Deep Automation Expansion for Underground Mining Processes
Epiroc has expanded its system portfolio to integrate underground drilling and bolting solutions into its existing autonomous material handling infrastructure. www.epiroc.com The integration bridges separate mechanical phases of the underground mining cycle into a single automated ecosystem. Originally developed to orchestrate autonomous loaders and haulage trucks, the system framework now connects material handling with production drilling and rock reinforcement. This combined architecture coordinates machine actions across multiple production zones, addressing the logistical delays caused by manual equipment transitions and human absence during blast clearance phases. Interoperability and System Architecture The technical suite utilizes an open architecture interface to enable interoperability between specialized underground machinery and equipment from various original equipment manufacturers (OEMs). By adopting standardized digital infrastructure protocols, the system acts as a centralized supervisor. It schedules, tracks, and adjusts the paths and tasks of autonomous haulage trucks and loaders while simultaneously regulating the precision inputs of automated production drills. This operational logic optimizes process stability at depth. It allows equipment to continue operations through standard shift changes and during post-blasting ventilation periods, when human operators cannot safely enter the mine. Operational Performance Parameters The data gathered from ongoing field deployments demonstrates concrete operational adjustments in process efficiency: Mine Development Speed: Integrating drilling automation into the core system allows for greater precision in blast hole alignment, increasing mine development rates by up to 30%. Stoping Cycle Reduction: Precision drilling combined with synchronized automated clearing shortens total stoping cycles by up to 70%. Haulage Productivity: Autonomous haulage operations maintain a continuous feeding cycle for underground crushers during blast clearances. This process consistency increases overall mine output by more than 15% and adds over 3,000 tonnes of material transported per month for each active mine truck. By optimizing initial blast fragmentation through automated drilling precision, the system lowers downstream energy demands during material crushing and reduces the volume of waste rock extracted. The predictable mechanical performance also minimizes wall degradation, stabilizing the rock face prior to the deployment of automated bolting rigs. Edited by Evgeny Churilov, Induportals Media - Adapted by AI. www.epiroc.com Powered by Induportals Media Publishing
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Epiroc has expanded its system portfolio to integrate underground drilling and bolting solutions into its existing autonomous material handling infrastructure.
www.epiroc.com
The integration bridges separate mechanical phases of the underground mining cycle into a single automated ecosystem. Originally developed to orchestrate autonomous loaders and haulage trucks, the system framework now connects material handling with production drilling and rock reinforcement. This combined architecture coordinates machine actions across multiple production zones, addressing the logistical delays caused by manual equipment transitions and human absence during blast clearance phases.
Interoperability and System Architecture
The technical suite utilizes an open architecture interface to enable interoperability between specialized underground machinery and equipment from various original equipment manufacturers (OEMs). By adopting standardized digital infrastructure protocols, the system acts as a centralized supervisor. It schedules, tracks, and adjusts the paths and tasks of autonomous haulage trucks and loaders while simultaneously regulating the precision inputs of automated production drills.
This operational logic optimizes process stability at depth. It allows equipment to continue operations through standard shift changes and during post-blasting ventilation periods, when human operators cannot safely enter the mine.
Operational Performance Parameters
The data gathered from ongoing field deployments demonstrates concrete operational adjustments in process efficiency:
- Mine Development Speed: Integrating drilling automation into the core system allows for greater precision in blast hole alignment, increasing mine development rates by up to 30%.
- Stoping Cycle Reduction: Precision drilling combined with synchronized automated clearing shortens total stoping cycles by up to 70%.
Haulage Productivity: Autonomous haulage operations maintain a continuous feeding cycle for underground crushers during blast clearances. This process consistency increases overall mine output by more than 15% and adds over 3,000 tonnes of material transported per month for each active mine truck.
By optimizing initial blast fragmentation through automated drilling precision, the system lowers downstream energy demands during material crushing and reduces the volume of waste rock extracted. The predictable mechanical performance also minimizes wall degradation, stabilizing the rock face prior to the deployment of automated bolting rigs.
Edited by Evgeny Churilov, Induportals Media - Adapted by AI.
www.epiroc.com
By optimizing initial blast fragmentation through automated drilling precision, the system lowers downstream energy demands during material crushing and reduces the volume of waste rock extracted. The predictable mechanical performance also minimizes wall degradation, stabilizing the rock face prior to the deployment of automated bolting rigs.
Edited by Evgeny Churilov, Induportals Media - Adapted by AI.
www.epiroc.com
Powered by
Induportals Media Publishing
