mhurhangee/patent-ind-claim-en huggingface dataset:
A display device , comprising: a substrate formed with wiring electrodes; a plurality of semiconductor light-emitting diodes electrically connected to the wiring electrodes; an insulating layer configured to fill between the semiconductor light-emitting diodes ; a wavelength conversion layer configured to convert the wavelength of light; characterized by a polarizing filter layer configured to overlap with the insulating layer to filter light incident in a specific direction; wherein the wavelength conversion layer is configured to overlap with the polarizing filter layer , wherein the polarizing filter layer is disposed between the insulating layer and the wavelength conversion layer along a thickness direction of the wavelength conversion layer , wherein an adhesive layer is formed between the polarizing filter layer and the insulating layer , and at least part of the adhesive layer is formed to be convex toward the polarizing filter layer . a substrate formed with wiring electrodes; a plurality of semiconductor light-emitting diodes electrically connected to the wiring electrodes; an insulating layer configured to fill between the semiconductor light-emitting diodes ; a wavelength conversion layer configured to convert the wavelength of light; characterized by a polarizing filter layer configured to overlap with the insulating layer to filter light incident in a specific direction; wherein the wavelength conversion layer is configured to overlap with the polarizing filter layer , wherein the polarizing filter layer is disposed between the insulating layer and the wavelength conversion layer along a thickness direction of the wavelength conversion layer , wherein an adhesive layer is formed between the polarizing filter layer and the insulating layer , and at least part of the adhesive layer is formed to be convex toward the polarizing filter layer .
A chip, comprising a substrate , wherein the substrate comprises a first surface and a second surface which are arranged oppositely, wherein the chip further comprises a base layer in contact with the first surface of the substrate , an array including multiple channels arranged on the first surface of the substrate at intervals, two oppositely arranged side walls of each of the channels stretching along a longitudinal direction of a respective channel and intersecting at two ends of the respective channel to form two tapered tail ends with included angles; and an inlet hole and an outlet hole connected with the second surface being respectively provided on the two tapered tail ends ; and the base layer comprises a transparent layer and a spacing layer arranged on a portion of a surface of the transparent layer between each of the channels , the spacing layer being a portion of the side walls of each of the channels , the spacing layer is a polymethylglutarimide layer, and the spacing layer is in contact with the first surface of the substrate , and grooves being provided on the spacing layer corresponding to positions where the channels are located. an array including multiple channels arranged on the first surface of the substrate at intervals, two oppositely arranged side walls of each of the channels stretching along a longitudinal direction of a respective channel and intersecting at two ends of the respective channel to form two tapered tail ends with included angles; and an inlet hole and an outlet hole connected with the second surface being respectively provided on the two tapered tail ends ; and the base layer comprises a transparent layer and a spacing layer arranged on a portion of a surface of the transparent layer between each of the channels , the spacing layer being a portion of the side walls of each of the channels , the spacing layer is a polymethylglutarimide layer, and the spacing layer is in contact with the first surface of the substrate , and grooves being provided on the spacing layer corresponding to positions where the channels are located.
A method performed by one or more computers, the method comprising: obtaining , at a client device, first metrics that describe characteristics of a wireless network with which the client device is configured to associate; obtaining , at the client device, second metrics that describe hardware features of the client device, the hardware features being used to enable a wireless capability of the client device; determining , at the client device, one or more received signal strength indications that indicate at least one imbalance measure that limits wireless performance of the client device; generating , at the client device, a data model that stores information describing predicted characteristics of the client device for the wireless network, the data model being generated based on analysis of the first metrics, the second metrics, and the one or more received signal strength indications; determining a configuration setting for the client device based on the predicted characteristics of the client device for the wireless network; and using the configuration setting for the client device to adjust a parameter of at least one of (i) an association process for associating the client device with the wireless network or (ii) an ongoing connection between the client device and the wireless network. obtaining , at a client device, first metrics that describe characteristics of a wireless network with which the client device is configured to associate; obtaining , at the client device, second metrics that describe hardware features of the client device, the hardware features being used to enable a wireless capability of the client device; determining , at the client device, one or more received signal strength indications that indicate at least one imbalance measure that limits wireless performance of the client device; generating , at the client device, a data model that stores information describing predicted characteristics of the client device for the wireless network, the data model being generated based on analysis of the first metrics, the second metrics, and the one or more received signal strength indications; determining a configuration setting for the client device based on the predicted characteristics of the client device for the wireless network; and using the configuration setting for the client device to adjust a parameter of at least one of (i) an association process for associating the client device with the wireless network or (ii) an ongoing connection between the client device and the wireless network.
Method for determining an analyte concentration in a fluid, in which the fluid with the analyte and a turbidimetric or nephelometric assay of particles is filled into a measuring chamber , the measuring chamber is illuminated from one side with an illumination device , and on a side of the measuring chamber orientated away from the illumination device , a two-dimensional image with an interference pattern caused by the particles is detected, spatially resolved, by at least one sensor element , the detected image being further conducted to a computer unit and subjected to an electronic bandpass filtering by the computer unit , and subsequently scanning of the image and establishing a large number of windows respectively comprising a large number of pixels is implemented, for each window, a local standard deviation being determined, such that a two-dimensional image of standard deviations is obtained, and a two-dimensional Fourier transformation is implemented on this two-dimensional image of the standard deviation, and subsequently the obtained absolute values of the Fourier spectrum generated by the Fourier transformation are added to form a sum, and an analyte concentration is assigned by an empirically determined calibration curve to the obtained sum of the absolute values. the fluid with the analyte and a turbidimetric or nephelometric assay of particles is filled into a measuring chamber , the measuring chamber is illuminated from one side with an illumination device , and on a side of the measuring chamber orientated away from the illumination device , a two-dimensional image with an interference pattern caused by the particles is detected, spatially resolved, by at least one sensor element , the detected image being further conducted to a computer unit and subjected to an electronic bandpass filtering by the computer unit , and subsequently scanning of the image and establishing a large number of windows respectively comprising a large number of pixels is implemented, for each window, a local standard deviation being determined, such that a two-dimensional image of standard deviations is obtained, and a two-dimensional Fourier transformation is implemented on this two-dimensional image of the standard deviation, and subsequently the obtained absolute values of the Fourier spectrum generated by the Fourier transformation are added to form a sum, and an analyte concentration is assigned by an empirically determined calibration curve to the obtained sum of the absolute values.
A projector housing, comprising a housing body and a support , wherein the support is arranged on the housing body in an openable or closable manner, the housing body is provided with a first heat dissipation hole which is arranged at an inner side of the support, and when closed on the housing body, the support shields the first heat dissipation hole; wherein the first heat dissipation hole is arranged on a bottom wall of the housing body , and the support comprises a support cover plate for shielding the first heat dissipation hole; and wherein a second heat dissipation hole is arranged on a side wall of the housing body; characterized by that, the support further comprises: a side frame ; the side frame is connected to the support cover plate, the side frame is provided with a second dustproof net , and when the support is at a closed position, the second dustproof net shields one side of the second heat dissipation hole.
- A susceptor ink comprising a conductive material in conjunction with one or more vehicles configured for printing on a microwaveable packaging comprising: (a) at least one metallic particle; (b) at least one varnish; and (c) at least one solvent; characterised in that the at least one metallic particle is aluminium present at 19.4% (w/w); the at least one varnish is aliphatic polyurethane present at 12.8% (w/w) and the at least one solvent is a mixture of alcohol and ethyl acetate present at 67.8% (w/w).
A method for protecting memory regions based on occurrence of an event in a computing device, comprising: storing , by a subsystem of the computing device, information in registers of a memory erase logic of a memory controller identifying one or more memory regions of a memory ; and the memory controller receiving the indication from the subsystem , the indication comprising a command; erasing , by the memory erase logic of the memory controller , the one or more memory regions corresponding to the information identifying the one or more memory regions of the memory in response to the indication received by the memory controller ; and performing a memory dump collection from the memory after erasing the one or more memory regions. storing , by a subsystem of the computing device, information in registers of a memory erase logic of a memory controller identifying one or more memory regions of a memory ; and the memory controller receiving the indication from the subsystem , the indication comprising a command; erasing , by the memory erase logic of the memory controller , the one or more memory regions corresponding to the information identifying the one or more memory regions of the memory in response to the indication received by the memory controller ; and performing a memory dump collection from the memory after erasing the one or more memory regions.
A method for switching forward link communications of a user terminal between first and second satellites, the method performed by the user terminal and comprising: receiving first data on a forward link of the first satellite; receiving time-division multiplexing, TDM, configuration information on the forward link of the first satellite, the TDM configuration information specifying a TDM transmission pattern for forward link communications to the user terminal from at least the first and second satellites; switching forward link communications of the user terminal from the first satellite to the second satellite during a handover operation; receiving second data on a forward link of the second satellite after the handover operation; and transmitting one or more control or data messages to a network controller on a return link of the first satellite after the handover operation. receiving first data on a forward link of the first satellite; receiving time-division multiplexing, TDM, configuration information on the forward link of the first satellite, the TDM configuration information specifying a TDM transmission pattern for forward link communications to the user terminal from at least the first and second satellites; switching forward link communications of the user terminal from the first satellite to the second satellite during a handover operation; receiving second data on a forward link of the second satellite after the handover operation; and transmitting one or more control or data messages to a network controller on a return link of the first satellite after the handover operation.
A method of providing access to IoT resources , the method being performed by a Bluetooth low energy, BLE, tag , characterized in that the method comprising: - broadcasting a resource directory reference, wherein the resource directory comprises reachability information to one or more Internet of Things, IoT, resources and wherein the reachability information comprises a Constrained Application Protocol Uniform Resource Locator, CoAP URL. - broadcasting a resource directory reference, wherein the resource directory comprises reachability information to one or more Internet of Things, IoT, resources and wherein the reachability information comprises a Constrained Application Protocol Uniform Resource Locator, CoAP URL.
A head mounted display, comprising: a light sensor ; a first light source , used for generating a first light beam; a second light source , used for generating a second light beam; and a transflective mirror , provided on the light paths of the first light beam and the second light beam; characterised by a lens , the first light source being provided at the periphery of the lens or the light sensor , and the first light beam being reflected by a first object, and then entering the light sensor by passing through the lens and being reflected by the transflective mirror in sequence; a display , an image displayed by the display passing through the transflective mirror and the lens in sequence; and a filter , the second light source being provided at the periphery of the filter , and the second light beam being reflected by a second object outside the head mounted display first after leaving the second light source, and then entering the light sensor via the filter and the transflective mirror in sequence. a light sensor ; a first light source , used for generating a first light beam; a second light source , used for generating a second light beam; and a transflective mirror , provided on the light paths of the first light beam and the second light beam; characterised by a lens , the first light source being provided at the periphery of the lens or the light sensor , and the first light beam being reflected by a first object, and then entering the light sensor by passing through the lens and being reflected by the transflective mirror in sequence; a display , an image displayed by the display passing through the transflective mirror and the lens in sequence; and a filter , the second light source being provided at the periphery of the filter , and the second light beam being reflected by a second object outside the head mounted display first after leaving the second light source, and then entering the light sensor via the filter and the transflective mirror in sequence.
A device for hot-dip galvanizing components , comprising a galvanizing tank for holding the zinc melt in a tank interior formed by a wall of the galvanizing tank , wherein a monitoring apparatus is provided for monitoring the wall thickness of the wall of the galvanizing tank during the galvanizing operation, wherein the monitoring apparatus has at least one sensor provided in the area of the outer side of the wall of the galvanizing tank for measuring at least the temperature of the galvanizing tank and an evaluation device coupled to the sensor for processing the measured value recorded by the sensor and for calculating and/or deriving the wall thickness .
A process for producing a desired oligosaccharide using a host microorganism, wherein said desired oligosaccharide is not naturally occurring in said host cell and is a human milk oligosaccharide, the process comprising the steps of: a) cultivating a host microorganism suitable for the production of a desired oligosaccharide under conditions and in a medium permissive for the production of said oligosaccharide, whereby the oligosaccharide and, where applicable, biosynthetic saccharide intermediates and/or side products are produced; b) using a glycosidase in the medium the host microorganism is cultivated in, in order to degrade biosynthetic saccharide intermediates and/or saccharide side products and/or unused saccharide substrates, wherein the glycosidase is added to the medium; and c) recovering the desired oligosaccharide. a) cultivating a host microorganism suitable for the production of a desired oligosaccharide under conditions and in a medium permissive for the production of said oligosaccharide, whereby the oligosaccharide and, where applicable, biosynthetic saccharide intermediates and/or side products are produced; b) using a glycosidase in the medium the host microorganism is cultivated in, in order to degrade biosynthetic saccharide intermediates and/or saccharide side products and/or unused saccharide substrates, wherein the glycosidase is added to the medium; and c) recovering the desired oligosaccharide.
A noncombustible gas distribution method comprising: providing noncombustible gas onboard an aircraft while in flight, the aircraft having left and right main wing tanks on opposite sides of the aircraft and a center wing tank between the left and right main wing tanks ; distributing the noncombustible gas to the center wing tank throughout a continuous, first flight period and, as a result, reducing flammability exposure time in which the center wing tank is flammable during the first flight period or during a subsequent flight period compared to the flammability exposure time that will otherwise occur during the first flight period or during the subsequent flight period without the distribution of the noncombustible gas to the center wing tank throughout the first flight period; and not distributing noncombustible gas to the left and right main wing tanks while the noncombustible gas is distributed to the center wing tank throughout the first flight period and while the left and right main wing tanks are non-flammable, wherein the first flight period occurs during a descent phase. providing noncombustible gas onboard an aircraft while in flight, the aircraft having left and right main wing tanks on opposite sides of the aircraft and a center wing tank between the left and right main wing tanks ; distributing the noncombustible gas to the center wing tank throughout a continuous, first flight period and, as a result, reducing flammability exposure time in which the center wing tank is flammable during the first flight period or during a subsequent flight period compared to the flammability exposure time that will otherwise occur during the first flight period or during the subsequent flight period without the distribution of the noncombustible gas to the center wing tank throughout the first flight period; and not distributing noncombustible gas to the left and right main wing tanks while the noncombustible gas is distributed to the center wing tank throughout the first flight period and while the left and right main wing tanks are non-flammable, wherein the first flight period occurs during a descent phase.
A control method for an electronic cigarette , wherein the electronic cigarette comprises an atomizer and a power device , the atomizer is provided with an encryption authentication unit , the power device is provided with a control unit, and when the atomizer is connected to the power device , the encryption authentication unit is in communication connection with the control unit; the electronic cigarette control method comprises: generating a first identity authentication code; acquiring a second identity authentication code from the encryption authentication unit ; performing identity authentication according to the first identity authentication code and the second identity authentication code, and controlling the electronic cigarette to activate if the identity authentication is passed; and prohibiting the electronic cigarette to activate if the identity authentication is not passed; characterized in that , wherein the step of generating a first identity authentication code comprises: generating (S101) a random challenge data; acquiring (S102) prestored atomizer information from the encryption authentication unit ; and performing (S103) a calculation on the random challenge data, the prestored atomizer information and a prestored first key according to a prestored first encryption algorithm, to generate the first identity authentication code. generating a first identity authentication code; acquiring a second identity authentication code from the encryption authentication unit ; performing identity authentication according to the first identity authentication code and the second identity authentication code, and controlling the electronic cigarette to activate if the identity authentication is passed; and prohibiting the electronic cigarette to activate if the identity authentication is not passed; characterized in that , wherein the step of generating a first identity authentication code comprises: generating (S101) a random challenge data; acquiring (S102) prestored atomizer information from the encryption authentication unit ; and performing (S103) a calculation on the random challenge data, the prestored atomizer information and a prestored first key according to a prestored first encryption algorithm, to generate the first identity authentication code. generating (S101) a random challenge data; acquiring (S102) prestored atomizer information from the encryption authentication unit ; and performing (S103) a calculation on the random challenge data, the prestored atomizer information and a prestored first key according to a prestored first encryption algorithm, to generate the first identity authentication code.