In this paper, we explore the collapse of the Terra ecosystem, focusing on the underlying reasons that contributed to its failure. We begin by providing context about the Terra ecosystem and explaining the role of algorithmic stablecoins in the cryptocurrency market. Next, we outline the sequence of events that led to its downfall. Our methodology employs an experimental and quantitative approach to analyze the performance of the Terra simulator in predicting the resilience of the UST (TerraUSD) during times of stress. To accomplish this, we examine three sets of results: one generated by the simulator using input from Geometric Brownian Motion, another based on real market values extracted from the Messari platform, and a third consisting of actual market data. Our findings reveal significant disparities between the simulated results and real market data, indicating that the model is inefficient. Despite attempts to incorporate volatility—using variables such as sigma, boom, and bust—the simulator failed to accurately capture critical market behaviors during stressful periods. Ultimately, the collapse of the Terra ecosystem underscores the importance of developing robust and adaptive financial models within cryptocurrency markets, offering vital lessons for creating safer digital financial environments.

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Investigates of Terra Ecosystem Collapse: Analysis and a Comparison Study Between Simulated and Real Results

  • Isaac de Abreu Gaspar,
  • Antonio A. de A. Rocha

摘要

In this paper, we explore the collapse of the Terra ecosystem, focusing on the underlying reasons that contributed to its failure. We begin by providing context about the Terra ecosystem and explaining the role of algorithmic stablecoins in the cryptocurrency market. Next, we outline the sequence of events that led to its downfall. Our methodology employs an experimental and quantitative approach to analyze the performance of the Terra simulator in predicting the resilience of the UST (TerraUSD) during times of stress. To accomplish this, we examine three sets of results: one generated by the simulator using input from Geometric Brownian Motion, another based on real market values extracted from the Messari platform, and a third consisting of actual market data. Our findings reveal significant disparities between the simulated results and real market data, indicating that the model is inefficient. Despite attempts to incorporate volatility—using variables such as sigma, boom, and bust—the simulator failed to accurately capture critical market behaviors during stressful periods. Ultimately, the collapse of the Terra ecosystem underscores the importance of developing robust and adaptive financial models within cryptocurrency markets, offering vital lessons for creating safer digital financial environments.