Research Article |
Corresponding author: Fang Lieming ( fanglieming@126.com ) Academic editor: Marina Sheresheva
© 2022 Fang Lieming, Ekaterina Shatalova, Irina E. Kalabikhina.
This is an open access article distributed under the terms of the Creative Commons Attribution License (CC BY-NC-ND 4.0), which permits to copy and distribute the article for non-commercial purposes, provided that the article is not altered or modified and the original author and source are credited.
Citation:
Lieming F, Shatalova E, Kalabikhina IE (2022) Determinants of regional fertility in China during the first years of reaching below-replacement fertility. BRICS Journal of Economics 3(3): 101-127. https://doi.org/10.3897/brics-econ.3.e83259
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China reached a stable below-replacement fertility in the middle of 1990s. The turn of this century saw the population development gap in various regions across China expanding, the total fertility rate (TFR) shrinking and remaining at a relatively lower level with the passage of time. Based on China’s official statistics, the authors analyzed the characteristics of the total fertility rate at each stage of the population policy adjustment (1970s, 1982-2013, after 2013), in particular, in the regional aspect. The sub-stage of 1995-2010 – the first years of below-replacement fertility – were considered closely in sense of determinants of regional gaps in fertility. With the help of quantitative analysis, it can be proved that regional per capita GDP (wealth level) has significant links with fertility rate. The higher the per capita GDP, the lower the fertility rate. The authors concluded that the regional total fertility rates and per capita GDP were inversely related, and per capita GDP was the factor that had the greatest correlation with the regional total fertility rate. To increase the regional fertility rate, it is necessary not only to relax the family planning policy, but also to implement incentive policies related to human fertility and to strengthen social, economic, demographic, and cultural constructions.
Determinant of fertility, total fertility rate, below-replacement fertility, per capita GDP, population policies, China.
Population is one of the primary and most significant issues in society. Long-term balanced growth of population matters a lot to the development of a country and a nation, as well as to the political, economic and social stability of the country. A country with below-replacement fertility, as usual, cannot have growth of population without a high level of replacement migration. The study of factors affecting the regional fertility in such a country helps to understand the drivers of changes in fertility.
The family planning policy in China from 1971 to 1979 had the maximum effect on the decline in fertility. The total fertility rate (TFR) dropped from 5.7 to 2.6 children per woman. This was due to the fact that the family planning policy was weakened at the beginning of the demographic transition. Educated women reduced the fertility even earlier (
During the long-term “one family - one child” policy from 1982 to 2013, the TFR slowly decreased from 2.6 to 1.6 children per woman. The influence of this policy on fertility also takes place, but its strength corresponds to the period of completion of the demographic transition. Our research interest relates to the period when the TFR decreased to below-replacement fertility. This special period is important for understanding the factors contributing to the decline in fertility on the basis of regional data. The demographic transition is coming to an end, several types of policies have accelerated the transition. Fertility decreased below-replacement level at the beginning of 1990s. What other factors are acting at this historical moment to reduce fertility below the replacement level in the regional context? The differences in the regional fertility levels were still strong.
In the People’s Republic of China (hereinafter referred to as “the PRC” or “China”), regional population growth is uneven (
This paper analyzes the impact of demographic and economic determinants on the regional total fertility rate in China at the turn of this century. We are conducting a statistical analysis of China’s total fertility rate dynamics since the inception of a strong demographic policy in the 1970s until the end of the 2010s. Then we consider the period 1995-2010 more closely. This is the period when the total fertility rate has steadily declined to below-replacement fertility. However, the regional total fertility rates were still clearly different in 1995. The regional dynamics of the total fertility rate was characterized by convergence in 1995-2010. Of interest is a set of factors that could influence the differentiation of regional fertility in this period. The paper also discusses the factors that resulted in different fertility rates in China at the turn of this century and the impact of local economic development on fertility. Then a conclusion is drawn and related suggestions (including a discussion of population policy) are put forward.
One of the main issues when choosing explanatory variables for fertility in the regions of China — which has a stronger impact — is family planning policies or social and economic factors. Since 1971, a family planning policy has been carried out; then, since 1982, the country has been implementing a demographic policy “one family – one child,” limiting fertility, which the PRC authorities proclaimed due to fears that the rapidly growing population would exhaust the land, water and energy resources of the country, hinder economic development and lead to poverty and underdevelopment of the PRC. The presence of a long-running anti-natalist policy expands the list of fertility factors, which, aside from a political impact, is one of the most complex processes in factor modelling. The decline in the birth rate in China is generally recognized as a result of a combination of socio-economic development and family planning policies (
A similar conclusion is made by Poston and Gu, who considered 28 regional entities in China using the country’s 1982 census data (Poston & Gu, 1987). They believe that China’s decline in fertility should not be seen solely as a result of population control policies. Skinner and co-authors, using the hierarchical regional space (HRS) spatial approach to study fertility change in China in the 1990s, highlight the following factors of regional fertility differentiation: levels of socio-economic development, implementation of family planning policies, changes in traditional family norms, and dissemination of abortion technologies selective on gender basis (
Other researchers acknowledge that the declining TFR in China correlated with increasing incomes even before the one-child policy was implemented (
Note that fertility is affected not only by demographic, but also by social policy, such as fiscal policy in the field of education and social protection (
The close relationship of urbanization with demographic changes has attracted some attention (
Even before the birth control policies began, urbanization and education were negatively correlated with fertility in marriage (
It is also important to note the spatial differences in the decline in infant mortality as an explanatory factor of differences in fertility: in regions where infant mortality is lower, the intervals between births are greater and the total fertility is lower (
Migration to cities reduces the likelihood of having children (
Economic factors often adversely affect the TFR. The literature indicates that, for example, there is a significant negative impact of rising real estate prices on TFR (
However, an ethnographic study conducted by Zhang (
Socio-cultural factors also matter. The link between gender equality and fertility is becoming unsustainable. The classical relationship is that the higher the level of education of women, the lower fertility rates. However, in modern Chinese society, gender equality (women’s higher education and equal levels of education of spouses) can increase the likelihood of having a child (
However, Hou Lee (
The general conclusion from the above-mentioned literature is that socio-economic, socio-cultural, and demographic factors affect the regional total fertility rates during the entire period of decline in the TFR. The same story was investigated during the period of 1970th family planning or the 1982-2013 “only one child” policy. Population policies matter but the role of the previous ones may prevail. We are interested in fertility determinant in the below-replacement fertility period at the first 15 years. Assessing the impact of various factors on fertility in China in 1995-2010, we will focus on socio-economic and demographic factors, including economic development, urbanization, women’s education level, and mortality rates. This period is characterized by stable birth control policies. These were the last years of a strict demographic policy in China. The regional total fertility rates were still clearly different in 1995, and the regional dynamics of the total fertility rate was characterized by convergence in 1995-2010 within the framework of a steady below-replacement fertility after 1995.
Literature analysis, which is the collection, sorting and screening of literature, was adopted to help comprehensively analyze the research topic and ensure the correctness of the literature. Thus, it is possible to identify the factors that affect the total fertility rate throughout China. This paper determines the stages of fertility changes using comparative statistical analysis comparing the changes in the Chinese regional TFRs. The basic econometric modeling method was adopted to make assumptions on the linking determinants of the regional total fertility rate (GDP per capita, urban population ratio, female education level, life expectancy at birth) at the turn of the century when population policy was stable and the TFR fell to a below-replacement level. The results were verified using regression analysis. Significant determinants linking regional fertility rates were analyzed using literature analysis, data comparison, and basic econometric modeling to draw a conclusion and identify countermeasures.
The information was compiled by data of the Population Division of the United Nations, the World Bank, the Statistical Yearbooks of the People’s Republic of China: The World Bank Open Data
Currently, China has an exceptionally low total fertility rate (TFR) — the national average is 1.6-1.7 (1994-2020). The TFR was very high throughout the 1960s, with a maximum of 6.385 births per woman in 1965 (Figure
In accordance with the regional division of the PRC, we calculated the averages of the TFR for 8 regions for the period from 1975 to 2010. In 1975, the region of East China had the lowest rate, in 2010, it was North-East China. The initial significant spread of regional indicators narrowed down over time to a range between 0.74 and 1.44 in 2010 (Figure
One of the most affected regions due to population policies is the Northeast, where the TFR fell from 3-3.5 children per woman in 1975 to 0.5-0.7 in 2010 (China Statistical Yearbook, 2011). According to official statistics, already in 2005, an average of 49.5% of the population under the age of 30 were the only children in the family.
The change in the fertility rate in China can be divided into three stages in accordance with the change of population policy: the first stage, before 1978; the second stage, 1978-2012; the third stage, 2013-present.
1) The first stage, the 1970s.
1950s and 1960s were marked by economic recovery, social stability, improvement of people’s living standards and medical service in China, and the population of China grew rapidly from 540 million in the early years of the founding of the Republic of China to 830 million in 1970. Until the late 1970s, China’s economy followed a planned economic policy. Under the system of “low salary and good welfare,” the cost of raising children in China was relatively low. Fertility was encouraged by the government and illegal abortion was strictly prohibited (
1971 | 1975 | 1985 | 1995 | 2000 | 2010 | |
All China | 5,426 | 3,86 | 2,13 | 1,52 | 1,41 | 1,18 |
Beijing | 2,991 | 2,04 | 1,17 | 1,06 | 0,97 | 0,71 |
Tianjin | 3,061 | 2,59 | 1,22 | 1,13 | 1,05 | 0,91 |
Hebei | 5,006 | 3,05 | 2,17 | 1,42 | 1,46 | 1,31 |
Shanxi | 5,797 | 3,99 | 2,49 | 1,9 | 1,61 | 1,1 |
Inner Mongolia | 5,414 | 4,25 | 2,35 | 1,37 | 1,18 | 1,06 |
Liaoning | 4,036 | 2,96 | 1,22 | 1,16 | 1,09 | 0,73 |
Jilin | 5,348 | 3,29 | 1,65 | 1,1 | 1,04 | 0,75 |
Heilongjiang | 5,202 | 3,69 | 1,71 | 1,12 | 1,05 | 0,74 |
Shanghai | 1,960 | 1,67 | 1 | 1,06 | 1,06 | 0,73 |
Jiangsu | 4,054 | 2,84 | 1,57 | 1,23 | 1,12 | 1,04 |
Zhejiang | 4,388 | 2,96 | 1,62 | 1,37 | 1,29 | 1,02 |
Anhui | 6,168 | 4,07 | 2,52 | 1,62 | 1,4 | 1,49 |
Fujian | 6,340 | 4,21 | 2,66 | 1,65 | 1,36 | 1,12 |
Jiangxi | 6,359 | 6,13 | 2,9 | 1,71 | 1,61 | 1,29 |
Shandong | 5,510 | 3,54 | 1,91 | 1,27 | 1,33 | 1,17 |
Henan | 5,926 | 4,26 | 2,19 | 1,47 | 1,54 | 1,3 |
Hubei | 5,773 | 3,81 | 2,28 | 1,45 | 1,27 | 1,35 |
Hunan | 5,777 | 4,32 | 2,28 | 1,34 | 1,45 | 1,42 |
Guangdong | 5,460 | 3,92 | 2,76 | 2,2 | 1,6 | 1,08 |
Guangxi | 5,936 | 5,03 | 3,56 | 1,84 | 1,71 | 1,8 |
Hainan | - | 4,02 | 3,02 | 2,32 | 1,81 | 1,51 |
Chongqing | - | 4,79 | 1,6 | 1,42 | 1,26 | 1,18 |
Sichuan | 6,348 | 4,68 | 1,68 | 1,44 | 1,3 | 1,09 |
Guizhou | 6,789 | 7,1 | 3,43 | 2,27 | 2,11 | 1,75 |
Yunnan | 6,013 | 5,63 | 3,74 | 1,97 | 1,92 | 1,41 |
Tibet | - | 5 | 3,74 | 2,41 | 2,06 | 1,05 |
Shaanxi | 5,229 | 3,68 | 2,55 | 1,7 | 1,39 | 1,06 |
Gansu | 6,387 | 3,95 | 2,49 | 2,03 | 1,61 | 1,28 |
Qinghai | 5,238 | 5,54 | 2,85 | 1,82 | 1,68 | 1,37 |
Ningxia | 6,001 | 5,29 | 2,87 | 2,15 | 1,81 | 1,36 |
Xingang | 5,754 | 5,25 | 3,9 | 1,85 | 1,73 | 1,52 |
2) The second stage, 1982-2013. China has been promoting the family planning policy since the 1970s. In 1982, the “only one child” family planning policy was continued as China’s main national policy. With each married couple having one child, the trend of rapid population growth was effectively brought under control. After the late 1970s, China adopted a policy of reform and opening up, and the Chinese economy moved from a planned economy to a market economy, which increased the cost of raising children. The Marriage Law of 1980 raised the minimum age of marriage to 22 for men and 20 for women, and the government advocated “late marriage and late childbearing.” At this stage, the regional total fertility rate was declining year by year.
We can single out a sub-stage of fertility development after the mid-1990s. Since the mid-1990s, the TFR has decreased to below-replacement fertility level. It was relatively stable during the next 15 years (see Figure
Let’s look at the fertility rate by province in 1995 (Figure
In 1995, the most worrying situation was observed in North-East China, as well as in Beijing, Tianjin and Shanghai, where the total fertility rate did not exceed 1.2. By 2015, this indicator fell below 1 in these administrative divisions. It is important to note that already in 1995, almost nowhere in the PRC was there a level of the TFR sufficient for population reproduction, which is equal to 2.1. The TFR above this value was observed in only 5 administrative subdivisions out of 31 — the provinces of Guangdong, Hainan, Guizhou, as well as Tibet and Xinjiang. And by 2015, the PRC completely lacked a level of TFR sufficient for simple population reproduction.
3) The third stage, 2013-present. On November 15, 2013, the Third Plenary Session of the 18th CPC Central Committee issued the “Decision of the Central Committee of the Communist Party of China on Several Major Issues Concerning Comprehensively Deepening Reforms” and the “selective two-child” policy (each couple is allowed to give birth to two children, if one of the parents is an only child) was implemented. On October 29, 2015, the Fifth Plenary Session of the 18th CPC Central Committee decided to fully implement the “universal two-child” policy (each couple is allowed to give birth to two children).
The age structure and dependency ratio of the population since 2008 are as follows (Table
As can be seen from the Table
Index | 2017 | 2016 | 2015 | 2014 | 2013 | 2012 | 2011 | 2010 | 2009 | 2008 |
---|---|---|---|---|---|---|---|---|---|---|
Total population at the end of the year (10 thousand) | 139 008 | 138 271 | 137 462 | 136 782 | 136 072 | 135 404 | 134 735 | 134 091 | 133 450 | 132 802 |
Population aged 0-14 years (10 thousand) |
23 348 | 23 008 | 22 715 | 22 558 | 22 329 | 22 287 | 22 164 | 22 259 | 24 659 | 25 166 |
Population aged 15-64 years (10 thousand) |
99 829 | 100 260 | 100 361 | 100 469 | 100 582 | 100 403 | 100 283 | 99 938 | 97 484 | 96 680 |
Population aged 65 years and older (10 thousand) | 15 831 | 15 003 | 14 386 | 13 755 | 13 161 | 12 714 | 12 288 | 11 894 | 11 307 | 10 956 |
Total Dependency Ratio (%) | 39.2 | 37.9 | 37.0 | 36.2 | 35.3 | 34.9 | 34.4 | 34.2 | 36.9 | 37.4 |
Children’s Dependency Ratio (%) | 23.4 | 22.9 | 22.6 | 22.5 | 22.2 | 22.2 | 22.1 | 22.3 | 25.3 | 26.0 |
Aged Dependency Ratio (%) | 15.9 | 15.0 | 14.3 | 13.7 | 13.1 | 12.7 | 12.3 | 11.9 | 11.6 | 11.3 |
The “two-child” policy was carried out in China from 2013 to August 20, 2021. However, there were no incentive policies related to the population policy and the cost of raising children remained relatively high. During this period, the “two-child” policy played a certain role in the growth of the child population, but the effect was insignificant. The total fertility rate in all regions of China remained relatively low.
On August 20, 2021, the Chinese government amended the Law on Population and Family Planning, which advocates marriage and childbirth at appropriate age and promotes good prenatal and postnatal care. According to the amended law, each couple is allowed to have up to three children.
The next step of our research is a close examination of the determinants of the regional difference of the TFRs in the first 15 years of below-replacement fertility.
Indicators such as gross regional product (GRP) per capita, proportion of urban population, proportion of women with higher education, life expectancy at birth, net migration rate in the region, aged dependency ratio and infant mortality rates were chosen to build an econometric model. After multicollinearity tests, the model was implemented with explanatory variables such as per capita GRP; the proportion of women with higher education; life expectancy at birth; the proportion of urban population. We can emphasize that we now have data on the regional population policy. Both population policy and socio-cultural determinants are included in unexplained residuals in the model. The dependent variable is the total fertility rate.
The authors put forward the following hypotheses:
1) The growth of GRP per capita has a negative impact on the TFR;
2) An increase in the proportion of the urban population has a negative impact on the TFR;
3) An increase in the proportion of women with higher education has a negative impact on the TFR;
4) An increase in life expectancy at birth has a negative impact on the TFR.
To build quantitative models, data were collected on 31 regional subdivisions of the PRC at the provincial level for 3 periods: 1995, 2000 and 2010. The sample includes all regions of the PRC, except for special autonomous regions (Macau and Hong Kong), as well as Taiwan. The source of all data is the Statistical Yearbook of the People’s Republic of China released by the National Bureau of Statistics of the PRC. Table
Basic regression model:
Table |
|||||
---|---|---|---|---|---|
Indicator (units) | Medium | Standard deviation | Minimum | Maximum | Symbol in models |
Indicator (units) | Medium | Standard deviation | Minimum | Maximum | Symbol in models |
Gross regional product per capita (RMB) | 7545.9 | 16 183 | 15 411 | 74 573 | GRPPC |
Life expectancy at birth (years) | 71.93 | 3.772 | 62.01 | 80.26 | LE |
Proportion of women with tertiary education among the total number of women over 18 years of age (%) | 6.83 | 5.61 | 0.05 | 34.93 | FEDUC |
Proportion of urban population (%) | 41.31 | 17.48 | 13.45 | 89.3 | URB |
Dummy variable of the region: Northeast China (base variable) Northern Coast of China Eastern Coast of China Southern Coast of China Northwest China Southwest China Yellow River Delta Yangtze River Delta |
reg_2 reg_3 reg_4 reg_5 reg_6 reg_7 reg_8 |
Each model also uses dummy variables for 7 regions of the PRC (North-East China is taken as the base comparison region) for a more detailed assessment of regional differentiation. The dummy variables added correspond to the regional subdivision described in Appendix 1 (for the 11th Five-Year Period 2006-2010).
All models used heteroscedasticity-resistant (robust) standard errors.
Table
Results of regressions evaluation (robust standard errors are given in parentheses below the coefficients)
Table |
||||
---|---|---|---|---|
Dependent variable: ln_TFR | ||||
Variables | (1) | (2) | (3) | (4) |
Dependent variable: ln_TFR | ||||
Variables | (1) | (2) | (3) | (4) |
const | 1.546** | 0.1444** | 3.549** | 0.4313** |
(0.1761) | (0.03376) | (0.4323) | (0.06092) | |
l_GRPPC | -0.1696** | |||
(0.01852) | ||||
FEDUC | -0.02676** | |||
(0.003157) | ||||
LE | -0.04901** | |||
(0.005882) | ||||
URB | -0.009496** | |||
(0.001038) | ||||
reg_2 | 0.2191** | 0.3163** | 0.2459** | 0.2146** |
(0.05960) | (0.04594) | (0.05493) | (0.04149) | |
reg_3 | 0.2270** | 0.2196** | 0.2573** | 0.2368** |
(0.04623) | (0.04953) | (0.04205) | (0.06581) | |
reg_4 | 0.5143** | 0.4568** | 0.5131** | 0.4802** |
(0.06481) | (0.06574) | (0.08764) | (0.08335) | |
reg_5 | 0.4711** | 0.5291** | 0.2939** | 0.3758** |
(0.03777) | (0.04699) | (0.06914) | (0.05048) | |
reg_6 | 0.4021** | 0.4301** | 0.3465** | 0.3173** |
(0.08092) | (0.08946) | (0.07965) | (0.08722) | |
reg_7 | 0.2927** | 0.3312** | 0.2734** | 0.2245** |
(0.04286) | (0.03907) | (0.06438) | (0.04649) | |
reg_8 | 0.3354** | 0.3469** | 0.3214** | 0.2602** |
(0.02980) | (0.02962) | (0.03679) | (0.03845) | |
n | 93 | 93 | 93 | 93 |
R2 | 0.7672 | 0.7079 | 0.7299 | 0.6986 |
lnL | 57.77 | 47.22 | 50.85 | 45.75 |
With the dependent variable ln_TFR, the following modelling results are obtained:
Fixed and random effects models for each dependent variable were also tested. After conducting the linear constraint test, the Breusch−Pagan test and the Hausmann test in a model with the GRP (this time without dummy variables), we conclude that the fixed-effects model is better suited to describe the relationship between variables. So, we make a choice in its favor (the variable per capita GRP is significant at the 1% level). Accordingly, the presence of individual characteristics in regional fertility, constant in time (Appendix
The results suggest that when selecting GRP per capita as a variable of interest, the total fertility rate in Region 4 (Southern Coast of China) is 51% higher compared to Northeast China with a 95% probability. The fertility rate in Region 5 (Northwest China), all other things being equal, is 47% higher compared to Northeast China with a 95% probability. The total fertility rate in Region 8 (Yangtze River Delta) is 33% higher compared to Northeast China with a 95% probability. The North and East Coast regions of China showed a smaller spread. The results obtained support our arguments about significant regional inequality in fertility.
Preference of random effects for models with women’s education, life expectancy or urban population suggests that there are no unambiguous patterns between regional fertility and regional indicators. A more complete set of socioeconomic and sociocultural factors is needed to identify a dependency. However, it can be argued that wealth levels are an important factor affecting the PRC’s regional inequality in fertility. Based on the assumption that the current fertility trends remain unchanged, one can conclude that a 1% increase in GRP per capita will reduce the existing regional total fertility rates by 0.17%. The presence of fixed effects for the model with per capita GRP confirms the dependence of fertility on the regional distribution of wealth.
In conclusion, we would like to stress the limitations of our model. The first point is the quality of our data. Our dependent variables – the regional TFR – was extracted from a 1% sample survey data. Estimations of the level of fertility in the provinces vary in different sources (i.e., the 1975 TFRs of China Population Information Center and National Bureau of Statistics of China). In each case, we selected data from the National Bureau of Statistics of China. The other data were collected from 1% sample survey data, national census data, vital statistics, 0.1% of the sample survey data of each province in China.
The second point is our quantitative model. Our regression is simple and closer to correlation analysis. We do not have a strategy to avoid endogeneity (reverse causality). We didn’t even have the opportunity to take lagged variables because of the data we used (we have only three points over a 15-year period). Thus, we can discuss the links between variables, but not the factors of regional fertility.
Given these limitations, we will focus on some results. We would like to present some points of discussion on fertility determinants in China, especially during the first decades of below-replacement fertility.
1) In 1970s, with China implementing the policy of reform and opening up, the country underwent a transformation from a planned economy to a market economy. Until 1978, when China carried out a policy of low salary and high welfare (Huang Aihe, the Long Evolution of Chinese Welfare, China Newsweek, December 25, 2006), the childrearing cost was relatively low. From 1960 to 1978, fertility of the Chinese population maintained a relatively high level (see Figure
Per capita GPD, China, 1960-2020. Source: Compiled by the authors based on World Bank Database. https://data.worldbank.org/indicator/NY.GDP.PCAP.CD?locations=CN&start=1960&end=2020&view=chart
2) The result of the research is consistent with data at the regional level. It reveals that per capita GDP is an important factor for the local total fertility rate. Table
Per capita GDP in each province, city and autonomous region in 2010 (Yuan)
Region | Year 2010 | Region | Year 2010 | Region | Year 2010 |
Beijing | 75,943 | Anhui | 20,888 | Sichuan | 21,182 |
Tianjin | 72,994 | Fujian | 40,025 | Guizhou | 13,119 |
Hebei | 28,668 | Jiangxi | 21,253 | Yunnan | 15,752 |
Shanxi | 26,283 | Shandong | 41,106 | Tibet | 17,319 |
Inner Mongolia | 47,347 | Henan | 24,446 | Shaanxi | 27,133 |
Liaoning | 42,355 | Hubei | 27,906 | Gansu | 16,113 |
Jilin | 31,599 | Hunan | 24,719 | Qinghai | 24,115 |
Heilongjiang | 27,076 | Guangdong | 44,736 | Ningxia | 26,860 |
Shanghai | 76,074 | Guangxi | 20,219 | Xinjiang | 25,034 |
Jiangsu | 52,840 | Hainan | 23,831 | ||
Zhejiang | 51,711 | Chongqing | 27,596 |
Low fertility rate in Northeast China. When China moved from its planned economy to a market economy after reform and opening-up, industry in Northeast China encountered huge challenges. In the 1990s, when a large number of enterprises and factories shut down, some people immigrated to developed areas along the eastern coast. With the effective implementation of family planning policy, the country’s population growth was slow (
Fertility rate in Tibet. Several factors brought about low per capita GDP and low total fertility rate in Tibet during the past decades. Firstly, urbanization there is speeding up, and the urbanization rate in 2010 was about 11.5% faster than that in 1990. Secondly, more and more people are receiving higher and secondary education (Bureau of statistics in Tibet, sample survey of 1% population on permanent residents in various regions/cities in 2015 in the Tibet Autonomous Region), to name just a few. In 1995, per capita GDP in Tibet was low, about 2,332.5 yuan, but the total fertility rate was high, about 3.32, which proves the correctness of the research results.
3) The results of this research are very convincing due to the fact that economic growth is associated with a low birth rate through several channels. First, the relative cost of raising children is growing. Secondly, people in economically developed zones postpone birth, which is the reason for the decrease in the conventional total fertility rate. Competition is high, work is a priority. Thirdly, there is a strain on the physical condition of the body. The higher the per capita GDP, the lower the rate will be, for in a region with a high per capita GDP, people often need more money to make a living, which leads to an increase in the child-raising cost. So, they gradually refuse to have a baby (
4) Related policies can affect the regional total fertility rate. In 1975, when China was in a period of planned economy, population policies were conducive to the increase of the total fertility rate. However, cities with high per capita GDP, such as Shanghai, Beijing and Tianjin, had a low regional total fertility rate (1.67 in Shanghai, nearly 2.0 in Beijing and Tianjin), and other regions with lower per capita GDP had higher regional total fertility rate, which confirms the direct relationship between regional per capita GDP and the regional total fertility rate. Besides, the finding that per capita GDP has the greatest impact on the total fertility rate is also confirmed.
5) The practice of China’s population policy and related policies have enriched the theory of population development. Before 1978, the population related policies and social and cultural factors caused an increase in the total fertility rate. The relatively low cost of raising children, specifically, was conducive to the increase of the total fertility rate. Even though the regional TFR decreased with the increase of per capita GDP, the regional TFR remained at a relatively high level. In 2013, China adopted the universal two-child policy. However, due to the lack of an incentive policy, the child-raising cost is very high and the total fertility rate has not significantly increased. The practice of China’s population policy shows that in order to improve the total fertility rate, not only should a country relax its population policy, but also adopt incentive policies and strengthen social and cultural construction to reduce the cost of raising children.
6) Socio-cultural and economic factors can be more significant than population policy. For example, the population policy of China towards ethnic minorities does not contribute to an increase in their total fertility rates. In Guangxi Autonomous Region, per capita GDP is quite low but the fertility rate is comparatively high, which is hardly the result of the local policies towards ethnic minorities. There are 56 ethnic groups in China, of which 55 groups, with the exception of the Han nationality representing the overwhelming majority of the population, are always viewed as ethnic minorities. During the time when China carried out the one-child policy, every family from ethnic groups was allowed to have two children. The fertility rates of Guangxi autonomous region and Gansu province are presented in Table
Fertility rates of Guangxi Autonomous Region and Gansu Province in 1995-1996
Region | Total fertility rate | Population of ethnic minorities (thousand) | Total population (thousand) | Proportion of ethnic minorities in the total population |
Gansu | >2 | 2,275.8 | 24,255.6 | 9.38% |
Guangxi | 1.8 -2 | 17,784 | 45,274 | 39.28% |
The data in Table
7) The regional fertility rate affects the balanced development of the region’s population, as well as national security and social stability. As China’s economy continues to develop, people are striving for wealth and a better life. At present, due to the low fertility rate in China, a complete relaxation of family planning policy is greatly needed. Besides, an incentive policy in the field of fertility should be implemented to reduce birth and rearing costs. What’s more, social and cultural construction should be reinforced. Special attention should be paid to the areas of low fertility to increase fertility, promote balanced development of the population, and ensure national security and social stability.
At the turn of the century, the period of stable below-replacement fertility, the regional fertility differentiation in the PRC is still relatively high. The leaders in terms of infertility are Southwest China (Yunnan, Guizhou and Guangxi provinces) and Northwest China (Xinjiang).
The authors analyze a number of socio-economic and demographic determinants in the last part of the family planning period in China at the turn of the century and draw the following conclusions. The regional fertility rate and per capita GDP are inversely related, and per capita GDP is the factor that has the greatest influence on the regional total fertility rate. According to the relevant literature, this rule also applies to China’s fertility-promotion period before 1978.
In order to improve the regional fertility rate, it is necessary not only to relax the modern family-planning policy, but also to implement incentive policies related to human fertility, as well as to strengthen social, economic, demographic, and cultural structures.
The paper is funded by the following projects: The 2013 Province level excellent course “Labor Economics” in Shandong Province China (2013BK386); Project granted by the Training Program of Shandong Youth University of Political Science, China (2016).
In total, there are 34 provincial administrative subdivisions in China, including 23 provinces, 5 autonomous regions and 4 central subordination cities, as well as 2 special administrative regions – Aomen (Macau) and Xianggang (Hong Kong). Aomen, Xianggang and Taiwan Province are usually not included in the national census (Appendix
In order to implement the strategy of coordinated regional development, it is necessary to create in China a corresponding multilevel system and a framework of regional division to facilitate the implementation of targeted regional policies. According to China’s 11th Five-Year Plan, the country is divided into eight regions:
1) North-East China: Liaoning, Jilin, Heilongjiang;
2) Northern Coast of China: Beijing, Tianjin, Hebei, Shandong;
3) Eastern Coast of China: Shanghai, Jiangsu, Zhejiang;
4) Southern Coast of China: Fujian, Guangdong, Hainan;
5) Northwest China: Gansu, Qinghai, Ningxia, Xinjiang, Tibet;
6) Southwest China: Chongqing, Sichuan, Guizhou, Yunnan, Guangxi;
7) Yangtze River Delta: Hubei, Anhui, Jiangxi, Hunan;
8) Yellow River Delta: Shanxi, Inner Mongolia, Henan, Shaanxi.
Total fertility rate (TFR) and gross regional product (GRP) per capita, pooled ordinary least squares (OLS), fixed and random effects models
Dependent variable: ln_TFR | |||
Variables | (1) pooled OLS | (2) fixed effects model | (3) random effects model |
const | 2.158** | 1.712** | 1.816** |
(0.1961) | (0.1737) | (0.1756) | |
l_GRPPC | -0.2012** | -0.1526** | -0.1640** |
(0.02121) | (0.01891) | (0.01875) | |
n | 93 | 93 | 93 |
R2 | 0.4957 | 0.6432 | - |
Breusch-Pagan test | χ 2 (1) = 31.8249; р-value = 1.68712e-008 < 0.01 => random effects model is better than pooled OLS | ||
Hausman test | χ 2 (1) = 19.0675; р-value = 1.26174e-005 < 0.01 => fixed effects model is better than random effects model | ||
Robust test for differing group intercepts | Welch F(30, 21.9)=28.9513; р-value= P(F(30, 21.9)>28.9513)=7.39417e-012 < 0.01 => fixed effects model is better than pooled OLS |
Total fertility rate (TFR) and proportion of women with higher education (WEDUC), pooled OLS, fixed and random effects models
Dependent variable: ln_TFR | |||
Variables | (1) pooled OLS | (2) fixed effects model | (3) random effects model |
const | 0.5264** | 0.5434** | 0.5364** |
(0.04451) | (0.03381) | (0.04382) | |
WEDUC | -0.03166** | -0.03415** | -0.03313** |
(0.004571) | (0.004951) | (0.004458) | |
n | 93 | 93 | 93 |
R2 | 0.4290 | 0.5080 | - |
Breusch-Pagan test |
χ 2 (1) = 30.2508; р-value = 3.79628e-008 < 0.01 => random effects model is better than pooled OLS | ||
Hausman test |
χ 2 (1) = 0.454167; р-value = 0.500363 > 0.01=> random effects model is better than fixed effects model | ||
Robust test for differing group intercepts | Welch F(30, 21.9)= 23.3285; р-value = P(F(30, 21.9) > 23.3285) = 7.1344e-011< 0.01 => fixed effects model is better than pooled OLS |
Total fertility rate (TFR) and life expectancy at birth (LE), pooled OLS, fixed and random effects models
Dependent variable: ln_TFR | |||
Variables | (1) pooled OLS | (2) fixed effects model | (3) random effects model |
const | 4.108** | 4.253** | 4.201** |
(0.03304) | (0.4795) | (0.05410) | |
LE | -0.05280** | -0.05482** | -0.03313** |
(0.004706) | (0.006667) | (0.004458) | |
n | 93 | 93 | 93 |
R2 | 0.5402 | 0.6378 | - |
Breusch-Pagan test |
χ 2 (1) = 34.4173; р-value = 4.44755e-009 < 0.01 => random effects model is better than pooled OLS | ||
Hausman test |
χ 2 (1) = 0.0816182; р-value = 0.775116 > 0.01=> random effects model is better than fixed effects model | ||
Robust test for differing group intercepts | Welch F(30, 21.9)= 6.55366; р-value = P(F(30, 22.0) > 6.55366) = 1.24597e-005 < 0.01 => fixed effects model is better than pooled OLS |
Total fertility rate (TFR) and proportion of urban population (URB), pooled OLS, fixed and random effects models
Dependent variable: ln_TFR | |||
Variables | (1) pooled OLS | (2) fixed effects model | (3) random effects model |
const | 0.7691** | 0.9189** | 0.8240** |
(0.05588) | (0.08942) | (0.06222) | |
URB | -0.01110** | -0.05482** | -0.01243** |
(0.001235) | (0.002163) | (0.002163) | |
n | 93 | 93 | 93 |
R2 | 0.5127 | 0.5121 | - |
Breusch-Pagan test | χ 2 (1) = 20.7117; р-value = 5.339e-006 < 0.01 => random effects model is better than pooled OLS | ||
Hausman test | χ 2 (1) = 3.13119; р-value = 0.0768076 > 0.01=> random effects model is better than fixed effects model | ||
Robust test for differing group intercepts | Welch F(30, 21.9)= 6.27007; р-value = P(F(30, 22.0) > 6.27007) = 1.83744e-005 < 0.01 => fixed effects model is better than pooled OLS |