Intellectualization of measurement instrumentation for automation in petroleum industry

2020 ◽  
pp. 47-50
Author(s):  
Kh.M. Gurbanov ◽  
◽  
N.S. Seidahmadov ◽  
G.M. Mammadov ◽  
R.G. Mammadov ◽  
...  

The paper reviews the intellectualization of existing measuring instrumentation and automatic devices towards minimization of breakdowns, pauses and failures in the oil production and processing in petroleum industry on the level of modern development of IT solutions and nanotechnology. The studies justify that the employment of intellectual devices in production is more comfortable than existing traditional tools. In such a way, the intellectualization provides the safety, reliability, measurement accuracy, technical diagnostics and efficiency of equipment operation as well.

1986 ◽  
Vol 19 (5) ◽  
pp. 63-66 ◽  
Author(s):  
R C Gold

The article traces the use of flowmeters in the production and processing of crude oil and its refined products. Emphasis is placed on meters used for accounting purposes and wherever possible, the significance of measurement uncertainty at the various stages of oil production is expressed in financial terms. The article concludes that improved measurement accuracy is more likely to be achieved from improved calibration and operating procedures than from the use of different types of flowmeters.


2021 ◽  
Author(s):  
Hung Vo Thanh ◽  
Kang-Kun Lee

Abstract Basement formation is known as the unique reservoir in the world. The fractured basement reservoir was contributed a large amount of oil and gas for Vietnam petroleum industry. However, the geological modelling and optimization of oil production is still a challenge for fractured basement reservoirs. Thus, this study aims to introduce the efficient workflow construction reservoir models for proposing the field development plan in a fractured crystalline reservoir. First, the Halo method was adapted for building the petrophysical model. Then, Drill stem history matching is conducted for adjusting the simulation results and pressure measurement. Next, the history-matched models are used to conduct the simulation scenarios to predict future reservoir performance. The possible potential design has four producers and three injectors in the fracture reservoir system. The field prediction results indicate that this scenario increases approximately 8 % oil recovery factor compared to the natural depletion production. This finding suggests that a suitable field development plan is necessary to improve sweep efficiency in the fractured oil formation. The critical contribution of this research is the proposed modelling and simulation with less data for the field development plan in fractured crystalline reservoir. This research's modelling and simulation findings provide a new solution for optimizing oil production that can be applied in Vietnam and other reservoirs in the world.


2021 ◽  
Author(s):  
Eko Awan Yudha Fitnawan ◽  
Wibi Aulia Harsum ◽  
Agus Hasan ◽  
Muhammad Iffan Hannanu ◽  
Steven Leonardus Paulus ◽  
...  

Abstract Indonesia has become a net-oil importer since 2004 as the growing internal demand exceeds Indonesia's oil production. As many fields go into mature phase and combined with other challenges, the national oil production in the last decade has been decreasing from 945 MBOPD to 745 MBOPD with a decline rate of 3-5% per year. Thus, the contribution of the oil and gas sector to the state revenues has also shown a downward trend from 21% in 2010 to only 9.2% in 2019. However,oil production is still strategically importantfor the national economy. It is important for economic value creation, power generation, transportation, and industries as most of the archipelago's infrastructures are still based on fossil energy. If no effort is made to increase production, the country will be fullydependent on crude oil imports, which poses a threat to national energy security. It is thereforeinthe nation's great interest to enhance oil production, minimizing the deficit gapbetween export and import. Several key strategies may be considered to achieve this ambitious target. These strategies can be categorized into the following: 1) People and high performing organization; 2) Exploration, as critical factor for future production; 3) Improved oil recovery (including enhancedoil recovery) technologies, to grow production from the maturing fields; 4) Fast track and simplified project to develop small field discoveries; 5) Strong collaboration between government, industry, academia, and professional associations; and 6)Cost conscious culture. The derivatives of the above-mentioned strategies are among others: standardized resource data management, open source & digitalized geoscience data library, reimbursement system for exploration costs, near field/infrastructure exploration,new play concept, cluster license collaboration, infill wells campaign, multilateral wells, waterflooding, gas injection, stimulation and hydraulic fracturing campaign, well interventions, EOR screening, perfect-well optimization, standardize subsea and/or topside production system, digitalization, and attractive fiscal and regulation that encourages not only the ‘big operator’ to participate in the petroleum sector. The foundation of these strategies should be the legal certainty and effective & proactive bureaucracy. Above all, it is also important to emphasize the common ground of havingearly HSE involvement as part of the solution. In this paper, the authors would like to contribute in sharing the knowledge, technology and perspectives to all petroleum industry professionals in Indonesia based on the authors exposure in the Norwegian petroleum activities. The paper will also review the strategies, short term and long-term opportunities that may inspire Indonesian petroleum authorities and industry in transforming the ambition into action to achieve the national production target of 1 MMBOPD and 12 BCFD gas by 2030.


Energies ◽  
2020 ◽  
Vol 13 (8) ◽  
pp. 2052 ◽  
Author(s):  
Wardana Saputra ◽  
Wissem Kirati ◽  
Tadeusz Patzek

A recent study by the Wall Street Journal reveals that the hydrofractured horizontal wells in shales have been producing less than the industrial forecasts with the empirical hyperbolic decline curve analysis (DCA). As an alternative to DCA, we introduce a simple, fast and accurate method of estimating ultimate recovery in oil shales. We adopt a physics-based scaling approach to analyze oil rates and ultimate recovery from 14,888 active horizontal oil wells in the Bakken shale. To predict the Estimated Ultimate Recovery (EUR), we collapse production records from individual horizontal shale oil wells onto two segments of a master curve: (1) We find that cumulative oil production from 4845 wells is still growing linearly with the square root of time; and (2) 6401 wells are already in exponential decline after approximately seven years on production. In addition, 2363 wells have discontinuous production records, because of refracturing or changes in downhole flowing pressure, and are matched with a linear combination of scaling curves superposed in time. The remaining 1279 new wells with less than 12 months on production have too few production records to allow for robust matches. These wells are scaled with the slopes of other comparable wells in the square-root-of-time flow regime. In the end, we predict that total ultimate recovery from all existing horizontal wells in Bakken will be some 4.5 billion barrels of oil. We also find that wells completed in the Middle Bakken formation, in general, produce more oil than those completed in the Upper Three Forks formation. The newly completed longer wells with larger hydrofractures have higher initial production rates, but they decline faster and have EURs similar to the cheaper old wells. There is little correlation among EUR, lateral length, and the number and size of hydrofractures. Therefore, technology may not help much in boosting production of new wells completed in the poor immature areas along the edges of the Williston Basin. Operators and policymakers may use our findings to optimize the possible futures of the Bakken shale and other plays. More importantly, the petroleum industry may adopt our physics-based method as an alternative to the overly optimistic hyperbolic DCA that yields an ‘illusory picture’ of shale oil resources.


2012 ◽  
Vol 516-517 ◽  
pp. 1018-1021 ◽  
Author(s):  
Rong Ge Xiao ◽  
Bing Qian Wei ◽  
Pei Fen Yao ◽  
Dong Rui Yi

The phenomenon of wax deposition is an extremely important issue in the petroleum industry. Researching it is of great help for the oil exploration, gathering, and transportation. This paper described the phenomenon of wax deposition, discussed the mechanism, analyzed the influencing factors and proposed the positive significance of the phenomenon of wax deposition on crude oil production and safe operation in oil gathering and transportation pipeline.


2007 ◽  
Vol 47 (2) ◽  
pp. 657
Author(s):  
Graeme Bethune

The Australian petroleum industry is having considerable success in offsetting natural field decline through new developments in existing basins and projects in new basins. The industry is also having great success with less conventional coal seam methane production. In energy terms Australian petroleum production peaked in 2000, and then fell until 2003 due to falling oil production. Since then, and despite continuing falls in oil and liquids production, total production has been increasing towards the 2000 peak. In 2006 eight new developments came into production: Darwin LNG, three oil and four gas developments. Seven of these developments were in new basins. Looking to the future there are now more than 20 significant petroleum projects with a combined value of more than A$50 billion either committed or being considered. Between them these could significantly increase Australian production in the next five years, primarily through growing gas production. Replacing falling oil production remains a challenge, as does managing cost increases and skills shortages generally.


2020 ◽  
Vol 2020 (12) ◽  
pp. 38-47
Author(s):  
Dmitriy Tarasov

The matters of life of submersible pump equipment used in petroleum industry to support seam pressure are under consideration. On the basis of the investigations carried out the purpose of which was equipment quality increase including the fulfillment of essential industrial modification of certain pump designs there are revealed reasons which result in working capacity loss of this equipment and there are also offered ways for the solution of the problems accrued. For the first time there is created a comparative classification of ECPK pump equipment of different manufacturers including that of PC ”GMS Livhydromach”, and also on the basis of the statistics of submersible pump equipment operation for oil production from the places of its operation their critical analysis is fulfilled. According to the investigation results there is made a conclusion of that to achieve a guaranteed resource life of 365 days and more for the pumps of the 2ECPK type in consumer holes it is necessary to perform a complex of measures directed to the correct choice of operation conditions and correct constituent operation of units; to the optimization of pump equipment operation including a general hydraulic system and also technical maintenance and repair; to the development of design solutions able to reduce to minimum the impact of negative operation factors.


Author(s):  
О. Kuzmich ◽  
P. Arkushenko ◽  
М. Andrushko ◽  
I. Haidak ◽  
S. Pashchenko

The article highlights the main aspects and features of the algorithm of aviation equipment operation "condition-based" with the use of ground technical means of control and on-board measuring systems and the formation of decision- making principles for further operation of aircraft. To develop methods of technical diagnostics of any technical equipment, it is necessary to identify which parameters characterize its condition and reliability as well as to establish diagnostic criteria and limit values of the controlled parameters. Depending on the nature of the parameters being controlled, there are parametric and physical methods of diagnostics. Based on the results of the diagnostics, we must get a straight answer: whether or not it is necessary to perform repairs or maintenance of the equipment being tested, taking into account the ensuring of failure-free operation before the next diagnostics. Currently, a large number of different measuring equipment that can measure signals that meet the parameters of the object of control and diagnostics are successfully used to objectively determine the technical condition of aircraft. The use of the laboratory for technical diagnostics of aviation equipment in conjunction with on-board measuring systems will provide an opportunity to make a quality technical diagnostics and reasonable conclusion to decide on further operation of the sample of aviation equipment. The use of mentioned laboratory will also predict the occurrence of failures of aviation equipment systems and units. Only a comprehensive approach to the technical diagnostics of aviation equipment with employment of all means of technical control (ground, on-board) will prevent sudden failures of aviation equipment systems.


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