The oil and gas industry is the primary catalyst for Uzbekistan`s industrial stability, contributing significantly to the national GDP and energy security. However, the sector is currently grappling with a critical paradox: while domestic demand for energy is surging due to rapid urbanization, the cost of production is escalating at an unsustainable rate. This study aims to conduct a rigorous analysis of the production cost structure within the national oil and gas framework, specifically focusing on the transition from easily accessible reserves to complex, high-depth extraction. The study identifies a sharp 22% increase in average production costs over the last four years. The actual problem lies in the inefficient distribution of resources: currently, approximately 35% of the budget is consumed by “legacy costs” - the maintenance of obsolete infrastructure and inefficient geological exploration methods. Furthermore, operational costs have been inflated by a 12-15% rise in the cost of imported technical equipment and chemical reagents. Statistics indicate that while geological exploration is vital, the lack of modern seismic technology leads to a high “dry hole” ratio, meaning millions are spent on ineffective drilling. In the current Uzbek landscape, energy-intensive secondary recovery methods (such as water flooding or gas injection) now account for nearly 40% of the cost of a single barrel of oil equivalent. The research is necessary for Uzbekistan`s economy as it provides a roadmap for fiscal optimization in an era of energy transition. By identifying the specific points of resource leakage-particularly in geological surveying and inefficient operational labor-this study contributes a “Digital Optimization Model”. This model suggests that a 10% shift in investment from legacy maintenance toward automated monitoring systems could reduce overall production costs by 8.5% annually. The findings offer a strategic framework for policymakers to enhance the competitiveness of the national energy sector on the global stage.
| Published in | American Journal of Modern Energy (Volume 12, Issue 2) |
| DOI | 10.11648/j.ajme.20261202.12 |
| Page(s) | 35-41 |
| Creative Commons |
This is an Open Access article, distributed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution and reproduction in any medium or format, provided the original work is properly cited. |
| Copyright |
Copyright © The Author(s), 2026. Published by Science Publishing Group |
Production Costs, Influencing Factors, Cost Dynamics, Pricing Policy, New Green Technologies, Investment Situation
No. | Indicators | Unit of measurement | Quantity |
|---|---|---|---|
1 | Number of planned exploration wells | piece | 3 |
2 | Depth in the project | meter | 3800 |
3 | Total depth | meter | 11400 |
4 | Average drilling speed | m/st. month | 304.8 |
5 | Costs for preparing the structure for deep drilling | thousand soums | 1649 |
6 | Permitted allocation for the construction of a designed well | thousand soums | 1209,432 |
7 | Authorized assignment for planned exploration drilling operations | thousand soums | 3628,297 |
8 | Cost of 1 m of designed drilling | thousand soums | 318.27 |
9 | Total costs of exploration work | thousand soums | 5277,297 |
10 | Duration of the projected works on site | Moon | 19.1 |
11 | Expected increase in reserves per 1m of drilling | thousand tons | 199 |
12 | Expected increase in reserves for drilling 1 well | thousand tons | 756 |
13 | Costs for preparing 1 ton of expected conditional fuel reserves | thousand tons | 2326.8 |
Assessment name | Evaluation formula | Note |
|---|---|---|
Economic indicators | ||
Energy costs | E= Energy consumption for mechanical separation of liquid in area I, thousand soums; Number of I-mines; For the production workshop; workshop Hey- for liquid production i mine; Number of Y-sex; Average depth of pump routing in Di-conda, m; Dh- Average depth of pump routing in the field where the enterprise is drilling, m. | Energy costs for oil extraction by field are distributed proportionally to the extraction of the fluid by mechanical means, taking into account the depth of the production wells. |
Direct costs related to a specific mine | - Costs of auxiliary materials for mine I, thousand soums; - costs of auxiliary materials involved in mining for workshop j, thousand, soums; -pumping of water working agent into the mine, thousand tons -water injection volume for extraction of the plant | The cost of auxiliary materials is distributed proportionally with the water injection |
Cost of extracting 1 ton of oil | -costs depending on the well treatment method (technological preparation of extracted oil, artificial influence on underground mineral reserves, oil collection and transportation, general production and depreciation costs of wells) -costs of electricity consumption for oil production and maintenance and operation of equipment at the well | Accurate and objective assessment of well costs helps determine the efficiency of individual wells (low-yielding, limited-performance wells) |
Calculation of annual economic efficiency from the introduction of techniques and technologies aimed at increasing oil production | -effectiveness of implementation of measures; - costs incurred for extracting 1 ton of oil from drilling and using new technology, thousand soums / ton; - annual oil production without the use of new equipment is thousand soums / ton; - additional annual oil production due to the use of new equipment and technology, thousand soums/ton; - The specific standard of reduced costs for the production of 1 ton of oil will increase by one thousand soums/ton; - additional capital investments, thousand soums; -demand for the implementation of new techniques and technologies into practice | Methods of determining the oil yield of a reservoir and the formula for determining economic efficiency |
Indicator name | 2024 | |||
|---|---|---|---|---|
First quarter | First half of the year | |||
plan | expectation * | plan | expectation * | |
Total income: | 5 337 209 877 | 5 977 675 063 | 10 969 302 648 | 11 956 539 887 |
including net proceeds from the sale of products (goods, works and services) | 4 177 931 220 | 4 616 613 998 | 8 654 509 259 | 9 433 415 093 |
Total costs: | 4 956 180 091 | 5 303 112 697 | 10 238 962 921 | 11 006 885 140 |
including profit tax | 67 240 551 | 72 619 795 | 128 883 481 | 139 194 160 |
Net profit | 381 029 787 | 674 562 366 | 730 339 727 | 949 654 747 |
JSC | Joint Stock Company |
GDP | Gross Domestic Product |
MIT Press | Massachusetts Institute of Technology Press |
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APA Style
Gofurov, S. N. (2026). Analysis of the State of Production Costs in the Oil and Gas Industry. American Journal of Modern Energy, 12(2), 35-41. https://doi.org/10.11648/j.ajme.20261202.12
ACS Style
Gofurov, S. N. Analysis of the State of Production Costs in the Oil and Gas Industry. Am. J. Mod. Energy 2026, 12(2), 35-41. doi: 10.11648/j.ajme.20261202.12
@article{10.11648/j.ajme.20261202.12,
author = {Shamshod Nosirjonovich Gofurov},
title = {Analysis of the State of Production Costs in the Oil and Gas Industry},
journal = {American Journal of Modern Energy},
volume = {12},
number = {2},
pages = {35-41},
doi = {10.11648/j.ajme.20261202.12},
url = {https://doi.org/10.11648/j.ajme.20261202.12},
eprint = {https://article.sciencepublishinggroup.com/pdf/10.11648.j.ajme.20261202.12},
abstract = {The oil and gas industry is the primary catalyst for Uzbekistan`s industrial stability, contributing significantly to the national GDP and energy security. However, the sector is currently grappling with a critical paradox: while domestic demand for energy is surging due to rapid urbanization, the cost of production is escalating at an unsustainable rate. This study aims to conduct a rigorous analysis of the production cost structure within the national oil and gas framework, specifically focusing on the transition from easily accessible reserves to complex, high-depth extraction. The study identifies a sharp 22% increase in average production costs over the last four years. The actual problem lies in the inefficient distribution of resources: currently, approximately 35% of the budget is consumed by “legacy costs” - the maintenance of obsolete infrastructure and inefficient geological exploration methods. Furthermore, operational costs have been inflated by a 12-15% rise in the cost of imported technical equipment and chemical reagents. Statistics indicate that while geological exploration is vital, the lack of modern seismic technology leads to a high “dry hole” ratio, meaning millions are spent on ineffective drilling. In the current Uzbek landscape, energy-intensive secondary recovery methods (such as water flooding or gas injection) now account for nearly 40% of the cost of a single barrel of oil equivalent. The research is necessary for Uzbekistan`s economy as it provides a roadmap for fiscal optimization in an era of energy transition. By identifying the specific points of resource leakage-particularly in geological surveying and inefficient operational labor-this study contributes a “Digital Optimization Model”. This model suggests that a 10% shift in investment from legacy maintenance toward automated monitoring systems could reduce overall production costs by 8.5% annually. The findings offer a strategic framework for policymakers to enhance the competitiveness of the national energy sector on the global stage.},
year = {2026}
}
TY - JOUR T1 - Analysis of the State of Production Costs in the Oil and Gas Industry AU - Shamshod Nosirjonovich Gofurov Y1 - 2026/07/22 PY - 2026 N1 - https://doi.org/10.11648/j.ajme.20261202.12 DO - 10.11648/j.ajme.20261202.12 T2 - American Journal of Modern Energy JF - American Journal of Modern Energy JO - American Journal of Modern Energy SP - 35 EP - 41 PB - Science Publishing Group SN - 2575-3797 UR - https://doi.org/10.11648/j.ajme.20261202.12 AB - The oil and gas industry is the primary catalyst for Uzbekistan`s industrial stability, contributing significantly to the national GDP and energy security. However, the sector is currently grappling with a critical paradox: while domestic demand for energy is surging due to rapid urbanization, the cost of production is escalating at an unsustainable rate. This study aims to conduct a rigorous analysis of the production cost structure within the national oil and gas framework, specifically focusing on the transition from easily accessible reserves to complex, high-depth extraction. The study identifies a sharp 22% increase in average production costs over the last four years. The actual problem lies in the inefficient distribution of resources: currently, approximately 35% of the budget is consumed by “legacy costs” - the maintenance of obsolete infrastructure and inefficient geological exploration methods. Furthermore, operational costs have been inflated by a 12-15% rise in the cost of imported technical equipment and chemical reagents. Statistics indicate that while geological exploration is vital, the lack of modern seismic technology leads to a high “dry hole” ratio, meaning millions are spent on ineffective drilling. In the current Uzbek landscape, energy-intensive secondary recovery methods (such as water flooding or gas injection) now account for nearly 40% of the cost of a single barrel of oil equivalent. The research is necessary for Uzbekistan`s economy as it provides a roadmap for fiscal optimization in an era of energy transition. By identifying the specific points of resource leakage-particularly in geological surveying and inefficient operational labor-this study contributes a “Digital Optimization Model”. This model suggests that a 10% shift in investment from legacy maintenance toward automated monitoring systems could reduce overall production costs by 8.5% annually. The findings offer a strategic framework for policymakers to enhance the competitiveness of the national energy sector on the global stage. VL - 12 IS - 2 ER -