The IoT will build bridges between the existing complex systems by extending the reach of the Internet into the physical world. This will allow deeper integration of the human world with nature (down to nanoscale levels) as well as more efficient utilization of resources by intelligent management of flows of people, goods, and assets. The goal is to build pervasive systems and environments that are reliable, unobtrusive, autonomous, and secure. The intelligent systems and smart environments involving the IoT can be considered to be generalizations of the Internet (cf. combinatorial evolution of technology. The controllability of the systems and environments will be enhanced significantly through a network of nested heterogeneous networks with numerous hybrid interfaces, leading to a formation of an extremely complex system of systems. The intelligence will especially concern the interfaces, while the objects and processes will be assigned their unique identifications (IDs). The information flows pertinent to such intelligence must be governed by information security policies including information labeling (Electronic Tracker ), modification, ownership, and accountability. The proliferation of the IoT will enable access to information about any environment and about the status of any object, anytime, and anywhere. Establishing these information highways is driven by the deployment of various IoT sensors (physical devices) and markers (logical devices). In addition to ubiquitous sensors, the radiofrequency ID ( GPS Personal Tracker ) tags are another key enabler of the IoT, even though these tags often have very limited computational and memory capabilities (e.g., write-once memory, allowing only for static cryptographic keys).

The IoT will also drive machine-to-machine ( GPS Tracker For Car ) communications. Moreover, machine-to-human (M2H) communications are expected to be increasingly more important; for instance, to enhance human brain capabilities, and at the same time, to also enhance machines by exploiting the computational power of the human brain (e.g., to detect, classify, and track multiple objects in arbitrary visual scenes is an overwhelmingly complex task). The IoT will improve existing and enable new economic processes such as tracking and managing the inventories of goods, delivering parcels, supporting e-commerce activities (online shopping), optimizing supply chains and manufac turing, creating smart environments for assisted living, personalized healthcare,and so on. Unfortunately, introducing intelligence into these economic processes will also create opportunities for more sophisticated small-scale as well as large scale attacks and exploitation as part of economic warfare.

It is interesting to note that the automotive market in developed markets introduced advanced concepts much earlier than the developing or emerging markets. Some good examples are adaptive cruise controllers and 3D GPS Tracking Devices , which have successfully been introduced in Japan earlier than many other market segments. During the time of vehicle development stage, when the modules have already been installed and operational, the external tools can also be used to test and monitor the vehicle communication bus for variety of reasons like supporting the vehicle network messaging or to download a revised code, or to write a calibration file or to upload the diagnostics information via wireless connectivity. Furthermore, at times it is required to log and store the critical message-bus-log, where a storage device could be connected to the OBDII connector to store the bus-log to analyze the data for later review. A specialized device like a GPS Tracking People could be attached to OBD II connector to track the vehicle location for fleet test planning. A Wi-Fi adaptor could also be attached to upload newly developed software within the range of prototype build stations.