Abstract: Providing are a flexible display panel and flexible display device. The flexible display panel includes a display area and a non-display area surrounding the display area. The non-display area includes a flexible substrate, an inorganic layer and a metal wire stacked together. An overlapping area exists between the non-display area and a bending area of the flexible display panel. In the overlapping area, at least one groove is formed on the inorganic layer, and the metal wire is at least partially arranged in the at least one groove.

Abstract: This invention concerns a delivery load management system capable of providing fast delivery to a plurality of delivery destinations, said delivery load management system comprises a central server; an algorithm; a group of registered users capable of placing order for delivery with said central server; a plurality of current ordered items ordered by said group of registered users; a plurality of past ordered items by said group of individual users; a central pick up location having at least said plurality of current ordered items and an expected item; a plurality of delivery vehicles; a plurality of delivery routes and a plurality of delivery regions determined by said central server according to said algorithm; and a central database. Said central server is capable of predicting a first new order from said group of registered users, and determines volume and identity of said expected item to be carried by each of said plurality of delivery vehicles according to said algorithm.

Abstract: The present disclosure relates to a display panel and a display device. The display panel, includes a display area, a non-display area located outside the display area, and a wire exchanging area provided between the display area and the non-display area, and the display panel including an array substrate including a flexible substrate, a first metal layer, an inorganic insulating layer, a second metal layer, and an organic flat layer provided in a laminated manner; a light-emitting element; and a packaging body configured for packaging the light-emitting element and including an inorganic layer directly contacting with the inorganic insulating layer in the wire exchanging area. The display panel of an embodiment of the present disclosure can effectively block water vapor and prevent water vapor from entering the display area of the display panel.

Abstract: This invention concerns a data collection network capable of collecting data from a group of users, said data collection network comprising a data collection apparatus associated with each of individual user of said group of users; a closed container associated with each of said data collection apparatus, said closed container containing a medium, said data collection apparatus disposed within said medium; a central server, said central server being an independent server or a plurality of decentralized servers connected through internet; a telecommunication apparatus associated with each of said data collection apparatus, said telecommunication apparatus wirelessly coupling said data collection apparatus to said central server; a database associated with each of said data collection apparatus, said database containing said data collected by said data collection apparatus, said database being administrated by said central server; and a central database, said central database being administrated by said central

Abstract: The present application provides an array substrate and a display device. The array substrate includes a substrate provided with a display region and a non-display region. The display region is configured to display. The non-display region includes a groove region. The groove region has a light transmittance greater than that of the display region. The display device includes the above-described array substrate.

Abstract: A touch substrate includes a touch detection region and a sensing detection region. The touch detection region is provided with a touch electrode for identifying a touch signal. The sensing detection region is provided with a sensing electrode for identifying an environment signal. A touch display panel includes a display panel and the above-described touch substrate.

Abstract: The present application provides an array substrate and a display device. The array substrate includes a substrate provided with a display region and a non-display region. The display region is configured to display. The non-display region includes a groove region. The groove region has a light transmittance greater than that of the display region. The display device includes the above-described array substrate.

Abstract: Exemplary embodiments of the present disclosure relate to display panels and display devices. The display panel includes: a base substrate; a display screen body disposed on the base substrate and including a display surface and a back surface, the display screen body being provided with a groove penetrating the display surface and the back surface, and an area of the display surface of the display screen body other than an area of the groove being a display area, a number of data signal wires configured to transmit driving data for pixel units in the display area; a number of power supply wires configured to supply an operating voltage to the pixel units in the display area and connected to a common power bus that surrounds the groove.

Abstract: A display panel including a substrate is disclosed. The substrate includes: a display area including pixel units arranged in an array and a signal line connecting the pixel units; a front surface of the substrate having the display area; a back surface of the substrate facing away from the display area; a side surface of the substrate connecting the front surface of the substrate with the back surface of the substrate; and a mounting groove recessed into the substrate from the side surface of the substrate. The display panel further includes a fan-out line disposed in the mounting groove, one end of the fan-out line is connected to the signal line, and the other end meanders from the mounting groove to the back surface of the substrate. The above display panel can achieve a narrow border display.

Abstract: An optical assembly is provided. The optical assembly includes a light transmitting terminal, a light receiving terminal, an optical component located between the light transmitting terminal and the light receiving terminal, a collimating unit located between the optical component and the light transmitting terminal, and a focusing unit located between the optical component and the light receiving terminal. The collimating unit includes a first lens located between the optical component and the light transmitting terminal, and a field lens located between the first lens and the optical component and configured to absorb an alignment error between the light transmitting terminal and the first lens. The focusing unit includes a second lens located between the optical component and the light receiving terminal.

Abstract: An optical path control system is provided. The optical path control system includes a converging lens used to converge a plurality of light beams passing through the converging lens, and an optical path assembly used to control propagation directions of the plurality of light beams passing through the optical path assembly. When the plurality of light beams pass through the optical path assembly and the converging lens sequentially, the optical path assembly converges the plurality of light beams, and the converging lens converges each of the plurality of light beam into a point of light.

Abstract: An optical transceiver module includes an optical fiber and an optical fiber positioning structure that fixes the optical fiber. The optical fiber positioning structure includes a first positioning part that fixes the said optical fiber, and a first supporting part that fixes the first positioning part on a case of the optical transceiver module. The first positioning part includes a first end face and a second end face opposite to one another, and a first through-hole that connects the first and second end faces. The inner diameter of the first through-hole is substantially equal to the diameter of the optical fiber, and the optical fiber is fixed within the first through-hole. The first supporting part includes an accommodating portion for accommodating the first positioning part. The first positioning part is fixed in the accommodating portion.

Abstract: An optical path control system is provided. The optical path control system includes a converging lens used to converge a plurality of light beams passing through the converging lens, and an optical path assembly used to control propagation directions of the plurality of light beams passing through the optical path assembly. When the plurality of light beams pass through the optical path assembly and the converging lens sequentially, the optical path assembly converges the plurality of light beams, and the converging lens converges each of the plurality of light beam into a point of light.

Abstract: An optical assembly is provided. The optical assembly includes a light transmitting terminal, a light receiving terminal, an optical component located between the light transmitting terminal and the light receiving terminal, a collimating unit located between the optical component and the light transmitting terminal, and a focusing unit located between the optical component and the light receiving terminal. The collimating unit includes a first lens located between the optical component and the light transmitting terminal, and a field lens located between the first lens and the optical component and configured to absorb an alignment error between the light transmitting terminal and the first lens. The focusing unit includes a second lens located between the optical component and the light receiving terminal.

Abstract: This disclosure provides an optical assembly, comprising a base body and a wave filtering apparatus. A first slot is disposed on an upper surface of the base body. A total internal reflection surface and a connecting part are formed in the first slot. The total internal reflection surface reflects collimated light formed by a first lens from a light emitting apparatus. The wave filtering apparatus comprises a first part removably connected to the connecting portion, and a second portion forming a beam splitting surface. The wave filtering apparatus has a light-pervious optical coating at least on the beam splitting surface of the apparatus, and is configured to split the collimated light reflected from the total internal reflection surface into a first beam and a second beam. The first beam travels towards the side where the third lens is located, and the second beam travels towards a photoelectric detection apparatus.

Abstract: An optical transceiver module includes an optical fiber and an optical fiber positioning structure that fixes the optical fiber. The optical fiber positioning structure includes a first positioning part that fixes the said optical fiber, and a first supporting part that fixes the first positioning part on a case of the optical transceiver module. The first positioning part includes a first end face and a second end face opposite to one another, and a first through-hole that connects the first and second end faces. The inner diameter of the first through-hole is substantially equal to the diameter of the optical fiber, and the optical fiber is fixed within the first through-hole. The first supporting part includes an accommodating portion for accommodating the first positioning part. The first positioning part is fixed in the accommodating portion.

Abstract: This disclosure provides an optical assembly, comprising a base body and a wave filtering apparatus. A first slot is disposed on an upper surface of the base body. A total internal reflection surface and a connecting part are formed in the first slot. The total internal reflection surface reflects collimated light formed by a first lens from a light emitting apparatus. The wave filtering apparatus comprises a first part removably connected to the connecting portion, and a second portion forming a beam splitting surface. The wave filtering apparatus has a light-pervious optical coating at least on the beam splitting surface of the apparatus, and is configured to split the collimated light reflected from the total internal reflection surface into a first beam and a second beam. The first beam travels towards the side where the third lens is located, and the second beam travels towards a photoelectric detection apparatus.

Abstract: A wavelength division multiplexing/de-multiplexing optical assembly for high speed parallel long distance transmission, wherein, the output terminal of the laser group is provided with the silicon lens group, the optical adjusting plate group, the lower layer silicon lens array, the lower layer filter group, and the lower layer free space wavelength division multiplexer, the optical isolator, and the focusing lens arranged in turn; the output terminal of the focusing lens is coupled with an input optical fiber; an output optical fiber is coupled with the collimating lens; the output terminal of the collimating lens is coupled with a prism; the output terminal of the prism is provided with the upper layer free space wavelength division multiplexer, the upper layer filter group, the upper layer silicon lens array and the detector group arranged in turn. Thereby, multiplexing/de-multiplexing of optical signals is realized by use of filter groups.

Abstract: A surface mount packaging structure for semiconductor optical device and packaging method. A semiconductor optical device, disposed on a substrate, is electrically connected with a substrate through wires. A lower surface of the substrate is fixed on an upper surface of a flexible printed board that is provided with internal leads and external leads. The internal leads are electrically connected with the substrate through wires. A lower surface of the flexible printed board is fixed on a base board. A glass baffle is provided to form a window in front of a light-emitting or light-receiving surface of the semiconductor optical device. A focusing lens is adhered to the window of the glass baffle and is coupled with an optical path of the semiconductor optical device. The substrate and the semiconductor optical device thereon, the wires, and the internal leads on the flexible printed board are encased into packaging material.