Drilling technology priorities in Russia

Жданеев, О.В.; Фролов, К. Н.

doi:10.24887/0028-2448-2020-5-42-48

Cited by 10 publications

(2 citation statements)

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“…Paradoxically for the external observer, the conventional FES, namely the creation of domestic innovative technologies based on the relevant applied scientific and technological developments and the results of fundamental research in the oil and gas industry, in the electric power industry, in the nuclear industry and the coal industry, including in the entire mining and processing industry, is a key driver of the practical step-by-step implementation of the energy transition in Russia on the time horizon until 2060 [11].…”

Section: Conventional Fes and Energy Transition -The Main Drivers Of ...mentioning

confidence: 99%

Russian fuel and energy complex technology policy at the moment of energy transition

Жданеев¹

2022

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The objectives of utilizing the most out of scientific, technical and production potential of Russian Fuel and Energy Complex (FEC) to safeguard technological independence and economic development at the state of energy transition is reviewed in the paper. Main trends for the required multidimentional technical development of the FEC: local R&D and manufacturing for conventional industries, Industry 4.0 and energy transition technologies (including all aspects of reduce, reuse, recycle and remove greenhouse gases), industrial safety and environmental protection are covered. The author have reviewed the global innovation index and global investments market in R&D, presented an analysis of Norwegian, American and Chinese experience to flourish country investments in technical development. Some of the key priorities for the further development of conventional upstream sector have been identified and includes permafrost monitoring, reservoir digital twins, hard to recover reservoirs technologies, permanently deployed well monitoring systems, energy harvesting and energy efficiency technologies, CCUS. Specific suggestions to expand the public private partnership are presented as the ways to streamline technology development in Russian FEC.

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Section: Conventional Fes and Energy Transition -The Main Drivers Of ...mentioning

confidence: 99%

Russian fuel and energy complex technology policy at the moment of energy transition

Жданеев¹

2022

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“…1523-p dated 09 June 2020 of RF Government. The problem is complicated by the current geological situation [1] with limited access to financial investments and new geological exploration technologies for oil and gas deposits (e.g. rotary steerable system, telemetry and measuring system for drilling, geophysical equipment).…”

Section: Introductionmentioning

confidence: 99%

Novel non-magnetic steel for high-performance drilling and logging operations

Bravkov¹,

Gusmanov²,

Жданеев³

et al. 2021

cisisr

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The paper presents the results of realized project aimed on development of the Russian non-magnetic steel for borehole equipment. Development specialists of high-tech equipment for the RF fuel and energy complex (FEC) have noted the complete dependence on deliveries of foreign non-magnetic steels from EU countries, China, USA. This dependence on delivery of import products increases the risks of both operating activity (due to trade restrictions) and economical efficiency of the FEC enterprises (Russian ruble exchange rate grew by ~30 % to Euro in 2020). It concerns users of mineral resources, oil service companies, developers and manufacturers of high-tech equipment for boreholes drilling as well geophysical researches. Possibility of establishment of non-magnetic steel production in Russia was analyzed, the plan for realization of this project was prepared, the technical and project risks were evaluated, the industrial demand for non-magnetic steel was assessed, the industrial technical requirements and testing techniques were developed. The cooperation chain including purchaser, manufacturer of bar products of non-magnetic steel and producer of non-magnetic steel itself was formed in 2020. Three pilot melts of non-magnetic steel (totally 18 t) were conducted and bars of different diameters (from 35 to 140 mm) were forged. The plant laboratorial testing displayed the following bar parameters: yield strength 1,093 MPa; tensile strength 1,155 MPa; impact energy 242 J. This steel as also characterized by resistance to intergranular corrosion. Relative magnetic permeability made 1.003. The laboratorial tests were conducted in accordance with ASTM techniques. The following equipment range was fabricated: non-magnetic subs Flow-Sub, non-magnetic heavy-weight drill collars etc. At present time the field testing takes place in the oil and gas provenances of Western Siberia, Yamal and in Volga-Ural region within the framework of drilling of oil and gas wells.

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