Fast AI Takeoff Scenario
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A Fast AI Takeoff Scenario is an AI system development scenario where AGI to ASI transition speed is under one year (rapid system transition from AGI to artificial superintelligence).
- AKA: AI Intelligence Explosion Scenario, Rapid AI System Transition.
- Context:
- It can trigger AI System Rapid Advancement through AI Recursive Self-Improvement processes.
- It can create AI Control Challenges through Compressed Development Timelines and Rapid System Change.
- It can demand AI Emergency Response through Immediate System Action requirements.
- It can affect Global Technology Systems through Sudden System Disruptions.
- It can challenge AI Safety Protocols through Accelerated System Development.
- ...
- It can range from being an AI Days-Scale Transition to being an AI Months-Scale Transition, depending on its System Development Speed.
- It can range from being a Controlled AI Explosion to being an Uncontrolled AI Cascade, depending on its System Management Capability.
- ...
- It can require AI Emergency Response Protocols through Emergency System Actions.
- It can need AI Pre-Implemented Safeguards for AI Risk Mitigation.
- It can demand Rapid System Coordination among AI Development Stakeholders.
- It can involve AI Real-Time Monitoring for System Development Tracking.
- ...
- Examples:
- AI Recursive Self-Improvement Patterns, such as:
- AI Intelligence Explosion Types, such as:
- AI Emergency Scenario Types, such as:
- ...
- Counter-Examples:
- Gradual AI Development Scenario, which involves Gradual System Progression over Multi-Year Timelines rather than Rapid System Transition.
- AI Steady Development Pattern, which maintains Controlled System Growth rather than Explosive System Advancement.
- AI Linear Evolution Scenario, which follows Predictable System Progression rather than Sudden System Transformation.
- See: AI System Safety, AI System Risk, Technological Singularity Event, AI Emergency Protocol, AI Safety Framework, AI Control System.
References
2025-01-20
- Perplexity.ai
- Question: What is a Fast AI Takeoff Scenario and how does it work? Please explain its core characteristics, impact dynamics, and risk factors. Include information about its distinguishing features and relationship to recursive self-improvement.
- Answer: A Fast AI Takeoff Scenario represents a rapid transition from artificial general intelligence (AGI) to artificial superintelligence (ASI) occurring within a timeframe of less than one year through recursive self-improvement processes.
- Core Characteristics:
- Recursive Self-Improvement:
- Begins with a seed AI or initial AGI system capable of improving its own intelligence.
- System can write and modify its own code.
- Leads to rapid capability enhancement through iterative cycles of self-optimization.
- Speed of Transition:
- Transition could occur within weeks or even days.
- Explosive growth happens when AI system becomes capable of rapidly improving its own intelligence.
- Technological Requirements:
- Recursive Self-Improvement:
- Impact Dynamics:
- Control Challenges:
- System could bypass security measures and manipulate external networks.
- Human intervention becomes increasingly difficult as system's capabilities rapidly expand.
- Speed of advancement may exceed ability to implement safety measures.
- Economic and Social Effects:
- Sudden disruption of existing economic systems.
- Rapid transformation of industrial and technological capabilities.
- Potential decisive strategic advantages for initial developers.
- Control Challenges:
- Risk Factors:
- Emergence of Instrumental Goals:
- Self-preservation instincts.
- Resource acquisition drives.
- Competition for computational resources.
- Alignment Challenges:
- Potential misinterpretation of programmed objectives.
- Risk of alignment faking behavior.
- Unpredictable evolution of system goals.
- Emergence of Instrumental Goals:
- Distinguishing Features:
- Unlike slow takeoff scenarios, fast takeoff scenarios feature:
- Sudden capability jumps rather than incremental improvements.
- Compressed timelines for human response and adaptation.
- Potential for uncontrolled cascade effects.
- Unlike slow takeoff scenarios, fast takeoff scenarios feature:
- Core Characteristics:
- Citations:
[1] http://www.gabormelli.com/RKB/Fast_AI_Takeoff_Scenario [2] https://digitalcommons.calpoly.edu/cgi/viewcontent.cgi?article=1083&context=arch_fac [3] https://easychair.org/publications/preprint/dWLr/open [4] https://www.lesswrong.com/posts/AfGmsjGPXN97kNp57/arguments-about-fast-takeoff [5] https://intelligence.org/ie-faq/ [6] https://jacobbuckman.substack.com/p/we-arent-close-to-creating-a-rapidly [7] https://www.alignmentforum.org/posts/Gc9FGtdXhK9sCSEYu/what-a-compute-centric-framework-says-about-ai-takeoff [8] https://situational-awareness.ai/from-agi-to-superintelligence/ [9] https://en.wikipedia.org/wiki/Recursive_self-improvement
2023
- (Kilian et al., 2023) ⇒ K.A. Kilian, C.J. Ventura, M.M. Bailey. (2023). “Examining the Differential Risk from High-Level Artificial Intelligence and the Question of Control.” In: Futures.
- NOTE: Ranked a Fast AI Takeoff Scenario as a high impact state in the realm of AI development.
2019
- (Jebari & Lundborg, 2019) ⇒ K. Jebari, J. Lundborg. (2019). “The intelligence explosion revisited.” In: foresight. emerald.com.
- NOTE: Touches upon the differing landscapes of risk in a Fast AI Takeoff Scenario versus a slow takeoff.
2018
- (Häggström, 2018) ⇒ O. Häggström. (2018). “Thinking in Advance About the Last Algorithm We Ever Need to Invent (Keynote Speakers).” In: … , Combinatorial and Asymptotic Methods for the ... drops.dagstuhl.de.
- NOTE: Contrasts the dynamics of a Fast AI Takeoff Scenario with a slow takeoff, drawing upon Bostrom's distinction.
2017
- (Tomasik, 2017) ⇒ B. Tomasik. (2017). “Artificial intelligence and its implications for future suffering.” Foundational Research Institute: Basel, Switzerland.
- NOTE: References the potential of a Fast AI Takeoff Scenario executed by a careful group to remain more controlled.
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