What are some creative ways to account for the discrepancies in power data between Zwift and outdoor rides, considering factors such as rolling resistance, aerodynamics, and the lack of real-world terrain variability in virtual environments, while also acknowledging the potential for rider fatigue and inconsistent pacing in both settings, and how can we develop a more nuanced understanding of our power output in different contexts to inform our training and racing strategies?
Are there any novel methods for normalizing power data across platforms, such as using machine learning algorithms or advanced statistical models, that could help cyclists better understand their performance and make more informed decisions about their training?
How can we balance the benefits of indoor training, such as precision and control, with the need for real-world experience and adaptability, and what role should power data play in this balancing act, particularly for cyclists who split their time between virtual and outdoor riding?
Are there any novel methods for normalizing power data across platforms, such as using machine learning algorithms or advanced statistical models, that could help cyclists better understand their performance and make more informed decisions about their training?
How can we balance the benefits of indoor training, such as precision and control, with the need for real-world experience and adaptability, and what role should power data play in this balancing act, particularly for cyclists who split their time between virtual and outdoor riding?