This paper presents a systems-theoretic approach for anomaly detection in complex dynamic systems. Based on the Fractal Whitney Embedding Prevalence Theorem, which extends existing embedding techniques to complex system dynamics, we introduce state-derivative pairs as an embedding strategy to capture system evolution. To enhance temporal consistency, we develop a Temporal Differential Consistency Autoencoder (TDC-AE) that integrates TDC-Loss, which aligns approximated derivatives of latent variables with dynamic representations. Experimental results using the C-MAPSS turbofan engine dataset demonstrate that TDC-AE performs on par with LSTM and outperforms Transformer while reducing the number of MAC operations by approximately 100x, making it suitable for lightweight edge computing. Our results support the hypothesis that anomalies disrupt stable system dynamics.