Abstract: Embodiments of systems and methods are provided to enhance network security by providing secure, multi-path user authentication, while also providing a more convenient login experience to the user. In the present disclosure, a cloud-based user authentication and threat detection system is provided with an artificial intelligence (AI) engine and a training dataset. Utilizing a cloud-based system enables the AI engine to collect data from multiple devices located within different physical locations or environments (such as, for example, the user's home and office). The collected data is stored within the training dataset and used to create a personalized user profile for each user. Each time a user initiates login to a system or network from a particular location, the AI engine collects data from multiple devices within that location and utilizes the user profile data previously stored within the training dataset to securely authenticate the user or detect potential security threats.

Abstract: A portable information handling system supports processing components in a housing having first and second portions rotationally coupled by a hinge to move between closed and clamshell positions. Each housing portion includes a cooling fluid reservoir that stores cooling fluid for transfer of thermal energy from a processing component. Cooling fluid moves between the first and second housing portion cooling fluid reservoirs to provide a balanced weight distribution for the information handling system based upon the position of the housing portions, such as to increase the weight of a base portion of the housing resting on a support surface while decreasing the weight of an opposing lid portion.

Abstract: The present disclosure provides various embodiments of systems and methods to securely authenticate a user. More specifically, the present disclosure provides embodiments of multi-factor authentication methods that improve both security and user convenience by using trusted secondary devices or peripherals (hereinafter “trusted devices”) to provide additional authentication factor(s) for verifying user presence/identity after an initial authentication factor has been used to verify user presence/identity. Unlike conventional multi-factor authentication methods, the additional authentication factor(s) provided by the trusted devices do not require user input or intervention.

Abstract: Embodiments of systems and methods are provided to enhance network security by providing secure, multi-path user authentication, while also providing a more convenient login experience to the user. In the present disclosure, a cloud-based user authentication and threat detection system is provided with an artificial intelligence (AI) engine and a training dataset. Utilizing a cloud-based system enables the AI engine to collect data from multiple devices located within different physical locations or environments (such as, for example, the user's home and office). The collected data is stored within the training dataset and used to create a personalized user profile for each user. Each time a user initiates login to a system or network from a particular location, the AI engine collects data from multiple devices within that location and utilizes the user profile data previously stored within the training dataset to securely authenticate the user or detect potential security threats.

Abstract: A portable information handling system supports processing components in a housing having first and second portions rotationally coupled by a hinge to move between closed and clamshell positions. Each housing portion includes a cooling fluid reservoir that stores cooling fluid for transfer of thermal energy from a processing component. Cooling fluid moves between the first and second housing portion cooling fluid reservoirs to provide a balanced weight distribution for the information handling system based upon the position of the housing portions, such as to increase the weight of a base portion of the housing resting on a support surface while decreasing the weight of an opposing lid portion.

Abstract: The present disclosure provides various embodiments of systems and methods to securely authenticate a user. More specifically, the present disclosure provides embodiments of multi-factor authentication methods that improve both security and user convenience by using trusted secondary devices or peripherals (hereinafter “trusted devices”) to provide additional authentication factor(s) for verifying user presence/identity after an initial authentication factor has been used to verify user presence/identity. Unlike conventional multi-factor authentication methods, the additional authentication factor(s) provided by the trusted devices do not require user input or intervention.

Abstract: In an implementation, a mobile communications device includes a display device having touchscreen functionality, a keyboard having a plurality of physical keys that include a dedicated key and letter keys arranged according to a QWERTY layout, and one or more modules. The one or more modules are configured to output a user interface on the display device responsive to selection of the dedicated key, the user interface having a plurality of portions that are selectable via the touchscreen functionality to cause input of a respective one of a plurality of emoticons.

Abstract: In an implementation, a mobile communications device includes a display device having touchscreen functionality, a keyboard having a plurality of physical keys that include a dedicated key and letter keys arranged according to a QWERTY layout, and one or more modules. The one or more modules are configured to output a user interface on the display device responsive to selection of the dedicated key, the user interface having a plurality of portions that are selectable via the touchscreen functionality to cause input of a respective one of a plurality of emoticons.

Abstract: In an implementation, a mobile communications device includes a display device having touchscreen functionality, a keyboard having a plurality of physical keys that include a dedicated key and letter keys arranged according to a QWERTY layout, and one or more modules. The one or more modules are configured to output a user interface on the display device responsive to selection of the dedicated key, the user interface having a plurality of portions that are selectable via the touchscreen functionality to cause input of a respective one of a plurality of emoticons.

Abstract: In an implementation, a mobile communications device includes a display device having touchscreen functionality, a keyboard having a plurality of physical keys that include a dedicated key and letter keys arranged according to a QWERTY layout, and one or more modules. The one or more modules are configured to output a user interface on the display device responsive to selection of the dedicated key, the user interface having a plurality of portions that are selectable via the touchscreen functionality to cause input of a respective one of a plurality of emoticons.

Abstract: In an implementation, a mobile communications device includes a display device having touchscreen functionality, a keyboard having a plurality of physical keys that include a dedicated key and letter keys arranged according to a QWERTY layout, and one or more modules. The one or more modules are configured to output a user interface on the display device responsive to selection of the dedicated key, the user interface having a plurality of portions that are selectable via the touchscreen functionality to cause input of a respective one of a plurality of emoticons.

Abstract: In an implementation, a mobile communications device includes a display device having touchscreen functionality, a keyboard having a plurality of physical keys that include a dedicated key and letter keys arranged according to a QWERTY layout, and one or more modules. The one or more modules are configured to output a user interface on the display device responsive to selection of the dedicated key, the user interface having a plurality of portions that are selectable via the touchscreen functionality to cause input of a respective one of a plurality of emoticons.

Abstract: In an implementation, a mobile communications device includes a display device having touchscreen functionality, a keyboard having a plurality of physical keys that include a dedicated key and letter keys arranged according to a QWERTY layout, and one or more modules. The one or more modules are configured to output a user interface on the display device responsive to selection of the dedicated key, the user interface having a plurality of portions that are selectable via the touchscreen functionality to cause input of a respective one of a plurality of emoticons.

Abstract: In an implementation, a mobile communications device includes a display device having touchscreen functionality, a keyboard having a plurality of physical keys that include a dedicated key and letter keys arranged according to a QWERTY layout, and one or more modules. The one or more modules are configured to output a user interface on the display device responsive to selection of the dedicated key, the user interface having a plurality of portions that are selectable via the touchscreen functionality to cause input of a respective one of a plurality of emoticons.

Abstract: In an implementation, a mobile communications device includes a display device having touchscreen functionality, a keyboard having a plurality of physical keys that include a dedicated key and letter keys arranged according to a QWERTY layout, and one or more modules. The one or more modules are configured to output a user interface on the display device responsive to selection of the dedicated key, the user interface having a plurality of portions that are selectable via the touchscreen functionality to cause input of a respective one of a plurality of emoticons.