Abstract: Techniques for fingerprint encoded gesture initiation of device actions are described and are implementable to perform a variety of functionality based on touch-based gestures that are fingerprint encoded. For instance, a mobile device receives an input including a touch-based gesture. The mobile device generates fingerprint identity information based on the touch-based gesture, such as by a fingerprint sensor area that is operable to detect a pattern of a fingerprint in contact with the fingerprint sensor area. Based on the fingerprint identity information, the mobile device determines that the fingerprint identity information is associated with a user of the mobile device. The mobile device then performs an action that corresponds to the touch-based gesture, e.g., based on a shape of the gesture. In one example, the action includes display of a customized user interface associated with a user profile that corresponds to the touch-based gesture.

Abstract: Techniques for fingerprint encoded gesture initiation of device actions are described and are implementable to perform a variety of functionality based on touch-based gestures that are fingerprint encoded. For instance, a mobile device receives an input including a touch-based gesture. The mobile device generates fingerprint identity information based on the touch-based gesture, such as by a fingerprint sensor area that is operable to detect a pattern of a fingerprint in contact with the fingerprint sensor area. Based on the fingerprint identity information, the mobile device determines that the fingerprint identity information is associated with a user of the mobile device. The mobile device then performs an action that corresponds to the touch-based gesture, e.g., based on a shape of the gesture. In one example, the action includes display of a customized user interface associated with a user profile that corresponds to the touch-based gesture.

Abstract: This document relates to a process for supporting the management of a variety of types of deployed devices. Administrators utilizing enterprise services can provide generic configuration data using configuration templates, which can be provided to a management server. The management server can then precompute device-specific configuration settings and resolve any conflicts that may arise based on the configuration templates. The configuration templates can also include placeholders for secret values, and once a managed device checks in to the management server, the secret values can be retrieved from an applicable enterprise service and provided to the managed device at the time of applying the configuration template.

Abstract: This document relates to a process for deploying devices and automatically provisioning the devices to connect to a managed network upon powering on with minimal user involvement. Upon deployment of the device to an end point, a record can be established in a management server regarding the device, which can associate device specifications with a deployment profile to be used in provisioning the device. Upon powering on of the device at the end point, the device can automatically perform attestation with the management server, which can then provision the device according to the deployment profile without additional user intervention.

Abstract: This document relates to a process for supporting the management of a variety of types of deployed devices. Administrators utilizing enterprise services can provide generic configuration data using configuration templates, which can be provided to a management server. The management server can then precompute device-specific configuration settings and resolve any conflicts that may arise based on the configuration templates. The configuration templates can also include placeholders for secret values, and once a managed device checks in to the management server, the secret values can be retrieved from an applicable enterprise service and provided to the managed device at the time of applying the configuration template.

Abstract: This document relates to a process for supporting the management of a variety of types of deployed devices. Administrators utilizing enterprise services can provide generic configuration data using configuration templates, which can be provided to a management server. The management server can then precompute device-specific configuration settings and resolve any conflicts that may arise based on the configuration templates. The configuration templates can also include placeholders for secret values, and once a managed device checks in to the management server, the secret values can be retrieved from an applicable enterprise service and provided to the managed device at the time of applying the configuration template.

Abstract: An information handling system includes a radio connected to an antenna subsystem, and a proximity sensor configured to detect a proximity of a user to the antenna subsystem. An antenna controller may identify an antenna physical configuration of an antenna subsystem, retrieve a power table corresponding to the antenna physical configuration, transmit the power table to the radio via a direct communication interface between the antenna controller and the radio, and communicate a message to the radio, the message in response to the proximity of the user to the antenna subsystem. The radio may set a radio transmit power level in response to the message.

Abstract: An information handling system (IHS) includes an antenna system. The antenna system includes a smart antenna and a smart antenna control system, the smart antenna control system controlling configuration of a configurable aspect of the smart antenna based upon information regarding the configurable aspect of the smart antenna.

Abstract: This document relates to a process for supporting the management of a variety of types of deployed devices. Administrators utilizing enterprise services can provide generic configuration data using configuration templates, which can be provided to a management server. The management server can then precompute device-specific configuration settings and resolve any conflicts that may arise based on the configuration templates. The configuration templates can also include placeholders for secret values, and once a managed device checks in to the management server, the secret values can be retrieved from an applicable enterprise service and provided to the managed device at the time of applying the configuration template.

Abstract: This document relates to a process for supporting the management of a variety of types of deployed devices. Administrators utilizing enterprise services can provide generic configuration data using configuration templates, which can be provided to a management server. The management server can then precompute device-specific configuration settings and resolve any conflicts that may arise based on the configuration templates. The configuration templates can also include placeholders for secret values, and once a managed device checks in to the management server, the secret values can be retrieved from an applicable enterprise service and provided to the managed device at the time of applying the configuration template.

Abstract: An information handling system (IHS) includes an antenna system. The antenna system includes a smart antenna and a smart antenna control system, the smart antenna control system controlling configuration of a configurable aspect of the smart antenna based upon information regarding the configurable aspect of the smart antenna.

Abstract: A trench capacitor includes a plurality of trenches in a semiconductor substrate. A first polysilicon layer is located within the plurality of trenches and over a top surface of the substrate. The first polysilicon layer is continuous between the plurality of trenches. The trench capacitor further includes a plurality of second polysilicon layers. Each of the second polysilicon layers fills a corresponding trench of the plurality of trenches. The second polysilicon layers each extend to a top surface of the first polysilicon layer.

Abstract: This document relates to a process for supporting the management of a variety of types of deployed devices. Administrators utilizing enterprise services can provide generic configuration data using configuration templates, which can be provided to a management server. The management server can then precompute device-specific configuration settings and resolve any conflicts that may arise based on the configuration templates. The configuration templates can also include placeholders for secret values, and once a managed device checks in to the management server, the secret values can be retrieved from an applicable enterprise service and provided to the managed device at the time of applying the configuration template.

Abstract: This document relates to a process for deploying devices and automatically provisioning the devices to connect to a managed network upon powering on with minimal user involvement. Upon deployment of the device to an end point, a record can be established in a management server regarding the device, which can associate device specifications with a deployment profile to be used in provisioning the device. Upon powering on of the device at the end point, the device can automatically perform attestation with the management server, which can then provision the device according to the deployment profile without additional user intervention.

Abstract: A trench capacitor includes at least one epitaxial semiconductor surface layer on a semiconductor substrate having a doping level that is less than a doping level of the semiconductor substrate. A plurality of trenches are formed through at least one half of a thickness of the epitaxial semiconductor surface layer. The epitaxial semiconductor surface layer is thicker than a depth of the plurality of trenches. At least one capacitor dielectric layer lines a surface of the trenches. At least one trench fill layer on the dielectric layer fills the trenches.

Abstract: A trench capacitor includes a plurality of trenches in a semiconductor substrate. A first polysilicon layer is located within the plurality of trenches and over a top surface of the substrate. The first polysilicon layer is continuous between the plurality of trenches. The trench capacitor further includes a plurality of second polysilicon layers. Each of the second polysilicon layers fills a corresponding trench of the plurality of trenches. The second polysilicon layers each extend to a top surface of the first polysilicon layer.

Abstract: A trench capacitor includes at least one epitaxial semiconductor surface layer on a semiconductor substrate having a doping level that is less than a doping level of the semiconductor substrate. A plurality of trenches are formed through at least one half of a thickness of the epitaxial semiconductor surface layer. The epitaxial semiconductor surface layer is thicker than a depth of the plurality of trenches. At least one capacitor dielectric layer lines a surface of the trenches. At least one trench fill layer on the dielectric layer fills the trenches.

Abstract: A trench capacitor includes at least one epitaxial semiconductor surface layer on a semiconductor substrate having a doping level that is less than a doping level of the semiconductor substrate. A plurality of trenches are formed through at least one half of a thickness of the epitaxial semiconductor surface layer. The epitaxial semiconductor surface layer is thicker than a depth of the plurality of trenches. At least one capacitor dielectric layer lines a surface of the trenches. At least one trench fill layer on the dielectric layer fills the trenches.

Abstract: A trench capacitor includes a plurality of trenches in a doped semiconductor surface layer of a substrate. At least one dielectric layer lines a surface of the plurality of trenches. A second polysilicon layer that is doped is on a first polysilicon layer that is on the dielectric layer which fills the plurality of trenches. The second polysilicon layer has a higher doping level as compared to the first polysilicon layer.

Abstract: A trench capacitor includes a plurality of trenches in a doped semiconductor surface layer of a substrate. At least one dielectric layer lines a surface of the plurality of trenches. A second polysilicon layer that is doped is on a first polysilicon layer that is on the dielectric layer which fills the plurality of trenches. The second polysilicon layer has a higher doping level as compared to the first polysilicon layer.