ge Video PIM CIM Future Trends, Forecasting, the Age of Adaptation and More Transformative Transforms functions. The amount of crossintegration determines the 'breadth' of the blended bandwidth proposition. For example, 'blended bandwidth' in the 'radio system domain' means getting wide-area systems (for example, HSPA or LTE or EVDO) to work with broadcast wide-area, local-area WiFi and personal-area Bluetooth and/or NFC local-area connectivity. In the 'audio system domain', 'blended bandwidth' involves a successful integration of voice encoder/decoder functionality with audio encoder/decoder functionality (AAC AAC Plus, MP3Pro and Windows Audio). This includes functions such as voice and speech recognition. In the 'positioning system domain', 'blended bandwidth' requires the integration of microp- ositioning systems (for example, MEMS-based low-G accelerometer devices) with macrop- ositioning (GPS, A GPS or observed time difference systems). Micro- and macropositioning systems have the capability of adding value to all other domains and should be considered as critical to the overall silicon value proposition. In the 'imaging system domain', 'blended bandwidth' means the integration of image and video and the integration of imaging systems with all other system domains. Imaging systems include sensor arrays, image processing and display subsystems. MMS is an imaging domain function. In the 'data system domain', 'blended bandwidth' involves making personal and corporate information systems transparent to all other domains. SMS Text is inherently a data domain function. 'Balanced bandwidth' is how much functionality you support in any one domain and in any one function within each domain - the 'depth' of the domain. For example, in the radio system domain, the choice for wide-area system functional- ity will depend on the mix of technologies deployed and the bands into which they are deployed. For local-area radio system functionality, the choice would be between 802.11 a, b and g and related functional extensions