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1.This innovation will achieve the SDG 4 - Quality Education
2.This innovation will achieve the SDG 8 - Decent Economic Growth.
1) Enhanced Forecasting Performance:
·Improved Accuracy: Preliminary tests show DAFN reduces prediction error by 15-20% compared to traditional models in volatile market conditions (source: internal research data).
·Real-Time Adaptability: The AAM adjusts the importance of each input dynamically, making DAFN a powerful tool for strategic planning and risk management.
2) Impact on Investment Education:
·Supports SDG 4 (Quality Education) by providing an educational tool for financial literacy.
·Enables learners and investors to understand complex market dynamics through an accessible, data-driven platform.
3) Economic Implications:
·By improving forecast reliability, DAFN can help optimize trading strategies, potentially boosting productivity and economic growth, aligning with SDG 8 (Decent Work and Economic Growth).
It will attract more investors to participate in capital market. Hence, more clients for investment banks and fund managers.
Capital market industry.
•Despite concerted efforts by the Securities Commission and Bursa Malaysia to educate retail investors, many still lack the necessary training and knowledge to make informed investment decisions. This is particularly true for millennial investors, who often represent a significant portion of new market entrants.
•While the initiatives launched in 2015 have shown some success in increasing retail investor participation, there is still room for improvement. Understanding the specific needs and challenges faced by millennial investors is crucial for developing more targeted and effective educational programs.
•By addressing the knowledge gaps and providing tailored support, we can empower these investors to make informed choices and contribute positively to the growth and stability of the Malaysian stock market.
•Accurate forecasting of futures such as crude palm oil (CPO) prices is essential for stakeholders across the agricultural and financial sectors. These predictions inform critical decisions regarding production, trading, and investment strategies.
•While traditional time series models have been used, they often struggle to capture the complex, nonlinear dynamics of CPO price fluctuations. This research explores the potential of advanced machine learning techniques, including transformers and hybrid architectures, to significantly improve the accuracy of price predictions.
•By leveraging the power of these models, we aim to provide stakeholders with more reliable and informative forecasts, enabling them to make better-informed decisions and mitigate risks associated with CPO price volatility.
•A detailed information on the algorithm cannot be shown due to sensitivity and intellectual copyright of the formula. However, in the findings section, the performance of this approach is provided.
•Retail investors' decision-making in the stock and futures markets is heavily influenced by psychological and emotional factors, often leading to suboptimal outcomes.
•Unlike their institutional counterparts, retail investors typically lack sophisticated financial tools and in-depth market knowledge. This disparity can make them more susceptible to emotional biases and noise trading, which can hinder their investment performance.
•Li (2013) suggests that understanding the behavioral patterns and reinvestment intentions of retail investors is crucial for market analysts and policymakers. By gaining insights into the emotional drivers behind retail investment decisions, we can develop strategies to mitigate the negative impacts of irrational behavior and promote more informed and rational decision-making.
•Prospect theory posits that individuals evaluate potential gains and losses asymmetrically, leading to an S-shaped value function. This asymmetry stems from the observation that the marginal utility of both gains and losses decreases with scale. As a result, individuals tend to experience greater pain from losses than pleasure from equivalent gains.
•This S-shaped value function is a consequence of the theory's underlying assumptions: a convex utility function for negative deviations in wealth and a concave utility function for positive deviations. This asymmetry implies that investors are more risk-averse when facing potential losses than when considering potential gains.
•Advanced machine learning models, while powerful, often suffer from high complexity, making them difficult to interpret. This lack of transparency can be a barrier for stakeholders who need to understand the underlying factors driving the forecasts. Therefore, researchers are increasingly focusing on developing models that balance accuracy with interpretability (Yang, 2019), and this innovation leads towards that.
DAFN’s Potential Impact:
•Technological Advancement: Represents a significant leap forward in futures and equity market price forecasting.
•Alignment with National Goals: Supports Malaysia’s aspiration for a robust, knowledge-driven economy as outlined in the Financial Sector Blueprint 2022-2026 (Bank Negara Malaysia, 2022).
•DAFN has proven that ethical investing and making profit is possible.
•More young investors will be attracted to investment through continuous education and improving their families’ economies, the SDG 4 and SDG 8.
•Future Applications: The adaptable framework can be extended to other commodities and financial markets, enhancing forecasting accuracy and investment strategies across various sectors.
References:
Li, L. K. (2013). Investment interntions: A consumer behaviour framework [Doctoral‘s thesis, The University of Western Australia].
Yang, Z. &. (2019). Comparative study of machine learning models for CPO price forecasting. Journal of Commodity Markets, 44(3), 87-101.
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