Skip to content
Brent$117.6Gas TTF$1,192USD453.87 ₸
MunaiHub
EconomicsThe state and taxation Intermediate 39 min read

State regulation of field development

State regulation of field development is the set of rules by which the state, as owner of the subsoil, checks how a subsoil user (the company that holds the right to explore and produce) uses the right it already has. The state checks that the user develops the field under project documents that have passed an expert review. It checks that the user meets the mandatory technological indicators (the production, injection and pressure figures set in the project), does not lose more oil and gas than is justified, reports on its work, and buys works and services by the set rules. In Kazakhstan this means project documents by stage, expert reviews of reserves and projects, a ban on flaring gas (burning it off) without a permit, requirements on in-country value (the share of spending that stays in Kazakhstan), reporting, control and sanctions.

Why it matters

The contract decides who gets the right and on what terms. Regulation decides how the right may be used. Its requirements set the time from discovery to production, the development system that the company will have to build, the fate of the associated gas (the gas that comes up with the oil), the prices of contracts for works and services, and the price of departing from the project. For the investor, all this is costs and time in the cash flow. For the state, it is a way to get more oil, gas and rent (the value of the oil above all costs and a fair return to the investor) out of the subsoil over the whole life of the field.

Quick refresher

  • The investor judges development by the NPV (net present value, the value today of future cash flows) of its own cash flow over the term of the contract. The owner judges it by the value of the subsoil over the whole life of the field, including the oil that haste would leave in the reservoir. This is why there are project documents and their expert review, mandatory indicators, bans, reporting and sanctions.
  • A licensed design organisation writes the project documents, and the subsoil user itself approves them. The state gives the conclusions of the expert reviews. Work that the approved project (with positive review conclusions) does not provide for is banned. The volumes and timing of work can be changed only by changing the project.
  • The exploration project is sent to the Ministry of Energy by notification. The Central Commission for Exploration and Development of Hydrocarbon Fields (TsKRR) reviews addenda to it that provide for the appraisal of a discovery, offshore exploration or a larger area. It also reviews the trial production and development projects, and a development analysis when the actual results differ from the project by more than 10%. The trial production and development projects are accepted for review only after a positive conclusion of the State Reserves Commission (GKZ) on the reserves.
  • The reviews come in a chain. The TsKRR takes 2 months for an exploration project and 3 months (plus up to 3 more) for the others. The GKZ takes 3 months (plus up to 3 more). In the example of the lesson, the path from discovery to the production period takes 50 months, or 62 with every extension. A month of waiting costs about 0.8% of NPV at a rate of 10%.
  • Flaring raw gas (burning unprocessed gas in a flare) is banned. The exceptions are emergencies (no permit, but with a notification) and, with a permit and within the norms, well testing, trial production and technologically unavoidable flaring. An oil field is not put into development without a way to use the associated gas.
  • The share of in-country value in the works and services bought in a year must be at least 70% of their cost. In a tender, the price of a Kazakhstani producer of works and services is cut by 20% for the comparison only. So it wins even if it is almost 25% more expensive.
Key relationships
ΔNPV=NPV[1−(1+i)−Δt]\Delta\mathrm{NPV} = \mathrm{NPV}\left[1 - (1 + i)^{-\Delta t}\right]

loss of NPV when all the flows of the project move later by Δt\Delta t years

mCO2=V MCO2Vm∑jyjnjm_{\mathrm{CO_2}} = V\,\frac{M_{\mathrm{CO_2}}}{V_m}\sum_j y_j n_j

mass of CO₂ when a volume VV of gas burns completely (yjy_j are the mole fractions and njn_j the numbers of carbon atoms in a molecule)

s=∑kVksk∑kVk≥0.7s = \frac{\sum_k V_k s_k}{\sum_k V_k} \ge 0.7

share of in-country value in the works and services of a calendar year

0.8 PKZ<Pforeign  ⇔  PKZ<1.25 Pforeign0.8\,P_{\text{KZ}} < P_{\text{foreign}} \;\Leftrightarrow\; P_{\text{KZ}} < 1.25\,P_{\text{foreign}}

when the Kazakhstani producer of works and services wins a tender

Common pitfalls
  • Saying that “the ministry approves the development project”. The subsoil user approves it. The state gives the conclusions of the expert reviews, and without them the project cannot be worked to.
  • Counting the time from discovery to production by the company's own work alone. The reviews stand in a chain, and each one waits for the conclusion of the one before it.
  • Comparing gas utilisation with a “free” flare. Gas may be flared only in the cases the Code names and within the norms, and losses above the norms are damage to the subsoil.
  • Counting the share of in-country value by the number of Kazakhstani contractors. It is a share of the cost of all the works and services of the year, calculated by the unified methodology.

After this lesson you can

  • explain why the interests of the investor and of the owner of the subsoil differ in development, and what tools the state uses to bring them closer
  • list the project documents by stage (the exploration project, the trial production project, the development project and the development analysis), and say which of them go through review by the Central Commission for Exploration and Development of Hydrocarbon Fields (TsKRR), which are sent by notification, and why the review of reserves comes before the review of the project
  • take a discovery through the documents and reviews with the terms of the Subsoil Code, and estimate what a month of waiting costs the investor and the state
  • compare an actual year of development with the project: calculate the deviations and the voidage replacement (the share of the produced volume that injection puts back), and decide what follows from a difference of more than 10%
  • describe the regime for associated gas (the flaring ban, the permits and the gas processing development programme, which is a plan to process or use the raw gas) and calculate what using the gas costs the investor and society
  • calculate the conditional price of a Kazakhstani bidder in a tender (the price used to compare bids after a 20% cut) and the share of in-country value for a year (the part of the spending that stays in Kazakhstan); list the reports, forms of control and sanctions

Why the state steps into development

By the start of development, the right has already been given: the contract is signed and the bonus is paid (Licences and contracts for subsoil use). The subsoil user chooses and pays for the development system (the pattern of wells and the methods used to produce the field). It bears the risk and knows the reservoir best. But the owner of the subsoil and the investor have different goals (what the state as owner wants), and in development they part ways for several reasons.

  • Different horizons. The investor values a project by the NPV of its own flow at its own rate (Choosing the discount rate). At 10%, a barrel produced in 20 years is worth about 0.15 of a barrel to it today. The contract has a limited term, and the oil left in the ground after it does not belong to the investor. The owner needs the field for its whole life. A non-renewable resource left in the reservoir because of haste is lost to the owner.
  • Mistakes that cannot be undone. Development is easy to spoil. If the pressure in an oil reservoir falls below the bubble point pressure (the pressure at which gas starts to come out of the oil), gas is released in the reservoir and the oil becomes less mobile. Fast withdrawal along high-permeability layers brings water to the wells too early. Working only the most productive areas leaves bypassed zones, pillars of oil that no well can reach later (Reservoir drive mechanisms, Why water is injected: pressure maintenance and oil displacement). Fixing this later is costly or no longer possible.
  • External effects (economists call them externalities). Emissions from a flare and pollution of water and land are damage that is not in the investor's cash flow. Without rules, nobody counts it.
  • A shared reservoir. If an accumulation of oil lies under the areas of two subsoil users, each gains by producing faster than its neighbour, but in the end both lose, and so does the owner (see the advanced part of the lesson).
  • Unequal information. The subsoil user knows the most about the reservoir. The state sees the reservoir only through project documents, reports and expert reviews.

The Subsoil Code makes these conditions of hydrocarbon exploration and production mandatory: protection of the subsoil; rational and economically efficient use of the subsoil, based on high technology and on good practice of subsoil use (the Code calls it “positive practice”); and compliance with environmental requirements. Good practice is generally accepted international practice that is rational, safe, necessary and economically efficient (Article 122). The yardstick is how the industry usually works, so the requirements for a project grow with the industry's technology, even though the text of the law does not change. The Unified Rules on rational and integrated subsoil use (below, the Unified Rules) state the aim in the same two-sided way: a well spacing is rational if it gives the largest economic effect together with the fullest possible recovery of reserves (paragraph 121).

How the state regulates development
Tool
Project documents and their expert review
What it gives the owner
independent experts check the development system before work starts
What it costs the investor
time for the reviews, design costs
Tool
Mandatory project indicators
What it gives the owner
control of injection, pressure and the number of wells
What it costs the investor
limits on operating modes, volumes and timing
Tool
Bans: flaring, selective working of the best areas
What it gives the owner
gas and reserves that are kept
What it costs the investor
the cost of using the gas and of a full development system
Tool
In-country value
What it gives the owner
orders and jobs in the country
What it costs the investor
a premium on the prices of some contracts
Tool
Reporting and metering
What it gives the owner
data on the subsoil and on how the contract is performed
What it costs the investor
the cost of metering devices and reports
Tool
Sanctions and compensation for damage
What it gives the owner
an incentive to follow the rules
What it costs the investor
the risk of a penalty, damages and termination of the contract

Every tool is a line in the cash flow of the project: time, cost or risk (Cash flow model of an oil and gas project).

Project documents by stage

Hydrocarbon operations are carried out under base project documents (the exploration project, the trial production project and the field development project) and under technical project documents (projects for well construction, for building the surface facilities of the field, and others; the Unified Rules give the list). A licensed design organisation writes the documents, and the subsoil user approves them (Article 134). Work that the approved document (with positive review conclusions) does not name is banned, and work with no document at all even more so (Articles 135–138). The kinds, methods, technologies, volume or timing of work can be changed only by amending the document. The Unified Rules list the cases where this is not needed (Article 134).

Base project documents for hydrocarbons and the development analysis
Document
Exploration project
When it is prepared
within a year of registration of the contract
Basis
the work programme of the contract
Review
notification; TsKRR review if it covers appraisal, offshore exploration or a larger area
Document
Addendum: appraisal of the discovery
When it is prepared
after the discovery is confirmed
Basis
data from the first wells
Review
TsKRR, 2 months
Document
Trial production project
When it is prepared
within 3 months of the decision to carry it out
Basis
the operational estimate of reserves
Review
TsKRR, 3 months + up to 3, after the GKZ
Document
Field development project
When it is prepared
in the exploration period or the preparatory period
Basis
reserves with a GKZ conclusion
Review
TsKRR, 3 months + up to 3, after the GKZ
Document
Development analysis
When it is prepared
at least once every 3 years
Basis
actual data
Review
notification; TsKRR review if the difference from the project is more than 10%

The Subsoil Code, Articles 123, 135–137, 139, 140, 142 (the text as of October 2026). All project documents also go through the state environmental review (Article 139). TsKRR is the Central Commission for Exploration and Development of Hydrocarbon Fields, and GKZ is the State Reserves Commission. Both abbreviations come from the Russian names.

The exploration project covers the whole exploration period. It must include the full volume and timing of the work declared in the work programme of the contract. The appraisal of each discovered accumulation is added to it as an addendum (Article 135). The trial production project is needed to find out more about productivity, fluid properties and the drive of the accumulation (the energy that pushes the oil to the wells). Trial production means temporary operation of wells and production for research purposes, in order to prepare the development project (Article 121). It lasts no more than three years (Article 123). Annual production volumes are not regulated during it, as long as the well operating modes in the project are kept (paragraph 65 of the Unified Rules).

The development project covers the whole period of profitable production (Article 137). It contains these parts: the geological and physical description of the field; a model (a flow simulation model, an analytical model or a material balance model); the technological indicators of each option (the forecast rates, pressures and other figures); a technical and economic analysis; the production equipment and technology; the requirements for well designs; a programme of surveys; further exploration; a mandatory section on processing raw gas; and a section on monitoring the pressure between casing strings (paragraph 101 of the Unified Rules). It justifies the development units (the layers or groups of layers developed by one well pattern), the operating modes and placing of wells, the ways of acting on the reservoir, the bottomhole flowing pressures (the pressure at the bottom of a producing well) and the working agent that is injected (water or gas). For pressures, the producing gas–oil ratio (GOR), production, injection and bringing wells into operation, it gives ranges or maximum allowed values (paragraph 107).

One requirement matters a lot for the economics: the development project must consider at least three options. For a first project, the base option is development on depletion (the reservoir's own energy, with no injection). The second adds pressure maintenance (injecting water or gas to keep the reservoir pressure up). The third and later options use new technologies that raise recovery. The recommended option is chosen by the technical and economic analysis (paragraphs 134–139 of the Unified Rules). This builds the owner's interest in full recovery into the choice itself: the investor must show the options with injection and with new technology, and justify why it chose its own. The advanced part of the lesson shows what such options look like in numbers.

Expert reviews: TsKRR, GKZ and environmental

Project documents are checked along three lines. All of them go through the state environmental review under the Environmental Code (Article 139 of the Subsoil Code). The order of the environmental procedures (screening, environmental impact assessment (EIA) and permits) is shown on the MunaiHub page “Field development stages”, in the “Operators” section. The base documents and the development analyses are reviewed by the Central Commission for Exploration and Development of Hydrocarbon Fields (TsKRR). The reports that estimate reserves go through the state subsoil expert review. Until 1 January 2030 it is carried out by the State Reserves Commission (GKZ), under Articles 141 and 277 of the Code (expert review and registration of reserves). Construction projects go to a construction review.

How the TsKRR review works
  1. 1
    What is needed beforehand

    An environmental conclusion: on the scope of the EIA, a screening conclusion that a mandatory EIA is not needed, or a conclusion on the results of the EIA (Article 139). For a trial production project, a positive conclusion of the subsoil expert review on the operational estimate of reserves. For a development project, a positive conclusion on the reserves estimate.

  2. 2
    Independent expert review

    The commission brings in independent experts with special knowledge of geology and development, who have no interest in the outcome. The subsoil user pays for their work (Article 140). The commission includes representatives of state bodies, the National Chamber of Entrepreneurs, industry associations, and scientific and design organisations (the Regulation on the TsKRR).

  3. 3
    The meeting

    The result is decided by considering the document at a meeting of the commission, together with the conclusion of the independent expert review (Article 140).

  4. 4
    Terms

    An exploration project and amendments to it: 2 months. Trial production projects, development projects and development analyses: 3 months, and by decision of the commission up to 3 months more (Article 140).

  5. 5
    Conclusion

    Positive or negative. A copy is sent to the subsoil user within 5 working days of signing. A negative conclusion gives the reasons and recommendations for rework (Article 140).

  • A negative TsKRR conclusion is given if the document does not comply with the law or the contract, with the requirements for content and format, or with good practice of subsoil use. It is also given if the data on reserves in a development project are unreliable, if the quality of the design decisions cannot be objectively assessed, or if there is no positive conclusion of the subsoil expert review on the reserves (Article 140).
  • The GKZ review takes 3 months, and by decision of the commission up to 3 months more. Its positive conclusion is the basis for entering the reserves in the state register (Article 141).
  • If the reviews disagree. Sometimes the environmental and construction reviews disagree, and the subsoil user cannot resolve the disagreement without departing from good practice. On its application, the competent authority then arranges, within 10 working days, negotiations between the state bodies, the subsoil user and the design institute (Article 139).

The order of the reviews is what matters most for timing. The trial production project is accepted for review only after a positive conclusion on the operational estimate of reserves, and the development project only after a conclusion on the reserves estimate (Article 139). First the state agrees on how much oil is in the accumulation, and only then on how to produce it. So the reviews stand in a chain, and their terms add up.

From discovery to the production period: the path through the documents

Let us follow how much time passes from the first inflow of oil until the production period is fixed in the contract. The subsoil user's own work and the reviews go one after another where the law requires it, and in parallel where it allows. Before the production period, the Code lets the company produce a little. It may operate a drilled well temporarily for more than 90 days in the exploration period (Articles 121, 123). It may carry out trial production for up to three years. And in the preparatory period, which also lasts up to three years, it may produce under the approved development project, within the designed average daily volumes of trial production, and it must supply all the oil to the domestic market (Article 118). All the steps, together with environmental permits, land and construction, are shown in the diagram on the MunaiHub page “Field development stages” in the “Operators” section. Here we look only at the chain of project documents and reviews.

Worked exampleThe path of an assumed discovery through the reviews
Given (assumed data)
Contract
for exploration and production, not a complex project; exploration period 6 years (72 months from registration of the contract)
Discovery
the first commercial inflow (the first flow of oil or gas that is worth producing) in month 24; the field is not large
The subsoil user's own work (assumed)
application to confirm the discovery, 1 month; addendum to the exploration project, 3 months; appraisal wells and tests, 12 months; operational estimate of reserves, 2 months; trial production project, 3 months; trial production, 12 months; reserves estimate, 3 months; development project, 6 months
Terms of the state bodies (Subsoil Code)
confirmation of the discovery, 20 working days; TsKRR, 2 months for the addendum to the exploration project and 3 months + up to 3 for the trial production and development projects; GKZ, 3 months + up to 3; addenda to the contract, 20 working days to decide and 20 to sign
Simplifications
20 working days are counted as one month; the environmental procedures run in parallel and do not delay the reviews
Solution
  1. Confirmation of the discovery: the application to the authorised body for the study of the subsoil is made within a month of the discovery, and its consideration takes 20 working days (Article 123): months 24–26.
  2. Within a month of the confirmation, the subsoil user notifies the ministry and starts an addendum to the exploration project with the appraisal (Article 123): months 26–29. The TsKRR reviews it for 2 months, with no right to extend: months 29–31.
  3. Appraisal wells: months 31–43. Operational estimate of reserves: months 43–45. GKZ: months 45–48. The trial production project is prepared in parallel with the review of reserves (months 45–48), but the TsKRR will accept it only after the GKZ conclusion: months 48–51.
  4. Trial production: months 51–63. The permit to flare gas during it is issued in 2 working days, but only if the gas processing development programme has been approved (Article 146). If the programme was approved earlier, this hardly affects the timing. Reserves estimate: months 63–66. GKZ: months 66–69. The development project is prepared in parallel (months 63–69).
  5. With the GKZ conclusion in month 69, still within the exploration period, the subsoil user applies for the production area and the preparatory period. It takes 20 working days to decide and 20 to sign the addendum to the contract (Article 118): months 69–71. At the same time, the TsKRR reviews the development project: months 69–72.
  6. After the TsKRR conclusion comes the application for the production period, with another 20 + 20 working days (Article 119): months 72–74. 50 months have passed since the discovery. The reviews and decisions of state bodies on the critical path (the chain of steps that sets the total time) took 17 of them (34%), and the subsoil user's own work took 33.
  7. If the GKZ and the TsKRR use all the extensions (3 months each on four reviews), the path grows to 62 months. The reviews take 29 of them (47%), and the GKZ conclusion on the reserves estimate arrives in month 78, after the end of the six-year exploration period. The production area can be applied for only in the exploration period and only with this conclusion (Article 118). So the company would have to extend exploration earlier, to appraise the accumulation, for up to three years (Article 117).
  8. The price of waiting. The NPV of the project from the examples of the lesson Net present value (NPV) at 10% is 100.13 million dollars. If all its flows move one month later, it falls by a factor of 1.11/121.1^{1/12}, which is 0.792 million dollars, or 0.791%. Twelve months of extensions cost 100.13⋅(1−1.1−1)=9.10100.13\cdot(1 - 1.1^{-1}) = 9.10 million dollars. The present value of the state's payments for the same project, 75.32 million dollars, loses the same share, 6.85 million dollars.
Answer: The shortest path from the inflow to the fixing of the production period is 50 months (up to month 74 of the contract). With all the extensions of the reviews it is 62 months, and then an extension of the exploration period cannot be avoided. A year of waiting costs the investor about 9.10 million dollars, and the state 6.85 million dollars of present value of payments.

What it means. The reviews are not random delays but a chain: each one waits for the conclusion of the one before it, so their terms add up. Several practical rules follow. Prepare the next document while the previous one is under review. With a six-year exploration period, expect that a discovery later than month 27 of the contract (or later than month 18, if you wait for every extension) will need an extension of exploration, and ask for it in good time. And trial production and the preparatory period let the company produce a little even before the production period. The example is optimistic: here the environmental procedures do not hold up the TsKRR, while a negative conclusion would send a document back for rework and a second review. For a large discovery (more than 100 million t of oil or 50 billion m³ of gas), the path also includes negotiations on an obligation for processing or on an investment project, which take up to 24 months (Article 119). Moving the whole project later is also an assumption. If the investment has already been made by the time of waiting, only the revenue is postponed, and the delay costs more (delay of first oil). The data in this example are assumed for illustration; the terms of the reviews are those of the Subsoil Code.

The path of an assumed discovery through project documents and reviews243648607284months from registration of the contractend of the 6-year exploration perioddiscoveryConfirmation of the discoveryExploration project addendum, TsKRRAppraisal wellsOperational reserves estimate, GKZTrial production project, TsKRRTrial productionReserves estimate, GKZDevelopment project, TsKRRPreparatory period (addendum)Production period (addendum)Critical path from discovery to the production periodShortest review terms: 50 monthsAll review extensions: 62 monthswork of the subsoil userreview or decision of a state body

A Gantt chart (bars of tasks along a time scale) on a scale of months from 20 to 90 from registration of the contract, with vertical lines for the discovery in month 24 and for the end of the six-year exploration period in month 72. Ten rows: confirmation of the discovery, addendum to the exploration project and TsKRR, appraisal wells, operational estimate and GKZ, trial production project and TsKRR, trial production, reserves estimate and GKZ, development project and TsKRR, preparatory period, and production period. The subsoil user's work is in one colour and the reviews in another. The last row ends in month 74. At the bottom are two bars of the critical path: 50 months with the shortest terms, ending in month 74, and 62 months with all the extensions, ending in month 86, far beyond the line of the end of the exploration period.

CalculatedThe path of the discovery of the example with the shortest review terms: the subsoil user's work and the reviews by state bodies, by month of the contract. At the bottom is the critical path with the shortest terms (50 months) and with all the extensions (62 months), which crosses the end of the six-year exploration period.
Loss of NPV when a project is moved later
ΔNPV=NPV[1−(1+i)−Δt]\Delta\mathrm{NPV} = \mathrm{NPV}\left[1 - (1 + i)^{-\Delta t}\right]
where:
  • ΔNPV\Delta\mathrm{NPV}how much the NPV falls because of the waiting, US$ million
  • NPV\mathrm{NPV}NPV of the project with no delay, at the date of the decision, US$ million
  • iidiscount rate, a yearly one, fraction
  • Δt\Delta tthe delay; divide months by 12, years

Units: any currency unit; the rate and the delay in consistent units of time

Holds when
  • all the flows of the project move, including the investment. This happens when the waiting falls before the decision to develop.
  • if the investment has already been made and only the revenue waits, the loss is larger. It is calculated by moving the revenue alone.
  • the costs of waiting itself (keeping the team, renting equipment) are not included. They make the delay even more costly.

Waiting changes neither the reserves nor the costs, but it pushes the money later. At a rate of 10%, each month costs about 0.8% of the NPV. The same share is lost from the present value of the state's payments, so both sides gain from keeping to the terms of the reviews.

Rational development: mandatory indicators and deviations

The Code lists the requirements of rational and integrated use of the subsoil directly: full advance geological study, rational and economically efficient use of resources at all stages, full recovery (taking out as much of the reserves as is practical), reliable accounting of reserves and production, and the greatest possible use of raw gas by processing it (Article 122). Production is allowed only under approved documents with positive review conclusions: the development project or the development analysis, and before the production period the trial production project or the exploration project (for temporary operation of wells). It must use methods that exclude losses not provided for by the base project document, and drill only the wells that these documents provide for (Article 125). The subsoil user takes onto its books all the wells previously drilled in the area, and organises monitoring of the subsoil and control of development (Article 122).

Some indicators of the project documents become obligations under the contract directly. In the text that applies until 1 January 2030 (Article 143 as set out in Article 277), there are nine such indicators. Their values are not written into the contract but taken from the project documents:

  1. the density of the pattern of production wells (well spacing)
  2. the ratio of producing wells to injection wells for each development unit
  3. the voidage replacement ratio for each accumulation
  4. the ratio of reservoir pressure and of bottomhole pressure to the bubble point pressure or to the dew point pressure (the pressure at which liquid starts to drop out of a gas)
  5. the ratio of reservoir pressure to bottomhole pressure
  6. the maximum allowed gas–oil ratio for each well
  7. the volumes of hydrocarbon production
  8. the volumes of working agent injected back to raise the reservoir pressure
  9. the indicators of bringing production wells on stream
  • Pressure and gas. Producing wells may not be operated with a bottomhole pressure below the designed one. The bottomhole pressure may be held below the bubble point pressure only if special studies of the operating mode of the wells justify it. Until they exist, the bottomhole pressure is kept at or above the current bubble point pressure (paragraphs 126–128 of the Unified Rules). Gas must not be released from a gas cap (a layer of free gas above the oil), and oil must not be degassed (made to lose its dissolved gas) in the reservoir, unless the project justifies it (paragraph 113).
  • No selective working. To raise production, a company may not drill selectively, or tighten the well pattern, in the most productive areas and in the zones of greatest thickness (paragraph 372).
  • Adjustment within the system (changing the modes of producing and injection wells, redistributing injection, near-wellbore treatments, drilling reserve wells) is done in agreement with the author of the project. A change of the system (adding wells to the pattern, splitting a development unit into smaller ones, changing the method of acting on the reservoir) is made by an addendum to the project or by a new project with an assessment of its effectiveness (paragraphs 370–374).

How does the state learn that development goes by the project? Through two monitoring tools (Article 142). Author supervision means that the design organisation, the authors of the project, follows how the project is carried out. It compares the actual results with the project, explains the differences and gives recommendations, and its report goes to the ministry by notification. Within it, and without changing the project, the company can move the schedule of bringing wells on stream while keeping the total designed number of wells. It can move drilling points where this is justified, and change the volume of surveys and the zones to be tested (paragraph 149 of the Unified Rules). When the actual results differ from the project by a small amount, less than 10%, the supervision gives recommendations without changing the project (paragraph 152). The development analysis is a comprehensive study of how the reserves are being produced. It is done at least once every three years and is also sent by notification. If the actual results differ from the project by more than 10%, and the analysis justifiably shows that the project must be changed, the analysis goes to the TsKRR for review. After a positive conclusion, its decisions and indicators apply in place of the designed ones while the changes to the project are prepared and reviewed, but for no more than three years (Article 142). With each analysis, the amount of the security for eliminating the consequences of operations (abandonment) is also recalculated (paragraph 161).

Relative deviation of the actual value from the project
δ=xact−xprojxproj⋅100 %\delta = \frac{x_{\text{act}} - x_{\text{proj}}}{x_{\text{proj}}}\cdot 100\ \%
where:
  • δ\deltadeviation of the indicator; a minus sign means less than the project value, %
  • xactx_{\text{act}}actual value of the indicator for the period, in the units of the indicator
  • xprojx_{\text{proj}}project value for the same period, the same

Units: the project and actual values in the same units and for the same period

Holds when
  • indicators with a range or a limit (pressure, gas–oil ratio, voidage replacement) are compared with the boundary of the range. What matters is whether the indicator went past it.
  • the deviation is calculated for each indicator. The Code ties the 10% threshold to the conclusion of the analysis that the project must be changed.

Small differences cannot be avoided, because the model of the reservoir is not exact. A difference of more than 10% is a signal that either the subsoil user is not following the project, or the project describes the reservoir wrongly. In the first case, the development is corrected; in the second, the project is corrected, through a review.

Worked exampleA year of development against the project
Given (assumed data)
Project for production year 4
oil 520 thousand t; water injection 1150 thousand m³; 48 producing wells and 16 injection wells; 12 new producing wells brought on stream; reservoir pressure not below 1.15 times the bubble point pressure; voidage replacement 100–110%
Actual
oil 452 thousand t, produced water 380 thousand m³; injection 880 thousand m³; 48 producing wells and 13 injection wells; 11 new wells brought on stream; pressure 17.9 MPa at a bubble point pressure of 16.8 MPa
Properties
oil density at surface conditions 0.85 t/m³; formation volume factors: oil 1.18, water 1.01 m³/m³; the pressure is above the bubble point pressure, so there is no free gas
Solution
  1. Oil production: δ=(452−520)/520=−13.1\delta = (452 - 520)/520 = -13.1%. Injection: (880−1150)/1150=−23.5(880 - 1150)/1150 = -23.5%. Wells brought on stream: (11−12)/12=−8.3(11 - 12)/12 = -8.3%.
  2. Ratio of producing to injection wells: by the project 48/16=3.00048/16 = 3.000, in fact 48/13=3.69248/13 = 3.692, which is 23.1% more. Three injection wells have not been put on injection.
  3. Reservoir pressure: 17.9/16.8=1.06517.9/16.8 = 1.065, which is below the designed limit of 1.15.
  4. Voidage replacement (the VRR formula): oil at reservoir conditions 452/0.85⋅1.18=531.8⋅1.18=627.5452/0.85\cdot 1.18 = 531.8\cdot 1.18 = 627.5 thousand m³, water 380⋅1.01=383.8380\cdot 1.01 = 383.8 thousand m³, so the withdrawal is 1011.3 thousand m³. Injection is 880⋅1.01=888.8880\cdot 1.01 = 888.8 thousand m³. Voidage replacement is 888.8/1011.3=87.9888.8/1011.3 = 87.9%, below the designed 100–110%.
Answer: Oil production (−13.1%), injection (−23.5%) and the ratio of wells (+23.1%) differ from the project by more than 10%. Voidage replacement (87.9%) and pressure (1.065 times the bubble point pressure) went outside the designed limits. The number of wells brought on stream differs by −8.3%, which is within author supervision.

What it means. Voidage replacement, pressure, the ratio of wells, injection and production are indicators that the contract makes obligations, so such a year is not only an engineering problem but also a contractual one. The cause is visible in the numbers: injection falls short because injection wells are missing, the pressure drops towards the bubble point pressure, and production falls with it. If the development analysis confirms that the designed system is right, the subsoil user must bring development back to the project: put the wells on injection and restore voidage replacement. If, however, it turns out that the reservoir is worse than expected (for example, the injectivity of the wells, the rate at which they take water, is lower than designed), the analysis goes to the TsKRR for review, because the differences are more than 10%. After a positive conclusion, its indicators replace the designed ones until changes to the project are approved. There is no time to wait: below the bubble point pressure, gas comes out of solution in the reservoir, and part of the oil becomes unrecoverable. The data in this example are assumed for illustration.

Associated gas: the flaring ban, permits and the processing programme

Oil can be stored in tanks, but associated gas has to go somewhere at the moment it is produced (gas in the development concept). To send it into a gas pipeline or to a plant, to burn it in the company's own power station, or to inject it into the reservoir costs money. A flare (a stack where the gas is burned) costs the subsoil user almost nothing, but it does cost society. So in Kazakhstan flaring raw gas is banned, except in four cases (Article 146 of the Code):

  • An accident or the threat of one, or a threat to the lives of staff, to public health or to the environment. No permit is needed. Within ten days, the subsoil user notifies in writing the bodies responsible for hydrocarbons and for environmental protection of the causes and volumes.
  • Testing of well zones (the intervals of a well that are tested for inflow), under a project document with positive review conclusions, for the time in the test plan but no more than 90 days per zone.
  • Trial production, for no more than three years in total.
  • Technologically unavoidable flaring, during start-up and commissioning, operation, maintenance and repair of equipment, and during upsets and failures, so that production can continue without a break. It must stay within the norms. The subsoil user investigates every upset, failure or deviation in the work of equipment that involves flaring. Each quarter, no later than the 25th day of the month after the quarter, it reports the time, volumes and causes.

For testing, trial production and technologically unavoidable flaring, a permit of the Ministry of Energy is needed. It is issued only if the subsoil user complies with the project documents and the gas processing development programme, and only within the norms and volumes calculated by the approved methodology (Article 146). The application is filed through the e-government portal. It is considered in 8 working days for well testing and in 2 working days in the other cases. The flaring period cannot go beyond the exploration or production period, the term of the project document and the term of the gas processing programme (the Rules for issuing permits for flaring of raw gas). Under the methodology, the calculated volume of flaring is the whole production of raw gas minus the gas for the company's own technological needs, technological losses, generation of electricity, injection back into the reservoir and processing.

The other side of the regime is the raw gas processing development programme (Article 147). The subsoil user draws it up on the basis of a base project document or a development analysis. The authorised body for hydrocarbons approves it, taking into account the recommendations of a working group. It is updated every three years, and progress on it is reported every year. A section on processing raw gas is mandatory in the development project. Producing hydrocarbons without processing all the raw gas is banned, except for gas flared under Article 146, gas used for own needs under the programme, and gas sold to other persons for processing or utilisation. Where processing is not economically justified, the project and the programme may provide for injecting all the gas, except for own needs, into the reservoir, for storage or for pressure maintenance. Gas injection for pressure maintenance is allowed if other methods are ineffective on this field and the injection is safe (Article 147). Under the Unified Rules, oil fields are not put into development without utilisation of the associated gas (paragraph 82), and an approved programme is one of the conditions for starting (paragraph 81).

Mass of CO₂ when gas burns completely
mCO2=V MCO2Vm∑jyjnjm_{\mathrm{CO_2}} = V\,\frac{M_{\mathrm{CO_2}}}{V_m}\sum_j y_j n_j
where:
  • mCO2m_{\mathrm{CO_2}}mass of carbon dioxide formed, kg
  • VVvolume of gas at 20 °C and 101.325 kPa (Systems of units: SI, oilfield and metric oilfield), m³
  • MCO2M_{\mathrm{CO_2}}molar mass of CO₂, 44.01 g/mol, kg/kmol
  • VmV_mmolar volume of an ideal gas at 20 °C and 101.325 kPa, RT/p=24.055RT/p = 24.055 L/mol, m³/kmol
  • yjy_jmole fraction of component jj in the gas, —
  • njn_jnumber of carbon atoms in a molecule of the component (methane 1, ethane 2, propane 3, butane 4, nitrogen 0, CO₂ 1), —

Units: SI; the gas volume at the standard conditions to which gas is referred in Kazakhstan

Holds when
  • the burning is complete: every carbon atom becomes CO₂. The CO₂ already in the gas passes through the flare and is also counted.
  • in reality a flare does not burn all the gas, and unburned methane is a much stronger greenhouse gas, so the formula understates the harm from a flare.
  • the gas is treated as ideal. At atmospheric pressure the correction is a fraction of a per cent.

∑yjnj\sum y_j n_j is the number of carbon atoms per molecule of the gas. The wetter the gas (the more ethane, propane and butane it holds), the more CO₂ a cubic metre gives. For dry methane it is about 1.8 kg/m³, and for associated gas with ethane and propane 2.2–2.7 kg/m³.

Annual result of using gas instead of flaring it
Binv=P V−(I⋅CRFn(i)+O),Bsoc=Binv+c mCO2B_{\text{inv}} = P\,V - \left(I\cdot\mathrm{CRF}_n(i) + O\right), \qquad B_{\text{soc}} = B_{\text{inv}} + c\,m_{\mathrm{CO_2}}
where:
  • Binv, BsocB_{\text{inv}},\ B_{\text{soc}}annual result for the investor and for society, US$ million a year
  • PPprice of gas at the inlet of the gas processing plant (GPP), which is the netback of the gas, US$ per thousand m³
  • VVgas that would otherwise be flared, per year, thousand m³ a year
  • I, OI,\ Oinvestment in utilisation (compressors, a pipeline) and operating costs per year, US$ million, US$ million a year
  • CRFn(i)\mathrm{CRF}_n(i)capital recovery factor for the service life nn at the rate ii (Annual capital charge), 1/yr
  • ccvalue to society of a tonne of CO₂ avoided: an estimate, not a payment set by law, US$/t
  • mCO2m_{\mathrm{CO_2}}annual CO₂ emission of the flare that utilisation prevents, t a year

Units: money in constant prices and in one unit (in the example, US$ million a year: P VP\,V and c mCO2c\,m_{\mathrm{CO_2}} are converted from dollars to millions); gas volumes at 20 °C and 101.325 kPa

Holds when
  • the investment is converted into an equal annual capital charge. Taxes are not included.
  • the gas sold replaces the same volume of gas that would otherwise be produced and burned elsewhere, so the emission avoided equals the emission of the flare. If the replacement is partial, or the gas it replaces has less carbon, the emission avoided and society's gain are smaller. If the gas is injected into the reservoir, the emission is avoided without this assumption, but there is no revenue.
  • the value of the gas to society is taken as equal to the price PP.

The investor uses the gas of its own accord only if the price of gas covers the annual cost of utilisation. Society gains from utilisation at a lower price too, by the amount of the damage avoided. Between these two prices there is a zone where, without a ban, the gas would be flared even though that is a loss for society.

Worked exampleFlare or pipeline: who pays for utilisation
Given (assumed data)
Production
oil 1500 t/d, gas–oil ratio 120 m³/t; 15 thousand m³/d goes to own needs (gas at 20 °C and 101.325 kPa)
Gas composition, mole fractions
methane 0.78; ethane 0.11; propane 0.06; butanes 0.03; nitrogen 0.015; CO₂ 0.005
Utilisation
a compressor station and a pipeline to the gas processing plant: investment US$20 million, service life 15 years, operating cost US$2.0 million a year; rate 10%
Gas price at the plant inlet
US$40 per thousand m³
Value of a tonne of CO₂ avoided
US$30/t, an estimate for comparison, not a rate set by law
Solution
  1. Associated gas: 1500⋅120=1801500\cdot 120 = 180 thousand m³/d. Above own needs there are 165 thousand m³/d, or 165⋅365=60,225165\cdot 365 = 60{,}225 thousand m³ a year, which is 60.225 million m³.
  2. Carbon atoms per molecule: 0.78+2⋅0.11+3⋅0.06+4⋅0.03+0.005=1.3050.78 + 2\cdot 0.11 + 3\cdot 0.06 + 4\cdot 0.03 + 0.005 = 1.305. CO₂ per cubic metre: 1.305⋅44.01/24.055=2.3881.305\cdot 44.01/24.055 = 2.388 kg/m³. Emission of the flare: 60.225⋅2.388=143.860.225\cdot 2.388 = 143.8 thousand t of CO₂ a year.
  3. Annual cost of utilisation: CRF15(10 %)=0.1315\mathrm{CRF}_{15}(10\ \%) = 0.1315, so the capital charge is 20⋅0.1315=2.6320\cdot 0.1315 = 2.63 million dollars. With operating cost, it is 4.63 million dollars a year, or about 76.9 dollars per thousand m³.
  4. Revenue from the gas: 40⋅60,225=2.4140\cdot 60{,}225 = 2.41 million dollars a year. The investor's result is 2.41−4.63=−2.222.41 - 4.63 = -2.22 million dollars a year. At this gas price, utilisation makes a loss for it.
  5. For society, the emission avoided is added: 30⋅143.8=4.3130\cdot 143.8 = 4.31 million dollars a year. The result is −2.22+4.31=2.09-2.22 + 4.31 = 2.09 million dollars a year. Utilisation pays for society if a tonne of CO₂ is “worth” more than 2.22 million dollars a year divided by 143.8 thousand t, which is about 15.4 dollars.
  6. The burden on the oil: each year the field produces 1500⋅365=547,5001500\cdot 365 = 547{,}500 t of oil, or 0.5475⋅7.314=4.0040.5475\cdot 7.314 = 4.004 million bbl (7.314 bbl per tonne at a density of 0.86 t/m³). The loss from utilisation is 2.22/4.004=0.552.22/4.004 = 0.55 dollars per barrel, about 1.1% of revenue at an oil price of 50 dollars per barrel.
Answer: Using the gas costs the investor 2.22 million dollars a year (about 0.55 dollars per barrel of oil). But when the avoided emission of 143.8 thousand t of CO₂ is counted, society gains 2.09 million dollars a year. Utilisation pays for the investor on its own only at a gas price above 76.9 dollars per thousand m³.

What it means. This is the economic basis of the flaring ban. At a low gas price at the wellhead, it pays a private investor to flare the gas, and it pays society to use it. The ban and the permits move the decision in favour of society, and the cost of utilisation falls on the oil project: here about one per cent of revenue. For small fields, the unit costs are higher (compressors and a pipeline get little cheaper as the gas volume shrinks), so cheaper ways are sought for them: their own power station, handing the gas to a neighbour, or injection into the reservoir if processing is not justified. With a higher value of a tonne of CO₂, and taking unburned methane into account, society's gain is larger. The prices, costs and value of CO₂ in the example are assumptions. The data in this example are assumed for illustration.

Annual result of using associated gas instead of flaring it, against the gas price020406080100−4−20246Gas price at the plant inlet, US$ per thousand m³Result, US$ million a yearfor society (counting CO₂)for the investor2.09−2.2276.9

Graph: the horizontal axis is the gas price from 0 to 100 dollars per thousand cubic metres, the vertical axis is the annual result from minus 5 to plus 6 million dollars. Two parallel rising straight lines. The lower one, for the investor, starts at about minus 4.6 and crosses zero at 76.9; this point is marked. The upper one, for society, is higher by 4.31 and crosses zero at about 5. At the price of 40, points are marked: −2.22 for the investor and 2.09 for society.

CalculatedThe annual result of delivering gas to the processing plant instead of flaring it, for the field of the example at different gas prices. For the investor it is revenue minus the annual cost of utilisation. For society it also includes the avoided CO₂ emission at US$30/t. The marks are at a price of US$40 per thousand m³. For the investor, utilisation pays only above US$76.9, and for society from about US$5.

Flaring above the norms is more than a breach of the terms of a permit. The authorised body determines the damage from a breach of the requirements of rational use of the subsoil (Article 122). Under its rules, normative losses (the losses that the rules allow) are the technological losses justified in the project documents and the volumes of flaring in the permit. The damage is the actual losses above these, valued at the average official price quotations for the reporting period. Reserves left in the subsoil or written off too early also count as above-norm losses, as do losses from watering out or from flows between layers when the development regime is broken (the Rules for determining the amount of damage, hydrocarbons).

In-country value and procurement

The state wants the money of development to work in its own economy (the goals of the state as owner). The tool is in-country value, which used to be called local content: the share of the goods, works, services and staff that come from Kazakhstan. Subsoil users must give preference to Kazakhstani personnel, and executives, managers and specialists who work under an intra-company transfer (a move of staff within a company group) may be no more than half in each category (Article 28). The share of in-country value in works and services must be at least 70% of the total volume of works and services bought in a calendar year. This rule does not apply to complex projects in the Kazakhstan sector of the Caspian Sea (same article).

The share is calculated by the unified methodology for in-country value in procurement. Contracts to supply goods and contracts for works and services are treated separately, and the calculation takes into account the share of the wage bill that goes to Kazakhstani personnel at the supplier and its subcontractors. The share in a good is taken from an extract from the register of Kazakhstani producers of goods or from a “CT-KZ” certificate (the certificates were valid until 1 January 2026). Without such a document it is zero, unless the methodology says otherwise. The share in personnel is calculated by a separate methodology, in four categories: managers and their deputies, heads of units, specialists, and skilled workers.

Goods, works and services are bought by an open tender, from a single source, by an open tender with falling prices (electronic bidding), on commodity exchanges, or without these methods for the items on an approved list. The first three methods must go through the register of goods, works and services, a state information system for control of procurement, or through electronic procurement systems that are synchronised with it (Article 131). The organiser of a tender conditionally reduces by 20% the price of the bid of a Kazakhstani producer of works and services. This is an organisation or an entrepreneur of Kazakhstan in which citizens of Kazakhstan are at least 95% of the workers, not counting intra-company transfers. Under the Rules for procurement by subsoil users, the price of a Kazakhstani producer of goods is reduced in the same way in an open tender and in electronic bidding. The subsoil user submits annual and five-year procurement programmes, and is responsible under the contract for breaches of the procurement procedure, including by contractors. These requirements on procurement methods do not apply to those who buy under the legislation on state procurement, or to companies in which the national managing holding owns half or more of the voting shares. For complex projects, the subsoil user buys under its own procedure, with programmes for developing local suppliers and with open access to procurement (Article 131).

Conditional price in a tender and the limit of the price premium
Pcond=(1−0.2) PKZ,Pcond<Pforeign  ⇔  PKZ<Pforeign0.8=1.25 PforeignP_{\text{cond}} = (1 - 0.2)\,P_{\text{KZ}}, \qquad P_{\text{cond}} < P_{\text{foreign}} \;\Leftrightarrow\; P_{\text{KZ}} < \frac{P_{\text{foreign}}}{0.8} = 1.25\,P_{\text{foreign}}
where:
  • PKZP_{\text{KZ}}price of the bid of the Kazakhstani producer of works and services, tenge
  • PcondP_{\text{cond}}the conditional price at which the bids are compared, tenge
  • PforeignP_{\text{foreign}}price of the best bid that is not reduced (a foreign bid in the example), tenge

Units: any currency unit

Holds when
  • the other terms of the bids are equal, and the price decides the winner.
  • the reduction is conditional: the payment is at the bid price, not at the conditional price.

A 20% discount in the comparison is equal to a premium of up to 25% in payment. The Kazakhstani bidder wins as long as its price is less than 1.25 times the best foreign price. The difference is the price that the subsoil user pays for in-country value.

Share of in-country value in the works and services of a year
s=∑kVk sk∑kVk≥0.7s = \frac{\sum_k V_k\, s_k}{\sum_k V_k} \ge 0.7
where:
  • ssshare of in-country value in the works and services of the calendar year, fraction
  • VkV_kvalue of the contract kk for works or services bought in the year, tenge
  • sks_kshare of in-country value in contract kk by the unified methodology, fraction

Units: any currency unit

Holds when
  • the shares sks_k of the contracts have already been calculated by the unified methodology. Here they are only added up with the contract values as weights.
  • goods are not part of this requirement: it applies to works and services (Article 28).

The requirement is met by the portfolio of purchases, not by each contract. One expensive contract with a low share can “eat” the margin built up by many cheap ones.

Worked exampleA drilling tender and the share of in-country value for the year
Given (assumed data)
Tender for drilling four wells
a foreign company: 3840 million tenge (KZT), in-country value share of the contract 30%; a Kazakhstani producer of works and services: 4300 million tenge, share 82%; the other terms are equal
Other contracts of the year: 3D seismic survey
1900 million tenge, share 64%
Other contracts of the year: well repair and servicing
2600 million tenge, share 88%
Other contracts of the year: transport and special vehicles
1700 million tenge, share 91%
Other contracts of the year: engineering and design
1200 million tenge, share 72%
Other contracts of the year: hydraulic fracturing and stimulation
2200 million tenge, share 35%
Solution
  1. Conditional price of the Kazakhstani bidder: 0.8⋅4300=34400.8\cdot 4300 = 3440 million tenge, which is less than 3840 million tenge. It wins, although it is more expensive by 4300−3840=4604300 - 3840 = 460 million tenge, or 12.0%. It would stop winning at a price above 3840/0.8=48003840/0.8 = 4800 million tenge: when the conditional prices are equal, the Procurement Rules give preference to the Kazakhstani producer.
  2. The other contracts of the year: value 9600 million tenge, in-country value 1900⋅0.64+2600⋅0.88+1700⋅0.91+1200⋅0.72+2200⋅0.35=66851900\cdot 0.64 + 2600\cdot 0.88 + 1700\cdot 0.91 + 1200\cdot 0.72 + 2200\cdot 0.35 = 6685 million tenge, or 69.6%.
  3. With the Kazakhstani drilling contractor: (6685+4300⋅0.82)/(9600+4300)=10,211/13,900=73.5(6685 + 4300\cdot 0.82)/(9600 + 4300) = 10{,}211/13{,}900 = 73.5%. The 70% requirement is met.
  4. With the foreign one: (6685+3840⋅0.30)/(9600+3840)=7837/13,440=58.3(6685 + 3840\cdot 0.30)/(9600 + 3840) = 7837/13{,}440 = 58.3%. To reach 70%, 0.7⋅13,440−7837=15710.7\cdot 13{,}440 - 7837 = 1571 million tenge of in-country value is missing.
Answer: The Kazakhstani contractor wins the tender at the conditional price of 3440 million tenge, and it costs 460 million tenge (12.0%) more. With it, though, the share of in-country value for the year is 73.5%, while with the foreign one it would be 58.3% instead of the required 70%.

What it means. The tender rule and the annual requirement work together. The conditional discount helps the subsoil user meet the obligation on the share, for which it answers under the contract, but it costs real money: up to a quarter of the price of the best foreign bid. In valuing a project, this premium is put into the cost of works and services. The other side shows in the hydraulic fracturing line: specialised services, of which there are few in the country, pull the share down, and the margin has to be built up on mass-volume work. The shares of the contracts in the example are given, not calculated by the methodology. The data in this example are assumed for illustration.

Reporting, metering and inspections

The state sees development through reports and metering data. Reports are periodic or one-off. On a written request of the competent authority, the subsoil user submits, within 20 working days, the documents that confirm its work and expenses (Article 76).

What a hydrocarbon subsoil user reports, and to whom
Report or data
Geological report
To whom and when
the authorised body for the study of the subsoil
Basis
Article 132
Report or data
Performance of the licence and contract terms
To whom and when
the competent authority (the Ministry of Energy)
Basis
Article 132
Report or data
Procurement and the in-country value in it; in-country value in personnel
To whom and when
the authorised body for hydrocarbons
Basis
Article 132
Report or data
Spending on training and on research and development; the persons who control the subsoil user
To whom and when
the same body
Basis
Article 132
Report or data
Annual and five-year procurement programmes
To whom and when
the same body
Basis
Article 131
Report or data
Daily and monthly reports on the accounting of oil, gas, condensate and water
To whom and when
primary records at the field
Basis
paragraph 290 of the Unified Rules
Report or data
Data of the oil and gas metering devices
To whom and when
the accounting information system, in real time
Basis
Article 144
Report or data
Progress on the gas processing programme
To whom and when
the authorised body, every year
Basis
Article 147
Report or data
Upsets with gas flaring
To whom and when
the same body, every quarter by the 25th
Basis
Article 146
Report or data
Reporting under the standard of the Extractive Industries Transparency Initiative (EITI), confirmed by an auditor
To whom and when
the competent authority
Basis
Article 76

The Subsoil Code as of October 2026, and the Unified Rules. Producing and shipping oil and gas at the facilities on the approved list is banned without metering devices, or with faulty ones (Article 144). The Ministry of Energy approves the technological scheme of equipping, and has up to 30 working days to consider it.

Contract monitoring. The competent authority follows the performance of the contract through the subsoil user's reports, through satellite monitoring data that show signs of breaches, and through information from other sources. It also visits the subsoil user and its facilities (Article 66). Under the monitoring rules, the annual report is analysed within six months, and a request for additional information is answered within 10 working days. Information that is not submitted is treated as failure to perform the obligation. A physical volume of work (geophysics, drilling, production) counts only if it is confirmed by acts of completed work, invoices and payment orders. If there is a breach, the subsoil user receives a notice of breach of the terms of the contract.

State control of compliance with the subsoil legislation takes the forms of inspection and preventive control, with and without a visit to the controlled party. Inspections and preventive control with a visit follow the Entrepreneurial Code (Article 67). Who is visited is decided by risk assessment criteria. Subsoil users are placed in a high, medium or low risk group, and among the subjective criteria are breaches in the reports on gas processing programmes, in the terms of well testing, in the operating modes and in the procurement procedure. There are separate checklists for exploration and production onshore and offshore. At the same time, the Code says directly that in state control, the good faith of the subsoil user's actions is presumed (Article 9).

Sanctions: from a penalty to termination of the contract

Sanctions come in steps: first a notice and a time to put things right, then money, and in the last resort termination of the right. The rules on penalties and on termination of the contract are covered in detail in the lesson on the subsoil user's obligations. Here we cover what concerns development.

  • A penalty is charged in the cases, in the manner and in the amount set by the contract, and paying it does not release the user from the obligation. The time to fix a breach is up to six months for physical volumes of work, three months if the financial obligations of the year are less than 30% fulfilled or the schedule of security for abandonment is breached, and one month for all others. The subsoil user may ask for an extension, and the answer comes within 10 working days (Article 133).
  • Early termination of the contract applies, among other things, to operations without project documents that were approved by the subsoil user and received positive review conclusions (Article 106). For breaches that are not fixed, namely financial obligations less than 30% fulfilled, a breach of the security for abandonment, or more than two other breaches, the ministry may terminate the contract. The contract ends two months after the notice, and the termination can be challenged in court within the same two months.
  • Compensation for damage to the subsoil. Whoever damages the resources of the subsoil in breach of the subsoil legislation must compensate for it (Article 79). The authorised body determines the amount of damage from irrational use of the subsoil in hydrocarbon exploration and production: the above-norm losses valued at the average official price quotations (Article 122).
  • Administrative and criminal liability follows the laws. Being held liable does not release the user from the duty to fix the breach (Article 79).
  • Limitation period. A subsoil user can be held liable for breach of its obligations under the contract within three years of the day on which the controlling body learned, or should have learned, of the breach. A transfer of the subsoil use right does not change this period (Article 80).

Terms and symbols

Base project documents
The exploration project, the trial production project and the field development project. The subsoil user approves them, and they are reviewed by the TsKRR (in the cases set by the Code) and by the environmental review.
Technical project documents
Projects for well construction, field facilities, abandonment and others, prepared on the basis of the base documents; the Unified Rules give the list.
TsKRR
The Central Commission for Exploration and Development of Hydrocarbon Fields. It carries out the state expert review of base project documents and development analyses, with independent experts.
GKZ
The State Reserves Commission. Until 1 January 2030 it carries out the state expert review of the reports on the estimate and the operational estimate of hydrocarbon reserves.
Author supervision
The design organisation's follow-up of how the project is carried out: comparing the actual results with the project, explaining the differences, and making adjustments that do not change the project; the report is sent by notification.
Development analysis
A comprehensive study of how the reserves are being produced, at least once every three years; if the actual results differ from the project by more than 10% and a change of the project is justified, the TsKRR reviews it.
Good practice of subsoil use
Generally accepted international practice that is rational, safe, necessary and economically efficient (Article 122 of the Subsoil Code).
Raw gas processing development programme
A programme for processing or using the gas produced, approved by the state; it is updated every three years and reported on every year.
Technologically unavoidable flaring
Burning gas during start-up and commissioning, maintenance, repair, and upsets and failures of equipment, so that production is not interrupted; it needs a permit and must stay within the norms.
In-country value
The share of Kazakhstani content in the goods, works and services bought and in personnel; in works and services over a year it must be at least 70%.
Normative losses
The technological losses justified in the project documents and the flaring volumes in the permit; losses above them are valued as damage to the subsoil.

Common mistakes and misconceptions

Wrong

“The ministry approves the development project, and the subsoil user only carries it out.”

In fact

The subsoil user itself approves the project documents (Article 134). The state gives the conclusions of the reviews (the TsKRR review and the environmental review). Without them, work under the project is not allowed. The decisions of the project are taken by the subsoil user and its design organisation. The review checks them but does not replace them.

Wrong

“The project is agreed, so we can drill wells wherever it pays better.”

In fact

The kinds, volumes and timing of work can be changed only by changing the project (Article 134). Without that, only adjustments within author supervision are allowed: a shift of the schedule of bringing wells on stream without changing the total number of wells, and a justified move of drilling points. Selective drilling of only the most productive areas is directly banned (paragraph 372 of the Unified Rules).

Wrong

“If there is nowhere to put the associated gas, we can flare it and pay for the emissions.”

In fact

Flaring is allowed only in emergencies (without a permit, but with notification) and, for well testing, trial production and technologically unavoidable flaring, with a permit and within the norms. A field is not put into development without utilisation of the associated gas, and losses above the norms are damage to the subsoil.

Wrong

“In-country value of 70% means that seven contractors out of ten must be Kazakhstani.”

In fact

It is the share of in-country value in the cost of all the works and services bought in a calendar year, calculated by the unified methodology. One expensive contract with a low share can outweigh many cheap ones.

Wrong

“A development analysis is a report for the archive once every three years.”

In fact

It is the main monitoring tool. If the actual results differ from the project by more than 10% and the project must be changed, it goes to the TsKRR for review. After a positive conclusion, its indicators replace the designed ones until the changes are approved, for no more than three years.

In depth: advanced detail

Three options of a project: where the interests of the investor and the owner part

The Unified Rules require at least three options in a development project: on depletion, with pressure maintenance, and with new technologies that raise recovery. Let us see how the investor and the owner value these options. We take the project from the examples of the economics lessons (Cash flow model of an oil and gas project), with the same assumed tax regime: a royalty (a share of revenue paid to the state) of 10% of revenue and an income tax of 20%. The rent is the NPV of the flow before payments to the state (resource rent). The difference between options is calculated as an incremental flow, “with the change minus without it” (Acceleration projects and incremental analysis).

Worked exampleDepletion, waterflooding and polymer flooding
Given (assumed data)
Option A: depletion
the project from the examples as it is: 12 million bbl over 7 years; oil in place 80 million bbl
Option B: waterflooding from year 3
injection wells and water treatment cost another US$25 million and US$15 million in years 3 and 4, and injection costs US$4 million a year; production 15.8 million bbl over 9 years, abandonment US$14 million
Option C: B plus polymer flooding
polymer flooding means adding a polymer to the injected water so that it thickens and pushes more oil; it costs another US$20 million and US$10 million in years 6 and 7, and US$9 million a year for the polymer and fluid treatment from year 7; production 19.4 million bbl over 12 years, abandonment US$15 million
Conditions
price US$50/bbl; royalty 10%, income tax 20%; investor's rate 10% (real)
Solution
  1. Recovery factor: A 12.0/80=15.0012.0/80 = 15.00%, B 15.8/80=19.7515.8/80 = 19.75%, C 19.4/80=24.2519.4/80 = 24.25%.
  2. NPV of the investor at 10%: A 100.13, B 110.41, C 108.20 million dollars. Rent: 175.45, 198.53 and 203.06 million dollars. Present value of the payments to the state: 75.32, 88.12 and 94.86 million dollars.
  3. Waterflooding (B minus A): for the investor 110.41−100.13=10.28110.41 - 100.13 = 10.28 million dollars, for the rent 198.53−175.45=23.08198.53 - 175.45 = 23.08 million dollars. It pays both.
  4. Polymer stage (C minus B): the rent gains 203.06−198.53=4.53203.06 - 198.53 = 4.53 million dollars, but the investor gets 108.20−110.41=−2.21108.20 - 110.41 = -2.21 million dollars. The state gets 6.746.74 million dollars from the increment, which is more than the increment of the rent itself.
  5. At a rate of 5%, the increment of the rent from the polymer stage is 13.02 million dollars and that of the investor is 1.42 million dollars. The investor's increment becomes negative at a rate above 6.6%, and the rent's increment at a rate above 15.2%.
Answer: Waterflooding pays both the investor (+10.28 million dollars) and the owner. The polymer stage adds 3.6 million bbl and 4.53 million dollars of rent at 10%, but it brings the investor −2.21 million dollars. Of its own accord, the investor will not choose it.

What it means. The difference is created by the payments to the state. A royalty is taken on every additional barrel, however much it costs to produce, and from an increment with a thin margin the state takes more than the whole increment of the rent. Between the rates of 6.6 and 15.2%, the polymer stage is valuable for the owner of the subsoil but loss-making for the investor. At a lower rate, which is often ascribed to the state, its value is even higher. The requirement to consider options, and the TsKRR review, will not make an investor put money in at a loss; they make the difference visible. The decision can be moved by incentives. The Code instructs the Unified Rules to classify the enhanced oil recovery methods and the way to account for oil produced by special methods. It also exempts oil produced by the methods classed as special from the mandatory supplies for processing in Kazakhstan on schedules (Articles 148-1, 130). Tax incentives are covered in the lesson Petroleum fiscal systems and taxation. The options, their costs and their production are assumed. The data in this example are assumed for illustration.

Increment of NPV from polymer flooding: the rent and the investor's flow at different rates05101520−808162432Discount rate, %Increment, US$ millionrent (before payments to the state)investor's flow6.6%15.2%

Graph: the horizontal axis is the discount rate from 0 to 20 per cent, the vertical axis is the increment of NPV from minus 8 to 32 million dollars, with a dashed zero line. Both curves fall as the rate rises. The rent starts at about 29 at a zero rate and crosses zero at about 15.2 per cent. The investor's flow starts at about 8.6 and crosses zero at about 6.6 per cent. Both crossing points are marked.

CalculatedThe increment from the polymer stage (option C minus option B) at different discount rates: the rent, which is the flow before payments to the state, and the investor's flow after royalty and income tax. Between 6.6 and 15.2%, the increment of the rent is positive and that of the investor is negative.
One accumulation under two areas

Where oil belongs to whoever produces it with their own well, even if it came from under a neighbour's area (the so-called rule of capture), the owners of neighbouring areas over one accumulation compete: whoever drills and produces faster gets more. The race wastes the natural energy that pushes the oil to the wells (the drive of the accumulation) and lowers the total recovery. The industry's answer is unitisation: the accumulation is developed as one unit under one project, and the production and costs are shared in agreed shares of the areas, which are reviewed as data accumulate.

In Kazakhstan, the subsoil belongs to the people, but there may be several areas, and the Code solves the problem this way (Article 151). Suppose part of a discovered accumulation or field lies in the area of another subsoil user. Then the users must do one of two things, at their choice. They can transfer the right so that only one subsoil user remains for the accumulation, or several users with shares in one contract. Or they can sign an agreement on joint exploration and production on the accumulation as a single unit. This comes with changes to the project documents, and the agreement must first be approved by the competent authority. If they do not do this, the competent authority may demand the agreement through the court. The subsoil users are jointly and severally liable for joint obligations (each of them answers for the whole). Neighbouring fields may be developed together, with shared infrastructure and a managing company, by agreement with the competent authority and with justification in the project documents (Article 150).

Worked exampleShares of the areas in a shared accumulation
Given (assumed data)
Area A
accumulation area 3.4 km², net pay thickness 12 m, porosity 0.18, oil saturation 0.70
Area B
2.1 km², 15 m, 0.17, 0.66; after two appraisal wells the average thickness on B is 19 m
Sharing rule
in proportion to the oil-filled pore volume; production of the unit 400 thousand t a year
Solution
  1. Oil-filled pore volume: A 3.4⋅12⋅0.18⋅0.70=5.14083.4\cdot 12\cdot 0.18\cdot 0.70 = 5.1408 million m³, B 2.1⋅15⋅0.17⋅0.66=3.53432.1\cdot 15\cdot 0.17\cdot 0.66 = 3.5343 million m³.
  2. Shares: A 5.1408/(5.1408+3.5343)=59.265.1408/(5.1408 + 3.5343) = 59.26%, B 40.74%.
  3. After the update: B 2.1⋅19⋅0.17⋅0.66=4.47682.1\cdot 19\cdot 0.17\cdot 0.66 = 4.4768 million m³. The shares are A 53.45%, B 46.55%.
  4. Area B receives (46.55−40.74) %⋅400≈23.2(46.55 - 40.74)\,\%\cdot 400 \approx 23.2 thousand t of production a year.
Answer: The initial shares are 59.26 and 40.74%. After the appraisal wells they are 53.45 and 46.55%, and area B is due 23.2 thousand t more every year.

What it means. The shares of a unit are a matter of negotiation with a lot of money at stake: a few metres of thickness at the edge of the accumulation move thousands of tonnes a year. So agreements usually provide for a review of the shares on new data and for a way to recalculate costs already incurred. The state approves the agreement and sees that development goes by one project, and not as a race. The sharing rule in the example is simple. In practice, recoverable reserves and the contribution of the areas to production are also taken into account. The data in this example are assumed for illustration.

Connections to other topics

Check yourself

  1. 1

    A subsoil user adds two exploration wells on the same area to its exploration project. The change does not concern the appraisal of a discovery, offshore exploration or an increase in the area. How is the change made?

    1. A.Approve it in the GKZ
    2. B.After the environmental review, send it to the Ministry of Energy by notification
    3. C.Send it to the TsKRR for review, 2 months
    4. D.It is not: drilling volumes can be changed without changing the project
    Show the answer

    Correct answer: B. After the environmental review, send it to the Ministry of Energy by notification

    A change in the volume of work needs a change in the project (Article 134). The exploration project, and changes to it that are not connected with appraisal, offshore exploration or an increase in the area, are sent to the competent authority by notification (Article 139). All project documents go through the state environmental review. The TsKRR would be needed for an addendum with the appraisal of a discovered accumulation.

  2. 2

    Why can a trial production project not be filed with the TsKRR right after the appraisal wells are tested?

    1. A.The TsKRR considers projects only once a year
    2. B.A positive conclusion of the state subsoil expert review on the operational estimate of reserves is needed first
    3. C.Only the Government can allow trial production
    4. D.A permit for flaring gas is needed first
    Show the answer

    Correct answer: B. A positive conclusion of the state subsoil expert review on the operational estimate of reserves is needed first

    A trial production project is accepted for review only after a positive conclusion on the report on the operational estimate of reserves (Article 139). First the state agrees on how much oil is in the accumulation, then on how to produce it. A permit for flaring, on the contrary, is issued on the basis of an approved project.

  3. 3

    By the development project, a year calls for 300 thousand t of oil and 700 thousand m³ of injected water. In fact, 282 thousand t were produced and 560 thousand m³ were injected. Which indicators differ from the project by more than 10%, and what follows?

    Show the answer

    Oil: (282−300)/300=−6.0(282 - 300)/300 = -6.0%, which is within author supervision. Injection: (560−700)/700=−20.0(560 - 700)/700 = -20.0%, more than 10%. The volumes of injection and the voidage replacement are indicators that the contract makes obligations, so a shortfall in injection is a contractual problem. If the development analysis shows that the project is right, development is brought back to the project, and injection is restored. If it justifiably shows that the project must be changed, the analysis, with a difference of more than 10%, goes to the TsKRR for review. After a positive conclusion its indicators apply in place of the designed ones until the changes are approved, for no more than three years (Article 142).

  4. 4

    In which case may raw gas be burned in a flare without a permit?

    1. A.During the testing of a well, if it is shorter than 90 days
    2. B.In the first three months of trial production
    3. C.In an accident or the threat of one, or a threat to the lives of staff, public health or the environment, with written notification of the bodies within ten days
    4. D.In no case
    Show the answer

    Correct answer: C. In an accident or the threat of one, or a threat to the lives of staff, public health or the environment, with written notification of the bodies within ten days

    Without a permit, gas can be flared only in emergencies or when they threaten, with notification of the bodies for hydrocarbons and for environmental protection within ten days (Article 146). Well testing, trial production and technologically unavoidable flaring need a permit of the Ministry of Energy and must stay within the norms.

  5. 5

    In a tender for workovers (major repairs of wells), a foreign company offered 1250 million tenge and a Kazakhstani producer of works and services offered 1520 million tenge. The other terms are equal. Who wins, and at what price would the Kazakhstani bidder stop winning?

    Show the answer

    The conditional price of the Kazakhstani bidder is 0.8⋅1520=12160.8\cdot 1520 = 1216 million tenge, which is less than 1250, so it wins, although it is more expensive by 270 million tenge, or 21.6%. It would stop winning at a price above 1250/0.8=1562.51250/0.8 = 1562.5 million tenge (when the conditional prices are equal, the Kazakhstani producer gets the preference). The limit of the premium is 25%. The subsoil user pays the bid price, 1520 million tenge, not the conditional one.

  6. 6

    The review of a development project was extended by 3 months. The NPV of the project at a rate of 12% is US$80 million, and all its flows move later by the waiting time. How much does the extension cost, and why does the state lose too?

    Show the answer

    ΔNPV=80⋅(1−1.12−0.25)=80⋅0.0279≈2.23\Delta\mathrm{NPV} = 80\cdot(1 - 1.12^{-0.25}) = 80\cdot 0.0279 \approx 2.23 million dollars. Taxes and other payments to the state come with production and move by the same 3 months, so their present value falls by the same share, 2.8%. If the investment had already been made by the start of the waiting, only the revenue would move, and the loss would be larger.

Updated: 17 October 2026