Abstract:
Technologies are generally described for server resource allocation for distributed games. In one example, a method includes allocating a first set of resources for a first player instance on a first server, a second set of resources for a second player instance on the first server, and a third set of resources for a third player instance on a second server. The method also includes comparing a first relationship strength defined between the first player instance and the second player instance with a second relationship strength defined between the first player instance and the third player instance. Further, the method includes distributing at least one of the first set of resources, the second set of resources, or the third set of resources between the first server and the second server based on a result of the comparing.
Abstract:
A screen for an electronic device can include an intrascreen array of thin film photovoltaic cells embedded into a screen layer. The photovoltaic cells can be disposed at least substantially normal to a surface plane of the screen layer. The photovoltaic cells can thus be configured to capture light that is at least substantially off-normal to the surface plane of the screen layer.
Abstract:
Technologies are generally described herein for writing data to either volatile or nonvolatile memory. An estimated time for a last write operation to occur and an estimated time to a power down event are determined. A threshold time is generated from the estimated time for a last write operation to occur and the estimated time to a power down event. The threshold time represents time at which a cost to write to volatile memory may become greater than a cost to write to nonvolatile memory. The cost may be based at least in part on the need to copy data stored in a volatile memory to be persisted after a power down event from the volatile to the nonvolatile memory.
Abstract:
Disclosed herein are gemini surfactants, and methods for making and using these gemini surfactants. These gemini surfactants may be incorporated in paints and coatings to provide hydrophilic and/or self-cleaning properties.
Abstract:
Disclosed herein are gemini surfactants, and methods for making and using these gemini surfactants. These gemini surfactants may be incorporated in paints and coatings to provide hydrophilic and/or self-cleaning properties.
Abstract:
A technique of reducing leakage energy associated with a post-silicon target circuit is generally described herein. One example method includes purposefully aging a plurality of gates in the target circuit based on a targeted metric including a timing constraint associated with the target circuit.
Abstract:
Techniques described herein generally include methods and systems related to a MEMS-based audio speaker system that includes a first movable element, formed from a first layer of a semiconductor substrate, and a second movable element, formed from a second layer of the semiconductor substrate that is a different layer than the first layer of the semiconductor substrate. The first movable element may be configured to oscillate along a first directional path substantially orthogonal to the first plane.
Abstract:
Technologies are generally described for calibrating three-dimensional image sensors. In some examples, an imaging system may include a sensor for detecting two-dimensional image data associated with a scene and a sensor for detecting depth data associated with the scene. Both sensors may also be configured to detect a reference signal used to illuminate the scene. The imaging system may then be configured to form three-dimensional data about the scene by using the reference signal to combine the two-dimensional image data and the depth data.
Abstract:
In some examples, a method of sensor degradation compensation is described. The method may include generating first characterization data for calibration of a first sensor, from amongst multiple sensors that include the first sensor and at least a second sensor, based on first sensor data generated by the first sensor. The method may further include providing the first characterization data to be pushed to the second sensor. The second sensor may be configured to be calibrated with the first characterization data. The method may also include collecting second sensor data generated by the first sensor and generating second characterization data based on the second sensor data after the first characterization data is provided. The method may further include providing the second characterization data to be pushed to the second sensor. The second sensor may be configured to be recalibrated with the second characterization data.
Abstract:
In a spatial modulation multiple-input-multiple-output (SM-MIMO) wireless communication system, multiple transmitting antennae and multiple receiving antennae may be utilized to respectively transmit and receive wireless signals for the communication. A selection of a combination of the multiple transmitting antennae may be configured to represent one or more binary digits in a signal sequence. The signal sequence may be produced at the receiving end without the knowledge of the selection of the combination of the multiple transmitting antennae.