Heavy Oil and Bitumen Petroleum Systems in Alberta and BeyondThe Future is Nonconventional and the Future is Now

Author(s):  
Frances J. Hein ◽  
Dale Leckie ◽  
Steve Larter ◽  
John R. Suter
2013 ◽  
Author(s):  
Tg Rasidi Tg Othman ◽  
M Izzat A Rahman ◽  
M Medhat El Emam ◽  
Anis Salwa Ramli ◽  
Shahida Sulleh ◽  
...  

2016 ◽  
Vol 34 (4) ◽  
pp. 303-308 ◽  
Author(s):  
Ayhan Demirbas ◽  
Abdullah Bafail ◽  
Abdul-Sattar Nizami

1931 ◽  
Vol 35 (244) ◽  
pp. 265-298
Author(s):  
D. R. Pye

In this first lecture upon the origin and development of the heavy oil aero engine to be delivered under the Akroyd—Stuart foundation, it is appropriate to devote some space to the early history of oil engines generally, for it is certain that the aero engine of the future will claim a direct descent from some terrestrial parent. The early history moreover, of the heavy oil engine is of quite exceolional interest, both technical and personal.Herbert Akroyd—Stuart was born in 1864.His father, Charles Stuart, owned a small engineering works at Fenny Stratford, and it was here that the son gained his training as an engineer. Between 1885 and 1890 he took out several patents for the improvement of oil engines, which appear to have been the outcome of his experience with a “ Spiel ” petroleum engine used for power generation at his father's works.


2020 ◽  
Vol 60 (2) ◽  
pp. 703
Author(s):  
Paul Henson ◽  
David Robinson ◽  
Lidena Carr ◽  
Dianne S. Edwards ◽  
Susannah K. MacFarlane ◽  
...  

Exploring for the Future (EFTF) is a four-year, AU$100.5 million initiative from the Australian Government conducted by Geoscience Australia in partnership with state and Northern Territory government agencies, CSIRO and universities to provide new geoscientific datasets for frontier regions. As part of this program, Geoscience Australia acquired two new seismic surveys that collectively extend across the South Nicholson Basin (L120 South Nicholson seismic line) and into the Beetaloo Sub-basin of the McArthur Basin (L212 Barkly seismic line). Interpretation of the seismic has resulted in the discovery of new basins that both contain a significant section of presumed Proterozoic strata. Integration of the seismic results with petroleum systems geochemistry, structural analyses, geochronology, rock properties and a petroleum systems model has expanded the knowledge of the region for energy exploration. These datasets are available through Geoscience Australia’s newly developed Data Discovery Portal: an online platform delivering digital geoscientific information, including seismic locations and cross-section images, and field site and well based sample data. Specifically for the EFTF energy project, a petroleum systems framework with supporting organic geochemical data has been built to access source rock, crude oil and natural gas datasets via interactive maps, graphs and analytical tools that enable the user to gain a better and faster understanding of a basin’s petroleum prospectivity.


2013 ◽  
Author(s):  
Frances J. Hein ◽  
Dale Leckie ◽  
Steve Larter ◽  
John R. Suter
Keyword(s):  
Oil Sand ◽  

AAPG Bulletin ◽  
2019 ◽  
Vol 103 (5) ◽  
pp. 1179-1224 ◽  
Author(s):  
A. Mora ◽  
Diego Fernando García-Bautista ◽  
A. Reyes-Harker ◽  
M. Parra ◽  
V. Blanco ◽  
...  

2014 ◽  
Author(s):  
Jose Alvarez ◽  
Ronald P. Sawatzky ◽  
Raul Moreno
Keyword(s):  

2020 ◽  
Vol 155 ◽  
pp. 01007
Author(s):  
Xing Yu ◽  
Liu Lei ◽  
Cao Chang ◽  
Fan Weidong ◽  
Yan Keju ◽  
...  

Vacuum heat insulating tubing is an important wellbore heat insulating facility for heavy oil thermal recovery at present. Its heat insulating performance directly affects the thermal recovery efficiency. The research on the heat insulating system of vacuum heat insulating tubing is of great significance to improve and improve the heat insulating performance and enhance the thermal recovery of heavy oil. This paper summarizes and analyses the current research status of vacuum insulated tubing insulation system. It elaborates the insulation structure, insulation materials, annular air charging and vacuum pumping, insulation coating and so on. It provides reference and reference for the future research of vacuum insulated tubing.


GeoArabia ◽  
2004 ◽  
Vol 9 (3) ◽  
pp. 51-74 ◽  
Author(s):  
Mahendra K. Verma ◽  
Thomas S. Ahlbrandt ◽  
Mohammad Al-Gailani

ABSTRACT Iraq is one of the world’s most petroleum-rich countries and, in the future, it could become one of the main producers. Iraq’s petroleum resources are estimated to be 184 billion barrels, which include oil and natural gas reserves, and undiscovered resources. With its proved (or remaining) reserves of 113 billion barrels of oil (BBO) as of January 2003, Iraq ranks second to Saudi Arabia with 259 BBO in the Middle East. Iraq’s proved reserves of 110 trillion cubic feet of gas (TCFG) rank tenth in the world. In addition to known reserves, the combined undiscovered hydrocarbon potential for the three Total Petroleum Systems (Paleozoic, Jurassic, and Cretaceous/Tertiary) in Iraq is estimated to range from 14 to 84 BBO (45 BBO at the mean), and 37 to 227 TCFG (120 TCFG at the mean). Additionally, of the 526 known prospective structures, some 370 remain undrilled. Petroleum migration models and associated geological and geochemical studies were used to constrain the undiscovered resource estimates of Iraq. Based on a criterion of recoverable reserves of between 1 and 5 BBO for a giant field, and more than 5 BBO for a super-giant, Iraq has 6 super-giant and 11 giant fields, accounting for 88% of its recoverable reserves, which include proved reserves and cumulative production. Of the 28 producing fields, 22 have recovery factors that range from 15 to 42% with an overall average of less than 30%. The recovery factor can be increased with water injection, improved and enhanced oil recovery methods (IOR and EOR) in various reservoirs, thus potentially increasing Iraq’s reserves by an additional 50 to 70 BBO. Reserve growth is a significant factor that has been observed, to some extent, in nearly all Iraqi oil fields. Historically, producing fields have shown an average growth of 1.6 fold (or 60%) in their recoverable reserves over a 20-year period (1981-2001). With periodic assessments of reservoirs, application of available technology, and an upgrading of facilities, increases in reserves are expected in the future.


Author(s):  
Muhammad Yudatama Hasibuan ◽  
Shania Regina ◽  
Rizaldi Wahyu ◽  
Daniel Situmorang ◽  
Fadlul Azmi ◽  
...  

This paper presents a review of the electrical heating method for heavy oil recovery based on past, current, and future prospects of electrical heating. Heavy oil is one of the potential crude oil used as a link to reduce the crisis of light oil used today. The obstacle of heavy oil is a high viscosity and density in which thermal injection is a method for heavy oil recovery, but it results in economic and environmental issues. Electrical heating is one of the thermal methods by transferring heat into the reservoir. The basic process of electrical heating is to increase the mobility of the oil. Because the temperature rises, it can reduce oil viscosity and makes it easier for heavy oil to flow. The past and current developments have been carried out to fill up the gap of electrical heating projects. The future prospects must meet energy efficiency, and the excessive heat will damage formation that must be tackled in the future prospect. the works adopt several electrical heating projects and applications in the world where the works give a brief future prospect of electrical heating.


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