Ecology, biotic communities and ECO-PPA

The concept offers a single evidence-based contour: cadastral and legal status is maintained as an independent layer, environmental status is assessed according to a relevant baseline, and each activity is associated with a source of pressure, responsible, cost and verifiable result.

1. Summary for decision

"Earth Use Biocenosis" is a project of the system of diagnostics, management and restoration of living territory in the architecture EQUILIBRIUM - ECO-PPA - SPECZASHCHITA. Its task is to turn scattered cadastral, natural, production and investment information into a verifiable cycle of decisions.

1.1. What the customer receives

• digital passport of the territory, linking the site, landscape, catchment and history of impacts;
• a baseline of soil, water, vegetation and habitats, indicating methods and uncertainties;
• atlas of threats and a priority map, where the risk and confidence of the diagnosis are separately shown;
• portfolio of events ECO-PPA with responsible, resources, KPI and independent verification;
• re-observation rules that allow you to prove the effect or change the measure in a timely manner.

1.2. First-level solution

It is recommended to approve the 60-day pre-project stage: choose the territory and the leading problem, determine the customer and scientific partner, agree on access to data and sites, design the baseline, budget and criteria for the transition to the 12-month pilot.

2. Scientific status and working definition

2.1. Working definition

"Land use biocenosis" is a natural and economic system of the territory, including soil and soil biota, water, vegetation, animals and microorganisms, relief and climatic processes, legal regime and actual use, sources of load, objects of influence and mechanisms of management of the result.

2.2. Key distinctions

3. The problem of fragmentary management

Cadastral accounting answers primarily to questions of object and law; environmental monitoring - to questions of the state of the environment; agronomic and production data - to questions of technology and yield; investment documents - to questions of resources and payback. Without a common identifier, time, scale and methodology, this information does not constitute proof of cause or effect.

4. Purpose, objectives and issues of the system

The strategic goal is to ensure the evidential preservation and restoration of land functions with the legitimate and economically justified use of the territory.

1. What is happening to the territory and what is the reliability of this conclusion?
2. What changes are natural, seasonal or caused by economic stress?
3. Where is the likely source of the pressure and what alternative explanations remain?
4. How are soil, water, vegetation, habitats and land users affected?
5. Which action has the best ratio of urgency, effect, cost and risk?
6. Did the package of measures give a measurable result relative to the baseline and the comparison site?

5. Control object and spatial scales

The system maintains several compatible, but not interchangeable, circuits. The decision is made on the scale at which the process exists: law at the site level, erosion runoff at the slope and catchment level, habitat connectivity at the landscape level, and policy at the municipal or regional level.

6. Principles and evidence

• a relevant baseline instead of a universal benchmark for all types of land;
• separation of observation, diagnosis, hypothesis of cause and legally significant fact;
• ground verification of remote signs and traceability of samples;
• action hierarchy: prevent → reduce → recover → compensate residual effect;
• level of confidence next to each risk and forecast;
• independent verification of significant results and preservation of version history;
• The algorithm does not establish the right and does not replace the powers of the authorities.

7. Baseline and typology of the territory

The baseline is formed before the selection of environmental targets KPI. The territory is stratified by natural area, terrain, soils, moisture, cover, history of use, intensity of load and legal regime. Comparisons are made only within comparable classes.

8. Soil and soil biocenosis

Soil is assessed as an environment that provides productivity, circulation of substances, water regulation, carbon storage and habitat of organisms. The set of indicators depends on site function and threats; one measurement does not fully describe “soil health.”

9. Water, vegetation and biodiversity

9.1. Hydrological regime

Humidity and infiltration, surface runoff, groundwater, flooding and drying, coastal strip condition and catchment transport are assessed. The local measure is checked for no downstream transfer of damage.

9.2. Vegetation and habitats

Soil cover, seasonal productivity, tree and grass vegetation structure, agrocenose condition, fragmentation and habitat connectivity are considered with respect to the type of territory. The growth of species does not always mean improvement: the standard, functions and invasive species are important.

9.3. Climatic loads

Drought, extreme precipitation, heat, wind, freezing and fire hazards are included as external conditions affecting the risk and interpretation of the result. One season does not form a multi-year climate norm.

10. Law, cadastre and restrictions

In the Russian Federation, the legal regime is determined by the category of land, permitted use and special restrictions. State monitoring of lands and EGRN have their own powers and legal significance. The project passport uses this information as sources and does not replace them.

11. Threat Atlas and Causal Chains

Each threat card contains an observable signal, alternative explanations, the subject of the impact, urgency, level of confidence, necessary verification, and permissible actions. The reason is not considered confirmed only by spatial correlation.

12. System of indicators

13. Observation Network and Quality Control

The architecture is built on the principle of "review → stratification → ground check → laboratory confirmation → re-observation". Remote sensing provides coverage but does not replace field diagnosis.

• Stratified sampling design and documented representativeness;
• field duplicates, blanks and control samples, where applicable;
• single units, coordinates, time, depth, method and storage chain;
• Calibration of models by independent sample and publication of the error matrix;
• versioning of algorithms, the prohibition of hidden correction of source data.

14. Digital passport and architecture EQUILIBRIUM

The passport combines the legal identifier and the environmental contour, but keeps their origin and status separately. The hypergraph EQUILIBRIUM links the site, observation, sample, source, threat, event, performer, cost, and proof of outcome.

15. Diagnostics and management cycle

1. Inventory of the site and the ecological contour.
2. Check the quality and comparability of the original data.
3. Identify the change and form several causal hypotheses.
4. Confirm priority areas by field and laboratory.
5. Assess risk, urgency, confidence and interests affected.
6. Select an action in the hierarchy of prevention, reduction and recovery.
7. Complete package ECO-PPA with resources and results criteria.
8. Compare the result with the baseline and the comparison area.
9. Update your passport, risk model, and next cycle decision.

16. ECO-PPA: portfolio of activities and economy

ECO-PPA translates the diagnosis into a project where the environmental result is related to the beneficiaries, payer, capital and operating costs, duration, uncertainty and method of verification. Before the baseline survey, neither effect nor profitability is guaranteed.

17. Distribution of roles

18. Pilot for 12 months

19. KPI, scaling risks and criteria

19.1. Project KPI for discussion

19.2. Main risks

20. Roadmap, solution and sources

20.1. Scaling

20.2. Decision

Approve 60-day pre-project stage; appoint the customer and the working group; choose the pilot territory; form a list of official and household data; agree on field access; submit the pilot's passport, budget, quality plan and criteria for transition to 12-month stage.

20.3. Main sources

[1] Land Code of the Russian Federation No. 136-FZ. Official text: https://pravo.gov.ru/proxy/ips/?docbody=&nd=102073184

[2] Federal Law No. 218-FZ "On State Registration of Real Estate": https://pravo.gov.ru/proxy/ips/?docbody=&nd=102376335

[3] Order of Rosreestr from 22.07.2021 No P/0315 on state monitoring of lands: https://publication.pravo.gov.ru/Document/View/0001202112100058

[4the Order of Rosreestr 23.08.2024 No P/0267/24 Changes in the current c 01.03.2025: https://publication.pravo.gov.ru/document/0001202411210029

[5] Federal Law No. 101-FZ "On ensuring the fertility of agricultural land": https://pravo.gov.ru/proxy/ips/?docbody=&nd=102054366

[6] Order of the Ministry of Agriculture of Russia 24.12.2015 № 664 the Monitoring of Agricultural Lands: https://publication.pravo.gov.ru/document/0001201603230036

[7] Water Code of the Russian Federation 74-FZ: https://pravo.gov.ru/proxy/ips/?docbody=&nd=102107048

[8] FAO/ITPS. Towards a definition of soil health: https://openknowledge.fao.org/server/api/core/bitstreams/ffb5feaf-8388-4e2f-b319-2260a9a6f5a2/content

[9] FAO. Global Soil Health Indicators and Assessment: https://www.fao.org/soils-portal/soil-degradation-restoration/global-soil-health-indicators-and-assessment/en/

[10] FAO. Soil Degradation and Restoration: https://www.fao.org/soils-portal/soil-degradation-restoration/en/

[11] UNCCD. Land Degradation Neutrality overview: https://www.unccd.int/land-and-life/land-degradation-neutrality/overview

[12] UNCCD. Scientific Conceptual Framework for Land Degradation Neutrality: https://www.unccd.int/land-and-life/land-degradation-neutrality/ldn-conceptual-framework

[13] UNEP. SDG indicator 15.3.1 and its three subindicators: https://sdgs.unep.org/article/sdg-indicator-1531

[14] IPBES. Assessment Report on Land Degradation and Restoration (2018): https://digitallibrary.un.org/record/3794559?ln=en

[15] Directive (EU) 2025/2360 — Soil Monitoring Law; international benchmark, not Russian law: https://eur-lex.europa.eu/eli/dir/2025/2360/oj/eng

[16] Copernicus Land Monitoring Service: https://land.copernicus.eu/en

[17] Copernicus Data Space. Sentinel-2 mission parameters: https://dataspace.copernicus.eu/data-collections/copernicus-sentinel-missions/sentinel-2

[18] OECD. Land cover change indicator: https://www.oecd.org/en/data/indicators/land-cover-change.html

System of diagnostics, management and restoration of living territory

"Biocenosis: Air" transfers atmospheric monitoring from the mode of fixing individual excesses to the mode of early warning, determining the likely source, forecasting the transfer, assessing the impact and verifying the result of the measures taken. The system complements, but does not replace, state environmental, sanitary and hydrometeorological control.

The scientifically accurate core of the project is the monitoring of the aerobic, bioaerosols and physico-chemical matrix of the air environment. The term "biocenosis" is retained as a strong project name, with the document directly delineating the detection of a biological marker, viability, activity, infectiousness, and real risk.

Six management issues

1. What is happening to the air now?
2. Is the change natural, seasonal, or dangerous?
3. Where is the likely source?
4. Where and at what speed does the impact move?
5. Who and what ecosystems are at risk?
6. What action is necessary and has it produced a measurable result?

Document structure

1. The meaning of the project
2. Scientific framework and working definition
3. Mission, purpose and objectives
4. Principles of the system
5. Object and limits of observation
6. The observation circuit
7. Indicators and normative benchmarks
8. Measuring network
9. Data Architecture EQUILIBRIUM
10. Atlas of Threats
11. Algorithm of reaction
12. ECO-PPA as implementation contour
13. Distribution of roles
14. Pilot for 12 months
15. KPI and Evidence
16. Risks and constraints
17. Scaling
18. Final decision and sources

1. The meaning of the project

Traditional air monitoring is more often organized according to individual departmental contours: meteorology, chemical pollutants, sanitary supervision, biological observations and enterprise data exist nearby, but are not always linked into a single causal picture. The project creates a cross-cutting management chain:

• to observe physical, chemical and biological factors simultaneously;
• distinguish between seasonal background, local anomaly and long-distance transfer;
• associate the measurement with a likely source and a sensitive receptor;
• to predict the development of the situation and the time of reaching vulnerable objects;
• formalize measures as verifiable projects ECO-PPA;
• check the effect of the intervention on the data before, after and in the control area.

2. Scientific framework and working definition

2.1. Why the term requires explanation

In strict ecology, biocenoses are a collection of interacting populations inhabiting a particular biotope. For a large part of organisms, the atmosphere serves as a temporary medium of transport. Therefore, it is impossible to declare the entire atmosphere as a single proven self-sustaining biocenosis. More precise scientific terms: aerobics, aerobics, atmospheric microbiome, and bioaerosol.

2.2. Working definition

"Biocenosis: Air" is the project name of a dynamic natural and man-made system, including aerobic and biological particles of the air environment, the physical and chemical matrix of the atmosphere, sources, processes of transfer and transformation, objects of influence, as well as digital and organizational mechanisms of risk prevention and management.

An aerobiome is a dynamic set of microorganisms in a given airspace, changing depending on the season, time of day, meteorological conditions, type of surface and the origin of air masses. Studies show reproducible daily and seasonal changes in the composition of the atmospheric microbiome, as well as long-range transport of microorganisms [8–12].

3. Mission, purpose and objectives

Strategic objective: To ensure continuous monitoring, forecasting and managed recovery of air quality and associated natural systems based on evidence.

• to form a multi-component picture of the air condition;
• identify chemical, physical and biological abnormalities;
• identify likely sources and routes of transfer;
• forecast the situation on the horizons 6, 24 and 72 hours;
• assess the impact on the population, plants, animals and microorganisms;
• create targeted warning and response scenarios;
• to form passports of the air environment of the territories;
• create an evidence base ECO-PPA and verify the result of each intervention;
• scale solutions from individual facility to region and cross-border space.

4. Principles of the system

• Scientific correctness: reproducible methods, quality control, field and laboratory controls.
• Harm prevention: an early signal is more valuable than a late fixation of damage.
• Multilevel: Continuous sensors are complemented by reference instruments, laboratories and remote data.
• Separation of statuses: observation, analytical hypothesis and confirmed conclusion are marked separately.
• Uncertainty: next to the forecast and index, a level of trust is published.
• Person in the loop: mandatory decisions are made by an authorized person or body.
• Compatibility: the system is built into the existing state and scientific contours.
• Evidence: Each activity is related to the starting level, purpose and verification of the result.
• Openness and protection: Anonymized environmental data is opened, sensitive information is protected.
• Non-repression of life: the goal is to manage hazardous sources and exposure, not to sterilize the outside air.

5. Object and limits of observation

The main object is the surface layer of the atmosphere and the physical, chemical and biological components circulating in it, associated with a specific territory, sources and receptors of influence. Each program specifies a geographic boundary, altitude range, season, observation period, and receptor class.

Spatial levels

1. Point: school, hospital, residential yard, workplace or enterprise.
2. Microzone: a neighborhood, industrial site, park or agricultural facility.
3. Municipal area: city or district.
4. Air pool: an area connected by common air flows.
5. Regional network: municipal, industrial and background points.
6. Interregional and transboundary level: long-range transport of smoke, dust, allergens and pollutants.

Functional boundaries

Outdoor air, indoor air and human breathing area do not mix in one array without marking. The internal environment is taken into account as a conjugate module, because the sources, standards and management methods are different. The system does not replace clinical diagnosis, epidemiological investigation and official authority of the authorities.

6. The observation circuit

7. Indicators and normative benchmarks

7.1. Baseline indicator system

7.2. WHO guidelines 2021

The WHO recommendations are a health-preventive guideline and do not replace national standards. In the official Russian assessment, the current sanitary requirements are applied; before submitting the document, it is necessary to check the current edition of SanPiN 1.2.3685-21 [1, 6].

Note: WHO daily levels are reported as the 99st percentile, not the absolute maximum. For ozone, a separate logic of the peak season and the eight-hour average [1] is used.

7.3. Indices

1. Physical and chemical air quality index;
2. Aerobiota status index;
3. Exposure safety index;
4. Sustainability index and regenerative capacity of the territory.

8. Measuring network

The network is built on the principle of "reference kernel" + Distributed nodes + Laboratory + Mobile Outline + "Model and Aerospace Data." Low-budget sensors do not receive regulatory measurement status automatically: co-location with support equipment, correction of humidity and temperature influences, maintenance and recalibration are necessary3, 5].

• one reference-level reference station or integration with an existing one;
• 10–15 distributed sensor nodes;
• 3–5 bioaerosol and pollen sampling posts;
• one background control point;
• mobile measuring complex and route surveys;
• reference laboratory and confirmatory laboratories;
• episodic vertical profiling;
• satellite, model and meteorological data.

Methods of biological contour

Pollen and spores are determined by microscopy or automated methods; bacteria and fungi by quantitative PCR, 16S/ITS-profiling and, according to a reasonable program, metagenomics. Viability, cultivability, metabolic activity, toxigenicity and infectiousness are evaluated by separate methods. Field, transport and laboratory controls are mandatory for low-mass samples.

9. Data Architecture EQUILIBRIUM

Passport Measurement

• unique identifier, date, time, coordinates and height;
• Method, unit of measure, detection limit and calibration;
• uncertainty assessment, quality sign and algorithm version;
• origin of data and full log of changes;
• for the sample - selector, packaging, transport and storage chain.

10. Atlas of Threats

11. Algorithm of reaction

Step 1. Detect

Normative excess, deviation from the seasonal background, a combination of signals or a forecast of dangerous development.

Step 2. Check the quality

Instrument health, calibration, humidity, neighboring nodes and meteorological plausibility.

Step 3. Verify

Independent method, re-selection, reference laboratory and verification of operations at the source.

Step 4. Assess the risk

Hazard × exposure × vulnerability; trust and urgency are specified separately.

Step 5. Set Source

Wind, reverse trajectories, source register, profiles and mobile survey.

Step 6. Predict

Area of impact and sensitive objects on the horizon 6, 24 and 72 Hours.

Step 7. Make a decision

Green, yellow, orange or red; action approved by competent authority.

Step 8. Check the effect

Before/after comparison, control area, comparable weather and residual risk.

Step 9. Close and learn

The final card of the event, the reason, the effectiveness, the update of the model and regulations.

12. ECO-PPA as implementation contour

ECO-PPA converts observations into funded prevention and recovery packages. Each packet receives a passport linking the problem, the baseline, the solution, the resources, the deadline, and the proof of outcome.

1. problem, source and baseline;
2. target result and technical or organizational solution;
3. responsible participants and the amount of resources;
4. funding scheme and outcome indicators;
5. methodology of monitoring, reporting and verification;
6. terms, grounds for continuation and stop conditions;
7. residual risk and data access rules.

13. Distribution of roles

14. Pilot for 12 months

The pilot is selected on the territory where residential, natural, transport and production zones are combined, there are sensitive objects, a background point, a laboratory partner and the readiness of the authorities. One year covers the seasonal cycle, but does not form a multi-year climate norm.

Proposed pilot areas

• the background natural point;
• residential and public area;
• transport corridor;
• industrial or municipal area;
• agricultural facility;
• A sensitive receptor is a school, hospital, or social institution.

15. KPI and evidentiary value

Below are the project targets for discussion. They are approved after the survey of the territory, the choice of equipment and the coordination of the methodology.

16. Risks and constraints

17. Roadmap for scaling

18. Final decision and sources

18.1. Launch Solution

1. approve the two-level name: "Biocenosis: Air" / "Monitoring of aerobic and biological factors of air quality";
2. determine the customer of the pre-project stage and the owner of the result;
3. choose a pilot territory and a reference laboratory;
4. 60 days to prepare a scientific protocol, a map of sources and receptors, network architecture and data quality plan;
5. Agree on a matrix of authority and response rules;
6. launch 12-month pilot with independent verification and packages ECO-PPA.

18.2. Status of the document

The document is conceptual and is intended for pre-project discussion. Threshold values, equipment composition, legal model, budget and official regulations are approved after the territory is surveyed, consultations with authorized bodies and verification of current regulatory requirements.

18.3. Main sources

[1] WHO. Global Air Quality Guidelines (2021). https://www.who.int/publications/i/item/9789240034228

[2] WMO. Global Atmosphere Watch Programme. https://community.wmo.int/site/knowledge-hub/programmes-and-initiatives/global-atmosphere-watch-gaw-programme

[3] UNEP. GEMS/Air. https://www.unep.org/topics/environment-under-review/gems-air

[4] Copernicus Atmosphere Monitoring Service. Global atmospheric composition forecasts. https://ads.atmosphere.copernicus.eu/datasets/cams-global-atmospheric-composition-forecasts

[5] European Environment Agency. European Air Quality Index. https://airindex.eea.europa.eu/AQI/index.html

[6] SanPiN 1.2.3685-21. Official publication. https://publication.pravo.gov.ru/Document/View/0001202102030022

[7] Roshydromet. Air pollution status yearbooks. https://www.meteorf.gov.ru/product/infomaterials/ezhegodniki/

[8] Gusareva et al. Short-timescale dynamics of the airborne microbiome. PNAS, 2019. https://doi.org/10.1073/pnas.1908493116

[9] Gusareva et al. Seasonal and diurnal variations of airborne microbiomes in Western Siberia. Scientific Reports, 2020. https://doi.org/10.1038/s41598-020-78604-8

[10] Mayol et al. Long-range transport of airborne microbes over the global tropical and subtropical ocean. Nature Communications, 2017. https://doi.org/10.1038/s41467-017-00110-9

[11] Vaïtilingom et al. Potential impact of microbial activity on the oxidant capacity and organic carbon budget in clouds. PNAS, 2013. https://doi.org/10.1073/pnas.1205743110

[12] Archer et al. Air mass source drives bacterial and fungal community composition above the Great Barrier Reef. ISME Journal, 2020. https://doi.org/10.1038/s41396-019-0555-0

[13] WHO, FAO, UNEP, WOAH. One Health Joint Plan of Action. https://www.who.int/publications/i/item/9789240059139

Aerobiom • Quality of environment • Early Warning

Summary of the concept

Key idea. It is necessary to manage not water as a separate resource, but the health of the entire aquatic ecosystem - from watershed and bottom environment to biota, infrastructure and humans. Underwater robotics becomes a mobile sense and action organ, and EQUILIBRIUM turns measurements into a prediction, solution, and verifiable result.

The concept forms a single water contour of GASMP "EQUILIBRIUM" for continuous observation, early warning and restoration management of oceans, seas, rivers, lakes, reservoirs, swamps, groundwater, glaciers and coastal zones. The contour combines aerospace data, hydroposts, laboratories, biocenose monitoring points, autonomous vehicles and a digital twin of a water body.

The basic unit of the result is the hydroecosystem. Its living nucleus is hydrobiocenosis: an interconnected community of microorganisms, plankton, plants, invertebrates, fish and other organisms. The condition is assessed not by one standard of water, but by a system of physical, chemical, biological, functional and restorative indicators.

• EQUILIBRIUM - Data integration, digital twin, causal analysis, prediction and result control.
• GASMP - planetary, basin and inter-territorial observation.
• Underwater robotics - mobile measurements, anomaly confirmation, mapping, inspection, and controlled operations.
• ECO-PPA - Mobilization of resources and payment of measurable, independently confirmed effect.
• SPECZASHCHITA - operator of cooperation, pilot and robotic fleet.
• ESG-IR and EUT - evidence, verification, compatibility of data, equipment and procedures.

The first practical step is proposed 24-month pilot "HYDROSPHERE-1" at the Syzran node of the Volga and adjacent water area of the Saratov reservoir. The parameters of the landfill are specified after the pre-project survey and coordination with the authorized bodies.

Passport document

Contents

1. Strategic basis and system formula
2. Terms, object and control boundaries
3. Hydrosphere map and typology of water systems
4. Threats, deficits and risk scenarios
5. Observation architecture and biocenosis point
6. Integrated Water Ecosystem Health Index
7. Digital Double Hydrosphere
8. Underwater robotics: fleet, stations and sensors
9. Autonomy, safety and environmental constraints
10. Data, communications, registries and evidence
11. Management cycle and response
12. Institutional architecture of ecosystem
13. Pilot "HYDROSPHERE-1"
14. Financial and contract model ECO-PPA
15. Results and ESG-IR-verification
16. Roadmap and Scaling
17. Annexes and official sources

The working formula. Hydrosphere -> Hydroecosystem -> Biocenous Point -> Underwater Robotics -> Digital Twin -> warning and action -> ECO-PPA -> ESG-IR-verification.

1. Strategic basis and system formula

Water is both a living environment, a climate regulator, a food and health foundation, a transport infrastructure, an energy resource and a risk carrier. Therefore, separate management of water supply, hydraulic structures, pollution, biodiversity and emergencies inevitably creates information gaps. The hydrosphere requires a system of systems architecture.

V ORION22:22 The new module takes the place of the water circuit of planetary security. He continues the cycle of GASMP: observation -> recognition -> Forecasting -> Warning -> Mobilization -> The response -> Recovery -> control. The difference is that the environmental result is fixed at the level of a specific aquatic biocenosis, and not only at the level of the departmental indicator of water quality.

The main principle. Victory over the water crisis is not the elimination of a single accident, but the achievement of a state in which threats are identified to irreversible damage, resources are mobilized in advance, and recovery is confirmed by measurements of the living system.

1.1. Six functions of the water circuit

1. See. To collect a continuous space-time picture of water, bottom, biota, infrastructure and load.
2. Understand. Distinguish between natural dynamics, anomaly and dangerous impact; establish the source and causal relationships.
3. Predicting. Calculate the spread of pollution, floods, hypoxia, flowering and habitat degradation.
4. Agree. Connect authorities, science, businesses, infrastructure operators and society around a single evidence picture.
5. Act. Assign inspection and emergency missions, locate the source and carry out permitted recovery activities.
6. Check. Compare the state before and after exposure, maintain a digital footprint and independent ESG-IR verification.

1.2. Design principles

• Basin approach: boundaries of analysis are determined by flows of water, matter and energy, not just administrative territories;
• biocentricity: the state of living communities is considered as a final indicator of environmental quality;
• Multi-level: satellite, drone, buoy, bottom station, robot and laboratory complement, not replace each other;
• Evidence: each measurement has a coordinate, time, calibration, uncertainty, quality sign, and processing history;
• Prevention before response: priority is given to early detection and preventable damage.
• person in the loop of the solution: autonomy of navigation does not mean autonomy of dangerous impact;
• Open compatibility: EUT protocols provide connection of new sensors, devices and participants without breaking the system;
• Measurable result: resource ECO-PPA is associated with verifiable environmental, economic and social effects.

2. Terms, object and control boundaries

The name “Water Biocenosis” is retained as a program formula. In the scientific and normative part, four levels must be distinguished. This eliminates the mixing of water as a resource, a living community and the ecosystem as a whole.

2.1. Composition of the managed system

• Water: level, volume, current, temperature, salinity, transparency, chemical composition and water exchange.
• Bottom environment: relief, precipitation, pollution, gas extraction, habitats and underwater infrastructure.
• Biota: Microorganisms, phytoplankton, zooplankton, macrophytes, benthos, fish, birds and aquatic mammals.
• Coastal belt: floodplains, wetlands, spawning grounds, protective vegetation and recreation areas.
• Man and the economy: water intake, discharges, agriculture, shipping, mining, energy, tourism and communal infrastructure.
• Management: legal regimes, data owners, responsible operators, laboratories, emergency services and public control.

Unit of result. A specific hydro-ecosystem with boundaries, baseline, health index, sources of load, infrastructure, process owners and a verifiable history of change is passported.

3. Hydrosphere map and typology of water systems

The architecture should work for different water modes, but not impose the same model on them. For each type, their own regulatory ranges, observation frequency, set of bioindicators and the configuration of a robotic cell are specified.

3.1. Scope of observation

1. Planetary. Water balance, temperature, ice, major pollution and climate trends.
2. Pool. Flow, floods, droughts, transfer of matter between territories and water bodies.
3. Aquatorial. Status of a specific water body, bottom environment, habitats and infrastructure.
4. Local. Load source, emergency site, spawning ground, water intake, dam, pipeline or port.
5. Micro level. Sample, biofilm, microorganisms, pollutant, individual object or defect.

4. Threats, deficits and risk scenarios

GASMP considers the threat as a dynamic event, rather than a static exceedance mark. For each event, the probability, scale, exposure, speed of development, reversibility and readiness to respond are recorded.

• Hydrological threats: floods, droughts, shallowing, change of channel, storm surges, ice phenomena and destruction of coasts.
• Hydrochemical threats: petroleum products, heavy metals, biogenic elements, pharmaceutical residues, microplastics and oxygen deficiency.
• Biological threats: toxic flowering, pathogens, invasive species, extinction of key species, and breaking of food chains.
• Man-made threats: accidents of dams, pipelines, platforms, ships, sewage treatment plants and submarine cables.
• Resource threats: overuse of water, depletion of underground horizons, illegal fishing and user conflict.
• Information threats: observational omissions, incompatible formats, unconfirmed data, transmission delay, and cyber exposure.

4.1. Priority model

For operational ranking, a dimensionless risk indicator is used:

R = P x S x E x (1 - G)

where P is the probability of the event; S - severity of consequences; E. Exposure to people, ecosystems and infrastructure G - the readiness of the system to detect and respond. The coefficients are normalized in the range from 0 to 1. The formula serves as a framework, and thresholds are approved for each pool after the baseline.

Confirmation rule. One anomalous indication is not recognized as an incident. Independent confirmation by another sensor, apparatus, satellite signature or test sample is required. For toxins, pathogens, heavy metals and microplastics, robotic screening is confirmed by an accredited laboratory.

5. Observation architecture and biocenosis point

The system is built as a network of complementary levels. The space circuit sees the area and dynamics, the stationary nodes give continuous series, the robots reveal depth and localize the source, the laboratory provides metrological confirmation, and the digital twin links the facts into a causal model.

Figure 1. Multilevel architecture of observation, analysis and action

5.1. Hydrobiocenose monitoring point

Hydrobiocenose monitoring point (HBTM) is a digital sense organ of the aquatic area. This is not a single sensor, but a certified cell that includes a location, stationary sensors, robot routes, a sampling program, bioindicators, communication channels, and response scenarios.

Five compulsory point questions

1. What is happening to the water, bottom, biota and infrastructure now?
2. Is the change natural, acceptable, or dangerous?
3. Where is the likely source and what are the causal relationships?
4. How does change affect hydrobiocenosis, humans, and farming?
5. What actions are necessary, who is responsible and how will the result be checked?

5.2. Composition of the base point

• bottom or shore multisensor node with reference time and coordinates;
• Buy-gate or coastal data channel;
• Control program of sampling and laboratory reconciliation;
• route AUV/USV for spatial expansion of measurements;
• biological profile: eDNA, plankton, benthos, fish, macrophytes and acoustic landscape;
• thresholds, quality rules, responsible persons and event logs;
• baseline, status index and post-impact verification scenarios.

6. Integrated Water Ecosystem Health Index

A single index is needed to compare the state in time and prioritize actions, but should not hide the reasons. Therefore, the final assessment is always disclosed by domain, and the risk and anthropogenic load are shown by individual layers.

The index is calculated in the range from 0 to 100:

I_GE = Σ wᵢ x Sᵢ, Σ wᵢ = 1

Sᵢ is the normalized domain score, wᵢ is the weight set for the type of water system and management purposes. Universal weights are not assigned in advance: they are calibrated by the scientific and methodological council for reference sites and 90-day baseline, then undergo independent verification.

6.1. Additional indexes

• Risk index R. Probability and expected damage from confirmed threats.
• Load index L. Intensity of water intake, discharges, shipping, extraction and conversion of coasts.
• Data index D. Completeness, timeliness, calibration, uncertainty and traceability of measurements.
• Readiness index G. Ability to detect, confirm, localize and eliminate an event at regulatory time.
• The index of recovery effect E. Measurable improvement with respect to the baseline, taking into account natural variability.

Prohibition of simplification. The index does not replace primary data, expert interpretation and legal regulations. Any resulting number shall be disclosed prior to measurement, method, instrument, calibration, sample and responsible owner.

7. Digital Double Hydrosphere

Digital twin is a dynamic space-time model of a water body that combines pool geometry, hydrodynamics, chemical processes, biota, infrastructure, and control scenarios. This is not a visual map, but a computational decision-making mechanism.

7.1. Four interrelated models

1. Hydrodynamic. Level, flow, currents, stratification, heat transfer, sediments and pollutants.
2. Hydrochemical. Oxygen, biogenic elements, organics, toxicants, reactions and exchange with bottom sediments.
3. Environmentally. Habitats, populations, food links, productivity, invasive species, and resilience.
4. Infrastructure-Risk. Water intakes, discharges, dams, pipelines, ports, cables, emergency zones and responsible operators.

7.2. Four modes of operation

• "What's going on?" Current state and deviation from the seasonal baseline.
• "Why does it happen?" Sources, inverse transport simulations, and causal relationships.
• "What will happen?" Scenarios of spread and damage under different weather, hydrological and economic conditions.
• "What to do?" Verification mission, localization, permissible measures, resource request and result control plan.

7.3. Data trust contour

Each fact comes along with a coordinate, time, device ID, firmware and mission version, measurement method, calibration, uncertainty, quality sign, and transformation chain. The original data remain unchanged; the derived layers and projections have a model version and explanation.

The result of a digital double. Not a "card for the sake of the card", but the assigned action: who to check with what device, in what zone, at what time, according to what protocol and by what measurement to confirm the recovery.

8. Underwater robotics: fleet, stations and sensors

Underwater robotics forms a mobile sensory-executive system of water biocenosis. The devices work together with stationary stations, laboratories and surface locks. Their task is to expand the coverage, quickly confirm events and safely perform operations that are inaccessible or dangerous to humans.

Figure 2. Basic robotic water circuit cell

8.1. Apparatus classes

8.2. Stationary nodes

• benthic measuring station for bottom, precipitation, bottom water and acoustic background;
• profiling buoy with automatic movement of sensors vertically;
• underwater observatory for significant and sensitive areas;
• docking station for docking, diagnostics, charging and unloading data;
• navigation and communication node LBL/USBL and acoustic repeater;
• Calibration station to check the drift of sensors;
• a buoy-gate that converts an underwater channel into satellite, cellular or radio communications;
• Coastal situational post, mission manager and digital twin.

9. Sensory Complex and Missions

The payload is formed modularly for the type of water system and task. For each instrument, the accuracy, range, frequency, calibration, drift and usability of the data for the management solution are specified.

9.1. Typical set of missions

• creation of bathymetric and biotope map;
• building a four-dimensional picture of the water column;
• search for hypoxia, eutrophication and harmful flowering;
• localization of oil, chemical and municipal discharges;
• control of migrations, spawning grounds, biomass and invasive species;
• inspection of dams, water intakes, pipes, cables and port facilities;
• detection of lost networks, garbage and dangerous objects;
• control of the state before and after environmental measures.

9.2. Digital passport of the device

Each robot and stationary node has a passport: working depth, autonomy, payload, navigation accuracy, acoustic profile, energy reserve, acceptable conditions, calibration history, maintenance, software version, and a safe failure scenario.

10. Autonomy, safety and environmental constraints

Architecture divides autonomy of movement, autonomy of observation and the right to influence. The robot can independently rebuild the route within the approved mission, but does not receive the right to a dangerous material impact without the decision of an authorized person.

10.1. Impact classes

1. I0 - contactless. Filming, acoustic observation, mapping and measurement.
2. I1 - small reversible. Regulated sampling, timestamp, sensor installation. Allowed in an approved mission.
3. I2 - local technical. Valve overlap, installation of a barrier or sorbent, repair, garbage recovery. Only after confirmation by the operator.
4. I3 - ecosystem. Chemical treatment, dredging, incorporation or removal of organisms, change of hydrological regime. Autonomous robots are prohibited; a separate project, environmental assessment and permit are required.

10.2. Three independent circuits

• Mission outline - the route, measurements, processing and execution of the task.
• Safety contour - depth, collisions, geo-fence, energy, leakage, communication and environmental constraints.
• Rescue circuit - stop, return, ascent, ballast reset, beacon and search.

10.3. Mandatory restrictions

• Signed firmware and missions, unique machine identity, log commands and changes;
• double confirmation of dangerous operations and stopping manipulators in case of loss of communication;
• geo-zones, limits of depth, time, speed and energy reserve for return;
• quiet mode near spawning grounds and marine mammals, the limit of active acoustic power;
• cleaning and disinfection of devices between water bodies to exclude the transfer of pathogens and invasive species;
• The lack of fully autonomous use of chemical and biological means.

11. Data, communications, registries and evidence

The underwater environment limits the range and speed of communication, so the network is built multi-level. The acoustic channel transmits commands and key telemetry, the optical channel is used at short distances and at the docking station, and the full array of data is stored on board and uploaded on a store-and-forward basis.

11.1. Channels

• acoustic communication - a distant underwater channel of commands and telemetry;
• optical communication - high-speed transmission at a short distance;
• Induction communication - docking and local exchange;
• fiber optic cable - ROV and stationary observatories;
• satellite, cellular and radio communication - via buoy or USV;
• Package priority: Accident -> Device condition -> Warning -> Scientific data.

11.2. Thirteen basic registers

Register architecture links observation, decision, resource, and result. Each object has a permanent ID and version history.

11.3. Quality and compatibility

The EUT establishes uniform measurement passports, minimum metadata, unit directories, coordinate systems, time rules, versioning, exchange interfaces, uncertainty marking, and calibration procedures. For marine sensors and underwater photography are taken into account ISO 22013:2021 and ISO 23731:2021; for AUV and mapping - ISO 20682:2026 and ISO 25451:2026 [6-9].

12. Management cycle and response

The event model eliminates the situation when the signal remains a report without the owner. Each confirmed event is assigned a class, a coordinate, a risk level, a deadline, a responsible and a set of evidence.

1. Surveillance. A fixed network, satellite or robot detects a deviation from the baseline.
2. Automatic inspection. The system evaluates the quality of the data, the context of the season, the state of the sensor and possible false reasons.
3. Confirmation mission. Another sensor, robot, route or control sample is assigned.
4. Localization. The digital twin combines currents, load sources, and time sequence.
5. Classification of risk. The scale, exposure, reversibility and urgency are determined.
6. Decision. The authorized manager selects the acceptable scenario and assigns resources.
7. Action SPECZASHCHITA or a profile operator performs a technical, organizational or recovery activity.
8. Control mission. The independent route and the test compare the state before and after.
9. Verification. ESG-IR confirms achievement KPI and closes the event or returns it for revision.

12.1. GASMP Event Classes

principle of independence. The control mission is performed by another apparatus or another measuring channel. Verifier ESG-IR is not organizationally subordinate to the operator receiving payment for the result.

13. Institutional architecture of ecosystem

The water circuit does not create a new department instead of the existing powers. It forms a suprasystemic mechanism for harmonizing data, forecasts, resources, actions and evidence, while maintaining the legal responsibility of authorized bodies and infrastructure owners.

13.1. Management bodies

• Interdepartmental Council - priorities, access to data, regulatory support and scaling solution.
• Project office SPECZASHCHITA - schedule, procurement, cooperation, missions, safety and operation.
• Scientific and methodological advice - baseline, bioindicators, models, thresholds and interpretation.
• Technological consortium - robotics, sensors, communications, energy, service and localization of production.
• Independent verifier - data verification, KPI, calculation of the effect and compliance with procedures.
• Authorized bodies - legal decisions, supervision, warning of the population and measures of coercion.

14. Pilot "HYDROSPHERE-1"

Proposed landfill. Syzran node of the Volga and the adjacent water area of the Saratov reservoir. The preliminary scale is 50-100 km of water system. The final boundaries are determined after the survey and approval.

The range is connected to the already formed contour SPECZASHCHITA and should include the main course, small tributaries, coastal zone, industrial and communal load points, natural reference area, hydraulic structures and available underwater infrastructure facilities.

14.1. Basic Robotic Cell

• network of bottom and coastal sensor nodes;
• Buy-gate with energy module;
• docking station;
• long-term patrol equipment;
• maneuverable AUV;
• observation ROV;
• worker ROV on demand;
• mobile sampling complex;
• Coastal Situation Post and Digital Double.

14.2. Stages

14.3. Products of the pilot

• digital passport and double water area;
• map of the bottom, habitats, sources of risk and underwater infrastructure;
• robotic fleet, docking station and situational post;
• Early warning system and log of confirmed events;
• proven methodology of the water ecosystem health index;
• Verified ESG-IR reporting;
• EUT standards package and operation economy;
• standard set of replication for river, lake, marine and Arctic territories.

15. Financial and contract model ECO-PPA

ECO-PPA links the long-term readiness of the infrastructure with the payment of the confirmed result. The model does not transfer uncontrolled natural risks to the operator, but makes it responsible for the performance of the system, the implementation of the observation program, the quality of data and the speed of response.

15.1. Preliminary funding structure of the pilot

Interest is a project model and is specified after a technical survey, the calculation of capital and operating costs and the identification of participants.

15.2. Structure of payment to the operator

• 60% - readiness and scope of services: infrastructure, accessibility, missions and observation program.
• 25% - quality and SLA: completeness of data, calibration, confirmation and response time.
• 15% - confirmed effect: prevented damage, reduction of abnormal conditions or restoration of the selected indicator.

15.3. Operational economy

After the pilot, the revenue model is formed from a subscription to monitoring, robotic inspections, emergency survey, service contracts, preparation of evidentiary ESG-IR reporting, maintenance of underwater infrastructure and the provision of verified data for science and management in an acceptable legal regime.

16. Results and ESG-IR-verification

Indicators are divided into system availability, data quality, operational efficiency, safety, environmental condition and economic effect. Environmental goals are set after the baseline so as not to replace the result with a predetermined number.

16.1. Environmental KPI after base line

• reduction of the duration and area of hypoxia or other target anomalies;
• reduction of load at selected control points;
• restoration of connectivity or status of priority habitat;
• change of the integral index and its domains;
• Increased preparedness for prevention and reduction of expected damage;
• lack of transfer of contaminants, pathogens or invasive species by robotic means.

Criteria for closing an event. The event is considered completed not after the completion of work, but after independent confirmation of the required state in the established time window.

17. Roadmap and Scaling

17.1. Horizon 0-24 months

1. Establish a project office, a scientific and methodological council and an independent verification outline.
2. Identify the landfill, data owners, legal regimes and reference sites.
3. Approve the terms of reference for a digital double, GBTM and a robotic cell.
4. To form a technological consortium and a register of domestic and compatible solutions.
5. Expand communication, stations, robotic fleet and laboratory circuit.
6. Conduct a 90-day baseline, followed by an annual cycle of seasonal observations.
7. To work out at least three scenarios: pollution, biological anomaly and man-made defect.
8. Conduct ESG-IR audit, economic calculation and scaling decision.

17.2. Horizon 3-5 years

• creation of a network of typical river, lake, coastal and Arctic polygons;
• serial production of modular vehicles, stations and docks;
• National register of aquatic biocenoses and underwater infrastructure;
• integration with aerospace, climate and extreme contours of GASMP;
• export of a model solution through international cooperation and SFERA;
• formation of a market of verified services for the prevention of water damage.

17.3. Conditions of replication

It is not a single robot that is scaled, but an integral cell: the object’s passport, base line, sensors, fleet, communications, digital twin, decision rules, financial contract and independent verification. The configuration changes by water type, but the digital and management architecture remains the same.

18. Expected results

18.1. For the State

• a single reliable picture of water risks and the state of biocenoses;
• Early warning and reduction of preventable damage;
• Interagency compatibility and responsibilities;
• a tool for prioritizing investments, monitoring programs and assessing the impact;
• Technological Sovereignty in Underwater Robotics and Sensory.

18.2. For regions and municipalities

• passport of the water area and a clear map of the sources of load;
• objective data for water supply, cleaning, floods and recreation;
• rapid diagnosis of hard-to-reach areas and underwater structures;
• attraction of extra-budgetary funds through ECO-PPA.

18.3. For science and industry

• long-term verified data series and full-scale polygons;
• order for sensors, devices, communications, energy, materials and software;
• comparable eDNA, hydroacoustics, imaging and robotic sampling techniques;
• accelerated testing of new technologies in a controlled legal regime.

18.4. For man and nature

• clean and accessible water;
• conservation of habitats, fish resources and biodiversity;
• Less risk of accidents, pollution and hidden accumulation of damage;
• transparent evidentiary information about the state of the territory;
• transition from the elimination of consequences to the restoration of the viability of water systems.

Strategic outcome. It is not a water monitoring system that is being created, but an infrastructure for preserving and restoring a living hydrosphere, in which data, robotics, management and financing form a single closed cycle.

Annex A. Hydroecosystem passport

Annex B. Robotic mission card

• Mission ID, date, customer and authorized manager;
• purpose, hypothesis, area, geo-fence, depth and time window;
• device, payload, firmware versions and tasks;
• route, energy budget, reserve and communication loss scenario;
• autonomy class A0-A5 and permissible exposure class I0-I3;
• sensors, calibration, frequency and quality criteria;
• rules for detection, confirmation and reassignment of the route;
• Biota protection measures, acoustic limitations and disinfection;
• a chain of data, samples and laboratory results;
• Summary, deviations, incidents, control mission and closure decision.

Annex B. Minimum base line program

1. Inventory of water body, catchment, sources of load and infrastructure.
2. Seasonal and daily profiles of physical and hydrochemical parameters.
3. Bathymetry, bottom sediments and a map of key habitats.
4. Bioindication: plankton, benthos, fish, macrophytes, eDNA and acoustic background.
5. Control and reference areas, laboratory reconciliation and uncertainty assessment.
6. Verification of communication, autonomy, return of devices and failure scenarios.
7. Assessment of natural variability and setting thresholds for events.
8. Calculation of initial I_GE, R, L, D and G, environmental approval KPI.

Official sources and methodological framework

Relevance of links and statuses checked for 26 August 2026. Sources are used as a methodological basis; specific mandatory requirements are determined by applicable legislation, water area conditions and approved technical specifications.

• [1] WMO. State of Global Water Resources 2024 (2025). Official page
• [2] UN-Water. Progress on Water-related Ecosystems - 2024 Update. Official page
• [3] IOC/UNESCO. State of the Ocean Report 2024. Official page
• [4] GOOS / IOC-UNESCO. Global Ocean Observing System: 2030 Strategy. Official page
• [5] IOC-UNESCO OBIS. OBIS 2030: The Biodiversity Data Hub for the Ocean Decade Actions. Official page
• [6] ISO 22013:2021. Marine environment sensor performance - General requirements. Official page
• [7] ISO 23731:2021. In situ image-based surveys in deep seafloor environments. Official page
• [8] ISO 20682:2026. Autonomous underwater vehicles - Risk and reliability. Official page
• [9] ISO 25451:2026. Seafloor mapping with uncrewed marine vehicles. Official page
• [10] IMO. MEPC.1/Circ.906/Rev.1. Underwater noise from shipping (2025). Official page
• [11] GOOS. Essential Ocean Variables. Official page
• [12] NOAA IOOS. QARTOD - Quality Assurance of Real-Time Oceanographic Data. Official page
• [13] NOAA Ocean Exploration. Autonomous Underwater Vehicles. Official page

Conclusion

HYDROSPHERE EQUILIBRIUM connects what exists today separately: water observation, assessment of living communities, underwater infrastructure survey, robotic missions, digital forecasting, resource mobilization and proof of outcome.

The system shifts control from episodic sampling and response to continuous understanding, early warning and controlled recovery. Its basic product is a healthy, monitored and protected hydroecosystem with a digital passport, a responsible process owner and a verifiable history of change.

The next organizational step - pre-project survey of the landfill "HYDROSPHERE-1", approval of the scientific program of the basic line and the formation of a technological consortium SPECZASHCHITA.

Biocenosis of water resources and underwater robotics

One solution: allow 90-day testing

Check the coherence of the scientific, project, contractual, financial and archival contours in a mode without the movement of money.

Main thesis
Money should not follow a declaration, but the conventionally fixed, measurable and replicable dynamics of the biosphere; the knowledge, the basis of decisions and the results of each cycle are preserved as heritage.

Expected result
Not a presentation of the “ideal system”, but proof of what parts are working, where gaps remain and under what conditions a limited pilot is acceptable.

03 / DEFINITIONS AND BORDERS

Novelty is in connectedness, not in the release of money

A dynamic model of the biosphere. an information and analytical layer of observations, connections, scenarios, forecasts and uncertainties; a decision support system, not a source of a legally binding solution.

New World Financial System. the working name of the internationally compatible design and proof layer on top of the existing currencies, accounts, contracts, banks, treasuries and development institutions.

Heritage Archive: Distributed layer of long-term memory, origin of data, rights, versions, decisions, evidence, and academic reuse; originals remain with legal custodians.

The key boundary
The model recommends. The authorized subject makes a decision. A bank, treasury or party to a contract executes a lawful order. An independent validator verifies the result. The archive maintains an evidence chain.

• The proposed architecture does not replace national money, central banks, the banking system, fiscal, tax, statistical or accounting regulation.
• The system does not issue legal tender and does not create the right to automatically receive funding.
• The materials do not contain promises of profitability, guarantees of return of capital or a statement of no risks.
• An environmental result is not equivalent to a monetary value without a separate legal methodology, independent evaluation and contractual basis.
• Architecture is not declared a global, national or industry standard. At the first stage, this is a testable project hypothesis and a subject of limited approbation.

04 / WHY NOW

Risk is becoming systemic and data is becoming more distributed

The facts set the scale of the task, but do not prove the effectiveness of the proposed architecture before approbation.

Sources: WMO State of the Global Climate 2025; WMO Global Status of MHEWS 2025; CBD Target 19; NGFS 2026 Nature Package.

Conclusion
There is no shortage of individual platforms and indicators. Deficit - in compatible cycle "surveillance → solution → contract → action → verification → memory".

05 / PRINCIPLES

Seven principles keep the system in the legal and scientific field

1. Sovereignty: National powers, money, registries, and legal regimes are maintained.

2. Separation of roles. the performer does not approve his own result alone.

3. Origin: Each statement is related to the source, method, time, rights, and version.

4. Water, soil, biota, health and money are linked by an identifier, but are not automatically reduced to a single index.

5. Reproducibility. output can be recovered from the original data, transformations and model version.

6. A person makes a decision. AI and the model form an offer, but do not authorize payment, scientific attribution or restriction of rights.

7. The positive, negative, and zero effects persist and affect the next cycle.

System Motto
Sovereignty remains. The evidence becomes compatible. Actions are agreed.

06 / ARCHITECTURE

The five circuits form a closed loop.

OBSERVATION → FORECAST → DECISION → ECO-PPA → AGREEMENT → EXECUTION → VERIFICATION → ARCHIVE → MASSTABING → NEW CYCLE

Invariant
The heritage archive is located after checking and simultaneously serves the entire cycle: the baseline, rights and historical series should be available before the decision, and the final package after the result.

07 / DYNAMIC MODEL OBJECT

Biocenosis is considered as a natural, social, infrastructure and production system

xₜ = [Aₜ, Wₜ, Sₜ, Bₜ, Hₜ, Lₜ]ᵀ

A is the atmosphere; W - water; S is the soil; B is biota; H - effects on humans; L is the technogenic load.

The scientific framework is compatible with One Health, observation systems GEO and spatial ecosystem accounts SEEA EA.

08 / INDICATORS PANEL

Each indicator receives a passport, not just a number

Panel Rule
One integral “biosphere health index” should not hide the deterioration of one contour after the improvement of another. The basis remains a set of non-mixable indicators with explicit weights only where it is legally and methodically justified.

Global planetary boundaries may specify a system risk corridor, but are not local regulations, MACs, or automatic project thresholds.

09 / DYNAMICS, Scenarios AND INDEEDICITY

Model separates observation, calculation and prediction

xₜ₊Δₜ = fθ(xₜ, uₜ, eₜ) + εₜ

uₜ - controlled impact; eₜ - external factors; εₜ - uncertainty. The function and parameters have versions.

Impactᵢ = xᵒᵇˢᵉʳᵛᵉᵈᵢ,ₜ₁ − xᶜᵒᵘⁿᵗᵉʳᶠᵃᶜᵗᵘᵃˡᵢ,ₜ₁

The effect is published along with baseline, uncertainty range, assumptions, and the counterfactual evaluation method.

Prohibition
Correlation does not prove causality. The signal of the model or sensor does not create the right to automatic payment.

10 / PASSPORT ECO-PPA

One identifier links task, resources, contract and result

Pᵢ = TASK ⊗ TECHNOLOGY ⊗ COOPERATION ⊗ CAPITAL ⊗ CONTRACT ⊗ DATA ⊗ RESULTS

The sign ⊗ means binding rather than arithmetic multiplication.

Ready(Pᵢ) = ∏ bᵢₖ, bᵢₖ ∈ {0,1}

The project is ready to launch only if all seven components are available; ECO-PPA does not perform work.

11 / FINANCIAL CONTOUR

Regulated money passes through a regular contract and verifiable gateways

The Pilot's Formula
Regulated money + Ordinary financing agreement + passport of the territory/project + limited set KPI + Independent MRV + Heritage Archive = pilot of evidence-based funding of the biosphere result.

BIS 2026 retains public money anchor, legal finality of settlement and interoperability; NGFS Linking Natural Risks to Conventional Financial Categories.

12 / FOUR SYNCHRONIZED REGISTERS

Nature, money, evidence and decisions are connected, but not mixed.

Lᵢ = Lᵐᵒⁿᵉʸᵢ ∥ Lᵇⁱᵒˢᵖʰᵉʳᵉᵢ ∥ Lᵉᵛⁱᵈᵉⁿᶜᵉᵢ ∥ Lᵈᵉᶜⁱˢⁱᵒⁿᵢ

Sourcesᵢ = Paymentsᵢ + Reserveᵢ + UnusedOrReturnedᵢ

The main prohibition
An environmental indicator cannot be automatically converted into a monetary value without a legitimate valuation methodology, independent valuation and contractual basis.

13 / FLOW OF DATA AND EVIDENCE

The data tolerance precedes the calculation and approval of the result

d* = ⟨id, time, geo, source, method, unit, rights, hash, version, signature⟩

Adm(d) = Schema ∧ Integrity ∧ Rights ∧ Provenance ∧ Quality

1. Receiving. satellites, sensors, laboratories, field surveys, statistics and local knowledge on the permitted mode.

2. Control. scheme, integrity, calibration, completeness, detection limit, units and geography.

3. Division. primary, purified, computational, predictive and managerial are stored as different classes.

4. Calculation. algorithm version, parameters, source files and conversion log.

5. Independent review of method, data, outcome and conflict of interest.

6. Archiving. evidence package, rights, checksums and storage events.

Inviolability of the source
Derived data never overwrites the primary record; the authoritative source remains the owner of the record.

14 / SOLUTION FLOW AND PROTECTION MECHANISMS

The model does not close the control circuit on itself

Payment ⇒ Contract ∧ AuthorizedDecision ∧ AdmissibleEvidence

ClaimedResult ⇒ Baseline ∧ Method ∧ Provenance ∧ Validation ∧ Archive

ModelOutput ⇏ AutomaticPayment

Human-in-command
AI can look for inconsistencies and offer connections. Scientific attribution, access to limited materials and financial order remain with authorized persons and organizations.

15 / ARCHIVE HERITAGE

Archive saves not only the result, but also the basis of choice

Purpose
Preservation, evidence, managed access and reuse. The common layer stores identifiers, metadata, saved copies, and access rules; the originals remain with the legal custodians.

Key principle
Who owned the knowledge? On what data is the decision made? What's changed? Can the conclusion be reproduced? These issues become part of the storage facility.

16 / ARCHIVE ARCHIVE

Long-term storage is built as a managed life cycle

SIP —Reception + QA→ AIP —Access Policy→ DIP

SIP - transmission package; AIP - archive package; DIP - issuance package. The architecture is guided by the principles of OAIS, but is not declared a certified OAIS system.

Landmarks: ISO 14721:2025 OAIS — Reference Model; PREMIS — objects, events, agents and rights; W3C PROV-O - Entities, actions and responsible agents.

17 / ACADEMIC INTEGRATION AND RIGHTS

Scientific turnover is closed by the return of proven knowledge to the Archive

REQUEST → THE PROBLEM → METHOD → DATA → CONCLUSION → PUBLICATION → ENCOURAGEMENT ARCHIVE → REPEATED CHECK

Rights and Ethics
Traditional knowledge, genetic resources, and digital information are considered with consent, benefit-sharing, licenses, personal data, trade secrets, and other applicable regimes. The archive does not turn a legacy into a freely alienable financial asset.

18 / OFFICE AND DIVISION OF CREDENTIALS

Role independence is more important than technological convenience

Conflict of interest rule
Execution, acceptance, validation and disposal of funds should have separate powers, logs of actions and a challenge procedure.

19 / PILOT CONTOUR OF TERRITORY

Syzran — Rameno — Smolkino: first examination, then functions

Warning
The package does not assign previously unconfirmed environmental characteristics to the territories and does not promise a specific effect before the survey, baseline and technology selection.

• Unified system of coordinates and identifiers of sites.
• General definitions of indicators with local methodologies and thresholds.
• Synchronous access rights, journal of origin and archive directory.
• Separate baseline and solutions for each site; prohibition of averaging critical risks.

Goal
Check not the "ideal territory", but the portability of the evidence circuit between three different local contexts.

20 / 90-DAY APPLICATION

First stage checks architecture without financial risk

Shadow mode
The system calculates possible solutions and forms documents, but does not move money. Only voluntary cases are allowed, access to which is legally granted.

The success criterion of the stage is the reproducibility of the full package, and not a positive environmental effect, which requires field execution and a sufficient observation period.

21 / CONDITIONAL 12-MONTHLY PILOT

Field execution begins only after a separate GO

Transhi
The main payment is for contractually confirmed works. An outcome transaction, if legally provided, is pre-limited and paid only after an independent inspection and the decision of the authorized party.

Negative result
It can confirm the workability of the proof circuit, but is not the basis for scaling inefficient or unsafe technology.

22 / GO / CONDITIONAL GO / NO-GO

Eight critical locks must be closed simultaneously.

Draft decision
Create a working group; approve 90- day-long testing in shadow mode; appoint data owners and solutions 90-day to consider an independent opinion and separately decide on the issue of 12-monthly pilot.

GO requires the closure of all critical gateways. Conditional GO is allowed only with avoidable comments with responsible and deadlines. One unopened critical gateway means NO-GO.

23 / RISKS AND CONTROL MEASURES

Strong architecture starts with a clear description of failures

Document status
Author's concept. Legal, financial, metrological, environmental and archival conclusions arise only after independent verification of specific cases.

24 / SOURCES AND MANDATORY LIMITATIONS

Official base and rules of interpretation

Direct links; access verified 29 August 2026

WMO — State of the Global Climate 2025

WMO — Global Status of Multi-Hazard Early Warning Systems 2025

WMO — Early Warnings for All

GEO — Global Earth Observation System of Systems

WHO — One Health

FAO — Global Soil Biodiversity Observatory

UN — SEEA Ecosystem Accounting

IPBES — Nexus Assessment

NGFS — 2026 Nature Package

TNFD — Recommendations

BIS — Annual Economic Report 2026, monetary architecture

CBD — Kunming–Montreal Global Biodiversity Framework, Target 19

IFRS Foundation — biodiversity, ecosystems and ecosystem services project

ISO — ISO 14721:2025, OAIS reference model

Library of Congress — PREMIS Data Dictionary

W3C — PROV-O: The PROV Ontology

ISO — ISO/IEC 17029:2019, validation and verification principles

CBD — Nagoya Protocol

Rules of interpretation
OAIS is a reference model, not a ready IT system. TNFD, SEEA EA and other frameworks are used as benchmarks for compatibility within their purpose. No link means certification of the proposed architecture or binding on a particular jurisdiction.

Sokolov Sergey Leonidovich · EQUILIBRIUM — SFERA — ECO-PPA — SPECZASHCHITA — Heritage Archive

New world financial system with a contour "Archive of Heritage"

1. Strategic idea

Planetary Balance is an integral system of accounting and management of the state of the Earth as a single socio-natural and technological organism. The balance of the biosphere is its natural core and answers the main question: does the biosphere retain the ability to self-replicate under the existing load of mankind?

In contrast to the traditional balance sheet, the new model takes into account not only monetary and property indicators, but also natural flows, the state of ecosystems, the quality of the environment, recovery, human and intellectual capital. Each indicator should have a data source, unit of measurement, territorial reference, history of changes and verification criteria.

2. Planetary Balance Tasks

• Inventory of the natural, human, infrastructure and intellectual assets of the planet.
• Separation of stocks, flows, loads, risks and recovery processes.
• Transition from annual retrospective reporting to dynamic Living Balance.
• The relationship of global goals to a specific territory, project, object, and measurement.
• Preliminary assessment of the consequences of decisions before their implementation.
• Formation of a single evidence-based contour for government, science, business and society.

3. Planetary Balance Structure

4. Balance of Biosphere

The balance of the biosphere is formed by nine interrelated contours:

5. Three types of flows

I. Real flows — water, energy, raw materials, products, money, waste — are what are actually moving or being transformed.

II. Nominal flows - rights, obligations, contracts, licenses, taxes, cost - legal and accounting representation of the relationship.

III. Live streams - forest reproduction, increasing fertility, increasing biodiversity, improving health, knowledge accumulation and heritage transfer.

Key formula of the model:

Condition = Stock + Reproduction − Consumption − Degradation + Restoration

6. Unit of account: Live account of a natural object

Each natural object receives a digital passport and a unique identifier, for example: BIO:RU-VOLGA-WATER-001.

• Geography and boundaries of the object
• responsible subject and management rights
• natural parameters and condition
• sensors, satellite data and laboratory measurements
• History of impacts and recovery
• financing and projects
• Related Risks and Forecast
• Evidence and verification status

7. The Principle of Connectivity

Ascending contour: sensor → Biocenosis → Territory → Region → State → Continent → Biosphere → Planetary Balance.

Downward Path: Planetary Target → Continent → Country → Region → Territory → Project → Action → Measurable result.

This structure transforms the balance from reporting into a management system: each decision has a cause, an executor, a resource, a result indicator and a trace in the balance sheet.

8. The Biosphere Balance Index

An integral index can be used for navigation IBE (Index of Biosphere EQUILIBRIUM). It does not replace primary indicators, but serves as an upper-level indication of the state of.

IBE = f(A, W, S, B, H, T, R)

• A - Atmosphere
• W - water
• S - Soil
• B - Biodiversity
• H - person
• T - man-made load
• R - Recovery

Calculation methods, weights and thresholds must be scientifically validated and cannot be set arbitrarily.

9. State of the Territories

10. Management architecture in the EG

1. The EG Code

2. The Civilizational Operating System

3. Planetary Balance

4. Balance of Biosphere

5. Balances of continents

6. Balances of States

7. Balances of regions

8. Biocenose Balances

9. Biocenosis monitoring point

10. Sensor / Surveillance / Person

Transverse systems: Metarester, ESR, SPECZASHCHITA, AI, Living Balance, Heritage Preservation Archive.

11. Living Balance as a Management Cycle

1. 1. Monitoring
2. 2. Verification
3. 3. Status assessment
4. 4. Scenario Forecasting
5. 5. Decision
6. 6. Financing
7. 7. Implementation
8. 8. Re-measurement
9. 9. Adjustment of balance

12. Pilot implementation

• Choose 3 territories of different types: urban agglomeration contour, river basin, natural and agricultural territory.
• Determine 40–60 mandatory primary indicators of the Biosphere Balance.
• Create digital passports of natural objects and link them to data sources.
• Launch daily/weekly monitoring and monthly Live Balance.
• To introduce a project register of restoration measures with impact assessment.
• In 6 months to independently validate the methodology and prepare a scaling standard.

13. Final formula

Planetary Balance is the accounting of civilization’s responsibility to the Earth.
The balance of the biosphere is the accounting of life itself.

The Natural Core of the Living Balance of One State

Sokolov Sergey Leonidovich
Moscow · Version 1.0 · 29 August 2026

02 STATUS AND SCOPE

Passport document

Change control: each new version receives a number, a list of modified assumptions, the author of the agreement, the date and links to the primary data. The strategic decision is made by the person; analytics and AI only identify deviations, model scenarios and prepare options.

03 EXECUTIVE SUMMARY

Action to be taken

Request

Allow a limited 90-day pilot for the selected territory. Its result is not the “promise of the farm”, but a testable pre-project model: the boundaries of the biocenosis, material balances, sanitary barriers, a digital passport, financial scenarios and a package of decisions on subsequent implementation.

04 SINGLE MEASUREMENT FRAMEWORK

What is food security

FAO/CFS defines food security as the permanent physical, social and economic access of all people to sufficient, safe and nutritious food for an active and healthy life. For farm design, this means four simultaneously verifiable measurements - none can be replaced by gross output.

Source: CFS Global Strategic Framework and HLPE-FSN

05 DOCTRINE 2020 / CHANGES 2025

Russian Framework: Independence, Accessibility, Sustainability

The doctrine of food security of the Russian Federation sets national thresholds for self-sufficiency. It is a country, not a separate farm. The pilot uses them as a benchmark for product composition and technological independence, without giving out local indicators for the implementation of the national standard.

The changes of 2025 added to the Doctrine the contours of global food security. The project can be scalable and exportable, but the first condition remains a proven function for the target territory and compliance with Russian requirements.

the Ministry of Agriculture 2025 year: grain — 161%, fish — 128,8%, Meat — 102%, Potatoes — 97,9%; Below the threshold of the Doctrine, vegetables were evaluated — 89,6%, Milk — 85,3%, fruits and berries — 44%. This is an assessment of the 13.02.2026, not the final balance of Rosstat.

Source: Decree of the President of the Russian Federation No. 20 from 21.01.2020 and Decree No. 141 from 10.03.2025

Source: Ministry of Agriculture of Russia — self-sufficiency assessment for the year 2025

06 SYSTEM PROBLEM

Why the gross output is not enough

SOFI 2026 shows that the growth of production by itself does not guarantee food and availability. Post-farm operations - processing, logistics, cold chain and wholesale - form a large part of the final price. Consequently, storage, processing, transport and contract availability should be designed in conjunction with field and livestock production.

Source: SOFI 2026 — official report FAO/IFAD/UNICEF/WFP/WHO

07 BORDERS OF CONCEPT

Full cycle farm: working definition

The catalog contains 19 modules, but the pilot includes only those for which the resource base, sanitary compatibility, operator and sales are proven. The rest remain options with activation conditions.

08 FOUR SLEEPS

Biocenosis - territory as a single living system

The biocenosis point is the “digital sense organ” of the territory. It does not control the farm automatically: it registers the state and origin of the data, identifies the deviation, transfers it to EQUILIBRIUM and forms the testable basis for a human solution.

The meaning of the chain is not an administrative complication, but a department of supervision, financing, execution and independent confirmation. This reduces the risk of “self-esteem” by the operator of its own results.

09 FLOW ARCHITECTURE

End-to-end cycle: product moves forward, resources return

10 CONSTRUCTOR, NOT A MANDATORY SET

Catalog of 19 modules

11 NO DOUBLE ACCOUNT

Rules of material balance

For each crop, herd and processing, a balance of mass, water, nitrogen, phosphorus, energy and cost is built. The unit of time and the boundaries of the system are fixed in advance. Each exit has one status: commodity, internal resource, stock, loss, return, risk balance or disposal.

12 NATURAL CAPITAL

Soil and biodiversity — a productive asset

Soil is not considered as a background, but as an asset with measurable carrying capacity. The baseline is fixed to the project promises. The change is estimated by comparable plots, seasons and methods; a single measurement does not prove the trend.

Practitioners are selected by outcome rather than by labeling them “organic” or “regenerative”. FAO considers diversity, synergies, efficiency, sustainability and resource processing as interrelated elements of agroecological transition.

Source: FAO: 10 Elements of Agroecology

13 WATER SECURITY

Water circuit: source, quality, re-use

14 SEED AND SELF-WORTH

Plant production: nutrition, feed and sustainability

The structure of crops is derived from the diet of the target territory, agroclimatic conditions, soils, water, feed needs and contracts. Monoculture can produce short-term volume, but reduce stability and increase dependence on external means of production.

15 BIOSASITA

Animals, Plants, Humans and Environment: One Health

One Health is an integrated approach that connects the health of people, domestic and wild animals, plants and ecosystems. For a full cycle, this means a separate biosafety plan, quarantine, veterinary control, antimicrobial management, and flow barriers.

Source: WHO: One Health; Joint Plan FAO–UNEP–WHO–WOAH extended to 2029 years

16 CODEX ALIMENTARIUS

Food safety: GHP + HACCP throughout the chain

Revision CXC 1-1969 (2022) shares good hygiene practices and HACCP. HACCP is used where basic practices are insufficient. The plan is built for a specific product and process, validated prior to launch, and tested in operation.

Source: Codex Alimentarius: General Principles of Food Hygiene, CXC 1-1969

17 ACCESS AND STABILITY

Storage, cold and distribution - part of the farm

The monthly balance of supply and demand shows which product is needed fresh, which is chilled, frozen, dried, canned or through contractual cooperation. Warehouses and cold chain are designed by products, not one total capacity.

18 RESIDENCES AND ENERGY

Circularity: Return resource, not risk

Losses and waste are accounted for separately. Globally 13,3% food is lost between collection and retail, and 1,05 billion tons were thrown out at the level of trade, catering and households in 2022 year. For the pilot, this is an argument in favor of measuring the actual yield and shelf life, not the slogan "zero waste".

Source: UN SDG 12.3.1 and UNEP Food Waste Index 2024

19 OBSERVATION AND REACTION

Biocenosis point: four modes and three levels

20 EQUILIBRIUM

Digital architecture: from sensor to proof

EQUILIBRIUM combines observation, prediction and control of deviations. It does not replace the laboratory, supervision or operator. Separately, the measurement, model interpretation and management decision are kept in order not to give the forecast as a fact.

21 LIABILITY DIVISION

Roles of the ecosystem

22 COMPLIANCE-BY-DESIGN

Conformity map: from mandatory to voluntary

TR CU 021/2011 requires the manufacturer to develop, implement and maintain procedures based on the principles of HACCP. This is not tantamount to a universal requirement to acquire a voluntary “certificate HACCP”: the form of conformity assessment and evidence determine the applicable technical regulations and product matrix.

The register of requirements is formed after the fixation of products, processes, site and market. For each item: source, applicability, owner, proof, term, status and associated risk. “Conformity as a whole” is not accepted without an article-by-article matrix.

23 BASIC LINE → PURPOSE → FACT

Panel KPI: result, safety, stability

24 FINANCIAL MODEL

The economy: consider the portfolio, not a beautiful installation

Basic formulas: unit cost = Distributed OPEX / commodity output; marginal income = Revenue - variable costs; EBITDA-proxy = operating revenue - operating expenses before financing, taxes and depreciation. NPV, IRR and DSCR are only calculated after receiving the confirmed input.

25 WORK PLAN

90-day pilot: prove the model before construction

The physical demonstrator may include a limited monitoring circuit, sampling, traceability, and one secure resource return loop. A full farm is not built in 90 days.

26 STAGE FINANCING

Implementation after pilot: 12–36 months

Funding is opened in tranches at the confirmed gate. If the market, security or resource balance is not confirmed, the next module will not start regardless of the costs already incurred.

27 PROTECTION AGAINST INDEPENDENT MISTAKES

Risks and Stop Conditions

28 TRANSITION TO ACTION

Mandate and next 10 working days

No construction approval is required to start. It is necessary to appoint the decision maker and give a limited mandate for data collection, survey, modeling and negotiation without making investment commitments.

Candidate route "Syzran - Rameno - Smolkino" can be considered only after documentary verification of sites, powers, environmental restrictions and consent of interested parties. Until then, it is not an approved geography of the project.

29 OFFICIAL PRIMARY SOURCES

Sources and regulatory framework

[1] Decree of the President of the Russian Federation of 21.01.2020 No 20 - Doctrine of food security

[2] Decree of the President of the Russian Federation of 10.03.2025 No 141 — changes to the Doctrine

[3] Rosstat — agriculture and the level of self-sufficiency in products

[4] Ministry of Agriculture of Russia — a national project of technological support of food security

[5] CFS — Global Strategic Framework for Food Security and Nutrition

[6] HLPE-FSN — agency and sustainability in food security

[7] SOFI 2026 — The State of Food Security and Nutrition in the World

[8] UN SDG Report 2026 — Goal 2

[9] UN Statistics — metadata of SDG 2 indicators

[10] FAOSTAT — production, balances, resources and food-security indicators

International sources verified 29.08.2026. The global figures in the document refer to the periods explicitly indicated in SOFI 2026 and the report SDG 2026. For the pilot, they are a context, not a local baseline.

30 CONTINUATION

Sources and regulatory framework

[11] Codex Alimentarius — Codes of Practice; CXC 1-1969

[12Codex Alimentarius - General Principles of Food Hygiene

[13] WHO — One Health

[14] WHO — Extension of the Joint Plan of Action to 2029

[15] FAO — 10 Elements of Agroecology

[16] World Bank — FoodSystems 2030

[17] UNEP — Food Waste Index Report 2024

Official signature

31 STARTING REGISTER OF APPLICATION

Key mandatory acts of the Russian Federation and the EAEU

[18] TR CU 021/2011 "On food safety" — EEC

[19] TR CU 022/2011 "Food products in terms of its labeling" — EEC

[20] EEC - official list of adopted technical regulations, including grain, milk, meat, fish and poultry

[21] Law of the Russian Federation No. 4979-1 "On Veterinary Medicine" - the official portal of legal information

[22] Decision of the Customs Union No 317 — Veterinary and Sanitary Measures of the EAEU

[23Federal Law No 206-FZ "On Plant Quarantine"

[24Federal Law No 248-FZ "On animal by-products"

[25] Veterinary rules for the management of biological waste - Order of the Ministry of Agriculture No. 677 (2024)

[26] SanPiN 2.1.3684-21 — requirements for territories, water, soil, premises and waste

Manure, litter, fall, and ordinary production waste fall under different legal regimes. Flow cannot be declared a “fertilizer” or a “resource” solely on the basis of technological intent: correct classification, notification, processing, laboratory control, and permitted route are required.

Biocenosis and a full-cycle farm

1. Strategic framework

ECO-PPA is considered as a distributed full-cycle science and engineering system that combines local energy sustainability, environmental technology modules, biocenose monitoring, robotic measuring and impact tools, and an independent data and technology validation circuit. The goal is to move from disparate environmental and energy projects to a reproducible architecture, where each object has a measurable input, a digital passport, a set of scientifically based indicators, confirmed efficiency and scaling procedure.

1.1. Formula of the system

Minigeneration + Ecomodules + Biocenous monitoring + Scientific Robotics + Validation = Reproduced ECO-PPA-cycle.

1.2. Principles

• Modularity: The system is assembled from standardized blocks for territory and task.

• Autonomy: basic functions are retained when external infrastructure is disrupted.

• Measurability: Each exposure is associated with a baseline, indicators, and a control measurement.

• Traceability: data, methodology, instrument, calibration, algorithm and solution are linked by a single digital footprint.

• Validation before scaling: the pilot must prove the technological, environmental and operational effect.

• Humans and biocenoses are considered in one balance: technology should not improve one indicator at the cost of degradation of another.

2. Architecture ECO-PPA

Contour A. Minigeneration

Energy supply of environmental modules, robotics, communications and critical loads.

Contour B. Ecomodules

Cleaning and restoration of water, air, soil; management of organic and technological flows.

Contour C. Biocenoses

Observation of the dynamics of the atmosphere, water, soils, vegetation, microorganisms, animals and anthropogenic load.

Contour D. Scientific Robotics

Autonomous sampling and data collection, inspection, mapping, point exposure, maintenance.

Contour E. Validation

Metrology, calibration, V&V, data quality control, independent effect assessment.

Contour F. The Digital Double

Unified model of object and territory: configuration, history, data, modes, forecast, risk, life cycle.

Contour G. Management

Pilot portfolio, regulations, security, data collections, rights, scaling and interagency cooperation.

3. Minigeneration

Minigeneration is not a separate energy project, but a support layer of the autonomy of ECO-PPA. Its task is to provide guaranteed power to the measuring network, pumps, sorption and membrane installations, server nodes, communications, robotics and emergency loads.

3.1. Basic configuration

• Solar generation as a basic rapidly deployable source.

• Small wind power is where the wind resource is confirmed.

• Gas, biogas, hydrogen or other compact generation is based on a feasibility study and environmental assessment.

• Energy storage for peak smoothing and critical autonomy.

• A microgrid with intelligent load management.

• Reservation of communication and control; possibility of "island" mode.

3.2. Minigeneration passport

4. Ecomodules

An eco-module is a standardized technological unit that solves a specific task of restoring or protecting the environment and is included in the overall measurement and validation system.

5. Biocenoses as an object of management

The biocenose approach changes the unit of analysis: instead of a separate pollutant or infrastructure object, a system of interrelationships between the living and inanimate environment is observed. For ECO-PPA, this means that the technological impact is estimated on a whole set of interdependent indicators.

5.1. Biocenosis monitoring point

• Stationary sensors + Mobile Meters + laboratory tests;

• aerial surveillance by unmanned systems;

• ground and water robotics;

• Satellite and cartographic data;

• bioindication and expert observations;

• single time series and digital twin territory.

6. Tools, mechanisms and scientific robotics

6.1. The scientific robot as a measuring device

Key requirement: a robotic platform should not be considered just a means of delivering a sensor. It becomes part of the measurement chain. Therefore, the mission passport includes coordinates, trajectory, speed, orientation, sensor state, time, calibration, environment conditions, processing algorithm and software version.

7. Validation Tools

The validation circuit answers three questions: whether it was measured correctly; whether it was interpreted correctly; whether the technology has been proven to improve the system and not create hidden damage.

7.1. Recommended framework of standards

Principles can be used as a basis for design ISO/IEC 17025 (Competence of testing and calibration laboratories), ISO/IEC 17029 (validation and verification), W3C PROV (origin and traceability of data), OAIS/PREMIS (long-term preservation of digital objects) and approaches NIST AI RMF/TEVV for evaluation AIcomponents. Specific applicability is determined by object type and procedure.

8. Digital passport ECO-PPA

• object/module/robot/sensor identifier;

• owner, operator and responsible scientific center;

• geography and operating conditions;

• hardware configuration and software version;

• serial numbers, calibrations and inter-verification intervals;

• processing algorithms and model versions;

• source data and their origin;

• Performance indicators and environmental constraints;

• log of changes, repairs, failures and incidents;

• validation status and evidence base.

9. Full cycle pilot

1. Basic diagnostics of territory and energy consumption.

2. Formation of biocenosis map and risks.

3. Selection of the configuration of minigeneration and ecomodules.

4. Deployment of sensors and robotic tools.

5. Create a digital twin and a pilot’s passport.

6. Period of control measurements before technological impact.

7. Operation and adaptive management.

8. Independent validation of the effect.

9. Economic, environmental and operational assessment.

10. Solution: revision, re-pilot or replication.

10. Matrix of indicators

11. Scientific and engineering roles

Scientific integrator: methodology, models, research program, expert assessment

Engineering integrator: module configuration, mechanics, reliability, life cycle

Metrological partner: calibration, methods, uncertainty, control of the measuring chain

Operator of the territory: operation, security, interaction with local infrastructure

Technology developers: equipment, software, robotics, service

Data center: storage, knowledge graph, digital twin, access and archive

Independent validation: Checking the effect and evidence base before scaling

12. Interaction with IMASH RAS

As part of ECO-PPA, the Institute of Mechanical Engineering can act as a scientific and engineering center for mechanics, reliability, resource, robotic platforms, digital twins, experimental stands and validation of mechanical and mechatronic systems. This creates a practical training ground where engineering works directly on the tasks of sustainability of natural and technical systems.

• calculation of strength, vibrations and life of modular equipment;

• creation and testing of mobile robotic platforms;

• study of cleaning, mixing, dosing and transportation mechanisms;

• digital twin drives, pumps, turbomachines and autonomous units;

• V&V models and experimental methods;

• forming library of failures and engineering lessons ECO-PPA.

13. Road map

14. Final model

ECO-PPA = ENERGY + RESTORATION OF THE ENVIRONMENT + OBSERVATION + ROBOTIZED ACTION + PROOF

The idea is not to create a set of devices, but a trusted replicable technological system. Each pilot becomes simultaneously an object of economic efficiency, a scientific experiment, a source of standardized data and an element of the overall development management system.

Nature · people · production · energy · data

SPECZASHCHITA · ECO‑PPA · EQUILIBRIUM

Strategic presentation · 2026

Biocenosis is not an object, but a working system

BIOCENOSIS · ECO‑PPA

The territory is considered as a single living contour, where stability arises from the connections between the elements.

BIOCENOSIS

Restoring natural capital

NATURE

HUMANITY

Provides water, energy and food

Creates jobs and local cooperation

INFRASTRUCTURE

ECONOMY

Measure status and result in real time

Seven contours form a complete biocenosis

BIOCENOSIS · ECO‑PPA

Natural

Housing

soil, water, forest, biodiversity

healthy environment and infrastructure

Energetic

Production

mini-generation and accumulation

non-waste cooperation

Water

cleaning, turnover, recovery

Digital

EQUILIBRIUM and Evidence

Food

Agroecology and Local Chains

Closed loops turn costs into resources

BIOCENOSIS · ECO‑PPA

ENERGY

MATERIALS

Local generation

Repair and return to cycle

WATER

BIOCENOSIS

FOOD

Cleaning and reuse

short chains

Balance of flows and needs

DATA

BIOMASS

Observation and Forecast

soil and restoration

Ecomodule — the practical core of biocenosis

BIOCENOSIS · ECO‑PPA

The first result should be visible on the territory, not just in the report.

ECOMODUL

Modular infrastructure for quick launch of vital functions of the territory.

Fast piloting

Scaling by model solutions

Water

Energy

Food

Local production and service

Waste

Environment

Data

Measured effect according to a single method

Four platforms hold the unity of the program

BIOCENOSIS · ECO‑PPA

ECO‑PPA

SPECZASHCHITA

EQUILIBRIUM

SFERA

program and resources

cooperation and execution

data and verification

Initiatives and Participation

What to do

Who does

What is proved

Who it is for

A single passport of the territory connects goals, performers, resources and indicators.

State Council collects biocenosis as an inter-commission program

BIOCENOSIS · ECO‑PPA

Entry format: inter-commission working group → Pilot subjects → Confirmed result.

The pilot passes three steps to the federal scale

BIOCENOSIS · ECO‑PPA

PREPARATION

PILOT

MASSHTAB

Passport of the territory

Expertise

Baseline indicators

Ecomodules

mini-generation

Regional Headquarters

Verification

the State Council Decision

Propagation

3–5 pilot subjects

Unified method of evaluation

The Federal Model

The result is measured by five groups of indicators

BIOCENOSIS · ECO‑PPA

NATURE

RESOURCES

ECONOMY

HUMANITY

GOVERNANCE

Water and soil quality

biodiversity

Renovated Square

Local Energy

Re-use of water

Return of materials

Jobs

Localization

Cost of life cycle

Health Environment

availability of services

Participation of residents

Timeline

Transparency

confirmation of the result

EQUILIBRIUM records the initial state, implementation progress and confirmed effect.

Launch of the interregional program "Biocenosis of Russia"

DECISION

Proposed mandate

PILOT

Create an inter-commission working group

18 months

Select 3–5 pilot territories

From the original passport

to the confirmed result

Conduct an independent examination

Approve a unified methodology of indicators

SPECZASHCHITA · ECO‑PPA · EQUILIBRIUM · SFERA

the EQUILIBRIUM

1. Definition

The biocenose monitoring point is an autonomous natural and technical complex that continuously monitors not only the individual parameters of air, water or soil, but also the state of the local ecosystem as a single living organism.

It combines environmental sensors, biological observations, photo and acoustic fixation, communication with the digital platform EQUILIBRIUM and early warning mechanisms.

2. Appointment

The point should answer five basic questions:

1. What happens to the ecosystem?
2. Which changes are natural and which are dangerous?
3. Where is the likely source of impact?
4. How does a change in one element affect the entire biocenosis?
5. What actions are necessary to restore the natural balance?

The object of observation is the entire local biocenosis:

Atmosphere → water → soil → Plants → animals → Microorganisms → person → man-made load

3. Composition of the biocenous point

3.1. Atmospheric module

Controls:

• temperature and humidity;
• atmospheric pressure;
• wind speed and direction;
• Amount of rain;
• solar radiation;
• PM₁, PM₂.₅ and PM₁₀;
• CO, CO₂, NO₂, SO₂, O₃;
• methane, ammonia, hydrogen sulfide;
• volatile organic compounds;
• smoke, pollen and aerosol particles.

The module allows you to detect pollution, determine the direction of its spread and establish a link between emissions and the state of plants, animals and humans.

3.2. Soil Module

Includes sensors placed at several depths:

• temperature;
• humidity;
• pH;
• electrical conductivity;
• salinity;
• oxidation-reduction potential;
• oxygen content and CO₂;
• Groundwater level.

Laboratory analysis is carried out periodically:

• heavy metals;
• petroleum products;
• Pesticides;
• microplastics;
• organic matter;
• nitrogen, phosphorus and other nutrients;
• Composition of soil microbiota.

3.3. Water module

It is installed in the presence of a river, stream, lake, swamp, spring, well or reservoir. Measure:

• water level and temperature;
• pH;
• confusion;
• electrical conductivity;
• dissolved oxygen;
• redox potential;
• nitrate and ammonium content;
• chlorophyll;
• signs of flowering and development of cyanobacteria;
• availability of petroleum products.

The automatic sampling probe stores the samples when an anomaly is detected so that the results can be confirmed in the laboratory.

3.4. Phytomonitoring

Controls the state of the plant community:

• species composition;
• density and area of vegetation;
• flowering time, fruiting and November;
• The growth rate of trees;
• crown condition;
• humidity and temperature of the leaves;
• content of chlorophyll;
• signs of drought, diseases and damage by pests;
• accumulation of pollutants in plants.

Tools:

• phenological camera;
• multispectral camera;
• dendrometers;
• juice sensors;
• moisture sensors of the sheet;
• Periodic analysis of plant samples.

3.5. Monitoring of the animal world

Includes:

• photo traps;
• acoustic recorders;
• ultrasonic detectors of bats;
• automatic bird registration;
• registration of amphibians;
• monitoring of pollinator insects;
• hydrophones for aquatic organisms;
• registration of tracks, nests and migration routes.

Artificial intelligence pre-identifies species, estimates their number and detects behavior changes.

Particularly important are the types of indicators that respond quickly to environmental degradation:

• lichens;
• mosses;
• bees and other pollinators;
• amphibians;
• and invertebrates;
• Different types of fish and birds.

3.6. Microbiological module

Microorganisms often react to pollution before large animals and plants. Controlled by:

• composition of soil and water microbiota;
• microbiological activity of the soil;
• pathogenic microorganisms;
• processes of decomposition of organic matter;
• the appearance of toxic algae;
• Environmental DNA is eDNA.

Analysis of eDNA allows you to detect the presence of plants, animals and microorganisms by genetic traces in water, soil and air.

3.7. Physical factors

The point registers:

• noise;
• infrasound;
• vibration;
• lighting;
• light pollution;
• electromagnetic fields;
• radiation background;
• Local thermal anomalies.

This allows to take into account roads, industry, construction and infrastructure as factors of influence on biocenosis.

3.8. Visual Module

Consists of:

• observation camera;
• panoramic camera;
• thermal imager;
• phenological chamber;
• surveillance cameras of the sky;
• If necessary, a controlled drone.

Computer vision reveals:

• smoke and fire;
• cutting;
• illegal landfills;
• change in water level;
• degradation of vegetation;
• the appearance of invasive species;
• movement of animals;
• presence of equipment and people.

4. Design of point

The base point is a modular mast with a height of approximately 3–10 meters with an anti-vandal body.

The composition includes:

• meteorological unit;
• gas and dust sensors;
• cameras and acoustic recorders;
• ground computing controller;
• soil probes;
• water probe in the presence of a water body;
• automatic sampling probe;
• satellite navigation;
• secure communication system;
• solar panels;
• battery;
• backup power supply;
• lightning protection;
• self-diagnosis system.

5. Working modes

The point operates in four modes.

5.1. Background Mode

It fixes natural daily, seasonal and multi-year cycles. At this stage, a digital environmental passport of the territory is formed.

5.2. High-priority regime

It is included with a steady deviation of one or more indicators from the normal range. For example:

• Decreased oxygen in water;
• Increased dust concentration;
• disappearance of the indicator type;
• unusual increase in soil temperature;
• A sharp reduction in acoustic activity of birds.

5.3. Emergency mode

It is launched in case of fire, toxic release, water pollution, radiation anomaly or mass death of organisms. Point:

• increases the frequency of measurements;
• preserves primary data;
• activates photo and video fixation;
• performs automatic sampling;
• transmits a signal to the responsible services;
• initiates a survey by a mobile laboratory or UAV.

5.4. Recovery Mode

After removing the source of exposure, the point controls whether the biocenosis returns to its original state and whether the declared result of the recovery program is achieved.

6. Biocenosis index

Instead of scattered indicators, the point forms an integral index of the state of biocenosis. It may include seven groups:

For each indicator, the following are retained:

• current value;
• natural range;
• speed of change;
• Seasonal norm;
• level of risk;
• Reliability of measurement;
• The alleged cause;
• necessary action.

7. Place in the system EQUILIBRIUM

The biocenose point is the primary observation node. The information and management chain is structured as follows:

1. The biocenous point is primary observation and fixation.
2. EQUILIBRIUM - collection, comparison, analysis and forecasting.
3. The digital twin of the territory is a space-time state model.
4. Early warning - detection of the threat and signal formation.
5. ECO to PPA is a prevention, response or recovery program.
6. SPECZASHCHITA - organization of practical execution.
7. Evaluation of the result is confirmation of the change and restoration of biocenosis.

Roles of participants:

• EQUILIBRIUM observes, compares data and predicts changes.
• SFERA gathers initiatives, scientific solutions and participants.
• ECO-PPA defines a warning or recovery program.
• SPECZASHCHITA organizes practical execution.
• The biocenose point confirms the initial state, the fact of impact and the result achieved.

8. Levels of equipment

8.1. Basepoint

• weather station;
• PM₂.₅ and PM₁₀;
• CO₂;
• noise;
• radiation background;
• camera;
• soil humidity and temperature.

Suitable for mass deployment.

8.2. Expanded Point

Additionally includes:

• full gas analysis;
• soil profile;
• water multiprobe;
• photo traps;
• bioacoustics;
• thermal imager;
• automatic sampling.

Suitable for forests, water bodies, agricultural areas and sanitary protection zones.

8.3. Reference Biocenous Station

Additionally includes:

• reference analyzers;
• laboratory module;
• eDNA;
• Spectrometry;
• automated microscopy;
• UAVs;
• satellite verification;
• constant scientific support.

A reference station acts as a reference center for a network of simpler points.

9. Final model

The value of a point is determined not by the number of sensors installed, but by the ability to link measurement, biological interpretation, early warning, management action and proven environmental result into a single continuous cycle.

Biocenous point → EQUILIBRIUM → ECO‑PPA → SPECZASHCHITA → Confirmed Recovery

A territory’s “digital sensory organ”

1. Basic principles of classification PPA

the Unified Universal Classification PPA does not exist. One contract can simultaneously relate to several types. For example: corporate + Physical + off-site + Solar + pay-as-produced + fixed price + Term 20 years.

2. Types PPA by type of buyer

Utility PPA

The buyer is an energy sales, utility, regulated or state-owned energy company. A classic model for large generating projects and project financing.

Corporate PPA

The buyer is a private corporation or group of companies. It is used to fix the price, reduce the carbon footprint and ensure long-term supply.

Government PPA

The buyer or guarantor is a state, region, municipality or government agency.

Community PPA

The buyer is a municipality, energy cooperative, territorial community or association of residents.

Aggregated PPA

Several buyers combine demand through an aggregator, cooperative, or single contract.

Merchant / Partially Merchant PPA

Part of the volume is fixed at PPA, and part is sold on the market. Market risk remains partly with the manufacturer.

3. Types PPA by method of physical and financial supply

Physical PPA

Physical supply of electricity to the buyer through the electrical network.

Direct Wire PPA

The manufacturer is connected to the consumer by a direct line. Suitable for industrial facilities, microgrids and remote settlements.

On-site PPA

Generation is located directly on the buyer’s site — for example, a solar station on the roof or the territory of the enterprise.

Off-site PPA

The generating object is located remotely, and electricity is transmitted through a common network.

Sleeved PPA

Between the producer and the final buyer involves an energy supply or trading company that provides supply, balancing and settlement.

Virtual / Synthetic PPA

Physical delivery to the buyer may be absent. The parties enter into a financial agreement for the difference between the agreed and the market price.

Cross-border PPA

The manufacturer and the buyer are located in different countries. There are additional issues of cross-border transfer, currency, taxation and applicable law.

4. Types PPA on obligations of the parties

Take-and-pay

The buyer pays only for the actually received electricity.

Take-or-pay

The buyer is obliged to accept the agreed amount or pay it regardless of the actual consumption.

Pay-as-produced

The buyer accepts all the electricity actually produced. Most typical for wind and solar projects.

Baseload PPA

The supplier is obliged to provide a permanent supply profile. The missing volume can be bought in the market.

Pay-as-consumed

The volume of purchases is tied to the actual consumption of the buyer.

Availability-based PPA

Payment depends on the readiness of the facility for production and the availability of capacity.

Capacity PPA

Separately paid power, readiness or reserve, and electricity - by an independent formula.

5. Types PPA by price mechanism

Fixed-price PPA

Fixed price for the whole period or for individual periods.

Escalating PPA

The price is indexed annually by fixed percentage, inflation or other index.

Indexed PPA

The price depends on market indices, fuel cost, inflation, currency or other indicators.

Market-price PPA

The price is mainly determined by the current market value of electricity.

Floor-price PPA

A minimum price is set below which the calculations are not omitted.

Collar PPA

The price corridor with minimum and maximum boundaries is determined.

Contract for Difference (CfD)

The difference between the agreed price of performance and the market price is compensated by one of the parties.

Cost-plus PPA

The buyer compensates for the confirmed costs plus the agreed return.

Hybrid-price PPA

Combines fixed, market, indexed and other price components.

6. Types PPA by generation technology

Solar PPA

Solar power. Insolation, seasonality, degradation of modules and daily production profile are taken into account.

Wind PPA

Wind power. Significant wind resource, forecasting and restrictions of issuance.

Hydro PPA

Hydropower. Water quality, hydrology, ecological runoff and water rights are taken into account.

Biomass / Biogas PPA

Generation from biomass, biogas and agricultural waste.

Waste-to-Energy PPA

Energy from waste. It is often associated with contracts for the reception and disposal of waste.

Geothermal PPA

Geothermal generation. Geological and drilling risks are significant.

Thermal PPA

Gas, coal, diesel and other thermal stations.

Nuclear PPA

Long-term contracts for nuclear generation with increased requirements for safety, guarantees and regulation.

Storage / Battery PPA

Contracts related to energy storage, reserve, balancing and load transfer.

Hybrid PPA

Combines several technologies: solar + wind, generation + drive, etc.

Green Hydrogen PPA

Supply of renewable electricity for the production of green hydrogen with energy origin requirements.

7. Types PPA by project stage and deadline

Pre-construction PPA

It is concluded before construction and is used to attract project financing.

Operational PPA

This is for an already operating power plant.

Short-term PPA

A short-term contract is usually for several years.

Long-term PPA

Long-term contract for 10–30 years and more.

Bridge PPA

A transitional contract before connecting to the main system, concluding a permanent PPA or the beginning of another mechanism.

8. Special PPA

Microgrid PPA

For local and isolated power systems with generation, storage and distribution network.

Community Energy PPA

For collective energy supply to settlements, cooperatives and municipalities.

Public-Private PPA

PPA within a wider PPP structure, concession, BOT, BOO or other project model.

Social PPA

Agreement supplemented by social obligations: preferential tariffs, employment, access to energy and public investment.

Environmental / Impact-linked PPA

Payments or terms of the contract are related to environmental performance, emissions, ecosystem restoration or other effects.

Indigenous PPA

A special model for projects involving indigenous peoples, combining the energy compact with land, social, cultural and procedural guarantees.

9. PPA Indigenous peoples (Indigenous PPA / IP-PPA)

Indigenous PPA is not a single international legal form, but a special project architecture in which an indigenous people, community, tribal body, cooperative, trust or company owned by them is not only the recipient of compensation, but the owner, co-owner, manufacturer, buyer, land user, management participant or recipient of a long-term share of the economic result.

9.1. Main models Indigenous PPA

Indigenous-owned PPA

The community or company owns the entire project.

Indigenous majority-owned PPA

The indigenous people retain a controlling stake in the project company.

Indigenous minority equity PPA

The community receives a minority share, dividends and corporate rights.

Joint Venture PPA

A joint project of the community, the energy company and investors.

Community Offtake PPA

The community acts as a buyer of electricity for settlements and public facilities.

Microgrid Indigenous PPA

Local microgrid for remote territory with RES, storage and backup generation.

Direct-wire Indigenous PPA

Direct supply of energy to community facilities or to a partner industrial consumer.

Host Community PPA

The project of an outside investor is located on the territory of the community, and the rights and benefits of the community are fixed contractually.

Benefit-sharing PPA

Some of the proceeds or payments are automatically sent to a public, environmental or generational fund.

Royalty-linked PPA

The community receives royalties for each MW·h or a percentage of revenue.

Preferential Tariff PPA

A preferential or social price for electricity is set for the community.

Aggregated Indigenous PPA

Several communities combine consumption, generation, or investment into a single entity.

Indigenous Corporate PPA

The indigenous company sells electricity to an external corporate buyer.

Sovereign / Tribal PPA

The contract is concluded with a recognized body of tribal or traditional self-government.

Indigenous Green Attributes PPA

Together with electricity, the rights to environmental attributes, certificates and emission reduction results are distributed.

9.2. Contractual architecture Indigenous PPA

• The FPIC Protocol is a free, prior and informed consent protocol.
• An Indigenous Peoples Agreement is a framework agreement with a community or people.
• The Power Purchase Agreement is a power purchase agreement.
• Land Use Agreement - Land Use Agreement and Rights of Use.
• A benefit sharing agreement is a benefit sharing agreement.
• Shareholders/Equity Agreement is a community-shared agreement.
• Environmental and Social Management Plan: Environmental and Social Responsibility.
• The Cultural Heritage Agreement protects sacred sites, heritage and traditional knowledge.
• Employment and Procurement Agreement - Local employment, training and procurement.
• Grievance and Dispute Resolution Agreement: Mechanisms for complaints and dispute resolution.

9.3. Key principles IP-PPA

• Recognition of the rights of indigenous peoples to territory and traditional environmental management.
• Representative authority and transparency of decision-making.
• Free, prior and informed participation until irreversible decisions are made.
• Participation in the ownership and management of the project.
• Minimum guaranteed income and long-term benefit sharing.
• Royalties, dividends, preferential energy and social investments.
• Maintain access to traditional territories and natural resources.
• Protection of cultural and spiritual heritage.
• Independent environmental and social monitoring.
• Public or community-accessible production and payment accounting.
• Restrictions on the transfer of the project to third parties without agreed procedures.
• Mandatory reclamation and financial support for the decommissioning of the facility.

10. Recommended classification PPA for system ECO-PPA

For practical work, it is advisable to use a multidimensional classification, where each project receives its own passport PPA at seven coordinates:

1. Who's the buyer?

2. How is the delivery carried out?

3. How are large risks distributed?

4. How is the price formed?

5. What technology is used?

6. At what stage and time is the contract concluded?

7. What special social, environmental, territorial or international conditions apply?

11. Matrix types PPA

12. Result

PPA It should not be considered as one type of contract, but as a designer of design architecture. Properly structured PPA It brings together commercial contracts, network supply rules, pricing mechanisms, risk allocation and, where appropriate, social, environmental, land and international obligations. For ECO-PPA The Hybrid is particularly promising PPA, Community PPA, Social PPA, Microgrid PPA and Indigenous PPA, because they link energy production to measurable social and environmental outcomes.

System classification of electricity contracts and PPA indigenous peoples

1. Status and purpose of the document

This concept is a project proposal for interdepartmental and business discussion. It does not establish the powers of state bodies, does not confirm their participation and does not replace regulatory legal acts, state programs, budget planning procedures, expertise and procurement.

The purpose of the document is to define an agreed model in which environmental, energy, resource, technological and territorial threats are transformed into executable projects with the results established by the owners, sources of resources, performance indicators and control mechanisms.

2. Mission and target status

The mission of the system is to ensure the transition from a fragmented response to consequences to full-cycle risk management: from early detection and forecasting to eliminating the causes of the threat and replicating the confirmed solution.

3. Control object

• environmental and climatic risks of the territories;
• sustainability of energy supply and critical infrastructure;
• scarcity or degradation of water, soils, forests and bioresources;
• accumulated environmental damage and hazardous waste;
• technological dependence and shortage of domestic equipment;
• economic stability of enterprises and strongholds;
• The impact of environmental conditions on health, employment and quality of life.

4. Principles of the system

Prevention: Priority of prevention over subsequent compensation.

Evidence: Decisions are made on the basis of baseline data, scenario forecast and measurable indicators.

Division of roles: strategic management, expertise, financing, execution and control do not mix.

Technological Sovereignty: The Priority of Reproducible Russian Technologies and Critically Independent Supply Chains.

Mixed resource provision: budget and private resources are combined only with a transparent distribution of obligations and risks.

Territorial applicability: the project is formed from the actual request of the territory, and not from an abstract proposal of technology.

Scalability: A successful pilot is transformed into a typical package, standard, or regional practice.

5. Architecture of participants

The system is built as six complementary contours. None of them replaces the other: the strategic center does not perform economic functions, the analytical platform does not make power decisions, and the execution operator does not determine state priorities.

6. End-to-end threat management cycle

1. Identification: fixing the source of the threat, the territory, the affected population and critical infrastructure.
2. Assessment and forecast: scenario of inaction, probability, scale of damage, interregional consequences.
3. Solution formation: selection of technologies and organizational measures, maturity and applicability testing.
4. Structuring ECO-PPA: participants, commitments, sources of resources, risks, timelines, indicators and benchmarks.
5. Execution: design, financing, supply, construction, implementation, training and commissioning.
6. Monitoring and verification: comparison of the result with the baseline, independent confirmation and management report.
7. Scaling: Typing documentation, removing barriers, including in regional or industry programs.

7. ECO-PPA as a resource mobilization mechanism

ECO-PPA is proposed to be defined as a comprehensive environmental design and partnership agreement. In energy projects, it can include the classic Power Purchase Agreement, a long-term energy supply contract. In complex projects, the agreement covers the restoration of the natural environment, resource efficiency, local infrastructure and technological modernization.

7.1. Mandatory structure ECO-PPA

• Threat passport and baseline;
• target state and measurable indicators of risk reduction;
• the composition of the participants and the matrix of powers;
• technological and production model;
• sources of financing and return on investment;
• distribution of risks, guarantees and responsibilities;
• calendar plan and control points;
• monitoring, data disclosure and independent verification;
• conditions of operation, scaling and exit of participants.

7.2. Sources of resources

Public outline: Federal and regional programs; budget investments; subsidies; PPPs and concessions - in cases stipulated by law.

Corporate contour: Own funds of enterprises; long-term demand; off-take contracts; energy service models.

Financial contour: Banking and project financing; leasing; bond instruments; CFA - only in permissible legal models.

Cooperative Outline: Mutual and other cooperative mechanisms within the law and with transparent disclosure of risks.

Scientific and technological contour: R&D results, testing capacities, intellectual property, engineering and personnel competencies.

8. EQUILIBRIUM: Monitoring, forecasting and control

EQUILIBRIUM forms a unified analytical view of the state of the territory and the progress of projects. The platform should be built on the principle of separate information contours: open, service and limited access.

9. The Responsibility Matrix

10. System of indicators

• reducing the likelihood and scale of damage;
• reliability of energy supply and infrastructure;
• the amount of emissions, discharges and waste prevented;
• restored water, soils, forests and ecosystems;
• share of domestic technologies and equipment;
• the amount of extrabudgetary resources attracted;
• created jobs and trained specialists;
• cost of life cycle and prevented damage;
• percentage of indicators confirmed by independent verification;
• The number of countries that have implemented the model solution.

11. Pilot project

The recommended start is one evidence-based territorial pilot or a portfolio of 5–7 interconnected projects. For the Syzran-Rameno-Smolkino link, a separate justification of the choice is required before the proposal is sent to state bodies: a threat passport, initial data, a list of objects, stakeholders, the legal status of sites and a preliminary economy.

12. Solutions required for launch

1. approve the status of the initiative concept and the owner of the preparation of materials;
2. to form an inter-sectoral working group;
3. select one priority category of threats and pilot territory;
4. prepare a passport of threat and a baseline;
5. to develop a standard package ECO-PPA and a verification regulation;
6. identify the pilot operator, sources of resources and data owners;
7. conduct legal, technological, financial and information expertise;
8. After confirmation of the pilot, prepare proposals for scaling.

13. Proposed wording of the initiative

14. Implementation risks and conditions of admissibility

15. Final model

The Security Council sets a strategic framework for threat assessment and inter-agency coordination. EQUILIBRIUM provides surveillance, forecasting and monitoring. ASI forms a stream of initiatives and a mechanism for scaling them. The RF CCI combines business demand, industry, expertise and cooperation. ECO-PPA turns the solution into a system of enforceable obligations and resource support. SPECZASHCHITA organizes cooperative execution.

Sources and normative guidelines

• National Security Strategy of the Russian Federation, Presidential Decree of the Russian Federation 02.07.2021 № 400
• Doctrine of Energy Security of the Russian Federation, Decree of the President of the Russian Federation 13.05.2019 № 216
• Interdepartmental commissions of the Security Council of the Russian Federation
• Official information on the activities of the RF CCI
• Agency for Strategic Initiatives initiatives

Unified system of threat prevention, resource mobilization and result control