Abstract: A chair support shell has an integral back portion, seat portion, and joining portion between the back portion and the seat portion. At least a major portion of the support shell comprises a compliant structure, the compliant structure having a plurality of cells interconnected by a plurality of resilient members. The compliant structure provides compliance in the seat portion, compliance in the back portion, and compliance in the joining portion. The compliant structure enables recline of the back portion relative to the seat portion.

Abstract: An example method includes: forming a conductive layer on at least a portion of a surface of a substrate, where the substrate comprises a composite material of an aerodynamic structure, and where the conductive layer is configured to provide a conductive path to conduct an electric current generated by a lightning strike to an electrically-grounded location; depositing an insulating layer on the conductive layer; removing one or more portions of the insulating layer to form respective gaps in the insulating layer and expose corresponding one or more portions of the conductive layer; and forming a resistive-heater layer on the insulating layer such that the resistive-heater layer fills the respective gaps in the insulating layer and contacts the corresponding one or more portions of the conductive layer, such that when electric power is provided to the conductive layer, the electric power is communicated to the resistive-heater layer thereby generating heat therefrom.

Abstract: An example method includes: forming a conductive layer on at least a portion of a surface of a substrate, where the substrate comprises a composite material of an aerodynamic structure, and where the conductive layer is configured to provide a conductive path to conduct an electric current generated by a lightning strike to an electrically-grounded location; depositing an insulating layer on the conductive layer; removing one or more portions of the insulating layer to form respective gaps in the insulating layer and expose corresponding one or more portions of the conductive layer; and forming a resistive-heater layer on the insulating layer such that the resistive-heater layer fills the respective gaps in the insulating layer and contacts the corresponding one or more portions of the conductive layer, such that when electric power is provided to the conductive layer, the electric power is communicated to the resistive-heater layer thereby generating heat therefrom.

Abstract: Methods and apparatus for conducting particle erosion tests of vehicle surfaces are disclosed. An example apparatus includes a particle dispersion chamber. The particle dispersion chamber includes a first end and a second end opposite the first end. The example apparatus includes an air supply feed coupled to the first end to provide air flow to the dispersion chamber. The example apparatus includes a first nozzle adjacent the second end. The example apparatus includes an injector extending into the particle dispersion chamber. The injector is to inject particles into the air flow to generate a particle-injected air stream. The first nozzle is to deliver the particle-injected air stream to a test chamber coupled to the first nozzle.

Abstract: Embodiments of a cryptograph processing device and method for adapting to shared-cache attacks are generally described herein. Other embodiments may be described and claimed. In some embodiments, the cryptographic processing device comprises first and second processing units, and a cache that is shared by the first and second processing units. The first processing unit may monitor a number of cache misses that occur during the performance of a first cryptographic process and may switch to performing a second cryptographic process after the number of cache misses exceeds a threshold.

Abstract: Embodiments of a cryptograph processing device and method for adapting to shared-cache attacks are generally described herein. Other embodiments may be described and claimed. In some embodiments, the cryptographic processing device comprises first and second processing units, and a cache that is shared by the first and second processing units. The first processing unit may monitor a number of cache misses that occur during the performance of a first cryptographic process and may switch to performing a second cryptographic process after the number of cache misses exceeds a threshold.

Abstract: Embodiments of system and method for adapting to attacks of cryptographic processes on multiprocessor systems with shared cache are generally described herein. Other embodiments may be described and claimed.