Imagine having the power to understand your brain, not in a vague or abstract sense, but with precise detail about how it works and how it can be optimized for your well-being. Welcome to the world of Neurotech!

Neurotech, short for neurotechnology, refers to the diverse set of tools and devices designed to improve our understanding and manipulation of the human brain. From devices that can help control physical movement in individuals with paralysis to applications that might enhance our memory or even our mood, neurotech opens up a new realm of possibilities for enhancing human capabilities and overall wellbeing.

The human brain is a complex network of billions of neurons responsible for everything we think, feel, and do. However, its intricacies are not fully understood. Neurotech uses technologies such as brain-computer interfaces, neural implants, and neuroimaging to monitor, understand, and manipulate brain activity. These tools can give us unprecedented insight into how our brains work, which can lead to novel ways of enhancing our cognitive abilities or treating brain-related illnesses.

The potential applications are as vast as the brain itself. In healthcare, neurotech devices like deep brain stimulation implants are already being used to alleviate the symptoms of Parkinson’s disease. In the realm of cognitive enhancement, technologies are being developed that might allow us to learn faster, remember more, or even augment our sensory perception.

Moreover, in mental health, emerging neurotech applications could revolutionize treatments for conditions like depression and anxiety. For instance, transcranial magnetic stimulation, a non-invasive neurotech method, is showing promise as a treatment for major depressive disorder.

One of the most exciting advancements in neurotech is the development of brain-computer interfaces (BCIs). BCIs enable direct communication between the brain and an external device. For instance, BCIs can allow people with paralysis to control prosthetic limbs or computers with their thoughts alone. This groundbreaking technology is opening up new realms of possibility for enhancing human capabilities.

Neurotech holds immense promise for the future, offering the potential for significantly improved quality of life, health, and human capabilities. However, it’s important to approach this new frontier with care. Ethical considerations, such as privacy, consent, and equitable access to technology, must be at the forefront as we develop and deploy these new tools.

FAQ: Neurotechnology

What is neurotechnology?

Neurotechnology refers to a broad range of technologies that interact directly with the nervous system, including the brain, to monitor, restore, augment, or enhance neural function. These technologies can include brain-machine interfaces, neural prosthetics, neuroimaging devices, and neuromodulation therapies.

How does neurotechnology work?

Neurotechnology works by interfacing directly with the nervous system to either gather information or stimulate specific regions. This can be accomplished using various methods such as electrical, optical, or magnetic stimulation, as well as more passive means like monitoring neural activity. The technology may require surgical implantation of devices, or it could be non-invasive, using external sensors and emitters.

What is the relationship between neurotechnology and neuroscience?

Neuroscience is a multidisciplinary scientific field that studies the structure, function, and various aspects of the nervous system, including the brain. It aims to understand the biological mechanisms that underlie cognition, emotion, and behavior. Neurotechnology is a subfield within neuroscience that focuses on the application of technological innovations to study and intervene in neural processes. While neuroscience provides the foundational knowledge and theories about how the nervous system functions, neurotechnology takes this a step further by developing practical tools and devices that can influence or interpret these biological systems.

What are the potential applications of neurotechnology?

Neurotechnology has wide-ranging applications across various domains. In medicine, it could be used for advanced diagnostics, monitoring, and treatment of neurological conditions like epilepsy, Parkinson’s disease, and depression. In the realm of human performance, it could aid in cognitive enhancement or physical rehabilitation. There are also applications in communication technologies, such as thought-controlled devices and even potential brain-to-brain communication.

Are there any risks associated with neurotechnology?

Like any emerging field, neurotechnology comes with its own set of ethical, social, and safety concerns. These can range from data privacy issues — since the technology often deals with highly sensitive information — to potential health risks associated with surgical implants. Ethical concerns also arise about the potential misuse of technology for unauthorized surveillance, cognitive enhancement without informed consent, or creating a divide between those who have access to these technologies and those who do not.

How advanced is the current state of neurotechnology?

Neurotechnology has seen rapid advancements in recent years. Brain-machine interfaces have progressed from basic proof-of-concept demonstrations to more sophisticated systems capable of enabling paralyzed individuals to control external devices. Neuroimaging techniques have also evolved, offering increasingly detailed views of brain activity. Neuromodulation therapies, like deep brain stimulation, are now standard treatments for certain neurological conditions. However, the field is still relatively young, and much work remains to be done in refining these technologies and exploring their full range of applications.

How could neurotechnology be integrated into everyday life?

While still in its nascent stages, neurotechnology is already finding its way into our daily lives. For instance, wearable devices that monitor brain waves for stress management or focus enhancement are commercially available. Advances in prosthetic limbs now allow for more natural, neural-controlled movements. Furthermore, medical treatments for conditions like chronic pain and depression increasingly employ neuromodulation techniques. As the technology matures, it is likely that its impact on daily life will only grow.

Foresight Institute’s work on Neurotech

The Foresight Institute brings together people to work on developing these technologies. We do this by:

• Hosting our Neurotech technical group where we connect scientists, entrepreneurs, and institutional allies who cooperate to advance this field
• Seminar summaries and Youtube channel: We share new videos as well as written summaries of the work discussed in our technical groups
• Hosting technical conferences where we invite top researchers, entrepreneurs, and funders to highlight undervalued areas for progress, and forming lasting collaborations with other actors around shared goals
• In our Neurotech Tech Tree we map ambitious goals in nanotech to help new talent and funders understand how they can help advance this field. By accessing this public map, individuals can glean the current status quo of the field, its future, pinpoint key actors, understand technical capabilities and limitations, its challenges, bottlenecks, and impact areas.
• The Foresight Fellowship is a one-year program committed to giving change-makers the support to accelerate their bold ideas into the future. Our mission is to catalyze collaboration among leading young scientists, engineers, and innovators who work to advance technologies for the benefit of life, such as neurotech.

If you’re curious about Foresight Institute, visit our website https://foresight.org/ to learn more about any of our focus areas:

1. Molecular Machines to better control matter
2. Biotech to reverse aging
3. Computer Science to secure human AI cooperation
4. Neurotech to support human flourishing
5. Spacetech to further exploration
6. Existential Hope to ask what future we want to create

When you find yourself staring into the night sky, do you ever wonder what exists beyond what the eye can see?

Exploring space isn’t just about rocket ships and astronauts, or the thrill of venturing into the unknown. It’s also an intellectual journey, a pursuit filled with promises of new discoveries and advancements that could shape our future. The development and deployment of advanced technologies have played a critical role in facilitating our explorations beyond the earthly realm.

While the vast expanse of space may appear remote and unrelated to our routine existence, it is intricately woven into our daily lives. Indeed, our efforts to comprehend the universe yield considerable benefits on Earth.

Consider the example of satellites. These orbiting devices perform a lot of important functions, enabling global communications, weather prediction, navigation, and fostering scientific research. Thus, activities as commonplace as checking the weather on your mobile, utilizing GPS navigation, or viewing a live international sports event, are all facilitated by satellite technology.

The technology developed for the purpose of space exploration frequently finds its application on Earth. Initially, the drive to reduce the size of electronics was motivated by the requirements of space missions. Today, the manifestation of this effort can be found in the compact devices, such as smartphones, that we carry around. Furthermore, the development of materials capable of withstanding the rigors of space travel has led to advancements in various industries.

The deployment of advanced technology in the field of space exploration has resulted in remarkable achievements. From the historic lunar landing to the placement of rovers like Perseverance on Mars, each accomplishment augments our collective understanding of the universe and stimulates technological advancements.

As our comprehension of the universe expands, so too do the opportunities that lie before us. Future aspirations may include the establishment of human colonies on other planets, the extraction of resources from asteroids, and potentially even interstellar travel. While these may currently appear to be the stuff of science fiction, they are gradually becoming feasible objectives due to technological progress.

As we prepare for further advancements in space exploration, we enable a multitude of possibilities for space exploration, potentially enhancing life on Earth and, possibly in the future, on other celestial bodies.

Q&A

What current space technologies are helping us in our daily lives?

There are several space technologies that have significant impacts on our daily lives. For example, satellites are vital for global communications, weather forecasting, navigation, and scientific research. They make it possible to check the weather on our phones, use GPS for directions, and watch live broadcasts from around the world.

In addition, technologies developed for space exploration often find terrestrial applications. For instance, the insulation materials used in space suits and spacecraft have been adapted for use in firefighting equipment and home insulation. Advanced robotics, initially developed for space missions, are also used in various fields on Earth, from medicine to manufacturing.

Solar panel technology, while not invented for space, was significantly improved for space applications. These advancements have trickled down to Earth, where solar panels are now a crucial source of renewable energy. Lastly, the miniaturization of electronics, originally intended to reduce payload weights for space missions, has given rise to compact devices we use every day, like smartphones. So, space technology has a broad and profound impact on our everyday lives.

Why would we want to venture into space?

Venturing into space opens a gateway to an endless pool of knowledge, innovation, and potential. There are numerous reasons why we would want to explore the cosmos, for example:

• Understanding the Universe: Space exploration allows us to probe deeper into the mysteries of our universe. We can seek answers to fundamental questions, such as: How did the universe form? What is the life cycle of a star? Are there other planets like Earth? As we seek these answers, we also develop a greater understanding of our own place in the cosmos.
• Searching for Extraterrestrial Life: One of the most tantalizing prospects of space exploration is the possibility of finding life beyond Earth. Through studies of other planets and moons in our solar system, and by observing exoplanets in distant solar systems, we strive to find conditions that could support life as we know it — or perhaps life as we don’t yet know it.
• Technological Advancements: Space exploration drives innovation and technological progress. The challenges posed by space missions push us to develop new technologies, techniques, and materials. Many of these innovations find their way into our daily lives. For instance, NASA’s research has led to advancements in areas such as solar energy, artificial limbs, and even baby food.
• Preservation of the Human Species: From a long-term survival perspective, becoming a multi-planetary species could be crucial. Threats such as climate change, nuclear warfare, or a catastrophic asteroid impact could render Earth uninhabitable. By establishing colonies on other planets, we can ensure the continuation of the human race.
• Economic Benefits: Space exploration also holds the potential for significant economic benefits. Resource extraction from celestial bodies, such as mining asteroids for minerals, could create new industries and economies. Additionally, the growing space tourism sector is expected to contribute substantially to the global economy.
• Inspiration and Education: Last but certainly not least, space exploration inspires us. It encourages the next generation to pursue careers in science, technology, engineering, and mathematics (STEM). It’s a testament to what humanity can achieve when we dare to dream big and work collectively towards a goal.

What future applications can we expect from space technology?

As space technology continues to evolve, we can anticipate a myriad of exciting possibilities. These include the potential for establishing human colonies on other planets, mining asteroids for resources, and possibly even achieving interstellar travel. While these ideas may sound like science fiction, they’re becoming increasingly feasible as our technology advances.

What are the ethical considerations in advancing space technology?

As we push the boundaries of space technology, it’s crucial to balance the pursuit of knowledge with the ethical and responsible use of technology. This includes considering the environmental impact of space exploration, the potential for space debris, and the implications of claiming resources beyond our planet. This is where institutions like the Foresight Institute play a critical role, by encouraging the responsible development of advanced technologies and differential technology development.

Foresight Institute’s work on Spacetech

The Foresight Institute brings together people to work on developing various spacetech. We do this by:

• Hosting our Space technical group where we connect scientists, entrepreneurs, and institutional allies who cooperate to advance these technologies
• Seminar summaries and Youtube channel: We share new videos as well as written summaries of the work discussed in our technical groups
• Hosting technical conferences where we invite top researchers, entrepreneurs, and funders to highlight undervalued areas for progress, and forming lasting collaborations with other actors around shared goals
• In our Space Tech Tree we map ambitious goals in spacetech to help new talent and funders understand how they can help advance this field. By accessing this public map, individuals can glean the current status quo of the field, its future, pinpoint key actors, understand technical capabilities and limitations, its challenges, bottlenecks, and impact areas. All to see if we can revolutionize technology by progressing these technologies.
• Our Lander Challenge awards and challenges ambitious young people to build self-landing rockets
• The Foresight Fellowship is a one-year program committed to giving change-makers the support to accelerate their bold ideas into the future. Our mission is to catalyze collaboration among leading young scientists, engineers, and innovators who work to advance technologies for the benefit of life, such as space exploration.

If you’re curious about Foresight Institute, visit our website https://foresight.org/ to learn more about any of our focus areas:

1. Molecular Machines to better control matter
2. Biotech to reverse aging
3. Computer Science to secure human AI cooperation
4. Neurotech to support human flourishing
5. Spacetech to further exploration
6. Existential Hope to explore what future we want to create

As we grow older, signs of aging — like wrinkles, grey hair, and a general decrease in vitality — are seen as inevitable parts of life. But what if they didn’t have to be? What if science could enable us to turn back the clock on our biological age? In the fascinating realm of biotechnology, this is no longer just a rhetorical question. We’re standing on the threshold of a revolutionary era where the rules of aging may be rewritten.

At the core of this revolution is a deeper understanding of the biological process of aging. Aging is a complex process that affects every cell in our bodies. As we age, our cells gradually lose their ability to function optimally, leading to the typical signs of aging and increasing our susceptibility to diseases like Alzheimer’s, heart disease, and cancer. Factors such as damage to our DNA, the buildup of dysfunctional proteins and cells, and chronic inflammation all contribute to this decline.

Enter biotechnology, a field that uses biological systems to develop technologies and products that help improve our lives. It’s given us life-saving drugs, better crop yields, and now, a whole new way to understand and potentially manipulate aging.

Biotechnological tools, like gene editing and stem cell technology, are being used to delve deep into the mechanisms of aging. By manipulating our cells’ inner workings, it might be possible to slow down, halt, or even reverse the signs of aging.

Imagine living longer and healthier lives. Imagine reducing the prevalence of age-related diseases. These are some of the exciting possibilities that aging reversal promises. By repairing the cellular and molecular damage that accumulates over time, our bodies could continue functioning optimally for longer, leading to improved health and increased lifespan. In essence, we could be adding not just years to our lives, but more life to our years.

While this might sound like science fiction, it’s slowly becoming scientific reality. There have been some promising breakthroughs in the field. For instance, researchers have successfully used techniques like telomere extension — artificially lengthening the protective ends of our chromosomes — and senescent cell clearance — removing old cells that no longer function correctly — to reverse aging in human cells and live animals.

The journey of aging reversal through biotechnology is a challenging but exciting one. The idea of a future where aging can be reversed may still seem far-fetched to some, but every journey begins with a single step, and we have taken more than just a few.

We are not there yet, but the path we are on is clear and promising. As we stand on the cusp of this revolutionary change, it’s thrilling to anticipate the transformative potential of biotechnology in our understanding and experience of aging. This isn’t just a scientific journey; it’s a human one, holding the promise of a future where growing old could mean continuing to live a vibrant, healthy life.

In the words of science fiction writer Arthur C. Clarke, “The only way of discovering the limits of the possible is to venture a little way past them into the impossible.” In our quest to rewrite the rules of aging, that’s precisely what we’re doing.

FAQ

Q1: What is aging reversal through biotechnology?

A: Aging reversal refers to the process of utilizing biotechnological tools and interventions to slow, halt, or potentially reverse the biological aging process. This includes repairing cellular and molecular damage that accumulates over time.

Q2: How does biotechnology help in understanding the aging process?

A: Biotechnology provides tools like gene editing and stem cell technology that enable scientists to study aging at a cellular and molecular level. They can investigate how DNA damage, accumulation of dysfunctional proteins and cells, and chronic inflammation contribute to aging, and how these processes could be manipulated.

Q3: What are the potential benefits of aging reversal?

A: Aging reversal could significantly improve health and increase lifespan by keeping our bodies functioning at their prime for longer. It could also reduce the prevalence of age-related diseases like Alzheimer’s, heart disease, and many types of cancer, thereby improving the quality of life as we age.

Q4: Are there any successful examples of aging reversal so far?

A: Yes, there have been promising breakthroughs in this field. For example, researchers have reversed aging in human cells and in live animals using techniques like telomere extension and senescent cell clearance. Telomeres are the protective ends of our chromosomes that shorten as we age. Through a process called telomere extension, scientists have been able to rejuvenate cells, making them behave like younger cells.

Q5: When can we expect aging reversal to be a reality?

A: While we have made significant strides in this field, we are still at the early stages of this journey. A future where aging can be reversed is becoming less far-fetched, but exact timelines are difficult to predict due to the complexity of biological processes involved.

Q6: What are the implications of aging reversal on society?

A: If successful, aging reversal could profoundly impact society. It would not only increase the average human lifespan but also improve the quality of life as we age. It could transform healthcare, economy, and the way we perceive aging and life itself.

Foresight Institute’s work on Longevity and Health Extension

The Foresight Institute brings together people to work on developing these technologies. We do this by:

• Hosting our Biotech & Health Extension technical group where we connect scientists, entrepreneurs, and institutional allies who cooperate to advance biotech.
• Seminar summaries and Youtube channel: We share new videos as well as written summaries of the work discussed in our technical groups
• Hosting technical conferences where we invite top researchers, entrepreneurs, and funders to highlight undervalued areas for progress, and forming lasting collaborations with other actors around shared goals
• In our Longevity Tech Tree we map ambitious goals in biotech to help new talent and funders understand how they can help advance this field. By accessing this public map, individuals can glean the current status quo of the field, its future, pinpoint key actors, understand technical capabilities and limitations, its challenges, bottlenecks, and impact areas. All to see if we can revolutionize technology by progressing biotechnology.
• Our Longevity Prize awards outstanding progress in longevity research — crowdsourced and curated by leading industry experts.
• The Foresight Fellowship is a one-year program committed to giving change-makers the support to accelerate their bold ideas into the future. Our mission is to catalyze collaboration among leading young scientists, engineers, and innovators who work to advance technologies for the benefit of life, such as biotechnology.

If you’re curious about Foresight Institute, visit our website https://foresight.org/ to learn more about any of our focus areas:

1. Molecular Machines to better control matter
2. Biotech to reverse aging
3. Computer Science to secure human AI cooperation
4. Neurotech to support human flourishing
5. Spacetech to further exploration
6. Existential Hope to explore what future we want to create

Just as we’ve built machines to help us move and shape the large-scale world around us, scientists are working on machines so tiny they function on the molecular level — and this could truly change everything. Just like a car engine or a windmill, these tiny machines, known as “molecular machines,” can take energy and use it to do work, but they do it on a scale that is incredibly small — less than the thickness of a human hair. This work could revolutionize everything from medicine to how we build things.

So, what exactly are these molecular machines? In simple terms, they are extremely tiny devices, designed by scientists, that can do a job of some kind. That job could be as simple as moving a molecule from one place to another or as complex as building other molecules. The amazing thing is that they do this at the nanoscale — a scale so small that we can’t see it with the naked eye. For reference, a nanometer is one billionth of a meter!

There are many ways these tiny machines could help us in the future. In medicine, we could use them to deliver medicine directly to the cells that are sick. This would make the medicine much more effective and could reduce the negative side effects. In other areas, like material science, we could use these machines to create materials that can change their properties as needed or even fix themselves when they are damaged. Imagine a scratch on your car fixing itself, or a cracked window in your house healing like a wound!

The possibilities of what we can achieve with molecular machines are only just beginning to be explored. As we learn more and more about how to build and use them, we could start to see them being used in all sorts of ways in our everyday life. They could be a major part of the future of technology, changing how we treat diseases, how we build things, and so much more. It’s been said that we’re at the very start of a new spring — a “nanotechnology spring” — and it’s a very exciting time.

FAQ: Molecular Machines and Nanotechnology

What are molecular machines?

Molecular machines are tiny devices constructed at the molecular or nanoscale that can perform specific tasks or functions. They are built using individual molecules or molecular components and are designed to manipulate and control matter at an extremely small scale.

How do molecular machines work?

Molecular machines operate by utilizing various mechanisms such as molecular motors, switches, or sensors. These mechanisms can be powered by external stimuli such as light, heat, or chemical reactions, allowing the machines to perform specific actions, such as movement, assembly, or chemical transformations.

What is nanotechnology?

Nanotechnology is a multidisciplinary field of science and engineering that focuses on the manipulation and control of matter at the nanoscale. It involves designing and building structures, devices, and systems with precise control over their properties and functions at the nanometer level.

What is the relationship between molecular machines and nanotechnology?

Molecular machines are an integral part of nanotechnology. They are considered one of the key building blocks of nanoscale systems and play a crucial role in the development of nanotechnology applications. Molecular machines enable the precise control and manipulation of materials and processes at the molecular or nanoscale.

What are the potential applications of molecular machines and nanotechnology?

Molecular machines and nanotechnology have vast potential across various fields. In medicine, they could enable targeted drug delivery, diagnostics, and advanced imaging techniques. In electronics, they could contribute to the development of smaller, more efficient devices. Additionally, nanotechnology has applications in energy, materials science, environmental remediation, and many other areas.

Are there any risks associated with nanotechnology and molecular machines?

As with any emerging technology, there are potential risks and concerns associated with nanotechnology and molecular machines. These may include unintended environmental impacts, ethical considerations, and potential health effects. It is important that scientists and researchers actively work to understand and mitigate these risks through responsible development and rigorous safety assessments. Ideally using a differential technology development approach.

How advanced is the current state of molecular machines and nanotechnology?

The field of molecular machines and nanotechnology has seen significant advancements. Scientists have successfully constructed various types of molecular machines, including molecular motors and sensors, and nanotechnology has led to the development of many functional nanomaterials and devices.

For example, nanotechnology is used in everyday items like sunscreens, which often contain nanoparticles of zinc oxide or titanium dioxide to provide better UV protection. It’s also integrated into clothing fabrics for stain and water resistance, and in electronics like smartphones and laptops, where nanoscale transistors offer faster processing and reduced power consumption.

However, molecular machines are still mostly in the research and development stage.

Foresight Institute’s work on Molecular Machines

The Foresight Institute brings together people to work on developing these molecular machines. We do this by:

• Hosting our Molecular Machines technical group where we connect scientists, entrepreneurs, and institutional allies who cooperate to advance nanotech and molecular machines
• Seminar summaries and Youtube channel: We share new videos as well as written summaries of the work discussed in our technical groups
• Hosting technical conferences where we invite top researchers, entrepreneurs, and funders to highlight undervalued areas for progress, and forming lasting collaborations with other actors around shared goals
• In our Molecular Machines Tech Tree we map ambitious goals in nanotech to help new talent and funders understand how they can help advance this field. By accessing this public map, individuals can glean the current status quo of the field, its future, pinpoint key actors, understand technical capabilities and limitations, its challenges, bottlenecks, and impact areas. All to see if we can revolutionize technology by progressing nanotech toward Atomically Precise Manufacturing.
• Our Feynman Prizes are named in honor of the physicist Richard Feynman. In 1959, Feynman gave a talk titled ‘There’s Plenty Of Room At The Bottom’, which is considered by many industry advocates to have inspired the field of nanotechnology itself. With the Feynman Prizes, Foresight Institute wishes to recognize recent and brilliant achievements that contribute deeply to the field of Nanotechnology. The Feynman Prize honors outstanding work early: In 2016, Sir J. Frazer Stoddart shared the Nobel Prize in Chemistry for the design and synthesis of molecular machines.This was only nine years after he received Foresight’s Feynman Prize in Experiment!
• The Foresight Fellowship is a one-year program committed to giving change-makers the support to accelerate their bold ideas into the future. Our mission is to catalyze collaboration among leading young scientists, engineers, and innovators who work to advance technologies for the benefit of life, such as nanotech and molecular machines.

If you’re curious about Foresight Institute, visit our website https://foresight.org/ to learn more about any of our focus areas:

1. Molecular Machines to better control matter
2. Biotech to reverse aging
3. Computer Science to secure human AI cooperation
4. Neurotech to support human flourishing
5. Spacetech to further exploration
6. Existential Hope to ask what future we want to create

We live at the beginning of history, and the future ahead of us is really, really big. That is, if we can get there. A look at today’s media invokes doom, slow demise, catastrophe, and existential angst. But we have to remember that the opposite path is possible, too!

With Foresight Institute’s Existential Hope platform we want to introduce futures of “existential hope” in which humans reach their full potential, succeed at outrageously ambitious endeavors, and realize mutual flourishing for the longterm future.

These worlds are possible from where we stand, and we are more likely to reach them if we know what to aim for than if we do not.

What is longtermism?

The meaning behind “longtermism” is “the idea that positively influencing the longterm future is a key moral priority of our time”. It is a relatively new term that has been trending of late. This is mainly due to the Effective Altruism-movement and the book What we owe the future by Oxford philosopher William MacAskill, in which the author makes the case that most human experiences are yet to be lived.

An estimated 118 billion people have already lived on this planet, but millions of billions, are still to be born. Longtermism is about taking the large scale of the future seriously. It means thinking about the challenges we may face and taking the actions necessary to benefit all these future generations to come.

Because the case for longtermism is simply the idea that future people matter. What we do now affects the lives of our great, great, great grandchildren, and their grandchildren in turn. Depending on what we do, future generations could know unprecedented flourishing — or unprecedented suffering.

Because there is an “if”. And that if consists of the existential risks such as nuclear war, malicious AI, or pandemics, that continue to threaten our planet and civilization. To be able to steer past these risks, we need to encourage meaningful action.

Why we need Existential Hope

Which future is easier for you to imagine? The existential risk future, where civilization eventually falls prey to any of the numerous risks we are facing? Or the existential hope path, where we meet our potential?

Imagining dystopian futures has always been easier for us to envision than positive ones. But having only negative visions for the future is problematic. If most of us can not even imagine positive worlds, how can we possibly hope to build them? We need to begin imagining positive futures, so that we can path the way to building them.

Existentialhope.com is an onboarding platform for action toward creating positive futures filled with optimistic resources on the organizations, projects, and creators out there that actively work toward better worlds, so that, once inspired, you too can kick into action and create the necessary hope we need for the future.

We know that hope alone is no strategy. That is naive. We also do not want to claim that we have the answers. Nick Bostrom captures well the hubris of such a worldview in this quote;

“What if the great apes had asked whether they should evolve into Homo sapiens [and said] ‘Oh, we could have a lot of bananas if we became human’?”

But — we truly do believe that the stakes for the longterm future are high and time is shrinking. So let us lean in and get to work.

We don’t have the answers, but we want to start the conversation.

Getting involved

Join the Existentialhope.com quest and start contributing projects, resources, and more now!

• Receive our monthly Xhope report — a digest of current jobs, latest opportunities and projects of the Existential Hope space
• Follow us on Twitter or Instagram or both
• Visit existentialhope.com for a sneak peek of beautiful futures to come, and contribute

Why Foresight?

For the last 35 years, Foresight Institute has been supporting the beneficial development of high-impact technology to make great futures more likely. We focus on science and technology that is too early-stage or interdisciplinary for legacy institutions to support. Foresight exists as a hub of people, projects and organizations steering towards better futures.

To join a thriving global community around advancing bio, nano, neurotech, computing and space technologies for futures of existential hope, apply to become part of our Discord.

Become a supporting member to set bounties, fund fellows, and co-design the program with us greatly helps us at the Foresight Institute create flourishing futures. Please take a look at our website to find out more.

Don’t give up, humans. A better world is possible, and it’s on us to build it — Drop by drop.

Each month Foresight Institute drops a podcast episode and NFT artwork inspiring hope for the future, bounties to motivate positive action, and a digest of what is currently happening in the Existential Hope space.

Given currently looming existential risks e.g. nuclear war, manufactured pandemic, rogue AI system, ecosystem collapse — it’s legitimate to doubt whether we’ll make it through the century (or even the decade…).

But this is why we need to build immunity against despair, now more than ever. With the fate of our world on the line, we can’t afford to succumb to a fatalism that will prevent us from taking necessary action.

There are paths through humanity’s existential challenges. The Existential Hope project aims to share them, and create community to take those together.

The Existential Hope Drop — your monthly dose of visionary optimism.

With the Existential Hope drop, Foresight injects a monthly dose of positive visions, and opportunities for taking action. The drop is three-fold:

1/ A podcast episode where we interview a visionary person to dig into the deep content with, and discuss the science and technology that can accelerate humanity towards desirable outcomes. We choose scientists and technologists who work at the very edge of innovation, and can see what may lie beyond. The first episode featured Christine Peterson on longevity, and the most recent an interview of Chiara Marletto on the possibilities of physics. We talk to those who can give us an idea of what the possible paths may look like. They lay those out for us, tell us about the obstacles in the way, and how we may overcome them. They tell us the beautiful stories of what could be, if we put the work in. And we listen.

2/ A gallery to decentralize and facilitate funding cutting-edge science. Each month we drop an NFT art piece to share a positive imagined vision for the future — like this cryopreserved dog that has been revived. Think about it — what it would mean for humanity if we managed to resuscitate a living creature? If that gets you a tiny bit excited (or makes you consider cryopreservation for yourself), it means it worked, at least a little bit. But that’s not all. The NFTs are a direct funding mechanism towards scientific research to accelerate those visions.

3/ Since we can’t create what we can’t imagine, Foresight puts bounties out on Gitcoin to be claimed by the most visionary, audacious storytellers out there. Xhope bounties are critical questions with a prize for the most visionary answer: What’s the most important crypto tool we can use to defend against Existential Risks? What’s the most important dynamic for our long-term future? What would be a day in the life when cryopreservation worked ? Imagine a world where no one was worried about survival anymore? Take a look at the bounty board for the full list of prompts.

Getting involved

We’re just taking off. Embark with us on a mission towards better futures. That path is not an easy one: the obstacles along the way are many, and hard. But the more of us aboard, the likelier we are to make it. You can make a difference — really. The goal of the Xhope project is to share a few ways how.

• Receive our monthly Xhope report — a digest of current jobs, latest opportunities and projects of the Existential Hope space
• Follow us on Twitter or Instagram or both
• Visit existentialhope.com for a sneak peek of beautiful futures to come, and contribute

The Existential Hope project

The Hope Drop is but one of many content pieces you can expect on existentialhope.com.

Many projects are dedicated to identifying the threats to human existence but very few offer guidance on what to aim for instead.
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Science and Technology are rapidly developing, creating unfathomable opportunities for our future. The goal of this project is to map the space of both potential risks and possibilities which lie before us, with the hope that such knowledge empowers coordination towards flourishing futures.

We create content that helps visualize positive futures, and list resources and organizations to help onboard and coordinate a global community across future-positive organizations and projects.

Why Foresight?

For the last 35 years, Foresight Institute has been supporting the beneficial development of high-impact technology to make great futures more likely. We focus on science and technology that is too early-stage or interdisciplinary for legacy institutions to support. Foresight exists as a hub of people, projects and organizations steering towards better futures.

To join a thriving global community around advancing bio, nano, neurotech, computing and space technologies for futures of existential hope, apply to our Discord.

Become a supporting member to set bounties, fund fellows, and co-design the program with us. All info on our website.

Longevity: The First Tech Tree

Aaron:

I started playing the game series Civilization back when it was just called… Civilization. Back when there was a throne room (remember that?) and square tiles instead of hexagons. Through the years, one of the unchanging hallmarks of the Civ series has been the technology tree.

Now I’m much older and play Civ a lot less.

Okay well, I’m at least older. And I now work at the Foresight Institute, focused on advancing longevity.

For our biotech group, I recently finished a 166-page overview of longevity technology and I have to admit that even I don’t want to read through it. The idea came up to do a tech tree for longevity, outlining current advances and how they connect with each other to unlock novel capabilities and applications. A dynamic overview of the field would make it easier to coordinate efforts; to find and fund undervalued areas.

The longevity technology tree prototype is looking good so far. There is even a version that allows crowd-sourcing and the first Gitcoin bounties are open for funding.

But this is just a scaffold. It does no good for someone to sit alone in a room and come up with some universal system of reality. We are developing the tech tree through discussions with those working on each node and are open to crowdsourcing methods. Cycles of feedback will lead to iterations of the tree until we get a clear picture of the longevity field.

Each node will be clickable, letting us zoom in on any particular node to see relevant companies, advocacy groups, labs and independent projects. Advanced features can include heatmaps answering how many people and how much funding is employed on a strategy. Others will want to know which open challenges need incentivization through prizes, tokenization and other (crypto)-funding mechanisms. You may want to build your own boutique filters on top.

To contribute to the longevity tree, email aaron@foresight.org

Branching Trees Across Technologies

Allison:

“Longevity” is not the only field that could benefit from a tree. We’re gradually building similar trees through Foresight’s molecular machines, neurotechnology, computing, and space technology programs.

Membranes separating these fields may prove to be pretty permeable. For instance, molecular machines will become useful for unlocking new longevity capabilities. The computing nodes will have something to say about Brain Computer Interface nodes. Which will, in turn, affect longevity nodes. All of them will inform our future in space; from material and energy advances through molecular machines, to human capabilities strengthened by longevity and neurotechnology.

As the branches of different tech trees start interacting with each other, risks will become more apparent, for instance from advanced artificial intelligence. But so will technologies to mitigate them that we can accelerate, such as improved computer security and cryptography.

Some may want to coordinate on desirable paths through the forest of trees, such as this path proposed by Trent McConaghy.

Others will care only about advancing the frontiers of their local domain, company, or project. All may stand to benefit from each other.

Such a long-term project may sound pollyannaish from our current vantage point. One reason is that we have suboptimal tools. To solve this, we’re co-hosting this hackathon to build an app for crowdsourcing and crowdfunding maps of problems. Another reason is that trees take time to grow. But the earlier we seed them, the earlier we start the many cycles of iteration required to harvest their fruits.

We aren’t the first or only gardeners. Balaji Srinivasan and others have independently advanced similar ideas:

The time seems great to plant some seeds and let them grow.

To contribute domain knowledge, technical skills, or constructive criticism, contact allison@foresight.org.