The increasing complexity and widespread deployment of Artificial Intelligence (AI) models, particularly deep learning systems, have amplified the demand for explainability. Traditional Explainable AI (XAI) methods often rely on post-hoc approaches, generating explanations after a model has made a prediction. While valuable, these post-hoc explanations can suffer from issues of fidelity, consistency, and a lack of direct verifiability against the model's true decision-making process. This paper proposes a paradigm shift towards generating inherently verifiable natural language explanations. We argue for the integration of symbolic reasoning and formal verification techniques directly into AI model architectures, enabling systems to produce explanations that are not merely plausible but are demonstrably grounded in the model's internal logic. Such an approach aims to foster greater trust, accountability, and reliability in AI systems, especially in high-stakes domains where erroneous or unexplainable decisions can have severe consequences. We discuss a conceptual framework for constructing such models, outline the methodological challenges, and highlight the potential for hybrid neuro-symbolic AI to bridge the gap between high performance and verifiable transparency.