Abstract
Digital citizenship is about the citizenship of the algorithmic, datatified, connected, and sensorized world of metaverses, multiverses, big data, and artificial intelligence. It is the expression of a new type of architecture that promotes the emergence of a computational ecology made of people, data, algorithms, sensors, forests, weather, viruses, and cities. This connection challenges us to a new cognitive policy in the field of Education. The objective of the article is to discuss ways of knowing and producing knowledge related to the development of computational thinking in K-12 Education to understand how this language is promoted and produced in an immersion path in the city, understood as a territory of hybridizations. The experiences in the city are part of research conducted at the International Research Group on Digital Education, GPe-dU UNISINOS/CNPq, developed from inventive, sympoietic, interventionist, and gamified pedagogical practices. As a research method, it appropriates the intervention-research cartographic method for the production and analysis of data. The results presented are based on elements present in the reticular and connective epistemologies, in the theory of inventive cognition, and in the concepts of transorganic connective act, and atopic inhabitancy. The results indicate that computational thinking is being leveraged in the co-articulation between human and non-human entities, from a citizen OnLIFE Education perspective, contributing to its interdisciplinary and transversal understanding, as well as pointing to the emergence of an ecological cognitive policy in education.

Abstract

Abstract
In contemporary society, there is a growing demand for professionals with the essential skills required in the 21st century. The STEAM (Science, Technology, Engineering, Arts, and Mathematics) disciplines have emerged as pivotal in facilitating the acquisition of these skills. Indeed, these disciplines have exhibited their capacity to enhance workforce performance and fortify a nation's innovation potential, emphasizing the critical need to promote STEAM education among students and integrate it into existing educational curricula. Nonetheless, the inclusion of students with intellectual or developmental disabilities (IDD) in these disciplines presents formidable challenges. These challenges can be attributed to prevailing low expectations regarding the potential of disabled individuals to excel in STEAM fields, the inaccessibility of STEAM education curricula, and the limitations that educators face in fully supporting the integration of students with disabilities. In response to these challenges, we introduce the RoboSTEAMSEN project. The principal objective of the RoboSTEAMSEN project is to bolster educational processes by equipping teachers working with students with IDD with methodologies and tools that employ Robotics and Active Learning Methodologies to promote STEAM education. The project's overarching goals encompass comprehending the specific needs of disabled students and adapting robotics and active learning techniques to accommodate various disabilities, designing comprehensive training programs for teachers to enable them to individualize the learning experiences of students with IDD, establishing a community of practice supported by a technological ecosystem that serves as a central hub for educators and decision-makers to engage in discourse on how to achieve success in STEAM education for IDD students. The primary outcome of this project will be the enhancement of STEAM education for students with IDD. To achieve this objective, we will develop a taxonomy for the categorization of resources tailored to this demographic, institute a user model for personalized learning, generate guides, resources, and courses for teachers, formulate workshop models for the wider dissemination of project findings, and establish a technological ecosystem to facilitate a thriving community of practice dedicated to this important educational domain. © 2023 Copyright for this paper by its authors.

Abstract
[No abstract available]

Abstract
For reconfigurable radios where the signals can be easily routed from one band to another band, new radio frequency switches (RF) are a fundament. The main factor driving the power consumption of the reconfigurable intelligent system (RIS) is the need for an intermediate device with static power consumption to maintain a certain surface configuration state. Since power usage scales quadratically with the RIS area, there is a relevant interest in mitigating this drawback so that this technology can be applied to everyday objects without needing such a high intrinsic power consumption. Current switch technologies such as PIN diodes, and field effect transistors (FETs) are volatile electronic devices, resulting in high static power. In addition, dynamic power dissipation related to switching event is also considerable. Regarding energy efficiency, non-volatile radio frequency resistive switch (RFRS) concept may be better alternative solution due to several advantages: smaller area, zero-hold voltage, lower actuation bias for operation, short switching time, scalability and capable to be fabricated in the backend-of-line of standard CMOS process.

Abstract
In this chapter, we describe the design and implementation of a Pedagogical Innovation Center (PIC) at the Polytechnic of Porto. The COVID-19 pandemic disrupted our day to day lives, our businesses, the world trade and movements. Education was not spared. In fact, it was one of the sectors most heavily affected by COVID-19 pandemic. Teachers were forced, from night to day, to adjust a purely face-to-face teaching style, to a 100\% online set. This is known as emergency remote teaching. Several difficulties have arisen both for teachers and students. The first had to structure all their teaching materials from scratch, had to design and apply new assessment methods, and struggled to get their students' motivation. On their side, the students lacked engagement, social interaction with peers and teachers, the ability to have a more autonomous learning style. © 2023, IGI Global. All rights reserved.