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Purchase Benefits
What is included with this book?
Foreword | p. xiii |
Acknowledgements | p. xv |
The Authors | p. xvii |
What is human factors, and why is it important for mining equipment? | p. 1 |
What is "human factors"? | p. 1 |
What are the aims of human factors? | p. 1 |
But... people differ in shape, size, ability, skill, and motivation | p. 2 |
And ... adding human factors to the design of a product is often seen as unnecessary | p. 2 |
Why is it important to consider human factors for mining equipment? | p. 3 |
Safety and health | p. 3 |
Productivity and work efficiency | p. 4 |
History of human factors in mining | p. 5 |
Human factors and risk management | p. 5 |
Key current issues, and future challenges with mining equipment | p. 6 |
Safety versus production | p. 6 |
Bigger! Stronger! Quicker! Safer! More reliable! | p. 7 |
Remote control and automation | p. 9 |
An ageing workforce | p. 9 |
Gap between mine site ergonomics knowledge and manufacturer human factors design skills | p. 10 |
Why this book is necessary | p. 11 |
Structure of the book | p. 12 |
Equipment design | p. 15 |
The equipment design process | p. 15 |
The equipment life cycle | p. 16 |
Safety in design | p. 18 |
Hierarchy of control, and control effectiveness | p. 19 |
Is the actual effectiveness of the controls more important than where they sit on the hierarchy? | p. 22 |
Equipment usability | p. 22 |
Who benefits from a user-centred focus? | p. 23 |
Human factors cost-benefit analysis and the system life cycle | p. 24 |
Problems with human factors CBA in mining | p. 24 |
Benefits of using a structured CBA method | p. 25 |
Equipment standardisation | p. 26 |
Issues with standards | p. 27 |
The standards process | p. 27 |
Potential barriers to using human factors in design | p. 28 |
Operability and maintainability analysis technique (OMAT) | p. 30 |
The importance of designing mobile equipment for maintainability and operability | p. 30 |
The beginning of the Earth Moving Equipment Safety Round Table (EMESRT) | p. 31 |
Previous techniques for maintainability and operability assessment | p. 33 |
The scope of OMAT | p. 34 |
OMAT process | p. 35 |
It is not just about design: Mining equipment operations and maintenance | p. 39 |
Elements in the mining system | p. 39 |
Safety in the operation of mobile equipment | p. 41 |
Different types of factors involved in mobile equipment incidents | p. 42 |
Haddon's countermeasure principles | p. 44 |
Principle 1: Prevent the creation of the hazard | p. 44 |
Principle 2: Reduce the amount of the hazard | p. 44 |
Principle 3: Prevent the release of the hazard | p. 45 |
Principle 4: Modify the rate of release of the hazard from its source | p. 45 |
Principle 5: Separate the hazard from that which is to be protected in time and space | p. 46 |
Principle 6: Separate the hazard from that which is to be protected by a physical barrier | p. 46 |
Principle 7: Modify relevant basic qualities of the hazard | p. 46 |
Principle 8: Make what is to be protected more resistant to damage from the hazard | p. 47 |
Principle 9: Begin to counter damage done by the hazard | p. 47 |
Principle 10 | p. 47 |
Conclusions | p. 47 |
Manual tasks | p. 49 |
Introduction | p. 49 |
Direct manual-task risk factors | p. 53 |
Force and speed | p. 53 |
Body posture | p. 54 |
Movement and repetition | p. 55 |
Duration | p. 55 |
Assessing manual-task injury risks | p. 56 |
The place of "training" in manual-task injury risk management | p. 57 |
Conclusion | p. 58 |
Workstation design and anthropometric variability | p. 59 |
Workstation design: Overview | p. 59 |
Incorporating anthropometric data in workstation design | p. 59 |
Types of anthropometric data | p. 59 |
Sources of anthropometric data | p. 60 |
Use of anthropometric data in design | p. 61 |
Issues with the use of percentiles: The myth of the 50th percentile person | p. 62 |
General principles of workstation design | p. 62 |
Clearance requirements | p. 62 |
Access and egress, and fall prevention during operation and maintenance | p. 63 |
Location and arrangement of workstation controls and displays | p. 67 |
Visibility | p. 72 |
Seating | p. 74 |
Digital tools for workstation design | p. 75 |
Conclusion | p. 75 |
Physical environment and climate | p. 77 |
co-written with Robert Randolph | |
co-written zuith James Rider | |
co-written with Janet Torma-Krajewski | |
co-written with Tammy Eger | |
Sound and hearing | p. 78 |
What is sound? | p. 78 |
Hearing and age | p. 79 |
Variables of noise exposure | p. 79 |
Noise protection strategies | p. 80 |
Noise: Summary | p. 80 |
Dust | p. 82 |
Breathing and dust | p. 82 |
Dust control in mining | p. 84 |
Respiratory protection and other personal protective equipment | p. 86 |
Heat, cold, and climate control | p. 87 |
Extent of the issue | p. 87 |
Overview of environmental heat stress | p. 88 |
Environmental heat stress in mining | p. 90 |
Physiological responses to heat stress | p. 91 |
Heat stress indices and thermal limits | p. 91 |
Controls: General | p. 92 |
Controls: Specific to mining | p. 94 |
Cold stress | p. 95 |
Summury | p. 96 |
Vibration | p. 96 |
What is vibration? | p. 97 |
Consequences of vibration | p. 98 |
Motion sickness | p. 98 |
Visuo-motor performance | p. 99 |
Health effects: Peripheral vibration | p. 99 |
Health effects: Whole-body vibration | p. 100 |
Controlling whole-body vibration risks associated with mining equipment | p. 102 |
Vision, visibility, and lighting Co-written with Tammy Eger | p. 105 |
Vision and lighting | p. 106 |
Illumination and vision performance | p. 108 |
Standards for mine lighting | p. 110 |
Recommended lighting levels | p. 110 |
Lighting used in underground mines | p. 111 |
LED cap lamp | p. 113 |
Visual warning system (VWS) | p. 113 |
Wireless visual warning system (VWS) | p. 114 |
LED area lighting | p. 114 |
Visibility and equipment design | p. 114 |
Accident statistics | p. 115 |
Strategies to improve line of sight from mobile equipment | p. 116 |
Cameras | p. 116 |
Other visual aids | p. 116 |
Controls and displays | p. 119 |
Controls and displays: Overview | p. 119 |
Control design principles | p. 119 |
Control resistance | p. 121 |
Control sensitivity | p. 121 |
Control order | p. 121 |
Reducing control errors: Guarding, feedback, mode errors, coding, and directional control-response relationships | p. 122 |
Inadvertent control operation | p. 122 |
Mode errors | p. 123 |
Operation of incorrect controls | p. 123 |
Direction errors | p. 131 |
Display principles | p. 139 |
The importance of visual information | p. 139 |
Types of visual information | p. 140 |
Warnings and alarms | p. 140 |
Key display design principles | p. 141 |
Case Study: The EMESRT controls and displays design philosophy | p. 144 |
Automation and new technologies | p. 145 |
Why are new mining technologies and automation being developed and deployed? | p. 145 |
Levels of automation | p. 147 |
The importance of considering human-machine interaction in automated mining equipment | p. 148 |
Why consider the human? | p. 148 |
Approaches and lessons from other domains | p. 149 |
Some of the "ironies" of automation | p. 150 |
Automation and human factors issues | p. 151 |
Case study: Collision detection and proximity-warning systems | p. 153 |
Uses of collision detection and proximity-warning systems | p. 154 |
Types of detection technologies | p. 155 |
Example 1: Underground mining | p. 156 |
Example 2: Surface mining | p. 156 |
Human factors issues | p. 156 |
Mining automation and people: What can we conclude? | p. 158 |
Organisational and task factors | p. 161 |
Fatigue, shiftwork, and ruining equipment | p. 161 |
What is fatigue? | p. 161 |
Fatigue measurement and impacts | p. 162 |
Working hours in mining | p. 163 |
Nightwork | p. 164 |
Strategies to combat operator fatigue | p. 165 |
Naps and coffee | p. 165 |
Fatigue management | p. 165 |
Rest breaks | p. 166 |
Fatigue detection technologies | p. 167 |
Mental workload | p. 168 |
Levels of mental workload | p. 168 |
Mental workload as an interaction of person, task, environment, and equipment | p. 169 |
How to measure it? | p. 169 |
Mental workload and new technology | p. 170 |
Occupational stress | p. 170 |
Is a little stress a good thing? | p. 170 |
Effects of stress | p. 170 |
Who are affected most by stress, and what helps? | p. 171 |
Stress measurement | p. 172 |
Distraction | p. 172 |
The importance of driver distraction | p. 172 |
Definitions of driver distraction | p. 174 |
Internal or external distraction | p. 174 |
Distraction minimisation | p. 175 |
Conclusion | p. 175 |
Training Co-written with Jennifer G. Tichon | p. 177 |
Why train? | p. 177 |
Human factors in the design of training | p. 177 |
Expertise and training | p. 179 |
Sensation and perception differences | p. 180 |
Decision-making differences | p. 181 |
Action differences | p. 181 |
Attention differences | p. 181 |
Issues associated with training | p. 182 |
Use of simulation in training | p. 182 |
VR simulation training in mining | p. 184 |
Conclusion | p. 187 |
Conclusions | p. 189 |
Summary | p. 189 |
Future general trends in mining human factors | p. 190 |
Future human-related trends in mining equipment design, operation, and maintenance | p. 191 |
The need for better human factors design and procurement tools | p. 191 |
Error-tolerant equipment | p. 192 |
Design maturity | p. 194 |
Refrencea | p. 197 |
Index | p. 213 |
Table of Contents provided by Ingram. All Rights Reserved. |
The New copy of this book will include any supplemental materials advertised. Please check the title of the book to determine if it should include any access cards, study guides, lab manuals, CDs, etc.
The Used, Rental and eBook copies of this book are not guaranteed to include any supplemental materials. Typically, only the book itself is included. This is true even if the title states it includes any access cards, study guides, lab manuals, CDs, etc.