Abstract: A flexible display panel, a manufacturing method thereof, and a display terminal are provided in the present application. The flexible display panel includes a plurality of island structures, a plurality of electrical connecting structures, and a first flexible adhesive layer. The first flexible adhesive layer is filled between the plurality of island structures and covers the plurality of island structures. A ratio of a difference between a second distance of adjacent two of the island structures in a stretched state and a first distance in an unstretched state to the first distance ranges from 10% to 20%.

Abstract: An apparatus includes memory cells. A first memory cell of the memory cells includes a first write port laid out in a first doping region and a first read port laid out in a second doping region. The first read port is separated from the first write port by a second write port of a second memory cell of the memory cells.

Abstract: A display panel and a display device are disclosed. The display panel includes at least a part of plurality of first connection parts arranged at intervals along a first direction. Each pixel electrode is connected to one driving transistor through the first connection part. The first connection parts are further configured to connect signal lines. An area of each of the first connection parts disposed sequentially increases along the first direction, or the area of each of the first connection parts is the same. The area is an orthographic projection area of the first connection part on a base substrate.

Abstract: A driving circuit and a display panel are provided. The driving circuit at least includes first fan-out lines, second fan-out lines, and data lines. The first fan-out lines are located in the display region and electrically connected to the driving chip. The second fan-out lines are located in the display region and connected to the first fan-out lines. The data lines are located in the display region and connected to the second fan-out lines. Wherein, the first fan-out lines, the second fan-out lines, and the data lines are located in different layers, and the second fan-out lines are located between the first fan-out lines and the data lines.

Abstract: Provided are a display device and an electronic device in which a level difference between front sub-pixels can be suppressed even if a resonator structure is included, and a method of manufacturing the display device. A display device includes a plurality of sub-pixels corresponding to a plurality of color types, in which each of the sub-pixels includes a light emitting element including a first electrode, an organic layer, and a second electrode, and in at least the sub-pixels corresponding to one color type, a resonator structure that causes emitted light from the organic layer to resonate is formed and a refractive index adjustment layer is included in at least one of the first electrode or the second electrode.

Abstract: A display device with high display quality is provided. The display device includes a first lower electrode, a first EL layer over the first lower electrode, a second lower electrode, a second EL layer over the second lower electrode, an upper electrode over the first EL layer and the second EL layer, a first region not provided with the first lower electrode below the first EL layer, and a second region not provided with the second lower electrode below the second EL layer. In the first region, the upper electrode is positioned not to be in contact with the first lower electrode. In the second region, the upper electrode is positioned not to be in contact with the second lower electrode.

Abstract: A display panel and a display device including a functional region corresponding to a camera are provided. The display panel includes the panel main body, the polarization layer, and the backplate module. The polarization layer is disposed on the light-exiting side of the panel main body. The backplate module is disposed on the side of the panel main body away from the polarization layer. A part of the backplate module and the panel main body disposed in a stack and corresponding to the functional region have a total in-plane phase difference value, and the total in-plane phase difference value is less than 200 nanometers or greater than 7000 nanometers.

Abstract: A semiconductor device includes a first conductive layer, a memory layer, a second conductive layer and a selector layer. The memory layer surrounds the first conductive layer. The second conductive layer is disposed aside the memory layer. The selector layer is disposed on the second conductive layer. A first side of the second conductive layer is covered by the memory layer, a second side of the second conductive layer is covered by the selector layer, and a third side of the second conductive layer is exposed by the selector layer.

Abstract: A display panel and a method of manufacturing the same, and a display device are provided. The display panel includes a display panel body and a backplane arranged on a backlight side of the display panel body. The display panel body includes a display area, a bending area, and a bonding area. The bending area is located between the display area and the bonding area. The display panel includes a heat-sensitive adhesive layer disposed between the backplane and the display panel body.

Abstract: An optical system and a method of manufacturing an optical system are provided. The optical system includes a carrier, a light emitter, a light receiver, a block structure and an encapsulant. The light emitter is disposed on the carrier. The light receiver is disposed on the carrier and physically spaced apart from the light emitter. The light receiver has a light detecting area. The block structure is disposed on the carrier. The encapsulant is disposed on the carrier and covers the light emitter, the light receiver and the block structure. The encapsulant has a recess over the block structure.

Abstract: An embodiment of the present disclosure provides a display panel, further including a plurality of signal lines; a plurality of fan-out wiring structures including a first group of wires and a second group of wires at both sides, the first group of wires including a first broken line segment and a second broken line segment in the same bending direction, and the second group of wires including a third broken line segment and a fourth broken line segment in the opposite bending direction; a plurality of chips respectively connected to one of the fan-out wiring structures. The impedances of the fan-out wires at opposite ends of the fan-out region may be matched with each other.

Abstract: The present disclosure provides a photocurable composition, a light condensing layer, and a display device. The photocurable composition includes an acrylic resin, a photoinitiator, and a nanoparticle composite. Raw materials for preparing the nanoparticle composite include an inorganic nanoparticle, a surface of which is provided with active hydroxyl groups, and an organic compound including at least one of a titanate coupling agent and a zirconate coupling agent.

Abstract: The present application provides a display module and a display device. The display module includes a display panel, a self-adhesive back plate disposed on the display panel, and a support plate disposed on the self-adhesive back plate. The self-adhesive back plate includes at least two adhesive layers, one of the at least two adhesive layers is disposed facing the display panel, and another one of the at least two adhesive layers is disposed facing the support plate. In the present application, by disposing the self-adhesive back plate and the support plate to support the display panel, a thickness of the display module can be greatly reduced, and difficulty and cost of production can be reduced.

Abstract: Provided is a photodetection device capable of suppressing an increase in a parasitic capacitance of an electrode pad. A photodetection device includes: a first semiconductor layer that includes a photoelectric conversion unit and has one surface being a light incident surface and another surface being an element formation surface; an insulating layer laminated on a side of the light incident surface of the first semiconductor layer; an electrode pad exposed from a surface of the insulating layer on a side opposite to a surface on a side of the first semiconductor layer in a state where the insulating layer is interposed between the electrode pad and the first semiconductor layer; and an insulating ring that is a ring having an insulating property, penetrating the first semiconductor layer in a thickness direction, and surrounding the electrode pad in a plan view.

Abstract: A calibration circuit and a calibration method for a phase shifter, a phase-shift circuit, a radio frequency transmitting circuit, a radio frequency receiving circuit, a radar sensor and an electronic device are provided. The calibration circuit for the phase shifter includes a phase acquisition circuit and a phase calibration circuit, the phase acquisition circuit coupled to the phase shifter is configured to modulate a radio frequency sample signal acquired from the phase shifter using a first baseband signal, down-convert the modulation signal to obtain a second baseband signal containing an actual phase; the phase calibration circuit coupled to the phase acquisition circuit is configured to acquire the actual phase in the second baseband signal, determine calibration phase information according to a phase deviation between the actual phase and a preset phase-shift phase, generate a phase-shift control signal according to calibration phase information and transmit it to the phase shifter.

Abstract: Circuitry for characterising an electrochemical cell having a first electrode, a second electrode and a non-linear response characteristic, the circuitry comprising: difference circuitry configured to measure a potential difference across the electrochemical cell and output a difference voltage proportional to the measured potential difference; compensation circuitry configured to linearise the difference voltage and output a linearised difference signal; and a first analog-to-digital converter (ADC) configured to convert the linearised difference signal to a digital output.

Abstract: The present disclosure generally pertains to time-of-flight demodulation circuitry, configured to: apply, for a predetermined time period, a first modulation signal to a first signal path including a first light detection element; apply, for the predetermined time period, a second modulation signal to a second signal path including a second light detection element; and after the predetermined time period, transfer the first modulation signal from the first signal path to the second signal path and transfer the second modulation signal from the second signal path to the first signal path.

Abstract: A method is provided, including: applying a magnetic field according to a two-qubit gate operation performed with a quantum device; transmitting a voltage signal to a gate structure, arranged above first and second quantum dots in the quantum device, to generate a coupling signal that includes a first sine squared wave; and performing, by the magnetic field and the coupling signal, the two-qubit gate operation to the first and second qubits in the first and second quantum dots.

Abstract: A display apparatus with a driver circuit having redundancy is provided. The display apparatus includes a first layer and a second layer positioned above the first layer. The first layer includes a first driver circuit and a second driver circuit. The second layer includes a first pixel region and a second pixel region. The first pixel region includes a first pixel circuit and the second pixel region includes a second pixel circuit. The first pixel region includes a region overlapping with the first circuit and the second pixel region includes a region overlapping with the second circuit. The first pixel circuit is electrically connected to the first driver circuit through a first wiring, the second pixel circuit is electrically connected to the second driver circuit through a second wiring, and the first wiring is electrically connected to the second wiring through a switch.

Abstract: Sensors and systems are provided. A sensor as disclosed includes a plurality of pixels disposed within an array. Each pixel is associated with a hyperspectral filter including a metamaterial and a metal grating capable of passing light of a particular wavelength range through to an image sensor. Systems include the use of an aluminum grating separated from a metamaterial including TiO2 and Si3N4 by a SiO2 coupling layer as a filter mounted on a substrate.