Abstract: Customizing frames for augmented reality devices includes receiving a fit profile of a user and selecting a stock frame from a set of different frame sizes. The selected stock frame may be a size that is a closer match to the fit profile than other frame sizes in the set, and the stock frame may be adjusted to create a modified frame that provides a closer match to the fit profile than the stock frame. A see-through display may be coupled to the modified frame.

Abstract: A HMD includes a pair of temple arms having spring steel that wraps around the head to provide long axis compression. The spring steel arms produce a compressive force along the long axis of the head that counters the gravitational force of a weight positioned at the forehead. The weight is supported by the long axis compression, rather than resting on the nose, ears or the top of the head. The front to back, long axis compressive force frees the head from all but the smallest amount of paraphernalia and allows for the weight to be worn in a way that is comfortable and non-intrusive. The spring steel temple arms are over bent inward well beyond the smallest size head and is used with a spine material that limits how far the temple arms can bend inward. An interface layer is also attached to provide comfort to the head.

Abstract: A head-mounted display device includes a modular frame assembly including one or more different components. Each of the different components may be selected from a component set including at least two or more differently-sized versions of each different component. The head-mounted display device also includes a modular see-through display sub-assembly including one or more mountings for selectably coupling the modular see-through display sub-assembly to the modular frame assembly. The modular see-through display sub-assembly may be configured to couple to any combination of differently-sized versions of different components of the modular frame assembly.

Abstract: A HMD includes a pair of temple arms having spring steel that wraps around the head to provide long axis compression. The spring steel arms produce a compressive force along the long axis of the head that counters the gravitational force of a weight positioned at the forehead. The weight is supported by the long axis compression, rather than resting on the nose, ears or the top of the head. The front to back, long axis compressive force frees the head from all but the smallest amount of paraphernalia and allows for the weight to be worn in a way that is comfortable and non-intrusive. The spring steel temple arms are over bent inward well beyond the smallest size head and is used with a spine material that limits how far the temple arms can bend inward. An interface layer is also attached to provide comfort to the head.

Abstract: A head-mounted display device includes a modular frame assembly including one or more different components. Each of the different components may be selected from a component set including at least two or more differently-sized versions of each different component. The head-mounted display device also includes a modular see-through display sub-assembly including one or more mountings for selectably coupling the modular see-through display sub-assembly to the modular frame assembly. The modular see-through display sub-assembly may be configured to couple to any combination of differently-sized versions of different components of the modular frame assembly.

Abstract: Customizing frames for augmented reality devices includes receiving a fit profile of a user and selecting a stock frame from a set of different frame sizes. The selected stock frame may be a size that is a closer match to the fit profile than other frame sizes in the set, and the stock frame may be adjusted to create a modified frame that provides a closer match to the fit profile than the stock frame. A see-through display may be coupled to the modified frame.

Abstract: A security device protects information handling systems from theft with a reduced footprint at the information handling system by interfacing a key receptacle with a lock hook through a flexible member, such as a coaxial cable. Rotation at the key receptacle by a key translates through the flexible member to the lock hook so that the lock hook rotates to a locked position in a lock body integrated with the information handling system chassis. The flexible member avoids or reduces leverage placed on the lock body through the security device.

Abstract: A security device protects information handling systems from theft with a reduced footprint at the information handling system by interfacing a key receptacle with a lock hook through a flexible member, such as a coaxial cable. Rotation at the key receptacle by a key translates through the flexible member to the lock hook so that the lock hook rotates to a locked position in a lock body integrated with the information handling system chassis. The flexible member avoids or reduces leverage placed on the lock body through the security device.

Abstract: A mobile communication device 100 has a user interface portion (102) and an ear portion (104). The ear portion slopes or curves away from a plane (202) defined by the user interface portion to urge a user of the mobile communication device to hold the mobile communication device at an angle (404).