Between Burning Forests and Utopian Cities: Designing the Climate Transition

There is no shortage of ways to imagine what the world will look like after a climate catastrophe. Entire genres of movies, novels, graphic novels, and video games have been built around the question of what happens when contemporary safeguards fail. From post-apocalyptic literature to disaster films depicting burning forests, submerged cities, abandoned infrastructure, resource scarcity, and mass displacement, humanity has developed a familiar and remarkably fluent visual and narrative vocabulary for the consequences of a world that fails to respond to climate change.

In parallel, an increasingly sophisticated vocabulary has emerged for imagining the world after total technological transformation. Smart cities promise to optimize energy, mobility, and resources through ubiquitous computation, while artificial intelligence is frequently positioned as a tool for managing complex systems far beyond human coordination. Geoengineering engages directly with the atmosphere, while floating settlements, underwater habitats, and extraterrestrial colonies extend the possibility of human habitation into entirely new environments. These futuristic ideas draw from a longer history of technological futurism, populated by efficient cities, intelligent machines, and spectacular forms of infrastructure. Their stories, much like cinematic finales, often take place only after the conflict has been resolved and a new, stable equilibrium has been established.

Far less developed, however, is our cultural and design vocabulary for what happens in between these extreme apocalyptic consequences and the clean, pristine world as we know it today. Climate denial avoids action entirely by rejecting the necessity of a transition, while climate doom shuts down constructive thought by treating environmental transformation as an impossible, lost outcome. Technological salvation offers a third and particularly seductive escape for the design fields—a scenario in which a sufficiently powerful innovation allows society to leapfrog from crisis to resolution without ever having to dwell on the messy, complicated shift between them.

Yet, the actual climate transition will depend heavily on this underappreciated and undervalued middle ground: decades of painstaking decisions regarding repair, adaptation, and restoration. If contemporary designers and architects already possess the tools for imagining catastrophic worlds and futuristic, saved utopias, the pressing question is whether they will be able to visualize the transition itself.

The Appeal of Skipping to the End

Transformation is always significantly easier to imagine when there is a decisive, dramatic moment. A sudden technological breakthrough or a bold new form of infrastructure establishes a clear distance between the present and the future, creating a distinct before-and-after scenario. However, the real-world climate transition cannot depend on a simple before-and-after paradigm. Instead, it will be composed of decades of parallel, overlapping work streams. Buildings will need to be retrofitted while others are simultaneously demolished; energy systems will change at drastically different speeds across regions; landscapes will be restored while continuing to support local economic activity and agricultural production; and brand-new technologies will inevitably have to operate alongside older, legacy infrastructures. Adaptation, maintenance, and resilience unfold gradually, unevenly, and often without fanfare.

This messy reality makes the transition a notoriously difficult story to tell. Its agency is widely distributed across governments, local communities, designers, engineers, utilities, private industries, everyday trades, and multiple generations, rather than being neatly concentrated in a single invention or heroic actor. Its greatest achievements will be embedded in ordinary, often slow decisions. While these ongoing processes contain their own unique forms of conflict, invention, innovation, and ambition, they do not always provide the immediate narrative resolution of a dramatic technological breakthrough. The central challenge for designers, architects, and storytellers is fundamentally imaginative: can adaptation, maintenance, repair, and resilience become the core material of compelling and desirable futures?

The Allure of a Technological Rescue

Technology will undoubtedly remain indispensable to any viable climate transition. Renewable energy, widespread electrification, advanced new materials, carbon removal systems, computation, and other forms of innovation will shape how societies successfully reduce emissions and adapt to or mitigate the impacts of global warming. Yet, the concept of a technological rescue is also a comforting fantasy—an argument that sufficient innovation can resolve severe environmental constraints while leaving the underlying systems, consumption patterns, and expectations of contemporary life entirely intact. Naturally, this is an appealing form of climate optimism because it offers a future that is radically transformed, safe, and reassuringly familiar.

The smart city offers one prominent version of this modern promise. For decades, urban planners and technology companies have explored how sensors, data, automation, and interconnected infrastructure might make cities more efficient and responsive, with meaningful applications in energy, transportation, water, and resource management. At the same time, the smart city has produced an influential image of urban sustainability in which complex environmental problems become increasingly manageable through pure information and digital optimization.

However, this framing can leave more difficult questions—such as overconsumption, sprawling mobility, unsustainable land use, heavy construction, and the fate of the existing urban fabric—outside the frame entirely. While efficiency can profoundly transform how a city operates, it does not inherently determine what the city consumes, preserves, replaces, or relinquishes for long-term survival.

The ongoing construction of projects like The Line at NEOM takes this technological proposition even further by beginning with an entirely new urban condition on a blank slate. Its sweeping representations offer a city organized around intense density, renewable energy, automated mobility, and extensive technological infrastructure, largely free from the spatial patterns, historical remnants, and physical constraints of existing cities. As an image of a climate future, the clean slate is undeniably enticing. It allows for radical urban change while removing any inherited residues or competing interests from traditional cities.

Similar narratives appear at multiple scales across the globe, from autonomous environments and vast carbon removal systems to geoengineering, floating settlements, and extraterrestrial habitation. Each expands the physical and conceptual territory within which technology might overcome environmental limits or climate anxieties. Their speculative value lies in their capacity to make unfamiliar situations feel alluring and achievable, yet their widespread prominence invites deeper critical reflection around what other futures might emerge if that same creative attention were directed toward transformative preservation. While designers are clearly capable of visualizing the new and the unprecedented, the contemporary question is how to bring narratives and visuals of adaptation, reuse, restoration, and resilience into the collective social imaginary.

The Ordinary Work

Much of the practical climate transition will inevitably take place within the physical world that already exists. Existing buildings need to be adapted, repaired, reused, and meticulously maintained, while neighborhoods must respond dynamically to shifting environmental conditions. Its ultimate significance emerges through long-term accumulation rather than a single moment of grand project implementation, as thousands of incremental projects alter how resources are used, extend the lifespan of materials and buildings, and change how local places respond to a warming climate.

While this transformation may be difficult to capture in a singular, breathtaking image of the future, its incremental nature does not make it any less ambitious. It values progress as a compounding series of choices, constructed continuously across existing cities and working sites.

At larger scales, these individual interventions become part of complex systems that extend far beyond any single architectural project. Cities, regions, states, and nations must coordinate profound changes across energy grids, transportation networks, material flows, water management, land use, regulatory frameworks, finance systems, and governance structures—often across vastly different timelines and political boundaries. The climate transition depends fundamentally on an understanding of how individual decisions interact, reinforce one another, and eventually produce systemic, macro-level change. If this is our mandated condition, designers must grapple with how to visualize a future defined by relationships, dependencies, sequences, and decades of coordinated effort.

Tools for Imagining the Transition

Architects and designers already possess highly sophisticated tools for projecting futures through drawings, physical models, digital simulations, scenarios, cinematic visualizations, interactive games, and increasingly advanced artificial intelligence. While images of completed environments can establish compelling destinations, the reality of transition requires us to engage deeply with time, sequence, uncertainty, and continuous adaptation.

This same creative capacity could easily be directed toward imagining how existing places change over five, twenty, or fifty years—illustrating what remains, what becomes obsolete, and how numerous small interventions accumulate into an entirely different way of living. In this light, the transition can become a primary subject of speculation rather than just an exaggerated, skipped-over interval between the present day and an idealized future.

Beyond visual representation, lifecycle thinking, comprehensive material inventories, post-occupancy research, traditional ecological knowledge, maintenance practices, historical precedent, scenario planning, and systems thinking can make the capacity for change in existing built environments much more informed. These archives of knowledge allow designers to locate agency firmly within the present by revealing precisely where transformation is already possible. They offer practical ways of fostering climate optimism that remain firmly grounded in the physical, ecological, and social conditions from which any viable future will have to emerge.

Writers, filmmakers, game designers, artists, journalists, and other world-builders profoundly influence which potential futures become familiar enough for society to debate or desire. There is a vast, underexplored creative territory in the ordinary processes that currently receive less attention in contemporary media. These undervalued stories have the distinct capacity to coexist with technological speculation and ambitious visions of the future, while simultaneously giving equal weight to the long, unglamorous processes of urban and environmental transformation.

If climate denial removes the immediate necessity for action, and climate doom narrows the possibility of meaningful intervention, then technological salvation merely defers decisive agency to an anticipated future breakthrough. True climate optimism should instead be firmly grounded in the capacity to act within the world we have inherited and to actively imagine its ongoing processes toward change.

Designers and storytellers do not need to become any less ambitious about the ultimate futures they envision; rather, they must direct that same level of ambition and creativity toward the transition itself. If humanity can vividly imagine the end of the world, and the world after it has supposedly been saved, the challenge is whether we can become equally ambitious in imagining the hard, essential work required in between.