Abstract: In an example implementation, a print supply cartridge comprises a microcontroller to receive a timing challenge and enable authentication of the cartridge by providing a challenge response. The challenge response is provided in a challenge response time that falls within an expected time window.

Abstract: In an example, a sealing member includes a solid body portion and a peripheral beading hinged to the solid body portion. The peripheral beading has an inner perimeter corresponding to an outer perimeter of the solid body portion. Further, in a protracted position, the peripheral beading is to fit around an edge of the solid body portion bearing an interference fit with the solid body portion.

Abstract: A development cartridge includes a developer housing to receive a developer. The developer housing includes a developing chamber to have a developing roller in the developing chamber and extending in a longitudinal direction of the developing roller, an agitating chamber located parallel to the developing chamber, and a partition wall to separate the developing chamber from the agitating chamber, the partition wall having a first communication hole and a second communication hole respectively formed at both end portions of the partition wall in the longitudinal direction, through which the developing chamber and the agitating chamber are to communicate through. A developer inlet, through which the developer is injectable into the developer housing, for the developer housing to receive the developer, is formed in the developer housing at a position corresponding to the first communication hole or the second communication hole. The developer inlet is closeable with a cap.

Abstract: A digital pen may include an orientation sensors and a three-dimensional (3D) coordinate plane selection module wherein, via input from the orientation sensors describing a position and orientation of the digital pen with respect to a two-dimensional (2D) display, the 3D coordinate plane selection module selects at least one coordinate plane in which an element of a 3D image is to be adjusted.

Abstract: A transport device (106) includes a first volume (110) to receive a build material and a second volume (108) to contain an object created by an additive manufacturing system (100). The transport device (106) is receivable by a 3D printer (102) of the additive manufacturing system, and the 3D printer to build the object in the second volume. The transport device (106) is receivable by an extracting and supply device (104). The extracting and supply device is to extract the object from the second volume and to supply the build material to the first volume.

Abstract: Examples disclosed herein provide the ability for a computing device to configure one microphone at a time from physically colocated devices to remain active for participating in a teleconference. In one example method, the computing device determines whether a first device with a first microphone on the teleconference is physically colocated with respect to a second device with a second microphone on the teleconference. When the first and second devices are physically colocated with respect to each other, the computing device configures either the first or second microphone to remain active for participating in the teleconference while the other of the first or second microphone is to be muted.

Abstract: An example system includes a stage identification portion to determine a stage in a progression of a progressive identifier, and an identifier encoding portion to encode or read the progressive identifier. A number or percentage of bits of the progressive identifier encoded, or read as encoded, by the identifier encoding portion is uniquely associated with the stage in the progression.

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: A belt tensioning system is described, which comprises: a housing pivotable about a pivot point; a pulley supported by said housing, said pulley to rotate a belt and said pulley rotatable about an axis of rotation; a motor to drive the pulley; and a biasing element coupled to said housing and to apply a tension to said belt via said housing and said pulley; wherein operation of said motor to effect rotation of said pulley about said axis of rotation: in a first direction effects pivoting of said housing in a direction about said pivot point, which pivoting movement, in combination with said biasing element, effects translational movement of said axis of rotation of said pulley in a first translational direction to a first axis position to alter said tension in said belt; and in a second direction effects pivoting of said housing in an opposite direction about said pivot point, which pivoting movement, in combination with said biasing element, effects translational movement of said axis of rotation of said pul

Abstract: An example device includes: A housing is mounted in a bezel. A camera holder is slideably mounted in the housing, the camera holder to slide in the housing between a recessed and an unrecessed position. A camera head is slideably mounted in the camera holder, the camera holder to slide between a downward position, when the camera holder is in the recessed position, and an upward position, when the camera holder is the unrecessed position. The camera head include a camera device angled outward, relative to the display, when the camera head is in the upward position and the camera holder is in the unrecessed position. The camera holder and the housing contains the camera head and the camera device, when the camera head is in the downward position and the camera holder is in the recessed position.

Abstract: A fluidic die includes fluid chambers, each including an electrode exposed to an interior of the fluid chamber and each having a corresponding fluid actuator operating at a high voltage. The fluidic die further includes monitoring circuitry, operating at a low voltage relative to the fluid actuator, to monitor a condition of each fluid chamber, for each chamber the monitoring circuitry including a connection structure and a select transistor and a pulldown transistor connected to the electrode via the connection structure. The connection structure and select and pulldown transistors together structured to form electrically conductive paths with electrical resistances to protect at least the select transistor from fault damage if the high voltage fluid actuator short-circuits to the electrode.

Abstract: A system includes a machine readable storage medium storing instructions and a processor. The processor is to execute instructions to receive contone agent maps of a three-dimensional (3D) part and sensed thermal maps from the 3D printing of the 3D part on a 3D printer. The processor is to execute instructions to generate layer sequences including the contone agent maps and the sensed thermal map for each layer of the 3D part. The processor is to execute instructions to select training samples from the layer sequences having temperature intensity variations within each layer or between neighboring layers. The processor is to execute instructions to train a neural network using the training samples to generate a model to predict thermal behavior in the 3D printer.

Abstract: In example implementations, a self-adjustable sole is provided. The self-adjustable sole includes a soft sole, a flexible sole and a hard sole. The soft sole includes a first sensor. The flexible sole includes a bag containing an amount of fluid. The hard sole includes a controller that is in communication with the first sensor and the bag. The controller controls the amount of the fluid in the bag based on data collected by the sensor.

Abstract: A multi-axis mount including: a baseplate, the baseplate including an indent, the indent including multiple sloped sides; a pivot, the pivot including a magnetizable, partial ovoidal body, the pivot contacting the baseplate at no less than two sloped sides of the indent and at no more than three sloped sides of the indent; and a magnet located opposite the baseplate from the pivot, the magnet to attract the pivot against the baseplate.

Abstract: A decoration for a computing device includes at least one thermochromic pigment. The decoration is located next to a heat exhaust port of a computing device to change color based on the heat exhausted by the computing device. Further, a computing device may include a heat exhaust port for dissipating heat, and a decoration coupled to the computing device adjacent to the heat exhaust port. The decoration includes at least one thermochromic pigment to change color based on heat exhausted by the heat exhaust.

Abstract: A computing device may include a display, an audio output device, a sensor to detect the position of the display relative to the audio output device, and a processor to receive the detected position of the display and adjust audio output from the audio output device based on the detected position of the display.

Abstract: There is provided a print apparatus and a media roll for the print apparatus, comprising a media identifier located on an end of a core section of the media roll. A type of media loaded into the print apparatus is determined by sensing the media identifier on the media roll using a non-contact sensor to scan the end of the core section.

Abstract: A system may include a scanning device to scan a plurality of objects in a controlled environment and in multiple orientations, a scan calibrator to perform calibration of the scanning by the scanning device, and a database configurator. The database configurator may be configured to determine multi-dimensional invariant orientations and geometric properties of features of the scanned objects to generate subsets of objects from the plurality of objects that are unique to the subset of objects, determine correlations between the determined multi-dimensional invariant orientation and the geometric properties of the features, generate group identifiers for each of the subsets of objects, perform supervised training on the determined multi-dimensional invariant orientations and geometric properties to generate trained parameters for each of the subsets of objects, and generate an object database based on the group identifiers and the trained parameters.

Abstract: Examples of creating moving light patterns in a light pipe having a plurality of Light Emitting Diodes (LEDs) are described. In an example, a plurality of keyframes is obtained. The plurality of keyframes define the moving light pattern. Each keyframe is indicative of red-greenblue (RGB) illumination values of each LED 5 from the plurality of LEDs. Further, a linear interpolation is performed, at run-time, between two keyframes of the plurality of keyframes to obtain a plurality of interpolated frames. Each interpolated frame is indicative of interpolated RGB illumination values of each LED. Based on the RGB illumination values of 10 the plurality of keyframes and interpolated RGB illumination values of the plurality of interpolated frames, the plurality of LEDs is illuminated, to create the moving light pattern.

Abstract: An example apparatus includes: a network interface to receive: a printer identifier identifying a printing device to which one or more print jobs, associated with a portable device, are to be released; and a location associated with the portable device; a memory including a pre-configured location of the printing device; and a processor connected to the network interface and the memory, the processor to execute instructions stored in the memory. The instructions are to: when the location associated with the portable device and the pre-configured location of the printing device are within a given distance, release the one or more print jobs to the printing device; and when the location associated with the portable device and the pre-configured location of the printing device are not within the given distance, prevent release of the one or more print jobs to the printing device.