A flexible display screen comprises a back surface connected to a first housing, a second housing, and a rotating shaft that are included by a support component. A part that is of the flexible display screen and that is connected to the rotating shaft is used as a first bent portion. The first bent portion is bent along an axis of the rotating shaft, to fold in half a part that is of the flexible display screen and that is separately connected to the first housing and the second housing.

A light emitting display device includes: a first display area including a first light-emitting element and a first pixel circuit unit; and a second display area including a second light-emitting element disposed to overlap a driving unit and a second pixel circuit unit which drives the second light-emitting element, where the first pixel circuit unit further include a first boost capacitor.

According to an aspect of the disclosure, a method for displaying content on a display of an electronic device comprises determining, based on information about the content, a first region of the display on which a first portion of the content is to be displayed; obtaining an angle between the first region and a second region of the display, the second region being distinguished from the first region; generating, based on the angle and a location of a user, correction content corresponding to a second portion of the content; and displaying the first portion on the first region, and displaying the correction content on the second region.

Disclosed is a driving circuit of a stretchable display capable of being stretched, which includes a driving part that includes a driving transistor connected with a light-emitting element and drives the light-emitting element depending on a signal of a data line, a switching transistor that is connected between the driving part and the data line and includes a gate terminal connected with a first gate line, and a stretch-sensitive sensor that is connected with the switching transistor between the driving part and the data line, and the stretch-sensitive sensor may include a stretch-sensitive material whose resistance characteristic changes depending on a stretching force applied to the stretchable display.

A display device includes a display panel, a support member disposed below the display panel, and a cushion layer disposed below the support member and including a first cushion part overlapping a first non-folding region, and a second cushion part overlapping a second non-folding region, the support member including an upper plate, and a lower plate below the upper plate. The lower plate includes a first lower plate including a first horizontal part parallel to a plane defined by a first direction and a second direction intersecting the first direction, and a first vertical part extended from the first horizontal part and bent toward the first cushion part, and a second lower plate spaced apart from the first lower plate, and including a second horizontal part parallel to the plane, and a second vertical part extended from the second horizontal part and bent toward the second cushion part.

A display system includes a display that has a first display area and a second display area. Each display area includes a plurality of subpixels, and each subpixel includes a light emitting device. A first power system is configured to output a first power supply positive voltage and a first power supply negative voltage to drive subpixels in the first display area. A second power system is configured to output a second power supply positive voltage and a second power supply negative voltage to drive subpixels in the second display area.

A vehicle lighting device, irradiating an interior space of a vehicle with light, includes a light emitting module configured to irradiate the interior space with light transmitted through an inner layer surrounding the interior space, wherein the light emitting module includes a substrate member formed of a flexible material, a circuit pattern printed on the substrate member and electrically conducted to the outside to receive a control signal and an applied voltage, a circuit element member configured to be coupled and electrically conducted to the circuit pattern to process the control signal and the applied voltage, and a light emitting diode (LED) member coupled to the substrate member and electrically conducted to the circuit pattern and the circuit element member to emit the light according to the control signal and the applied voltage transmitted thereto.

The ambient illuminance and light geometry detection system includes a computing process including receiving a hinge angle between two displays of a foldable computing device, illuminance values from illuminance sensors of the displays, and screen activity of each of the displays of the foldable computing device, determining foldable computing device posture information based at least in part on the hinge angle and the screen activity of each of the displays, determining a user facing display of the foldable computing device based at least in part on the device posture information and the screen activity of the displays, assigning differential weights to an illuminance value received from an illuminance sensor of the user facing display compared to an illuminance value received from an illuminance sensor of the non-user facing display and generating an aggregate weighted average illuminance by applying the differential weights to the illuminance values of each of the displays.

An apparatus for manufacturing a display device includes a stage to support first and second members, and a pressurization portion spaced apart from the stage and to press the first or second member. The pressurization portion includes: a contact portion facing the stage and to contact the first or second member; a first force application unit connected to the contact portion and to linearly move the contact portion; and a second force application unit connected to the contact portion and spaced apart from the first force application unit. The second force application unit linearly moves the contact portion in a portion of the contact portion that is different from the portion contacted by the first force application unit. At least one of the first and second force application units is configured to operate according to a force applied by the contact portion to one of the first and second members.

An electronic device according to various embodiments may include: a housing, a flexible display having at least a partial area configured to be drawn out from the housing so that a size of a visible area of the flexible display can be changed, a sensor configured to measure a length of the flexible display, a memory, a processor operatively connected to the memory, the sensor, and the flexible display. The processor may be configured to control the electronic device to: display a first content including at least one image in a first area including a partial area of the flexible display in response to an input, measure a length of the flexible display drawn out from the housing using the sensor, based on the length of the flexible display measured using the sensor being a specified first length, determine that the electronic device is in a non-expanded state, and based on the length of the flexible display measured using the sensor being a second length longer than the first length, determine that the electronic device is in an expanded state. In addition, the processor may be configured to control the electronic device to: based on the electronic device being in an expanded state, display the first content in the first area, and display a user interface corresponding to at least one application and/or second content obtained by converting the first content into a form corresponding to a function provided by the at least one application in a second area including a partial area of the flexible display, drawn out from the housing to be visible, and transmit, in response to an input, data corresponding to the first content to a server connected to the at least one application.