WipWare’s fragmentation analysis technologies have been widely applied across various mining operations to solve critical challenges. These were associated with material flow, fragmentation consistency, energy use, and overall process efficiency. I came across tom palangio works on numerous case studies highlighting the effectiveness of Wipware inc. tools. These tools optimized blasting practices and downstream processing. This review presents a summary of several influential studies and industrial applications of WipWare technology.
Photographic Fragmentation Analysis
Selbaie Mine, Joutel, Quebec, Canada
In the mid-1990s, Selbaie Mine utilized photographic fragmentation analysis using WipFrag to assess explosive performance and optimize blasting patterns. The integration of WipWare technology enabled the mine to monitor and control several key performance indicators. Some of these indicators included energy consumption for crushing, loading rates, haul truck payloads, secondary blasting costs, and maintenance expenditures. Fragmentation data revealed a more comprehensive understanding of the effects of blast results on overall mining cost structures. This information allowed the mine to better manage ore processing operations. They could quantify the true cost of mineral handling based on fragment size.
Significant Pattern Optimization
INCO Coleman Mine, Sudbury, Ontario, Canada
INCO’s Coleman Mine implemented WipFrag during a detailed study conducted in 1994, resulting in significant pattern optimization. The original tight blast pattern (5ft x 10ft) yielded a characteristic size (Xc) of 0.617 m, with substantial oversize material requiring reblasting. Progressive expansion of the blast pattern to 6ft x 10ft and eventually 7ft x 10ft not only improved fragmentation (Xc = 0.318 m) but also reduced oversize entirely. The WipFrag histogram was instrumental in identifying optimal fragmentation, with INCO realizing up to 40% blast pattern expansion and 80% cost savings. Additionally, the technology allowed for reductions in fines generation, further streamlining ore handling and improving crusher feed quality.
Correlate Ore Fragmentation and Hardness with Mill Performance
Highland Valley Copper, Logan Lake, British Columbia, Canada
At Highland Valley Copper (HVC), the team used WipWare tools to correlate ore fragmentation and hardness with mill performance. WipFrag played a central role in tracking ore size distributions from the pit through to the mill feed. This enabled real-time optimization of crusher and mill settings. The mine’s dispatch system integrated fragmentation data to guide stockpile management and minimize feed segregation. WipFrag analysis revealed that feed consistency across the grinding lines could be improved by adjusting feeder ratios. This capability to quantify fragmentation effects allowed HVC to perform cost-benefit analyses and optimize the balance between blast quality and mill throughput.
Detonator Timing Accuracy and Improved Fragmentation using WipFrag
Bartley and Trousselle – Ogdensburg, New York, USA
At Benchmark Materials Quarry, Bartley and Trousselle demonstrated the link between detonator timing accuracy and improved fragmentation using WipFrag. Digital programmable detonators yielded superior blast uniformity and reduced vibration levels. WipWare’s image analysis facilitated the evaluation of blast performance improvements by providing accurate fragmentation size distribution data.
The Effects of Improved Fragmentation on Mechanical Performance and Power Usage in the Crushing Circuit
Lafarge Canada Inc. – Exshaw, Alberta, Canada
Lafarge’s Exshaw operations applied WipFrag to examine the effects of improved fragmentation on mechanical performance and power usage in the crushing circuit. A redesigned blast using 102 mm holes led to more uniform fragmentation. This resulted in a 16% increase in crusher throughput and a 30% reduction in power consumption. WipWare data also informed decisions related to equipment selection (e.g., drill bits) and wall control, leading to improved safety and reduced vibration impacts on neighboring communities.
Cost-Effective and Reliable Fragmentation Assessment Tool
Barkley and Carter – Evaluation of Optical Sizing Methods
Barkley and Carter evaluated WipFrag as a cost-effective and reliable fragmentation assessment tool. Their work highlighted that previous blast optimization efforts were constrained by the lack of efficient sizing techniques. WipWare enabled meaningful decision-making in blast modeling, mining method selection, and economic planning. The study underscored the significance of image-based sampling frequency, particularly in varied muck pile conditions, to derive actionable insights on crusher performance and feed consistency.
Assess Fragmentation and Stemming Uniformity
Chiappetta, Treleaven, and Smith – Panama Canal Expansion
During the expansion of the Panama Canal, WipFrag was employed to assess fragmentation and stemming uniformity in complex geological and logistical conditions. The integration of WipWare into blasting operations enabled engineers to track blast outcomes and support adaptive design decisions in real-time. In a project characterized by marine traffic, saturated zones, and tight deadlines, the technology provided essential support in achieving controlled fragmentation and predictable material handling.
Conclusion
The reviewed case studies emphasize WipWare’s critical role in improving the efficiency and economics of mining operations. Through accurate and real-time fragmentation analysis, WipFrag facilitates optimization across the mine-to-mill value chain. From reducing energy consumption and equipment wear to improving blast designs and minimizing fines, WipWare’s technologies offer robust solutions to a range of material flow problems in both surface and underground mining environments. These outcomes underscore the value of image analysis in modern mining practice, supporting data-driven decision-making and continuous process improvement.
By Blessing Taiwo