale. `o` Pass 1 estimations have been undertaken using a minimum of 8 and a maximum of 30 samples into a search ellipse which ranges of 25m (Dir 1) by 25m (Dir 2) by 15m (Dir 3). A sample per drill hole limit of 4 samples/drill hole has been applied in all domains. `o` Pass 2 estimations have been undertaken using a minimum of 8 and a maximum of 30 samples into a search ellipse which ranges of 50 m (Dir 1) by 50 m (Dir 2) by 30m (Dir 3). A sample per drill hole limit of 4 samples/drill hole has been applied in all domains. `o` Pass 3 estimations have been undertaken using a minimum of 4 and a maximum of 30 samples into a search ellipse which ranges of 100 m (Dir 1) by 100 m (Dir 2) by 60m (Dir 3). No sample per drill hole limit has been applied. The search ellipses and variographic rotations applied during the estimation of all domain blocks has been determined using a central trend surface and coded into the model. The estimation has been undertaken using the dynamic anisotropy function in Maptek Vulcan v11.0.2 (LVA). • No selective mining units are assumed in this estimate. • No correlation between variables has been assumed. • The drill holes have been flagged with the domain code and composited using the domain code to segregate the data. Hard boundaries have been used at all domain boundaries. • Top cutting has not been assigned to any of the assays. This affects one single domain and is not material to outcome of the inferred resource. • Model validation has been carried out, including visual comparison between composites and estimated blocks; check for negative or absent grades; statistical comparison against the input drill hole data and graphicalplots.	between the block model and composite grade means and swath plots comparing the composite grades and block model grades by Northing, Easting and RL. • No assumptions have been made regarding recovery of any by-products. • The drill hole data spacing is typically 25m by 25m with areas of extensional drilling at 50m by 50m in the down-dip and strike extents. • The block model parent block size is 12.5m (X) by 12.5m (Y) by 5m (Z). A sub-block size of 0.5m (X) by 0.5m (Y) by 0.1m (Z) has been used to define the mineralisation edges, with the estimation undertaken at the parent block scale. `o` Pass 1 estimations have been undertaken using a minimum of 8 and a maximum of 30 samples into a search ellipse which ranges of 25m (Dir 1) by 25m (Dir 2) by 15m (Dir 3). A sample per drill hole limit of 4 samples/drill hole has been applied in all domains. `o` Pass 2 estimations have been undertaken using a minimum of 8 and a maximum of 30 samples into a search ellipse which ranges of 50 m (Dir 1) by 50 m (Dir 2) by 30m (Dir 3). A sample per drill hole limit of 4 samples/drill hole has been applied in all domains. `o` Pass 3 estimations have been undertaken using a minimum of 4 and a maximum of 30 samples into a search ellipse which ranges of 100 m (Dir 1) by 100 m (Dir 2) by 60m (Dir 3). No sample per drill hole limit has been applied. The search ellipses and variographic rotations applied during the estimation of all domain blocks has been determined using a central trend surface and coded into the model. The estimation has been undertaken using the dynamic anisotropy function in Maptek Vulcan v11.0.2 (LVA). • No selective mining units are assumed in this estimate. • No correlation between variables has been assumed. • The drill holes have been flagged with the domain code and composited using the domain code to segregate the data. Hard boundaries have been used at all domain boundaries. • Top cutting has not been assigned to any of the assays. This affects one single domain and is not material to outcome of the inferred resource. • Model validation has been carried out, including visual comparison between composites and estimated blocks; check for negative or absent grades; statistical comparison against the input drill hole data and graphicalplots.
*Moisture*	• Whether the tonnages are estimated on a dry basis or with natural moisture, and the method of determination of the moisture content.	• The tonnes have been estimated on a dry basis.
*Cut-off parameters*	• The basis of the adopted cut-off grade(s) or quality parameters applied	• A nominal cut-off of 0.3 g/t gold has been applied during the wireframe creation process following a cut- off grade review which indicated a natural grade cut-off at 0.3 g/t gold.
*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	• A whittle pit optimisation has been run in order to generate a pit shell wireframe for MRE reporting purposes. The mining assumptions/parameters applied to the optimisation are: Price Unit Amount Comments
		Price Unit Amount	Comments

	methods, but the assumptions made regarding mining methods and parameters when estimating 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.	Exchange Rate AUD:USD Gold Price AUD / ounce Royalty %	0.77
			$2,400
			2.50%
		Nett Metal Value AUD/ gram	75.23
		Mining Cost		(incremental cost per 10m bench)
		Base Waste Mining Cost AUD / tonne Incremental costper bench AUD/tonne	2.50
			0.06
		Mining parameters
		Mining dilution % Miningrecovery %	0%
			100%
		Geotechnical Parameters
		Overall wall angles Oxide deg Transitional deg Fresh deg
			45
			45
			45
		Processing Cost
		Milling Cost AUD / tonne Ore Differential AUD/tonne	23.00
			1.50
		Total Processing Cost AUD/tonne	24.50
		Processing Recovery		Assumption
		Oxide % Transitional % Fresh %	95%
			95%
			95%
		Discounting
		Annual discounting %	10.0%
		Fixed Costs
		General and Admin AUD / tonne Whittle COSTP AUD/tonne	7.50
			32.00
*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 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.	• A processing recovery of 95% has been applied to all material.
*Environmental factors* *or assumptions*	• Assumptions made regarding possible waste and process residue disposal options. It is always necessary aspart of theprocess of determining	• No environmental factors or assumptions have been applied to the Mineral Resource estimation.

	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 environmental impacts, particularly for a greenfields project, may not always be well advanced, the status of early consideration of these potential 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 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 void spaces (vugs, porosity, etc), moisture and differences between rock and alteration zones within the deposit, • Discuss assumptions for bulk density estimates used in the evaluation process of the different materials.	• Densities have been assigned by lithology and weathering state. • The selection of bulk density samples is determined by the logging geologist and is undertaken in a manner designed to determine the density of all material types. The diamond drill core is competent and does not display evidence of voids or vugs. • Density has been assigned to the waste dump fill material. • The densities applied are considered appropriate for this material. Domain / Lithology Weathering Bulk Density Assigned (t/m3) Waste dump fill NA 1.4 Basalt(3) Oxide 1.8 Granodiorite(1) Oxide 1.8 Biotite Schist(4) Oxide 1.8 Basalt(3) Fresh 2.9 Granodiorite(1) Fresh 2.7 Biotite Schist(4) Fresh 2.8
*Classification*	• The basis for the classification of the Mineral Resources into varying confidence categories • Whether appropriate account has been taken of all relevant factors (i.e. relative confidence in tonnage/grade estimations, reliability of input data, confidence in continuity of geology and metal values, quality, quantity and distribution of the data). • Whether the result appropriately reflects the Competent Person’s view of the deposit.	• The resource classification has been applied to the MRE based on the drilling data spacing, grade and geological continuity, and data integrity. • The classification takes into account the relative contributions of geological and data quality and confidence, as well as grade confidence and continuity. • The classification reflects the view of the Competent Person.
*Audits or reviews*	• The results of any audits or reviews of Mineral Resource estimates.	• This Mineral Resource estimate for Whistler has not been audited by an external party.


	*Discussion of relative* *accuracy/confidence*	• Where appropriate a statement of the relative accuracy and confidence level in the Mineral 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 that could affect the relative accuracy and 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 • These statements of relative accuracy and confidence of the estimate should be compared with production data, where available	• The relative accuracy of the Mineral Resource estimate is reflected in the reporting of the Mineral Resource as per the guidelines of the 2012 JORC Code.

APPENDIX (2): SIGNIFICANT DRILLING INTERSECTIONS JORC Code, 2012 Edition Table 1 - Montague

Section 1 Sampling Techniques and Data Montague (Criteria in this section apply to all succeeding sections)

Criteria	JORC Code explanation	Commentary
*Sampling* *techniques*	• Nature and quality of sampling (e.g. cut channels, 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. • Include reference to measures taken to ensure sample representivity and the appropriate calibration of any measurement tools or systems used. • Aspects of the determination of mineralisation that are Material to the Public Report. • In cases where ‘industry standard’ work has been done this would be relatively simple (e.g. ‘reverse circulation drilling was used to obtain 1 m samples from which 3 kg was pulverized to produce a 30 g 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 (e.g. submarine nodules) may warrant disclosure of detailed information.	• DIAMOND Drilling– Core was drilled by DDH 1. Gateway staff collected the core from the rig and took the core back to the core yard where the core was cleaned, reassembled and marked up with metre marks for logging by Gateway geologists. The geologist marked up the core for sampling and the HQ and NQ core was half cut in half using a corewise automatic core saw. Sample lengths were dominantly 1m in length, but where geological contacts were present, the core was sampled to this contact creating a sample less or greater than 1 metre. Minimum sample length is 0.2m and maximum sample length is 1.2m. Duplicates were taken by taking a separate pulp in the preparation stage at the lab at a 1:50 ratio • RC drilling - 2kg - 3kg samples were split from dry 1m bulk samples. The sample was initially collected from the cyclone in an inline collection box with independent upper and lower shutters. Once the metre was completed, the drill bit was lifted off the bottom of the hole, to create a gap between samples, when the gap of air came into the collection box the top shutter was closed off. Once the top shutter was closed, the bottom shutter was opened, and the sample was dropped under gravity thorough a Metzke cone splitter. Once drilling reached fresh rock a fine spray of water was used to suppress dust and limit the loss of fines thorough the cyclone chimney. A second 2kg-3kg sample was collected at the same time the original sample. This sample has been stored on site. These duplicate samples have been retained for follow up analysis and test work. The bulk sample of the main ore zone was discharged from the cyclone directly into green bags. • The bulk sample from the waste was collected in wheelbarrows and dumped into neat piles on the ground. • During the sample collection process, the cone split, original and duplicate calico samples and the reject green bag samples were weighed to test for bias’s and sample recoveries. The majority of the check work was undertaken through the main ore zones. • Field duplicates were collected at a ratio of 1:20 through the mineralised zones and collected at the same time as the original sample through the B chute of the cone splitter. OREAS certified reference material (CRM) was inserted at a ratio of 1:20 through the mineralised zone. Thegrade ranges of the CRM’s were selected based

Criteria	JORC Code explanation	Commentary
		on grade populations and economic grade ranges. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* *Diamond Drilling:*HQ3 and NQ core drilled in fresh rock. Core orientated and mineralised noted and marked for cutting. Sample lengths sampled on 0.5 to 2m intervals and cut to half-core sub-sample collected. Samples were analysed for Au by AAS technique with results greater than 0.5ppm Au re- assayed by Fire Assay. Assays >3g/t Au re-assayed by Screen Fire Assay. This methodology was applied to account for a recognized coarse gold component within the mineralised zones. *RC Drilling:*Samples were collected on 1m intervals, riffle split and 5m composite samples prepared for assay. Re-assays were undertaken on selected 1m samples. Herald Resources RC and diamond sampling was conducted over 1m intervals and submitted to Pilbara Laboratories for a 50g fire assay analysis. There are several instances with the historic MOA prefixed RC holes where the assay results are missing from the historic hardcopy reports. GML believe that the assay results are missing as opposed to the drill hole not being analysed. These missing intercepts are recorded as -99 in the database and these holes were omitted from the inferred resource model.
*Drilling* *techniques*	• Drill type (e.g. core, reverse circulation, open-hole hammer, rotary air blast, auger, Bangka, sonic, etc.) and details (e.g. core diameter, triple or standard tube, depth of diamond tails, face-sampling bit or other type, whether core is oriented and if so, by what method, etc.).	• DIAMOND - was drilled by DDH1 (Perth) using a Boart Longyear KWL 1600H drill rig. • RC – Challenge Drilling drill rig was used. The rig consisted of a Schramm truck mounted RC rig with 1150cfm x 350psi on board compressor, an Airsearch 1800cfm x 900psi on board Booster, and a truck mounted Sullair 900cfm x 350psi auxiliary compressor. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* Diamond Drilling:RC percussion or HQ3 pre-collars were drilled to fresh rock. NQ core drilled for remainder of holes. No details available on drilling rig specifications. RC Drilling:RC percussion drilled as pre-collars to fresh rock. No details available on drilling rig specifications.
*Drill sample*	• Method of recording and assessing core and chip sample recoveries and results	• DIAMOND – the holes were rough cored from surface through the broken oxide

Criteria	JORC Code explanation	Commentary
*recovery*	assessed. • Measures taken to maximize sample recovery and ensure representative nature of the samples. • 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.	zone which is well understood from previous drilling. The remnant core was examined by Gateway Geologists and then discarded. Once coherent coring was established the drill sample recovery was measured routinely by Gateway Geologists. Overall recovery was excellent. • During the RC sample collection process, the cone split, original and duplicate calico samples and the reject green bag samples were weighed to test for bias’s and sample recoveries. The majority of the check work was undertaken through the main ore zones. From this process showed that the majority of ore grade samples had recoveries greater than 80% • Once drilling reached fresh rock a fine spray of water was used to suppress dust and limit the loss of fines thorough the cyclone chimney. • At the end of each metre the bit was lifted off the bottom to separate each metre drilled. • The majority of samples were of good quality with ground water having minimal effect on sample quality or recovery. • From the collection of recovery data, no identifiable bias exists. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* Diamond Drilling:Recoveries in fresh rock are recorded as being satisfactory and that no inherent bias has been introduced from drilling or sampling techniques. RC Drilling:There are no records available that capture information on drilling recoveries. Typically a minimum 3kg sample was provided to the laboratory for assay. Samples considered fit for purpose.
*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. • Whether logging is qualitative or quantitative in nature. Core (or costean, channel, etc.) photography. • The total length and percentage of the relevant intersections logged.	• Diamond core was put into core trays on the drill rig and then cleaned, reassembled and marked up with metre marks for logging by Gateway geologists • Reverse circulation chips were washed and stored in chip trays in 1m intervals for the entire length of each hole. Chips were visually inspected and logged to record lithology, weathering, alteration, mineralisation, veining and structure. • Data on rock type, deformation, colour, structure, alteration, veining, mineralisation and oxidation state were recorded. • Logging is both qualitative and quantitative or semi quantitative in nature. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* Reverse circulation and Aircore chips were washed and stored in chip trays in 1m intervals for the entire length of each hole. Chips were visually inspected and logged to record lithology, weathering, alteration, mineralisation, veining and structure.

Criteria	JORC Code explanation	Commentary
		Records of samples being wet or dry were taken. Diamond core was presented and stored in industry standard core boxes. The core was orientated and core loss noted. Data on rocktype, deformation, colour, structure, alteration, veining, mineralisation and oxidation state were recorded. RQD, magnetic susceptibility and core recoveries were recorded. Logging is considered both qualitative and quantitative or semi-quantitative in nature. The logging information is considered to be fit for purpose.
*Sub-sampling* *techniques and* *sample* *preparation*	• If core, whether cut or sawn and whether quarter, half or all core taken. • If non-core, whether riffled, tube sampled, rotary split, etc. and whether sampled wet or dry. • For all sample types, the nature, quality and appropriateness of the sample preparation technique. • Quality control procedures adopted for all sub-sampling stages to maximise representivity of samples. • 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. • Whether sample sizes are appropriate to the grain size of the material being sampled.	• All diamond core was cut based on geological boundaries or to a maximum length of 1m. Quarter core was sampled from each interval and retained in calico bags. Core is then securely stored in a Perth warehouse. • Samples were split from dry, 1m bulk sample via a cone splitter directly from the cyclone. • The QC procedure adopted through the process includes: `o` Weighing both calicos and reject sample to determine sample recovery and check for sampling bias. `o` Field duplicates were collected at a rate of 1:25, these were collected during RC drilling at the same time as the primary sample. `o` OREAS certified material (CRM) was inserted at a rate of 1:25, the grade ranges of the CRM’s were selected based on grade populations. • 2-3kgs of sample was submitted to the laboratory. • Samples oven dried at 10gdegC then pulverized in LM5 mills to 85% passing 75micron. • All samples were analysed for Au using the Au-AA26 technique which is a 50g lead collection fire assay. • For Diamond core and RC samples the sample preparation technique is appropriate and is standard industry practice for a gold deposit. • Quality control for maximising representivity of samples included sample weights, insertion of field duplicates and laboratory duplicates. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* RC samples were split using a riffle splitter. 1m samples were collected and 5m composites prepared for assay. Re-assays were undertaken on selected 1m samples. Typically 3kg samples were submitted to the assay laboratory. Only minor numbers of samples are recorded as being wet.

Criteria	JORC Code explanation	Commentary
		QA/QC data is not currently available. Sampling processes are considered fit for purpose. Diamond core was presented and stored in industry standard core boxes. The core was orientated and core loss noted. Once logged the core was marked up for sampling ranging from 0.5m to 2.0m largely matching geological contacts. Half core samples were collected and submitted to the assay laboratory. Samples were analysed for Au by AAS technique with results greater than 0.5ppm Au re- assayed by Fire Assay. Assays >3g/t Au re-assayed by Screen Fire Assay. This methodology was applied to account for a recognized coarse gold component within the mineralised zones.
*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. • For geophysical tools, spectrometers, handheld XRF instruments, etc., the parameters used in determining the analysis including instrument make and model, reading times, calibrations factors applied and their derivation, etc. • Nature of quality control procedures adopted (e.g. standards, blanks, duplicates, external laboratory checks) and whether acceptable levels of accuracy (i.e. lack of bias) and precision have been established.	• Drill samples were submitted to ALS (Perth). All samples were analysed by a 50g fire assay (AAS finish) which is a total assay. • Ore zones were also submitted for accelerated cyanide leachwell test work. This is involves a 2000g leach with AAS finish. • Field duplicates were collected at a rate of 1:25 with CRM’s inserted at a rate of 1:25 also. The grade ranges of the CRM’s were selected based on grade populations. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* All samples were assayed at either Analabs or ALS in Perth. Samples were analysed for Au by AAS technique with results greater than 0.5ppm Au re- assayed by Fire Assay. Assays >3g/t Au re-assayed by Screen Fire Assay. This methodology was applied to account for a recognized coarse gold component within the mineralised zones. QA/QC data is not currently available. Sampling processes are considered fit for purpose.
*Verification of* *sampling and* *assaying*	• The verification of significant intersections by either independent or alternative company personnel. • The use of twinned holes. • Documentation of primary data, data entry procedures, data verification, data storage (physical and electronic) protocols. • Discuss any adjustment to assay data.	• Drilling results are cross checked by company geologists and consulting geologists (OMNI GeoX Pty Ltd.) • Data is recorded digitally at the project within standard industry software, assay results received digitally also. • All data is stored within a suitable database. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital*

Criteria	JORC Code explanation	Commentary
		*databases.* Logging and sampling were recorded directly into a Stratalog T500 digital logging unit. All drilling information is currently stored in a Gateway Access database. All information has been plotted on section and in plan to match against neighbouring holes and determine likely validity of the data QA/QC data is not currently available. Sampling and assay data are considered fit for purpose. All data relating to historic drilling across the Montague deposit are stored in hardcopy format at Gateway’s office. Several assays relating to historic MOA prefixed RC holes have not been recorded in these historic reports. Gateway believes that these drill holes were assayed, but that the assay value were recorded. Regardless of this, these holes were omitted from the inferred resource calculation.
*Location of data* *points*	• 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. • Specification of the grid system used. • Quality and adequacy of topographic control.	• Drill hole location is initially recorded with a handheld Garmin GPS (+/- 3m) and will eventually be recorded by Digital GPs (+/-1cm). A Reflex EZ North Seeking Gyro is used to record the deviation of the drill holes (+/- 1deg) Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* A truncated AMG grid was established across the project area and hole collars were measure from fixed survey pegs. These collar locations have been validated using detailed aerial photography. Downhole surveys were undertaken with an Eastman single shot camera on intervals ranging from 30 to 50m. Hardcopy mine plans have been scanned and geo-referenced, with the resultant MGA coordinates entered into the Gateway database. These have also been validated in the field. Location data is considered fit for purpose.
*Data spacing* *and distribution*	• Data spacing for reporting of Exploration Results. • Whether the data spacing and distribution is sufficient to establish the degree of geological and grade continuity appropriate for the Mineral Resource and Ore Reserve estimation procedure(s) and classifications applied. • Whether sample compositing has been applied.	• Refer to tables within text for data spacing. • Holes drilled within this program in combination with the historical holes and their related samples are deemed to be appropriate for resource estimation. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital*

Criteria	JORC Code explanation	Commentary
		*databases.* Please See Appendix 3 Table 2 for Results • Drilling at Montague was drilled on a spacing of 20m x 20m to define the historic open pit resource. Below the historical open pit mines the spacing is up to 80m by 80m in some down-dip and along strike extents.
*Orientation of* *data in relation* *to geological* *structure*	• Whether the orientation of sampling achieves unbiased sampling of possible structures and the extent to which this is known, considering the deposit type. • If the relationship between the drilling orientation and the orientation of key mineralised structures is considered to have introduced a sampling bias, this should be assessed and reported if material.	• Drill lines were orientated as close to perpendicular as possible to the perceived strike of the mineralized structure. The orientation of drilling is suitable for the mineralisation style and orientation of mineralisation. • Vertical drilling has been utilised at Montague to allow for room on the pit edge and to facilitate drilling through a low level waste dump. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* Drilling at Montague has been drilled perpendicular to strike and in the across dip direction in most cases. The majority of holes have been drilled at a -60 to -90 degree dip and intersected the mineralisation at an appropriate angle. In some cases reverse angled holes have been completed to test for short range controls on the gold mineralisation. The orientation of the drilling is suitable for the mineralisation style and orientation of the mineralisation at Montague.
*Sample security*	• The measures taken to ensure sample security.	• Calico samples are sealed into green/poly weave bags and cable tied. These are then sealed in bulka bags and transported to the laboratory in Perth by company staff or trusted contractors or established freight companies. Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.* No information.
*Audits or* *reviews*	• The results of any audits or reviews of sampling techniques and data.	• Drilling results are cross checked by company geologists and consulting geologists (OMNI GeoX Pty Ltd.)

Criteria	JORC Code explanation	Commentary
		Historical Drilling: *All information referred in this report not collected in this current program has been* *accessed through verifying historical company reports and/or available digital* *databases.*

Section 2 Reporting of Exploration Results Montague

Criteria	JORC Code explanation	JORC Code explanation	Commentary	Commentary
Mineral	•	Type, reference name/number, location and ownership including agreements or	•	The Montague Gold Deposit is situated on Mining Lease M57/98 which is held 100%
tenement and		material issues with third parties such as joint ventures, partnerships, overriding		by Gateway Mining Ltd.
land tenure		royalties, native title interests, historical sites, wilderness or national park and
status		environmental settings.
	•	The security of the tenure held at the time of reporting along with any known
		impediments to obtaining a licence to operate in the area.
Exploration done	•	Acknowledgment and appraisal of exploration by other parties.	•	Montague open cut was mined from 1989-1990 (Herald Resource Ltd) and ore was
by other parties				toll treated through the Herald mill. Little attention was paid to mineralisation
				other thangold.
Geology	•	Deposit type, geological setting and style of mineralisation.	•	The historic open cut pit is interpreted to comprise of two domains of
				mineralisation, separated by a NW-SE striking fault. The western extent of the pit
				contains WSW dipping mineralisation of the Montague Lode, and the eastern
				extent containing SSE dipping Boulder mineralisation.
			•	The Montague and Gordon’s Lode is hosted entirely within a shallow westerly
				dipping biotite schist which displays significant sericite alteration on the
				hangingwall margin. This unit is hosted within the aphyric basalt unit on the
				western margin of the granodiorite. The Boulder lode is hosted entirely within the
				granodiorite unit.
Drill hole	•	A summary of all information material to the understanding of the exploration	•	Exploration drill results that were used to define the inferred resource are contained
Information		results including a tabulation of the following information for all Material drill holes:		within Appendix 3 Table 2
		`o` easting and northing of the drill hole collar
		`o` elevation or RL (Reduced Level – elevation above sea level in metres) of the drill
		hole collar
		`o` dip and azimuth of the hole
		`o` down hole length and interception depth
		`o` hole length.
	•	If the exclusion of this information is justified on the basis that the information is not
		Material and this exclusion does not detractfrom the understanding of the report,

Criteria	JORC Code explanation	JORC Code explanation	Commentary	Commentary
		the Competent Person should clearly explain why this is the case.
Data	•	In reporting Exploration Results, weighting averaging techniques, maximum and/or	•	A nominal cut-off of 0.3 g/t gold has been applied during the wireframe creation
aggregation		minimum grade truncations (eg cutting of high grades) and cut-off grades are		process following a cut-off grade review which indicated a natural grade cut-off at
methods		usually Material and should be stated.		0.3 g/t gold.
	•	Where aggregate intercepts incorporate short lengths of high grade results and	•	Compositing has been undertaken within domain boundaries at 1m with a variable
		longer lengths of low grade results, the procedure used for such aggregation should		length of 0.2m.
		be stated and some typical examples of such aggregations should be shown in detail.	•	Variography has been completed in Supervisor 8.7 software on a lode basis where
	•	The assumptions used for any reporting of metal equivalent values should be clearly		enough data is present. Domains with too few samples have borrowed
		stated.		variography.
Relationship	•	These relationships are particularly important in the reporting of Exploration Results.	•	Drill lines were orientated perpendicular to the perceived strike of the mineralized
between	•	If the geometry of the mineralisation with respect to the drill hole angle is known, its		structure. The orientation of drilling is suitable for the mineralisation style and
mineralisation		nature should be reported.		orientation of mineralisation.
widths and	•	If it is not known and only the down hole lengths are reported, there should be a
intercept lengths		clear statement to this effect (eg ‘down hole length, true width not known’).
Diagrams	•	Appropriate maps and sections (with scales) and tabulations of intercepts should be	•	Appropriate maps and sections are included in the announcement
		included for any significant discovery being reported These should include, but not be
		limited to aplan view of drill hole collar locations and appropriate sectional views.
Balanced	•	Where comprehensive reporting of all Exploration Results is not practicable,	•	The accompanying document is considered to be a balanced report with a suitable
reporting		representative reporting of both low and high grades and/or widths should be		cautionary note.
		practiced to avoid misleading reporting of Exploration Results.
Other	•	Other exploration data, if meaningful and material, should be reported including	•	3D Gravity and airborne magnetic data is currently being processed, with the
substantive		(but not limited to): geological observations; geophysical survey results; geochemical		resultant model aiding future exploration programs
exploration data		survey results; bulk samples – size and method of treatment; metallurgical test
		results; bulk density, groundwater, geotechnical and rock characteristics; potential
		deleterious or contaminating substances.
Further work	•	The nature and scale of planned further work (eg tests for lateral extensions or depth	•	A substantial RC program to extend the known resource and test proximal high
		extensions or large-scale step-out drilling).		priority drill targets is ongoing.
	•	Diagrams clearly highlighting the areas of possible extensions, including the main
		geological interpretations and future drilling areas, provided this information is not
		commercially sensitive.

Section 3: Estimation and Reporting of Mineral Resources Montague

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	• The drill hole data is stored in a commercial referential SQL database (Datashed). The database is managed by an external consultant, Katrina Garven. • Routine data validations are undertaken on import, such as over-lapping interval checks. • Loggingand samplingcodes are maintained in librarytables ensuringthat onlyvalid codes can be stored in the

	and its use for Mineral Resource estimation purposes. • Data validationprocedures used.	database. • Returned laboratory assay files are loaded into the database using standardised loading schemes.
*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.	• Mr Peter Langworthy has undertaken numerous site visits.
*Geological* *interpretation*	• Confidence in (or conversely, the uncertainty of) the geological interpretation of the mineral deposit. • 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. • The factors affecting continuity both of grade _andgeology. _	• Surface diamond and reverse circulation (RC) drill holes have been logged for lithology, structure, alteration and mineralisation data. • The geological interpretation has been undertaken in Micromine using a nominal cut-off of 0.3 g/t gold and logged geological codes. • The geological and weathering wireframes have been generated in LeapFrog Geo implicit software from logged lithology and oxidation records.
*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 lower limits of the Mineral Resource	• The Montague lode is hosted within a foliated biotite schist unit and has a lateral extent of 540 metres, strikes 325 degrees and dips approximately 40 degrees to the west. The Montague lode also has a variable thickness from 40m in the oxide component to around 5 metres in thickness along strike. The Boulder lode is comprised of several domains (8) which are hosted within the granodiorite unit and are more of a stockwork style mineralisation zone. Each domain has a variable strike extent and thickness but each domain has a rough strike of 290 degrees with a dipof 30 degrees to the south.
*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 extrapolation from data points. If a computer assisted estimation method was chosen include a description of computer software and parameters used. • The availability of check estimates, previous estimates and/or mine production records and whether the Mineral Resource estimate takes appropriate account of such data. • The assumptions made regarding recovery of by-products. • Estimation of deleterious elements or other non-grade variables of economic significance	• Grade estimation of gold g/t has been completed using Ordinary Kriging (OK) into 21 mineralised domains using Maptek Vulcan 11.0.2 software. Grade assignment of gold 0g/t has been undertaken in unestimated blocks only. • Compositing has been undertaken within domain boundaries at 1m with a variable length of 0.2m. • Variography has been completed in Supervisor 8.7 software on a lode basis where enough data is present. Domains with too few samples have borrowed variography. • The Mineral Resource estimate has been validated using visual validation tools, mean grade comparisons between the block model and composite grade means and swath plots comparing the composite grades and block model grades by Northing, Easting and RL. • No assumptions have been made regarding recovery of any by-products. • The drill hole data spacing is typically 20m by 20m with areas of extensional drilling at 80m by 80m in the down-dip and along-strike extents. • The block model parent block size is 10.0.m(X) by 10.0m (Y) by 5.0m (Z). A sub-block size of 2.0m (X) by 2.0m (Y) by 0.5m (Z) has been used to define the mineralisation edges, with the estimation undertaken at the parent block scale. `o` Pass 1 estimations have been undertaken using a minimum of 8 and a maximum of 20 samples into a search ellipse which ranges of 72m (Dir 1) by 30m (Dir 2) by 24m (Dir 3). A sample per drill hole limit of 4 samples/drill hole has been applied in all domains.

	(e.g. sulphur for acid mine drainage characterisation). • In the case of block model interpolation, the block size in relation to the average sample spacing and the search employed. • Any assumptions behind modelling of selective mining units. • Any assumptions about correlation between variables • Description of how the geological interpretation was used to control the resource estimates. • 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. •	`o` Pass 2 estimations have been undertaken using a minimum of 8 and a maximum of 20 samples into a search ellipse which ranges of 120m (Dir 1) by 50m (Dir 2) by 40m (Dir 3). A sample per drill hole limit of 4 samples/drill hole has been applied in all domains. `o` Pass 3 estimations have been undertaken using a minimum of 4 and a maximum of 20 samples into a search ellipse which ranges of 120m (Dir 1) by 50m (Dir 2) by 40m (Dir 3). No sample per drill hole limit has been applied. • No selective mining units are assumed in this estimate. • No correlation between variables has been assumed. • The drill holes have been flagged with the domain code and composited using the domain code to segregate the data. Hard boundaries have been used at all domain boundaries. • Top-cuts have not been assigned to the various domains. • Model validation has been carried out, including visual comparison between composites and estimated blocks; check for negative or absent grades; statistical comparison against the input drill hole data and graphical plots.	`o` Pass 2 estimations have been undertaken using a minimum of 8 and a maximum of 20 samples into a search ellipse which ranges of 120m (Dir 1) by 50m (Dir 2) by 40m (Dir 3). A sample per drill hole limit of 4 samples/drill hole has been applied in all domains. `o` Pass 3 estimations have been undertaken using a minimum of 4 and a maximum of 20 samples into a search ellipse which ranges of 120m (Dir 1) by 50m (Dir 2) by 40m (Dir 3). No sample per drill hole limit has been applied. • No selective mining units are assumed in this estimate. • No correlation between variables has been assumed. • The drill holes have been flagged with the domain code and composited using the domain code to segregate the data. Hard boundaries have been used at all domain boundaries. • Top-cuts have not been assigned to the various domains. • Model validation has been carried out, including visual comparison between composites and estimated blocks; check for negative or absent grades; statistical comparison against the input drill hole data and graphical plots.	`o` Pass 2 estimations have been undertaken using a minimum of 8 and a maximum of 20 samples into a search ellipse which ranges of 120m (Dir 1) by 50m (Dir 2) by 40m (Dir 3). A sample per drill hole limit of 4 samples/drill hole has been applied in all domains. `o` Pass 3 estimations have been undertaken using a minimum of 4 and a maximum of 20 samples into a search ellipse which ranges of 120m (Dir 1) by 50m (Dir 2) by 40m (Dir 3). No sample per drill hole limit has been applied. • No selective mining units are assumed in this estimate. • No correlation between variables has been assumed. • The drill holes have been flagged with the domain code and composited using the domain code to segregate the data. Hard boundaries have been used at all domain boundaries. • Top-cuts have not been assigned to the various domains. • Model validation has been carried out, including visual comparison between composites and estimated blocks; check for negative or absent grades; statistical comparison against the input drill hole data and graphical plots.	`o` Pass 2 estimations have been undertaken using a minimum of 8 and a maximum of 20 samples into a search ellipse which ranges of 120m (Dir 1) by 50m (Dir 2) by 40m (Dir 3). A sample per drill hole limit of 4 samples/drill hole has been applied in all domains. `o` Pass 3 estimations have been undertaken using a minimum of 4 and a maximum of 20 samples into a search ellipse which ranges of 120m (Dir 1) by 50m (Dir 2) by 40m (Dir 3). No sample per drill hole limit has been applied. • No selective mining units are assumed in this estimate. • No correlation between variables has been assumed. • The drill holes have been flagged with the domain code and composited using the domain code to segregate the data. Hard boundaries have been used at all domain boundaries. • Top-cuts have not been assigned to the various domains. • Model validation has been carried out, including visual comparison between composites and estimated blocks; check for negative or absent grades; statistical comparison against the input drill hole data and graphical plots.
*Moisture*	• Whether the tonnages are estimated on a dry basis or with natural moisture, and the method of determination of the moisture content.	• The tonnes have been estimated on a dry basis.
*Cut-off parameters*	• The basis of the adopted cut-off grade(s) or quality parameters applied	• A nominal cut-off of 0.3 g/t gold has been applied during the wireframe creation process following a cut-off grade review which indicated a natural grade cut-off at 0.3 g/t gold.
*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 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.	• A whittle pit optimisation has been run in order The mining assumptions/parameters applied to Price Unit Gold Price AUD / ounce Aboriginal Heritage AUD / ounce Royalty % Nett Metal Value AUD/ gram Mining Cost Base Waste Mining Cost AUD / tonne Incremental costper bench AUD/tonne Mining parameters Mining dilution % Miningrecovery % Geotechnical Parameters Overall wall angles Oxide deg Transitional deg		to generate a pit shell wireframe for MRE reporting purposes. the optimisation are Amount Comments $2,400 - 2.50% 75.23 $2.50 (incremental cost per 10m bench) $0.06 0% 100% 45 45
			Price Unit	Amount	Comments
			Gold Price AUD / ounce Aboriginal Heritage AUD / ounce Royalty %	$2,400
				-
				2.50%
			Nett Metal Value AUD/ gram	75.23

			Mining Cost		(incremental cost per 10m bench)
			Base Waste Mining Cost AUD / tonne Incremental costper bench AUD/tonne	$2.50
				$0.06

			Mining parameters
			Mining dilution % Miningrecovery %	0%
				100%

			Geotechnical Parameters
			Overall wall angles Oxide deg Transitional deg
				45
				45

			Fresh deg	45

			Processing Cost
			Milling Cost AUD / tonne Transport (mine to mill) AUD / tonne Grade Control AUD / tonne Ore Differential AUD/tonne	$23.00
				$-
				$-
				$1.50
			Total Processing Cost AUD / tonne	$24.50

			Processing Recovery
			Oxide % Transitional % Fresh %	95%
				95%
				95%

			Discounting
			Annual discounting %	10.0%

			Fixed Costs
			General and Admin AUD / tonne	$7.50

			Whittle COSTP AUD/tonne	$32.00

*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 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.	• A processing recovery of 95% has been applied to all material.
*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 environmental impacts, particularly for a greenfields project, may not always be well advanced, the status of	• No environmental factors or assumptions have been applied to t			he Mineral Resource estimation.

	early consideration of these potential 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 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 void spaces (vugs, porosity, etc), moisture and differences between rock and alteration zones within the deposit, • Discuss assumptions for bulk density estimates used in the evaluation process of the different materials.	• Densities have been assigned by lithology and weathering state. • The selection of bulk density samples is determined by the logging geologist and is undertaken in a manner designed to determine the density of all material types. The diamond drill core is competent and does not display evidence of voids or vugs. • A density data review of 36 bulk density determinations has been undertaken by lithology and weathering/oxidation state. Mean density values have been applied to material types represented in the density determination data. • Density has been assigned to the waste dump fill material. The densities applied are considered appropriate for this material. • Densities applied to the block model are : Domain / Lithology Weathering Bulk Density Assigned (t/m3) Waste dump fill NA 1.4 Basalt(3) Oxide 1.8 Granodiorite(1) Oxide 1.8 Biotite Schist(4) Oxide 1.8 Basalt(3) Fresh 2.9 Granodiorite(1) Fresh 2.7 Biotite Schist(4) Fresh 2.8
*Classification*	• The basis for the classification of the Mineral Resources into varying confidence categories • Whether appropriate account has been taken of all relevant factors (i.e. relative confidence in tonnage/grade estimations, reliability of input data, confidence in continuity of geology and metal values, quality, quantity and distribution of the data). • Whether the result appropriately reflects the Competent Person’s view of the deposit.	• The resource classification has been applied to the MRE based on the drilling data spacing, grade and geological continuity, and data integrity. • The classification takes into account the relative contributions of geological and data quality and confidence, as well as grade confidence and continuity. • The classification reflects the view of the Competent Person.
*Audits or reviews*	• The results of any audits or reviews of Mineral Resource estimates.	• This Mineral Resource estimate for Whistler has not been audited by an external party.

Discussion of relative • The relative accuracy of the Mineral Resource estimate is reflected in the reporting of the Mineral Resource as accuracy/confidence • Where appropriate a statement of the relative per the guidelines of the 2012 JORC Code. accuracy and confidence level in the Mineral 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 that could affect the relative accuracy and 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
• These statements of relative accuracy and confidence of the estimate should be compared with production data, where available

APPENDIX (3): RESOURCE DRILL INTERCEPTS (RAW DATA)

Table 1: Whistler

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
89MRP70	RC	751,639	6,967,962	513.0	-60	270	61	32	35	3	0.49
89MRP69	RC	751,619	6,967,962	513.0	-60	270	60	26	27	1	0.24
								28	30	2	0.26
								35	36	1	0.39
GRC374	RC	751715	6967980	513	-50	270	148	21	28	7	2.26
								110	113	3	0.25
89MRP73	RC	751659	6967987	513	-60	270	92	66	67	1	0.55
89MRP47	RC	751639	6967987	513	-60	270	76	24	26	2	0.43
								29	54	25	1.62
								65	72	7	1.06
89MRP46	RC	751619	6967987	513	-60	270	60	23	35	12	0.76
								39	43	4	0.63
								55	57	2	0.67
89MRP45	RC	751599	6967987	513	-60	270	60	27	31	4	0.60

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
GRC348	RC	751725	6968012	513	-60	270	198	15	17	2	1.06
								67	68	1	0.53
GRC376	RC	751710	6968020	513	-50	270	148	44	46	2	0.24
								113	121	8	5.78
								131	133	2	1.46
87MRD6	Diamond	751672	6968008	513	-60	270	57	44	48	4	0.31
87MRD6A	Diamond	751670	6968008	513	-60	270	200	41	48	7	1.19
								76	78	2	0.38
								80	82	2	0.93
								95	97	2	1.23
								118	121	3	0.55
89MRP43	RC	751639	6968012	513	-60	270	90	20	21	1	0.60
								22	29	7	1.22
								41	59	18	1.56
								65	71	6	1.91
89MRP42	RC	751619	6968012	513	-60	270	60	16	39	23	1.95
								43	47	4	0.70
								58	60	2	0.53
89MRP41	RC	751600	6968012	514	-60	270	60	12	18	6	2.71
								27	36	9	0.86
89MRP40	RC	751579	6968012	513	-60	270	60	21	28	7	0.80
89MRD41	Diamond	751659	6968037	513	-60	270	102	20	32	12	1.04
								36	39	3	0.22
								71	82	11	2.16
								84	86	2	2.28
								90	100	10	1.29
89MRP39	Diamond	751639	6968037	513	-60	270	75	21	25	4	1.33
								47	75	27	2.08
89MRP38	RC	751619	6968037	513	-60	270	60	28	40	12	2.47
								58	59	1	0.18
89MRP37	RC	751599	6968037	513	-60	270	60	27	28	1	0.38
								30	32	2	1.78
89MRP36	RC	751579	6968037	513	-60	270	60	16	22	6	1.82
89MRP35	RC	751559	6968037	513	-60	270	60	10	11	1	0.91
GRC349	RC	751743	6968051	513	-60	270	101	10	16	6	0.81
GRC350	RC	751741	6968053	513	-60	270	263	95	97	2	1.11
								119	120	1	1.15
								162	167	5	1.24
								168	169	1	4.59
								236	238	2	0.41
GRC314	RC	751719	6968048	513	-60	270	215	59	61	2	4.61

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
								78	89	11	0.62
								143	145	2	0.68
								168	170	2	0.96
								176	181	5	0.45
89MRD41	Diamond	751659	6968037	513	-60	270	102	20	32	12	1.04
								36	39	3	0.22
								71	82	11	2.16
								84	86	2	2.28
								90	100	10	1.29
89MRP39	RC	751639	6968037	513	-60	270	75	21	25	4	1.33
								47	75	27	2.08
89MRP38	RC	751619	6968037	513	-60	270	60	28	40	12	2.47
								58	59	1	0.18
89MRP37	RC	751599	6968037	513	-60	270	60	27	28	1	0.38
								30	32	2	1.78
89MRP36	RC	751579	6968037	513	-60	270	60	16	22	6	1.82
89MRP35	RC	751559	6968037	513	-60	270	60	10	11	1	0.91
88MRD15	Diamond	751589	6968061	513	-60	90	144	10	34	24	3.71
								47	50	3	7.44
								57	123	60	1.86
88MRD16	Diamond	751559	6968061	513	-60	90	203.5	10	12	2	2.90
								48	50	2	0.69
								114	116	2	0.57
								148	151	3	1.07
								170	190	20	2.01
GRC345	RC	751709	6968057	513	-60	270	183	66	68	2	0.76
								120	154	33	1.10
								167	169	2	0.53
								180	183	3	0.38
GRC344	RC	751700	6968059	513	-60	270	143	94	113	19	0.71
								121	123	2	0.24
								141	142	1	0.30
89MRD40	Diamond	751660	6968062	513	-70	270	120	28	30	2	0.54
								68	69	1	7.66
								73	75	2	0.42
								81.15	109.30	28.15	1.16
89MRD31	Diamond	751660	6968062	513	-60	270	102	24	26	2	0.53
								30	34	4	3.46
								59	80	21	1.60
								97	99	2	0.14
88MRP14	RC	751639	6968062	513	-60	270	90	29	31	2	0.26

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
								37	53	16	2.97
								60	73	11	0.87
88MRP13	RC	751619	6968062	513	-60	270	80	16	18	2	0.18
								24	31	7	1.76
								34	38	4	3.88
								57	59	2	0.12
88MRP12	RC	751599	6968061	513	-60	270	60	7	33	24	1.79
88MRP11	RC	751579	6968061	513	-60	270	60	14	15	1	1.90
								24	25	1	0.25
89MRP34	RC	751559	6968063	513	-60	270	60	16	19	3	1.14
89MRP33	RC	751540	6968062	513	-60	270	60	16	18	2	2.76
GRC341	RC	751738	6968081	513	-70	270	302	120	122	2	0.41
								169	172	3	2.31
GRC310	RC	751735	6968079	513	-60	270	247	79	85	6	1.46
								143	149	8	0.61
								161	173	12	1.10
								183	204	21	2.89
								208	209	1	0.33
								219	220	1	0.13
MW4RD	Diamond	751719	6968087	513	-60	270	173.78	48	50	2	0.38
								68	72	4	0.27
								115	173	46	2.91
GRC309	RC	751707	6968080	513	-60	270	203	45	46	1	0.40
								99	114	12	2.13
								120	168	46	1.37
GRC356	RC	751703	6968089	513	-60	270	177	15	18	3	0.35
								96	100	4	0.26
								105	106	1	0.45
								108	109	1	1.13
								115	152	37	1.92
								157	158	1	1.95
								165	166	1	5.61
								171	173	2	3.03
GRC353	RC	751696	6968089	513	-50	270	111	82	84	2	0.63
								100	111	11	1.78
89MRD39	Diamond	751660	6968087	513	-70	270	108	56	62	6	0.84
								82	105	23	1.75
89MRD29	Diamond	751659	6968087	513	-60	270	108	44	48	4	2.19
								52	76	24	4.47
								85.00	91.36	6.36	2.02
88MRP09	RC	751639	6968088	513	-60	270	100	24	26	2	0.69

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
								33	61	28	6.72
								68	72	4	0.39
88MRP08	RC	751619	6968088	513	-60	270	80	18	43	24	2.37
								54	62	8	0.45
88MRP07	RC	751599	6968087	513	-60	270	60	11	26	15	3.68
								29	36	7	2.33
								42	44	2	0.30
88MRP06	RC	751579	6968088	513	-60	270	60	11	13	2	4.24
								23	25	2	0.34
WRC018	Diamond	751777	6968112	513	-60	270	339.9	96	102	6	4.34
								180	182	2	10.53
								217	219	2	1.06
88MRD8A	Diamond	751743	6968111	513	-60	270	253.6	99	101	2	2.78
								208.00	219.25	11.25	5.46
								229	230	2	0.47
GRC311	RC	751730	6968107	513	-60	270	251	41	44	3	3.13
								138	140	2	0.63
								178	200	19	5.08
WRC017	Diamond	751712	6968112	513	-60	270	159.6	106	108	2	0.52
								123	124	1	0.76
								129	155	26	14.14
GRC355	RC	751702	6968112	513	-60	270	153	10	17	7	0.85
								101	106	5	0.27
								111	132	21	2.51
								148	149	1	0.42
GRC354	RC	751699	6968125	513	-60	270	177	101	107	6	2.52
								110	111	1	0.95
								115	134	19	3.67
								137	141	4	1.60
								151	152	1	0.18
								162	164	2	0.43
87MRD5	Diamond	751680	6968108	513	-60	270	210	64	65	1	1.66
								69	70	1	9.00
								88	96	8	10.00
								112	116	4	2.21
								123	125	2	0.74
								138	140	2	0.25
89MRD42	Diamond	751650	6968112	513	-70	270	114	39.00	42.50	3.50	7.51
								53	73	20	2.59
								80	82	2	3.26
								91	93	2	7.55

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
88MRD20	Diamond	751640	6968112	513	-60	270	57	27	57	30	4.56
88MRD21	Diamond	751620	6968112	513	-60	270	50	18	22	4	1.44
								32.30	35.10	2.80	0.86
								39.00	46.50	7.50	0.74
88MRP16	RC	751599	6968112	513	-60	270	60	14	24	10	7.06
								29	35	6	0.72
								39	41	2	0.51
88MRP15	RC	751577	6968112	513	-60	270	60	20	24	4	1.50
								30	32	2	0.56
89MRD43	Diamond	751599	6968112	513	-60	90	108	17	22	5	0.37
								28	56	28	4.71
								59	64	5	1.15
								72	73	1	1.75
								92.00	96.50	4.50	1.31
88MRD9	Diamond	751589	6968112	513	-60	90	202.8	16	64	48	0.94
								68	69	1	0.23
								70.90	75.00	4.10	2.31
								100	111	11	7.68
								129	131	2	0.30
								183	187	4	0.56
88MRD13	Diamond	751559	6968112	513	-60	90	239.05	22	24	2	1.32
								38	42	4	0.37
								122	124	2	0.46
								157	184	27	2.66
								212	213	2	2.73
88MRD45	Diamond	751529	6968136	513	-60	90	250	193.40	194.85	1.45	0.31
								211	215	4	2.66
								224	226	2	0.18
GDD012	Diamond	751760	6968140	513	-60	270	270.1	130	132	2	6.92
								186	188	2	4.41
								217	219	2	1.62
								250.00	250.50	0.50	37.50
GRC343	RC	751728	6968138	513	-60	270	263	15	17	2	1.30
								197	210	13	6.90
GRC364	RC	751726	6968130	513	-60	270	245	18	20	2	1.89
								148	150	2	0.51
								188	198	10	4.88
								216	221	5	2.36
GRC346	RC	751710	6968141	513	-60	270	243	103	104	1	1.03
								121	123	2	0.48
								149	172	23	4.85

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
								177	187	10	2.77
								210	218	8	0.44
GDD006	Diamond	751704	6968138	513	-60	270	234.5	128	156	28	3.89
								162	164	2	4.45
								174.90	178.40	3.50	57.26
GRC354	RC	751699	6968125	513	-60	270	177	101	107	6	2.52
								110	111	1	0.95
								115	134	19	3.67
								137	141	4	1.60
								151	152	1	0.18
								162	164	2	0.43
89MRD35	Diamond	751659	6968137	513	-70	270	120.2	52.00	54.10	2.10	0.25
								81.90	99.00	17.10	2.24
								105	110	5	1.72
89MRD34	Diamond	751659	6968137	513	-60	270	108	46	48	2	0.35
								67.00	84.50	17.50	1.27
								90.00	95.50	5.50	0.65
89MRD33	Diamond	751639	6968137	513	-60	270	102	28.00	32.00	4.00	0.42
								38.00	62.30	24.30	1.51
								68.00	73.00	5.00	0.39
88MRP20	RC	751619	6968137	513	-60	270	80	19	21	2	0.83
								28	40	12	2.01
								42	48	6	0.50
								55	58	3	0.32
88MRP19	RC	751599	6968137	513	-60	270	60	33	36	3	1.21
								42	46	4	0.64
88MRP18	RC	751578	6968136	513	-60	270	59	25	28	3	0.37
								30	38	8	0.78
88MRD14	Diamond	751530	6968162	513	-60	90	264	170	190	20	2.66
								220	222	2	0.82
MW3RD	Diamond	751704	6968162	513	-60	270	203.8	143	167	24	1.02
								195	202	7	1.51
GRC315	RC	751695	6968170	513	-60	270	233	131	155	23	1.91
								164	179	15	0.84
88MRD11	Diamond	751680	6968162	513	-60	270	199.5	95.80	114.00	18.20	1.96
								121.00	123.85	2.85	1.46
								142	143	1	1.47
89MRD37	Diamond	751659	6968162	513	-60	270	114	46	50	4	0.18
								87.50	93.00	5.50	6.50
								103	105	2	2.63
89MRD36	Diamond	751640	6968162	513	-60	270	90	31	33	2	0.26

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
								51.00	62.20	11.20	0.98
								76.50	83.70	7.20	0.70
88MRP25	RC	751620	6968162	513	-60	270	90	21	22	1	0.30
								29	44	15	2.94
								47	51	4	0.24
88MRP24	RC	751599	6968162	513	-60	270	60	15	34	19	2.18
								37	44	7	0.70
								50	52	2	0.26
88MRP23	RC	751579	6968162	513	-60	270	60	2	4	2	0.22
								33	37	4	0.49
								41	43	2	0.39
MW1RD	RC	751684	6968187	513	-60	270	152.91	130	136	6	3.04
								141	143	2	1.17
89MRD38	Diamond	751638	6968187	513	-70	270	102	50.00	55.40	5.40	0.30
								68.58	86.50	17.92	0.52
89MRP29	RC	751619	6968187	513	-60	270	75	31	45	14	3.41
								48	50	2	1.08
								56	67	11	0.37
89MRP27	RC	751580	6968187	513	-60	270	60	42	45	3	0.24
GRC317	RC	751725	6968202	513	-60	270	275	192	194	2	0.26
								214	228	14	0.97
								250	251	1	0.22
GRC316	RC	751673	6968201	513	-60	270	179	92	93	1	0.72
								110	125	15	2.41
								129	134	5	0.78
GRC375	RC	751645	6968240	513	-50	230	123	60	64	4	0.11
								79	91	12	4.96
89MRP32	RC	751619	6968212	513	-60	270	31.5	30	31	1	0.32
89MRP31	RC	751599	6968212	513	-60	270	60	22	30	8	0.32
GRC377	RC	751705	6968230	513	-60	270	228	154	156	2	0.21
								184	193	9	0.41
								206	212	6	1.60
GRC318	RC	751660	6968225	513	-60	270	155	78	80	2	1.83
								98	102	4	1.54
								116	118	2	0.36
GRC320	RC	751637	6968266	513	-60	270	125	76	77	1	1.02
GRC090	RC	751577	6968262	513	-60	180	160	24	29	5	0.38

Table 2: Montague

Hole ID Hole Type MGA_E MGA_N RL Dip Azi EOH (m) From (m) To (m) Width (m) Au (g/t)

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
HRC045	RC	750,993	6,966,737	506.0	-60	90	40	30	32	2	0.50
GRC303	RC	750,947	6,966,738	506.0	-60	90	111	48	58	10	0.59
85MORC19	RC	751,069	6,966,760	506.0	-60	0	35	16	23	7	0.83
85MORC18	RC	751,029	6,966,760	506.0	-60	0	28	22	28	6	0.69
HRC038	RC	750989	6966757	506	-60	90	40	26	30	4	0.45
HRC037	RC	750984	6966757	506	-60	90	40	28	32	4	1.07
85MORC25	RC	750989	6966768	506	-60	0	41	32	41	9	3.21
MOA37R	RC	751005	6966799	506	-90	0	48	32	36	4	0.39
MOA66R	RC	750985	6966798	506	-90	0	42	22	27	5	3.50
MOA67R	RC	750965	6966797	506	-90	0	54	29	31	2	0.63
86MOD1	RC	750948	6966794	506	-90	0	70	39	43	4	1.11
GRC323	RC	750877	6966800	507	-60	90	155	65	70	5	1.13
GRC380	RC	750850	6966800	505	-90	0	119	73	86	13	3.78
MOA72R	RC	751005	6966819	506	-90	0	42	29	36	7	0.58
MOA65R	RC	750985	6966819	506	-90	0	42	19	23	4	0.64
MOA30R	RC	750965	6966819	506	-90	0	54	20	51	31	1.52
86MOPD1	RC	750948	6966815	506	-60	0	70	24	70	46	0.99
MOA31R	RC	750945	6966819	506	-90	0	59	20	54	34	1.26
MOA33R	RC	750925	6966819	506	-90	0	65	46	59	13	1.05
86MOPD10	RC	751025	6966821	507	-60	0	48	31	34	3	0.39
HRC039	RC	751024	6966837	506	-90	0	36	26	30	4	0.94
MOA71R	RC	751004	6966839	507	-90	0	38	26	28	2	1.08
86MOPD14	RC	750985	6966837	507	-60	0	48	18	38	20	1.34
MOA64R	RC	750984	6966839	507	-90	0	48	17	20	3	1.21
MOA29R	RC	750965	6966838	507	-90	0	56	21	56	35	0.67
86MOPD1	RC	750948	6966815	507	-60	0	70	24	70	46	0.99
MOA22R	RC	750949	6966827	507	-60	0	49	28	49	21	1.38
MOA32R	RC	750925	6966839	507	-90	0	63	45	52	7	3.02
MOA36R	RC	750905	6966840	507	-90	0	65	54	60	6	1.71
GRC360	RC	750859	6966841	507	-60	90	105	64	68	4	1.67
GRC359	RC	750857	6966841	507	-90	0	124	60	69	9	0.50
86MOPD13	RC	751105	6966865	507	-90	0	36	25	36	11	0.83
GRC327	RC	751083	6966838	507	-60	0	143	33	38	5	0.40
MORC19	RC	751026	6966843	507	-60	0	48	24	27	3	0.55
MOA70R	RC	751005	6966857	507	-90	0	37	16	23	7	0.67
								24	27	3	0.77
MORC18	RC	750986	6966858	507	-60	0	28	9	28	19	0.41
MOA26R	RC	750965	6966860	507	-60	0	51	9	13	4	0.28
								14	23	9	0.45
								25	28	3	1.77
86MOPD2	RC	750949	6966838	507	-60	0	53	25	53	28	1.55

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
MORC25	RC	750948	6966838	507	-60	0	41	27	41	14	2.16
MOA21R	RC	750948	6966849	507	-60	0	40	24	40	16	2.59
MOA24R	RC	750925	6966849	507	-60	0	51	35	49	14	5.99
GRC324	RC	750857	6966861	507	-60	90	101	56	65	9	1.19
GRC325	RC	750854	6966861	507	-90	0	120	70	74	4	5.54
MOA130R	RC	751098	6966885	507	-90	0	44	23	37	14	0.55
86MOPD11	RC	751066	6966878	507	-60	0	54	15	20	5	0.35
								35	54	19	0.73
MORC19	RC	751026	6966866	507	-60	0	35	16	23	7	0.83
MOA28R	RC	750986	6966877	507	-60	0	42	6	25	19	2.18
MOA25R	RC	750966	6966880	507	-60	0	43	11	15	4	0.18
MOA27R	RC	750965	6966839	507	-60	0	58	26	48	22	0.58
MORC17	RC	750947	6966881	507	-60	0	21	6	8	2	6.55
								9	13	4	0.54
MOA23R	RC	750925	6966870	507	-60	0	49	25	37	12	2.65
86MOPD5	RC	750889	6966859	507	-60	45	66	41	50	9	0.35
86MOPD4	RC	750905	6966875	507	-60	45	53	26	45	19	1.01
86MOPD3	RC	750918	6966885	507	-60	45	42	15	30	15	0.77
MOA130R	RC	751098	6966885	507	-90	0	44	23	37	14	0.55
86MOPD11	RC	751066	6966878	507	-90	0	54	15	20	5	0.35
MOA52R	RC	750885	6966880	507	-90	0	63	44	50	6	0.70
GRC362	RC	750843	6966880	507	-60	0	99	53	70	17	0.50
GRC361	RC	750841	6966880	507	-90	0	124	78	85	7	1.56
MOA120R	RC	751135	6966893	507	-90	0	50	31	36	5	0.37
MOA129R	RC	751119	6966894	507	-90	0	50	20	24	4	0.30
								33	42	9	1.34
MOA131R	RC	751097	6966896	507	-90	0	48	10	24	14	1.55
								31	48	17	1.58
MOA132R	RC	751083	6966896	508	-90	0	46	12	13	1	0.34
								25	46	21	2.61
MOA88R	RC	751045	6966899	508	-90	0	39	13	15	2	0.52
								18	34	16	0.96
MOA76R	RC	751023	6966899	507	-90	0	30	7	10	3	1.14
MOA41R	RC	750933	6966900	507	-90	0	36	0	17	17	0.62
MOA42R	RC	750914	6966900	507	-90	0	42	26	30	4	0.73
MOA37R	RC	750905	6966899	507	-90	0	49	36	42	6	11.77
MOA43R	RC	750885	6966899	507	-90	0	64	54	57	3	1.37
GRC342	RC	750820	6966910	510	-90	0	227	89	107	18	2.29
GRC371	RC	750770	6966910	514	-90	0	165	141	145	4	1.69
GRC330	RC	750844	6966918	506	-90	0	252	70	85	15	2.11
								239	245	6	16.21

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
MOA115R	RC	751103	6966917	508	-90	0	40	29	39	10	5.29
MOA114R	RC	751087	6966919	508	-90	0	47	2	6	4	0.80
								30	47	17	1.52
MOA89R	RC	751065	6966919	509	-90	0	45	14	38	24	0.94
MOA87R	RC	751045	6966917	508	-90	0	45	13	30	17	0.71
MOA75R	RC	751023	6966920	508	-90	0	36	0	10	10	2.25
MOA57R	RC	751002	6966922	508	-90	0	48	0	9	9	1.73
MOA54R	RC	750965	6966923	507	-90	0	50	0	29	29	0.95
MOA45R	RC	750943	6966919	507	-90	0	40	0.00	30.00	30.00	0.86
86MOPD6	RC	750917	6966919	507	-60	90	30	17	30	13	0.50
86MOPD7	RC	750893	6966920	507	-60	90	48	30	37	7	0.76
MOA44R	RC	750885	6966919	508	-90	0	62	41	51	10	0.93
GDD007	Diamond	750849	6966919	507	-60	90	369.9	46.50	56.50	10.00	1.24
GDD016	Diamond	750795	6966920	511	-90	0	162.5	124.90	127.40	2.50	1.08
MOA116R	RC	751103	6966938	509	-90	0	41	8	21	13	7.37
								31	41	10	0.85
MOA113R	RC	751086	6966939	510	-90	0	45	10	23	13	1.75
								42	45	3	1.59
MOA86R	RC	751065	6966939	509	-90	0	55	10	31	21	3.64
								48	55	7	0.50
MOA85R	RC	751045	6966939	509	-90	0	51	6	27	21	4.32
								49	51	2	0.59
MOA84R	RC	751030	6966939	508	-90	0	57	0	13	13	4.41
								14	29	15	3.81
MOA111R	RC	751005	6966939	508	-90	0	58	0	14	14	0.93
								35	40	5	1.12
								41	43	2	0.57
MOA77R	RC	750984	6966941	508	-90	0	56	32	52	20	3.77
MOA55R	RC	750964	6966939	507	-90	0	60	0	2	2	0.50
								13	36	13	1.52
								37	39	2	0.95
								40	42	2	1.01
								43	45	2	0.46
MOA46R	RC	750944	6966940	507	-90	0	44	20	44	24	3.12
MOA38R	RC	750923	6966940	507	-90	0	45	0	5	5	0.68
								9	30	21	0.71
MOA39R	RC	750904	6966939	506	-90	0	43	10	16	6	0.62
								22	43	21	0.81
GRC358	RC	750816	6966940	510	-60	90	111	63	77	14	1.06
GRC357	RC	750818	6966940	510	-90	0	130	104	112	8	7.28
GRC370	RC	750770	6966940	514	-90	0	180	137	147	8	25.20

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
GRC367	RC	750720	6966930	515	-90	0	183	171	174	3	0.35
MOA126R	RC	751120	6966969	508	-90	0	40	34	36	2	0.41
MOA117R	RC	751105	6966958	510	-90	0	42	0	4	4	1.98
								13	17	4	0.32
								32	39	7	0.63
MOA133R	RC	751098	6966970	510	-90	0	40	5	11	6	4.71
								24	36	12	0.56
MOA112R	RC	751085	6966959	510	-90	0	44	0	11	11	3.65
								17	21	4	0.99
								22	36	14	0.70
MOA134R	RC	751085	6966969	509	-90	0	44	10	18	8	11.33
MOA83R	RC	751065	6966959	509	-90	0	51	6	20	14	0.78
								21.00	25.00	4.00	3.08
								37	51	14	0.55
MOA82R	RC	751045	6966959	509	-90	0	50	7	22	15	1.23
								37	48	11	1.73
MOA58R	RC	751023	6966960	508	-90	0	64	14	26	12	0.74
								37	53	16	2.20
MOA110R	RC	751005	6966959	508	-90	0	76	0	22	22	0.60
								28	50	22	1.58
MOA59R	RC	750984	6966960	508	-90	0	65	25	51	26	1.40
MOA109R	RC	750965	6966959	507	-90	0	53	0	23	23	0.41
								27	53	26	1.23
MOA47R	RC	750953	6966960	507	-90	0	56	25	34	9	1.01
								35	53	18	1.42
MOA40R	RC	750934	6966960	507	-90	0	52	17	52	35	0.84
MOA118R	RC	750923	6966960	506	-90	0	46	5	10	5	0.65
								21.00	43.00	22.00	1.20
86MOPD8	RC	750910	6966959	506	-60	90	30	8	17	9	1.13
								26	30	4	2.49
MOA48R	RC	750904	6966960	506	-90	0	48	18	21	3	1.02
								26	36	10	3.68
MOA49R	RC	750885	6966959	506	-90	0	64	36	40	4	0.92
GRC369	RC	750770	6966970	513	-90	0	180	139	142	3	1.14
GDD014	Diamond	750700	6966970	510	-90	0	216.6	173.80	176.00	2.20	1.31
MOA125R	RC	751121	6966991	509	-90	0	34	25	32	7	1.01
MOA150R	RC	751065	6966981	508	-90	0	44	6	15	9	0.81
								19	26	7	1.21
MOA104R	RC	751043	6966980	508	-90	0	51	3	14	11	2.24
								22	28	6	0.56
MOA79R	RC	751024	6966980	508	-90	0	59	11	23	12	0.54

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
MOA107R	RC	751005	6966979	508	-90	0	70	0	4	4	1.09
								23	35	12	1.63
								62	70	8	2.27
MOA108R	RC	750965	6966979	508	-90	0	58	11	43	32	1.09
								56	58	2	0.67
MOA62R	RC	750904	6966980	506	-90	0	40	24	32	8	0.37
MOA63R	RC	750885	6966978	506	-90	0	48	28	35	7	2.61
MOA119R	RC	750865	6966978	506	-90	0	58	29	31	2	0.64
								38	40	2	0.34
GRC372	RC	750820	6966980	509	-60	90	108	56	58	2	0.91
								68.00	71.00	3.00	3.24
GRC373	RC	750819	6966980	509	-90	0	121	80	81	1	0.35
GRC366	RC	750720	6966990	507	-90	0	198	154	161	7	1.51
AGRC008	RC	751135	6966999	509	-60	270	197	30	35	5	0.14
MOA106R	RC	751064	6967000	508	-90	0	45	9	14	5	1.13
MOA100R	RC	751023	6967000	508	-90	0	51	0	1	1	0.79
MOA99R	RC	751003	6967000	508	-90	0	51	0.00	1.00	1.00	0.70
								31.00	36.00	5.00	0.52
MOA98R	RC	750983	6967000	508	-90	0	57	0	1	1	0.64
								38	40	2	1.21
MOA97R	RC	750963	6967000	508	-90	0	51	25	29	4	0.57
								33	40	7	0.84
HRC001	RC	751058	6967017	508	-60	90	36	10	18	8	0.51
HRC002	RC	751043	6967017	508	-60	90	39	10	16	6	0.83
MOA102R	RC	751043	6967024	508	-90	0	33	8	14	6	0.50
HRC013	RC	751028	6967017	508	-60	90	40	8	14	6	8.29
MOA80R	RC	751026	6967020	508	-90	0	48	4	13	9	1.00
HRC012	RC	751013	6967017	508	-60	90	40	8.00	12.00	4.00	2.03
								16	18	2	0.90
MOA103R	RC	751003	6967019	508	-90	0	27	10	14	4	0.47
HRC005	RC	750908	6967017	508	-60	90	40	14.00	16.00	2.00	0.36
MOA91R	RC	750903	6967019	508	-90	0	36	14	15	1	1.04
HRC004	RC	750893	6967017	509	-60	90	40	20	22	2	0.24
AGRC009	RC	750885	6967020	509	-60	90	137	20	25	5	0.99
HRC003	RC	750878	6967017	509	-60	90	40	24	28	4	0.47
MOA90R	RC	750885	6967018	509	-90	0	43	22	25	3	0.31
HRC014	RC	750863	6967017	508	-60	90	40	30	32	2	0.22
								38	40	2	0.30
HRC015	RC	750848	6967017	507	-60	90	40	32.00	38.00	6.00	1.39
MOA92R	RC	750862	6967018	508	-90	0	56	27	35	8	1.00
								43	52	9	0.32

Hole ID	Hole Type	MGA_E	MGA_N	RL	Dip	Azi	EOH(m)	From(m)	To(m)	Width(m)	Au(g/t)
MOA93R	RC	750845	6967019	507	-90	0	50	30	32	2	2.27
HRC073	RC	751063	6967037	508	-60	90	40	0	4	4	0.40
HRC074	RC	751048	6967037	508	-60	90	40	4	8	4	2.62
HRC075	RC	751033	6967037	508	-60	90	40	4.00	10.00	6.00	6.91
HRC121	RC	751008	6967037	508	-60	90	40	2	6	4	0.60
HRC019	RC	750883	6967057	508	-60	90	40	16	20	4	0.73
MOA94R	RC	750886	6967059	508	-90	0	45	18	21	3	1.34
								22	26	4	1.67
HRC020	RC	750868	6967057	508	-60	90	40	24	30	6	0.17
HRC021	RC	750853	6967057	508	-60	90	32	30	32	2	1.06
HRC109	RC	750838	6967057	508	-60	90	37	34	37	3	1.22
HRC027	RC	750913	6967097	508	-60	90	40	30	32	2	6.00
HRC028	RC	750898	6967097	508	-60	90	40	28	30	2	0.40
HRC029	RC	750883	6967097	508	-60	90	40	34	40	6	0.43
HRC030	RC	750868	6967097	508	-60	90	40	32	36	4	1.00
HRC105	RC	750898	6967117	508	-60	90	40	34	38	4	0.59
GRC212	RC	750867	6967252	509	-60	90	120	55	60	5	0.50

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GATEWAY MINING LIMITED — Capital/Financing Update 2019

64999_rns_2019-10-02_3d7e61c7-a049-4947-bdb2-b4582355b25c.pdf

ASX Announcement: 3 October 2019

MAIDEN 240,000oz RESOURCE SETS STRONG FOUNDATION FOR NEXT PHASE OF GROWTH AT GIDGEE GOLD PROJECT, WA

HIGHLIGHTS

Resource Summary

RESOURCE EXPANSION AND EXPLORATION – Whistler and Montague Gold Deposits

Whistler Gold Deposit

Montague Gold Deposit

SUMMARY OF GIDGEE GOLD PROJECT MINERAL RESOURCE ESTIMATE

Whistler

Geology, Geological Interpretation and Mineralisation

Drill hole Database

Sampling

Assaying

Resource Estimation

(a) Geological Modelling

(b) Variography

(c) Block Model Estimation

(d) Block Model Construction

(e) Resource Classification

(f) Mineral Resource Optimised Pitshell

Montague

Geology, Geological Interpretation and Mineralisation

Drill Hole Database

Sampling

Assaying

Resource Estimation

(g) Geological Modelling

(h) Variography

(i) Block Model Estimation

(j) Block Model Construction

(k) Resource Classification

(l) Mineral Resource Optimised Pitshell

For and on behalf of GATEWAY MINING LIMITED

Competent Person Statement

APPENDIX (1): SIGNIFICANT DRILLING INTERSECTIONS JORC Code, 2012 Edition

Table 1

Section 1 Sampling Techniques and Data Whistler

Section 2 Reporting of Exploration Results Whistler

Section 3: Estimation and Reporting of Mineral Resources Whistler

APPENDIX (2): SIGNIFICANT DRILLING INTERSECTIONS JORC Code, 2012 Edition Table 1 - Montague

Section 1 Sampling Techniques and Data Montague (Criteria in this section apply to all succeeding sections)

Section 2 Reporting of Exploration Results Montague

APPENDIX (3): RESOURCE DRILL INTERCEPTS (RAW DATA)

Table 1: Whistler

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GATEWAY MINING LIMITED Capital/Financing Update 2019