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CMQ_063predictionQuantum/AIquantum-AI-integration

Quantum compute integration with AI optimization algorithms and material-science discovery could drastically accelerate algorithmic efficiencies for Intelligence Explosion — potentially pulling superintelligence timelines closer.

Predictor: Alex Wissner-Gross

Prior probability
15.0%
Current probability
15.0%
evolves via intake + LBP
Conviction
3/5
Signal quality
B
Resolution
pending
Window
2026-01-01 – 2035-12-31
Edges in / out
3 / 0
Tickers exposed
8

Prediction text

Quantum compute integration with AI optimization algorithms and material-science discovery could drastically accelerate algorithmic efficiencies for Intelligence Explosion — potentially pulling superintelligence timelines closer. | Quantum-AI optimization benchmarks

Key catalyst: Quantum-AI optimization benchmarks

Watch events: Quantum optimization benchmarks; hybrid classical-quantum ML papers; logical qubit count milestones.

Resolution evidence

Status: pending

Variational quantum algorithms show promise for specific optimization problems; no demonstrated AI-training quantum advantage as of 2026.

Predictor: Alex Wissner-Gross

κ + Brier as of 2026-05-22
κ (discount)
0.844
Brier
0.0341
excellent
Hits / Misses
6 / 1
of 11 resolved
Hit rate
54.5%
Calibration plot (stated vs observed)

Evidence about this node from Alex Wissner-Gross is multiplied by κ in /api/intake. Lower κ = less weight; floors at 0.10 (effectively silenced) and caps at 1.00 (full weight).

Reference class

Not linked

This node isn't linked to a reference class. The Bayesian update applies without outside-view blending.

Probability over time

0 prob_history rows
No probability history yet.

Milestone chain

Pre-event signals (upstream prereqs + window checkpoints) → resolution event → downstream cascades. Status/dates update from linked nodes; re-derive nightly via scripts/ops/derive_milestones.py.
Leading chain: 2 fired ✓ · 8 pending
  1. 2025-10-22hitGoogle Quantum Echoes algorithm on Willow chip achieves 13,000x speedup over classical supercomputers (verifiable QA)
    How: Peer-reviewed quantum-advantage demonstration on materials/molecular simulation problem with classical-supercomputer baseline
    Source: deep_research_enrichedconf 90%
  2. 2026-04-29hitMIT-IBM Computing Research Lab launched on April 29, 2026 to integrate quantum and AI for materials/algorithms
    How: Major institutional partnership formed targeting quantum-AI co-design for materials science and ML optimization
    Source: deep_research_enrichedconf 92%
  3. 2026-12-31pendingQuantum-AI market reaches USD 638M in 2026 (35% YoY growth from $473M in 2025)
    How: Industry analyst data shows Quantum-AI market sized ≥$600M annual revenue in 2026
    Source: deep_research_enrichedconf 65%
  4. 2027-08-30pendingQ1 window check-in (25%)
  5. 2027-06-01 → 2030-12-31pendingQuantum-AI co-design produces first novel material with industrial application (battery, catalyst, semiconductor)
    How: Peer-reviewed paper or commercial release of novel material designed via quantum-AI optimization workflow
    Source: deep_research_enrichedconf 50%
  6. 2029-04-28pendingQ2 window check-in (50%)
  7. 2028-06-01 → 2030-06-30pendingFirst fault-tolerant quantum computer demonstrated (IBM 2029 roadmap target)
    How: Public demonstration of small-scale fault-tolerant quantum computer with logical-qubit error rate below threshold
    Source: deep_research_enrichedconf 60%
  8. 2028-06-01 → 2032-08-24pendingQuantum-AI hybrid algorithms deliver measurable acceleration of frontier-AI training (10x or better)
    How: Frontier lab (DeepMind/OpenAI/Anthropic/IBM) publishes quantum-accelerated training benchmark with ≥10x speedup
    Source: deep_research_enrichedconf 30%
  9. 2030-12-26pendingQ3 window check-in (75%)

No downstream cascades — this prediction is a leaf in the dependency graph.

What if this resolves?

Clamp this prediction TRUE or FALSE and run a counterfactual Gibbs sample. Surfaces the predictions whose marginals shift most under that assumption.
(live posterior: 15%)

Click a button to clamp this prediction and run a Gibbs sample. Returns the predictions whose marginals shift most. ~30s per run; ideal for stress-testing "if X resolves, what else moves?"

Evidence chain

Every probability update with full Bayesian provenance — chronological, latest first

No probability history yet. The first evidence will arrive via /api/intake or the daily milestone sweep / weekly LBP run.

Network propagation neighbors

Top edges sorted by latest LBP cross-impact
All propagation →

Top incoming (parents)

Edges that influence THIS node's belief

KindNodeTheir probP(c|s=T)P(c|s=F)Δ implied
killerTK01
AGI Capability Plateau (2026-27 Training Stall)
15.0%0.0500.150-0.015
killerTK02
AI Compute Supply Shock (TSMC/Taiwan Disruption)
12.0%0.0500.150-0.012

Top outgoing (children)

Predictions THIS node influences

No outgoing edges.

Ticker exposure

8 ticker(s) linked

Beneficiaries (8)

IONQQUBTRGTITSEMKEYSHONIBMGOOGL

Prerequisites (3)

Predictions that must hit first
TypePredTitleDomainLag
correlateS_COMPUTE_100GW_2030Compute: 100GW national-scale by Dec 2030compute_scale
killerTK01AGI Capability Plateau (2026-27 Training Stall)
killerTK02AI Compute Supply Shock (TSMC/Taiwan Disruption)

Dependents (0)

Predictions enabled by this
TypePredTitleDomainLag
No dependents

Linked documents (10)

Auto-generated by cosine similarity from Polymarket / Manifold / EDGAR / GDELT

Raw metadata

From Thesis_Timeline_v1.0_FINAL workbook
{
  "nia": false,
  "qty": "quantum-AI integration",
  "mode": "SPECULATION",
  "role": "Host",
  "caveats": "Highly speculative; current AI stack runs on classical GPUs/TPUs/CPUs, quantum integration is long-dated.",
  "context": "Long-tail capability: quantum algorithms for specific optimization sub-problems could yield outsized efficiency gains.",
  "to_year": 2035,
  "conv_cues": "could drastically; speculative",
  "direction": "HAPPEN",
  "from_year": 2026,
  "timeframe": "this decade",
  "conv_level": "LOW",
  "milestones": [
    {
      "kind": "llm_pre_event",
      "label": "Google Quantum Echoes algorithm on Willow chip achieves 13,000x speedup over classical supercomputers (verifiable QA)",
      "source": "deep_research_enriched",
      "status": "hit",
      "weight": 0.4,
      "ordinal": -10,
      "source_id": null,
      "confidence": 0.9,
      "source_url": "https://blog.google/innovation-and-ai/technology/research/quantum-echoes-willow-verifiable-quantum-advantage/",
      "expected_date": "2025-10-22",
      "observed_date": "2025-10-22",
      "research_origin": "deep_research",
      "measurement_criterion": "Peer-reviewed quantum-advantage demonstration on materials/molecular simulation problem with classical-supercomputer baseline"
    },
    {
      "kind": "llm_pre_event",
      "label": "MIT-IBM Computing Research Lab launched on April 29, 2026 to integrate quantum and AI for materials/algorithms",
      "source": "deep_research_enriched",
      "status": "hit",
      "weight": 0.4,
      "ordinal": -9,
      "source_id": null,
      "confidence": 0.92,
      "source_url": "https://newsroom.ibm.com/2026-04-29-the-mit-ibm-computing-research-lab-launches-to-shape-the-future-of-ai-and-quantum-computing",
      "expected_date": "2026-04-29",
      "observed_date": "2026-04-29",
      "research_origin": "deep_research",
      "measurement_criterion": "Major institutional partnership formed targeting quantum-AI co-design for materials science and ML optimization"
    },
    {
      "kind": "llm_pre_event",
      "label": "Quantum-AI market reaches USD 638M in 2026 (35% YoY growth from $473M in 2025)",
      "source": "deep_research_enriched",
      "status": "pending",
      "weight": 0.4,
      "ordinal": -8,
      "source_id": null,
      "confidence": 0.65,
      "source_url": "https://www.usdsi.org/data-science-insights/from-qubits-to-insights-the-rise-of-quantum-ai-in-2026",
      "expected_date": "2026-12-31",
      "research_origin": "deep_research",
      "measurement_criterion": "Industry analyst data shows Quantum-AI market sized ≥$600M annual revenue in 2026"
    },
    {
      "kind": "quartile_checkpoint",
      "label": "Q1 window check-in (25%)",
      "status": "pending",
      "weight": 0.05,
      "ordinal": -7,
      "source_id": null,
      "expected_date": "2027-08-30",
      "observed_date": null
    },
    {
      "kind": "llm_pre_event",
      "label": "Quantum-AI co-design produces first novel material with industrial application (battery, catalyst, semiconductor)",
      "source": "deep_research_enriched",
      "status": "pending",
      "weight": 0.4,
      "ordinal": -6,
      "source_id": null,
      "confidence": 0.5,
      "source_url": "https://news.mit.edu/2026/mit-ibm-computing-research-lab-launches-0429",
      "expected_date": "2029-03-16",
      "research_origin": "deep_research",
      "expected_date_range": {
        "to": "2030-12-31",
        "from": "2027-06-01"
      },
      "measurement_criterion": "Peer-reviewed paper or commercial release of novel material designed via quantum-AI optimization workflow"
    },
    {
      "kind": "quartile_checkpoint",
      "label": "Q2 window check-in (50%)",
      "status": "pending",
      "weight": 0.05,
      "ordinal": -5,
      "source_id": null,
      "expected_date": "2029-04-28",
      "observed_date": null
    },
    {
      "kind": "llm_pre_event",
      "label": "First fault-tolerant quantum computer demonstrate
... (truncated)