The Futureproof Series.
Postcards
From the Future.
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Futureproof Series
Postcards From the Future
As part of designbivouac’s Futureproof Series, this collection offers a set of visual explorations and concise narratives designed to spark conversation, challenge assumptions, and inspire strategic thinking about what lies ahead.
“Imagination is everything. It is the preview of life’s coming attractions.”
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Methodology
Futurecasting is a creative process where designers explore various social, cultural, economic, political, and ecological factors to envision potential futures. Rather than predicting the future with certainty, futurecasting focuses on imagining possible and preferable scenarios that inform long-term strategies. It helps businesses understand the forces shaping the future, anticipate changes, and create proactive strategies. Preferable futures align technology with human needs while ensuring sustainability from a planetary perspective.
“The best way to predict the future is to design it.”
Frameworks
The Futureproof: Postcards From the Future series draws on frameworks, such as Joseph Voros’s Futures Cone and backcasting, to guide its exploration. By working backward from a desirable future state to our current reality, backcasting helps identify the necessary conditions to achieve a preferred vision. The aim is to encourage thoughtful consideration of our shared future and inspire active participation in shaping it.
Visual and Narrative Approach
The series' visual approach integrates AI tools into the creative process, blending visuals with written narratives that evolve organically as each postcard from the future takes form. The series is designed to inspire deeper reflection on the necessary actions to make our collective preferred future a reality.
Futureproof: Space Elevator Lifts Humanity
Last week, we celebrated the 10th anniversary of the opening of Span One of the Space Elevator complex. Over the last decade, the price of going into space has dropped dramatically, and critical environmental research and space tourism have reached new heights.
Future Narrative
Last week marked a significant milestone as we celebrated the 10th anniversary of Span One, the inaugural launch and operational span of the Space Elevator complex. A decade ago, its opening was a bold leap into the future, transforming humanity’s relationship with space. Over the past ten years, the impact of Span One has been nothing short of revolutionary. The cost of accessing low Earth orbit and beyond has plummeted, enabling a surge in innovation and accessibility. Once limited by budget and launch constraints, critical environmental research platforms now operate continuously above the Earth, gathering unprecedented data to monitor climate change, ocean patterns, and atmospheric conditions in real time.
Meanwhile, space tourism has evolved from an exclusive novelty into a rapidly growing sector, with more people experiencing the awe of Earth from above than ever before. The elevator's stability, safety, and sustainability have redefined what space infrastructure can be, serving as both a technological marvel and a beacon of international cooperation.
The production of carbon nanotubes at an industrial scale made the long-envisioned system a reality. Over the last decade, hundreds of tons of material have been lifted into space, and prices for orbital lifting continue to fall. The costs associated with building the Space Elevator have been offset by the frequency of mining spacecraft delivering valuable and exotic minerals from the asteroid belt. As we look ahead, Span One stands not just as a symbol of engineering excellence but as a foundation for a new era of exploration, discovery, and global connectivity beyond our atmosphere.
Singapore was selected as the anchor site for the International Space Elevator. As shown above, Segment A rises from the anchor site, which was chosen due to its proximity to the equator.
Northward view of Segment A of the International Space Elevator. The “EXPANSE” pad and viewing levels of The Four Seasons section provide guests with sweeping views of Earth. Note the extensive growth of logistics facilities surrounding the anchor point.
Implications
If the lightweighting and strength challenges can be solved, space elevator structures have the potential to usher in a new era of space exploration.
Futureproof is a series of occasional provocations illustrating possible future paths for technology and culture. Think postcards from the future.
Futureproof: Angel's Lace Clears Space Debris
Since the dawn of the space age, humans have polluted the space surrounding Earth. Decades ago, international space agencies recognized the importance of clearing space debris from Earth’s orbit. Today, Weyland Aerospace Group’s space debris capture mesh, or “Angel’s Lace,” is slowly clearing the planet of space debris. Thankfully, progress is being made in concert with other collection systems, clearing the way for future human exploration.
Future Narrative
Since the dawn of the space age, humans have polluted the space surrounding Earth. Decades ago, international space agencies recognized the importance of clearing space debris from Earth’s orbit. Today, Weyland Aerospace Group’s space debris capture mesh, also known as “Angel’s Lace,” is slowly clearing the planet of space debris. Thankfully, progress is being made in concert with other collection systems, clearing the way for future human exploration.
Weyland’s Angel’s Lace system includes an array of microsatellites called Spoolers. These microsatellites are nuclear-powered, equipped with six-way maneuvering thrusters and a mechanical means of spooling out and latching onto the system’s fine carbon-metallic capture mesh. Upon reaching a set orbit, the capture mesh deploys over a 16-square-mile area. Spoolers keep the mesh in relative tension as space debris is captured. The fine mesh is magnetized to increase the efficiency of collecting small metallic objects.
The capture mesh slowly collapses as more space debris accumulates. Upon capturing a significant amount of space debris, the capture mesh is maneuvered into an Earth-facing orientation and brought back into tension by Spoolers positioned along the periphery of the mesh. Debris ejects into a retrograde orbit destined to burn safely in the Earth’s atmosphere. The spooler craft then repositions the capture mesh in tension, and the process of capturing more space debris begins again.
Weyland Aerospace Group’s “Angel’s Lace” system collects space debris across a 16-square-mile area. Once captured, the debris is directed toward and ejected into a retrograde orbit, where it burns up in the Earth’s atmosphere.
Weyland “Spooler” microsatellites deploy and maintain the system’s capture mesh positioning. Spoolers comprise multidirectional nuclear thrusters, optical and positional sensors, and capture mesh management hardware.
Implications
Without systems like Angel’s Lace in operation, the human race was on a path toward being imprisoned on Earth by its ingenuity and desire to explore the universe. With each year's improvements in spacecraft design, combined with the operation of Angel’s Lace and other large space debris systems, the amount of space debris orbiting Earth is declining significantly, ensuring safe access to space for the next generation of explorers.
Signs and Signals
Astroscale: Cleaning up Space Junk for a More Sustainable Future
Futureproof is a series of occasional provocations illustrating possible future paths for technology and culture. Think postcards from the future.
Futureproof: Lawn Keeper Drones
We subscribed to the Lawn Keeper drone service last Fall, and our lawn has never looked better. Syncing with seasonal data and local weather forecasts, the service seeds and fertilizes our lawn at optimal times of the year. The optional Lawn Defender service makes weekly passes to keep weeds at bay by targeting them with just enough low-power laser energy to eliminate them.
Future Narrative
We subscribed to the Lawn Keeper drone service last Fall, and our lawn has never looked better. Syncing with seasonal data and local weather forecasts, the service seeds and fertilizes our lawn at optimal times of the year. The optional Lawn Defender service makes weekly passes to keep weeds at bay by targeting them with just enough low-power laser energy to eliminate them.
Lawn Keeper drone spreads grass seed and lawn nutrients across an exact GPS guided grid pattern for efficient and full lawn coverage.
I used to think they would be annoying, but today’s drones are so quiet that I view them as a sign of the passing of the seasons, like the smell of freshly cut grass or the rustling of leaves across the lawn. As an added benefit, the Lawn Defender drones eliminate weeds without the use of chemicals and work wonders on Mosquitoes.
Lawn Defender drones with low-power laser accessories rid lawns of weeds without the use of harsh chemicals. Popular with municipalities, they are also effective in managing pests like mosquitoes.
Technology
Drones are improving noise reduction, battery life, and GPS positioning. Prices continue to fall, and as more consumer use cases emerge, drones will become more integrated into our daily lives in hard-to-predict ways.
Implications & Signals
Drones are being adapted to new uses, from battlefields to wheatfields, daily. What restrictions might be needed for this new technology?
Might using drones provide a chemical-free way to manage pests?
Drone Launch Academy: How Are Drones Used in Agriculture?
Futureproof is a series of occasional provocations illustrating possible future paths for technology and culture. Think postcards from the future.
Futureproof: The Lunar Grid
As we continue to extend our areas of exploration on the lunar surface, we have come to rely on grid pods as an extended safety envelope when away from one of our main facilities. Grid pods, placed at one-mile intervals, ensure that teams are never far away from essential life support systems, supplies, and a place to repair equipment or recuperate and recharge.
Future Narrative
As we continue to expand our reach across the lunar surface, grid pods have become an essential part of our operational strategy. They serve as an extended safety envelope for crews venturing beyond the main base facilities. Strategically placed at one-mile intervals, these compact yet robust outposts ensure that they are never far from critical resources no matter where a team operates.
The Nordic-USA Lunar Grid Pod exemplifies all the advanced learning gained through extensive research in extreme Arctic conditions. It is one of the most reliable and capable modules on the Sea of Tranquility.
Before the grid pods were in place, working in the expanding areas of exploration was a stressful experience. Last year, we began repurposing sections of supply rockets that were being taken out of fleet service to use as grid pod shelters. These days, knowing that there are a few within a mile of our workplace is comforting. Given the diversity of nations involved in lunar exploration, the pods are a bit of a mishmash, but that gives them a certain charm. Some even enjoy taking a break from base operations and the relative solitude of grid pod maintenance duty.
Each grid pod is equipped with life support systems, emergency supplies, communication relays, and basic repair tools, creating a dependable network of safety and sustainability across challenging terrain. They also serve as havens for astronauts to recuperate, recharge, and regroup, whether after long extravehicular activities or during unexpected delays.
Beyond their practical function, grid pods represent a broader philosophy of lunar exploration—resilience through redundancy, and mobility through modular design. As our operations scale and lunar missions become more complex, this grid system provides the security and flexibility needed to thrive in the harshest environment humans have ever called home.
One of the original rocket module to Lunar Grid Pod conversions, Pod A-3 remains a familiar and comforting site after a long day on the Sea of Tranquility.
The Sea of Tranquility’s D-2 site comprises several Lunar Grid Pods. It is the first site to connect retired rocket modules to create different types of zones. Several living habitats and vehicle maintenance pod modules are available at the site.
Lunar Grid Pod C-3 was the first dual-use pod with a pressurized habitat module and an unpressurized service bay.
Japan’s D-8 dual-use Lunar Grid Pod has a safety habitat and an optionally pressurized and external service bay.
The elegant D-4 international Lunar Grid Pod is appreciated for its large window views and expansive interior. It also has the best espresso.
After many years of faithful service, the original Alpha-1 Lunar Grid Pod is still functioning. Now dependent upon the Sea of Tranquility’s Kennedy Base Station for power, it is a few meters from the south entrance. Steeped in history and character, it has remained a favorite across generations of lunar explorers.
Technology
Lunar Grid Pods utilize repurposed sections of retired rockets. Provisions for pressurization, power, environmental controls, and supplies are all fitted, giving the rocket sections a valued second life on the lunar surface.
Signals
Necessity and access often drive innovation in remote locations here on Earth. Harsh conditions on the Lunar surface will likewise necessitate that resources be utilized in various ways, perhaps seeing uses in many forms across many lifetimes, thus increasing the sustainable nature of Lunar exploration.
Futureproof is a series of occasional provocations illustrating possible future paths for technology and culture. Think postcards from the future.
Futureproof: Lunar Mining
The race to secure more helium-3 (He-3) is on! The isotope of helium is rare on Earth due to our shielding atmosphere, but it is plentiful in the lunar soil. He-3 is advancing quantum computing, powering fusion energy facilities, and making the production of in-space propellants possible.
Future Narrative
The race to secure more helium-3 (He-3) is on! The isotope of helium is rare on Earth due to our shielding atmosphere, but it is plentiful in the lunar soil. He-3 is advancing quantum computing, powering fusion energy facilities, and enabling the production of in-space propellants. New companies are growing, offering trans-lunar transport, space mining equipment manufacturing and maintenance, lunar accommodations, and even space medical care. Thankfully, with such a range of space exploration and energy companies all staking claims to lunar plots, an international regulatory board oversees allocations for mining operations. I’m proud to crew one of the Prospector craft, which oversees sustainable lunar mining and exploration operations.
Technology
Helium-3 extraction, storage, and transportation technologies must be developed to harvest the rare but potentially vital isotope from the lunar surface.
Implications
As lunar mining operations become a reality, companies like SpaceX, Astra, Caterpillar, Shell, Exxon, Glencore, Interlune, and other future energy and mining companies will face new opportunities.
International regulatory bodies may need to be established to ensure the future sustainability of lunar mining and exploration.
Early Signals of and Related Concepts
TechCrunch Article on Interlune lunar mining startup.
Lessons from deep-water and deep-space exploration efforts will likely be transferable. See the Futureproof Autonomous Undersea Resource Explorer Postcard.
Futureproof is a series of occasional provocations illustrating possible future paths for technology and culture. Think postcards from the future.
Futureproof: 21st Century Balconies
Well, here it is, right on time. Many debated the merits of allowing aerial delivery by drones within city limits years ago, but now it is commonplace. Breakthroughs in drone safety and making them much quieter were key to growing acceptance. Now, units with balconies in New York command a premium over those without them due to the convenience of balcony delivery.
Future Narrative
Well, here it is, right on time. Many debated the merits of allowing aerial delivery by drones within city limits years ago, but now it is commonplace. Breakthroughs in drone safety and their increased quietness were key to growing acceptance. Now, units with balconies in New York command a premium over those without them due to the convenience of balcony delivery. Our city streets are much quieter and safer, with fewer delivery trucks double-parking to unload packages in the middle of the street. There seems to be a bit more shade at street level, too, offering more relief on hot summer days.
Technology
As drone technology becomes more efficient and quiet, companies like Amazon, FedEx, and Google will work with others to deliver packages directly to customers’ addresses via balconies or rooftop package locker facilities in cities.
Implications
Historically, approximately eighty-six percent of Amazon’s packages weigh less than five pounds. The FAA must work with various delivery companies to effectively stratify airspace for safe drone delivery. Municipalities will also have a hand in setting delivery and architectural amendment policies for those wishing to add balconies to their properties.
Futureproof is a series of occasional provocations illustrating possible future paths for technology and culture. Think postcards from the future.