OFFICIAL geological and geotechnical data into Geomechanical Models, realistic parameters and domains are established for mine design, sequencing, and support, reducing the likelihood of design flaws and unanticipated terrain failure. 2. Geotechnical design & mine planing (Risk prevention by design) Mine geometries and extraction sequences are designed within the capacity of the rock mass to prevent instability. The control of redistribution of stress through optimized spans, pillar size, sequencing, and the use of destress blasting provides for the controlling of stress redistribution. Using domain-based design and numerical models enables sitespecific layouts and support systems that can enable prior forecasting of instability and avoid conditions of instability; also reduced the potential for failure, high stress concentrations, and large-scale collapse (ICMM, 2023). 3. Ground support & reinforcement (core operational control) To control a failure when instability cannot be avoided, engineered stabilisation and containment systems will control the failure. Surface, reinforcement, and dynamic systems (high-tensile strength mesh and fibre reinforced shotcrete) will work together to provide containment for loosened rock; to strengthen the rock mass; and to accommodate seismic loading and large deformations, using energy-absorbing bolts, yielding anchors, dynamic high-tensile mesh, and the combination of bolt mesh cable systems to mitigate rockfalls, rockbursts, and progressive collapse as critical safety controls (ICMM, 2015; IFC, 2007). 4. Mechanised & automated support installation (Exposure elimination) These systems will control ground conditions, while providing a safe work area away from high-risk zones. Automated bolting, proper mesh installation system, and shotcreting will allow rapid and installation immediately after blasting, without exposing workers to the face of the opening (significantly reducing fatalities from rockfalls), operational data from deep hard-rock mine shows that removing personnel from the face reduce the FoG exposure during the first hours after blasting (MIACC, 2019; Ruiz-Tagle et al., 2017; Geobrugg, 2026). 5. Geotechnical monitoring & early warning (Failure detection before collapse) The use of integrated deformation, load, and seismic monitoring; controlled by a systematic process of inspection will enable the early detection of terrain instability. Using threshold-based alarms and Trigger Action Response Plans, monitoring data will be converted into an actionable response; thereby enabling the proactive implementation of interventions to reduce the potential for sudden collapse and/or unforeseen failure (Chester et al., 2018). 6. Operational geotechnical management (Ensuring controls actually work) Integrates geotechnical controls throughout the everyday operation of businesses with formal ground control plans and critical controls, zoning, exclusion criteria, and competency-based training. By conducting regular audits and compliance checks, control degradation and human error are minimized, allowing for stable and efficient management of geotechnical risk in real-time operational settings (MIACC, 2019). Table 7 - How the solutions map to risks Geotechnical risk Key solutions Roof / wall falls Mesh + bolts + shotcrete (optional)
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