OBJECT RESEARCH  /  REVISED UNIFIED EDITION

Drill, Baby, Drill! — The Oil Barrel

Standardisation, extraction, infrastructure, markets, sectoral dependence and transition risk

Scope: The emergence of the 42-US-gallon petroleum barrel; the history and present organisation of oil extraction; production, infrastructure, prices and political economy; sectoral dependence on oil and competing energy carriers; lifecycle emissions; and contrasting futures for petroleum under current-policy and climate-constrained scenarios. The report distinguishes crude oil from broader “liquids”, physical barrels from the abstract trading unit, and verified evidence from the installation’s parafictional framing.

Abstract

The petroleum barrel is both a historical container and a durable abstraction. A 42-US-gallon measure, equivalent to 158.987 litres, became customary in Pennsylvania’s oil trade in 1866 and was adopted by the Petroleum Producers Association in 1872. Long after pipelines and tankers displaced wooden barrels, the unit remained the basic language of production, reserves, prices and futures contracts. Oil grew from a nineteenth-century illuminant into a global system of wells, pipelines, terminals, refineries, shipping lanes, petrochemical plants and financial benchmarks. In 2024 its share of global energy demand fell below 30 per cent for the first time, yet 2025 production remained at record scale and road transport alone still represented roughly 45 per cent of oil demand. The barrel’s climatic consequence is similarly scalar: consuming one average barrel releases about 0.43 tonnes of CO2 from combustion, before upstream methane, flaring and refining are counted. Current-policy outlooks preserve substantial oil demand to mid-century, while climate-compatible pathways require a rapid decline and leave significant reserves unextracted. Within The Sunshine Find, the barrel links material extraction to an accounting system that converts geological time, landscapes and atmospheric capacity into a saleable unit.

Contents

1. The barrel: container, standard and commercial abstraction
2. From oil seep to planetary industry: a history of extraction
3. Present production and infrastructure
4. Prices, benchmarks and the political economy of volatility
5. Oil in the current global energy system
6. Sectoral dependence: where oil can and cannot be displaced quickly
7. Emissions: from one barrel to the global carbon budget
8. The future of oil production
9. Interpretive synthesis: the barrel as a unit of planetary conversion
Primary and institutional evidence links
Numbered Academic Reference List
Appendix: User prompts related to this report

1. The barrel: container, standard and commercial abstraction

The oil barrel did not originate as a universal scientific unit. It emerged from the practical disorder of the early Pennsylvania petroleum boom, where crude moved in whatever containers were available: whiskey barrels, salt barrels, casks and improvised tanks. Variations in capacity, leakage and dishonest filling created a market problem. Buyers needed a recognised quantity that could be priced, inspected, taxed and compared across producers. The 42-gallon standard stabilised exchange before it stabilised the physical container itself.

1.1 Standardisation chronology

Academic source links: Petrolia: The Landscape of America’s First Oil Boom | Oil and Ideology

References: [1]; [2].

Primary / institutional evidence links: Petroleum History Institute: Standardization | American Oil & Gas Historical Society: History of the 42-Gallon Oil Barrel

1.2 What the unit measures — and what it does not

The persistence of the barrel demonstrates an infrastructural principle central to this project: a standard can outlive the material form that generated it. Most crude oil is never placed in a 159-litre drum. It is metered through pipes, held in tanks and moved in ships, while the “barrel” continues to organise contracts, headlines, budgets and emissions calculations. The object is therefore simultaneously literal and conceptual.

1.3 “Drill, baby, drill!”: abundance as political language

The object title refers to a slogan popularised at the 2008 Republican National Convention, where Michael Steele used the phrase in support of increased domestic oil and gas production. Its force lies in repetition: extraction is presented as immediate, technically simple and synonymous with energy independence. The slogan suppresses the time lag between leasing, exploration, permitting, drilling and production; it also obscures the difference between domestic output and the globally priced oil market. Its historical coincidence with the nominal daily price peak of 2008 is significant. A moment of extreme price anxiety produced a political demand to enlarge supply, even though price formation reflected global demand, spare capacity, financial conditions and geopolitical risk rather than a single national drilling decision.

Academic source links: “An Inevitable Consequence”: Changing Ideas of Prevention in the Wake of Catastrophic Events | Oil

References: [28], 1-31; [3]; [4].

Primary / institutional evidence links: Carbon Brief history of the slogan

2. From oil seep to planetary industry: a history of extraction

Petroleum was used for waterproofing, medicine, lighting and warfare long before the modern oil industry. What changed in the nineteenth century was not the discovery of the substance but the creation of a reproducible system for drilling, refining, transporting and selling it at industrial scale. Edwin Drake’s 1859 well near Titusville is conventionally treated as a founding event in the United States, but “first well” claims depend on how one defines drilling, commercial purpose and geographic scope. The historically safer claim is that the Pennsylvania boom catalysed a modern integrated petroleum industry and a new landscape of derricks, tanks, pipelines, refineries and boomtowns.

2.1 Major historical transformations

Academic source links: Petrolia | Oil and Ideology | Carbon Democracy | Oil

References: [1]; [2]; [3]; [4].

2.2 Extraction frontiers and the redistribution of visibility

Early oil districts were visibly saturated with production: derricks, fires, mud, barrels and refineries crowded the extraction landscape. Contemporary oil is both more extensive and less immediately visible to many consumers. Offshore platforms, desert fields, Arctic prospects, oil sands, subsea pipelines and remote export terminals displace the material violence of production away from the filling station, airport or plastic object. This spatial separation is not accidental. Pipelines and shipping corridors connect sacrifice zones, industrial nodes and consumer centres while distributing responsibility across firms, states, contractors and financial instruments.

The move from conventional reservoirs to deepwater, tight oil and bitumen also complicates any simple equation between “one barrel” and a uniform environmental burden. Barrels with similar market value can require very different quantities of steam, electricity, water, flaring and processing. The trade unit standardises volume precisely where geology and lifecycle impact remain heterogeneous.

Academic source links: Material Politics: Disputes Along the Pipeline | Global Carbon Intensity of Crude Oil Production

References: [5]; [19], 851-853.

3. Present production and infrastructure

3.1 Production definitions and scale

Oil statistics often appear contradictory because several aggregates circulate under the same word. “Crude oil” may include lease condensate; “petroleum and other liquids” can add natural-gas liquids, refinery gains, biofuels and other products; “oil supply” in market reports may use still another convention. For 2025, the Energy Institute reported record energy demand and a continuing geographical shift in production, while the EIA recorded a world-leading 13.6 million barrels per day of US crude oil plus lease condensate. The attached study’s country table remains a useful crude-only benchmark, but its figures should not be combined uncritically with total-liquids data.

Academic source links: Oil

References: [3].

Primary / institutional evidence links: EIA: The United States produced more crude oil than any other country in 2025 | EIA International Energy Statistics | Energy Institute Statistical Review of World Energy 2026

3.2 The oil system as a chain of infrastructures

Academic source links: Material Politics | Oil | Carbon Intensity of Global Crude Oil Refining and Mitigation Potential

References: [3]; [5]; [20], 526-532.

3.3 Chokepoints, storage and the geopolitics of continuity

Oil’s fungibility is often overstated. Crude grades differ, refineries are configured for particular slates, and transport capacity is geographically specific. The system therefore depends on a small number of high-volume corridors and maritime passages. In 2025 approximately 20 million barrels per day of crude and products moved through the Strait of Hormuz, around one quarter of world seaborne oil trade. Malacca, Suez/SUMED, Bab el-Mandeb and the Turkish Straits are similarly important. Strategic reserves, commercial inventories, spare production capacity, rerouting and demand restraint provide buffers, but none is instantaneous or unlimited.

The 2026 price volatility captured in current official outlooks demonstrates how infrastructure turns geopolitical events into market expectations. A disrupted passage does not need to eliminate global supply permanently to move prices: the possibility of delay, insurance cost, stock draw and refinery shortage is sufficient. The barrel price is therefore a compressed judgement about geology, logistics, war, finance, policy and anticipated demand.

Academic source links: Material Politics | Carbon Democracy

References: [4]; [5].

Primary / institutional evidence links: IEA: Strait of Hormuz | EIA: World Oil Transit Chokepoints

3.4 Producers, companies and market organisation

Country and company power overlap but are not identical. National oil companies control many of the world’s largest reserves and often combine commercial production with fiscal, diplomatic and social functions. International oil companies remain influential in technology, finance, trading, deepwater production, refining and marketing. Independent firms and service companies play disproportionate roles in shale drilling and specialised technology. OPEC+ coordinates production policy among participating states, while futures exchanges, price-reporting agencies, refiners and trading houses translate physical flows into benchmark prices.

4. Prices, benchmarks and the political economy of volatility

4.1 How a barrel acquires a price

There is no single universal oil price. Brent, West Texas Intermediate and Dubai/Oman are benchmark systems linked to particular grades, delivery locations and trading practices. Physical crudes trade at premiums or discounts reflecting density, sulphur content, transport cost, refinery compatibility and regional balance. Futures prices add expectations about later delivery, interest rates, inventories and risk. OPEC+ targets, US shale responsiveness, spare capacity, sanctions, demand growth, recessions and exchange rates all influence the market, but their effects differ by episode.

Academic source links: Not All Oil Price Shocks Are Alike | Forty Years of Oil Price Fluctuations | The Role of Speculation in Oil Markets

References: [6], 1053-1069; [8], 139-160; [9], 7-33.

4.2 Historical turning points

Academic source links: Causes and Consequences of the Oil Shock of 2007-08 | Not All Oil Price Shocks Are Alike | Forty Years of Oil Price Fluctuations

References: [6], 1053-1069; [7], 215-283; [8], 139-160.

Primary / institutional evidence links: EIA Short-Term Energy Outlook, July 2026 | FRED / EIA Brent Europe series | Energy Institute Statistical Review

4.3 Oil, growth, inflation and rent

Oil prices redistribute income between importers and exporters and between producers, refiners, transport firms and consumers. A supply-driven price rise can increase inflation, reduce real household income and weaken oil-importing economies, while raising export revenue and fiscal receipts for producers. A demand-driven rise caused by strong global growth has different macroeconomic meaning. This distinction is central to contemporary oil-price scholarship: identical price movements can have unlike causes and consequences.

For producing states, petroleum revenue can finance infrastructure, welfare and sovereign wealth funds, but it can also produce fiscal volatility, exchange-rate pressure, concentrated political power and delayed diversification. The “resource curse” is not an automatic geological fate; it is a contingent relationship among institutions, ownership, taxation, conflict, distribution and global markets. Nevertheless, dependence on oil rents creates a transition risk: climate policy or technological substitution can strand not only private assets but public budgets and social contracts.

Academic source links: Does Oil Hinder Democracy? | Natural Resources: Curse or Blessing? | Causes and Consequences of the Oil Shock of 2007-08

References: [7], 215-283; [10], 325-361; [11], 366-420.

5. Oil in the current global energy system

5.1 Interpreting the object label’s 2022 figures

The exhibition description states that oil supplied 30 per cent of global energy in 2022 while producing 32.7 per cent of combustion emissions. These figures function as a defensible historical snapshot within a particular statistical convention. They should be accompanied by three qualifications. First, “primary energy”, “total energy supply”, “final energy” and “electricity generation” are different denominators. Second, combustion emissions exclude part of the upstream methane, flaring, refining and embodied infrastructure footprint. Third, the global mix changes each year and statistical organisations periodically revise conversion methods.

The IEA reported that oil’s share of total energy demand fell below 30 per cent in 2024 for the first time, half a century after a peak near 46 per cent. This relative decline did not mean an absolute end to oil: demand still reached about 193 EJ in 2024, and oil use grew again in 2025, led by petrochemicals and aviation while road-fuel growth remained muted. The distinction between share and volume is therefore essential. A source can lose percentage share in a growing system while remaining at historically high absolute consumption.

Academic source links: Sociotechnical Transitions for Deep Decarbonization | A Low Energy Demand Scenario for Meeting the 1.5 °C Target

References: [12], 1242-1244; [13], 515-527.

Primary / institutional evidence links: IEA Global Energy Review 2025: Oil | IEA Global Energy Review 2026: Global trends | Energy Institute 2026 media release

5.2 Oil and renewables are not a single substitution contest

Comparisons between “oil” and “renewables” often collapse unlike energy functions. Wind, solar, hydro and nuclear mainly produce electricity. Oil is used predominantly as a liquid transport fuel and as a chemical feedstock. Renewable electricity can displace oil indirectly through electric vehicles, heat pumps, electrified industrial processes and hydrogen production, but it does not replace jet fuel, marine fuel or petrochemical feedstock merely by increasing its share of the power mix. Infrastructure, equipment turnover, storage, grids, material supply and regulation mediate the substitution.

Academic source links: Sociotechnical Transitions for Deep Decarbonization | Magnetic-Confinement Fusion

References: [12], 1242-1244; [18], 398-410.

Primary / institutional evidence links: IEA Renewables 2024: Global overview | IEA Road Transport Fuels | IEA Global Energy Review 2025: Oil

6. Sectoral dependence: where oil can and cannot be displaced quickly

The following table does not assign a false universal percentage to every industry. Energy mixes vary by country, technology, product and statistical boundary. It instead combines robust global anchors with a structured assessment of present dependence and transition mechanism. “High” means that oil or another fossil fuel is currently integral to the dominant technical system, not that alternatives are impossible.

Academic source links: Deep Decarbonization Pathways for Energy-Intensive Industry | Environmental Impacts and Decarbonization Strategies in Cement and Concrete | Strategies to Reduce the Global Carbon Footprint of Plastics | Achieving Net-Zero Greenhouse Gas Emission Plastics | Magnetic-Confinement Fusion

References: [14], 960-973; [15], 559-573; [16], 374-378; [17], 71-76; [18], 398-410.

Primary / institutional evidence links: IEA Renewables 2024 | IEA Global Energy Review 2025: Oil | Energy Institute 2026 review release

6.1 Why sectoral transition speeds differ

Electricity can change relatively quickly because new wind, solar, storage and grid assets can alter the generation mix without replacing every end-use appliance at once. Transport and industry are constrained by the installed stock of vehicles, aircraft, ships, furnaces, refineries, buildings and supply chains. This is carbon lock-in: past investment shapes future demand through technical lifetime, standards, skills, finance and political constituencies. A barrel displaced in road transport may therefore be partially offset by growth in aviation or petrochemicals unless policy addresses total material and mobility demand as well as fuel substitution.

Academic source links: Carbon Lock-In: Types, Causes, and Policy Implications | Assessing Carbon Lock-in | Sociotechnical Transitions for Deep Decarbonization

References: [12], 1242-1244; [24]; [27], 425-452.

7. Emissions: from one barrel to the global carbon budget

7.1 The combustion rule of thumb

The EPA’s current equivalency methodology assigns approximately 0.43 metric tonnes of CO2 to the combustion of the products represented by one average barrel of crude oil. This is an accounting approximation based on average heat content, carbon content and complete oxidation. It is useful for scaling, but it is not a full lifecycle assessment and does not mean that every physical barrel produces exactly the same emissions.

Academic source links: Global Carbon Intensity of Crude Oil Production | Carbon Intensity of Global Crude Oil Refining and Mitigation Potential

References: [19], 851-853; [20], 526-532.

Primary / institutional evidence links: US EPA Greenhouse Gas Equivalencies Calculator: calculations and references

7.2 Lifecycle variation

Combustion dominates the lifecycle footprint of most oil products, but upstream and refining differences are consequential. Masnadi and colleagues estimated a global volume-weighted average upstream carbon intensity of about 10.3 gCO2e/MJ, with large field-to-field variation. Jing and colleagues estimated a volume-weighted average refining intensity of about 40.7 kgCO2e per barrel, with results varying by crude and refinery configuration. Heavy oil, steam-intensive extraction, flaring, methane leakage and complex upgrading can therefore make one market barrel materially more carbon-intensive than another before either is burned.

Non-combustion use does not make petroleum climate-neutral. Carbon in durable plastics may be stored temporarily, but production requires energy and products eventually enter waste, recycling, incineration or environmental leakage pathways. At the same time, counting all extracted oil as instantly combusted would be inaccurate. The correct relationship is systemic: continued extraction sustains a product network whose dominant endpoint remains oxidation to CO2.

Academic source links: Global Carbon Intensity of Crude Oil Production | Carbon Intensity of Global Crude Oil Refining and Mitigation Potential | Achieving Net-Zero Greenhouse Gas Emission Plastics

References: [17], 71-76; [19], 851-853; [20], 526-532.

7.3 Scale, committed emissions and the object’s visual problem

The barrel is visually manageable and climatically deceptive. A steel drum occupies human scale; global oil supply is measured in tens of millions of such units every day. Existing energy infrastructure also carries “committed emissions”: if power plants, vehicles, industrial facilities and buildings operate for expected lifetimes, they generate future CO2 without any new technological invention. Oil wells and pipelines are only part of this commitment. Refineries, airports, highways, suburban form and petrochemical demand complete the lock-in.

Energy-related CO2 emissions reached nearly 38.4 Gt in 2025. Oil remained the second-largest source after coal, primarily through transport. The object therefore performs a scale conversion: it asks the viewer to understand a globally distributed atmospheric process through a standardised commercial container.

Academic source links: Committed Emissions from Existing Energy Infrastructure Jeopardize 1.5 °C Climate Target | Assessing Carbon Lock-in

References: [21], 373-377; [24].

Primary / institutional evidence links: IEA Global Energy Review 2026: CO2 emissions | IEA World: Oil

8. The future of oil production

8.1 There is no single forecast

The future of oil depends less on geological exhaustion than on policy, technology, demand, conflict, capital cost and the speed of infrastructure turnover. Contemporary scenarios diverge sharply because they encode different assumptions. The IEA’s 2025 Stated Policies Scenario has demand peaking around 102 million barrels per day near 2030 and then declining gradually. Its Current Policies Scenario reaches about 113 million barrels per day in 2050, supported by trucks, aviation and petrochemical feedstocks. A net-zero pathway requires much faster electrification, efficiency and demand reduction, and therefore a far steeper contraction in oil use.

Academic source links: Unextractable Fossil Fuels in a 1.5 °C World | Fossil Fuel Supply and Climate Policy | Magnetic-Confinement Fusion

References: [18], 398-410; [22], 230-234; [23], 1-13.

Primary / institutional evidence links: IEA World Energy Outlook 2025: Stated Policies Scenario | IEA World Energy Outlook 2025: Executive summary | IEA Oil 2025: Executive summary

8.2 Production decline, new investment and the timing problem

Oil fields decline naturally as reservoir pressure falls, so maintaining a flat level of supply requires continuing investment even when long-term demand is expected to fall. This fact is sometimes used to argue that any new investment is automatically compatible with transition. The conclusion does not follow. The relevant questions are how much investment, in which fields, at what cost and carbon intensity, under which demand pathway, and with what decommissioning obligation. Short-cycle investment in existing fields is economically and climatically different from a multi-decade frontier project whose payback assumes prolonged high demand.

A disorderly transition can fail in two directions. Underinvestment relative to continuing demand can produce shortages and price shocks. Overinvestment relative to a climate-compatible decline can lock in emissions, strand assets and transfer losses to workers, pension funds and producing states. A managed transition therefore requires both demand-side transformation and supply-side governance, not an exclusive focus on either consumers or drilling.

Academic source links: Fossil Fuel Supply and Climate Policy | Macroeconomic Impact of Stranded Fossil Fuel Assets | Stranded Assets in the Transition to a Carbon-Free Economy

References: [23], 1-13; [25], 588-593; [26], 281-298.

8.3 What is most likely to change first

Primary and institutional evidence links

The following sources support exact standards, current statistics, forecasts and operational facts. They are not included in the numbered academic bibliography.

1. American Oil & Gas Historical Society. “History of the 42-Gallon Oil Barrel.”

2. Petroleum History Institute. “Standardization.”

3. Energy Institute. Statistical Review of World Energy 2026.

4. Energy Institute. “Global Electrification Reaches Tipping Point…” 30 June 2026.

5. International Energy Agency. Global Energy Review 2025: Oil.

6. International Energy Agency. Global Energy Review 2026: Global Trends.

7. International Energy Agency. Global Energy Review 2026: CO2 Emissions.

8. International Energy Agency. Renewables 2024: Global Overview.

9. International Energy Agency. World Energy Outlook 2025: Stated Policies Scenario.

10. International Energy Agency. Oil 2025: Executive Summary.

11. International Energy Agency. Strait of Hormuz.

12. U.S. Energy Information Administration. “The United States Produced More Crude Oil than Any Other Country in 2025.” 9 July 2026.

13. U.S. Energy Information Administration. Short-Term Energy Outlook, July 2026.

14. U.S. Energy Information Administration. World Oil Transit Chokepoints.

15. U.S. Environmental Protection Agency. Greenhouse Gas Equivalencies Calculator: Calculations and References.

Numbered Academic Reference List

Chicago bibliography style. This numbered list contains only scholarly books and peer-reviewed academic articles. Institutional and statistical sources are listed separately above.

1. Black, Brian. Petrolia: The Landscape of America’s First Oil Boom. Baltimore: Johns Hopkins University Press, 2000.

2. Olien, Roger M., and Diana Davids Olien. Oil and Ideology: The Cultural Creation of the American Petroleum Industry. Chapel Hill: University of North Carolina Press, 2000.

3. Bridge, Gavin, and Philippe Le Billon. Oil. 2nd ed. Cambridge: Polity, 2017.

4. Mitchell, Timothy. Carbon Democracy: Political Power in the Age of Oil. London: Verso, 2011.

5. Barry, Andrew. Material Politics: Disputes Along the Pipeline. Chichester: Wiley-Blackwell, 2013.

6. Kilian, Lutz. “Not All Oil Price Shocks Are Alike: Disentangling Demand and Supply Shocks in the Crude Oil Market.” American Economic Review 99, no. 3 (2009): 1053-1069.

7. Hamilton, James D. “Causes and Consequences of the Oil Shock of 2007-08.” Brookings Papers on Economic Activity 2009, no. 1 (2009): 215-283.

8. Baumeister, Christiane, and Lutz Kilian. “Forty Years of Oil Price Fluctuations: Why the Price of Oil May Still Surprise Us.” Journal of Economic Perspectives 30, no. 1 (2016): 139-160.

9. Fattouh, Bassam, Lutz Kilian, and Lavan Mahadeva. “The Role of Speculation in Oil Markets: What Have We Learned So Far?” The Energy Journal 34, no. 3 (2013): 7-33.

10. Ross, Michael L. “Does Oil Hinder Democracy?” World Politics 53, no. 3 (2001): 325-361.

11. van der Ploeg, Frederick. “Natural Resources: Curse or Blessing?” Journal of Economic Literature 49, no. 2 (2011): 366-420.

12. Geels, Frank W., Benjamin K. Sovacool, Tim Schwanen, and Steve Sorrell. “Sociotechnical Transitions for Deep Decarbonization.” Science 357, no. 6357 (2017): 1242-1244.

13. Grubler, Arnulf, Charlie Wilson, Nuno Bento, Benigna Boza-Kiss, Volker Krey, David L. McCollum, Narasimha D. Rao, et al. “A Low Energy Demand Scenario for Meeting the 1.5 °C Target and Sustainable Development Goals without Negative Emission Technologies.” Nature Energy 3 (2018): 515-527.

14. Bataille, Chris, Max Åhman, Karsten Neuhoff, Lars J. Nilsson, Manfred Fischedick, Stefan Lechtenböhmer, Baltazar Solano-Rodriguez, et al. “A Review of Technology and Policy Deep Decarbonization Pathway Options for Making Energy-Intensive Industry Production Consistent with the Paris Agreement.” Journal of Cleaner Production 187 (2018): 960-973.

15. Habert, Guillaume, Stephen A. Miller, Viviana M. John, John L. Provis, Alastair Favier, Arnaud Horvath, and Karen L. Scrivener. “Environmental Impacts and Decarbonization Strategies in the Cement and Concrete Industries.” Nature Reviews Earth & Environment 1 (2020): 559-573.

16. Zheng, Jiajia, and Sangwon Suh. “Strategies to Reduce the Global Carbon Footprint of Plastics.” Nature Climate Change 9 (2019): 374-378.

17. Meys, Raoul, Frédéric Frick, Stefan Westhues, André Sternberg, Jens Klankermayer, and André Bardow. “Achieving Net-Zero Greenhouse Gas Emission Plastics by a Circular Carbon Economy.” Science 374, no. 6563 (2021): 71-76.

18. Ongena, Jef, Roger Koch, Ralf Wolf, and Hartmut Zohm. “Magnetic-Confinement Fusion.” Nature Physics 12 (2016): 398-410.

19. Masnadi, Mohammad S., Hassan M. El-Houjeiri, Dominik Schunack, Yunpo Li, Jacob G. Englander, Alhassan Badahdah, Jean-Christophe Monfort, et al. “Global Carbon Intensity of Crude Oil Production.” Science 361, no. 6405 (2018): 851-853.

20. Jing, Liang, Hassan M. El-Houjeiri, Jean-Christophe Monfort, Adam R. Brandt, Mohammad S. Masnadi, Deborah Gordon, and Joule A. Bergerson. “Carbon Intensity of Global Crude Oil Refining and Mitigation Potential.” Nature Climate Change 10 (2020): 526-532.

21. Tong, Dan, Qiang Zhang, Yixuan Zheng, Ken Caldeira, Christine Shearer, Chaopeng Hong, Yue Qin, and Steven J. Davis. “Committed Emissions from Existing Energy Infrastructure Jeopardize 1.5 °C Climate Target.” Nature 572 (2019): 373-377.

22. Welsby, Dan, James Price, Steve Pye, and Paul Ekins. “Unextractable Fossil Fuels in a 1.5 °C World.” Nature 597 (2021): 230-234.

23. Lazarus, Michael, and Harro van Asselt. “Fossil Fuel Supply and Climate Policy: Exploring the Road Less Taken.” Climatic Change 150 (2018): 1-13.

24. Erickson, Peter, Sivan Kartha, Michael Lazarus, and Kevin Tempest. “Assessing Carbon Lock-in.” Environmental Research Letters 10, no. 8 (2015): 084023.

25. Mercure, Jean-François, Hector Pollitt, Jorge E. Viñuales, Neil R. Edwards, Philip B. Holden, Unnada Chewpreecha, Pablo Salas, Ida Sognnaes, Aileen Lam, and Florian Knobloch. “Macroeconomic Impact of Stranded Fossil Fuel Assets.” Nature Climate Change 8 (2018): 588-593.

26. van der Ploeg, Frederick, and Armon Rezai. “Stranded Assets in the Transition to a Carbon-Free Economy.” Annual Review of Resource Economics 12 (2020): 281-298.

27. Seto, Karen C., Steven J. Davis, Ronald B. Mitchell, Eleanor C. Stokes, Gregory Unruh, and Diana Ürge-Vorsatz. “Carbon Lock-In: Types, Causes, and Policy Implications.” Annual Review of Environment and Resources 41 (2016): 425-452.

28. Hoffman, Andrew J. “An Inevitable Consequence: Changing Ideas of Prevention in the Wake of Catastrophic Events.” Journal of Policy History 33, no. 1 (2021): 1-31.

Appendix: User prompts related to this report

Prompts are reproduced chronologically as a research-process record. The Hungarian instruction has been translated into English and consolidated only to remove repetition while preserving every substantive research and formal requirement.

1. Directed research brief — 27 July 2026

Prepare an English-language report on the oil barrel, taking the attached study as the initial research basis. Investigate the history of oil extraction; present-day extraction, refining, transport and storage infrastructure; the future of oil production; historical and current prices; the economics and market organisation of petroleum production; the changing relationship between oil and renewable energy; and the degree to which different industries depend on fossil fuels, oil, coal, nuclear energy, prospective fusion energy and other carriers. Include a source-critical history of the oil barrel itself, especially its standardisation as the 42-US-gallon / approximately 159-litre trade unit.

The exhibition object is titled “Drill baby, drill!” Its provisional description states: “The 42-gallon (159 litres) barrel became customary in 1866 and was adopted by the US Petroleum Producers Association in 1872, and it serves as a saleable unit for crude oil. Its price peaked in 2008. In 2022 oil contributed 30% of the global energy supplied while producing 32.7% of combustion emissions.” Verify, qualify and update these claims where necessary rather than repeating them uncritically.

Continue according to the project criteria established at the beginning of The Sunshine Find / Glacial Archaeology research. Begin with an abstract of no more than 200 words. Use a unified narrative and typographic structure consistent with the approved report series, including the required heading hierarchy and cross-references to related objects and reports. List only valid scholarly and peer-reviewed sources in a numbered Chicago-style Academic Reference List at the end; distinguish official and institutional evidence from academic scholarship.

2. General remarks and new request:
1. I have been asking you to create individual reports on different topics, in this case the train service and model of Glacier Express.
2. Nonetheless these materials should converge into a unity which is the archive itself and the supporting physical installation. This convergence should be based on a synthesys of all of my other topics, questions and criteria raised in all of the other chat sessions, which are all part of the same project the main scope of which is an art installation and a supporting archive that grows by time. The archive is meant for both professional and nonprofessional use, it should be informative within its artistic and pedagogical scope as well.
3. the main line of thoughts of the project departs from panoptic tourism and concludes to ecoterrorism in a narrative line. Therefore all the reports should follow this general direction in their approach and references.
4. The reports we are working on now will all serve as a background research material published on the project website for the set of objects that will be on display, Each object will have its own page (see: https://glacial-archaeology.net/category/exhibition/). See: Szabolcs KissPál – The sunshine find_for translation. I am also adding the brief description of the project’s general concept, see: Szabolcs KissPál – The sunshine find. The website will have a separate but interconnected section for both the exhibition and the supporting archive. https://glacial-archaeology.net/an-archive-of-narratives-on-global-warming-copy/ Inspect the site while note that it doesn’t have its final structure yet!
5. the scope with the reports is to produce a set of background research material for each object in part that should refer to each other, and should be unified in their narrative and typographic structure, tone, and scope. Pay attention to snychronise the focus points of different partial research tasks when possible with cross references!
6. I am attaching two of your previous reports (noahs_ark_expeditions_1959_1990_academic_sources_new_tab_links.docx, Container_Mount_Scorluzzo_WWI_Shelter_Research_Report). Please develop and and apply to these reports a uniform structure both content wise and in formal aspects while mostly keeping their original content.
7. Main further formal criteria:
– you should always start with an abstract summarizing your finds in a text no longer than 200 words.
– you should always enlist at the very end of the document all my prompts related to that topic
– the external links should always open in a different tab
– you should be using only valid, peer reviewed academic sources listed and numbered at the end of the documents
– you should apply a somewhat unified narrative structured and a unified formatting (including typeface styles, subtitles structure, etc.
8. – note and memorise the above in your cross-chat memory for rurther tasks
– return the three reports keeping their main content but slightly modified (!) according to the above