Computational modeling, artificial intelligence, and materials informatics can identify promising new materials faster than ever. But a predicted composition is only valuable if it can be physically produced, tested, reproduced, and scaled.
California Nanotechnologies helps computational materials companies, universities, national laboratories, and advanced technology developers turn modeled compositions into physical samples and application-relevant components.
Our team supports the complete experimental pathway from powder selection and custom material synthesis through cryogenic milling, Spark Plasma Sintering, machining, characterization, and manufacturing scale-up.
Bring us your target composition, predicted phases, and desired properties. We will help develop the path from model to material.
Model → Feedstock → Powder Processing → Consolidation → Testing → Scale-Up
We begin by reviewing the proposed composition, predicted phases, desired properties, sample geometry, intended application, and processing constraints.
Our team evaluates feedstock availability, material compatibility, synthesis challenges, and the most practical initial experimental approach.
Useful starting information may include:
Depending on the material system, Cal Nano can support elemental powder sourcing, custom powder blending, mechanical alloying, cryogenic milling, particle-size reduction, nanostructured powder development, and the incorporation of reinforcements, dispersoids, or secondary phases.
Cryogenic milling can be particularly useful for developing highly alloyed, nanostructured, metastable, or otherwise difficult-to-produce material systems.
Cal Nano uses Spark Plasma Sintering and field-assisted sintering technology to rapidly consolidate powders into dense physical samples and components.
SPS enables researchers to evaluate novel materials using rapid heating rates, short processing cycles, applied uniaxial pressure, controlled thermal profiles, reduced grain growth, and flexible sample geometries.
Multiple processing conditions can be evaluated to understand how powder condition, temperature, pressure, heating rate, and dwell time affect phase structure, density, microstructure, and material properties.
Following consolidation, samples can be prepared for dimensional, physical, microstructural, and performance evaluation.
Depending on program requirements, testing may include:
Cal Nano can perform selected evaluations internally and coordinate specialized third-party characterization when required.
The physical results can then be compared with computational predictions to confirm phase formation, identify unexpected phases, quantify achievable properties, improve model accuracy, and determine the next experimental candidates.
Experimental results can be returned to the customer’s computational team after each development round. The composition or processing route can then be adjusted based on actual material behavior.
This closed-loop approach helps computational teams generate high-quality physical data, refine thermodynamic or kinetic models, improve machine-learning training sets, and prioritize the most promising materials for continued development.
A successful laboratory coupon is only the beginning.
Cal Nano can help determine whether the material can be produced repeatably at larger scale and in application-relevant geometries.
Scale-up support may include:
Our objective is not simply to produce one successful sample. It is to help establish a practical and repeatable pathway from computational discovery to manufactured material.
Each material system is reviewed individually for technical feasibility, safety, feedstock availability, and processing compatibility.
We serve as the experimental manufacturing partner for companies using materials informatics, artificial intelligence, atomistic simulation, thermodynamic modeling, or other computational approaches to identify new materials.
We provide specialized powder-processing and consolidation capabilities for researchers who have promising calculations but lack the equipment, production bandwidth, or scale-up infrastructure required to physically synthesize the material.
We support materials development for nuclear energy, fusion, aerospace, defense, semiconductors, industrial systems, transportation, and other demanding applications.
Cal Nano can participate as a synthesis, experimental validation, and manufacturing scale-up partner for programs involving computational materials design, domestic manufacturing, critical-material substitution, and advanced materials development.
Cal Nano can support powder preparation, cryogenic milling, Spark Plasma Sintering, tooling, machining, inspection, and production planning within a coordinated development program.
Our processes are well suited for materials that are challenging to melt, cast, forge, or consolidate using conventional manufacturing methods.
SPS and advanced powder processing allow multiple compositions and processing conditions to be evaluated without immediately committing to conventional production-scale manufacturing.
Cal Nano operates equipment ranging from research-scale systems to large-format SPS production equipment, providing a pathway from initial validation to larger components and repeatable production.
We regularly work with proprietary material compositions, emerging technologies, universities, national laboratories, and commercial development teams. Programs can be conducted under appropriate confidentiality and intellectual-property agreements.
To begin a technical discussion, send us as much of the following information as is available:
Complete information is not required for an initial discussion. Our team can help identify the remaining questions and build an appropriate experimental plan.
Turn computational discovery into physical results. Contact Cal Nano to discuss your modeled material, validation program, or scale-up requirements.