Abstract: Plastic flooring having registration system contains: an electronic control unit electrically connected with roller equipment and the registration system, the roller equipment is configured to deliver a substrate, a printing layer, and an abrasion resistance layer toward a rolling device. The rolling device includes a fourth roller set having pressing patterns identical to surface patterns of the printing layer, and the registration system has a first sensor, a tension regulator, and a second sensor. The first sensor is disposed on a delivery path of the printing layer which corresponds to the first sensor and has multiple positioning points. A length between a first positioning point and a second positioning point depends on a perimeter of the fourth roller set so as to form a print unit, and the first sensor is configured to sense the multiple positioning points and to transmit sensed signals to the electronic control unit.

Abstract: A multimedia broadcast/multicast service (MBMS) coordination entity commands a first base station and a second base station to establish an MBMS control plane such that the second base station receives MBMS control signals from a core network on the MBMS control plane. The MBMS coordination entity also commands the first base station and the second base station to establish an MBMS user plane or commands the second base station to establish an MBMS user plane with the core network, such that the second station receives MBMS data from the core network on the MBMS user plane.

Abstract: An austenitic steel alloy includes manganese in an amount of from 25 wt % to 31 wt %, aluminum in an amount of from 7 wt % to 10 wt %, carbon in an amount of from 1.2 wt % to 1.6 wt %, molybdenum in an amount of more than 0 wt % and less than 6 wt %, and a balance of iron.

Abstract: A display may have an array of pixels. Each pixel may have a light-emitting diode such as an organic light-emitting diode. The organic light-emitting diodes may each have a reflective electrode such as a metal anode and a partially reflective electrode such as a metal cathode. Emissive material may be formed between the electrodes. The electrodes of each organic light-emitting diode may form an optical cavity. A wrinkled layer may be formed over the optical cavity to reduce sensitivity to process variations associated with forming encapsulation structures for the display. The wrinkled layer may include annealed organic layers. The organic layers may wrinkle during an annealing process at an annealing temperature. The annealed organic layers may include a first organic layer with a glass transition temperature below the annealing temperature and a second organic layer with a glass transition temperature above the annealing temperature.

Abstract: A method and extreme ultraviolet (EUV) light source including a laser source configured to generate a first pre-pulse laser beam, a second pre-pulse laser beam, and a main pulse laser beam. In some embodiments, a droplet is irradiated within an extreme ultraviolet (EUV) vessel using the first pre-pulse laser beam to form a re-shaped droplet. In some examples, the droplet includes a tin droplet. In various embodiments, a seed plasma is then formed by irradiating the re-shaped droplet using the second pre-pulse laser beam. Thereafter, and in some cases, the seed plasma is heated by irradiating the seed plasma using the main pulse laser beam to generate EUV light.

Abstract: The invention generally relates to an immunomodulatory protein and a chemotherapeutic agent for simultaneous, contemporaneous or sequential use in the treatment of diseases, more particularly of proliferative diseases, still more particularly of cancer(s), to a combination of an FIP and a chemotherapeutic agent, as well as to the medical and biotechnological applications thereof, more particularly in the field of the treatment of diseases, more particularly of proliferative diseases, still more particularly of cancer(s).

Abstract: The present invention provides a display device, including: a first chromatic light source configured to generate first chromatic light, a dichroic reflection layer disposed on a light emergent side of the first chromatic light source and allowing the first chromatic light to pass through, and a quantum dot layer. The dichroic reflection layer has a first surface facing away from the first chromatic light source, and the first surface has a plurality of recessed portions. The quantum dot layer includes a plurality of quantum dot blocks, and the quantum dot blocks are disposed corresponding to the recessed portions.

Abstract: A display may have an array of pixels. Each pixel may have a light-emitting diode such as an organic light-emitting diode. The organic light-emitting diodes may each have a reflective electrode such as a metal anode and a partially reflective electrode such as a metal cathode. Emissive material may be formed between the electrodes. The electrodes of each organic light-emitting diode may form an optical cavity. A wrinkled layer may be formed over the optical cavity to reduce sensitivity to process variations associated with forming encapsulation structures for the display. The wrinkled layer may include annealed organic layers. The organic layers may wrinkle during an annealing process at an annealing temperature. The annealed organic layers may include a first organic layer with a glass transition temperature below the annealing temperature and a second organic layer with a glass transition temperature above the annealing temperature.

Abstract: Plastic flooring having registration system contains: an electronic control unit electrically connected with roller equipment and the registration system, the roller equipment is configured to deliver a substrate, a printing layer, and an abrasion resistance layer toward a rolling device. The rolling device includes a fourth roller set having pressing patterns identical to surface patterns of the printing layer, and the registration system has a first sensor, a tension regulator, and a second sensor. The first sensor is disposed on a delivery path of the printing layer which corresponds to the first sensor and has multiple positioning points. A length between a first positioning point and a second positioning point depends on a perimeter of the fourth roller set so as to form a print unit, and the first sensor is configured to sense the multiple positioning points and to transmit sensed signals to the electronic control unit.

Abstract: A method and system of authenticating a user are provided. A request for a resource is received from a user device. A predefined number is received. A first number and a second number are created. A first discrete logarithm based on the first number and the predefined number is determined and sent to the user device, together with the second number. A second discrete logarithm is received from the user device. A first pass code is calculated via a third discrete logarithm, based on the second discrete logarithm, the first number, and the predefined number. A second pass code is received via a fourth discrete logarithm, based on the first discrete logarithm, the third number, and the predefined number. Upon determining that the first pass code is identical to the second pass code, the user device is allowed to access a resource associated with the computing device.

Abstract: A method and system of authenticating a user are provided. A request for a resource is received by a server, from a user device. A predefined number is received from the user device. A first number and a second number are created. The first number is sent to the user device. A first discrete logarithm is determined based on a challenge code and the first number and sent to the user device. A first pass code is calculated via a second discrete logarithm based on the first discrete logarithm, the predefined number, and the first number. A second pass code based on the second discrete logarithm, is received from the user device. The first pass code is compared to the second pass code. Upon determining that the first pass code is identical to the second pass code, the user device is allowed access a resource associated with the computing device.

Abstract: An automatic cooking apparatus capable of supplying drinking water is provided, and includes a drinking water tank, a drinking water supplying unit, a food storage, a cooking unit and a controller. The drinking water tank includes a drinking water sensor, a drinking water output tube, and a drinking water valve. The food storage includes a food sensor, a food output member and a food valve. The cooking unit includes a heater, a steam output member and a pot cover actuator. The controller controls the drinking water valve, the food valve, the heater and the pot cover actuator based on a user's instruction.

Abstract: A spiral yarn structure includes a core yarn comprising at least one core filament which is a filament fiber of 5-25D, a cover yarn comprising a plurality of cover fibers formed by stretching roves having a count ranging from 0.5 Ne to 2.0 Ne, wherein the cover fibers encloses the core yarn, and a wrap yarn wrapping the cover yarn at a twist factor K?3, wherein the wrap yarn comprises at least one wrap filament which is a filament fiber of 5-25D, and the at least one wrap filament wraps an outer side of the cover yarn at an inclined angle to form the spiral yarn structure having a count ranging from 40 Ne to 80 Ne.

Abstract: A computer-implemented method for processing objects on touch screen devices is proposed. According to the method, one or more grid sizes is determined, wherein the one or more grid sizes comprise one or more text grid sizes. The one or more text grid sizes are determined by at least one of character, word, sentence, and section. Based on the one or more grid sizes, the one or more objects on the touch screen could be divided into one or more grids. The objects on the screen could be selected discontinuously by selecting grids on the screen.

Abstract: A computer-implemented method for processing objects on touch screen devices is proposed. According to the method, one or more grid sizes is determined, wherein the one or more grid sizes comprise one or more text grid sizes. The one or more text grid sizes are determined by at least one of character, word, sentence, and section. Based on the one or more grid sizes, the one or more objects on the touch screen could be divided into one or more grids. The objects on the screen could be selected discontinuously by selecting grids on the screen.

Abstract: A complex optical proximity sensor includes a substrate, a light emitter coupled to the substrate, an application-specific integrated circuit chip coupled to the substrate, a proximity sensor embedded in the application-specific integrated circuit chip, a barrier disposed between the application-specific integrated circuit chip and the light emitter, and an ambient light detection chip manufactured in advance and then coupled to the application-specific integrated circuit chip thereon with a pre-determined height. The elements are disposed within a limited area of an aperture and, with a manufacturing method of the complex optical proximity sensor, the detection angle of the ambient light is thereby maximized and the detection angle of the proximity sensor is thereby minimized.

Abstract: Disclosed is a dual inline memory module with temperature-sensing scenario modes. A plurality of volatile memory components and an EEPROM component are disposed on a module board. A plurality of LED components and a scenario-lighting controller are disposed at a radiant side of the module board. A light bar is located at the radiant side of the module board without direct installing relationship. A plurality of clamping-type heat spreaders are fastened to one another in a manner that the light bar is tightly clamped. Therein, the power of the scenario-lighting controller component is shared and linked with the power supply system of the LED components and the signals of the scenario-lighting controller component are shared and linked with the signal connection system of the EEPROM component.

Abstract: A method and extreme ultraviolet (EUV) light source including a laser source configured to generate a first pre-pulse laser beam, a second pre-pulse laser beam, and a main pulse laser beam. In some embodiments, a droplet is irradiated within an extreme ultraviolet (EUV) vessel using the first pre-pulse laser beam to form a re-shaped droplet. In some examples, the droplet includes a tin droplet. In various embodiments, a seed plasma is then formed by irradiating the re-shaped droplet using the second pre-pulse laser beam. Thereafter, and in some cases, the seed plasma is heated by irradiating the seed plasma using the main pulse laser beam to generate EUV light.

Abstract: A complex optical proximity sensor has a vertical-cavity surface emitting laser (VCSEL), an ambient lights detection chip, and a proximity sensor (PS) arranged in linear alignment to form a self-integrated barrier within the structure. The PS only receives lights with a first wavelength and a first energy and the ambient lights detection chip solely receives lights with a second wavelength and a second energy to prevent the VCSEL from interfering with the PS. Meanwhile, the arrangement has the ambient lights detection chip disposed in a middle section of an oblong opening to maximize a detection angle of ambient lights.

Abstract: A complex optical proximity sensor includes a substrate, a light emitter coupled to the substrate, an application-specific integrated circuit chip coupled to the substrate and embedded in a proximity sensor, a barrier disposed between the application-specific integrated circuit chip and the light emitter, and an ambient light detection chip manufactured in advance and then coupled to the application-specific integrated circuit chip thereon with a pre-determined height. The elements are disposed within a limited area of an aperture and, with a manufacturing method of the complex optical proximity sensor, the detection angle of the ambient light is thereby maximized and the detection angle of the proximity sensor is thereby minimized.