Effective answers to the major problems in society can be achieved by resorting to the integration of telecommunication platforms, heterogeneous systems of localization, and sensing capabilities and intelligent objects [1]. Particularly, the pursuit of long term technological solutions has to be made with the support of a revolutionary multidisciplinary approach, especially in the areas of transport, smart environments, quality of life, security, etc.As a result, new and more intelligent services will become available, allowing the realization of smart contexts for what concerns home, building, cities, work-places, and implementing new concepts as ambient intelligence, ambient assistant living, ubiquitous computing, context awareness, and many more. This pervasive communication ecosystem will solve many, if not most, problems in our life, by increasing security and safety perception and improving interaction and conditions of activities; information and communications technologies will be a pillar of this society evolution by providing a complex net of information exchanges and exploiting the big data that are involved in the procedures [2].Moreover, the satellite segment will contribute significantly to the evolution of the services by means of the synergistic use of communication, positioning, and monitoring techniques: this objective will be realized by means of meshed heterogeneous architectures [2] that can afford remarkable systems and networks performance. At the same time, some of the envisaged future services such as the global tracking, monitoring, and maintaining of some specific assets or contexts don't mandatorily request the implementation of classic wireless or satellite communication systems which are subject to coverage and cost limitations; conversely, the uprising Machine-to-Machine (M2M) and Internet of Things paradigms seem to be more appropriate in such scenarios where a global packet connectivity has to be afforded in order to permit the exchange of information between the network and the ultimate users but the requirements in terms of data-rate and latency are not stringent [3], [4].On the other hand, this strategy can be successful if some operating conditions and key factors can be granted; particularly, the following conditions are compelling:C this strategy has to be general, i.e., a very large set of future services has to rely on it, even if their requirements are rather diversified and even divergent;C the communications, both within the system and between the system and the external world, will have to be highly efficient and to deliver all the necessary information in due time, where needed, with required quality of service (QoS) and energy consumption.Among the systems which allow the achievement of both of these goals, the new class of "SmallSats" also affords the reduction of the implementation costs and the increase of system availability because of their recent exponential growth [5], [6], [7]. As a result, the exploitation of SmallSats solutions, such as the CubeSat, as a b...