Abstract: A display device may include a universal serial bus (USB) hub formed within a housing of the display device; a plurality of USB ports, each of a plurality of USB ports communicatively coupled to the USB hub via a ribbon; a guiderail formed on an outer surface of the housing display with each of the plurality of USB ports coupled thereto to allow the movement of the USB ports along the guiderail.

Abstract: An example electronic device includes a controller and a connector coupled to the controller. The connector includes a first set of pins and a second set of pins. The controller concurrently is to communicate with a first module of a modular computing system via the first set of pins and to communicate with a second module of the modular computing system, coupled to the first module, via the second set of pins.

Abstract: Example implementations relate adjustable sensors. For example, a system comprising a housing, a detector to detect a location of an object in an environment surrounding the housing, an adjustable arm coupled to the housing, and a sensor disposed on the adjustable arm to adjust a distance between the sensor and the location of the object responsive to detection of the location of the object.

Abstract: In one example in accordance with the present disclosure, a modular computing component is described. The modular computing component includes a first terminal to connect the modular computing component to at least one of a host computing device and another modular computing component. Controller memory of the modular computing component stores information relating to at least one of build level information, revision level information, and generation level information. A controller of the modular computing component transmits the at least one of build level information, revision level information, and generation level information to the host computing device.

Abstract: In some examples, a system for angle modification of audio output devices includes a receiver engine to receive an input to modify an angle of the audio output device relative to an axis of a computing device that includes the audio output device, and a modify engine to modify the angle of the audio output device relative to the axis of the computing device based on the input via an electric motor.

Abstract: An example system includes a display panel comprising an adjustable light source. A light sensor is disposed proximate to the display panel on an opposite surface from the adjustable light source. A controller is used to measure an intensity of light from the light sensor and to control an intensity of the adjustable light source, based, at least in part, on the intensity of measured light.

Abstract: Example implementations relate to balancing a power load among USB ports. For example, an apparatus according to the present disclosure, may include a plurality of USB ports, and an embedded controller coupled to the plurality of USB ports. The embedded controller may determine that a first device is coupled to a USB port of the plurality of USB ports, and determine a power draw of the first device relative to a type of the USB port. The embedded controller may balance a power load among a remainder of the plurality of USB ports based on the power draw of the first device relative to the type of the USB port.

Abstract: A conferencing system may include a data input port and an ingest system to receive signals through the data input port from a separate conference data source. The ingest system may include a notification subsystem to: identify an error state with respect to the signals received through the data input port; and output a human interface device (HID) notification to a conferencing application, wherein the HID notification includes the identified error state.

Abstract: In some examples, a system for alerts of mixed reality (MR) devices includes a receiver engine to receive an input from a sensor of a MR device in response to the sensor detecting a person in an environment in which the MR device is located, and a generator engine to cause the MR device to generate an alert in response to the detected person based on an identity of the detected person.

Abstract: Examples disclosed herein provide a computing device to charge a rechargeable device. An example computing device can include a module with an enclosure to accommodate the rechargeable device. The computing device can include a transmitter within the module to wirelessly charge the rechargeable device via a receiver disposed within the rechargeable device. The computing device can include a display surface to replicate content illustrated on a screen of the rechargeable device, when the rechargeable device is to be disposed within the enclosure.

Abstract: Example implementations relate to custom operating system (OS) images. For example, booting a user device to a custom OS image includes presenting a user interface (UI) for creating a custom OS image for portable use, storing the custom OS image on a database for information technology (IT) management purposes, sending, based on a request, the custom OS image from the database to an secure external device, and authenticating, based on a policy, the custom OS image on the secure external device for use on a user device without an OS image or a hard drive disk (HDD).

Abstract: Examples disclosed herein provide a platform for autonomously rotating a computing device having display surfaces that may be disposed on multiple sides of the computing device. One example method includes monitoring information displayed on the display surfaces and determining there is relevant information from one of the display surfaces to be directed towards a user of the computing device. The method further includes detecting a location of the user with respect to the computing device and rotating the computing device so that the display surface with the relevant information is to be directed towards the detected location of the user.

Abstract: An example system includes a power collection engine. The power collection engine is to convert wireless electromagnetic energy into wired electrical energy. The system also includes a connection management engine. The connection management engine is to communicate with a first transmitter to cause the first transmitter to provide first power to the power collection engine. The connection management engine is to communicate with a second transmitter to cause the second transmitter to provide second power that avoids interference with the first power to the power collection engine.

Abstract: An example electronic device includes a memory to store a user profile including first identifying information of a first participant in a conference call. A receiver receives second identifying information of the first participant from a transmitting device associated with the first participant, wherein the first identifying information and the second identifying information form an identifier for the first participant. An audio encoder receives an audio signal. A processor, in response to determining which transmitting device is nearest to a source of the audio signal relative to other transmitting devices, identifies the first participant as a source of the audio signal, and combines the identifier for the first participant with the audio signal generated by the first participant. A router forwards the combined identifier and audio of the first participant to a receiving device of a second participant in the conference call.

Abstract: In one implementation, a system for providing a representation of a physical location of a port includes an identifier engine, a configuration engine, and a display engine. In an example, the identifier engine retrieves a value stored on a first memory resource located on a system board. In an example, a configuration engine identifies a memory resource location on a second memory resource that is to store physical port information using a system identifier associated with the value. In an example, a display engine causes the physical port information to be displayed.

Abstract: An example peripheral device includes a module interface to receive power and data communication from a computing device. The peripheral device also includes an attachment tab to affix the peripheral device to a lower side of the computing device. The peripheral device further includes a latch to control an engagement of the attachment tab with the computing device. The peripheral device further includes a sensing circuit to detect a change in position of the latch. The peripheral device further includes a controller to, in response to detecting the latch moving from a locked position to an unlocked position, indicate a hot unplug prediction to the computing device via the module interface.

Abstract: An example method includes receiving an indication of a first level of authentication for an electronic device, the first authentication being associated with a first authentication device associated with the user; receiving an indication of a second level of authentication for the electronic device, the second authentication being associated with a second authentication device associated with the user, the second authentication device being different from the first authentication device; and upon receiving the indication of at least the first level of authentication and the second level of authentication, allow access to the electronic device.

Abstract: Example implementations relate to transmitting signals via USB ports. For example, a system according to the present disclosure, may include a host module including a plurality of USB ports, a first expansion module, and a second expansion module. The first expansion module may include a first USB port and a second USB port. The first expansion module may receive a signal from the host module at a first USB port, and direct the signal to a second USB port. The first expansion module may transmit the signal to a second expansion module via a second USB port.

Abstract: An example computing device includes a module interface to communicate with a peripheral device. The computing device also includes a hot swapping prediction circuit to detect a physical movement of the computing device and to generate a hot swapping prediction signal based on the detected physical movement. The computing device further includes a processor coupled to the hot swapping circuit. The processor is to, in response to detecting the hot swapping prediction signal from the hot swapping circuit, change a parameter of a peripheral device detection operation to be executed by an operating system of the computing device.

Abstract: Example implementations relate to balancing a power load among USB ports. For example, an apparatus according to the present disclosure, may include a plurality of USB ports, and an embedded controller coupled to the plurality of USB ports. The embedded controller may determine that a first device is coupled to a USB port of the plurality of USB ports, and determine a power draw of the first device relative to a type of the USB port. The embedded controller may balance a power load among a remainder of the plurality of USB ports based on the power draw of the first device relative to the type of the USB port.