Fluid & Materials Science
Experience in fluorine chemistry, working-fluid development, advanced materials, and thermal-interface-material research informs KOOL PHASE’s approach to fluid and materials questions.
About KOOL PHASE
Built around
the heat problem.
KOOL PHASE brings together experience across fluid science, thermal engineering, systems, infrastructure, business development, and strategic partnerships to explore a new approach to cooling increasingly dense compute environments.
Understand where heat becomes a constraint — then build around solving that problem.
Who we are
Built by people who understand the materials, systems, and infrastructure behind the heat.
KOOL PHASE is developing a direct-to-chip liquid-cooling architecture for increasingly constrained compute environments. Heat is captured at the hardware, while controlled phase change is designed to occur inside the Coolant Distribution Unit (CDU)—not by submerging computing equipment.
Experience across fluid science, thermal engineering, systems, power infrastructure, and strategic development informs how the company approaches the problem: define the constraint, engineer carefully, validate through evidence, and improve.
Relevant experience
Different disciplines.
One thermal problem.
KOOL PHASE is being developed through the combined perspective of the materials, systems, infrastructure, and commercial conditions surrounding high-density compute.
Thermal & Systems Engineering
Experience across thermal-management research, Coolant Distribution Unit (CDU) architecture, prototyping, embedded systems, controls, hardware, and software supports the system-level development approach.
Infrastructure & Commercial Development
Experience in data-center infrastructure, electrical and energy systems, business development, strategic partnerships, and commercialization helps connect technical development to real-world operating constraints.
How we work
Engineer. Validate. Improve. Scale.
Claims should follow measurement.
- 01Engineer
Define the thermal problem, system boundary, constraints, and development question.
- 02Validate
Test assumptions through controlled engineering work and measurable evidence.
- 03Improve
Use what is learned to refine the architecture, materials, controls, and integration approach.
- 04Scale
Evaluate what would be required to move from validated engineering toward repeatable deployment.
Leadership & contributors
The people contributing to the work.
Dr. Rama Varma Rajagopal
Chief Scientific Officer
Fluid science and fluorine-chemistry background, with current focus on non-PFAS working-fluid development and materials questions relevant to advanced thermal systems.
Sheldon Ruiz
Chief Technology Officer
Thermal-management and engineering background focused on Coolant Distribution Unit (CDU) architecture, system development, prototyping, and scale-up considerations.
Dr. Ravi Palaniswamy
Scientific Consultant
Advanced-materials and thermal-interface-material experience supporting scientific and materials-development questions.
Ron Ozoa
Global Business Strategy
Business development, strategic partnerships, customer development, and investor engagement across multiple industries.
Marlon Masbad
Software & Systems
Experience across software, embedded systems, hardware, robotics, and cloud systems relevant to controls and system integration.
Louie Dela Cruz
Advanced Power & Energy Systems Strategist
Experience spanning data-center infrastructure, electrical engineering, renewable energy, and supporting power systems.