In Hamilton 2092, you do not simply consume. You make. You mend. You transform. The fabrication commons are not factories in the old sense—places of alienated labor and mass production—but workshops of collective creativity, where the means of production belong to everyone and the products of labor serve the community.
This chapter will guide you through the fabrication systems of Hamilton 2092: the tool libraries where you can borrow what you need, the community nodes where you learn and practice skills, the circular economy that ensures nothing is wasted, and the repair culture that extends the life of everything the city produces.
Before you can understand fabrication in Hamilton 2092, you must understand the circular economy—the system through which materials flow through the city, never becoming waste but always becoming something else.
The cities of the early twenty-first century operated on a linear model: extract resources, manufacture products, use them briefly, discard them as waste. Hamilton 2092 operates on a circular model: materials circulate through the economy, being used and reused, transformed and retransformed, maintaining their value indefinitely.
The circular economy depends on knowing what things are made of. In Hamilton 2092, every manufactured object carries a material passport—a digital record of its composition, provenance, and history, accessible through the mesh network.
When an object reaches the end of its current use, the circular economy applies five hierarchies of management, in order of preference:
If the circular economy is the system through which materials flow, repair culture is the practice that keeps those materials in use. In Hamilton 2092, repair is not a fallback for when things break. It is a way of life.
Hamilton 2092 recognizes the right to repair as fundamental. All products must be designed for disassembly, with standardized fasteners, modular components, and publicly available repair documentation.
The social heart of repair culture is the repair café—a community space where people gather to fix things together, sharing skills, tools, and companionship.
"I have a toaster that was made in 2034. It has been repaired forty-seven times. The heating elements have been replaced three times. The casing has been patched and repainted. The timer mechanism has been rebuilt twice. It is not an heirloom or an antique—just an ordinary toaster, mass-produced in a factory that no longer exists. But every repair tells a story. The time the cord was replaced by a neighbor who taught me about electrical safety. The time the spring was fabricated in the workshop when no replacement could be found. The time the whole neighborhood gathered to celebrate its fortieth repair anniversary. This toaster is not just a device for browning bread. It is a record of relationships, a monument to the culture of repair."
You cannot make or repair without tools. In Hamilton 2092, you do not need to own every tool you might use. Instead, you borrow them from the tool library—a shared collection maintained by the community for the community.
Hamilton 2092 is defined by three iconic provotypes—objects that embody the city's design philosophy and serve as touchstones for the culture of making.
"I came to Hamilton with nothing but a backpack and some basic electronics knowledge. Within a week, I had access to tools I'd never dreamed of using—laser cutters, 3D printers, CNC machines. But more importantly, I had teachers. People who showed me not just how to use the tools, but how to think about making. How to design for repair. How to work with mycelium instead of against it. How to see waste as feedstock. That first year in the fabrication commons changed my life. Now I teach others. That's how it works here. Knowledge flows like the materials—circular, shared, always becoming something new."
Fabrication is a skill, and skills must be learned. Hamilton 2092 provides multiple pathways for developing competence in making and repair.
The fabrication systems of Hamilton 2092 continue to evolve, driven by new technologies, new materials, and new social arrangements.
7:15 AM. Ah Her wakes to the smell of mycelium. Not metaphorically—there's an actual petri dish on her nightstand that's fruiting, and the smell is earthy, slightly sweet, the scent of organized decomposition. She lies in bed for a moment, watching the light come through the loft's east-facing window, listening to the ravine sounds below. A crow calls. Water moves.
Her loft above the lab is small—a bed, desk, shelves of books and salvaged equipment, plants everywhere—but it's home in a way that matters. Some of the plants are experiments. Others are just the way she's decided to live: embedded in growing systems, participating in biological knowledge production while also, basically, making coffee.
She showers in warm water (the one luxury she allows herself) and dresses in her uniform: dark pants, neutral-colored shirt, the cardigan that belonged to her father. She's never taken it off in the lab. It's become part of her identity—the young woman who builds bioelectric interfaces and wears her father's cardigan like a daily reminder that knowledge is relational, not extractive.
8:00 AM. She descends to the lab. The ground floor is her working space: workbenches, soldering equipment, culture racks, computers for documentation and design. Everything is organized, but not obsessively. There's space for failure here, for the beautiful accidents that happen when you're working at the intersection of biology and engineering.
Her morning ritual: check on living experiments. There are mycelium cultures in different climate conditions. There are biofilm arrays she's testing for sensitivity to electrical stimuli. There are seed plants, growing in substrate she's designed with specific mineral compositions. She records temperature, humidity, growth visuals. Some recordings go to her private lab journal (handwritten, careful, dated). Others get documented in shared digital files for her mentees to review. She's careful about this distinction—some knowledge is private until it's ready to be shared.
She makes coffee using pour-over method. It's slower than automatic makers, but it gives her hands something to do while her mind wakes. She drinks it while reviewing overnight messages. A student asking about electrode sterilization protocols. Another asking about the ethics of interfacing with different organisms. Her mother asking whether she'd consider documenting her mycelium-interface protocols.
She texts back: "Let's talk about what documentation means first. Co-authorship only if we can write about the relational aspects, not just the technical."
10:00 AM. She's preparing for a workshop. Today she's teaching a group of ravine ward residents about basic bioelectric reading—how to build a simple device that can measure electrical signals from plants. The workshop starts at 1 PM, so morning is prep time. She's creating simple diagrams, testing electrode designs, preparing materials.
She's also thinking about what to teach and what to deliberately not teach. She believes knowledge should be shared, but she also believes some knowledge without accompanying ethics is dangerous. Every workshop includes teaching people to ask: "Am I serving this organism, or am I using it? Am I in relationship with this system, or am I extracting from it?"
This is her mother's influence. Sarah Her spent her career asking these questions at the institutional level. Ah Her is asking them at the community level. The difference matters.
12:00 PM. She's eating lunch (vegetables from her rooftop garden, bread from a neighbor who trades baked goods for vegetables) and still thinking about documentation. The ethics of recording knowledge, of making it permanent, of rendering it searchable and reproducible—these are not neutral acts. Her mother learned this when her breakthrough research was immediately patented by corporations. Ah Her has decided to operate differently: open-source designs, community knowledge transmission, everything documented in ways that resist institutional capture.
1:00 PM. The workshop begins. Ten people, ranging from teenagers to elders, curious about bio-computing. She teaches with her whole body. She builds a simple circuit with them, hands-on. She lets them experience the moment when they first read an electrical signal from a plant. She sees the wonder in their faces and remembers having this experience at eight years old, seeing her mother's work for the first time.
She also teaches caution. She shows them historical examples of where bio-technology was used for surveillance, for control, for extraction. She teaches them that knowledge is power, and power comes with responsibility.
4:00 PM. One-on-one mentoring with Kai. Kai is learning to design bioelectric interfaces for specific applications—in this case, monitoring soil conditions in restoration projects. Ah Her teaches primarily through questioning. "What do you think the soil is trying to tell you? How might an interface help translate that? How might an interface get in the way?"
Kai is frustrated by the questioning method. "Why don't you just tell me how to build this?" they ask.
Ah Her smiles because she remembers asking her mother the exact same question. "Because if I tell you, you'll have a design. If you figure it out through questioning, you'll have understanding. The design is less important than the understanding."
6:00 PM. Her mother Sarah arrives for their weekly meeting. Sarah wants to show her some new research concepts—ways that mycelial networks might be interfaced with biological computing. She's still working, still asking questions, still generating ideas even though she stepped back from institutional research decades ago.
Ah Her asks her about the documentation question. "What if I documented the protocols in ways that make them harder to industrialize? Like, instead of clean step-by-step instructions, I documented the relationships, the failures, the moments of uncertainty?"
Sarah considers this seriously. "That could work. It would make knowledge less portable, but more honest. And honesty is what resists extraction."
8:00 PM. After Sarah leaves, Ah Her works on her own research. Currently, she's exploring whether bio-interfaces can be fully compostable—whether she could create a reading device that becomes food for soil after use. It's a long-term project, part technical problem-solving, part ethics experiment.
11:00 PM. She's reviewing the day's documentation, updating her digital lab journal, responding to messages from her community. She falls asleep reading papers on mycology and electrical engineering—fields that shouldn't intersect but increasingly do.
"I grew up in the post-Neuralink era, when surveillance-AI collapsed and Organic Intelligence became possible. I run a private home lab equipped with 3D printers, local AI servers, and a fully biomimetic living space. I design biofilm sensor arrays, custom bioelectric patches, mycelial monitoring systems. I represent what becomes possible when a person can maintain technological sovereignty while living in a city governed by networked, consent-based systems. I'm not anti-technology; I'm pro-agency. The most interesting innovations happen at home, at scale, rooted in place."
Ah Her's lab occupies the ground floor of a converted row house in the Ravine Ward. Above it, accessible by a narrow staircase, is her living space—a single room that serves as bedroom, kitchen, and sanctuary. The division between "lab" and "home" is architectural but not philosophical. Both spaces are engaged in the same project: living within technological systems while maintaining autonomy from them.
The lab itself is organized around principles of accessibility and resistance. Every tool is either salvaged, inherited, or built on-site. Nothing requires cloud connectivity to function. All documentation is stored on local servers, encrypted, with physical backups. The space is designed so that if the Orenda Network went down tomorrow, everything essential would keep working.
"This isn't paranoia," Ah Her explains. "It's practice. My mother taught me that dependence is vulnerability, and vulnerability becomes leverage for extraction. I participate fully in the city's systems—I use MELA, I contribute to the mesh network, I attend assembly meetings. But I maintain the capacity to function independently. That's not rejection of community. It's protection of agency."
The lab's most distinctive feature is its integration of living systems. Mycelium cultures grow in climate-controlled chambers. Plants in hydroponic arrays filter the air and provide food. A small aquaponics system produces both vegetables and fish protein. Even the lab's "waste" is cycled back into production—spent substrate becomes compost, greywater irrigates the plants, failed experiments become nutrients for new growth.
"I inherited this approach from my mother, but I'm carrying it forward differently," Ah Her says. "Sarah stepped back from institutions to protect her knowledge from capture. I'm stepping forward into teaching, into open-sourcing, into building community capacity. I believe knowledge should be accessible, but I also believe accessibility without ethics is just extraction with better marketing. So I teach carefully. I share strategically. I try to build systems that distribute power rather than concentrate it."
The lab is also a teaching space. Kai and other apprentices work here, learning not just technical skills but the ethical framework that guides Ah Her's practice. The walls are covered with notes, diagrams, questions scrawled during late-night thinking sessions. One note, written in large letters above the main workbench, reads: "Who benefits? Who is harmed? What is preserved? What is lost?" These are the questions Ah Her asks of every project, every design, every decision.
"The home lab isn't just a workspace," she says. "It's a demonstration. Proof that you can maintain technological sovereignty while participating in collective systems. Proof that the most interesting innovations happen at the human scale, rooted in place, embedded in relationship. That's what 2092 offers: not a choice between connection and autonomy, but both. Always both."