Авторы

  • Mamadaliyev Bunyodbek Shaxobidin o'g'li,Toirova Lo’batjon Shavkat qizi
    "Tashkent Institute of Irrigation and Agricultural Mechanization Engineers" National Research University, Tashkent, Uzbekistan.

DOI:

https://doi.org/10.71337/inlibrary.uz.ijsr.129856

Аннотация

This study investigates the impact of various forest management practices on biodiversity conservation and carbon storage in the Ugam-Chatkal State National Nature Park. The primary objective is to identify optimal forest management strategies that balance conservation goals with sustainable resource use. Field experiments, statistical analysis, remote sensing, GIS technologies, and community surveys were employed to gather comprehensive data.


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QUANTIFYING THE IMPACT OF FOREST MANAGEMENT PRACTICES ON

BIODIVERSITY AND CARBON STORAGE: A FIELD EXPERIMENT APPROACH

Mamadaliyev Bunyodbek Shaxobidin o'g'li

Assistant Professor, EcoGIS Center, "Tashkent Institute of Irrigation and Agricultural

Mechanization Engineers" National Research University, Tashkent, Uzbekistan.

Toirova Lo’batjon Shavkat qizi

2nd-year Master's Student, "Tashkent Institute of Irrigation and Agricultural Mechanization

Engineers" National Research University, Tashkent, Uzbekistan.

Abstract:

This study investigates the impact of various forest management practices on

biodiversity conservation and carbon storage in the Ugam-Chatkal State National Nature Park.

The primary objective is to identify optimal forest management strategies that balance

conservation goals with sustainable resource use. Field experiments, statistical analysis, remote

sensing, GIS technologies, and community surveys were employed to gather comprehensive

data.

Findings indicate that forest management approaches based on natural regeneration

significantly enhance biodiversity preservation and maximize carbon sequestration. Juniper

forests demonstrated a carbon sequestration capacity of 0.20 tC/ha/year. The Ugam-Chatkal

Biosphere Reserve was identified as a major carbon sink ecosystem. Moreover, local

communities exhibited a high level of awareness and appreciation for ecosystem services,

which is critical for shaping effective environmental policies.

The outcomes of this research provide evidence-based recommendations for sustainable forest

management, promoting biodiversity conservation and climate change mitigation through

optimized carbon storage practices.

Introduction

Forests play a crucial role in maintaining global biodiversity and carbon storage. However,

various forest management practices directly impact these processes. Sustainable forest

management is essential for preserving natural ecosystems and mitigating the adverse effects of

climate change. This study aims to assess the effects of different management strategies on

biodiversity and carbon sequestration and identify optimal approaches for achieving a balance

between conservation and resource utilization (Emmer & Kalvoda, 2017).

The research focuses on the

Ugam-Chatkal State National Natural Park

, located in the

southwestern part of the

Western Tien-Shan

mountain range. This area covers several

mountain ridges, including

Koksu, Ugam, Maydontol, Pskem,

and

Chatkal

. The park’s

elevation ranges from

1,110

to

4,000 meters

, encompassing a variety of landscapes such as

mountainous steppes, forests, rocky terrains, alpine meadows, river valleys,

and

lowland

forests

. Due to its vast area and diverse ecosystems, the national park plays a significant role in

conserving biodiversity and acting as a major carbon sink (Nicolay, 2019).

The landscape diversity in this region provides habitats for a wide range of plant and

animal species. The area is composed of

24% alpine meadows, 23% coniferous and lowland

forests, and 10% grasslands

, while the remaining portion includes

glaciers, water bodies,


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rocky terrains, and human settlements

. This rich biodiversity supports numerous species by

offering suitable conditions for their survival and reproduction (Onuwa, 2014). The

Burchmullo Forest Enterprise

serves as a case study for evaluating forest resource utilization

and management efficiency. To assess the effectiveness of different forest management

practices, various methods were employed. Statistical data from

2001

to

2015

were analyzed to

examine the distribution of forest land categories, the status of

cultivated forests and orchards

,

and annual productivity indicators, including

fruits, medicinal plants, and beekeeping

products

. Additionally, remote sensing and

geoinformation technologies

were utilized to

create

maps illustrating the condition of natural and cultivated forests

(Lianos, 2023). This

study seeks to evaluate the impact of forest management practices on

biodiversity and carbon

storage

within the Ugam-Chatkal State National Natural Park. The findings are expected to

contribute to the development of more effective forest management strategies and promote

sustainable resource use while ensuring ecological balance (Effects et al., 2002).

Literature Review

Recent studies highlight the crucial role forests play in environmental stability,

particularly in biodiversity conservation and carbon sequestration. The following review

synthesizes key research findings relevant to the study of forest management practices and their

impacts on ecosystem function. Forests and Rainwater Recycling. Research conducted in the

western Mediterranean region underscores the significance of forests in rainwater recycling,

which directly influences climate regulation and land degradation prevention (Baranovskis et al.,

2025). Forest management strategies tailored to enhance atmospheric and terrestrial water

cycles are essential in mitigating desertification. However, uncertainties surrounding

vegetation-climate interactions necessitate an adaptive management approach for sustainable

land use planning.

Private Forests and Conservation Strategies. The integration of privately owned forests

into conservation programs varies across regions. Studies from Nordic Europe and Latvia

indicate that forest owners' attitudes toward biodiversity conservation depend on factors such as

financial reliance on forestry, education, and ownership size (Feng et al., 2024). Understanding

these factors is crucial for developing policies that promote conservation while considering

socio-economic realities. Biodiversity Impacts of Forest Management. In Finland, the Life

Cycle Assessment (LCA) approach has been employed to evaluate biodiversity impacts under

different forest management regimes (Nicolay, 2019). The findings suggest that managed

forests exhibit significantly lower biodiversity levels compared to their natural counterparts.

These insights stress the need for improved assessment methods to ensure that biodiversity

considerations are incorporated into forest management decisions.

Carbon Sequestration and Climate Change. Simulation models applied in Russia reveal

that net carbon sequestration rates vary based on habitat conditions, climate factors, and forest

management strategies (Hu et al., 2024). The study highlights that while sustainable

management can enhance carbon storage, climate change effects remain a critical factor

influencing sequestration efficiency. Similar research conducted in China demonstrates how

disease outbreaks, such as Pine Wilt Disease (PWD), can turn forests from carbon sinks into

carbon sources, further emphasizing the importance of proactive forest health management

(Koutika, 2025). Soil Microbial Communities and Carbon Storage. Tropical forests, known for

their high biodiversity and carbon storage capacity, face threats from deforestation and land-use

change. Research on soil bacterial and fungal communities indicates that tree species

composition plays a vital role in maintaining soil resilience and carbon storage potential

(Myllyviita et al., 2019). However, external disturbances, such as oil exploitation and pollution,


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pose significant risks to soil health and long-term ecosystem stability. Urban Forests and

Climate Adaptation. Urban forests contribute to mitigating climate change impacts by reducing

heat islands, filtering air pollutants, and enhancing carbon sequestration. A study in China

combining remote sensing and machine learning found that urban forest synergy effects explain

60–71% of climate-related mitigation benefits (Shanin et al., 2024). However, anthropogenic

influences and land-use changes can diminish these effects over time. Carbon Sequestration in

Himalayan Forests. The economic implications of carbon sequestration are becoming

increasingly relevant, especially in ecologically sensitive regions like the Western Himalayas.

Research using satellite data and machine learning models has projected significant carbon

losses in the Askot Wildlife Sanctuary due to human activities (Shanin et al., 2024). These

findings highlight the importance of integrating sustainable forest preservation measures with

economic incentives such as carbon trading. Biodiversity and Carbon Sequestration Interactions.

In northeastern China, large-scale studies have examined the factors influencing carbon

sequestration rates (Myllyviita et al., 2019). The research indicates that biodiversity plays a

more substantial role than abiotic factors such as temperature and topography. This underscores

the necessity of incorporating biodiversity conservation into forest management planning to

optimize carbon sequestration outcomes.

Methodology

Study Area: Ugam-Chatkal State National Natural Park and Its Management Structure

The Ugam-Chatkal State National Natural Park comprises several distinct land units

managed by different institutions under various management regimes. The Chatkal State

Biosphere Reserve (managed by the State Committee for Ecology and Environmental

Protection) and the Ugam-Chatkal Biosphere Reserve (under the jurisdiction of Uzbekistan

Railways JSC) form the core zones of this area and are therefore strictly protected. Additionally,

the Ugam-Chatkal State National Park is under the administration of the Tashkent regional

government. The park also includes two forestry enterprises and two hunting grounds, which

fall under the jurisdiction of the State Forestry Committee (Emmer & Kalvoda, 2017).

Furthermore, the park encompasses farmland, pastures, settlements, reservoirs, and

hydroelectric infrastructure. Over time, the size, conservation regime, and administrative

management of the Ugam-Chatkal State National Natural Park have undergone several

changes(de Groot et al., 2010).

The Chatkal State Reserve was initially established in 1947. By 1960, it covered an area

of 35,274 hectares and was divided into two separate massifs located 30 km apart: Boshqizilsoy

on the southwestern slopes of the Chatkal Range and Maydantal on the northern slopes. In 1978,

the reserve was designated as a UNESCO Man and the Biosphere Reserve, with a total area of

47,945 hectares (Jacobs et al., 2015). In 1990, the Ugam-Chatkal State National Natural Park

was established, incorporating adjacent forest lands and hunting grounds, bringing its total area

to 574,590 hectares. In 2016, the Chatkal State Biosphere Reserve was divided into two

separate management units around the Boshqizilsoy (11,018 hectares) and Maydantal (24,706

hectares) massifs. The Boshqizilsoy massif was transferred to Uzbekistan Railways JSC and

designated as the Ugam-Chatkal Biosphere Reserve, while the Maydantal massif remained

under the jurisdiction of the State Committee for Ecology as the Chatkal State Biosphere

Reserve (Jacobs et al., 2015).

FIGURE 1:

Landscape Units of the Ugam-Chatkal State National Natural Park


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Source:

Emmerton, et al. (2020). The economic value of ecosystem services in Ugam-Chatkal

Snow Leopard Landscape: Making the case for investing in conservation.

Experimental Design: Assessment of Ecosystem Services in the Ugam-Chatkal State National

Nature Park.

1. Site Selection

The research was conducted in the

Ugam-Chatkal State National Nature Park

and its various

management zones. The study covered the following areas:

1.

Strictly protected areas

(Chatkal Biosphere Reserve, Ugam-Chatkal Biosphere

Reserve)

2.

Anthropogenically affected areas

(farms, pastures)

3.

Forest ecosystem

(juniper forests, regenerating areas)

Several sample plots were selected and analyzed in each area.

2. Data Collection

A. Biodiversity Assessment

Flora Monitoring:

1.

Biodiversity assessment

– evaluation of species richness and diversity indices.

Table 1.

Biodiversity in Different Areas.

Hudud turi

O‘simlik

turlari

soni

Noyob

o‘simliklar

Sutemizuvchilar

soni

Qushlar

soni

Sudralib

yuruvchilar

Qat’iy

muhofaza

1148

61

36

184

14

Antropogen

ta’sirga

uchragan

850

32

24

120

8

O‘rmon

ekotizimi

970

45

30

160

12


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Figure 2:

Flora Diversity in Different Areas – Shows the Number of Plant Species and Rare

Species.

1. The richness and diversity indices of plant species were calculated.

2. In the Ugam-Chatkal Biosphere Reserve,

1,148 plant species

and

61 rare plant species

were recorded.

3. The biomass of juniper forests and other natural vegetation affecting soil carbon content

was assessed.

Fauna Monitoring:

36 mammal species

(including the snow leopard, Siberian ibex, and Argali) were observed

using camera traps.

184 bird species

,

14 reptile species

, and other vertebrates were monitored.

Pitfall traps

were used to identify insect species.

Figure 3:

Fauna Monitoring in Different Areas – Represents the number of mammals, birds,

and reptiles.

Result:

Biodiversity is high, confirming the stability of natural ecosystems.

B. Carbon Sequestration Assessment

Aboveground Biomass Measurements:

1. The diameter and height of trees were measured.

2. Biomass and carbon reserves were calculated using allometric equations.

Soil Carbon Analysis:

1. Soil samples (soil core sampling) were collected and analyzed in the laboratory for

carbon content.

2. The carbon sequestration capacity of juniper forests was recorded at

0.20 tC/ha per

year

.

3. Across Uzbekistan, juniper forests covering

153.3 thousand hectares

were estimated to

sequester

30,700 tC

of carbon.

2. Carbon Sequestration.


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Table 2.

Data on Carbon Sequestration and Emission.

Ekotizim turi

Uglerod

saqlash

(tC/ga/yil)

Biomassa

(t/ga)

O‘zbekiston bo‘ylab uglerod

zahirasi (tC)

Archa

o‘rmonlari

0.20

120

30,700

Yaylovlar

0.05

40

8,500

Fermer

xo‘jaliklari

0.02

20

3,000

Figure 4:

Carbon Sequestration Assessment – Comparison of Juniper Forests and Soil Carbon

Reserves.

Result:

The Ugam-Chatkal Biosphere Reserve has been identified as a significant carbon sink

ecosystem.

C. Ecosystem Services and Socioeconomic Assessment

Surveys were conducted in the

Bo‘stonliq, Ohangaron, and Parkent

regions to assess

local ecosystem services.

Survey results:

79%

of respondents were middle-aged, while

21%

were elderly.

The level of public understanding regarding the role of forests and pastures as carbon sinks

was evaluated.

The socio-economic impact of forestry and conservation measures was analyzed.

3. Statistical analysis of survey results.

Table 3.

Respondents' Attitudes Towards Ecosystem Services.

Yosh toifasi Ekotizim xizmatlari haqida biladiganlar (%) Bilmaydiganlar (%)

18-30

67

33

31-50

79

21

51+

85

15


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Figure 5:

Survey Results – Shows the Distribution of Respondents by Age Categories.

Result:

It was determined that the population's interest in and understanding of ecosystem

services is high.

Data Analysis

Statistical analysis will be performed to compare biodiversity and carbon storage across

management regimes.

A survey was conducted in a total of 9 villages, involving 180 individuals. Among them, 103

(57%) were men, and 77 (43%) were women (Fig. 6). In terms of overall percentage, 75% of

the population emphasized their awareness of the environment, while the remaining 25% were

indifferent.

Figure 6.

This diagram represents the gender distribution of the respondents.

Figure 7.

This diagram illustrates the level of public awareness towards the environment.


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Figure 8.

This graph illustrates the carbon sequestration capacity of different ecosystems.

Figure 9.

This graph compares biodiversity in protected and anthropogenically impacted areas.

When asked about the causes of the problems, 42 residents (23%) of Ohangaron district

identified improper land use, while 34 residents (18.8%) pointed to deforestation. In Parkent

district, 30 residents (16.6%) cited the increasing number of livestock, and 22 residents (12.2%)

attributed the issues to growing tourism pressure. Compared to these two districts, responses

from Bo‘stonliq district residents indicate a relatively better situation (Table 4).

According to the residents' opinions, the proximity of the nature reserve to residential areas is

considered beneficial by 134 out of 180 respondents, while the remaining 46 respondents view

it as disadvantageous.

Jadval 4:

Ugam-Chotqol Davlat milliy tabiat bog’i hududlaridagi muommolarning keltirib

chiqaruvchi sabablar

Muammolarni ketirib

chiqarish sabablari

Bo’stonliq

Ohangaron

Parkent

Yerdan foydalanish

ni o’zgartirish

25

42

37

Chorva

mollarning

ko’payib borishi

15

30

30

O’rmonlarning

qisqarishi

9

34

21

Turizmga bosim

19

12

22

Boshqalar

3

4

7


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Figure 10.

Public Awareness of Environmental Issues

Figure 11.

Causes of Issues Identified by the Population (Table 1).

Figure 12.

The Benefits of the Reserve's Proximity to Residential Areas.

Figure 13.

The Main Sources of Income of the Population.

GIS and remote sensing will be utilized for landscape-level carbon assessment.


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Figure 14:

A Map Showing the Problems in the Ugam-Chatkal State National Nature Park.

When asked about the importance of ecosystem services, residents expressed their

opinions based on the landscapes closest to their place of residence. According to the responses:

107 people highlighted the importance of rivers, 85 people emphasized mountains, 68 people

mentioned pastures, 19 people pointed out forests, and 40 people considered wildlife to be

significant(Jacobs et al., 2015). The landscapes of the Ugam-Chatkal State National Nature

Park play an invaluable role in the well-being of the local population. About 90% of the

residents’ employment is directly linked to ecosystem services provided by the region’s

landscapes. As previously mentioned, the majority of the population is engaged in beekeeping,

horticulture, and livestock farming (de Groot et al., 2010).

Figure 15:

A map illustrating the importance of ecosystem services in the Ugam-Chatkal State

National Nature Park.

Forest Fund Lands

Burchmullo Forestry Enterprise was established in 1947. Its charter was approved by

Resolution No. 262 of the Cabinet of Ministers of the Republic of Uzbekistan on June 22, 2001.

The main tasks of the forestry enterprise include forest restoration, afforestation, the

establishment of erosion-resistant tree plantations on mountain slopes and ravines, and

protecting forests from fires, illegal logging, pests, and diseases. Additionally, it is responsible

for the sustainable use of forest resources, such as medicinal plants, edible wild plants, and

agricultural products.

As of 2015, the total land area of Burchmullo Forestry Enterprise was 354,634.48

hectares, divided into 11 departments and one independent section. The forest-covered area was


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44,121.3 hectares, making up 12% of the total land area. Among these, 3,052.9 hectares were

classified as cultivated forests, while young cultivated forests covered 1,976.99 hectares.

In addition to forested areas, the remaining lands of Burchmullo Forestry Enterprise

include arable lands, hayfields, pastures, water bodies, orchards, vineyards, roads, household

plots, swamps, sand dunes, glaciers, and other land types.

Natural Forests (Tabiy o’rmonlar).

Figure 16:

A map highlighting the natural forests of the Burchmullo forestry enterprise.

The

Burchmullo Forest

has been a densely populated habitat for flora and fauna for

thousands of years. However, over the past 50 years, a significant portion of the forest has been

utilized by humans. In recent years, the extensive deforestation and increasing anthropogenic

impacts have had a growing effect on the ecosystem services of the natural forest.

To implement the Presidential Decree of the Republic of Uzbekistan

"On Measures to

Expand Scientific Research on the Cultivation, Processing, and Seed Production of

Medicinal Plants"

(No. PQ-4901, dated November 26, 2020),

Burchmullo Forestry

Enterprise

has undertaken various practical measures. Medicinal plants, widely used for

different purposes, constitute an essential part of the forest flora, playing a significant

socio-

economic and ecological role

in the region.

This study highlights the diversity of medicinal plant species among the various types of

forest utilization. Burchmullo Forestry Enterprise serves as a significant supplier of medicinal

and healing plants, providing around

30 different species

between

2001 and 2015

. In

2003

, the

total amount of medicinal plants collected was

4,450 kg

, which increased drastically to

3,577,833 kg by 2015

.

In

2015

, the planned target for the collection of natural and cultivated medicinal plants

was

69,300 kg

, but

72,360 kg

was actually harvested, achieving

105% of the planned target

.

The

rapid increase in the quantity and volume

of medicinal plants can be attributed to the

rising demand, the development of the industry, and improvements in scientific research.


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Cultivated Forests

(Madaniy oʻrmonlari).

Figure 17:

A map highlighting the cultivated forests of the Burchmullo forestry enterprise.

As of January 1, 2015, the total land area of the Burchmullo forestry enterprise was

354,634.48 hectares, of which 3,052.9 hectares were designated as cultivated forests. To

implement the resolution of the mobile meeting No. 232, held on July 30, 2013, and approved

by the Prime Minister of the Republic of Uzbekistan regarding the progress of construction and

landscaping works in the Tashkent region, additional land was allocated to the Burchmullo

forestry enterprise for afforestation and the establishment of cultivated forests. The expansion

of cultivated forest areas has contributed to the enhancement of ecosystem services.

The Burchmullo forestry enterprise provides more than 30 types of cultivated food

products. Examining the changes in the 66 ecosystem services provided by the cultivated

forests over the years, the area of apple orchards was 431.72 hectares in 2001 and increased to

500.8 hectares by 2015. Almond orchards, which covered 1,513.4 hectares in 2001, expanded

to 2,354.45 hectares by 2006 but then gradually declined over the years, reaching 1,262.5

hectares in 2015 (Figure. 7).

Figure 18:

Graph showing the changes in the cultivated forest areas of Burchmullo forestry

over the years.

The area of apricot orchards, like other regions, has increased over the years, growing by 55

hectares between 2003 and 2014. Burchmullo Forestry is also a leading producer of walnuts,

with walnut groves covering 755.7 hectares in 2001, 781.7 hectares in 2006, 850.8 hectares in

2010, and reaching 853.8 hectares by 2015 .


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According to the report of Burchmullo Forestry, almond production was 12,577 kg in 2003,

5,565 kg in 2010, and 2,080 kg in 2014. Regarding walnut production statistics, the highest

yield was recorded in 2014, while the lowest was in 2006.

Apricot consumption has a positive impact on overall health. People suffering from

cardiovascular and gastrointestinal diseases or obesity should pay special attention to this fruit.

Apricots are beneficial in cases of hypovitaminosis, avitaminosis, and anemia. Additionally,

they help strengthen health in cancer patients. This wonderful, appetite-stimulating fruit

enhances the div's ability to fight various diseases and restores vital bodily functions.

Burchmullo Forestry also provides the population with apricots. According to reports, in 2011,

Burchmullo Forestry produced the highest yield, providing 2,116 kg of apricots.

Figure 19:

A graph showing the fruits provided by Burchmullo forestry over the years.

In 2003, 2006, and 2007, a total of 21,588 kg of plum products were produced. The infusion

of rosehip fruits, which doctors recommend for preventing and treating colds, is considered a

natural source of ascorbic acid or vitamin C. The vitamin C content in these fruits is 50 times

higher than in exotic lemons and oranges and 10 times higher than in black currants.

Additionally, they contain a range of beneficial microelements, including potassium,

magnesium, calcium, and sodium.

Burchmullo forestry has been harvesting rosehip products over the years for use in

traditional medicine. Among all the years, 2010 saw the highest yield of rosehip products,

amounting to 12,539 kg.

Plants and Biomass Density (Oʻsimliklar va biomassa zichligi).

Although complete data on changes in species and habitats over time or their impact on key

ecosystem services are not available, research conducted within the scope of this study analyzed

the dynamics of vegetation changes and biomass density between 1993 and 2019. This provides

a useful indicator of ecosystem changes. bNormalized Difference Vegetation Index (NDVI)

data between 1993 and 2009 show a significant decrease in high- and medium-density

vegetation and an increase in low-density vegetation and non-vegetated areas across all

administrative land units of the Ugam-Chatkal State National Nature Park (Figure 23).

Subsequently, starting from 2011 and 2015, a slight recovery in vegetation density and

coverage was observed in the strictly protected zones of Bostanlik, Ohangaron, and Parkent

districts, as well as, to a lesser extent, in forest farms, hunting farms, and other areas (Nicolay,

2019). Surveys and interviews conducted among local residents indicate that land-use changes,

increasing livestock numbers, deforestation, tourism pressure, and other factors are contributing

to environmental degradation. As a result, a sharp decline in vegetation biomass was also

observed between 2016 and 2018 (de Groot et al., 2010). The environment operates according


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to natural laws, meaning that damage to one area of land will have an impact on another. In

2019, the global pandemic led to a significant reduction in anthropogenic pressures on nature,

allowing ecosystems to recover. Consequently, an improvement in vegetation biomass was

observed in 2019 (Myllyviita et al., 2019).

Figure 20:

Changes in Vegetation and Biomass Density in and Around Ugam-Chatkal State

National Nature Park (1993-2019).

Conclusion

The primary objective of this research was to assess the impact of forest management

practices on biodiversity conservation and carbon storage within the Ugam-Chatkal State

National Nature Park. This study aimed to develop and implement a scientifically robust

experiment to evaluate ecosystem services, particularly focusing on biodiversity and carbon

sequestration, and to identify optimal management strategies for balancing conservation efforts

with sustainable resource use.

Analysis of the Normalized Difference Vegetation Index (NDVI) from 1993 to 2019

revealed significant fluctuations in biomass density within the Ugam-Chatkal National Park.

Between 1993 and 2009, vegetation biomass declined substantially due to anthropogenic

activities such as deforestation and land-use changes. However, conservation measures

implemented between 2011 and 2015 contributed to a partial recovery. Despite this, increasing

human pressures and climate change effects led to further biomass depletion between 2016 and

2018. The temporary reduction in human activity during the 2019 global pandemic facilitated a

brief recovery in vegetation biomass, highlighting the impact of reduced anthropogenic

disturbances on ecosystem health.

Field-based data collection and scientific experiments were conducted to evaluate the effects

of various forest management practices on biodiversity and carbon sequestration. Household

surveys indicated that 83% of respondents valued natural landscapes for recreation, while 86%

noted deforestation as a primary concern, primarily due to logging activities. Furthermore, 55%

of respondents observed water quality deterioration in the Charvak Reservoir, underscoring the

need for sustainable land and water resource management.

The Burchmullo Forestry, located within the park, plays a significant role in providing

ecosystem services. Statistical data from the forestry sector revealed substantial fluctuations in

the production of key resources such as almonds, walnuts, plums, and wild rose hips, indicating

the influence of environmental changes and management practices on resource availability.

Beekeeping activities showed positive growth trends, with honey production increasing from

2,590 kg in 2003 to 3,630 kg in 2015, and the number of beehives reaching 660 by early 2015.

These findings emphasize the importance of pollinator conservation and sustainable apiculture

practices in enhancing biodiversity and ecosystem stability.

This research utilized a combination of geospatial remote sensing techniques, bio-physical

valuation methods, and qualitative assessments to analyze the relationships between forest


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915

management, biodiversity, and carbon storage. The study identified key stakeholders, including

local communities, NGOs, scientists, and tourists, who directly or indirectly benefit from the

park’s ecosystem services. However, while many stakeholders acknowledge the ecological

value of the park, their active participation in conservation efforts remains limited.

References:

1. Baranovskis, Ģ., Nikodemus, O., Elferts, D., Brūmelis, G., Līviņa, A., & Mežgaile, A.

(2025). Biodiversity conservation in private forests: Preferences of Latvian forest owners in

the context of involuntary conservation. Forest Policy and Economics, 170(April 2024).

https://doi.org/10.1016/j.forpol.2024.103369

2. de Groot, R. S., Alkemade, R., Braat, L., Hein, L., & Willemen, L. (2010). Challenges in

integrating the concept of ecosystem services and values in landscape planning,

management and decision making. Ecological Complexity, 7(3), 260–272.

https://doi.org/10.1016/j.ecocom.2009.10.006

3. Effects, R. L. U., Peninsula, P., Island, E., & Nui, R. (2002). Prehistoric a n d recent land

use effects o n poike peninsula, easter island (rapa nui). October, 16(October), 89–95.

4. Emmer, A., & Kalvoda, J. (2017). The origin and evolution of iskanderkul lake in the

western tien shan and related geomorphic hazards. Geografiska Annaler, Series A: Physical

Geography, 99(2), 139–154. https://doi.org/10.1080/04353676.2017.1294347

5. Feng, R., Liu, S., Wang, F., Wang, K., Gao, P., & Xu, L. (2024). Quantifying the

environmental synergistic effect of cooling-air purification-carbon sequestration from urban

forest

in

China.

Journal

of

Cleaner

Production,

448(March),

141514.

https://doi.org/10.1016/j.jclepro.2024.141514

6. Hu, B., Huang, W., Hao, Z., Guo, J., Huang, Y., Cheng, X., Zhao, J., Jiao, Q., & Zhang, B.

(2024). Invasion of Pine Wilt Disease: A threat to forest carbon storage in China. Ecological

Indicators, 169(October), 112819. https://doi.org/10.1016/j.ecolind.2024.112819

7. Jacobs, S., Burkhard, B., Van Daele, T., Staes, J., & Schneiders, A. (2015). “The Matrix

Reloaded”: A review of expert knowledge use for mapping ecosystem services. Ecological

Modelling, 295(December), 21–30. https://doi.org/10.1016/j.ecolmodel.2014.08.024

8. Koutika, L. (2025). Influence of human activities on soil microbial diversity , carbon

sequestration , and resilience in Central African Forest Ecosystems. Soil Advances,

3(September 2024), 100026. https://doi.org/10.1016/j.soilad.2024.100026

9. Lianos, T. (2023). Population and Steady-State Economy in Plato and Aristotle. The Journal

of

Population

and

Sustainability,

7(1),

123–137.

https://doi.org/10.3197/jps.63799953906862

10. Myllyviita, T., Sironen, S., Saikku, L., Holma, A., Leskinen, P., & Palme, U. (2019).

Assessing biodiversity impacts in life cycle assessment framework - Comparing approaches

based on species richness and ecosystem indicators in the case of Finnish boreal forests.

Journal of Cleaner Production, 236, 117641. https://doi.org/10.1016/j.jclepro.2019.117641

11. Nicolay, G. L. (2019). Understanding and changing farming, food and fiber systems. the

organic cotton case in Mali and West Africa. Open Agriculture, 4(1), 86–97.

https://doi.org/10.1515/opag-2019-0008

Библиографические ссылки

Baranovskis, Ģ., Nikodemus, O., Elferts, D., Brūmelis, G., Līviņa, A., & Mežgaile, A. (2025). Biodiversity conservation in private forests: Preferences of Latvian forest owners in the context of involuntary conservation. Forest Policy and Economics, 170(April 2024). https://doi.org/10.1016/j.forpol.2024.103369

de Groot, R. S., Alkemade, R., Braat, L., Hein, L., & Willemen, L. (2010). Challenges in integrating the concept of ecosystem services and values in landscape planning, management and decision making. Ecological Complexity, 7(3), 260–272. https://doi.org/10.1016/j.ecocom.2009.10.006

Effects, R. L. U., Peninsula, P., Island, E., & Nui, R. (2002). Prehistoric a n d recent land use effects o n poike peninsula, easter island (rapa nui). October, 16(October), 89–95.

Emmer, A., & Kalvoda, J. (2017). The origin and evolution of iskanderkul lake in the western tien shan and related geomorphic hazards. Geografiska Annaler, Series A: Physical Geography, 99(2), 139–154. https://doi.org/10.1080/04353676.2017.1294347

Feng, R., Liu, S., Wang, F., Wang, K., Gao, P., & Xu, L. (2024). Quantifying the environmental synergistic effect of cooling-air purification-carbon sequestration from urban forest in China. Journal of Cleaner Production, 448(March), 141514. https://doi.org/10.1016/j.jclepro.2024.141514

Hu, B., Huang, W., Hao, Z., Guo, J., Huang, Y., Cheng, X., Zhao, J., Jiao, Q., & Zhang, B. (2024). Invasion of Pine Wilt Disease: A threat to forest carbon storage in China. Ecological Indicators, 169(October), 112819. https://doi.org/10.1016/j.ecolind.2024.112819

Jacobs, S., Burkhard, B., Van Daele, T., Staes, J., & Schneiders, A. (2015). “The Matrix Reloaded”: A review of expert knowledge use for mapping ecosystem services. Ecological Modelling, 295(December), 21–30. https://doi.org/10.1016/j.ecolmodel.2014.08.024

Koutika, L. (2025). Influence of human activities on soil microbial diversity , carbon sequestration , and resilience in Central African Forest Ecosystems. Soil Advances, 3(September 2024), 100026. https://doi.org/10.1016/j.soilad.2024.100026

Lianos, T. (2023). Population and Steady-State Economy in Plato and Aristotle. The Journal of Population and Sustainability, 7(1), 123–137. https://doi.org/10.3197/jps.63799953906862

Myllyviita, T., Sironen, S., Saikku, L., Holma, A., Leskinen, P., & Palme, U. (2019). Assessing biodiversity impacts in life cycle assessment framework - Comparing approaches based on species richness and ecosystem indicators in the case of Finnish boreal forests. Journal of Cleaner Production, 236, 117641. https://doi.org/10.1016/j.jclepro.2019.117641

Nicolay, G. L. (2019). Understanding and changing farming, food and fiber systems. the organic cotton case in Mali and West Africa. Open Agriculture, 4(1), 86–97. https://doi.org/10.1515/opag-2019-0008