Abstract: The Application relates to optically transparent electrostatic transducers. In some embodiments, the transducers comprise graphene. Such transducers are capable of functioning as acoustic sensors and/or transmitters as a singulated device or in an array configuration. Also provided are methods of manufacturing and using such transducers.

Abstract: The Application relates to optically transparent electrostatic transducers. In some embodiments, the transducers comprise graphene. Such transducers are capable of functioning as acoustic sensors and/or transmitters as a singulated device or in an array configuration. Also provided are methods of manufacturing and using such transducers.

Abstract: The present application relates to graphene-based transducing devices, including micromechanical ultrasonic transducers and electret transducers. A micromachined ultrasonic transducer comprising: a backing layer, a spacer layer, and a diaphragm comprising a material selected from the group consisting of graphene, h-BN, MoS2, and combinations thereof, wherein the backing layer comprises a first etched semiconductor, glass, or polymer, wherein the spacer layer comprises a second etched semiconductor, glass, or polymer.

Abstract: Described are micro electrostatic transducers and methods of making such devices. The micro electrostatic transducer is an integrated component transducing device fabricated from materials allowing for low cost, high volume manufacturing. The device includes a sheet of graphene forming the diaphragm with two electrode layers above and below the diaphragm to introduce the audio signal.

Abstract: Described are micro electrostatic transducers and methods of making such devices. The micro electrostatic transducer is an integrated component transducing device fabricated from materials allowing for low cost, high volume manufacturing. The device includes a sheet of graphene forming the diaphragm with two electrode layers above and below the diaphragm to introduce the audio signal.

Abstract: The Application relates to optically transparent electrostatic transducers. In some embodiments, the transducers comprise graphene. Such transducers are capable of functioning as acoustic sensors and/or transmitters as a singulated device or in an array configuration. Also provided are methods of manufacturing and using such transducers.

Abstract: Described are micro electrostatic transducers and methods of making such devices. The micro electrostatic transducer is an integrated component transducing device fabricated from materials allowing for low cost, high volume manufacturing. The device includes a sheet of graphene forming the diaphragm with two electrode layers above and below the diaphragm to introduce the audio signal.

Abstract: A device with programmable resistance comprising memristive material between conductive electrodes on a substrate or in a film stack on a substrate is provided. During fabrication of a memristive device, a memristive layer may be hydrated after deposition of the memristive layer. The hydration of the memristive layer may be performed utilizing thermal annealing in a reducing ambient, implant or plasma treatment in a reducing ambient, or a deionized water rinse. Additionally, plasma-assisted etching of an electrode may be performed with hydration or in place of hydration to electroform devices in a batch, in situ process. The memristive device may be electroformed at low voltage and passivated to allow for device operation in air. Further, the memristive device is suitable for high throughput manufacturing.

Abstract: A resistive memory apparatus provides resistive memory material between conductive traces on a substrate or in a film stack on a substrate. The resistive memory apparatus may provide a sealed cavity or may utilize material obviating the need for the cavity. Methods and materials utilized to form the resistive memory apparatus are compatible with current microelectronic fabrication techniques. The resistive memory apparatus is nonvolatile or requires no power to maintain a programmed state. The resistive memory device may also be directly integrated with other microelectronic components.

Abstract: Various embodiments of the present invention pertain to memresistor cells that comprise: (1) a substrate; (2) an electrical switch associated with the substrate; (3) an insulating layer; and (3) a resistive memory material. The resistive memory material is selected from the group consisting of SiOx, SiOxH, SiOxNy, SiOxNyH, SiOxCz, SiOxCzH, and combinations thereof, wherein each of x, y and z are equal or greater than 1 or equal or less than 2. Additional embodiments of the present invention pertain to memresistor arrays that comprise: (1) a plurality of bit lines; (2) a plurality of word lines orthogonal to the bit lines; and (3) a plurality of said memresistor cells positioned between the word lines and the bit lines. Further embodiments of the present invention provide methods of making said memresistor cells and arrays.

Abstract: A resistive memory apparatus provides resistive memory material between conductive traces on a substrate or in a film stack on a substrate. The resistive memory apparatus may provide a sealed cavity or may utilize material obviating the need for the cavity. Methods and materials utilized to form the resistive memory apparatus are compatible with current microelectronic fabrication techniques. The resistive memory apparatus is nonvolatile or requires no power to maintain a programmed state. The resistive memory device may also be directly integrated with other microelectronic components.