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The profitability of technical analysis: Evidence from the piercing line and dark cloud cover patterns in the forex market

Alanazi, Ahmed S.,Alanazi, Ammar S.

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Alanazi, Ahmed S.; Alanazi, Ammar S. Article The profitability of technical analysis: Evidence from the piercing line and dark cloud cover patterns in the forex market Cogent Economics & Finance Provided in Cooperation with: Taylor & Francis Group Suggested Citation: Alanazi, Ahmed S.; Alanazi, Ammar S. (2020) : The profitability of technical analysis: Evidence from the piercing line and dark cloud cover patterns in the forex market, Cogent Economics & Finance, ISSN 2332-2039, Taylor & Francis, Abingdon, Vol. 8, Iss. 1, pp. 1-21, https://doi.org/10.1080/23322039.2020.1768648 This Version is available at: https://hdl.handle.net/10419/245319 Standard-Nutzungsbedingungen: Die Dokumente auf EconStor dürfen zu eigenen wissenschaftlichen Zwecken und zum Privatgebrauch gespeichert und kopiert werden. Sie dürfen die Dokumente nicht für öffentliche oder kommerzielle Zwecke vervielfältigen, öffentlich ausstellen, öffentlich zugänglich machen, vertreiben oder anderweitig nutzen. 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If the documents have been made available under an Open Content Licence (especially Creative Commons Licences), you may exercise further usage rights as specified in the indicated licence. https://creativecommons.org/licenses/by/4.0/ Full Terms & Conditions of access and use can be found at https://www.tandfonline.com/action/journalInformation?journalCode=oaef20 Cogent Economics & Finance ISSN: (Print) (Online) Journal homepage: https://www.tandfonline.com/loi/oaef20 The profitability of technical analysis: Evidence from the piercing line and dark cloud cover patterns in the forex market Ahmed S. Alanazi & Ammar S. Alanazi | To cite this article: Ahmed S. Alanazi & Ammar S. Alanazi | (2020) The profitability of technical analysis: Evidence from the piercing line and dark cloud cover patterns in the forex market, Cogent Economics & Finance, 8:1, 1768648, DOI: 10.1080/23322039.2020.1768648 To link to this article: https://doi.org/10.1080/23322039.2020.1768648 © 2020 The Author(s). This open access article is distributed under a Creative Commons Attribution (CC-BY) 4.0 license. Published online: 25 May 2020. Submit your article to this journal Article views: 2143 View related articles View Crossmark data FINANCIAL ECONOMICS | RESEARCH ARTICLE The profitability of technical analysis: Evidence from the piercing line and dark cloud cover patterns in the forex market Ahmed S. Alanazi 1 *and Ammar S. Alanazi 2 Abstract: We examine 112,792 daily candles using more than one million spot quotes among 24 currency pairs between 2000 and 2018. We find that chart patterns are profitable. Relying on these visually based patterns achieves returns of more than 600% after accounting for the transaction costs. Nevertheless, the transaction costs are substantial. In particular, the spread is a large burden on profitability. Overall, our evidence suggests that technical analysis could generate excess returns and that the profitability of technical analysis cannot be explained by market inefficiency. Rather, the evidence is consistent with that on the link between the efficiency and profitability of technical analysis. Subjects: Economics, Finance, Business & Industry; Finance; Investment & Securities Keywords: technical analysis; profitability; forex market; market efficiency; chart patterns JEL classification: F31; G14 1. Introduction When technical analysis (TA) proves successful, it is the market that is inefficient; however, when it fails, researchers agree that the market is efficient and TA has no merit. Accordingly, TA is not accepted in the academic world under any circumstances. No study has attempted to link market Ahmed S. Alanazi ABOUT THE AUTHOR Dr. Ahmed S. Alanazi is an assistant professor of finance at the College of Business, Alfaisal University, Riyadh. He emphasized greatly on research based work and has published many articles in prominent international journals such as the Applied Economics, the Multinational Financial Management and the Risk Governance and Control: Financial Markets and Institutions. His research interests extend to cover the financial markets in the Gulf Cooperation Council, Initial Public Offerings, and Corporate Governance. Dr. Ahmed has a great knowledge and experience on the Saudi stock market, Tadawul. Currently, he is doing research with the Capital Market Authority of Saudi Arabia on the ownership structure of listed firms. Additionally he is researching the profitability of technical analysis and the Forex market. He has developed a new course, which is offered now at the CoB, Alfaisal University under the title “Financial Trading Strategies”. PUBLIC INTEREST STATEMENT The paper investigates the profitability of technical analysis in the forex market using chart patterns. We examine a large dataset of 24 currency pairs between 2000 and 2018. Our results show that technical analysis can be profitable when equipped with the right trading strategies and the right risk management tools. Relying on the chart patterns we use: the piercing line and dark cloud cover patterns, and trading only 10% of the offered margin enabled us to generate profit of above 600% after accounting for all transaction costs. This is a return of about 11% annually over our time span. Alanazi & Alanazi, Cogent Economics & Finance (2020), 8: 1768648 https://doi.org/10.1080/23322039.2020.1768648 © 2020 The Author(s). This open access article is distributed under a Creative Commons Attribution (CC-BY) 4.0 license. Received: 13 November 2019 Accepted: 22 April 2020 *Corresponding author: Ahmed S. Alanazi, College of Business, Alfaisal University, P.O.Box 50927, Riyadh 11533, Saudi Arabia E-mail: [email protected] Reviewing editor: David McMillan, University of Stirling, Stirling, UK Additional information is available at the end of the article Page 1 of 21 efficiency and TA profitability. The issue in the finance literature is that TA contradicts Fama’s (1970), Fama (1991)) efficient market hypotheses and even refutes the weakest form of Jensen’s (1978) market efficiency. Bessembinder and Chan (1998) were perhaps the first to point to this important issue, stating that “technical analysis profitability needs not be inconsistent with market efficiency.”The present study provides evidence in this regard. The root of TA goes back to Japanese rice traders in the 1600s (Zhu & Zhou, 2009). TA can be defined as “a method for forecasting asset price movements using past prices”(Park & Irwin, 2007). It is widely used in speculative markets by practitioners, financial analysts, and fund managers (Cheung & Chinn, 2001; Gehrig & Menkhoff, 2004;Menkhoff,1997;Smidt,1965b). However, contrary to practitioners, academics do not adopt TA for two major reasons. First, as noted above, TA contradicts the weakest form of the efficient market hypothesis (random walk theory). Second, TA lacks a theoretical foundation. There is thus a huge gap between academic theories and TA. This controversy is perhaps one of the oldest in the finance literature, with the first empirical evidence found by Cowles in 1933. The findings on the profitability of TA are mixed. Levich and Thomas (1993) examine the profitability of TA in the future forex market between 1976 and 1990 and find that simple technical trading rules led to profits over the entire period and between intervals. Dooley & Shafer, 1975, Dooley & Shafer, 1983) use filter rules on spot rates for nine currencies between 1973 and 1981 and find positive profits after accounting for transaction costs and interest rate differentials. SWEENEY (1986), Sweeny (1988)) also finds positive profits among 10 currencies, using filter rules from 1973 to 1980 and in stock markets. 1 On the contrary, a large number of studies reject TA. Fama and Blume (1966) were among the first to report the failure of TA in the stock market, especially after accounting for transaction costs. Hudson et al. (1996) repeat the study of Broke et al. (1992) in the UK market and find that technical rules are unprofitable if transaction costs are accounted for. Lee, Gleason et al. (2001) examine 13 Latin American currencies and find that technical rules are profitable for four currencies but not for the others. Lee, Pan et al. (2001) examine nine Asian currencies and show that technical rules do not generate significant positive results. The contributions of this study are threefold. First, it attempts to determine the possible links between market efficiency and TA profitability in the forex market, the largest market in the world (about 5 USD trillion daily volume). The forex market, which has 24-hour trading, is also a highfrequency trading market, which enables it to trade freely with minimal pips (Levich, 1989; Menkhoff et al., 2016; Piccotti, 2018). 2 Second, this is the first study to examine what Achelis (2001) calls “the long forgotten Asian secrets.”Visually based pattern studies include the early study by Levy (1971) of the five-point pattern, head and shoulders by Osler and Chang (1995), that of Lucke (2003), the study of the bull flag by Leigh et al. (2002), and the study of various patterns by Lo et al. (2000). Our study differs in that we examine a different type of pattern that can be expressed algebraically. We use Japanese candlesticks for the pattern identifications as well as for our entry and exit procedure without subjectivity. In other words, our pattern can be re-examined and replicated. One of the major problems among chart patterns is subjectivity (Chang & Osler, 1999; Levy, 1971; Osler & Chang, 1995). Niftci (1991) states that these visual patterns are a broad class of prediction rules with unknown statistical properties. The third contribution is that this is the first study to examine the profitability of TA in the forex market using margins by employing different methods and techniques to evaluate its performance. Individual investors need a margin to access the forex market to exploit the small proportions of daily currency movements in pips (basis points). Most previous studies of the forex market ignore this fact. Alanazi & Alanazi, Cogent Economics & Finance (2020), 8: 1768648 https://doi.org/10.1080/23322039.2020.1768648 Page 2 of 21 Our evidence supports the use of TA. We detect 1,677 trades for 24 currency pairs over 19 years. We use three trading strategies: (i) setting our target equal to the stop/loss (1:1 reward/risk ratio), (ii) using a 2:1 reward/risk ratio, and (iii) using a 3:1 reward/risk ratio. Using strategy (i) is unprofitable. Indeed, the pattern does not offer more than a 50% winning probability. However, when we apply the 2:1 reward/risk ratio, total returns increase to approximately 268%, even though the number of profitable trades is reduced by half. Therefore, the pattern carries strong predictive power when employed correctly. Lastly, using the 3:1 reward/risk ratio increases total returns to 642% even though our profitable trades become only one-third of total trades. Furthermore, we find that the transaction costs of the spread and rollover influence the profitability of TA significantly in line with Menkhoff and Taylor (2007) finding that transaction costs do not necessarily eliminate profitability. Our study empirically reports the significant impact of this cost. 3 The total spread paid on 1,677 trades amounts to 12,861 pips. This is a huge cost (income for forex brokers) compared with our net income of about 5,000 pips. In addition, the total interest earned on these positions amounts to 2,780. USD Finally, we find that 14 pairs show profitability and 10 show negative results. In particular, the pound pairs show the best outcome due to volatility, followed by the Canadian dollar, whereas the euro and Swiss franc perform the worst. 2. Piercing line and dark cloud cover patterns TA can be divided into quantitative and qualitative analyses. Our study falls under the qualitative type because it relies on chart patterns with no clear statistical properties. The piercing line and dark cloud cover patterns are reversal sign patterns (Achelis, 2001). They represent a potential reverse (U-turn) in the price when they occur. The piercing line represents a potential shift in the market from a falling bearish market to a rising bullish market. The dark cloud cover pattern indicates the opposite: a shift from a rising bullish market to a declining bearish market. Both patterns consist of two consecutive candles that occur after a severe upward or downward trend. Figure 1(a) shows the piercing line pattern. Initially, there is a downward trend, and the price heads south. Then, we observe two consecutive candles, a large bearish candle to the left (the previous candle, or PC) and a large bullish candle (the current candle, or CC) to the right. The PC represents the end of the downward trend and the CC represents the potential reversal. With the constitution of the CC, bears attempt to lower the price further and succeed at the beginning where the CC records a new low (a lower low). However, bulls fight back and succeed in pushing the price back up. Eventually, bulls win the battle and manage to close the candle as bullish. The bullish CC is close to 50% of the PC’s real size, which means that bulls retrace most of bears’gain. The low of the CC characterizes an ideal area to place the stop/loss since the price might have bottomed out (a support level). Figure 1(b) illustrates the dark cloud cover pattern. It is the same as the piercing line pattern, but in the other direction. Initially, the price heads north. This upward trend is followed by two a) Piercing line bullish pattern b) Dark cloud cover bearish pattern Open Open High High Low Low Close Close Piercing line pattern Open Open High High Low Low Close Close Dark cloud cover pattern Time Price Current candle closes > 50% of previous candle’s body size Price Time Current candle closes < 50% of previous candle’s body size Down-trend Up-trend Figure 1. Piercing line and dark cloud cover patterns. Alanazi & Alanazi, Cogent Economics & Finance (2020), 8: 1768648 https://doi.org/10.1080/23322039.2020.1768648 Page 3 of 21 consecutive candles, namely, the PC to the left and the CC to the right. The PC is firmly bullish, while the CC is bearish. At the beginning, bulls try to raise the price further, and they succeed initially where the CC records a new high (a higher high). However, bears fight back and manage to return the price down. Eventually, bears win the battle and succeed in closing the candle as a solid bearish candle (close to open). The CC closes at a level below 50% of the real PC size. This means that bears manage to retrace most of bulls’gains. At this stage, the market is prepared for a further decline. The high of the CC characterizes an ideal area to place the stop/loss because it represents a potential high (a resistance level). From a behavioral finance perspective, the bullish piercing line and bearish dark cloud cover patterns represent a potential shift and reversal in the market. If there is no shift in the market, we observe no fluctuations, and the price will head in one direction. The movement of the price between upward and downward trends reflects the psychology and behavior of buyers and sellers at various points in time. Achelis (2001) states, “I have met investors who are attracted to candlesticks by their mystique—maybe they are the ‘long forgotten Asian secret’to investment analysis.”These visually based patterns are well known among practitioners, but have never been tested empirically. Other long forgotten Asian secrets include the hammer and hanging man patterns, bullish and bearish engulfing patterns, doji star, and morning star. All these patterns rely on the formation of candles and how they represent certain drawings that reflect changing behavior in the price action. Other previously visually based patterns tested include the head and shoulders pattern, bull flag pattern, and five-point pattern. Asian patterns differ in that they can be programmed under clearly defined conditions. For instance, we can determine at which candle(s) particularly to look and when to enter/exit. The figure explains the piercing line and dark cloud cover patterns. The pattern consists of two consecutive candles: the CC to the right and the PC to the left. Both patterns occur after a clear trend. The piercing line pattern (a) occurs after a downward trend. The downtrend is followed by two consecutive candles (pattern). The dark cloud cover pattern (b) is the same but in the opposite direction, which occurs after an up-trend. 3. Data and methodology 3.1. Data sources We collect daily quote data for currency spot exchange rates from the Forex Capital Market, a global forex broker. We collect spot quotes on 24 currency pairs, as shown in Table 1. The study period runs from the beginning of 2000 to the end of 2018. We collect complete daily data for 16 pairs, including major pairs (4,834 daily quotes). For eight pairs, we collect 4,431 daily quotes, starting from their day of inception in the Forex Capital Market on 28 November 2001. Therefore, we collect the spot quotes of 112,792 daily candles. For each pair, we collect eight quotes: the open bid/ask, high bid/ask, low bid/ask, and close bid/ask. The calculations of the mid-point provide four additional observations, leading to more than a million spot observations. Pairs’exchange rates are quoted in an indirect quotation, where the first currency (the base) represents the domestic currency and the second currency represents the foreign currency. 4 Cross rates are collected without adjustments, assuming no-triangular arbitrage (Piccotti, 2018). The data points on the interest rates for all eight currencies are collected from Bloomberg. We use the LIBOR overnight rate to calculate the interest rate differentials. This benchmark rate represents the interest rate at which banks lend funds to one another in the international interbank market in the short term. 3.2. Summary statistics Table 1shows the summary statistics for the 24 currency pairs in the analysis. For the first seven major pairs, we observe that the British pound belongs to the most volatile pairs among the Alanazi & Alanazi, Cogent Economics & Finance (2020), 8: 1768648 https://doi.org/10.1080/23322039.2020.1768648 Page 4 of 21 Table 1. Summary statistics for the 24 currency pairs between 2000 and 2018 Pair Total Average Median 75 th Percentile 25 th Percentile Max Min Spread EUR/USD 543,758 113 99 137 72 539 12.3 2.6 AUD/USD 429,957 89 76 108 55 748 4 4.1 USD/JPY 473,277 98 88 120 63 794 7 3.3 USD/CHF 547,637 113 99 143 68 1,886 6 4.1 GBP/USD 661,472 137 120 166 89 1,791 2 4.5 NZD/USD 401,264 83 73 101 54 516 9 5 USD/CAD 487,319 101 90 122 65 745 10 4.7 GBP/CAD 811,455 183 165 224 121 1,891 22 13.4 GBP/AUD 947,203 214 184 253 135 2,604 8 13.7 GBP/NZD 1,210,168 273 235 328 173 2,044 27 20 GBP/CHF 793,617 164 142 199 100 2,878 25 11.6 GBP/JPY 902,426 187 159 221 116 2,689 8 8.5 EUR/AUD 788,818 163 136 192 101 2,085 20 10.9 EUR/CAD 691,382 143 128 172 96 790 17 9.1 EUR/CHF 334,926 69 56 83 37 2,324 2 5.8 EUR/NZD 900,396 203 172 243 129 1,884 28 15.6 EUR/JPY 657,843 136 116 161 85 1,350 9 5 AUD/JPY 524,897 109 89 126 66 1,114 5 6.5 NZD/JPY 443,987 100 84 118 62 911 13 5.9 CHF/JPY 475,290 98 85 115 64 2,444 21 7.9 CAD/JPY 478,142 108 91 129 68 915 19 5.6 AUD/CAD 455,312 94 84 113 63 735 7 8.4 AUD/NZD 418,034 94 83 112 63 759 22 14.3 AUD/CHF 437,324 99 83 116 63 1,551 5 8.5 This table provides summary statistics for the 24 currency pairs between 2000 and 2018. The total represents the number of pips each pair changed calculated by taking the difference between the daily high and low. The other columns show the major statistics on a daily basis. The spread represents the average active tradable spread, which is the difference between bid/ask quotes. The US pairs with USD represent the major pairs, while other pairs are crosses. Alanazi & Alanazi, Cogent Economics & Finance (2020), 8: 1768648 https://doi.org/10.1080/23322039.2020.1768648 Page 5 of 21 majors. It fluctuates by more than 660,000 pips over the 19 years with an average daily movement of 137 pips. The other pound crosses show the same pattern of high volatility. GBP/NZD records the highest volatility, rising by more than 1.2 million pips between 2001 and 2018. The spread of the pound is relatively high, ranging between 4.5 and 20 pips. In addition, we detect extreme daily movements for the pound. For instance, the GBP/USD maximum daily movement is 1,791 pips, which was recorded on the day of the Brexit announcement. 5 Looking next at the euro, EUR/USD has a daily price movement of almost 100 pips. The pair has the lowest spread at 2.6 pips, which is understood given that it is the most heavily traded. This pair alone controls 23.1% of the over-the-counter forex market with a daily average turnover of 1,172 USD billion. The other euro crosses show the second largest volatility after the British pound crosses. EUR/AUD and EUR/NZD have large daily price movements of 136 and 172 pips, respectively and both show a spread of over 10 pips. The inverse relationship is found between volatility and spread and between liquidity and spread. Moving to the Japanese yen pairs, USD/JPY rises by more than 374,000 pips over the 19-year period. This pair has a relatively moderate daily price movement of 88 pips and the second lowest spread at 3.3 pips. Moreover, it is the second largest traded pair in the over-the-counter market with a 901 USD billion daily turnover. The most volatile yen crosses are with the pound (i.e., GBP/ JPY), which has a daily price movement of 159 pips, and the least volatile is NZD/JPY at 84 pips. The yen is always quoted in a way that it represents the counter currency. 6 USD/CHF seems to mirror the EUR/USD pair, as it shows the same price daily movement of 99 pips. However, the franc pairs show extreme daily movement, which is linked to the sudden peg removal of the franc with the euro at 1.2/euro maximum adopted by the Swiss National Bank. The franc pairs show an immediate deterioration against all currencies. For instance, it lost 20% against the US dollar. 3.3. Methodology The midpoint is calculated as follows: The exchange rate ¼Quoteask þQuotebid 2(1) This is used for all four quotes: open, high, low, and close. The four quotes are needed for the entry and exit procedure we employ. When the conditions of the piercing line pattern occur, we enter into a long position by buying at the opening ask price of the next candle. Similarly, when the conditions for the dark cloud cover pattern occur, we enter into a short position by selling at the opening price bid. These are used to account for the spread. Additionally, we close the position once the price hits either our set stop/loss or the target. 3.3.1. Theoretical framework and model setup Behavioral finance can be defined as “finance from a broader social science perspective including psychology and sociology.”Our study falls under behavioral finance, where the candles represent investors’behavior and actions. Japanese candlesticks reveal much of the conflict between buyers (demanders) and sellers (suppliers). Tversky and Kahneman (1974) were early researchers in the field of behavioral finance. Two key players are added into this model: arbitrageurs and noise traders. Arbitrageurs are sophisticated rational traders, whereas noise traders are irrational investors. De Long et al. (1991)suggest that noise traders may control the market over arbitrageurs, even in the long run, which gives rise to the profitability of TA. Buying when prices rise and selling when prices fall attract more investors to the market and exaggerate the rise or decline (optimism or pessimism). Froot et al. (1992) state that the large number of uses of TA and charting may generate positive returns for chartists. Behavioral finance differs from efficient market assumptions in that investors are assumed to be irrational, and this irrationality creates market anomalies, which allows TA to be profitable. Alanazi & Alanazi, Cogent Economics & Finance (2020), 8: 1768648 https://doi.org/10.1080/23322039.2020.1768648 Page 6 of 21 To identify the piercing line and dark cloud cover patterns, our model consists of 12 consecutive candles. The first 10 candles are used to identify the trend and the last two are used to identify the pattern. The last two candles are labeled the CC, which occurs at time t0, and the PC, which occurs at time t1. We identify the trend by comparing the first candle before the PC, which occurs at time t2(Ct2Þ, with the 10th candle before the PC, which occurs at time t11(Ct11). Therefore, the piercing line pattern has the following criteria: Piercing line ¼ Ct2high <Ct11 low;Downward trend PCt1Close <PCt1Open;The PC is abearish candle CCt0 Close >CCt0 Open;The CC is abullish candle CCt0 Low <PCt1Low;CC is recording anew lower low CCt0 Close >50% of PC t1ðÞ Open closeðÞ 8 > > > > < > > > > : (2) Hence, for a piercing line pattern to arise, first the trend has to be downward, where the high of the candle (Ct2high) is lower than the low of the candle (Ct11lowÞ, to ensure that the pattern follows a downward trend. Ten candles are used to identify the trend, which represents the past price movement of two weeks. In addition, the PC has to be a bearish candle, where it closes lower than its opening: PCt1Close<PCt1Open; this confirms the continuing of the downward trend. Moreover, the CC has to be a bullish candle, where it closes higher than its opening: CCt0Close>CCt0Open. Nevertheless, the CC starts by declining further, which enables it to record a new low (a lower low). Thus, the CC is a bullish candle firmly with a new recorded low: CCt0Low<PCt1Low. This new low is now considered to support price movement. Lastly, the CC closes as bullish and at a level over half the PC’srealsize:CC t0Close>50%ofPC t1ðÞ Open closeðÞ. At this stage, bulls are taking control and the market is prepared for a surge. The stop/loss can be safely placed underneath the CC low (bottom). The dark cloud cover has the same criteria, but in the opposite direction as follows: Dark cloud cover ¼ Ct2low >Ct11 high;Upward trend PCt1Close >PCt1Open;The PC is abullish candle CCt0 Close <CCt0 Open;The CC is abearish candle CCt0 High >PCt1High;CC is recording anew higher high CCt0 Close <50% of PCt1Close OpenðÞ 8 > > > > < > > > > : (3) Hence, for a dark cloud cover pattern to arise, first, the trend has to be upward, where the low of the candle Ct2low is higher than the high of the candle Ct11high. This confirms the upward trend. In addition, the PC has to be a bullish candle, where it closes higher than its opening PCt1Close>PCt1Open, which indicates a continuing trend. Moreover, the CC has to be a bearish candle, where it closes lower than its opening CCt0Close<CCt0Open. Nevertheless, the CC starts by rising further, which enables it to record a new high (a higher high). Thus, the CC is a bearish candle firmly with a newly recorded high CCt0High>PCt1High. This new high is now considered to be resistance. Lastly, the CC closes as bearish and at a level below half the PC’s real size: CCt0Close<50%ofPCt1Close Open ðÞ . At this stage, bears are taking control and the market is prepared for a further decline. The stop/loss can be safely placed above the CC. 3.3.2. Trade entry and exit procedure We enter into a long (short) position when a piercing line (dark cloud cover) pattern is detected. We buy (sell) at the opening of the next candle immediately. We buy at the ask price of the next candle with the piercing line pattern and sell at the bid price of the next candle with the dark cloud cover pattern to account for the spread. This is a direct consideration of the spread cost since we buy at the expensive ask and sell at the cheap bid (Cialenco & Protopapadakis, 2011). We set the stop/loss 10 pips below the low of the CC in the case of a long position or 10 pips above the high of the CC in the case of a short position. The CC low (high) represents the bottom (top) of the price movement. In addition, it represents support (resistance) for a turning price (for the use of support and resistance, see Osler, 2000,2003). Alanazi & Alanazi, Cogent Economics & Finance (2020), 8: 1768648 https://doi.org/10.1080/23322039.2020.1768648 Page 7 of 21 Table 3. (Continued) Pair Trades Profitable Unprofitable Spread Rollover $ Net pips ADR $ TR % Mean % Max % Min % Std % AUD/NZD 56 18 38 713.4 51.23 215.95 202.40 20.24 0.36 49.83 −20.7 12.72 AUD/CHF 69 27 42 420.4 2.79 850.55 853.34 85.33 1.24 38.07 −51.92 17.38 Total 1,153 383 770 11,925.5 1,564.53 2,575.5 3,475.55 347.56 0.35 200.34 −68.26 20.46 Total 1,676 557 1,119 13,995.4 1,789.59 1,882.8 2,676.42 267.64 0.08 200.34 −68.26 18.01 This table shows the results for the 24 currency pairs using the 2:1 reward/risk ratio. Panel A shows the seven major pairs and Panel B shows the 17 crosses. ***, **, and * are the significance levels at 10%, 5%, and 1%, respectively Alanazi & Alanazi, Cogent Economics & Finance (2020), 8: 1768648 https://doi.org/10.1080/23322039.2020.1768648 Page 14 of 21 positive at 1,883 compared with the previous loss. Third, we observe a positive total adjusted return of 2 USD,677 (276.6%) and a positive mean return of 0.08% per transaction. For the transaction costs, we pay the substantial amount of 14,000 pips on the spread (8.4 pips per transaction on average). The spread cost is almost seven times larger than our gain in net pips. On the contrary, the rollover shows a positive contribution to our trades by adding 1,790 USD to our income. Almost two-thirds of our profit comes from the rollover. Hence, most of our trades earn the interest differential rather than paying it. This is the carry trade strategy under which investors buy the currency that offers high interest by funding it using the low-interest currency. This finding is in line with that of SWEENEY (1986). Panel A of Table 3shows that majors tend to be losers. AUD/USD performs the worst with a mean transaction return of about 4.5%, significant at the 1% level. On the contrary, GBP/USD performs the best with a total adjusted return of 3 USD,700 and a mean return of 5.14%, significant at the 5% level. In addition, USD/CAD shows a positive result with an adjusted return of more than 2 USD,000 (200%-plus return). This might be linked to the efficiency of the majors, as proposed by Lee, Gleason et al. (2001) and Lee and Mathur (1996a,1996b)). Panel B of Table 3shows that the crosses achieved a total return of 348% and a mean return of 0.35%, a much better result than the majors. The best performer is GBP/AUD with a mean return of almost 7%, significant at the 5% level. The most striking observation is how some pairs have changed their outcome completely after switching from using 1:1 strategies to 2:1 strategies. For instance, GBP/CAD has recovered most of its losses (from -$2,518 to -$875). In addition, EUR/AUD recovers almost 2,000 USD of its losses. Furthermore, we analyze the 3:1 reward/risk ratio (results are not reported for the sake of brevity). Using the 3:1 ratio, there are 1,677 trades among the 24 pairs over the 19-year period. The number of profitable trades is only one-third of total trades. Although the number of unprofitable trades is larger, the overall outcome for all trades is positive, with almost 5,000 net pips. The number of net pips increases from −5,459 with the 1:1 reward/risk ratio strategy to 1,883 with the 2:1 strategy and 4,973 with the 3:1 strategy. It is clear that the saying “let your profit run”’ is true. Additionally, the number of profitable pairs increases from 12 to 14 (58% of the sample), which is much better than the results obtained by Hsu et al. (2016). Relying on the piercing line and dark cloud cover patterns generates an adjusted total return of 6 USD,422 (a total return of 642% or 11.12% annualized) with a mean return of 0.24% per transaction. 4.3. Pattern performance over time and across currencies The profitability of TA has declined over time as markets have become more efficient (Oslon, 2004). For example, Levich and Thomas (1993) find a decline in TA profitability in their final subsample. In addition, Hsu et al. (2016), LeBaron (1999), Menkhoff and Taylor (2007), Neely et al. (2009), and Qi and Wu (2006) find declining TA profitability over time. Table 4reports the results of the piercing line and dark cloud cover patterns over time. First, we observe that 10 of the 19 years show positive results. The beginning of the sample in 2000 is profitable with a mean adjusted return of 3%. This is somewhat in line with the findings of Neely and Weller (1999), who report profitability recovery in the forex market after 1998. The following year (i.e., 2001) is significantly negative. After that, we observe six successive years of positive results, one of which is significant at the 5% level. Then, from 2008, the outcome is negative until a recovery in 2015. Generally, there is no clear evidence of declining profitability over time; rather, we observe instability year to year consistent with Menkhoff and Taylor (2007) stylized fact number 6. Although previous authors have examined different periods in the 1970s, 1980s, and 1990s, our findings suggest the continuing profitability of TA and the inefficiency of the forex market. Table 4further points to cross-sectional variations between currencies. We find that US dollar pairs are unprofitable. They achieve a total return of −60% and a zero mean transaction return. Alanazi & Alanazi, Cogent Economics & Finance (2020), 8: 1768648 https://doi.org/10.1080/23322039.2020.1768648 Page 15 of 21 Table 4. Piercing line and dark cloud cover pattern performance over time and across currencies $US $US €€¥ ¥ £ £ Swiss f Swiss f $C $C $AU $AU $NZ $NZ All All Year TR µ TR µ TR µ TR µ TR µ TR µ TR µ TR µ TR µ 2000 90.8 3.8 137.1 8.1 44.2 3.2 32.2 4.6 34.3 2.6 9.1 1.8 31.8 2.9 −13 −2.6 366.4 3 2001 −8.8 −0.3 −13.8 −1.1 −155.2 −8.6 −146.4 −13.3 −154.5 −22** 52.3 5.2 −27.6 −2.5 −5.5 −1.4 −459.5 −5.5*** 2002 −37 −1.2 96.9 4.2 11.2 0.5 186.9 8.9 186.7 6.7 20.2 0.9 −0.9 0.0 59.4 4.2 523.4 3 2003 −66 −1.9 76.1 3.5 95.6 3.1 328.1 10.9 −58.9 −2.2 137.9 5.4*** 141.6 5.7 112 10.2 766.3 4.3** 2004 11.5 0.6 114.2 5.0 125.9 5.5 −46.7 −2.5 −4.1 −0.3 −136 −4.9 94.5 3.9 61.5 5.1 220.7 1.6 2005 12.5 0.5 135.1 6.8 −13.4 −0.5 23.5 1.1 52.5 2.6 0.4 0.0 −27.1 −1.2 63.3 2.8 246.6 1.5 2006 41.2 2.6 −9−0.7 70.1 7 117.3 7.8 −20.3 −3.4 22.2 1.6 −48.3 −4.0 9.7 0.9 182.8 1.5 2007 122.2 3.7 −18.9 −0.6 427.9 9.1 195.8 7.3 −68.8 −3.8 54 1.6 −0.9 0.0 47.8 1.6 759.1 2.4 2008 141 5.9 −269.5 −14.2* −166.1 −5.2 75 2.9 −121.4 −6.4 219.7 13.7** 51.6 1.9 −26.2 −1.2 −95.9 −0.3 2009 2.6 0.1 44.4 2.1% 82.7 3.4 67.1 3.1 −55.6 −4 54.5 3.2 −204 −10.2* −23.9 −1.0 −32.1 −0.4 2010 −136.5 −5.3 −175.5 −7.6** 32.6 1.4 203.1 10.2 27.8 1.7 −48.9 −3.1 −58.9 −2.6 −42.2 −3.2 −198.4 −1.1 2011 −74.4 −2.3 −169.7 −7.7** 74.9 3.1 −227.2 −7.6*** −92.2 −3.2 26.5 1.1 53.8 2.7 −118.7 −7.9 −526.9 −2.7 2012 44.6 1.8 50.2 1.6 −128.7 −3.7*** −70.2 −2.7 −17.7 −1.3 −51.9 −2.5 37.2 1.3 −42.6 −1.8 −179.2 −0.9 2013 39.6 1.0 −14.7 −0.5 −50.4 −1.9 −39.7 −1.5 84 4.4 42.3 1.7 −6.9 −0.2 −58.5 −2.1 −4.5 0.1 2014 −204.8 −5.7** −35.5 −1.7 7.4 0.3 −11.9 −0.5 −146.4 −7* −79.6 −4.2** −64 −3.8 −13.6 −1.1 −548.3 −3 2015 95.9 3.8 11.4 0.5 −37 −1.3 264.9 13.9** 349.6 18.4* −43.6 −4.8 44.9 1.9 −11 −0.6 675.1 4 2016 −78.5 −6.5 −86.3 −4.5 −86.9 −4.1 −9.1 −0.4 −49.8 −2.3 −36.2 −2.8 −17.5 −0.7 28.7 1.5 −335.5 −2.5 2017 −56.4 −1.4 −114.3 −3.6 −7.1 −0.2 −68.7 −2.5 −25.4 −0.9 −113.2 −4.6*** −16.4 −0.6 −125.9 −5.2** −527.3 −2.4 2018 −0.1 0.0 95.2 4.3 −43.3 −2.9 141.5 5.4 71.4 3.2 55.7 3.3 73.5 2.3 57.7 2.7 451.6 2.3*** Total −60.6 0.0 −146.7 −0.3 284.4 0.4 1015.6 2.4 −8.9 −0.9 185.4 0.7 56.2 −0.2 −41.1 0.0 1284.4 0.3 This table shows the pattern results from 2000 to 2018 and across currencies. $US represents the outcomes for all US pairs, which includes the seven majors. €includes all the euro pairs. ¥ includes all the yen pairs. £ includes all the pound pairs. Swiss f includes all the Swiss franc pairs. $C includes all the Canadian dollar pairs. $AU includes all the Australian dollar pairs. $NZ includes all the New Zealand dollar pairs. All include all eight currencies. TR represents the total return calculated as in equation (9). µ represents the mean return of transactions. ***, **, and * are the significance levels at 10%, 5%, and 1%, respectively. Alanazi & Alanazi, Cogent Economics & Finance (2020), 8: 1768648 https://doi.org/10.1080/23322039.2020.1768648 Page 16 of 21 Furthermore, all the other currencies of the euro pairs, Swiss franc pairs, and New Zealand dollar pairs show negative results. These results are consistent with those of Lee and Mathur (1996a) on the euro, but inconsistent with those of Hsu et al. (2016) on the profitability of the New Zealand dollar. On the contrary, the British pound pairs show the best outcome of 1,016% in total returns and a 2.4% mean return. Recall that the pound is the most volatile currency; we link the profitability of the pound to its volatility. This finding is in line with Menkhoff and Taylor (2007) stylized fact number 5. In addition, the Canadian dollar is profitable with a 186% total return and 0.7% mean return. Other profitable currencies include the Japanese yen pairs and Australian dollar pairs, which both show positive total returns of 285% and 56%, respectively. Overall, our evidence from the cross-sectional analysis is consistent with the view that TA and patterns might work for some assets, but not for others. 5. Robustness check The sample period from 2000 to 2018 includes the global financial crisis in 2007–2008 and the Eurozone sovereign debt crisis of 2009–2012. During these events, volatility strengthened for the US dollar and euro, leading to higher transaction costs in the form of wider bid/ask spreads and mid-quote prices. Moreover, owing to speculative attacks and the role played by hedge funds, the value of the euro declined dramatically against the US dollar and other major currencies during the crisis. Table 5splits the US dollar and euro samples into preand post-crisis periods. Focusing first on the US dollar, we observe that the spread increases from 4.1 to 4.58 pips. Five of the seven show an increase in the spread in the post-crisis period compared with the pre-crisis period. In addition, the mean return per transaction for the US dollar portfolio declines from 0.003% in the pre-crisis period to −0.003% in the post-crisis period. On the contrary, volatility does not show any change at 105%, but does increase for four pairs including GBP/USD, which is the most volatile among the majors. We attribute this to Brexit, which adds to its volatility. Table 5. Preand post-crisis analyses Pair Pre-crisis Post-crisis Spread Volatility Return µ Spread Volatility Return µ EUR/USD 2.07 1.10 0.01 3.16 1.00 −0.07 AUD/USD 4.39 0.84 −0.02 4.15 0.82 −0.04 GBP/USD 4.10 0.98 0.07 5.73 1.38 0.03 NZD/USD 5.02 0.68 0.02 6.20 0.88 −0.02 USD/CAD 4.70 0.84 0.02 5.20 1.13 0.00 USD/CHF 4.10 1.70 −0.02 4.75 1.29 −0.01 USD/JPY 3.87 1.09 −0.07 3.85 1.12 0.03 USD portfolio 4.10 1.05 0.003 4.58 1.05 −0.003 EUR/USD 2.03 1.07 0.00 3.16 1.00 −0.07 EUR/AUD 9 1.20 −0.03 9.54 0.94 −0.02 EUR/CAD 9.92 1.28 0.04 9.33 1.07 0.02 EUR/CHF 6.30 0.97 0.03 7.82 0.84 −0.02 EUR/NZD 8.90 1.21 −0.01 17.25 0.85 0.02 EUR/JPY 4.07 1.09 0.03 8.06 0.92 −0.02 EUR portfolio 7.78 1.15 0.01 9.28 0.94 −0.02 The table shows the analysis for the US dollar and euro portfolios in the preand post-crisis periods. The pre-crisis period for the US dollar is from 2000 to 2006 and the post-crisis period is from 2007 to 2018. For the euro, the precrisis period is from 2000 to 2008 and the post-crisis period is from 2009 to 2018. The spread is the difference between the bid/ask quotes in pips. Volatility % is calculated for each pair as the mean size of the candle over the entire period. Mean return % is the average return per transaction. Alanazi & Alanazi, Cogent Economics & Finance (2020), 8: 1768648 https://doi.org/10.1080/23322039.2020.1768648 Page 17 of 21 Moving to the euro portfolio, we find that the spread increases by 1.5 pips, jumping from 7.78 to 9.28 from the pre-crisis to the post-crisis periods. This is a substantial increase per transaction. For some pairs, the spread doubles (e.g., EUR/NZD and EUR/JPY). The mean return per transaction shows a decline (from 0.01% to −0.02%) similar to that of the US dollar portfolio. Moreover, volatility decreases from 115% to 94% per transaction, which could reflect a fall in liquidity. Overall, transaction costs have increased in the post-crisis period compared with the pre-crisis period. Nevertheless, there is a positive mean return per transaction for four pairs, suggesting that selection is an important determinant in the forex market. This finding is consistent with the findings of Lee and Mathur (1996a), who show that the moving average rule is profitable for only two pairs (the Japanese yen with the Danish mark and Swiss franc), but not for the other European crosses. 6. Conclusion We examine the piercing line and dark cloud cover patterns in a forex spot market. We scan 112,792 daily candles using more than one million spot quote observations to search for these patterns. We detect 1,677 trade occurrences among the 24 currency pairs over the 19-year study period. We find the profitability of TA using chart patterns. Relying on these visually based patterns generates almost 5,000 net pips after transaction costs. A trader who started with a 1,000 USD investment and used only a 10% margin could have grown this capital to 7,400 USD (642% in total, 11.12% annualized) over the 19 years. Nevertheless, the profitability of these patterns is obtained only when equipped with the right trading strategies. Having a target that equals the risk (1:1 reward/risk ratio) is unprofitable even though the number of profitable trades is similar to that of unprofitable trades. Having double and triple targets (2:1, 3:1 reward/risk ratio strategies) on the same trades leads to different positive adjusted excess total returns of 268% and 642%, respectively. The results suggest that the predictability and profitability of TA could differ. In other words, the pattern could provide a good prediction, whereas the outcome could be negative because of other conditions such as a poorly employed exit strategy and/or high transaction costs. In addition, we find the significant impact of transaction costs on the profitability of TA. Transaction costs can explain the unprofitability of TA. The evidence presented in this paper suggests that both components of transaction costs (spread and rollover) can have a huge impact on the profitability of TA. The spread costs almost 13,000 pips, more than double that of our net pips (7.7 pips per transaction). Since we do not pay the spread directly to the broker, this is an indirect cost and a large burden on profitability. If we can recover half the spread, this would double our profit. The rollover, on the contrary, contributes positively to our trades and adds 2,780 USD to our profit (approximately 2,500 pips). This is good news for carry traders speculating on interest rate differentials. Moreover, examining the 24 pairs, we find that 14 show profitability and 10 do not. The British pound, in particular, is the best performing currency with a 2.4% mean return per transaction, followed by the Canadian dollar (0.7%) and Japanese yen (0.4%). We associate the profitability of the pound to its high volatility. All the other currencies show disappointing results. The Swiss franc and euro are the worst performers with mean returns of −0.9% and −0.3%, respectively. Overall, the profitability of TA cannot be linked to the inefficiency of the forex market as claimed in the literature. Rather, it is linked to the trading factors of volatility and transaction costs. In other words, TA does not necessarily contradict efficient market theory. Funding The authors received no direct funding for this research. Author details Ahmed S. Alanazi 1 E-mail: [email protected] Ammar S. Alanazi 2 E-mail: [email protected] 1 College of Business, Alfaisal Universiy, Riyadh, Saudi Arabia. 2 Artificial Intelligence, King Abdulaziz City for Science and Technology, Riyadh, Saudi Arabia. Citation information Cite this article as: The profitability of technical analysis: Evidence from the piercing line and dark cloud cover Alanazi & Alanazi, Cogent Economics & Finance (2020), 8: 1768648 https://doi.org/10.1080/23322039.2020.1768648 Page 18 of 21 patterns in the forex market, Ahmed S. Alanazi & Ammar S. Alanazi, Cogent Economics & Finance (2020), 8: 1768648. Notes 1. A massive body of the literature on the profitability of TA has evolved (e.g., Aroskar et al., 2004; Bessembinder & Chan, 1998; Broke et al., 1992; Frennberg & Hansson, 1993; Gencay, 1998; Kwon & Kish, 2002; Lee, Gleason et al., 2001; Mengoli, 2004; Zielonka, 2004). 2. Traders can participate in the forex market with as little as $100 given the advantage of the high leverage provided by most forex dealers. For a list of the 10 largest forex brokers by volume, see http://fairrepor ters.net/economy/largest-forex-brokers-by-volume-in -2018. 3. The spread is the difference between the bid/ask quotes paid by investors (received by brokers) to open a trade in the market and the rollover is the interest rate differentials between the two currencies paid/earned to keep the position open overnight for more than one day. 4. The quote on EUR/USD might look like (1.1210 bid) (1.1213 ask). The base currency here is the euro and the counter currency is the US dollar. The quote means you could purchase 1 euro for $1.1213 or sell 1 euro for $1.1210. The difference between the bid/ask is the spread, which is 3 pips in this case (1.1213–1.1210 = 0.0003). 5. On the day of Brexit (26 June 2016), when the British people voted to exit the European Union, the pound declined against all other currencies. It lost about 10% against the US dollar within a few seconds of the news (from 1.5018 to 1.3659). 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