Microsoft Word - ETASR_V11_N5_pp7564-7570 Engineering, Technology & Applied Science Research Vol. 11, No. 5, 2021, 7564-7570 7564 www.etasr.com Samreen et al.: Exploring the Relationship between Foreign Investments and Carbon Emission … Exploring the Relationship between Foreign Investments and Carbon Emission: A Bound Test Analysis for Pakistan Hina Samreen Department of Mathematics and Statistics Institute of Business Management Karachi, Pakistan hina.samreen@iobm.edu.pk Shahida Wizarat Department of Economics Institute of Business Management Karachi, Pakistan shahida.wizarat@iobm.edu.pk Zafar Mehdi Department of Management & HR Institute of Business Management Karachi, Pakistan zafar.mehdi@iobm.edu.pk Rizwan Ahmed Department of Mathematics and Statistics Institute of Business Management Karachi, Pakistan rizwan.ahmed@iobm.edu.pk AbstractIn this study, the theoretical and empirical effects of foreign investment, openness to trade, urbanization, and economic development on carbon dioxide emission levels (CO2) in Pakistan were examined. Annual time series for 38 years 1970- 2018 were utilized. The Auto Regressive Distributed Lag (ARDL) bound test has been used to estimate the model which indicates the presence of cointegration among the variables. Long-run and short-run relationships were observed between Foreign Direct Investment (FDI) and CO2 emission levels revealing that increase in FDI results in increased CO2 emission levels contributing to environmental degradation. This endorses the theory of Pollution Haven Hypothesis (PHH) in the case of Pakistan. To achieve the goal of sustainable economic development, it is imperative to consider the possible negative effects of foreign investment on the environment. The study suggests limiting CO2 emissions by adopting more advanced low carbon technologies to ensure growth and a sustainable environment. Strict implementation of environmental laws for foreign and domestic firms both by defining CO2 emission limits, installation of proper waste management plants, and imposing a pollution tax are crucial steps for the improvement of environmental quality. Keywords-FDI; Pakistan; CO2; emissions; environment; bound test; PHH I. INTRODUCTION Environmental pollution, climatic change, and global- warming are some of the most concerned topics in scientific research. The last century witnessed a significant change in climate as revealed by different indicators. It is reported that there is a 0.41° increase in average recorded global temperature from 1998 to 2007 as compared to the 1961 to 1990 period [1]. This weather change is a big ecological issue that has caught the attention of researchers, policy makers, international institutions, and environmentalists. According to the Intergovernmental Panel for Climate Change (IPCC), increased human activity due to the economic liberalization and industrialization has warmed the earth by 1° centigrade since the pre-industrialization era. Furthermore, the IPCC 2018 reported that the effects of global warming have been felt in many parts of the world. Nonetheless, they are not spread consistently over the globe, with different areas experiencing the impacts unexpectedly and unevenly. Among various effects, it is resulting in heavy rainfall in certain areas, especially in the high latitudes of the Northern Hemisphere, raising the risk of flooding. Further increase in global warming may aggravate the situation due to the rapid melting of glaciers, the liquefication of ice masses, and, consequently, the rising of the sea level [2]. Carbon dioxide (CO2) emerges as a main contributor to global warming [3]. CO2 diffuses into the environment through the extraction, refining, and consumption of petroleum products and fossil fuels. There are several factors which have contributed to the rise in temperature over the last century and energy demand is one of them. A rapidly growing economy has huge energy requirements for power generation, transportation, and industrial production. Because of the onset of globalization in the early 1990s, free capital inflows along with the increase in international trade intensified the movement of foreign investment in less developed countries in various sectors [4]. There is substantial evidence that Foreign Direct Investment (FDI) enhances the productivity of host countries and promotes economic growth. Foreign investment brings capital, technology, and skill development and provides access to new markets and greater opportunities to exports [5]. The industrial sector is a key sector of an economy, vastly contributing to economic growth. Foreign resource mobilization is crucial for industrial production and growth [6]. Corresponding author: Hina Samreen Engineering, Technology & Applied Science Research Vol. 11, No. 5, 2021, 7564-7570 7565 www.etasr.com Samreen et al.: Exploring the Relationship between Foreign Investments and Carbon Emission … The existing literature on FDI and CO2 emissions adopts two different approaches. The Pollution Haven theory, which is the major focus of attention in this study, has a hypothesis referred to as "Pollution Haven Hypothesis" (PHH) stating that foreign investment moves towards countries with poor environmental laws and conditions and less environmental taxes. The hypothesis explains that Multi-National Corporations (MNCs) relocate the industries which are more pollution intensive in nature to Less Developed Countries (LDCs) with flexible environmental regulations to avoid high environmental costs in terms of environmental taxes. This results in increasing pollution level in the host country thus becoming a pollution haven [7]. The environmental quality is critical for human health. Poor environmental conditions pose a serious risk to human wellbeing in various ways [8]. According to the World Health Organization (WHO) Global Health Observatory, poor environmental quality causes roughly 200 deaths per 100,000 people in Pakistan. Indoor air pollution induced by residential biomass fuel combustion causes about 30 deaths per 100,000 people, whereas outdoor pollution causes around 25 deaths per 100,000 people. Rapid increase in population growth, number of vehicles, unplanned and rapid urbanization, and industrialization cause air pollution, particularly Particulate Matter (PM) pollution. Traffic congestion, open air combustion of untreated solid waste, and improper management of construction and demolition waste are the main sources of air pollution in urban areas [9]. Considering the importance of foreign investment in development, growth, and prosperity, the objective of the current study is to explore if the FDI is a possible major cause of environmental degradation, and if so, ways to design a policy framework that is sustainable for economic development with minimum hazards for the environment. Numerous empirical researches often aimed to study the direct relationship of economic growth and carbon emission [10-12] and FDI and Greenhouse Gas (GHG) emissions [13, 14], while in the current study, we analyze the indirect impact of foreign investment to GHG emissions through its direct relationship with economic growth, urbanization, and trade openness. The goal of this study is to look at the evidence of this indirect relationship and see if there is a significant effect, and if so, to quantify it. This paper contributes to earlier research on foreign investment inflow and its possible harmful effects on carbon emissions to help policy makers to design policies that combat carbon emissions but not at the cost of economic growth. II. POLLUTION HAVEN HYPOTHESIS Environmental pollution is the result of human activities which the environment cannot deal with naturally. FDI is considered as a main contributor to this environmental destruction as it accelerates economic activity that results in economic growth on one hand but it also causes an increase in GHG emissions, deforestation, and biodiversity loss on the other. Authors in [15] used a non-linear estimation method to check if there is any association between environmental devastation and foreign investment in the case of the Malaysian economy for the 1965-2010 period. The results confirm that FDI results in great environmental degradation. PHH asserts that a host country with weak environmental regulation attracts more foreign investments, as profit-oriented companies try to evade costly regulatory compliance in their home countries by relocating their dirty industries in developing countries [16]. The nexus between weak environmental laws and capital inflows of polluting industries is explored in [17]. The authors considered cross-sectional data for 7 developing economies and 15 developed countries for the period from 1985 to 1990 and found that poor environmental laws in the host country encourage FDI inflow in the industries that pollute environment, while for the less polluting sector, the results were insignificant. Authors in [18] tried to explore whether private sector involvement is beneficial to the environmental quality. The study considers CO2 emission as a measure of environmental pollution, along with other variables like financial market scope, industrial sector composition, and foreign investment. The study found that greater involvement of the private sector in a developing economy resulted in environmental quality improvement. Earlier, authors in [19] analyzed the case of ASEAN economies to study the impact of capital inflow on the environmental degradation. The study used the ARDL model and time series data for 31 years (1970- 2001). Thailand, Malaysia, and the Philippines are the countries where a significant relationship between FDI and pollution is observed. It has been observed that foreign capital inflows do not contribute to increasing pollution levels in Indonesia, while for Singapore no significant results were found. Authors in [20] studied the long run relationship between capital inflows, pollution level, and output for Malaysia using the Granger Causality test. The research employed annual per capita GDP as a proxy for income and annual CO2 emission per capita as a proxy for pollution. The study found that FDI Granger-causes GDP growth and pollution level in the short run, while in the long run, causal relationship was observed for output and FDI inflows. Authors in [21] studied the association between foreign investment and environmental policy considering 33 countries. The study found that foreign investment can influence environmental policy only if there is a sincere effort from local government to design and implement environmental rules. The study concludes that the flexibility of environmental policy depends on the degree of corruption of government officials. The authors recommended the adoption of a political economic model with imperfect product market competition along with the application of pollution tax to combat pollution. Authors in [22] used data from 112 countries to study the relationship between foreign inflows and the level of pollution. Granger causality test was employed to test the results. The authors report that for lower income groups, CO2-levels Granger-cause foreign investment inflows. Also, for middle income groups, FDI Granger-causes CO2 emissions, whereas for higher income groups there is no evidence of Granger causality. To confirm the PHH for ASEAN countries, authors in [23] used the ARDL method on time series data for the 1970-2008 period. In the case of the Philippines, the results indicated that all the regression coefficients except for per capita gross national income are significant. Mixed results were reported in the cases of Thailand and Indonesian economies. Authors in [24] found that economies with liberalized trade policies contribute more to pollution intensity than those following Engineering, Technology & Applied Science Research Vol. 11, No. 5, 2021, 7564-7570 7566 www.etasr.com Samreen et al.: Exploring the Relationship between Foreign Investments and Carbon Emission … more restrictive policies. Authors in [25] tried to explore whether free trade agreements are affecting the environment of the countries that are bound by these agreements. The Gravity model framework was used to analyze the impact of free trade agreements on bilateral CO2 emissions. The study found that weak environmental standards prevailing in low income countries result in greater pollution effect of free trade agreements, whereas, high income countries shift dirty industries to the countries where there is weak or no implementation of environmental policy, hence confirming the Pollution Haven theory. The export volume of China is a sign of greater economic activity, but also generates an enormous amount of CO2 [26]. The author calculates the size of CO2 emission by 18 exporting industries of China from 2001 to 2010 using the I-O framework. The study concludes that the increase in the volume of exports is a major contributor to the increment of the CO2 level of a country. The study did not confirm China as a Pollution Haven for developed countries. Authors in [27] empirically explored the link between energy consumed by the transport sector, CO2 emission, economic development, foreign investment, and urbanization. ARDL and VECM were used for estimation over the period from 1990 to 2015. The study found transport sector energy consumption as a significantly strong determinant of CO2 emissions in Pakistan. The study also confirms the contribution of foreign investment in CO2 emission, whereas economic growth and urbanization were found to be insignificant determinants of CO2 emission. The study recommends that the government should play a more active role in improving environmental quality by providing energy efficient solutions in the transport sector with less adverse effects on economic growth. The author in [28] selected per capita GDP in real terms, energy consumption, urbanization, transport sector intensive-energy along with fuel prices as key determinants of pollution level in Tunisia during the period from 1980 to 2014. The author claimed that the reliance of the road transport system mainly on fossil fuel usage is a major cause of CO2 emissions. The study supported the EKC theory by confirming the presence of an inverse U-shaped curve indicating the relationship between economic development and CO2 level from the transport sector. III. DATA SOURCES AND MODEL SPECIFICATION Data on economic and other key indicators were collected from World Development Indicators (WDI) over the time span from 1970 to 2018 [29]. As a determinant of environmental quality, we have used CO2 emission per capita (CO2PCAP), in metric tons. We have also considered other economic indicators due to the limited availability of carbon emission data. Gross Domestic Product Per Capita (GDPCAP) was used to define the level of economic development (in constant 2010 US $). FDI is the net inflow of investments as a percentage of GDP (FDIPGDP). The urbanization variable (Urban) is calculated as a percentage of urban to total population. Trade to GDP ratio is a proxy for a liberal economy (TOPENESS) and was also taken from the WDI. To explore how capital inflows affect CO2 emission levels in Pakistan, the following model has been specified using EViews. log�CO2PCAP = β� +β� �log�GDPCAP + β��log�TOPENNESS + β� �log�FDIPGDP +β� �log�Urban + ϕ (1) ARDL-bound test estimation method, proposed in [30, 31] has been used to explore the relationship between CO2 emissions with foreign investment, GDP per capita, urbanization, and trade openness. ARDL estimation generates results in two steps. The first is the ECM results and the second is the Bounds test results. When co-integration exists, it is recommended to also report the ECM results, in case of no co- integration, we conclude with the ARDL model. IV. DATA ANALYSIS AND DIAGNOSTIC TEST Tables I and II report the descriptive statistics and the correlation matrix for the variables considered in the current study. To confirm the robustness of the results, different diagnostic tests are employed which are discussed in the following section. To examine the stationarity of variables, both Augmented Dickey-Fuller (ADF) test and Phillips & Peron (PP test) were applied. Table III shows the findings. It is revealed from unit roots tests that initially, level following variables are non-stationary like per capita CO2 emission, foreign investment, and per capita GDP, but become stationary after taking the first difference, whereas the remaining variables are stationary. TABLE I. DESCRIPTIVE MEASURES Variable Mean Std. Dev. Min Max FDIPGDP 0.7606914 0.7968646 -0.063242 3.668323 Urban 31.16394 3.422316 24.81700 36.44200 GDPCAP 2.191195 2.162259 -2.218736 8.385496 TOPENESS 32.55893 4.043413 19.93229 38.90950 CO2PCAP 0.6512522 0.2209307 0.3083813 0.9878324 TABLE II. CORRELATION MATRIX FDIPGDP Urban GDPCAP CO2PCAP TOPENESS FDIPGDP 1.0000 Urban 0.5683 1.0000 GDPCAP 0.0003 -0.0657 1.0000 CO2PCAP 0.6382 0.9795 -0.0628 1.0000 TOPENESS 0.2612 0.1392 -0.0446 0.0783 1.0000 TABLE III. AUGMENTED DICKEY FULLER UNIT ROOT TEST Variable ADF at level P- value ADF at first difference (P-value) Order of integration PP test at level PP test at first difference LnCO2PCAP 0.8561 0.000 I(1) 0.9221 0.0000 Ln FDI 0.0816 0.0000 I(1) 0.1138 0.000 Ln Urban 0.0144 I(0) 0.0000 LnGDPCAP 0.8550 0.0000 I(1) 0.9435 0.0000 LnTOPENSS 0.0112 I(0) 0.0097 An optimal lag length selection is the first step in ARDL estimation. Table IV reports various lag selection criteria available in the literature. Except Schwartz Information Criterion (SIC) all three-information criteria suggest that we should consider a maximum lag length of two in this study. The * sign in Table IV defines the selected lag order by the chosen criterion. In the second step we proceed with the estimation of the ARDL model, which requires the computation and analysis of F-statistics using ARDL bound test methodology. Engineering, Technology & Applied Science Research Vol. 11, No. 5, 2021, 7564-7570 7567 www.etasr.com Samreen et al.: Exploring the Relationship between Foreign Investments and Carbon Emission … TABLE IV. LAG LENGTH SELECTION Lag LogL LR FPE AIC SIC HQ 0 87.99601 NA 0.001465 -3.688711 -3.487971 -3.613878 1 100.7045 22.02806 0.000871 -4.209089 -3.968201 -4.119288 2 103.1279 4.092887* 0.000819* -4.272352* -3.991316* -4.167585* 3 103.9750 1.393006 0.000825 -4.265557 -3.944372 -4.145822 4 103.9809 0.009329 0.000864 -4.221371 -3.860039 -4.086670 Table V reports the calculated F-statistic and its critical values. The F-statistic (17.773) is found to be greater than the upper bound critical value (5.06) at 1% significance level which helps us reject the null hypothesis of no long-run association at 1% level of significance. Long run elasticities for both the dependent variable (carbon emissions) and the independent variables (Foreign Investment, Per capita GDP, Urbanization and Trade openness) are summarized in Table VI. The coefficients for FDI, Urbanization and trade liberalization are found to be significant at the 1% level of significance in the long run, while the coefficient on per capita GDP is found to be significant at the 10% level of significance. As expected, the estimated coefficients of all the explanatory variables carry the expected positive sign. Foreign investment opens the door to infrastructure and technological and human development in the host country [32]. A significant and positive coefficient on FDFI describes investment opportunities available at the cost of environmental degradation. A 1% increase in foreign investments causes a 0.0418% increase in CO2 emissions. The coefficient on urbanization is also found to be a positive and significant determinant of carbon emissions. High urbanization means that more people are settled in urban areas resulting in increase in human and economic activities. This result is in line with the findings in [33]. TABLE V. ARDL BOUND TEST F-Statistic 17.773*** Critical values bound Significance Lower bound Upper bound 1% 3.74 5.06 5% 2.86 4.01 10% 2.45 3.52 TABLE VI. LONG RUN ESTIMATES Variable Coefficient Std. error t-statistic Prob. LOG(FDIPGDP) 0.041811 0.007119 5.873148 0.0000 LOG(GDPCAP) 0.232906 0.133448 1.745300 0.0895 LOG(URBAN) 1.951081 0.329676 5.918186 0.0000 LOG(TOPENESS) 0.186990 0.041948 4.457692 0.0001 LOG(CO2PCAP) -9.122096 0.480991 -18.965208 0.0000 A continuous growth in urbanization is responsible for the increase in the pollution level of a country causing damage to the environment, not only in industrialized nations, but also in developing economies [34]. People migrate to cities to find better health, education, and employment opportunities. This growth in urban population creates numerous challenges for urban areas due to the increase in demand and the limited resources. This unplanned population growth brings new challenges in various ways. Better infrastructure and transport facilities form a need for growing urban population. To provide transport facilities to a large urban population results in increase in the number of vehicles, resulting in more vehicular emissions. Rapid growth in urban population also exerts pressure on the availability of clean water and proper wastage and sewerage system [33]. As expected, we observed a positive and significant coefficient (0.2329) for per capita GDP growth and CO2 emissions in the long run, namely 1% increase in per capita GDP growth contributes to 0.2329% increase in CO2 emissions. This phenomenon may reflect in more economic activities and the number of vehicular emissions [35]. The coefficient (0.1869) of trade openness is also found to be positive and significant determinant of CO2 emission levels. This is a significant result explaining why Pakistan experiences a comparative advantage in the production of goods that are harmful for the environment. This result helps to conclude that in the absence of strict environmental protection laws, greater trade openness does not lead to the path of sustainable growth in the long run. Since we found evidence for a long run relationship we further tested for short run relationship by adopting the ECM-ARDL approach. The results are given in Table VII. The adjustment coefficient (-1.0307) has the expected negative sign and is statistically significant. Table VII also provides the short run estimates of regressors and CO2 emissions. TABLE VII. SHORTRUN ESTIMATES Variable Coefficient Std. error t-statistic Prob. DLOG(CO2PCAP (-1)) 0.060852 0.148354 0.410180 0.6842 DLOG(CO2PCAP (-2)) 0.040098 0.106818 0.375383 0.7097 DLOG(FDIPGDP (-1)) 0.017003 0.009797 1.735437 0.0917 DLOG(FDIPGDP (-2)) -0.000999 0.007147 -0.139768 0.8897 DLOG(GDPCAP (-1)) 0.425215 0.261891 1.623635 0.1137 DLOG (GDPCAP (-2)) 0.315363 0.308304 1.022896 0.3136 DLOG(URBAN (-1)) -5.003957 9.281719 -0.539120 0.5933 DLOG(URBAN (-2)) 5.684971 8.876761 0.640433 0.5262 DLOG(TOPENES S(-1)) 0.123089 0.050503 2.437276 0.0202 DLOG(TOPENES S(-2)) 0.017732 0.037870 0.468230 0.6426 ECM(-1) -1.030749 0.277675 -3.712069 0.0007 R-square 0.560200 The optimal lag length is found to be 2 for every variable thus all the short run estimates given in the Table show 2 lags for every variable. All explanatory variables are found to be insignificant, except for the coefficient on trade openness, which means trade openness contributes significantly to carbon Engineering, Technology & Applied Science Research Vol. 11, No. 5, 2021, 7564-7570 7568 www.etasr.com Samreen et al.: Exploring the Relationship between Foreign Investments and Carbon Emission … emission only in the short run. The Error Correction (ECM) term is found to be significant with the expected negative sign (-1.0307) which explains that whenever per capita carbon emission is above or below the equilibrium level, it automatically adjusts by 103% and the speed of adjustment occurs within the first year. The value of R square shows that the fitted model is a good fit and explains that the 56% variability in the model is due to the included explanatory variables. The high p-values of urbanization and trade openness coefficients are evident that no short run causal relationship exists between the explanatory variables and the dependent variable. Whereas a significant value of FDI at 1% and per capita GDP at 10% indicates that there is an evidence of short run causal relation from explanatory variables to the dependent variable. The highly significant ECM term (p-value 0.0007) in Table VII is evident of the causality among variables. Generally, the co-integration analysis is used to observe the possible causal relationship between the variables, at least uni- directional. But it does not provide the direction of causality. Thus, to examine the direction of causality among the variables the next step is to run a Granger causality test. Table IX provides the results. Two-way causality is observed between carbon emission and FDI. A very interesting finding of the Granger causality test is the uni-directional causality from FDI to CO2 emission per capita GDP growth, urbanization, and trade openness. This validates the hypothesis of the study that foreign investment stimulates the economic activity reflected in terms of urbanization and per capita GDP growth but also explains the environmental degradation in terms of hazardous emissions. TABLE VIII. WALD TEST Variables Probabilities FDI 0.000 GDPCAP 0.0992 URBAN 0.5730 TOPENESS 0.1144 TABLE IX. VECM GRANGER CAUSILTY TEST Hypothesis Probability LOG(FDIPGDP) does not Granger-cause LOG(CO2PCAP) 0.0058 LOG(CO2PCAP) does not Granger-cause LOG(FDIPGDP) 0.0981 LOG(GDPCAP) does not Granger-cause LOG(CO2PCAP) 0.0002 LOG(CO2PCAP) does not Granger-cause LOG(GDPCAP) 0.1487 LOG(URBAN) does not Granger-cause LOG(CO2PCAP) 1.E-05 LOG(CO2PCAP) does not Granger-cause LOG(URBAN) 0.0433 LOG(TOPENESS) does not Granger-cause LOG(CO2PCAP) 0.0273 LOG(CO2PCAP) does not Granger-cause LOG(TOPENESS) 0.4636 LOG(GDPCAP) does not Granger-cause LOG(FDIPGDP) 0.2950 LOG(FDIPGDP) does not Granger-cause LOG(GDPCAP) 0.0055 LOG(URBAN) does not Granger-cause LOG(FDIPGDP) 0.4332 LOG(FDIPGDP) does not Granger-cause LOG(URBAN) 0.0296 LOG(TOPENESS) does not Granger-cause LOG(FDIPGDP) 0.7558 LOG(FDIPGDP) does not Granger-cause LOG(TOPENESS) 0.0003 LOG(URBAN) does not Granger-cause LOG(GDPCAP) 0.0820 LOG(GDPCAP) does not Granger-cause LOG(URBAN) 0.1818 LOG(TOPENESS) does not Granger-cause LOG(GDPCAP) 0.4591 LOG(GDPCAP) does not Granger-cause LOG(TOPENESS) 0.5039 LOG(TOPENESS) does not Granger-cause LOG(URBAN) 0.0045 LOG(URBAN) does not Granger-cause LOG(TOPENESS) 0.7983 In Table IX we also observe that per capita GDP growth causes carbon emissions in the long run. This result also suggests that a stimulated economic activity may harm the environment if certain protective measures are not adopted. No long run causality was observed in the reverse direction which means that CO2 emission does not Granger-cause economic growth, therefore a unidirectional causality is observed. This result is in contrast to the findings of [1], who asserted that any measure to control CO2 emissions may have different implications for developed and developing countries. Measures to limit or control CO2 emissions are more harmful for developing countries as compared to developed countries. To test the stability of the model, the Cumulative Sum of Recursive Residuals (CUSUSM) test was applied and the result is explained with the help of Figures 1 and 2. The plots of CUSUM test explain the stability of the ECM model. The straight lines in both Figures describe the critical values at 5% level of significance. The CUSUM and CUSUMSQ plots lie within the drawn critical values confirming the model is stable. -0.4 -0.2 0.0 0.2 0.4 0.6 0.8 1.0 1.2 1.4 1985 1990 1995 2000 2005 2010 2015 CUSUM of Squares 5% Significance Fig. 1. CUSUM plot. -0.4 -0.2 0.0 0.2 0.4 0.6 0.8 1.0 1.2 1.4 1985 1990 1995 2000 2005 2010 2015 CUSUM of Squares 5% Significance Fig. 2. CUSUMQ plot. Further diagnostic tests are applied to the ECM model and the results are presented in Table X. The results suggest that the ARDL model fits well and passes the Breusch-Pagan-Godfrey heteroscedasticity test and Breusch-Godfrey LM Test for serial correlation. Engineering, Technology & Applied Science Research Vol. 11, No. 5, 2021, 7564-7570 7569 www.etasr.com Samreen et al.: Exploring the Relationship between Foreign Investments and Carbon Emission … TABLE X. DIAGNOSTIC TEST RESULTS Breusch-Pagan-Godfrey for heteroscedasticity F-value 1.034710 Prob. F (14,30) Breusch-Godfrey LM test of serial correlation F-value 1.178700 Prob. F (2,28) V. CONCLUSION In the neoliberal economic model, foreign investment is a major contributor to development through the introduction of new knowledge and technology and the creation of opportunities for employment and income growth. Therefore, the governments in host countries give lucrative offers to attract foreign investors. Our results confirm that increasing FDI causes an increase to CO2 emissions, thus contributing to environmental degradation. A positive association between CO2 emissions and FDI corroborates the PHH for Pakistan. The study suggests that before signing an agreement with the investor, host governments need to consider the possible adverse effects of FDI on the environment. Host governments should ensure that the investor company/country would adopt a clean energy technology that would reduce the pollution level. Thus, there is a need to set standards for industrial pollutants and emissions. To achieve the object of sustainable economic growth and development, governments should focus on strict implementation of policies that are more environmentally friendly and limit emissions to an ideal level. A sustainable approach is one that is low carbon in nature, such as wind and solar energy and aimed at reducing emissions but not at the cost of economic growth. Fig. 3. Flow chart of the research. This study establishes the understanding that a stimulated economic activity coupled with rapid urbanization results in more dependence on fossil fuel consumption and ultimately results in harmful emissions. Environmental degradation not only disturbs human life, but also puts pressure on economic activities in the long term. Urbanized activities are more energy intensive in nature. Dependence on fossil fuel consumption to cater for demands of the urban sector (electricity generation, heating, and transport) results in increased levels of pollution. With the growing population, it is difficult to limit the energy demand, hence awareness programs for the public are needed to be designed. To reduce the negative effects of urbanization, governments should monitor the technology transfer process and set standards to ensure environmental quality. Introduction of more ecofriendly and energy efficient automobiles and provision of better public transport in the urban sector are some steps governments should adopt. There is a need to explore long term investment options that are cleaner in nature and provide sustainable solutions both for economic development and the environment. Moreover, to attract foreign investors with more ecofriendly transfer of technology, strict environmental policy, improved infrastructure, and human capital development are crucial. Figure 3 exhibits the flow chart of the research conducted to determine if there is a relationship between carbon emissions and FDI. 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