Research Article | | Peer-Reviewed

Does Market Timing Work Well in China’s Mature and Emerging Stock Markets

Received: 29 January 2025     Accepted: 12 February 2025     Published: 26 February 2025
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Abstract

China’s Hang Seng Index (HSI) represents the mature market, and its Shanghai Stock Exchange Composite Index (SSE), the emerging market. I utilize six market timing (MT) methods and one dollar cost average (DCA) method to invest in the two stock indexes respectively. It is assumed that investors make a series of monthly cash contributions to an equity index in the long term. They do not possess lump-sum cash and cannot borrow cash. They buy and hold equity till the end of an investment period. The DCA method is simple, and it is to invest every monthly cash contribution immediately in an equity index. The six MT methods are complicated, and they are to invest more (less) than the monthly cash contribution, under the cash constraint, if the equity price has declined (risen). Empirical tests have been conducted for the 5-year, 10-year, and 20-year rolling investments during 1991-2022. My findings show that for both the HSI and SSE, the net returns generated by the six MTs are similar to those created by the DCA. In addition, the differences (MT-DCA) in the average monthly returns and modified Sharpe ratios are either statistically insignificant or negative and significant. Therefore, regardless the differences between the Hong Kong and mainland China markets, the complicated MTs do not outperform the simple CA in China’s mature and emerging stock indexes.

Published in International Journal of Economics, Finance and Management Sciences (Volume 13, Issue 1)
DOI 10.11648/j.ijefm.20251301.12
Page(s) 20-33
Creative Commons

This is an Open Access article, distributed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution and reproduction in any medium or format, provided the original work is properly cited.

Copyright

Copyright © The Author(s), 2025. Published by Science Publishing Group

Keywords

Market Timing, Dollar Cost Averaging, Hang Seng Index, Shanghai Stock Exchange Composite Index

1. Introduction
Market timing (MT) and dollar cost averaging (DCA) are the major approaches to long-term stock investments. The MT tends to be time-consuming, complicated to use, and hard to operate by computer algorithms. In contrast, the DCA is simple to implement, and it can be set up easily and processed automatically. According to the existing literature, the comparisons of the MT and DCA give rise to various conclusions. In this paper, I investigate whether the MT is effective for the long-term investment in China’s mature and emerging stock markets.
I select the Hong Kong and Shanghai stock exchanges from China because their developmental stages vary distinctively. The former is a mature market, formally set up in 1891, symbolized by the Hang Seng Index (HSI), and denominated in the Hong Kong Dollar (HKD). The latter is an emerging market, established in 1990, represented by the Shanghai Stock Exchange Composite Index (SSE), and denominated in the Chinese Yuan (CNY). In general, the mature-market participants are mostly institutions, while the emerging-market participants are typically retail investors. The different features between the mature and emerging markets may have different implications for the investment methods.
In detail, my study investigates six MT methods (MT1, MT2, MT3, MT1R, MT2R, and MT3R) in comparison to the DCA. The investment performance is measured by the net return and two reference variables. It is assumed that investors make a series of monthly cash contributions to an equity index in the long term. They do not possess lump-sum cash and cannot borrow cash. They buy and hold equity till the end of an investment period. The equity index refers to the HSI as a mature market of China, or the SSE as an emerging market of China. My sample period is from January 1991 to December 2022, and my empirical tests are done for the 5-year, 10-year, and 20-year rolling investments respectively.
I summarize the key result in the following. For both the HSI and SSE, the six MTs produce statistically indifferent net returns from the DCA. So, the complicated MTs do not outperform the simple DCA in China’s mature and emerging stock markets.
2. Literature Review
2.1. Literature on the MT and Other Methods
The existing literature has explored various MT methods, including augmented DCA, enhanced DCA, modified DCA, rebalancing, value averaging, etc. Overall, it is uncertain whether the MTs are more profitable than the DCA. For example, if equity prices are volatile, the MTs might outperform the DCA because the MTs buy more shares at lower prices. However, if equity prices increase continually for a long time, the MTs might underperform the DCA because the MTs buy fewer shares at rising prices.
First, some studies find that the MT methods are better than the DCA. The market timing of augments the DCA by investing more in the month following a down market and less in the month following an up market. Similarly, the market timing of enhances the DCA by investing a fixed additional amount after a down month and reducing the investment by a fixed amount after an up month. In addition, the modified DCA of times the market returns, and it outperforms the traditional DCA across all the international stock markets investigated. The augmented DCA of conditions the investment strategy to the market environment, and it works better than the traditional DCA. Finally, the rebalancing and value averaging strategies may beat the DCA, but they are not used in this paper because they violate my assumptions of no borrowing and no selling. Please see Appendix I for the literature on rebalancing and value averaging methods.
Second, other studies claim that the MT methods do not outperform the DCA. As mentioned by , the MT is difficult to achieve even for professional or experienced investors, while the DCA is appealing for ordinary investors. As reported by , the MT and DCA methods deliver statistically indifferent performances in both the U.S. and Japanese markets. As stated by , the non-DCA equity fund investors, some of which are market timers, earn a lower average return than their DCA counterparts, based on a research report provided by some fund companies in China.
Third, besides the MT and DCA, the lump sum (LS) and asset allocation (AA) methods are also examined in the current literature. The LS and AA would require 100% and 50% respectively of total cash contributions invested at the beginning, which are against my assumptions of monthly cash contributions and no borrowing. Hence, this paper does not involve them. Please see Appendix I for the literature on LS and AA methods.
2.2. Literature on China’s Stock Markets and Funds
I review the features of China’s stock markets as well as the performance of China’s stock funds. Specifically, the different features of the Hong Kong and Shanghai stock markets may suggest different investment approaches; and the performance of stock mutual funds may expose the market timing ability of fund managers.
The Hong Kong Stock Exchange is a mature market, and it has the following three characteristics. First, the Hong Kong stock market is mainly traded by institutional investors, who are more likely (than individual investors) to have different beliefs and rely on their private information to make investment decisions . Second, the Hong Kong stock index is significantly integrated with the U.S. and the Asia indexes . Furthermore, the Hong Kong stock market is cointegrated with the mainland Chinese market in the long run . Third, when Hong Kong was reunited with China in 1997, it accounted for 13% of China’s GDP; but in 2019, only 2.6%; and Hong Kong’s overall standing as a global financial center has slipped .
The Shanghai Stock Exchange is an emerging market, and it has the following five attributes. First, the mainland Chinese market is actively traded by individual investors . Retail investors in mainland China hold 58% of the market and account for 80% of trading volume . Second, the U.S. stock market has return spillover effects on the mainland Chinese stock market, but no volatility spillover effect . At the beginning of China's membership in the World Trade Organization, there was no significant short-term interaction between the U.S. and Chinese stock markets. Since then, some policies have been implemented to open up the Chinese capital market, and the linkage between the U.S. and China has become stronger. Third, the mainland Chinese stocks have a division between floatable and nonfloatable shares, known as the split-share structure, which has been largely dismantled by the 2005 reform . The mean (median) percentage of shares that are nonfloatable has reduced from 60.33% (62.12%) in 2003 to 20.96% (8.94%) in 2015 . Fourth, the mainland Chinese market demonstrates some unique calendar anomalies. One example is the March political window-dressing effect, plausibly caused by political maneuver by the Chinese government . Another example is the monthly mutual fund DCA investment in the first 5 days of each month, which tends to generate a higher return than the investment in the remaining days . Fifth, domestically listed Chinese (A-share) firms encounter some regulatory and management challenges, such as institutional deficiencies in listing and delisting processes as well as weak corporate governance in terms of shareholder value creation .
The performance of China’s stock mutual funds demonstrates mixed results on fund managers’ market timing ability. First, as and document, Chinese mutual fund managers have the ability to time the market returns. Second, according to , only growth-oriented funds are able to successfully time the market returns. Third, as reports, China’s mutual fund industry is about one-tenth the size of the U.S. market; and less than 5% of the actively managed funds in China show significant market timing ability. In addition, based on , Chinese investment funds do not possess significant and positive market-timing skill on average, and the majority of them are negative market timers.
3. Data, Methods, and Measures
3.1. Data Sample and Conditions
The data sample includes monthly prices of the HSI and SSE. The entire period is from January 1991 to December 2022. In addition, the month-by-month rolling 5-year, 10-year, and 20-year periods are also examined.
I assume the following conditions for investing monthly cash contributions in HSI and SSE respectively.
For the entire period (January 1991 to December 2022), the investment horizon is 32 years. For every 5-year (10-year, or 20-year) rolling period, the investment horizon is 5 years (10 years, or 20 years).
An investor contributes 10,000 cash every month, in the same currency as the equity index. Each contribution can be invested in the equity index immediately, saved as cash, or partially invested and partially saved.
Investors use the cash contributions currently received and previously saved to buy the equity index. They cannot borrow cash to invest.
Investors buy and hold the equity index. They cannot sell the equity index before the end of an investment period.
The interest rate paid on cash savings is 0%.
3.2. Methods
I utilize the DCA and MT investment methods in this study. Please note that I do not employ the rebalancing, value averaging, LS, and AA methods since they are inconsistent with the conditions mentioned above. Following the market timing literature, I specify the DCA, MT1, MT2, and MT3 methods. Furthermore, in order to avoid certain extreme situations, I have developed three revised MT methods (MT1R, MT2R, and MT3R).
The DCA method is simple to use. Under the DCA, an investor contributes 10,000 in an equity index every month, where the cash contribution and the equity index are in the same currency. Thus, each cash contribution is invested entirely and immediately, which makes the cash savings to stay at zero.
The MT methods tend to be more difficult in execution, but they might deliver higher returns. The six MTs (MT1, MT2, MT3, MT1R, MT2R, and MT3R) deviate from the DCA by investing less (more) than the monthly cash contribution if the equity index has risen (declined). These MT methods are subject to the constraint of available cash. They are to invest a varying amount of cash in an equity index every month, but they calculate the monthly investment with different formulas. The MT1 calculation of the monthly investment is defined as follows.
Maximum {Minimum [10,000+s, (1-rm)*10,000], 0}, (1)
where s is the cumulative cash savings from the previous months, and rm is the monthly return of the equity index. The first term, 10,000+s, denotes the cash constraint. The second term, (1-rm)*10,000, represents the potential amount that could be invested without any cash constraint. The minimum of the two terms is selected; if positive, it is the invested amount; otherwise, zero is the invested amount since investors are not allowed to sell within the investment horizon. In specific, if the equity index has risen and the monthly return is positive, the invested amount will be less than 10,000, but more than or equal to zero. If the equity index has stayed the same and the monthly return is zero, the amount invested will be equal to 10,000. If the equity index has declined and the monthly return is negative, the amount invested, which is constrained by the amount of cash currently received and previously saved, will be more than or equal to 10,000.
The MT2 and MT3 methods distinguish the first month from the following months in a year. For the amount invested in the first month of the year, the MT2 computation is the same as that of the MT1. The MT3 computation of the investment in the first month of the year is stated as follows.
Maximum {Minimum [10,000+s, (1-ra)*10,000], 0}, (2)
where ra is the annual return of the equity index. For the amount invested in each following month of the year, the MT2 and MT3 calculations are the same, and they are defined as:
Maximum {Minimum [10,000+s, (1-rm)*previous investment], 0}.(3)
According to the above definitions of MT1, MT2, and MT3, the invested amount will be zero if rm (or ra) is higher than 100%. To avoid such extreme situations, I reduce the scale of rm (or ra) by multiplying a coefficient of 0.1 to it. Thus, I end up with three revised MT measures: MT1R, MT2R, and MT3R. The MT1R calculation of the monthly investment is defined as:
Maximum {Minimum [10,000+s, (1-0.1*rm)*10,000], 0}. (4)
For the amount invested in the first month of a year, the MT2R computation is the same as that of the MT1R. The MT3R computation of the investment in the first month of the year is defined as:
Maximum {Minimum [10,000+s, (1-0.1*ra)*10,000], 0}. (5)
For the amount invested in each following month of the year, the MT2R and MT3R calculations are the same, and they are defined as:
Maximum {Minimum [10,000+s, (1-0.1*rm)*previous investment], 0}.(6)
In sum, the investment of each MT method changes from month to month, whereas the investment of the DCA method is fixed every month. Appendix II demonstrates the examples of monthly investments during the first 24 months (January 1991 to December 1992) for the six MTs. Table A1 of Appendix II reports the monthly investments in the HSI, and Table A2, the SSE.
3.3. Measures
For either the HSI or SSE, the total cash contributions to an equity index are 3.84 million in the entire period of 32 years. At the end, investors will hold a portfolio of equity and cash, or a portfolio of equity only. The ending value of the portfolio may be above, below, or equal to 3.84 million, depending on both the equity performance and the investment method.
For the rolling period investments, the total cash contributions to an equity index are 0.6 million in every 5-year period, and the ending value of the portfolio may be different from or equal to 0.6 million. Likewise, in every 10-year (or 20-year) period, the total cash contributions to an equity index are 1.2 million (or 2.4 million), and the ending value of the portfolio may be different from or equal to 1.2 million (or 2.4 million).
In line with the market timing literature, I set up one key measure and two reference measures for investment performance. My key measure is the Net Return, that is, the excess ending value in percentage over an investment period. It is defined as follows.
(Ending Value - Total Cash Contributions) / Total Cash Contributions,(7)
where the Ending Value is calculated as the sum of the ending equity value and ending cash. In addition, my two reference measures of investment performance are the Average Monthly Return and the Modified Sharpe Ratio. The Average Monthly Return represents the mean of monthly portfolio returns. The Modified Sharpe Ratio refers to the risk-adjusted average monthly return, calculated as the Average Monthly Return divided by the standard deviation of monthly portfolio returns.
4. Empirical Results
4.1. Results of the Entire Period (1991-2022)
Both Hong Kong and Shanghai stock indexes have appreciated substantially in the last three decades. As Figures 1 and 2 display, the monthly prices of the HSI and SSE largely move upward, with considerable volatility. For the HSI, the minimum monthly price during the sample period is HKD 3,024, which happened in January 1991; and the maximum is HKD32,887, which happened in January 2018. For the SSE, the minimum monthly price during the sample period is CNY114, which occurred in April 1991; and the maximum is CNY5,955, which occurred in October 2007.
I present the summary statistics for the HSI and SSE during the entire period in Table 1. First, I note that for each index, the Average Index Price in Table 1 is higher than the Average Cost per Share in Table 2. For example, the Average Index Price of the HSI is HKD17,112, while the Average Cost per Share of purchasing the HSI is HKD13,353 (based on the MT1 method), HKD13,547 (MT2), HKD13,719 (MT3), HKD13,332 (MT1R), HKD13,352 (MT2R), HKD13,364 (MT3R), and HKD13,329 (DCA). Similarly, the Average Index Price of the SSE is CNY2,076, while the Average Cost per Share of purchasing the SSE is CNY1,223 (MT1), CNY1,278 (MT2), CNY1,221 (MT3), CNY1,212 (MT1R), CNY1,218 (MT2R), CNY1,217 (MT3R), and CNY1,211 (DCA). Therefore, the average cost of purchasing an equity index is lower than the average price of the index, highlighting a nice attribute of all the MT and DCA methods.
Second, the SSE has both higher return and higher risk than the HSI. The %Change in Price is 554.15% for the HSI and 2320.86% for the SSE over the entire period. In addition, the Mean of Monthly Returns is 0.7380% for the HSI and 1.6137% for the SSE. Hence, the emerging market (SSE) has higher returns than the mature market (HSI). Furthermore, the SD of Monthly Returns is 7.0731% for the HSI and 14.9007% for the SSE. So, the emerging market (SSE) has higher volatility than the mature market (HSI).
Figure 1. Monthly Prices of the HSI.
Figure 2. Monthly Prices of the SSE.
Third, the monthly returns of the HSI and SSE are weakly correlated (0.2040). Although both indexes represent the stocks in China, they may reflect different conditions and stages of the markets. Therefore, it is necessary to investigate them separately and compare their results.
Table 1. Summary Statistics of the HSI and SSE.

HSI

SSE

Average Index Price

HKD17,112

CNY2,076

Minimum Index Price

HKD3,024

CNY114

Maximum Index Price

HKD32,887

CNY5,955

Beginning Index Price (January 1991)

HKD3,024

CNY128

Ending Index Price (December 2022)

HKD19,781

CNY3,089

%Change in Price from Jan 1991 to Dec 2022

554.15%

2320.86%

Mean of Monthly Returns

0.7380%

1.6137%

SD of Monthly Returns

7.0731%

14.9007%

Median of Monthly Returns

1.0017%

0.6077%

Minimum of Monthly Returns

-29.4067%

-31.1529%

Maximum of Monthly Returns

30.2810%

177.2262%

Correlation of HSI and SSE Monthly Returns

0.2040

The table presents summary statistics of the HSI and SSE. Monthly data are used, ranging from January 1991 to December 2022.
I show the summary results based on the MT and DCA methods during the entire period in Table 2. Panel A reports the summary results of the HSI, and Panel B, the SSE. First, the Total Shares Purchased, Average Cost per Share, and Ending Cash are the essential elements of investment activities, but they are not the measures of ultimate outcomes. As the results tell, the MTs have less Total Shares Purchased and higher Average Cost per Share than the DCA. In addition, the MTs have positive amounts of Ending Cash, while the DCA has zero Ending Cash. These observations do not allow us to determine which method is ultimately better than the others.
Second, the MTs do not dominate the DCA in the Net Return, a key measure of investment performance. Specifically, the Net Return of the HSI investment is 47.80% (MT1), 44.42% (MT2), 37.52% (MT3), 48.34% (MT1R), 47.98% (MT2R), 47.31% (MT3R), and 48.40% (DCA). In addition, the Net Return of the SSE investment is 150.57% (MT1), 127.83% (MT2), 121.34% (MT3), 154.63% (MT1R), 151.85% (MT2R), 148.95% (MT3R), and 155.14% (DCA). Hence, the Net Return of every MT method does not exceed its DCA counterpart.
Third, the MTs do not persistently outperform the DCA in the two reference measures of investment performance. Specifically, the MTs may have lower or higher Average Monthly Return or Modified Sharpe Ratio than the DCA. Next, I conduct some statistical tests based on the month-by-month rolling investments.
Table 2. Summary Results of the Entire Period.

Total Shares Purchased

Average Cost per Share

Ending Cash

Ending Value

Net Return

Average Monthly Return

Modified Sharpe Ratio

Panel A. Summary Results of the HSI

HKD

HKD

HKD million

MT1

285.51

13,353

27,613

5.675

47.80%

0.7108%

0.1015

MT2

273.58

13,547

133,847

5.546

44.42%

0.6566%

0.0987

MT3

237.68

13,719

579,291

5.281

37.52%

0.5625%

0.0987

MT1R

287.83

13,332

2,761

5.696

48.34%

0.7200%

0.1019

MT2R

286.56

13,352

13,877

5.682

47.98%

0.7143%

0.1016

MT3R

283.09

13,364

56,716

5.657

47.31%

0.7051%

0.1015

DCA

288.09

13,329

0

5.699

48.40%

0.7210%

0.1019

Panel B. Summary Results of the SSE

CNY

CNY

CNY million

MT1

3,097.88

1,223

51,791

9.622

150.57%

1.5610%

0.1080

MT2

2,709.54

1,278

378,075

8.749

127.83%

1.3429%

0.1076

MT3

2,493.35

1,221

796,801

8.499

121.34%

1.2481%

0.1093

MT1R

3,163.05

1,212

6,303

9.778

154.63%

1.6071%

0.1081

MT2R

3,115.30

1,218

47,097

9.671

151.85%

1.5759%

0.1082

MT3R

3,054.26

1,217

124,098

9.559

148.95%

1.5348%

0.1087

DCA

3,171.49

1,211

0

9.798

155.14%

1.6131%

0.1081

The table presents the summary results of the entire period, based on the MT1, MT2, MT3, MT1R, MT2R, MT3R, and DCA methods. Panel A reports the summary results of the HSI, and Panel B, the SSE. Monthly data are examined, ranging from January 1991 to December 2022. The Total Cash Contributions for the entire period are 3.84 million, in the same currency as their matching equity index.
4.2. Results of Five-year Rolling Periods
I present the 5-year rolling investment results based on the MT and DCA methods in Table 3. Panel A of Table 3 shows the mean, standard deviation, and t-value for the Net Return. Based on the monthly rolling 5-year investments in the HSI, the mean of net returns is 15.04% (MT1), 15.02% (MT2), 14.76% (MT3), 15.02% (MT1R), 15.02% (MT2R), 15.01% (MT3R), and 15.02% (DCA). Also, the six t-values on the mean difference (MT-DCA) are insignificant at the 5% level (0.01, 0.00, -0.14, 0.00, 0.00, and 0.00). Obviously, the MTs and DCA generate similar 5-year net returns in the Hong Kong stock market. Based on the monthly rolling 5-year investments in the SSE, the mean of net returns is 26.72% (MT1), 26.00% (MT2), 28.58% (MT3), 26.65% (MT1R), 26.59% (MT2R), 26.87% (MT3R), and 26.64% (DCA). In addition, the six t-values on the mean difference (MT-DCA) are insignificant at the 5% level (0.02, −0.18, 0.53, 0.00, −0.01, and 0.06). Evidently, the MTs and DCA deliver similar 5-year net returns in the Shanghai stock market. So, for both the HSI and SSE, the six MTs are statistically indifferent from the DCA in terms of the 5-year net return.
Panels B and C of Table 3 show the mean, standard deviation, and t-value for the Average Monthly Return and Modified Sharpe Ratio, respectively. According to the monthly rolling 5-year investments in the HSI and SSE, the t-values on the mean difference (MT-DCA) are insignificant in most cases, or negative and significant otherwise. Hence, regarding the two reference measures, the six MTs are statistically indifferent from the DCA in most cases, or significantly worse than the DCA otherwise. These results in Panel B support those in Panel A of Table 3.
Table 3. Results of 5-Year Rolling Periods.

HSI

HSI

HSI

SSE

SSE

SSE

Mean

SD

t-value on the mean diff. (MT-DCA)

Mean

SD

t-value on the mean diff. (MT-DCA)

Panel A. Net Return

MT1

15.04%

25.43%

0.01

26.72%

46.79%

0.02

MT2

15.02%

23.90%

0.00

26.00%

44.14%

-0.18

MT3

14.76%

21.09%

-0.14

28.58%

46.36%

0.53

MT1R

15.02%

25.72%

0.00

26.65%

46.99%

0.00

MT2R

15.02%

25.55%

0.00

26.59%

46.70%

-0.01

MT3R

15.01%

25.21%

0.00

26.87%

46.78%

0.06

DCA

15.02%

25.75%

-

26.64%

47.01%

-

Panel B. Average Monthly Return

MT1

0.6522%

0.6180%

-0.16

1.0982%

1.4217%

-0.26

MT2

0.6118%

0.5710%

-1.02

0.9250%

1.1922%

-1.93

MT3

0.5117%

0.4896%

-3.35*

0.8597%

1.1038%

-2.62*

MT1R

0.6591%

0.6256%

-0.02

1.1240%

1.4689%

-0.03

MT2R

0.6549%

0.6207%

-0.10

1.0996%

1.4330%

-0.25

MT3R

0.6453%

0.6129%

-0.30

1.0644%

1.3848%

-0.56

DCA

0.6598%

0.6265%

-

1.1278%

1.4754%

-

Panel C. Modified Sharpe Ratio

MT1

0.1003

0.0977

-0.01

0.0917

0.1007

-0.04

MT2

0.0995

0.0975

-0.11

0.0893

0.1007

-0.33

MT3

0.0980

0.0988

-0.32

0.0889

0.1015

-0.38

MT1R

0.1004

0.0977

0.00

0.0919

0.1008

0.00

MT2R

0.1003

0.0977

-0.01

0.0916

0.1008

-0.04

MT3R

0.1002

0.0978

-0.03

0.0913

0.1009

-0.08

DCA

0.1004

0.0977

-

0.0920

0.1008

-

The table reports the 5-year rolling investment results for the MT1, MT2, MT3, MT1R, MT2R, MT3R, and DCA methods. Panels A, B, and C report the test statistics for the Net Return, Average Monthly Return, and Modified Sharpe Ratio, respectively. The Total Cash Contributions for every 5 years are 0.6 million, in the same currency as their matching equity index. The mean difference between the MT and DCA is defined as MT-DCA. The star (*) represents statistical significance at the 5% level.
4.3. Results of Ten-year Rolling Periods
I show the 10-year rolling investment results based on the MT and DCA methods in Table 4. Panel A of Table 4 provides the test statistics for the Net Return. According to the monthly rolling 10-year investments in the HSI, the mean of net returns is 25.36% (MT1), 25.95% (MT2), 25.70% (MT3), 25.29% (MT1R), 25.35% (MT2R), 25.35% (MT3R), and 25.28% (DCA). Moreover, the six t-values on the mean difference (MT-DCA) are insignificant at the 5% level (0.03, 0.29, 0.18, 0.00, 0.03, and 0.03). Noticeably, the MTs and DCA create similar 10-year net returns in the Hong Kong stock market. Based on the monthly rolling 10-year investments in the SSE, the mean of net returns is 41.80% (MT1), 39.73% (MT2), 41.17% (MT3), 41.89% (MT1R), 41.66% (MT2R), 41.64% (MT3R), and 41.91% (DCA). Also, the six t-values on the mean difference (MT-DCA) are insignificant at the 5% level (−0.02, −0.50, −0.17, 0.00, −0.05, and −0.06). Apparently, the MTs and DCA produce similar 10-year net returns in the Shanghai stock market. Therefore, the net returns of 10-year rolling investments in Table 4 are compatible with those of 5-year rolling investments in Table 3.
Panels B and C of Table 4 provide the test statistics for the Average Monthly Return and Modified Sharpe Ratio, respectively. For both the HSI and SSE, the t-values on the mean difference (MT-DCA) are insignificant in most cases, or negative and significant otherwise. Hence, the two reference measures of 10-year rolling investments in Table 4 are consistent with those of 5-year rolling investments in Table 3.
Table 4. Results of 10-Year Rolling Periods.

HSI

HSI

HSI

SSE

SSE

SSE

Mean

SD

t-value on the mean diff. (MT-DCA)

Mean

SD

t-value on the mean diff. (MT-DCA)

Panel A. Net Return

MT1

25.36%

26.44%

0.03

41.80%

52.85%

-0.02

MT2

25.95%

26.51%

0.29

39.73%

46.28%

-0.50

MT3

25.70%

25.67%

0.18

41.17%

43.37%

-0.17

MT1R

25.29%

26.53%

0.00

41.89%

53.76%

0.00

MT2R

25.35%

26.54%

0.03

41.66%

52.94%

-0.05

MT3R

25.35%

26.43%

0.03

41.64%

52.12%

-0.06

DCA

25.28%

26.54%

-

41.91%

53.87%

-

Panel B. Average Monthly Return

MT1

0.6122%

0.2905%

-0.26

0.9543%

0.8149%

-0.30

MT2

0.5793%

0.2635%

-1.62

0.8185%

0.6747%

-2.36*

MT3

0.4870%

0.2224%

-5.79*

0.7642%

0.6223%

-3.27*

MT1R

0.6180%

0.2948%

-0.03

0.9732%

0.8443%

-0.04

MT2R

0.6146%

0.2919%

-0.16

0.9551%

0.8227%

-0.29

MT3R

0.6058%

0.2876%

-0.51

0.9288%

0.7940%

-0.66

DCA

0.6187%

0.2953%

-

0.9760%

0.8482%

-

Panel C. Modified Sharpe Ratio

MT1

0.0882

0.0355

-0.05

0.0927

0.0427

-0.07

MT2

0.0874

0.0351

-0.31

0.0904

0.0427

-0.69

MT3

0.0861

0.0360

-0.72

0.0904

0.0436

-0.69

MT1R

0.0883

0.0356

0.00

0.0929

0.0427

-0.01

MT2R

0.0882

0.0356

-0.03

0.0927

0.0427

-0.07

MT3R

0.0881

0.0356

-0.09

0.0924

0.0428

-0.14

DCA

0.0883

0.0356

-

0.0930

0.0427

-

The table reports the 10-year rolling investment results for the MT1, MT2, MT3, MT1R, MT2R, MT3R, and DCA methods. Panels A, B, and C report the test statistics for the Net Return, Average Monthly Return, and Modified Sharpe Ratio, respectively. The Total Cash Contributions for every 10 years are 1.2 million, in the same currency as their matching equity index. The mean difference between the MT and DCA is defined as MT-DCA. The star (*) represents statistical significance at the 5% level.
4.4. Results of Twenty-year Rolling Periods
I report the 20-year rolling investment results based on the MT and DCA methods in Table 5. Panel A of Table 5 shows the test statistics for the Net Return. Regarding the monthly rolling 20-year investments in the HSI, the mean of net returns is 56.85% (MT1), 56.93% (MT2), 52.66% (MT3), 56.94% (MT1R), 56.95% (MT2R), 56.57% (MT3R), and 56.95% (DCA). In addition, the six t-values on the mean difference (MT-DCA) are insignificant at the 5% level (−0.03, −0.01, −1.57, 0.00, 0.00, and −0.13). Clearly, the MTs and DCA generate similar 20-year net returns in the Hong Kong stock market. Regarding the monthly rolling 20-year investments in the SSE, the mean of net returns is 67.61% (MT1), 62.57% (MT2), 62.37% (MT3), 67.89% (MT1R), 67.34% (MT2R), 66.98% (MT3R), and 67.93% (DCA). Moreover, the six t-values on the mean difference (MT-DCA) are insignificant at the 5% level (−0.07, −1.29, −1.40, −0.01, −0.13, and −0.21). Thus, the MTs and DCA create similar 20-year net returns in the Shanghai stock market. All told, the net returns of 20-year rolling investments in Table 5 are congruent with those of 5-year rolling investments in Table 3.
Panels B and C of Table 5 show the test statistics for the Average Monthly Return and Modified Sharpe Ratio, respectively. For both the HSI and SSE, the t-values on the mean difference (MT-DCA) are insignificant in most cases, or negative and significant otherwise. So, the two reference measures for 20-year rolling investments in Table 5 are in line with those of 5-year rolling investments in Table 3.
Table 5. Results of 20-Year Rolling Periods.

HSI

HSI

HSI

SSE

SSE

SSE

Mean

SD

t-value on the mean diff. (MT-DCA)

Mean

SD

t-value on the mean diff. (MT-DCA)

Panel A. Net Return

MT1

56.85%

25.00%

-0.03

67.61%

37.78%

-0.07

MT2

56.93%

23.88%

-0.01

62.57%

30.95%

-1.29

MT3

52.66%

20.92%

-1.57

62.37%

27.48%

-1.40

MT1R

56.94%

25.19%

0.00

67.89%

38.89%

-0.01

MT2R

56.95%

25.07%

0.00

67.34%

38.02%

-0.13

MT3R

56.57%

24.74%

-0.13

66.98%

37.06%

-0.21

DCA

56.95%

25.21%

-

67.93%

39.03%

-

Panel B. Average Monthly Return

MT1

0.6207%

0.1867%

-0.29

0.9272%

0.4962%

-0.34

MT2

0.5889%

0.1654%

-1.82

0.7981%

0.4084%

-2.72*

MT3

0.4964%

0.1364%

-6.70*

0.7460%

0.3752%

-3.78*

MT1R

0.6265%

0.1898%

-0.03

0.9450%

0.5152%

-0.04

MT2R

0.6232%

0.1876%

-0.18

0.9279%

0.5018%

-0.33

MT3R

0.6144%

0.1847%

-0.58

0.9032%

0.4840%

-0.75

DCA

0.6272%

0.1902%

-

0.9477%

0.5178%

-

Panel C. Modified Sharpe Ratio

MT1

0.0902

0.0202

-0.05

0.0916

0.0215

-0.08

MT2

0.0896

0.0194

-0.34

0.0893

0.0209

-1.01

MT3

0.0885

0.0202

-0.79

0.0893

0.0213

-1.00

MT1R

0.0904

0.0203

-0.01

0.0918

0.0216

-0.01

MT2R

0.0903

0.0202

-0.03

0.0916

0.0215

-0.09

MT3R

0.0901

0.0203

-0.09

0.0914

0.0215

-0.16

DCA

0.0904

0.0203

-

0.0918

0.0216

-

The table reports the 20-year rolling investment results for the MT1, MT2, MT3, MT1R, MT2R, MT3R, and DCA methods. Panels A, B, and C report the test statistics for the Net Return, Average Monthly Return, and Modified Sharpe Ratio, respectively. The Total Cash Contributions for every 20 years are 2.4 million, in the same currency as their matching equity index. The mean difference between the MT and DCA is defined as MT-DCA. The star (*) represents statistical significance at the 5% level.
5. Conclusions
I explore the MT and DCA methods for the long-term investment in China’s stock markets. The equity index is the HSI for China’s mature market, or the SSE for China’s emerging market. The investment period is from January 1991 to December 2022. The DCA method is simple, and it is to invest every monthly cash contribution immediately in an equity index. The six MT methods are complicated, and they are to invest more (less) than the monthly cash contribution, under the cash constraint, if the equity price has declined (risen).
I summarize my major findings as follows. First, the MTs and DCA generate similar net returns for both the HSI and SSE. As shown by the respective 5-year, 10-year, and 20-year rolling period tests, the differences in net returns between the MTs and DCA are statistically insignificant. Second, the differences (MT-DCA) in the average monthly returns and modified Sharpe ratios are either statistically insignificant or negative and significant.
Overall, in spite of the differences between the Hong Kong and mainland China markets, the complicated MTs do not hold any considerable advantage over the simple DCA in either the HSI or SSE investment. Therefore, my six market timing methods do not work better than the dollar cost averaging for the long-term investment in China’s mature and emerging stock markets.
Abbreviations

AA

Asset Allocation

CNY

Chinese Yuan

DCA

Dollar Cost Average

HKD

Hong Kong Dollar

HSI

Hang Seng Index

LS

Lump Sum

MT

Market Timing

SSE

Shanghai Stock Exchange Composite Index

Author Contributions
Yan He is the sole author. The author read and approved the final manuscript.
Conflicts of Interest
The author declares no conflicts of interest.
Appendix
Appendix I. Additional Literature
Rebalancing and value averaging methods
The rebalancing and value averaging methods belong to the market timing approach. Some studies show that the rebalancing and value average strategies dominate the DCA .
LS and AA methods
The LS and AA methods are compared with the DCA. Some studies report that the LS and AA methods outperform the DCA . Other studies argue that the LS may be less favored than the DCA in certain situations .
Appendix II. Examples of Monthly Investments
The appendix shows the examples of monthly investments from January 1991 to December 1992, according to the MT1, MT2, MT3, MT1R, MT2R, and MT3R methods, respectively. Panel A reports the monthly investments in the HSI, and Panel B, the SSE.
Table A1. Monthly Investments in the HSI.

Price (HKD)

Investment (HKD)

HSI

MT1

MT2

MT3

MT1R

MT2R

MT3R

Jan 1991

3,243

10,000

10,000

10,000

10,000

10,000

10,000

Feb 1991

3,552

9,047

9,047

9,047

9,905

9,905

9,905

Mar 1991

3,745

9,457

8,556

8,556

9,946

9,851

9,851

Apr1991

3,588

10,419

8,914

8,914

10,042

9,892

9,892

May 1991

3,707

9,668

8,619

8,619

9,967

9,859

9,859

June 1991

3,668

10,105

8,709

8,709

10,011

9,870

9,870

July 1991

4,009

9,070

7,900

7,900

9,907

9,778

9,778

Aug 1991

3,998

10,027

7,921

7,921

10,003

9,781

9,781

Sept 1991

3,957

10,103

8,003

8,003

10,010

9,791

9,791

Oct 1991

4,039

9,793

7,837

7,837

9,979

9,771

9,771

Nov 1991

4,150

9,725

7,622

7,622

9,972

9,744

9,744

Dec 1991

4,297

9,645

7,351

7,351

9,964

9,709

9,709

Jan 1992

4,602

9,291

9,291

5,810

9,929

9,929

9,581

Feb 1992

4,929

9,289

8,631

5,397

9,929

9,859

9,513

Mar 1992

4,938

9,981

8,614

5,387

9,998

9,857

9,511

Apr 1992

5,370

9,127

7,862

4,916

9,913

9,771

9,428

May 1992

6,080

8,677

6,822

4,266

9,868

9,641

9,303

June 1992

6,104

9,961

6,795

4,249

9,996

9,638

9,300

July 1992

5,881

10,365

7,043

4,404

10,037

9,673

9,334

Aug 1992

5,629

10,429

7,345

4,593

10,043

9,714

9,374

Sept 1992

5,505

10,219

7,506

4,694

10,022

9,736

9,394

Oct 1992

6,191

8,755

6,572

4,109

9,876

9,614

9,277

Nov 1992

5,811

10,614

6,975

4,362

10,061

9,673

9,334

Dec 1992

5,512

10,513

7,333

4,586

10,051

9,723

9,382

Table A2. Monthly Investments in the SSE.

Price (CNY)

Investment (CNY)

SSE

MT1

MT2

MT3

MT1R

MT2R

MT3R

Jan 1991

130

10,000

10,000

10,000

10,000

10,000

10,000

Feb 1991

133

9,766

9,766

9,766

9,905

9,905

9,905

Mar 1991

120

10,234

10,234

10,234

9,946

9,851

9,851

Apr1991

114

10,000

10,000

10,000

10,042

9,892

9,892

May 1991

115

9,922

9,922

9,922

9,967

9,859

9,859

June 1991

138

8,021

7,958

7,958

10,011

9,870

9,870

July 1991

144

9,546

7,597

7,597

9,907

9,778

9,778

Aug 1991

178

7,592

5,767

5,767

10,003

9,781

9,781

Sept 1991

181

9,860

5,687

5,687

10,010

9,791

9,791

Oct 1991

219

7,917

4,503

4,503

9,979

9,771

9,771

Nov 1991

260

8,124

3,658

3,658

9,972

9,744

9,744

Dec 1991

293

8,723

3,191

3,191

9,964

9,709

9,709

Jan 1992

313

9,300

9,300

0

9,929

9,929

9,581

Feb 1992

365

8,358

7,773

0

9,929

9,859

9,513

Mar 1992

381

9,545

7,420

0

9,998

9,857

9,511

Apr 1992

445

8,318

6,172

0

9,913

9,771

9,428

May 1992

1,235

0

0

0

9,868

9,641

9,303

June 1992

1,191

10,352

0

0

9,996

9,638

9,300

July 1992

1,052

11,168

0

0

10,037

9,673

9,334

Aug 1992

823

12,175

0

0

10,043

9,714

9,374

Sept 1992

702

11,469

0

0

10,022

9,736

9,394

Oct 1992

507

12,778

0

0

9,876

9,614

9,277

Nov 1992

725

5,715

0

0

10,061

9,673

9,334

Dec 1992

780

9,230

0

0

10,051

9,723

9,382

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Cite This Article
  • APA Style

    He, Y. (2025). Does Market Timing Work Well in China’s Mature and Emerging Stock Markets. International Journal of Economics, Finance and Management Sciences, 13(1), 20-33. https://doi.org/10.11648/j.ijefm.20251301.12

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    He, Y. Does Market Timing Work Well in China’s Mature and Emerging Stock Markets. Int. J. Econ. Finance Manag. Sci. 2025, 13(1), 20-33. doi: 10.11648/j.ijefm.20251301.12

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    AMA Style

    He Y. Does Market Timing Work Well in China’s Mature and Emerging Stock Markets. Int J Econ Finance Manag Sci. 2025;13(1):20-33. doi: 10.11648/j.ijefm.20251301.12

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  • @article{10.11648/j.ijefm.20251301.12,
      author = {Yan He},
      title = {Does Market Timing Work Well in China’s Mature and Emerging Stock Markets},
      journal = {International Journal of Economics, Finance and Management Sciences},
      volume = {13},
      number = {1},
      pages = {20-33},
      doi = {10.11648/j.ijefm.20251301.12},
      url = {https://doi.org/10.11648/j.ijefm.20251301.12},
      eprint = {https://article.sciencepublishinggroup.com/pdf/10.11648.j.ijefm.20251301.12},
      abstract = {China’s Hang Seng Index (HSI) represents the mature market, and its Shanghai Stock Exchange Composite Index (SSE), the emerging market. I utilize six market timing (MT) methods and one dollar cost average (DCA) method to invest in the two stock indexes respectively. It is assumed that investors make a series of monthly cash contributions to an equity index in the long term. They do not possess lump-sum cash and cannot borrow cash. They buy and hold equity till the end of an investment period. The DCA method is simple, and it is to invest every monthly cash contribution immediately in an equity index. The six MT methods are complicated, and they are to invest more (less) than the monthly cash contribution, under the cash constraint, if the equity price has declined (risen). Empirical tests have been conducted for the 5-year, 10-year, and 20-year rolling investments during 1991-2022. My findings show that for both the HSI and SSE, the net returns generated by the six MTs are similar to those created by the DCA. In addition, the differences (MT-DCA) in the average monthly returns and modified Sharpe ratios are either statistically insignificant or negative and significant. Therefore, regardless the differences between the Hong Kong and mainland China markets, the complicated MTs do not outperform the simple CA in China’s mature and emerging stock indexes.
    },
     year = {2025}
    }
    

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  • TY  - JOUR
    T1  - Does Market Timing Work Well in China’s Mature and Emerging Stock Markets
    AU  - Yan He
    Y1  - 2025/02/26
    PY  - 2025
    N1  - https://doi.org/10.11648/j.ijefm.20251301.12
    DO  - 10.11648/j.ijefm.20251301.12
    T2  - International Journal of Economics, Finance and Management Sciences
    JF  - International Journal of Economics, Finance and Management Sciences
    JO  - International Journal of Economics, Finance and Management Sciences
    SP  - 20
    EP  - 33
    PB  - Science Publishing Group
    SN  - 2326-9561
    UR  - https://doi.org/10.11648/j.ijefm.20251301.12
    AB  - China’s Hang Seng Index (HSI) represents the mature market, and its Shanghai Stock Exchange Composite Index (SSE), the emerging market. I utilize six market timing (MT) methods and one dollar cost average (DCA) method to invest in the two stock indexes respectively. It is assumed that investors make a series of monthly cash contributions to an equity index in the long term. They do not possess lump-sum cash and cannot borrow cash. They buy and hold equity till the end of an investment period. The DCA method is simple, and it is to invest every monthly cash contribution immediately in an equity index. The six MT methods are complicated, and they are to invest more (less) than the monthly cash contribution, under the cash constraint, if the equity price has declined (risen). Empirical tests have been conducted for the 5-year, 10-year, and 20-year rolling investments during 1991-2022. My findings show that for both the HSI and SSE, the net returns generated by the six MTs are similar to those created by the DCA. In addition, the differences (MT-DCA) in the average monthly returns and modified Sharpe ratios are either statistically insignificant or negative and significant. Therefore, regardless the differences between the Hong Kong and mainland China markets, the complicated MTs do not outperform the simple CA in China’s mature and emerging stock indexes.
    
    VL  - 13
    IS  - 1
    ER  - 

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  • Abstract
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  • Document Sections

    1. 1. Introduction
    2. 2. Literature Review
    3. 3. Data, Methods, and Measures
    4. 4. Empirical Results
    5. 5. Conclusions
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  • Conflicts of Interest
  • Appendix
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