Showing posts with label socio-technical systems. Show all posts
Showing posts with label socio-technical systems. Show all posts

Tuesday, May 7, 2019

Towards Holistic Smart Cities



Authors: Schahram Dustdar (@dustdar), Stefan Nastić, Ognjen Šćekić

Associate Editor: Muneera Bano (@DrMuneeraBano)



Today’s Smart City developments can be summarized as ‘representatives smart’, as opposed to ‘collective-smart’ – one of the terms we propose for describing the future vision of cyber-human smart cities involving a rich and active interplay of different stakeholders (primarily citizens, local businesses and authorities), effectively transforming the currently passive stakeholders into active ecosystem actors.


Realizing such complex interplay requires a paradigm shift in how the physical infrastructure and people will be integrated and how they will interact. At the heart of this paradigm shift lies the merging of two technology and research domains – Cyber-physical Systems and Socio-technical Systems – into the value-driven context of a Smart City. The presented Smart City vision diverges from the traditional, hierarchical relationship between the society and ICT, in which the stakeholders are seen as passive users who exclusively capitalize on the technological advancements. Rather, the architecture we propose puts value generation at the top of the pyramid and relies on “city capital” to fuel the generation of novel values and enhancement of traditional ones. This effectively transforms the role and broadens the involvement and opportunities of citizen-stakeholders, but also promotes the ICT from passive infrastructure to an active participant shaping the ecosystem.

Architecture of Values: The fundamental idea behind a collective-smart city is the inclusion of all its stakeholders (authorities, businesses, citizens and organizations) in the active management of the city. This includes not only the management of the city’s infrastructure, but additionally the management of different societal and business aspects of everyday life. The scale and complexity of managing diverging individual stakeholder interests in the past was the principal reason for adopting a centralized city management model where elected representatives manage all aspects of the city’s life and development.

However, we believe that recent technological advances will enable us to share the so-far centralized decision-making and planning responsibilities directly with various stakeholders, allowing faster and better-tailored responses of the city to various stakeholder needs.

The key technological enabler for this process is the active and wide-scale use and interleaving of technologies and principles from the IoT and Social Computing domains in the urban city domain. These technologies form the basic level of the proposed architecture of values. They allow the city to interact bidirectionally with the citizens in their everyday living, working and transport environments using various IoT edge devices and sensors, but also to actively engage citizens and other stakeholders to perform concrete tasks in the physical world, express opinions and preferences, and make decisions. The “city” does not need to be an active part in this interaction. It can serve as a trustworthy mediator providing the physical and digital infrastructure and accepted coordination mechanisms facilitating self-organization of citizens into transient, ad hoc teams with common goals. This synergy, in turn, enables the creation of novel societal and business values.

Infrastructural values – This category includes and extends the benefits conventionally associated with the existing notion of Smart City – those related to the optimized management of shared (city-wide) infrastructure and resources. Traditionally, the management of such resources (e.g., transportation network and signalization, internet infrastructure, electricity grid) has been static and highly centralized. The new vision of a Smart City relies on the interplay of humans and the IoT-enabled infrastructure, enabling additional, dynamic, locally scoped infrastructural optimizations and interventions, e.g., optimization of physical and IT/digital infrastructure in domains such as computational resources, traffic or building management. Apart from existing static/planned optimizations (e.g., static synchronization of traffic lights), the dynamic optimizations of the infrastructure might include temporary traffic light regime changes when a car accident is detected.

Societal values – This novel value category arises through the direct inclusion and empowerment of citizens as key stakeholders of the city. The fact that through the use of incentivized/paid to perform specific tasks in both the digital and physical environments is a powerful concept bringing along a plethora of socially significant changes.

For example, while most cities function as representative democracies, significant local changes are often decided upon through direct democracy (referendums, initiatives). While undeniably fair in principle, one of the biggest obstacles to more frequent use of direct democracy is the under-informedness of voters. It has been shown that informing the citizens enables them to make more judicial and responsible decisions. The pervasiveness of IoT devices enables interaction with citizens directly and opens up the possibility of informing the citizens better, or even simulating in practice the outcomes of different election choices.




Tuesday, April 30, 2019

Citizen Engagement in Smart Cities: Theoretical Dreams vs Practical Reality


By: Muneera Bano (@DrMuneeraBanoand Didar Zowghi (@DidarZowghi) 




It has been predicted that by 2050, around two-thirds of the world’s population might be living in urban settlements. To make the cities ready for population expansion and growth, ICT is playing a critical role in the future of urbanisation referred to as ‘Smart City’. It has recently become the hot topic of research as the tech giants such as Google and Microsoft entering the race of real state.


There is no consensus on the exact definition of smart cities, however, any definition would refer to the core concepts of advanced technological infrastructure for urban society with collaborative and interactive human-centred design. An emerging view is that smart cities aim to increase efficiency, sustainability, and improve quality of life for citizen by utilizing technologies to connect every layer of a city, from the air to the streets to underground, to capture and analyse data from various independently-managed and operating infrastructures, utilities and service providers.


The buzz words used by researchers to propose architectural solutions for smart cities include Artificial Intelligence (AI), Internet of Things (IoT), Smart Phones, Cloud-based Services and Big Data. In essence, a smart city is a large-scale cyber-physical complex socio-technical system for an urban population that is comprised of many interconnected subsystems. Examples of these subsystems include transportation, power and water supply, waste management, pollution monitoring, crime detection, video surveillance, emergency response system and other smart community initiatives for e-governance. Typical examples of smart city are Singapore, Dubai, Amsterdam, Barcelona, Stockholm, and New York.

The three core components of a smart city are People, Processes and Technology. Regardless of the type of technology used for smart city implementation, the most emphasised factor is ‘Citizen Engagement’. As pointed out by Bettina Tratz-Ryan, research vice president at Gartner, "The way forward today is a community-driven, bottom-up approach where citizens are an integral part of designing and developing smart cities and not a top-down policy with city leaders focusing on technology platforms alone”.

Smart city design should not only allow the community of citizens to interact directly with the technology but increase their participation in the governance of the cities. However, relatively little research has focused on the complexities and pragmatics of citizen engagement leading to their participation in governance.

There are various stakeholders in the smart city and citizens are only one group of stakeholder. The intention for involving citizens in co-production and the evolution of the smart city is to turn them into a technologically intelligent community where collective human intelligence works in parallel to AI for maximum effectiveness. However, in practice, such form of citizen engagement (to the level of co-governance by society) has yet to be observed in real life examples.

The democratic concept of stakeholder involvement in system design is quite old and well established. Without careful consideration and management, involving stakeholders can cause issues rather than provide benefits. Smart city, being a complex, large-scale, cyber-physical, multi-faceted, multi-layered and socio-technical system, presents new challenges on how to involve and engage the right stakeholder (citizens).

The critical aspect of any smart city project is derived from the political, social and cultural values of the society. The design and infrastructure of a smart city, type of citizen engagement and its evolution will reflect the political system. Examples of such differences can be seen in the citizen engagement by Japan, in the Social Credit System by China, or the bio-microchip implementation by Sweden.

Whether citizen engagement is a democratic initiative (neo-humanist), where the technology is utilised to improve the life and environment of a city, or is it a step towards an increase in controlling the behavioural patterns of the citizens on politically acceptable values inherent in the governance layer of society (functionalist approach) or as simply phrased mass surveillance, the questions regarding citizen engagement such as who will be involved, why, when, how and how much, would all be answered within the political context and the paradigm of governance of a country.

There is a need for further research on various dimensions of citizen engagement not just from purely technological perspectives but also from a social perspective such as political, cultural, and ethical. It is one of the important aspects of smart city and lack of proper citizen engagement and fair representation of citizens from all walks of life can have serious repercussions. Lack of diverse representation can lead to biases in design, that can disadvantage the under-represented or underprivileged groups of citizens. Also, there is a possibility of increasing the digital divide that will impact the less technologically savvy population of cities.

Another crucial issue that requires attention is data protection and privacy.  Smart cities capture and manage large amounts of data that is extremely important for their operations. Any data loss will disrupt city operations and will impact citizen’s trust and confidence. Data collected and manipulated by Smart Cities solutions are critically sensitive for citizens, businesses, governmental, and emergency services, etc. To ensure compliance with data protection regulations such as GDPR, smart city architecture must include data protection as a critical requirement and must embed privacy protection in all stages of the data lifecycle.