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Environmental Science & MacroeconomicsNACE M72Time Series ForecastingYearly Cadence5 Steps HorizonTarget: targetfev / AutoGluon ↗

Global Sovereign Carbon Dioxide (CO2) Emissions

Covers annual sovereign carbon dioxide (CO2) emissions across 191 nations spanning 60 historical years at yearly cadence. Evaluates a 5-year forecast horizon to project sovereign decarbonization trajectories and national emissions reduction targets.

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11,460Records (Rows)
191Series Sequences
YearlySampling Cadence
5 StepsForecast Horizon
No intra-year seasonality (annual cadence; seasonality parameter = 1); exhibits long-wave macroeconomic business cycles and structural multi-decade industrial policy shifts.Dominant Seasonality
41 Methodsfev Leaderboard (SQL)
BUSINESS CONTEXT & OBJECTIVEClimate Policy & Decarbonization (M72)

Business Objective: Global Sovereign Carbon Dioxide (CO2) Emissions

01Business Context

National environmental agencies, international treaty bodies (UNFCCC), sovereign wealth funds, and ESG risk committees require multi-year emissions projections to calibrate climate transition risk, verify Nationally Determined Contributions (NDCs), and assess global carbon budgets on an annual cycle.

02Analytical Objective

Forecast territorial carbon dioxide emissions for 191 sovereign states over a 5-year forward horizon (H=5) using six decades of annual historical emission dynamics.

03Economic & Decision Impact

Under-forecasting emissions obscures structural transition bottlenecks, leaving governments exposed to treaty penalties, underfunded carbon capture infrastructure, and unmitigated climate liability. Over-forecasting misallocates capital toward stranded decarbonization assets and penalizes sovereign credit ratings through over-stringent regulatory burdens.

ML Benchmark Narrative

Due to smooth non-seasonal annual trends across 60 time steps, classical statistical baselines like AutoARIMA and damped Holt-Winters ETS deliver stable linear drift extrapolations but struggle with structural economic decoupling. Gradient boosted trees (LightGBM lag models) capture non-linear sovereign economic shifts when cross-country features are shared, while zero-shot time series foundation models (such as Mistral's Timestral and MOIRAI) excel at generalizing multi-country macroeconomic transition curves without overfitting short series lengths.

Source Origin:Global Carbon Project / World Bank
Creator:Friedlingstein et al., Global Carbon Budget (2023)
License:CC-BY-4.0
FEATURE SPECIFICATION & DATA DICTIONARY

Target & Feature Column Definitions

Exhaustive business definitions, measurement units, roles, and target variables across all 3 columns.

ColVariable / Feature NameRoleTypeUnit / ScaleDescription & Business Meaning
CtargetAnnual Territorial CO2 EmissionsTARGETNUMkt CO2
Total annual territorial carbon dioxide emissions produced from fossil fuel combustion and industrial processes.
AidCountry / Sovereign EntitySERIES IDCAT—
Unique sovereign state, country, or territorial identifier for each time series.
BtimestampReporting YearTIMETIMEyear
Annual reporting timestamp marking the end of each calendar observation period from 1960 onwards.
DATASET PREVIEW

Interactive Data Table

Explore rows, feature values, and target labels for Global Sovereign Carbon Dioxide (CO2) Emissions.

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TIME SERIES FORECASTING LEADERBOARD (FEV-BENCH)

Foundation Models vs Traditional ML & Baselines (41 Methods)

Empirical evaluation directly from the AutoGluon fev benchmark suite evaluating zero-shot foundation models against deep learning, gradient-boosted trees, and statistical baselines across 100 evaluation tasks.

#1 Global Ranked Model?Timestral-209M achieves the highest aggregate win rate (87.7%) across all 100 tasks in fev-bench.
Timestral-209M87.7% Win Rate • 0.51s latency
Evaluated Methods?41 models spanning open-weight foundation models, closed APIs, deep neural architectures, and statistical baselines.
41 MethodsMistral AI, Google, AWS, Salesforce, Prior Labs
Primary Evaluation Metric?Scaled Quantile Loss (SQL) penalizes both point prediction errors and quantile miscalibration across 9 probabilistic levels (p10 to p90).
SQL & MASEProbabilistic calibration
Browser Execution?Carla Engine executes Timestral-123M 100% locally in-browser via WebGPU tensor kernels with zero server uploads.
100% WebGPUTimestral-123M • Zero server upload
RankMethod / ModelFamilyOrganization
SQL Win Rate?Average win rate (%) against all competing models across the benchmark tasks under Scaled Quantile Loss.
SQL Skill?Normalized skill score relative to the Seasonal Naive baseline (0% = baseline, higher is better).
MASE Win Rate?Average win rate (%) under Mean Absolute Scaled Error.
Latency?Median end-to-end execution time per 100 time series in seconds.
Link
#1Timestral-209MFoundation ModelMistral AI87.7%+50.4%86.0%0.51sRepo ↗
#2Timestral-123M (Carla Engine)Foundation ModelMistral AI86.8%+50.2%85.0%0.32sRepo ↗
#3TimeRSIClosed-Source APIGaTech & SamayLabs84.8%+51.2%83.8%2512sRepo ↗
#4t0-gammaFoundation ModelThe Forecasting Company84.4%+49.4%81.8%4.38sRepo ↗
#5Timestral-28MFoundation ModelMistral AI79.2%+48.4%77.0%0.11sRepo ↗
#6timesfm-3Foundation ModelGoogle78.5%+49.0%77.0%3.41sRepo ↗
#7ChakraTSBaselineCommunity78.2%+48.1%79.5%14.22sRepo ↗
#8Lingjiang2.0BaselineCommunity73.9%+47.0%71.3%8.89sRepo ↗
#9Chronos-2Foundation ModelAWS70.4%+47.3%68.4%0.84sRepo ↗
#10timeh2o-v1-tinyFoundation ModelH2O.ai69.9%+45.5%67.0%0.19sRepo ↗
#11Timestral-5MFoundation ModelMistral AI69.0%+46.2%67.7%40msRepo ↗
#12Toto-2.0-2.5BBaselineCommunity67.5%+44.4%65.7%5.58sRepo ↗
#13t0-betaFoundation ModelThe Forecasting Company67.4%+46.6%64.5%2.29sRepo ↗
#14Toto-2.0-1BBaselineCommunity66.4%+44.4%65.5%2.48sRepo ↗
#15TiRex-2Foundation ModelNX-AI65.8%+45.5%63.4%0.27sRepo ↗
#16Toto-2.0-313mBaselineCommunity65.1%+44.2%63.5%1.06sRepo ↗
#17TiRexFoundation ModelNX-AI58.0%+42.6%54.1%0.24sRepo ↗
#18Toto-2.0-22mBaselineCommunity57.6%+42.9%56.0%0.25sRepo ↗
#19TimesFM-2.5BaselineCommunity54.6%+42.2%53.5%1.87sRepo ↗
#20TabPFN-TS-3Foundation ModelPrior Labs52.4%+43.1%51.3%235sRepo ↗
#21TS-ICLFoundation ModelEDF-Lab51.2%+43.1%49.8%2.49sRepo ↗
#22FlowStateFoundation ModelIBM49.3%+39.9%49.9%2.29sRepo ↗
#23citras-fmFoundation ModelHitachi48.8%+41.2%46.9%0.60sRepo ↗
#24Toto-1.0BaselineCommunity47.5%+40.8%45.9%22.35sRepo ↗
#25TabPFN-TSFoundation ModelPrior Labs47.3%+41.5%45.4%109sRepo ↗
#26Toto-2.0-4mBaselineCommunity46.2%+40.7%43.6%0.20sRepo ↗
#27Moirai-2.0BaselineCommunity41.9%+39.3%40.5%0.35sRepo ↗
#28Chronos-BoltFoundation ModelAWS41.4%+38.9%39.3%0.26sRepo ↗
#29TFTDeep Learning—31.7%+32.2%29.2%829sRepo ↗
#30Stat. EnsembleBaselineCommunity27.5%+20.7%30.6%147sRepo ↗
#31Sundial-BaseFoundation ModelTsinghua University27.4%+33.4%33.6%8.01sRepo ↗
#32PatchTSTDeep Learning—26.8%+30.1%25.1%664sRepo ↗
#33DeepARDeep Learning—26.1%+29.1%23.6%1113sRepo ↗
#34AutoARIMAStatistical Baseline—23.3%+21.3%21.5%20.14sRepo ↗
#35AutoETSStatistical Baseline—20.3%-26.8%22.5%3.48sRepo ↗
#36CatBoostTree Ensemble—19.1%+23.0%35.1%29.48sRepo ↗
#37LightGBMTree Ensemble—17.8%+21.0%33.1%3.03sRepo ↗
#38AutoThetaStatistical Baseline—15.6%+5.5%19.8%3.28sRepo ↗
#39Seasonal NaiveBaselineCommunity10.3%0.0%11.8%0.48sRepo ↗
#40NaiveStatistical Baseline—6.7%-45.4%10.9%0.47sRepo ↗
#41DriftStatistical Baseline—6.1%-45.8%10.0%0.45sRepo ↗
STATISTICAL DISTRIBUTIONS

Variable Schema & Summary Distributions

Observed numerical ranges, category cardinalities, missing rates, and sample values across 11,460 rows.

ColVariable NameTypeMissingDistinctSummary Stats / DistributionSample Values
CtargetTARGETNUM08,292[-80.67400360107422, 34344008] μ=992162 σ=3049003414.3710021972656491.37799072265625689.39599609375
AidCAT0191—AfghanistanAfghanistanAfghanistan
BtimestampCAT060—1960-12-31T00:00:001961-12-31T00:00:001962-12-31T00:00:00
FREQUENTLY ASKED QUESTIONS

Frequently Asked Questions: Global Sovereign Carbon Dioxide (CO2) Emissions

Common questions regarding the Global Sovereign Carbon Dioxide (CO2) Emissions dataset, machine learning task formulations, and in-browser tabular inference.

What is the forecasting horizon for Global Sovereign Carbon Dioxide (CO2) Emissions?

The standardized forecasting horizon is 5 years (H=5) at an annual cadence, matching international multi-year climate policy review cycles and sovereign NDC updates.

Can I run zero-server forecasts on this dataset in Google Sheets?

Yes, Carla enables zero-server in-context time series forecasting directly in spreadsheets using modern foundation models such as Mistral's Timestral, requiring no remote API round-trips or server infrastructure.

Which models perform best on Global Sovereign Carbon Dioxide (CO2) Emissions?

Zero-shot foundation models like Mistral's Timestral and MOIRAI excel on multi-entity yearly series by leveraging cross-country macro trends, while tuned LightGBM and AutoARIMA baselines provide strong competitive performance on smooth, monotonic trajectories.

LIVE EVALUATION IN GOOGLE SHEETS

Test TabICLv2 on Global Sovereign Carbon Dioxide (CO2) Emissions Yourself

Open the pre-loaded Google Sheet and let Carla configure the target and task for local, zero-cloud tabular machine learning.

Step 1

Launch Carla

Click once to open the spreadsheet and Carla side panel together.

Step 2

Review the Setup

Carla selects the dataset target and task from this page automatically.

Step 3

Evaluate & Predict

Run predictions and compute metrics with zero server uploads.

Provenance & Attribution

Friedlingstein et al., Global Carbon Budget 2023, Earth System Science Data, 15, 5301–5369, 2023.

License: Open AccessData Source: autogluon/fev_datasetsOriginal Source: https://globalcarbonbudget.org/