01 / ENVIRONMENT
Built for Real Mining Environments
SafeSight's inspection and measurement technologies are designed for demanding mining and underground environments, including active, deep, difficult-to-access and challenging shaft conditions.
UNDERGROUND INSPECTION TECHNOLOGYFIELD-READY DIGITAL INSPECTION
SHAFT AVAILABILITY BRIEFING 01
Mine Shaft Inspection
Digital and Automated Mine Shaft Inspection for Better Shaft Data, Less Disruption and More Confident Decisions.
Capture detailed mine shaft information using LiDAR, 3D scanning, imaging, digital measurement and automated data processing—without relying solely on traditional manual inspection methods.
The objective is simple:Turn shaft inspection data into accurate measurements, 3D models, visual records and engineering-ready information that can support maintenance planning, shaft monitoring and operational decisions.
2000+
Underground Drone Flights
70+
Client Safety Engagements
400+
3D Models
25+
Years of Expert Experience
02 Operating context / verified proof
Trusted by Mining Operations
03 Cost exposure / operational story
Reduce the Cost of Mine Shaft Inspection
Inspection cost is rarely one line item. It can accumulate across the work required, the access window consumed, the production affected and the information that must be measured again.
INSPECTION COST / SYSTEM VIEWWhere exposure
Where exposure
can accumulate
Not a single cost. A connected operating story.
01
Inspection Labour Costs
Traditional shaft inspection activities can require specialized personnel, preparation and significant time to access and examine shaft infrastructure. Digital data capture can reduce the amount of manual work required to collect measurements and visual information.
02
Shaft Downtime Costs
When shaft inspection requires operational interruptions, the cost can extend beyond the inspection crew. Restricted shaft availability can affect hoisting, personnel movement, material movement and other underground activities.
03
Production Impact
A shaft is critical infrastructure. When inspection activities interfere with shaft availability, the resulting operational impact can be greater than the direct inspection cost. Digital inspection can help collect repeatable information with less operational disruption.
04
Manual Measurement & Data Collection Costs
Manual measurements can be time-consuming and difficult to repeat consistently. Digital scanning and imaging create a detailed record that can be measured, reviewed and compared after the inspection.
05 Digital inspection / system stack
Digital & Automated Mine Shaft Inspection
SHAFT RECORD / ACTIVE SS / DIGITAL
Each layer adds usable information to the shaft record—from remote capture to reporting for engineering, maintenance and planning workflows.
Select a layer to inspect the workflowINFORMATION LAYERS05 / 05
06 Inspection record / progressive reuse
From Shaft Inspection to Digital Shaft Intelligence
EVIDENCE RECORD 01—05
Five related activities, one evolving record. Select a stage to see how captured evidence becomes more structured and reusable.
CAPTURE → STRUCTURE → REUSEACTIVITY SEQUENCE01 / 05
RELATED, NOT IDENTICAL — WORKFLOW DEPENDS ON PROJECT NEED
A record of what was seen
Shaft Inspection
Visual + spatial evidence
Evaluate shaft conditions using visual and spatial information captured through remote digital inspection technologies.
EVIDENCE / 01 — OBSERVERECORD CONTENTREUSABILITY INDEX
07 Inspection scope / shaft blueprint
What Does SafeSight Inspect and Measure?
SCOPE MAP 07 AREAS
Select an area to review the information captured and documented as part of an inspection scope.
VISIBLE CONDITIONS ≠ DIAGNOSISSHAFT EVIDENCE VIEWREFERENCE / 01—07
SPATIAL + VISUAL RECORD / SOURCE VIEWSELECTED SCOPE AREA / 01Shaft Dimensions
REVIEWABLE RECORD
CAPTURED INFORMATION DEPENDS ON PROJECT NEED
CAPTURED INFORMATION DEPENDS ON PROJECT NEED
08 Operational value / problem explorer
What Problems Does Digital Mine Shaft Inspection Solve?
OUTCOME LOGIC 06 PROBLEMS
Explore the operational problems digital inspection may help address. The practical value depends on the shaft, scope, conditions and project requirements.
SELECT A PROBLEM TO REVEAL EVIDENCEPRACTICAL VALUE
NO GUARANTEED OUTCOME
NO GUARANTEED OUTCOME
01DISRUPTION / WORKFLOW SELECTED
Reduce Shaft Inspection Downtime
Remote digital data capture can reduce operational disruption associated with traditional inspection activities. Actual savings depend on the shaft and inspection scope.
PRACTICAL VALUE / POSSIBILITYLess disruptive capture may help teams keep inspection work moving around operational constraints.
EVIDENCE VIEW / 0102REPETITION / CAPTURE
Reduce Manual Inspection Work
Digital capture can reduce repetitive manual measurement and documentation activities.
PRACTICAL VALUE / POSSIBILITYA digital record can carry measured and visual information forward for review.
03SPATIAL DATA / RECORD
Improve Measurement Accuracy
High-resolution spatial data provides a detailed measurement record. Actual accuracy depends on equipment, conditions and project requirements.
PRACTICAL VALUE / POSSIBILITYDetailed spatial information may give engineering and maintenance teams a stronger measurement reference.
04FLEXIBILITY / TIMING
Increase Inspection Frequency
Less disruptive inspection workflows may give mines greater flexibility to collect condition data more frequently.
PRACTICAL VALUE / POSSIBILITYMore flexible workflows may support decisions about when condition data is collected.
05CONTEXT / REFERENCE
Improve Maintenance Planning
Connect findings to measurements, images, CAD information and previous inspection records.
PRACTICAL VALUE / POSSIBILITYConnected records can help teams review maintenance information in a shared context.
06REVISIT / COMPARE
Create Repeatable Inspection Records
Digital inspection records can be revisited, measured and compared.
PRACTICAL VALUE / POSSIBILITYA repeatable record creates a practical reference for future inspection and review.
09 Operating model / workflow transition
Traditional vs Digital & Automated Mine Shaft Inspection
INFORMATION MODEL 01—02
Two operating models. Follow each lane to see how information is gathered before it converges into a reviewable record.
SELECT A LANE TO TRACE THE WORKFLOWSOURCE VIEW / 02INFORMATION RECEIVED
Digital informationLiDAR / IMAGING / 3D SCANNINGCONVERGENCE / OPERATIONSWHAT CHANGES FOR MINE OPERATIONS?
The difference is not simply the technology; it is the type of information received. A digital workflow can provide a spatially connected dataset that can be measured, reviewed and compared.
10 Operational effects / outcome path explorer
How Does Better Shaft Data Affect Mine Operations?
CONDITIONAL PATHS 05 CONTEXTS
Follow an evidence record into different operational contexts. The effect depends on the shaft, inspection scope, conditions and project requirements.
SELECT A PATH TO TRACE THE RECORD EVIDENCE RECORD
PATH 01 // MAINTENANCE PLANNING
TRACE ACTIVE
OPERATIONAL EFFECT / POSSIBILITY
Reduce Unplanned Shaft Downtime
Earlier identification of changes can give maintenance teams more information to plan work before problems become unexpected interruptions.
HOW THE RECORD MOVESChange evidence enters the planning conversation
SUPPORTING RECORDCONTEXT 01 / 05
VISUAL RECORDMEASURED CHANGEWORK CONTEXT
EVIDENCE VIEW / 01 OPERATIONAL POSSIBILITY NOT A GUARANTEED OUTCOME
11 Inspection planning / cadence planner
How Often Should a Mine Shaft Be Inspected?
DECISION SUPPORT 03 LENSES
Inspection timing and scope depend on site conditions and applicable requirements.
EXPLORE THE PLANNING LOGICACTIVE LENS / 01SITE CONTEXT REVIEW PATH
WHAT SHAPES THE DECISION
Factors That Affect Inspection Frequency
Factors can include shaft age and condition, depth and usage, environmental conditions, ground or seismic conditions, lining and construction, hoisting activity, previous damage or repairs and applicable requirements.
01Shaft age + condition02Depth + usage03Environmental conditions04Ground or seismic conditions05Lining + construction06Hoisting activity07Previous damage or repairs08Applicable requirements
12 Decision support / evidence explorer
Why Choose SafeSight for Mine Shaft Inspection
FIELD-READY LOGIC 06 REASONS
Six practical reasons. Select a lens to inspect the evidence, relevance and handoff.
SELECT A REASON TO OPEN THE RECORDEVIDENCE TRACK06 / 06
EVIDENCE FIRST CLAIMS STAY CONDITIONAL
TRACK RECORD / 06ACTIVE RECORD // 06
VERIFIED PROOF
OPEN EVIDENCE PATH
PUBLIC WEBSITE-REPORTED FIGURES
Proven Mining Experience
Public website-reported figures: 2,000+ underground drone flights, 70+ client safety engagements, 400+ 3D models and 25+ years of expert experience.
2,000+Underground Drone Flights
70+Client Safety Engagements
400+3D Models
25+Years of Expert Experience
PUBLIC WEBSITE-REPORTED FIGURES
MINING ECOSYSTEM
PUBLIC TECHNOLOGY ECOSYSTEM
13 Results / evidence-led output record
Mine Shaft Inspection Results
EVIDENCE INTEGRITY NO UNVERIFIED RESULT CLAIMS
Official output examples first. Project-level results appear only when the record supports publication.
SELECT A VIEW OR RESULT LENSSAFE SIGHT / OUTPUT GALLERY01 / 08
Digital viewerVIEWER / 01 / OFFICIAL OUTPUT EXAMPLE
Authentic SafeSight output example. No named mine, customer or project is implied.
14 Field guide / questions answered
Frequently Asked Questions
01What is mine shaft inspection?
Mine shaft inspection is the process of evaluating shaft infrastructure and conditions through visual observation, measurement, scanning and other inspection methods.
02What is digital mine shaft inspection?
Digital mine shaft inspection uses digital technologies to capture, measure, document and analyze shaft conditions, producing spatial data, 3D models, visual documentation, measurements and reports.
03What is automated mine shaft inspection?
Automated mine shaft inspection refers to workflows where technology reduces or automates parts of data capture, measurement, processing or analysis. The level of automation depends on the technology and project scope.
04How does SafeSight inspect a mine shaft?
SafeSight uses remote digital technologies including LiDAR-based scanning, imaging, photogrammetry and 360° video to capture shaft information. Captured data can be processed into 3D models, measurements, alignment reports and other outputs.
05Can a mine shaft be inspected remotely?
Yes. SafeSight's remote inspection approach is designed to capture shaft data without relying solely on personnel entering the shaft for inspection activities. The appropriate method depends on shaft configuration and conditions.
06What can be measured during a shaft inspection?
Depending on the project, measurements can include shaft dimensions, guide alignment, guide width and depth, clearances and other relevant spatial information.
07How long does a mine shaft inspection take?
Duration varies by shaft depth, scope, data requirements, access conditions and technology. A SafeSight assessment can determine an appropriate approach.
08How often should a mine shaft be inspected?
There is no single frequency for every shaft. Frequency depends on applicable requirements, shaft condition, operating conditions, previous findings and the mine's inspection program.
09What data do I receive?
Depending on project requirements, SafeSight can provide 3D shaft models, 360° video, DXF measurements, alignment information and inspection findings.
10How much does mine shaft inspection cost?
Cost depends on shaft configuration, depth, scope, technology, data requirements and operating conditions. A SafeSight assessment is needed for project-specific cost.
16 / INITIAL SHAFT REVIEW
Request an Initial Shaft Review
Talk through your shaft configuration, scope and data requirements with SafeSight.
Or email us directly at info@safesightxp.com