A Study on the Location Determinants of the US FDI in China
XIAO Wei-guo[1]
ZHAO Yang[2]
Abstract: The US foreign direct
investment in China plays a leading role in the process of introducing FDI to
China. This paper carries on an
empirical research dynamically on the location factors of US foreign direct
investment in China, adopting Johansen cointegration test, the VEC model,
Granger causality test and variance decomposition technology, based on
analytical data in the period from 1983 to 2006. The studying result
demonstrates that there is a stable relationship among the US foreign direct
investment in China, Chinas GDP, fixed asset investment in China and the
prophase stock of the US foreign
direct investment in the long-run. And Chinas GDP is the major power to induce
the US FDI to bias the long-term equilibrium.
Key words: US FDI; Location factors; Cointegration; VEC; Variance decomposition
1. Introduction
The
US foreign direct investment in China (US FDI, hereinafter) plays a leading role in the process of introducing FDI to China.
In accorda1nce with the analysis of the Ministry of Commerce, real amount of US FDI has reached $59.65 billion[3] by the
end of 2008. Most of
the US-funded enterprises ranking top 500 of the world have established investment entities in China,
some of whom are expanding their destinations from the costal areas to the
middle and western regions. However, the US FDI in China has entered a period
of adjustment since 2002. Take the period of 2002 to 2007 for example, the
ratios of the US FDI flow to the total amount of FDI that China utilized are
10.28%, 7.85%, 6.50%, 4.23%, 4.13%, 3.13%[4], respectively, showing a
tendency of decreasing. Thus, it is crucial for us to investigate the location
factors of the US FDI in China to help us in predicting the future trend of the
US FDI utilization in China and proper policies on foreign capital utilization
could be suggested.
2. Literature Review
Scholars have done extensive researches on the relations and their interactions between the US FDI and Chinas location factors. Based on data of foreign capital invested by the US Multinational Corporations (MNC, hereinafter) from 1983 to 2000, XU Kangning, WANG Jian (2002) modified the linear regression model by adding dummy variables of policy and foreign exchange as the decisive factors. They found that the changes of scale of the US FDI are mainly determined by changes of market demand, opening degree of policies, prophase stock of capital and rate of exchange. CHAI Min (2003) divided the reasons for US FDI in China into seven parts: (1) Monopoly advantage of the US MNCs and the industrial developing tendency. (2) Market scale, economic growth and consumption capacity in China. (3) Globalization of the MNCs production and organization, as well as the low labor cost in China. (4) High profit margin of investment. (5) Effects of tariff and non-tariff barriers (6) Pull effects of the US MNCs investment (7) MNCs reaction on oligopoly .Huang Wei (2005) concluded the motives for US FDI in China from the following six aspects: (1) Ownership advantage of the US MNCs. (2) Location advantage of the US FDI. (3) Internalization advantage (4) US external developing strategies under the circumstance of economic globalization. (5) Systematic factors. (6) Positive pushing effect and demonstration effect of the prophase investment. Based on the analytical data from 1985 to 2002, ZHANG Ji (2006) suggests that the major factors that affect the US FDI in China contain the Chinese market capacity and its growing prospect, opening degree of the Chinese market to the US and the income disparity between China and the US. ZHUANG Zong-ming and MA Ming-shen (2007) investigated into the reasons for the formation of the US FDI development tendency from three layers, including macroeconomic factors such as economic scale and policy, mediate economic factor like the change of industrial structure and the microeconomic factor like the operating strategies of the enterprises.
Most of the researches above are carried
out with classical multiple linear regression model. They can hardly reflect
the newly emerged changes in the recent years. In this paper, based on the
conclusion of the previous studyings, with the latest data, we adopt Vector
Autoregression (VAR, hereinafter) model, Johansen cointegration test, Vector
Error Correction (VEC, hereinafter) model, and variance decomposition
technology, to dynamically analyze the equilibrium relationships among the
location factors of the US FDI in China and their changing process.
The remainder of this paper is
structured as follows: Section 3 is the variables selection and illustration of
relevant data; Section 4 presents our empirical results and relevant tests on
them. And the conclusion is in Section 5.
Table 1: Illustration of the Variables
Dependent Variables |
Implication |
Variables Illustration |
USFDI |
US foreign direct investment in China |
Reflecting the flow of US foreign direct investment in China |
CGDP |
Gross domestic product in China |
Reflecting Chinas economic development level and market scale |
FDIS |
Prephase stock of US FDI in China |
Reflecting the agglomeration effect of the US FDI |
FAI |
Gross fixed asset formation |
Reflecting the conditions of Chinas infrastructure construction |
Table 2: ADF
Test Result for Variables
and Their First Order Difference
Variables |
lnUSFDI |
lnCGDP |
lnFAI |
LnFDIS |
|
||||||
ADF Value |
-2.329614 |
1.066043 |
2.015157 |
-1.404288 |
|
||||||
|
Critical Value |
1% |
-3.737853 |
-4.467895 |
-3.737853 |
-3.752946 |
|||||
|
5% |
-2.991878 |
-3.644963 |
-2.991878 |
-2.998064 |
||||||
Prob. |
0.1714 |
0.9997 |
0.9997 |
0.5623 |
|
||||||
Types of Tests(c,t,k) |
(1,0,0) |
(1,1,3) |
(1,0,0) |
(1,0,1) |
|
||||||
First Order Differences |
D(lnUSFDI) |
D(lnCGDP) |
D(lnFAI) |
D(lnFDIS) |
|
||||||
ADF Value |
-4.357584 |
-4.974370 |
-4.222724 |
-3.700040 |
|
||||||
|
Critical Value |
1% |
-2.669359 |
-4.467895 |
-4.467895 |
-3.788030 |
|||||
|
5% |
-1.956406 |
-3.644963 |
-3.644963 |
-3.012363 |
||||||
Prob. |
0.0001 |
0.0036 |
0.0163 |
0.0121 |
|
||||||
Types of Tests (c,t,k) |
(0,0,0) |
(1,1,2) |
(1,1,2) |
(1,0,2) |
|
||||||
Note: c, t, k in types of test represent the constants
in unit root testing equation, time trend term and the lags, respectively. When
the
values of c, t equal 1, it
implies that there are constants and trend terms in the equation, whereas value
0 means that they are not exist. The criterion for lag selection is the minimum
amount of AIC information.
Table 3: Johansen
Cointegration Test Results
Unrestricted
Cointegration Rank Test (Maximum Eigenvalue) |
||||
Hypothesized
No. of CE(s) |
Eigenvalue |
Max-Eigen
Statistic |
0.05Critical
Value |
Prob.** |
None * |
0.904577 |
51.68755 |
30.81507 |
0.0000 |
At most 1 |
0.641126 |
22.54527 |
24.25202 |
0.0827 |
At most 2 |
0.489082 |
14.77403 |
17.14769 |
0.1072 |
At most 3 |
0.073375 |
1.676531 |
3.841466 |
0.1954 |
Note:
Max-eigenvalue
test indicates 1 cointegrating eqn(s) at the 0.05 level
* denotes rejection of the hypothesis at
the 0.05 level
**MacKinnon-Haug-Michelis (1999) p-values
3. Variables Selection and Data
Illustration
3.1 Variables
Selection
We select the four following
variables. The implications of the variables are listed in Tab.1.
3. 2 Data Illustration
The current paper uses annual data from 1983 to 2007(in US dollar), in which, USFDI, CGDP, FAI and FDIS are obtained from <Chinese statistical yearbook>. Series CGDP, FAI and FDIS are adjusted by Chinas CPI in each year, choosing year 1990 as the basic period.
To reduce potential heteroskedasticity, the four series above are log-transformed into lnUSFDI, lnCGDP, lnFAI and lnFDIS, and their first order difference are denoted by D(lnUSFDI), D(lnCGDP), D(lnFAI) and D(lnFDIS), respectively.
All the econometric computation
is carried out with EViews 6.0.
4. Empirical Model and Tests
Firstly, we test the stationary of
lnUSFDI, lnCGDP, lnFAI and lnFDIS. Then, a VAR model will be built to see if
there is any cointegration among the series with Johansen cointegration test.
Based on the cointegration, a VEC model will be adopted to analyze the
adjustment process in the short-run among the variables, in order to maintain a
long-run equilibrium. Then, we use Granger causality test to analyze the
possible causality among the variables. Last, Variance decomposition technology
is carried out to explain magnitude and dynamics at disturbance.
4.1 Stationary Test
Stationary test is implemented on
series lnUSFDI, lnCGDP, lnFAI and lnFDIS by adopting augmented Dick-Fuller
(ADF, hereinafter) test. The result shows that for all the four series,
nonstationary cannot be rejected at a significant level of 5%. However, the
same test for their differenced series demonstrates that nonstationary is
rejected. Thus, we make the conclusion that all the four variables are first
order integrated I(1). ADF test results for the variables and their first order
difference are listed in Tab.2.
4.2 Johansen Cointegration Test
Since lnUSFDI, lnCGDP, lnFAI and lnFDIS are all I(1), cointegration may exist among the four series. In
this paper, we adopts Johansen cointegration test to examine
the cointegral relation among the four series above, instead of the traditional EG(Engle and Granger) two-step method because of its restriction that it is applicable mainly to the analysis between two
variables.
4.2.1 Lag Selection
Before Johansen cointegration
test, we must determine the
proper lag K in the VAR model, which is judged by the five selection criterions
of LR statistics, FPE, SC, AIC and HQ. The larger lag
k is, the more the to-be-estimated parameters are, and the less the degree of
freedom will be. Thus, we need to make a trade-off between lag length
and degree of freedom. In order to raise the degree of freedom for the VAR
model, we reduce the maximum lag accordingly, to give a lag of three periods and establish a VAR(3) model.
4.2.2 Johansen Cointegration Test
Table 4:
Results of VEC Model Analysis
Error Correction |
D(lnUSFDI) |
D(lnGDP) |
D(lnFDIS) |
D(lnFAI) |
CointEq1 |
0.20291 |
-0.10973 |
0.00764 |
-0.11287 |
|
[1.5114] |
[-5.40695] |
[ 0.23042] |
[-2.25591] |
D(lnUSFDI(-1)) |
0.56526 |
0.00053 |
0.20638 |
-0.13875 |
|
[1.0184] |
[ 0.00632] |
[ 1.50508] |
[-0.67076] |
D(lnUSFDI(-2)) |
0.59164 |
-0.09066 |
0.06450 |
-0.12947 |
|
[1.2850] |
[-1.30249] |
[ 0.56707] |
[-0.75453] |
D(lnGDP(-1)) |
1.30377 |
-0.59527 |
0.58077 |
-1.51445 |
|
[0.5595] |
[-1.69002] |
[ 1.00890] |
[-1.74399] |
D(lnGDP(-2)) |
-0.29644 |
0.62596 |
0.35915 |
0.82242 |
|
[-0.16147] |
[2.25547] |
[ 0.79183] |
[ 1.20198] |
D(lnFDIS(-1)) |
-4.46851 |
-0.41724 |
-0.42253 |
0.06198 |
|
[-1.80749] |
[-1.11640] |
[-0.69178] |
[ 0.06727] |
D(lnFDIS(-2)) |
0.73381 |
0.54542 |
0.44088 |
0.26968 |
|
[ 0.46043] |
[ 2.26376] |
[ 1.11968] |
[ 0.45401] |
D(lnFAI(-1)) |
1.02039 |
0.09848 |
-0.22173 |
0.78163 |
|
[ 0.81114] |
[0.5178] |
[-0.71342] |
[ 1.66713] |
D(lnFAI(-2)) |
0.18993 |
-0.80723 |
-0.29781 |
-1.05873 |
|
[ 0.11896] |
[-3.34448] |
[-0.75498] |
[-1.77922] |
Note: Values in the square parenthesis represent the t-statistics.
Table 5:
Granger Causality Test Results
Null Hypothesis |
F-Statistic |
Prob. |
Conclusion |
GDP does not Granger Cause USFDI |
5.47702 |
0.0137 |
Bilateral Granger causality exists between GDP and USFDI |
USFDI does not Granger Cause GDP |
7.69597 |
0.0045 |
|
FDIS does not Granger Cause USFDI |
5.59532 |
0.0129 |
FDIS is the Granger cause of USFDI,
otherwise uncomfirmed |
USFDI does not Granger Cause FDIS |
2.55459 |
0.1049 |
|
FAI does not Granger Cause USFDI |
2.99963 |
0.0725 |
Bilateral Granger causality exists between USFDI and FAI |
USFDI does not Granger Cause FAI |
4.04648 |
0.0334 |
|
FDIS does not Granger Cause GDP |
4.77948 |
0.0208 |
Bilateral Granger causality exists between FDIS and GDP |
GDP does not Granger Cause FDIS |
9.16841 |
0.0024 |
|
FAI does not Granger Cause GDP |
1.97176 |
0.1774 |
GDP is the Granger cause of FAI,
otherwise unconfirmed |
GDP does not Granger Cause FAI |
3.04764 |
0.0698 |
|
FAI does not Granger Cause FDIS |
7.48758 |
0.0050 |
Bilateral Granger causality exists between FAI and FDIS |
FDIS does not Granger Cause FAI |
5.1081 |
0.0170 |
For Johansen test is an
unrestricted VAR model imposed with vector cointegration restriction, the lag
selected for the cointegration test should be equal to the optimal lag under
the unrestricted VAR model minus 1, say, the final lag for Johansen
test should be 2. By analyzing the oriented data, we determine that the sequence under observation shows no linear tendency and there are no intercepts in the cointegration
equation. It is
clear to see from Tab.3 that, at a confidence level of
5%, the number of cointegration equation r = 1, indicating that
there is only one cointegral relation among the four variables. In another word, under probability of 95%, it is reasonable to believe that there
is a single long-term
equilibrium among lnUSFDI, lnCGDP, lnFAI and lnFDIS. The cointegration expression is as follows:
lnUSFDI =
Note: The number in the brackets
demonstrates the standard deviation of the regression coefficients.
We find from the cointegration testing result that the US FDI in China is positively correlated with both Chinas GDP and the prophase stock of US FDI. The US FDI will increase by 2.18% when Chinas GDP increases by 1%. And a 1% growth in the prophase stock of US FDI will drive the US FDI to increase by only 0.48%. While there is a negative correlation between the US FDI and Chinas gross fixed asset formation. The formal one will decrease by 2.37% with a 1% growth of the later. The spillover effect of Chinas gross fixed asset formation on the US FDI in China is much more significant.
As for cointegration only
demonstrates the long-run relation and their tendency among the variables, we
need to build up a VEC model to go into further investigation in consideration
of the short-run fluctuation and
long-run equilibrium among the variables.
4.3 VEC Model Analysis
Engle and Granger established the VEC model by combining cointegration model with error correction model. VEC model can be derived from VAR model as long as cointegration exists among variables. For each equation in the VAR model is an autoregressive distributed lag model, VEC model can be regarded as a VAR model with cointegral restriction. With VEC model, we can analyze both the direction and the speed of adjustment to an equilibrium status when the explanatory variables bias the long-run equilibrium. See Tab.4 for the details.
From Tab.4, we can find that only the coefficients of D (lnGDP) and D (lnFAI) are significantly negative, which means that the error correction terms show an negative effect of adjustment on D (lnGDP) and D (lnFAI) when the system biases its equilibrium, but no obvious effect on D(lnUSFDI) and D (lnFDIS). By observing the coefficients of the lags, we find that neither the first nor the second lag of D (lnUSFDI) has significant effect on it whereas it is significantly influenced by the first lag of D (lnFDIS). Thus, US FDI is significantly influenced by its prophase stock rather than other factors as it deviates from the long-run equilibrium.
Figure 4: Variance Decomposition of LNFAI
4.4 Granger Causality Test
As what we have referred previously, there is long-run equilibrium relation among lnUSFDI, lnCGDP, lnFAI and lnFDIS. But we are still not confirmed about whether it is a causal relationship or not. We will find the answer by Granger Causality Test first conducted by Granger (1969) and Sims (1972). See the results of the test from Tab.5.
Conclusions
drawn from Tab.5 are that,
at a confidence level of 90%, there is a bilateral causal
relationship between CGDP and USFDI, which reflects that during
the past 20 years, Chinas GDP has enhanced and been promoted by the US FDI in
China significantly at the same time. The prophase stock of the US FDI is the
Granger cause of the US FDI in China, otherwise disconfirmed,
demonstrating that the prophase stock of the US FDI in China has the effects of demonstration
and conglomeration on the US FDI. A bilateral causality exists between Chinas fixed asset formation
and the US FDI in China, proving that China has put effort in increasing fixed
asset investment and infrastructure constructions in order to induce more US
FDI when US FDI in China is enhancing Chinas fixed asset investment. A
bilateral causal relationship also exists between stock of US FDI and
Chinas GDP. As the stock of US FDI in China increases, it provides China with
funds and more advanced technology which are necessary in Chinas economic
development. Vise
versa, Chinas economic development provides the US FDI
with better investment environment and larger market capacity. For Chinas fixed asset
investment, Chinas GDP is its unilateral Granger cause. That is to say,
Chinas GDP growth has promoted the fixed asset investment in China. The
bilateral causality between Chinas fixed asset investment and the stock of US
FDI in China indicates a spillover relationship between them.
4.5 Variance Decomposition Analysis
The basic thought of variance decomposition technology is to decompose the Mean Square Error (MSE) in the VAR system into separate impact contributed by each variable, that is the ratio of impact from the variable itself to the total impact. In this way, the interactions among the variables can be described quantitatively. The following specific analysis will show the results of the variance decomposition, in combination with Fig.1- Fig. 4.
First, prediction errors of lnUSFDI are impacted mainly by lnUSFDI itself both in the long-run and the short-run. Within the whole prediction period, the proportion of impact from itself in prediction errors of lnUSFDI decreases from 100% to 80%, while that from lnGDP increases from 0 to 20%, which illustrates that in the long-run, the stock of US FDI plays a more important role in affecting the US FDI in China comparing with Chinas GDP. It is predicted that the stock of US FDI will grow consistently in a comparatively long period. So we can also predict a consistent growth of US FDI. Even with the reality that the amount of US FDI has fallen in the recent two year, the US FDIs trend of increase wont change.
Second, prediction errors of lnGDP are mainly intervened by itself in the short-run and, in the long-run, it is co-influenced by the four endogenous variables. Within the predicting periods, the proportion of self-impact in the forecasting errors of lnGDP decreases from 85% to 50%, and that from lnFDIS and lnFAI increases from 16% and 0 to 43% and 3%, respectively. During the first four periods, the impact from lnFDIS on lnGDP slowly rises from 18% to 20%, and reaches 41% after the fourth period. Indexes above indicate that in a relevant long period, the stimulation effect of the US FDI on Chinese economy will be stronger with the steady increase of US FDI in China. It is reasonable because Chinas economic growth relies on international trades and FDI to a great extent.
Third, the forecasting error of lnFDIS is mainly influenced by impact from lnUSFDI in the short-run, but jointly influenced by itself, lnGDP and lnFAI in the long-run. Within periods from 1 to 10, the proportion of self-impact and impact from lnGDP and lnFAI are stable at around 5%. The empirical results indicate that in the long-run, the major motivation for the stock of US FDI in China stems from flow of US FDI.
Finally, prediction errors of lnFAI are mainly impacted by lnGDP. In the long-run, the proportion of impact from lnUSFDI in the forecasting errors of lnFAI steadily increases from 20% to 40%, which demonstrates that the spillover effect of the US FDI in China on Chinas fixed asset formation is greater gradually. In China, fixed asset investment is a comparatively important pull for the economic growth. So, we can draw the conclusion that the US FDI is becoming more influential for Chinas economic growth.
5. Conclusions and Suggestions
In accordance with the previous empirical analysis, we draw the conclusion that a long-run equilibrium exists among lnUSFDI, lnCGDP, lnFDIS and lnFAI with Johansen cointegration test. In this equilibrium, the first three variables are positively correlated, but the correlation between Chinas fixed asset investment and the US FDI in China is negative. Influenced by the US sub-prime credit crisis, the US FDI in China has shown a tendency to fall since 2008. But US-funded enterprises still have strong investment motives with the consistence economic development in China. Then in face with the worldwide economic crises, how to drive the US FDI to contribute more in promoting Chinas economic development? Two aspects of work are suggested to be arranged properly when introducing the US FDI to China:
First, proper conditions should be provided from the prospects of macroeconomic and microeconomic, in order to maintain the US FDI in China at a relatively high level. Because of the economic crisis, the US government is doomed to reduce the amount of their direct investment to China. So we should adjust our policies on foreign investment introducing to induce more US FDI. Although with a relatively high level of US FDI stock, the US FDI is still limited in its amount, comparing with the total amount of FDI in China. Certain measures should be taken to expand the scale of US FDI so as to better promote Chinas economic growth.
Second, the structure of the US FDI should be optimized. It should be guided to develop in the direction of advancement just as what is pointed out in <The Eleventh Five-year Planning on Foreign Investment Introduction>, that the key point of FDI utilization should turn to introduction of advanced technology, management experience and high-quality talents from simply covering the shortage of funds and foreign exchange, combining FDI utilization with upgrading domestic industrial structure and technology.
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[1] Department of
Finance, Economics and Management School, Wuhan University. Wuhan, Hubei
Province, China.
E-mail: wgxiao@whu.edu.cn
[2] Department of Finance, Economics and Management School, Wuhan University. Wuhan, Hubei Province, China.
[3] Obtained from Ministry
of Commerce of China via www.fdi.gov.cn
[4] Obtained from Ministry of Commerce of China via www.fdi.gov.cn.
* Received 10 January 2009; accepted 14 February 2009
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