
Every now and then I discover a new technology or platform that I feel can play a key role in the mining industry going forward. I also come across others that, in my opinion, will struggle to gain traction, knowing the industry as I do.
One intriguing platform that has caught my recent attention is related to mine waste risk management. This platform has been in development for a few years but recently reached the commercial launch milestone. The name of it is the Critical Infrastructure Risk Decision Basis (CI-RiskDB).

It is being developed by a Saskatoon based team at Enviro Integration Strategies and is intending to help manage risks associated with tailings, water, waste rock and heap leach facilities at mining operations. A heap leach pile is not exactly waste, until the leaching process is complete, but these facilities operate under the same types of risk as the other facility types included.
The CI-RiskDB platform has been designed on the risk assessment framework used by Agnico Eagle Mines, and aligned with current global best practices and standards. Agnico has been a co-developer of the back-end processes, and collaborator and reviewer of the platform design all the way along. It certainly helps to have some mine operator input when developing anything new for the mining industry.
Mining industry standardization is something I have always been a big proponent of. My years of undertaking numerous mining due diligences has shown me that the industry has a knack for each company doing things their own way. However, some industry-wide standardization of risk processes might be warranted given the extremely critical nature of tailings dams and other mine site embankments.
Regarding the CI-RiskDB online platform, I was given free demo access. I was able to poke around, examine methodologies, capabilities, and hence get a feel for how the application works. After my brief period of using it, I am in no way an expert on it. However, I can see that likely in less than 8 hours of use (or training) one should become very comfortable with the system functionality.
Benefits of the Platform
In my view, having a single industry platform for critical infrastructure risk management provides several benefits. These are:
• The CI-RiskDB platform provides consistency in the approach used to define and assess risk, which is important given the industry’s issue with employee turnover and lack of experienced technical personnel. A consistent platform will make it easier to accommodate personnel movement within companies and within supporting consultancies.
• The platform provides a complete risk story per site facility (i.e. tailings dam) by quantifying risk relative to other site facilities, and documenting actions to lower risks. This system is designed specifically for geo-infrastructure that rely on geotechnical stability analyses. It requires the users to identify all the ways that hazards, uncertainties, gaps in knowledge and poor quality of work can introduce risks to the facility.
• The CI-RiskDB platform provides a basis for both a risk assessment (risk ranking) and a Level of Practice (LOP) or maturity assessment. The LOP was something I personally had never heard of before. The LOP assessment represents a way to identify, quantify, and mitigate the numerous uncertainties one has in the design and operation of a mining facility.
• The platform can provide a repository for all documents pertaining to the facilities, linked directly to actions and risks they are related to, and other system knowledge such as actions status and progress, history of changes over time, and who made the changes and updates. It is then possible to find all relevant information in one place, including design reports, review board notes, construction records, performance and monitoring reports. This can be a time savings for all involved, and can support audits, training, onboarding.
• There will be a paper trail for the risk evaluation process, by documenting who provided input, rationale for the input, who did the review and final signoff on the risk scores.
Site Information Structure
The CI-RiskDB platform assesses risk management down to the level of the cross-sectional stability analysis. It subdivides a site down into various operational levels.
SITE ==> FACILITY ==> INFRASTRUCTURE ==> CROSS-SECTION
Each mine site is unique with its own set of “Facilities”. For example, the individual Facilities could include Tailing Management Area #1, TMA #2, the Heap Leach Pad, Waste Dump #1, Waste Dump #2, etc.
Each Facility can then be further subdivided into separate “Infrastructure”. For each Facility these could include (for example) a North Dam, a South Dam, an East Dam, etc.
Each Infrastructure item can be further classified into separate stability Cross-Sections. For example, the North Dam may have a section 10 metres high and another section at 50 metres high. Perhaps some stability analysis is done at peak shear strength and others using residual shear strength. The stability analysis for each cross-section will be different with unique factors of safety, unique Level of Practice (LOP), and therefore resulting in a unique probability of failure.
Risk Quantification Criteria
The CI-RiskDB platform follows a typical, but adaptable, risk evaluation approach of:
Risk Score = (Probability of Failure) X (Consequence of Failure)
The Probability of Failure is derived from Factor of Safety calculations modified by a Level of Practice score. The Level of Practice (LOP) is a measure of the integrity and quality of data used to design and manage a mine facility. A dam with a Factor of Safety of 1.2 will have a different Annual Failure Probability depending if the design & operation are highly credible (a high LOP) versus a design & operation based on limited field data and technical rigor (low LOP).
For example, by improving operating management or monitoring systems, one may reduce the Probability of Failure without changing anything in the design of the dam itself.
The Consequence of Failure score is derived from scoring on the four factors listed below. Each is scored on a scale of 1 to 5. The overall Consequence Score for the risk evaluation is based on the maximum score of the four factors
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Health and Safety
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Material damage
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Environment
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Community
Note that the risk categories, definitions, and score settings are adaptable based on a company’s existing risk matrices. This way a company does not need to implement an entirely new system, other than using the CI-RiskDB platform to help manage their information and risk assessment workflow.
Level Of Practice (LOP) Evaluation
The Level of Practice (LOP) is a measure of the integrity and quality of data used to design and manage a mine facility. The CI-RiskDB platform currently uses 45 criteria to evaluate the LOP associated with a facility. For example, these quality criteria include items such as: current understanding of soil profile; testing & verification between lab and field investigations; stability analysis detail; construction QA/QC undertaken, monitoring programs, etc.
The 45 criteria used for the LOP are categorized into six main categories. They are:
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Design – Investigation (9 criteria)
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Design – Testing (6 criteria)
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Design – Analysis & Documentation (8 criteria)
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Construction (8 criteria)
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Operation & Monitoring (10 criteria)
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Performance (4 criteria)
While not all 45 criteria apply to every facility or Infrastructure, the fact that 45 criteria are defined helps ensure a consistent LOP evaluation process.
Each facility receives an overall LOP score based on 1 to 4 rating for each criteria. As well, the basis for each criteria score is documented, reviewed, and signed off by relevant persons. This provides a documented process that endures despite changes in technical or management personnel.
The LOP score is at a snapshot in time and will evolve as measures are implemented to address areas that were lacking in technical rigor.
Example Output
The following are some example outputs from the CI-RiskDB platform.


Path to Successful Implementation
Tailings ponds and waste rock dumps are mine facilities that can impact the public far beyond the boundaries of the mine property limit. These facilities need to be taken seriously. Adoption of a platform like CI-RiskDB would move towards enhancing mining industry consistency in risk management.
The selection of individual scores will still be of a subjective nature when deciding what practices are good or poor quality, or whether sufficient rigor was applied to controlling risks. There is also the possibility of people assigning low consequence ratings where high consequence impacts might be possible.
Over confidence of personnel is something that can unfortunately play a role in risk management. However, the more eyes involved with reviews and signoffs, as well as occasional third party audits, the less likely that this occurs (hopefully).
If a company wishes to successfully implement the CI-RiskDB platform, it will need to make certain time commitments.
1. The company should treat the platform like a collective “diary” about their facilities, ensuring a full onboarding of all past information and reports and a thorough set of evaluations to start.
2. They will need to infill any risk-based information already known, and to have team members add insights about their own knowledge and observations over time. At the least, those involved with the facility must gradually add their knowledge that would otherwise remain “in their heads” or on their personal computers.
3. Companies must then continue to use the platform to record observations, upload performance reports and inspections, other relevant reports, and to update progress on actions and changes in conditions or issues tied to risks. The idea is to move the team away from relying on personal folders and emails, giving everyone involved access to information.
4. Companies must use the built-in governance protocols by running reports to understand what updates and changes have been made over time. Compare the number of actions added versus closed out over a specified period. Is progress being made? Compare the status of performance and risk progression over time and use this to demonstrate action for external audiences.
The CI-RiskDB platform will not maximize its value if a company is unable to make these types of commitments.
Conclusion
In closing, as of this month December 2025, I understand the Critical Infrastructure Risk Decision Basis platform is currently being piloted and implemented at a number of mine sites in Canada, including Agnico Eagle at a corporate level. Additional pilots may be forthcoming in 2026.
Hence one can expect that with time the platform will incorporate even more industry feedback in its functionality.
If you are interested in taking a deeper dive on the CI-RiskDB, contact the Enviro Integration Strategies’ team at https://ci-riskdb.com.
I would like to thank Karen Chovan for allowing me access to the platform. Since I am not a risk management expert, the time spent poking around was also a good learning experience for me.
Date: Dec 20, 2025


The mining industry is implementing more and more technology in the mining cycle.
Mine reconciliation requires information such as initial predictions from exploration data and geological models, actual measurement: data from mining sources, such as blast holes, stockpile samples, or mill feed. As well it will need data on the final product being shipped off site. Do the metal quantities balance out throughout the mining operation?
Each mine site may be unique with respect to; ore sources; terminology; ore types; mining methods; stockpiling philosophy; processing methods; technology availability; and personnel capability. So often the easiest approach for mine reconciliation is based on the Excel spreadsheet. (Reconciliation is generally not an easy undertaking).

On YouTube, there are also a lot of educational videos related to mining. Some of the same audio podcast episodes are also available on the YouTube platform. Given an option, I prefer the audio-only podcast format over YouTube.
Pick and choose. One can’t listen to all the podcast episodes available or else you wouldn’t have time to do anything else in life. You would also become bored since much of it can be repetitive.
Mining Stock Education (680 episodes)
Fresh Thinking by Optiro-Snowden (53 episodes) This podcast is hosted by Snowdon – Optiro consultants. They typically focus on resource modelling and grade reconciliation aspects. The episodes are fairly short (15 mins), which is nice. Although I am not a resource modeller, I can always learn more about the black art of resource modelling.
To the best of my knowledge, there are a lack of podcasts related to mine engineering, for topics such as pit optimization, mine design, scheduling, equipment selection, and costing.
There is no shortage of material in the podcast world about the mining industry. It all depends on what interests you the most. There is even more mining information available on YouTube, if you have the time to sit and watch videos. Nevertheless the audio-only platform is great, although you don’t get to see the charts being discussed. That’s fine with me, particularly if they take a few seconds to describe the chart.
NPV One is targeting to replace the typical Excel based cashflow model with an online cloud model. It reminds me of personal income tax software, where one simply inputs the income and expense information, and then the software takes over doing all the calculations and outputting the result.
Pros
Like anything, nothing is perfect and NPV may have a few issues for me.
The NPV One software is an option for those wishing to standardize or simplify their financial modelling.
This game is part of a coal-mining game trilogy created by Thomas Spitzer in Germany. The players take the role of farmers with opportunities to exploit the presence of coal in the Ruhr region of Germany. During the game, players acquire knowledge about coal, extend their farms, and dig deeper in the ground to extract more coal.
In the second game of Spitzer’s trilogy, you are still in the Ruhr region in the 18th century, at the beginning of the industrial revolution. The Ruhr river presented a transportation route from the coal mines. However, the Ruhr was filled with obstacles and large dams, making it incredibly difficult to navigate.
This game may still be in German text only. Players are the administrator of a coal mine, and experience competition while living through a piece of Ruhr Valley history.
This game takes on a more negative view of the mining industry. It is described as “A bold take on the economics in the brutal industry that is asbestos.” The game players assume the role of a global asbestos company.
In 1983 my brother, at the age of 10, got his Commodore 64 computer and was eagerly learning to program in BASIC. He was always looking for ideas on what he could write programs about. I had graduated from McGill in Mining Engineering a few years earlier, so I suggested he write a simple computer game about mining as his project.
Over the last few months I decided to learn VBA (Visual Basic for Applications). VBA is a programming language the works with Microsoft Office products, mainly Excel.

Mining has been a part of my life for as long as I can remember. Being born in Sudbury, many of my family members have been, or are currently involved, in mining through a variety of occupations, including my father who I idolized. However, I never knew my true interest in the industry until my 11th-grade technology class. I had a teacher who was passionate about the mining industry, and he created a project that involved developing a very basic mine design.
Before my first year of university, I had a summer job tramming at Macassa Mine in Kirkland Lake Ontario, which has been in production since 1933. My mentality was to get the boots on the ground and get the job done, whatever it took (with proper safety precautions of course). Using rail systems, dumping ore cars manually, jackleg drilling, etc. gave me the perspective that mining was archaic, mining was rough, and mining was only about the ounces.
To change the negative view around mining, I believe the main focal point should be electric equipment and the ability for remote operation/work. With all this newly developed technology at our fingertips, I know that future operations will be safer and more sustainable, which should be better portrayed.
Even creating a mining simulation video game where you can run through a story of being a manager, excavator/scoop operator, truck driver, etc. would get the thought of mining brought into the coming generations at a younger age. This would increase the talent pool from the more typical operator because more and more youth are getting skilled at remote operation through video games due to their increased screen time.
People get comfortable and people are afraid to leave home, so selling a career that allows for boundless flexibility in job tasks and constant stimulation while living wherever you desire could allow a shrinkage in the current technical gap.
So do I think the mining industry is archaic…. not anymore.
Firstly, I would like to thank this engineer for taking time to write out his well formed thoughts, and for allowing me to share them.






Loadscan has been around for a few years, but I only became aware of it recently. It is a technology that allows the rapid assessment of the load being carried in truck. It does not rely on the use of load cells or weigh scales to measure the payload.
What is interesting about this technology is that it is simple to install in an operation. It does not require retrofitting of a truck.
SedimentIQ is a new smartphone vehicle tracking platform that is trying to establish itself. Their proposed technology makes use of a phone’s built-in GPS, Bluetooth, and accelerometer to track vehicle operation. The phone’s sensor can measure vibrations produced by an operating truck or loader.
The SedimentIQ software will aggregate the cycle time and delay information and upload it in real time to a cloud based database. A web-based dashboard allows anyone with access to view the real time production data graphically or export it to Excel.
I was at the 2019 Progressive Mine Forum in Toronto and a presentation was given on underground compressed air storage. The company was Hydrostor (
Converting an abandoned mine into a power storage facility will still have its challenges. Cost and economic uncertainty are part of that. In addition, permitting such a facility will still require some environmental study.

