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FOCUS MINERALS LTD — Capital/Financing Update 2023
Nov 9, 2023
64932_rns_2023-11-09_5979b25e-587e-4238-985a-4054e4ddae1e.pdf
Capital/Financing Update
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Market Announcement
10 November 2023
Coolgardie Gold Operations – Bonnie Vale Ore Reserve Update
Highlights:
-
Bonnie Vale Underground Ore Reserve ounces increase by 17% to 177,920oz.
-
The current mine life is 4 years and demonstrates robust economics with all in production cost estimated at A$1,374 per oz.
-
The Bonnie Vale Resource remains open at depth and along strike with potential for growth with further drilling.
-
Excellent Resource to Reserve conversion of 79%.
-
A clear pathway to production is anticipated with mining targeted for commencement in the second half of 2024.
West Australian gold company Focus Minerals Limited ( ASX: FML ) ( Focus or the Company ) is pleased to announce results of the 2023 Ore Reserve update for the Bonnie Vale Underground project, a part of Coolgardie Gold Operations ( Coolgardie ). The Coolgardie project includes 121km[2] of highly prospective tenements on the outskirts of the Coolgardie township in Western Australia’s Eastern Goldfields.
Commenting on the 2023 Ore Reserve for Bonnie Vale, Focus Minerals’ Executive Chairman, Mr Wanghong Yang, said:
“This updated Ore Reserve demonstrates robust economics for the Bonnie Vale Underground Project, delivering low-cost ounces for our Coolgardie Gold Operations. The result reflects the good work of our team this year, in optimising the Resource Model with further drilling and delivering a high confidence mine plan for commencement of underground mining. Following final evaluation and project approvals, Focus hopes to bring the mine online in 2024 consistent with our current life of mine plan.”
This 2023 Bonnie Vale Ore Reserve is derived from the updated Mineral Resource estimate published in September 2023 (refer to ASX announcement dated 26 September 2023), using a gold price of A$2,500 per oz and a cut-off grade of 1.87 g/t for stope design:
| ~~P~~ROJECT | PROVEN | PROVEN | PROBABLE | PROBABLE | TOTAL Ore | TOTAL Ore | TOTAL Ore |
|---|---|---|---|---|---|---|---|
| Tonnes | (g/t Au) | Tonnes | (g/t Au) | Totals | (g/t Au) | (oz.) | |
| Bonnie Vale Underground | - | - | 932,000 | 5.94 | 932,000 | 5.94 | 177,920 |
Market Announcement | Page 1 of 31
The 2023 Bonnie Vale Ore Reserve is shown below with comparison to the previous Ore Reserve as stated in the October 2022 Ore Reserve update (refer to ASX announcement dated 12 October 2022):
| Bonnie Vale UG Ore Reserve | 2022 Update | 2022 Update | 2022 Update | 2023 Update | 2023 Update | 2023 Update |
|---|---|---|---|---|---|---|
| Tonnes | g/t | Ounces | Tonnes | g/t | Ounces | |
| Probable | 925,800 | 5.11 | 152,220 | 932,000 | 5.94 | 177,920 |
| Total | 925,800 | 5.11 | 152,220 | 932,000 | 5.94 | 177,920 |
The 2023 Ore Reserve update sees an increase in of 25,700oz on the previous 2022 result largely driven by a 16% increase in mined grade. This improvement in grade has resulted from increased drill density and a higher confidence Mineral Resource model.
Bonnie Vale Underground Resource
Extensive Reverse Circulation, Diamond, geotechnical and hydrogeological drilling at Bonnie Vale has been carried out since the Mineral Resource Update in 2020 (see ASX announcement dated 2 September 2020).
The decrease in drill spacing and oriented diamond core drill holes allowed development of the higher confidence in the 2023 Mineral Resource (see ASX announcement dated 26 September 2023) which was used for development of the Bonnie Vale 2023 Ore Reserve Update:
| Classification | Tonnage (Kt) | Au Grade (g/t) | Au Oz |
|---|---|---|---|
| Indicated | 879 | 8.01 | 226,300 |
| Inferred | 325 | 2.58 | 27,000 |
| Total Underground Mineral Resource | 1,204 | 6.54 | 253,300 |
Figure 1 below is a long section of the Bonnie Vale Resource looking South, showing the historical workings, the 2023 Ore Reserve mine development (Dark Blue). As indicated by the arrows, the mineralisation is open for potential resource growth with further drilling.
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Figure 1: Bonnie Vale long Section Looking South – Indicated Mineral Resource Centroids as per insert legend.
Market Announcement | Page 2 of 31
Bonnie Vale UG Ore Reserve Estimation
The mining method planned to be utilised is mechanised jumbo development and longhole stoping with a combination of backfilled and open stopes. The planned backfill is a combination of cemented rockfill (CRF) and loose rockfill. The stoping sequence is planned to be a bottom-up mining sequence in blocks of three to four levels.
This mining method is being utilised successfully and efficiently in comparable and similar orebody size, configuration, and ground conditions in Western Australia and elsewhere.
The 2023 Ore Reserve for Bonnie Vale Underground was completed with the following key assumptions:
| Key Assumptions | Unit | Value | Basis of Assumption |
|---|---|---|---|
| Mining (Production) Cost Processing Cost Ore Haulage Cost Gold Price Processing Recovery Royalties Fully Costed Stope COG Level Costed Stope COG Incremental Stope COG – Backfilled Stope Incremental Stope COG – No Backfill Development Ore COG Stope Parameters Orebody dip Level Intervals Floor to Floor Ore Drive width Minimum Stope Mining Width Dilution Skin HW Dilution Skin FW Additional Unplanned Stope Dilution Overall Mining Recovery Mining Recovery for Backfilled Stopes Mining Recovery for Open Stopes MiningRecoveryfor Development Ore |
$/t (O +W) $/t $/t $/oz % % g/t g/t g/t g/t g/t degrees m m m m m % % % % % |
133 31 5.12 2,500 95.8 3.0 3.05 2.47 2.10 1.87 0.50 40 to 55 15 4 1.8 0.5 0.5 10 93 98 83 100 |
Unit cost of total mined material based on current Contractor Mining Budget Rates and supplier quotations Budget TMH Processing Costs Current Ore Haulage Agreements Feasibility test work results after a 3% discount Current applicable rate Covers all costs (CAPEX, OPEX and mine G&A) Covers all Ore development, OPEX and mine G&A) Excludes all development costs but covers for all other OPEX and mine G&A) Requires no backfill, excludes all development costs but covers for all other OPEX and mine G&A) Covers Surface Haulage and Processing costs only. ELOS from stope stability curve ELOS from stope stability curve 17% ore lost in pillars |
More details are provided in Table 1 sections below.
In summary the mining plan developed for the 2023 Underground Ore Reserve estimate sees:
-
4-year mine life, with potential for extension.
-
2.3Km of decline development to a depth of 260m below surface, a further 2.3km of other capital development.
-
5.0 km of ore drives mining 247K tonnes at 4.48g/t for 35,562oz and stoping of 685k Tonnes at 6.46g/t for 142,358oz.
-
932k tonnes of ore at a diluted grade of 5.94g/t for 170,000 mill recovered ounces.
-
All in sustainable cost estimate of A$1,374 per ounce.
Market Announcement | Page 3 of 31
The conversion of Mineral Resource to Ore Reserve is excellent as 79% of the Indicated Resource is in the mine production ounces, giving confidence in future Mineral Resource conversion.
Figure 2 below shows the development and stoping design of the Bonnie Vale UG Reserve. The economic risk is considered very low as the mine plan is underpinned by the fact that 93% of the Ore Reserve is above the fully costed cut-off grade. This demonstrates the robust economics of the Bonnie Vale UG project.
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Figure 2: Long Section view from North of Current Mine Plan showing development and stoping design.
Following on from this 2023 Updated Ore Reserve and the development of the detailed mine and infrastructure plan for the Bonnievale Underground Project, Focus hopes to bring the mine online in 2024 consistent with our current life of mine plan.
The release of this ASX announcement was authorised by Mr Wanghong Yang, Executive Chairman of Focus Minerals Ltd.
For further information please contact:
Nicholas Ong Company Secretary Focus Minerals Ltd. Phone: +61 8 9215 7888 Email: [email protected]
About Focus Minerals Limited (ASX: FML)
Focus Minerals is Western Australia’s newest gold producer and focused on delivering shareholder value from its 100%-owned Coolgardie Gold Operation and Laverton Gold Project, in Western Australia’s Goldfields.
Market Announcement | Page 4 of 31
Focus is committed to delivering shareholder value from the Coolgardie Gold Operation, a 121km[2] tenement holding that includes a 1.2Mtpa processing plant at Three Mile Hill, with commencement of mining activities in mid2023. A new Life of Mine plan with 7-year production for 402,000oz of gold was announced to the ASX on 24 October 2022.
The Laverton Gold Project covers 384km[2] area of highly prospective ground that includes the historic Lancefield and Chatterbox Trend mines. Focus’ priority target is to confirm sufficient gold mineralisation to support production restart at Laverton.
Competent Person Statement
Mineral Resources
The Mineral Resource estimates for Bonnie Vale Deposits were undertaken by Ms Hannah Kosovich, an employee of Focus Minerals. Ms Kosovich is a member of Australian Institute of Geoscientists and has sufficient experience to qualify as a Competent Person as defined in the 2012 Edition of the Australasian Code for Reporting of Exploration Results, Mineral Resources and Ore Reserves. Ms Kosovich consent to the inclusion in the report of the matters based on the information in the form and context in which it appears.
Ore Reserves
The information in this announcement that relates to the Bonnie Vale underground Ore Reserve estimate is based on an assessment completed by Mr Elias Mudzamba, a Competent Person who is a member of the Australasian Institute of Mining and Metallurgy (AusIMM). Mr Mudzamba is a fulltime employee of Focus Minerals Pty Ltd. Mr Mudzamba has sufficient experience that is relevant to the style of mineralisation and type of deposit under consideration and to the activity being undertaken to qualify as a Competent Person as defined in the 2012 Edition of the Australasian Code for Reporting of Exploration Results, Mineral Resources and Ore Reserves. Mr Mudzamba consents to the inclusion in any report or public announcement of the matters based on his information in the form and context in which it appears.
Market Announcement | Page 5 of 31
JORC Code, 2012 Edition – Table 1
Section 1 Sampling Techniques and Data
(Criteria in this section apply to all succeeding sections.)
| Criteria | Commentary |
|---|---|
| Sampling techniques |
▪ This report relates to results from Reverse Circulation (RC) drilling and diamond core drilling. The information of sampling techniques below applies to the drill holes drilled by Focus Minerals (FML) only. ▪ RC percussion drill chips were collected through a cyclone and cone splitter. Samples were collected on a 1m or 4m composite samples basis, with sampling width geologically determined. Composite 4m samples were collected manually using spear sampling of green bags and 1m samples were generated off the rig mounted cyclone mounted cone splitter. Where the RC composite samples returned an assay value of 0.2g/t Au or greater, the 1m cone-split samples were then submitted for analysis. When visible gold was observed in RC chips, this sample was then flagged by the supervising geologist for the benefit of the laboratory. ▪ RC chips were passed through a cone splitter to achieve a sample weight of approximately 3kg. The splitter was levelled at the beginning of each hole using a bullseye level. At the assay laboratory all samples were oven dried, crushed to a nominal 10mm using a jaw crusher (core samples only) and weighed. Samples in excess of 3kg in weight were riffle split to achieve a maximum 3kg sample weight before being pulverized to 90% passing 75μm. The samples were then prepared for fire assay. ▪ The diamond core was marked up for sampling by the supervising geologist during the core logging process, with sample intervals determined by the presence of mineralisation and/or alteration. Sample widths varied between a minimum of 0.2m and a maximum of 1.2m. The core was cut in half using an Almonte automatic core saw guided by the BOH core orientation line or in the absence of an orientation line the core was reassembled in the tray and a “cut-line” drawn down the axis of the core. Half-core samples submitted to Jinnings Kalgoorlie assay laboratories for fire assay analysis by a 50g fire assay with an ICP-OES or AAS Finish. ▪ Sampling of the vertical historic Bonnie Vale tails grade control RC holes was via a cone splitter off the grade-control L8 drill rig at 1m intervals into pre-numbered calico bags. ▪ Matador Exploration Pty Ltd (Matador) collected drill cuttings at 1m intervals and passed through a trailer-mounted cyclone and stand-along riffle splitter to provide a 4- 6kg split sample and bulk residue for logging. 4m composites were taken by spearing the residue and submitted for assay and where results were returned above 0.2g/t, the 1m riffle split samples were submitted for analysis. ▪ Coolgardie Gold NL (CGNL) does not state sampling techniques except to say samples were 4m composites, which were resampled at 1m when assays returned 0.2g/t Au or greater. ▪ Magnet Metals submitted 1m samples or 2m - 4m composites for analysis by 50g Fire Assay with AAS finish. ▪ WMC drilled shallow holes and submitted 1m samples for analysis by unknown methods. ▪ Associated Resources Management (ARM) drilled 1 deep diamond hole. Quarter core samples were submitted for fire assay based on geological intervals. Five samples were screen fire assayed for coarse gold. |
| Drilling techniques | ▪ FML drilling was completed using an RC face sampling hammer or NQ2/HQ size diamond core. Drill core was oriented by the drilling contractor using an Ezy-mark or electronic system were core conditions allowed. Most holes were surveyed upon completion of drilling using a north-seeking gyroscope. The holes were surveyed initially open-hole and in later programs within the rods. Otherwise, a single shot |
Page 6 of 31
| Criteria | Commentary |
|---|---|
| Eastman camera downhole survey was used. ▪ The historic Bonnie Vale tails grade control RC drilling was completed using an Atlas Copco L8 rig using a 5 ¼ inch diameter Aircore drill bit to improve sample recovery. ▪ Matador used RC drilling methods and surveyed the hole using Electronic Multi-Shot (EMS) system. ▪ Other companies state using an RC rig. ▪ ARM used an RC pre-collar from surface to 78m, HQ core to 293m and then NQ diamond core to EOH at 450m. |
|
| Drill sample recovery |
▪ FML Sample recovery was recorded by a visual estimate during the logging process. ▪ All RC samples were drilled dry whenever possible to maximize recovery, with water injection on the outside return to minimise dust. ▪ Study of sample recovery versus gold grade does not indicate a bias in the gold grade caused by any drop in sample recovery. ▪ Diamond core sample recovery was measured and calculated (core loss) during the logging process, generally there was excellent recovery. ▪ ARM state only 0.2m of core loss and a recovery of 99.95% from the 1 diamond hole. |
| Logging | ▪ The information of logging techniques below applies to the drill holes drilled by FML only. All core samples were oriented, marked into metre intervals and compared to the depth measurements on the core blocks. Any loss of core was noted and recorded in the drilling database. ▪ All RC samples were geologically logged to record weathering, regolith, rock type, colour, alteration, mineralisation, structure and texture and any other notable features that are present. ▪ All diamond core was logged for structure, and geologically logged using the same system as that for RC. ▪ The logging information was recorded into acQuire format using a Toughbook notepad and then transferred into the company’s drilling database once the log was complete. ▪ Logging was qualitative, however the geologists often recorded quantitative mineral percentage ranges for the sulphide minerals present. ▪ Diamond core was photographed wet and dry one core tray at a time using a standardised photography jig. ▪ Samples from RC holes were archived in standard 20m plastic chip trays and in later programs photographed up to 4 chip trays per photo. ▪ The entire length of all holes is logged. ▪ Historical holes have been logged at 1m intervals to record weathering, regolith, rock type, colour, alteration, mineralisation, structure and texture and any other notable features that are present for RC samples. |
| Sub-sampling techniques and sample preparation |
▪ The information of sub-sampling and sample preparation below applies to the drill holes drilled by FML only. ▪ Core samples were taken from half core, cut using an Almonte automatic core saw. The remainder of the core was retained in core trays tagged with a hole number and metre mark. ▪ RC samples were cone split to a nominal 2.5kg to 3kg sample weight. The drilling method was designed to maximise sample recovery and delivery of a clean, representative sample into the calico bag. ▪ Where possible all RC samples were drilled dry to maximise recovery. The use of a booster and auxiliary compressor provide dry sample for depths below the water table. Sample condition was recorded (wet, dry, or damp) at the time of sampling and recorded in the database. ▪ The samples were collected in a pre-numbered calico bag bearing a unique sample ID. Samples were crushed to 75μm at the laboratory and riffle split (if required) to a maximum 3kg sample weight. Gold analysis was determined by a 30g to 50g fire assay with an ICP-OES or AAS Finish. ▪ The assay laboratories’ sample preparation procedures follow industry best practice, |
Market Announcement | Page 7 of 31
| Criteria | Commentary |
|---|---|
| with techniques and practices that are appropriate for this style of mineralisation. Pulp duplicates were taken at the pulverising stage and selective repeats conducted at the laboratories’ discretion. ▪ Prior to 2016 FML inserted 3 standards and took 5 duplicates for every 100 samples. Field duplicates were collected from the cone splitter on the rig for RC samples at a frequency of one duplicate every 20 samples, excluding the 100th sample as this was a standard. Diamond core field duplicates were not taken. From 2016 - 2018 FML inserted 1 standard every 25th sample, while the 1 duplicate every 20th sample remained unchanged from previous years. From 2018 a standard is inserted every 20th sample and all batches delivered to the lab have at least three standards in them. RC field duplicate samples are taken from the second sample shoot on the cone splitter. Rather than individual field duplicates at a regular spacing, whole holes are duplicate sampled with a frequency rate not less than 1 in every 20 holes drilled. ▪ Regular reviews of the sampling were carried out by the supervising geologist and senior field staff, to ensure all procedures were followed and best industry practice carried out. ▪ The sample sizes were considered to be appropriate for the type, style and consistency of mineralisation encountered during this phase of exploration. ▪ Limited reporting of historic sample preparation exists in the WAMEX reports. ▪ Matador RC samples were drilled dry and cone or riffle split to achieve a 4-6kg sample weight. Certified standards were inserted every 20 samples. At the laboratory either a blank or a certified standard were inserted every 20 samples and a duplicate was taken every 10 samples. ▪ ARM submitted ¼ core samples for fire assay. Five samples were submitted for screen fire assay to determine coarse gold component. |
|
| Quality of assay data and laboratory tests |
▪ The assay method and laboratory procedures were appropriate for this style of mineralisation. The fire assay technique was designed to measure total gold in the sample. ▪ No geophysical tools, spectrometers or handheld XRF instruments were used. ▪ The QA/QC process described above was sufficient to establish acceptable levels of accuracy and precision. All results from assay standards and duplicates were scrutinised to ensure they fell within acceptable tolerances. ▪ Matador samples were submitted for analysis for gold by standard 30g fire assay with the finish by Atomic Absorption (AA) with a 0.01g/t detection limit. ▪ CGNL analysis methods and QA/QC checks are unknown. ▪ Magnet Minerals used duplicates for check assays. |
| Verification of sampling and assaying |
▪ Significant intervals were visually inspected by company geologists to correlate assay results to logged mineralisation. Consultants were not used for this process. ▪ Normally if old historic drilling was present, twinned holes are occasionally drilled to test the veracity of historic assay data; however, no twinned holes were drilled during this program. ▪ Primary data is sent in digital format to the company’s Database Administrator (DBA) as often as was practicable. The DBA imports the data into an acQuire database, with assay results merged into the database upon receipt from the laboratory. Once loaded, data was extracted for verification by the geologist in charge of the project. ▪ No adjustments were made to any current or historic data. If data could not be validated to a reasonable level of certainty it was not used in any resource estimations. ▪ Historic holes were validated against paper copies and WAMEX reports where possible. |
| Location of data points |
▪ FML drill collars were surveyed after completion, using a DGPS instrument. All drill core was oriented by the drilling contractor using an Ezy-mark or electronic system. Most holes were surveyed upon completion of drilling using a north-seeking gyroscope and holes were surveyed either open-hole or within the rods. Otherwise, a single shot Eastman camera downhole survey was used. ▪ The shallow vertical tails holes were collar surveyed by DGPS but not down hole |
Market Announcement | Page 8 of 31
| Criteria | Commentary |
|---|---|
| surveyed. ▪ All coordinates and bearings use the MGA94 Zone 51 grid system. ▪ FML utilises Landgate sourced regional topographic maps and contours as well as internally produced survey pick-ups produced by the mining survey teams utilising DGPS base station instruments. ▪ Matador has not stated the collar survey method, down-hole surveys used the Electronic Multi-Shot (EMS) system. ▪ ARM used an Eastman camera for down-hole surveys. |
|
| Data spacing and distribution |
▪ Drill spacing across the Coolgardie prospects varied depending on the exploration stage that the drill target currently existed. ▪ Drilling varied from wide spaced exploration RC drilling to precisely placed diamond tails designed to test mineralisation at depth and along strike. ▪ Following drilling completed 2021 to 2023 the Drill spacing within the Bonnie Vale Mineral Resources comprises: |
| Orientation of data in relation to geological structure |
▪ Drilling was designed based on known geological models, field mapping, verified historical data and cross-sectional interpretation. ▪ Drill holes were generally oriented at right angles to strike of the main veins, with dip optimised for drill capabilities and the dip of the ore body. |
| Sample security | ▪ All samples were reconciled against the sample submission with any omissions or variations reported to FML. ▪ All samples were bagged in a tied numbered calico bag, grouped into green plastic bags. The bags were placed into cages with a sample submission sheet and delivered directly from site to the Kalgoorlie laboratories by FML personnel. ▪ Historic sample security is not recorded. |
| Audits or reviews | ▪ A review of sampling techniques was carried out by rOREdata Pty Ltd in late 2013 as part of a database amalgamation project. Their only recommendation was to change the QA/QC intervals to bring them into line with the FML Laverton system, which uses the same frequency of standards and duplicates but has them inserted at different points within the numbering sequence. |
Market Announcement | Page 9 of 31
Section 2 Reporting of Exploration Results
(Criteria listed in the preceding section also apply to this section.)
| Criteria | Commentary | Commentary | Commentary | Commentary | Commentary | Commentary |
|---|---|---|---|---|---|---|
| Mineral tenement and land tenure status |
▪ All exploration was conducted on tenements 100% owned by Focus Minerals Limited or its subsidiary companies Focus Operations Pty Ltd. All tenements are in good standing. ▪ The Malinyu Ghoorlie 2017 Claim cover the majority of the Coolgardie tenure. At this stage no Coolgardie claims have progressed to determined status. |
|||||
| Exploration done by other parties |
▪ Bonnie Vale is the site of a number of historic workings including the “Varischetti Mine” (Westralia). Modern exploration has been conducted by Coolgardie Gold NL, Gold Mines of Coolgardie and FML. |
|||||
| Geology | ▪ Locally the geology of the deposit is dominated by the Bonnie Vale granodiorite, with ultramafic to the northeast and a pendant of ultramafic to the southwest in the footwall of the main vein system. This ultramafic has been logged as variably sericite-chlorite- carbonate altered komatiitic lavas. Mineralisation is hosted within large (strike lengths >400m) quartz reefs which range in thickness from centimetre scale to several metres. The known reefs have a variety of orientations with most dipping to the north northeast and north east within the granodiorite and close to its margins. Reefs typically dip at between 40 to 60 degrees. |
|||||
| Drill hole Information |
▪ Historically drilled holes WAMEX reference tabulated below: |
|||||
| Company | Drill Hole Number | WAMEX Report A- Number |
WAMEX Report Date |
|||
| WMC | BVC077 | 14052 | Jul-84 | |||
| BVC085, BVC086, BVC091, BVC092 | 16231 | Apr-85 | ||||
| BVC119, BVC120, BVC121, BVC123 | 16449 | Apr-85 | ||||
| MAGNET G | BVRC01, BVRC03, BVRC04, BVRC08, BVRC09 | 20711 | Apr-87 | |||
| ARM | BVDDH02 | 27650 | Oct-88 | |||
| CGNL |
EHC001, EHC002, EHC003, EHC005, EHC006, EHC007 | 27787 | May-89 | |||
| EHC015, EHC016, EHC018, EHC019, EHC021, EHC022 | 30781 | Jun-90 | ||||
| EHC029, EHC030, EHC035, EHC036, EHC037, EHD031, EHD032 |
33604 | Jan-91 | ||||
| EHC042 | 36344 | Jun-92 | ||||
| BMC015, BMC016, BMC018, BMC019, BMC032, BMC033, BMC034, BMC035, BMC036, BMC038 |
37701 | Jan-93 | ||||
| EHC058, EHC059, EHC060, EHC061, EHC064, EHC068, EHC069 |
38631 | Jun-93 | ||||
| BVC127, BVC128, BVC130, BVC131, BVC132, BVC133, BVC135, BVC140, BVC141, BVC142, BVC143, BVC146, BVC147, BVC148, BVC149, BVC150, BVC151, BVC152, BVRC153 |
45778 | Oct-95 | ||||
| MATADOR | 05BLC001 | 72821 | Jul-06 | |||
| ▪ Previously reported FML drill holes at Bonnie Vale. See table below: |
||||||
| Drill Hole Number | ASX Release Title | ASX Release Date |
||||
| BONC031 - 35, 42 | Results from Coolgardie and Laverton Exploration |
30/07/2014 | ||||
| BONCD036 |
Market Announcement | Page 10 of 31
| Criteria | Commentary | Commentary | Commentary | Commentary | Commentary | ||||
|---|---|---|---|---|---|---|---|---|---|
| BONC044 - 53 | Focus Hits High Grade Gold at Bonnie Vale |
8/10/2014 | |||||||
| BONC054 - 56, 58 - 62 | Coolgardie Exploration Success | 21/01/2015 | |||||||
| FCAC00038, 39, FCRB00110 | |||||||||
| BONC064, 69 - 71, 79, 81 | Coolgardie Exploration Update | 24/07/2015 | |||||||
| BONCD065, 66, 68 | |||||||||
| BONC084 - 87, 89 - 95, 98 - 100, 102 - 111, 114 - 115 |
Bonnie Vale Mineral Resource Modelling Commenced |
15/10/2015 | |||||||
| BONC119 - 126 | Update on Exploration at Coolgardie and Laverton |
29/04/2016 | |||||||
| BONCD069 - 74 | |||||||||
| BONC127, 128, 130 - 134, 136 - 142, 144, 146, 148, 151 - 153, 155, 158 - 161 |
Exploration Update | 22/09/2016 | |||||||
| BONCD069, 70, 71, 72, 73, 74 | |||||||||
| BONC160, 162, 163, 164 | Coolgardie Operational Update | 24/05/2017 | |||||||
| BONCD075, 77 | |||||||||
| BONCD078, 79 | Progress Report | 16/01/2018 | |||||||
| BONCD080, 81, 82, 83 | Coolgardie Exploration Update | 27/04/2018 | |||||||
| BONC165 – BONC169 | Mineral Resource Update for Bonnie Vale Deposit |
30/05/2018 | |||||||
| ▪ New holes drilled by FML at Bonnie Vale |
during 2021 - 2023: | ||||||||
| Hole ID | Easting Northing RL (MGA 94 Zone 51) |
Dip | Azimuth (MGA94) |
EOH (m) |
Intersectio | n | |||
| Bonnie Vale RC significant Intersections calculated | at 0.5g/t Au cut off and up to 3m in | ternal dilution | |||||||
| 21BVRC001 | 324201 | 6584151 | 389 | -77 | 346 | 102 | 21BVRC001 - 2.00m @ 0.67g/t | from 38m for(GxM 1) | |
| 21BVRC001 - 5.00m @ 0.58g/t | from 47m for(GxM 3) | ||||||||
| 21BVRC001 - 3.00m @ 0.55g/t | from 60m for(GxM 2) | ||||||||
| 21BVRC001 - 2.00m @ 1.05g/t | from 68m for(GxM 2) | ||||||||
| 21BVRC001 - 2.00m @ 0.85g/t | from 81m for(GxM 2) | ||||||||
| 21BVRC001 - 1.00m @ 0.62g/t f | rom 101m for(GxM 1) | ||||||||
Market Announcement | Page 11 of 31
| Criteria | Commentary | Commentary | Commentary | Commentary | Commentary | Commentary | Commentary | ||
|---|---|---|---|---|---|---|---|---|---|
| Hole ID | Easting Northing RL (MGA 94 Zone 51) |
Dip | Azimuth (MGA94) |
EOH (m) |
Intersection | ||||
| Bonnie Vale RC significant Intersections calculated | at 0.5g/t Au cut off and up to 3m internal dilution | ||||||||
| 21BVRC002 | 323596 | 6584364 | 389 | -83 | 0 | 102 | |||
| 21BVRC003 | 323856 | 6584307 | 389 | -79 | 76 | 132 | 21BVRC003 - 3.00m @ 7.94g/t from 89m for (GxM 24) | ||
| 22BVDD001 | 324310 | 6583952 | 390 | -50 | 20 | 150 | |||
| 22BVRC012 | 324431 | 6584108 | 386 | -60 | 255 | 200 | 22BVRC012 - 1.00m @ 0.55g/t from 82m for(GxM 1) 22BVRC012 - 1.00m @ 0.81g/t from 88m for(GxM 1) 22BVRC012 - 9.00m @ 0.79g/t from 100m for(GxM 7) 22BVRC012 - 3.00m @ 0.51g/t from 116m for(GxM 2) 22BVRC012 - 7.00m @ 60.27g/t from 146m for(GxM 422) 22BVRC012 - 1.00m @ 0.58g/t from 164m for (GxM 1) |
||
| 22BVRC013 | 324405 | 6584222 | 385 | -62 | 207 | 216 | 22BVRC013 - 1.00m @ 1.47g/t from 118m for(GxM 1) 22BVRC013 - 6.00m @ 7.62g/t from 188m for(GxM 46) 22BVRC013 - 1.00m @ 0.93g/t from 203m for (GxM 1) |
||
| 22BVRC014 | 324437 | 6584112 | 386 | -55 | 221 | 162 | 22BVRC014 - 1.00m @ 0.5g/t from 100m for(GxM 1) 22BVRC014 - 14.00m @ 24.36g/t from 125m for(GxM 341) 22BVRC014 - 2.00m @ 1.78g/t from 147m for (GxM 4) |
||
| 22BVRC015 | 324446 | 6584117 | 386 | -66 | 261 | 186 | 22BVRC015 - 1.00m @ 0.83g/t from 74m for(GxM 1) 22BVRC015 - 1.00m @ 0.6g/t from 106m for(GxM 1) 22BVRC015 - 2.00m @ 6.17g/t from 134m for(GxM 12) 22BVRC015 - 6.00m @ 1.25g/t from 158m for(GxM 8) 22BVRC015 - 6.00m @ 16.39g/t from 177m for (GxM 98) |
||
| 22BVRC016 | 324284 | 6584249 | 390 | -66 | 187 | 210 | 22BVRC016 - 1.00m @ 0.58g/t from 2m for(GxM 1) 22BVRC016 - 1.00m @ 0.79g/t from 66m for(GxM 1) 22BVRC016 - 1.00m @ 0.85g/t from 72m for(GxM 1) 22BVRC016 - 3.00m @ 2.23g/t from 77m for(GxM 7) 22BVRC016 - 1.00m @ 6.95g/t from 107m for(GxM 7) 22BVRC016 - 3.00m @ 0.57g/t from 116m for(GxM 2) 22BVRC016 - 1.00m @ 0.56g/t from 131m for(GxM 1) 22BVRC016 - 1.00m @ 0.58g/t from 135m for(GxM 1) 22BVRC016 - 5.00m @ 0.53g/t from 171m for(GxM 3) 22BVRC016 - 1.00m @ 2.19g/t from 181m for (GxM 2) |
||
| 22BVRC018 | 324468 | 6584260 | 384 | -63 | 230 | 270 | 22BVRC018 - 1.00m @ 1.45g/t from 115m for(GxM 1) 22BVRC018 - 2.00m @ 0.78g/t from 153m for(GxM 2) 22BVRC018 - 1.00m @ 0.54g/t from 173m for(GxM 1) 22BVRC018 - 1.00m @ 1.12g/t from 251m for (GxM 1) |
||
| 22BVRC019 | 324412 | 6584068 | 387 | -89 | 193 | 168 | 22BVRC019 - 1.00m @ 0.9g/t from 53m for(GxM 1) 22BVRC019 - 15.00m @ 29.61g/t from 109m for(GxM 444) 22BVRC019 - 1.00m @ 0.64g/t from 134m for(GxM 1) 22BVRC019 - 9.00m @ 15.85g/t from 142m for(GxM 143) 22BVRC019 - 1.00m @ 0.78g/t from 165m for (GxM 1) |
||
| 22BVRC020 | 324409 | 6584135 | 386 | -89 | 290 | 222 | 22BVRC020 - 2.00m @ 0.78g/t from 69m for(GxM 2) 22BVRC020 - 1.00m @ 0.52g/t from 94m for(GxM 1) 22BVRC020 - 1.00m @ 0.84g/t from 99m for(GxM 1) 22BVRC020 - 1.00m @ 0.54g/t from 106m for(GxM 1) 22BVRC020 - 1.00m @ 0.62g/t from 145m for(GxM 1) 22BVRC020 - 1.00m @ 0.53g/t from 156m for(GxM 1) 22BVRC020 - 1.00m @ 0.86g/t from 161m for(GxM 1) 22BVRC020 - 2.00m @ 0.71g/t from 175m for(GxM 1) 22BVRC020 - 1.00m @ 0.57g/t from 184m for(GxM 1) 22BVRC020 - 8.00m @ 15.92g/t from 190m for (GxM 127) |
||
Market Announcement | Page 12 of 31
| Hole ID | Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Dip | Azimuth (MGA94) |
EOH (m) |
Intersection 22BVRC021 - 1.00m @ 1.05g/t from 21m for(GxM 1) 22BVRC021 - 1.00m @ 0.62g/t from 80m for(GxM 1) 22BVRC021 - 2.00m @ 0.85g/t from 87m for(GxM 2) 22BVRC021 - 2.00m @ 0.69g/t from 96m for(GxM 1) 22BVRC021 - 2.00m @ 4.59g/t from 103m for(GxM 9) 22BVRC021 - 3.00m @ 1.05g/t from 116m for(GxM 3) 22BVRC021 - 1.00m @ 0.66g/t from 127m for(GxM 1) 22BVRC021 - 1.00m @ 0.59g/t from 150m for(GxM 1) 22BVRC021 - 6.00m @ 2.25g/t from 157m for(GxM 14) 22BVRC021 - 1.00m @ 0.55g/t from 197m for(GxM 1) 22BVRC021 - 1.00m @ 2.24g/t from 209m for (GxM 2) 22BVRD001 - 1.00m @ 0.59g/t from 58m for (GxM 1) 22BVRD002 - 1.00m @ 1.26g/t from 40m for(GxM 1) 22BVRD002 - 1.00m @ 0.64g/t from 45m for(GxM 1) 22BVRD002 - 15.00m @ 0.95g/t from 60m for(GxM 14) 22BVRD002 - 1.00m @ 0.5g/t from 84m for(GxM 1) 22BVRD002 - 2.00m @ 0.51g/t from 87m for(GxM 1) 22BVRD002 - 1.00m @ 1.03g/t from 96m for(GxM 1) 22BVRD002 - 3.00m @ 3.09g/t from 124m for(GxM 9) 22BVRD002 - 0.50m @ 4.48g/t from 193m for (GxM 2) 22BVRD003 - 1.00m @ 0.94g/t from 31m for(GxM 1) 22BVRD003 - 1.00m @ 1.12g/t from 42m for(GxM 1) 22BVRD003 - 1.00m @ 0.7g/t from 79m for(GxM 1) 22BVRD003 - 17.00m @ 1.75g/t from 99m for(GxM 30) 22BVRD003 - 1.05m @ 1.15g/t from 126.4m for(GxM 1) 22BVRD003 - 1.00m @ 0.69g/t from 136m for(GxM 1) 22BVRD003 - 8.85m @ 1.08g/t from 143m for(GxM 10) 22BVRD003 - 0.40m @ 0.87g/t from 157.6m for(GxM 0) 22BVRD003 - 0.80m @ 0.51g/t from 158.6m for (GxM 0) 22BVRD004 - 0.75m @ 1.45g/t from 111.25m for(GxM 1) 22BVRD004 - 7.00m @ 0.59g/t from 135m for(GxM 4) 22BVRD004 - 3.00m @ 2.34g/t from 164m for(GxM 7) 22BVRD004 - 1.00m @ 0.78g/t from 176m for(GxM 1) 22BVRD004 - 1.00m @ 0.57g/t from 183m for(GxM 1) 22BVRD004 - 3.00m @ 7.78g/t from 199m for (GxM 23) 22BVRD005 - 5.00m @ 1.29g/t from 112m for(GxM 6) 22BVRD005 - 2.12m @ 28.26g/t from 174.74m for(GxM 60) 22BVRD005 - 8.60m @ 0.66g/t from 178.4m for(GxM 6) 22BVRD005 - 3.85m @ 3.93g/t from 199.4m for (GxM 15) 22BVRD006 - 1.00m @ 27.94g/t from 40m for(GxM 28) 22BVRD006 - 1.00m @ 1.15g/t from 87m for(GxM 1) 22BVRD006 - 2.52m @ 0.59g/t from 134.48m for(GxM 1) 22BVRD006 - 4.42m @ 0.6g/t from 139.58m for(GxM 3) 22BVRD006 - 1.34m @ 3.31g/t from 156.4m for(GxM 4) 22BVRD006 - 1.13m @ 0.69g/t from 167m for(GxM 1) 22BVRD006 - 1.00m @ 1.56g/t from 174m for(GxM 2) 22BVRD006 - 2.48m @ 0.78g/t from 189.12m for (GxM 2) 22BVRD007 - 1.00m @ 1.01g/t from 0m for(GxM 1) 22BVRD007 - 0.73m @ 1.66g/t from 107.27m for(GxM 1) 22BVRD007 - 1.36m @ 4.35g/t from 136.64m for(GxM 6) 22BVRD007 - 1.20m @ 1.18g/t from 150m for(GxM 1) 22BVRD007 - 1.85m @ 2.59g/t from 182.15m for(GxM 5) 22BVRD007 - 8.00m @ 1.22g/t from 192m for (GxM 10) at 0.5g/t Au cut off and up to 3m internal dilution |
|
|---|---|---|---|---|---|---|---|---|
| Bonnie Vale RC significant Intersections calculated | ||||||||
| 22BVRD001 22BVRD007 22BVRD002 22BVRD004 22BVRD003 22BVRD006 22BVRD005 22BVRC021 |
324304 | 6584150 | 387 | -90 | 185 | 210 | ||
| 324152 | 6584070 | 390 | -45 | 76 | 72 | |||
| 324326 | 6584162 | 387 | -51 | 188 | 210.5 | |||
| 324326 | 6584207 | 386 | -50 | 204 | 210.5 | |||
| 324501 | 6584134 | 385 | -70 | 237 | 222.6 | |||
| 324512 | 6584153 | 385 | -51 | 239 | 234.4 | |||
| 324288 | 6584243 | 390 | -56 | 168 | 210.4 | |||
| 324287 | 6584250 | 390 | -69 | 169 | 210.5 | |||
Market Announcement | Page 13 of 31
| Hole ID | Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Dip | Azimuth (MGA94) |
EOH (m) |
Intersection | |
|---|---|---|---|---|---|---|---|---|
| Bonnie Vale RC significant Intersections calculated | at 0.5g/t Au cut off and up to 3m internal dilution | |||||||
| 22BVRD008 | 324338 | 6584415 | 386 | -48 | 193 | 309.4 | 22BVRD008 - 1.00m @ 0.53g/t from 283m for(GxM 1) | |
| 22BVRD008 - 1.07m @ 2.97g/t from 289.73m for (GxM 3) | ||||||||
| 22BVRD009 | 324469 | 6584257 | 384 | -64 | 209 | 267.4 | 22BVRD009 - 1.00m @ 1g/t from 150m for(GxM 1) | |
| 22BVRD009 - 1.00m @ 0.56g/t from 227m for(GxM 1) | ||||||||
| 22BVRD009 - 0.40m @ 0.89g/t from 233.7m for(GxM 0) | ||||||||
| 22BVRD009 - 2.05m @ 2.83g/t from 252.95m for (GxM 6) | ||||||||
| 22BVRD010 | 324466 | 6584259 | 384 | -60 | 245 | 288.3 | 22BVRD010 - 1.00m @ 0.65g/t from 152m for(GxM 1) | |
| 22BVRD010 - 1.08m @ 1.56g/t from 217.82m for(GxM 2) | ||||||||
| 22BVRD010 - 1.00m @ 0.56g/t from 237m for(GxM 1) | ||||||||
| 22BVRD010 - 5.50m @ 8.13g/t from 270.5m for (GxM 45) | ||||||||
| 22BVRD011 | 324455 | 6584113 | 386 | -75 | 273 | 210.7 | 22BVRD011 - 2.00m @ 1.4g/t from 21m for(GxM 3) | |
| 22BVRD011 - 1.60m @ 0.5g/t from 96.4m for(GxM 1) | ||||||||
| 22BVRD011 - 5.80m @ 0.63g/t from 149.2m for(GxM 4) | ||||||||
| 22BVRD011 - 1.00m @ 0.55g/t from 160m for(GxM 1) | ||||||||
| 22BVRD011 - 0.53m @ 1.86g/t from 164.9m for(GxM 1) | ||||||||
| 22BVRD011 - 3.00m @ 1.32g/t from 169m for(GxM 4) | ||||||||
| 22BVRD011 - 12.10m @ 2.12g/t from 177m for (GxM 26) | ||||||||
| 22BVRD017 | 324175 | 6584084 | 390 | -53 | 92 | 204.6 | 22BVRD017 - 1.10m @ 19.57g/t from 98.1m for(GxM 22) | |
| 22BVRD017 - 1.00m @ 0.68g/t from 103m for(GxM 1) | ||||||||
| 22BVRD017 - 2.84m @ 1.39g/t from 110.5m for (GxM 4) | ||||||||
| 23BVRC001 | 324279 | 6584133 | 388 | -58 | 225 | 126 | 23BVRC001 - 3.00m @ 0.57g/t from 16m for(GxM 2) | |
| 23BVRC001 - 1.00m @ 0.99g/t from 33m for(GxM 1) | ||||||||
| 23BVRC001 - 1.00m @ 0.96g/t from 59m for(GxM 1) | ||||||||
| 23BVRC001 - 7.00m @ 16.09g/t from 67m for (GxM 113) | ||||||||
| 23BVRC002 | 324308 | 6584158 | 387 | -55 | 228 | 162 | 23BVRC002 - 1.00m @ 7.25g/t from 23m for(GxM 7) | |
| 23BVRC002 - 3.00m @ 0.77g/t from 51m for(GxM 2) | ||||||||
| 23BVRC002 - 7.00m @ 3.25g/t from 59m for(GxM 23) | ||||||||
| 23BVRC002 - 2.00m @ 0.61g/t from 76m for(GxM 1) | ||||||||
| 23BVRC002 - 9.00m @ 1.94g/t from 83m for(GxM 17) | ||||||||
| 23BVRC002 - 1.00m @ 0.96g/t from 101m for(GxM 1) | ||||||||
| 23BVRC002 - 4.00m @ 2.65g/t from 115m for(GxM 11) | ||||||||
| 23BVRC002 - 4.00m @ 2.51g/t from 125m for (GxM 10) | ||||||||
| 23BVRC003 | 324406 | 6584070 | 387 | -61 | 226 | 126 | 23BVRC003 - 1.00m @ 0.61g/t from 68m for(GxM 1) | |
| 23BVRC003 - 11.00m @ 7.79g/t from 96m for(GxM 86) | ||||||||
| 23BVRC003 - 1.00m @ 4.08g/t from 116m for(GxM 4) | ||||||||
| 23BVRC003 - 1.00m @ 0.6g/t from 123m for (GxM 1) | ||||||||
| 23BVRC004 | 324376 | 6584076 | 387 | -58 | 233 | 126 | 23BVRC004 - 3.00m @ 1.68g/t from 89m for (GxM 5) | |
| 23BVRC005 | 324430 | 6584035 | 387 | -61 | 200 | 146 | 23BVRC005 - 3.00m @ 1.86g/t from 76m for(GxM 6) | |
| 23BVRC005 - 1.00m @ 0.5g/t from 119m for(GxM 1) | ||||||||
| 23BVRC005 - 4.00m @ 1.45g/t from 142m for (GxM 6) | ||||||||
| 23BVRC006 | 324461 | 6584076 | 386 | -61 | 201 | 156 | 23BVRC006 - 1.00m @ 0.62g/t from 48m for(GxM 1) | |
| 23BVRC006 - 2.00m @ 5.46g/t from 108m for(GxM 11) | ||||||||
| 23BVRC006 - 6.00m @ 1.6g/t from 124m for (GxM 10) | ||||||||
| 23BVRC014 | 324462 | 6584074 | 386 | -60 | 197 | 162 | 23BVRC014 - 1.00m @ 1.16g/t from 87m for(GxM 1) | |
| 23BVRC014 - 3.00m @ 14.27g/t from 108m for(GxM 43) | ||||||||
| 23BVRC014 - 2.00m @ 0.64g/t from 125m for (GxM 1) | ||||||||
| 23BVRC015 | 324499 | 6584130 | 385 | -59 | 200 | 170 | 23BVRC015 - 8.00m @ 1.61g/t from 141m for(GxM 13) | |
| 23BVRC015 - 1.00m @ 0.55g/t from 158m for(GxM 1) | ||||||||
| 23BVRC015 - 5.00m @ 0.73g/t from 165m for (GxM 4) | ||||||||
| 23BVRC016 | 324475 | 6584012 | 386 | -54 | 216 | 112 | ||
| 23BVRC017 | 324312 | 6584096 | 390 | -61 | 225 | 126 | 23BVRC017 - 2.00m @ 0.77g/t from 0m for(GxM 2) | |
| 23BVRC017 - 1.00m @ 1.02g/t from 47m for (GxM 1) | ||||||||
| 23BVRC018 | 324301 | 6584092 | 390 | -46 | 244 | 132 | 23BVRC018 - 2.00m @ 1.13g/t from 0m for (GxM 2) | |
Market Announcement | Page 14 of 31
| Criteria | Commentary | Commentary | Commentary | Commentary | Commentary | Commentary | Commentary | ||
|---|---|---|---|---|---|---|---|---|---|
| Hole ID | Easting Northing RL (MGA 94 Zone 51) |
Dip | Azimuth (MGA94) |
EOH (m) |
Intersection | ||||
| Bonnie Vale RC significant Intersections calculated | at 0.5g/t Au cut off and up to 3m internal dilution | ||||||||
| 23BVRC019 | 324326 | 6584161 | 386 | -68 | 221 | 156 | 23BVRC019 - 1.00m @ 0.5g/t from 33m for(GxM 1) 23BVRC019 - 1.00m @ 1g/t from 71m for(GxM 1) 23BVRC019 - 1.00m @ 0.69g/t from 96m for(GxM 1) 23BVRC019 - 1.00m @ 0.58g/t from 112m for(GxM 1) 23BVRC019 - 5.00m @ 0.55g/t from 114m for(GxM 3) 23BVRC019 - 7.00m @ 5.17g/t from 132m for(GxM 36) 23BVRC019 - 3.00m @ 0.72g/t from 149m for(GxM 2) 23BVRC019 - 1.00m @ 0.61g/t from 155m for (GxM 1) |
||
| 23BVRC020 | 324325 | 6584159 | 386 | -59 | 197 | 150 | 23BVRC020 - 1.00m @ 0.64g/t from 48m for(GxM 1) 23BVRC020 - 9.00m @ 2.12g/t from 69m for(GxM 19) 23BVRC020 - 1.00m @ 0.75g/t from 90m for(GxM 1) 23BVRC020 - 1.00m @ 1.33g/t from 110m for(GxM 1) 23BVRC020 - 5.00m @ 4.93g/t from 124m for (GxM 25) |
||
| 23BVRC029 | 324407 | 6584221 | 385 | -60 | 192 | 216 | 23BVRC029 - 7.00m @ 0.75g/t from 176m for(GxM 5) 23BVRC029 - 9.00m @ 0.88g/t from 192m for (GxM 8) |
||
| 23BVRC031 | 324403 | 6584224 | 385 | -61 | 202 | 208 | 23BVRC031 - 1.00m @ 2.2g/t from 79m for(GxM 2) 23BVRC031 - 1.00m @ 0.6g/t from 165m for(GxM 1) 23BVRC031 - 12.00m @ 6g/t from 196m for (GxM 72) |
||
| 23BVRC032 | 324267 | 6584201 | 390 | -72 | 201 | 162 | 23BVRC032 - 7.00m @ 0.91g/t from 42m for(GxM 6) 23BVRC032 - 1.00m @ 0.61g/t from 127m for(GxM 1) 23BVRC032 - 9.00m @ 5.57g/t from 136m for (GxM 50) |
||
| 23BVRC034 | 323936 | 6584325 | 390 | -61 | 221 | 150 | 23BVRC034 - 1.00m @ 0.6g/t from 64m for(GxM 1) 23BVRC034 - 1.00m @ 0.62g/t from 96m for(GxM 1) 23BVRC034 - 1.00m @ 2.59g/t from 144m for (GxM 3) |
||
| 23BVRC036 | 323953 | 6584238 | 393 | -47 | 222 | 90 | 23BVRC036 - 1.00m @ 0.69g/t from 21m for (GxM 1) | ||
| 23BVRC038 | 323980 | 6584271 | 392 | -49 | 223 | 120 | 23BVRC038 - 1.00m @ 0.63g/t from 55m for(GxM 1) 23BVRC038 - 2.00m @ 1.04g/t from 93m for (GxM 2) |
||
| 23BVRC039 | 324281 | 6584247 | 390 | -72 | 197 | 185 | 23BVRC039 - 1.00m @ 0.98g/t from 50m for(GxM 1) 23BVRC039 - 2.00m @ 0.73g/t from 70m for(GxM 1) 23BVRC039 - 1.00m @ 0.71g/t from 76m for(GxM 1) 23BVRC039 - 1.00m @ 0.66g/t from 94m for(GxM 1) 23BVRC039 - 1.00m @ 2.33g/t from 108m for(GxM 2) 23BVRC039 - 7.00m @ 0.71g/t from 174m for (GxM 5) |
||
| 23BVRC040 | 324001 | 6584297 | 392 | -55 | 220 | 156 | 23BVRC040 - 1.00m @ 0.5g/t from 89m for(GxM 1) 23BVRC040 - 1.00m @ 1.57g/t from 99m for (GxM 2) |
||
| 23BVRC042 | 323966 | 6584300 | 392 | -46 | 228 | 144 | 23BVRC042 - 1.00m @ 0.72g/t from 70m for(GxM 1) 23BVRC042 - 1.00m @ 4.47g/t from 76m for(GxM 4) 23BVRC042 - 1.00m @ 7.87g/t from 142m for (GxM 8) |
||
| 23BVRC043 | 324229 | 6584282 | 389 | -58 | 224 | 168 | 23BVRC043 - 2.00m @ 0.65g/t from 122m for(GxM 1) 23BVRC043 - 3.00m @ 0.83g/t from 130m for(GxM 2) 23BVRC043 - 4.00m @ 4.08g/t from 157m for (GxM 16) |
||
| 23BVRC044 | 323966 | 6584302 | 392 | -69 | 230 | 162 | 23BVRC044 - 1.00m @ 1.25g/t from 152m for (GxM 1) | ||
| 23BVRC045 | 324376 | 6584205 | 386 | -60 | 217 | 194 | 23BVRC045 - 4.00m @ 0.53g/t from 63m for(GxM 2) 23BVRC045 - 2.00m @ 1.05g/t from 71m for(GxM 2) 23BVRC045 - 1.00m @ 0.54g/t from 104m for(GxM 1) 23BVRC045 - 2.00m @ 0.67g/t from 135m for(GxM 1) 23BVRC045 - 5.00m @ 0.55g/t from 141m for(GxM 3) 23BVRC045 - 1.00m @ 0.68g/t from 159m for(GxM 1) 23BVRC045 - 4.00m @ 7.68g/t from 179m for (GxM 31) |
||
Market Announcement | Page 15 of 31
| Hole ID | Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Dip | Azimuth (MGA94) |
EOH (m) |
Intersection | |
|---|---|---|---|---|---|---|---|---|
| Bonnie Vale RC significant Intersections calculated | at 0.5g/t Au cut off and up to 3m internal dilution | |||||||
| 23BVRC046 | 324007 | 6584247 | 393 | -46 | 202 | 114 | 23BVRC046 - 4.00m @ 0.88g/t from 47m for(GxM 4) 23BVRC046 - 1.00m @ 1.19g/t from 55m for(GxM 1) 23BVRC046 - 1.00m @ 1.29g/t from 65m for (GxM 1) |
|
| 23BVRC047 | 324162 | 6584325 | 388 | -75 | 202 | 203 | 23BVRC047 - 5.00m @ 4.99g/t from 165m for(GxM 25) 23BVRC047 - 1.00m @ 0.85g/t from 186m for (GxM 1) |
|
| 23BVRC048 | 323749 | 6584357 | 390 | -45 | 235 | 72 | 23BVRC048 - 2.00m @ 0.77g/t from 0m for (GxM 2) | |
| 23BVRC049 | 324495 | 6584095 | 386 | -61 | 211 | 167 | 23BVRC049 - 1.00m @ 1.92g/t from 104m for(GxM 2) 23BVRC049 - 3.00m @ 3.49g/t from 122m for(GxM 10) 23BVRC049 - 23.00m @ 1.57g/t from 133m for (GxM 36) |
|
| 23BVRC050 | 323768 | 6584346 | 390 | -46 | 221 | 60 | 23BVRC050 - 5.00m @ 0.57g/t from 0m for (GxM 3) | |
| 23BVRC051 | 324498 | 6584057 | 386 | -59 | 215 | 157 | 23BVRC051 - 1.00m @ 0.74g/t from 131m for(GxM 1) 23BVRC051 - 1.00m @ 2.67g/t from 137m for (GxM 3) |
|
| 23BVRC052 | 323798 | 6584319 | 390 | -45 | 223 | 60 | 23BVRC052 - 1.00m @ 0.85g/t from 1m for (GxM 1) | |
| 23BVRC053 | 324522 | 6584060 | 385 | -59 | 211 | 143 | 23BVRC053 - 1.00m @ 1.3g/t from 103m for(GxM 1) 23BVRC053 - 1.00m @ 3.37g/t from 108m for (GxM 3) |
|
| 23BVRC054 | 323848 | 6584308 | 389 | -63 | 216 | 84 | 23BVRC054 - 1.00m @ 0.8g/t from 34m for(GxM 1) 23BVRC054 - 1.00m @ 1.13g/t from 45m for (GxM 1) |
|
| 23BVRC055 | 324529 | 6584086 | 385 | -63 | 224 | 65 | ||
| 23BVRC056 | 323852 | 6584301 | 389 | -46 | 168 | 96 | 23BVRC056 - 3.00m @ 0.58g/t from 49m for(GxM 2) 23BVRC056 - 1.00m @ 0.79g/t from 60m for (GxM 1) |
|
| 23BVRC057 | 324528 | 6584084 | 385 | -63 | 222 | 173 | 23BVRC057 - 1.00m @ 1.04g/t from 122m for(GxM 1) 23BVRC057 - 10.00m @ 1.01g/t from 128m for(GxM 10) 23BVRC057 - 8.00m @ 3.16g/t from 142m for(GxM 25) 23BVRC057 - 2.00m @ 1.38g/t from 171m for (GxM 3) |
|
| 23BVRC058 | 323862 | 6584364 | 390 | -62 | 222 | 113 | 23BVRC058 - 1.00m @ 1.17g/t from 56m for (GxM 1) | |
| 23BVRC059 | 324530 | 6584087 | 385 | -75 | 183 | 180 | 23BVRC059 - 2.00m @ 1.15g/t from 138m for (GxM 2) | |
| 23BVRC060 | 323910 | 6584295 | 390 | -61 | 238 | 114 | 23BVRC060 - 1.00m @ 2.88g/t from 0m for (GxM 3) | |
| 23BVRC061 | 324218 | 6584337 | 386 | -61 | 196 | 203 | 23BVRC061 - 1.00m @ 14.96g/t from 21m for(GxM 15) 23BVRC061 - 1.00m @ 0.76g/t from 170m for(GxM 1) 23BVRC061 - 1.00m @ 1.39g/t from 179m for(GxM 1) 23BVRC061 - 1.00m @ 0.56g/t from 194m for(GxM 1) 23BVRC061 - 1.00m @ 0.63g/t from 199m for (GxM 1) |
|
| 23BVRC062 | 323739 | 6583661 | 402 | -45 | 151 | 72 | 23BVRC062 - 1.00m @ 0.89g/t from 37m for (GxM 1) | |
| 23BVRC063 | 324523 | 6584057 | 385 | -74 | 181 | 149 | 23BVRC063 - 1.00m @ 0.52g/t from 108m for(GxM 1) 23BVRC063 - 1.00m @ 0.65g/t from 123m for(GxM 1) 23BVRC063 - 6.00m @ 0.66g/t from 128m for(GxM 4) 23BVRC063 - 7.00m @ 15.7g/t from 139m for (GxM 110) |
|
| 23BVRC064 | 323799 | 6583699 | 400 | -45 | 150 | 66 | ||
| 23BVRC066 | 323858 | 6583803 | 399 | -51 | 161 | 108 | 23BVRC066 - 1.00m @ 2.05g/t from 91m for (GxM 2) | |
| 23BVRC067 | 323939 | 6583792 | 397 | -45 | 150 | 66 | ||
| 23BVRC068 | 323988 | 6583858 | 396 | -45 | 150 | 90 | ||
| 23BVRC069 | 324062 | 6583883 | 394 | -45 | 150 | 78 | ||
| 23BVRC070 | 324342 | 6584076 | 388 | -56 | 230 | 102 | ||
| 23BVRC071 | 324374 | 6584074 | 388 | -56 | 211 | 108 | 23BVRC071 - 1.00m @ 1.16g/t from 56m for(GxM 1) | |
| 23BVRC072 | 324414 | 6584036 | 387 | -69 | 227 | 120 | 23BVRC072 - 1.00m @ 3.88g/t from 85m for(GxM 4) 23BVRC072 - 1.00m @ 0.51g/t from 106m for (GxM 1) |
|
| 23BVRC073 | 324526 | 6584095 | 384 | -67 | 235 | 190 | 23BVRC073 - 1.00m @ 0.67g/t from 119m for(GxM 1) 23BVRC073 - 41.00m @ 5.48g/t from 133m for(GxM 225) 23BVRC073 - 1.00m @ 0.66g/t from 181m for (GxM 1) |
|
| 23BVRC074 | 324334 | 6584094 | 390 | -90 | 0 | 3 | ||
| 23BVRC075 | 323834 | 6584205 | 392 | -90 | 0 | 3 | ||
| 23BVRC076 | 323832 | 6584190 | 392 | -90 | 0 | 3 | ||
Market Announcement | Page 16 of 31
| Hole ID | Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Dip | Azimuth (MGA94) |
EOH (m) |
Intersection | |
|---|---|---|---|---|---|---|---|---|
| Bonnie Vale RC significant Intersections calculated | at 0.5g/t Au cut off and up to 3m internal dilution | |||||||
| 23BVRC077 | 323829 | 6584175 | 392 | -90 | 0 | 3 | ||
| 23BVRC078 | 323826 | 6584160 | 392 | -90 | 0 | 3 | ||
| 23BVRC079 | 323841 | 6584157 | 392 | -90 | 0 | 3 | ||
| 23BVRC080 | 323844 | 6584172 | 392 | -90 | 0 | 3 | ||
| 23BVRC081 | 323846 | 6584187 | 392 | -90 | 0 | 3 | 23BVRC081 - 1.00m @ 0.52g/t from 0m for(GxM 1) | |
| 23BVRC081 - 1.00m @ 0.52g/t from 2m for (GxM 1) | ||||||||
| 23BVRC082 | 323849 | 6584202 | 392 | -90 | 0 | 3 | 23BVRC082 - 1.00m @ 0.68g/t from 2m for (GxM 1) | |
| 23BVRC083 | 323863 | 6584200 | 392 | -90 | 0 | 3 | ||
| 23BVRC084 | 323861 | 6584185 | 392 | -90 | 0 | 3 | ||
| 23BVRC085 | 323859 | 6584170 | 392 | -90 | 0 | 3 | ||
| 23BVRC086 | 323783 | 6584167 | 392 | -90 | 0 | 3 | 23BVRC086 - 1.00m @ 0.57g/t from 0m for (GxM 1) | |
| 23BVRC087 | 323785 | 6584182 | 392 | -90 | 0 | 3 | ||
| 23BVRC088 | 323787 | 6584197 | 392 | -90 | 0 | 3 | ||
| 23BVRC089 | 323790 | 6584212 | 392 | -90 | 0 | 3 | ||
| 23BVRC090 | 323792 | 6584226 | 392 | -90 | 0 | 3 | ||
| 23BVRC091 | 323795 | 6584242 | 392 | -90 | 0 | 3 | ||
| 23BVRC092 | 323807 | 6584224 | 392 | -90 | 0 | 3 | ||
| 23BVRC093 | 323805 | 6584210 | 392 | -90 | 0 | 3 | 23BVRC093 - 1.00m @ 0.51g/t from 0m for (GxM 1) | |
| 23BVRC094 | 323802 | 6584195 | 392 | -90 | 0 | 3 | 23BVRC094 - 1.00m @ 0.59g/t from 1m for (GxM 1) | |
| 23BVRC095 | 323800 | 6584180 | 392 | -90 | 0 | 3 | ||
| 23BVRC096 | 323797 | 6584165 | 392 | -90 | 0 | 3 | ||
| 23BVRC097 | 323812 | 6584163 | 392 | -90 | 0 | 3 | ||
| 23BVRC098 | 323814 | 6584177 | 392 | -90 | 0 | 3 | ||
| 23BVRC099 | 323817 | 6584192 | 392 | -90 | 0 | 3 | ||
| 23BVRC100 | 323819 | 6584207 | 392 | -90 | 0 | 3 | ||
| 23BVRC101 | 323822 | 6584222 | 392 | -90 | 0 | 3 | 23BVRC101 - 1.00m @ 0.5g/t from 0m for (GxM 1) | |
| 23BVRC102 | 323825 | 6584321 | 390 | -90 | 0 | 2 | 23BVRC102 - 1.00m @ 2.89g/t from 1m for (GxM 3) | |
| 23BVRC103 | 323826 | 6584336 | 391 | -90 | 0 | 2 | 23BVRC103 - 1.00m @ 1.12g/t from 1m for (GxM 1) | |
| 23BVRC104 | 323811 | 6584351 | 391 | -90 | 0 | 2 | ||
| 23BVRC105 | 323825 | 6584349 | 391 | -90 | 0 | 2 | 23BVRC105 - 1.00m @ 0.79g/t from 1m for (GxM 1) | |
| 23BVRC106 | 323839 | 6584363 | 390 | -90 | 0 | 2 | 23BVRC106 - 1.00m @ 0.65g/t from 0m for (GxM 1) | |
| 23BVRC107 | 323825 | 6584365 | 390 | -90 | 0 | 2 | 23BVRC107 - 1.00m @ 1.24g/t from 1m for (GxM 1) | |
| 23BVRC108 | 323815 | 6584380 | 391 | -90 | 0 | 2 | ||
| 23BVRC109 | 323810 | 6584366 | 390 | -90 | 0 | 2 | ||
| 23BVRC110 | 323811 | 6584337 | 391 | -90 | 0 | 2 | 23BVRC110 - 1.00m @ 0.83g/t from 1m for (GxM 1) | |
| 23BVRC111 | 323811 | 6584321 | 390 | -90 | 0 | 2 | 23BVRC111 - 1.00m @ 1.38g/t from 1m for (GxM 1) | |
| 23BVRC112 | 323796 | 6584321 | 390 | -90 | 0 | 2 | ||
| 23BVRC113 | 323796 | 6584336 | 391 | -90 | 0 | 2 | ||
| 23BVRC114 | 323796 | 6584351 | 391 | -90 | 0 | 2 | 23BVRC114 - 2.00m @ 0.52g/t from 0m for (GxM 1) | |
| 23BVRC115 | 323796 | 6584366 | 390 | -90 | 0 | 2 | 23BVRC115 - 1.00m @ 0.9g/t from 1m for (GxM 1) | |
| 23BVRC116 | 323781 | 6584381 | 390 | -90 | 0 | 2 | 23BVRC116 - 1.00m @ 0.57g/t from 1m for (GxM 1) | |
| 23BVRC117 | 323781 | 6584366 | 390 | -90 | 0 | 2 | 23BVRC117 - 2.00m @ 0.93g/t from 0m for (GxM 2) | |
| 23BVRC118 | 323784 | 6584351 | 391 | -90 | 0 | 2 | 23BVRC118 - 2.00m @ 0.64g/t from 0m for (GxM 1) | |
| 23BVRC119 | 323767 | 6584366 | 390 | -90 | 0 | 2 | 23BVRC119 - 2.00m @ 1.25g/t from 0m for (GxM 3) | |
| 23BVRC120 | 323751 | 6584366 | 390 | -90 | 0 | 2 | 23BVRC120 - 1.00m @ 0.5g/t from 0m for (GxM 1) | |
| 23BVRC121 | 323766 | 6584351 | 391 | -90 | 0 | 2 | 23BVRC121 - 1.00m @ 0.67g/t from 0m for (GxM 1) | |
| 23BVRC122 | 323766 | 6584336 | 390 | -90 | 0 | 2 | 23BVRC122 - 1.00m @ 0.6g/t from 0m for (GxM 1) | |
| 23BVRC123 | 323781 | 6584334 | 390 | -90 | 0 | 2 | 23BVRC123 - 1.00m @ 1.6g/t from 0m for (GxM 2) | |
| 23BVRC124 | 323751 | 6584336 | 390 | -90 | 0 | 2 | 23BVRC124 - 1.00m @ 2.28g/t from 1m for (GxM 2) | |
| 23BVRC125 | 323751 | 6584347 | 390 | -90 | 0 | 2 | 23BVRC125 - 1.00m @ 1.4g/t from 0m for (GxM 1) | |
| 23BVRC126 | 323736 | 6584351 | 389 | -90 | 0 | 2 | 23BVRC126 - 2.00m @ 0.84g/t from 0m for (GxM 2) | |
Market Announcement | Page 17 of 31
| Hole ID | Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Dip | Azimuth (MGA94) |
EOH (m) |
Intersection | |
|---|---|---|---|---|---|---|---|---|
| Bonnie Vale RC significant Intersections calculated at 0.5g/t Au cut off and up to 3m internal dilution | ||||||||
| 23BVRC127 | 323735 | 6584366 | 390 | -90 | 0 | 2 | 23BVRC127 - 1.00m @ 0.85g/t from 0m for (GxM 1) | |
| 23BVRC128 | 323721 | 6584366 | 389 | -90 | 0 | 2 | 23BVRC128 - 1.00m @ 0.63g/t from 1m for (GxM 1) | |
| 23BVRC129 | 323881 | 6584361 | 393 | -90 | 0 | 3 | 23BVRC129 - 3.00m @ 0.71g/t from 0m for (GxM 2) | |
| 23BVRC130 | 323877 | 6584347 | 393 | -90 | 0 | 3 | ||
| 23BVRC131 | 323873 | 6584332 | 393 | -90 | 0 | 3 | 23BVRC131 - 1.00m @ 1.37g/t from 0m for (GxM 1) | |
| 23BVRC132 | 323878 | 6584319 | 393 | -90 | 0 | 4 | 23BVRC132 - 4.00m @ 0.9g/t from 0m for (GxM 4) | |
| 23BVRC133 | 323887 | 6584328 | 393 | -90 | 0 | 4 | ||
| 23BVRC134 | 323891 | 6584342 | 393 | -90 | 0 | 4 | 23BVRC134 - 2.00m @ 1g/t from 0m for (GxM 2) | |
| 23BVRC135 | 323895 | 6584357 | 393 | -90 | 0 | 3 | 23BVRC135 - 1.00m @ 0.6g/t from 1m for (GxM 1) | |
| 23BVRC136 | 323909 | 6584353 | 393 | -90 | 0 | 3 | 23BVRC136 - 2.00m @ 0.62g/t from 0m for (GxM 1) | |
| 23BVRC137 | 323906 | 6584338 | 393 | -90 | 0 | 4 | 23BVRC137 - 3.00m @ 0.53g/t from 0m for (GxM 2) | |
| 23BVRC138 | 323901 | 6584324 | 393 | -90 | 0 | 3 | 23BVRC138 - 3.00m @ 1.15g/t from 0m for (GxM 3) | |
| 23BVRC139 | 323894 | 6584316 | 393 | -90 | 0 | 4 | 23BVRC139 - 4.00m @ 1.37g/t from 0m for (GxM 5) | |
| 23BVRC140 | 323874 | 6584296 | 390 | -90 | 0 | 3 | ||
| 23BVRC141 | 324007 | 6584222 | 393 | -90 | 0 | 3 | 23BVRC141 - 2.00m @ 1.09g/t from 0m for (GxM 2) | |
| 23BVRC142 | 324011 | 6584236 | 393 | -90 | 0 | 3 | 23BVRC142 - 2.00m @ 0.99g/t from 0m for (GxM 2) | |
| 23BVRC143 | 324014 | 6584251 | 393 | -90 | 0 | 3 | 23BVRC143 - 3.00m @ 1g/t from 0m for (GxM 3) | |
| 23BVRC144 | 324018 | 6584265 | 392 | -90 | 0 | 4 | 23BVRC144 - 2.00m @ 1.02g/t from 1m for (GxM 2) | |
| 23BVRC145 | 324022 | 6584280 | 392 | -90 | 0 | 3 | 23BVRC145 - 2.00m @ 0.91g/t from 1m for (GxM 2) | |
| 23BVRC146 | 324025 | 6584294 | 392 | -90 | 0 | 3 | 23BVRC146 - 3.00m @ 0.81g/t from 0m for (GxM 2) | |
| 23BVRC147 | 324011 | 6584298 | 392 | -90 | 0 | 3 | 23BVRC147 - 2.00m @ 0.69g/t from 1m for (GxM 1) | |
| 23BVRC148 | 324008 | 6584284 | 392 | -90 | 0 | 3 | 23BVRC148 - 2.00m @ 0.55g/t from 0m for (GxM 1) | |
| 23BVRC149 | 324004 | 6584269 | 392 | -90 | 0 | 3 | 23BVRC149 - 3.00m @ 0.76g/t from 0m for (GxM 2) | |
| 23BVRC150 | 324000 | 6584254 | 393 | -90 | 0 | 3 | 23BVRC150 - 3.00m @ 1.82g/t from 0m for (GxM 5) | |
| 23BVRC151 | 323997 | 6584240 | 393 | -90 | 0 | 3 | ||
| 23BVRC152 | 323993 | 6584225 | 393 | -90 | 0 | 3 | 23BVRC152 - 2.00m @ 0.58g/t from 1m for (GxM 1) | |
| 23BVRC153 | 323978 | 6584229 | 393 | -90 | 0 | 3 | 23BVRC153 - 2.00m @ 0.6g/t from 1m for (GxM 1) | |
| 23BVRC154 | 323966 | 6584233 | 393 | -90 | 0 | 4 | ||
| 23BVRC155 | 323982 | 6584244 | 393 | -90 | 0 | 3 | 23BVRC155 - 1.00m @ 0.59g/t from 1m for (GxM 1) | |
| 23BVRC156 | 323985 | 6584258 | 393 | -90 | 0 | 2 | 23BVRC156 - 2.00m @ 7.46g/t from 0m for (GxM 15) | |
| 23BVRC157 | 323989 | 6584273 | 392 | -90 | 0 | 4 | 23BVRC157 - 4.00m @ 1.17g/t from 0m for (GxM 5) | |
| 23BVRC158 | 323993 | 6584287 | 393 | -90 | 0 | 3 | 23BVRC158 - 3.00m @ 3.08g/t from 0m for (GxM 9) | |
| 23BVRC159 | 323996 | 6584302 | 393 | -90 | 0 | 3 | 23BVRC159 - 3.00m @ 1.54g/t from 0m for (GxM 5) | |
| 23BVRC160 | 323982 | 6584305 | 393 | -90 | 0 | 3 | 23BVRC160 - 3.00m @ 0.7g/t from 0m for (GxM 2) | |
| 23BVRC161 | 323967 | 6584309 | 392 | -90 | 0 | 3 | 23BVRC161 - 1.00m @ 2.02g/t from 2m for (GxM 2) | |
| 23BVRC162 | 323964 | 6584297 | 392 | -90 | 0 | 3 | ||
| 23BVRC163 | 323978 | 6584289 | 392 | -90 | 0 | 3 | ||
| 23BVRC164 | 323975 | 6584276 | 393 | -90 | 0 | 3 | ||
| 23BVRC165 | 323971 | 6584262 | 393 | -90 | 0 | 3 | ||
| 23BVRC166 | 323967 | 6584247 | 393 | -90 | 0 | 3 | 23BVRC166 - 3.00m @ 0.7g/t from 0m for (GxM 2) | |
| 23BVRC167 | 323985 | 6584134 | 395 | -90 | 0 | 3 | ||
| 23BVRC168 | 323989 | 6584149 | 395 | -90 | 0 | 3 | ||
| 23BVRC169 | 323993 | 6584164 | 395 | -90 | 0 | 3 | 23BVRC169 - 1.00m @ 0.51g/t from 1m for (GxM 1) | |
| 23BVRC170 | 323978 | 6584167 | 395 | -90 | 0 | 3 | 23BVRC170 - 1.00m @ 0.61g/t from 2m for (GxM 1) | |
| 23BVRC171 | 323974 | 6584152 | 395 | -90 | 0 | 3 | ||
| 23BVRC172 | 323971 | 6584138 | 395 | -90 | 0 | 3 | 23BVRC172 - 1.00m @ 0.83g/t from 0m for (GxM 1) | |
| 23BVRC173 | 323957 | 6584142 | 395 | -90 | 0 | 3 | 23BVRC173 - 1.00m @ 0.73g/t from 1m for (GxM 1) | |
| 23BVRC174 | 323856 | 6584155 | 392 | -90 | 0 | 3 | ||
| 23BVRC175 | 323960 | 6584156 | 395 | -90 | 0 | 3 | 23BVRC175 - 1.00m @ 0.55g/t from 0m for (GxM 1) | |
| 23BVRC176 | 323964 | 6584171 | 395 | -90 | 0 | 3 | ||
| 23BVRC177 | 323949 | 6584174 | 395 | -90 | 0 | 3 | ||
| 23BVRC178 | 323946 | 6584160 | 394 | -90 | 0 | 3 | ||
| 23BVRC179 | 323942 | 6584145 | 395 | -90 | 0 | 3 | ||
| 23BVRC180 | 323927 | 6584149 | 395 | -90 | 0 | 3 | 23BVRC180 - 2.00m @ 0.84g/t from 1m for (GxM 2) |
Market Announcement | Page 18 of 31
| Hole ID | Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Dip | Azimuth (MGA94) |
EOH (m) |
Intersection | |
|---|---|---|---|---|---|---|---|---|
| Bonnie Vale RC significant Intersections calculated at 0.5g/t Au cut off and up to 3m internal dilution | ||||||||
| 23BVRC181 | 323931 | 6584164 | 394 | -90 | 0 | 3 | ||
| 23BVRC182 | 323934 | 6584178 | 394 | -90 | 0 | 3 | 23BVRC182 - 1.00m @ 0.78g/t from 2m for (GxM 1) | |
| 23BVRC183 | 323938 | 6584192 | 395 | -90 | 0 | 4 | ||
| 23BVRC184 | 323952 | 6584189 | 395 | -90 | 0 | 4 | ||
| 23BVRC185 | 323967 | 6584185 | 395 | -90 | 0 | 4 | ||
| 23BVRC186 | 323981 | 6584182 | 395 | -90 | 0 | 4 | ||
| 23BVRC187 | 323996 | 6584178 | 395 | -90 | 0 | 4 | 23BVRC187 - 3.00m @ 0.6g/t from 0m for (GxM 2) | |
| 23BVRC188 | 323949 | 6584236 | 393 | -90 | 0 | 3 | 23BVRC188 - 1.00m @ 0.5g/t from 2m for (GxM 1) | |
| 23BVRC189 | 323953 | 6584251 | 393 | -90 | 0 | 3 | ||
| 23BVRC190 | 323957 | 6584265 | 393 | -90 | 0 | 3 | ||
| 23BVRC191 | 323960 | 6584280 | 392 | -90 | 0 | 3 | ||
| 23BVRC192 | 324076 | 6584369 | 390 | -90 | 0 | 2 | 23BVRC192 - 1.00m @ 0.58g/t from 0m for (GxM 1) | |
| 23BVRC193 | 324076 | 6584355 | 390 | -90 | 0 | 2 | ||
| 23BVRC194 | 324079 | 6584342 | 390 | -90 | 0 | 2 | ||
| 23BVRC195 | 324089 | 6584327 | 390 | -90 | 0 | 2 | 23BVRC195 - 1.00m @ 1.1g/t from 0m for (GxM 1) | |
| 23BVRC196 | 324091 | 6584340 | 390 | -90 | 0 | 2 | 23BVRC196 - 2.00m @ 0.83g/t from 0m for (GxM 2) | |
| 23BVRC197 | 324090 | 6584355 | 391 | -90 | 0 | 2 | 23BVRC197 - 1.00m @ 0.63g/t from 1m for (GxM 1) | |
| 23BVRC198 | 324105 | 6584355 | 391 | -90 | 0 | 2 | 23BVRC198 - 1.00m @ 0.56g/t from 0m for (GxM 1) | |
| 23BVRC199 | 324114 | 6584362 | 391 | -90 | 0 | 2 | ||
| 23BVRC200 | 324115 | 6584355 | 391 | -90 | 0 | 2 | 23BVRC200 - 1.00m @ 0.68g/t from 0m for (GxM 1) | |
| 23BVRC201 | 324106 | 6584340 | 390 | -90 | 0 | 2 | 23BVRC201 - 1.00m @ 0.69g/t from 0m for (GxM 1) | |
| 23BVRC202 | 324118 | 6584339 | 391 | -90 | 0 | 2 | 23BVRC202 - 2.00m @ 0.77g/t from 0m for (GxM 2) | |
| 23BVRC203 | 324053 | 6584384 | 391 | -90 | 0 | 3 | 23BVRC203 - 3.00m @ 0.68g/t from 0m for (GxM 2) | |
| 23BVRC203.1 | 324042 | 6584395 | 391 | -90 | 0 | 3 | 23BVRC203.1 - 3.00m @ 0.58g/t from 0m for (GxM 2) | |
| 23BVRC204 | 324031 | 6584404 | 392 | -90 | 0 | 3 | 23BVRC204 - 2.00m @ 0.92g/t from 0m for (GxM 2) | |
| 23BVRC205 | 324041 | 6584415 | 392 | -90 | 0 | 3 | 23BVRC205 - 2.00m @ 0.82g/t from 0m for (GxM 2) | |
| 23BVRC206 | 324052 | 6584406 | 391 | -90 | 0 | 3 | 23BVRC206 - 3.00m @ 1.02g/t from 0m for (GxM 3) | |
| 23BVRC207 | 324063 | 6584396 | 391 | -90 | 0 | 3 | 23BVRC207 - 3.00m @ 1.43g/t from 0m for (GxM 4) | |
| 23BVRC208 | 324073 | 6584407 | 391 | -90 | 0 | 3 | 23BVRC208 - 1.00m @ 0.68g/t from 2m for (GxM 1) | |
| 23BVRC209 | 324061 | 6584417 | 392 | -90 | 0 | 3 | 23BVRC209 - 1.00m @ 0.59g/t from 0m for (GxM 1) | |
| 23BVRC210 | 324050 | 6584427 | 391 | -90 | 0 | 3 | 23BVRC210 - 1.00m @ 0.81g/t from 2m for (GxM 1) | |
| 23BVRC211 | 324060 | 6584438 | 392 | -90 | 0 | 3 | 23BVRC211 - 1.00m @ 1.28g/t from 1m for (GxM 1) | |
| 23BVRC212 | 324071 | 6584428 | 391 | -90 | 0 | 3 | 23BVRC212 - 3.00m @ 0.66g/t from 0m for (GxM 2) | |
| 23BVRC213 | 324083 | 6584418 | 391 | -90 | 0 | 3 | 23BVRC213 - 2.00m @ 0.9g/t from 1m for (GxM 2) | |
| 23BVRC214 | 324107 | 6584328 | 391 | -90 | 0 | 2 | ||
| 23BVRC215 | 324152 | 6584503 | 392 | -90 | 0 | 3 | 23BVRC215 - 1.00m @ 0.71g/t from 2m for (GxM 1) | |
| 23BVRC216 | 323900 | 6584438 | 393 | -90 | 0 | 3 | ||
| 23BVRC217 | 323896 | 6584430 | 393 | -90 | 0 | 4 | ||
| 23BVRC218 | 323896 | 6584414 | 393 | -90 | 0 | 5 | 23BVRC218 - 1.00m @ 0.87g/t from 0m for (GxM 1) | |
| 23BVRC219 | 323896 | 6584400 | 393 | -90 | 0 | 4 | ||
| 23BVRC220 | 323881 | 6584385 | 393 | -90 | 0 | 3 | ||
| 23BVRC221 | 323896 | 6584384 | 393 | -90 | 0 | 3 | ||
| 23BVRC222 | 323896 | 6584370 | 393 | -90 | 0 | 4 | 23BVRC222 - 1.00m @ 0.7g/t from 1m for (GxM 1) | |
| 23BVRC223 | 323911 | 6584370 | 393 | -90 | 0 | 4 | 23BVRC223 - 1.00m @ 0.86g/t from 2m for (GxM 1) | |
| 23BVRC224 | 323919 | 6584372 | 393 | -90 | 0 | 4 | 23BVRC224 - 2.00m @ 0.57g/t from 1m for (GxM 1) | |
| 23BVRC225 | 323911 | 6584384 | 393 | -90 | 0 | 3 | 23BVRC225 - 1.00m @ 0.51g/t from 0m for (GxM 1) | |
| 23BVRC226 | 323911 | 6584399 | 393 | -90 | 0 | 3 | ||
| 23BVRC227 | 323911 | 6584414 | 393 | -90 | 0 | 3 | 23BVRC227 - 3.00m @ 0.6g/t from 0m for (GxM 2) | |
| 23BVRC228 | 323911 | 6584429 | 393 | -90 | 0 | 3 | ||
| 23BVRC229 | 323926 | 6584430 | 393 | -90 | 0 | 3 | 23BVRC229 - 2.00m @ 1.23g/t from 1m for (GxM 2) | |
| 23BVRC230 | 323926 | 6584415 | 393 | -90 | 0 | 3 | 23BVRC230 - 2.00m @ 0.9g/t from 0m for (GxM 2) | |
Market Announcement | Page 19 of 31
| Hole ID | Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Dip | Azimuth (MGA94) |
EOH (m) |
Intersection | |
|---|---|---|---|---|---|---|---|---|
| Bonnie Vale RC significant Intersections calculated | at 0.5g/t Au cut off and up to 3m internal dilution | |||||||
| 23BVRC231 | 323925 | 6584400 | 393 | -90 | 0 | 3 | 23BVRC231 - 1.00m @ 0.53g/t from 0m for(GxM 1) 23BVRC231 - 1.00m @ 0.52g/t from 2m for (GxM 1) |
|
| 23BVRC232 | 323921 | 6584388 | 393 | -90 | 0 | 5 | 23BVRC232 - 2.00m @ 0.59g/t from 0m for (GxM 1) | |
| 23BVRC233 | 324042 | 6584395 | 391 | -90 | 0 | 3 | ||
| 23BVRC234 | 324212 | 6584410 | 389 | -90 | 0 | 3 | 23BVRC234 - 1.00m @ 1.1g/t from 0m for (GxM 1) | |
| 23BVRC235 | 324213 | 6584396 | 389 | -90 | 0 | 3 | 23BVRC235 - 2.00m @ 0.87g/t from 0m for (GxM 2) | |
| 23BVRC236 | 324214 | 6584381 | 389 | -90 | 0 | 3 | 23BVRC236 - 2.00m @ 1.19g/t from 0m for (GxM 2) | |
| 23BVRC237 | 324229 | 6584381 | 389 | -90 | 0 | 3 | 23BVRC237 - 2.00m @ 1.25g/t from 0m for (GxM 3) | |
| 23BVRC238 | 324228 | 6584396 | 389 | -90 | 0 | 3 | 23BVRC238 - 1.00m @ 1.12g/t from 0m for (GxM 1) | |
| 23BVRC239 | 324227 | 6584411 | 389 | -90 | 0 | 3 | ||
| 23BVRC240 | 324241 | 6584413 | 389 | -90 | 0 | 3 | 23BVRC240 - 2.00m @ 0.99g/t from 0m for (GxM 2) | |
| 23BVRC241 | 324243 | 6584398 | 389 | -90 | 0 | 3 | 23BVRC241 - 1.00m @ 1.69g/t from 0m for (GxM 2) | |
| 23BVRC242 | 324244 | 6584383 | 389 | -90 | 0 | 3 | 23BVRC242 - 2.00m @ 1.41g/t from 0m for (GxM 3) | |
| 23BVRC243 | 324259 | 6584384 | 389 | -90 | 0 | 3 | 23BVRC243 - 2.00m @ 1.2g/t from 0m for (GxM 2) | |
| 23BVRC244 | 324261 | 6584399 | 389 | -90 | 0 | 4 | 23BVRC244 - 4.00m @ 0.54g/t from 0m for (GxM 2) | |
| 23BVRC245 | 324258 | 6584413 | 389 | -90 | 0 | 3 | 23BVRC245 - 1.00m @ 0.9g/t from 1m for (GxM 1) | |
| 23BVRC246 | 324271 | 6584415 | 389 | -90 | 0 | 3 | 23BVRC246 - 2.00m @ 0.88g/t from 0m for (GxM 2) | |
| 23BVRC247 | 324273 | 6584401 | 389 | -90 | 0 | 3 | 23BVRC247 - 1.00m @ 0.8g/t from 1m for (GxM 1) | |
| 23BVRC248 | 324274 | 6584386 | 389 | -90 | 0 | 3 | 23BVRC248 - 3.00m @ 0.69g/t from 0m for (GxM 2) | |
| 23BVRC249 | 324289 | 6584387 | 389 | -90 | 0 | 3 | 23BVRC249 - 2.00m @ 0.97g/t from 1m for (GxM 2) | |
| 23BVRC250 | 324288 | 6584402 | 389 | -90 | 0 | 3 | 23BVRC250 - 2.00m @ 0.72g/t from 0m for (GxM 1) | |
| 23BVRC251 | 324286 | 6584417 | 389 | -90 | 0 | 3 | 23BVRC251 - 3.00m @ 0.76g/t from 0m for (GxM 2) | |
| 23BVRC252 | 324286 | 6584295 | 390 | -90 | 0 | 4 | 23BVRC252 - 2.00m @ 0.55g/t from 2m for (GxM 1) | |
| 23BVRC253 | 324298 | 6584310 | 390 | -90 | 0 | 4 | 23BVRC253 - 4.00m @ 0.51g/t from 0m for (GxM 2) | |
| 23BVRC254 | 324301 | 6584325 | 390 | -90 | 0 | 4 | 23BVRC254 - 2.00m @ 0.52g/t from 0m for (GxM 1) | |
| 23BVRC255 | 324286 | 6584325 | 390 | -90 | 0 | 4 | 23BVRC255 - 1.00m @ 0.51g/t from 3m for (GxM 1) | |
| 23BVRC256 | 324286 | 6584310 | 390 | -90 | 0 | 4 | 23BVRC256 - 1.00m @ 1.03g/t from 0m for (GxM 1) | |
| 23BVRC257 | 324271 | 6584325 | 390 | -90 | 0 | 4 | 23BVRC257 - 1.00m @ 0.54g/t from 0m for (GxM 1) | |
| 23BVRC258 | 324271 | 6584310 | 390 | -90 | 0 | 4 | 23BVRC258 - 1.00m @ 0.52g/t from 0m for (GxM 1) | |
| 23BVRC259 | 324271 | 6584295 | 390 | -90 | 0 | 4 | 23BVRC259 - 3.00m @ 0.52g/t from 1m for (GxM 2) | |
| 23BVRC260 | 324271 | 6584280 | 390 | -90 | 0 | 4 | 23BVRC260 - 4.00m @ 0.61g/t from 0m for (GxM 2) | |
| 23BVRC261 | 324286 | 6584280 | 390 | -90 | 0 | 4 | 23BVRC261 - 3.00m @ 0.59g/t from 1m for (GxM 2) | |
| 23BVRC262 | 324301 | 6584291 | 390 | -90 | 0 | 4 | 23BVRC262 - 3.00m @ 0.66g/t from 1m for (GxM 2) | |
| 23BVRC263 | 324301 | 6584280 | 390 | -90 | 0 | 4 | 23BVRC263 - 1.00m @ 0.51g/t from 2m for (GxM 1) | |
| 23BVRC264 | 324300 | 6584266 | 391 | -90 | 0 | 4 | 23BVRC264 - 4.00m @ 0.57g/t from 0m for (GxM 2) | |
| 23BVRC265 | 324301 | 6584250 | 390 | -90 | 0 | 4 | 23BVRC265 - 4.00m @ 0.51g/t from 0m for (GxM 2) | |
| 23BVRC266 | 324287 | 6584263 | 391 | -90 | 0 | 4 | 23BVRC266 - 3.00m @ 0.51g/t from 0m for (GxM 2) | |
| 23BVRC267 | 324273 | 6584250 | 390 | -90 | 0 | 3 | ||
| 23BVRC268 | 324286 | 6584235 | 390 | -90 | 0 | 3 | 23BVRC268 - 1.00m @ 0.51g/t from 0m for (GxM 1) | |
| 23BVRC269 | 324299 | 6584235 | 390 | -90 | 0 | 3 | 23BVRC269 - 3.00m @ 0.52g/t from 0m for (GxM 2) | |
| 23BVRC270 | 324300 | 6584217 | 390 | -90 | 0 | 3 | ||
| 23BVRC271 | 324301 | 6584205 | 390 | -90 | 0 | 3 | 23BVRC271 - 3.00m @ 0.57g/t from 0m for (GxM 2) | |
| 23BVRC272 | 324301 | 6584190 | 390 | -90 | 0 | 3 | 23BVRC272 - 3.00m @ 0.57g/t from 0m for (GxM 2) | |
| 23BVRC273 | 324268 | 6584189 | 390 | -90 | 0 | 3 | ||
| 23BVRC274 | 324286 | 6584189 | 390 | -90 | 0 | 3 | 23BVRC274 - 2.00m @ 0.61g/t from 1m for (GxM 1) | |
| 23BVRC275 | 324286 | 6584204 | 390 | -90 | 0 | 3 | 23BVRC275 - 1.00m @ 0.5g/t from 1m for (GxM 1) | |
| 23BVRC276 | 324286 | 6584219 | 390 | -90 | 0 | 3 | 23BVRC276 - 2.00m @ 0.69g/t from 0m for (GxM 1) | |
| 23BVRC277 | 324271 | 6584235 | 390 | -90 | 0 | 3 | ||
| 23BVRC278 | 324222 | 6584235 | 389 | -90 | 0 | 3 | 23BVRC278 - 2.00m @ 0.71g/t from 0m for (GxM 1) | |
| 23BVRC279 | 324226 | 6584250 | 389 | -90 | 0 | 3 | 23BVRC279 - 1.00m @ 0.51g/t from 1m for (GxM 1) | |
| 23BVRC280 | 324227 | 6584265 | 389 | -90 | 0 | 3 | 23BVRC280 - 2.00m @ 0.8g/t from 1m for (GxM 2) | |
Market Announcement | Page 20 of 31
| Hole ID | Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Dip | Azimuth (MGA94) |
EOH (m) |
Intersection | |
|---|---|---|---|---|---|---|---|---|
| Bonnie Vale RC significant Intersections calculated | at 0.5g/t Au cut off and up to 3m internal dilution | |||||||
| 23BVRC281 | 324226 | 6584279 | 389 | -90 | 0 | 3 | 23BVRC281 - 1.00m @ 0.59g/t from 0m for (GxM 1) | |
| 23BVRC282 | 324230 | 6584291 | 389 | -90 | 0 | 3 | 23BVRC282 - 1.00m @ 0.58g/t from 2m for (GxM 1) | |
| 23BVRC283 | 324241 | 6584295 | 389 | -90 | 0 | 3 | 23BVRC283 - 1.00m @ 0.6g/t from 1m for (GxM 1) | |
| 23BVRC284 | 324241 | 6584280 | 389 | -90 | 0 | 3 | 23BVRC284 - 1.00m @ 0.56g/t from 0m for (GxM 1) | |
| 23BVRC285 | 324254 | 6584295 | 390 | -90 | 0 | 3 | 23BVRC285 - 3.00m @ 0.56g/t from 0m for (GxM 2) | |
| 23BVRC286 | 324254 | 6584280 | 390 | -90 | 0 | 3 | 23BVRC286 - 3.00m @ 0.86g/t from 0m for (GxM 3) | |
| 23BVRC287 | 324254 | 6584265 | 389 | -90 | 0 | 3 | 23BVRC287 - 2.00m @ 0.68g/t from 0m for (GxM 1) | |
| 23BVRC288 | 324256 | 6584250 | 389 | -90 | 0 | 3 | 23BVRC288 - 2.00m @ 0.65g/t from 0m for (GxM 1) | |
| 23BVRC289 | 324244 | 6584265 | 389 | -90 | 0 | 3 | ||
| 23BVRC290 | 324241 | 6584250 | 389 | -90 | 0 | 3 | 23BVRC290 - 1.00m @ 0.75g/t from 1m for (GxM 1) | |
| 23BVRC291 | 324237 | 6584235 | 389 | -90 | 0 | 3 | 23BVRC291 - 2.00m @ 1.42g/t from 0m for (GxM 3) | |
| 23BVRC292 | 324252 | 6584235 | 389 | -90 | 0 | 3 | 23BVRC292 - 3.00m @ 1.23g/t from 0m for (GxM 4) | |
| 23BVRC293 | 324271 | 6584205 | 390 | -90 | 0 | 3 | 23BVRC293 - 1.00m @ 0.79g/t from 1m for (GxM 1) | |
| 23BVRC294 | 324297 | 6584112 | 390 | -90 | 0 | 3 | 23BVRC294 - 1.00m @ 0.73g/t from 2m for (GxM 1) | |
| 23BVRC295 | 324310 | 6584117 | 390 | -90 | 0 | 3 | 23BVRC295 - 3.00m @ 0.73g/t from 0m for (GxM 2) | |
| 23BVRC296 | 324324 | 6584122 | 389 | -90 | 0 | 3 | 23BVRC296 - 3.00m @ 1.21g/t from 0m for (GxM 4) | |
| 23BVRC297 | 324338 | 6584127 | 390 | -90 | 0 | 3 | ||
| 23BVRC298 | 324353 | 6584132 | 389 | -90 | 0 | 3 | 23BVRC298 - 3.00m @ 0.87g/t from 0m for (GxM 3) | |
| 23BVRC299 | 324358 | 6584118 | 389 | -90 | 0 | 3 | 23BVRC299 - 1.00m @ 0.5g/t from 0m for (GxM 1) | |
| 23BVRC300 | 324344 | 6584113 | 389 | -90 | 0 | 3 | 23BVRC300 - 2.00m @ 0.66g/t from 0m for (GxM 1) | |
| 23BVRC301 | 324329 | 6584108 | 390 | -90 | 0 | 3 | 23BVRC301 - 2.00m @ 1.45g/t from 0m for (GxM 3) | |
| 23BVRC302 | 324315 | 6584103 | 390 | -90 | 0 | 3 | 23BVRC302 - 1.00m @ 0.8g/t from 0m for (GxM 1) | |
| 23BVRC303 | 324301 | 6584098 | 390 | -90 | 0 | 3 | 23BVRC303 - 2.00m @ 0.99g/t from 0m for (GxM 2) | |
| 23BVRC304 | 324303 | 6584086 | 390 | -90 | 0 | 3 | 23BVRC304 - 2.00m @ 0.95g/t from 0m for (GxM 2) | |
| 23BVRC305 | 324321 | 6584090 | 390 | -90 | 0 | 3 | 23BVRC305 - 2.00m @ 0.64g/t from 0m for (GxM 1) | |
| 23BVRC305.1 | 324334 | 6584094 | 390 | -90 | 0 | 3 | 23BVRC305.1 - 2.00m @ 2.26g/t from 0m for (GxM 5) | |
| 23BVRC306 | 324348 | 6584099 | 390 | -90 | 0 | 3 | ||
| 23BVRC307 | 324362 | 6584104 | 390 | -90 | 0 | 3 | 23BVRC307 - 1.00m @ 0.51g/t from 1m for (GxM 1) | |
| 23BVRC308 | 324440 | 6583940 | 387 | -60 | 220 | 48 | ||
| 23BVRC309 | 324449 | 6583966 | 387 | -56 | 228 | 66 | ||
| 23BVRC310 | 324452 | 6583998 | 387 | -58 | 228 | 78 | 23BVRC310 - 1m @ 0.74g/t from 61m for(GxM 1) | |
| 23BVRC310 - 1m @ 0.9g/t from 70m for (GxM 1) | ||||||||
| 23BVRC311 | 324397 | 6583939 | 388 | -60 | 220 | 30 | ||
| 23BVRC312 | 324406 | 6583970 | 388 | -60 | 220 | 48 | ||
| 23BVRC313 | 324413 | 6583998 | 387 | -60 | 216 | 66 | 23BVRC313 - 2m @ 0.66g/t from 51m for (GxM 1) | |
| 23BVRC314 | 324343 | 6583971 | 389 | -60 | 220 | 30 | ||
| 23BVRC315 | 324385 | 6584008 | 388 | -60 | 220 | 66 | ||
| 23BVRC316 | 324305 | 6583978 | 389 | -60 | 220 | 30 | ||
| 23BVRC317 | 324340 | 6584005 | 389 | -60 | 220 | 48 | ||
| 23BVRC318 | 324353 | 6584022 | 388 | -55 | 250 | 66 | ||
| 23BVRC319 | 324310 | 6584010 | 389 | -60 | 220 | 48 | ||
| 23BVRC320 | 324240 | 6584086 | 390 | -60 | 220 | 78 | 23BVRC320 - 1m @ 0.55g/t from 46m for(GxM 1) | |
| 23BVRC320 - 1m @ 1.66g/t from 62m for(GxM 2) | ||||||||
| 23BVRC320 - 4m @ 0.53g/t from 66m for(GxM 2) | ||||||||
| 23BVRC320 - 3m @ 0.73g/t from 72m for (GxM 2) | ||||||||
| 23BVRC321 | 324240 | 6584029 | 390 | -75 | 250 | 60 | 23BVRC321 - 1m @ 1.52g/t from 42m for (GxM 2) | |
| 23BVRC322 | 324302 | 6584045 | 389 | -60 | 220 | 66 | ||
| 23BVRC323 | 324340 | 6584064 | 388 | -58 | 204 | 84 | ||
| 23BVRC324 | 324308 | 6584089 | 390 | -50 | 220 | 96 | 23BVRC324 - 2m @ 2.99g/t from 94m for (GxM 6) | |
| 23BVRC325 | 324427 | 6583889 | 388 | -70 | 340 | 24 | ||
| 23BVRD007 | 324394 | 6584285 | 385 | -73 | 182 | 306 | 23BVRD007 - 6.00m @ 0.58g/t from 123m for(GxM 3) | |
| 23BVRD007 - 1.00m @ 0.53g/t from 133m for(GxM 1) | ||||||||
| 23BVRD007 - 1.00m @ 0.83g/t from 145m for(GxM 1) | ||||||||
| 23BVRD007 - 0.53m @ 0.82g/t from 286.7m for(GxM 0) | ||||||||
| 23BVRD007 - 0.60m @ 1.12g/t from 290m for (GxM 1) |
Market Announcement | Page 21 of 31
| Hole ID | Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Easting Northing RL (MGA 94 Zone 51) |
Dip | Azimuth (MGA94) |
EOH (m) |
Intersection | |
|---|---|---|---|---|---|---|---|---|
| Bonnie Vale RC significant Intersections calculated | at 0.5g/t Au cut off and up to 3m internal dilution | |||||||
| 23BVRD008 | 324391 | 6584285 | 385 | -79 | 194 | 312.2 | 23BVRD008 - 1.00m @ 1.24g/t from 154m for(GxM 1) | |
| 23BVRD008 - 0.40m @ 1.04g/t from 206m for(GxM 0) | ||||||||
| 23BVRD008 - 0.38m @ 1.42g/t from 213.62m for(GxM 1) | ||||||||
| 23BVRD008 - 7.37m @ 1.99g/t from 290.63m for (GxM 15) | ||||||||
| 23BVRD009 | 324389 | 6584286 | 385 | -69 | 200 | 273.3 | 23BVRD009 - 2.00m @ 0.98g/t from 111m for(GxM 2) | |
| 23BVRD009 - 1.15m @ 2.14g/t from 127.85m for(GxM 2) | ||||||||
| 23BVRD009 - 1.53m @ 0.9g/t from 159m for(GxM 1) | ||||||||
| 23BVRD009 - 0.43m @ 1.22g/t from 192.57m for(GxM 1) | ||||||||
| 23BVRD009 - 0.52m @ 0.54g/t from 202.62m for(GxM 0) | ||||||||
| 23BVRD009 - 2.32m @ 6.77g/t from 251.44m for (GxM 16) | ||||||||
| 23BVRD010 | 324473 | 6584257 | 384 | -65 | 203 | 288 | 23BVRD010 - 1.00m @ 0.62g/t from 0m for(GxM 1) | |
| 23BVRD010 - 6.00m @ 8.98g/t from 271m for(GxM 54) | ||||||||
| 23BVRD010 - 0.96m @ 0.68g/t from 282m for (GxM 1) | ||||||||
| 23BVRD011 | 324471 | 6584260 | 384 | -71 | 202 | 11 | ||
| 23BVRD012 | 324471 | 6584260 | 384 | -72 | 199 | 306.2 | 23BVRD012 - 2.00m @ 1.39g/t from 93m for (GxM 3) | |
| 23BVRD013 | 324467 | 6584258 | 384 | -64 | 214 | 276 | 23BVRD013 - 1.10m @ 0.57g/t from 119m for(GxM 1) | |
| 23BVRD013 - 0.68m @ 0.72g/t from 151m for(GxM 0) | ||||||||
| 23BVRD013 - 0.61m @ 0.64g/t from 221.64m for(GxM 0) | ||||||||
| 23BVRD013 - 4.00m @ 0.58g/t from 236m for(GxM 2) | ||||||||
| 23BVRD013 - 2.00m @ 2.76g/t from 257m for (GxM 6) | ||||||||
| 23BVRD021 | 324373 | 6584266 | 385 | -59 | 212 | 237 | 23BVRD021 - 1.00m @ 2.56g/t from 87m for (GxM 3) | |
| 23BVRD022 | 324372 | 6584267 | 385 | -59 | 223 | 120 | 23BVRD022 - 4.00m @ 0.95g/t from 96m for (GxM 4) | |
| 23BVRD023 | 324371 | 6584268 | 385 | -66 | 203 | 6 | ||
| 23BVRD024 | 324371 | 6584269 | 385 | -66 | 203 | 249.1 | 23BVRD024 - 0.88m @ 0.59g/t from 163.62m for(GxM 1) | |
| 23BVRD024 - 0.90m @ 3.98g/t from 218.4m for(GxM 4) | ||||||||
| 23BVRD024 - 2.53m @ 6.17g/t from 220.07m for (GxM 16) | ||||||||
| 23BVRD025 | 324246 | 6584327 | 387 | -73 | 211 | 253 | 23BVRD025 - 1.34m @ 13.59g/t from 212m for (GxM 18) | |
| 23BVRD026 | 324245 | 6584328 | 387 | -77 | 171 | 285.9 | 23BVRD026 - 12.00m @ 1.26g/t from 29m for(GxM 15) | |
| 23BVRD026 - 1.00m @ 0.71g/t from 48m for(GxM 1) | ||||||||
| 23BVRD026 - 1.45m @ 5.33g/t from 282.28m for (GxM 8) | ||||||||
| 23BVRD027 | 324244 | 6584328 | 387 | -81 | 218 | 282.8 | 23BVRD027 - 4.00m @ 5.24g/t from 235m for(GxM 21) | |
| 23BVRD027 - 1.00m @ 0.66g/t from 252m for (GxM 1) | ||||||||
| 23BVRD028 | 324247 | 6584352 | 386 | -78 | 232 | 282.9 | 23BVRD028 - 7.10m @ 21.56g/t from 244.9m for(GxM 153) | |
| 23BVRD028 - 1.98m @ 0.97g/t from 277.02m for (GxM 2) | ||||||||
| 23BVRD030 | 324405 | 6584223 | 385 | -68 | 208 | 234.1 | 23BVRD030 - 1.00m @ 0.75g/t from 117m for(GxM 1) | |
| 23BVRD030 - 0.54m @ 0.93g/t from 190.46m for(GxM 1) | ||||||||
| 23BVRD030 - 2.00m @ 0.89g/t from 195m for(GxM 2) | ||||||||
| 23BVRD030 - 3.00m @ 2.61g/t from 207m for (GxM 8) | ||||||||
| 23BVRD033 | 324285 | 6584302 | 390 | -71 | 211 | 240.1 | 23BVRD033 - 2.00m @ 0.72g/t from 0m for(GxM 1) | |
| 23BVRD033 - 1.00m @ 0.52g/t from 11m for(GxM 1) | ||||||||
| 23BVRD033 - 1.00m @ 1.87g/t from 52m for(GxM 2) | ||||||||
| 23BVRD033 - 1.00m @ 0.63g/t from 60m for(GxM 1) | ||||||||
| 23BVRD033 - 9.00m @ 3.19g/t from 71m for(GxM 29) | ||||||||
| 23BVRD033 - 0.73m @ 6.31g/t from 219.67m for (GxM 5) | ||||||||
| 23BVRD035 | 324332 | 6584293 | 385 | -71 | 208 | 258.8 | 23BVRD035 - 1.00m @ 1.55g/t from 77m for(GxM 2) | |
| 23BVRD035 - 1.00m @ 0.63g/t from 95m for(GxM 1) | ||||||||
| 23BVRD035 - 0.34m @ 0.58g/t from 142.66m for(GxM 0) | ||||||||
| 23BVRD035 - 0.32m @ 12.44g/t from 148.85m for(GxM 4) | ||||||||
| 23BVRD035 - 5.00m @ 0.69g/t from 224m for(GxM 3) | ||||||||
| 23BVRD035 - 1.08m @ 0.58g/t from 231.92m for(GxM 1) | ||||||||
| 23BVRD035 - 0.95m @ 0.5g/t from 236m for (GxM 0) | ||||||||
| 23BVRD037 | 324331 | 6584294 | 385 | -79 | 213 | 294.8 | 23BVRD037 - 5.00m @ 0.72g/t from 34m for(GxM 4) | |
| 23BVRD037 - 5.00m @ 0.81g/t from 60m for(GxM 4) | ||||||||
| 23BVRD037 - 1.00m @ 2.75g/t from 76m for(GxM 3) | ||||||||
| 23BVRD037 - 1.00m @ 0.54g/t from 86m for(GxM 1) | ||||||||
| 23BVRD037 - 1.00m @ 0.97g/t from 90m for(GxM 1) | ||||||||
| 23BVRD037 - 1.00m @ 0.78g/t from 99m for(GxM 1) | ||||||||
| 23BVRD037 - 1.00m @ 0.94g/t from 147m for(GxM 1) | ||||||||
| 23BVRD037 - 0.47m @ 0.68g/t from 250.6m for (GxM 0) |
Market Announcement | Page 22 of 31
| Criteria | Commentary |
|---|---|
| Hole ID Easting Northing RL Dip Azimuth EOH Intersection (MGA94) (m) 23BVRD041 - 1.00m @ 0.53g/t from 0m for(GxM 1) 23BVRD041 - 3.00m @ 2.14g/t from 51m for(GxM 6) 23BVRD041 - 1.00m @ 0.64g/t from 157m for(GxM 1) 23BVRD041 - 1.00m @ 4.69g/t from 179m for(GxM 5) 23BVRD041 - 0.30m @ 1.36g/t from 184m for (GxM 0) 23BVRD065 - 1.00m @ 0.5g/t from 4m for(GxM 1) 23BVRD065 - 1.00m @ 1.44g/t from 57m for(GxM 1) 23BVRD065 - 1.00m @ 1.32g/t from 104m for(GxM 1) 23BVRD065 - 1.00m @ 0.56g/t from 109m for(GxM 1) 23BVRD065 - 3.00m @ 13.92g/t from 118m for(GxM 42) 23BVRD065 - 3.62m @ 3.03g/t from 218m for (GxM 11) 23BVRD074 - 5.00m @ 7.17g/t from 133m for(GxM 36) 23BVRD074 - 8.00m @ 1.23g/t from 149m for(GxM 10) 23BVRD074 - 10.00m @ 6.38g/t from 164m for (GxM 64) (MGA 94 Zone 51) Bonnie Vale RC significant Intersections calculated at 0.5g/t Au cut off and up to 3m internal dilution 23BVRD041 204.9 238 -74 390 6584249 324280 23BVRD074 240.4 180 -60 390 6584305 324288 23BVRD065 204.6 179 -87 386 6584082 324470 |
|
| Data aggregation methods |
▪ Mineralised intersections are reported at a 0.5g/t Au cut-off with a minimum reporting width of 1m for RC holes and 0.2m for diamond holes, reported as length-weighted average grades. |
| Relationship between mineralisation widths and intercept lengths |
▪ Holes were drilled orthogonal to mineralisation as much as possible, however the exact relationship between intercept width and true width cannot be estimated exactly in all cases. |
| Diagrams | ▪ Refer to Figures and Tables in body of the release. |
| Balanced reporting | ▪ The majority of historic drill assay results used in this estimation are published in previous news releases. |
| Other substantive exploration data |
▪ There is no other material exploration data to report at this time. |
| Further work | ▪ Bonnie Vale underground development is part of FML’s Life of Mine plan. Ore Reserve compilation using the updated Mineral Resources is currently underway |
Market Announcement | Page 23 of 31
Section 3 Estimation and Reporting of Mineral Resources
(Criteria listed in section 1, and where relevant in section 2, also apply to this section)
| Criteria | Commentary |
|---|---|
| Database integrity | ▪ Data was geologically logged electronically; collar and downhole surveys were also received electronically as was the laboratory analysis results. These electronic files were loaded into an acQuire database by either consultants rOREdata or the company in-house Database Administrator. Data was routinely extracted to Microsoft Access during the drilling program for validation by the geologist in charge of the project. ▪ FML’s database is a Microsoft SQL Server database (acQuire), which is case sensitive, relational, and normalised to the Third Normal Form. As a result of normalisation, the following data integrity categories exist: ▪ Entity Integrity: no duplicate rows in a table, eliminated redundancy and chance of error. ▪ Domain Integrity: Enforces valid entries for a given column by restricting the type, the format, or a range of values. ▪ Referential Integrity: Rows cannot be deleted which are used by other records. ▪ User-Defined Integrity: business rules enforced by acQuire and validation codes set up by FML. ▪ Additionally, in-house validation scripts are routinely run in acQuire on FML’s database and they include the following checks: • Missing collar information • Missing logging, sampling, downhole survey data and hole diameter • Overlapping intervals in geological logging, sampling, down hole surveys oChecks for character data in numeric fields ▪ Data extracted from the database were validated visually in Datamine Studio software and ARANZ Geo Leapfrog software. Also, when loading the data any errors regarding missing values and overlaps are highlighted. |
| Site visits | ▪ Alex Aaltonen, the Competent Person for Sections 1 and 2 of Table 1 is FML’s General Manager of Exploration and Geology, conducts regular site visits. ▪ Hannah Kosovich, the Competent Person for Section 3 of Table 1 is FML’s Resource Geologist and has conducted site visits in the past. |
| Geological interpretation |
▪ All available drill hole and historic mining data was used to guide the geological interpretation of the mineralisation. ▪ An approximate cut-off grade of 0.5g/t was implemented. Some internal dilution was included for consistency. ▪ The mineralised geological interpretation was constructed in Seequent Leapfrog Geo software. ▪ A re-model of the Quarry Lode has been undertaken from the previous 2020 release following the increased drilling density, new structural data and improved geological understanding of the deposit. ▪ Mineralisation at Bonnie Vale is hosted in discrete quartz lodes within brittle-ductile shear zones cross cutting the Bonnie Vale granodiorite intrusive. Geological continuity between drill holes of both quartz veins, shears and lithology is considered good and is further improved by a network of oriented diamond core drilled since 2021. The quartz veins are typically weakly laminated and contain mostly massive, milky quartz. Individual mineralised veins range form 5cm to more than 3m width. Gold mineralisation is considered to be entirely within the quartz veins and occurs as microscopic to nugget size free gold. ▪ Acknowledging that gold mineralisation is restricted to Quartz veining meant that logged geology, specifically the presence of quartz veining, was used to guide the mineralisation interpretation. ▪ During 2022 FML drilled 12 oriented diamond core holes targeting the Quarry lode. This provided additional structural data which aligned with lithological logging further guided the geological interpretation specifically regarding vein orientation. |
Market Announcement | Page 24 of 31
| Criteria | Commentary |
|---|---|
| ▪ The location and orientation of historic underground stopes and workings provided evidence to support the modelled orientations in areas with less diamond drill core. ▪ A number of separate and distinct mineralised zones have been identified striking ENE and dipping moderately ~ 40° - 50° NNE to NE. In total 56 individual lodes were modelled at the Quarry lode and NW towards and within the historic Bonnie Vale Mining Centre. ▪ Within 5 of these larger lodes smaller internal high-grade shoots were identified and modelled as separate domains. ▪ Minor deviation only of the lode geometry was noticed between drill holes along strike and down-dip. ▪ In 2023 FML drilled a further 73 RC holes and 23 oriented diamond core holes to infill and extend the mineralisation model. These holes were successfully incorporated into the geological interpretation and resulted in a further 14 individual lodes and 1 internal high-grade shoot being modelled. ▪ The tails stockpiles were interpreted in Leapfrog Geo software with solids constructed within the surveyed tails around zones of consistently thicker mineralisation. Cut off for the previously milled quartz vein tails is estimated at 0.4 g/t and mineable/recoverable volumes have been built that exceed this cut off. Furthermore, where consistently higher metal content areas were delineated, these were sub domained and estimated separately. |
|
| Dimensions | ▪ The upper part of the Quarry Lode and adjacent hangingwall lodes was infilled predominantly with RC at 20m x 30m spacing between 315mRL (75m below surface) to surface. Limited mainly lower grade mineralisation was intersected in this region. Furthermore the drilling was extended to the ENE at 40m x 80m spacing in the vicinity of the Bonnie Vale Reef as a first pass to gauge potential for shallow mineralisation amenable to open pit extraction. The majority of the shallow mineralisation ranged in width between 1m and 2m thickness. Strike of shallow mineralisation has been extended beyond 400m ▪ The main high grade part of the Quarry Lode extends ENE over a strike length of about 500m and from about a depth of about 75m below surface (315mRL) to approximately 480m below surface (-100mRL). The thickness of the main Quarry Lode varies from 2m to approximately 16m, with an average thickness of 7-8m between 315m RL and 135mRL (250m vertical depth range). Below about 135mRL the quarry lode becomes slightly steeper and narrows to 1-2m width. ▪ The historic Bonnie Vale tails stockpiles averaged 2.5 ~ 3.5m thick with variable extents. The largest extending over 200m x 90m wide, smaller tails around 70m x 60m. Within each stockpile the recoverable volumes varied from 880m3 to 18,738m3. |
| Estimation and modelling techniques |
▪ An Ordinary Kriging (OK) estimate was run on the Insitu Bonnie Vale resource using Datamine software, following the process below: ▪ Drill hole data was selected within mineralised lodes and then within the internal HG core. ▪ All domain boundaries were considered “hard” boundaries and no drill hole information was used by another lode in the estimation. This includes the HG core lodes. Where lodes intersected, priority was assigned to one of the lodes and samples/blocks assigned to that particular lode and removed from the lower priority one. ▪ All drill hole data was composited to 1m downhole intervals – 1m is the dominant raw sampling interval. ▪ The composited assay values of each lode were imported into Snowden Supervisor for geostatistical analysis. ▪ A review of histograms, probability plots and mean/variance plots for each lode revealed some outlier sample values. ▪ Top capping of higher Au values within each lode was carried out with Au values above the cut-off grade reset to the cut-off grade. Not all lodes were top cut. ▪ The different lodes have different top-cuts as required, a maximum top-cap of 70ppm was used for one of the HG core lodes with an average of 4ppm Au used in the surround lodes. |
Market Announcement | Page 25 of 31
| Criteria | Commentary |
|---|---|
| ▪ Variography was carried out in Datamine Supervisor software, given the negatively skewed nature of the gold grades the data was transformed to normal scores distribution before being back transformed to original units before exporting. ▪ Variography was performed on the individual lodes with larger sample numbers, in total 6 variograms were modelled. ▪ These models were shared with the other lodes of similar orientation and proximity. ▪ The back-transformed variogram models had moderate to high nugget effects (20% to 55% of total sill), with a range from 35m to 142m. ▪ No “unfolding” of the mineralised wireframes was required. ▪ Estimation (via Ordinary Kriging) was into a non-rotated block model in MGA94 grid, with a parent block size of 10 mE x 10 mN x 5 mRL – this is about the average drill spacing in the deposit. Sub-blocking was used to best fill the wireframes and inherit the grade of the parent block. ▪ The ellipsoid search parameters used the variogram ranges, with a minimum of 8 and maximum of 18 samples per block estimate was used. After the first pass 53% of blocks had estimated. For un-estimated blocks after this first pass, the search distance was expanded by a factor of two and the minimum number of samples dropped to 4. In the second pass 45% of blocks estimated. A third pass was then run with an increased search distance by a factor of four and the minimum number of samples remaining at 4. Only 2% of blocks were estimated in the third search pass. ▪ After an initial validation it was determined a few lodes had over-estimated, the high- grade core within Lodes 1, 2 and 7 as well as three other lodes, 15, 16 and 44. A grade restricted search method was implemented to reduce the higher sample grades over- influencing block grades where lower samples exist. ▪ For Lode 1 HG core samples greater than 20ppm Au were restricted to within a 20m search ellipse orientation distance. For four of the other lodes samples greater than 8ppm Au were restricted to a 20m search ellipse orientation distance. At Lode 15 a 2ppm Au restriction was implemented. ▪ The estimate was validated by visually stepping through the estimated blocks and sample data in Datamine. Comparing the estimated block statistics with composited sample data and generate trend (Swath) plots to ensure the estimate was honouring the trends of the data. Also, a review of the output parameters from the estimation process like kriging variance, negative weights, search distances and sample numbers. ▪ The tails stockpiles were estimated in Datamine software by Inverse Distance (ID2) into a separate unrotated block model in MGA 94 grid, with a parent block size of 5 mE x 5 mN x 1 mRL – ½ the average drill spacing. Sub-blocking was used to best fill the wireframes and inherit the grade of the parent block. The sample spacing was all 1m and no compositing was required. A top cap of 3ppm Au was applied to only 2 samples. An isotropic search distance of 50m x 50m x 5m was run with a minimum of 4 samples and a maximum of 8 samples to estimate a parent block. After the initial first pass only a small handful of blocks had not estimated and were assigned the average grade of the surrounding estimated blocks. |
|
| Moisture | ▪ Tonnages are estimated on a dry basis. |
| Cut-off parameters | ▪ The Mineral Resource for Bonnie Vale have been reported above a 0.5g/t Au cut-off for open pit Mineral Resource above the 315mRL and a 1.5g/t Au cut-off for the Mineral Resource below the 315mRL. This is based on a gold price of AUD $2,200. ▪ The tails stockpiles have only been reported within mineable/recoverable volumes that exceed 0.4ppm Au cut-off. ▪ Operating costs considered include underground mining, transport to and processing at FML’s Three Mile Hill processing plant (10km away) and administration. |
| Mining factors or assumptions |
▪ Following on from the 2020 PFS update, a Life of Mine (LOM) plan was released on 24th October 2022 outlining the underground LOM mine plan for Bonnie Vale. ▪ The Three Mile Hill Processing Plant (TMH Plant) has achieved practical completion |
Market Announcement | Page 26 of 31
| Criteria | Commentary |
|---|---|
| and is currently being commissioned (ASX 21/07/2023). ▪ Future reclamation of the tails stockpiles is anticipated with haulage to, and processing at TMH Plant 9km to the south. Given the material represent previously milled quartz veins it is likely that this material can be blended for processing without displacing primary material considered by the life of mine plan. |
|
| Metallurgical factors or assumptions |
Bonnie Vale Quarry Lode Primary Mineral Resource Metallurgical test work One RC sample from Bonnie Vale Quarry Lode was tested for gold recovery by ALS in 2015 report A167726 Three representative composite RC samples of were tested from Bonnie Vale Quarry Lode for gold recovery by ALS in 2017 report A17943 Bonnie Vale Historical Tails Mineral Resource metallurgical test work Two composite metallurgical samples were compiled from 2023 RC grade control drilling. The sample selection was representative for lower grade and higher grade domains. Gold recovery for lower grade domain material was 72% and gold recovery for higher grade domain was 78% |
| Environmental factors or assumptions |
▪ The Quarry Reef occurs within the historic Bonnie Vale mining centre with previous ground disturbances including waste dumps and milling residues/tailings. ▪ The PFS Environmental assumptions included the mine plan utilising all waste generated as mine fill. |
| Bulk density | ▪ Bulk densities were assigned based on weathering profile and rock type. A density of 2.65 t/m3 was used for modelled quartz veins regardless of weathering. Values used are based on test work carried out on ½ diamond core. The water immersion technique was used for these determinations. Oxide Ultramafic (UM) and Felsic Granodiorite (FGD)= 2.0t/m3; transitional FGD=2.4/m3 and Fresh FGD=2.66/m3; transitional UM=2.7/m3 and Fresh UM=2.9/m3. ▪ A bulk density of 1.6 t/m3 was applied to the tail’s stockpiles. This figure is based on the approximate bulk density of sand similar to the processed quartz material. |
Market Announcement | Page 27 of 31
| Criteria | Commentary |
|---|---|
| Classification | ▪ Resources have been classified as either Indicated or Inferred based mainly on geological confidence in the geometry/continuity of the lodes and drill density. In addition, various estimation output parameters such as number of samples, search pass, kriging variance, and slope of regression have been used to assist in classification. ▪ The SE portion of the main Quarry Lode has been infill drilled on an irregular grid but averages 20m x 30m and a large proportion of the lodes filled in the first pass. A shape was created to code blocks within as Indicated. Lodes outside this shape were also classed as Indicated if they filled in the first search pass and had sufficient drill coverage. Remaining blocks that filled in predominantly the second search pass were classified as Inferred, with drill spacing averaging 50m x 50m. Lodes that had been extended based on 1 or 2 holes were classified as Sub-Inferred, below reportable classification and are future exploration targets. ▪ The tail’s stockpiles have been classified as Indicated with 10m x 10m spaced drilling. |
| Audits or reviews | ▪ No external audits of the mineral resource have been conducted. |
| Discussion of relative accuracy/ confidence |
▪ This is addressed in the relevant paragraph on Classification above. ▪ The Mineral Resource relates to global tonnage and grade estimates. ▪ Bonnie Vale has historic production from 1894 to 1911 with recorded production figures of 176,883oz at an average grade of 16.2 g/t, the grade matches well with this Mineral Resource estimate of the high-grade core. |
Section 4 Estimation and Reporting of Bonnie Vale Underground Ore Reserve is outlined below.
| Criteria | Commentary |
|---|---|
| Mineral Resource estimate for conversion to Ore Reserves |
▪ The Ore Reserve estimate is based on the June 2023 Resource Model (BONNIEVALE260623M.dm) ▪ The Mineral Resource is reported inclusive of the Ore Reserve. |
| Site visits | ▪ The Competent Person is a full time Focus Minerals employee and makes regular visits to the site. |
| Study status | ▪ A Pre-Feasibility study was completed by Mining One mining consultants in September 2020. ▪ The current mine design and economic evaluation is based on further studies completed in- house byFocus Mineralspersonnel. |
| Cut-Off grade parameters |
▪ Break-even Cut-Off grades (C.O.G) have been calculated using latest cost inputs from Contractor Mining budget Rates, relevant suppliers’ quotations and estimates benchmarked with similar mining operations in the region. ▪ A Gold price of A$2,500/oz has been used. ▪ A Processing recovery of 95.8% has been applied. ▪ The mining method planned to be utilised is mechanised jumbo development and longhole stoping with a combination of backfilled and open stopes. ▪ For the first pass design of economic stopes, a Stope Incremental Cut-Off grade which does not include capital and operating development costs but includes all other operating costs including stoping, processing and mine general and administration (G&A) overhead costs has been used in the Deswik Stope Optimizer inputs. ▪ Stope dilution parameters discussed under ‘Mining factors or assumption’ have been incorporated. ▪ Stopes have been re-evaluated after inclusion of dilution to take out any stopes that fall below the relevant Cut-Off grades. ▪ Then, the economics of miningeach individual level has been evaluated based on all capital and |
Market Announcement | Page 28 of 31
| all operating costs required to mine the level. These costs are a combination of level direct costs and shared costs which have been apportioned based on total mined material. Two of the fourteen planned levels have been evaluated to be uneconomic at the $2,500/oz gold price used in the evaluation. Those two levels have not been included in the estimated Ore Reserve. There is potential for the two becoming economic with grade control drilling. ▪ Various Cut-Off grades have been used in estimating the reported Ore Reserve oA Fully Costed Stope C.O.G of 3.05g/t which covers for all costs (mining, processing and mine G&A. oA Level Costed Stope C.O.G of 2.47g/t which excludes capital costs but includes ore drive development costs and all other operating costs including processing and mine G&A. oAn Incremental Stope C.O.G of 2.10g/t which excludes all development costs but includes all other operating costs including processing and mine G&A. oAn Incremental Stope C.O.G of 1.87g/t similar to the one above but is for stopes planned to have no backfill. oA development Ore C.O.G of 0.50g/t has been used for determining whether development material is hauled to ore or to waste. This C.O.G covers for surface haulage and processing costs only. ▪ 93% of the estimated Ore Reserve is comprised of stopes and development ore that meets the fullycosted stope C.O.G of 3.05g/t. |
|
|---|---|
| Mining factors or assumptions |
▪ The mining method planned to be utilised is mechanised jumbo development and longhole stoping with a combination of backfilled and open stopes. The planned backfill is a combination of cemented rockfill (CRF) and loose rockfill. ▪ The stoping sequence is planned to be a bottom-up mining sequence in blocks of three to four levels. ▪ This mining method has been and is being utilised successfully in comparable and similar orebody size, configuration, and ground conditions in Western Australia and elsewhere. ▪ Geotechnical studies have been completed by external Geotechnical consultants to determine stable stope sizes and geometries. ▪ The orebody is generally flat with the dip ranging from 40 to 55 degrees. ▪ Level intervals are planned to be 15m floor to floor in shallow dipping areas of the orebody and increased to 18m in areas with steeper dip. The objective is to minimise stope spans, stope ore dilution and support the efficient mining of the stopes. ▪ Ore drives are planned to be a minimum of 4.0m wide. ▪ A conservative stope strike length of 25m has been planned before the placement of backfill to maintain geotechnical stability. Where there is no top access for the placement of backfill, rib pillars are planned to be left in-situ to maintain geotechnical stability. The recommendations from the completed geotechnical study have longer stope strike lengths. ▪ Mineable stope shapes were created using the Deswik Software, Stope Optimiser (SO). ▪ A minimum stope mining width of 1.8m was applied to the stope design process. The orebody true thickness ranges from about 1m to 10m wide. ▪ An additional planned stope dilution of 0.5m hangingwall and 0.5m footwall was applied in the SO input parameters in line with the expected Equivalent Linear Overbreak Slough (ELOS) from the stope stability curve derived in the Geotechnical studies. ▪ An additional stope dilution of 10 % was applied in the Deswik production scheduling software (Deswik.Sched). ▪ No additional dilution was applied to the ore drives. ▪ All dilution has been applied with a grade of (zero) 0g/t. ▪ Stope shapes were created using gold grade as the SO optimisation field with the Incremental Stope Cut-Off grade applied. ▪ Stopes were re-evaluated after the application of the additional 10% mining dilution to take out of the Ore Reserve the stopes with grades lower than relevant Cut-Off grades. ▪ Mining recoveries were applied in the Deswik.Sched as follows: ▪ Mining recovery for backfilled stopes – 98% ▪ Mining recovery for open stopes – 83% ▪ Mining recovery for development ore – 100% ▪ Any Inferred Mineral Resources that could not be selectively excluded from the stope design shapes were assigned (zero) 0g/t. Any such stopes were re-evaluated to check if they still met |
Market Announcement | Page 29 of 31
| the relevant Cut-Off grades. | |
|---|---|
| Metallurgical factors or assumptions |
▪ The Bonnie Vale underground mine ore is planned to be processed at the existing refurbished Three Mile Hill processing plant owned and operated by Focus Minerals. The processing plant utilises a conventional carbon-in-pulp (CIP) circuit, which is appropriate for the type of mineralisation. ▪ The CIP process is a conventional gold processing method commonly used in similar operations worldwide and is well tested and proven. ▪ The Bonnie Vale underground mine ore will be blended with other Focus Mineral ore sources. ▪ A metallurgical recovery of 95.8% has been applied in line with the 3% discounted recovery determined by the Metallurgical studies completed in the 2020 Pre-Feasibility studies. ▪ There are no known deleterious elements expected in the Bonnie Vale underground mine ore. |
| Environment al |
▪ The Bonnie Vale underground mine is located wholly within granted Mining Leases. ▪ Heritage surveys have been completed for the underground mine area. No Aboriginal sites were identified and liaison with Native Title Applicants is in progress. ▪ Various Environmental studies have been completed. ▪ The preparations for the documentation required for the applications for all required Environmental Approvals are in the final stages and all submissions are expected to be lodged before mid-December 2023. ▪ There are no known potential issues that are expected that may preclude or delay the granting of the approvals. ▪ There are no significant environmental factors that are expected to be encountered regarding the disposal of waste material. |
| Infrastructure | ▪ The project will need all the relevant supporting surface and underground infrastructure. ▪ The purchase and installation costs for all the required infrastructure has been included in the economic evaluation of the project. ▪ Power will be provided by diesel Gensets. ▪ Raw water will be supplied from existing bores and from pumping any water intercepted in the new underground excavations. ▪ The site is serviced byan existinghaul road which is capable of handling125t road trains. |
| Costs | ▪ The costs used to derive this Ore Reserve estimate are based on Contractor Mining budget rates, relevant suppliers’ quotations and estimates benchmarked with similar mining operations in the region. ▪ Ore haulage costs are based on the currently engaged haulage contractor’s rates. ▪ Freight for mining consumables is included in the mining contractor schedule of rates. ▪ Ore processing costs are based on the Focus Minerals’ Three Mile Hill Processing plant processing costs. There are No penalties or specifications. ▪ Allowance has been made for royalties as follows: ▪ 2.5% for State Government royalty and, ▪ an allowance for Native Title royalty pending commercial agreement. ▪ There are no known deleterious elements, as such no allowance has been made. ▪ All costs have been estimated in Australian dollars. |
| Revenue factors |
▪ Economic evaluation is based on a gold price of A$2,500/oz. ▪ The cashflow has been modelled in real terms and no price or cost escalations were applied. |
| Market assessment |
▪ Gold is planned to be sold to Perth Mint at spot price. ▪ There are no hedging arrangements currently in place. |
| Economic | ▪ Inputs to economic analysis are based on costs, processing parameters and gold price assumptions discussed in the sections above. ▪ Discounted cashflows were carried out to determine relative NPV using a 7% annual discount rate. ▪ The project shows a strong positive NPV based on the inputs and assumptions used in the evaluation. |
| Social | ▪ The Bonnie Vale Underground mine project is located on granted mining leases. ▪ A Social Impact Assessment was completed by 360 Environmental for the Bonnie Vale Project to assist with identifying and managing the key stakeholders. ▪ Focus Minerals is in the process of securing all relevant agreements with local stakeholders and |
Market Announcement | Page 30 of 31
| government agencies and these are planned to be in place before the start of operations. | |
|---|---|
| Other | ▪ No identifiable naturally occurring risks have been identified to impact the Ore Reserves. |
| Classification | ▪ Mineral Resources have been converted to Ore Reserve as per JORC 2012 guidelines, i.e., Measured to Proven, Indicated to Probable. ▪ The Ore Reserve includes 1% of the total ore tonnes which are in the Inferred resource category. These ore tonnes have been assigned a grade of zero (0)g/t. This Inferred resource material could not be selectively excluded from the stope design shapes. ▪ The estimated Ore Reserve is classified as Probable as there are no Measured ore resources. |
| Audits or reviews |
▪ The Ore Reserve has been estimated by Focus Minerals personnel. The cost and mining parameters were reviewed internally and benchmarked against operations with similar orebodies and operating structures. ▪ No external audits were carried out. |
| Discussion of relative accuracy/ confidence |
▪ In the opinion of the Competent Person, the modifying factors and cost assumptions used in generating this Ore Reserve estimate are reasonable. ▪ No statistical procedures were carried out to quantify accuracy of the Ore Reserve estimate. |
Market Announcement | Page 31 of 31