Agenda

*Space In Each Site Tour Is Limited, Registrations Will Be Available On First Come, First Reserved Basis.

• Overview of the Campbellfield Factory Fire incident and its impact to the environment
• What could have been done for a better risk management in handling hazardous substance to avoid this blaze?
• What measurements from legislation that we can look into to avoid future incidents

• Outline and update on the NTC’s national project for improving the consistency and efficiency of regulating the land transport of dangerous goods in Australia
  
• Update on the NTC’s development of Edition 7.7 of the Australian Dangerous Goods Code

• Standard procedure of DG packaging compliance confirmation with the requirements of IMDG Code (International Maritime Dangerous Goods Code) by sea
  
• Classification according to the International Air Transport Association (IATA) DG Regulations
  
• Practical Implications and case studies

• Intelligent Video Tracking and Surveillance of Dangerous Goods
  
• Ubiquitous Sensors and Cargo Monitoring
  
• Container Integrity Technologies
  
• Benchmarking Safety Compliance
  
• Emerging Technologies for Detecting, Identifying, and Analyzing Hazardous Materials
  
• Dangerous Goods for Ramps and Warehouse

• Best practices in risk identification in chemical related environment
  
• Measuring the risk, risk appetite and severity of the potential risk caused by the hazardous substance and dangerous goods
  
• Understand Hazchem risk assessment process and evaluate the level of risk to your organization

• Determine what are the optimal and effective chemical controls measures that fits to your organization purpose
• How WHS Regulations setting a benchmark to maintain your risk control measures
• Key Examples on secure Hazchem and Hazmat risk control measure
• Ensure your hazard control measure remain suited to nature and duration of work
• Effectively implement Hazchem and Hazmat control measure and explore the challenges in implementation

• What will impact with this new initiative from the Andrews Labor Government in cracking down illegal hazmat
• How this fully GPS electronic tracking system can better record the production, movement and receipt of industrial waste
• Providing improved quality data to detect potential risks of hazmat and early intervention
• How will this fully electronic GPS tracking system play a role in the new Environment Protection Act legislation in 2020

• Surface Mining in Western Australia
• Underground Mining in Queensland

• Outline of the challenge facing the industry and regulators
• Outline of the impacts when not regulated properly
• Outline of tactics and tools to (including intelligence systems) to catch those engaged illegal activity

• What are the limitation of the prohibition dangerous goods in travelling through tunnels in the city
  
• Alternative risk assessment in determine the legitimation of transporting dangerous goods through tunnels

Best Practices And Innovations On Transport Of Explosive And Flammable Goods

• Specifics of transportation of hazardous cargo and explosives in containers
  
• What are the Changes to the Transport of Ammonium Nitrate
  
• The Implication for Other Dangerous Goods?

• Control conditions necessary to maintain stability
  
• Chemical and physical reactions with other subs
  
• Past incidents – type and characteristics
  
• Toxicity, health hazards and controlling exposure

• Latest ADG Code in chemicals segregation, distances and barriers for toxic, flammable, corrosive and oxidizing substances
  
• Indoor isolation control such as indoor safety cabinets and chemical store rooms to reduce stolen or misusage of chemical
  
• Outdoor controls in managing risk of gas leakage, combusting chemicals

• Fence line gas monitoring at chemical plants
  
• Mobile leak detection in natural gas pipelines
  
• Thermal imaging inspection to detect abnormal heating areas and equipment condition

• Equip the robot with “eyes” that can identify and distinguish items that contain hazardous material
  
• Uses vision systems and “deep learning” to distinguish between different types of hazardous material

• VR in the design review phase
• VR for training to provide improved training experiences when dealing with high hazard tasks

• Using immersive 3D training environment, BP is now using virtual reality to train their field engineers when handling dangerous situations in offshore drilling rigs
  
• With VR, Exxon can simulate the specific conditions of a drilling operation, including the same rocks, temperatures and pressures – even the same physical impact of the ocean currents – in order to replicate critical jobs on the rig
  
• Emergency response, abnormal operations, upset scenarios, integrity critical procedures, and low probability high consequence events are simulated in their VR training headsets until the worker’s response becomes second nature and better able to respond to potentially unsafe situations

• Assessing risk from DG and Hazmat at incidents and work sites
  
• Provision of inform decision to control and manage the incident
  
• Communicating risks and incident status to stakeholders
  
• Interpreting key SDS data for management of incidents

• Legislative framework relating to the safe and secure transport of radioactive material
• Managing the risks by quantity and nature of radioactive material being transported
• Case studies regarding NORM and hospital radioactive wastes
• Five main categories of materials can be identified:
  1. Radioactive materials required for medical purposes and scientific research
  2. Research reactor fuel
  3. Uranium, and other naturally occurring radioactive materials (NORM)
  4. Sealed sources used in the mining and manufacturing industries
  5. Radioactive waste materials