Neo-Cybernetics and its Italian History

Scope and a necessary disambiguation

"Neo-cybernetics" is not a single, tidy object. The phrase points to at least three distinct things, and "especially in Italy" intersects each differently. Before the history, it is worth fixing the terms, because most confusion in this area is terminological rather than substantive.

• Neo-cybernetics in the scholarly sense (Clarke & Hansen, 2009). An umbrella for the cluster of theories that emerged from the "second-order turn" of the 1970s: second-order cybernetics, the theory of autopoiesis, radical constructivism, and Luhmann’s social-systems theory. This is the dominant academic usage and the principal subject of this document.
• Second-order cybernetics / "cybernetics of cybernetics" (von Foerster). The narrower, foundational movement on which the above rests — the cybernetics of observing systems rather than observed systems. In Italian, cibernetica di secondo ordine or seconda cibernetica.
• The recent "Neo-Cybernetics" movement (Nanni, c. 2023). A contemporary, manifesto-driven "third wave" project oriented toward complexity, networks, and design. It is distinct from the first two and far more applied. An unrelated engineering use of the word also exists and is not treated here.

The Italian story runs through all three, but most richly through the first two — and, as it turns out, Italy is not merely a receiver of neo-cybernetic ideas but, in one important respect, a source of them.

Part I — The neo-cybernetic turn (general history)

Cybernetics was named by Norbert Wiener in 1948 as "control and communication in the animal and the machine." Its first order (roughly 1943–1960s) studied observed systems from the outside: feedback, homeostasis, servomechanisms, information, and control. It was mainstreamed into artificial intelligence, computer science, and the social sciences.

The second order emerged between the late 1960s and mid-1970s, principally through Heinz von Foerster and his Biological Computer Laboratory (BCL) at the University of Illinois, with inspiration from the Macy Conferences and from Margaret Mead. Von Foerster reframed the field as the cybernetics of cybernetics: if cybernetics describes humans as cybernetic systems, it must include the cybernetician doing the describing. He distinguished first-order cybernetics as "the cybernetics of observed systems" from second-order cybernetics as "the cybernetics of observing systems." The crucial shift was from homeostasis and self-regulation toward self-organization, self-reference, and autopoiesis in embodied systems (Clarke & Hansen, 2009).

Three further bodies of work cluster around this turn and constitute what Clarke and Hansen call neo-cybernetics:

• Autopoiesis — Humberto Maturana and Francisco Varela’s account of living systems as self-producing, operationally closed networks (Maturana & Varela, 1980).
• Radical constructivism — Ernst von Glasersfeld’s epistemology, in which knowledge is constructed by the experiencing subject rather than mirroring an objective reality (von Glasersfeld, 1995).
• Social-systems theory — Niklas Luhmann’s transfer of autopoiesis to communication and society (Luhmann, 1984/1995).

Clarke and Hansen consolidated the label in Emergence and Embodiment: New Essays on Second-Order Systems Theory (Duke University Press, 2009), whose introduction, "Neocybernetic Emergence," traces the lineage from von Foerster through Varela and Luhmann. This is the canonical reference for the term in its current academic sense.

Part II — Italy, the classical foundation (1950s–1970s)

Italy had an unusually strong early cybernetics scene. It is mostly first-order, but it is indispensable background — and, as Part III shows, it is also where one strand of neo-cybernetics was incubated.

Rome — the first centre. Between 1952 and 1954, Enzo Cambi and Anna Cuzzer founded the first Italian cybernetics centre, the Centro Italiano di Cibernetica, in Rome. Its members included the computer scientist Corrado Böhm, the mathematician and probabilist Bruno de Finetti, the engineer Giorgio Sacerdoti, and the philosopher of science Vittorio Somenzi, who became the movement’s main philosophical animator and editor (Somenzi, 1953; Treccani).

Three specialized centres followed, each with a distinct disciplinary flavour:

• Milan — linguistics. Directed by Silvio Ceccato (1914–1997) and Enrico Maretti. Ceccato founded the journal Methodos (1949–1964), built the early AI prototype Adamo II (1956), directed the Center for Cybernetics and Linguistic Studies at the University of Milan, and popularized the field through his Cibernetica per tutti volumes. His Scuola Operativa Italiana pursued an operational analysis of language and machine translation.
• Naples — neurophysics. Directed by the physicist Eduardo R. Caianiello (1921–1993) with Valentino Braitenberg. Caianiello produced an early mathematical theory of neural processes (Caianiello, 1961) and in 1968 founded the CNR Laboratorio di Cibernetica at Arco Felice / Pozzuoli, which survives today as the CNR institute ISASI, named after him.
• Genoa — biophysics. Directed by Antonio Borsellino and Augusto Gamba, who developed the “PAPA” pattern-recognition machine (Borsellino & Gamba, 1961).

This ecosystem sat inside a wider Italian technological moment — Olivetti’s Programma 101 (1964) and a vivid cybernetic influence on literature and the arts (Umberto Eco’s Opera aperta, Nanni Balestrini’s combinatorial poetry). From the later 1960s the Italian scene followed the international fortunes of the field; funding strain and internal conflict at Arco Felice, and the absorption of the work into AI and informatics, ended the heroic phase (Treccani).

Part III — Italy and the neo-cybernetic turn

Here the “neo” enters. Three threads matter; the first two are expanded in detail below.

1. Radical constructivism has Italian roots: von Glasersfeld and Ceccato

The single strongest link between Italy and neo-cybernetics is Ernst von Glasersfeld (1917–2010), the founder of radical constructivism — one of the three pillars of neo-cybernetics. The crucial biographical fact is that his epistemology was not formed in an American or German university but in an Italian cybernetics laboratory.

Born in Munich to Austrian parents, von Glasersfeld grew up multilingual in northern Italy (South Tyrol) and Switzerland, and briefly studied mathematics in Zürich and philosophy in Vienna before the war interrupted his education. He returned to Italy in 1946 and, from roughly 1947–1949 onward, attached himself to Silvio Ceccato’s Scuola Operativa Italiana (Italian Operational School) in Milan — a multidisciplinary group working across cybernetics, linguistics, and early artificial intelligence. Sources differ slightly on the exact start year (1947 vs. 1949), but he remained for roughly fifteen years, until about 1961–1962, serving successively as translator, language consultant, research associate, and head of the Foreign Language Section of what became the University of Milan’s Center for Cybernetics (later the Center for Cybernetics and Semantic Analysis). From 1963 to 1966 he directed a U.S. Air Force–sponsored machine-translation project administered by the Milan institute IDAMI (von Glasersfeld bio; Accame, 2007; Parini, 2011).

What he absorbed there. Ceccato’s programme, the tecnica operativa or metodologia operativa, was first formulated around 1948–49 as the project of “becoming aware of one’s own operating” (farsi consapevoli del proprio operare). Its central claim was that meanings and mental categories are not given by the world but built by operations of attention — Ceccato took the elementary “atom” of mind to be a state of attention, bistable (open/closed, analogous to 0/1), from whose combinations categories are constructed. The school analysed every thought-content in terms of the interdependence of observer and observed, and tried to transpose this operational theory of language into two AI projects: a mechanical cross-translation between languages, and a mechanical observer/reporter — a machine that observes and describes events in its environment (the lineage of Ceccato’s Adamo II) (Beltrame; Benedetti; Accame, 2007).

How it became radical constructivism. Von Glasersfeld fastened on three operational assumptions in particular: that the products of our mental operations, though we make them, are not arbitrary; that human experience is a contextualized, “punctuated” construction analysable through moments of attention; and that abstract categories arise from the application of a state of attention to itself. He interconnected these with Jean Piaget’s genetic epistemology and, over the following decades in the United States (University of Georgia, from 1970), formalized them into radical constructivism: knowledge is not a representation of an observer-independent reality but a construction tested for viability rather than truth (von Glasersfeld, 1995). The observer-dependence at the heart of second-order cybernetics and the constructed-world thesis of radical constructivism are, in this sense, two expressions of one operational insight that von Glasersfeld first met in Milan.

The personal and theoretical bond. Von Glasersfeld repeatedly named Ceccato as the only person he called his “Master,” and paid homage in Omaggio al maestro (1999). He also became a close ally of Heinz von Foerster — the two co-authored the Italian dialogue Come ci si inventa (2001) — which is precisely the junction at which the Italian operational lineage joins the second-order cybernetics mainstream. Scholarship is candid that Ceccato himself was not a constructivist in von Glasersfeld’s radical sense, that his work remained little known in the English-speaking world, and that von Glasersfeld both extended and corrected it, especially on language and translation (Accame, 2007; Parini, 2011).

Why it matters for the thesis. If radical constructivism is one of the three constituents of neo-cybernetics, and if its formative matrix was Ceccato’s Milan school, then Italy is not only a place where neo-cybernetic ideas were received — it is a partial origin point of the movement. This is the strongest single reason to speak of neo-cybernetics “especially in Italy.”

2. The Milan school of systemic family therapy

The most influential reception of second-order cybernetics in Italy ran through psychotherapy. In 1971 the psychiatrist Mara Selvini Palazzoli, with Luigi Boscolo, Gianfranco Cecchin, and Giuliana Prata, founded the Milan Center for Family Studies; their “Milan Approach” (approccio sistemico milanese) became internationally known. Beginning from Bateson and the Pragmatics of Human Communication (Watzlawick et al., 1967), the group moved decisively toward von Foerster’s second-order cybernetics and constructivism: the observer — here, the therapist — is part of the observed system.

Their programmatic 1980 paper distilled this into three guidelines — hypothesizing, circularity, neutrality (Selvini Palazzoli et al., 1980). Cecchin later “revisited” neutrality as curiosity (Cecchin, 1987) and made the second-order commitment explicit in The Cybernetics of Prejudices in the Practice of Psychotherapy (Cecchin, Lane & Ray, 1994). After the 1980 split of the team, Boscolo and Cecchin moved toward social constructionism, while Selvini Palazzoli and Prata developed the strategic “family games” line. This is the channel through which autopoiesis, constructivism, and observer-dependence entered mainstream Italian intellectual practice.

3. Contemporary Italian systemics: AIRS, Minati, and the theory of emergence

The most active living continuation of the second-order / self-organization agenda in Italy is the Associazione Italiana per la Ricerca sui Sistemi (AIRS, the Italian Systems Society), founded in 1996. AIRS deliberately defines itself not as a professional or academic body but as a permanent cultural project — a network of academics, scientists, and practitioners across architecture, biology, economics, education, engineering, mathematics, medicine, music, philosophy, physics, and psychology — from which editorial, educational, and scientific initiatives are meant to emerge (AIRS).

Its central figures are the mathematician Gianfranco Minati (founder and president; long associated with the Polytechnic of Milan) and the theoretical physicist Eliano Pessa (University of Pavia), working with collaborators including Maria Pietronilla Penna, Mario Abram, and Ignazio Licata. National AIRS conferences — whose invited lecturers have included Hermann Haken, George Klir, Stuart Kauffman, and Tito Arecchi — anchor the community, and their proceedings appear with Kluwer, Springer, and World Scientific (Minati & Pessa, 2002, 2006; Minati, Abram & Pessa, 2008).

The research programme. Where the Milan therapists applied second-order ideas, AIRS pursues a formal and mathematical systemics whose organizing problem is a general theory of emergence. Explicitly framed as moving beyond Ludwig von Bertalanffy’s General System Theory — a “post-Bertalanffy systemics” or “GST 2.0” — it is built around several distinctive and reflexively important concepts:

• Logical openness (Minati, Penna & Pessa, 1996, 1998). A generalization beyond mere thermodynamic openness: a system is logically open when no single, finite, closed formal model can fully capture it, so that modelling admits degrees of openness. This is the systemics counterpart to the observer-dependence and self-reference of second-order cybernetics.
• DYSAM — the Dynamic Usage of Models (Minati & Brahms, 2002). Rather than seeking one correct model, the observer uses multiple, even mutually incompatible models dynamically and in combination — a methodological response to complexity that echoes Ashby’s requisite variety at the level of modelling itself.
• Collective Beings (Minati & Pessa, 2006). Systems in which the same elements can simultaneously or sequentially belong to different collective behaviours (flocks, swarms, markets, social systems) — “multiple systems” whose identity is a matter of ongoing emergence rather than fixed structure.
• Meta-structures (Minati & Licata, 2012, 2015). An approach that locates emergence in the statistical and dynamic properties of the structures of collective behaviours, offering a way to represent and even partially design processes of emergence in social systems.
• Quasi-systems, incompleteness, and quasi-ness (Minati & Pessa, 2018; Minati, 2019). A “non-classical” systemics in which entities are only partly, and only sometimes, systems — coherence is incomplete, multiple, and contradiction-tolerant. The programme describes its own ideal as a “constructionist, incomplete, non-ideological, multiple, contradiction-tolerant systemics, always in progress, and in its turn emergent.”

Relation to neo-cybernetics. AIRS systemics is not simply second-order cybernetics under another name. Its roots are in physics and General Systems Theory rather than in the cybernetics-of-cybernetics proper, and its idiom is mathematical and physical (synergetics, phase transitions, networks) more than epistemological. But it shares neo-cybernetics’ defining commitments — the constitutive role of the observer, self-organization and emergence, and an epistemology of openness and incompleteness rather than closure and representation. For anyone tracing neo-cybernetic thought “in Italy” today, AIRS is the principal institutional home, and its vocabulary of logical openness, DYSAM, Collective Beings, and quasi-systems is the most developed contemporary Italian contribution to the family of ideas.

4. The contemporary “Neo-Cybernetics” movement

Distinct from all of the above, Daniele Nanni has since around 2023 promoted a “third-wave” Neo-Cybernetics as “the science of communication and governance in networks and complex adaptive systems,” via an online manifesto and associated writing. It is a contemporary, design- and governance-oriented project rather than an established academic field, and should not be conflated with the Clarke–Hansen usage. It is treated in more detail in Part V.

Part IV — Terminological cautions

• “Seconda cibernetica” is ambiguous in Italian. It can mean (a) von Foerster’s second-order cybernetics, or (b) Magoroh Maruyama’s “second cybernetics” of positive (deviation-amplifying, morphogenetic) feedback, introduced in 1963. Italian systemic and therapeutic literature often uses the phrase for the latter. Always check which is meant.
• First-order ≠ neo-cybernetic. The rich Italian cybernetics of Ceccato, Caianiello, and Borsellino is largely first-order; calling it “neo-cybernetics” is an anachronism except insofar as it incubated von Glasersfeld’s constructivism.
• “Neo-cybernetics” is a foreign coinage. There is no single self-identified Italian “neo-cybernetic school.” The Italian presence is distributed across constructivism (von Glasersfeld’s Milan roots), systemic therapy (the Milan team), and contemporary systemics (AIRS).

Part V — The current state of the field (2026)

A snapshot of who is doing what as of mid-2026. One framing point governs the whole picture: in the strict Clarke–Hansen sense, “neo-cybernetics” is now carried by a fairly small literary–cultural-theory circle, while most current activity travels under “second-order cybernetics,” “systemics,” or “philosophy of technology.” The field’s centre of gravity has also shifted — geographically toward Hong Kong, Rotterdam, and Latin America, and thematically toward the planetary, the ecological, the decolonial, and AI.

United States — the strict neo-cybernetics line (Clarke)

The scholar still most identified with the term is Bruce Clarke (Texas Tech University; now Paul Whitfield Horn Professor Emeritus). After Gaian Systems: Lynn Margulis, Neocybernetics, and the End of the Anthropocene (Minnesota, 2020) and Writing Gaia: The Scientific Correspondence of James Lovelock and Lynn Margulis (Cambridge, 2022, co-edited with Sébastien Dutreuil), his 2024–2026 work extends neocybernetics toward what he calls planetary cognition, organic cybernetics, and Gaian technics — reframing autopoietic Gaia against “planetary intelligence” / control framings. Recent and forthcoming pieces include “Organic Cybernetics and Planetary Cognition” (Design Science Studio, February 2026), “Bifurcating Technics” (Leuphana University, November 2025), “From Entropology to the Entropocene” (NYU, September 2025), and “Symbiosis and the Holobiont” in Life is Other (de Gruyter, 2025). N. Katherine Hayles remains active in the same systems-theory / literary strand. This is the clearest living continuation of neo-cybernetics as such.

International — Yuk Hui’s “Cybernetics for the 21st Century”

The most intellectually prominent contemporary cybernetics hub is the multi-year project “Cybernetics for the 21st Century,” led by the philosopher Yuk Hui (Erasmus University Rotterdam, Chair of Human Conditions; also City University of Hong Kong). It was initiated in 2021 by the Research Network for Philosophy and Technology together with the Medialab of the Guangzhou Times Museum, and continued in partnership with the Hanart Forum in Hong Kong after the museum closed in 2022. It proceeds through lectures, symposiums, and publications, and hosts the journal Technophany (with Radboud University Press).

Important caveat: despite its subject matter this is a philosophy-of-technology reconstruction of cybernetics, not “neo-cybernetics” in the Clarke–Hansen sense. Its touchstone is Heidegger’s claim that cybernetics marks “the completion of Western metaphysics,” and it overlaps the neocybernetic world mainly through shared participants (Hayles, Clarke).

Phase 1 — Vol. 1: Epistemological Reconstruction. (Hanart Press, released globally February 2024; free PDF plus paperback) is regional and historical, tracing cybernetics from Leibniz to machine learning across the USA, USSR, Latin America, France, Poland, China, and Japan. Contributors include Andrew Pickering (Exeter), N. Katherine Hayles (Duke), Slava Gerovitch (MIT), Mathieu Triclot (France), David Maulén de los Reyes (Chile), Michał Krzykawski (Poland), Dorion Sagan, and — the Italian link — Brunella Antomarini (John Cabot University, Rome).

Phase 2 — Vol. 2: Cybernetics to Come. The speculative, future-facing half: moving “beyond the closed systems imposed by its models” and beyond singularity-style apocalyptics to reflect on freedom, democracy, coexistence, and aesthetics. The lecture series ran April–June 2024 with a notable roster — Bruce Clarke (“Gaian Futurities”), Luciana Parisi (“The Cybernetics of No”), Orit Halpern (“Resilient Futures”), David Bates, K Allado-McDowell, Anna Greenspan, Tony Fry, Toru Nishigaki, Kostas Terzidis, and the science-fiction writers Bruce Sterling and Chen Qiufan. Co-organizers include the University of Tokyo, Tsinghua University, and City University of Hong Kong.

Status (2026): the lecture phase is complete and Vol. 1 is published, but as of mid-2026 the Vol. 2 book appears still forthcoming (available pages continue to describe Vol. 1 as the published volume and Vol. 2 as the lecture phase). The wider programme continues, e.g. a “Dialogues on Philosophy and Technology 2025–2026” series. Geographically the centre is Hong Kong / Rotterdam; this is where the field’s institutional and intellectual weight now sits, even though it is not “neo-cybernetics” strictly.

The second-order community — the American Society for Cybernetics

The American Society for Cybernetics (ASC), founded 1964 and long the home of the second-order tradition, holds its 2026 conference, “Conversational Confluences,” in Ouro Preto, Brazil, 3–7 August 2026, built around the Brazilian thinker Nego Bispo’s decolonial notion of confluence — distinct worldviews meeting without losing their difference. Alongside it, the ASC Speaker Series (Season 6) ran a March 2026 “Cybernetics in 2026” roundtable and sessions on AI and more-than-human design, and a 2026 study group is reading Bateson’s Metalogues. The venue and theme signal the community’s current tilt toward decolonial, ecological, and more-than-human framings.

Italy — AIRS and a turn toward AI

The AIRS systemics lineage around Gianfranco Minati continues (see Part III). Notably, Minati’s stated current research interests have broadened toward cognition and AI — his own profile now lists “Artificial Unconscious in AI,” emergence and de-emergence, mesoscopic coherence, meta-structures, quasi-systems, and logical openness. Honest caveat: the most recent AIRS conference proceedings volume that can be confirmed is Systemics of Incompleteness and Quasi-Systems (2019), so Italian systemics output has consolidated around Minati’s monographs rather than a visible 2025–26 conference. Italy also appears in the wider conversation through Brunella Antomarini (contributor to Hui’s Vol. 1), through the 2023 Philosophy Kitchen cybernetics issue, and — in the applied register — through Daniele Nanni’s Rome-based movement below.

The “Neo-Cybernetics” movement (Nanni)

A small, self-organized movement and Medium publication founded by Daniele Nanni (affiliated with Sapienza University of Rome — a further Italian thread) around a Neo-Cybernetics Manifesto first posted in 2023. Nanni frames it explicitly as the “third wave of cybernetics,” an interdisciplinary movement for navigating systemic complexity in the “metamodern era,” aiming to understand, design, and steer natural, social, and artificial systems. The manifesto is a deliberately “living document,” which had reached v0.5 by mid-2024.

Footprint. This is essentially a solo-authored publication-plus-community effort rather than an academic field. Its infrastructure is a Medium publication, an X account (@neo_cybernetics), an interest form, and an early “ALANA Project” partnership to apply cybernetic principles to real-world community challenges. The content is applied and governance-oriented: recent essays include “A Cybernetic Framework for Governance in the Digital Age” (April 2025) and “Cybernetics and the Evolution of Large Language Models” (August 2025), reading LLMs as a continuation of the cybernetic project.

Status (2026): active at least through mid/late 2025, but no activity dated within 2026 could be confirmed, and there is no sign it has cohered into peer-reviewed scholarship, an institution, or a citable body of work. It is the only current project that uses “neo-cybernetics” as its explicit banner — which is why it is easy to overweight — but in scholarly terms it is marginal compared with the Hui project or Clarke’s work.

Net picture

The strict neocybernetics banner is essentially Clarke’s, now fused with Gaia theory and planetary cognition; the liveliest venue is Hui’s Hanart project (philosophy of technology inflected by cybernetics); the second-order community has taken a decolonial, planetary turn via the ASC in Brazil; and the Italian systemics school persists but has slowed to book-length output while reaching toward AI. “Neo-cybernetics” as a named movement belongs to Nanni; “neo-cybernetics” as a body of thought belongs to Clarke and the second-order tradition.

Bibliography

Foundational / general neo-cybernetics

Wiener, N. (1948). Cybernetics: Or Control and Communication in the Animal and the Machine. MIT Press.

von Foerster, H. (ed.) (1974). Cybernetics of Cybernetics. Biological Computer Laboratory, University of Illinois, Urbana.

von Foerster, H. (1981). Observing Systems. Intersystems Publications, Seaside, CA. (Later collected in Understanding Understanding, Springer, 2003.)

Maturana, H. R. & Varela, F. J. (1980). Autopoiesis and Cognition: The Realization of the Living. D. Reidel, Dordrecht.

von Glasersfeld, E. (1995). Radical Constructivism: A Way of Knowing and Learning. Falmer Press, London.

Luhmann, N. (1984/1995). Soziale Systeme / Social Systems (trans. J. Bednarz & D. Baecker). Stanford University Press.

Clarke, B. & Hansen, M. B. N. (eds.) (2009). Emergence and Embodiment: New Essays on Second-Order Systems Theory. Duke University Press, Durham, NC. [See esp. the Introduction, “Neocybernetic Emergence.”] www.dukeupress.edu/emergence-and-embodiment

Clarke, B. & Hansen, M. B. N. (2009). “Neocybernetic Emergence.” Cybernetics & Human Knowing, 16(1–2). [Companion journal statement of the term.]

Maruyama, M. (1963). “The Second Cybernetics: Deviation-Amplifying Mutual Causal Processes.” American Scientist, 51(2), 164–179.

Classical Italian cybernetics (1950s–1970s)

Somenzi, V. (ed.) (1953). I principi della cibernetica e dei servomeccanismi. Roma.

Ceccato, S. (1961). Linguistic Analysis and Programming for Mechanical Translation. Gordon & Breach, New York.

Ceccato, S. (1968–1974). Cibernetica per tutti (2 vols.). Feltrinelli, Milan.

Caianiello, E. R. (1961). “Outline of a Theory of Thought-Processes and Thinking Machines.” Journal of Theoretical Biology, 1, 204–235.

Borsellino, A. & Gamba, A. (1961). “An Outline of a Mathematical Theory of PAPA.” Il Nuovo Cimento, s. X, 20 (suppl.), 221–231.

Treccani, “La cibernetica,” in Il Contributo italiano alla storia del Pensiero: Scienze (encyclopedia entry; synthetic history of the Italian centres). www.treccani.it/enciclopedia/la-cibernetica_(Il-Contributo-italiano-alla-storia-del-Pensiero:-Scienze)

“Umberto Eco’s Opera Aperta and the Birth of Italian Electronic Literature” (2021), Modern Languages Open. modernlanguagesopen.org/articles/10.3828/mlo.v0i0.381

Italian neo-cybernetics / second-order reception

von Glasersfeld, E. (1999). “Omaggio al maestro,” in Studi in memoria di Silvio Ceccato. Quaderni di Methodologia, 7, 15–21.

von Foerster, H. & von Glasersfeld, E. (2001). Come ci si inventa. Odradek, Rome.

Accame, F. (2007). “Ernst von Glasersfeld and the Italian Operative School.” Constructivist Foundations, 2(2–3), 18–24. constructivist.info/2/2-3/018.accame

Parini, P. (2011). “Ernst von Glasersfeld and the Italian Operational School: Didactic Implications of Operational Awareness.” Constructivist Foundations, 6(2), 140–149. constructivist.info/6/2/140.parini

Benedetti, G. (2011). “The Semantics of the Fundamental Elements of Language in Ernst von Glasersfeld’s Work.” Constructivist Foundations, 6(2), 213–219.

Selvini Palazzoli, M., Boscolo, L., Cecchin, G. & Prata, G. (1978). Paradox and Counterparadox. Jason Aronson, New York. (Italian orig. Paradosso e controparadosso, 1975.)

Selvini Palazzoli, M., Boscolo, L., Cecchin, G. & Prata, G. (1980). “Hypothesizing — Circularity — Neutrality: Three Guidelines for the Conductor of the Session.” Family Process, 19(1), 3–12.

Cecchin, G. (1987). “Hypothesizing, Circularity, and Neutrality Revisited: An Invitation to Curiosity.” Family Process, 26(4), 405–413.

Cecchin, G., Lane, G. & Ray, W. (1994). The Cybernetics of Prejudices in the Practice of Psychotherapy. Karnac, London.

Contemporary Italian systemics (AIRS and related)

AIRS — Associazione Italiana per la Ricerca sui Sistemi (founded 1996). www.airs.it

Minati, G., Penna, M. P. & Pessa, E. (1998). “Thermodynamic and Logical Openness in General Systems.” Systems Research and Behavioral Science, 15(3), 131–145.

Minati, G. & Brahms, S. (2002). “The Dynamic Usage of Models (DYSAM).” In Emergence in Complex Cognitive, Social and Biological Systems (pp. 41–52). Kluwer, New York.

Minati, G. & Pessa, E. (2006). Collective Beings. Springer, New York.

Minati, G., Pessa, E. & Abram, M. (eds.) (2006). Systemics of Emergence: Research and Applications. Springer, New York.

Minati, G., Abram, M. & Pessa, E. (eds.) (2008). Processes of Emergence of Systems and Systemic Properties. World Scientific, Singapore.

Minati, G. & Licata, I. (2012). “Meta-structural Properties in Collective Behaviours.” International Journal of General Systems, 41(3), 289–311.

Minati, G., Abram, M. & Pessa, E. (eds.) (2016). Towards a Post-Bertalanffy Systemics. Springer.

Minati, G. & Pessa, E. (2018). From Collective Beings to Quasi-Systems. Springer, New York.

Minati, G., Abram, M. R. & Pessa, E. (eds.) (2019). Systemics of Incompleteness and Quasi-Systems. Springer. [most recent AIRS proceedings volume]

Philosophy Kitchen (2023), special issue Cibernetica. Prospettive sul pensiero sistemico.

Current developments and venues (2020s–2026)

Clarke, B. (2020). Gaian Systems: Lynn Margulis, Neocybernetics, and the End of the Anthropocene. University of Minnesota Press, Minneapolis. www.upress.umn.edu/9781517909123/gaian-systems

Clarke, B. & Dutreuil, S. (eds.) (2022). Writing Gaia: The Scientific Correspondence of James Lovelock and Lynn Margulis. Cambridge University Press.

Clarke, B. (2026). “Organic Cybernetics and Planetary Cognition.” Design Science Studio (lecture), February 2026. [See also “Bifurcating Technics,” 2025; “From Entropology to the Entropocene,” 2025.] www.brunoclarke.net

Hui, Y. (ed.) (2024). Cybernetics for the 21st Century, Vol. 1: Epistemological Reconstruction. Hanart Press, Hong Kong. (Free PDF and paperback.) hanart.press/cybernetics-for-the-21st-century-vol-1

Hui, Y. (ed.) (forthcoming). Cybernetics for the 21st Century, Vol. 2: Cybernetics to Come. Hanart Press, Hong Kong. (Lecture phase April–June 2024.) digitalmilieu.net/cybernetics-for-the-21st-century-2-cybernetics-to-come

American Society for Cybernetics (2026). Conversational Confluences (ASC 2026 conference), Ouro Preto, Brazil, 3–7 August 2026. events.asc-cybernetics.org/2026

Contemporary “Neo-Cybernetics” movement

Nanni, D. (2023). Neo-Cybernetics Manifesto (v0.5, 2024). Academia.edu and the Neo-Cybernetics Medium publication. www.academia.edu/106335517/Neo_Cybernetics_Manifesto

Online reference resources

Systems Literacy, “Tracing Cybernetic Thinking — From Heraclitus to the Present” (an intellectual genealogy). Basis for the Appendix timeline, condensed and reworded. systemsliteracy.org/cybernetics/timeline

A note on reliability

The Italian centre history, the von Glasersfeld–Ceccato connection, the Milan-team chronology and their 1980 paper, the Clarke–Hansen coinage, and the founding and research programme of AIRS are all documented in the cited primary and secondary sources. Where dates are given for foundational works (Wiener 1948; von Foerster’s Cybernetics of Cybernetics 1974; Maturana & Varela 1980; Luhmann 1984) they reflect standard scholarship. For the Part V survey, several items carry mild uncertainty and are flagged in place: the publication status of Hui’s Vol. 2 (the lecture phase is confirmed; the book appears forthcoming); the absence of a confirmable 2025–26 AIRS conference; and the current (2026) activity level of Nanni’s movement (confirmed through 2025). Two older items also carry mild uncertainty: the exact bibliographic form of the Clarke–Hansen journal article (the book is the secure reference), and the precise start year (1947 vs. 1949) of von Glasersfeld’s Milan collaboration.

Appendix — A genealogy of cybernetic thinking (timeline)

The ideas that crystallized as cybernetics in the 1940s — circular causality, self-regulation, the observer entangled with the observed, process over substance — have roots reaching back some twenty-six centuries. The condensed timeline below situates this document’s Italian and neo-cybernetic story within that longer arc. It is adapted, condensed, and reworded from the Systems Literacy genealogy “Tracing Cybernetic Thinking — From Heraclitus to the Present” (systemsliteracy.org). That source traces seven recurring threads through the whole history: flux/process, logos/order, feedback/control, observer/epistemology, governance/steering, autopoiesis/life, and emergence/holism. Where this document’s protagonists appear — von Foerster, Maturana and Varela, Pask, von Glasersfeld, and (implicitly) Ceccato’s operational school — they belong mainly to the observer and autopoiesis threads of the second-order era.

Ancient roots (6th–3rd century BCE)

c. 570–495 BCE · Pythagorasreality as numerical/structural relationship; the earliest root of mathematical modelling.

c. 535–475 BCE · Heraclitusprocess over substance (panta rhei) ordered by Logos; dynamic stability from the tension of opposites.

c. 490–420 BCE · Protagoras“man the measure”: an early observer-relative epistemology.

c. 428–348 BCE · Platofirst recorded use of kybernetike, the art of steering, as a metaphor for governance.

384–322 BCE · Aristotle“the whole is more than the sum of its parts”; final cause (teleology); syllogistic logic; a glimpse of automation.

c. 279 BCE · Chrysippus (Stoics)propositional (if–then) logic, later underpinning Boolean logic; carried the Logos lineage forward.

c. 270 BCE · Ktesibios of Alexandriaa float regulator for a water clock: the earliest known engineered feedback device (Philon’s self-levelling lamp follows).

Medieval & Renaissance (1st century–1600s)

1st century CE · Roman practicefloat regulators and constant-level devices become engineering craft, without a unifying theory.

800s–1200s · Arab worldfloat regulation refined; simple on–off (“bang-bang”) control appears by the 1200s.

c. 1260 · Ramon Llullcombinatorial logic machines (Ars Magna), prefiguring computation.

1624 · Cornelis Drebbelautomatic furnace temperature control, an early closed-loop system.

1637–1649 · Descartesmind/body dualism: the split that cybernetics would later dissolve through circular causality.

1651 · Thomas HobbesLeviathan: the organismic metaphor for the state.

late 1600s · Leibnizthe characteristica universalis (universal logic/language); with Bernoulli’s optimality principle (1696).

The Enlightenment (1700s)

1710 · Giambattista Vicoa constructivist epistemology: we can truly know only what we construct (a thread running to von Glasersfeld and von Foerster).

1769–1788 · James Wattthe regulated steam engine and the centrifugal flyball governor (1788), the emblem that gives cybernetics its name.

1776 · Adam Smiththe “invisible hand”: distributed, self-organising regulation without central control.

1782 · Immanuel Kantphenomena vs. noumena: the observer as active constructor of experience.

1798 · Thomas Malthusreciprocal causation between population and food supply (proto-feedback).

The nineteenth century (1800s)

1834 · André-Marie Ampèrecoins cybernétique, “the art of governing.”

1843 · Bronisław Trentowskicybernetyka: transdisciplinary management, anticipating requisite variety.

1855 · Claude Bernardthe milieu intérieur, the biological basis of what becomes homeostasis.

1859 · Charles Darwinreciprocal organism–environment interaction: circular causality over evolutionary time.

1868 · James Clerk Maxwelldifferential-equation analysis of the governor: the formal birth of control theory.

1860s onward · C. S. Peircepragmaticism, semiotics (sign–object–interpretant), and abduction.

1877–1885 · Ludwig Noirélanguage from collective labour; the sign “carries more than anyone put into it.”

Pre-war ferment (1900–1942)

1909 · Jakob von UexküllUmwelt: the organism’s observer-dependent perceptual world.

1920s · Gestalt psychology(Köhler, Koffka, Wertheimer) — wholes prior to, and determining, their parts.

1925–1929 · Whitehead, Smuts, Cannon“organic mechanism”; the coining of “holism”; the naming of “homeostasis.”

1936 · Alan Turingthe abstract universal machine formalising computation.

1937 · Ludwig von Bertalanffyfirst lecture on General System Theory; organisms as open systems in dynamic equilibrium.

1938 · Stefan OdoblejaPsychologie consonantiste: a broad pre-cybernetic theory of feedback.

1941 · Andras Angyalparts defined by “positional value” within the whole; homonomy and heteronomy.

Cybernetics born (1943–1960)

1943 · Rosenblueth, Wiener & Bigelow“Behavior, Purpose and Teleology”: purpose grounded in negative feedback.

1943 · McCulloch & Pittsneural networks can compute any logical function.

1946–1953 · the Macy Conferencesthe transdisciplinary crucible (Wiener, von Neumann, Bateson, Mead, von Foerster, Ashby, and others).

1948 · Norbert WienerCybernetics: names the field; the twin ideas of feedback and information.

1948 · Claude Shannona mathematical theory of communication; the bit.

1947–1952 · W. Ross Ashbyself-organisation, Design for a Brain, and the Law of Requisite Variety.

1936–1972 · Gregory Batesonschismogenesis, the double bind, and an ecology of mind; the unit of survival is organism-plus-environment.

1953–1956 · Gordon PaskMusicolour and SAKI: adaptive, learning machines.

1959 · Stafford BeerCybernetics and Management: cybernetics returns to governance.

Second-order cybernetics & autopoiesis (1960s–1990s)

1968 · Margaret Mead“the cybernetics of cybernetics”: the observer must be included.

1968 · the second-order turnfolding the observer into the observed system as an explicit programme.

1971–1973 · CybersynBeer’s real-time cybernetic management system for Allende’s Chile.

1972–1973 · Maturana & Varelaautopoiesis: a living system defined by self-producing organisation, not its material parts.

1975–1976 · Gordon PaskConversation Theory: knowledge co-produced rather than transferred.

1976–1982 · von Foerster & von GlasersfeldObserving Systems (1982) and radical constructivism (linking Piaget and Vico). This is where this document’s Italian thread — von Glasersfeld’s Milan formation with Ceccato — enters the mainline.

1979 · Stafford Beerthe Viable System Model: a recursive, fractal architecture of viability.

1984 · Niklas Luhmannsocial autopoiesis: societies as self-producing networks of communications.

1991–1992 · Varela, Thompson & RoschThe Embodied Mind: enactive cognition; observer and observed co-arise.

Contemporary currents (2000s–present)

2000s · complexity science & network theory(Santa Fe Institute and kin) — emergence, self-organisation, and adaptive networks: cybernetics’ often-unacknowledged children.

2010s–2020s · Mick Ashbythe Ethical Regulator Theorem and the Law of Inevitable Ethical Inadequacy: cybernetics turns to value, not only control.

2020s · AI, anticipatory systems & the return of the observerRosen’s question of model-and-environment, and Ashby’s question of requisite variety, become engineering necessities rather than philosophy.

Source: adapted, condensed, and reworded from Systems Literacy, “Tracing Cybernetic Thinking — From Heraclitus to the Present” (systemsliteracy.org/cybernetics/timeline). Descriptions are the present author’s paraphrase; dates and attributions follow that genealogy.