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Impact Minerals Limited (ASX:IPT) is pleased to announce that in collaboration with CPC Engineering and the Mineral Recovery Research Centre (MRRC) at Edith Cowan University, they have been awarded a grant of $2.87 million grant towards the commercialisation of the company’s innovative process to produce High Purity Alumina (HPA) from the Lake Hope deposit located 500 km east of Perth in Western Australia. HPA is on the list of critical minerals for Australia, Europe, and North America.
The grant is provided under the Federal Government’s Cooperative Research Centres Projects (CRC-P) program which fosters short-term, industry-led research collaborations. The grant is part of an estimated $6.4 million research and development project to be completed within three years and designed to provide Impact with the relevant information required to complete a Definitive Feasibility Study in that time frame. A key component of the grant funding will be to construct a pilot plant, which is a key goal for 2025, and this will provide consistent material for off-take and qualification trials.
Impact Minerals’ Managing Director Dr Mike Jones with Eugenia Phegan of CPC Engineering andAssociate Professor Amir Razmjou of the Mineral Recovery Research Centre at ECU holding a pilot scale Membrane.
Impact Minerals’ Managing Director Dr Mike Jones, said, “We are immensely proud to drive this transformative project, which aligns with and advances Australia’s strategic interests in critical minerals. We thank Minister Husic for his personal interest in the project as this federal funding not only underscores the national importance of our work but also enhances our capability to implement world- leading technologies that set new standards in sustainability and efficiency in the mineral sector. Being able to commence work on our pilot plant and the subsequent feasibility studies with the world-leading research of Edith Cowan University and the unique skills and experience of CPC Engineering will position Impact Minerals at the forefront of the global HPA market, ready to meet increasing demands with a sustainably produced, high-quality product. The project is scheduled to advance from initial trials to a definitive study phase swiftly, ensuring timely delivery of HPA and fertilizer samples to potential customers and partners. This grant and likely contributions from the R and D rebate will ensure our next stage of work after the PFS will be well funded.”
The research project brings together three groups with the unique assets and skills to bring the Lake Hope project to fruition.
Impact has developed innovative metallurgical processes to produce HPA and fertiliser by-products from the salts in the Lake Hope deposit, which will be mined and trucked to Kwinana for processing. The mining and processing will have a minimal environmental footprint, with no on-site beneficiation required at the mine, nominal long-term rehabilitation requirements and one of the lowest Scope 1 and Scope 2 CO2 emissions of any HPA production process globally (ASX Release June 19th 2024).
The Mineral Recovery Research Centre at ECU, led by Associate Professor Amir Razmjou, is a world leader in Membrane Selective Technology (MST) in which plastic or ceramic membranes are used to remove a wide variety of contaminants from reagents and water. The technology is well-established in water treatment, and the MRRC is adapting the technology to the mining industry.
Impact believes MST to be a further game changer for producing HPA, and in particular, for cost-effective reagent regeneration and removal of contaminants in waste water. This, in turn, will lead to lower energy costs, emissions and, in particular, operating costs for the project. It adds to the overall small environmental footprint of the Lake Hope project and the research aims to design a “zero-liquid discharge” project to minimise or even eliminate waste from the process.
CPC Engineering is completing the engineering design studies and estimates of the operating and capital costs for the proposed 10,000 tonnes per annum HPA plant as part of Impact’s Pre-Feasibility Study on Lake Hope (ASX Release October 9th 2024). Eugenia Phegan of CPC, who has previous experience in building HPA pilot plants, recognised the potential of MST for Lake Hope and Impact thanks her for her insight and energy in helping design and complete the grant application as well as her on-going contribution to the Lake Hope journey.
CPC will design, build and manage the pilot plant under the research project. In addition, Impact will also work with ECU and CPC to generate new uses for HPA.
About the Grant and Future Directions
The CRC-P grant of $2.87 million aims to foster the development of competitive, sustainable, and productive Australian industries through strategic research collaborations. Impact Minerals, along with its partners, will fund the remainder of the $6.4 million project, being $3.53 million, with cash and in-kind contributions. Impacts contribution will be about $1.7 million, much of which will be potentially eligibility for the Research and Development rebate of 43%.
Click here for the full ASX Release
This article includes content from Impact Minerals, 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.
IPT:AU
Empire Metals Limited Announces Breakthrough in Process Development
Empire Metals Limited, the AIM-quoted and OTCQB-traded exploration and development company, is pleased to report significant progress in metallurgical testwork at its Pitfield Project in Western Australia ('Pitfield' or the 'Project'). These results confirm that the weathered ore at Pitfield can be processed using conventional separation and refining techniques, delivering industry-leading recoveries and a high-purity titanium dioxide (TiO₂) product.
Highlights
- Exceptional flotation performance: Recoveries of 77% (rougher stage) and 90% (cleaning stage) from fine, weathered ore samples.
- Outstanding leach results: Direct acid bake and hot-water leach achieved 98% titanium dissolution, leaving inert quartz residues.
- High recoveries: Overall titanium recovery from flotation feed to final product is circa 67% and expected to improve with further optimisation of the mineral separation stages.
- High-purity final product: TiO₂ grading 99.25% with negligible impurities, suitable for titanium sponge metal or pigment production.
- Cost and environmental advantages: Low Fe₂O₃ (~5%) reduces acid consumption, minimises waste, and supports higher recoveries over typical ilmenite feedstock processing.
- Simplified, expedited development pathway: Amenability to standard mineral separation eliminates the need for a costly bespoke demonstration plant, enabling a lower-cost continuous pilot programme using accredited commercial laboratories.
Shaun Bunn, Managing Director, said:
"These results mark a step change in Pitfield's development. We now have clear evidence that the ore is ideally suited to conventional mineral separation and refining, producing a high-purity titanium product with strong recoveries. This sets Pitfield apart from ilmenite-based projects, which typically face lower recoveries, higher costs, and significant environmental challenges.
"Pitfield already stands out for its exceptional scale, continuity of high-grade near-surface mineralisation, and Tier 1 location with access to infrastructure. With this breakthrough in process development, we can now demonstrate a highly efficient and environmentally responsible route to producing multiple high-value titanium products."
Metallurgical Testwork Summary
Empire has committed substantial financial resources to developing a metallurgical flowsheet that can economically extract titanium and produce a high value titanium product: such as TiO2 pigments, and/or feedstock for the TiO2 pigment or titanium sponge metals industries.
The approach to flowsheet development has included:
- Extensive mineralogical investigations on exploration samples, testwork feed samples and testwork products
- Wide ranging literature reviews, including industry and cross-industry research
- Idea generation and testing of concepts and conditions in the laboratory
- A fast-tracked separate work programme to prove that an impurity free high grade product can be made from samples taken at Pitfield.
Initial mineralogical and metallurgical testwork was undertaken on the fresh, titanite-rich bedrock mineralisation at Pitfield and returned encouraging results. Following the identification of the extensive in-situ weathered cap, which independently represents a generational-scale mining opportunity, subsequent testwork programmes have been directed toward this material. The weathered cap contains mainly anatase and rutile, and is distinguished by its soft, friable texture, elevated titanium grades, and near-surface exposure which offer significant advantages from both a mining and processing perspective.
Empire has employed two full time process engineers to work on the process flowsheet development, both of whom have extensive experience in mineral separation and elemental extraction (hydrometallurgy). In addition, Empire has contracted with two titanium expert consultants, each of which has over 40 years' experience in the industry. The process development programme is also supported by further specialist input from the technical team at Strategic Metallurgy, scientists from Federal Government agencies and process engineers from local Engineering & Process Design Consultants.
Testwork results achieved to date are encouraging and support the conceptual process flowsheet that was announced 4 September 2024 "Positive Results Achieved from Initial Processing Testwork on Pitfield Titanium Ore" (refer Figure 1).
Figure 1. Conceptual Process Flowsheet.
Recent testwork has been focused on the fine, saprolite ores from the Thomas prospect. Testwork results to date suggest that Empire can expect to achieve an overall recovery of circa 65-75%, and produce a high-purity, +99% TiO2 product. This is based on early stage testwork with limited optimisation, and the success to date is a good indicator that the Pitfield ores are non-refractory and free of deleterious contaminants that affect product quality (such as U, Th, Cr, P and V).
Whilst it is difficult to provide comparable projects to Pitfield, given its scale, grade and unique ore characteristics, the processing route being evaluated for Pitfield has similar stages to that found in the well-established heavy mineral sands industry. For instance, the ilmenite within the mineral sands is first separated (by gravity and magnetics) and the ilmenite concentrates are then beneficiated by a combination of reduction roast and leach to produce synthetic rutile. This in turn becomes feedstock to the TiO2 pigment or Ti sponge metal producers, both of which use strong oxidants (Cl gas or sulphuric acid) and high temperatures to transform the feedstock into pigments or TiCl4.
The whole process of recovering titanium from ilmenite; concentrating, beneficiation and then transforming it into a high-purity product is inefficient (generally low recoveries), expensive (high energy consumption and expensive consumables) and environmentally unfriendly (substantial Fe residues to dispose of from the breakdown of the ilmenite). The unique ore characteristics of Pitfield provide an opportunity to design a new processing route that is more efficient, lower cost and has greater optionality over the products it can produce than that currently experienced by the ilmenite processors, who account for 95% of the titanium supply chain.
Metallurgical Samples
Samples being used for the testwork programme have been collected from drilling programmes conducted across the deposit. These include drill core samples from diamond drilling, and bulk samples from air core drilling programmes. Samples have been collected from both exploration targets - Cosgrove ('COS') and Thomas ('TOM'). Separate Saprolite ('SAP') and Weathered Sandstone ('WS') zones have been identified. Some of the testwork samples are a blend of the two zones and some have been kept separate to understand the performance of the weathering profile.
Mineralogy
A number of mineralogy techniques are being used to develop the understanding of the Pitfield mineralogy and morphology. SEM based TIMA analysis has been undertaken at Automated Mineralogy Incubator (AMI) on exploration samples, testwork feed samples and testwork products.
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Figure 2. Mineralogist at AMI discussing Pitfield TIMA analysis results with Empire Metallurgist
Key information collected from TIMA analysis on testwork feed samples and exploration samples includes the titanium and gangue minerals present, the grain sizes, and the mineral association.
Testwork product samples have also been analysed using TIMA to understand the deportment of the different titanium minerals and effectiveness of each of the processing steps. More than 100 samples have been analysed using TIMA, including geology samples, testwork feed samples and testwork products.
XRD analysis has also been used on a range of samples. This has been used to help with mineral identification that SEM cannot determine - such as the crystal structure of titanium oxide minerals, identifying them as either anatase or rutile.
Microprobe analysis, at CSIRO in Melbourne, has been used on a small number of samples: to measure impurities in titanium minerals in particular.
Testwork - Flowsheet Development
Some early testwork programmes were undertaken using fresh mineralisation from Pitfield, however once an understanding of the mineralogy and volume of the weathered zone was developed, the focus shifted to this material.
Comminution and Mineral Separation
Several comminution tests have been completed on drillcore samples to investigate potential for low energy input comminution such as scrubbers and log washers. The optimal regrind liberation size range and the energy input required, which appears to be very low, continues to be investigated.
A wide range of unit processes are being investigated for mineral separation utilising whole-of-ore samples as well as separated coarse and fine fraction samples.
Testwork on the coarse fraction has focused on gravity and enhanced gravity separation, testing shaking tables, spirals, and a Multi Gravity Separator (MGS). The shaking table tests and MGS tests were completed at batch scale (~5-20kg), whilst the spiral tests were undertaken on a much larger, bulk scale (~300-600kg).
Testwork on the fine fraction looked at enhanced gravity (MGS) and froth flotation. A range of flotation reagents and conditions are being tested. Relevant examples exist in the non-sulphide flotation industry, including anatase flotation from kaolin clay minerals in the kaolinite industry.
Whole-of-ore testwork is in the planning stages for comparison against gravity separation performance. This testwork will focus on grinding, flotation and then further treatment of the flotation concentrate assessing a number of different separation processes.
Key results to date include:
· Fine fraction "rougher" flotation on a TOM SAP sample has achieved 67- 77% TiO2 recovery and up to 19% TiO2 concentrate grade. Similar recovery performance was achieved on a COS WS sample fines fraction with a "rougher" flotation recovery of 68%.
· Cleaner tests on rougher concentrate from the TOM SAP rougher flotation test achieved a 90% stage recovery at 32%TiO2 concentrate grade. This equates to an overall float recovery of circa 70%.
· Bulk scrubber testwork on TOM SAP sample resulted in 51% of the mass and 72% of the contained TiO2 to the fines fraction, using a hydro cyclone. Similar results were seen on a smaller scale scrubber test using drillcore material, with 53% of the mass and 66% of the TiO2 reporting to the fines fraction, using a 38µm screen.
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Figure3. (L-R): Bulk Scrubber test in progress at AML, Batch slimes fraction rougher flotation test at ALS.
Elemental Extraction and Product Finishing
A wide range of concepts are being explored for extraction of titanium from the mineral concentrate. These range from conventional processes, already applied in the titanium industry or other comparable industries, to more novel processes that have been developed through laboratory research and pilot scale testing.
A base case of sulphuric acid bake water leach, followed by titanium hydrolysis and calcination has been tested by Empire. This is based on the conventional sulphate route for TiO2 pigment production, which is usually applied to ilmenite concentrates. A range of other lixiviants and decomposition and leach conditions have been identified and are planned to be tested as part of the ongoing development programme.
Product finishing testwork aims to take titanium from the leach solutions and produce a final product. It is closely tied to the elemental extraction, so in some cases is being tested as part of that testwork programme. There is a range of product options: separate research testwork is being undertaken to develop and understanding of the various TiO2 pigments and Ti chemicals that Pitfield can produce and the markets in which these products are required.
Around 15 leach tests have been completed to date, including five product finishing tests. A number of product process options are as yet untested: further testwork is budgeted and is currently in the planning stage.
Elemental extraction results achieved to date include:
- Acid bake water leach tests on rougher flotation concentrate have achieved 98% TiO2 extraction to the liquor phase.
- Titanium hydrolysis and calcination has been successfully applied to the leach liquor after iron conversion, producing a low-impurity TiO2 product containing 99.25% TiO2.
- Recovery in the hydrolysis stage requires further testwork as the conditions applied in the tests and has not yet been optimised. Hydrolysis is a standard process used in sulphate pigment industry, and high recoveries (greater than 95%) are achieved on a commercial scale.
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Figure 4. Elemental Extraction testwork (L-R): Acid-Concentrate mixing pre-acid bake, Acid bake product, initial stages of water leach, water leach residue and filtrate.
Product Potential
A fast-tracked separate work programme was undertaken to determine whether an impurity-free high grade product could be made from samples taken at Pitfield. The sample was processed through scrubbing, gravity separation, flotation, acid bake/water leach, impurity removal, titanium hydrolysis and calcination. The flowsheet used and conditions selected were based on industrial examples and literature. This work achieved a product grade of 99.25% TiO2: impurity levels, particularly colorformers which impact negatively on pigment quality, were below detection limits or very low. (Announcement "Exceptional High-Purity TiO2 Product Achievement" 9 June 2025).
Further work is ongoing to understand the TiO2 pigment market, optimise the test conditions and also understand the alternative product options, such as TiCl4 (the feedstock for making titanium sponge metal) or other titanium chemicals.
Figure5. Purification and Product finishing testwork (L-R): titanyl sulphate solution from leaching stage, hydrated TiO2 produced from hydrolysis, and the calcined TiO 2 product
Future metallurgical testwork
Empire has committed significant resources to enable the process flowsheet development programme to continue to proceed at pace. This includes not only the allocation of several full time Empire technical staff but also the use of various industry specialists who support the Empire team in managing the necessary metallurgical testwork and research programmes.
Over the coming months the Company will focus on optimising the mineral separation stages to further improve the flotation and gravity concentrate grades and recovery. Bulk metallurgical testwork has commenced, utilising large scale scrubbing, gravity and flotation test equipment at local mineral processing laboratories. This testwork will produce significant quantities of titanium mineral concentrates: allowing the testing of multiple downstream beneficiation options aimed at defining the optimal hydrometallurgical processing route.
Finished product optimisation, through research and laboratory testwork, is continuing and is aimed at further refining the +99% titanium product already achieved to date, looking at alternative titanium products for marketing purposes.
The next steps for the mineral separation flowsheet development will be further optimisation of the chemistry and conditions, larger scale batch testwork and then continuous piloting can be undertaken at a laboratory scale. Testwork to date has shown the Pitfield weathered ores amenability to conventional mineral separation, beneficiation and refining techniques, and this avoids the need to build a bespoke, demonstration plant. A simpler and lower cost continuous pilot plant operation can be established, utilising local, internationally accredited commercial metallurgical laboratories.
The Company aims to complete the bench and large scale batch metallurgical testwork phase by Q1 2026, which is when it expects to move toward continuous piloting of the process in order to provide the critical technical information for the development of a commercial process flowsheet and to enable the supply of bulk product samples to prospective end users.
The Pitfield Titanium Project
Located within the Mid-West region of Western Australia, near the northern wheatbelt town of Three Springs, the Pitfield titanium project lies 313km north of Perth and 156km southeast of Geraldton, the Mid West region's capital and major port. Western Australia is a Tier 1 mining jurisdiction, with mining-friendly policies, stable government, transparency, and advanced technology expertise. Pitfield has existing connections to port (both road & rail), HV power substations, and is nearby to natural gas pipelines as well as a green energy hydrogen fuel hub, which is under planning and development (refer Figure 3).
Figure 3. Pitfield Project Location showing theMid-West Region Infrastructure and Services
Competent Person Statement
The scientific and technical information in this report that relates to process metallurgy is based on information reviewed by Ms Narelle Marriott, an employee of Empire Metals Australia Pty Ltd, a wholly owned subsidiary of Empire. Ms Marriott is a member of the AusIMM and has sufficient experience 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 JORC Code 2012. Ms. Marriott consents to the inclusion in this announcement of the matters based on their information in the form and context in which it appears.
The technical information in this report that relates to the Pitfield Project has been compiled by Mr Andrew Faragher, an employee of Empire Metals Australia Pty Ltd, a wholly owned subsidiary of Empire. Mr Faragher is a Member of the Australian Institute of Mining and Metallurgy. Mr Faragher 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 Faragher consents to the inclusion in this release of the matters based on his information in the form and context in which it appears.
Market Abuse Regulation (MAR) Disclosure
Certain information contained in this announcement would have been deemed inside information for the purposes of Article 7 of Regulation (EU) No 596/2014, as incorporated into UK law by the European Union (Withdrawal) Act 2018, until the release of this announcement.
**ENDS**
For further information please visit www.empiremetals.co.uk or contact:
Empire Metals Ltd Shaun Bunn / Greg Kuenzel / Arabella Burwell | Tel: 020 4583 1440 |
S. P. Angel Corporate Finance LLP (Nomad & Broker) Ewan Leggat / Adam Cowl | Tel: 020 3470 0470 |
Shard Capital Partners LLP (Joint Broker) Damon Heath / Erik Woolgar | Tel: 020 7186 9950 |
St Brides Partners Ltd (Financial PR) Susie Geliher / Charlotte Page | Tel: 020 7236 1177 |
About Empire Metals Limited
Empire Metals is an AIM-listed and OTCQB-traded exploration and resource development company (LON: EEE) with a primary focus on developing Pitfield, an emerging giant titanium project in Western Australia.
The high-grade titanium discovery at Pitfield is of unprecedented scale, with airborne surveys identifying a massive, coincident gravity and magnetics anomaly extending over 40km by 8km by 5km deep. Drill results have indicated excellent continuity in grades and consistency of the mineralised beds and confirm that the sandstone beds hold the higher-grade titanium dioxide (TiO₂) values within the interbedded succession of sandstones, siltstones and conglomerates. The Company is focused on two key prospects (Cosgrove and Thomas), which have been identified as having thick, high-grade, near-surface, bedded TiO₂ mineralisation, each being over 7km in strike length.
An Exploration Target* for Pitfield was declared in 2024, covering the Thomas and Cosgrove mineral prospects, and was estimated to contain between 26.4 to 32.2 billion tonnes with a grade range of 4.5 to 5.5% TiO2. Included within the total Exploration Target* is a subset that covers the weathered sandstone zone, which extends from surface to an average vertical depth of 30m to 40m and is estimated to contain between 4.0 to 4.9 billion tonnes with a grade range of 4.8 to 5.9% TiO2.
The Exploration Target* covers an area less than 20% of the overall mineral system at Pitfield which demonstrates the potential for significant further upside.
Empire is now accelerating the economic development of Pitfield, with a vision to produce a high-value titanium metal or pigment quality product at Pitfield, to realise the full value potential of this exceptional deposit.
The Company also has two further exploration projects in Australia; the Eclipse Project and the Walton Project in Western Australia, in addition to three precious metals projects located in a historically high-grade gold producing region of Austria.
*The potential quantity and grade of the Exploration Target is conceptual in nature. There has been insufficient exploration to estimate a Mineral Resource and it is uncertain if further exploration will result in the estimation of a Mineral Resource.
This information is provided by RNS, the news service of the London Stock Exchange. RNS is approved by the Financial Conduct Authority to act as a Primary Information Provider in the United Kingdom. Terms and conditions relating to the use and distribution of this information may apply. For further information, please contact rns@lseg.com or visit www.rns.com.
Click here to connect with Empire Metals (OTCQB:EPMLF, AIM:EEE) to receive an Investor Presentation
Corazon Mining
Investor Insight
Corazon Mining Ltd presents a compelling investment case driven by a strategic pivot to WA gold exploration, capitalising on its recent acquisition of the Two Pools gold project. This acquisition offers significant near-term exploration upside, while the company retains a high-quality portfolio of base and battery metals projects, providing long-term optionality and leverage to the evolving critical minerals market. This strategy positions Corazon to deliver shareholder value through potential high-impact discovery and future project development.
Overview
Corazon Mining Ltd (ASX:CZN) is an Australian junior exploration company focused on high-quality gold and critical minerals projects in Australia and Canada.
Company Highlights
- Two Pools Gold Project: The company’s primary focus is the newly acquired Two Pools Gold Project in Western Australia’s highly productive Plutonic Greenstone Belt. This underexplored tenure contains a recently identified 20km-long greenstone belt that was previously misclassified as granite.
- Confirmed High-Grade Mineralisation: Historical drilling at Two Pools has delivered standout intercepts, including 12m @ 8.89 g/t Au (incl. 3m @ 34.25 g/t Au) and 18m @ 3.89 g/t Au (incl. 4m @ 15.96 g/t Au).
- Trident-style Analogy: Drilling has confirmed mineralisation extends beneath overthrust granite, a key geological setting similar to Catalyst Metals’ nearby Trident Deposit, highlighting the potential for significant blind discoveries.
- Strategic Location: Two Pools is located just 60km from Catalyst Metals’ Plutonic Processing Plant, offering strong future development synergies
- Strategic Battery and Base Metals Portfolio: Corazon retains ownership of key projects in Canada and Australia including the MacBride Copper-Zinc-Gold Project and the historic Lynn Nickel-Copper-Cobalt sulphide camp in Manitoba, and the Mt Gilmore Copper-Cobalt-Gold project in NSW. These assets provide long-term exposure to critical metals.
- Compelling Value Proposition: Corazon offers a unique investment opportunity with a small market capitalisation but large, high-quality assets.
Key Projects
Two Pools Gold Project (Western Australia)
Project Highlights:
- A new, highly-prospective gold exploration project in the proven Plutonic-Marymia Greenstone Belt.
- The project covers 193km2 of underexplored tenure containing a newly identified 20km-long greenstone belt
- Historical Drilling and surface sampling have confirmed high-grade gold mineralisation, with a compelling geological setting analogous to other major deposits in the region.
Lynn Lake Base & Precious Metals (Manitoba, Canada)
Project Highlights:
- High-quality base and precious metals asset, offering strategic, long-term value.
- MacBride Copper-Zinc-Gold Project: High-grade, near-surface mineralisation and significant exploration upside for VMS-style deposits.
- Lynn Lake Nickel-Copper-Cobalt Project: Strategic long-term asset with a significant JORC resource -total contained metal of 116,800t Ni, 54,300t Cu, 5,300t Co. The project is fully permitted and benefits from established infrastructure. Refer ASX Announcement 27 Nov 2019.
Other Projects
- Mt Gilmore Copper-Cobalt-Gold (NSW, Australia): An emerging porphyry play with potential for a significant potential copper-gold system.
Management Team
Simon Coyle – Managing Director
Simon Coyle is a mining executive with over 20 years’ experience in the resources sector, spanning across gold, iron ore, manganese and lithium. He is a graduate of the Western Australian School of Mines and has held a number of senior operational leadership roles across both private and publicly listed companies.
Most recently, Coyle served as CEO and president of TSXV-listed Velox Energy Materials. Prior to this, he held senior roles at Pilbara Minerals, including general manager - operations, where he was instrumental in the development and expansion of its flagship lithium project, establishing it as one of the world's leading spodumene concentrate producers. Coyle currently serves as non-executive director of Kali Metals.
Kristie Young – Non-executive Chair
Kristie Young is a professional Board Director who began her career as a mining engineer in the mid 90’s across both underground and open cut operations (incl. Hamersley Iron, Mt Isa Mines, Plutonic Gold, New Hampton Goldfields, Surpac), feasibility studies and project evaluation. She holds a BEng(Mining) Hons from the University of Queensland.
Over 25 years’ industry experience, including business development director roles with both EY and PwC. She brings more than 15 years’ experience on boards and committees and currently serves as a non-executive director of Brazilian Rare Earths (ASX:BRE), Livium (ASX:LIT), Tasmea Ltd (ASX:TEA), and MinEx CRC.
She is a Fellow of the AusIMM and a graduate and Fellow of the AICD.
Scott Williamson – Non-executive Director
Scott Williamson is a highly experienced mining engineer with an Engineering and Commerce degree from the West Australian School of Mines and Curtin University. With more than 20 years of experience spanning technical and corporate roles in the mining and finance sectors, he brings a wealth of industry expertise and strategic insight. A proven leader in business development, Scott has extensive experience in equity capital markets, complementing his strong technical skill set.
Currently, he serves as managing director of Blackstone Minerals and non-executive Director of Leeuwin Metals.
Scott also holds a WA First Class Mine Manager's Certificate and is a member of the Australasian Institute of Mining and Metallurgy.
Robert Orr – Company Secretary and Chief Financial Officer
Robert Orr manages Corazon's financial operations and corporate governance, ensuring compliance and effective financial management.
Trump's Copper Tariffs: Market Impact and How to Invest
In the copper sector, tariff turmoil has created price volatility and left investors wondering how to position.
Trump's copper tariffs cause price turmoil
On February 25, not long after taking office for the second time, Trump initiated an investigation into copper's national security implications under Section 232 of the Trade Expansion Act of 1962.
Further details came months later, when the president provided an update on on July 8.
“I believe the tariff on copper, we're going to make 50 percent,” Trump said during a White House cabinet meeting.
His comments came without an official announcement, although Secretary of Commerce Howard Lutnick said the tariff could take effect by late July or early August. This lack of clarity caused copper prices on the Comex to surge as traders worked to bring the metal into the US ahead of potential levies.
Copper price, January 1, 2025, to August 25, 2025.
Chart via Comex Live.
Ultimately, the Trump administration said on July 30 that copper tariffs would only be applied to unrefined copper, semi-finished and copper-intensive derivatives like pipe fittings, cables, connectors and electrical components.
Refined copper will be phased in at 15 percent in 2027 and 30 percent in 2028.
The move essentially pulled the rug out from prices and caused Comex copper to plummet nearly 25 percent.
Will copper tariffs boost US production?
Copper is increasingly being viewed as a critical mineral, and there are clear reasons why the US would want to increase production of the metal. But what do Trump's tariffs really mean for supply?
Taking a look at how US steel and aluminum tariffs played out in 2018, during Trump's first presidency, could provide insight. A March article published by Reuters analyzes the overall impact of those tariffs.
Prices started to rise in the lead up to the expected tariff deadline, similar to what happened with copper this time around, as importers began stockpiling products ahead of fee implementation. Steel prices rose 5 percent within a month of the tariffs being applied, while aluminum prices rose 10 percent. While they began to fall after just a few months, there was still a significant gap between prices for these products in the US and the rest of the world.
There were also more pronounced fluctuations between US and world prices as COVID-19 pandemic supply chain disruptions further impacted the steel and aluminum sectors.
While the steel and aluminum tariffs did stimulate domestic production of these materials, they ultimately weren't enough to overcome the price differential, as increased US output also faced headwinds.
The US is facing these same challenges with copper production. According to the US Geological Survey, in 2024 the US produced 1.1 million metric tons of unrefined copper and 850,000 metric tons of refined products. The US also exported 320,000 metric tons of concentrates and 60,000 metric tons of refined copper.
However, US demand requires 1.8 million metric tons of refined product annually, more than double US capacity — that's a key reason why refined products were exempted from tariffs.
In an email to the Investing News Network, Lauren Saidel-Baker, CFA, and economist with ITR Economics, spoke about the challenges that copper tariffs could pose to the US economy:
“The US does not have the capacity to produce all the copper that we consume. While there have been investments in new mining capacity, these facilities will take years to come online, leaving US businesses reliant on copper imports for at least the near term."
Although copper is classified as a critical mineral in the US, expanding existing operations will take years, and the time from discovery to opening a new mine could still take more than a decade.
One project nearing completion is Taseko Mines' (TSX:TKO,NYSEAMERICAN:TGB) Florence property in Arizona. The company acquired the asset in 2014, but a March 2023 technical report shows exploration dates back to the 1970s. After environmental assessments, permitting and the building of a test facility between 2017 and 2020, Taseko started full-scale construction of the mine in 2024, with the expectation that operations will begin in late 2025.
Likewise, new smelting operations will not come online until after the first phase of tariffs on refined copper are added in 2027. The newest smelter in the US is Aurubis' (OTC Pink:AIAGF) Richmond facility in Augustus, Georgia. The facility was designed to domesticate some of the more than 900,000 metric tons of scrap copper exported from the US to smelting facilities overseas each year. Construction took four years and US$800 million.
Once operational, the plant will produce 70,000 metric tons of refined copper annually, which is less than 10 percent of annual copper imports to the US.
Copper tariffs could weigh on other industries
Time isn't the only factor hindering the expansion of US copper production.
Mining is an energy-intensive business, and as demand for electricity grows, copper smelters may have to compete with other entities, similar to what happened in the steel and aluminum sector in 2019.
An April McKinsey report suggests that US power demand will grow at a CAGR of 3.5 percent, increasing from around 4,000 terawatt hours (TWh) in 2025 to about 5,000 TWh in 2030 and 7,000 TWh by 2040.
The report states that this increased demand could lead to bottlenecks as providers are faced with supply chain issues and shortages of dispatchable power as new projects face delays due to labor shortages and multi-year lead times for necessary equipment. It also notes that retail electricity bills have increased 6 percent per year since 2020.
The alternative for the copper sector would be to incur further capital costs by investing in off-grid capacity — this might also be affected by tariffs, as has been seen with photovoltaic imports.
The Reuters report evaluating steel and aluminum tariffs notes that the fees were ultimately lifted in 2019 due to the high cost of electricity and limited demand. The downstream effects meant that the manufacturing, construction and transportation industries faced higher costs, reducing growth in those sectors.
Likewise, a small uptick of about 8,000 jobs in the steel and aluminum sectors was outweighed by losses in other industries as companies sought to offset higher costs through efficiency gains.
One study concluded that the tariffs resulted in the loss of 75,000 manufacturing jobs.
Although the bulk of copper tariffs will be phased in starting in 2027 and 2028, that may not provide enough lead time to build new operations and ensure they have the inputs they need to carry out business.
If applied incorrectly, tariffs could have significant consequences for industries that rely on the red metal, including tech and construction, while also impacting overall economic growth.
“Tariffs will increase the cost to US importers and consumers of copper and related products, and will put downside pressure on potential growth,” Saidel-Baker said.
What should investors know about copper tariffs?
For investors interested in copper, the long-term picture is key.
Although Trump's scaled-back tariff announcement caused a price pullback, demand for copper is expected to significantly outweigh supply in the coming years, with experts calling for consumption from the tech industry and energy transition to add to growing requirements from urbanization in the Global South.
Whether tariffs will provide a competitive advantage for copper companies already producing and serving the US market remains to be seen, but some market watchers see potential for that to happen.
For example, Morgan Stanley (NYSE:MS) upgraded its price target for Freeport-McMoRan (NYSE:FCX) to US$48 on August 11. In its reasoning, Morgan Stanley said that the market is not currently appreciating the benefits Freeport will gain from the tariffs, also noting that it will be able to raise pricing for 2026 copper rod contracts, a semi-finished product, which accounts for the majority of the company’s North American sales volume.
Robert Friedland, founder and co-chair of Ivanhoe Mines (TSX:IVN,OTCQX:IVPAF), has come out in support of the tariffs, suggesting that they will help to rebuild the US copper industry. His reasoning is based on the national security issues inherent to having a single country dominate nearly 50 percent of the market of such a critical mineral.
Tariffs apply a new layer of uncertainty to an already challenging copper supply scenario. If tariffs are phased in gradually and industry is given the proper amount of time and investment, it could lead to a resurgence in US copper production and be a boon for those projects already in development; if not, then it could be a replay of 2018.
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Securities Disclosure: I, Dean Belder, hold no direct investment interest in any company mentioned in this article.
Editorial Disclosure: The Investing News Network does not guarantee the accuracy or thoroughness of the information reported in the interviews it conducts. The opinions expressed in these interviews do not reflect the opinions of the Investing News Network and do not constitute investment advice. All readers are encouraged to perform their own due diligence.
