What is AI ?

AI has been explored arguably before any of us were born. Back in my student days, we used to picture how AI might eventually take shape. Possibly as expert systems etc. If we dig through the old posts on my blogs, we’ll find that what I once imagined AI to be is rather different from what it has actually become. In those days, I pictured AI emerging from one of three things:

  • Strange loop. This was taken after Hofstadter’s idea that the “self” is a self-reference that forms once a system becomes complex enough to hold a model of itself within itself. Consciousness, on this account, emerges from that.
  • Complexity and its emergence. I imagined consciousness as a property of systems organised far from equilibrium. Per Bak showed that such systems tune themselves to a critical point without anyone doing the tuning. The Edge of Chaos idea within this theory holds that the richest computation occurs precisely at the narrow boundary between frozen order and outright chaos. That, I thought, was where intelligence ought to be sought.
  • Cellular automata. Wolfram’s innovation, among others, once produced some genuinely striking results. Extremely simple local rules, repeated over and over, give rise to universal computation and unpredictable complexity — with no designer, no purpose, and no central control.

But then apparently AI manifested in the shape of ML, DL, ANNs, Transformers, foundation models, etc. AI ballooned, hit economies of scale, became cheaper, and turned up everywhere, mostly in the form of LLMs. When an average layman says “AI” today, they almost certainly mean an LLM. So AI descended not from the scientific path, but from pragmatic engineering.

This engineering approach began with Alan Turing. In 1950 he wrote the question “Can machines think?” … but then declared that we had no agreed definition, either for “machine” or for “think”. Instead, he proposed the Imitation Game: a shift from an ontological question to an operational one. Not whether the machine thinks, but whether it can produce the same output as something that thinks. Clever, because it allowed progress without waiting for philosophy to be settled. But also annoying, because it quietly moved the meaning of AI away from intelligence itself, and onto a collection of abilities computers have been successfully imitated.

Even now, when some abilities are successfully computerised, they are not counted as intelligence and gets demoted to mere computation results. Chess, translating, and more and more of what humans do falls into this trap. There are moments when intelligence gets defined, essentially, as whatever we haven’t yet managed to imitate by computation.

Now about engineering-based AI. Pedro Domingos, in The Master Algorithm (2015), set out an anatomy for the whole family of these technologies. Every learning algorithm, he says, is built from three layers:

  • Representation: the form in which knowledge is stored. Its methods: logical rules, probabilistic networks, weights between neurons, programs, or a set of examples.
  • Evaluation: how one hypothesis is judged better than another; in the form of: accuracy, posterior probability, squared error, fitness, or margin width.
  • Optimisation: how the best hypothesis is searched for, in a space usually far too large to comb through one by one.

From these three layers, he derives five schools of AI technology:

SchoolRepresentationEvaluationOptimisationExample algorithms
SymbolistLogic and rulesAccuracyInverse deductionDecision tree, rule-based system, ILP
BayesianGraphical modelPosterior probabilityProbabilistic inferenceNaive Bayes, Hidden Markov Model, Bayesian network
ConnectionistNeural networkSquared error, cross-entropyGradient descentPerceptron, ANN/MLP, CNN, RNN, Transformer
EvolutionaryGenetic programFitnessGenetic searchGenetic algorithm, genetic programming
AnalogiserSupport vector, instanceMarginConstrained optimisationkNN, SVM, kernel method

Each school has a different philosophical root. The Symbolists come from logic and linguistics: knowledge, on their view, can be reduced to symbol manipulation. The Bayesians come from statistics: all knowledge is assumed uncertain, and so must be reckoned probabilistically. The Connectionists come from neuroscience: intelligence is held to arise from the strength of connections between simple units. The Evolutionaries come from biology: the natural selection mechanisms are harnessed to produce the programs. The Analogisers come from the psychology of reasoning: the key to learning is recognising resemblance.

And the LLM? Its frame is Connectionist, since it’s trained by gradient descent. But the “Attention” mechanism that defines it is really an Analogiser operation made differentiable: each token computes a similarity score against every other token, then aggregates according to that score. C’est à dire, it’s rather like kNN, only trained through backpropagation. Its RLHF lends it a Bayesian flavour. Chain-of-thought is an attempt to bolt Symbolism on top. What we have, in short, is a pragmatic engineering aggregate.

I still see all five schools as a pragmatic approach to an empirical model of thought: observe from the outside how the mind seems to recognise patterns and make decisions, then build a function that produces similar output, by whatever means happens to work. That, quite deliberately, is the strategy, with no need whatsoever to know what the process of thinking actually is.

This also explains why my earlier explorations (see the top) never quite worked out: none of the three has a gradient. Take a cellular automaton with a random rule set. How would you go about improving it step by step, the way all these engineering methods do? CA is discrete by nature, and a small change in the rule produces wholly different behaviour. So there’s no gradient to measure. The same goes for the strange loop: there’s no error surface to trace a path along, from a system with no model of itself to one that has one. Computing AI along these lines turns out to be extraordinarily hard. You might say the scheme does work, for the human brain. But the brain was developed through billions of years of biological evolution and planet-sized parallelism.

Richard Sutton summed this up as the bitter lesson: the method that wins out in the long run is the one that absorbs the most computation, not the one that absorbs the most human insight into how the mind works.

What I find interesting is that these scientific ideas are not, in fact, dead. They are, it seems, still quietly digging their way back in.

Take the Hopfield network, for instance: a piece of pure dynamical-systems thinking. Here, memory is stored as a minimum of energy, and the act of recalling is simply letting the system slide towards the nearest attractor. Ramsauer and colleagues (2020) published Hopfield Networks is All You Need, showing that the update rule of the modern, continuous-state Hopfield network is in fact equivalent to the attention mechanism in the transformer algorithm. So the celebrated transformer, viewed from another angle, turns out to be a dynamical attractor network all along.

That same year, Mordvintsev and Levin published Growing Neural Cellular Automata, replacing the hand-written local rules of CA with a small neural network trained by backpropagation. The result was a differentiable CA that grows from a single cell and regenerates itself when damaged. So the objection that “CA has no gradient” has, it turns out, begun to be overcome. The pattern, then: engineering keeps rediscovering the objects of the scientific path, but naturally, only in whatever form happens to be differentiable at the time, gradient serving as the toll gate.

Still, something disturbs me. We can go on treating thought as a natural process: one to be understood via science, or imitated via engineering. But what, really, is the difference between a mind and a machine? Mind, whether cast as emergence or as strange loop or what have you, must after all be built from matter. Mind, too, is material and mechanistic. And we’re not even sure we know what mind is. And, damn it, at the level of matter itself, we don’t know what matter is emergent from either. Does complexity really come to a stop at some single quantum point?

Just imagine. Gravity itself, apparently, is not a fundamental force, but emergent from the construction of space and time. Space, time, and matter themselves may not even be the foundation of any of this. So even if you dig in stubbornly on the side of science, bedrock still eludes you. This isn’t mere daydreaming, either. The reading list is a long one:

  • Anderson (1972), in his paper More Is Different, laid out the foundations of complexity and emergence. His argument holds up still: reductionism is true but useless, because at every level of complexity a new order emerges, with its own laws that cannot, in practice, be derived from the level below. (Anyone who’s sat through my IEEE talks will be thoroughly sick of me force-feeding them examples of this argument.)
  • Jacobson (1995), in Thermodynamics of Spacetime, applied the ordinary thermodynamic relation — heat equals temperature times the change in entropy — to the local Rindler horizon: the causal horizon seen by an accelerating observer at every point in space-time. What emerged from that was, precisely, the Einstein field equations. Meaning: the Einstein field equations are emergent from thermodynamics alone, not fundamental.
  • Verlinde (2011) carried this further with entropic gravity, proposing gravity as an entropic force arising from changes in information.
  • ‘t Hooft (1993) and Susskind (1995) formulated the holographic principle: everything that happens within a volume can be represented by the degrees of freedom on the surface bounding it. Maldacena (1997) gave it a concrete realisation through the AdS/CFT correspondence. Three-dimensional space, gravity included, turns out to be emergent from a two-dimensional condition.
  • Van Raamsdonk (2010), in Building up Spacetime with Quantum Entanglement, showed that the geometry of space-time arises from informational correlation. Reduce the entanglement — ha, that word again — and distance stretches out. Ryu and Takayanagi (2006) supplied the formula linking entanglement entropy to a geometric surface area.
  • Wheeler (1990) summed it up in the slogan it from bit. Every “it” — every particle, every field, space-time itself — ultimately derives from a “yes or no” answer to a question posed through measurement.
  • Zurek rounded it off with quantum Darwinism. The stable, objective world is not primary reality, but the outcome of selection. Only the states that survive interaction with their many environments persist, and having survived, they scatter redundant copies of information about themselves, so that many observers can access it independently. That is what we call objectivity. Ha.
  • Landauer (1961) wrote from the opposite direction: erasing a single bit of information releases a minimum of kT ln 2 in heat. Information is physical.

So Landauer says information is physical; the others say physics (matter, energy, dimension) is informational. What you’re left with is a circle, a loop, at the level of ontology. Ladyman and French call this ontic structural realism: what’s fundamental isn’t objects, but structure and relation. It’s still physics, but in a different form.

Right back to the original question. The question of intelligence. Let’s think about thinking.

Thinking. The strongest formulation comes from the algorithmic information theory of Solomonoff and Kolmogorov. Here, the complexity of an object is measured by the length of the shortest programme capable of producing it. Which is to say: thinking is, at bottom, a process of compressing experience. To understand something is to find a rule shorter than the events it accounts for. Every formula in physics ought to be shorter than the whole of the natural phenomena it measures, which is precisely why it counts as an understanding of nature, rather than a mere record. This holds equally for carbon brains and silicon ones, and explains why (in AI) something as seemingly trivial as next-token prediction produces such broad capability. Good prediction demands good compression, and good compression forces the discovery of structure.

But this formulation runs up against three constraints:

  • Thinking cannot be optimal. Solomonoff induction is uncomputable. We have a precise mathematical definition of ideal reasoning, and that very definition tells us ideal reasoning cannot be run by anything in the physical world. Every actual thinker (brain or model alike) is a rough approximation, and what fills it is a process of guesswork.
  • Thinking cannot be universal. Wolpert and Macready’s No Free Lunch theorem shows that, averaged across every possible problem, all learning algorithms perform identically. A learner’s superiority never comes from itself, but from how well its built-in assumptions match the structure of the world it’s set loose in. Which means intelligence isn’t an intrinsic property of a system, but a relation between a system and its environment. Ashby had already worked out the quantitative form of this back in 1956, in the law of requisite variety: only variety can absorb variety. This also explains why the five schools above need to exist at all. If no learner can be universally superior, then those five schools have to exist as five separate wagers on the structure of the world, and not as five rungs on a ladder of sophistication.
  • Thinking has a cost. Landauer again. Thinking is paid for in thermodynamic coin. The human brain pays roughly twenty watts for it. Modern AI systems pay several orders of magnitude more.

Intelligence. This is where Chollet’s definition, from On the Measure of Intelligence (2019), starts to make sense. Intelligence isn’t the collection of capabilities a system holds, but the efficiency with which it acquires new ones, measured relative to its starting capabilities plus whatever new experience it’s exposed to. So an AI system capable of a million tasks after devouring the entire internet may indeed be intelligent, just not particularly so. Which brings us to: what, then, is AI? AI is the attempt to realise that process on a non-biological substrate.

TermFormulation
ThinkingA process of compressing experience which, in principle, can never be optimal
IntelligenceThe efficiency of that compression process, relative to experience and prior knowledge
AIThe attempt to realise that process on a non-biological substrate

And so ends this long journey: setting out to define AI, and ending up having to define mind and intelligence instead. Information is physical, and physics is informational. Mind compresses the world, and the world may already be a compression. This isn’t a resolution. It’s a circle. A loop. Which brings us straight back to Hofstadter. A loop is precisely the shape you’d expect to emerge when a system tries to model the very thing it’s made of.

Let’s keep thinking, then. Thinking is always a pleasure, including thinking about thinking. Hahaha. Hah hah hah. Hush.

Padi UMKM

When I first designed what later became Padi UMKM, I did not do it in a boardroom. I did it at home, during long months of WFH in the middle of the Covid-19 pandemic. I drew the system on papers spread on the floor. At that time, my head was full of ideas about ecosystems, complexity theory, and complexity economics. I was not thinking about building another digital platform. I was thinking about how economic coordination itself breaks down under systemic shock, and how new coordination patterns might emerge when old ones collapse. In that sense, Padi UMKM was born less from a product mindset than from an ecosystem mindset, with complexity theory consciously in the background.

When the pandemic hit, what collapsed was not only the economy. What collapsed was the coordination logic of the economy. Supply chains broke, demand evaporated, SMEs lost access to markets, and institutions discovered that their standard operating procedures were designed for stability, not for systemic disruption. Many organisations reacted by accelerating digital projects, launching platforms, and optimising internal processes. That helped, but it did not address the deeper problem. The economic ecosystem itself had lost its organising structure. Actors that were rational in isolation could no longer produce coherent outcomes collectively. This is how complex systems behave under stress: when established coordination patterns fail, local rationality no longer aggregates into systemic order.

Padi UMKM did not start as a brilliant digital product idea. It started as a response to a coordination failure across a fragmented system of SOEs, SMEs, banks, regulators, ministries, and development agencies. All were acting with good intentions, yet through incompatible logics, timelines, and mandates. The system was not short of initiatives; it was short of coherence. In complexity terms, the economy had been pushed far from equilibrium, and the challenge was not optimisation but reorganisation. What was needed was not another tool, but a new pattern of interaction among heterogeneous agents.

The real innovation of Padi UMKM was therefore not the platform. The platform was the easy part. The digital workforce of Telkom Group can design platforms; that is an operational capability. The platform was necessary, and it became the core infrastructure of the ecosystem, but it was not the breakthrough. The breakthrough was the deliberate redefinition of roles within the economic system. SOEs must reposition their procurement operation into a capability of creating new market, i.e. an SME-based market structure. SMEs were not framed as beneficiaries of aid, but as economic agents that could be structurally integrated into formal procurement and value creation. Banks and financial institutions were not treated merely as lenders, but as part of an enabling architecture that combined financing with capability development and pathways to export. What changed was not a feature set. What changed was the pattern of interaction between economic actors.

The formal launching of Padi UMKM itself was not initiated by Telkom or by the Ministry of SOEs. It was planned within the nationwide BBI (Bangga Buatan Indonesia) program, because the central government needed a real, executable instrument to accelerate domestic economic circulation under crisis. Telkom showed a commitment to develop the platform, even though it was still imperfect at that time. The urgency was national, not corporate. This matters, because it positioned Padi UMKM from the beginning not as a corporate product launch, but as a systemic intervention embedded in a national recovery narrative. The early external promotion of Padi UMKM, beyond the internal SOE environment, was also driven by the BBI program. Over time, almost by systemic selection rather than by design, Padi UMKM became the de facto e-commerce infrastructure for BBI, as other platforms could not fit the specific institutional and ecosystemic roles required by the program.

From the beginning, we made a counterintuitive choice in the way the system was governed. Telkom deliberately limited its role to being the product and platform owner. The ecosystem itself was not branded as Telkom’s program. The community was symbolically owned by the Ministry of SOEs and by SOEs collectively. Even the name Padi UMKM did not originate from Telkom. This was not a political compromise; it was a strategic design choice grounded in complexity thinking. In complex systems, ecosystems tend to collapse when one actor over-claims ownership. When the platform owner also claims to own the ecosystem, other actors reduce their commitment, hedge their participation, or quietly resist. By stepping back from symbolic ownership, Telkom created space for other institutions to step forward. The platform provided the infrastructure, but the legitimacy of the ecosystem was deliberately distributed across actors.

At some point, something structurally interesting happened. The initiative crossed a threshold where no single actor could kill it anymore. The CEO of Telkom could not simply shut it down because the ecosystem had become institutionally embedded beyond Telkom. The Minister of SOEs could not dismantle it easily because it had become part of the official narrative of national economic recovery. The President could not disown it because it had been publicly positioned as a success story through BBI, PEN, and related programs. This was not political theatre. This was the moment when the system acquired path dependence. Once an initiative becomes embedded across multiple layers of institutional narrative and governance, it ceases to be a project and becomes part of the system itself. At that point, you are no longer managing a prograe. You are dealing with a living economic structure.

Value in Padi UMKM did not come from transactions alone. It emerged from the coupling of multiple layers of interaction. Transactions between SOEs and SMEs were reinforced by access to credit, by certification mechanisms that enabled formal participation, by development programmes that upgraded SME capabilities, and by pathways to export markets. None of these elements, on their own, would have been transformative. The transformation emerged from their interaction. This is how complex economies create value: not through linear pipelines, but through ecosystems in which different forms of capital, i.e. financial, institutional, social, and operational, reinforce one another over time.

Internally in Telkom, there was a structural separation of roles that proved critical. The Digital Business Directorate (DDB) operated at the product and business level. Its logic was operational: build, run, scale, monetise, and maintain the platform. Even as the platform owner and economic keystone, it remained only one agent within the broader ecosystem. In parallel, the Synergy Subdirectorate under the Strategic Portfolio Directorate worked at the ecosystem level. This role was not about features, roadmaps, or KPIs. It was about sensing emergent patterns of collaboration, mediating conflicts between institutions, and navigating collisions between policy signals and organisational incentives. In the early phase, the Synergy team also played a foundational role in organising cross-SOE agreements, preparing the multi-actor launch, embedding Padi UMKM within the BBI program, and connecting it with multiple SME build-up initiatives involving the Ministry of SMEs, the Ministry of Trade, and other institutions. This work was not linear project management; it was ecosystem orchestration under uncertainty.

In Indonesia’s context, the interaction between SOEs, SMEs, banks, and regulators is not merely complex; it is quasi-chaotic. Mandates overlap, incentives conflict, and policies evolve at different speeds and under different political pressures. In such an environment, precise prediction is an illusion. What becomes possible instead is navigation: sensing where constructive patterns of emergence are forming, dampening destructive feedback loops before they escalate, and shaping the boundaries within which the ecosystem evolves. This is not classical management. This is leadership under complexity.

As a result of its early success, there was a moment when the government, again through the BBI programme, asked to expand Padi UMKM to cover all government agencies (K/L/PD). On paper, this looked like success, with an enormous projected GMV. In reality, it carried a systemic risk. Full integration into the broader government procurement apparatus would have imposed rigid compliance structures and administrative constraints that could have frozen the adaptive dynamics that made the ecosystem work. The decision to return that expansion to LKPP, while positioning Telkom only as a platform provider for LKPP, was a deliberate choice to preserve modularity and flexibility over symbolic scale. In complex systems, scale without adaptability is not growth; it is fragility disguised as success.

What this experience ultimately taught us is uncomfortable for traditional management thinking. In complex economic ecosystems, you cannot engineer outcomes. You can only design conditions: boundaries, incentives, roles, and narratives that make constructive emergence more likely than destructive collapse. The platform mattered. The technology mattered. But what mattered more was the humility to accept that once an ecosystem becomes alive, you are no longer the architect standing outside the system. You are one of the agents operating within it.

The strategic lesson for C-level leadership is this. In times of systemic disruption, competitive advantage no longer lies primarily in having the most sophisticated product or the fastest execution. It lies in the capability to shape interaction spaces across institutions, sectors, and policy domains. Leadership shifts from control to stewardship. Strategy shifts from optimisation to navigation. And success is no longer measured only by ownership, but by whether the system you helped catalyse can survive, adapt, and continue to create value even when you step back.

That, ultimately, is what Padi UMKM represents. Not a digital product success story, but a case of how leadership, strategy, and technology can be recomposed to operate effectively in a complex, adaptive economy under crisis. It is an ecosystem in motion. It is Synergy in action.

Note: This is a copy of my post at Complexity Center [LINK] and an update of my initial story about Padi UMKM written 5 years ago [LINK].

CIMA Strategic Leaders Talk

Within the global finance profession, CIMA (Chartered Institute of Management Accountants) has the responsibility for setting management accounting competency standards oriented towards business strategy. In alliance with the AICPA, CIMA facilitates the CGMA (Chartered Global Management Accountant) professional designation, ensuring that practitioners possess a universal business language for managing organisational performance. The Country Manager for CIMA in Indonesia is Mr Dwi Putra, a Coventry University alumnus who first identified me as a member of the ‘Order of the Phoenix’ because my iPhone lock screen displayed the classic Coventry University logo.

At CIMA’s invitation, on 12 February 2026, I delivered my presentation a CIMA Strategic Leaders Breakfast Talk at the Cyber 2 Building entitled “Leadership in the Age of Disruption — Strategic Leadership for Modern Finance Professionals”. The initial plan was for me to be the sole speaker; however, Mr M Fahmi El Mubarak, CEO of the BUMN School of Excellence, was later added to the programme. It was a real honour for me to share the stage with him.

As discussed at the briefing with CIMA, I explored disruption from the perspective of complexity. The discussion began with a deconstruction of neoclassical economic models, opening up insights into complexity economics. Business as a whole was reviewed as a Complex Adaptive System (CAS), i.e. a system comprising autonomous agents that interact and adapt without rigid, centralised control. The ecosystem is viewed as a dynamic interaction that generates new values non-linearly through the process of emergence.

From the perspective of complexity economics, disruption is not a nuisance but rather an engine of evolution, marking a qualitative shift in economic regimes. Strategy has moved from mere optimisation of old models towards a redesign of business architecture that prioritises learning speed and co-evolution with the ecosystem. Competitive advantage is no longer determined by scale or static efficiency, but by architectural flexibility in responding to internal and external feedback constantly.

Disruption also represents the optimal point for innovation to occur. We refer to this as the Edge of Chaos, which is the transition zone between order (stagnation) and disorder (chaos). In this zone, the system possesses the precise balance required to trigger innovation without descending into anarchy. Excessive order leads only to organisational stagnation, while total chaos results in systemic failure. The duty of leadership is to keep the organisation at this threshold to ensure sustainability through adaptive experimentation.

In an ecosystem model, the role of leadership is that of an ecologist. Leaders no longer micromanage outputs; instead, they are tasked with fostering a culture and environment that enables teams to self-organise. This approach utilises simple rules to guide autonomous decision-making, replacing rigid SOPs that are often too brittle to face ambiguity. Leaders must be courageous enough to engage in safe-to-fail probing: launching multiple small experiments simultaneously to detect strategic opportunities that traditional analytical models might overlook.

Returning to CIMA’s focus on Management Accounting (MA), MA plays a crucial role in governing strategic planning in this exponential era through the SPX framework from the IEEE. MA must be capable of performing Strategic Cost Management to monitor future horizons, utilising Real Options Analysis to value investments as strategic options, and implementing Agile Capital Budgeting. By moving away from rigid annual budgets towards Rolling Forecasts and Throughput Accounting, MA ensures that resource allocation is based on real-time feedback and the velocity of value conversion.

In closing, it was conveyed that disruption must be managed as a catalyst for achieving sustainability and a better quality of life. We must stop viewing business as a machine to be controlled mechanistically and start managing it as a living ecosystem with the capacity to renew itself continually. Furthermore, the finest innovations are those capable of creating new markets and providing a tangible impact on strengthening the economy of society.

IEEE Fest & TEUB Workshop

I was invited to IEEE Fest 2025 as a representative of the IEEE Indonesia Section Advisory Board. The event was hosted by the IEEE Brawijaya University Student Branch in Malang on 18 October 2025, led by the Chair, Muhammad Asyir Zarkasih. The program was commenced by the Vice-Rector for Student Affairs and Entrepreneurship, Dr Setiawan Noerdajasakti, together with the university’s faculty and departmental leaders. It was particularly noteworthy to see IEEE SBUB expanding beyond its traditional STEM roots into areas such as management and law.

In my short welcoming remarks, I encouraged the strengthening of enthusiasm, commitment, and innovation capability through collaboration, making use of available channels while initiating the door for broader engagement across IEEE’s various organisational units and programs. In a landscape as complex as today’s, challenges are indeed easier to navigate together; but more than that, complex collaboration often reveals new opportunities, both in innovation and in business.

Prior to the event, in the holding room, we had a discussion with the Vice-Rector on reinforcing an innovation-driven entrepreneurial ecosystem that leverages Telkom Group’s digital platforms and connectivity, alongside the strong collaborative resources of IEEE, including IEEE Indonesia Section. Follow-up actions are now being prepared at both university and faculty levels.

I specifically requested that the founding generation of Workshop TEUB, i.e. several alumni from the E88 cohort, to be present as well. Workshop TEUB was established by a trio: Sigit Shalako Abdurajak, Widiyanto, and yours truly; together with the early activists who were deeply involved in innovation and training initiatives. Several of them were able to attend the event: Saiful Hidayat, Aries Boedi Setiawan, Moch Iszar, and others who unfortunately could not join.

We originally founded the Workshop to address significant limitations in academic content as well as the capability and capacity gaps within our alma mater at the time. To our surprise and pride, the next generations have carried the Workshop far beyond what we imagined. Now operating as an autonomous unit under HME, it has grown into a hub of innovation excellence. The current Head of the Workshop is Akmal Mulki Majid.

IEEE Fest 2025 also featured a student innovation exhibition, presented through a series of presentations and booths from units under HME and the Workshop, along with various other innovation teams across the university. Students showcased their leading work, including IoT implementations, robotics platforms, and their early integrations with intelligent systems. One highlight was Elektro Formula Brawijaya, an EV innovation bridging technological capability with real-world demands. These exhibitions showed that UB students are not merely following technological trends. They are confidently pushing past them, designing precise, concrete solutions ready for industrial validation.

Alongside the exhibition, we conducted a tour of the Workshop and the Electrical Engineering laboratories, accompanied among others by the HME Chair, M Iqbal Maulana. This included, of course, the Electronics Lab, where Sigit Shalako and I once served as lab assistants. The lab has since moved location and now operates with far more advanced, high-precision experimental modules.

The event itself lasted only a day, but the collaboration certainly will not stop there. Technical consultations, sociopreneurship initiatives, and new strategic partnership pathways will continue to grow, strengthening the innovation ecosystem and supporting the sustainable development of national talents.

IEEE HTC 2025

The IEEE Region 10 Humanitarian Technology Conference (HTC) 2025 was carried out at Chiba University of Commerce, Japan, from 28 September to 1 October, bringing together global visionaries under the theme “Beyond SDGs, A New Humanitarian Era with Intelligent Partners.” The conference highlighted the synergy between human intellect and emerging intelligent systems in advancing humanitarian impact through technology.

During the Opening Ceremony, Grayson Randall, President of the IEEE Humanitarian Technologies Board (HTB), delivered an address emphasising the special position of the engineering profession in improving and enhancing the quality of life. His message underscored that engineers are not merely problem-solvers but architects of hope, capable of bridging innovation with social responsibility. He further presented new opportunities within HT programmes to stimulate inclusive and impactful projects across the Asia-Pacific region. On the second day, IEEE President-Elect Mary Ellen Randall presented a visionary keynote speech outlining IEEE’s roadmap for advancing the engineering profession in alignment with global human development goals. She articulated how IEEE’s strategic directions, from digital ethics to sustainable innovation, converge towards one essential mission, the enhancement of human life quality through intelligent collaboration.

On Day 3 (1 October), I delivered my presentation in Special Program 15, titled “Synergy for Sustainable Impact.” The session, moderated by Allya Paramitha, brought together distinguished panellists Hidenobu Harasaki, Husain Mahdi, Agnes Irwanti, Bernard Lim, Chie Sato, Saurabh Soni, and your truly. The discussion explored collaborative mechanisms between technology, policy, and social innovation to accelerate humanitarian outcomes through sustainable synergy. I often begin my presentations on synergy, ecosystems, and industry collaboration by framing them within the principles of complexity theory, illustrating how synergies can generate emergent, non-linear value in complex socio-technical ecosystems. These emergences are the key to the transformations central to achieving the UN Sustainable Development Goals (SDGs), particularly in fostering inclusivity, resilience, and equity.

Drawing from Indonesia’s national vision, I illustrated how the MSME commerce ecosystem has become a model of humanitarian technology application in real-world contexts. Through programmes focusing on microfinance, digital platforms, and cooperative empowerment, the framework demonstrated how technology can elevate non-consumption markets into productive and sustainable systems. I also shared case studies in which IEEE Indonesia SIGHT in Sociopreneurship and Sustainability provides capability building for IEEE Indonesia Student Branches, each designing local solutions including solar-powered water systems, IoT monitoring, and sociopreneurship incubation, as currently being undertaken by Gadjah Mada University and Udayana University. These projects exemplify how engineering-led engagements can evolve into community-driven sociopreneurship, ensuring sustainability through ownership, replication, and measurable impact.

On Day 0 (28 September), I provided a briefing on these programmes to IEEE President-Elect Mary Ellen Randall and HTB President Grayson Randall. These exchanges laid the groundwork for advancing IEEE humanitarian initiatives in Indonesia and the Asia-Pacific region, focusing on digital ecosystems, sociopreneurship, and sustainable innovation models. I also discussed these programmes during Special Program 13 (30 September), “From Innovation to Impact: Advancing IEEE Humanitarian Initiatives”, where I joined the HTA Forum to discuss strategic alignment between IEEE humanitarian frameworks and regional ecosystem development.

The IEEE R10 HTC 2025 stood out not only as a conference of ideas but as a living demonstration of synergy, the fusion of intellect, empathy, and technology. The conference reaffirmed a timeless truth, engineering is not merely about machines or systems, but about humanity itself. The IEEE R10 HTC 2025 thus marked another milestone in the collective journey to build a more equitable, resilient, and sustainable world, powered by both human insight and intelligent innovation.

MSME Financing

Now about the MSME ecosystem.

The Govt has repeatedly mentioned that we have 65 million MSMEs in Indonesia, and that the MSME are the very backbone of the national economy: they contribute ±61% of GDP and provide ±120 million jobs, nearly the entire labour force. Yet for all their importance, they are treated with something close to neglect by national financial system. While state banks happily court the large corporates and property developers, the millions of small firms that keep the country running receive less than 20% of their credit. And when the MSME secure a loan, they pay dearly for it, at interest rates of 12%–18% per year, even when BI’s rate rests at 5%. A curious kind of financial apartheid: the majority does the heavy lifting, the minority enjoys the cheap capital.

The Minister of Finance, to add insult to injury, has been swifter at taxing MSME than at financing them. Efforts to broaden the tax base focus on micro firms while the big players continue to enjoy exemptions, incentives, and creative loopholes. Programs intended to strengthen domestic small industry, remain piecemeal, minimally supported, and shifted instead to use the MSME data for taxing. The rhetoric is that MSMEs are the backbone of the economy; the practice is that they are milked like docile cows for easy revenue, without being fed the credit that might fatten them into global competitors.

There is surely the KUR program the Govt always mentions, which offers subsidised credit to small businesses. In H1/2025, around Rp 133T was disbursed to some 2.3 million borrowers. That number is impressive on its own, yet it reaches only 3% or 4% of the total MSME population. And the balance is skewed beyond recognition: nearly 1.9 million of those borrowers were micro firms, a modest 159 thousand were small firms, and a mere 16 thousand were so-called ultra-micro. Medium-sized enterprises are excluded entirely, with the optimistic expectation that they will graduate to commercial loans — a graduation ceremony that only rarely takes place.

KUR is not nothing, but neither is it enough. What Indonesia needs is a breakthrough: a national credit guarantee scheme that shares risks between the state and the banks and, in doing so, brings down lending rates while opening the doors of finance to millions who are currently shut out. The idea is simple. If a portion of loans in a defined portfolio go bad, the state-backed guarantor pays part of the loss. With that safety net in place, banks can lend at lower rates and to a wider circle of borrowers.

This is not some wild experiment. South Korea’s KODIT has long guaranteed up to 85% of SME loans; Japan’s municipal credit guarantee corporations have done the same for decades, usually at 80% coverage. The US Small Business Administration runs its own guarantees on 75% to 85% of small business loans. Europe operates portfolio schemes through InvestEU. The lesson is consistent: when governments shoulder part of the risk, banks lend more, charge less, and the fiscal costs remain entirely manageable.

What would this look like in Indonesia? Imagine a scheme supporting 1.5 million loans per year, with an average size of Rp 150 million, creating an annual portfolio of roughly Rp 225T. The guarantor would cover 40% of first losses, capped at 10% of the portfolio to prevent excess. Banks would pay a fee of 1.8% p.a., softened by a small state subsidy of 0.4%. In practice, this would mean loans to small businesses priced at about 3.5% lower than they are today. The expected fiscal cost to the state would be about Rp 2.3T per year, with a guarantor capital buffer of roughly Rp 8T. For the price of a single prestige infrastructure project, the government could transform access to finance for millions of enterprises.

The institutions are already there. Jamkrindo and Askrindo could act as front-line guarantors just like KUR. PII could serve as a backstop. Multilateral lenders such as the World Bank, ADB, or IsDB could add further insurance, while state and private banks would originate the loans. Oversight and enforcement would fall to the Ministry of Finance, Bank Indonesia, and the Financial Services Authority (OJK), with the Ministry of MSME ensuring that outreach truly extends beyond Java and into women-owned and first-time borrowers.

The expected results could be far from trivial. With 1.5 million new loans guaranteed each year, more small firms would cross into the formal economy. Average borrowing rates would fall from the current 12% to 15% into the single digits. Employment would grow by perhaps one million jobs a year, as enterprises invest and expand. GDP growth would tick upward by at least 0.5%. And because borrowers under the scheme must be formally registered, the tax base would widen, meaning the program could ultimately pay for itself.

Indonesia cannot hope to reach sustained 6%–7% growth while its entrepreneurs are trapped in a high-cost credit desert. This lending guarantee program would provide them with the rain they need. Alongside, the state should push forward with digital credit scoring, drawing on tax, e-commerce, and utility data; it should open the way for SME bonds and securitisation; and it should modernise collateral laws so that machinery, vehicles, and inventory can be pledged as security, not only land and buildings.

Without accelarating these programs, Indonesia risks remaining a dual economy: one world of corporates enjoying cheap capital and tax incentives, and another of millions of MSMEs left to carry the country on their backs while paying through the nose for the privilege.

A Failed Country, A Failed Government

A failed government is not defined by temporary setbacks, nor even by economic hardship. It is defined by a collapse of legitimacy, when the people no longer see leaders as protectors, but as predators. When power is used not to govern, but to plunder. When truth is buried beneath propaganda, and dissent is silenced by force rather than answered by reason.

A failed country is not a land without wealth, but a land where justice is absent. Where security is traded for fear, opportunity for favoritism, and institutions rot from within. It is when corruption becomes the operating system, and the constitution nothing more than a decorative relic.

Here’s the darkened Garuda, stripped of its golden radiance. The bull, once a symbol of democracy, now stares hollow-eyed as public will is sold to the highest bidder. The banyan tree, meant to represent unity, now casts shadows of division and fragmentation. The rice and cotton, symbols of prosperity, lie barren under monopolies and systemic greed. The chain, once the strength of solidarity, rusts into a shackle of oppression. And the star, once a guiding light, dims into the emptiness of hypocrisy.

The government has failed. The system has failed. But a nation dies only if its people surrender. The Garuda in darkness does not signal the end. It signals a choice: accept the failure, or ignite renewal. In that choice lies the fate of the republic.

Sicily

I believe many people use AI like ChatGPT to ask questions about themselves or to see how they’re perceived by the world or the internet. However, I found it unsettling.

I was looking into some travel options, and one of the places I checked was Sicily. ChatGPT gave me some recommendations, ending with something like…

That’s interesting. I was curious, so I asked:

And its answer hit me hard and deep:

Speechless, I just leave it here with no comment.

Ten Feline Principles

Feline Philosophy: Cats and the Meaning of Life, by John Gray, has accompanied my Catterday. Published in 2020 by Penguin Books, the book is a wry and elegant meditation that contrasts the restless pursuit of meaning in human life with the serene indifference of cats. Rather than anthropomorphising animals, Gray invites readers to view humanity through a feline lens — one that reveals the absurdity of our moral pretensions, the futility of our anxieties, and the possibility of a more graceful existence, precisely by abandoning the need to justify it.

Its last chapter offers a feline-inspired rethinking of how one might live with greater clarity and less delusion: Ten Feline Principles for Living Well.

  1. Never try to persuade human beings to be reasonable — Trying to persuade human beings to be rational is like trying to teach cats to be vegans. Human beings use reason to bolster whatever they want to believe, seldom to find out if what they believe is true.
  2. It is foolish to complain that you do not have enough time — If you think you do not have enough time, you do not know how to pass your time. Do what serves a purpose of yours and what you enjoy doing for its own sake. Live like this, and you will have plenty of time.
  3. Do not look for meaning in your suffering — If you are unhappy, you may seek comfort in your misery, but you risk making it the meaning of your life. Do not become attached to your suffering, and avoid those who do.
  4. It is better to be indifferent to others than to feel you have to love them — Few ideals have been more harmful than that of universal love. Better cultivate indifference, which may turn into kindness.
  5. Forget about pursuing happiness, and you may find it — You will not find happiness by chasing after it, since you do not know what will make you happy. Instead, do what you find most interesting and you will be happy knowing nothing of happiness.
  6. Life is not a story — If you think of your life as a story, you will be tempted to write it to the end. But you do not know how it will end, or what will happen before it does. It would be better to throw the script away. The unwritten life is more worth living than any story you can invent.
  7. Do not fear the dark, for much that is precious is found in the night — You have been taught to think before you act, and this may be good advice. Acting on how you feel at the moment may be no more than obeying worn-out philosophies you have accepted without thinking. But some moments may follow an inkling that glimmers in the shadows. You need to know where it may lead you.
  8. Sleep for the joy of sleeping — Sleeping so that you can work harder when you wake up is a miserable way to live. Sleep for pleasure, not profit.
  9. Beware anyone who offers to make you happy — Those who offer to make you happy do so in order that they themselves may be less unhappy. Your suffering is necessary to them, since without it they would have less reason for living. Mistrust people who say they live for others.
  10. If you cannot learn to live a little more like a cat, return without regret to the human world of diversion

The US Trade Imbalance

The US has long been concerned about its persistent trade imbalance, frequently attributing responsibility to its business-partner countries for the gap between imports and exports. However, it should be recognised that most of the imbalance originates internally, driven by American corporations’ strategic pursuit of short-term profits, often through aggressive offshore profit-shifting practices. American businesses with the highest capitalisation, such as Apple, Google, and Microsoft, significantly contribute to this imbalance by establishing subsidiaries in low-tax jurisdictions like Ireland or Bermuda, legally diverting profits and depriving the US Treasury of critical tax revenues.

Apple has routinely utilised offshore structures, holding over $200 billion overseas at one point, strategically positioning intellectual property (IP) subsidiaries in countries with more favourable tax policies. Similarly, Google’s “Double Irish with a Dutch Sandwich” facilitated the shifting of billions in global advertising revenue, resulting in minimal domestic taxation. These practices are typically legal yet ethically contentious, with annual corporate profit-shifting estimated between $300 and $350 billion, leading to approximately $100–$150 billion in lost US tax revenue each year, according to estimates from the Congressional Budget Office and economist Gabriel Zucman.

In addition to technology firms, professional service companies such as McKinsey, other consultancy firms, and numerous US law firms frequently establish regional offices overseas, ensuring substantial earnings remain offshore. Although these practices are mostly legal, they highlight the significant internal roots of the trade imbalance, reflecting structural issues in corporate governance and tax policy rather than external economic aggression.

To meaningfully address these challenges, the US should initiate comprehensive internal reforms, beginning with corporate governance. A decisive shift from shareholder capitalism—prioritising quarterly profits—to stakeholder capitalism, where companies equally value long-term investments in employees, communities, and sustainability, is essential. The 2019 Business Roundtable statement was a symbolic step in this direction, but substantial action has been limited. True reform necessitates redefining executive compensation to incentivise sustainable, long-term growth rather than stock price manipulation through buybacks.

On the policy front, the US government should strengthen anti-profit-shifting measures by enhancing transparency through mandatory country-by-country financial reporting and enforcing stringent economic substance requirements. Implementing the OECD-backed global minimum tax (15%) could curb excessive offshore tax arbitrage by ensuring multinationals pay fair taxes irrespective of where they report profits. Additionally, penalising superficial offshore structures while incentivising genuine domestic investments could significantly mitigate revenue losses.

Ethically, American corporate culture should evolve to reject aggressive tax avoidance as standard practice. Promoting ethical standards and responsible business conduct, supported by public advocacy, investor pressure through Environmental, Social, and Governance (ESG) criteria, and transparent financial disclosures, could substantially reshape corporate behaviour. Institutional investors, pension funds, and even individual consumers can wield considerable influence by rewarding ethical corporate actions and penalising short-termist, exploitative strategies.

Ultimately, resolving the US trade imbalance is not solely about external tariffs or punitive measures against other nations but requires confronting internal structural issues directly. By embracing rigorous regulatory reforms, incentivising ethical corporate governance, and committing to strategic long-term economic planning, America can effectively rebalance trade, recover significant lost revenues, and foster sustainable economic prosperity for future generations.

« Older posts

© 2026 Kuncoro

Theme by Anders NorénUp ↑