Abstract: A display apparatus includes a display screen and a driver circuit. The display screen includes a plurality of light boxes. Each of the light boxes includes a plurality of light panels. Each of the light panels includes a plurality of display pixels. The driver circuit is coupled to the display screen. The driver circuit is configured to drives the display screen to display an image. The driver circuit performs a first compensation operation on the display screen according to a first compensation data, and the first compensation data is calculated on the basis of the light panels. The driver circuit performs a second compensation operation on the display screen according to a second compensation data, and the second compensation data is calculated on the basis of the display pixels.

Abstract: A method of obtaining brightness information of a display panel having a plurality of pixels includes steps of: obtaining positioning information indicating positions of the plurality of pixels on a test picture; lighting up the plurality of pixels and capturing the test picture; measuring the plurality of pixels according to the positioning information, to obtain a light intensity distribution of each of the plurality of pixels in the test picture; and calculating the brightness information of each of the plurality of pixels according to the light intensity distribution.

Abstract: A calibrating device includes a memory and a processor. The memory is configured to store at least one computer readable instruction. The processor is electrically coupled to the memory, and configured to access and execute the at least one computer readable instruction to: analyze an image of a target region which a seam between two LED panels disposed side by side is in, to obtain characteristic data associated with the seam; compare the characteristic data associated with the seam with a predetermined value to generate a comparison result; and adjust grayscale data of pixels which are arranged in two lines of the two LED panels and adjacent to the seam, based on the comparison result, for adjusting luminance-chromaticity of the pixels, wherein the two lines are in a first direction or a second direction, and the first direction is perpendicular to the second direction.

Abstract: A pair of projection glasses, a wearable projection apparatus, and a foldable optical engine are provided. The foldable optical engine includes a projection mechanism and a light emitting mechanism. A light input portion of the projection mechanism corresponds in position to a light output portion of the light emitting mechanism. The projection mechanism and the light emitting mechanism are pivotally connected to each other along a rotation axis so as to be rotatable relative to each other along the rotation axis. When the projection mechanism and the light emitting mechanism are rotated relative to each other to cause the light output portion to face toward the light input portion, the light emitting mechanism is configured to emit a light beam from the light output portion toward the light input portion, so as to allow the projection mechanism to receive the light beam for projecting an image light.

Abstract: A compensation method for pixel aging applicable to controlling circuit of a display device having a display panel is provided. The method includes: receiving a display content; predicting an aging of each of a plurality of pixels of the display panel resulting from the display content in order to obtain an aging prediction; generating a display data to compensate the display panel based on the aging prediction; and outputting the display content. Besides, a controlling circuit using the method for compensating a display device is also provided.

Abstract: The invention provides an image compensation method suitable to a display. First, an image processing circuit obtains pixel data related to a current pixel, a first and a second adjacent pixels from an image frame. The first and the second adjacent pixels are respectively located at two opposite sides of the current pixel. Then, the image processing circuit determines whether a color block edge exists between the current pixel, the first adjacent pixel and the second adjacent pixel according to the pixel data related to the current pixel, the first adjacent pixel and the second adjacent pixel. The image processing circuit performs first color edge compensation on the pixel data related to the current pixel when determining that the color block edge exists between the current pixel and the first adjacent pixel and no color block edge exists between the current pixel and the second adjacent pixel. An image processing circuit is further provided.

Abstract: A compensation method for pixel aging applicable to controlling circuit of a display device having a display panel is provided. The method includes: receiving a display content; predicting an aging of each of a plurality of pixels of the display panel resulting from the display content in order to obtain an aging prediction; generating a display data to compensate the display panel based on the aging prediction; and outputting the display content. Besides, a controlling circuit using the method for compensating a display device is also provided.

Abstract: A wound drainage therapy system includes a wound seal unit, a fluid collector unit, a vacuum driving unit and an actuator. The fluid collector unit is detachably connected with the wound seal unit, and the fluid collector unit has a multiple-pipe integration module and a collection bag. The multiple-pipe integration module has a first row connection port group and a second row connection port group. The vacuum driving unit has a vacuum generator. The actuator has a motor, a negative pressure detector and a positive pressure detector, wherein the motor is used to drive the vacuum generator to operate and the motor is detachably connected with the vacuum generator. A connection port of the negative pressure detector and a connection port of the positive pressure detector are detachably connected with another two connection ports of the second row connection port group respectively.

Abstract: A wound drainage therapy system includes a wound seal unit, a fluid collector unit, a vacuum driving unit and an actuator. The fluid collector unit is detachably connected with the wound seal unit, and the fluid collector unit has a multiple-pipe integration module and a collection bag. The multiple-pipe integration module has a first row connection port group and a second row connection port group. The vacuum driving unit has a vacuum generator. The actuator has a motor, a negative pressure detector and a positive pressure detector, wherein the motor is used to drive the vacuum generator to operate and the motor is detachably connected with the vacuum generator. A connection port of the negative pressure detector and a connection port of the positive pressure detector are detachably connected with another two connection ports of the second row connection port group respectively.

Abstract: A connector assembly has a hollow first connector and a hollow second connector. The first connector has an engaging block. The second connector has an opened connecting end, a guiding groove, a resilient tab cavity, an escaping segment and a resilient tab. The resilient tab cavity is defined in the second connector at a side of the guiding groove opposite to the connecting end and communicates with the guiding groove. The escaping segment is formed on and protrudes from an outer surface of the second connector at a position between the guiding groove and the connecting end of the second connector and is hollow to define an escaping space communicating with the guiding groove. The resilient tab is formed on and protrudes from an inner surface of the resilient tab space and has a free end extending into the guiding groove.

Abstract: A connector assembly has a hollow first connector and a hollow second connector. The first connector has an engaging block. The second connector has an opened connecting end, a guiding groove, a resilient tab cavity, an escaping segment and a resilient tab. The resilient tab cavity is defined in the second connector at a side of the guiding groove opposite to the connecting end and communicates with the guiding groove. The escaping segment is formed on and protrudes from an outer surface of the second connector at a position between the guiding groove and the connecting end of the second connector and is hollow to define an escaping space communicating with the guiding groove. The resilient tab is formed on and protrudes from an inner surface of the resilient tab space and has a free end extending into the guiding groove.