EnviroWater has been awarded the installation and commissioning of three (3) Water Recycling and Treatment Systems for KMG – Ridges Iron Ore Project at their Wyndham-Kununurra site.
As the Site Safety Advisor, you are responsible for overseeing WHS compliance during the installation of the water filtration systems at this remote mine site.
As the appointed Safety Supervisor, you are required to coordinate all safety aspects of the project.
There are approximately 26 EnviroWater staff on site per swing (8/6 roster), excluding yourself. All staff are currently working only during the day. The workforce includes:
Supervisor – 1
Electrician – 2
Boilermaker/Fabricator – 6
Pipefitter/Plumber – 2
Mobile Plant Operator – 2
Crane Operator – 2
Rigger / Dogger – 2
Labourer / Trade Assistant – 8
Storeman – 1
Over past projects in the far North of WA, there have been multiple heat-related injuries, with approximate details as follows:
Total hours worked: 28,080 (approx. 180-day work period)
Number of LTI: 6
LTIFR: ? (to be calculated)
Average daytime temperature: 41–45°C
Average nighttime temperature: 24–28°C
The assessment is designed to evaluate the student’s ability to manage workplace health and safety (WHS) for a remote mining project, specifically the installation and commissioning of three Water Recycling and Treatment Systems for the KMG – Ridges Iron Ore Project. Key requirements include:
Role Understanding: Act as the Site Safety Advisor and Safety Supervisor.
WHS Compliance: Ensure compliance with WHS regulations during installation activities.
Workforce Management: Monitor a team of 26 staff with varying trades and responsibilities.
Risk Management: Identify hazards associated with extreme temperatures and past injury history.
Incident Analysis: Calculate Lost Time Injury Frequency Rate (LTIFR) and evaluate safety history.
Planning & Reporting: Develop procedures, monitor work practices, and coordinate safety strategies effectively.
Apply WHS knowledge in a practical project scenario.
Conduct risk assessments for a high-risk remote work environment.
Implement safety control measures for a diverse workforce.
Analyze historical safety data to improve current work practices.
Develop communication and reporting strategies to maintain a safe work environment.
The mentor instructed the student to first analyze the project scope, the location, and workforce details.
Emphasis was placed on recognizing remote-site challenges such as extreme temperatures and prior injury statistics.
The student was guided to clearly define their role as Safety Supervisor.
Each team member’s duties were outlined to identify potential safety risks linked to specific trades.
The mentor showed how to use the workforce and historical injury data to identify high-risk activities (e.g., heat-related injuries).
Tools such as risk matrices were suggested to prioritize hazards.
The student developed WHS procedures including:
Heat stress management plans.
Daily toolbox talks.
Emergency response protocols.
The mentor emphasized documenting these procedures to ensure compliance and accountability.
Lost Time Injury Frequency Rate (LTIFR) was calculated using the formula:
LTIFR=Number of LTIs×1,000,000Total hours workedLTIFR = \frac{\text{Number of LTIs} \times 1,000,000}{\text{Total hours worked}}LTIFR=Total hours workedNumber of LTIs×1,000,000This helped the student quantify safety performance and plan corrective measures.
The mentor guided the student on how to implement daily monitoring of staff and communicate safety updates.
Reports were structured to include hazard identification, incident logs, and recommended improvements.
After completing the assessment, the student was able to:
Apply WHS principles to a real-world scenario.
Manage risks associated with extreme environmental conditions.
Develop actionable safety procedures for diverse workforce roles.
Analyze and interpret safety performance data for continuous improvement.
The assessment outcome demonstrated the student’s ability to:
Effectively coordinate WHS compliance for a complex remote-site project.
Anticipate and mitigate hazards related to extreme heat and past incidents.
Communicate safety requirements clearly to a diverse team.
Apply quantitative methods to evaluate safety performance metrics (LTIFR).
Achieve the learning objectives by integrating theory with practical project management skills.
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