Context: Society is faced with “wicked” problems of environmental sustainability, which are inherently multiperspectival, and there is a need for explicitly constructivist and perspectivist theories to address them. Problem: However, different constructivist theories construe the environment in different ways. The aim of this paper is to clarify the conceptions of environment in constructivist approaches, and thereby to assist the sciences of complex systems and complex environmental problems. Method: We describe the terms used for “the environment” in von Uexküll, Maturana & Varela, and Luhmann, and analyse how their conceptions of environment are connected to differences of perspective and observation. Results: We show the need to distinguish between inside and outside perspectives on the environment, and identify two very different and complementary logics of observation, the logic of distinction and the logic of representation, in the three constructivist theories. Implications: Luhmann’s theory of social systems can be a helpful perspective on the wicked environmental problems of society if we consider carefully the theory’s own blind spots: that it confines itself to systems of communication, and that it is based fully on the conception of observation as indication by means of distinction.

Key words: Umwelt, phenomenology, biosemiotics, autopoiesis, perspectivism, Peirce, environment, observing, Luhmann, Uexküll, Maturana , Varela, observer

This paper is a discussion of the sustainability of a concept of “world” compatible with the “operative constructivism” and the operative conception of observation of systems theory of according to Niklas Luhmann. The paper scrutinizes the concepts of observation of H. von Foerster, H. Maturana, G. Günther and N. Luhmann, providing the general framework of “operative constructivism.” Particularly, the paper will focus on N. Luhmann’s understanding of the role of observation in the constitution of the self-reference of the social systems of the modern society. The case of the “systems of art” will be briefly inspected. What place shall we concede to the idea of an “objective” world, according to the systems theory? Are systems “objective”? According to N. Luhmann, for the description of systems only operations are “objective.” However, an operation is not an entity, which means that we need to depict a new kind of “objects,” very different from the ’thing-objectivity” of the ancient metaphysics and different from the Cartesian concept of “res.” What does objectivity mean according to systems theory? This question was at stake in the formulation of N. Luhmann’s Die Gesellschaft der Gesellschaft: Society is “weder Subjekt noch Objekt.” This paper attempts to address this formula. Relevance: The paper deals with the epistemological explanation of second-order observations in social systems according to Niklas Luhmann’s systems theory. It clarifies the world vision of the constructivism movement.

After its infant stage, a new science usually starts reflexing on its identity and theoretical roots. Sustainability science is not an exception, and the needs of self-reflection are even more pressing because of its inter- and trans-disciplinary characters, which involve a plenty of different approaches, theories and practices. In fact, such a variety does not provide a consistent ground for its future development. Without a solid grounding on a reliable base, the plethora of different theories that currently crowds its arena could in the near future produce a rejection from disciplinary specialized researchers, thus confining sustainability science to a scientific fad. Convincing theoretical roots can be found in systems science and cybernetics, and in particular second-order cybernetics, once amended from autopoiesis theory and radical constructivism, which raise serious doubts of validity and applicability. If sustainability science acknowledged its systemic and cybernetic nature and adopted second-order cybernetics in its amended version, it would gain a powerful reference paradigm and a theoretical common denominator and language to support its researchers and facilitate their knowledge exchange. From their part, systems science and cybernetics would be better understood and embraced as powerful sources of knowledge for understanding modern challenging problems, and second-order cybernetics, after decades of scarce relevance for other scientific disciplines, would be revitalized and would finally evolve adequately in a promising science and social practice.

Key words: complexity, cybernetics, first-person account, recursivity, second-order, self-organization, sustainability, systems science.

Context: Sustainability is among major societal goals in our days. Education is acknowledged as an essential strategy for attaining sustainability by activating the creative potential within young people to understand sustainability, bring forth changes in their everyday life, and collectively envision a more sustainable future. Problem: However, teaching and learning about sustainability and sustainability-related issues is not an easy task due to the inherent complexity, ambiguity, and context-specificity of the concept. We are in need of innovative pedagogical approaches and tools that will allow us to design learning activities in which learners will be empowered to develop new, alternative interpretations of sustainability in personally and collectively meaningful ways. Method: We argue that a constructionist perspective involving the use of expressive media for digital storytelling offers an appropriate frame for designing learning activities fostering collaborative creativity in thinking and learning about urban sustainability. Our study is based on the design of a learning activity following this rationale. We adopted a qualitative approach in the collection and analysis of different sources of data with the aim to explore collaborative creativity as a learning process based on the students’ collective processes and resulting in the co-construction of new ideas and insights about sustainability, and new tangible artefacts (the digital stories) encompassing them. Results: Our analysis of the collaborative creativity exemplified in the three digital stories produced identified important creative elements with regards to the three components of a digital story (script, technical characteristics, and ideas of urban sustainability) and how they were embodied in each digital story produced as a result of the students’ joint constructionist activity. Implications: Our study provides some preliminary evidence that collaborative creativity from a constructionist perspective can stand as an appropriate framework for designing learning activities addressing the difficult concept of sustainability. There are several implications for both theory and educational practice in environmental education and education for sustainable development, constructionism, and digital storytelling in education. Moreover, our study opens up new fields for research and theory in creativity.

Key words: Sustainability, urban sustainability, collaborative creativity, constructionism, digital storytelling, learning design.

Open peer commentary on the article “Learning about Urban Sustainability with Digital Stories: Promoting Collaborative Creativity from a Constructionist Perspective” by Maria Daskolia, Chronis Kynigos & Katerina Makri. Upshot: The target article by Daskolia, Kynigos and Makri shows the great potential of narrative learning to foster general learning skills, such as meaning-making, collaboration and creativity, while facilitating the construction of disciplinary content knowledge. This learning approach has much to recommend it, especially from a constructivist perspective, because it supports the implementation of collaborative and creative learning processes apt to promote reflective dialogue as a basis for knowledge construction, capitalizing on students’ previous knowledge and experience.

Open peer commentary on the article “Learning about Urban Sustainability with Digital Stories: Promoting Collaborative Creativity from a Constructionist Perspective” by Maria Daskolia, Chronis Kynigos & Katerina Makri. Upshot: Creativity, collaboration and learning are fascinatingly messy and interconnected processes. Does knowledge develop by engaging in a collaborative creative process, or does existing knowledge allow us to create more creative artefacts? Does one build upon the other in a bricolage process, familiar to constructionist learning experiences? If so, how can we best facilitate this type of learning? This OPC raises a number of questions that it does not attempt to answer but raises them to draw attention to the complexity of the phenomena under investigation.

Two core concerns of ecological economists have for decades been to consider the economy as embedded in broader social–ecological systems (SESs) and to include multiple perspectives in knowledge production. To address these concerns, I argue, ecological economists need to return to the ontological question of what constitutes the SES and the epistemological question of how to obtain knowledge about it. The article shows that autopoiesis complemented with the theory of embodied cognition addresses (1) the ontological challenge by articulating socio-cultural artifacts and ecological artifacts as a single entity, and (2) the epistemological challenge with universally shared schemas that describe goal-oriented activity. The power of autopoiesis is illustrated by outlining an embodied SES model of reindeer management as an alternative framing to the predominant information-processing SES model. An environmental policy measure that from the information-processing perspective looks like an adjustment of a control variable may from the embodied perspective disrupt an interconnected structure of social–ecological interaction. The article proposes a way to integrate the information-processing and embodied models. The results pose significant challenges for future research and policy efforts by ecological economists.

Key words: sustainability, cognitive science, reindeer herding, autopoiesis, framing, human–environmental interaction.

We offer a reflection on our own praxis as designers and developers of a learning system for mature-age students through the Open University (OU) UK’s internationally recognised supported-open learning approach. The learning system (or course or module), which required an investment in the range of £0.25–0.5 million to develop, thus reflects our own history (traditions of understanding), the history of the context and the history of cyber-systemic thought and praxis including our own engagement with particular cyber-systemic lineages. This module, “Managing systemic change: inquiry, action and interaction” was first studied by around 100 students in 2010 as part of a new OU Masters Program on Systems Thinking in Practice (STiP) and is now in its fourth presentation to around 100 students. Understanding and skills in systemic inquiry, action and interaction are intended learning outcomes. Through their engagement with the module and each other’s perspectives, students develop critical appreciation of systems practice and social learning systems, drawing on their own experiences of change. Students are practitioners from a wide range of domains. Through activities such as online discussions and blogging, they ground the ideas introduced in the module in their own circumstances and develop their own community by pursuing two related systemic inquiries. In this process, they challenge themselves, each other and the authors as learning system designers. We reflect on what was learnt by whom and how and for what purposes. Relevance: This paper builds on an earlier chapter “Blackmore, C.P.; Ison, R.L. Designing and Developing Learning Systems for Managing Systemic Change in a Climate Change World. In Learning for Sustainability in Times of Accelerating Change; Wals, A., Corcoran, P.B., Eds.; Wageningen Academic Publishers: Wageningen, The Netherlands, 2012; pp. 347–364" and a conference paper “Ison, R.; Blackmore, C. Designing and Developing a Reflexive Learning System for Managing Systemic Change in a Climate-Change World Based on Cyber-Systemic Understandings. In Proceedings of European Meeting on Cybernetics and Systems Research (EMCSR 2012), Vienna, Austria, 9–13 April 2012".

Using second-order systems theory, the concept of ‘sustainability’ shifts from a normative starting point to a probabilistic expectation that is open to investigation. While first-order systems can be considered as observable translations of input into output, second-order systems theory adds the perspective of evolution to networks of first-order systems. Complex and dynamic systems are not instucted by incoming signals, but disturbed. They are able to adapt the cycles of their behaviour. Consequently, second-order delineations are not ‘given’ but are continuously reconstructed. These systems have no ‘natural’ delineations, and their ‘limits to growth’ remain a provisional hypothesis. The likelihood of the various progresions can be specified only in terms of a model. Among other things, changes betwen technological trajectories within the current regrime can be distinguished from the possible transition to a regime of sustainable technological development.

Projects designed to respond to complex and wicked problems, such as sustainability and international development, may be significantly supported by a developmental evaluation approach that supports practitioners to optimise their experiential learning to innovate under complex conditions. However, as Mitchell argues, while developmental evaluation supports learning under complexity, it has yet to articulate an epistemological framework which accounts for how learning occurs under dynamic and uncertain circumstances. To address this, Mitchell draws on enactive cognitive science concepts to understand how we participate in constructing our own experience, and uses these insights to interact orthogonally with project practitioners to facilitate projects in becoming second-order learning systems, to learn both how to learn and the conditions under which such learning holds as relevant and valid.

Key words: cognition, orthogonal interactions, structural coupling linguistic domains/systems, language, observer.