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Processing Spinel-Less Thermal Barrier Coating Systems Via Pre-Oxidation and Evaporation

The technology is a two-step process to produce a thermally grown oxide layer that is completely devoid of harmful spinel oxides, for the purpose of extending the lifetime of turbine engine blades’ thermal barrier coatings.It features a two step process utilizes ambient pressure and everyday gases at industry-standard temperatures which yields a completely spinel-less TGO–YSZ interface.

Liquid-Repellent Surfaces Made of Any Materials

UCLA researchers in the Department of Mechanical and Aerospace Engineering have developed a structured surface that can be made of any material (but demonstrated with glass) that repels all liquids (even fluorinated solvents) without using any repellant coating.

Flexible Porous Aluminum Oxide Films

Ceramic materials are widely used because of their strength, dielectric properties, and ability to withstand high temperatures.  Ceramics can withstand a great deal of compressional stress; however, because ceramic materials are brittle and inflexible, they fracture under stress like glass and shatter if bent.  Flexible ceramic membranes combine the attributes of the high strength of ceramic materials with the elasticity of polymers, however, many of these materials are composite materials which have drawbacks in that the non-ceramic material is part of the film and cannot withstand high temperatures and are flammable.   UC Berkeley investigators have developed a reproducibly flexible porous aluminum oxide film that can be bent with a radius of curvature exceeding 0.2 mm.  These flexible porous aluminum oxide films are more robust and can withstand greater mechanical abuse.  The material can also stretch elastically the same amount as comparable porous polypropylene films, while withstanding over 100 times the external pressure and higher temperatures.   

Mechanochemical Synthesis of Mg2Si and Related Compounds and Alloys

Professor Kaner and colleagues have developed methods to synthesize substantially phase pure compounds of magnesium silicide and related alloys. The phase purity achieved by this method is unprecedented, and the yielded products are suitable to be used as thermoelectric materials in the mid- to high-temperature range (400 K to 800 K). 


Researchers at the University of California, Davis have developed a ceramic composite material with improved mechanical properties and electrical conductivity. This technology is currently available for licensing.

Ultra-High Strength, Energy-Absorbing Metal-Ceramic Composites

Researchers at the University of California, Davis and collaborators have developed a series of tri-modal composites composed of both metal and ceramic materials with ultra-high strength and unexpected ductility. This novel material will out-perform current structural materials, such as aluminum and steel in applications such as structures, structural armor, bumper guards and other energy-absorbing applications. The incorporation of nanocrystalline phases and multiple length scales results in improved material properties in this multiple-grain-sized composite, compared to their solely microcrystalline or nanocrystalline counterparts.


Researchers at the University of California, Davis have developed a process that produces barium titanate exhibiting superior dielectric properties and will enable smaller and more efficient electronic components. This technology is currently available for licensing.

Magnetically Controlled Casting Process

Current casting methods that produce features in a solid material with rapid prototyping techniques require highly specialized and expensive equipment.  Further, these types of equipment must be programmed before each casting to achieve the desired results.  Also, these traditional casting processes are synthesized either through layer-by-layer deposition which can be very time consuming or by mixing non-soluble components together which leads to heterogeneities and reduction in performance.                                                  

Development Of Impact And Fracture Resistant And Tough Materials

Manufacturers have been looking for a next-generation of composite materials that can absorb the shock and impact of intense collisions and accidents.  Some plastic composites and metal alloys have offered the advantage of being light weight, but they are still limited in their ability to have comparable shock resistance to their heavier metal counterparts.  Further, their high costs have made them cost prohibitive for their limited benefits.                    

New Lead- Boron-Based Ceramics

Dr. Jenn-Ming Yang and colleagues in the UCLA Department of Materials Science and Engineering have developed a new fast-setting ceramic-cement material that offers several advantages over current radiation and chemical containment solutions.

CeramicAsh: Material and Method

Researchers at UCLA have developed a method for reducing the manufacturing costs associated with chemically bonded ceramics. 

3-D Printed Fiber-Reinforced Structural Concrete Polymer

Rapid prototyping materials that have durable characteristics are extremely expensive. Where traditional 3-D printing technology is reserved for small-scale prototyping in a limited number of fields at an exorbitant cost, 3-D Printed Structural Translucent Concrete introduces the notion that this same technology could be employed to fabricate structural building components at very little cost for a wide range and scales of applications.      Researchers at the University of California, Berkeley has developed a 3-D Printable Structural Translucent Concrete that uses traditional 3-D printing technology to produce building components with compressive and tensile strength up to 70% greater than standard concrete. This process introduces a new level of control over how modular building blocks are considered and derived. This material allows for high degrees of variability and specificity to be imbedded in building components that are structurally strong, water resistant, and inexpensive. The cost of production is over 90% less expensive than standard rapid prototyping processes and it shares similar strengths to concrete with thin-shell capabilities not unlike fiberglass. The material has the potential to entirely redefine how we consider rapid prototyping, and when related to architecture, the degree to which buildings can be responsive and unique to their climate, client and context.

Ferroelectric Electron and Ion Generator for Small Applications

Ferroelectric, pyroelectric and piezoelectric crystals are used to generate spatially localized high energy (up to and exceeding 100 keV) electron and ion beams, which may be used in a wide variety of applications including pulsed neutron generation, therapeutic X-ray/electron devices, elemental analysis, local scanning chemical analysis, high energy scanning microscopy, point source compact transmission electron microscopy, compact ion beam sources, positron sources, micro-thrusters for ion engines, and improved fusion efficiency especially of the Farnsworth type. The high-energy emission can be created by simply heating the material or by application of external coercive electromagnetic and acoustic fields.

Metal-organic frameworks for H2/CO2 Separation

The separation of CO2 from H2 is highly significant in the context of two distinct applications: (i) the capture of CO2 emissions like those produced from coal-fired power plants, and (ii) the purification of hydrogen gas, which is synthesized on megaton scales annually. Pressure-swing adsorption (PSA) is advantageous over other separations techniques such as liquid absorbents, membrane or cryogenic separation due to the high purity and yield of hydrogen that can be produced. In a PSA system, CO2 adsorbs onto a surface at high pressure in the presence of other gases, and the porous material can be regenerated for another purification cycle by simply dropping the pressure to ambient conditions. Porous materials such as zeolites and activated carbons are used in PSA systems for CO2/H2 separations, however due to the maturity of these technologies only modest improvements in CO2/H2 separation performance can be expected in the future. For PSA to be the most economical separation technique in all scenarios, much greater efficiencies must be achieved than what can be realized with these adsorbents. To address this need, investigators at University of California at Berkeley have investigated a novel group of adsorbents, metal-organic frameworks, for PSA separation of CO2 from H2 and other gases such as CH4. Metal-organic frameworks are a group of porous crystalline materials composed of metal cations or clusters joined by multifunctional organic linkers.  The high surface area and low bulk densities of these materials result in both large gravimetric and volumetric capacities for CO2. Five metal-organic frameworks have been studied by the investigators, where single-component CO2, H2 and CH4 adsorption isotherms were measured at 313 °K at pressures up to 40 bar. Mixtures of CO2, H2 and CH4 were simulated using these single-component data as a starting point. The best-performing materials exhibited much higher selectivities and working capacities for CO2 than activated carbons and zeolites.

Efficient And Accurate Undercut Detection System

Molding and casting of parts can be done more simply and economically for parts that are free from undercut features, primarily because a more expensive multi-piece mold must be used for parts with such undercut features. Therefore immediate feedback to the designer about the presence of costly undercuts allows for their early removal in the design process. Without immediate and accurate feedback designers can wind up with high part costs, waste, and a complicated manufacturing process. UC Berkeley researchers have developed a design system, based on a sophisticated new algorithm that allows for very efficient and rapid identification of undercuts in 3D geometric models. The Berkeley system uses graphics acceleration to allow a user to rotate an object, examine the undercuts in real time and accurately identify undercuts on a pixel by pixel basis. The system also highlights the portions of faces, including curved faces, which have undercuts. Early detection and removal of undercuts ensures rapid development of the lowest cost design. The system can also be used as a subroutine in finding whether any under-cut free parting directions exist and for evaluating which is optimal if there are multiple choices. The ability to find the optimal direction along with pixel level accuracy makes the system highly desirable for designers.

Macroporous Oxide Materials With Controlled Porosity And Pore Size

During the fabrication of porous ceramics, control of the porosity, pore size, and pore shape is critical to the ultimate material properties. To date, this control has been limited, especially in the production of macroporous ceramics, which have pore sizes greater than 0.05 micrometers. These conventional methods have been unsuccessful in producing macroporous ceramics with large pores arranged in regular arrays at high porosities.

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