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Near-Term Outlook

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#Near-Term Outlook (0-3 years)

#Concise Definition

The Near-Term Outlook is a living record of dated, scoreable forecasts about AI over the three years from 2026-10-15 to 2029-10-15. It is deliberately conservative: it contains only forecasts that can be tied to a measurable source, and it declines to state numbers it cannot support.

#Overview & Significance

Near-term forecasts are the only AI forecasts that can be scored within a project's own lifetime, so they carry most of the weight in judging whether the methods described in FCST-METHOD-001 work. This record is the stable-form counterpart to the Forecast Register (FCST-REG-001): the register holds the current status of every record, while this article explains the reasoning behind the near-term ones.

Reading rules.

  • Statements of fact carry a date and source in-line. Fast-moving figures (model capabilities, prices, chip specifications, current benchmark scores) are not given here; use MODEL-001, FACT-001 and TIME-001.
  • Where a forecast requires a baseline that this draft could not verify, the record says that the baseline is to be captured at first review rather than guessing.
  • Confidence brackets marked "editorial judgment" are the encyclopedia's own qualitative estimates and are not outputs of a computed aggregate.

#Historical Development

Near-term AI forecasts have a mixed record. Surveys and tournaments (see FCST-METHOD-001) document that expert timelines for the same milestone shifted by 13 years between consecutive survey waves (Grace et al., 2024), which is evidence that short-horizon beliefs moved sharply as capabilities were observed. No systematic scoring of 2022-era near-term AI forecasts is cited here. [VERIFICATION NEEDED: no study of the accuracy of pre-2023 near-term AI forecasts was located.]

#Technical / Conceptual Explanation

Three kinds of near-term claim are separated:

  1. Trend continuation. A measured quantity keeps its fitted rate (for example, doubling times of compute or task length).
  2. Constraint arrival. A resource limit binds within the window (power, chips, data).
  3. Institutional events. A legal or organisational event occurs by a date.

For trend continuation with a doubling time TdT_d, a quantity yy observed at time t0t_0 is projected as

y(t)=y(t0) 2(t−t0)/Td.y(t) = y(t_0)\,2^{(t-t_0)/T_d}.

Over a window of Δt\Delta t the projected multiple is 2Δt/Td2^{\Delta t/T_d}; for Δt=12\Delta t=12 months this is 212/7≈3.32^{12/7}\approx 3.3 if Td=7T_d=7 months and 22 if Td=12T_d=12 months. Because the multiple is exponentially sensitive to TdT_d, uncertainty in TdT_d should be propagated rather than a single value assumed.

#Types, Components & Classifications

The record is organised by evidence type: (A) measured trends with published sources, (B) resource constraints with published projections, (C) institutional timetables, and (D) things this record explicitly does not forecast.

#Applications & Concrete Examples

  • Training compute. Sevilla et al. (2022) report training-compute doubling of approximately every 6 months in the deep-learning era (analysis dated 2022).
  • Task length. Kwa et al. (2025) report that the length of software tasks that frontier models complete at 50% reliability has doubled approximately every seven months since 2019, possibly faster in 2024, and cite about 50 minutes for Claude 3.7 Sonnet (original submission 2025-03-18; the arXiv page shows later revisions, whose contents were not reviewed here). The measure covers a particular family of software tasks and says nothing directly about other domains.
  • Scale projection. Epoch AI (Sevilla et al., 2024; dated 2024-08-20) concluded that training runs of 2×10292\times10^{29} FLOP will likely be feasible by the end of the decade, with power the constraint most likely to bind first; it estimated that 1-5 GW campuses could support runs of 102810^{28} to 3×10293\times10^{29} FLOP.

#6.2 Institutional timetable

Secondary legal sources (a law-firm summary dated 2026-06-22) report that co-legislators reached a provisional agreement on 2026-05-07 to postpone the EU AI Act's high-risk obligations to 2027-12-02 (standalone systems) and 2028-08-02 (product-embedded systems), that the European Parliament voted in plenary on 2026-06-16, and that formal adoption was expected before 2026-08-02 (Sidley Austin LLP, 2026). [VERIFICATION NEEDED: final Council adoption and Official Journal publication were not confirmed; the primary EUR-Lex text was not retrieved; some secondary sources disagree on a labelling deadline. Check the Official Journal before relying on any date.] Prohibited-practice and general-purpose-AI obligations already in application are reported as not delayed.

#6.3 Not forecast here

This record does not forecast: the date of AGI (see AGI-TIME-001); the release dates, names or scores of specific models; market valuations; or any intelligence-explosion dynamics (see ASI-EXP-001), for which no near-term operational test is proposed.

#Advantages, Limitations & Unresolved Questions

  • Trend-continuation forecasts inherit the limitations of the underlying metric: saturation of a benchmark, changes in the task suite, and differences between laboratory and deployed performance.
  • Resolution depends on third-party publishers (METR, Epoch AI) continuing their measurements; each record states a fallback.
  • Closed laboratories do not disclose training compute, so compute resolutions rest on third-party estimates and may miss undisclosed runs.
  • Whether capability trends translate into economic effects on the same timescale is a separate and less measured question (see ECON-COMP-001).

#Current State of Knowledge

As of 2026-10-15 this draft's verified inputs are those cited in 6.1 and 6.2, each dated by its source. Developments after those source dates (including any model releases, measurements, or regulatory events in 2025-2026) were not systematically surveyed and are not asserted here. The first review (2027-01-15) is to refresh baselines.

#Future Trajectory & Strategic Outlook

#Forecast records

Record A

Field Content
Forecast ID FCST-HORIZON-001
Forecast Statement The 50% time horizon on METR's software-task methodology for the best publicly available model will at least double between 2026-10-15 and 2027-10-15.
Target Event Measured 50% time horizon, latest value published by METR (or the paper's successors)
Operational Definition Let H0H_0 be the latest METR-published 50% time horizon of any publicly available model on 2026-10-15 (to be recorded at first review from METR's publication), and H1H_1 the corresponding value on 2027-10-15. Resolves true if H1≥2H0H_1\ge 2H_0. If METR stops publishing or substantially changes the task suite, resolves "not tested".
Time Horizon 2027-10-15
Assumptions METR continues the measurement; the suite is not saturated or redefined; no major compute, power or economic disruption; the reported doubling time of about seven months (Kwa et al., 2025) is roughly representative of 2026-2027.
Confidence Level Medium (about 55-70%; editorial judgment)
Alternative Scenarios Measurement ceilings or task-suite changes make the metric uninformative; progress slows on long-horizon tasks; or acceleration beyond the fitted rate.
Review Schedule 2027-01-15 (baseline capture), 2027-10-15 (resolution)
Status Active

Record B

Field Content
Forecast ID FCST-COMPUTE-001
Forecast Statement No AI model training run above 2×10292\times10^{29} FLOP will be documented in Epoch AI's database by 2029-10-15.
Target Event Largest documented training compute
Operational Definition Resolves true if, on 2029-10-15, Epoch AI's published model/compute database contains no entry with estimated or reported training compute above 2×10292\times10^{29} FLOP. If the database is discontinued, the record resolves "not tested".
Time Horizon 2029-10-15
Assumptions Epoch's own projection (feasible by 2030, power the first binding constraint) is approximately right; laboratories do not announce larger runs earlier; database coverage of undisclosed runs is incomplete, which biases toward "true".
Confidence Level High (about 85-90%; editorial judgment, informed by Sevilla et al., 2024)
Alternative Scenarios Faster build-out of multi-gigawatt campuses and distributed training; algorithmic changes that redefine effective compute; disclosure of previously undisclosed runs.
Review Schedule Annually each October; final 2029-10-15
Status Active

Record C

Field Content
Forecast ID FCST-EUAI-001
Forecast Statement A regulation postponing the EU AI Act's high-risk obligations will have been published in the Official Journal of the European Union by 2026-12-31.
Target Event Official Journal publication of the amending act
Operational Definition Resolves true if an act amending Regulation (EU) 2024/1689 that postpones the application dates of the high-risk obligations is published in the Official Journal on or before 2026-12-31. The new dates are not part of the resolution.
Time Horizon 2026-12-31
Assumptions The provisional agreement of 2026-05-07 was formally adopted as reported; this draft could not confirm that.
Confidence Level High if adoption has already occurred; otherwise Medium. Overall about 85% (editorial judgment; baseline unverified)
Alternative Scenarios Adoption failed or was delayed; the text was amended again.
Review Schedule 2026-11-15 (first check, which may resolve the record immediately), then 2027-01-15
Status Active

Companion near-term record: FCST-METHOD-001 (next survey wave, horizon 2029-10-15).

#Update log convention

Each review appends a dated row (date, record ID, observed value, status change) here and in FCST-REG-001. Records are never silently edited; superseded records receive status Superseded with a pointer.

Sources, evidence and revision historyReferences · Evidential Classification Matrix · Revision History

#References & Foundational Literature

  1. Sevilla, J., Heim, L., Ho, A., Besiroglu, T., Hobbhahn, M., & Villalobos, P. (2022). Compute Trends Across Three Eras of Machine Learning. arXiv:2202.05924; IJCNN 2022. https://arxiv.org/abs/2202.05924. [Deep-learning-era training-compute doubling of about 6 months.]
  2. Kwa, T., West, B., Becker, J., et al. (2025). Measuring AI Ability to Complete Long Software Tasks. arXiv:2503.14499 (first submitted 2025-03-18; 26 authors). https://arxiv.org/abs/2503.14499. [Seven-month doubling of the 50% time horizon; about 50 minutes for Claude 3.7 Sonnet at original posting.]
  3. Sevilla, J., Besiroglu, T., Cottier, B., You, J., Roldán, E., Villalobos, P., & Erdil, E. (2024). Can AI scaling continue through 2030? Epoch AI, 2024-08-20. https://epoch.ai/blog/can-ai-scaling-continue-through-2030. [Feasibility of 2×10292\times10^{29} FLOP runs by 2030; power as first binding constraint.]
  4. Grace, K., Stewart, H., Sandkühler, J. F., Thomas, S., Weinstein-Raun, B., Brauner, J., & Korzekwa, R. C. (2024). Thousands of AI Authors on the Future of AI. arXiv:2401.02843; JAIR 84:9 (2025). https://arxiv.org/abs/2401.02843. [13-year shift in the 50% date between survey waves.]
  5. Sidley Austin LLP. (2026). EU Lawmakers Reach Provisional Agreement to Delay Key EU AI Act Obligations. Data Matters blog, 2026-06-22. https://datamatters.sidley.com/2026/06/22/eu-lawmakers-reach-provisional-agreement-to-delay-key-eu-ai-act-obligations/. [Tier 4 secondary source for the provisional agreement and timetable; page located by search, not read in full: VERIFICATION NEEDED.]

#Evidential Classification Matrix

Section / Claim Evidence Category Supporting Source Confidence / Status
Compute doubling about 6 months (deep-learning era) Well Supported Sevilla et al. (2022) High for the period studied
Time-horizon doubling about 7 months Preliminary Kwa et al. (2025) Moderate
2030 feasibility of 2×10292\times10^{29} FLOP Forecast Sevilla et al. (2024) Report-stated
13-year survey shift Well Supported (as survey result) Grace et al. (2024) High
EU AI Act delay status Preliminary Sidley Austin LLP (2026) Low-moderate; primary text unchecked
FCST-HORIZON-001 Forecast Kwa et al. (2025) Medium, editorial
FCST-COMPUTE-001 Forecast Sevilla et al. (2024) High, editorial
FCST-EUAI-001 Forecast Sidley Austin LLP (2026) About 85%, editorial

#Revision History

  • v0.1.0 (2026-10-15): Initial draft. Citations checked against arXiv/Crossref/publisher pages where marked; not independently fact-checked.
10 topics this chapter covers
  • 65.1AI capabilities over the next year
  • 65.2AI capabilities over the next three years
  • 65.3AI capabilities over the next five years
  • 65.4Agent deployment
  • 65.5AI in scientific research
  • 65.6AI-assisted software engineering
  • 65.7Robotics and physical AI
  • 65.8Infrastructure and cost trends
  • 65.9Regulation and governance
  • 65.10Adoption and economic impact