ial lives. Super phones change the way we relate to the physical world around us. We studied the extended image and audio capture capabilities of super phones and the ways in which these capabilities could be combined with ever more accurate macro- and micropositioning information. Macropositioning information is available from existing satellite systems, for example GPS with its recently upgraded higher-power L2C signal and, at some stage, Galileo with its optimised European coverage footprint. Macropositioning is also available from terrestrial systems (observed time difference) and from hybrid satellite and terrestrial systems. Micropositioning is available from a new generation of multiaxis low-G accelerometers and digital compass devices that together can be used to identify how a phone is being held and the direction in which it is pointed. This moves competitive networks onto new territory. The eyes and ears of the network see more and hear more than ever before. The network has a precise knowledge of where users are, what they are doing and where they are going (direction and speed). Future Trends, Forecasting, the Age of Adaptation and More Transformative Transforms In simple terms, this knowledge can be used to optimise handover and admission control algorithms. More fundamentally, the additional contextual information becoming available potentially transforms both the adaptability and scalability of the network and service proposi- tion. This has to be the basis of future mobility value in which handsets help us to relate to the physical world around us and networks help us to move through the physical world around us. 21.8.3 And Finally Back to Botany and Biology Biological evolution may from time to time appear as nonlinear. The Cambrian Explosion 543 to 490 million years ago (when most of the major groups of animals first appear in the fossil record) is often cited as an example of nonlinear evolution. Technology evolution may also appear from time to time to be nonlinear. The invention of the steam