The Conversation (0)
McLaren Minerals Limited (ASX: MML) ("McLaren" or "Company"), is pleased to provide an update on the drilling program at its wholly owned McLaren Titanium Project.
Highlights
- Drilling has consistently intersected visible heavy minerals
- Additional 10m of mineral hosting sediments identified in northern area
- Metallurgical sample collected and dispatched for test work
- Pressurised saline water encountered in several holes on northern drilling lines
- Gypsum occurrence confirmed in north-western corner of EL69/2388
- First parcel of analytical samples has been dispatched to Perth for analysis
McLaren Minerals are currently exploring the McLaren Deposit located approximately 40km west of Balladonia in Western Australia by means of Air Core drilling and surface geological investigations. The 2025 exploration program is progressing well and is approximately 40% complete.
The drilling program, targeting infill drilling to a previously interpreted mineral sands strandline, should be complete by mid-April. Onsite geologists have confirmed visual mineralisation within targeted sediments and are encouraged by the consistent nature of mineralising orientation. It should be noted that visual estimates recorded during drilling activities and laboratory results do not always align.
Heavy Mineral Consistently Intersected
Drilling consistently intersected sediments hosting Heavy Minerals (HM) and it is interpreted to occupy paleo marine sediments below modern cover and are predictably identified within the elevated topographic feature. The mineral hosting sediments are observed to gently rise in an easterly orientation and overlay crystalline basement displaying a consistent heavy mineral assemblage dominated by Ilmenite and observed to contain a relatively low level of trash minerals. It is noted that a vertical extension to the historical drilling has been identified in the northern area, with current drill holes intersecting an additional 10m of mineral hosting sediments to those previously interpreted. Heavy Mineral present in the metallurgical sample grid is consistent along strike within the mineralizing beds and displays predictable mineral composition. Figure 1 below displays visual confirmation of HM observed during metallurgical test holes within the current 2025 infill drilling activities.
Figure 1: HM in drillholes - Left Image MM01, central image MM06, right image MM57
Metallurgical Sample
The samples of mineralised sediments required for metallurgical test work at IHC Mining laboratory in Queensland have been collected and dispatched. The samples were taken from 69 drillholes with those holes broadly representative of the first 5 years of planned operations (Please see Figure 2 below).
The sample equated to approximately 6 tonnes of material and will be used to validate the flowsheet designed by IHC and to complete follow up tests to allow development of a slimes management strategy for McLaren. As per previous test work (ref APS ASX Announcement 24 Sept 2024) slimes settling was achieved using addition of 3% gypsum, resulting in significant improvement in flocculant dosing rates, down to 150-200g/t.
The test work produced final products of:
- Ilmenite of a suitable grade to be classified as sulphate ilmenite
- Rutile of a typical quality with 95.7% TiO2, 1.49% Fe2O3,
- Zircon of a typical standard zircon quality, noting levels of U + Th at 265ppm were considered very low.
Water Encountered
In very positive news, pressurised water has been encountered in 3 holes being drilled in the north-western part of the known deposit area. In these holes saline water flowed freely from the hole while the rods were downhole, and in the second hole the water flow continued after rods were withdrawn and until the hole was plugged.
The groundwater occurs within a gravel terrace draping basement clays and occurs at shallow depth (approximately 20m). The crystalline basement below saprolite clays display an amount of alteration consistent to a shearing environment. The location is identifiable in regional geophysics data adjacent to a small-scale faulting feature striking approximately north south. It is likely that the gravel terrace was formed in a fluvial drainage feature, eroding and incising the softer sheared zones in the basement, later confined by overriding cover units. Further investigation will be required to determine whether the water is of sufficient volume and quality to support operations.
Click here for the full ASX Release
This article includes content from McLaren Minerals Limited, licensed for the purpose of publishing on Investing News Australia. This article does not constitute financial product advice. It is your responsibility to perform proper due diligence before acting upon any information provided here. Please refer to our full disclaimer here.
Scoping Study Delivers Robust Economics and Upside Potential
This Scoping Study considers the advancement of Tardiff, a Rare Earth and Niobium project located in the NWT of Canada and 100% owned by Vital Metals. This Study evaluates development of a hard rock starter open pit that extracts only 15% of the total Tardiff Mineral Resource Estimate of 192.7Mt at 1.3% Total Rare Earth Oxide (TREO). The adjacent 100% owned North T and South T deposits have not been included as part of this Study.
Highlights:
- Scoping Study delivers robust financial outcomes of:
- Pre-tax NPV8 of US$776M and 32% IRR
- Post-tax NPV8 US$445M and 25.5% IRR
- Base case commodity pricing of US$90/kg of neodymium (Nd) and praseodymium (Pr), US$1322/kg for terbium (Tb) and US$338/Kg for dysprosium (Dy). The breakeven price for NdPr using all other prices from the base case is US$33.68/ kg.
- Average annual production estimate of 56kt of concentrate at a grade of 26.4% TREO and 3.3% Nb2O5, with 45.1% global TREO recovery over an initial 11-year life of mine (LOM). Average annual Rare Earth Element (REE) production is estimated to be: 2.9kt of Nd, 0.9kt of Pr with less than 100 tons each of Dy and Tb.
- Further infill drilling should increase the size and confidence of the resource supporting a longer LOM and thereby expanding project economics.
- Pit design targets a daily production of 14,000 tpd (approx. 3,000,000 tpa) with a very low 0.3:1 stripping ratio.
- Capital cost estimated at US$291 million (A$455 million), including a 35% contingency of US$68M; operating cost estimated at US$24/dry metric tonne mined (includes a 20% contingency).
- The Study states that building a Canadian supply chain will be preferred for the project’s success. The Canadian Rare Earth Supply Chain Consortium, in which Vital plays a founding role, will foster the collaboration between industry, government and technical partners to expedite the timeline from lab, and pilot work and demonstration plant to be ready to scale to commercial production of separated metals, permanent magnets and wind turbines.
- To potentially improve the project’s economics, the Study recommends advancing to a prefeasibility Study (PFS) with additional extensive metallurgical testing to:
- Optimize TREO and niobium recoveries;
- Prove the payability of niobium; and
- Test the recovery of zircon.
Vital Metals’ Managing Director Lisa Riley said: "The Study is an essential step towards moving the Project forward. It is a first step towards Vital playing a key role in building critical minerals supply chain in Canada. The Study has outlined the potential to build a viable, long- term rare earths and niobium project at Tardiff. Recommended next steps will aim to capture further economic upside by optimizing REE and Nb recoveries, lifting concentrate grades and delivering higher payability for the economic commodities.”
Figure 1: Vital Metals' Nechalacho Project, Canada
Click here for the full ASX Release
This article includes content from Vital Metals, licensed for the purpose of publishing on Investing News Australia. This article does not constitute financial product advice. It is your responsibility to perform proper due diligence before acting upon any information provided here. Please refer to our full disclaimer here.
