Forest ecosystems in Kenya are increasingly positioned at the confluence of climate variability, agricultural expansion and food security policy, yet the thresholds beyond which these socio-ecological systems lose their capacity to buffer environmental shocks remain poorly characterised. Rather than reporting empirical results, the analysis is presented as a methodological and conceptual contribution that integrates ecological resilience theory with spatial risk assessment and hierarchical Bayesian inference. The framework treats forest resilience as a latent, scale-dependent property that emerges from interactions among vegetation condition, hydrological regulation and land-use pressure, and it specifies threshold parameters whose posterior distributions would permit probabilistic statements about system vulnerability. A composite spatial index, incorporating slope, drainage density, rainfall intensity, land cover, soil permeability, elevation and distance to channels, is proposed as the principal covariate structure for identifying high-risk zones. The article argues that conventional single-indicator approaches mis-specify the causal pathway from climate hazard to food insecurity and that a hierarchical, threshold-based model offers a more defensible basis for early warning and adaptive governance in Kenyan forest landscapes.