A terraced open-pit mine with winding haul roads cut into the bench walls beneath a partly cloudy sky.

For mining and resources CISOs, OT and automation engineers, heads of remote operations, supply chain and trading leads, and the boards of miners, processors and mining services companies

Quantum risk in mining and critical minerals

A resource model is worth more in 2046 than it is today. So is a recording of the link that carried it.

In fifteen minutes you will know which of your geological models, fleet configurations and offtake terms are already exposed to harvest now, decrypt later collection, what the Critical Raw Materials Act, Australia's SOCI Act and NIS2 let a regulator or a customer ask for, and the first 90 days of a plan that fits a shutdown calendar and a metered satellite link.

  • Your exposure, from the pit to the trading desk
  • What a regulator, a strategic-project reviewer or an offtake customer can ask for
  • A 90-day plan that respects shutdown windows and satellite bandwidth
  • The right training for each role
1,500+
professional members
900+
organisations represented
40+
countries
Vendor-neutral
based on evidence, not hype

Proud to recommend our expert members

Qrypto Cyber
Eclypses
Arqit
QuantBond
Krown
Applied Quantum
Quantum Bitcoin
Venari Security
QuStream
BHO Legal
Census
QSP
IONQ - ID Quantique
Patero
Entopya
Belden
Atlant3D
Zenith Studio
Qudef
Aries Partners
GQI
Upperside Conferences
Austrade
Arrise Innovations
CyberRST
Triarii Research
QSysteme
WizzWang
DeepTech DAO
Xyberteq
Viavi
Entrust
Qsentinel
Nokia
Gopher Security
Quside
QIZ
Global Quantum Intelligence
Qrypto Cyber
Eclypses
Arqit
QuantBond
Krown
Applied Quantum
Quantum Bitcoin
Venari Security
QuStream
BHO Legal
Census
QSP
IONQ - ID Quantique
Patero
Entopya
Belden
Atlant3D
Zenith Studio
Qudef
Aries Partners
GQI
Upperside Conferences
Austrade
Arrise Innovations
CyberRST
Triarii Research
QSysteme
WizzWang
DeepTech DAO
Xyberteq
Viavi
Entrust
Qsentinel
Nokia
Gopher Security
Quside
QIZ
Global Quantum Intelligence
A timber-framed underground mine tunnel receding into darkness, lit by a single lamp.
Surveyed once. Valuable for fifty years.

Step 1 of 5

Know which of your models, telemetry and contracts are already exposed

An orebody does not change. The block model you built from this year's drilling will still describe it in 2050, and a competitor who reads it then still learns where you did not drill. Autonomous haulage, the satellite backhaul from a remote site to the operations centre and the ERP that settles your offtake all protect that data with RSA or elliptic-curve cryptography, the algorithms a cryptographically relevant quantum computer breaks. The attacker does not need that machine today. They record the traffic now and read it later. In mining, the data outlives the algorithm by decades.

Mining and critical minerals records that must stay confidential beyond the post-quantum deadlines
Record or system typeHow long it stays sensitiveConfidential until, if created in 2026
Geological, resource and reserve models and drill-hole databasesLife of the deposit and the next exploration cycle, 20 to 50 years2046 to 2076
Autonomous haulage, drill and fleet-control configurationsLife of the fleet and its control system, 10 to 20 years2036 to 2046
Remote operations telemetry, PLC and DCS set points, historian dataLife of the plant, 15 to 30 years; historians kept for the life of mine2041 to 2056
Offtake, trading and hedging contracts and assay resultsContract term plus renegotiation, 5 to 15 years2031 to 2041
Tailings facility design, monitoring and inspection recordsLife of the facility through closure and post-closure, 30 years or more2056 and beyond
Environmental permits, safety and incident recordsLife of mine plus rehabilitation and liability periods, 20 to 40 years2046 to 2066
Firmware signing keys for fleet, drill and instrumentation vendorsLife of the installed fleet2041+

Lifetimes are typical for the asset class, not statutory. Check them against your own mine plan, closure plan and retention schedules. For the method, see what to protect first when data outlives the algorithm.

Where your exposure sits, and what you will know

A conveyor belt carrying crushed rock out of a processing unit at a quarry, with dust in the air.

The site: PLC, DCS, autonomous fleets and tailings instrumentation

Crushers, mills, flotation circuits and conveyors run on PLC and DCS stacks that authenticate with X.509 certificates on RSA or ECDSA, where they authenticate at all. Autonomous haulage trucks take dispatch and exclusion-zone commands over private LTE and Wi-Fi, and the piezometers on a tailings dam report through the same gateways. A stop costs by the hour, and the next planned shutdown may be eighteen months away.

You will know which controllers and fleet-control servers can take hybrid TLS now, which gateways and loggers are algorithm-fixed, and which changes wait for a shutdown or a fleet refresh.

A man in a green jacket, seen from behind, watching a wall of monitors in an operations room.

The link: satellite, microwave and private LTE backhaul to the ROC

A remote site talks to its operations centre over VSAT, a microwave chain or a leased fibre that someone else owns. Every autonomous command, grade-control update and CCTV feed crosses that link under a VPN or TLS handshake a quantum computer breaks. Satellite traffic is the easiest on earth to record, and an ML-KEM handshake adds kilobytes to a link that is already paying for every one.

You will know which links to migrate first, what hybrid key exchange costs you in bandwidth and latency on each, and what to ask your satellite and telecoms providers for.

A drilling rig standing on eroded desert terrain beneath a blue sky.

The business: trading, ERP, traceability and ESG reporting

Offtake agreements, hedging positions and assay results move through ERP, trading platforms and email. Critical minerals customers now ask for provenance, and the chain-of-custody platforms that answer them rest on digital signatures a quantum computer forges. Signed ESG and due-diligence records lose their evidential value the day the signature algorithm falls.

You will know which commercial records carry harvest now, decrypt later risk, which signatures on traceability and compliance records need re-signing or timestamping, and what to write into the next offtake and supplier contract.

Free readiness check

Score your operation in two minutes

Eight questions mapped to what a SOCI assessor, a NIS2 authority, a strategic-project reviewer, an offtake customer and your board can ask about cryptography across your sites, your links and your trading systems. You get a score, your top three priorities and the next step that closes your biggest gap. Nothing is sent anywhere.

Start the check
1Do you have a cryptographic inventory that covers mine sites and remote operations as well as corporate IT?

The SOCI risk management program rules and NIS2 Article 21 both reach the systems behind the operation, not just head office. You cannot sequence what you have not listed.

2Do you know which protocols on your sites use quantum-vulnerable authentication or key exchange, and which carry no cryptography at all?

OPC UA, DNP3 Secure Authentication and the VPNs around Modbus and PROFINET depend on RSA or ECDSA. Plain Modbus/TCP on a conveyor carries nothing, which is a different problem.

3Have you mapped which geological, operational and commercial data must stay confidential beyond 2030?

Resource models, autonomous fleet configurations and offtake terms are exposed today to harvest now, decrypt later collection, and they stay valuable for decades.

4Have you tested hybrid post-quantum key exchange on one satellite, microwave or private LTE link to a remote site?

Backhaul links are the easiest traffic to record and the hardest to re-key, and ML-KEM adds kilobytes to every handshake on a link that charges by the megabyte.

5Have your fleet, drill, instrumentation and satellite vendors given you a dated post-quantum roadmap?

Autonomous haulage, drill control, tailings instrumentation and VSAT terminals are bought in. Their timeline is yours, and the SOCI supply chain hazard rules and NIS2 Article 21(2)(d) put the question on you.

6Is there a named owner and a budget line for post-quantum migration across IT, OT and remote operations?

In mining the work falls between site engineering, the ROC, group IT and procurement. Without an owner it belongs to nobody and misses the next shutdown and the next fleet refresh.

7Has your board or executive committee been briefed on quantum risk in the last 12 months?

SOCI puts the annual risk management program report in front of the board, NIS2 Article 20 makes management bodies approve and oversee cyber security measures, and strategic-project and offtake due diligence is reaching the same people.

8Do your traceability, chain-of-custody and ESG reporting records carry signatures or timestamps that will still prove anything after 2030?

Critical minerals customers and the Critical Raw Materials Act's strategic projects run on documented provenance. A signature made with an algorithm that has since been broken proves nothing.

Step 2 of 5

Know what regulators, customers and your board will expect, and when

  1. 2022

    Governments move on minerals

    The UK publishes its first Critical Minerals Strategy in July and Canada its $3.8 billion strategy in December. Australia adds the risk management program obligation to the SOCI Act. NSA publishes CNSA 2.0 in September, which reaches any miner or refiner supplying defence.

  2. 2024

    Standards and the CRMA

    The Critical Raw Materials Act enters into force on 23 May with 2030 benchmarks for extraction, processing and recycling. NIST publishes FIPS 203, 204 and 205 in August. NIS2 transposition is due on 17 October.

  3. 2025

    Lists and timelines

    The UK NCSC publishes its migration timeline on 20 March. The EU adopts its first CRMA strategic projects in March and its coordinated PQC roadmap on 23 June. In November the US publishes a 60-mineral critical list that adds copper, silver and uranium, and the UK publishes Vision 2035.

  4. 2026

    Second EU list, IR 8547 final

    The EU roadmap asks every Member State to have a national PQC plan and first steps in place by year end. The Commission adopts its second list of CRMA strategic projects on 9 October. NIST IR 8547 is final on 27 October.

  5. 2030

    High-risk migrated

    EU target for high-risk use cases, including critical infrastructure, and the CRMA benchmark year. NIST deprecates 112-bit RSA and ECC. The ASD recommends ceasing RSA, ECDH and ECDSA by year end.

  6. 2035

    RSA and ECC disallowed

    NIST disallows them. The EU roadmap and the NCSC timeline end here. A haul fleet bought in 2026 is nine years into service, and the orebody model is still correct.

Key facts for mining and critical minerals, checked 30 October 2026

  • The Commission Recommendation of 11 April 2024 (C(2024) 2393) asks every Member State to adopt a national post-quantum strategy and to deploy post-quantum cryptography, hybrid where needed, across public administration systems and critical infrastructure. European Commission
  • The EU Coordinated Implementation Roadmap, published through the NIS Cooperation Group on 23 June 2025, asks Member States to start the transition and have national roadmaps in place by the end of 2026, to migrate high-risk use cases by the end of 2030 and as many systems as feasible by the end of 2035. European Commission
  • Securing Tomorrow, Today, the joint statement of cyber security agencies from EU Member States first issued in November 2024 and re-issued with further signatories in July 2025, treats the quantum threat as part of cyber security risk management now and calls for hybrid post-quantum deployment. BSI
  • The Critical Raw Materials Act, Regulation (EU) 2024/1252, in force since 23 May 2024, sets 2030 benchmarks of at least 10 per cent of the EU's annual consumption for extraction, 40 per cent for processing, 25 per cent for recycling and no more than 65 per cent from a single third country, and gives strategic projects a single point of contact and streamlined permitting. European Commission
  • The Commission adopted its second list of strategic projects under the Critical Raw Materials Act on 9 October 2026. European Commission
  • NIS2 names neither mining nor extraction. Its sectors of high criticality include energy (electricity, oil, gas and hydrogen) and transport (rail, water and road), and its other critical sectors include chemicals and the manufacture of machinery and equipment, so a mining group is in scope where it operates those assets or activities. Member States had until 17 October 2024 to transpose it. European Commission
  • Vision 2035, the UK's Critical Minerals Strategy, was published by the Department for Business and Trade on 22 November 2025 and sets the ten-year vision for securing critical minerals for the UK. It supersedes Resilience for the Future, the 2022 strategy. UK Government
  • The UK NCSC timeline of 20 March 2025 asks organisations to complete discovery and an initial plan by 2028, to finish high-priority migrations by 2031 and to complete migration by 2035, and singles out organisations with OT or extensive physical infrastructure for their infrequent replacement cycles. UK NCSC
  • Australia's Security of Critical Infrastructure Act 2018 applies to 11 sectors, including energy, transport, water and sewerage and data storage or processing, and imposes three positive security obligations: an entry in the Register of Critical Infrastructure Assets, cyber incident reporting to the Australian Cyber Security Centre and a written risk management program. Mining is not a listed sector; a miner is caught through the critical port, freight, electricity, gas and liquid fuel assets it owns. Cyber and Infrastructure Security Centre
  • The Security of Critical Infrastructure (Critical infrastructure risk management program) Rules (LIN 23/006) 2023 require the program to address cyber and information security hazards, supply chain hazards, personnel hazards and physical and natural hazards, with enhanced requirements for each in the current compilation. Federal Register of Legislation
  • The Australian Signals Directorate recommends ceasing use of RSA, DH, ECDH and ECDSA by the end of 2030. ASD
  • The Canadian Critical Minerals Strategy, released on 9 December 2022 with up to $3.8 billion in federal funding from Budget 2022, covers a list of 31 critical minerals and is led by Natural Resources Canada. Government of Canada
  • The Canadian Centre for Cyber Security's ITSAP.00.017 of February 2025 asks organisations to build a cryptographic inventory, ask vendors about their plans to implement PQC and budget for potentially significant software and hardware updates. Canadian Centre for Cyber Security
  • Executive Order 14241 of 20 March 2025, Immediate Measures to Increase American Mineral Production, defines minerals to include critical minerals, uranium, copper, potash and gold, and delegates Defense Production Act section 303 authority to the Secretary of Defense for domestic mineral production. The White House
  • The final 2025 List of Critical Minerals, published by the US Geological Survey on 6 November 2025, names 60 minerals and adds boron, copper, lead, metallurgical coal, phosphate, potash, rhenium, silicon, silver and uranium. The Energy Act of 2020 requires the list to be reviewed at least every three years. USGS
  • NIST SP 800-82 Revision 3, Guide to Operational Technology Security, published in September 2023, covers industrial control systems including SCADA, DCS and PLCs and recommends countermeasures that account for the performance, reliability and safety requirements of OT. NIST
  • IEC 62443-3-3:2013 sets system security requirements and security levels for industrial automation and control systems, used with zones and conduits, and IEC 62443-4-2:2019 sets the technical security requirements for the components inside them. Neither names post-quantum algorithms yet. IEC
  • The final NIST IR 8547, published 27 October 2026, deprecates quantum-vulnerable public-key cryptography after 2030 and disallows it after 2035. NIST
A harbour across grey-blue water, with quayside cranes and loading equipment under an overcast sky.

The evidence you will be able to show

SOCI risk management program

A board-approved program that names cryptography

You show: Quantum-vulnerable algorithms listed as a cyber and information security hazard and a supply chain hazard in the program, with the mitigation and the board's annual attestation.

NIS2 Article 21 and customer due diligence

A cryptography policy that reaches the site

You show: A policy that names the quantum threat, the NIST standards and the OT protocols and backhaul links in scope, and the inventory behind it.

CRMA and offtake contracts

Provenance records that will still prove something

You show: A register of signed traceability, assay and ESG records, with the signature algorithm, the retention period and the dated plan to re-sign or timestamp those that outlive 2030.

EU roadmap and NCSC timeline

A named lead and dated milestones

You show: A PQC migration lead, a plan with the EU end-2026 and 2030 milestones and the NCSC 2028 and 2031 milestones, and roadmaps on file from each fleet, instrumentation and communications vendor.

A timber-framed underground mine tunnel receding into darkness, lit by a single lamp.

Australian operators. Mining is not one of the SOCI Act's 11 sectors, but the port you load from, the rail you haul on, the power station or gas pipeline that serves the site and the data centre that hosts the ROC can each be a critical infrastructure asset with its own register entry, incident reporting and risk management program. The ASD recommends ceasing RSA, ECDH and ECDSA by the end of 2030, five years ahead of NIST. Cyber and Infrastructure Security Centre.

Critical minerals producers and processors

The Critical Raw Materials Act's 2030 benchmarks and its strategic projects, a first list in March 2025 and a second adopted on 9 October 2026, come with Commission scrutiny of a project's security of supply and its partners. The UK's Vision 2035 and Canada's $3.8 billion strategy make the same bet. A processor whose provenance and assay records rest on breakable signatures has a problem that no amount of permitting speed fixes. Our full-day Critical Minerals Supply Chain Cryptographic Risk and Traceability course covers the chain-of-custody platforms and the regulatory mapping.

Remote sites and the satellite link

A VSAT terminal at a site hundreds of kilometres from the nearest town is the most recorded link you own and the hardest to re-key, and the satellite and telecoms providers behind it have their own migration schedules. Hybrid ML-KEM costs bandwidth on every handshake, which matters when the link is metered. Our PQC for Remote Site Communications in Mining course covers satellite and VSAT link encryption and underground and surface mesh networks. Score a satellite link in ten questions.

US producers and the defence supply chain

Executive Order 14241 of March 2025 and the 60-mineral list of November 2025 pull copper, uranium and potash producers into national security policy. A miner or refiner supplying the defence industrial base is being phased into CMMC from November 2025, and Executive Order 14412 of June 2026 orders a proposed FAR rule requiring contractors to meet PQC-compliant FIPS by 31 December 2030. NIST SP 800-82 Revision 3 is the OT security reference an assessor will read. Read the CMMC readiness analysis.

Quantum sensing and optimisation: the other side of the ledger

The same physics that threatens your cryptography is arriving as a survey tool. Nomad Atomics, an Australian company, fields what it describes as the first absolute quantum gravimeter built for field survey work, and sells absolute gravity surveys for exploration and time-lapse gravity for cave mine monitoring. Quantum magnetometry and quantum annealing for pit scheduling and truck dispatch are being tested against classical methods. The board conversation is risk and opportunity together. Nomad Atomics. See our quantum simulation for mineral discovery and quantum optimisation for mine planning courses.

Step 3 of 5

Build a plan your board can sign off in 90 days, without stopping a mill

By day 30

It has an owner across IT, OT and the ROC

  • A PQC migration lead with authority over site OT, remote operations and group IT, and a sponsor on the board or executive committee.
  • Inventory scoped to fleet control, the IT-OT boundary at one representative site, the site-to-ROC backhaul and the trading and traceability systems.
  • Geological, operational and commercial records mapped to confidentiality lifetimes and to the algorithms protecting them.
By day 60

You have the evidence

  • OT protocol scan run on one site and every PLC, gateway, fleet-control server and instrumentation logger classified as algorithm-agile, firmware-updatable or algorithm-fixed.
  • A post-quantum questionnaire with every fleet, drill, instrumentation, satellite and telecoms vendor.
  • Crypto-agility and a dated PQC roadmap written into the next fleet, instrumentation and backhaul tender.
By day 90

Your board has a plan to approve

  • Sites, links and systems ranked by data lifetime, exposure and feasibility of change.
  • Hybrid ML-KEM key exchange piloted on one site-to-ROC VPN, with the bandwidth and latency cost measured.
  • A roadmap with 2028, 2030 and 2035 milestones tied to the shutdown calendar and the fleet replacement plan.
Who will deliver it? See step 4 →

The five numbers to show your board

  1. Inventory coverageThe share of sites, backhaul links and commercial systems with a completed cryptographic inventory.
  2. Exposed dataThe models, configurations and contracts that must stay confidential beyond 2030 and still move or rest behind RSA or ECC.
  3. Algorithm-fixed assetsHow many controllers, gateways, fleet servers and satellite terminals cannot change cryptography without a hardware change, and when each is due for replacement.
  4. Vendor readinessHow many fleet, instrumentation, satellite and telecoms vendors have a dated post-quantum roadmap on file, and how many tenders now require one.
  5. Plan statusBudget committed and milestones met against the 2028, 2030 and 2035 dates.

How to phase the work, 2026 to 2035

  1. 2026Discover, scan and change procurementOwner, inventory across sites and the ROC, protocol scan, device classification and the vendor questionnaire, in line with the EU first-steps milestone. No algorithm-fixed fleet or instrumentation system enters the estate without a documented agility requirement.
  2. 2027Links, boundary and signed recordsHybrid key exchange on site-to-ROC VPNs and on the firewalls, jump servers and historians at the IT-OT boundary. Long-lived traceability, assay and compliance records re-signed or timestamped with ML-DSA or a hash-based scheme. PQC clauses in every offtake and supplier contract renewal.
  3. 2028 to 2030Fleet control, trading and firmwareFleet-control and dispatch servers, trading and ERP integrations and remote access migrated where the stack allows. Vendors signing fleet, drill and instrumentation firmware with ML-DSA or hash-based signatures. UK discovery done by 2028; EU high-risk use cases and the ASD cessation date met by the end of 2030.
  4. 2031 to 2035Replace the rest at shutdowns and fleet refreshesAlgorithm-fixed PLCs, gateways, loggers and terminals replaced within scheduled shutdowns, fleet refreshes and tailings instrumentation upgrades, before RSA and ECC are disallowed in 2035.

Dates from the EU roadmap, the NCSC timeline and NIST IR 8547. Sequencing from our OT and SCADA practitioner framework. For the link layer, see PQC for Remote Site Communications in Mining; for the customer side, Critical Minerals Supply Chain Cryptographic Risk and Traceability; for budget ranges, our PQC migration cost benchmarks.

Free tools to do it this quarter

Need help delivering the plan? Our expert members are peer-reviewed suppliers, integrators and advisers. Meet the expert members →

Step 4 of 5

Equip the people who will deliver it

A mining migration succeeds or stalls on people: the programme lead who owns the inventory, the engineers who know the site and the link, the commercial team that owns the contracts, and the board that approves the capital. Match each role to the outcome you need from them.

For your programme lead

Your programme lead can run the migration to the 2030 deadlines, across sites, links and the business

  • Inventory and CBOM auditing that reaches the site, the ROC and the backhaul
  • Risk prioritisation by data lifetime, exposure and feasibility of change at a working mine
  • Crypto-agile architecture and GRC integration for SOCI, NIS2 and customer due diligence evidence
  • Vendor management and a tabletop exercise with your own remote-site scenario

CPQCPM, Certified Post Quantum Cryptography Programme Manager. Ten hours live online over five weeks, small cohorts, delivered by Chris Basener of Argus Advisory and certified by QSECDEF. See the full course →

$1,450 a seat · $1,087.50 for members

QSECDEF training · CPQCPM

Watch the overview, then get the brochure, dates and costs

Your brochure, the next cohort dates and the costs are ready on the next page.

We use your email to send QSECDEF updates and news. See our privacy policy.

Board and executives

Your board can challenge the plan, understand why orebody life and fleet life change the maths, and approve a multi-year budget with confidence.

Certified Quantum Business Professional

Self-paced, no physics background. Covers PQC, policy and PQC risk and migration management.

Free first session · included in membership

Get Session 1 free
OT and automation engineers, ROC and site security leads

Your engineers know where the asymmetric cryptography sits in the SCADA, DCS and PLC stacks at a mine, which controllers and gateways can take FIPS 203, 204 and 205 algorithms, and how to sequence the rollout across remote and distributed sites.

Quantum Threats to OT Security in Mining and Extraction Environments

Full day, 6 hours, in person or online. The quantum threat landscape for mining OT, protocol-level exposure in mining control systems, PQC algorithm selection for resource-constrained OT and a facilitator-led cryptographic audit of a mining OT reference architecture.

Private delivery · certificate on completion

See the course
Security, risk, supply chain and IT teams

Your teams understand the threat, the standards and the tools before they start, and can answer a customer's due diligence questionnaire.

Introduction to Quantum Cyber Security

Six modules, 4 to 5 hours, certificated.

Free first module · included in membership

Get Module 1 free
A conveyor belt carrying crushed rock out of a processing unit at a quarry, with dust in the air.

Training the whole operation? Put the sites, the ROC and head office on one plan.

Team membership brings your board, programme lead, OT engineers, supply chain and security teams up to speed together, tracks what each person has completed and certifies across the group. The self-paced courses above are included, plus 170+ expert lectures and the weekly call, and members pay less for CPQCPM.

See team membership

Step 5 of 5

Compare notes with operators working the same remote sites and the same customers

A members-only roundtable for mining and resources CEOs, COOs and CISOs, heads of remote operations and the security leads of their fleet, instrumentation and communications vendors. It runs under the Chatham House Rule and is facilitated by Anna Beata Kalisz Hedegaard, Founder of QSECDEF.

  • A frank read on where PQC migration is progressing across OT, SCADA and enterprise IT in extractive operations, and which parts are proving hardest to move
  • How peers approach cryptographic upgrades where a restart costs by the hour and the next shutdown is a year away
  • A calibrated view of quantum optimisation for scheduling, dispatch and blending: what is achievable now and what remains vendor aspiration
  • Where quantum sensing is changing exploration, and what that means for sovereignty and competition in strategic minerals
  • How to present quantum risk and opportunity together to a board that understands commodity price and continuity risk
A QSECDEF symposium panel on stage in front of an audience
Practitioner panels, on the record
QSECDEF members and speakers together outside the Arc de Triomphe in Paris
Peers you can call afterwards
Panellists in discussion at a QSECDEF symposium
Questions taken from the floor
A speaker presenting slides at the QSECDEF World Symposium
Briefings on what is changing
A keynote speaker at the QSECDEF World Symposium lectern
QSECDEF World Symposium, Paris

Lectures from people doing this work

Practitioner lectures from the QSECDEF library that matter most to mining: securing operational networks, quantum-safe satellite links, cryptographic inventory and supply chain trust, and quantum sensing and optimisation.

Browse all expert lectures

Expert contributors represent leading organisations worldwide

Airbus Central R&T
Aireon
Airesatech
Ait
Appliedquantum
Arise Innovations
Arobs
Arqit
Asc Csa
Atlant3D
Bank of Ireland
Barak Azar
Basener Consulting
BHO Legal
Bitcoinqs
Bloq
Buckingham
CloudTech Group
Coherent Computing
Creotech
Cryptalabs
CyberProtonics
Cysec
Cystel
Deimos Space
Department of Digitalization
Dhbw
Dlr
Eclypses
Elpromaelectronics
Engineering
Enluzstrategy
Entrokey Labs
Eptalent
ESA
Esa
Euc
EXATEL
Finqbit
Fraunhofer
Georgetown
GQI
Helix Ft
Ibm
Idquantique
Jagiellonian University
Jos Quantum
Kets Quantum
Kit
Krown Technologies
Kwantumg
Lightriderinc
Linkedin
Lnu
Mbda Systems
Meetiqm
Merqury
Metrosert
Molket
Nicolaus Copernicus University in Torun
Nokia
Orcacomputing
Osi
Pantherun
Patero
Photonics Foundry
Q Ctrl
Qryptocyber
Qssys
Qticompany
Qtlabs
Quandela
Quant X Sec
Quant.Bond
Quantivate
Quantum Computing Inc
Quantum Dice
Quantumbrilliance
Quantumprime
Quantzen
Qubridge
Qudef
Quranium
Qustream
Reddixgroup
Slater Technologies
Smartcyber Group
Smoad
Sparkle
Swiss Financial Innovation Desk
Technology Innovation Institute (TII)
Thequantuminsider
Tobias Heindel
Tu Braunschweig
University College London
University of Bremen
University of Pisa
Venari Security
Veriqloud
Viavisolutions
Vodafone
Welinq
Wizzwang
Xairos
Youtube
Quside
QIZ
Global Quantum Intelligence
HYPATIA Smart Technologies
SAS
Triarii Research
Airbus Central R&T
Aireon
Airesatech
Ait
Appliedquantum
Arise Innovations
Arobs
Arqit
Asc Csa
Atlant3D
Bank of Ireland
Barak Azar
Basener Consulting
BHO Legal
Bitcoinqs
Bloq
Buckingham
CloudTech Group
Coherent Computing
Creotech
Cryptalabs
CyberProtonics
Cysec
Cystel
Deimos Space
Department of Digitalization
Dhbw
Dlr
Eclypses
Elpromaelectronics
Engineering
Enluzstrategy
Entrokey Labs
Eptalent
ESA
Esa
Euc
EXATEL
Finqbit
Fraunhofer
Georgetown
GQI
Helix Ft
Ibm
Idquantique
Jagiellonian University
Jos Quantum
Kets Quantum
Kit
Krown Technologies
Kwantumg
Lightriderinc
Linkedin
Lnu
Mbda Systems
Meetiqm
Merqury
Metrosert
Molket
Nicolaus Copernicus University in Torun
Nokia
Orcacomputing
Osi
Pantherun
Patero
Photonics Foundry
Q Ctrl
Qryptocyber
Qssys
Qticompany
Qtlabs
Quandela
Quant X Sec
Quant.Bond
Quantivate
Quantum Computing Inc
Quantum Dice
Quantumbrilliance
Quantumprime
Quantzen
Qubridge
Qudef
Quranium
Qustream
Reddixgroup
Slater Technologies
Smartcyber Group
Smoad
Sparkle
Swiss Financial Innovation Desk
Technology Innovation Institute (TII)
Thequantuminsider
Tobias Heindel
Tu Braunschweig
University College London
University of Bremen
University of Pisa
Venari Security
Veriqloud
Viavisolutions
Vodafone
Welinq
Wizzwang
Xairos
Youtube
Quside
QIZ
Global Quantum Intelligence
HYPATIA Smart Technologies
SAS
Triarii Research

Expert Membership

Builders, consultancies and technology vendors serving mining and critical minerals: talk to us

Expert membership brings you into an open community working across sectors, opening up industry conversations, knowledge and access to experts. If you are building technology or consulting capabilities in this sector relevant to Quantum or Advanced AI, we want to hear from you.

  • Access to all Industry Conversations
  • Speaker opportunities at the annual Paris Symposium
  • Enhanced expert profile with lecture archive
  • Co-branding opportunities and social amplification
  • 25% off partner training and events

Everything you need, in one place

Our analysis and programmes for mining and critical minerals

Policy and mandates

Questions leaders ask

Does the Critical Raw Materials Act say anything about cyber security or cryptography?

Not by name. Regulation (EU) 2024/1252, in force since 23 May 2024, is about supply: 2030 benchmarks of 10 per cent of EU consumption for extraction, 40 per cent for processing, 25 per cent for recycling and no more than 65 per cent from a single third country, plus a strategic-project regime with streamlined permitting and a single point of contact in each Member State. What it does is make provenance, security of supply and the resilience of a project's partners a matter of Commission scrutiny, and the records that prove those things rest on digital signatures and encrypted exchanges. A strategic project whose traceability platform signs with ECDSA holds evidence with a shelf life.

Does NIS2 apply to mining companies?

Not as mining. NIS2 names neither mining nor extraction. A mining group is in scope where it operates an asset or activity the directive does name: electricity generation, gas, hydrogen or oil infrastructure in the energy sector; rail, port or road transport operations; a chemicals business; or the manufacture of machinery and equipment. National transposition laws can add sectors, so check each Member State. Even outside scope, a miner supplying an essential entity, whether a steelmaker, a utility or a chemicals plant, will be asked the Article 21(2)(d) supply chain questions by its customers.

What does Australia's SOCI Act require of a mining company?

The Security of Critical Infrastructure Act 2018 applies to 11 sectors, and mining is not one of them. The Act defines asset classes, though, among them critical ports, critical freight infrastructure, critical electricity, gas and liquid fuel assets and critical data storage or processing assets, and a large miner often owns several. Each carries the three positive security obligations: an entry in the Register of Critical Infrastructure Assets, cyber incident reporting to the Australian Cyber Security Centre, and a written risk management program under the 2023 rules that addresses cyber and information security hazards and supply chain hazards and goes to the board each year. Quantum-vulnerable cryptography belongs in that program as a named hazard.

Which mining OT protocols and systems are vulnerable to quantum attack?

Anything that uses RSA or ECDSA for key exchange, certificates or authentication: OPC UA security modes in the plant, DNP3 Secure Authentication on the power and water systems at a site, the TLS and VPN tunnels that wrap Modbus/TCP, PROFINET and EtherNet/IP, the certificates on fleet-control and dispatch servers, and the VPNs on every satellite, microwave and private LTE backhaul. Plain Modbus on a conveyor carries no cryptography at all, which is a different problem. The symmetric parts, AES-256 and HMAC, hold up. Our free OT Protocol Quantum Vulnerability Scanner maps this for the protocols you select.

Can we run post-quantum cryptography over a satellite link to a remote site?

Yes, at a cost. A hybrid X25519 plus ML-KEM-768 handshake adds roughly 2.3 KB to each key exchange compared with a classical one. That is nothing on fibre and noticeable on a metered VSAT link with half a second of round-trip latency when sessions re-key often. The practical answer is to pilot it on one site-to-ROC VPN, measure the bandwidth and latency cost, tune session lifetimes and then roll it out link by link. The satellite and telecoms providers behind the link have their own migration schedules, so ask for them in writing.

Why does harvest now, decrypt later matter more in mining than in most sectors?

Because the data lives as long as the orebody. A resource model built this year still describes the deposit in 2050, and still tells a competitor where you did not drill. Fleet configurations last the life of the fleet, tailings records last through closure and post-closure, and offtake terms carry intelligence value for the life of the contract and the next negotiation. All of it moves today over links that are easy to record. Traffic captured in 2026 and read in the 2030s is still inside every one of those windows.

What does quantum mean for critical minerals traceability?

Chain-of-custody and provenance platforms prove where a tonne came from with digital signatures and, often, a distributed ledger. Signatures made with RSA or ECDSA can be forged once a cryptographically relevant quantum computer exists, so a record signed in 2026 and relied on in 2035 proves nothing unless it was re-signed or timestamped with a post-quantum scheme first. The CRMA strategic-project regime, customer due diligence and the critical minerals strategies of the UK, Canada, Australia and the US all lean on those records. List every signed provenance and compliance record and plan the re-signing now.

Is quantum sensing really changing exploration?

It is starting to. Quantum gravimeters and magnetometers measure the subsurface with a precision and long-term stability that spring gravimeters and conventional sensors do not reach, and Nomad Atomics in Australia already sells absolute gravity surveys for exploration and time-lapse gravity for cave mine monitoring built on what it describes as the first absolute quantum gravimeter designed for field survey. The near-term effect is better targeting, fewer holes and faster decisions. The strategic effect is that a better survey dataset becomes a more valuable thing to steal, which brings the conversation back to the cryptography protecting it.

Where should a mining company start?

Three things. Extend the cryptographic inventory to the sites, the ROC and the backhaul, starting with fleet control and the IT-OT boundary. Run a protocol scan on one site and classify every controller, gateway and terminal by whether it can take a cryptographic update. Write crypto-agility and a dated post-quantum roadmap into every fleet, instrumentation and backhaul tender from now on. Those three give your board the evidence to set priorities and your customers the answers they are about to ask for.

What should we show the board about quantum risk?

Five numbers: inventory coverage across sites, links and commercial systems; the models, configurations and contracts that must stay confidential beyond 2030; the count of algorithm-fixed controllers, gateways, fleet servers and terminals and their replacement dates; how many vendors have a dated post-quantum roadmap on file; and budget and milestones against the 2028, 2030 and 2035 dates.

What does QSECDEF offer mining and resources companies for free?

Everything on this page. The two-minute readiness check scores your mining and critical minerals programme and routes you to the right next step. The free tools, including the OT Protocol Quantum Vulnerability Scanner and the Third-Party Cryptographic Exposure Model, run in your browser with no registration. The weekly peer call runs every Tuesday at 15:00 CET and is open to anyone. Sample lectures from the 170-plus expert library are linked above, and the page is reviewed as the mandates change; the date beside the key facts is the last check.

Which QSECDEF course should a mining team take first?

It depends on the role. Board and executives start with the Certified Quantum Business Professional bootcamp, about 22 hours self-paced across ten modules. Security, risk, supply chain and IT teams take Introduction to Quantum Cyber Security, four to five hours online with a QSECDEF certificate. OT and automation engineers and ROC security leads take Quantum Threats to OT Security in Mining and Extraction Environments, the sector course for SCADA, DCS and PLC exposure at a mine. Whoever will run the migration takes CPQCPM, the Certified Post Quantum Cryptography Programme Manager course: ten hours live online over five weeks, with the next public cohort in January 2027.

Can QSECDEF run private training or a workshop for our mining company, processor or mining services business?

Yes. QSECDEF runs private CPQCPM cohorts for a single organisation, live online or in person, and private deliveries of the sector courses listed under Equip your people for your OT, remote operations and supply chain teams. Board and leadership workshops are built on your own exposure and obligations and end with an agreed position on quantum risk. Use the contact button in the For your organisation section and tell us your timeline.

How do we find vetted suppliers or consultants for a mining PQC migration?

Through the QSECDEF Expert Members directory. Every listed member has been vetted, has signed the Members' Charter and has presented to the community. You can filter by consulting and services, technology vendor or enablement and investment, and send a request for further information from the member's own page. QSECDEF is vendor-neutral and sells training, not migration products, so the shortlist stays yours.

Is QSECDEF membership relevant to a mining company or mining services business?

Two routes. QSECDEF membership gives your team the self-paced courses, the full lecture archive, the weekly call and 25 per cent off CPQCPM and partner training. Expert Membership is for the builders, consultancies and technology vendors serving mining and critical minerals who want to be found by the people reading this page; it includes a showcase listing with an enquiry form, the Industry Conversations and speaking slots at the annual QSECDEF symposium.

Is QSECDEF selling a migration product?

No. QSECDEF is a vendor-neutral membership network. We train people and connect them with peers and peer-reviewed experts; we do not sell migration software or services.

How much time does the training take?

CPQCPM is ten hours of live instruction over five weeks, two hours a week. The mining courses are full days of six hours, in person or online. The Quantum Cyber Security course is 4 to 5 hours, self-paced. The business bootcamp is self-paced at your own speed.

Ask a practitioner, live

The free weekly call runs every Tuesday at 15:00 CET. Bring your question.

Join the Tuesday call →
Hands of several colleagues resting on large technical drawings spread across a table, with pencils in hand.

For your organisation

Need it built around your sites, your links or your customers?

When your board, your remote operations team or an offtake customer needs something specific, we shape the workshop, the training or the engagement around your sites, your fleet and your shutdown calendar. Independent of any vendor.

Custom workshops

Your leadership leaves with an agreed position on quantum risk and quantum opportunity

In-person sessions for mining and resources organisations drawn from the minerals and mining workshop programme: quantum threats to mining OT, PQC for remote site communications, critical minerals traceability, quantum optimisation for mine planning and quantum simulation for mineral discovery.

Private training

Your sites, your ROC and your head office trained on one plan

Private CPQCPM cohorts, live online or in person for your required delegates, private deliveries of the mining OT, remote communications and traceability courses, and team membership for the self-paced courses.

Consulting

A migration programme specified and staffed correctly

Cryptographic inventory across sites and the ROC, backhaul and OT assessment, PQC migration planning, vendor and offtake contract review and specialist teams sourced from 1,500+ members across 900+ organisations.

Prefer email? Write to info@qsecdef.com and tell us about your timeline.

Photos: Pexels (Vlad Chețan, Pho Tomass, marcin studio, Samon Yu, Yuan, Frederick Adegoke Snr., Liisbet Luup, Yan Krukau) and QSECDEF, converted to black and white or brand duotone.