ENERGY SECTOR IMPACT ON COUNTRY'S ECONOMIC SECURITY: BALTIC SEA REGION EU COUNTRIES' CASE

 

Rima Zitkiene

Mykolas Romeris University, Lithuania

E-mail: rizit3@mruni.eu

 

Jurij Matyskevic

DXC Technology, Lithuania, Lithuania

E-mail: mediajurijlt@gmail.com

 

Inna Kremer-Matyskevic

Mykolas Romeris University, Lithuania

E-mail: inna_kremer@hotmail.com

 

Nataliia Korzhenivska

State Agrarian and Engineering University in Podilya, Ukraine

E-mail: nkorzhenivska@gmail.com

 

Svitlana Zaika

Kharkiv Petro Vasylenko National Technical University of Agriculture, Ukraine

E-mail: zaika.svitlana175@gmail.com

 

Submission: 8/2/2020

Revision: 8/9/2020

Accept: 8/26/2020

 

ABSTRACT

The article object is to is a relatively new research direction in economic theory - economic security at the macro-level. One of the aims of this article is to reveal the country’s economic security idea and to choose methods for this economic phenomenon evaluation as well as to suggest the method to evaluate the energy sector's impact on this economic phenomenon. Firstly, the authors review different approaches to economic security principles and do some assumptions related to the country's economic security concept. There is shortly described the energy sector. Since the scientific problem is how to evaluate the energy sector and the country's security and what impact the energy sector has on the country's economic security, the authors have selected methods to analyze the links between energy sector activities and economic security. Furthermore, there were presented the results of regression analyzes and concluded what energy sector indicators influence countries' economic security.


Keywords: Energy sector; Economic security; External threats; Internal threats; Management

1.        INTRODUCTION

            The phenomenon of the country’s economic security is a relatively new research direction in economic theory, but at the same time, it is an unquestionably integral component of national security which paradigm, as well as a new approach to the perception of national economic security, was formed by economist Keynes in the 1930s. From his point of view, the main threats to the national economy are not competition for foreign goods but unemployment and economic depression (ZUZEVICIUTE et al., 2018). In Western countries, economic security is usually studied at the micro-level, mostly there is an examination of the financial stability of a household or individual. Less research is done at the macro level by analyzing economic security through national security threats identification. One of the aims of this article is to reveal the country’s economic security idea and to choose methods for this economic phenomenon evaluation.

2.        LITERATURE REVIEW

2.1.            Energy sector and economic security in international context

            In the economic globalization conditions, revealing the essence of economic security and identifying its real threats as well as providing reliable and effective problem-solving methods is a pretty important task. Therefore, solving economic security problems becomes a multifaceted task, which must include not only a security function but also a comprehensive approach, taking into account the overall country's political and financial capabilities.

            Economic security structure has been presented by TAMOSIUNIENE and MUNTEANU (2015) in their theoretical research. According to the offered scheme economic security should be divided into two approaches: individual and macroeconomic (see Figure 1).

            Whereas the individual approach describes the economic security as an individual subject stable income and other sources that maintain the living standard in the present and the near future, i.e.: permanent solvency, predictable cash flow, efficient use of human capital.

            The macroeconomic security approach is related to a sophisticated history because of the period of this method rising matches with the times of the two World Wars. Especially, the formation of this attitude to economic security was supported by a Russian economic school, which using critical meanings, attempted to quantify economic security, as well as a model developed by Professor Lino Briguglio, that defined economic security as the state's economic vulnerability and resistance level.

Figure 1: Economic security structure

Source: Tamosiuniene, Munteanu (2015)

            Since the object of this research is the country's economic security, let’s review some insights into the macroeconomic approach.

            Scientists from different countries have already begun to analyze the principles of economic security, but this area is still not fully formed on a theoretical basis likewise evaluation methodology of this phenomenon does not have the general pattern.

            In accordance with SIMANAVICIUS et al. (2019) research, the European Union (EU) has two standpoints related to the concept of economic security.  The first point is connected to the EU position in the global economic system. There are collected various information on the economic objectives of the European Union, economic security concept interpretation, that are presented on the EU official portal.

            The European Union highlights the importance of European integration into the globalization process of a competitive economy. The second point is related to the largest official organization dealing with security complex issues in Europe - the Organization for Security and Co-operation in Europe (OSCE), which develops measures to reduce military confrontation and increase security in Europe. The OSCE security concept contains several components: political and military dimension, economic dimension, and human rights issues.

            How to newly describe the economic security purpose, and to what scope are nowadays applied quantitative evaluation methods correct has been researched by GIRIUNIENE et al. (2019). They argue it is worth considering that the state’s economic security cannot be separated from other factors of the state’s security. They state, that there is no basis to assert that a state, that territorial integrity and, meantime, security is facing actual external threats, with which a state cannot cope efficiently, can be considered economically secure because the conquerors can make use of the state’s economic resources.

          Economic security understood as the elimination the internal threats by JOHNSTONE (2013), HIPP (2016), ANGULO-GUERRERO (2017). On the contrary, economic security has been showed from the prism of external threats, suchlike countries’ dependency on energy resources, poverty, unemployment, migration, and corruption by POPESCU (2014) and FRANKI (2015).

          Few insights to this phenomenon as output of modern economic security categories analysis has been made by SVETLAKOV and GLOTINA (2018):

·        economic security became the spot to the countries and a significant element of nationality;

·        economic security concept is a rather complex and controversy category;

·        without economic security providing, a country risks not solve the problem that faces both internally and internationally;

·        while estimating the economic security of a country, it is necessary to establish certain conditions that set out the main assumptions for dealing the category of economic security: differences in national interests, restricted public resources, increased goods and production competition, increased individual countries competitiveness, others take into account as a real threat to national interests of the country;

·        state's economic security is a complex socio-economic concept that images changing material production conditions as well as external and internal threats to the country's economy.

            Possible general country's economic security concept, that can be divided into four general fields has been offered by KREMER-MATYSKEVIC and CERNIUS (2019) in their previous research:

1)     Economic development;

2)     Living standard;

3)     Internal threats;

4)     External threats.

            The fifth part of the country's economic security concept which was presented by KREMER-MATYSKEVIC and CERNIUS (2019) is the principles or foundation of economic security.

            Country risk in the context of economic security and sustainability has been measured by SVIDERSKĖ (2015). According to this researcher, every government in each country wants to be economically preserved from any dangers. Economic instruments have long been a component of the government's strategy, meaning that these measures have an influence on other countries and their policies. From a traditional point of view, economic security is safety against other authorities and the manipulation of other powers.

            Referring to REHM et al. (2012), MENDOZA (2019), STANAWAY et al. (2017) some knowledge about economic security concept are presented below:

·        economic security is the main subject in national security, which is one of the resources to ensure a balance between national security;

·        economic security is one of the national, regional and global security factors that aim to economically secure and preserve every individual, community or national economy;

·        the fundamental objective of governments, regional and international organizations is to warrant universal human security;

·        the state's economic conditions are considered as a source and basis for tackling poverty, hunger, social and economic inequalities.

            Economic security risk has been treated from the shadow economy side by BURAK and SIMANAVICIENE (2018). Authors have developed recommendations for minimizing and preventions risk and threats to the state’s economic security:

·        create an effective mechanism for interaction and exchange of information on the issues of counteraction to the laundering of illegally received money, which allows you to make inquiries and receive the necessary information as soon as possible;

·        to improve the system of counteracting money laundering and terrorism financing, expanding the list of subjects of financial monitoring, as well as establishing a single information channel between the relevant state institution.

            Economic security has been stated as a key component of the national security system, which is characterized by the ability of the state's national economy and its regions to ensure stable continuous development and relative protection for both individual and the whole country, in reliance on economic methods by KROMALCAS et al. (2019).

            Based on DADALKO et al. (2017), KREMER-MATYSKEVIC and CERNIUS (2019) shown collected definitions by the different approaches in Table 1.

Table 1: Definitions of economic security

Approach

Description

References

By content and concept

protection individual vital interests, society, the countries and national economic interests

DADALKO et al. (2017)

state of economy, authorities, economic system

economic functioning regime

qualitative characteristics of the economic system

By subject

vital interests

national interests

economic interests

By security mechanism

assurance

without mechanism indication

normative - legal, administrative - organizational, economic, technological, informational, etc.

By depending on the

consequences

dangers and threats

unfavourable external and internal factors

Source: KREMER-MATYSKEVIC, CERNIUS (2019)

            Generalizing all authors' minds – economic security is national security goal that idea is to protect the state from external and internal threats and the same time to maintain the state’s economic development

2.2.            Energy sector and economic security in European context

Although in the recent period, the Energy sector in Europa Union countries is constantly transforming from traditional to climate-neutral, this economic sector still will play the main role in economic development.

After analyzing the European Commission and 8 countries belonging to the Baltic sea region approaches to the energy sector, the authors of the article breakdown energy sector activities into main points and showed it in Figure 2.

The energy sector divides into 5 fields: natural gas, oil and oil products, electricity, and heat sector (heat economy). Since economics science seldom defines fields of the energy sector, it was decided to take as the main definition from the official portals of different energy institutions:

 

 

Figure 2: Energy sector

Source: composed by authors

·        according to the AMERICAN PETROLEUM INSTITUTE (2020) natural gas is made up of a mixture of four naturally occurring gases, all of which have different molecular structures. This mixture consists primarily of methane, ethane, butane, and propane. Natural gas has been considered by MELTON et al. (2015) to be the third-most widely used energy source in the world, accounting for approximately 21 percent of total primary energy demand;

·        explained oil and oil products as the mixtures of hydrocarbons that formed from the remains of animals and plants (diatoms) that lived millions of years ago in a marine environment before the existence of dinosaurs. Over millions of years, the remains of these animals and plants were covered by layers of sand, silt, and rock. Heat and pressure from these layers turned the remains into what we now call crude oil or petroleum. The word petroleum means rock oil or oil from the earth.

·        the same organization - U.S. ENERGY INFORMATION ADMINISTRATION (2020) presents explanation about electricity - is the flow of electrical power or charge. Electricity is both a basic part of nature and one of the most widely used forms of energy. The electricity that all use is a secondary energy source because it is produced by converting primary sources of energy such as coal, natural gas, nuclear energy, solar energy, and wind energy, into electrical power. Electricity is also referred to as an energy carrier, which means it can be converted to other forms of energy such as mechanical energy or heat. Primary energy sources are renewable or nonrenewable energy, but the electricity we use is neither renewable nor nonrenewable;

·        heating (heat) sector is a field of energy economy directly related to heating and hot water generation, transmission, supply and consumption – this explanation is provided by Ministry of Energy of the Republic of Lithuania on its official portal (MINISTRY OF ENERGY OF THE REPUBLIC OF LITHUANIA, 2020). The strategic goal in the heating sector is consistent and balanced renovation (optimisation) of the centralised district heating supply systems, which ensures effective heating consumption, reliable, economically-attractive (competitive) supply and generation, provides a possibility for installation of state-of-the-art and green technologies, using local and renewable energy resources, ensures flexibility of the system and favorable investment climate;

·        renewable energy is energy from sources that are naturally replenishing but flow-limited; renewable resources are virtually inexhaustible in duration but limited in the amount of energy that is available per unit of time (MINISTRY OF ENERGY OF THE REPUBLIC OF LITHUANIA, 2020).

            According to Bhatt and Tao (2020) research efforts on utilizing environmentally friendly renewable alternative sources have gained weighty interest, because of the limited supply of conventional fossil raw materials. As it may be seen from Figure 2, traditional energy has its varieties as renewable energy: natural gas – bio gas; oil products – bio oil; electricity – wind energy, solar power, aerothermal sources, hydropower, hydrothermal and ocean (sea) sources; heat sector – biomass, waste, bio fuels, geothermal sources, and hydrothermal and ocean (sea) sources.

            The research between links of the country's economic security and various economic sectors' is especially rare. Although energy is one of the most important components of a country's economy, the impact of this sector on economic security is a rather complex task due to the different methods of analysis and the approach of scientists.

            The main aim of this article is to reveal the country’s economic security idea and to choose methods for this economic phenomenon evaluation as well as to suggest the method to evaluate the energy sector's impact on this economic phenomenon.

 

 

3.        METHODOLOGY

3.1.            Measures to evaluate energy sector activity

Since the scientific problem is how to evaluate the energy sector and the country's security and what impact the energy sector has on the country's economic security, firstly it needs to select what indicators we have to use to evaluate energy sector activities. Most of the various scientists use energy balance indicators are presented in Table 2. The energy balance describes all the physical flows of energy that are embodied in energy products.

Table 2: Energy balance indicators’ description

Indicator

Indicator description

Source to analyse

Production

Comprises the production of primary energy, i.e. hard coal, lignite, peat, crude oil, NGLs, natural gas, biofuels and waste, nuclear, hydro, geothermal, solar and the heat from heat pumps that is extracted from the ambient environment. Production is calculated after removal of impurities (e.g. sulphur from natural gas).

IEA (2019), World Energy Balances (database)

Imports

Comprise amounts having crossed the national territorial boundaries of the country whether or not customs clearance has taken place.

Exports

Comprise amounts having crossed the national territorial boundaries of the country whether or not customs clearance has taken place.

Total primary energy supply

 

Total primary energy supply (TPES) is made up of production + imports - exports - international marine bunkers - international aviation bunkers ± stock changes. Note, exports, bunkers and stock changes incorporate the algebraic sign directly in the number.

Total final consumption

Equal to the sum of the consumption in the end-use sectors. Energy used for transformation processes and for own use of the energy producing industries is excluded. Final consumption reflects for the most part deliveries to consumers (see note on stock changes).

Electricity, CHP and heat plants

Sum of Electricity plants, CHP plants and heat plants.

plant. Main activity producers generate electricity for sale to third parties, as their primary activity.

Oil refineries, transformation

Positive figures under 'Oil Products' refer to the manufacture of finished oil products. Negative figures for 'Crude, NGL and feedstocks' refer to the refinery inputs.

Transport

Consumption in transport covers all transport activity (in mobile engines) regardless of the economic sector to which it is contributing.

Residential

 

Includes consumption by households, excluding fuels used for transport. Includes households with employed persons.

Commercial and public services

Consumption by commercial and public services

Other final consumption

Includes agriculture/forestry, fishing, non-specified (other) and non-energy use.

Electricity output

Shows the total number of GWh generated by power plants. Contrary to the Energy Statistics, electricity production for hydro pumped storage is excluded within the Energy Balances.

Total CO2 emissions - Fuel Combustion (Mt of CO2)

Total CO2 emissions - Fuel Combustion (Mt of CO2) presents total CO2 emissions from fuel combustion. This includes CO2 emissions from fuel combustion reported in IPCC Source/Sink Category 1 A Fuel Combustion Activities and those which may be reallocated to IPCC Source/Sink Category 2 Industrial Processes and Product Use under the 2006 IPCC Guidelines.

Source: composed by authors

            Nowadays, in the energy policy change from traditional to climate neutral, researchers have mostly used an emission indicator to assess the performance of the energy sector.

            However, the authors of this article would like to provide several examples, how the energy is examined:

- CHU et al. (2020) in their research used the carbon price volatility to the risk management of the CO2 emissions trading market;

- FIGAJ et al. (2020) proposed a hybrid geothermal-solar-wind system that was modelled and simulated by adopted software. Researchers' designed system is managing adequately the thermal energy flows in order to match the thermal energy demand of the user;

- in ARUMÄGI and KALAMEES (2020) analysis detailed energy performance-related costs of the actual solution components compared with the current practice are included, as well as the costs due to operational energy use and renewable energy harvesting are calculated;

- MASIP MACÍA et al. (2019) stated, that the mining industry is characterized by high consumption of energy due to the wide diversity of processes involved, specifically the transportation of ore slurry via pipeline systems;

- An energy usage indicator was used to establish a metric to rank the buildings of each typology according to their energy efficiency in BERNARDO and OLIVEIRA (2018) article.

            Though one of the authors of this research has already analyzed the impact of the energy sector on Lithuania's gross domestic product and suggested to use economic indicators of the energy sector such as energy sector price change (percent), energy sector value-added, the amount of energy sector taxes paid to the budget, the net profitability of the energy sector (MACERINSKIENE; KREMER-MATYSKEVIC, 2017), in this research to evaluate energy sector impact to state’s economic security, it was suggested to use energy balance indicators (excluding CO2 emissions) downloaded from World Energy Balances database (INTERNATIONAL ENERGY AGENCY, 2020).

3.2.            Measures to evaluate country’s economic security

            Given that the representatives of Western countries' economic Science studying economic security at the macro level use a model developed by professor BRIGUGLIo (2015) that reflects economic security, with respect to the vulnerability of the country’s economy and its capacity, as well as the level of resistance (to combat the crisis and to prepare for shock absorption), it was decided to use indicators that may describe this method by a better way.

            Economic vulnerability is assessed by the degree of economic openness, which makes it particularly sensitive to the economic conditions of other countries; dependence on import restrictions; isolation, that leads to high transport costs and distance from the major sale sites, MORKUNAS et al. (2018). As a measures to assess economic vulnerability such indicators like.

            According to ZAVADSKAS et al. (2018) the resilience of the economy is assessed as crisis preparedness: inflation and unemployment rates, government balance, external debt, government spending, and shock absorption level: market efficiency, government efficiency, social and human development, sustainability.

            Figure 3 presents indicators were chosen to measure economic security based on two-level: economic vulnerability and the resilience of the economy.

Figure 3: Economic security indicators

Source: composed by authors

            Reflected the plenty range of scientist research of economic vulnerability authors have made the decision to select the following indicators:

·        Investment/GDP – LAPINSKAITE et al. (2020) believe this rate shows the state’s sustainable economic development;

·        Individual consumption/GDP – according to DAGILIUTE (2008) sustainable production and consumption are one of the main goals for countries economic development;

·        Tax/GDP - Tax analysis shows the effects of tax policy changes on different groups of individuals via the effects on prices and returns to labor and capital (AUERBACH, 2018));

·        Isolation/GDP – the developed logistic system also may predict the state’s economic development and globalization and integration level in the global economy;

·        Export/GDP and Import/GDP rate could describe how much the state’s economy is globalized and not dependent on other countries’ economies. Government consolidated gross debt.

            By authors of this article opinion resilience level can be described by following coefficients:

·        Government efficiency – traditionally this indicator can be shown by Total general government expenditure/GDP rate;

·        Balance of payments – from theoretical background - the balance of payments, also known as balance of international payments, summarizes all transactions that a country's individuals, companies, and government bodies complete with individuals, companies, and government bodies outside the country;

·        Government consolidated gross debt – as Eurostat (EUROPEAN COMMISSION, 2020) explains government debt is defined as total gross debt at nominal value outstanding at the end of the year and consolidated between and within the sectors of general government;

·        R&D – as GALINDO-RUEDA at el. (2018) state investment in research and development is a key driver of innovation and economic growth.

            Thus, the above written indicators from 2.1. and 2.2. section downloaded from World Energy Balance database (INTERNATIONAL ENERGY AGENCY, 2020) and Eurostat database (EUROPEAN COMMISION, 2020), authors use to evaluate energy sector activities' impact on Baltic sea region EU countries’ economic security.

            For getting the result there were done a few steps:

1)     To describe the Baltic sea region in EU context;

2)     To download the data from databases;

3)     To define the period during which the analysis will be performed;

4)     To prepare the data for correlation and regression analysis using SPSS software package;

5)     To present the results of the analysis.

4.        RESULTS

            First of all, it needs to describe what is Baltic sea region EU countries (EUSBSR). Figure 4 shows the map which presents thus countries.

            Accordance to official portal of Baltic sea region strategy the EU member states involved in the EUSBSR are Sweden, Denmark, Estonia, Finland, Germany, Latvia, Lithuania and Poland.

Figure 4: Baltic sea region EU countries’ map

Source: EUSBSR

            Following second step described in 2 section for getting the results of research there were downloaded energy data (13 indicators) from World Energy Balances database (INTERNATIONAL ENERGY AGENCY, 2020). This database lets to analyze data set from 1971 to 2018 years. Data from ten indicators measuring the country’s economic security took from European commission official statistics portal – Eurostat (EUROPEAN COMMISION, 2020). The economic security dataset lets to assess only the 2008-2018 period.

            In this article, the authors evaluate the 2008–2018 years period. There also were prepared data for correlation and regression analyses by coding all indicators:

            Energy sector indicators are independent (X):

·        ENProd- Production;

·        ENImp – Imports;

·        ENExp – Exports;

·        ENSup - Total primary energy supply;

·        ENTips - Electricity, CHP and heat plants;

·        ENOil - Oil refineries, transformation;

·        ENCon - Total final consumption;

·        ENInd – Industry;

·        ENTr – Transport;

·        ENRes – Residential;

·        ENServ - Commercial and public services;

·        ENOther - Other final consumption;

·        ENOut - Electricity output

          Country’s economic security indicators are dependent (Y):

·        ESGd – Government consolidated gross debt;

·        ESIc - Actual individual consumption;

·        ESExp – Export;

·        ESImp – Import;

·        ESLog – Isolation;

·        ESBp - Balance of payments;

·        ESRd – R&D;

·        ESTax - Tax on GDP;

·        ESInv – Investment;

·        ESGex - Total general government expenditure

            Further the result of research is are presented.

            First of all, the authors are preparing data of each country for correlation analysis in the SPSS software package. After revealing the significant links between the Energy sector and Economic security indicators which values are more than 0,7 or less -0,7, this article researcher prepare regression analysis. Firstly, we take into account R square values that show how much percent of data is included in the analysis, second step to check P-value, that shows the significance of links between dependent and independent variables. P-value has to be less than 0.05.

4.1.            Energy sector impact on Denmark economic security

            Denmark energy sector and economic security indicators correlations results are presented in Table 3.

            Correlation analysis (Table 3) shows the results between Independent and Dependent indicators.

            Links color gray are significant and using this data there were done regression analysis (see Table 4).

Table 3: Correlation (Denmark)

Dependent (Y)

ESGd

ESIc

ESExp

ESImp

ESLog

ESBp

ESRd

ESTax

ESInv

ESGex

Independent (X)

ENProd

0.025

0.493

-0.932

-0.947

-0.370

-0.855

-0.622

-0.302

-0.010

0.196

ENImp

0.067

-0.535

0.638

0.592

0.718

0.648

0.251

0.477

0.025

-0.144

ENExp

-0.187

-0.390

0.833

0.880

-0.012

0.666

0.555

0.040

0.118

-0.299

ENSup

-0.055

0.520

-0.818

-0.825

-0.471

-0.767

-0.585

-0.510

-0.009

0.108

ENTips

-0.216

-0.702

0.924

0.938

0.298

0.735

0.607

0.187

0.189

-0.348

ENOil

0.019

-0.192

0.727

0.749

0.191

0.702

0.835

0.016

-0.113

-0.033

ENCon

-0.283

0.289

-0.694

-0.686

-0.545

-0.729

-0.428

-0.708

0.168

-0.115

ENInd

-0.390

0.097

-0.592

-0.592

-0.407

-0.803

-0.627

-0.626

0.381

-0.302

ENTr

-0.433

0.114

-0.723

-0.695

-0.540

-0.816

-0.452

-0.611

0.394

-0.310

ENRes

-0.094

0.336

-0.426

-0.424

-0.459

-0.295

-0.053

-0.627

-0.137

0.098

ENServ

-0.270

0.334

-0.391

-0.385

-0.598

-0.452

-0.151

-0.699

0.080

-0.061

ENOther

0.358

0.666

-0.830

-0.857

-0.192

-0.650

-0.561

-0.286

-0.356

0.474

ENOut

0.209

0.699

-0.837

-0.842

-0.276

-0.583

-0.580

-0.202

-0.241

0.288

Source: composed by authors

            Correlation analysis (Table 3) shows the results between Independent and Dependent indicators.

            Links color gray are significant and using this data there were done regression analysis (see Table 4).

            Reflecting on Table 4 results, the demonstrated regression model formed correct – R square column shows above 50 percent of the included data.

            However, facts that correlations (see Table 3) present significant links, regression analysis shows that in Denmark only 2 economic security indicators – Isolation and Taxes are dependent on the energy sector’s indicators Imports and Total final consumption. Import has positive impact on Isolation, Taxes – negative on Consumption.

 

4.2.            Energy sector impact on Germany economic security

            As in Denmark's case, it was done correlation analysis using Germany dataset. Germany energy sector and economic security indicators correlations results are presented in Table 5.

            Links color gray are significant and using this data there were done regression analysis (see Table 6).

            To follow the result in Table 6 it can be stated that Germany’s Government consolidated gross debt depending on Import in the Energy sector.

            Energy production directly influences Actual individual consumption, Electricity output makes impact on Export, Energy supply – Economic Isolation, and Industry – Investment.

Table 4: Regression (Denmark)

Dependent variable

Independent variable

R

R Square

t

Sig.

Comment

ESExp

ENProd

0.982

0.964

-1.168

0.363

P>0.05

ENExp

-0.010

0.993

P>0.05

ENSup

1.068

0.397

P>0.05

ENTips

0.554

0.635

P>0.05

ENOil

-1.436

0.288

P>0.05

ENTr

-0.528

0.650

P>0.05

ENOther

0.589

0.616

P>0.05

ENOut

-0.349

0.760

P>0.05

ESImp

ENProd

0.983

0.966

-2.260

0.073

P>0.05

ENExp

2.033

0.098

P>0.05

ENTips

2.434

0.059

P>0.05

ENOil

-1.879

0.119

P>0.05

ENOther

1.877

0.119

P>0.05

ESLog

ENImp

0.718

0.516

3.096

0.013

P<0.05

ESBp

ENProd

0.919

0.845

-1.099

0.352

P>0.05

ENSup

-0.177

0.871

P>0.05

ENTips

-0.169

0.877

P>0.05

ENOil

-0.840

0.462

P>0.05

ENCon

0.483

0.662

P>0.05

ENInd

-0.613

0.583

P>0.05

ENTr

-0.463

0.675

P>0.05

ESTax

ENCon

0.708

0.501

-3.006

0.015

P<0.05

Source: composed by authors

 

 

Table 5: Correlation (Germany)

Dependent (Y)

ESGd

ESIc

ESExp

ESImp

ESLog

ESBp

ESRd

ESTax

ESInv

ESGex

Independent (X)

ENProd

0.402

-0.862

-0.951

-0.814

0.711

-0.776

-0.968

-0.751

-0.620

0.473

ENImp

-0.717

0.209

0.666

0.500

0.022

0.565

0.572

0.668

0.531

-0.560

ENExp

0.688

-0.407

-0.848

-0.640

0.361

-0.763

-0.791

-0.743

-0.558

0.575

ENSup

0.234

-0.727

-0.699

-0.593

0.898

-0.595

-0.789

-0.571

-0.424

0.259

ENTips

-0.450

0.801

0.947

0.793

-0.697

0.794

0.981

0.761

0.623

-0.466

ENOil

0.363

0.720

0.435

0.313

-0.680

0.392

0.534

0.062

-0.127

0.272

ENCon

-0.322

-0.085

0.208

0.202

0.351

-0.005

0.152

0.235

0.362

-0.105

ENInd

-0.227

0.051

0.500

0.640

0.165

0.330

0.335

0.119

0.730

-0.684

ENTr

-0.697

0.575

0.915

0.707**

-0.367

0.779

0.879

0.811

0.695

-0.588

ENRes

0.168

-0.481

-0.611

-0.560

0.575

-0.661

-0.572

-0.280

-0.379

0.575

ENServ

-0.183

0.043

0.299

0.160

0.076

0.258

0.235

0.220

0.010

0.008

ENOther

-0.307

-0.062

0.152

0.276

0.174

-0.254

0.193

0.147

0.567

-0.117

ENOut

-0.508

0.212

0.708

0.636

0.012

0.640

0.558

0.506

0.605

-0.663

Source: composed by authors

Table 6: Regression (Germany)

Dependent variable

Independent variable

R

R Square

t

Sig.

Comment

ESGd

ENImp

0.717

0.513

-3.082

0.013

P<0.05

ESIc

ENProd

0.940

0.884

-2.546

0.044

P<0.05

ENSup

0.392

0.708

P>0.05

ENTips

-1.496

0.185

P>0.05

ENOil

2.301

0.061

P>0.05

ESExp

ENProd

0.994

0.988

-2.338

0.067

P>0.05

ENExp

-0.976

0.374

P>0.05

ENTips

1.450

0.207

P>0.05

ENTr

-1.913

0.114

P>0.05

ENOut

3.743

0.013

P<0.05

ESImp

ENProd

0.814

0.663

-0.847

0.425

P>0.05

ENTips

-0.031

0.976

P>0.05

ENTr

-0.011

0.991

P>0.05

ESLog

ENProd

0.899

0.808

-0.274

0.791

P>0.05

ENSup

3.545

0.008

P<0.05

ESBp

ENProd

0.829

0.687

-0.308

0.768

P>0.05

ENExp

-0.775

0.468

P>0.05

ENTips

0.188

0.857

P>0.05

ENTr

-0.201

0.847

P>0.05

ESRd

ENProd

0.984

0.969

-0.891

0.414

P>0.05

ENExp

-0.781

0.470

P>0.05

ENSup

0.285

0.787

P>0.05

ENTips

1.621

0.166

P>0.05

ENTr

-0.569

0.594

P>0.05

ESTax

ENProd

0.816

0.666

-0.147

0.888

P>0.05

ENExp

-0.113

0.914

P>0.05

ENTips

0.032

0.975

P>0.05

ENTr

0.651

0.539

P>0.05

ESInv

ENInd

0.730

0.532

3.200

0.011

P<0.05

Source: composed by authors

4.3.            Energy sector impact on Estonian economic security

            Correlation analysis was done also with the Estonian dataset. The results are presenting in Table 7. Significant links between Energy sector indicators and country’s economic security indicators are colored grey. Referring link in Table 7, authors prepared regression analysis (see Table 8). Eight from ten economic security indicators are significantly dependent on various indicators describing the energy sector in Estonia (see Table 8).

Table 7: Correlation (Estonia)

Dependent (Y)

ESGd

ESIc

ESExp

ESImp

ESLog

ESBp

ESRd

ESTax

ESInv

ESGex

Independent (X)

ENProd

0.712

0.768

0.855

0.845

-0.760

0.491

0.004

-0.158

-0.150

-0.597

ENImp

0.732

0.646

0.651

0.716

-0.694

-0.044

-0.074

-0.144

0.280

-0.279

ENExp

-0.797

-0.886

-0.792

-0.802

0.920

-0.429

0.169

-0.060

0.157

0.378

ENSup

0.450

0.462

0.656

0.649

-0.427

0.031

0.038

-0.474

0.165

-0.772

ENTips

0.100

0.245

-0.194

-0.164

-0.329

0.083

-0.315

0.581

-0.109

0.549

ENCon

-0.530

-0.114

-0.149

-0.088

0.257

-0.868

-0.206

-0.522

0.673

-0.152

ENInd

-0.567

-0.603

-0.321

-0.267

0.667

-0.806

0.254

-0.624

0.711

-0.143

ENTr

-0.055

0.710

0.473

0.487

-0.591

-0.195

-0.362

-0.170

0.162

-0.345

ENRes

-0.511

-0.487

-0.379

-0.455

0.608

-0.092

0.145

0.086

-0.177

0.367

ENServ

0.513

0.820

0.327

0.363

-0.888

0.245

-0.681

0.365

-0.289

-0.107

ENOther

0.035

0.470

0.143

0.240

-0.385

-0.540

-0.556

-0.281

0.562

-0.173

ENOut

0.263

0.290

0.687

0.628

-0.213

0.195

0.323

-0.532

0.023

-0.764

Source: composed by authors

Table 8: Regression (Estonia)

Dependent variable

Independent variable

R

R Square

t

Sig.

Comment

ESGd

ENProd

0.824

0.679

0.631

0.548

P>0.05

ENImp

0.967

0.366

P>0.05

ENExp

-0.310

0.766

P>0.05

ESIc

ENProd

0.954

0.911

0.638

0.552

P>0.05

ENImp

0.189

0.858

P>0.05

ENExp

-0.383

0.717

P>0.05

ENTr

1.731

0.144

P>0.05

ENServ

1.006

0.361

P>0.05

ESExp

ENProd

0.912

0.832

2.689

0.031

P<0.05

ENImp

2.037

0.081

P>0.05

ENExp

1.028

0.338

P>0.05

ESImp

ENProd

0.971

0.942

2.689

0.031

P<0.05

ENImp

2.037

0.081

P>0.05

ENExp

1.028

0.338

P>0.05

ESLog

ENProd

0.971

0.942

-0.631

0.548

P>0.05

ENExp

1.674

0.138

P>0.05

ENServ

-3.307

0.013

P<0.05

ESBp

ENCon

0.902

0.813

-2.643

0.030

P<0.05

ENInd

-1.585

0.152

P>0.05

ESInv

ENInd

0.711

0.506

3.036

0.014

P<0.05

ESGex

ENSup

0.772

0.595

-3.638

0.005

P<0.05

Source: composed by authors

            Export and Import are depending on Energy production, energy sector’s indicator - Commercial and public services do impact on Isolation, energy Consumption influences balance of payments, Industry effects on Investment, and Total primary energy supply directly powers to Total general government expenditure.

4.4.            Energy sector impact on Latvian economic security

The authors have done correlation analysis with the Latvian dataset. Correlation results are presenting in Table 9.

Table 9: Correlation (Latvia)

Dependent (Y)

ESGd

ESIc

ESExp

ESImp

ESLog

ESBp

ESRd

ESTax

ESInv

ESGex

Independent (X)

ENProd

0.277

0.765

0.643

0.515

-0.499

0.322

-0.022

0.867

-0.435

-0.389

ENImp

0.094

0.650

0.598

0.544

-0.227

0.130

-0.048

0.659

-0.223

-0.604

ENExp

-0.334

-0.761

-0.702

-0.577

0.485

-0.242

-0.022

-0.917

0.521

0.549

ENSup

-0.419

0.172

0.023

-0.028

-0.235

-0.244

0.069

-0.053

0.422

0.202

ENTips

-0.150

-0.589

-0.569

-0.493

0.396

0.028

-0.019

-0.686

0.321

0.608

ENCon

-0.470

-0.283

-0.408

-0.361

0.000

-0.274

-0.073

-0.464

0.561

0.408

ENInd

0.544

0.415

0.803

0.781

0.017

-0.062

0.525

0.572

-0.347

-0.389

ENTr

-0.648

0.141

-0.335

-0.455

-0.620

-0.205

-0.364

0.041

0.328

0.137

ENRes

-0.241

-0.710

-0.683

-0.549

0.481

-0.030

-0.085

-0.867

0.442

0.627

ENServ

-0.203

0.462

0.436

0.488

-0.287

-0.375

0.117

0.354

0.338

-0.422

ENOther

-0.051

0.894

0.762

0.626

-0.618

-0.178

0.009

0.907

-0.157

-0.737

ENOut

0.406

0.311

0.305

0.167

-0.434

0.316

-0.230

0.555

-0.511

0.040

Source: composed by authors

            Significant links between Latvian Energy sector indicators and country’s economic security indicators also are colored grey. In accordance with to correlation results presented in Table 9, the authors did regression analysis and put it to Table 10.

Table 10: Regression (Latvia)

Dependent variable

Independent variable

R

R Square

t

Sig.

Comment

ESIc

ENProd

0.931

0.867

0.027

0.979

P>0.05

ENExp

-0.470

0.655

P>0.05

ENRes

0.835

0.436

P>0.05

ENOther

2.862

0.029

P<0.05

ESExp

ENExp

0.896

0.803

0.523

0.617

P>0.05

ENInd

2.707

0.030

P<0.05

ENOther

1.941

0.093

P>0.05

ESImp

ENInd

0.781

0.609

3.746

0.005

P<0.05

ESTax

ENProd

0.965

0.931

0.883

0.411

P>0.05

ENExp

-0.016

0.988

P>0.05

ENRes

-0.295

0.778

P>0.05

ENOther

1.558

0.170

P>0.05

ESGex

ENOther

0.737

0.542

-3.266

0.010

P<0.05

Source: composed by authors

            Estonian economic security indicator Actual individual consumption is depending on Energy other consumption, Export and Import are influenced by energy Industry, and energy other consumption does impact on Total general government expenditure, which is the country’s economic security indicator.

4.5.            Energy sector impact on Lithuanian economic security

            Lithuanian energy sector and economic security indicators correlations results are presented in Table 11.

Table 11: Correlation (Lithuania)

Dependent (Y)

ESGd

ESIc

ESExp

ESImp

ESLog

ESBp

ESRd

ESTax

ESInv

ESGex

Independent (X)

ENProd

-0.833

-0.256

-0.714

-0.697

-0.540

-0.391

-0.478

0.683

0.498

0.421

ENImp

0.405

0.582

0.545

0.446

0.305

-0.118

0.121

-0.066

0.085

-0.580

ENExp

-0.380

-0.527

-0.229

-0.105

0.139

0.006

-0.093

-0.103

-0.056

0.504

ENSup

-0.947

-0.149

-0.520

-0.497

-0.307

-0.625

-0.556

0.699

0.685

0.324

ENTips

0.855

0.496

0.749

0.672

0.439

0.441

0.566

-0.536

-0.402

-0.600

ENOil

0.303

0.660

0.025

-0.185

-0.134

0.112

0.352

0.503

0.121

-0.478

ENCon

-0.020

0.815

0.553

0.406

0.201

-0.320

0.171

0.285

0.553

-0.728

ENInd

0.272

0.633

0.913

0.859

0.396

-0.057

0.401

-0.328

0.192

-0.751

ENTr

-0.006

0.883

0.211

-0.006

-0.140

-0.130

0.140

0.594

0.541

-0.726

ENRes

-0.556

-0.682

-0.482

-0.301

0.216

-0.273

-0.819

0.052

-0.077

0.773

ENServ

-0.131

0.612

0.215

0.129

0.156

0.010

-0.282

0.375

0.216

-0.403

ENOther

0.107

0.663

0.722

0.620

0.308

-0.358

0.398

-0.015

0.455

-0.675

ENOut

-0.835

-0.504

-0.753

-0.676

-0.469

-0.431

-0.552

0.521

0.389

0.593

Source: composed by authors

            Strong correlations between the Lithuanian energy sector and economic security indicators were colored grey. Based on these figures the authors prepared regression analysis shown in Table 12.

Table 12: Regression (Lithuania)

Dependent variable

Independent variable

R

R Square

t

Sig.

Comment

ESGd

ENProd

0.970

0.941

1.420

0.206

P>0.05

ENSup

-3.008

0.024

P<0.05

ENTips

1.014

0.350

P>0.05

ENOut

0.760

0.476

P>0.05

ESIc

ENCon

0.893

0.798

0.851

0.419

P>0.05

ENTr

2.300

0.050

P<0.05

ESExp

ENProd

0.953

0.908

-1.034

0.348

P>0.05

ENTips

0.461

0.664

P>0.05

ENInd

2.422

0.060

P>0.05

ENOther

0.385

0.716

P>0.05

ENOut

0.572

0.592

P>0.05

ESImp

ENInd

0.859

0.737

5.022

0.001

P<0.05

ESRd

ENRes

0.819

0.671

-4.280

0.002

P<0.05

ESGex

ENCon

0.96

0.922

1.440

0.200

P>0.05

ENInd

-2.966

0.025

P<0.05

ENTr

-2.081

0.083

P>0.05

ENRes

2.022

0.090

P>0.05

Source: composed by authors

            Government consolidated gross debt in Lithuania is powered by Total primary energy supply, and energy sector indicator Transport influences on Actual individual consumption.

            Economic security indicators Import and Total general government expenditure are strongly depending on Energy Industry, Research and development – on Residential.

4.6.            Energy sector impact on Poland economic security

            Table 13 contains correlations results between Poland energy sector and economic security indicators.

Table 13: Correlation (Poland)

Dependent (Y)

ESGd

ESIc

ESExp

ESImp

ESLog

ESBp

ESRd

ESTax

ESInv

ESGex

Independent (X)

ENProd

0.311

-0.409

-0.459

-0.370

-0.151

-0.492

-0.646

-0.498

0.555

0.364

ENImp

-0.168

0.794

0.829

0.775

0.452

0.584

0.842

0.753

-0.704

-0.640

ENExp

-0.410

-0.314

-0.590

-0.572

-0.628

-0.755

-0.589

-0.109

0.603

0.730

ENSup

-0.017

0.709

0.573

0.542

0.426

0.176

0.448

0.637

-0.505

-0.249

ENTips

-0.362

0.326

0.507

0.418

0.247

0.774

0.730

0.579

-0.630

-0.686

ENOil

-0.469

-0.155

-0.061

-0.184

-0.041

0.337

0.160

0.316

-0.069

-0.187

ENCon

-0.049

0.688

0.671

0.614

0.473

0.445

0.643

0.676

-0.701

-0.447

ENInd

-0.181

0.874

0.879

0.841

0.680

0.651

0.805

0.841

-0.721

-0.771

ENTr

-0.186

0.647

0.681

0.613

0.431

0.529

0.702

0.722

-0.688

-0.544

ENRes

0.428

-0.104

-0.265

-0.242

-0.132

-0.414

-0.319

-0.314

0.001

0.596

ENServ

0.553

-0.155

-0.207

-0.212

-0.105

-0.355

-0.273

-0.269

-0.070

0.438

ENOther

-0.275

0.773

0.794

0.725

0.548

0.605

0.770

0.845

-0.655

-0.686

ENOut

0.250

0.787

0.941

0.910

0.787

0.746

0.848

0.585

-0.842

-0.811

Source: composed by authors

            Following the same examination structure that was done with other countries, the authors supplied regression analysis results in Table 14.

            Although Table 13 shows a lot of significant correlations, regression analysis presents several significant dependencies between the Energy sector and economic security indicators in Poland.

            So, Import, Export, Isolation, R&D are influenced by Electricity output, Balance of payments are depending on energy Export and Electricity, CHP and heat plants.

            Electricity, CHP and heat plants also make an impact on R&D, as well as energy Export makes the force on Total general government expenditure.

 

 

 

 

Table 14: Regression (Poland)

Dependent variable

Independent variable

R

R Square

t

Sig.

Comment

ESIc

ENImp

0.906

0.820

0.297

0.779

P>0.05

ENSup

0.562

0.599

P>0.05

ENInd

1.873

0.120

P>0.05

ENOther

-1.087

0.327

P>0.05

ENOut

0.115

0.913

P>0.05

ESExp

ENImp

0.959

0.919

0.673

0.526

P>0.05

ENInd

1.385

0.215

P>0.05

ENOther

-1.186

0.280

P>0.05

ENOut

2.753

0.033

P<0.05

ESImp

ENImp

0.917

0.841

-0.373

0.720

P>0.05

ENInd

0.741

0.483

P>0.05

ENOut

2.422

0.046

P<0.05

ESLog

ENOut

0.787

0.619

3.821

0.004

P<0.05

ESBp

ENExp

0.943

0.889

-2.596

0.036

P<0.05

ENTips

3.285

0.013

P<0.05

ENOut

1.754

0.123

P>0.05

ESRd

ENImp

0.986

0.973

3.766

0.020

P<0.05

ENTips

4.464

0.011

P<0.05

ENInd

-0.283

0.791

P>0.05

ENTr

-2.524

0.065

P>0.05

ENOther

-1.252

0.279

P>0.05

ENOut

3.333

0.029

P<0.05

ESTax

ENImp

0.873

0.762

-0.336

0.749

P>0.05

ENInd

0.547

0.604

P>0.05

ENTr

-0.476

0.651

P>0.05

ENOther

1.152

0.293

P>0.05

ESInv

ENImp

0.779

0.607

-0.191

0.855

P>0.05

ENInd

-1.252

0.257

P>0.05

ENTr

-0.760

0.476

P>0.05

ENOther

1.036

0.340

P>0.05

ESGex

ENExp

0.911

0.829

2.515

0.040

P<0.05

ENInd

-1.644

0.144

P>0.05

ENOut

-0.111

0.914

P>0.05

Source: composed by authors

4.7.            Energy sector impact on Finland economic security

            This article’s author present Finland energy sector and economic security indicators correlations results in Table 15.

            Finland dataset correlations results in Table 15 presented not a lot of significant links, even so, authors have done regression analysis which results are shown in Table 16.

 

 

 

 

 

Table 15: Correlation (Finland)

Dependent (Y)

ESGd

ESIc

ESExp

ESImp

ESLog

ESBp

ESRd

ESTax

ESInv

ESGex

Independent (X)

ENProd

0.756

0.602

0.757

0.633

-0.221

-0.637

-0.723

0.551

-0.147

0.431

ENImp

-0.578

-0.157

-0.249

-0.088

0.184

0.293

0.543

-0.319

0.183

-0.343

ENExp

-0.707

-0.744

-0.574

-0.514

0.303

0.704

0.681

-0.752

0.146

-0.484

ENSup

-0.598

-0.424

-0.192

-0.081

0.518

0.443

0.597

-0.680

0.311

-0.518

ENTips

0.659

0.270

0.450

0.276

-0.073

-0.472

-0.901

0.609

0.147

0.150

ENOil

0.589

0.427

0.743

0.670

-0.468

-0.537

-0.638

0.647

-0.159

0.291

ENCon

-0.082

-0.168

0.186

0.176

0.529

0.101

-0.058

-0.204

0.368

-0.379

ENInd

-0.125

-0.263

0.311

0.282

0.460

0.061

-0.185

-0.063

0.475

-0.589

ENTr

-0.623

-0.346

-0.091

0.029

0.523

0.338

0.584

-0.673

0.469

-0.614

ENRes

-0.107

-0.035

-0.147

-0.099

0.317

0.148

0.311

-0.437

0.066

0.042

ENServ

0.192

0.383

0.206

0.260

-0.004

-0.217

0.142

-0.168

-0.110

0.359

ENOther

0.346

0.036

-0.043

-0.164

0.021

-0.009

-0.534

0.476

-0.159

0.166

ENOut

-0.778

-0.647

-0.462

-0.355

0.550

0.698

0.752

-0.822

0.278

-0.587

Source: composed by authors

            Finland dataset correlations results in Table 15 presented not a lot of significant links, even so, authors have done regression analysis which results are shown in Table 16.

Table 16: Regression (Finland)

Dependent variable

Independent variable

R

R Square

t

Sig.

Comment

ESGd

ENProd

0.887

0.786

1.776

0.119

P>0.05

ENExp

-0.224

0.829

P>0.05

ENOut

-2.303

0.055

P>0.05

ESIc

ENExp

0.744

0.554

-3.344

0.009

P<0.05

ESExp

ENProd

0.837

0.700

1.985

0.082

P>0.05

ENOil

1.847

0.102

P>0.05

ESRd

ENProd

0.941

0.885

-2.056

0.079

P>0.05

ENTips

-3.109

0.017

P<0.05

ENOut

0.176

0.865

P>0.05

ESTax

ENExp

0.88

0.775

-1.872

0.098

P>0.05

ENOut

-2.726

0.026

P<0.05

Source: composed by authors

            Finland energy Export indicator impacts on Actual individual consumption, CHP and heat plants. Electricity directly links with R&D, and Tax indicator is depending on Electricity output.

4.8.            Energy sector impact on Sweden economic security

            As in other 7 countries’ case in this reaserch, it was done correlation analysis using Sweden dataset.

            Sweden energy sector and economic security indicators correlations results are presented in Table 17.

 

 

Table 17: Correlation (Sweden)

Dependent (Y)

ESGd

ESIc

ESExp

ESImp

ESLog

ESBp

ESRd

ESTax

ESInv

ESGex

Independent (X)

ENProd

0.083

0.678

0.877

0.895

-0.441

-0.583

-0.208

-0.033

0.446

-0.479

ENImp

-0.050

-0.193

0.197

0.243

0.230

-0.530

0.113

0.566

0.753

-0.781

ENExp

-0.265

-0.084

-0.506

-0.577

0.214

0.837

-0.042

-0.435

-0.754

0.687

ENSup

-0.591

0.370

0.289

0.232

0.038

0.222

-0.168

-0.144

-0.046

-0.141

ENTips

0.076

-0.513

-0.697

-0.730

0.185

0.384

0.038

-0.083

-0.452

0.221

ENOil

0.349

-0.100

-0.064

-0.047

-0.179

-0.336

-0.370

-0.227

-0.128

-0.022

ENCon

-0.569

-0.118

0.105

0.077

0.171

-0.092

0.042

0.287

0.304

-0.478

ENInd

-0.700

-0.046

-0.065

-0.158

0.405

0.559

0.021

-0.173

-0.090

-0.273

ENTr

0.088

-0.233

0.221

0.309

0.138

-0.694

0.254

0.697

0.869

-0.692

ENRes

-0.341

0.496

0.511

0.445

-0.622

-0.318

-0.508

-0.341

-0.219

-0.163

ENServ

-0.206

-0.393

-0.492

-0.527

0.289

0.203

-0.056

0.260

-0.193

0.032

ENOther

-0.493

-0.542

-0.275

-0.238

0.643

0.169

0.596

0.674

0.536

-0.211

ENOut

0.079

0.607

0.843

0.844

-0.455

-0.537

-0.201

-0.122

0.413

-0.584

Source: composed by authors

                It may seem that the energy sector indicators make a lack of impact on the country’s economic security factors.

            Having a little amount of significance, the authors of this article still decided to prepare a regression analysis declared in Table 18.

Table 18: Regression (Sweden)

Dependent variable

Independent variable

R

R Square

t

Sig.

Comment

ESExp

ENProd

0.883

0.780

1.587

0.151

P>0.05

ENOut

0.632

0.545

P>0.05

ESImp

ENProd

0.898

0.806

0.449

0.667

P>0.05

ENTips

-0.166

0.873

P>0.05

ENOut

0.345

0.740

P>0.05

ESBp

ENExp

0.837

0.701

4.590

0.001

P<0.05

ESInv

ENTr

0.869

0.754

5.259

0.001

P<0.05

Source: composed by authors

            From Table 18 it is understood that the Balances of payments in Sweden is depending on the energy sector Export indicator, and Investment is powered by Transport.

 

 

 

 

 

 

Table 19: Energy sector impact on Baltic sea region EU countries’ economic security

Independent variable

Dependent variable

t

Sig.

Comment

Country

ENCon

ESBp

-2.643

0.030

P<0.05

Estonia

ESTax

-3.006

0.015

P<0.05

Denmark

ENExp

ESBp

-2.596

0.036

P<0.05

Poland

ESBp

4.590

0.001

P<0.05

Sweden

ESGex

2.515

0.040

P<0.05

Poland

ESIc

-3.344

0.009

P<0.05

Finland

ENImp

ESGd

-3.082

0.013

P<0.05

Germany

ESLog

3.096

0.013

P<0.05

Denmark

ESRd

3.766

0.020

P<0.05

Poland

ENInd

ESExp

2.707

0.030

P<0.05

Latvia

ESGex

-2.966

0.025

P<0.05

Lithuania

ESImp

3.746

0.005

P<0.05

Latvia

ESImp

5.022

0.001

P<0.05

Lithuania

ESInv

3.200

0.011

P<0.05

Germany

ESInv

3.036

0.014

P<0.05

Estonia

ENOther

ESGex

-3.266

0.010

P<0.05

Latvia

ESIc

2.862

0.029

P<0.05

Latvia

ENOut

ESExp

3.743

0.013

P<0.05

Germany

ESExp

2.753

0.033

P<0.05

Poland

ESImp

2.422

0.046

P<0.05

Poland

ESLog

3.821

0.004

P<0.05

Poland

ESRd

3.333

0.029

P<0.05

Poland

ESTax

-2.726

0.026

P<0.05

Finland

ENProd

ESExp

2.689

0.031

P<0.05

Estonia

ESIc

-2.546

0.044

P<0.05

Germany

ESImp

2.689

0.031

P<0.05

Estonia

ENRes

ESRd

-4.280

0.002

P<0.05

Lithuania

ENServ

ESLog

-3.307

0.013

P<0.05

Estonia

ENSup

ESGd

-3.008

0.024

P<0.05

Lithuania

ESGex

-3.638

0.005

P<0.05

Estonia

ESLog

3.545

0.008

P<0.05

Germany

ENTips

ESBp

3.285

0.013

P<0.05

Poland

ESRd

4.464

0.011

P<0.05

Poland

ESRd

-3.109

0.017

P<0.05

Finland

ENTr

ESIc

2.300

0.050

P<0.05

Lithuania

ESInv

5.259

0.001

P<0.05

Sweden

Source: composed by authors

            Table 19 shows energy sector indicators that influence economic security indicators in the Baltic sea region EU states. To conclude the results in this table it can be stated that most often countries' economic security factors are depended on Energy Export, Industry, Electricity output. Energy Import and Production have a pretty significant role in forming economic security.

            Following eight countries' analysis results, the authors suggest not limited Lino Briguglio developed system indicators but to broaden research including indexes from the other economic schools.

 

5.        CONCLUSIONS

            The authors have done reviewing economic security literature. Different approaches to economic security principles let to do some assumptions related to the country's economic security concept. Firstly, the country's economic security cannot be separated from other factors of the state’s security dimensions such as political and military, economic, and human rights issues. Second, economic security at the macroeconomic level can be shown from the prism of external threats, suchlike countries’ dependency on energy resources, poverty, unemployment, migration, and corruption.

            Also, the authors have described the energy sector creating the general structure to reveal this sector's main activities as well as selected indicators that analyze energy sector.

            To analyze the economic security at the macro level this article authors use BRIGULIO proposed method into two-level: economic vulnerability and resilience level. The authors have decided to use indicators that may describe this method in a better way.

            Using the Baltic sea region EU states' datasets that include the indicators measuring the energy sector and the country's economic security, the authors have prepared correlation and regression analysis. The research has covered a period of 11 years (from 2008 - 2018 years) and applied for each EU country of the Baltic sea region. The results of the research were presented in Tables 3-19, as well as briefly declared in third article part. The main conclusion of research results is that most often countries' economic security factors are dependent on Energy Export, Industry, Electricity output. Energy Import and Production have a pretty significant role in forming economic security, too.

            This research could serve as a basis for further SWOT and PEST analysis.

 

 

 

 

 

 

 

 

 

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