Annual Meeting Preliminary Program - Full Brochure (PDF) - SME
Annual Meeting Preliminary Program - Full Brochure (PDF) - SME
Annual Meeting Preliminary Program - Full Brochure (PDF) - SME
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TECHNICAL PROGRAM<br />
causes are decision errors of omission or commission. Stopping here is often<br />
called witch hunting and is counterproductive to effective RCA as well as overall<br />
operational reliability. I will discuss the TRUE causes of failures. The Latent<br />
Root Causes and the rationale for the decisions we make.<br />
2:45 PM<br />
An Analysis of Recent MSHA Accident Data for Underground<br />
Metal Mines Using Backfill<br />
J. Seymour, L. Martin, C. Clark, D. Tesarik and M. Stepan; OMSHR,<br />
NIOSH, Spokane, WA<br />
This paper provides an overview of the current use of backfill for ground support<br />
in underground metal mines in the United States and a summary of recent accident<br />
data reported for these mines by the Mine Safety and Health Administration<br />
(MSHA). Backfill mines comprise a major part of the underground metal mining<br />
industry and are particularly important in terms of the fatalities and injuries impacting<br />
this workforce. MSHA reported several different types of accidents involving<br />
backfill at these mines. These backfill-related accidents accounted for 63<br />
percent of the fatalities. Ground falls were the single leading cause of fatal accidents<br />
accounting for 50 percent of the fatalities. While backfill ground falls do<br />
not occur frequently, these accidents result in a much higher proportion of fatalities<br />
than host rock ground falls. Backfill ground fall accidents are especially hazardous<br />
in underhand cut-and-fill mining operations where employees are working<br />
directly beneath the backfill. MSHA accident data indicates that further<br />
cooperative research with the mining industry is needed to identify and address<br />
ground fall problems in underground metal mines using backfill.<br />
3:05 PM<br />
Managing Blasting Service Risk In Order to Reduce Blasting<br />
Service Liability<br />
B. Fidler and D. Lilly; Indsutry Sales Support, Dyno Nobel,<br />
Salt Lake City, UT<br />
A sound framework of risk oversight, risk management and internal control is<br />
fundamental to good corporate governance of a mining or quarry operation. A<br />
solid risk management program underpins reliable customer service for a blasting<br />
service, regulatory compliance with relevant laws and regulations for effective<br />
and efficient operations, and fragmented material to ensure mining efficiencies.<br />
A risk evaluation or profile needs to be conducted for each new customer or<br />
new blasting project based on a Risk Evaluation Tool in order to accurately and<br />
subjectively understand the actual risks prior to obtaining/starting the work.<br />
Risk is the possibility that an event will occur and adversely affect the achievement<br />
of objectives. Risk Assessing/Evaluation Tool would be used at all levels<br />
of drill or blast work utilizing multiple risk ratings. Developing a risk evaluation<br />
tool to help ensure the job, project or customer contract bid is performed which<br />
reviews and understands the possible liability associated with providing sufficient<br />
blasting service.<br />
3:25 PM<br />
RISKGATE – A Case Study of Effectively Sharing Risk Controls in<br />
Australian Coal Operations<br />
P. Kirsch 1 , J. Harris 1 , S. Goater 1 , D. Sprott 2 , J. Joy 3 and D. Cliff 1 ;<br />
1<br />
MISHC, University of Queensland, St. Lucia, QLD, Australia; 2<br />
Design Solutions Pty Ltd, Buddina, QLD, Australia and 3 JK Tech Pty<br />
Ltd, Indooroopilly, QLD, Australia<br />
The Australian Coal Association Research <strong>Program</strong> (ACARP) is funded by a<br />
levy on all Australian black coal producers. RISKGATE is the largest single<br />
ACARP occupational health and safety (OHS) initiative to date. RISKGATE is<br />
an interactive online risk management system developed by the Minerals<br />
Industry Safety and Health Centre (MISHC; University of Queensland) to assist<br />
the mining industry in implementing continual improvement in management of<br />
major unwanted events so maximising health and safety performance. All major<br />
Australian mining companies are contributing topic experts to this broad industry<br />
initiative. RISKGATE generates substantive and leading edge controls to assist<br />
industry stakeholders in the design, management and reporting of organisational<br />
and regulatory compliance requirements. From a broader industry<br />
perspective, RISKGATE provides an environment for knowledge capture and<br />
knowledge exchange to drive innovation and best practice in the identification,<br />
assessment and management of risk. By capturing operational knowledge from<br />
industry experts, RISKGATE provides a cumulative corporate memory at a time<br />
of high personnel turnover in the coal industry.<br />
3:45 PM<br />
Using Bowtie Diagrams for Analysing and Assessing the Risk of<br />
Major Hazards in the Mining Industry<br />
G. Lyle 1 , P. Foster 2 , V. Pakalnis 1 and D. Millar 1 ; 1 MIRARCO,<br />
Sudbury, ON, Canada and 2 University of Exeter, Cornwall,<br />
United Kingdom<br />
Where risk assessment has been used in the mining industry there has been little<br />
consideration between “major” hazards (high consequence-low likelihood risks<br />
such as explosions, fires, and major falls of ground) and “occupational” hazards<br />
(lower consequence-higher likelihood risks). These different types of hazards are<br />
assessed together using a single risk assessment process. This paper will argue<br />
against this, stating that these types of hazard should be managed separately<br />
using different risk assessment techniques and advocating Bowtie analysis as a<br />
technique when looking at major hazards. A Bowtie diagram is a graphical<br />
means of assessment that focuses on identifying all the specific causes and consequences<br />
of major events, from which all the pre-event and post-event control<br />
measures can be identified. From this critical control measures can be identified<br />
and monitoring/assurance systems can be established. It is this assessment of<br />
control measures and their effectiveness that replaces the more traditional evaluation<br />
of risk. This paper will use examples of real Bowtie assessments and look at<br />
some of the techniques used for assessing control effectiveness.<br />
chair:<br />
Mining & exploration:<br />
technology: how Software technology<br />
Makes My Job easier<br />
2:00 PM • Tuesday, February 26<br />
2:00 PM<br />
Introductions<br />
A. Garcia, Maptek, Lakewood, CO<br />
2:05 PM<br />
Real Time Monitoring Techniques for Haul Fleet<br />
Reliabiltiy Improvement<br />
D. Fisk; Mining Solutions, Honeywell Advanced Solutions, Toronto,<br />
ON, Canada<br />
Numerous mines have implemented real time tools to monitor the health of their<br />
hauling andloading fleets with significant successes. We will look at the workflows,<br />
methodologies and results from a North American mine who have been<br />
using real time health monitoring on their fleet for a number of years. The impact<br />
on reliability and cost will be reviewed<br />
2:25 PM<br />
Geotechnical Data Collection and Analysis<br />
Z. Hladysz 1 , S. Otto 1 , K. Hachmeister 1 , C. Randolph-Loar 2 and<br />
S. Schiele 3 ; 1 Golder Associates, Lakewood, CO; 2 Lachel and<br />
Associates, Golden, CO and 3 Maptek, Lakewood, CO<br />
Recent hardware and software developments in the acquisition and processing of<br />
geotechnical data allow the engineer to perform geotechnical assessments with a<br />
new level of efficiency and accuracy. This provides an important edge as the increasingly<br />
competitive market for mineral resources demands corresponding increases<br />
in productivity without jeopardizing mine safety. This paper presents the<br />
authors experience with the digital mapping technology used for geotechnical assessment<br />
of the rock mass at the former Homestake Mine as a site of Sanford<br />
Underground Research Facility. The results of the geotechnical investigations,<br />
which involved laser scanners and I-Site Studio software, were used for excavation<br />
design. Significant advantages of this technology were fast and safe data acquisition,<br />
efficient processing, and cost-effective and accurate geotechnical analysis.<br />
2:45 PM<br />
New Trends in Energy Management Systems and Its Benefits for<br />
Mining Applications<br />
R. Kaushik and F. Mielli; Schneider Electric, Alpharetta, GA<br />
Key performance indicators and advanced analytics help mining operations manage<br />
energy in financial terms and gain unique insight into the impacts of power<br />
quality on their business and all energy assets. Stakeholders from management to<br />
plant level are able to be empowered by actionable energy intelligence to reveal<br />
This is the Technical <strong>Program</strong> as of September 1, 2012. IT IS SUBJECT TO CHANGE.<br />
91<br />
Please see the Onsite <strong>Program</strong> for final details.