#smartmetal

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This is part 2 of a 2 part post (see part 1 here Below is a structured analysis to demonstrate the validity of using buyers of Veritaseum #SmartMetal to buy into and sell compute from globally aggregated cell phone compute pools - directly compeiting with the big guys - Google, Amazon and Microsoft cloud businesses. We discuss estimates, business model propositions, and potential economic outcomes, but first, see my Executive Global Article on Zero Profit Models( and purchase Veritaseum SmartMetal here - Can you really disintermediate the most profitable revnues of t $6.7 trillion worth of technology cloud providers? Well, the fact that it is among, if not the, most profitable of their revenue drivers is a very material clue! Step 1: Estimating the Number of High-End Smartphones Globally As of early 2025, approximately 7.5 billion smartphones are actively used worldwide. Considering that: About 30% of global smartphones are high-end (comparable or superior to an iPhone X; for instance, Samsung Galaxy S22/S23 Ultra, iPhone 16 Pro Max with A18 chips, and Qualcomm Snapdragon 8 Gen 3 or newer). Thus, approximately 2.25 billion high-end smartphones exist today (30% of 7.5B). Step 2: Aggregate Compute Power Estimation (Idle Capacity) Average Computational Capacity per High-End Smartphone: A high-end phone has roughly: CPU: ~1 to 1.5 TFLOPS GPU: ~1.5 to 2 TFLOPS Average Idle Compute per Phone: 1 TFLOPS (CPU) + 1.5 TFLOPS (GPU) = ~2.5 TFLOPS idle. Total Potential Compute Power: 2.25B smartphones × 2.5 TFLOPS each ≈ 5,625,000,000 TFLOPS (5.625 ExaFLOPS) Comparison to Cloud Vendors: Amazon AWS, Microsoft Azure, Google Cloud combined currently deploy approximately ~1 to 2 ExaFLOPS of continuous computing power. Thus, aggregate idle compute power from high-end smartphones (5.625 ExaFLOPS) exceeds the largest cloud vendors combined by at least 2.8x. Step 3: Proposed Business Model ("Zero Margin Trustless Model") Following Middleton’s economic principles, a decentralized marketplace based on his IP (SmartMetal Rounds and patented protocols) would allow individual users to rent their smartphones’ idle compute power. The economics would follow: Revenue Structure: Compute resources provided by phone owners (children, elderly, economically disadvantaged communities) rented to consumers (AI firms, universities, research institutions, enterprises). Offered at 10% above net cost ("as close to free as possible" per the attached article​Executive Global articl…). Revenue Distribution: SmartMetal Owners (phone owners): Receive 20% of net revenue generated. Platform Cost & Overhead: Costs for electricity, network management, and maintenance (approximately 70% of net revenue). Intellectual Property Licensing (Middleton’s IP): A modest licensing fee—around 10% (aligned with Middleton’s zero-margin, IP-licensing-centric model). Step 4: Revenue Estimation Example Assumptions: Average monthly idle compute contribution per phone: 4 hours/day, 30 days = 120 hours/month. Market price for decentralized high-performance computing: approximately $0.10 per TFLOP-hour. Revenue per Smartphone per Month: Compute provided: 2.5 TFLOPS × 120 hrs = 300 TFLOP-hours Revenue at $0.10 per TFLOP-hour: 300 × $0.10 = $30/month per smartphone Aggregate Monthly and Annual Revenue: Monthly revenue (2.25 billion phones): $30 × 2.25B ≈ $67.5 billion Annual revenue potential: $67.5B × 12 months = $810 billion annually Distribution of Annual Revenue: SmartMetal Round Owners (20%): $810B × 20% ≈ $162 billion/year Operational Cost (70%): $810B × 70% ≈ $567 billion/year Middleton IP Licensing (10%): $810B × 10% ≈ $81 billion/year Thus, the total economic benefit is substantial, particularly transformative for economically disadvantaged participants (children, elderly, developing regions). Step 5: Practical Impact & Social Value Impact on Children & Young Adults: Empowerment through earning potential (around $360 annually per child smartphone owner). Practical, intuitive introduction to economics, technology, and entrepreneurship through gamified interfaces and secure, decentralized platforms. Impact on Elderly and Economically Disadvantaged Communities: Significant supplemental income (potentially exceeding many pension plans or assistance programs). Bridging the technology gap, ensuring inclusive participation in global digital economies. Step 6: Strategic Value & Market Positioning Middleton's patented Zero Margin Trustless Model ("ZMTM")​Executive Global articl… creates a highly attractive, low-cost computational offering. Competing directly with incumbent cloud providers: The computational marketplace can massively disrupt cloud computing with lower fees and broader global reach. Leveraging Middleton’s IP and SmartMetal Rounds, it creates defensible competitive barriers and immense value for early adopters. Step 7: Driving Middleton’s Peer-to-Peer Economy As described in Middleton’s vision​Executive Global articl…, this marketplace underpins a global peer-to-peer economy, transforming idle smartphone resources into meaningful economic output. The P2P economy will leverage: AI-driven autonomous economic agents. Secure blockchain-based IP rights enforcement. Economic democratization by redistributing traditional cloud revenues directly to everyday device owners. Summary & Strategic Conclusion Implementing a decentralized compute platform powered by high-end smartphones and Middleton’s patented Zero Margin Trustless Model presents enormous economic potential, far exceeding current major cloud vendors combined. With annual revenues estimated up to $810 billion, and meaningful income distribution to disadvantaged demographics, this innovative model could dramatically reshape the global computational economy, achieve significant social impacts, and provide the backbone for Middleton’s envisioned peer-to-peer decentralized economy.

Reggie Middleton, Disruptor-in-Chief

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