Abstract: One embodiment provides a method for adapting a wash cycle of a dishwashing machine. The method comprises gathering sensor information from one or more sensors of the dishwashing machine. The sensor information gathered includes data identifying one or more adjustments to a rack layout of a dish rack of the dishwashing machine. The method further comprises determining a load configuration for the dish rack based on the sensor information gathered. The load configuration determined identifies one or more types of content loaded onto the dish rack. A wash cycle for washing the content loaded onto the dish rack is adapted based on the load configuration determined.

Abstract: One embodiment provides a dishwashing apparatus having a utensil rack including a configurable rack layout, and a first rack layout adjustment device coupled to the utensil rack for configuring the rack layout.

Abstract: One embodiment provides a method for adapting a wash cycle of a dishwashing machine. The method comprises gathering sensor information from one or more sensors of the dishwashing machine. The sensor information gathered includes data identifying one or more adjustments to a rack layout of a dish rack of the dishwashing machine. The method further comprises determining a load configuration for the dish rack based on the sensor information gathered. The load configuration determined identifies one or more types of content loaded onto the dish rack. A wash cycle for washing the content loaded onto the dish rack is adapted based on the load configuration determined.

Abstract: One embodiment provides a dishwashing apparatus comprising a utensil rack including a configurable rack layout, and a first rack layout adjustment device coupled to the utensil rack for configuring the rack layout.

Abstract: A fuel cell contains an electrolyte sheet sandwiched between two electrodes. One or both electrode/electrolyte interfaces includes mesoscopic three-dimensional features in a prescribed pattern. The features increase the surface area-to-volume ratio of the device and can be used as integral channels for directing the flow of reactant gases to the reaction surface area, eliminating the need for channels in sealing plates surrounding the electrodes. The electrolyte can be made by micromachining techniques that allow very precise feature definition. Both selective removal and mold-filling techniques can be used. The fuel cell provides significantly enhanced volumetric power density when compared with conventional fuel cells.

Abstract: A fuel cell contains an electrolyte sheet sandwiched between two electrodes. One or both electrode/electrolyte interfaces includes mesoscopic three-dimensional features in a prescribed pattern. The features increase the surface area-to-volume ratio of the device and can be used as integral channels for directing the flow of reactant gases to the reaction surface area, eliminating the need for channels in sealing plates surrounding the electrodes. The electrolyte can be made by micromachining techniques that allow very precise feature definition. Both selective removal and mold-filling techniques can be used. The fuel cell provides significantly enhanced volumetric power density when compared with conventional fuel cells.

Abstract: A process for making a component by depositing a first layer of a powder material in a confined region and then depositing a binder material to selected regions of the layer of powder material to produce a layer of bonded powder material at the selected regions. Such steps are repeated a selected number of times to produce successive layers of selected regions of bonded powder material so as to form the desired component. The unbonded powder material is then removed. In some cases the component may be further processed as, for example, by heating it to further strengthen the bonding thereof.