Why does artificial intelligence take it for granted to be confined to mimicking human intelligence, instead of something else, like plant intelligence? And, how can we reflect plant intelligence and plant epistemology back into algorithmic questioning?
Intro
On 14 January 2025, I had a precious enlightening conversation. Ian took some valuable time to give me specific feedback on my KIPP Summative Assessment 1. My KIPP Summative Assessment 1 actually consists of two proposals: one is my dream project, and the other is a new research project that distils the core concepts catching my attention from all the courses I took in Semester 1into a new research topic, considering the limitations of a one-year master’s programme. (Please see the link to the blog post detailed my KIPP 1000 Word Preliminary Project Proposal: https://blogs.ed.ac.uk/s2766608_data-inequality-and-society-kipp–futures-project-2024-25/2025/07/21/đŠ-kipp-1000-word-preliminary-project-proposal-submitted-in-december-2024/)
During our conversation, I primarily expressed my concerns regarding the manageability of the dream projectâparticularly its scale and the constraints of timeâas well as the uncertainty surrounding the final direction I should take. I was relieved when Ian gave the green light to both research proposals. Since Ian confirmed that both were feasible, and following further discussions with Dr RashnĂ© Limki, the instructor of Coloniality of Data, about the viability of the first proposal within the scope of a master’s thesis, we were able to jointly identify solutions to address the challenges and render it workable for the programme (this will be detailed in a subsequent blog post).
As a result, I have decided to stay true to my passion and choose Proposal 1âthis long-brewing dream projectârather than opting for a slightly compromised alternative. Therefore, this blog post will primarily focus on reflecting upon Ianâs feedback regarding my dream project on endosymbiosis-inspired algorithms called Competitive Algorithms, Cooperative Alternatives: Rethinking Space Telescope Scheduling Through Symbiogenetic Principles.
Brief Overview of the Proposal
This master’s dissertation aims to intervene in the epistemological and ontological architectures of algorithmic intelligence. Drawing on current scientific debates in biology and botany (e.g. non-competitive evolutionary models in nature)( Margulis & Sagan, 2002ïŒSchlanger, 2024ïŒKimmerer, 2013), this research seeks to apply the essence of these debates to the field of AI design and to develop an initial theoretical framework for endosymbiosis-inspired algorithms. The goal at this stage is not to implement a fully functional algorithm, but to reconceptualise the philosophical premises underpinning dominant algorithmic modelsâparticularly assumptions of evolutionary competition, separability, and optimisation. Through a speculative and interdisciplinary methodology (for example, âutopia as methodâ as proposed by Ruth Levitas)(Levitas, 2013), this project lays the groundwork for future explorations into feminist algorithmic design rooted in cooperation, mutual transformation, and multispecies intelligence.
Ianâs Core Feedback
Ian emphasised that the core idea of my proposalâto replace competitive algorithmic logic with symbiosis and cooperationâintersects meaningfully with a major paradigm shift currently taking place within scientific debates in botany and ecology. The more we come to understand plant intelligence and capability, the more the traditional human framing of nature as inherently competitive is called into question.
Ian recommended The Light Eaters ïŒSchlanger, 2024ïŒ, a book which, despite its occasional cherry-picking of evidence, contains compelling examplesâsuch as how sunflowers move their leaves to ensure their companions also receive sunlight, and how plants grow and function collectively. These instances highlight the plural possibilities beyond competition in the plant (and natural) world: cooperation, mimicry, and more. They challenge the long-standing notion that ânature = competition.â
He affirmed that my proposal âtouches on something that is on the crest of kind of coming out of a lot of scientific debates,â and that its key contribution may lie in applying these scientific arguments to the broader domain of AI. In short, he recognised the promise of the project, suggesting that with careful development it could become a strong foundation for future doctoral research.
This offered me a sense of reaffirmation: that my proposal is not simply an abstract speculation of my own imagination, but that its challenge to Darwinian thinking resonates with domains where cutting-edge scientists are already engaging in serious debate.
Staying true to my feminist STS (Science and Technology Studies) standpoint, particularly that of situated knowledgesas inspired by Donna Haraway (1998), I do not believe in a ‘great divide’ between science and society. On the contrary, I see the production of scientific knowledge as always embedded in specific socio-cultural contexts. The two are mutually permeable and co-constitutive. My task, then, is to bring the conversations within plant studies, and more broadly, the scientific community, into dialogue with a new intersectional terrain: one where philosophy, technology, and the life sciences meet.
Ian made me feel a rare sense of intellectual affinity. Throughout this year of study, Iâve been immersed in powerful critical literature on algorithmic systems. Yet I often found that something was missing: a sense of future possibility.
Before entering this programme, I was undeniably influenced by technofeminism and cyborg feminism, and inclined towards a form of techno-optimism. Now, after a year of critical engagement, my position on the spectrum has shifted closer to the centre. Scholars have pointed out how technofeminism and cyborg feminism encouraged women and marginalised groups to invest hope and emotion into technologiesâas if they might deliver us to a more liberated, utopian future. But decades have passed, and these hopes remain largely unanswered. Technologies have neither empowered the vulnerable nor responded to the emotional investments placed in them. Caroline Bassettâs ïŒBassett, 2023ïŒ essay The Cruel Optimism of Technological Dreams, published in Feminist AI, delivers a poignant critique of this dynamic.
That said, I remain far from technophobic. Iâm inspired by philosopher of technology Gilbert Simondonâs ïŒSimondon, 1958/2017ïŒ eloquent critique of cultural alienation from machines:
âThe machine is something which fights against the death of the universe; it slows down, as life does, the degradation of energy, and becomes a stabiliser of the world.â
In the past, the power to wield this entropy-resisting potential of machines was concentrated in the hands of a privileged fewâoften white male developers. I still believe that part of our responsibility is to reclaim this potential, so that other groups, too, may harness the machineâs power to resist decay, sustain vitality, and offer stability to their worlds.
In other words, my position on algorithmic justice is not purely criticalâI also wish to contribute creatively, to open up spaces of hope. This is what I hope to offer the field of critical algorithm and data studies: a breath of fresh air. My aspiration is to see whether ongoing scientific and ecological conversationsâon plant intelligence and cooperative evolutionary ecologyâcan revitalise and reimagine the ethics and design of AI algorithms, forging new pathways for the future.
Reflections After the Conversation with Ian
1. Given the utopian orientation of this researchâits constructive desire to open toward future possibilitiesâthe project will adopt utopia as method, a framework introduced in the Utopia and the Future course. Proposed by Ruth Levitas, this methodology consists of three elements or âmodesâ: excavation (archaeology), critique (ontology), and construction(architecture). It will serve as the central methodological scaffold for the dissertation, functioning as an umbrella under which other research methods can be situated.
2. While my original proposal focused on microbes as a model for symbiotic evolution, Ian extended the horizon to include the plant world, which enriched my examples significantly. I plan to readThe Light Eaters, the book Ian recommended, during the dissertation writing stage. His emphasis on plant intelligence helped sharpen the rationale for my final project, which now centres around the following questions:
Why does artificial intelligence take it for granted to be confined to mimicking human intelligence, instead of something elseâlike plant intelligence? And how can we reflect plant intelligence and plant epistemology back into algorithmic questioning?
The Coloniality of Data course encouraged us not merely to speculate, but to treat these speculative alternatives as forms of serious science. This resonates with Donna Harawayâs concept of speculative science, which she understands not as futuristic fantasy, but as a practice of worlding (Haraway, 2016). Drawing on this ethos, I believe my final project must ask:
What might artificial intelligence inspired by plant or microbial intelligenceâor other nonhuman forms of knowingâlook like?
(Of course, at that point the prefix artificial itself becomes questionable. âMachine intelligenceâ might be a relatively proper and neutral diction. But what I refer to here is a distributed machinic actantâcurrently framed as external to the humanâthat feeds information, knowledge, and intelligence back to us.)
AI Insights from Plant Intelligence: In Dialogue with Robin Kimmerer
If we are to take plant intelligence seriously, then alongside Ianâs suggested reading, I would also like to bring into this conversation a resource from the Coloniality of Data courseâa podcast episode featuring Robin Kimmerer titled The Intelligence of Plants.
Kimmerer (2015; 2016), a botanist and professor from the Citizen Potawatomi Nation, embodies what she refers to as two-eyed seeing. She has long workedâboth inside and outside the academyâto integrate these two epistemic perspectives: one rooted in the traditional knowledge passed down to her by the human elders of her Indigenous community and the plant elders of the forest; the other shaped by her rigorous scientific training within Western research institutions. As she puts it,
âScience polishes the gift of seeing; Indigenous traditions work with gifts of listening and language.â
When studying botany at university, she discovered that these two ways of knowing âplantsâ were radically different. Science positioned the human researcher as the epistemic subject and reduced the plant to a lifeless object, devoid of agency, awareness, or intelligenceâdenying its gifts and capacities. Kimmerer was trained to classify plants mechanically and rigidly by their morphology and external characteristics, to assign them Latin names and slot them into the hierarchical categories of Linnaean taxonomy.
In fact, the act of naming in science has always been closely tied to coloniality. It draws from the Christian tradition of naming as a means of creationââthe Word made fleshââand also from the colonial history of the Age of Discovery, when explorers collected, categorised, and named people, places, and things in the lands they colonised. Natural history as a scientific project flourished under these conditions and naming practices, deeply entangled with colonial violence.
Yet, Kimmererâs Indigenous perspective led her to question whether the scientific gaze truly captured the value of plants? Or whether it actually devalued them. Yes, scienceâs magnifying lenses and microscopes allow us to examine plants with precision and assign them into neat categories. But from the standpoint of Kimmerer and the epistemologies she inhabits, these are merely the most superficial, material aspects of plant life.
She recalls how, in her first year studying botany, she told her professor that she wanted to understand why purple and yellow flowers so often appeared in pairs. âWhy is their combination so beautiful?â she asked. Her question was dismissed for the reason not as being scientific, but as an aesthetic inquiry suited to art school. Science, after all, does not deal with beauty. It does not concern itself with colour combinations, nor with the relational aesthetics of flower pairings. Its attention remains fixeated on pure materiality, overlooking spirit, beauty, and connection as legitimate ways of knowing.
But plants are not merely passive materialities to be observed. They can also be known through emotional and spiritual relations. If we find ourselves uncomfortable or sceptical of the idea that emotion and spirituality can constitute knowledge, then that discomfort is itself precious. It marks the edge of our own epistemic horizonâthe point at which a shift in perspective becomes possible.
This is why Kimmerer insists that Indigenous knowledge is not just about seeing, but about listeningârefining the capacity to hear the stories that the world is constantly telling. It is a way of knowing that activates all the senses, including the heart and spirit.
More importantly, Indigenous traditions acknowledge the spirit of all beingsâor to use less mystical language, their agency, capacities, and gifts. This orientation makes it possible to perceive the world through relations. Only when we acknowledge that all beings possess some form of intelligence and agency can we begin to understand the rich, reciprocal complexity of their interconnections.
Interestingly, Kimmererâs intuitive question about purple and yellow flowers has since been partially supported by biological explanations: the two colours sit opposite one another on the colour wheel, creating a striking complementary contrast that attracts pollinators. Their vivid pairing enhances mutual visibility and facilitates shared survival. In short, their aesthetic beauty also contributes to ecological advantage. Their co-existence is symbiotic and mutually beneficial.
Clearly, when science is willing to open its self-imposed boundaries, it can access fuller, richer understandings of the world. Questions of beauty, of sensory perception, and of emotion should not belong to artists alone. They ought to be shared by scientists too.
As Donna Haraway and Bruno Latour have both argued, the so-called great divide between nature and culture is deeply suspect (Latour, 1993; Haraway, 1988). It does not naturally exist in the world, but is rather enacted through specific scientific and epistemic practices. Karen Barad (2007) terms this an agential cutâlike a surgical incision, it violently separates sense from reason, aesthetics from knowledge, and nature from culture, as if they were fundamentally distinct domains. Yet this cut obscures the lively, generative entanglements that have always already existed between them.
Scientific Evidence of Plant Intelligence and Cooperative Evolution
Kimmerer points out that, in fact, plantsâand animals tooâare repeatedly being revealed in contemporary scientific research as far more intelligent than we have long assumed. They not only possess astonishing abilities, but crucially, these are abilities that humans lack. Yet through the flattening lens of scientific reductionism, humans have consistently denied the existence of such capacitiesâa profound loss. For we could have learned from plants, animals, and other-than-human beings entirely different forms of intelligence and capacity, ones that might have helped us thrive in the precarious conditions of the Anthropocene.
For instance: plants are capable of photosynthesisâa generative power unavailable to humans. They can transform inorganic elements into nourishment, giving back to the world by sustaining animals, humans, trees, and soil alike. Rocks accept the presence of mosses in their crevices, while mosses slowly weather the rocks back into soil. In this dialogue of relation, moss and stone offer themselves to one another, collaboratively enriching the ecosystem through limited resources.
Kimmererâs position aligns closely with that of The Light Eaters, previously mentioned, as well as with Lynn Margulis, the scientist who inspired my proposal through her theory of endosymbiotic evolution:
- All three challenge the idea that competition is the sole engine of biological evolution and species success. And, they do so through grounded scientific evidence. Margulisâs reasoning is already detailed in my proposal, but for Kimmerer, the example of moss is equally telling: small in size, growing from cracks and fissures, acquiring resources through inefficient survival strategiesâmosses would seem to rank low on any measure of evolutionary âfitness.â And yet, they have persisted on Earth for over 350 million yearsâfar longer than the mighty dinosaurs (160 million years), or the so-called intelligent Homo sapiens (just 200,000 years). What, exactly, have mossescompeted forâand won? Clearly, it is not about competition. But it is equally clear that they have done something right. Their relational coexistence with stone, logs, and other beings must be recognised as an evolutionarily significant fact.
- Kimmerer and Margulis both argue, based on empirical evidence, that nonhuman intelligence is on the edge of a scientific paradigm shift.Fewer and fewer scientists cling to the belief that humans are the sole gatekeepers and holders of intelligence. Increasingly, scientific observation and empirical studies are acknowledging that plants possess capacities for learning, memory, and adaptation, even if these abilities operate in forms that differ from human cognition.
This also resonates with what Ian noted in his feedback: that debates around who or what can be considered an âintelligent beingâ are now actively unfolding in the scientific world. It is, as he put it, a moment of crestâa peakâwithin the larger wave of transformation in science.
Reflections and Challenges to AI That Mimics Human Intelligence
My research, too, is a vivid response to these ongoing debates. If artificial intelligence is already prompting the wider public to reconsider who or what can be deemed intelligent, then might we also begin to recogniseâmore broadly and generouslyâthe intelligence of the plants, animals, and microbes who have, for unfathomably long periods of time, nourished and sustained human life through their own unique wisdom and capacities?
While humans continue to ask whether machines can pass the Turing Testâwhich implies alignment with the traits of human intelligenceâshould we not also question the underlying premise: that human intelligence serves as the template, or, to borrow from Greek philosophy, the ideal form of intelligence itself? But is that necessarily true?
Can we not instead imagine another kind of machine intelligenceâone whose models of learning are not only human, but more than human? What might such intelligence look like? Could algorithms move beyond dominance and decision-making, and instead learn through interspecies dialogue? Might such a machine intelligence be more reciprocal, leading us toward an alternative future of AI?
This is especially urgent at a time when cyborg feminism and technofeminismâin some senseâhave been betrayed by the trajectory of contemporary artificial intelligence. A Cyborg Manifesto, published in 1985, inspired generations of marginalised communities to invest their time, energy, and most importantly, their hope in the promise of digital technologies. But forty years on, has that promise been fulfilled? Or have they, instead, been wounded by cruel optimism?
Decolonising Knowledge and Restoring Indigenous Traditional Ways of Knowing
As contemporary science gradually catches up with the worldview embedded in Indigenous knowledge traditions, this process is expanding our understanding of the life-knowledges of nonhuman species such as plants, animals, and microbes, and human imagination and epistemology must evolve accordingly. If, as Haraway has argued through the concept of situated knowledges, knowledge is always shaped by its context, then can our imagination of machine intelligence also move beyond that of the white, male-dominated visions from the 1956 Dartmouth Summer Research Project on Artificial Intelligence? Might the criteria for machine intelligence shift away from the imitation game proposed by Alan Turing in 1950, which defined intelligence in terms of mimicking the traits of human intelligence?
It is important to recognise that while my final project may appear to present a novel, anti-competitive narrative in evolutionary scienceâapplying it as inspiration for AI designâthis perceived novelty is actually a consequence of historical erasure and epistemic delay. It only feels new because contemporary science is belatedly catching up with the long-held worldviews sustained within Indigenous cosmologies, such as those voiced by Kimmerer. Her insights remind us that cooperation has never been a new idea. It has simply been unrecognised for a long time. This is not a modern phenomenonâit is an ancient form of wisdom, temporarily eclipsed by the coloniality of modernityâs knowledge systems. Indigenous knowledge traditions never required this so-called ârevolution,â because they never forgot that plants, rocks, and water are sentient, emotional, and remembering beings.
Kimmererâs two-eyed seeingâher dual gaze that draws from both scientific knowledge and Indigenous ecological knowledge, from nature and cultureâreminds me that my research proposal should not be seen merely as a speculative design exercise or a form of biomimicry. It is, more deeply, an epistemological act of repair. It aims to recalibrate perception and cognition, to reclaim plural ways of seeing. Whether by becoming a âcompound-eyed humanâ (as in Wu Ming-Yiâs formulation), or through Harawayâs âtentacular sensingââa more-than-visual mode of knowing that gropes, tangles, and makes kin with the world, the goal is to remember what technoscience has forgotten.
My task is to imagine and prototype an alternative world. And intelligence is the battlefield.
Unanswered Questions for Myself
What kind of machine ethics might emerge from an AI inspired by nonhuman intelligence and symbiotic modes of existence exhibited by more-than-human beings?
Given that such a speculative alternativeâor what utopia as method would call its architectural dimensionâhas no realised counterpart in the current world that could be ethically assessed, I am inclined to speculate on its possible ethical contours by turning to Through Vegetal Being (Irigaray & Marder, 2016), a co-authored work by Luce Irigaray and Michael Marder. They argue that vegetality is not a lack of animality, rationality, or subjectivity but rather an alternative mode of existence. It represents a way of co-existing that is non-intrusive, non-controlling. Both thinkers propose that we should exist through vegetal beingâto think in the manner of plants, or to let plant-being transform our understandings of existence and ethics.
Irigaray, drawing on her longstanding psychoanalytic feminist position, further suggests that the feminine qualities of vegetalityâits nourishing, yielding, and open natureâoffer a latent ethical and metaphysical resistance to the masculine rational subject. As Kimmerer beautifully puts it in Braiding Sweetgrass: âWe are all bound by a covenant of reciprocity. Plant breath for animal breath, winter and summer, predator and prey, grass and fire, night and day, living and dying.â These vegetal qualities, rooted in reciprocity and relationality, stand in sharp contrast to the rational subject emblematic of Western philosophical traditionâa subject that, not coincidentally, mirrors the predominant figure of those currently developing AI systems inspired by competitive evolutionary logics: the very systems my research seeks to challenge.
If Ian brings plants like sunflowers into scientific discourse, and if Kimmerer invites us to see them as kiâliving, conscious, intelligent, agential kinâthen Irigaray calls us to become them (not literally, but ethically and ontologically).
Before we consider engineering plant intelligence into algorithmsâan undertaking that would likely be of incomprehensible scaleâwe might first begin by asking how vegetal thinking, its modes of co-existence and ethics, might be translated into technical design. To design endosymbiotic algorithms, perhaps we must first learn to breathe like a leaf, to pair with heterogeneous petals, to rotate like a sunflower, and to dwell in dependence on others as mosses do.
 Reference
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