About The Position

The AI Factory era of computing is built on the strength and reliability of NVIDIA’s data centers! As we scale to gigawatt-level AI Factories, materials selection and qualification across the entire cooling and infrastructure stack become critical to achieving safety, reliability, and sustainability at scale. We are seeking a Data Center Materials Engineer to define and lead materials strategy, specification, testing, and qualification for wetted systems and adjacent infrastructure, from chip-level to campus-scale heat-rejection plants, ensuring long-life, low-risk operation across air and liquid (single - and two-phase) environments, and crafting the materials foundation that powers the future of AI computing. You will define the materials backbone of NVIDIA’s GW-scale AI Factories, enabling unmatched reliability, cleanliness, and longevity for the world’s most sophisticated cooling infrastructures. Your expertise will shape how metals, coatings, and fluids come together to achieve corrosion- and erosion-resistant designs, set industry standards, and power AI infrastructure at global scale.

Requirements

  • BS/MS (or equivalent experience) in Materials Science/Engineering, Metallurgy, Chemical Engineering, or related field; PhD a plus
  • 12+ years in materials for mission-critical infrastructure (data centers, power, process, aerospace, or semiconductor fabs) with emphasis on wetted systems.
  • Hands-on expertise in corrosion science, fluid–material compatibility, and elastomer/polymer selection for mixed-metal hydronic and refrigeration systems.
  • Proven experience crafting material and cleanliness specifications, test plans, and supplier qualification packages; strong command of ASTM/ISO test methods.
  • Ability to analyze and mitigate galvanic corrosion between dissimilar materials, with knowledge of coatings, isolation methods, and material pair optimization.
  • Experience defining fluid flow and erosion limits to maintain material integrity and long-term reliability.
  • Proficiency with materials characterization and FA (SEM/EDS, XRD, XPS, ICP-OES/MS, FTIR/GC-MS) and interpretation into actionable design rules.
  • Ability to translate lab results into field-relevant life models and operating guard-bands (chemistry, temperature, velocity, ΔP, vibration).
  • Clear, concise technical communication; effective collaboration with design, manufacturing, and vendor teams.

Nice To Haves

  • Experience with AI/HPC and data center cooling systems (CRAHs, CDUs, HXs, manifolds, plants, towers, dry coolers) and knowledge of two-phase fluids, refrigerants, and seal/oil compatibility.
  • Knowledge of MEP codes, ASME/PED standards, welding/brazing, NDE, and water-treatment programs for reliable, long-life operation.
  • Experience linking materials data to digital twins and CFD/hydronic models, collaborating with suppliers and standards bodies (ASHRAE, ASME, OCP, ASTM).
  • Demonstrated engagement with standards bodies (ASHRAE TC9.9, ASME, OCP, ASTM) and contribution to new test or specification development.
  • Track record driving multi-supplier alignment, cost-reliability tradeoffs, and sustainability targets (heat reuse, low-toxicity chemistries)

Responsibilities

  • Specify and qualify wetted metals & alloys (e.g., Cu/CuNi, Ni-braze, 316L/2205 SS, Ti, Al), polymers and composites (PPSU, PEEK, PVDF, PTFE), elastomers (EPDM, FKM/FFKM, NBR, HNBR), solders/brazes, sealants/adhesives, coatings/linings, and surface treatments (passivation, phosphating, anodizing).
  • Define fluid compatibility envelopes for single-phase glycols/water and two-phase working fluids/refrigerants, including oils/additives/biocides/inhibitors; write cleanliness, chemistry, and monitoring specs (e.g., pH, conductivity, chlorides, hardness, TOC, particle count).
  • Architect corrosion and erosion control programs, including mitigation of galvanic couples between Al–Cu and other dissimilar metals, crevice and under-deposit corrosion, MIC, and slurry erosion; establish flow velocity and operational limits to prevent erosive wear in all fluid systems.
  • Lead test and qualification plans: coupon and assembly-level testing (ASTM/ISO/G-series), electrochemical methods (EIS, potentiodynamic), elastomer swell/durometer retention, pressure/thermal cycling, HALT/HASS, cleanliness verification (ISO 4406/MIL-STD-1246C), life modeling & acceleration factors.
  • Run failure analyses and close the loop with design and suppliers: root-cause via SEM/EDS, XRD, XPS, FTIR, GC-MS, ICP-OES/MS, ion chromatography; drive corrective actions (8D/FRACAS) and update specifications.
  • Write and enforce material and process specifications for partners (AEC/MEP, OEMs, CMs, vendors); review P&IDs, BoMs, weld maps, braze/filler selections, flange/gasket stacks, passivation & flushing procedures, preservation & layup plans.
  • Integrate materials intelligence into digital twins: provide temperature-/chemistry-dependent property libraries and degradation models for SimReady assets (used in hydronic/thermal/CFD and reliability simulations).
  • Engage with industry standards bodies such as ASHRAE, ASME, and the Open Compute Project (OCP) to advance industry standards, testing methodologies, and materials best practices for liquid-cooled data centers.
  • Ensure regulatory and sustainability alignment: guide compliance for RoHS/REACH/TSCA, potable/non-potable water use, refrigerant transitions, PFAS minimization strategies, and end-of-life considerations.
  • Partner across NVIDIA (DCE, product cooling, reliability, controls) and with external vendors to ensure designs are manufacturable, serviceable, and scalable at GW scope.

Benefits

  • You will also be eligible for equity and benefits
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