Designing power, water, cooling, compute and land as one productive system.
Explore the platformGrowth in computing meets human needs for reliable power, freshwater, cooling, usable land, and resilient communities. These shared bottlenecks call for an architecture that connects the systems behind them.
DMX is an architectural system that operates as a physical systems algorithm. It responds to each location’s constraints and resources, sequencing established physical systems so that outputs of one become useful inputs to the next.
DMX integrates compact compute, automated servicing, cooling, and heat recovery into one architecture—designed to reduce the surface footprint and turn infrastructure demands into opportunities for water production and community development.
Almost pump-free RO. DMX connects freshwater production with power, cooling, and recovered heat, using available resources across multiple productive functions.
RO pumping-energy design target compared with conventional RO pumping; excludes non-pumping loads and remains subject to physical validation.
Repeatable utility modules designed for compact transport, self-deployment, and serviceability. Capacity can grow from a Single-Leg installation to larger farms without requiring the Full Node first.
The flagship DMX Node brings utilities, compute, research, and habitable space together. Its non-steel composite structural approach incorporates controlled mineral accretion—designed to grow protective surfaces, add reinforcement, and support marine habitat.
The manufactured structure is designed to carry required initial loads. Mineral accretion adds monitored protection and structural reserve.
DMX connects cooling for compute with district and industrial thermal services, then evaluates recovered heat as an input to freshwater production.
Coastal configurations draw on deep-ocean thermal resources. Inland applications use qualified lake-water or engineered cooling systems. The architecture allocates available cooling across local needs, with performance governed by site conditions and engineering validation.
Back to platform ↑DMX’s disruption is architectural. The platform changes how industries use space, pressure, cooling, heat, water, and construction—connecting resources that are usually managed separately so the same infrastructure can deliver more useful outcomes.
Compact compute, automated servicing, cooling, and productive heat recovery.
Targets land constraints, maintenance access, cooling burdens, and heat that otherwise goes unused.
Almost pump-free RO, targeting 85–95% savings in conventional RO pumping energy, alongside separate heat-driven water recovery.
Targets pumping costs and connects freshwater production with available energy and thermal resources. The RO target excludes non-pumping loads and requires physical validation.
Repeatable energy-and-water modules designed for self-deployment and staged expansion.
Offers a potential alternative to infrastructure that requires a large, fixed project before useful capacity can be introduced.
Compact utility and compute infrastructure designed to preserve surface land and support district services.
Creates opportunities to connect infrastructure investment with housing, productive landscapes, and community development.
Non-steel composite structures, compact deployment, and controlled mineral accretion.
Changes how marine structures could be manufactured, installed, protected, and maintained.
The DMX Node integrates research, habitable space, compute, and utility systems.
Creates a platform for sustained ocean access with shared infrastructure.
Compact systems designed to deploy into functional structural envelopes and interiors.
Targets transport volume, site assembly, and adaptation to difficult environments.
Capabilities are under development; performance and benefits depend on configuration, engineering validation, and site conditions.
Architect/Founder, DMX Living Systems / AD Mare
jsanchez@dmxlivingsystems.com
Environmentally responsive architecture.
Infrastructure-scale thinking.
I am Joseph Sanchez, architect and founder of DMX Living Systems / AD Mare. Sustainability and passive design guide my work: I design systems to respond to their environment and use available resources intelligently.
My work in prefabrication through Max Living & Design developed the systems-level thinking behind DMX—connecting materials, fabrication, transport, assembly, climate, and local ecosystems.
With DMX Living Systems, I have created an architectural system that operates as a physical systems algorithm—responding to critical collisions between technological growth and human needs: AI compute and energy availability, cooling and water scarcity, infrastructure footprints and usable land, and development and environmental resilience.
The algorithm identifies each location’s constraints and resources, then sequences established physical systems so that an output from one becomes a productive input to another. Recovered compute heat can support water production; compact infrastructure can release surface land; and coordinated utilities can support community development.
DMX applies this repeatable design logic across inland retrofits, coastal infrastructure, and integrated Living Systems developments. The architecture and digital modeling provide the foundation; independent engineering, physical testing, and qualification are the next steps toward deployment.
My purpose is to extend environmentally responsive architecture to infrastructure scale—creating systems that support technological progress while improving the places where people live.
For investment, infrastructure applications, and development partnerships, contact Joseph Sanchez at jsanchez@dmxlivingsystems.com.
