Abstract:
A method of performing device-to-device (D2D) communication by a first device includes obtaining at least one measurement value corresponding to a relative velocity between the first device and a second device; adjusting at least one transmission parameter based on the at least one measurement value; providing the adjusted at least one transmission parameter to the second device; and transmitting data to the second device based on the adjusted at least one transmission parameter.
Abstract:
A nanocrystal represented by the following Formula 1 and a preparation method thereof: AMX3L Formula 1 wherein A is cesium (Cs), rubidium (Rb), or an ammonium salt, M is germanium (Ge), tin (Sn), or lead (Pb), X is one or more selected from Cl, Br and I, and L is an organic functional group having one terminal selected from a phosphonic acid group, a carboxylic acid group, and an amino group.
Abstract:
A method of controlling an operation of an electronic device having a damaged touch area is included. The method includes detecting a damaged area in a touch area, identifying information on a location and a width of the damaged area, and performing a touch compensation function when a touch is to be compensated for based on the information.
Abstract:
An ear jack for preventing the generation of popup noise, and an electronic device including the same are provided. The ear jack includes a body including a passage into which an earphone is inserted. On an inside of the passage is disposed a microphone terminal to which a capacitor is connected, the microphone terminal for receiving microphone bias power when the earphone is connected to the ear jack, a ground terminal, a right sound terminal for outputting right sounds, a left sound terminal for outputting left sounds, and a detection terminal for detecting insertion of the earphone. The ground terminal includes a first ground terminal, according to a standard of the ear jack; and a second ground terminal for discharging an electric power of the capacitor, which is charged by the microphone bias power when the earphone is removed.
Abstract:
A liner structure may include a liner and a first block. The liner may be configured to be arranged on an inner sidewall of a reaction chamber configured to receive a heater and a substrate. The first block may be connected to the liner. The first block may include a material different from a material of the liner.
Abstract:
A semiconductor structure may include an insulation layer surrounding side surfaces of vias, connection pads on the vias, respectively, a first insulation member on the insulation layer and including through openings in which the connection pads respectively are disposed, and a second insulation member on the insulation layer and surrounding the first insulation member. Each corresponding connection pad among the plurality of connection pads may be on a corresponding via among the plurality of vias and in a corresponding through opening among the plurality of through openings. A height of the second insulation member may be lower than the heights of the connection pads. Outermost through openings among the through openings may include a first inner side surface defined by a side surface of the first insulation member and a second inner side surface defined by a side surface of the second insulation member.
Abstract:
An image sensor includes a sensor substrate including a plurality of unit pixels; a plurality of unit color filters on the sensor substrate, each unit color filter of the plurality of unit color filters including a plurality of nanoposts; a color separating lens array on the plurality of unit color filters, the color separating lens array being configured to separate and condense incident light based on a wavelength of the incident light; and a spacer layer between the sensor substrate and the color separating lens array, wherein at least one of a diameter and a height of the plurality of nanoposts provided in each unit color filter of the plurality of unit color filters in regions are different from each other based on values of a chief ray angle (CRA) corresponding to the regions.
Abstract:
A wireless communication apparatus for supporting communication with multiple transmission and reception points (TRPs) includes a radio frequency integrated circuit (RFIC) configured to receive a first reference signal from a first TRP and a second reference signal from a second TRP, and processing circuitry configured to estimate channels of a plurality of subcarriers based on at least one of the first reference signal or the second reference signal, determine a beamforming parameter based on the estimated channels, the beamforming parameter being determined based on a capacity of an effective channel between the wireless communication apparatus and both the first TRP and the second TRP, and adjust a reception beam based on the beamforming parameter, and the RFIC being configured to receive a first physical downlink shared channel (PDSCH) from the first TRP through the adjusted reception beam, and receive a second PDSCH from the second TRP.
Abstract:
An image sensor includes a sensor substrate includes first, second, and third pixels respectively sensing first, second and third wavelengths of light, A color separating lens array changes phase of light of the first, second, and third wavelengths, and condenses the phase-changed light onto the first, second and third pixels, respectively. The color separating lens array includes first to third pixel corresponding regions respectively facing the first to third pixels. The first pixel corresponding region includes a plurality of first nanoposts, the second pixel corresponding region includes a plurality of second nanoposts, and the third pixel corresponding region includes a plurality of third nanoposts, a second center nanopost having a greatest cross-sectional width among the second nanoposts overlaps a center of the second pixel, and a third center nanopost having a greatest cross-sectional width among the third nanoposts does not overlap a center of the third pixel.
Abstract:
Provided are an image sensor including a patterned antireflection layer and an electronic apparatus including the image sensor. The image sensor includes a sensor substrate including a plurality of first pixels sensing light having a first wavelength and a plurality of second pixels sensing light having a second wavelength different from the first wavelength, a nano-photonic lens array including a plurality of nanostructures configured to condense an incident light onto the plurality of first pixels and the plurality of second pixels, and an antireflection layer disposed on a light incident surface of the nano-photonic lens array and including a plurality of holes arranged periodically and two-dimensionally, wherein the plurality of holes include a plurality of first holes arranged along a boundary between first and second pixels adjacent to each other and a plurality of second holes disposed to face an inner region of the first pixel or the second pixel.