A Threshold for Citizen Science Projects: Complex Thinking as a Driver of Holistic Development

Authors

DOI:

https://doi.org/10.5944/ried.25.2.33052

Keywords:

citizen science, open science, educational innovation, higher education, complex thinking

Abstract

Emerging technologies and community empowerment have driven citizen science (CS) projects. However, their impact remains vague, partly because of the difficulties in monitoring and standardizing these projects. Notably, the development of citizens' complex thinking is not among the primary goals, despite the connection with the tenets of Education 4.0 and the training of socially committed citizens. Therefore, we propose a framework and typology to foster CS projects while scaling up complex thinking. We used the evidence-based educational innovation (EBEI) methodology and the Theory of Change (ToC) perspective, reviewing some of the most relevant frameworks under UNESCO's Open Science Recommendation. Findings from the CS projects analysis revealed that: (a) there is inattention to developing the sub-components of the complex thinking macro-competency; (b) a growing trend to develop frameworks for CS projects is taking place; (c) there is a prevalence of CS project frameworks focused on prevention and control, project evaluation and design, and education and research; (d) a framework with three dimensions based on ToC (Outbound, Threshold and Full-cycle) can guide the development of CS projects; and (e) an eight-component typology can measure the progress and impact of CS projects from the perspectives of Context-awareness, Citizen engagement, Infrastructure leverage, Technological innovation, Educational innovation, Outreach and Scale, Network building, and Complex Thinking. We envision that the integrated framework and typology proposed, scaffolded by complex thinking, can comprehensively broaden the impact of CS initiatives.

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Author Biographies

Jorge Carlos Sanabria-Z, Tecnológico de Monterrey (Mexico)

Jorge Sanabria obtuvo el doctorado en Ciencias Kansei (Ingeniería Afectiva) en el Centro de Investigación Avanzada en Neurociencias, Comportamiento y Kansei de la Universidad de Tsukuba, Japón. Realizó un postdoctorado en la Universidad de Guadalajara donde desarrolló el Método de Inmersión Gradual, dirigido a potenciar la cognición creativa. Es miembro del Reasoning for Complexity Interdisciplinary Research Group (R4C-IRG) del Institute for the Future of Education, y del Sistema Nacional de Investigadores (SNI) nivel 1, donde enfoca en temas de Ciencia Ciudadana, cognición creativa y desarrollo de competencias del siglo XXI. También es miembro del claustro docente del Doctorado en Innovación Educativa y Profesor-investigador Asistente en Diseño, tiempo completo. 

José Martín Molina Espinosa, Tecnológico de Monterrey (Mexico)

Doctor en Computación y Telecomunicaciones por el INP-LAAS en Toulouse, Francia. Sus intereses son sistemas distribuidos, cómputo en la nube, desarrollo de aplicaciones móviles y arquitecturas de sistemas para la toma de decisiones donde ha asesorado 2 tesis doctorales y 17 tesis de maestría. Autor de más de 30 artículos en JCR, congresos y capítulos de libro. Fue director de los Programas de Posgrado en Ciencias de la Computación del Tecnológico de Monterrey (2007-2015), México. Líder de la iniciativa de Centros para la Toma de Decisiones, donde ha participado en la creación de cuatro centros en México y uno en China. Es miembro del Reasoning for Complexity Interdisciplinary Research Group (R4C-IRG) del Institute for the Future of Education del Tecnológico de Monterrey.

Berenice Alfaro Ponce, Tecnológico de Monterrey (Mexico)

Doctora en Ciencias Sociales por la Universidad Autónoma del Estado de Hidalgo (UAEH). Durante su doctorado realizó una estancia de investigación como becaria ERASMUS en la Universidad de Łódź en el proyecto MISEAL (Medidas para la Inclusión Social y Equidad en Instituciones de Educación Superior en América Latina). Es miembro del Sistema Nacional de Investigadores nivel 1 del área de Ciencias Políticas y Administración Pública en la UAEH. Actualmente se ha enfocado en Educación, Derechos Humanos, Tecnología, Transnacionalismo y Política Pública. Adicionalmente, ha colaborado como miembro de la Red Mexicana para el Desarrollo y la Incorporación de Tecnologías Educativas en América Latina (RED LATe). Actualmente es posdoctorante del Reasoning for Complexity Interdisciplinary Research Group (R4C-IRG) del Institute for the Future of Education del Tecnológico de Monterrey. 

Martina Vycudilíková-Outlá, Central Bohemian Innovation Center (Czech Republic)

Martina Vycudilíková se graduó de estudios de licenciatura en Ciencias Sociales y Lengua, así como en Lingüística Francesas en la Universidad Carolina de Praga. Trabajó como profesora, traductora y gestora de proyectos internacionales antes de incorporarse al equipo del Centro de Innovación de Bohemia Central en la República Checa. En la actualidad, se encarga de varias actividades que implican una estrecha colaboración con organizaciones de investigación y científicos regionales. Su objetivo es identificar las necesidades y los retos de las organizaciones de investigación y desarrollar servicios y programas estratégicos pertinentes para superar esos retos. Una de sus funciones es promover temas importantes, como las ciencias abiertas o los aspectos de género de la I+I, entre las partes interesadas en la I+I regional, por ejemplo, organizando conferencias, seminarios y/o talleres. 

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Published

2022-04-25

How to Cite

Sanabria-Z, J. C., Molina Espinosa, J. M., Alfaro Ponce, B. ., & Vycudilíková-Outlá, M. . (2022). A Threshold for Citizen Science Projects: Complex Thinking as a Driver of Holistic Development. RIED. Revista Iberoamericana de Educación a Distancia, 25(2), 113–131. https://doi.org/10.5944/ried.25.2.33052