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Allen, F. & Karjalainen, R., 1998. Using genetic algorithms to find technical trading rules, Journal of Financial Economics,(51), p. 245–271.
Abstract: We use a genetic algorithm to learn technical trading rules for the S&P 500 index using daily prices from 1928 to 1995. After transaction costs, the rules do not earn consistent excess returns over a simple buy-and-hold strategy in the out-of-sample test periods. The rules are able to identify periods to be in the index when daily returns are positive and volatility is low and out when the reverse is true. These latter results can largely be explained by low-order serial correlation in stock index returns.
Keywords: GeneticProgramming; TechnicalAnalysis
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Anderson, G., 2003. The Janus Factor.
Abstract: Ask one hundred investors whether this is a bull market or a bear market, and you are likely to find their opinions split evenly down the middle. No one is really certain that the September 2001 low marked the end of the bear market and the start of a new bull market. But, this uncertainty is nothing new. As long as stock exchanges have existed, analysts and investors have always placed heavy emphasis on the difficult task of identifying the primary trend of the stock market. Everyone’s ideal market strategy is, at least in theory, to avoid the ravages of each bear market, and then to move aggressively into stocks after each important market bottom. To further maximize the benefits of a new bull market, time is of the essence. An investor should buy as close to the final low as possible. This is the ‘sweet spot’ for investors -- the first few months of a new bull market in which so many stocks rise so dramatically. But, theory and reality, especially in the stock market, are often entirely different matters. To bring this theoretical investment strategy to reality, an investor would need a time-tested method of identifying major market bottoms – as opposed to minor market bottoms – and would have to apply this method quickly, to capture as much of the bull market as possible. Traditional methods of spotting major turning points in the market often leave a great deal to be desired. The financial news typically remains negative for months after a new bull market has begun. The economic indicators offer little help since, historically, the economy does not begin to improve until about six to nine months after the stock market has already turned up from its low. Even some widely accepted technical indicators, such as 200-day moving averages or long-term trendlines, can sometimes take several months to identify a major turning point in the market. To spot an important market bottom, almost as it is happening, requires a close examination of the forces of supply and demand – the buying and selling that takes place during the decline to the market low, as well as during the subsequent reversal point.
Keywords: RegimeSwitching; TechnicalAnalysis
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Arcioni, G., 2008. Using self-similarity and renormalization group to analyze time series.
Abstract: An algorithm based on Renormalization Group (RG) to analyze time series forecasting was proposed in cond-mat/0110285. In this paper we explicitly code and test it. We choose in particular some financial time series (stocks, indexes and commodities) with daily data and compute one step ahead forecasts. We then construct some indicators to evaluate performances. The algorithm is supposed to prescribe the future development of the time series by using the selfsimilarity property intrinsically present in RG approach. This property could be potentially very attractive for the purpose of building winning trading systems. We discuss some relevant points along this direction. Although current performances have to be improved the algorithm seems quite reactive to various combinations of input parameters and different past values sequences. This makes it a potentially good candidate to detect sharp market movements. We finally mention current drawbacks and sketch how to improve them.
Keywords: DataMiningGeneral; TechnicalAnalysis
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Caginalp, G. & Laurent, H., 1998. The predictive power of price patterns, Applied Mathematical Finance, 5, p. 181–205.
Abstract: Using two sets of data, including daily prices (open, close, high and low) of all S&P 500 stocks between 1992 and 1996, we perform a satistical test of the predictive capability of candlestick patterns. Out-of-sample tests indicate statistical significance at the level of 36 standard deviations from the null hypothesis, and indicate a profit of almost 1% during a two-day holding period. An essentially non-parametric test utilizes standard definitions of three-day candlestick patterns and removes conditions on magnitudes. The results provide evidence that traders are influenced by price behaviour. To the best of our knowledge, this is the first scientific test to provide strong evidence in favour of any trading rule or pattern on a large unrestricted scale.
Keywords: TechnicalAnalysis
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Dempster, M.A.H. & Jones, C.M., 2000. A real-time adaptive trading system using genetic programming, Quantitative Finance, 1, p. 397–413.
Abstract: Technical analysis indicators are widely used by traders in financial and commodity markets to predict future price levels and enhance trading profitability. We have previously shown a number of popular indicator-based trading rules to be loss-making when applied individually in a systematic manner. However, technical traders typically use combinations of a broad range of technical indicators. Moreover, successful traders tend to adapt to market conditions by ‘dropping’ trading rules as soon as they become loss-making or when more profitable rules are found. In this paper we try to emulate such traders by developing a trading system consisting of rules based on combinations of different indicators at different frequencies and lags. An initial portfolio of such rules is selected by a genetic algorithm applied to a number of indicators calculated on a set of US Dollar/British Pound spot foreign exchange tick data from 1994 to 1997 aggregated to various intraday frequencies. The genetic algorithm is subsequently used at regular intervals on out-of-sample data to provide new rules and a feedback system is utilized to rebalance the rule portfolio, thus creating two levels of adaptivity. Despite the individual indicators being generally loss-making over the data period, the best rule found by the developed system is found to be modestly, but significantly, profitable in the presence of realistic transaction costs.
Keywords: GeneticProgramming; TechnicalAnalysis
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Desmond, P.F., 2002. Identifying Bear Market Bottoms and New Bull Markets.
Abstract: Ask one hundred investors whether this is a bull market or a bear market, and you are likely to find their opinions split evenly down the middle. No one is really certain that the September 2001 low marked the end of the bear market and the start of a new bull market. But, this uncertainty is nothing new. As long as stock exchanges have existed, analysts and investors have always placed heavy emphasis on the difficult task of identifying the primary trend of the stock market. Everyone’s ideal market strategy is, at least in theory, to avoid the ravages of each bear market, and then to move aggressively into stocks after each important market bottom. To further maximize the benefits of a new bull market, time is of the essence. An investor should buy as close to the final low as possible. This is the ‘sweet spot’ for investors -- the first few months of a new bull market in which so many stocks rise so dramatically. But, theory and reality, especially in the stock market, are often entirely different matters. To bring this theoretical investment strategy to reality, an investor would need a time-tested method of identifying major market bottoms – as opposed to minor market bottoms – and would have to apply this method quickly, to capture as much of the bull market as possible. Traditional methods of spotting major turning points in the market often leave a great deal to be desired. The financial news typically remains negative for months after a new bull market has begun. The economic indicators offer little help since, historically, the economy does not begin to improve until about six to nine months after the stock market has already turned up from its low. Even some widely accepted technical indicators, such as 200-day moving averages or long-term trendlines, can sometimes take several months to identify a major turning point in the market. To spot an important market bottom, almost as it is happening, requires a close examination of the forces of supply and demand – the buying and selling that takes place during the decline to the market low, as well as during the subsequent reversal point.
Keywords: MarketTiming; TechnicalAnalysis
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Dormeier, B.P., 2007. Price & Volumne, Digging Deeper.
Abstract: When securities change hands on a securities auction market, the volume of shares bought always matches the volume sold on executed orders. When the price rises, the upward movement reflects demand exceeds supply or that buyers are in control. Likewise, when the price falls it implies supply exceeds demand or that sellers are in control. Over time, these trends of supply and demand form accumulation and distribution patterns. What if there was a way to look deep inside price and volume trends to determine if current prices were supported by volume. This is the objective of the Volume Price Confirmation Indicator (VPCI), a methodology that measures the intrinsic relationship between price and volume. The Volume Price Confirmation Indicator or VPCI exposes the relationship between the prevailing price trend and the volume, as either being in a state of confirmation or contradiction, thereby giving notice of possible impending price movements. This paper discusses the derivation and components of the VPCI, and explains how to use the VPCI as a trend validation tool. We also review comprehensive testing of the VPCI, and presents further applications using the indicator.
Keywords: TechnicalAnalysis
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Ehlers, J., 2008. Inferring Trading Strategies from Probability Distribution Functions.
Abstract: The primary purpose of technical analysis is to observe market events and tally their consequences to formulate predictions. In this sense market technicians are dealing with statistical probabilities. In particular, technicians often use a type of indicator known as an oscillator to forecast short-term price movements. An oscillator can be viewed as a high pass filter in that it removes lower frequency trends while allowing the higher frequencies components, i.e., short-term price swings to remain. On the other hand, moving averages act as a low pass filters by removing short-term price movements while permitting longer-term trend components to be retained. Thus moving averages function as trend detectors whereas oscillators act in an opposite manner to “de-trend” data in order to enhance short term price movements. Oscillators and moving averages are filters that convert price inputs into output waveforms to magnify or emphasize certain aspects of the input data. The process of filtering necessarily removes information from the input data and its application is not without consequences. A significant issue with oscillators (as well as moving averages) for short term trading is that they introduce lag. While academically interesting, the consequences of lag are costly to the trader. Lag stems from the fact that oscillators by design are reactive rather than anticipatory. As a result, traders must wait for confirmation; a process that introduces additional lag into the ability to take action. It is now widely accepted that classical oscillators can be very accurate in hindsight but are typically inadequate for forecasting future short-term market direction, in large part due to lag.
Keywords: TechnicalAnalysis
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