Theoretical Foundation

The Framework

A formal definition of PRMS as a conceptual system — its scope, the problem it solves, and its departure from conventional architectural thinking.

What PRMS is

PRMS — Performance-Responsive Metabolic System — is a theoretical and operational framework for the design, measurement, and optimization of architectural systems governed by demonstrable performance rather than declarative standards.

The system redefines the architectural object as a metabolic entity: an open system that exchanges energy, matter, and information with its environment in measurable, regulatable ways. Its validity is not established through certification compliance or aesthetic judgment, but through continuous performance data across four metabolic layers.

PRMS provides: (1) a formal language to describe buildings as systems; (2) a taxonomy of maturity levels from baseline sustainability to full regeneration; (3) a set of KPIs and instrumentation protocols; and (4) a design methodology that inverts the traditional sequence from form → function → energy to energy → system → form.

What PRMS covers

Scale

From residential nodes (single dwelling) to urban metabolism (city districts). The framework is scale-invariant in its logic, with context-specific KPI calibration at each level.

Domains

Energy systems, water metabolism, material flows, spatial configuration, thermal behavior, ecological integration, and data infrastructure.

Time Horizon

Designed for lifecycle performance — from pre-design simulation through construction, first-year operation, and long-term optimization cycles.

Climate Contexts

Developed and validated in BSk semi-arid climate (Querétaro, México). Calibration protocols adapt the framework to other Köppen classifications.

How does architecture differ

Conventional architectural practice operates under three systemic that PRMS addresses directly:

  • Form precedes energy

    Buildings are designed first for form or program, with energy systems retrofitted afterward. This produces structurally incompatible systems that cannot be optimized as a whole.

  • Performance is declared, not measured

    Sustainability certifications validate design intent, not operational reality. The gap between simulated and actual performance is systematic and rarely acknowledged.

  • Buildings are treated as static objects

    Once built, buildings are considered complete. No continuous monitoring, no feedback loops, no optimization cycles. This is the opposite of how any complex system should operate.

PRMS vs. conventional architecture

Dimension Conventional Architecture PRMS Framework
Design sequence Form → Function → Energy Energy → System → Form
Validity criterion Aesthetic judgment / code compliance Measured operational performance
Performance verification Design-time simulation only Continuous real-time IoT data
Building concept Static object Living metabolic system
Optimization None post-construction Continuous feedback loops
Scale logic Project-specific, non-transferable Systemic, scale-invariant framework

Explore the system

Principles Taxonomy Metrics Publications