Mineral Planning Factsheet (MPF)
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Current Developments in Uk Mining Projects
CURRENT DEVELOPMENTS IN UK MINING PROJECTS C P Broadbent1) and C A Blackmore1) 1)Wardell Armstrong International Ltd, 46 Chancery Lane, London WC2A 1JE, UK 1 Introduction In October 2017 The Mining Technology Division (MTD) of the IOM3 organised a highly successful conference “Current Developments in the UK Mining Industry”. The aims and objectives of the conference was to define the then current state of the UK Mining Industry1. This conference was a great success and, with the exception of a presentation on Wolf Minerals Ltd, Hemerdon Project, gave the definitive status of most major UK Mining Projects. This paper provides an update of many of these projects. Although the last UK deep pit coal mine, Kellingley Colliery, North Yorkshire closed in December 20152 and was capped off in March 2016. The UK still has large reserves of available fossil fuels and many types of industrial minerals and metals are found in the diverse geology of the UK. Presently there are a number of major initiatives active making 2018, despite events at Hemerdon, one of the most active years in recent times for “new” UK mining ventures. The locations of the projects covered in this paper are shown in Figure 1. 1) 1 Sirius Minerals Plc 2 British Fluorspar Limited 3 West Cumbria Mining 4 Cornish Lithium Limited 5 South Crofty – Strongbow Exploration 8 6 Cornwall Resources Limited – Redmoor Project 7 Dalradian Gold Limited – Curraghinalt Project 8 Scotgold Resources – Cononish Mine 7 3 1 9 Anglesea Mining Plc – Parys Mountain 10 Wolf Minerals Limited - Drakelands Mine 2 Figure 1: Location of the projects c 9 o vered in this paper this paper 10 6 4 5 1 Current Developments – The UK Mining Industry – Presentations at MTD Conference, London 4-5 October 2017 2 Dodgson, L. -
The Drakelands Mine (Formerly Known As Hemerdon) in England Owned by Wolf Minerals Ltd
Newsletter_06_2016_9.5_Layout 1 02.08.16 09:20 Seite 1 ITIA Tungsten Newsletter – June 2016 In Pursuit of Tungsten Concentrate The focus of this issue is the production of concentrate, with the two World Wars of the last century and officially opened introductions to the Nui Phao mine in Vietnam owned by again in 2015. Masan Resources and to the Drakelands mine (formerly known as Hemerdon) in England owned by Wolf Minerals Ltd. The Our warmest thanks are due to the authors of these articles which former, commissioned in 2013, is the world’s largest operating contain extensive information about both projects, absorbing to mine whilst the latter produced small amounts of ore during anyone with an interest in the supply of the raw material. International Tungsten Industry Association 454-458 Chiswick High Road, London W4 5TT, UK Tel: +44 20 8996 2221 Fax: +44 20 8994 8728 Email: [email protected] www.itia.info ‧ ‧ ‧ ‧ Newsletter_06_2016_9.5_Layout 1 02.08.16 09:20 Seite 2 Masan Resources Nui Phao Project Bich Dinh Ngoc, Manager Community Liaison & Economic Restoration, Nui Phao Mining Company Masan Resources Corporation (Masan), listed on Hanoi’s the focus was changed to tungsten and, on further UPCoM exchange (UPCoM:MSR), is the largest producer exploration, the first geological resource estimate was of primary and mid-stream tungsten products outside released in 2003. Continued success of further drilling of China. Its flagship asset, the Nui Phao open-pit poly- programs and metallurgical test work encouraged the metallic mine, located approximately 85 km north-east company to undertake environmental and community of Hanoi in Thai Nguyen Province, was acquired by baseline studies and the procurement of required per- Masan Group in 2010 as a greenfield project. -
Variation of (I) Cond
PTE/16/59 Development Management Committee 23 November 2016 County Matter: Minerals South Hams District: Variation of (i) condition 3 of planning permission 9/42/49/0542/85/3 to allow the continued extraction of tungsten and tin, processing and disposal of mineral wastes until 5 June 2036 and (ii) removal of condition 13 of planning permission 9/42/49/0542/85/3 to remove the restriction on the operating hours of the primary crusher Location: Drakelands Mine, Drakelands, Nr Plymouth Applicant: Wolf Minerals (UK) Ltd Application No: 9/42/49/0542/85/3 Date application received by Devon County Council: 9 December 2015 Report of the Head of Planning, Transportation and Environment Please note that the following recommendations are subject to consideration and determination by the Committee before taking effect. Recommendation: It is recommended that: (a) The application to vary Condition 3 (to extend the life of the site from June 2021 to June 2036) and to remove Condition 13 (restriction of hours of operation of the primary crusher) of the existing permission be granted and; (b) The remaining conditions be amended as set out in Appendix II. (c) That Committee notes the terms of the Unilateral Undertaking attached at Appendix III. (d) That Committee notes the Habitats Regulations Assessment attached at Appendix IV. 1. Summary 1.1 This application is to extend the permitted life of the Drakelands (previously Hemerdon) Tungsten Mine until 2036 and to remove a condition relating to restrictions on the primary crusher. The application was accompanied -
The Drakelands Project Will Be the UK's First New Mine for More Than 40
MATERIALS WORLD FIrst, teLL me A LIttLE BIT ABOUT THE prOjeCT. The Drakelands project will be the Hemerdon is the third-largest tungsten and tin resource in the world and the Drakelands Mine project, based there, will provide a secure supply of tungsten and UK’s first new mine for more than valuable export revenue for the UK. The project will create more than 200 jobs and 40 years, and it will use ZEISS’s pump hundreds of millions of pounds into the Plymouth, Devon and UK economies Mineralogic Mining automated over the next decade. Its estimated production of 5,000 tonnes per annum of tungsten concentrate and 1,000 tonnes of tin concentrate will mean the £123 million mineralogy system. Rhiannon mine will contribute around 3% of global tungsten supply. Garth Jones speaks to Dr Benjamin Tordoff, Segment Manager for WHAT HAS beeN THE TImefrAme FOR THIS prOjeCT? Mining and Minerals at ZEISS, about Tungsten was discovered at Hemerdon in 1867 and the deposit was identified as the mine and the technology. being a large tungsten-tin vein complex in 1916, during exploration for metal resources to contribute to the war effort – it was subsequently used by government agencies in both world wars. In 1986, after an extensive drilling programme and public enquiry, Amax Exploration UK and Hemerdon Mining and Smelting UK Ltd obtained planning permission to open the mine as an opencast operation working to a depth of 200m. At that time, increased tungsten production by China brought about a considerable reduction in the commodity price and, as a result, the Hemerdon project was placed into care-and-maintenance. -
Wolf Minerals Limited (The Company)
Sydney Mining Club Presentation 5th November 2015 Russell Clark, Managing Director ASX:WLF|AIM:WLFE www.wolfminerals.com.au Disclaimer The information contained in this document has been prepared based upon information supplied by Wolf Minerals Limited (the Company). This Document does not constitute an offer or invitation to any person to subscribe for or apply for any securities in the Company. While the information contained in this Document has been prepared in good faith, neither the Company nor any of its shareholders, directors, officers, agents, employees or advisers give any representations or warranties (express or implied) as to the accuracy, reliability or completeness of the information in this Document, or of any other written or oral information made or to be made available to any interested party or its advisers (all such information being referred to as Information) and liability therefore is expressly disclaimed. Accordingly, to the full extent permitted by law, neither the Company nor any of its shareholders, directors, officers, agents, employees or advisers take any responsibility for, or will accept any liability whether direct or indirect, express or implied, contractual, tortious, statutory or otherwise, in respect of, the accuracy or completeness of the Information or for any of the opinions contained in this Document or for any errors, omissions or misstatements or for any loss, howsoever arising, from the use of this Document. Neither the issue of this Document nor any part of its contents is to be taken as any form of commitment on the part of the Company to proceed with any transaction and the right is reserved to terminate any discussions or negotiations with any person. -
Illustrative Examples Across Europe
SLO Good Practices and Recent Disputes Illustrative Examples Across Europe 30 April 2021 Illustrative examples of social licence to operate across Europe Authors Austria: Gerfried Tiffner and Kornelia Lemmer (VESTE/Eisenerz), Michael Tost (Montanuniversität Leoben) Bosnia: Olga Sidorenko and Rauno Sairinen (University of Eastern Finland) Finland: Toni Eerola (Geological Survey of Finland) Poland: Zuzanna Lacny and Anna Ostrega (AGH University of Science and Technology) Serbia: Olga Sidorenko and Rauno Sairinen (University of Eastern Finland) Slovakia: Igor Ďuriška and Tomáš Pavlik (Technical University of Kosice) Spain: Ramon Cabrera (SIEMCALSA) Sweden: Gregory Poelzer (Lulea University of Technology) United Kingdom: Rowan Halkes and Frances Wall (University of Exeter) Compiled and edited by Pamela Lesser, University of Lapland WWiWith special thanks to Meng Chun Lee (GKZ) and Katri-Maaria Kyllönen (University of Lapland) for their enormous substantive and organizational contributions. Of Note: The illustrative examples were compiled during the second and third years of MIREU – 2019 and 2020. While the authors provided updates in early 2021, because the social acceptance of projects is so fluid, there may be discrepancies between the updates and the publication date of 30 April 2021. ACKNOWLEDGEMENT & DISCLAIMER This publication is part of a project that has received funding from the European Union’s Horizon 2020 research and innovation programme under Grant Agreement No 776811. This publication reflects only the authors’ view. Neither the European Commission nor any person acting on behalf of the Commission is responsible for the use which might be made of the information contained in this publication. Reproduction and translation for non-commercial purposes are authorized, provided the source is acknowledged and the publisher is given prior notice and sent a copy. -
Review of the Sisson Mine Comprehensive Study Report Socio-Economic & Environmental Issues
1 Review of the Sisson Mine Comprehensive Study Report Socio-Economic & Environmental Issues Prepared by Joan Kuyek, DSW & MiningWatch Canada For: Conservation Council of New Brunswick (CCNB) Canadian Environmental Assessment Agency (CEAA) May 14, 2016 2 Table of Contents 1. Introduction ................................................................................................................................ 3 2. Purpose and Need for the Project Not Demonstrated, Section 3.3 ......................................... 3 3. Section 10 of the CSR “Benefits to Canadians” Does Not Address the Subject ....................... 7 4. Socio-Economic Impact Assessment Not Carried Out .............................................................. 8 5. Enforceability of Mitigation Measures in the CSR .................................................................... 9 6. No Independent Environmental and Socioeconomic Oversight Body ................................... 11 7. Conclusions ............................................................................................................................... 12 Endnotes ....................................................................................................................................... 14 3 1. Introduction MiningWatch has been engaged by the Conservation Council of New Brunswick to comment on the Comprehensive Study Review (CSR) socio-economic findings for the Sisson Mine Project in New Brunswick. The Comprehensive Study Review is the latest report in the Environmental Assessment -
RWM South West England Regional Geology
South West England REGIONAL GEOLOGY RWM | South West England Regional Geology Contents 1 Introduction Subregions South West England: summary of the regional geology Available information for this region 2 Rock type Younger sedimentary rocks Basement rocks 3 Rock structure 4 Groundwater 5 Resources Natural processes Further information 6 - 14 Figures 15 - 16 Glossary Clicking on words in green, such as sedimentary or lava will take the reader to a brief non-technical explanation of that word in the Glossary section. By clicking on the highlighted word in the Glossary, the reader will be taken back to the page they were on. Clicking on words in blue, such as Higher Strength Rock or groundwater will take the reader to a brief talking head video or animation providing a non-technical explanation. For the purposes of this work the BGS only used data which was publicly available at the end of February 2016. The one exception to this was the extent of Oil and Gas Authority licensing which was updated to include data to the end of June 2018. 1 RWM | South West England Regional Geology Introduction This region comprises the Isles of Scilly, the counties of Cornwall and Devon (including Lundy Island) and the western part of Somerset, west of a line from Bridgwater to Crewkerne. It includes the adjacent inshore area which extends to 20km from the coast. Subregions To present the conclusions of our work in a concise and accessible way, we have divided the region into 4 subregions (see Figure 1 below). We have selected subregions with broadly similar geological attributes relevant to the safety of a GDF, although there is still considerable variability in each subregion. -
Optimisation of a Multi-Gravity Separator with Novel Modifications
minerals Article Optimisation of a Multi-Gravity Separator with Novel Modifications for the Recovery of Ferberite Robert Fitzpatrick 1,*, Patrick Hegarty 1, Keith Fergusson 1, Gavyn Rollinson 1, Weiguo Xie 1 and Treve Mildren 2 1 Camborne School of Mines, University of Exeter, Penryn Campus, Exeter TR10 9FE, UK; [email protected] (P.H.); [email protected] (K.F.); [email protected] (G.R.); [email protected] (W.X.) 2 Gravity Mining Ltd., Glencarrow, New Road, Stithians TR3 7BL, UK; [email protected] * Correspondence: [email protected]; Tel.: +44-(0)1326-254-141 Received: 15 February 2018; Accepted: 20 April 2018; Published: 2 May 2018 Abstract: Tungsten is considered by the European Union as a critical raw material for future development due to its expected demand and scarcity of resource within Europe. It is therefore, critical to optimize European tungsten operations and maximise recoveries. The role of enhanced gravity/centrifugal concentrators in recovering tungsten from ultra-fine fractions should form an important part of this aim. Reported herein are the results of investigations to improve efficiency of Wolf Minerals’ Draklends mine, a major European tungsten mine, by recovering saleable material from a magnetic waste stream of a low-intensity magnetic separator using an enhanced gravity concentrator. The mine hosts wolframite and ferberite as the main tungsten bearing mineral species. A Mozley multi-gravity separator (MGS) C-900 was selected as it is suited to exploiting small variations in mineral density to affect a separation. Working with a current manufacturer, a novel scraping blade system was tested. -
An Investigation of Mining Impacts on Bats in South-West England
An investigation of mining impacts on bats in South-West England Submitted by Emma Theobald to the University of Exeter as a thesis for the degree of Masters by Research in Biological Sciences in March 2018 This thesis is available for Library use on the understanding that it is copyright material and that no quotation from the thesis may be published without proper acknowledgement. I certify that all material in this thesis which is not my own work has been identified and that no material has previously been submitted and approved for the award of a degree by this or any other University. Signature: …………………………… 1 Acknowledgements: First of all a massive thank you to my research tutors Prof. David Hosken and Dr. Kelly Moyes for introducing me ‘bat world’ and for their continued guidance and support, also to Prof. Patrick Foster for his insight into the mining industry. I am very grateful to Wolf Minerals for providing the funding for this research and would like to thank Jess Easterbrook and Hannah Clarke of the Environmental Team and Michel Hughes for introducing me to the Drakelands site and answering my questions. I really appreciate the cooperation of the landowners who let me climb fences and wander through their fields and to set up detectors (David Cobbold in particular) - without your permission this research would not have been possible. Last but not least, I would like to thank Reece and my family and friends for their support and encouragement and for listening to my bat chat over the past year and a half! 2 An investigation of mining impacts on bats in South-West England Abstract: The extraction of minerals through open-pit mining can result in sudden and extensive land use change, often posing threats to local biodiversity. -
Minerals-08-00191.Pdf (PDF, 8.525Mb)
ORE Open Research Exeter TITLE Optimisation of a Multi-Gravity Separator with Novel Modifications for the Recovery of Ferberite AUTHORS Fitzpatrick, RS; Hegarty, P; Fergusson, K; et al. JOURNAL Minerals DEPOSITED IN ORE 03 May 2018 This version available at http://hdl.handle.net/10871/32700 COPYRIGHT AND REUSE Open Research Exeter makes this work available in accordance with publisher policies. A NOTE ON VERSIONS The version presented here may differ from the published version. If citing, you are advised to consult the published version for pagination, volume/issue and date of publication minerals Article Optimisation of a Multi-Gravity Separator with Novel Modifications for the Recovery of Ferberite Robert Fitzpatrick 1,*, Patrick Hegarty 1, Keith Fergusson 1, Gavyn Rollinson 1, Weiguo Xie 1 and Treve Mildren 2 1 Camborne School of Mines, University of Exeter, Penryn Campus, Exeter TR10 9FE, UK; [email protected] (P.H.); [email protected] (K.F.); [email protected] (G.R.); [email protected] (W.X.) 2 Gravity Mining Ltd., Glencarrow, New Road, Stithians TR3 7BL, UK; [email protected] * Correspondence: [email protected]; Tel.: +44-(0)1326-254-141 Received: 15 February 2018; Accepted: 20 April 2018; Published: 2 May 2018 Abstract: Tungsten is considered by the European Union as a critical raw material for future development due to its expected demand and scarcity of resource within Europe. It is therefore, critical to optimize European tungsten operations and maximise recoveries. The role of enhanced gravity/centrifugal concentrators in recovering tungsten from ultra-fine fractions should form an important part of this aim. -
Metals Minerals Safeguarding DPD Evidence Report December 2018
Metals Minerals Safeguarding DPD Evidence Report December 2018 Metals Minerals Safeguarding DPD Evidence Report 1 Adoption December 2018 Contents 1 The geological background of metals in Cornwall ...................................... 4 2 Current production and reserves of metals in Cornwall .............................. 5 3 Markets, transport and use of metals in Cornwall...................................... 6 4 Government planning policy and guidance for metals ................................ 7 4.1 National Planning Policy Framework .................................................. 7 5 Cornwall local policy development history for metals ................................. 7 5.1 Cornwall Minerals Local Plan 1997 ..................................................... 7 5.2 Cornwall and West Devon Mining Landscape World Heritage Site .......... 7 5.3 Cornwall Local Plan ......................................................................... 7 5.4 Cornwall Mine Shaft Study ............................................................... 8 6 Projected demand and future supply ....................................................... 8 7 Appendix 1: Mine Shaft Study ................................................................ 9 7.1.1 List of important shafts in Cornwall .............................................. 9 8 Appendix 2: Information on individual metals ........................................ 16 8.1 Arsenic ........................................................................................ 16 8.2 Copper .......................................................................................