As the world becomes increasingly complex, and our jobs, families, movements, and communities require more of us emotionally, managing the tension between planning and emergence gets both harder and more necessary. When pushed to our limits, it is so tempting to retire to our comfortable corners of this binary–either holding tightly to the illusion of a “perfect,” highly mapped-out plan that answers every question or going with the flow in pursuit of new opportunities as they present themselves. %
By Giles Thomson and Varvara Nikulina How can transdisciplinary researchers efficiently and effectively support diverse and time-poor actors in participatory scenario planning processes? Scenario planning is a useful tool for policy development, especially for contexts with high uncertainty and complexity as described by Bonnie McBain in her i2Insights contribution, Designing scenarios to guide robust decisions.…
We propose a novel definition of life in terms of which its emergence in the universe is expected, and its ever-creative open-ended evolution is entailed by no law. Living organisms are Kantian Wholes that achieve Catalytic Closure, Constraint Closure, and Spatial Closure. We here unite for the first time two established mathematical theories, namely Collectively Autocatalytic Sets and the Theory of the Adjacent Possible. The former establishes that a first-order phase transition to molecular reproduction is expected in the chemical evolution of the universe where the diversity and complexity of molecules increases; the latter posits that, under loose hypotheses, if the system starts with a small number of beginning molecules, each of which can combine with copies of itself or other molecules to make new molecules, over time the number of kinds of molecules increases slowly but then explodes upward hyperbolically. Together these theories imply that life is expected as a phase transition in the evolving universe. The familiar distinction between software and hardware loses its meaning in living cells. We propose new ways to study the phylogeny of metabolisms, new astronomical ways to search for life on exoplanets, new experiments to seek the emergence of the most rudimentary life, and the hint of a coherent testable pathway to prokaryotes with template replication and coding.
All our current global challenges can basically be traced back to one underlying paradigm or myth: That we are separate from others and the world. When we try to address challenges su…
How can one conciliate the claim that humans are uncertainty minimizing systems that seek to navigate predictable and familiar environments with the claim that humans can be creative? We call this the Enlightened Room Problem (ERP). The solution, w
Sarah Darcie, Policy & Stakeholder Youth Fellow, explains how the Climate Champions are working to elevate the needs of Indigenous Peoples, highlighting their solutions and helping change the narrative of climate finance.
The healing of injustices and the restoration of aki, of the earth—including all of the creatures who depend on her and on whom she depends—requires restoring indigeneity—that is a deep connection to place, to its sacredness and interdependencies, to cultural sensibilities that are shaped by these.2 This is an individual, collective, and planetary necessity. The restoration of indigeneity requires reconnecting to indigenous practices, whether those practices are indigenous to the Americas, Africa, Asia, or Europe. For those who are not connected or actively reconnecting, this then is your task—and yes, it can be complicated, painful, and messy. It is an extension of inner work, of cultivating the ability to be present to what is and was and then draw on this ability to help create what will be.
The universe is replete with complex evolving systems, but the existing macroscopic physical laws do not seem to adequately describe these systems. Recognizing that the identification of conceptual equivalencies among disparate phenomena were foundational to developing previous laws of nature, we approach a potential “missing law” by looking for equivalencies among evolving systems. We suggest that all evolving systems—including but not limited to life—are composed of diverse components that can combine into configurational states that are then selected for or against based on function. We then identify the fundamental sources of selection—static persistence, dynamic persistence, and novelty generation—and propose a time-asymmetric law that states that the functional information of a system will increase over time when subjected to selection for function(s).
Another very interesting take on how configurations evolve. It seems a wide consensus that It lacks a fundamental principle. Perhaps such a principle is the Constructal Law. One inevitably asks why it was not even addressed in this work.
If you have an equity commitment, revisit it often, if not during every significant meeting that happens. Integration is key. If you have not developed a commitment, consider it. You might ask your team, “Why are we committed to advancing equitable wellbeing and belonging in and through our work? What does this mean to us? What is in it for us? What happens if we don’t live into this commitment?”
Frances presented her paper ‘Pathways to Scale’ where she identified various strategic interventions to shift systems. She invited the audience to join a table that would discuss each pathway. Each one represented strategies that related scaling up (influencing policy) and scaling out (spreading new models).I listened as she read out the list, and then asked myself which one fit how we were working?
Binghamton Center of Complex Systems (CoCo) Seminar September 27, 2023 Cliff Joslyn (Pacific Northwest National Laboratory / Systems Science and Industrial Engineering,…
We think periodically acknowledging and reflecting on what didn’t work so well is good practice — and helps us move forward. We launched the Fito Network in January 2024 with a series of “welcoming…
Learning has become synonymous with formal education, which is often entangled in flawed systems that perpetuate injustice. This has resulted in a distorted perception of the true power of learning…
SignificanceA deep understanding of social networks can be used to create an artificial tipping point, changing population behavior by fostering behavioral cascades. Here, we experimentally tes
Grab a large piece of paper and some markers/pens (different colors help, as you can start to use them to explore the different elements of the system). Start by identifying what you want to explore and writing it in the center of the page (this could be ‘education,’ ‘voter apathy,’ or ‘childhood obesity,’ for example). Make sure everyone working on the map has a pen (this is not a scribbling experience where one person writes what others say; it should be that all people are contributing to the map). Start to throw down everything that relates to the arena you are exploring (there is no wrong concept, word, or idea here — just free associate all the parts that make up the system). Once you have a page full of random works/concepts/nodes, then start to draw connections between them (here is where you can create a key and use different colors to define different flows, such as ‘power’ and ‘government’). Keep going until you have filled your page and it’s a complete mess or intermingled lines and words. Then, start to identity the key areas of interconnection and seek to define three new insights that have evolved from the exercise.
We like to meet initiatives with the same ambitions as ourselves - this one, Fito Networks , is a “network of networks” project from South Africa, who believes that “convening the systems” is one way to find optimism in a world seemingly dominated by traditional blocs and sovereignty. They draw
More than 20 years ago, Humberto Maturana and Ximena Dávila initiated a research program on the nature of human coexistence within the framework of molecular-autopoietic systems and the understanding of the organism-niche ecological dynamic unit (UDEON). In this article, we focus on the potential of conversation and reflection of living beings as transformative and liberating practices in the configuration of intimate feelings that define at every moment their emotional-relational operation as a totality in the understanding of the worlds they generate. We refer to the main contributions of cultural-biology which invite us to a journey through the nature of knowing, of human pain and suffering, of languaging, conversation, and reflection as cultural-biology beings.
A rigorous experimentation approach (experiment-to-learn) will most likely outperform planning-based approaches (analyse-to-predict) where the challenge is dynamic and ever changing (i.e. any complex social and environmental challenge). This post explores how to do experimentation for change.
Vijay Balasubramanian University of Pennsylvania, SFI The human brain consists of a 100 billion neurons connected by a 100 trillion synapses. In its computational function, each neuron is a simple electrical device. In this sense it is no different, in its conceptual essence, from a transistor or a diode in a silicon microchip, converting input signals into ephemeral voltage pulses that transmit to other neurons. And yet, the collective effect of these tiny electrical flutterings creates the intelligent mind, with its astonishing capacity for perception and action, memory and imagination, affection and indifference. In the words of Ramon y Cajal (1854-1932), a founding figure of neuroscience, neurons are "the mysterious butterflies of the soul, whose beating of wings may one day reveal to us the secrets of the mind." In this talk, Vijay Balasubramanian will explore current ideas about how this transmutation occurs.
Il cervello umano è costituito da 100 miliardi di neuroni collegati da una sinapsi di 100 trilioni. Nella sua funzione computazionale, ogni neurone è un semplice dispositivo elettrico. In questo senso non è diverso, nella sua essenza concettuale, da un transistor o un diodo in un microchip al silicio, convertendo i segnali di ingresso in impulsi di tensione effimeri che trasmettono ad altri neuroni. Eppure, l'effetto collettivo di questi piccoli svolazzi elettrici crea la mente intelligente, con la sua sorprendente capacità di percezione e azione, memoria e immaginazione, affetto e indifferenza. Nelle parole di Ramon y Cajal (1854-1932), una figura fondante della neuroscienza, i neuroni sono "le misteriose farfalle dell'anima, il cui battito delle ali potrebbe un giorno rivelarci i segreti della mente."In questo discorso, Vijay Balasubramanian esplorerà le idee attuali su come avviene questa trasmutazione.
Il cervello umano è costituito da 100 miliardi di neuroni collegati da 100 trilioni di sinapsi. Nella sua funzione computazionale, ogni neurone è un semplice dispositivo elettrico. In questo senso non è diverso, nella sua essenza concettuale, da un transistor o un diodo in un microchip di silicio, che converte i segnali di ingresso in impulsi di tensione effimeri che trasmettono ad altri neuroni. Eppure, l'effetto collettivo di questi minuscoli sbalzi elettrici crea la mente intelligente, con la sua sorprendente capacità di percezione e azione, memoria e immaginazione, affetto e indifferenza. Secondo Ramon y Cajal (1854-1932), figura fondatrice delle neuroscienze, i neuroni sono "le misteriose farfalle dell'anima, il cui battito d'ali potrebbe un giorno rivelarci i segreti della mente". In questo discorso, Vijay Balasubramanian esplorerà le idee attuali su come avviene questa trasmutazione.
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