Abstract: Various embodiments are directed to printer devices and methods of using the same. In various embodiments, a printer device may comprise a printer housing defining an interior portion for housing a plurality of internal components, the printer housing being selectively configurable in an open configuration, wherein the printer housing comprises: a bottom housing portion; and a top housing portion hingedly connected to the bottom housing portion and configured to rotate relative to the bottom housing portion about a hinge axis to configure the printer housing between the closed and open configurations; wherein the plurality of internal components comprises a first component operatively secured to the bottom housing portion; and a second component defining a media support assembly operatively secured to the top housing portion and configured to move relative to the first component as the top housing portion rotates relative to the bottom housing portion.

Abstract: A detection method of key road-sections based on Ricci flow is provided and includes: building a weighted road network according to static road network data and actual traffic flow data; calculating initial values of Olivier Ricci curvature at different times; obtaining a weight system of making edges of the weighted road network be with a same value of Olivier Ricci curvature by a Ricci flow iterative process; and calculating direction and degree of weight change of each of the edges corresponding to road-sections, and setting a threshold to extract key road-sections. The method solves problems that the existing methods analyze the key road-sections from the topological structure of the road network without fully considering the actual distribution and transmission characteristics of the traffic flow in the network, is simple and easy; and the detection result more meet the traffic distribution and the flow of the actual road-sections.

Abstract: This application provides an antenna assembly. The antenna assembly includes at least a first antenna and a second antenna. The first antenna includes a first feed point and a first radiator connected thereto. The second antenna includes a second feed point and a second radiator connected thereto. There is a gap between the first radiator and the second radiator. An end of the second radiator close to the gap is provided with a first ground wire shared by the first antenna and the second antenna. An end of the second radiator away from the gap is provided with a second ground wire. Because currents excited by the first antenna and the second antenna are orthogonally complementary, crosstalk does not occur between the ground currents of the first antenna and the second antenna.

Abstract: A semiconductor device includes a clock gating circuit and a control circuit. The clock gating circuit outputs a gated clock signal based on a clock signal. Transitions of the clock signal are output in the gated clock signal in response to a clock enable signal having an enable value and are disabled from being output in the gated clock signal in response to the clock enable signal having a disable value. The control circuit includes a first portion that operates based on the clock signal. The first portion sets the clock enable signal to the disable value in response to a disable control and sets the clock enable signal to the enable value in response to a wakeup control. The control circuit includes a second portion that operates based on the gated clock signal. The second portion provides the disable control to the first portion during an operation.

Abstract: A duty cycle correction circuit and a duty cycle correction method are disclosed. The disclosed duty cycle correction circuit can comprise at least one low pass filter configured to convert a clock signal to a voltage, and a voltage comparator configured to compare the voltage with a reference voltage to output a comparison signal. The disclosed duty cycle correction circuit can further comprise a controller configured to select, based on the comparing voltage, a duty cycle correction method from a first method and a second method different from the first method. The disclosed duty cycle correction circuit can further comprise a duty regulator configured to perform a duty tuning operation to adjust a duty of the clock signal using the selected duty cycle correction method.

Abstract: A glass composition includes: greater than or equal to 55 mol % and less than or equal to 70 mol % SiO2; greater than or equal to 14 mol % and less than or equal to 25 mol % Al2O3; greater than or equal to 0 mol % B2O3; greater than or equal to 0 mol % P2O5; greater than or equal to 0 mol % and less than or equal to 10 mol % Li2O; greater than or equal to 6.5 mol % and less than or equal to 20 mol % Na2O; greater than or equal to 0 mol % K2O; greater than or equal to 0.1 mol % and less than or equal to 4.5 mol % MgO; greater than or equal to 0 mol % CaO; and greater than or equal to 0 mol % SrO. The sum of Li2O, Na2O, and K2O in the glass composition may be greater than or equal to 6.5 mol % and less than or equal to 22 mol %. The glass composition may satisfy the relationship Al2O3*(2.94)+B2O3*(?0.58)+P2O5*(?3.87)+Li2O*(5.01)+Na2O*(1.89)+K2O*(?2.03) is greater than 100.

Abstract: A method for machine learning enabled material design may include applying a first machine learning model trained to generate an equilibrium crystal structure corresponding a crystal structure generated, for example, by performing an elemental substation. The first machine learning model may generate the equilibrium crystal structure by iteratively searching a solution space including possible variations of the crystal structure for a variation having a minimum formation energy. The searching may be constrained to variations having a same symmetry as the crystal structure. Properties of the crystal structure may be determined, for example, by applying a second machine learning to the equilibrium crystal structure. The crystal structure may be identified as a candidate for synthesis based the properties of the crystal structure, such as an above-threshold elastic modulus corresponding to an ultra-incompressibility.

Abstract: Glasses containing silicon dioxide (SiO2) and/or boron oxide (B2O3) as glass formers and having a refractive index nd of greater than or equal to 1.7, as measured at 587.56 nm, and a density of less than or equal to 4.5 g/cm3, as measured at 25° C., are provided. Optionally, the glasses may be characterized by a low optical dispersion, a high transmittance in the visible and near-ultraviolet (near-UV) range of the electromagnetic spectrum, and/or good glass forming ability.

Abstract: A method for receiving device position determination includes receiving beamformed position reference signals (BF-PRSs) on a plurality of communications beams from at least two transmitting devices in accordance with a BF-PRS configuration, making at least one observed time difference of arrival (OTDOA) measurement in accordance with the BF-PRSs on the plurality of communications beams, and transmitting OTDOA feedback including the at least one OTDOA measurement.

Abstract: A glass composition includes: from 55 mol % to 70 mol % SiO2; from 12.5 mol % to 17.25 mol % Al2O3; from 0.1 mol % to 3.5 mol % P2O5; from 0 mol % to 5.5 mol % B2O3; from 6 mol % to 10 mol % Li2O; from 3 mol % to 10 mol % Na2O; from 0 mol % to 3 mol % TiO2; from 0 mol % to 3 mol % WO3; and from 0 mol % to 3 mol % Y2O3. The sum of Al2O3 and B2O3 in the glass composition may be from 12.5 mol % to 22.5 mol %. The sum of TiO2, WO3, and Y2O3 in the glass composition may be from 0.2 mol % to 3 mol %.

Abstract: Embodiments of the present application provide a pickup tooling, which relate to the field of pickup devices. The pickup tooling includes a base and a pickup mechanism. A mounting portion is arranged on one side of the base in a first direction, and the mounting portion is used for connecting an execution end of the robot. The pickup mechanism includes a mounting seat, a pickup unit, and a driving mechanism. The mounting seat is connected to the base, and the pickup unit is connected to the mounting seat in a flippable manner and is used for picking up a workpiece. The driving mechanism is configured to drive the pickup unit to rotate about a central axis to change the posture of the pickup unit, with the central axis perpendicular to the first direction. The pickup unit is flippable about the central axis and connected to the mounting seat.

Abstract: Glasses containing silicon dioxide (SiO2) and/or boron oxide (B2O3) as glass formers and having a refractive index nd of greater than or equal to 1.80, as measured at 587.56 nm, a density of less than or equal to 5.5 g/cm3, as measured at 25° C., and a high transmittance to, particularly to blue light, are provided. Optionally, the glasses may be characterized by a high transmittance in the visible and near-ultraviolet (near-UV) range of the electromagnetic spectrum and/or good glass forming ability.

Abstract: An electronic device includes: a ground, a frame, and an antenna structure. The antenna structure includes a radiator and a first capacitive component. The frame has a first location and a second location. The frame between the first location and the second location is the radiator of the antenna structure. A first slot is configured at the first location of the frame. The first capacitive component is electrically coupled between the first location of the frame and a first end of the radiator, or the first capacitive component is electrically coupled between a first end of the radiator and the ground. The first end of the radiator is an end that is of the radiator and that is at the first slot.

Abstract: Glasses containing silicon dioxide (SiO2) and/or boron oxide (B2O3) as glass formers and having a refractive index nd of greater than or equal to 1.7, as measured at 587.56 nm, and a density of less than or equal to 4.5 g/cm3, as measured at 25° C., are provided. Optionally, the glasses may be characterized by a low optical dispersion, a high transmittance in the visible and near-ultraviolet (near-UV) range of the electromagnetic spectrum, and/or good glass forming ability.

Abstract: A glass composition comprises: 50.0 mol % to 70.0 mol % SiO2; 10.0 mol % to 25.0 mol % Al2O3; 0.0 mol % to 5.0 mol % P2O3; 0.0 mol % to 10.0 mol % B2O3; 5.0 mol % to 15.0 mol % Li2O; 1.0 mol % to 15.0 mol % Na2O; and 0.0 mol % to 1.0 mol % K2O. The sum of all alkali oxides, R2O, present in the glass composition may be in the range from greater than or equal to 11.0 mol % to less than or equal to 23.0 mol %. The sum of Al2O3 and R2O present in the glass composition may be in the range from greater than or equal to 26.0 mol % to less than or equal to 40.0 mol %. The glass composition may satisfy the relationship ?0.1<(Al2O3?(R2O+RO))/Li2O<0.3.

Abstract: Glasses containing silicon dioxide (SiO2) and/or boron oxide (B2O3) as glass formers and having a refractive index nd of greater than or equal to 1.80, as measured at 587.56 nm, a density of less than or equal to 5.5 g/cm3, as measured at 25° C., and a high transmittance to, particularly to blue light, are provided. Optionally, the glasses may be characterized by a high transmittance in the visible and near-ultraviolet (near-UV) range of the electromagnetic spectrum and/or good glass forming ability.

Abstract: A glass composition includes greater than or equal to 60 mol % to less than or equal to 66 mol % SiO2, greater than or equal to 14 mol % to less than or equal to 16 mol % Al2O3, greater than or equal to 7 mol % to less than or equal to 9 mol % Li2O, greater than or equal to 4 mol % to less than or equal to 6 mol % Na2O, greater than or equal to 0.5 mol % to less than or equal to 3 mol % P2O5, greater than or equal to 0.5 mol % to less than or equal to 6 mol % B2O3; and greater than 0 mol % to less than or equal to 1 mol % TiO2. The glass composition may have a fracture toughness of greater than or equal 0.75 MPa?m. A glass composition includes SiO2, Al2O3, Li2O, Na2O, P2O5, and B2O3, wherein a molar ratio of Li2O/Na2O is greater than or equal to 1.2 to less than or equal to 2.0, the glass has a liquidus viscosity in the range from greater than or equal to 50 kP to less than or equal to 75 kP, and the glass has a KIC fracture toughness greater than or equal to 0.75 MPa·m0.5.

Abstract: A semiconductor device includes a clock gating circuit and a control circuit. The clock gating circuit outputs a gated clock signal based on a clock signal. Transitions of the clock signal are output in the gated clock signal in response to a clock enable signal having an enable value and are disabled from being output in the gated clock signal in response to the clock enable signal having a disable value. The control circuit includes a first portion that operates based on the clock signal. The first portion sets the clock enable signal to the disable value in response to a disable control and sets the clock enable signal to the enable value in response to a wakeup control. The control circuit includes a second portion that operates based on the gated clock signal. The second portion provides the disable control to the first portion during an operation.

Abstract: A colored glass article includes greater than or equal to 50 mol % and less than or equal to 80 mol % SiO2; greater than or equal to 7 mol % and less than or equal to 25 mol % Al2O3; greater than or equal to 1 mol % and less than or equal to 15 mol % B2O3; greater than or equal to 5 mol % and less than or equal to 20 mol % Li2O; greater than or equal to 0.5 mol % and less than or equal to 15 mol % Na2O; greater than 0 mol % and less than or equal to 1 mol % K2O; and greater than or equal to 1×10?6 mol % and less than or equal to 1 mol % Au. R2O—Al2O3 is greater than or equal to ?5 mol % and less than or equal to 7 mol %, R2O being the sum of Li2O, Na2O, and K2O.

Abstract: Described herein are compounds and compositions for electrolytes based on bidentate and monodentate fluorinated alcohols. Also described are batteries that include the compounds and electrolytes described herein.