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#AYM Anglesey Mining PLC – Annual Report 2024

Anglesey Mining plc is a UK company engaged in the development of owned and managed mining projects.

 

Parys Mountain: 100% ownership of the Parys Mountain underground copper-zinc-lead-silver-gold deposit in North Wales, UK where an independent Preliminary Economic Assessment dated January 2021 included a financial model for a 3,000 tpd mining operation with a pre-tax NPV10% of US$120 million, (£96 million), 26% IRR and 12-year mine life.

 

Grängesberg: 49.75% interest in the Grängesberg iron ore project in Sweden where Anglesey has management rights.

An independent Pre-Feasibility Study announced on 19 July 2022 demonstrated Probable Ore Reserves of 82.4 million tonnes supporting a 16-year mine life with annual production of 2.5 million tonnes of high-grade concentrate grading 70% iron ore and a post-tax NPV8% of US$688 million with an IRR of 25.9% after tax.

 

Labrador Iron Mines: 11.9% shareholding in Labrador Iron Mines Holdings Limited which holds Direct Shipping Ore (DSO) deposits of iron in Canada where an independent Preliminary Economic Assessment of its Houston project published in 2021 showed potential for production of 2 million tonnes of DSO per year, with an initial 12-year mine life, for total production of 23.4 million tonnes of product at 62.2% Fe over the life of the mine.

 

 

The AGM will be held at the Geological Society, Burlington House,
Piccadilly, London W1J 0BG on 8 November 2024 at 11 am

 

 

Chairman’s statement

To Anglesey Shareholders

The 2023-24 financial year was another challenging year for Anglesey Mining plc which saw a number of board and management changes but also the ongoing advancement of the Parys Mountain project.

Board changes

At the 2023 Annual General Meeting long-time Chairman of Anglesey Mining, John Kearney, was not re-elected to the Board and as a result I was appointed into the role of Interim Chairman of your company. John had been Chairman for nearly 29 years, having been appointed in November 1994. On behalf of the Board and the shareholders I would like to thank John for his service to Anglesey Mining over the period of his tenure.

On 14th November 2023 the Board accepted the resignation of Danesh Varma. Danesh, like John, joined the Board in November 1994. It is with sadness that I report to you the death of Danesh on 8th August 2024.

Jo Battershill stepped down as Chief executive effective 31st December 2023 to take up a new executive role in Australia but remained on the board as a non-executive director.  I would like to thank Jo for all his effort during his time as Chief executive and his ongoing support of Anglesey Mining.

We were also sorry also to accept the resignation of Namrata Verma as a non-executive director on 6th September 2024 but understand her reasons for leaving and wish her every success in the future.

Parys Mountain

Important geological work has continued throughout the year at Parys Mountain with new exploration drilling into the Northern Copper Zone. We are very encouraged by the results and further work is continuing. We would like to firm up our knowledge and increase the tonnage of the declared geological resource, thus improving the business case for developing a long term mining operation at Parys Mountain.

Grängesberg and Labrador Iron Mines Holdings

During the financial year we maintained our shareholding in Grängesberg AB in Sweden and Labrador Iron Mines Holdings in Canada and continue to explore alternatives to optimise and realise value for Anglesey Mining’s interest in these assets.

Appreciation

I wish to recognise the dedication and enthusiasm of our small management team, led by Jo Battershill. After the financial year end, in May 2024, we were delighted to welcome Rob Marsden as our company’s CEO. I would also like to thank our board of directors for their leadership, as well as consultants and advisors for their contribution. Finally, I should welcome our new shareholders and thank them, and all our shareholders, for their continued support.

Andrew King

Interim Chairman

27 September 2024

 

 Strategic report – Operations

As the newly appointed Chief executive of Anglesey Mining it is my pleasure to report to you the activities that have been undertaken in the 2023-24 financial year; in doing so I must thank my predecessor Jo Battershill for providing a strong basis from which to build. It is to his immense credit that the first drilling campaign since 2012 into the Northern Copper Zone was able to be undertaken during the back half of the financial year with the assay results reported during the first half of calendar year 2024.

Under Jo’s direction the great bulk of the EIA scoping document was completed. I was grateful for the opportunity to review it and submit it to the planning authorities in the first weeks of my tenure. It is a detailed, robust assessment of the likely impacts that underground mining and processing of minerals on Parys Mountain will have. It is an essential report to guide the strategies which will be put in place to avoid, mitigate and where required, compensate for those impacts.

The geological resources form the basis for every other subsequent aspect in the planning and evaluation phase, from the mine design through to metallurgy and management of tailings. In addition to the new drilling into the Northern Copper Zone which I have already mentioned, new resource estimates were made of the White Rock and Engine Zones at Parys Mountain allowing the first inclusion of tonnes in the measured category of mineral resource reporting.

The combined mineral resource estimate for the White Rock and Engine Zones is now reported at 5.72Mt grading 0.36% Cu, 2.30% Zn, 1.24% Pb, 28/t Ag and 0.28g/t Au or 2.0% Copper Equivalent (CuEq) / 5.6% Zinc Equivalent (ZnEq). All the resources were reported above a cut-off based on a net smelter revenue of US$45.15/t, including 1.6Mt at 2.5% CuEq in the Engine Zone. The White Rock and Engine Zones have 5.28Mt (92%) of the resource now reporting to the Measured and Indicated categories with 23% Measured and 70% Indicated.

The overall mineral resource estimate for Parys Mountain, including the Northern Copper Zone, is reported at 16.1Mt grading 1.0% Cu, 1.3% Zn, 0.7% Pb, 15g/t Ag and 0.2g/t Au. (1.9% CuEq or 5.3% ZnEq) containing 486,000t of combined Zn/Pb/Cu, 7.9Moz silver and 86koz gold.

These two programs of work highlighted the outstanding exploration potential of the project. Several zones have been identified where mineralisation could potentially extend beyond the resource boundary, indicating that once mining commences at Parys Mountain the probability of finding more ore zones is very high, as with many volcanogenic massive sulphide deposits.

In May 2023, an equity placing and subscription raised gross proceeds of £1m and following this in July 2023, a further placing raised gross proceeds of £0.5m.

In December 2023 we reported the results of metallurgical test work carried out on a 340kg sample of White Rock and Engine Zone material, which, as it is shaft adjacent, is very likely to be among the first mineralisation to be mined at Parys Mountain. The highlight of this work was the demonstration that a successful pre-concentration stage would be applicable. Tests of two pre-concentration methods were conducted – Dense Media Separation (DMS) undertaken by Pesco and X-Ray Transmission sorting (XRT) completed by TOMRA. These showed the overall base metals only head-grade increasing from 7.5% ZnEq to 11.4% ZnEq from the DMS (+52%) with 35% mass rejection and metal loss of 5.2% and 11.7% ZnEq from the XRT (+55%) with 29% mass rejection and metal loss of 3.0%.

 

Licence to operate

It is well understood at Anglesey Mining that it is ultimately a combination of economic, regulatory, environmental and social aspects of developing and operating a mining operation that will provide us with a licence to operate, which is the enabler of realising a return on investment.

The group has publicly committed to updating the existing planning permissions that it holds for Parys Mountain and an Environmental Impact Assessment (EIA) has been allowed for in the planning submission process. Work has been undertaken throughout the year to progress both the planning application and the EIA.

At the beginning of the financial year in April 2023 a pre-application consultation was held on the Parys Mountain site and in the town of Amlwch with a number of statutory consultees including Natural Resources Wales, Cadw, Anglesey County Council Departments (including Environmental Health, Highways & Transportation, Ecology & Environment and Heritage), Archaeological Planning Services, local councillors and members of both Westminster and Welsh governments.

Throughout the year, baseline surveys and ecological studies have continued, the results from which, taken together with the feedback from all stakeholders, enabled the EIA Scoping Report to be submitted to the North Wales Minerals and Waste Planning Service which assesses mineral planning applications on behalf of the Isle of Anglesey County Council and other county councils within the North Wales region.

The Scoping Report forms part of our first stage in the EIA process and comes after almost 2-years of extensive studies and work by the team on site. Cumulative expenditure on the EIA process in that timeframe is in excess of £300,000. The report sets out all the project’s perceived impacts, specifically identifying any crucial and significant factors which will be assessed as part of the final EIA report, the compilation of which will require further environmental and ecological work.  At this EIA Scoping stage, the project description remains indicative and will be refined following ongoing mining engineering studies, economic analysis and discussions with neighbours, the wider community and other stakeholders.

Preservation of existing heritage areas, sites of special scientific interest (SSSI’s) and scheduled historic monuments and buildings have been a major factor in determining the location of new proposed surface infrastructure and similarly other environmental and social considerations. The EIA Scoping Report considers how measures to avoid, mitigate or compensate would be identified to address the impacts of the project.

Grängesberg

The Grängesberg project is a substantial iron ore asset with an estimate of 82.4Mtpa of Probable Ore Reserves located in a very favourable jurisdiction. During the 1980s the mine, located about 200 kilometres north-west of Stockholm, had produced around 180Mt of iron ore and current plans envisage the production of high-grade ore at or above 70% Fe.  The group holds a direct 49.75% interest in the Grängesberg project, together with management rights.

Labrador

Anglesey Mining has a 11.9% holding in the OTC listed Labrador Iron Mines Holdings Limited (“LIMH”), which through its 52% owned subsidiaries Labrador Iron Mines Limited (“LIM”) and Schefferville Mines Inc. (“SMI”), is engaged in the exploration and development of iron ore projects in the central part of the Labrador Trough region, one of the major iron ore producing regions in the world, situated in the Menihek area in the Province of Newfoundland and Labrador and in the Province of Quebec, centred near the town of Schefferville, Quebec.

 

Financial results and position

There are no revenues from the operation of the properties.

The loss before other comprehensive income for the year ended 31 March 2024 after tax was £1,213,279 compared to a loss of £961,288 in the 2023 fiscal year. The administrative and other costs excluding investment income and finance charges were £839,424 compared to £696,545 in the previous year. Higher salaries and corporate advisor charges accounted for a significant part of this increase. Some was due to one-off charges for Grängesberg expenses in respect of prior periods. There were also share based payments charges representing the value of warrants granted to subscribers to the group’s placings and subscriptions during the year, compared to none last year.

The value of the group’s holding in LIM is reported in other comprehensive income and effectively is based on its share price. This year there is a loss of £0.63 million as the share price declined. The outcome for the group is a total comprehensive loss for the year of £1,859,181, compared to a loss of £1,462,670 in the previous year.

During the year there were no additions to fixed assets (2023 – nil) and £679,475 (2023 – £460,118) was capitalised in respect of the Parys Mountain property, as the programme of geological and environmental work as well as drilling continued as described in this Strategic report.

At 31 March 2024 the mineral property exploration and evaluation assets had a carrying value of £16.9 (2023 – £16.2) million. These carrying values are supported by the results of the 2021 Preliminary Economic Assessment of the Parys Mountain project.

At the reporting date, as detailed in note 10, the directors considered the carrying value of the Parys Mountain exploration and evaluation assets to determine whether specific facts and circumstances suggest there is any indication of impairment. They carefully considered the positive results of the resource update completed in March 2023, the independent PEA and the plans for moving the project forward. Consequently, the directors concluded that there were no facts and circumstances which materially changed during the year which might trigger an impairment review and that there are no indicators of impairment.

In May and July 2023 £1.5 million was raised by means of investor placings. Directors participated in these placings and warrants were issued to subscribers. Further details are included in the directors’ report and note 20. Subsequent to the year-end, on 28 June 2024 and 25 September 2024, placings of equity were completed raising £415,000 and £220,000 gross. See note 29.

The cash balance at 31 March 2024 was £219,685, compared to £247,134 at 31 March 2023. At 17 September 2024 the group had cash resources of £113,602.

At 31 March 2024 there were 420,093,017 ordinary shares in issue (2023 – 295,220,548), the increase being due to the financing events referred to above. At 17 September 2024 there were 461,593,017 ordinary shares in issue.

 

Outlook

In the current year, we are:

  • Developing strategies to enable investment in the development of Parys Mountain to be, so far as practicable, incremental, thus allowing risks to be mitigated in stages, before considering the options for the next step of development.
  • Progressing the re-permitting of Parys Mountain, the key aspect of which is the assessment of environmental and social impacts. We are developing action plans to avoid, mitigate and where necessary compensate for the adverse impacts of the future mining and processing operations, communicating and setting these out publicly and responding to comments and questions. We are collaborating closely with stakeholders, communities, industry and supply chain participants, particularly around minimising potential environmental impacts and maximising economic development opportunities for local communities.
  • Consolidating and cross-referencing the plethora of data about the geology of Parys Mountain and the mineralisation occurrences within, that has been observed, measured and collected since the 1960s. Re-sampling and re-logging, and in some cases first time sampling, of exploration drill core obtained in pervious drilling campaigns. Re-examining the important work that was done mapping and sampling of the geology exposed in the excavated 280m (below surface) level in the modern underground mine when it was open in 1990.
  • Engaging with a range of potential partners to progress the development of the Grängesberg mine in Sweden which if successful will allow our management more time to focus on Parys Mountain.

 

Development of a new mine at Parys Mountain, producing copper, zinc and lead with gold and silver credits, can deliver economic growth in the UK, regional jobs for the community and business opportunities for local service providers. Importantly, these critical and strategic metals, essential for the decarbonisation of the economy, are primarily imported into the UK currently. This creates a unique and timely opportunity, both for Anglesey Mining and for the UK, to develop a new, modern, mine at Parys Mountain in an environmentally sustainable manner.

 

This report was approved by the board of directors on 27 September 2024 and signed on its behalf by:

 

Rob Marsden

 

Chief Executive

 

 

 

The full annual report is avalable on the company’s website at www.angleseymining.co.uk

 

CONTACT: For further information, please contact:

Anglesey Mining plc

Rob Marsden, Chief Executive – Tel: +44 (0)7531 475111

Davy

Nominated Adviser & Joint Corporate Broker

Brian Garrahy / Daragh O’Reilly – Tel: +353 1 679 6363

WH Ireland

Joint Corporate Broker

Katy Mitchell / Harry Ansell – Tel: +44 (0) 207 220 1666

LEI: 213800X8BO8EK2B4HQ71


#GRX GreenX Metals LTD – Acquiring Large Scale Copper Project in Germany

GREENX TO ACQUIRE LARGE SCALE SEDIMENT-HOSTED COPPER PROJECT IN CENTRAL GERMANY

GreenX Metals Limited (“GreenX” or “Company”) is pleased to advise that it has entered into an Earn-in Agreement through which GreenX can earn a 90% interest in Group 11 Exploration GmbH, a private German company which holds the Tannenberg exploration licence (“Project”) and is highly prospective for sediment-hosted (Kupferschiefer type) copper deposits.

The Project

·      The Tannenberg exploration licence covers 272 km2 in the State of Hesse in central Germany, encompassing the historical “Richelsdorf” copper – silver mines.

·      Prior to closure in the 1950’s, the Richelsdorf mines produced 416,500 t of copper and 33.7 Moz of silver from Kupferschiefer type deposits. These historic mines consisted of shallow underground workings originally accessed from surface outcrops.

·      The Project also contains multiple drill intercepts over the high priority 14 km-long Richelsdorf Dome target, including:

2.1 m at 2.7% Cu and 48g/t Ag from 365.48 m; 1.5 m at 3.7% Cu and 33 g/t Ag from 209.50 m; 2.5 m at 1.8% Cu and 19 g/t Ag from 339.5 m in the southwest of the license area.

2.0 m at 1.6% Cu and 19 g/t Ag from 268 m in the north-east of the license area.

Figure 1: The Project is located in the industrial centre of Europe.

·      Kupferschiefer style deposits are a well-known and prolific subtype of sediment-hosted copper deposit that:

are the second most prevalent source of copper production and reserves in the world; and

have been historically mined in Germany and are still mined in Poland where KGHM produced 592 kt of electrolytic copper in 2023.

·      Excellent potential for new discoveries of shallow (50 m to 500 m), large scale and high grade Kupferschiefer style copper and silver mineralisation, with much of licence area remaining untested by modern exploration whereby thicker sections of footwall/ hanging wall mineralisation will be targeted.

·      Modern understanding of Kupferschiefer mineralisation from prolific mining in Poland places new emphasis on hanging wall and footwall mineralisation, structural controls and metal zonation.

In Polish Kupferschiefer mines, mineralisation typically forms within the Kupferschiefer shale and in strata up to 60 m below and 30 m above the shale. E.g., KGHM’s Rudna Mine in Poland, where footwall sandstone hosts 80% of the total copper resource, hanging wall limestone hosts 15%, and Kupferschiefer shale hosts only 5%.

GERMANY & EU MINING INDUSTRY

·      Germany has been a significant mining jurisdiction in the past and continues its mining tradition, including:

The K+S potash mines which operate 4 km away from the license area and are located in the State of Hesse.

Anglo American are actively exploring the Löwenstern and Leine-Kupfer copper projects nearby. Löwenstern is 25 km away to the south in the German state of Thüringia, where drilling targeting the Kupferschiefer commenced in 2023. Leine-Kupfer was granted in January 2024 and is 60 km away to the north in the state of Lower Saxony.

AMG Graphite operates a graphite mining and processing complex at Kropfmühl near Passau, Bavaria

Vulcan Energy is successfully permitting lithium brine and geothermal power projects in the German states of Rheinland-Pfalz, Baden-Württemberg, and Hesse.

·      Copper is a designated a Strategic Raw Material (“SRM”) under the EU’s Critical Raw Material Act, that entered into force on 23 May 2024. The CRMA signals the EU’s political commitment to strengthen EU supply of SRM’s (including copper) by giving the European Commission the power to designate Strategic Projects that will benefit from easier access to financing, expedited permitting processes and matchmaking with off-takers.

·      The manufacturing sector, including the automotive, mechanical engineering, chemical and electrical industries, accounts for over 25% of Germany’s economic output, and 18% of GDP; these figures are significantly higher than in most other advanced economies

The manufacturing sector provides 16% of national employment, some 8 million jobs, with mechanical engineering being the largest segment and dominated by SMEs.

The automotive sector is a key industry and with around four million automobiles produced in 2023. Electric Vehicles are being adopted in Germany with numerous OEM’s investing in new production facilities and supply chains, such as Volkswagen’s Battery and Electric Drive production facilities and Tesla’s Berlin Gigafactory.

Many of these industries are reliant on critical raw materials such as copper.

·      German government recently announced creation of a EUR 1.1 billion (A$1.8 billion) investment fund to fortify Germany’s access to SRM’s (including copper) essential for high-tech and green projects. The fund will be managed by the state-owned KfW Development Bank.

GreenX Metals’ Chief Executive Officer, Mr Ben Stoikovich, commented:

“We are very excited to be adding the Tannenberg project to our exploration portfolio. Kupferschiefer style deposits are widely acknowledged as the most prolific source of modern-day copper production, with copper mining from the Polish Kupferschiefer deposits (KGHM) presently being Europe’s largest domestic source of strategic copper supply. We believe that Tanneberg has the potential to host large scale and high-grade copper deposits located in the heartland of German industry in the vicinity of major OEM’s such as Volkswagen’s Battery and Electric Drive production facilities and Tesla’s Berlin Gigafactory.

Copper is officially recognised by the EU as a strategic raw material for European industry and ongoing decarbonisation in Europe. This acquisition comes at a time when the German government and the EU have recently announced major policy initiatives to enhance security of supply of strategic raw materials such as copper by facilitating expedited permitting processes and access to project development funding. Germany, and in particular the State of Hesse, has a well-established mining industry with practical and efficient mine permitting processes. Furthermore, we anticipate increased political support for new copper projects in accordance with Germany’s Federal Ministry of Economic Affairs and Climate Action critical raw materials policies and the EU’s newly introduced Critical Raw Material Act.

Tannenberg is complementary to our Arctic Rift Copper project in Greenland and provides GreenX shareholders with enhanced exposure to strategic raw materials that are now a policy priority in both Germany and the wider EU. We are looking forward to updating shareholders over the coming months as we commence our exploration activities in Germany.”

Classification:   2.2 Inside Information

2.5 Total number of voting rights and capital

ENQUIRIES

Ben Stoikovich
Chief Executive Officer

+44 207 478 3900

 

Sapan Ghai
Business Development

+44 207 478 3900

 

SUMMARY OF TERMS

GreenX has entered into an Earn-in Agreement (“Agreement”) through which GreenX can earn a 90% interest in Group 11 Exploration GmbH (“Group 11”). Key terms of the Agreement are as follows:

·      GreenX to issue the vendor 500,000 fully paid ordinary shares (“Shares”) upfront.

·      GreenX will fund a Work Program up to EUR 500,000 by 31 December 2025 (“Minimum Commitment”). The Work Program will be sufficient to satisfy requirements for the grant of an extension of the exploration license.

·      Once the Minimum Commitment has been discharged, GreenX can elect to acquire 90% of the fully diluted share capital of Group 11 on or before 31 December 2025 in return for:

GreenX paying A$3,000,000 to the vendor in Shares (based on the higher of the 10-day VWAP or A$0.30 per Share).

The vendors’ 10% interest in Group 11 will then be free carried until completion of a feasibility study by Group 11 or GreenX.

The Agreement also includes usual drag along and tag along rights, and an Area of Influence provision.

Once GreenX has earned its 90% interest, the vendor may elect to exchange their remaining 10% interest in return for a 0.5% Net Smelter Royalty.

·      If a Scoping Study is published by GreenX on the ASX regarding the license area or any area within the Area of Influence within 5 years of execution of the Agreement, GreenX will issue the vendor 5 million Shares on the completion of the first such Scoping Study.

·      GreenX will act as the project manager.

Project Geology

Historical drilling and mine workings confirm the widespread presence of the crucial Kupferschiefer sequence within the Tannenberg licence (Figure 2). The sedimentary sequence forms a broad dome that outcrops near the centre of the licence area and extends down to approximately 500 m at the periphery (Figure 3). Regional and small-scale faults cut the licence area with the dominant orientation trending northwest-southeast, perpendicular to the Variscan Orogen. Zones of copper enrichment within the licence area correspond to fault intersections. Structure is a key targeting consideration at the Project.

Figure 2: The Kupferschiefer is gently folded to form the Richelsdorf Dome that extends from surface down to 500 m depth within the licence area. Historical mining around Richelsdorf exploited mineralisation near the surface. Historical drilling intercepted mineralised Kupferschiefer down to 436 m. Much of the Kupferschiefer between 50 to 500 m remains untested.

 

Figure 3: Interpreted cross-section through Tannenberg exploration licence with simplified stratigraphy. The historical Richelsdorf District is located at the apex of a large-scale anticline, the Richelsdorf Dome. The approximate extent of historical mining is shown. The cross-section passes between drill holes Ro23 and Ro45.

 

In the south of the licence area near the town of Ronshausen, drill holes intersected mineralised Kupferschiefer sequence at depths ranging from 211 to 368 m below the surface (e.g., Ro18 and Ro23). Near the town of Nentershausen in the north, an isolated drill hole intersected 2 m at 1.6% Cu (Ro45).

Table 1: Selected Drill Holes.

Locality

Hole ID

Intersect (m)

Cu (%)

From

To

Interval

Ronshausen

Ro23

365.48

367.58

2.10

2.7

Ro18

209.50

211.00

1.50

3.7

Ro19

339.50

342.00

2.50

1.7

Ro15

285.86

289.31

3.45

1.0

Nentershausen

Ro45

268.00

269.63

2.00

1.6

 

Historical exploration and sampling might have been too focussed on the Kupferschiefer shale horizon. For example, in Ro45, the isolated drill hit near Nentershausen, the last sample from the footwall assayed at 1% Cu (Figure 4). In bothRo45 and Ro23 shown in Figure 4, the historical sampling only covers one mineralised interval. Drilling at the Rudna Mining in Poland shows that copper mineralisation can occur in multiple intervals, above and below the Kupferschiefer shale. 

Figure 4: Selected historical drill results from the Richelsdorf Dome target with comparison to drilling at the Rudna Mine, Poland. Sample coverage did not typically extend much above or below the shale unit. 

 

Kupferschiefer copper deposits feature a distinct metal zonation pattern. The zonation transitions from iron, to copper, lead then zinc (Figure 5). Adjacent to every known copper deposit is the iron rich zone known as “Rote Fäule”, or “red rot” in English. Within the Tannenberg licence, a distinct zone of red rot has been identified in the south near Ronshausen. As well as the copper, historical drill core was also assayed for lead and zinc. This data will allow the Company to identify important metal zonations in the Project area.   

A diagram of a red and blue color scheme Description automatically generated

Figure 5: Metal zonation pattern associated with Kupferschiefer type copper deposits. The zonation cuts across stratigraphy and progresses from iron to copper, lead, then zinc. Note: hem = hematite, cc = chalcocite, bo = bornite, cpy = chalcopyrite, ga = galena, sph = sphalerite, py = pyrite. Modified from Borg, 2017.

 

GreenX’s exploration hypothesis for the Project is that historical exploration was mainly based on an outdated deposit model that focussed on the 30-60 cm-thick Kupferschiefer shale horizon. Modern understanding of the Kupferschiefer deposit model now shows that up to 95% of mineable copper can be hosted in the footwall sandstone and hanging wall limestone.

Project History

Pre-industrial mining in central Germany dates back to the 12th Century. Copper was exploited from the Kupferschiefer in the Mansfield, Sangerhausen, and Richelsdorf mining districts. Most of the historical copper mining in central Germany was prior to the Industrial Revolution and well-before mechanised mining technology was widely available. Once surface accessible deposits were depleted, adits and shallow shafts were used to access deeper underground Kupferschiefer copper ores (Figure 6).

In the Richelsdorf district, historical production is estimated at 416,500 t of copper and 1,050 t (33.7 Moz) of silver. Production commenced in the 13th Century and ceased in 1955.

The Project area remains ostensibly undeveloped, comprised predominantly of small-holding farmland and woodland, since it was located in the Cold-War border zone between West and East Germany. During the Cold War (1947-1991), the Richelsdorf district sat within the strategically-important Fulda Gap. The Fulda Gap hosts two lowland corridors through which NATO military planners believed the Soviet Union could launch a land attack. The US military observation post “Romeo” was active at the Hesse-Thuringia border in the vicinity of the Project area during the Cold War and was only disbanded in 1991.

Between 1980 and 1987, St Joes Exploration GmbH (“St Joes Exploration”) were active in the region. St Joes Exploration’s drilling campaigns identified Kupferschiefer mineralisation near the towns of Ronshausen and Nentershausen (Appendix 1, Table 2).  

The major mining activity in Hesse is potash mining operated by K+S Group, an international fertiliser company with production sites in Europe and North America. The major potash mining complex “Werra” has been operating for over 100 years and produces some 19 Mtpa of crude salt from underground workings between 700 – 1000m depth. K+S Group’s Werra plant is recognised as an important pillar for the economic and demographic development of the region.

In 2021, Anglo American’s ‘Kupfer Copper Germany GmbH’ (“Anglo”) began exploration activities in Thuringia, 25 km from the Tannenberg licence. There, historical drilling intercepted 0.5 m at 1.4% Cu from 761.9 m. Anglo initiated seismic, gravity, and magnetic surveys in 2021 and exploratory drilling in 2023.

 

Figure 6: Left: Underground extraction of the Kupferschiefer shale at the Wolfsberg mine in 1954. Miners laid on their sides to excavate the ore-bearing material. Right: Schematic of pre-industrial underground mining in Germany.

Modified from Zientek et al., 2015.

 

EU CrITICAl RAW MATERIAL ACT

On 23 May 2024, the EU’s Critical Raw Materials Act (“CRMA”), published as Regulation (EU) 2024/1252, entered into force following its adoption by the Council of the EU and European Parliament. The main objective of the CRMA is to maintain and establish a secure and sustainable supply of Critical Raw Materials to the EU. The CRMA lists Strategic Raw Materials (SRM’s), which are those most crucial for strategic technologies used for the green, digital, defence and aerospace applications. Copper is a designated a Strategic Raw Material (SRM’s) under the act

The CRMA sets benchmarks for domestic capacities along the strategic raw material supply chain and for diversifying EU supply by 2030:

·      EU extraction capacity of at least 10% of the EU’s annual consumption of strategic raw materials;

·      EU processing capacity of at least 40% of the EU’s annual consumption of strategic raw materials;

·      EU recycling capacity of at least 25% of the EU’s annual consumption of strategic raw materials; and

·      Not more than 65% of the Union’s annual consumption of each strategic raw material relies on a single third country for any relevant stage of the value chain.

The CRMA further demonstrates the EU’s political commitment to strengthening supply of SRM’s (including copper) by giving the European Commission the power to designate Strategic Projects that will benefit from easier access to financing, expedited permitting processes and matchmaking with off-takers.

In terms of permitting processes, under the CRMA EU Member States will be required to give priority to Strategic Projects in their administrative processes. The Act sets clear timelines for decisions to be taken on permitting applications linked to Strategic Projects. i.e., for Strategic Projects, the total duration of the permit granting process should not exceed 27 months for extraction projects or 15 months for processing and recycling projects.

To help companies through permitting, Member States are also required to designate single points of contact for critical raw materials projects. The single point of contact will provide guidance to project promoters on administrative issues and will serve as the sole contact point throughout the permit granting process.

Exploration Targeting Model

The Project is prospective for Kupferschiefer style copper-silver mineralisation. Kupferschiefer is a subtype of the sediment-hosted copper deposit model. Mineralisation typically forms around the Kupferschiefer shale, but is known to occur up to 60 m below and 30 m above the shale in Poland (Figure 7). In KGHM’s Rudna Mine in Poland, footwall sandstone hosts 80% of the total resource, hanging wall limestone hosts 15%, and Kupferschiefer shale hosts only 5%. Modern insights from mining the Kupferschiefer in Poland will be applied to our exploration strategy in Germany.

A diagram of copper mines Description automatically generated

Figure 7: Comparison of current-day Kupferschiefer mining in Poland with historical mining in Germany.

Note: Modified from Zientek et al., 2015.

 

Historical mining and exploration in Germany mainly focussed on the Kupferschiefer shale unit (Figure 6 & 7). The Company’s exploration hypothesis is that as in Poland, significant footwall and hanging wall accumulations of Kupferschiefer copper are potentially present at the Project.

The historical thinking about Kupferschiefer deposits in Germany was that mineralisation was syngenetic with the sediments. Meaning that the copper was deposited at the same time as the shale. Accordingly, historical mining and exploration was highly focussed on the shale. Modern mining and research challenges the historical deposit model. In Poland, copper is being mined up to 60 m below and 30 m above the Kupferschiefer shale.

The modern understanding of Kupferschiefer mineralisation recognises epigenetic deposition. This means that the copper mineralisation came after the sediments were deposited (Figure 8). Modern Kupferschiefer mining recognises the importance of structures, metal zonation patterns, and footwall and hanging wall host rocks.

A diagram of a soil layer Description automatically generated

Figure 8: Deposit model of Kupferschiefer mineralisation and alteration. Note: Compared to pre-industrial times, copper mineralisation is now known to extend from the hanging wall limestone, through the Kupferschiefer shale, and well into the footwall sandstone. Source: Zientek et al., 2015.

Regional Geological Setting

The Project is hosted in the Southern Permian Basin (“SPB”) of Europe. The SPB is an intracontinental basin that developed on the northern foreland of the Variscan Orogen. Two Groups make up the SPB, the Rotliegend and the Zechstein (Figure 9). The Lower Rotliegend Group marks the boundary between the Permian and Carboniferous and is comprised of bi-modal volcanics with interbedded sedimentary rocks. After a 20- to 30-million-year-long- hiatus, the Upper Rotliegend Group was deposited towards the end of the Permian. The Upper Rotliegend Group strata transitions from terrestrial to a shallow marine environment.

The Zechstein Group formed in the late Permian when the Barents Sea flooded the continental SPB. The organic-rich reduced Kupferschiefer shale marks the base of the Zechstein Group. “Kupferschiefer” is German for “Copper Shale” and is also called “T1” by geologists. The shale is typically 30-60 cm thick but can also be missing from the stratigraphy.

Very high-grade copper mineralisation is generally associated with the Kupferschiefer shale unit. However, minable copper mineralisation also occurs in the footwall sandstone and hanging wall limestone units in Poland. Mineralisation can also be offset from the shale by up to 30 m above and 60 m below. Pre-industrial mining in Germany focussed on the high-grade but thin shale. Modern mining in Poland extracts copper from the footwall sandstone, shale, and hanging wall limestone. Mining intervals at the Rudna mine is 3 m on average but reach over 12 m in places.

A diagram of a geological structure Description automatically generated

Figure 9: Generalised Kupferschiefer stratigraphic sequence from Germany and Poland. Mineralisation can extend below and above the T1 shale. Source: Borg, 2017.

 

In Poland, copper deposits are hosted in the Fore-Sudetic Monocline, a sub-basin of the SPB. KGHM’s current mining operations take place over multiple adjacent deposits at depths ranging from 844 m to 1,385 m below ground. In 2023, KGHM’s Polish operations produced 592 kt of electrolytic copper and 1,403 t of silver (45.8 Moz).

Upcoming Work Programs

Future work programs at the Project will aid drill targeting. Initially, an in-country search for additional historical drilling and mining records will be undertaken. Geophysical methods such as seismic and magnetic surveys will be evaluated for their effectiveness in delineating subsurface structures at the high-priority Richelsdorf Dome target. Historical drill assays will be used to identify metal zonation patterns useful for exploration targeting. The area of primary interest covers 14 km-long stretch of the Richelsdorf Dome where Kupferschiefer strata outcrop at surface in the centre and extend down to approximately 500 m at the periphery.

A European based technical team will be assembled to manage exploration activities at the Project.

Risk Factors

Whilst GreenX has undertaken a due diligence process (including title and other risks) with respect to the Project, it should be noted that the usual risks associated with companies undertaking exploration and development activities of projects in Germany will remain at completion of the acquisition.

A number of additional risk factors specific to the Project and associated activities have also been identified, including, but not limited to:

(a)        The Project is located in Germany, and as such, the operations of the Company will be exposed to related risks and uncertainties associated with the country, regional and local jurisdictions. Opposition to the Project, or changes in local community support for the Project, along with any changes in mining or investment policies or in political attitude in Germany and, in particular to the mining, processing or use of copper, may adversely affect the operations, delay or impact the approval process or conditions imposed, increase exploration and development costs, or reduce profitability of the Company.

(b)        The Company’s exploration and any future mining activities are dependent upon the grant, maintenance and/or renewal from time to time of the appropriate title interests, licences, concessions, leases, claims, permits and regulatory consents which may be withdrawn or made subject to new limitations. Maintaining title interests or obtaining renewals of or getting the grant of title interests often depends on the Company being successful in obtaining and maintaining required statutory approvals for its proposed activities (including a licence for mining operations) and that the title interests, licences, concessions leases, claims, permits or regulatory consents it holds will be maintained and when required renewed.

There is no assurance that such title interests, licences, concessions, leases, claims, permits or regulatory consents will be granted, or even if granted, not be revoked, significantly altered or granted on terms or with conditions not acceptable to the Company, or not renewed to the detriment of the Company or that the renewals thereof will be successful.

Shareholders should note that some of the risks may be mitigated by the use of appropriate safeguards and systems, whilst others are outside the control of the Company and cannot be mitigated. Should any of the risks eventuate, then it may have a material adverse impact on the financial performance of the Project, the Company and the value of the Company’s securities.

TENEMENT INFORMATION

Table 2: Tenement information.

Licence Name

Commodities

Area (km2)

Issue Date

Expiry Date

Tannenberg

 

1copper, silver

2antimony, arsenic, lead, gallium, germanium, gold, indium, cadmium, cobalt, molybdenum, nickel, palladium, platinum, rhodium, selenium, thallium, vanadium, bismuth, and zinc

271.92

07.06.2022

07.06.2025

Notes

1 Target commodities

2 Commodities included in the licence

 

ISSUE OF SHARES

GreenX Metals Limited has today issued 600,000 Shares in relation to the Agreement.

An application will be made for admission of the Shares to the standard listing segment of the Official List of the FCA (Official List) and to trading on the main market of the London Stock Exchange for listed securities (LSE Admission). LSE Admission is expected to take place on or before 9 August 2024.

 

For the purposes of the Financial Conduct Authority’s Disclosure Guidance and Transparency Rules (DTRs), following LSE Admission, the Company’s issued ordinary share capital will be 279,501,032 ordinary shares. The above figure of 279,501,032 may be used by shareholders as the denominator for the calculations by which they can determine if they are required to notify their interest in, or a change to their interest in, the Company following LSE Admission

 

Following the issue of Shares, GreenX has the following securities on issue:

·      279,501,032 ordinary fully paid shares;

·      4,775,000 unlisted options exercisable at A$0.45 each on or before 30 November 2025;

·      5,525,000 unlisted options exercisable at A$0.55 each on or before 30 November 2026; and

·      11,000,000 performance rights that have an expiry date 8 October 2026.

 

-ENDS-

Competent Persons Statement

Information in this announcement that relates to Exploration Results is based on information compiled by Mr Thomas Woolrych, a Competent Person who is a Member of the Australian Institute of Mining and Metallurgy. Mr Woolrych is a Director Group 11 Exploration GmbH and will hold an indirect interest in GreenX shares and deferred consideration for the Project. Mr Woolrych 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 Woolrych consents to the inclusion in this announcement of the matters based on his information in the form and context in which it appears.

Forward Looking Statements

This release may include forward-looking statements, which may be identified by words such as “expects”, “anticipates”, “believes”, “projects”, “plans”, and similar expressions. These forward-looking statements are based on GreenX’s expectations and beliefs concerning future events. Forward looking statements are necessarily subject to risks, uncertainties and other factors, many of which are outside the control of GreenX, which could cause actual results to differ materially from such statements. There can be no assurance that forward-looking statements will prove to be correct. GreenX makes no undertaking to subsequently update or revise the forward-looking statements made in this release, to reflect the circumstances or events after the date of that release.

The information contained within this announcement is deemed by the Company to constitute inside information as stipulated under the Market Abuse Regulations (EU) No. 596/2014 as it forms part of UK domestic law by virtue of the European Union (Withdrawal) Act 2018 (‘MAR’). Upon the publication of this announcement via Regulatory Information Service (‘RIS’), this inside information is now considered to be in the public domain

1 Production numbers sourced from Zientek et al., 2015, Table 4.

Appendix 1: Exploration Results and JORC Tables

Table 1: Historical drill hole information

Hole ID

Easting

Northing

Elevation

(m MSL)

Dip (°)

Depth (m)

Assay available

Bebra-1

4346428

5649690

n/a

90

n/a

No

C/77-B10

4353728

5660165

235

90

68.2

No

Cornberg

4349990

5658105

302

90

151.6

No

Iba-1

4349160

5650548

n/a

90

n/a

No

Iba-3

4349120

5649684

n/a

90

n/a

No

Iba-4

4348366

5649523

n/a

90

n/a

No

KB1

4356129

5659867

288.83

90

15

No

Nesselroeden-1

4368324

5655767

252

90

193.7

No

Obergude

4339370

5662062

308.88

90

200.2

Yes

Ro1

4349714

5649065

n/a

90

n/a

No

Ro3

4348224

5648740

n/a

90

n/a

No

Ro6

4348997

5648337

n/a

90

n/a

No

Ro8

4348234

5648558

n/a

90

n/a

No

Ro10

4347033

5647996

n/a

90

n/a

No

Ro15

4348595

5647200

255

90

351

Yes

Ro18

4348389

5647549

235

90

227

Yes

Ro19

4349107

5647350

280

90

360.5

Yes

Ro21

4348105

5647941

203

90

211

Yes

Ro23

4347684

5647433

300

90

380

Yes

Ro26

4347272

5647775

270

90

400

Yes

Ro27

4346047

5649652

215

90

432

Yes

Ro30

4347604

5647936

240

90

292.3

Yes

Ro31

4346844

5651396

217

90

159.2

Yes

Ro33

4347521

5648340

205

90

251.9

Yes

Ro34

4347363

5651850

220

90

244.75

Yes

Ro36

4347359

5650524

310

90

320.45

Yes

Ro39

4358152

5656842

200

90

197.2

Yes

Ro41

4346982

5647411

250

90

426.2

Yes

Ro42

4348170

5647070

249

90

307

Yes

Ro45

4356946

5656716

407

90

289

Yes

Ro46

4358278

5658088

200

90

228

No

Note: Coordinates are DHDN / 3-degree Gauss-Kruger zone 4.

Table 2: Historical drill hole assays

Hole

ID

Intersect (m)

Cu

(%)

Ag

(ppm)

From

To

Interval

Ro15

285.857

286.018

0.161

0.532

10

Ro15

286.018

286.068

0.05

0.846

15

Ro15

286.068

286.243

0.175

0.72

13

Ro15

286.243

286.288

0.045

0.919

16

Ro15

286.288

286.388

0.1

0.638

12

Ro15

286.388

286.438

0.05

0.681

13

Ro15

286.438

286.532

0.094

0.59

12

Ro15

286.532

286.619

0.087

0.562

11

Ro15

286.619

286.695

0.076

0.64

12

Ro15

286.695

286.812

0.117

0.707

13

Ro15

286.812

286.942

0.13

0.811

13

Ro15

286.942

287.043

0.101

0.737

11

Ro15

287.043

287.17

0.127

1.6

21

Ro15

287.17

287.272

0.102

1.437

19

Ro15

287.272

287.372

0.1

0.835

13

Ro15

287.372

287.463

0.091

0.499

11

Ro15

288.021

288.093

0.072

0.313

4

Ro15

288.151

288.206

0.055

0.441

5

Ro15

288.206

288.261

0.055

0.651

5

Ro15

288.261

288.281

0.02

0.506

5

Ro15

288.281

288.323

0.042

0.642

6

Ro15

288.323

288.388

0.065

1.573

12

Ro15

288.388

288.472

0.084

4.708

28

Ro15

288.472

288.51

0.038

3.837

24

Ro15

288.559

288.588

0.029

8.823

57

Ro15

288.588

288.623

0.035

4.774

30

Ro15

288.623

288.651

0.028

4.382

32

Ro15

288.651

288.721

0.07

3.554

98

Ro15

288.721

288.763

0.042

3.511

32

Ro15

288.763

288.793

0.03

2.814

28

Ro15

288.793

288.823

0.03

1.573

11

Ro15

288.823

288.865

0.042

2.313

17

Ro15

288.865

288.883

0.018

0.567

7

Ro15

288.883

288.901

0.018

0.469

7

Ro15

288.901

288.972

0.071

0.645

10

Ro15

288.972

289.004

0.032

0.617

8

Ro15

289.004

289.057

0.053

0.641

9

Ro15

289.057

289.117

0.06

0.523

9

Ro15

289.117

289.129

0.012

0.349

0

Ro15

289.151

289.159

0.008

1.033

18

Ro15

289.159

289.169

0.01

0.641

14

Ro15

289.169

289.179

0.01

0.477

15

Ro15

289.179

289.235

0.056

0.817

10

Ro15

289.235

289.257

0.022

0.312

4

Ro15

289.257

289.312

0.055

0.321

4

Ro18

209.5

210

0.5

0.9

20

Ro18

210

210.25

0.25

7.2

70

Ro18

210.25

210.53

0.28

8.6

50

Ro18

210.53

210.76

0.23

3.3

35

Ro18

210.76

211

0.24

0.3

-2

Ro19

339.5

339.71

0.21

7.6

80

Ro19

339.71

340

0.29

2.5

30

Ro19

340

340.5

0.5

1.5

15

Ro19

340.5

341

0.5

1

10

Ro19

341

341.5

0.5

1.3

10

Ro19

341.5

342

0.5

0.43

10

Ro21

199

199.18

0.18

0.94

10

Ro21

199.18

199.4

0.22

0.49

6

Ro23

365.48

366

0.52

2

21

Ro23

366

366.45

0.45

0.88

17

Ro23

366.45

367

0.55

3.2

78

Ro23

367

367.49

0.49

5

80

Ro23

367.49

367.58

0.09

0.97

12

Ro26

388.3

388.48

0.18

2.1

Ro26

388.48

388.72

0.24

0.88

Ro26

388.72

389

0.28

0.74

Ro33

242.5

243.1

0.6

1.2

35

Ro33

243.1

243.5

0.4

0.31

10

Ro34

196.75

197

0.25

0.45

10

Ro41

414.35

414.85

0.5

0.45

10

Ro45

268

268.5

0.5

0.35

2

Ro45

268.5

269

0.5

2.3

25

Ro45

269

269.28

0.28

4.8

75

Ro45

269.28

269.63

0.35

0.59

3

Ro45

269.63

270

0.37

1

5

Note: Only assay results equal to or greater than 0.3% copper are reported.

 

JORC Code, 2012 Edition – Table 1 Report

Section 1 Sampling Techniques and Data

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

Criteria

JORC Code explanation

Commentary

Sampling techniques

Nature and quality of sampling (eg cut channels, random chips, or specific specialised industry standard measurement tools appropriate to the minerals under investigation, such as down hole gamma sondes, or handheld XRF instruments, etc). These examples should not be taken as limiting the broad meaning of sampling.

Due to the historic nature of the drilling results reported herein, it is not possible to comment on the quality of the sampling used to produce the results described. It is known from historic reports that the drill core was sawn. Sampling of ¼ core was conducted during multiple exploration phases between 1980 and 1987 within the licence area by St Joes Exploration GmbH (“St Joes Exploration”). The information shown here was collated from scans of hard copy reports from that era and a State Survey Database. Assays, geological logging and gamma ray logs were conducted by St Joes Exploration.

 

Include reference to measures taken to ensure sample representivity and the appropriate calibration of any measurement tools or systems used.

No QAQC was reported.

 

Aspects of the determination of mineralisation that are Material to the Public Report. In cases where ‘industry standard’ work has been done this would be relatively simple (eg ‘reverse circulation drilling was used to obtain 1 m samples from which 3 kg was pulverised to produce a 30 g charge for fire assay’). In other cases more explanation may be required, such as where there is coarse gold that has inherent sampling problems. Unusual commodities or mineralisation types (eg submarine nodules) may warrant disclosure of detailed information.

Work was not conducted to modern industry standards.

Drilling techniques

Drill type (eg core, reverse circulation, open-hole hammer, rotary air blast, auger, Bangka, sonic, etc) and details (eg core diameter, triple or standard tube, depth of diamond tails, face-sampling bit or other type, whether core is oriented and if so, by what method, etc).

St Joes Exploration

·          10 cm drill cores were collected, further specifications are not known.

State Survey Database

·          Unknown drilling techniques.

Drill sample recovery

Method of recording and assessing core and chip sample recoveries and results assessed.

 

Due to the historic nature of the drilling results reported herein, it is not possible to comment on the recoveries achieved at the time.

 

Measures taken to maximise sample recovery and ensure representative nature of the samples.

Not reported.

 

Whether a relationship exists between sample recovery and grade and whether sample bias may have occurred due to preferential loss/gain of fine/coarse material.

Not reported.

Logging

Whether core and chip samples have been geologically and geotechnically logged to a level of detail to support appropriate Mineral Resource estimation, mining studies and metallurgical studies.

Information available is not appropriate for a Mineral Resource estimate.

 

Whether logging is qualitative or quantitative in nature. Core (or costean, channel, etc) photography.

Available logs are qualitative only.

 

The total length and percentage of the relevant intersections logged.

The entire hole was logged, the target zone is typically 2 m thick.

Sub-sampling techniques

If core, whether cut or sawn and whether quarter, half or all core taken.

A reference to ¼ core is reported by St Joes Exploration however this is not specific to every hole/phase.

and sample preparation

If non-core, whether riffled, tube sampled, rotary split, etc and whether sampled wet or dry.

N/A

 

For all sample types, the nature, quality and appropriateness of the sample preparation technique.

N/A

 

Quality control procedures adopted for all sub-sampling stages to maximise representivity of samples.

N/A

 

 

Measures taken to ensure that the sampling is representative of the in situ material collected, including for instance results for field duplicate/second-half sampling.

N/A

 

Whether sample sizes are appropriate to the grain size of the material being sampled.

N/A

Quality of assay data and laboratory tests

The nature, quality and appropriateness of the assaying and laboratory procedures used and whether the technique is considered partial or total.

A St Joes Exploration reference reports that geochemical analysis was carried out by Robertson Research Ltd, Wales, however it is not specified if this was for each hole/phase.

 

For geophysical tools, spectrometers, handheld XRF instruments, etc, the parameters used in determining the analysis including instrument make and model, reading times, calibrations factors applied and their derivation, etc.

N/A

 

Nature of quality control procedures adopted (eg standards, blanks, duplicates, external laboratory checks) and whether acceptable levels of accuracy (ie lack of bias) and precision have been established.

N/A

Verification of sampling and assaying

The verification of significant intersections by either independent or alternative company personnel.

 

No verification carried out.

 

The use of twinned holes.

No twinned holes.

 

Documentation of primary data, data entry procedures, data verification, data storage (physical and electronic) protocols.

Limited data is available via hard copy reports. Data was digitised by Group 11 Exploration and merged with State/Federal databases.

 

Discuss any adjustment to assay data.

N/A

Location of data points

Accuracy and quality of surveys used to locate drill holes (collar and down-hole surveys), trenches, mine workings and other locations used in Mineral Resource estimation.

Location accuracy is unknown. The location of holes drilled by St Joes Exploration comes from collar tables in historical reports.  All other collar locations come from State/Federal databases.

 

Specification of the grid system used.

Latitude and Longitude in degree, minutes and seconds were provided by St Joes Exploration. All drill collar coordinates are reported here in the DHDN / 3-degree Gauss-Kruger zone 4 grid system.

 

Quality and adequacy of topographic control.

N/A

Data spacing and distribution

Data spacing for reporting of Exploration Results.

Drillholes within the Ronshausen mineralised area are spaced between 400 – 700m. Outside of this area the drilling is sparce.

 

Whether the data spacing and distribution is sufficient to establish the degree of geological and grade continuity appropriate for the Mineral Resource and Ore Reserve estimation procedure(s) and classifications applied.

Not sufficient for the establishment of a JORC compliant resource.

 

Whether sample compositing has been applied.

N/A

Orientation of data in relation to geological structure

Whether the orientation of sampling achieves unbiased sampling of possible structures and the extent to which this is known, considering the deposit type.

The target Kupferschiefer layer is flat to slightly dipping, vertical drilling therefore intercepts at right angles and is appropriate.

 

If the relationship between the drilling orientation and the orientation of key mineralised structures is considered to have introduced a sampling bias, this should be assessed and reported if material.

No sampling bias.

Sample security

The measures taken to ensure sample security.

N/A

Audits or reviews

The results of any audits or reviews of sampling techniques and data.

N/A

 

Section 2 Reporting of Exploration Results

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

Criteria

JORC Code explanation

Commentary

Mineral tenement and land tenure status

Type, reference name/number, location and ownership including agreements or material issues with third parties such as joint ventures, partnerships, overriding royalties, native title interests, historical sites, wilderness or national park and environmental settings.

The “Tannenberg” exploration licence is held 100% by Group 11 Exploration GmbH. The licence was granted on the 7th of June 2022 and is valid for 3 years. The licence is free from overriding royalties and native titles interests. There are historical mine workings within the licence area, but no known historical sites of cultural significance outside of mining.

Within and surrounding the licence area, there are environmental protections zones with differing levels of protections. There are small areas identified as Natura 2000 Fauna Flora Habitat Areas and Bird Sanctuaries. Other environmental protection designated areas include Nature Reserves, National Natural Monuments, Landscape Protection Area, and Natural Parks. Based on due diligence and discussions with various stakeholders and consultants, the presence of environmental protection areas does not preclude exploration or eventual mining if conducted in accordance with applicable standards and regulations.

The landform across the license area comprises mostly of farmland, forested areas, and small towns and villages.

 

The security of the tenure held at the time of reporting along with any known impediments to obtaining a licence to operate in the area.

The licence is in good standing.

Exploration done by other parties

Acknowledgment and appraisal of exploration by other parties.

Exploration was carried out by St Joes Exploration (in JV with the Broken Hill Pty Co Ltd later BHP-Utah) between 1980 and 1987. Two projects were undertaken. The Richelsdorf project within the licence area as well as the Spessart-Rhoen project 85 km to the south. Hole IDs starting with ‘Ro’ were drilled by St Joes Exploration.

All other drill holes come from State Survey databases with unknown history.

Historical mining took place within the licence area. Mining activities ceased in the 1950’s. Comprehensive records of all mine workings are not available to the Company (and may not exist).

Geology

Deposit type, geological setting and style of mineralisation.

Mineralisation is of the classic Kupferschiefer type (copper slate) within the Permian Zechstein Basin of Germany and Poland.

The Zechstein Basin is hosted within the Southern Permian Basin (“SPB”) of Europe. The SPB is an intracontinental basin that developed on the northern foreland of the Variscan Orogen.

Very high-grade copper mineralisation is generally associated with the Kupferschiefer shale unit. However, minable copper mineralisation also occurs in the footwall sandstone and hanging wall limestone units in Poland. Mineralisation can be offset from the shale by up to 30 m above and 60 m below.

Drill hole Information

A summary of all information material to the understanding of the exploration results including a tabulation of the following information for all Material drill holes:

easting and northing of the drill hole collar

elevation or RL (Reduced Level – elevation above sea level in metres) of the drill hole collar

dip and azimuth of the hole

down hole length and interception depth

hole length.

Appendix 1 contains all relevant drillhole information.

 

If the exclusion of this information is justified on the basis that the information is not Material and this exclusion does not detract from the understanding of the report, the Competent Person should clearly explain why this is the case.

All available drill collars are provided. The availability of historical assay results are listed in Appendix 1 Table 1.  Assay results less than 0.3% Cu are not reported.

Data aggregation methods

In reporting Exploration Results, weighting averaging techniques, maximum and/or minimum grade truncations (eg cutting of high grades) and cut-off grades are usually Material and should be stated.

N/A

 

Where aggregate intercepts incorporate short lengths of high grade results and longer lengths of low grade results, the procedure used for such aggregation should be stated and some typical examples of such aggregations should be shown in detail.

N/A

 

The assumptions used for any reporting of metal equivalent values should be clearly stated.

N/A

Relationship between mineralisation widths and intercept lengths

These relationships are particularly important in the reporting of Exploration Results. If the geometry of the mineralisation with respect to the drill hole angle is known, its nature should be reported.

Drilling is perpendicular to mineralisation. Detailed sampling was done to lithological contacts on a range of scales from 1-50cm.

 

If it is not known and only the down hole lengths are reported, there should be a clear statement to this effect (eg ‘down hole length, true width not known’).

Intercepts are true width.

Diagrams

Appropriate maps and sections (with scales) and tabulations of intercepts should be included for any significant discovery being reported These should include, but not be limited to a plan view of drill hole collar locations and appropriate sectional views.

Appropriate diagrams, including a maps, cross sections, and tables are included in the main body of this announcement.

Balanced reporting

Where comprehensive reporting of all Exploration Results is not practicable, representative reporting of both low and high grades and/or widths should be practiced to avoid misleading reporting of Exploration Results.

All available results are reported. Only assays above or equal to 0.4% Cu are reported for practical reasons.

Other substantive exploration data

Other exploration data, if meaningful and material, should be reported including (but not limited to): geological observations; geophysical survey results; geochemical survey results; bulk samples – size and method of treatment; metallurgical test results; bulk density, groundwater, geotechnical and rock characteristics; potential deleterious or contaminating substances.

All substantive results are reported. Geological logs and downhole gamma logs are not reported here.

Further work

The nature and scale of planned further work (eg tests for lateral extensions or depth extensions or large-scale step-out drilling).

Infill and step out drilling required to assess the full potential of mineralisation near Ronshausen is planned. The search for additional archive material and historical records will continue. Desktop analysis and drill targeting will be conducted in consultation with subject-matter experts. Geophysical methods (such as seismic, magnetic, electrical, and gravity) will be evaluated and used if deemed appropriate for the project.

 

Diagrams clearly highlighting the areas of possible extensions, including the main geological interpretations and future drilling areas, provided this information is not commercially sensitive.

These diagrams are included in the main body of this release.

 

The Real Game of Copper – Wayne McCrae

by Wayne McCrae

It seems everyone has an opinion on copper, whether the price or the forecast production or its longevity in danger? Well, this is in-depth research on everything to do with copper and at the end of reading, you can make up your own mind, as to where copper is going and the fortunes to be won and lost, whether a copper producer, broker, trader, buyer, end user, copper consumer, recycler or just an inquisitive onlooker.

Image courtesy of Kitcogold

I’m going to give a bit of the ending away, at the start of this research paper. The United States metals forecaster for mineral reserves and resources USGS (United States Geological Survey) have forecast the end of reserves of copper in the ground to be mined within the next 80 years. (including new discoveries) Click in the brain, “what about renewables”. Read on and you can make your own mind up, because your mind is probably as good as anyone else, in making a prediction. Remember nothing is infinite.

The rise & fall, & the rise &rise & rise of the red metal

Historical Prices of Copper

Year                                                             Price $US per pound/lb(average)

1990                                                            $1.04

1995                                                            $1.326

1998                                                            $0.75

1999                                                            $0.72

2002                                                            $0.72

2004                                                            $1.28

2005                                                            $1.62

2006                                                            $3.00

2009                                                            $2.37

2010                                                            $3.43

2011                                                            $4.00

2015                                                            $2.49

2017                                                            $2.81

2020                                                            $2.80

2021                                                            $4.24

2023                                                            $3.81

2024 June                                                $4.67

Ok, so how can anyone predict the future of copper other than there will be no more within 80 years. Copper was trading at $US0.72 lb US$1586 per tonne in 2002) only 22 years ago. Price per pound/lb, used for copper is 2,204 lbs = one tonne. The price of copper has skyrocketed over 400% from 2002-2006.

Compare Gold: In 2001 $US271 ounce. Today $US2,348 ounce is 866%.

Copper consumption in 2002 declined due to falling consumption, falling 200,000 metric tonnes in 2002, via weak demand and the increase in stockpiles. In 2002, Comex and LME warehoused over 1.27m tonnes of copper. Then came the China Manufacturing dominance revolution, becoming the largest consumer of copper, topping the United States. That change, in the world order of supply and demand, was the key element in the events that would follow.

By the fourth quarter of 2003 copper inventories held in exchange warehouses, had fallen by 575,000 tonnes or 45% from the peak, with the price of copper closing above $US 1.00 lb level. Then in 2004, the speculative community, including major hedge funds, bought massive quantities of copper. The big push was enough to push the price curve, from a gradually rising curve to a far more vertical path, that was fed by consumption & increased higher prices. “The fix was on”.

HOW MUCH COPPER IS PRODUCED NOW AND WHAT ARE THE FORECASTS

First let me say that forecasts for copper prices in the future may vary depending on who you listen to, but they are all, within a forecast based acceptable range, accepted by the market.

Ok, we also know that forecasts by unscrupulous forecasters are for deceiving and manipulating the general market. When there is a forecast of any metal downward, it is usually the work of these deceivers. Everyone has a game to play in the market, remember that. “You never tell your wife you have a mistress”.

Copper is the major player in the minerals game, (lithium, is just a bubble) all, experienced players with common sense, know that, with copper right now, without doubt, the is most important mineral in the world for the survival of mankind.

The question is, therefore, WHY IS A POUND OF COPPER WORTH THE SAME PRICE AS A LATTE COFFEE. Why is copper only worth $US 0.29c ounce. Twenty Nine Cents per ounce, is all Copper is selling for as 99.99% copper metal today. To go mining copper, after the initial discovery, proved viable to mine and feasibility study to guarantee anannual copper production of 200,000 tonnes of copper metal, you will need, “example,” a reserve of approx. 22 million tonnes of ore at a grade of 1% Copper. (allowing 90% recovery of the copper after processing) You will also need to build a processing plant capable of a throughput of 2 million tonnes of ore per annum. So what does that tell you? It tells you that copper mining, in the future, is going to be “unsustainable” at its current price. Copper price has nowhere else to go but UP. Remember the biggest consumer of copper is China and the LME (London Metal Exchange) that sets the metals price on a daily basis is the owner of the LME, (Hong Kong Stock Exchange – CHINA) purchased in 2012 for $US2.2Billion, this is what I call a very wise investment. Good on them for having the foresight. Just when you thought the wise guys, the “big players” in the metals game, Glencore, BHP and their ilk are smart. Well now you know, how smart they really are. Total Dumb arses in reality. Too busy with the head in their chosen “lifestyle companies”. That’s the reality.

COPPER PRICE IS NOT HIGH – IT’S JUST HIGHER THAN IT WAS BEFORE. COPPER IS $US0.29c ounce.

You read correctly  “twenty nine cents per ounce”

The annual global production of copper is rising beyond forecasts. After a 1% growth in 2022, copper surged in 2023 by 4.8% globally, reaching annually 22.6million tonnes.

This massive jump in production was attributed to the surge in copper mining in the Democratic Republic of Congo, Peru and Chile, who continued the growth all through to now.

The forecast in late 2023, was for global production of copper to be maintained, at a compound annual growth rate of 2.5% required due to the demand from China.

The forecast on 6th November 2023 by CAGA (Copper Mining Industry Analysis) Reserves/production was for global production to be maintained at a growth rate of 2.5%p.a. forecasting an annual production rate of 27.2 million tonnes of copper through to 2030. 

Copper now upgraded to a critical mineral status

The big problem now for copper is ensuring supply after the copper concentrates (in a powder form or as a sheet of copper metal cathode, depending which process was used) have been sent for smelting and refining.  This next process, once the concentrates have arrived at the smelter is for treating the copper in a furnace into a blister copper (block of copper) There is a cost for this expensive next step, treatment and the refining of the copper, called TC/RC (Treatment cost and Refining cost). With China now controlling 60% of the global supply of worldwide critical minerals, it is becoming a concern from Western countries. The choice that mining companies have to make when they send their concentrates for converting to a refined metal is the price that the two dominant countries, refiners charge for the TC/RC. It’s become a competition between China and Japan. China now accounts for 40% of all refining of copper and is expected to increase to 50% by 2030.

In September 2023 the treatment charge (TC), for converting copper concentrate powder to copper by melting only, was $US80 per tonne. ($80 tonne is the weight of the concentrate, not the metal, therefore, the higher the grade of the concentrate the cheaper the TC).

By October 2023 the treatment charge had dropped to $US60 per tonne and by January 2024 the “Chinese Smelters Purchase Team” (CSPT) guidance for Treatment Charge of $US80 tonne  and refining charge of $US0.08c lb. (there are 2204 lbs in a tonne so the cost for refining is actually $US176 per tonne) Then the CSPT forecast a further drop in guidance for 1st quarter of 2024 to TC of $US50 tonne and  RC of $$US0.05clb.

Copper traders, that deal in copper concentrates are generally interested in dealing with the smelter that offers the lowest smelting (treatment & refining costs TC/RC), but the smelters also provide timely capacity, not long lead times.

China is winning the majority of the concentrates/treatment battles. Even though there is a lot of energy consumed in the treatment/smelting of copper, the Chinese are prepared to offer the lowest price, but are able to recover that money back by increasing the price of the refined 99.99% copper.  It is the old 3 card trick. The Japanese haven’t worked that out yet. Because China owns the LME 100% and sets the market daily copper price, LME can control the price of copper. Japanese in mid-2023 tried to steal the march on China by reducing the treatment charge per tonne of copper to $US45 tonne and the refining to $0.46c per tonne. But found the energy costs become unsustainable.

The Japanese set the treatment and refining (TC/RC) charge for all of 2024 at $US 42.50 per tonne treatment/smelting and refining charge at $0.425c to $0.45c (per lb).  The Chinese responded at the time by lowering the global lowest ever treatment charge temporarily to $US40. The current Chinese price is now set at $60 and have previous set contracts in place prior to the price drop of $US80 per tonne, for treatment charge. So that means the Chinese smelters are getting most of the copper concentrates from the miners and metal traders, again taking control of the copper market.

Australian Copper Smelters.

Everything and anything, to do with mining and processing of metals in Australia, the industry is handcuffed by ridiculous and unsustainable Environmental (EPA) rules that prevent the industry from value adding. Queensland and Victoria are the worst states in Australia, with unrealistic EPA legislation, that force most metal adding values overseas. Queensland is one state to avoid under any circumstances for mining or processing until a change in Government. Royalties in most states are 5% some minerals in Queensland are 45%. That’s 45% of the selling price, “not the profit”. A 45% State Royalty can be the equal of 90% of the miner’s profit. The Queensland Government is handing out $A3 billion worth of election promises, and cash and the mining industry is pay for it.

The only 2 copper smelters in Australia are in Townsville built in the Bjelke Petersen days and BHP in South Australia.

The Townsville smelter is owned by Glencore that smelts around 300,000 tonnes of copper and refines the copper to 99.95%. The second smelter is the Olympic Dam smelter owned by BHP that smelters and refines around 200,000 tonnes of copper annually. BHP is assessing the options to increase to 500,000 tonnes annually.  With the current price of energy in Australia it makes sense at the current “war TC/RC prices” and global competition to assess whether it is cheaper to be processed in China, Japan or other countries, probably at less than a 1/3rd of the energy cost in Australia.

These two smelters will more than likely close before 2030as the renewable energy plan will not provide anywhere enough power for these massive energy consumers. Just one of a dozen industries that will leave our shores if this madness of electrification using renewables continues.

Five biggest global producers of copper 

Chile: 5 million tonnes, Democratic Republic Congo 2.5 tonnes, Peru: 2,6 million tonnes, China: 1.7million tonnes and the United States 1,1 million tonnes. Where is the Democratic Republic of Congo? if that is part of the 5 to be referenced.

HOW MUCH COPPER IS LEFT IN THE GROUND ON PLANET EARTH?

Copper is a metal, present in the earth’s crust and mined via open cut mining or by a deep underground method, but as the earth is warming so is the temperature deep underground, which will limit the access to deep underground resources. The deeper mines now require massive air conditioners dotted all over their mining leases, to try to cool the temperature underground. The costs to produce this cold air and the massive increase in costs associated with mining are reasons, the “once big money-making mines” like Mt Isa Mines will cease underground mining in late 2024.  For years Mt Isa Mines have been remote mining, with machinery being operated via CCTV and remote controls 200 metres above the workings. It is far too expensive to mine at these depths, considering the low “price of copper” compared with the costs to mine it. Copper price is low, just because its high than before does not make it high. Copper should be trading in the same price sphere as Nickel.

What is Resource and what is Reserve?

Resource of copper means it is the quantity of copper you have delineated by exploration and drilling to whatever depth you choose to drill. The deeper you drill and intersect copper ore, the larger the resource. But it may not always be viable to mine. Reserve means the tonnes of copper bearing ore, of high enough copper grade at a depth, that can be viably mined over a certain set period?  So, a resource may read; Measured, indicated and inferred:  10 million tonnes.

However, the Reserve may only 4 million tonnes: which means: only 4 million tonnes of ore, is of a copper grade high enough to be mined viably at that time and within the timeframe/period, from start to completion of mining of the “reserve tonnes and ore grade.” The decision to mine is based on the feasibility of the project and determined by a feasibility study to determine whether it is viable and profitable.

The balance of the resource ie:  difference between Resource and Reserve, will stay in the ground, until it becomes viable to mine.  The balance of copper left in the ground (more than likely forever) will only ever be mined, when and if the copper price becomes enough and the cost of mining and processing to less than the value of the metal.

GLOBAL ESTIMATES IN RESOURCES AND RESERVES

The amount of copper left unmined globally is estimated: Resources: 5,000 million tonnes. (5 billion tonnes USGS 2020).  The resources of copper estimated by USGC on 20th March 2024, are expected to increase with organic exploration with the resources expected to exceed 5 x Billion tonnes.

The Big:   HOWEVER, HOWEVER, HOWEVER, the Current Copper Reserves are estimated at only 870,000,000 tonnes. Without new discoveries the life of copper to me mined before it becomes as extinct as the Tasmanian Devil, (USGC) is 40 years and only if new discoveries, match the previous discoveries, with the rate of consumption the maximum time for copper to be depleted is maximum 80 years. Ie: the year 2304.  What is the point of electrification using renewable energy and spending globally $US9.2 trillion? No copper for electronics or Electric vehicles. Back to the future with combustion engines.  Like cutting off your arm to cut your fingernail. Just one big expensive circle of expense, heartache, headache, anxiety, stress etc for the next 40 years when there doesn’t need to be. All renewables, wind and solar, need to be replaced every 15-25 years and the battery farms every 10 years. $S9.2 trillion worth of renewables replaced every time their life expires. Also find a dumping ground for the $US9.2 trillion of waste they create.

COPPER DEMAND AND PRODUCTION 

The annual demand for copper metal at present is 28 million metric tonnes per year.

The current annual production of copper at present is 22 million metric tonnes as at 4th June 2024 with a price of $US 4.55lb

Total production of copper double space removed in 2010 was 16 million metric tonnes per year. $US3.43lb

AUSTRALIA’S LARGEST 5 COPPER PRODUCERS  

Australia Globally, 7th Largest producer of Copper representing 4% of global production.

Olympic Dam: 212,000 tonnes copper 2023, (BHP) 

Cadia:                                      105,000 tonnes copper 2023 (Newmont)

Mt Isa Copper:                  71,000   tonnes copper 2023 (Glencore)

Carpenteena:                    60,230   tonnes copper in 2023. (BHP)

Prominent Hill:                 55,530   tonnes copper 2023 (BHP)

In addition to the big boys, there are more than 20 medium to large Copper producers in Australia, with multiple small hopefuls.

The major problem with developing new mines in Australia is a lack of suitable people. Experienced people & cash. Geologists, metallurgists, mining engineers, drillers, administrators, directors, earthmoving contractors, underground miners, etc. are the biggest inhibitor and challenge of mining companies in Australia.  There is no shortage of copper deposits left unexplored in the biggest copper province in Australia, Queensland Copper fields, but the current Queensland Government is anti-mining. For all mineral explorers, this is an unfortunate situation and has set the brakes on the exploration and development of mines, production, particularly copper.  The brakes will be released if a change of Government and the Environmental Protection Agency and QLD Mines Department undertake a complete re-formation.                                      

The Renewable Energy, Electric Vehicle and Electrification Revolution. Where are we going?

To be honest, I don’t know where to start when it comes to this question. What I will say is being 76 years old this December, has put a lot of real life experiences under my belt, from being a copper and Gold miner from the mid 70’s, experiencing the metal prices when I started mining copper in Cloncurry as a gouger at $US0.60c per lb. Mining in the middle of nowhere and limited to only 1,000 tonnes per month and then, to be transported to Mt Isa for processing and giving Mt Isa Mines 2% copper off the top and 2 grams of Gold, for processing and 5% royalties. At that time wages were $6 per hour for employees. I have been through the ages of mining Copper & Gold and believe I am an accurate predictor of what will happen in the future.  The more it changes the more it stays the same. 

Here we go:  The fear of “Global warming bubble” has sent shockwaves through the world of activism, naïve politicians, opportunists, hedge fund opportunities, greedy manufacturers of renewables, installation contractors, liars and marketeers and lobbyists. Can it survive, is it sustainable, has any Australian politician thought through the ramifications, has anybody attempted to educate and explain to the Australian citizens, of the shortfalls and future problems, of electrification using renewables? The ANSWER TO ALL OF THE ABOVE IS NO, NO, NO.  The big question is how do we stop the destruction revolution of “an expensive exercise in futility”.

First let’s look at what renewables are: Renewables are the product of imagination, that can manufacture electricity without using any other energy, for the power required to drive a generator, (with the exception of solar) apart from what nature delivers, ie: wind and water and sunlight (solar)

So what that does that mean:

  1. Means, that if the sun is shining, on any given day, or there is cloud cover, or its at nighttime, the solar panel will not make electricity. Zero, Zilch.
  2. No power, If the wind is not blowing above 8 km/hr or above 55 km/hr,the wind turbine will   not generate electricity.
  3. If there is a drought and the weather patterns change so there is no water or melting snow to provide water to the hydro-electric power generators, there is no electricity.

So, I’m sure everyone gets the above, it’s not rocket science.  Renewables cannot provide 24/7/365 base load power. In other words, there will be times when there will be no power to drive anything electric. No electric vehicles, no lifts in hi rise or office buildings, no ATMS, no internet, absolutely “NO NOTHIN’ NO phone charges, no TV, no air conditioners, no kettles, no electric stoves, so anything you must plug in won’t work. No lights to find the switch even to check. This is what we call reality. It’s a “GIVEN”

What a lot of people don’t know is that renewables must transfer their electricity to a battery farm that stores the electricity. (the cost is more than the renewable solar and wind farms) Unless it has a 1 x gigawatt size solar or wind farm capacity it cannot supply power directly into the grid.  However, in some rare cases, 1 x gigawatt scale solar farms may be directly connected to the power grid without the need for storage in battery farms during rare power consumption times only. The surplus energy generated during peak hours can be fed directly into the grid.   Battery farms of 1 x gigawatt scale are massive in size and with lithium being so volatile, a major accident is waiting to happen. The decision to include storage batteries into a solar 1 x gigawatt setup should also be considered along with the costs for maintenance, lifespan and efficiency and evaluated to determine whether the benefits of the energy storage outweigh the costs.

It is difficult getting prices for the cost of battery farms, because it is so expensive that none of the suppliers want to disclose the price because it will likely kill the whole electrification industry with the costs being made public. Everything to do with costings is top secret.

I have searched everywhere to find a price for a new 1 x gigawatt lithium-ion battery farm. The closest I can get to a genuine costing is for the Hornsdale Power Reserve Facility in South Australia that is a 185-Megawatt Battery farm supplied by Tesla at a final cost of installation at $200m. A second battery farm, a 250mw (1/4 of a gigawatt battery farm) is currently being built at the site of the Swanbank power station in Queensland. It is being built to replace power at former the Swanbank gas fired power station, at a public released cost of $A330m.  The life of these lithium-ion battery farms is 10 years. No one has been told what happens to them for site rehabilitation and destruction of the batteries after their life expires. I think the reason the public are not informed that the $330,000,000 battery farm needs to be replaced every 10 years is that no one wants to explain what happens to them after the 10 year expiry date. All the current Labor politicians in Queensland will be long gone by the time that battery farms expire and cometo an end. So they just shut up. It will only open a pandoras box if they give truthful details.

Cost of infrastructure to integrate the battery farms, solar and wind farms.

What are the costs to integrate the solar farms and the wind power farms into the national grid? The last cost estimates for integration infrastructure in 2017 (so you can multiply that by a factor of 3) was $A500,000,000 (half a trillion dollars) with the inflationary pressures on now forecasting $1.5Trillion. The cost to shut down all the coal fired power stations, was forecast by the AEMO at $A320 billion.  TO BE HONEST JUST ABOUT EVERY REPORT ON THE COSTS OF RENEWABLE AND TRANSISTIONING TO ELECTRIFICATION AND INTEGRATING INTO THE NATIONAL GRID DIFFER ON THE COST. NO ONE HAS A CLUE. Some say $300 billion others $500 billion, others $1.5 trillion.

The “global cost estimated” for transition to renewables by McKinsey Global Institute estimate at $US9.2 trillion. The estimate increased $US3.5 trillion from 2022 to 2024. The costs literally increase monthly. It’s like a giant NBN Fupup, started at $19B now at $57Billion and still spending and already out of date technology. The politicians have no clue. Its just a pot of Gold for the renewable industry, the lobbyists, the manufacturers, the installers and the power generation companies, and the companies that get to dispose of them after their lifetime. There are zero checks and balances, just pay. Our Minister for Climate change overseeing the renewables electrification transition, is just not on the same planet for what’s really happening. He’s just “winging it” and hopes to be “booted out of office” before we start to get towards the pointy end. The only losers of this unnecessary madness are the hard-working taxpayers of Australia watching their taxes being pssssd up against a wall by naïve uneducated, inexperienced fools we politely call POLITICIANS.

The cost to transition to 100% Renewables

The latest study from the energy sector and low carbon technologies for the cost of transitioning to 100% renewables will cost approximately $A1.5 trillion. This is the cost now, assuming a timeframe from 2022-2050.  We already know after watching the NBN blow out from $19B to $57B and if this current fool is still calling the shots, we can only imagine where the real numbers will finish.  Its not the governments money, its ours, so why do they care, they don’t. What they don’t mention in any of the reports is the inclusion of cost all of the renewable energy farms requiring being replaced every 15-25 years, and the battery farms every 10 years. This point will add a multiplication factor of 3 to any costs now, not including the inflation factor.  There have been no costs added for rehabilitation of the sites and demolition of the farms or the areas required for dumping of all of the infrastructure (old wind turbine blades and solar panels) and batteries, which will require hundreds of square kilometers of dumping areas. There has been no cost for the re-tree clearing, deforestation of the trees that have grown to maturity, during the period of operation for the wind farms. Basically, the only costs being used are for the once-only setup, hoping that no one will ask the hard questions. None of which, that a politician on either side of parliament could answer, certainly not within the current labor government.

Future of Electric Vehicles

The future of electric vehicles, once I investigated the murky side of this industry, is that it seems there was an opportunity for big car makers to knowingly jump into this market. But at the same time, knowingly that it was not sustainable, but that the dollars involved outweighed that potential loss factor. It’s always about the “show me the money”.  Let’s just study the most prominent manufacturer of EV’s, namely Tesla S. For the family car market, the company has made the Tesla model S. This model comprises aluminum, plastic and copper and in some cases the use of some stainless steel sheeting.  So where does copper play a role in EV’s?  A Tesla model S contains 82 kilograms of copper, 190 kilograms of aluminum, 544 kilograms for the battery and 217 kilograms of plastic. The Tesla model S has a sub frame of aluminum with 50% of the volume of the car and 10% of the weight being plastic. Plastic as we know it now, is made from oil (fossil fuel). A little hypocrisy? But to the academics, the radicals, the demonstrators and the climate change activists this is just overlooked to an end. I will say I have used Tesla in the illustration because it will probably be the only one standing by the year 2030. Tesla is a class act and the rest are just “wanna be” clones.

How much electricity is required to charge electric vehicle

 in Australia if we go 100% zero emissions. Answer: An extra 1.2 Gigawatts.

Australia’s current power grid can support up to 5% and up to 10% penetration of EV’s based upon uncontrolled charging. Meaning you can charge your car anytime you want. The general rule for the power required to charge an EV at home is a usage of 7,200 watts of power space. An EV uses around 17kWh of power per 100kms. The cost per kWh of power to charge in Australia is between $0.25-$0.35c per kWh depending on the deal you have with the provider. So, the cost would be somewhere between $A4.25 and $5.95 per 100 kms. As of December 2017, there was 4,455,000 megawatts of power installed capacity in Australia (4.455 Gigawatts) If Australia was to achieve its targets of zero emissions by 2030 there would need to be an extra 1.2 gigawatts of electricity installed to the national grid, just for EV’s. That’s how much power draw there would be.

Battery Farms and general battery storage counted in 2023 was a total of 5,966 MWh (megawatt hours. (April 2024) CONFUSED? It is important not to get mixed up with the total “installed power” in Gigawatts (GW) (generators/wind turbine/solar etc) Then there is GWh (Gigawatt hours) means: the total hours of electricity that can be generated, produced, from the installed power generators in Gigawatts (power source-generators/wind turbine etc) of power (the power supplier). For example: Australia has 5.966 Gigawatts of installed power generators and produced in 2022 a total of 273,265 gigawatts of electricity.  Example: Like having a little 5kVa portable generator at home but producing 1,000 kwh of electricity in a year.

What is the cost just to increase the national grid by 1.2Gw just for power for EV’s

Australia would need to increase its electricity supply by 15-20% if we were to go all electric vehicles. I would suggest that it would be double that, but these are the reported forecasts we have on hand. Because so much money is being made from the transition from coal/gas to renewables, it seems that everyone is fudging the figures to make it look tenable, cost saving and sustainable, when it has no hope of ever doing that.

The problem is there is no one overseeing the transition. It’s just a free for all and Australian taxpayers are just paying the invoices streaming into the government letterbox with please pay within 7 days.

This is the $$$$ cost of increasing our “current installed power supplies” by 15-20% to sustain EV’s 100%.

This would require at this moment an increase of 1.20 Gigawatts of newly installed power generation as previously mentioned. This cost if it was to be done today would be, using the actual reported costs of Battery farms either already installed Horsndale in South Australia, or one currently being installed at the old Swanbank Gas power station in Queensland.

Below are the costs for either Wind Turbines or Solar Panels to provide the extra power needed just for EV’s if Australia goes zero emissions:

Wind Turbines:

Cost for adding 1.2 Gw:                 $2,400,000,000 ($A2.4B)

Battery Farm:                                        $1,470,000,000 ($A1.47B)

Total:                                                           $3,870,000,000($A3.87B)

Solar Panels:

Cost to add 1.2 Gw:                          $1.800,000,000 ($A1.8B)

Battery Farm:                                        $1,470,000,000 ($A1.47B)

Total:                                                           $3,170,000,000 (A$3.17B)

Using the latest installation costs for the new battery farm, Swanbank in Queensland, $A350,000,000 for 250Mw (one quarter of a gigawatt) would cost today $A1,470,000,000 for the battery farm alone. This is just to increase the battery farms to handle the EV’s if we go all electric.

Explanation: the latest cost to build 1.20 gigawatts, needed to accommodate all cars in Australia going Electric. I have used the costs to build the 250mw ($350,000,000 for 250Mw) Swanbank battery farm in Queensland. Currently in construction. It costs $1.47B to add 1 x gigawatt of power, these are today’s current numbers.

South Australia: cost for the 185 Mw battery farm in 2018 was $A200,000,000. 

Queensland: cost for the 250 Mw is $A350,000,000 currently under construction based on firm costing. All my costings are from Government projects either completed or in progress.

 

The cost for the renewables to supply the power to the battery farms:

Solar Panels (Photovoltaic panels)

1 x Gigawatt of solar panels (Photovoltaic (PV) panels is:  $A1.5 billion installed today and add 20% on top of the current installed supplying the cost is $1.5 billion x 1.2Gw, total becomes ($3.170 billion).

Wind Turbines on land 

The cost for installing the capacity to generate 1.2 gigawatts using Wind Power is:

Current Costs Wind Turbines 

Nordex Sweden’s cost for purchase wind turbines for 2024, just released is $US1.4m or $A2,000,000 per megawatt. So, for 1.2xGigawatt (1,000mw = 1Gw) of power.

 Considering there are 1,000Mw = 1x Gigawatt.  Therefore, costs for 1.2 Gigawatts = $2,400,000,000 ($2.4 Billion) with battery farm is a total cost, just to add 1.2Gw of power for EV’s, for their batteries to be charged.

Current cost for Solar Farms and Battery Farms for 1.2Gw

Today the cost of a 1.2-Gigawatt Solar farm with Battery Farm will cost:

1 x Gw Solar Panels fully installed:  $A3,170,000,000 x 1Gw battery farm, I am being super conservative on these costs. I am not considering the costs, that these battery farms need to be replaced every 10 years or their disposals.

Finally

After, all the upheaval and expenditure of transitioning the world from fossil fuels to 100% zero emissions and pure renewable electrification, there was no research that this   was already tried in the late 1800’s and early 1900’s and was dispensed with as “will never work” so we are repeating history of a failure. Australians are just following fools, like a runaway train with no brakes, no captain, no direction and heading to a “no future”. Considering there will be no new copper available due to the end of the global copper supply, this whole exercise is total futility. But seems no one cares.  What I have discovered is that its “ALL ABOUT THE MONEY AND NOTHING ELSE”

I suppose it really demonstrates that the politicians of today are only looking at their own survival and not looking into the future of survival of mankind or letting them live the life we have experienced. This transitions to electrification when the source of copper to provide electrification will become so expensive it will not be viable to mine AND in 80 years the entire viable copper RESERVES will be depleted. No more Copper. In Australia the reserves of Coal are for more than 1,000 years.

The more it changes the more it stays the same.

I have read some of the proposals from the current Minister Hon Mr Chris Bowen, the Minister for Climate change and energy, who is leading the charge for electrification. I just wonder where these people come from and how they are ever elected to a position of mass social responsibility and to make decisions.  Hell will freeze over before Australia completes 100% of the transitioning to electrification using renewables. It’s simply not achievable.  The cost of the copper metal to complete it will not be available within 40-80 years at the latest rate of expansion or maybe 40 years at best. Also, a possibility floated by the USGA.  It is totally unsustainable for the reasons I have noted above.

AUSTRALIA, LABOR PARTY ANNOUNCED THE NBN IN THE PRE ELECTON-PROMISE OF 2007. STARTED THE FIRST ROLL OUT OF THE NBN ON 19TH APRIL 2011, 13 YEARS AGO AND STILL NOT CONNECTED TO ALL LOCATIONS WITH THE CURRENT EXPECTATION TO BE 2026.  EVEN THOUGH THE NBN ALREADY OBSOLETE TECHNOLOGY THE CONTRACTS ARE ALREADY CAST IN GOLD. ITS CONTINUES. So something like labors 100% renewable/electrification being 500 times greater than this NBN catastrophic, technical and financial failure, together with total naive fools, clowns, at the helm, spells another catastrophic failure with no hope of ever being achieved. Not in 200 years. The Governments 13-year-old NBN cannot even deliver constant internet access speeds to the country. It delivers different maximum internet speeds to different cities and towns.

Can we live without Copper?  There was a famous saying: “If it aint broke then don’t try to fix it” There is no credible evidence other than fear, or genuine or honest reason to get “played” by the Pied Piper and follow the rats over the cliff.  That’s exactly where we are going.

We are all aware that without copper, we cannot make or conduct electricity. There are other metals, but copper is the greatest conductor of electricity. In a nutshell, electricity is generated by coil windings of copper wire, on an axle, spinning within permanent magnets, currently driven by steam, (generated from burning coal or gas), the spinning copper coils become, a term known as “excited” and produce electricity.  We also know that when electricity is generated, it requires copper cables, some unprotected for power lines and some encased in plastic once installed into  the building internals,  transferring the electricity to industry and domestic users.

Today, planet earth and its 8 billion inhabitants, via use of electronics, or just day to day products, consumes two of the most common commodities in the world. Copper and Plastic. Most products today that use electricity are encased or associated with plastic. Not all but almost all, aluminum and steel and a few other metals are also players, but not in the same “rodeo” as copper& plastic.  Here lies a hypocrisy, plastic is made from oil. Oil is a fossil fuel, the very product that produces emissions. But unfortunately, one can’t live without the other.  The blades on the wind turbines are made from plastic. (fiberglass immersed in plastic, called epoxy). Solar Panels are also made from plastic (oil), some are also made from silicon (oil) but both made from fossil fuel, called OIL, OIL, OIL.

Almost any product or electronic gadget or clothing (if its not cotton or wool, it’s made from oil) polyethylene, car tyre, nylon, drink bottle, cosmetics, telephones, sunglasses, is all plastic even your thongs are all made from oil, ie: fossil fuels. The world wants to live without it, but the world can’t. It’s like trying to hold back the tide. Look around you. If it’s not wood or metal, it’s plastic. Yes, even the bean bag and the vinyl and the polyester polystyrene is plastic is oil even women’s stockings are made from nylon which is oil. The plastic bottle you are drinking from is made from oil and if the water or the coke is sparking it’s because it’s been injected with carbon. Ring a bell? Carbonated water that makes your drink fizzy is CO2. Makes you wonder what all the fuss is about. So now what do you think about CO2 emissions? You are drinking from a plastic bottle made from oil and its infused with CO2. (carbon dioxide) So funny.

There is no question that Copper is, WITHOUT DOUBT, the most manipulated metal in the world, even more so than Gold.  Pricing is by the London Metals Exchange. Who owns that beast?

Introduction from new Anglesey Mining #AYM CEO Rob Marsden

An introduction from new Anglesey Mining #AYM CEO Rob Marsden from Parys Mountain  

  • Rob provides an overview of his CV, along with a brief overview of Parys Mountain mine and the surrounding area
  • A brief overview of today’s assay results that “demonstrate good continuity, supporting the integrity of the geological model”
  • Litho geochemical results from all three holes due in the coming weeks
  • Targeting a resource update on the Northern Copper Zone

A Perfect Storm and Copper Bottomed Squeeze – by Jill Baker

by Jill Baker

That so many analysts have been caught napping as the copper price ‘unexpectedly’ broke to new highs is something of a surprise, particularly given the compelling economic drivers that have been clearly signalling a supply squeeze for some years.

Copper is thought to be the first metal humans discovered, dating back well over 10,000 years. Previously the price was kept in check due to the fact that in general copper is more abundant than the majority of non-ferrous metals. It’s historical uses in cookware, tools and fittings, along with its durability, conductivity and even anti-bacterial properties have ensured copper’s iconic status in the world of metals.

However, the emergence of new industries in clean technology and EV production have created an added impetus and urgency to sourcing new copper supplies. This increase in demand has also coincided with a forecast fall in production for the next few years (see Fig 1 – courtesy Refinitiv) opposite.

The first few months of 2024 has seen copper analysts hastily rewrite their scripts and switch to forecasts for deeper deficits, while striking redlines through previous forecasts for expected surpluses.

Some copper bulls have stuck to their guns: Goldman Sachs sees copper trading at $10,000 / tonne by the end of 2024, Capital Economics forecasts a year end price of $9,250 and ANZ sees the metal trading above $10,000 / tonne over the next 12 months.

But with the price rocketing skywards, even these latest forecasts are looking out of date. Along with gold, copper has broken out of a recent trading range and at time of writing (April 19 2024) stands at $9,651 / tonne (see Fig 2 opposite – courtesy Markets Insider).

And Jeremy Weir, CEO of commodity giant Trafigura believes that there will be a potential supply gap of 8m tonnes by 2034, fully supporting $10,000 / tonne and possibly as high as $12,000 / tonne.

So copper is faced with a perfect backdrop: an increase in demand and a fall in production. Both are combining to drive the copper price much, much higher. The ramifications for Governments seeking to meet net zero commitments are huge. Equally, the fortunes of mining juniors holding copper assets looks set to change dramatically. Historically uneconomic and / or dormant projects are being hurriedly revisited as the record high copper prices validate and bring back to life historically uneconomical projects.

Two companies outlined here both have copper projects at different stages of development, and in each case the share prices of both companies have yet to catch up with the rocketing copper price and benefit from the perfect storm and copper bottomed squeeze.

Early Stage:

Aquis listed VVV Resources (AQX: VVV) is building a new portfolio in a user-friendly, low-risk, prolific and historic copper region of Austria. Last October, VVV acquired the Mitterberg Copper Project in Austria, considered the largest copper occurrence in the area defined as the Eastern Alps and also a “brownfield” site. It is reported that copper mining commenced during prehistoric times and recommenced around 1830 until 1977 when the mines were closed due to low copper prices at the time.

According to historic data, more than 120,000 tonnes of copper have been extracted and during the 1970’s it is reported that approximately 200,000 tonnes of copper-rich mineralisation with an average copper grade of 1.4% was mined annually. Mitterberg is located approximately 60 kilometres south of Salzburg, Austria and comprises 198 contiguous exploration licences over an area of some 90 square kilometres.

Although trading at 10.5p per share with a market cap of just £730,000, VVV has just appointed Ben Hill, former Head of Legal at RAB Capital and Senior Advisor for The Growth Stage to the board in order to structure a funding package to enable VVV to fast track Mitterberg development. Chairman and mining industry veteran Jim Williams said that the surge in copper prices, and expected supply squeeze, meant that the development of Mitterberg was “of the utmost importance”, and that Ben Hill and his network “possessed the necessary corporate skills to assist in generating traction and liquidity.”

Later Stage:

Aside from owning a 50% stake in the Grängesberg Iron Ore Project in Sweden and 11% of Labrador Iron Mines Holdings Ltd in Canada, AIM listed Anglesey Mining (AIM: AYM) is the owner of the famous Parys Mountain mine in Anglesey, Wales. Currently engaged in a drilling programme, Parys Mountain hosts a significant polymetallic zinc, copper, lead, silver and gold deposit. A head frame and a 300m deep production shaft already exists, along with planning permission for operations and freehold ownership of the minerals and land. Added to this the local infrastructure is good, political risk is low and the project enjoys the support of local people and government.

Early results from a recent drilling campaign have indicated potential for significant upside to an existing 5 million tonnes of copper within the 2021 Preliminary Economic Assessment. Current drilling has demonstrated good continuity with previous drilling results, further supporting the integrity of the geological model and identifying a large mineralised zone in excess of 100m thick. In the words of Chairman Andrew King, Parys Mountain is “demonstrably the largest and most advanced copper project in the UK with substantial resource upside still evident.”

Anglesey have made a prescient appointment in the form of mining engineer and former Rio Tinto investment committee head Rob Marsden as its new Chief Executive to fast track the drilling programme and bring the Parys Mountain onstream. Despite the pace of developments, the existing infrastructure and new appointment, bafflingly the share price remains rooted at 1.4p, giving Anglesey a current market capitalisation of just £6m.

Anglesey Mining #AYM – Developing the Parys Mountain Project in 2024

On January 2nd, we release an exclusive, full length interview with Anglesey Mining director Jo Battershill Ahead of this, a sneak preview… Following the analyst site visit in December & Northern #Copper Zone drilling updates, why are the #ParysMountain PEA numbers now considered ‘unusually conservative’

#KAV Kavango Resources PLC – KCB – Airborne geophysical survey commences

Kavango Resources plc (LSE:KAV), the Southern Africa focussed metals exploration company, is pleased to announce the commencement of an airborne geophysical survey on its Kalahari Copper Belt (“KCB”) project in Botswana.

The Company has signed a contract with South Africa-based New Resolution Geophysics (“NRG”) for Time Domain Electromagnetic (“TDEM”), Magnetic, and Gravity surveys combined on one helicopter platform (“the NRG Survey”).

The NRG Survey will consist of 2,374-line kms at a line spacing of 500m x 5,000m across Kavango’s Block 1A and Block 1B Prospecting Licences (“PLs”)

The work expands on airborne geophysical surveying already completed by ENRG Elements (ASX:ENRG) (“ENRG”) on PL203/2016 and PL127/2017, two adjacent PLs recently acquired by Kavango (announced >>> 16 November 2023).

Figure 1: NRG’s planned survey lines across Kavango’s Block 1A and Block 1B licences and airborne survey data covering the PLs acquired from ENRG

Ben Turney, Chief Executive Officer of Kavango Resources, commented:

Kavango is targeting the discovery of large-scale copper/silver targets in the Kalahari Copper Belt (KCB) in Botswana.

We recently acquired additional exploration licences from ENRG Elements to complete a large contiguous land package from the town of Ghanzi to the Namibian border. Our interpretation of ENRG’s existing survey data for Prospecting Licences 203/2016 and 127/2017 supports our working theory that this area is prospective for copper/silver. We believe this potential could extend to Kavango’s other licence holdings, which have designated as Blocks 1A and 1B.

As part of our “levelling up” strategy in the KCB, we are compiling a consistent data set for all the ground we control. NRG’s airborne geophysical survey will provide us with some of the final exploration data we need ahead of defining drill targets for next year’s drill campaign.

Our recent work has confirmed physical indicators of a copper mineralising system within our ground, combined with encouraging geophysical anomalies.

Our goal in reprocessing ENRG’s existing data and combining it with the data from the airborne surveys we will fly over Blocks 1A and 1B will be to increase our understanding of the region’s mineralised potential. We will also investigate the interpreted sub-basin that could be a significant control for copper/silver deposits.

Further details

The NRG Survey will be conducted over five PLs that make up Kavango’s Block 1A (PL046/2020, PL049/2020, PL052/2020, PL053/2020) and Block 1B (PL205/2016) licence areas. The licences are located southwest of the town of Ghanzi and adjacent to PL203/2016 and PL127/2017, two of the KCB PLs Kavango recently acquired from ENRG.

NRG is expected to commence its airborne geophysics survey on 4 December 2023. The survey is expected to take two weeks to complete, with the final data processing and delivery of products anticipated for Q1 2024.

Program objectives

Kavango is currently re-processing data from airborne geophysical surveys already completed by ENRG on PL203/2016 and PL127/2017.

The Company will combine this re-processed data with data from the new NRG surveys to test its working theory that the copper/silver prospective geological and geophysical features, which it interpreted from ENRG’s existing airborne geophysics survey data, extend onto Kavango’s Block 1A and Block 1B licences. Kavango’s geologists and geophysicists believe this could be indicative of a regional copper mineralizing system.

Kavango’s geologists wish to examine whether the stratigraphy and lithology they have begun to map on the former ENRG PLs extend on to these Blocks. They believe that ENRG’s existing data conforms to sequences in the lower D’Kar Formation seen across other parts of the KCB.

The models in Figures 2 and 3 below depict the type of fold geometry and structural trap-sites Kavango believes to underlie areas of Block 1A and 1B.

Figure 2 is a modified version of the fold geometry, showing a “preserved” as opposed to “un-roofed” dome, as well as associated mineralisation present in the fold closure at Khoemacau’s North East Fold (“NEF”) deposit on the nearby Banana Zone. Figure 3 is a schematic cross-section showing both the shear-hosted mineralisation and dilational vein-hosted mineralisation present in Sandfire Resources’ (ASX:SFR) A4 deposit.

Kavango believes there may be scope for either or both models to be present and is optimistic the NRG survey will identify these for further ground geophysics and future drill targeting.

Figure 2 – Regional to deposit scale geologic controls on copper silver mineralisation in the KCB – Wes Hall et al, SEG, Special Publication, no 21, pp207-236

Figure 3 – Schematic cross-section showing high-grade intersection in drill hole MO-A4-003D, interpreted geology, and the mineralisation styles across Sandfire’s A4 deposit

The magnetic component of the NRG Survey will map the structure and lithology of Block 1A and Block 1B. It is anticipated that the EM component of the NRG Survey will highlight prospective subtle conductors within the D’Kar Formation and help identify structural trap sites linked to folds, faults, and shears within Block 1A and Block 1B.

The gravity component of the NRG Survey will seek to identify whether the sub-basin identified in ENRG’s data extends into Kavango’s Block 1A. Kavango believes the margins of this sub-basin could provide priority targets for trap site development and deposit formation.

Kavango will interpret these airborne geophysical data with the goal of identifying target areas for ground geophysical follow-up, which will then lead to drill target identification.

Further information in respect of Kavango and its business interests is provided on the Company’s website at www.kavangoresources.com and on Twitter at #KAV.

For further information please contact:

Kavango Resources plc

Ben Turney

+46 7697 406 06

First Equity (Broker)

Jason Robertson

+44 207 374 2212

Kavango Competent Person Statement

The technical information contained in this announcement pertaining to geophysics have been read and approved by Mr. Jeremy S. Brett, M.Sc., P.Geo., Senior Geophysical Consultant, Jeremy S. Brett International Consulting Ltd. in Toronto, Canada.  Mr. Brett is a member of the Professional Geoscientists of Ontario, the Prospectors and Developers Association of Canada, the Canadian Exploration Geophysical Society, and the Society of Economic Geologists.  Mr. Brett has sufficient experience that is relevant to geophysics applied the styles of mineralisation and types of deposits under consideration to act as a Qualified Person as defined under the Canadian National Instrument 43-101, Standards of Disclosure for Mineral Projects.

#KAV Kavango Resources PLC – KCB – Acquisition of six new PLs completes

Kavango Resources plc (LSE:KAV), the Southern Africa-focused metals exploration company, is pleased to confirm completion of its acquisition of a 90% working interest in six Prospecting Licences (“PLs”) located in Botswana’s Kalahari Copper Belt (“KCB”) (the “Acquisition”)

The Acquisition provides the Company with an extensive single contiguous project area in the KCB covering 7,629km2. Kavango is now one of the KCB’s largest individual mineral rights holders.

Kavango believes its expanded project area is underlain by similar stratigraphy to that along strike of Sandfire Resources’ (ASX:SFR) A4 deposit and Motheo Mine. Analysis of existing exploration data by the Company suggests this could incorporate a regional system that contains domal structures with folded and sheared trap sites. These are key exploration targets in the search for large-scale copper/silver mineralisation.

Kavango plans to commence follow-up work in the KCB later this month, and an update on this programme will follow.

Figure 1: Kavango’s expanded, contiguous KCB land package

Ben Turney, Chief Executive Officer of Kavango Resources, commented:

“These new licences grant us complete control of a contiguous, prospective system in an underexplored section of the KCB, a proven copper/silver region that hosts numerous mines and deposits.

I’d like to thank ENRG Elements for its support during our due diligence process. The mapping, soil geochemistry and drilling data it has provided has been highly valuable.

Kavango has strengthened its geological understanding of its new licences by mapping their lithological sequences and stratigraphy. Meanwhile, the presence of galena and sphalerite – two important pathfinder minerals for copper mineralisation – is also encouraging.

We will now continue to advance our understanding of the new licences’ mineral potential by investigating the potential sub-basin we have identified and interpreting their structure with satellite imagery.

Both of these workflows will help us to develop priority drill targets over the coming months.

Further details

Kavango’s six new PLs cover ground adjacent to its existing Karakubis Block next to the Namibian border. This is currently the priority focus area for the Company’s KCB copper/silver exploration programme. The new PLs are also adjacent to the Company’s South Ghanzi licence block.

In preparation for the completion of the Acquisition, Kavango carried out a detailed review of ENRG’s previous exploration work, including mapping, soil geochemistry and drilling together with historical exploration work.

As a result of this review, Kavango believes the lower D’Kar Formation it mapped across PL049/2020 & PL052/2020 (two of its Karakubis PLs) extends into PL203/2016, PL127/2017 & PL205/2016 (three of its six new PLs).

During the review, Kavango received drill samples and logs from 5,566m of historical drilling completed by Icon and Ashmead.

Kavango’s geologists have begun to interpret the lithological sequences on its new PLs by completing geological work on these drill logs in combination with systematic magnetic susceptibility measurements. The sequences comprise siltstones, carbonates and sandstones.

The Company’s geologists have also begun to compile a stratigraphy for the new PLs that they believe to match existing field mapping and conform to sequences in the lower D’Kar Formation present across other parts of the KCB.

During its review, Kavango identified visible galena and sphalerite hosted in quartz-carbonate veins in the drill core and chips taken from this area. These are two important pathfinder minerals for copper mineralisation.

Additionally, systematic pXRF analysis along the cores and drill chips has confirmed the presence of elevated copper, lead and zinc at correlatable intervals.

Finally, Kavango’s geologists and geophysicists believe they may have identified a gravity low likely related to a deeper sub-basin during a review of ENRG’s previously acquired Airborne Electromagnetic (“AEM”), Gravity and Magnetic data over the Kara Antiform. The margins of this sub-basin could provide priority targets for trap site development and deposit formation. They can be further prioritised when cross-referenced with ENRG’s historic magnetic, AEM, and soil geochemical datasets.

Background to the agreement

Kavango entered an agreement to acquire a 90% interest in the six new PLs earlier this year (announced >>> 25 September 2023) with Global Exploration Technologies (Pty) Limited (“GET”), a wholly-owned subsidiary of ENRG Elements (ASX:ENRG) (“ENRG”).

Under the terms of the agreement, Kavango has now paid a total of AUD$1.5 million in cash to acquire 90% of the issued shares of Icon Trading (Pty) Ltd (“Icon”) and Ashmead Holdings (Pty) Ltd (“Ashmead”), two of GET’s subsidiary companies. Kavango will pay GET two further instalments of AUD$500,000 within 90 days and 180 days of the acquisition’s completion.

The names of the six new PLs, along with their holding company, status, and expiry date, are found below.

PL Number

Company

Status

Expiry Date

PL127/2017

Ashmead Holdings (Pty) Ltd

2nd Renewal 

30/06/2024

PL128/2017

Ashmead Holdings (Pty) Ltd

2nd Renewal 

30/06/2024

PL129/2017

Ashmead Holdings (Pty) Ltd

2nd Renewal 

30/06/2024

PL203/2016

Icon Trading (Pty) Ltd

3rd Renewal 

30/09/2025

PL204/2016

Icon Trading (Pty) Ltd

3rd Renewal 

30/09/2025

PL205/2016[1]

Icon Trading (Pty) Ltd

3rd Renewal 

30/09/2025

Figure 2: Details of the GET PLs

Planned work

Kavango is currently procuring satellite imagery to advance its structural interpretation and mapping of alterations across the new PLs. The Company will share more details of its upcoming work plans in due course.

The Company is also in the final stages of awarding a contract for the flying of an AEM survey over its KCB PLs. The goal will be to map possible sub-basin and domal structures.

Further information in respect of Kavango and its business interests is provided on the Company’s website at www.kavangoresources.com and on Twitter at #KAV.

For further information please contact:

Kavango Resources plc 

Ben Turney

+46 7697 406 06

First Equity (Broker)

Jason Robertson

+44 207 374 2212

Kavango Competent Person Statement

The technical information contained in this announcement pertaining to geology and exploration have been read and approved by Brett Grist BSc(Hons) FAusIMM (CP).  Mr Grist is a Fellow of the Australasian Institute of Mining and Metallurgy with Chartered Professional status.  Mr Grist has sufficient experience that is relevant to the exploration programmes and geology of the main styles of mineralisation and deposit types under consideration to act as a Qualified Person as defined in the 2012 Edition of the ‘Australasian Code for Reporting of Exploration Results, Mineral Resources and Ore Reserves’.

VVV Resources #VVV – Acquisition of Mitterberg Copper Project in Austria

VVV Resources Limited (AQUIS: VVV) is pleased to announce it has signed an unconditional Share Purchase Agreement (“SPA”) with a consortium of owners, to acquire the Mitterberg Copper Project in Austria. This SPA supersedes a previous SPA signed in March 2022 where conditions precedent had not been met.

The consideration payable is £350,000. An outstanding  loan related to the previous SPA and recent legal costs associated with the current SPA of £20,000 have been deducted from the purchase price . The remainder consideration comprises:

  •  £297,000 payable in VVV shares priced at a deemed £0.10 for 2,970,000 Ordinary Shares in the Company (“Consideration Shares”).
  • £33,000 cash payment.

The Mitterberg Copper Project is located approximately 60 kilometres south of Salzburg, Austria and comprises 198 contiguous exploration licences over an area of some 90 square kilometres.

Mitterberg is considered the largest copper occurrence in the area defined as the Eastern Alps and is considered a “brownfield” site. It is reported that copper mining commenced during prehistoric times and recommenced around 1830 until 1977 when the mines were closed due to low copper prices at the time. According to historic data, more than 120,000 tonnes of copper have been extracted and during the 1970’s it is reported that approximately 200,000 tonnes of copper-rich mineralisation with an average copper grade of 1.4% was mined annually.

Jim Williams, Executive Chairman of VVV Resources, commented: “The acquisition of the Mitterberg Copper Project, which I have visited, fulfils a sought-after significant parcel of exploration licences in an easily accessible and user-friendly environment concurrent with copper prices generally on an upward trajectory. We look forward to advancing exploration on these licences at the earliest opportunity.”

Holdings in Company following completion of the SPA

Following completion of the SPA, the following Vendors of the Mitterberg Copper Project will be interested in the following Ordinary Shares of no par value with their respective percentage holding in the enlarged issued share capital:

Eraldo Zappacosta: 1,188,000 (approximately 17.9%)

Christian Kochniss 742,500 (approximately 11.2%)

David Mathew Curtis: 742,500 (approximately 11.2%)

Peter Schreiber: 297,000 (approximately 4.5%)

It is expected the Consideration Shares will be admitted to the Aquis Growth Market on or about 19 October 2023.

Total Voting Rights

In accordance with the Financial Conduct Authority’s Disclosure and Transparency Rules, the Company hereby announces that it has 6,625,003 ordinary shares of no par value each in issue (“Ordinary Shares”), each share carrying the right to one vote. The Company does not hold any Ordinary Shares in Treasury.

The above figure of 6,625,003 Ordinary Shares may be used by shareholders in the Company as the denominator for the calculations by which they will determine if they are required to notify their interest in, or a change to their interest in, the share capital of the Company under the Financial Conduct Authority’s Disclosure and Transparency Rules.

The Directors of the Company accept responsibility for the contents of this announcement.

For further information please contact:

 

The Company

Jim Williams

 

 

+44 (0) 7774274836

 

Aquis Growth Market Corporate Adviser:

Peterhouse Capital Limited

Guy Miller/Mark Anwyl

#KAV Kavango Resources PLC – KCB – Agreement to acquire six new PLs

Kavango Resources plc (LSE:KAV), the Southern Africa-focused metals exploration company, is pleased to announce that it has entered an agreement with Global Exploration Technologies (Pty) Limited (“GET”), a wholly owned subsidiary of ENRG Elements (ASX:ENRG) (“ENRG”) to acquire a 90% working interest in six Prospecting Licences (“PLs”) located in Botswana’s Kalahari Copper Belt (“KCB”) (the “Acquisition”).

The PLs cover ground adjacent to Kavango’s existing Karakubis Block next to the Namibian border, currently the priority focus in its KCB copper/silver exploration programme. The PLs are also adjacent to the Company’s South Ghanzi block in the KCB, giving Kavango a single, contiguous project area to explore.

Kavango is particularly keen to test the combined potential of PL049/2020, PL052/2020 (in the Karakubis Block) and PL203/2016 (within the area to be acquiredand satisfaction of certain other conditions).  The Company believes these three PLs cover a single regional system that incorporates notable domal structures, which are key exploration targets in the search for large-scale copper/silver mineralisation.

Ben Turney, Chief Executive Officer of Kavango Resources, commented:

The new licences join up our Karakubis and South Ghanzi blocks, providing us with a contiguous, highly prospective system to explore along strike from major discoveries such as Sandfire Resources’ (ASX:SFR) T3 deposit and Khoemacau Copper Mining’s Zone 5 deposit.

We now have uninterrupted control of the single system in this portion of the Kalahari Copper Belt (KCB). We believe today’s acquisition significantly increases our chances of making a discovery here. We will  push ahead in the KCB, by reviewing exploration data for the new licence areas and the results of our recently completed IP surveys at the Karakubis project area. Our goal is to identify high-confidence drill targets to pursue in Q1 next year. 

With completion of the Purebond financing imminent, we are in an extremely strong position to execute our ambitious plans.”

Figure 1: Map of Kavango’s KCB landholding

Next steps in the KCB

Recent work by Kavango has included 30km of Induced Polarisation (“IP”) survey lines over targeted areas within its Karakubis group of licences.

Kavango is, in conjunction with David Catterall, an expert on the KCB, completing a review of all available data for both Kavango’s previous and these six new licences. Kavango has also recently appointed a new Exploration Manager for Botswana, Mr Leon de Waal, who will be leading the KCB work. Kavango’s goals over the coming months are:

1.   To “level up” its exploration data coverage across its entire KCB holdings and,

2.   To identify potential sulphide bodies that will be ranked as targets for future drilling (announced >>> 25 July 2023).

The current “levelling-up” programme has been designed to field test a new geological interpretation. Kavango believes it has successfully identified the lower D’Kar/Ngwako Pan Formations, the contact of which is known to host the majority of copper-silver mineralisation elsewhere within the Kalahari Copperbelt, over PL036/2020, PL049/2020 & PL052/2020. The field mapping on PL036/2020 has effectively extended the area underlain by the lower D’Kar Formation and for which 5,054 samples have been collected.

Kavango believes the lower D’Kar Formation it has mapped across PL049/2020 & PL052/2020 (in the Karakubis Block)  extends into PL203/2016 (which Kavango has now acquired), where pathfinder minerals galena and sphalerite have been observed in historic drill chips.

Preliminary modelling of Kavango’s recent IP survey data across an AEM target on PL049/2020 has already highlighted prospective domal structural trap sites (announced >>> 25 July 2023) for future drill targeting.

Acquisition terms

Kavango has agreed to acquire a 90% working interest in the six PLs by acquiring 90% of the issued shares of Icon Trading (Pty) Ltd (“Icon”) and Ashmead Holdings (Pty) Ltd (“Ashmead”), two subsidiary companies of GET.

Kavango shall have exclusive right to appoint directors to the board of both Icon and Ashmead.

To complete the Acquisition, Kavango will pay GET a total of AUD$2.5 million in cash in the three following instalments:

–     AUD$1.5 million on the completion of the Acquisition

–     AUD$500,000 90 days after the completion of the Acquisition

–     AUD$500,000 180 days after the completion of the Acquisition

The names of the PLs, along with their existing owner, status, and expiry date, can be found in Figure 2 below.

PL Number

Company

Status

Expiry Date

PL127/2017

Ashmead Holdings (Pty) Ltd

2nd Renewal 

30/06/2024

PL128/2017

Ashmead Holdings (Pty) Ltd

2nd Renewal 

30/06/2024

PL129/2017

Ashmead Holdings (Pty) Ltd

2nd Renewal 

30/06/2024

PL203/2016

Icon Trading (Pty) Ltd

3rd Renewal 

30/09/2025

PL204/2016

Icon Trading (Pty) Ltd

3rd Renewal 

30/09/2025

PL205/2016[1]

Icon Trading (Pty) Ltd

3rd Renewal 

30/09/2025

Figure 2: Details of the GET PLs

The agreement will complete on the receipt of necessary permissions in Botswana on or after 30 OCtober 2023 and satisfaction of certain other conditions.

Under the terms of the transaction, Kavango will assume the benefit of the outstanding intercompany loans for historic exploration onto its balance sheet. Icon and Ashmead  will retain ownership of all historic exploration data gathered by them.

Financing update

Kavango continues to finalise the circular and prospectus for the forthcoming Stage 2 financing with Purebond (announced >>> 09 May 2023 for £4.6million at 1p per share). The Company expects to publish the Circular in the coming days and call the general meeting to seek approval from independent shareholders of a waiver in accordance with Rule 9 of the Takeover Code (Whitewash) in relation to this transaction.

In the event there is a delay in completing the Stage 2 financing, Purebond has indicated to Kavango’s board its readiness to lend the Company sufficient funds to complete the Acquisition.

Further information in respect of Kavango and its business interests is provided on the Company’s website at www.kavangoresources.com and on Twitter at #KAV.

For further information please contact:

Kavango Resources plc

Ben Turney

+46 7697 406 06

First Equity (Broker)

+44 207 374 2212

Jason Robertson

Kavango Competent Person Statement

The technical information contained in this announcement pertaining to geology and exploration have been read and approved by Brett Grist BSc(Hons) FAusIMM (CP).  Mr Grist is a Fellow of the Australasian Institute of Mining and Metallurgy with Chartered Professional status.  Mr Grist has sufficient experience that is relevant to the exploration programmes and geology of the main styles of mineralisation and deposit types under consideration to act as a Qualified Person as defined in the 2012 Edition of the ‘Australasian Code for Reporting of Exploration Results, Mineral Resources and Ore Reserves’.

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