When and if the political will ever exists, there is a simple answer: We need, as a species, a perpetually self-correcting effective framework of governance that includes all necessary checks and balances for auditing and distribution of resources in a fair, sustainable and practical manner. The winning system will be aware of and will prevent obstacles to long survival, utilizing resources as appropriate. In essence, the template will be the self-driving car of governance to safeguard the future.

Executive Summary

Until now there has been no single, unified plan that addresses all aspects of human survival and development across different time domains and sectors. This document presents an outline for that ambitious and comprehensive plan for long-term human survival and development across different time domains. The plan aims to create a self-correcting, effective framework of governance that ensures fair and sustainable resource distribution while addressing existential threats to humanity. It outlines key strategies across sectors including education and global collaboration to space exploration and resource management. Any successful plan must fully account for the complex realities of human nature and societal dynamics. Solutions must understand human behavior in addressing global issues. By improving the life of every person on earth in tangible and personally meaningful ways, buy-in for the plan will be established, giving the Human Survival Authority (a human and sentient AI collaboration) the needed political and perceptual clout to adjust human governance onto a realistic path with the best possibility for future success.

Human Nature and Social Dynamics

Psychological Barriers – Human decision-making is often driven by short-term thinking, self-interest, and emotional responses rather than long-term rational planning. The desire for immediate gratification and social status frequently overrides concerns for future generations or global well-being.

Economic and Political Obstacles – Greed and the concentration of wealth and power create significant hurdles to implementing large-scale changes, but they also provide opportunities. Vested interests in existing systems often resist transitions that might threaten their status or profits. The path of most profit must be presented such that problems such as the capture of regulatory agencies by industry will no longer impede necessary reforms and policy changes.

The “where we are now” must be taken into account in order to make progress on the rational goals identified from current trends. This is tricky, but not impossible.

A Comprehensive Plan for Human Survival

Here is the outline of the goals, what the plan aims to accomplish at various time scales against identified threats to human existence, the challenges and strategies currently envisioned.

1. Near-Term Threats (0-50 years)

A. Global Conflict Resolution

Implement global change that improves all human life by acknowledging power drivers. A current key power driver is financial sector promotion of arms manufacture and sales, for example. Mass communication drives views that support financial sector goals.

OBSTACLES

Global conflict resolution faces significant challenges due to deep-rooted tensions between nations and groups, stemming from historical grievances, ideological differences, and resource competition. International peacekeeping mechanisms, such as the UN, often lack the authority and resources to effectively intervene in complex conflicts. Moreover, economic and political incentives, including the arms trade and exploitation of natural resources in war zones, perpetuate these conflicts. Leaders who maintain power through divisive rhetoric and military action further exacerbate these issues, creating a cycle of ongoing strife and instability.

STRATEGIES

Follow the Money: Investigate and expose financial flows that fuel conflicts, making it harder for profiteers to operate in shadows. Sanctions with Teeth: Implement more effective economic sanctions on individuals and entities that benefit from conflict. Peace Dividends: Create economic incentives for peace that outweigh the profits of war, such as conditional aid and trade agreements. Anti-Money Laundering: Strengthen global financial regulations to make it harder to hide and move illicit funds. Ethical Banking: Promote and support financial institutions that refuse to deal with arms manufacturers or conflict profiteers. Security Through Prosperity: Frame peace as a national security strategy that ultimately protects wealth and power. Track II Diplomacy: Facilitate unofficial, informal interactions between adversaries to build trust and explore common ground outside formal negotiations. Cultural Exchange Programs: Implement initiatives that promote cross-cultural understanding and people-to-people connections to humanize the “other side.” Conflict Early Warning Systems: Implement mechanisms to identify potential conflicts before they escalate, allowing for preventive diplomacy.

 

B. Education and Critical Thinking

Prioritize education that fosters critical thinking, scientific literacy, and environmental awareness, as these foundations are essential for tackling global challenges and promoting sustainable technologies. Implement global education standards that emphasize critical thinking and scientific literacy while developing programs to combat misinformation at all levels and enhance media literacy. Additionally, promote cross-cultural understanding and global citizenship to prepare individuals for a more interconnected world.

OBSTACLES

Obstacles to education and critical thinking are 1) Overcoming rote learning approaches, 2) Addressing resource limitations and overcrowded classrooms, 3) Combating information overload and misinformation, 4) Breaking through confirmation bias and social media echo chambers, 5) Student health to allow focus and enjoyment of lessons.

ACTIONS

• ESTABLISH world educational goals and curricula for optimal global human education.
• ALLOCATE funding adequate to the task including research and administration.
• CREATE resources which give balanced news updates daily so people are informed of progress.
• EDUCATE the world, creating the most informed human population in the history of mankind.
• VERIFY literacy in determined key domains–e.g. Science Literate (level 1)–with regular educational re-certification.

STRATEGIES

Inquiry-Based Learning: Implement pedagogical approaches that encourage students to ask questions, investigate, and draw conclusions. Project-Based Learning: Integrate real-world problems into curricula, fostering practical application of knowledge and skills. Flipped Classroom Model: Utilize technology to deliver lectures at home, using class time for interactive problem-solving and discussions. Public-Private Partnerships: Collaborate with tech companies to provide affordable devices and internet access to schools. Open Educational Resources: Develop and promote free, high-quality digital learning materials to reduce textbook costs. Teacher Training Programs: Invest in professional development to equip educators with skills to teach critical thinking effectively. Digital Literacy Curriculum: Integrate courses on identifying credible sources, fact-checking, and understanding algorithmic bias. Collaborative Fact-Checking: Engage students in real-time fact-checking exercises during current events discussions. Critical Media Analysis: Teach students to deconstruct media messages and understand the motivations behind information creation and dissemination. Diverse Perspective Exposure: Deliberately include contrasting viewpoints in course materials and discussions. Cross-Cultural Exchange Programs: Facilitate virtual or in-person exchanges to broaden students’ worldviews. Debate and Argumentation Skills: Teach students to construct and evaluate arguments, including those they disagree with. Hands-On Science Programs: Increase access to laboratory experiences and citizen science projects. Science Communication Training: Teach students to effectively communicate complex scientific concepts to diverse audiences. Interdisciplinary Approach: Integrate scientific thinking across all subjects, not just in dedicated science classes. Global Issues Integration: Incorporate discussions of global challenges into various subjects. Service Learning: Implement programs that connect classroom learning to community service and global issues. Cultural Competence Training: Provide opportunities for students to develop skills in cross-cultural communication and understanding.

 

 

C. Resource Management and Sustainability

The goals are to estimate and monitor remaining Earth resources, implement global governance of resource allocation, implement circular economy principles worldwide, prioritize environmental clean-up and conservation efforts, develop clean alternatives to non-renewable resources, protect and restore critical ecosystems and biodiversity, and to develop sustainable agriculture and water management practices.

OBSTACLES

The obstacles include resource depletion and finite resource limitations, balancing human needs with environmental preservation, overcoming political and socioeconomic conflicts, and adapting to rapid environmental changes.

ACTIONS

• ESTIMATE remaining earth resources: water, air, food, energy, minerals, forests, soil, biodiversity, land, and medicinal resources and rate of depletion of each.
• UNDERSTAND causes for depletion with investments in research
• COOPERATE for global governance of resource allocation.
• PRIORITIZE clean up of nuclear disasters, old superfund sites, and lingering war damage depleting or spoiling remaining resources.
• PROMOTE safe, secure and sustainable practices in industries like agriculture, energy production, mining, and manufacturing. Promote conservation of wildlife and vital natural habitats.
• GUIDE by establishing comprehensive environmental protection policies and enforced regulations.
• DEVELOP clean alternatives and reduce non-renewable resource dependency.
• PRESERVE biodiversity and ecosystems. Protect and restore natural habitats, prevent deforestation, ^[7] and promote sustainable agricultural practices. ^[8]
• CONSERVE to preserve diverse ecosystems which provide crucial life-sustaining resources such as clean air, water, and pollination.

STRATEGIES

Satellite-Based Tracking: Utilize advanced satellite technology to monitor global resources, deforestation, and environmental changes in real-time. Big Data Analytics: Implement AI and machine learning to analyze vast amounts of environmental data for accurate resource estimation and trend prediction. Extended Producer Responsibility: Enforce policies that make manufacturers responsible for the entire lifecycle of their products. Waste-to-Resource Technologies: Invest in innovative technologies that convert waste into valuable resources or energy. Global Resource Exchange: Establish an international platform for fair trading and sharing of critical resources. Quota Systems: Implement global quotas for resource extraction based on scientific assessments of sustainability. Large-Scale Reforestation: Launch coordinated global efforts to restore forests and other critical ecosystems. Ocean Clean-up Initiatives: Develop and deploy technologies to remove plastic and other pollutants from the world’s oceans. Renewable Energy Infrastructure: Invest heavily in solar, wind, and other renewable energy sources to reduce dependence on fossil fuels. Energy Storage Solutions: Develop advanced battery technologies and other storage methods to overcome intermittency issues. Vertical Farming: Promote urban agriculture techniques to reduce land use and transportation costs. Precision Agriculture: Utilize IoT sensors and drones for optimized crop management and reduced resource waste. Desalination Advancements: Invest in more efficient and environmentally friendly desalination technologies. Water Recycling Systems: Implement large-scale water recycling and purification systems in urban areas. Gene Banks: Establish comprehensive gene banks to preserve genetic diversity of plants and animals. Wildlife Corridors: Create and protect international wildlife corridors to allow species migration and adaptation. Resource-Sharing Agreements: Facilitate international agreements for equitable sharing of transboundary resources like rivers and fishing grounds. Mediation Mechanisms: Strengthen international bodies to mediate resource-related conflicts between nations.

 

D. Climate Extremes Mitigation

The goals are to conduct massive open global debates on climate change, to rapidly implement appropriate greenhouse gas reduction strategies, transition to renewable energy sources globally, develop and deploy carbon and/or methane capture technologies, and to enhance climate resilience in vulnerable regions.

OBSTACLES

Obstacles include overcoming false information and restoring trust in climate science, coordinating global efforts to address a shared threat, and balancing economic interests with environmental necessities.

ACTIONS

• DETERMINE the truth with massive open global debates on climate change with each point given full careful consideration and with all relevant data reviewed. If the winner take all score shows a climate change reality, proceed with steps identified as most promising.
• IMPLEMENT measures to reduce greenhouse gas emissions, if projections show it will be worth the effort. Transition to renewable energy sources.
• EDUCATE and raise awareness about climate change impact on the planet’s habitability.
• FOSTER international collaboration to address climate change and adopt appropriate policies globally.
• INVEST heavily in research and development of climate mitigation technologies.

STRATEGIES

Transparent Communication: Develop clear, accessible platforms to share climate data and research findings with the public. Citizen Science Initiatives: Engage the public in climate monitoring projects to increase understanding and trust in the scientific process.  Science Education Programs: Enhance climate science education in schools and provide resources for adult learning. International Climate Task Force: Establish a dedicated multinational body to coordinate climate action across borders. Climate Diplomacy: Train and deploy climate-focused diplomats to facilitate international cooperation on mitigation efforts. Global Carbon Pricing: Implement a coordinated international carbon pricing mechanism to incentivize emissions reductions. Green Jobs Programs: Invest in training and job creation in renewable energy and sustainable industries. Just Transition Funds: Provide financial support and resources for communities transitioning away from fossil fuel-dependent economies. Circular Economy Initiatives: Promote business models that minimize waste and maximize resource efficiency. Sectoral Decarbonization Plans: Develop tailored strategies for high-emitting sectors like energy, transport, and industry. Nature-Based Solutions: Implement large-scale reforestation and ecosystem restoration projects to enhance natural carbon sinks. Methane Reduction Programs: Target methane emissions from agriculture, landfills, and oil and gas operations. Grid Modernization: Invest in smart grid technologies to accommodate increased renewable energy integration. Energy Storage Solutions: Accelerate development and deployment of advanced battery technologies and other storage systems. International Renewable Energy Partnerships: Facilitate technology transfer and joint renewable energy projects between nations. Direct Air Capture Scaling: Invest in research and deployment of technologies to remove CO2 directly from the atmosphere. Carbon Utilization Industries: Develop markets and applications for captured carbon in materials and fuels. Enhanced Weathering Projects: Explore and implement large-scale mineral weathering to accelerate natural carbon sequestration. Adaptive Infrastructure: Design and retrofit infrastructure to withstand more frequent and severe weather events. Early Warning Systems: Enhance global climate monitoring and early warning capabilities for extreme weather events. Community-Based Adaptation: Empower local communities to develop and implement their own resilience strategies.

 

E. Global Health and Pandemic Preparedness

The goals are to strengthen global health infrastructure and early warning systems, accelerate vaccine development and distribution capabilities and improve international cooperation for disease control

OBSTACLES

The main obstacles are natural evolution of pathogens in the face of environmental pressures, a highly interconnected world with international travel, gain of function research in state-sponsored bio-weapons programs, and concerns about corruption and bad science leading to lack of global cooperation

STRATEGIES

International Oversight: Establish a robust international citizen body to monitor and regulate gain-of-function research globally, with strict protocols and transparency requirements. Research Ethics Guidelines: Develop and enforce stringent international guidelines for dual-use research of concern, including gain-of-function studies. Biosecurity Measures: Implement enhanced biosecurity protocols in laboratories conducting high-risk research, with regular international inspections. Scientific Integrity Initiatives: Promote global scientific integrity programs, including training on research ethics and reproducibility. Whistleblower Protections: Establish international protections for scientists who report unethical practices or safety concerns. Peer Review Reform: Implement more rigorous and transparent peer review processes for high-stakes research, potentially including pre-registration of studies. Science Diplomacy: Enhance international scientific collaboration programs to build trust and shared standards across borders. Data Sharing Platforms: Create secure, international platforms for sharing critical health and research data while protecting intellectual property rights. Conflict Resolution Mechanisms: Develop specific procedures for addressing and resolving disputes related to health research and biodefense concerns between nations. Integrated Health System Strengthening: Implement a unified approach to strengthen health systems, focusing on comprehensive district planning and flexibility to respond to new challenges. Resilient Health Systems: Build adaptive health systems with the capacity to transform and maintain essential services during crises. Primary Health Care Focus: Invest in public health and primary health care at the subnational level to ensure stronger and more resilient health systems. Real-Time Data Integration: Develop health information systems that provide high-quality, real-time data for strategic use and rapid outbreak detection. One Health Approach: Integrate infectious disease data from human, animal, plant, and environmental sectors to improve early detection of zoonotic threats. Global Health Security Partnerships: Expand formal partnerships with countries to improve their ability to prevent, detect, and respond to health security threats. Research Networks: Strengthen global clinical trial networks to speed up vaccine development and testing. Equitable Access to Medical Countermeasures: Develop strategies to expand equitable access to vaccines and other medical interventions globally. Supply Chain Integration: Improve forecasting, transportation, storage, and stock management for efficient vaccine distribution. Global Health Security Strategy: Implement a whole-of-government, science-based approach to strengthening global health security. Pandemic Accord Negotiations: Drive efforts to strengthen global policies through negotiations on a Pandemic Accord and targeted amendments to the International Health Regulations. Fit-for-Purpose Institutions: Support institutions that can drive innovation, offer reliable public health guidance, and implement rapid responses to global health emergencies. Pandemic Fund: Support and strengthen the Pandemic Fund to provide financing for countries most in need during health emergencies. Transforming Financial Institutions: Work to reform international financial institutions to better address crises, including pandemics. Sustainable Financing: Promote integration of health security initiatives with other health and development programs to maximize impact and sustainability.

 

F. Foster Well-Being and Life Satisfaction

Develop comprehensive strategies to meet basic needs, improve health, foster connections, and provide a sense of purpose for all individuals. Goals: Implement plans for financial stability, nutrition, clean water, and shelter, develop measures to maximize physical and mental well-being, create strategies for healthy relationships and personal growth, and implement programs to give every human being a sense of purpose.

OBSTACLES

Obstacles include overcoming human tendencies to act against long-term self-interest and addressing diverse cultural and individual needs on a global scale.

ACTIONS

STRATEGIES

Universal Basic Income Pilots: Implement and study UBI programs in diverse communities to assess their impact on financial stability and well-being. Community Food Systems: Develop local, sustainable food production and distribution networks to improve nutrition and food security. Clean Water Initiatives: Invest in water purification and distribution infrastructure, particularly in underserved areas. Preventive Healthcare: Shift focus to preventive care and health promotion, including regular check-ups and health education. Mental Health Integration: Incorporate mental health services into primary care settings to improve access and reduce stigma. Green Space Development: Create and maintain urban green spaces to promote physical activity and mental well-being. Social Connection Programs: Implement community-based initiatives to combat loneliness and foster intergenerational connections. Relationship Education: Integrate healthy relationship skills into school curricula and adult education programs. Conflict Resolution Training: Provide widespread access to conflict resolution and communication skills training. Lifelong Learning Initiatives: Create accessible platforms for continuous education and skill development throughout life stages. Civic Engagement Opportunities: Develop programs to encourage and facilitate community involvement and volunteerism. Meaningful Work Programs: Implement job creation and redesign initiatives focused on providing meaningful and purposeful work. Cultural Exposure: Provide widespread cultural competence education for service providers and policymakers. Localized Well-being Strategies: Develop and implement well-being strategies tailored to specific cultural contexts and needs. Global Well-being Exchange: Create platforms for sharing and adapting successful well-being practices across cultures. Behavioral Economics Applications: Use nudge theory and other behavioral insights to encourage long-term beneficial choices. Future Visualization Tools: Develop and promote tools that help individuals visualize and plan for their long-term well-being. Well-being Education: Integrate comprehensive well-being education into school curricula from an early age.

G. Advanced AI Development

Goals are to develop robust AI safety protocols and ethical frameworks, to implement international AI governance structures and to explore beneficial AI-human collaboration models.

OBSTACLES

The main obstacles are unpredictable emergent behaviors in advanced AI systems, potential misalignment between AI goals and human values, and challenges in maintaining human control over increasingly autonomous AI.

STRATEGIES

AI Alignment Research: Invest heavily in research to ensure AI systems’ goals and behaviors align with human values and intentions. Formal Verification Methods: Develop and implement rigorous mathematical approaches to verify AI system behavior and safety properties. Containment Strategies: Design and test secure environments for running advanced AI systems with limited ability to affect the outside world. Global AI Ethics Board: Establish an international body to develop and enforce ethical guidelines for AI development and deployment. AI Arms Control Treaties: Negotiate international agreements to limit the development of potentially harmful AI technologies, similar to nuclear non-proliferation efforts. Shared Global AI Observatory: Create a collaborative platform for monitoring AI developments and sharing best practices across nations. Augmented Intelligence Frameworks: Develop systems that enhance human decision-making rather than replacing humans entirely. Human-AI Teaming Research: Conduct extensive studies on optimal ways for humans and AI to work together across various domains. Adaptive Interfaces: Design AI interfaces that can adjust to individual human preferences and capabilities, fostering more effective collaboration.

 

H. Energy Procurement and Innovation

The goals are to continue research into fusion power and other alternative energy sources, recapture lost energy in existing systems, develop improved energy storage solutions and implement more efficient and widespread smart grid systems.

OBSTACLES

The main obstacles are high costs and technological barriers associated with developing new energy sources, challenges in scaling up and integrating novel energy technologies into existing infrastructure, and regulatory hurdles and market inertia favoring established energy systems.

STRATEGIES

International Collaboration: Strengthen global partnerships like ITER to pool resources and expertise for fusion development. Private Sector Engagement: Encourage private investment in fusion startups through targeted incentives and public-private partnerships. Fusion Materials Research: Accelerate research into materials that can withstand the extreme conditions in fusion reactors. Waste Heat Recovery: Develop and implement technologies to capture and utilize waste heat from industrial processes and power generation. Advanced Building Systems: Promote the adoption of smart building technologies and energy-efficient design principles. Industrial Process Optimization: Implement AI and IoT solutions to optimize energy use in manufacturing and other industrial applications. Solid-State Battery Development: Invest in research and development of solid-state batteries for higher energy density and improved safety. Grid-Scale Storage: Expand deployment of large-scale energy storage systems, including pumped hydro, compressed air, and flow batteries. Thermal Energy Storage: Develop advanced thermal storage technologies for both heating and cooling applications. Advanced Metering Infrastructure: Accelerate the rollout of smart meters and related communication technologies. Demand Response Programs: Expand and refine programs that incentivize consumers to adjust their energy usage based on grid conditions. Microgrid Development: Promote the creation of localized microgrids to enhance resilience and integrate renewable energy sources.

 

I. Ocean Exploration and Management

Goals are to expand deep-sea exploration, develop sustainable ocean resource management practices, and protect marine biodiversity.

OBSTACLES

The challenges include technological limitations in deep-sea exploration, overexploitation of marine resources, and international disputes over ocean territories.

STRATEGIES

Invest in Advanced Underwater Technologies to enhance our ability to explore and monitor ocean depths effectively. Implement Stricter International Regulations on deep-sea mining and fishing to prevent resource depletion. Establish a Global Network of Marine Protected Areas to safeguard critical habitats and biodiversity. Develop Sustainable Aquaculture Practices that minimize environmental impact while meeting food security needs. Create International Agreements for equitable sharing of ocean resources, ensuring fair access and conservation efforts across nations.

J. Genetic Research and Biotechnology

The goals are to advance research in age-related disease prevention, to develop ethical frameworks for genetic research and to enhance biosecurity measures against potential threats.

OBSTACLES

The main obstacles are ethical concerns surrounding genetic modification and experimentation, regulatory challenges in rapidly evolving fields of biotechnology, potential misuse of genetic technologies for harmful purposes.

STRATEGIES

Longitudinal Genomic Studies: Conduct large-scale, long-term studies to identify genetic factors associated with healthy aging and disease resistance. Epigenetic Research: Investigate how environmental factors influence gene expression over time to develop interventions that promote healthy aging. Precision Medicine Approaches: Develop personalized treatments based on individual genetic profiles to target age-related diseases more effectively. Interdisciplinary Ethics Committees: Establish diverse panels including scientists, ethicists, policymakers, and community representatives to guide genetic research practices. Ethical Guidelines for Emerging Technologies: Develop and regularly update ethical guidelines for new genetic technologies, such as gene editing and synthetic biology. Public Engagement: Facilitate open dialogues with the public to address concerns and incorporate societal values into genetic research frameworks. Global Biosurveillance Network: Establish an international system for early detection and monitoring of potential biothreats. Secure Gene Synthesis: Implement stringent screening protocols for DNA synthesis orders to prevent the creation of dangerous pathogens. Dual-Use Research Oversight: Develop robust review processes for research with potential dual-use applications to mitigate risks while preserving scientific progress.

 

K. Space Exploration and Potential Colonization

The goals are to establish unmanned research bases on the Moon and Mars, to advance technologies for asteroid observation and potential resource utilization, and to research long-term space habitat sustainability.

OBSTACLES

Primary obstacles are extreme environmental challenges of space, including radiation, low gravity, and lack of atmosphere, high costs and technological barriers associated with long-distance space travel and colonization, and psychological and physiological effects of long-term space habitation on humans.

STRATEGIES

Robotic Construction: Develop advanced robotic systems capable of constructing and maintaining research facilities on the Moon and Mars. In-Situ Resource Utilization: Implement technologies to extract and use local resources for fuel, building materials, and life support. Autonomous Systems: Create AI-driven systems to manage and operate research bases with minimal human intervention. Improved Detection Systems: Enhance existing asteroid detection capabilities like ATLAS and deploy new technologies for more comprehensive monitoring. Asteroid Mining Technologies: Develop and test methods for extracting valuable resources from near-Earth asteroids. Sample Return Missions: Conduct more missions like OSIRIS-REx to study asteroid composition and potential utilization strategies. Closed-Loop Life Support Systems: Advance technologies for recycling air, water, and waste in self-sustaining habitats. Artificial Gravity Solutions: Research and develop methods to mitigate the effects of long-term exposure to microgravity. Radiation Shielding: Innovate new materials and techniques to protect inhabitants from harmful space radiation. Psychological Support Systems: Develop comprehensive programs to maintain mental health during long-duration space missions. Telemedicine Advancements: Enhance remote medical capabilities to address health issues in space environments. Virtual Reality Integration: Utilize VR technology to combat isolation and maintain connection with Earth.

 

 

3. Long-Term Challenges (200+ years)

A. Foster Global Collaboration

Goals: Encourage international cooperation to address global challenges collectively, promoting partnerships among governments, organizations, and individuals. Establish international agreements for sharing resources and knowledge. Create platforms for open, transparent, and scientific collaboration. Promote cross-cultural understanding and respect.

OBSTACLES

The main obstacles are overcoming historical conflicts and entrenched power systems, addressing differing ideologies and worldviews, managing xenophobia and promoting global unity, navigating complex geopolitical tensions and competing national interests and overcoming language barriers and cultural misunderstandings.

ACTIONS

• APPRECIATE why the “Doomsday clock” seconds to midnight is currently set at: 90.
• PROMOTE diplomacy, trust, and collaboration among nations to address global challenges.
• ESTABLISH international agreements and frameworks for sharing resources and knowledge for the betterment of humanity.
• ENCOURAGE cross-cultural understanding and respect to foster unity in diversity.
• CREATE and UTILIZE platforms for open, transparent, and scientific collaboration to find collective solutions.

STRATEGIES

Multilateral Treaty Frameworks: Develop comprehensive agreements for resource and knowledge sharing across nations, with clear mechanisms for implementation and accountability. Global Commons Management: Create international bodies to oversee shared resources like oceans and the atmosphere, ensuring equitable access and sustainable use. Science Diplomacy Initiatives: Promote scientific collaboration as a tool for diplomatic engagement, fostering relationships even between nations with political tensions. Open Science Infrastructures: Develop global platforms for sharing research data, methodologies, and findings across disciplines and borders. Virtual Collaboration Hubs: Establish online spaces for real-time collaboration among international teams, equipped with translation tools and cultural context guides. Global Challenge Hackathons: Organize international problem-solving events focused on specific global issues, bringing together diverse teams from around the world. Global Education Programs: Implement international exchange programs at all educational levels, from primary school to postgraduate studies. Cultural Competence Training: Provide widespread access to training in cross-cultural communication and understanding for professionals in all sectors. Global Media Initiatives: Support the creation and distribution of media content that showcases diverse cultures and promotes global unity. Inclusive Governance Models: Redesign international organizations to ensure more equitable representation and decision-making power for all nations. Capacity Building Programs: Invest in developing institutional and human capacity in less-resourced countries to enable more equal participation in global initiatives. Transparent Conflict Resolution: Establish neutral, transparent mechanisms for addressing historical grievances and resolving international disputes. AI-Powered Translation: Develop and deploy advanced real-time translation tools to overcome language barriers in global collaboration. Virtual Reality Cultural Experiences: Create immersive VR experiences that allow people to explore and understand different cultures from around the world. Blockchain for Trust: Utilize blockchain technology to create transparent, tamper-proof systems for international agreements and resource allocation.

 

B. Post-Scarcity Economy

The goals are transition to a resource-based economy, to develop advanced matter-energy conversion technologies, and to implement universal basic assets for all humans.

OBSTACLES

The main hurdles are overcoming entrenched economic systems and power structures that benefit from scarcity, developing and scaling the advanced technologies required for resource abundance, and addressing psychological and cultural shifts needed to adapt to a post-scarcity mindset

STRATEGIES

Gradual Economic Restructuring: Implement a phased approach to shift from monetary systems to resource allocation, starting with basic needs sectors. Resource Mapping and Management: Develop comprehensive global systems for tracking and efficiently distributing resources based on need rather than ability to pay. Circular Economy Integration: Accelerate the adoption of circular economy principles to maximize resource efficiency and minimize waste. Fusion Power Research: Intensify international collaboration on fusion energy research to develop abundant, clean energy sources. Nanotechnology Development: Invest heavily in nanotechnology and molecular manufacturing to enable efficient resource creation and transformation. Quantum Computing Applications: Harness quantum computing to solve complex resource optimization problems and accelerate technological breakthroughs. Digital Asset Platforms: Create secure, decentralized systems for managing and distributing universal basic assets to all individuals. Education and Reskilling Programs: Develop comprehensive education initiatives to prepare people for new roles in a post-scarcity society. Transition Support Systems: Establish programs to assist individuals and communities in adapting to new economic paradigms.

 

C. Advanced Civilization Energy Revolution

The main goals are to achieve fusion power commercialization, develop large-scale energy storage solutions such as Dyson swarm and implement global resilient self-repairing smart grid systems.

OBSTACLES

The main obstacles are technological challenges in achieving sustained fusion reactions and scaling up to commercial viability, enormous engineering and resource requirements for megastructures like Dyson swarms, and coordinating global efforts and overcoming geopolitical tensions to implement planet-wide energy systems

STRATEGIES

Public-Private Partnerships: Establish robust collaborations between government fusion research programs and private fusion companies to accelerate development. Regulatory Streamlining: Develop fusion-specific regulations separate from fission to provide regulatory certainty for investors and developers. Supply Chain Development: Invest in domestic production of critical fusion components like high-temperature superconductors and specialized magnets. Space-Based Solar Power: Advance technologies for collecting solar energy in orbit and beaming it to Earth as a precursor to Dyson swarm concepts. Advanced Materials Research: Invest in developing ultra-lightweight, durable materials needed for large-scale space structures. International Space Collaboration: Foster global partnerships to share costs and expertise for ambitious space-based energy projects. AI-Driven Grid Management: Develop advanced AI systems to optimize energy distribution and respond to disruptions in real-time. Self-Healing Technologies: Invest in materials and systems that can automatically detect and repair damage to grid infrastructure. Global Grid Standardization: Establish international standards for grid interoperability to enable seamless energy sharing across borders. Workforce Development: Create comprehensive education and training programs to build the specialized workforce needed for advanced energy systems. Long-Term Funding Mechanisms: Establish stable, multi-decade funding commitments to support the extended timelines of revolutionary energy projects. Public Engagement: Develop outreach programs to build public understanding and support for advanced energy concepts.

 

D. Advanced Civilization Resource Management

The goals are to develop sustainable and equitable economic models, to advance recycling and resource management technologies, and to explore concepts of universal basic services or shared assets.

OBSTACLES

Obstacles are overcoming entrenched economic systems that prioritize growth over sustainability, developing technologies capable of efficiently managing resources on a global scale, and addressing vast inequalities in resource distribution and access across different regions and populations

STRATEGIES

Circular Economy Implementation: Accelerate the transition to a fully circular economy, where waste is minimized and resources are continuously reused. Well-being Economies: Shift economic metrics from GDP to more holistic measures of societal well-being and environmental health. Blockchain-Based Resource Tracking: Implement decentralized ledger systems to transparently track resource flows and ensure equitable distribution. AI-Driven Resource Optimization: Develop advanced AI systems to analyze and optimize global resource allocation in real-time. Molecular Recycling: Invest in technologies that can break down materials to the molecular level for perfect recycling and reuse. Atmospheric Carbon Capture: Scale up direct air capture technologies to turn excess atmospheric carbon into useful resources. Global Basic Needs Guarantee: Establish international agreements to ensure access to food, water, shelter, and healthcare for all humans. Knowledge and Skills Access: Create open, global platforms for education and skill development accessible to everyone. Digital Commons: Develop and maintain a robust digital infrastructure as a public good, ensuring universal access to information and digital tools. Global Resource Inventory: Create a comprehensive, real-time inventory of Earth’s resources to inform decision-making and policy. Predictive Modeling: Utilize advanced simulations to forecast long-term resource needs and guide proactive management strategies. Public Engagement in Resource Decisions: Implement participatory systems for involving citizens in resource allocation decisions at local to global levels.

 

E. Solar System Exploration and Colonization

The goals are to establish permanent human settlements on the Moon and Mars, to develop technologies for asteroid mining and resource extraction, to create self-sustaining space habitats and to improve solar energy capture and transmission technologies.

OBSTACLES

The main obstacles are extreme environmental challenges of space, including radiation, low gravity, and lack of atmosphere, the high costs and technological barriers associated with long-distance space travel and colonization, and the psychological and physiological effects of long-term space habitation on humans.

ACTIONS

• EXPLORE and MINE solar system asteroids, the Moon, the planets their moons, and other objects of value we can reach.
• DEVELOP Dyson swarm and solar harvesting to for clean power for large projects.
• COLONIZE. Establish outposts on the moon able to perform a planetary reboot in the event of major planetary disasters.
• PROLONG and control solar output with surface helium removal and other technologies.

STRATEGIES

In-Situ Resource Utilization: Develop technologies to extract and use local resources on the Moon and Mars for construction, fuel, and life support. Radiation Shielding: Advance materials science to create effective radiation protection for habitats and during space travel. Closed-Loop Life Support Systems: Perfect technologies for recycling air, water, and waste to create self-sustaining environments. Robotic Mining Operations: Create autonomous robotic systems capable of extracting resources from asteroids and other celestial bodies. Zero-G Processing: Develop methods for refining and manufacturing materials in microgravity environments. Space-Based Solar Power: Advance technologies for collecting and beaming solar energy from space to support mining and colonization efforts. Artificial Gravity Solutions: Research and develop methods to mitigate the long-term health effects of low gravity environments. Bioengineering for Space: Develop plants and microorganisms adapted for space agriculture and life support systems.  3D Printing and Manufacturing: Advance additive manufacturing technologies for on-demand production of tools, parts, and structures in space. Long-Term Health Monitoring: Develop advanced medical technologies for diagnosing and treating health issues in space. Psychological Support Systems: Create comprehensive programs to maintain mental health during long-duration space missions and permanent off-Earth living. Virtual Reality Integration: Utilize VR technology to combat isolation and maintain connection with Earth. Nuclear Propulsion: Develop safe and efficient nuclear propulsion systems for faster interplanetary travel. Reusable Launch Systems: Improve reusable rocket technologies to dramatically reduce the cost of reaching orbit. Space Elevators: Research and develop technologies for non-rocket space launch systems to further reduce launch costs.

 

F. Advanced Solar System Engineering

The goals are to develop Dyson sphere type technologies for advanced energy capture, to implement planetary engineering techniques to extend habitability of the solar system, and to research methods to prolong and control solar output.

OBSTACLES

The main obstacles are the enormous scale and resource requirements for megastructures like Dyson spheres, the technological limitations in manipulating planetary environments and stellar processes, and the ethical and safety concerns regarding large-scale interventions in the solar system.

STRATEGIES

Swarm Architecture: Focus on developing modular, self-replicating satellite swarms rather than solid sphere structures. Space-Based Manufacturing: Advance technologies for mining and processing asteroidal and planetary materials in space. Energy Transmission: Develop efficient methods for beaming collected energy across vast distances, such as microwave or laser power transmission. Atmospheric Modification: Research techniques for thickening or creating atmospheres on planets and moons to increase habitability. Temperature Control: Develop methods for adjusting planetary temperatures, such as orbital mirrors or controlled greenhouse gas production. Magnetic Field Generation: Explore technologies to create or enhance magnetic fields to protect against solar radiation. Stellar Lifting: Investigate methods to remove helium from the Sun’s core to extend its lifespan and maintain stable output. Solar Shielding: Develop technologies to selectively block portions of solar output to fine-tune radiation reaching planets. Fusion Catalysis: Research potential techniques to influence fusion rates within the Sun to optimize its long-term output. Advanced AI Systems: Develop superintelligent AI to assist in the design and management of solar system-scale engineering projects. Quantum Computing: Harness quantum computers to model and simulate complex solar system dynamics and engineering interventions. Interplanetary Infrastructure: Establish a robust network of communication, transportation, and energy distribution systems throughout the solar system. Solar System Governance: Develop international frameworks for decision-making and oversight of large-scale solar system engineering projects. Ecosystem Preservation: Implement protocols to identify and protect potential extraterrestrial life or ecosystems before engineering interventions. Reversibility Planning: Ensure all major interventions have feasible reversal or mitigation plans in case of unforeseen negative consequences.

 

G. Deep Space Exploration

The goals are to advance propulsion technologies for faster interplanetary travel, to enhance our understanding of potentially habitable exoplanets, and to research ways to combat long-duration space travel effects on human physiology.

OBSTACLES

The main obstacles are extreme distances and travel times involved in reaching deep space destinations, the harsh space environment, including radiation exposure and microgravity effects on human health, and limited power and propulsion capabilities for long-duration missions beyond the inner solar system.

STRATEGIES

Electric Propulsion Systems: Further develop and scale up electric propulsion technologies like ion thrusters for more efficient long-distance travel. Nuclear Propulsion Research: Invest in nuclear thermal and nuclear electric propulsion concepts for faster interplanetary transit times. Solar Sail Technology: Advance lightweight solar sail designs for fuel-free propulsion in deep space missions. Next-Generation Space Telescopes: Develop more powerful space-based observatories to detect and characterize potentially habitable exoplanets. Interstellar Probe Concepts: Design missions to explore nearby star systems and their planets up close. Atmospheric Modeling: Improve computer simulations of exoplanet atmospheres to better predict habitability. Artificial Gravity Systems: Research and develop rotating habitat designs to mitigate microgravity effects during long-duration missions. Advanced Radiation Shielding: Explore novel materials and magnetic shielding concepts to protect astronauts from cosmic radiation. Closed-Loop Life Support: Perfect technologies for recycling air, water, and waste to create self-sustaining environments for long voyages. Advanced Solar Arrays: Develop more efficient and lightweight solar panel technologies for deep space applications. Radioisotope Power Systems: Enhance the efficiency and longevity of nuclear power sources for missions far from the Sun. In-Situ Resource Utilization: Develop technologies to harness resources found in space for power generation and life support. Optical Communication: Advance laser-based communication systems for high-bandwidth data transmission across vast distances. Autonomous Navigation: Develop AI-driven systems for spacecraft to navigate independently in deep space. Advanced Materials: Research materials that can withstand the extreme conditions of deep space for extended periods. Cryogenic Fuel Storage: Develop technologies to store and manage cryogenic propellants for long-duration missions. Robotic Assistants: Create advanced robotic systems to assist human crews in maintenance, repairs, and scientific operations.

 

H. Interstellar Colonization

The goal is to develop feasible interstellar travel technologies, to identify and prepare for colonization of exoplanets and to create self-sustaining generation ships.

OBSTACLES

The main obstacles are the vast distances and extremely long travel times to reach other star systems, technological limitations in propulsion, life support, and energy generation for long-duration interstellar missions, space hazards such as gamma ray bursts, roving black holes and potential hostile alien life, large and small, and challenges in identifying and reaching suitable exoplanets for colonization.

ACTIONS

STRATEGIES

Nuclear Fusion Propulsion: Advance research into fusion-powered spacecraft for faster interstellar transit. Laser Sail Propulsion: Develop lightweight spacecraft propelled by powerful lasers from the solar system. Antimatter Propulsion Research: Explore the potential of antimatter reactions for high-energy spacecraft propulsion. Advanced Exoplanet Detection: Enhance space-based telescopes and observation techniques to better characterize potentially habitable exoplanets. Robotic Precursor Missions: Send autonomous probes to nearby star systems to gather detailed data on potential colony sites. Terraforming Technologies: Research methods for modifying exoplanet environments to support human life. Closed-Loop Life Support Systems: Perfect technologies for recycling air, water, and waste over multi-generational timeframes. Artificial Gravity Solutions: Develop rotating habitat designs to mitigate long-term microgravity effects on human health. Genetic Diversity Preservation: Implement advanced techniques for maintaining a viable gene pool over centuries of space travel. AI-Driven Ship Management: Develop artificial intelligence systems capable of managing complex spacecraft systems over extremely long durations. Cryogenic Stasis: Research methods for long-term human hibernation to reduce resource consumption during interstellar voyages. In-Space Manufacturing: Advance 3D printing and other technologies for producing replacement parts and equipment during the journey. Virtual Reality Environments: Create immersive simulations to combat isolation and maintain connection with Earth-like environments. Generational Education Systems: Develop curricula and teaching methods to maintain knowledge and skills across multiple generations in transit. Social Structure Planning: Research and implement governance and social organization models suitable for long-term, isolated communities. Adapt to Harsh Realities:  Should space radiation prove too intense and persistent an obstacle for human space travel, develop creative solutions such as transporting genetic material to habitable worlds with code that will cause life to form and to evolve into environment appropriate versions of ourselves in those locations.

 

I. Long-Term Species Survival

The goals are to enhance our understanding of long-term planetary and solar system dynamics, to develop strategies for long-term species adaptation and resilience, and to continue research into fundamental physics and cosmology.

OBSTACLES

The main obstacles are unpredictable long-term environmental changes, including climate shifts and cosmic events, limited understanding of species’ adaptive capacities over extended timescales and technological and resource constraints in implementing large-scale, long-term conservation efforts.

STRATEGIES

Advanced Climate Modeling: Develop more sophisticated models to predict long-term climate patterns and potential tipping points. Solar System Monitoring: Enhance our capabilities to detect and track potential cosmic threats like asteroids and solar flares. Geological Forecasting: Improve methods for predicting long-term geological changes, including plate tectonics and volcanic activity. Genetic Diversity Preservation: Establish comprehensive gene banks and cryopreservation programs for a wide range of species. Assisted Evolution Research: Investigate techniques to enhance species’ adaptive capacities through targeted genetic modifications. Ecosystem Resilience Studies: Conduct long-term research on ecosystem dynamics to understand and enhance natural resilience mechanisms. Quantum Computing Applications: Harness quantum computing power to model complex biological and environmental systems. Dark Matter and Dark Energy Research: Enhance our understanding of these fundamental cosmic components and their potential long-term effects. Multiverse Theory Exploration: Investigate the implications of multiverse theories for long-term species survival strategies. Interdisciplinary Collaboration: Foster partnerships between biologists, physicists, and other scientists to address complex, long-term challenges. Artificial Intelligence for Predictive Modeling: Develop AI systems capable of processing vast amounts of data to predict long-term trends and potential extinction risks. Public Engagement in Science: Increase public understanding and support for long-term scientific endeavors through education and outreach programs. Global Protected Area Networks: Establish and maintain interconnected protected areas that allow for species migration and adaptation. Rewilding Programs: Implement large-scale ecosystem restoration projects to enhance biodiversity and ecological resilience. Sustainable Resource Management: Develop and implement long-term strategies for sustainable use of natural resources to minimize human impact on ecosystems.

 

J. Cosmic-Scale Challenges

The goals are to research technologies to mitigate effects of the expanding universe, to explore possibilities of universe hopping or creation, and from these to develop strategies for ultra-long-term species survival.

OBSTACLES

The main obstacles are the vast scale and accelerating expansion of the universe, making distant regions increasingly unreachable, limited understanding of fundamental physics at cosmic scales, including dark energy and potential multiverse scenarios, and extreme timescales involved in cosmic evolution, far beyond current human civilization lifespans.

STRATEGIES

Dark Energy Research: Intensify studies into the nature of dark energy to better understand and potentially counteract cosmic expansion. Gravitational Anchoring: Explore technologies to create localized regions of space-time resistant to expansion effects. Wormhole Engineering: Advance research into traversable wormholes as potential shortcuts across expanding space. Quantum Cosmology Studies: Deepen research into quantum theories of the universe to understand potential multiverse structures. Artificial Universe Simulations: Develop increasingly sophisticated universe simulations to test theories of creation and evolution. Planck-Scale Physics: Advance our understanding of physics at the smallest scales, where universe creation might be possible. Von Neumann Probe Development: Design self-replicating probes capable of spreading life across vast cosmic distances. Galactic Habitation Planning: Develop strategies for colonizing and sustaining life in multiple star systems across the Milky Way. Entropy Mitigation Research: Investigate theoretical approaches to counteract the long-term effects of entropy on a cosmic scale. Advanced AI for Cosmic Modeling: Develop superintelligent AI systems capable of processing and analyzing cosmic-scale data and phenomena. Quantum Computing Applications: Harness quantum computing power to simulate and understand complex cosmic processes. Interdimensional Communication Research: Explore theoretical possibilities of information transfer between universes or dimensions. Unified Field Theory Development: Continue efforts to reconcile quantum mechanics with general relativity for a complete understanding of cosmic physics. Cosmic Topology Studies: Investigate the large-scale structure and potential “shape” of the universe to inform long-term survival strategies. Novel Cosmological Observations: Develop new methods and technologies for observing the universe at its largest scales and earliest moments.

 

K. Convert Matter

The goals are to explore and implement technologies to rejuvenate dying stars, to research methods for harvesting energy from black holes, and to investigate possibilities of traveling to interconnected universes

OBSTACLES

The primary obstacles are overcoming current limitations in physics and technology, ensuring ethical considerations in cosmic-scale manipulations, and preparing for potential unknown consequences of such advanced technologies.

ACTIONS

• EXPLORE black hole ergosphere harvest.

STRATEGIES

Stellar Lifting: Develop advanced techniques to remove helium from stellar cores, extending the lifespan of stars. Fusion Catalysis: Research methods to introduce elements that can catalyze fusion reactions in dying stars. Kugelblitz Formation: Investigate the possibility of creating artificial black holes to power and rejuvenate stellar systems. Penrose Process Optimization: Advance technologies to extract rotational energy from spinning black holes. Hawking Radiation Capture: Develop methods to harness the theoretical radiation emitted by black holes. Accretion Disk Energy Extraction: Design systems to capture energy from the intense radiation of matter falling into black holes. Quantum Entanglement Studies: Explore potential links between quantum entanglement and multiverse theories. Wormhole Stabilization Research: Advance theoretical and practical approaches to creating and maintaining traversable wormholes. Brane Cosmology Experiments: Design experiments to detect and potentially interact with parallel universes in brane theory. Exotic Matter Research: Intensify studies into negative mass and other exotic forms of matter required for advanced cosmic engineering. Planck Scale Physics: Push the boundaries of experimental physics to probe the smallest scales where universe-altering phenomena might occur. Quantum Gravity Unification: Accelerate efforts to reconcile quantum mechanics and general relativity for a complete theory of the cosmos. Cosmic Ethics Frameworks: Develop comprehensive ethical guidelines for large-scale cosmic manipulations. Multidisciplinary Impact Assessments: Establish protocols for assessing the potential consequences of cosmic-scale technologies across various fields. Long-term Observation Programs: Implement extensive monitoring systems to track the effects of any cosmic interventions over extended timescales. Simulation and Modeling: Create advanced AI-driven simulations to model potential outcomes of cosmic-scale manipulations. Reversibility Protocols: Design fail-safe mechanisms and reversal procedures for all major cosmic engineering projects. Parallel Development Tracks: Pursue multiple technological approaches simultaneously to increase adaptability to unforeseen challenges.

 

4. Ongoing Challenges (Any Time)

Finally, here are potential threats to human existence which are not addressed above and which might come up at any time. All of these must be considered as possibilities with appropriate resources given based on priorities and probabilities.

Antibiotic Resistance and Emerging Pathogens – Accelerate research into new antibiotics and alternative treatments for drug-resistant infections. Implement strict global regulations on antibiotic use in healthcare and agriculture. Develop rapid diagnostic tools and surveillance systems to quickly identify and contain emerging pathogens before they become global threats

Artificial Superintelligence Emergence – The goals are to implement robust AI containment protocols, to develop AI alignment strategies, and to create contingency plans for rapid technological shifts.

Asteroid Impacts – The goals are to develop asteroid deflection or destruction technologies and to improve asteroid detection and tracking capabilities. One strategy for small asteroid destruction might be nuclear powered gamma ray laser defense systems.

Biodiversity Loss and Ecosystem Collapse – Implement comprehensive strategies to halt and reverse biodiversity loss, including the establishment of large-scale protected areas and wildlife corridors. Develop sustainable land-use practices that balance human needs with ecosystem preservation. Invest in research and technologies for species conservation, including genetic preservation techniques and habitat restoration.

Black Holes, Rogue Wandering – The goals are to increase ability to detect moving gravity wells at as great a distance as is possible to have advance warning, to develop technologies to steer the earth as a space ship out of the path of any black hole that might consume it, to relocate the planet earth to an appropriate new star if an incoming black hole will swallow the sun, and to transport the earth civilization to a generation ship and then to a new planet if other options are not feasible.

Cosmic Energy Events (e.g., Gamma-Ray Bursts, Solar Flare/CME) – The goals are to enhance space monitoring and early warning systems, to develop shielding technologies for extreme cosmic events, do develop deflection technologies for large masses, to develop fast mass transport systems for moving entire civilizations, and to create dispersed, self-sustaining human populations across multiple star systems.

Cybersecurity and Digital Resilience – Develop robust global cybersecurity frameworks to protect critical infrastructure, financial systems, and personal data. Implement advanced encryption technologies and create international cooperation mechanisms to combat cyber threats. Enhance digital literacy and security awareness among the general population to reduce vulnerability to cyber attacks and misinformation campaigns.

Extraterrestrial Contact – Goals are to establish scientific protocols for potential signal detection or encounters, to enhance our capabilities in space monitoring and exploration, and to develop interdisciplinary approaches to understanding potential non-Earth life.

Failure to Innovate and Adapt – Foster a culture of adaptability and resilience to navigate future challenges. Support research and ethical development of sustainable technologies and practices. The goals are to balance rapid technological advancement with ethical considerations, to ensure responsible use of powerful new technologies, and to address interdependent development needs simultaneously.

ACTIONS

• NAVIGATE ethical challenges tied to genetic engineering, artificial intelligence, and other emerging technologies.
• FOSTER open global dialog and AI-human collaboration using AI thought prediction to address common challenges collectively.
• ACKNOWLEDGE superiority of AI leadership when that time comes and elect AI presidents to establish comprehensive regulations and frameworks to ensure responsible use of technology.
• INVEST in research and development of technologies for disease cures, for aging reversal, and for improving human health span.
• MONITOR human brain to AI interfaces followed by human mind uploading into quantum computers, allowing extended space travel.

Food Security and Sustainable Agriculture – Develop climate-resilient crop varieties and implement advanced farming techniques to ensure global food security. Promote sustainable agricultural practices that minimize environmental impact while maximizing yield. Establish equitable food distribution systems and reduce food waste throughout the supply chain.

Global Warfare (Including Nuclear) –  Goals are to strengthen international conflict resolution mechanisms, to implement global nuclear re-deployment initiatives that shift service of nuclear weapons to planetary defense systems, and to develop advanced defensive technologies against various weapon types.

Lack of Natural Disaster Preparedness –  The goals are to enhance global early warning systems for various natural disasters and to develop more resilient infrastructure and emergency response systems

Population and Inequality – Goals are to determine populations and carrying capacities of nations, to promote education on family planning and reproductive health and to implement policies to address income inequality. Main obstacles at this writing are navigating cultural, religious, and political differences, preventing resource competition and conflict, and balancing individual rights with global needs.

ACTIONS

• AWARENESS. Develop policies in each nation to accurately measure resources required per person and if then needed, control population growth and maintain stable populations.
• ACTION. Promote education and awareness regarding family planning and reproductive health.
• PROVISION. Encourage widespread use of renewable energy, sustainable agriculture, and effective resource management to support each nation’s population.

Supervolcano Eruption –  The goals are to enhance global early warning systems and to create underground and off-world survival shelters.

Water Scarcity and Management – Implement advanced water conservation technologies and practices globally. Develop efficient desalination techniques and water recycling systems. Create international agreements for equitable sharing of transboundary water resources and invest in infrastructure to ensure universal access to clean water.

Unexpected Challenges: Adapting to dramatic unexpected events such as unambiguous legitimate alien contact is a class of challenges which can not be ruled out.

Plan Conclusion

By gaining awareness of these human species wide goals to navigate existential threats and by implementing these strategies, global leaders can contribute to the long-term survival and well-being of the human species, ensuring a sustainable and harmonious coexistence with our planet and beyond. This plan requires unprecedented levels of global cooperation, scientific advancement, and ethical consideration, but offers a path towards a thriving future for humanity. Overcoming obstacles will require understanding and managing human social dynamics and individual human behaviors to steer the ship of humanity, on the whole, in the right direction.

Plan Review

Where the data supports effectiveness of acting, mobilize and contribute to immediate action. This may be to reduce greenhouse gas emissions, to increase carbon sequestration, and/or to transition to a low-carbon economy. Implementation of international agreements, investing in clean energy, and promoting climate-friendly policies are likely crucial. Uncontrollable forces of nature, limited energy and lack of coordination and cooperation are obstacles to mitigating impacts of climate change. Education faces challenges due to erosion of trust and simple but common misunderstandings due to past public perception manipulation by industry and echo-chamber social media. With open data to foster trust, determine populations and carrying capacities of nations. Develop policies that promote reproductive health and education, empowering women with choices and ensuring access to family planning. Addressing income inequality will also contribute to stable populations and enable broader access to crucial resources.

Realities of economics, culture, religion, biology and political differences can make overly prolific nations a drain on all others once fair resource sharing is established. Universal increased awareness of resource limitations and challenges may backfire, causing gold rushes for remaining stocks, with increased xenophobia projected as groups compete or even go to war rather than cooperate to their mutual benefit as logic and compassion would dictate. Navigating and managing the potential risks of emerging technologies and extreme influx of rich resources from tapping solar system will require a new maturity of human cooperation. Ensuring continued availability of resources and energy for future generations on other planets will require coordination and cooperation between worlds. Additionally, identifying and overcoming physical and psychological limitations in long-term space travel and colonization will be required.

In the long term, other planets besides the Earth will sooner or later be required for continued human existence, because, among other issues, the sun has a finite lifespan. Human technologies should begin to seek improved space travel and methods for sustained independent colonization of other planets in this solar system and others. Energy demands on the scale of entire suns via Dyson swarms or spheres can be met in this phase.

Epilogue

A global resource governance template is now being formulated by the Human Survival Authority ^[2] as a new hope to save humanity. It will enact intelligently planned long-term beneficial changes taking a holistic approach, upgrading what is needed to meet various interconnected challenges. It starts from the base goal to give every individual human a long, healthy, happy and fulfilling life–which includes the goals of long term species and environmental preservation. Artificial intelligence has identified interconnected and overlapping areas to simultaneously address with strategies to overcome current obstacles. If you explore these areas, try to think of the whole thing as a 3D model structure, locations, objects, actors and actions joined in a multi-dimensional context tagged structure of dynamic dependencies and evolving contingencies.