mhurhangee/patent-ind-claim-en huggingface dataset:
An optoelectronic semiconductor device , the optoelectronic semiconductor device being a photovoltaic device or a solar cell, comprising: an absorber layer containing a Group III-V semiconductor material and having only one type of doping; an emitter layer located closer than the absorber layer to a back side of the optoelectronic semiconductor device, the emitter layer containing a different material than the Group III-V semiconductor material of the absorber layer and having a higher bandgap than a bandgap of the absorber layer ; a heterojunction formed between the emitter layer and the absorber layer ; a p-n junction formed between the emitter layer and the absorber layer at a location offset from the heterojunction , the p-n junction causing a voltage to be generated in the optoelectronic semiconductor device in response to the optoelectronic semiconductor device being exposed to light at a front side of the optoelectronic semiconductor device; an intermediate layer located between the absorber layer and the emitter layer and providing the offset of the p-n junction from the heterojunction , the intermediate layer having the same type of doping as the absorber layer and including the different material, wherein the intermediate layer includes: a graded layer having a material gradation from the Group III-V semiconductor material of the absorber layer at a side closer to the absorber layer , to the different material of the emitter layer at a side closer to the emitter layer ; and a back window layer not having the material gradation and having an approximately uniform composition of the different material. an absorber layer containing a Group III-V semiconductor material and having only one type of doping; an emitter layer located closer than the absorber layer to a back side of the optoelectronic semiconductor device, the emitter layer containing a different material than the Group III-V semiconductor material of the absorber layer and having a higher bandgap than a bandgap of the absorber layer ; a heterojunction formed between the emitter layer and the absorber layer ; a p-n junction formed between the emitter layer and the absorber layer at a location offset from the heterojunction , the p-n junction causing a voltage to be generated in the optoelectronic semiconductor device in response to the optoelectronic semiconductor device being exposed to light at a front side of the optoelectronic semiconductor device; an intermediate layer located between the absorber layer and the emitter layer and providing the offset of the p-n junction from the heterojunction , the intermediate layer having the same type of doping as the absorber layer and including the different material, wherein the intermediate layer includes: a graded layer having a material gradation from the Group III-V semiconductor material of the absorber layer at a side closer to the absorber layer , to the different material of the emitter layer at a side closer to the emitter layer ; and
A voice call transfer method, wherein the method comprises: when a target device receives an incoming voice call as a called party, displaying, on a call application interface of the target device, a device identifier of a first device that can perform voice call transfer (S11), wherein the call application interface further comprises a first button used to answer the incoming voice call and a second button used to reject the incoming voice call, wherein, when detecting a selection operation performed on the first button, the target device answers the incoming call and directly performs a voice call with the calling party device by using the target device, and the target device enters a regular voice call mode; characterized by receiving a selection operation performed on the device identifier, and triggering the target device to enter a voice call transfer mode (S12); and sending first voice data from a calling party device to the first device when it is determined that the target device performs the voice call with the calling party device and is in the voice call transfer mode, so that the first device plays the first voice data (S13). when a target device receives an incoming voice call as a called party, displaying, on a call application interface of the target device, a device identifier of a first device that can perform voice call transfer (S11), wherein the call application interface further comprises a first button used to answer the incoming voice call and a second button used to reject the incoming voice call, wherein, when detecting a selection operation performed on the first button, the target device answers the incoming call and directly performs a voice call with the calling party device by using the target device, and the target device enters a regular voice call mode; characterized by receiving a selection operation performed on the device identifier, and triggering the target device to enter a voice call transfer mode (S12); and sending first voice data from a calling party device to the first device when it is determined that the target device performs the voice call with the calling party device and is in the voice call transfer mode, so that the first device plays the first voice data (S13).
A method executed on a computing device in a service infrastructure, where the computing device is configured to be a request management server for exchange of server health and client information through headers in request management, the method comprising: receiving , at the request management server, server health information from one or more servers in the service infrastructure in headers of service communication; receiving , at the request management server, a request from a client, wherein the request includes client information in a header of the request; determining a client type from the client information; selecting , by the request management server, a server from the one or more servers for the received request to be routed to based on the received server health information and the client information; and one or more of routing the request, throttling the request, and load balancing the request to the selected server, characterized in that the service infrastructure is a server farm infrastructure in a dedicated mode deployment, where a set of servers is dedicated to performing request management duties, or in an integrated mode deployment, in which all servers in the farm execute request management; and wherein the request management server is configured to support the dedicated mode by being enabled to perform request management duties only, and to support the integrated mode by being enabled to execute request management duties and service applications for processing client requests on the same machine. receiving , at the request management server, server health information from one or more servers in the service infrastructure in headers of service communication; receiving , at the request management server, a request from a client, wherein the request includes client information in a header of the request; determining a client type from the client information; selecting , by the request management server, a server from the one or more servers for the received request to be routed to based on the received server health information and the client information; and one or more of routing the request, throttling the request, and load balancing the request to the selected server, characterized in that the service infrastructure is a server farm infrastructure in a dedicated mode deployment, where a set of servers is dedicated to performing request management duties, or in an integrated mode deployment, in which all servers in the farm execute request management; and
A system comprising: one or more processors; and memory storing processor-executable instructions that, when executed by the one or more processors, configure the system to: receive, from a vehicle computing device associated with a vehicle , a request for guidance input for navigating around an obstacle ; receive, as received data and from the vehicle computing device, sensor data or data based at least in part on the sensor data; receive, via a user interface associated with a guidance system, a first input corresponding to a first waypoint , the first input being based at least in part on the received data; send first data associated with the first waypoint to the vehicle computing device; cause the vehicle to be controlled based at least in part on the first waypoint; characterised by the following further instructions: determine, at a first time, that a condition for providing remote guidance is satisfied; enable inputs into the user interface based at least in part on the condition being satisfied; determine, at a second time, that the condition for providing remote guidance is not satisfied; and disable the inputs into the user interface based at least in part on the condition not being satisfied. one or more processors; and memory storing processor-executable instructions that, when executed by the one or more processors, configure the system to: receive, from a vehicle computing device associated with a vehicle , a request for guidance input for navigating around an obstacle ; receive, as received data and from the vehicle computing device, sensor data or data based at least in part on the sensor data; receive, via a user interface associated with a guidance system, a first input corresponding to a first waypoint , the first input being based at least in part on the received data; send first data associated with the first waypoint to the vehicle computing device; cause the vehicle to be controlled based at least in part on the first waypoint; receive, from a vehicle computing device associated with a vehicle , a request for guidance input for navigating around an obstacle ; receive, as received data and from the vehicle computing device, sensor data or data based at least in part on the sensor data; receive, via a user interface associated with a guidance system, a first input corresponding to a first waypoint , the first input being based at least in part on the received data; send first data associated with the first waypoint to the vehicle computing device; cause the vehicle to be controlled based at least in part on the first waypoint; determine, at a first time, that a condition for providing remote guidance is satisfied; enable inputs into the user interface based at least in part on the condition being satisfied; determine, at a second time, that the condition for providing remote guidance is not satisfied; and disable the inputs into the user interface based at least in part on the condition not being satisfied.
A computer program product tangibly stored on a computer readable hardware storage device, the computer program product for authenticating a constrained electronic device to a server , on a network, the computer program product comprising instructions to cause a processor of a computing device to: - generate a certificate request; - encrypt the certificate request and device identification data of the constrained electronic device by using a pre-shared key, PSK, of the constrained electronic device ; - send the encrypted certificate request and the device identification data to an authentication service on the server ; - receive, based on said encrypted certificate request, a session key generated by the authentication service and certified certificates that are encrypted with the PSK; - construct a network tunnel between the computing device and the constrained electronic device from the certified certificates; and transfer the encrypted session key, by the network tunnel, to the constrained electronic device for authenticating the constrained electronic device . - generate a certificate request; - encrypt the certificate request and device identification data of the constrained electronic device by using a pre-shared key, PSK, of the constrained electronic device ; - send the encrypted certificate request and the device identification data to an authentication service on the server ; - receive, based on said encrypted certificate request, a session key generated by the authentication service and certified certificates that are encrypted with the PSK; - construct a network tunnel between the computing device and the constrained electronic device from the certified certificates; and transfer the encrypted session key, by the network tunnel, to the constrained electronic device for authenticating the constrained electronic device .
A topical composition for use in a method of treating and/or preventing a viral infection in a subject in need thereof, said method comprising: administering the topical composition to the skin of a subject, wherein the topical composition comprises a nitric oxide-releasing active pharmaceutical ingredient that releases nitric oxide to the skin of the subject, and wherein the topical composition maintains a real time concentration of nitric oxide of at least about 7 pmol of NO/mg of the composition for at least 1 hour after administration, as measured by real time in vitro release testing, thereby treating and/or preventing the viral infection in the subject, wherein the nitric oxide-releasing active pharmaceutical ingredient comprises a NO-releasing co-condensed silica particle having a diazeniumdiolate functional group. administering the topical composition to the skin of a subject, wherein the topical composition comprises a nitric oxide-releasing active pharmaceutical ingredient that releases nitric oxide to the skin of the subject, and wherein the topical composition maintains a real time concentration of nitric oxide of at least about 7 pmol of NO/mg of the composition for at least 1 hour after administration, as measured by real time in vitro release testing, thereby treating and/or preventing the viral infection in the subject, wherein the nitric oxide-releasing active pharmaceutical ingredient comprises a NO-releasing co-condensed silica particle having a diazeniumdiolate functional group.
Shelf bracket for a shelf , having a base body which at one of its ends forms a hook-in element for hooking into a shelf rail of the shelf , and having a first electrical conductor (3.1), which extends along the base body and is fastened to the base body , characterized in that the base body consists of a strip-coated metal sheet with an electrically insulating plastic coating , wherein the first electrical conductor (3.1) is embedded in the electrically insulating plastic coating of the metal sheet .
A method in a policy node configured to handle Internet Protocol version 6, IPv6, traffic flows comprising IPv6 data packets in a communications system , the method comprising: allocating a label-setting identifying a label, a particular IPv6 traffic flow that will pass through a Software Defined Network, SDN, , and one or more destinations for the particular IPv6 traffic flow; transmitting information indicating the label-setting to a SDN Controller, SDNC configured to create a path for the IPv6 traffic flow through the SDN based on the label and said one or more destinations identified by the label-setting; allocating a filter-setting defining that the particular IPv6 traffic flow should be associated with the label; and transmitting information indicating the filter-setting to a classifying node configured to receive the particular IPv6 traffic flow and to associate the particular IPv6 traffic flow with the label. allocating a label-setting identifying a label, a particular IPv6 traffic flow that will pass through a Software Defined Network, SDN, , and one or more destinations for the particular IPv6 traffic flow; transmitting information indicating the label-setting to a SDN Controller, SDNC configured to create a path for the IPv6 traffic flow through the SDN based on the label and said one or more destinations identified by the label-setting; allocating a filter-setting defining that the particular IPv6 traffic flow should be associated with the label; and transmitting information indicating the filter-setting to a classifying node configured to receive the particular IPv6 traffic flow and to associate the particular IPv6 traffic flow with the label.
A rotor blade for a gas turbine engine comprising: a blade platform and an airfoil comprising: a blade tip radially opposite the blade platform , and defining a blade span (S B ) therebetween; and leading and trailing edges extending from the blade platform to the blade tip to define blade chords (C B ) between the leading edge and the trailing edge ; wherein the trailing edge has a compound lean contour comprising: a positive lean section located at the blade tip , and extending along a lean axis (A L ) from the trailing edge to a lean end (E L ) which defines the end of the lean contour in a chordwise direction; a negative lean section located radially inward of the positive lean section , and extending along the lean axis (A L ) to the lean end (E L ); wherein the compound lean contour extends in the chordwise direction from the trailing edge across less than 50% of the blade chord (C B ), to the lean end (E L ), characterised in that : the lean axis (A L ) is angled radially outward from the trailing edge to the lean end (E L ), with respect to the blade chords (C B ). a blade platform and an airfoil comprising: a blade tip radially opposite the blade platform , and defining a blade span (S B ) therebetween; and leading and trailing edges extending from the blade platform to the blade tip to define blade chords (C B ) between the leading edge and the trailing edge ; wherein the trailing edge has a compound lean contour comprising: a positive lean section located at the blade tip , and extending along a lean axis (A L ) from the trailing edge to a lean end (E L ) which defines the end of the lean contour in a chordwise direction; a negative lean section located radially inward of the positive lean section , and extending along the lean axis (A L ) to the lean end (E L ); a blade tip radially opposite the blade platform , and defining a blade span (S B ) therebetween; and leading and trailing edges extending from the blade platform to the blade tip to define blade chords (C B ) between the leading edge and the trailing edge ; wherein the trailing edge has a compound lean contour comprising: a positive lean section located at the blade tip , and extending along a lean axis (A L ) from the trailing edge to a lean end (E L ) which defines the end of the lean contour in a chordwise direction; a negative lean section located radially inward of the positive lean section , and extending along the lean axis (A L ) to the lean end (E L ); a positive lean section located at the blade tip , and extending along a lean axis (A L ) from the trailing edge to a lean end (E L ) which defines the end of the lean contour in a chordwise direction; a negative lean section located radially inward of the positive lean section , and extending along the lean axis (A L ) to the lean end (E L ); wherein the compound lean contour extends in the chordwise direction from the trailing edge across less than 50% of the blade chord (C B ), to the lean end (E L ), characterised in that : the lean axis (A L ) is angled radially outward from the trailing edge to the lean end (E L ), with respect to the blade chords (C B ).
TRAFFIC MONITORING AND SURVEILLANCE AND TRAFFIC INFRACTION RECORDING SYSTEM for monitoring and surveillance of one or more vehicles moving on one or more roadways and detection and recording of image and/or video of speeding infractions by vehicles moving on the roadway , the system configured for definition of a physical location where monitoring and surveillance occur, for detection of an allegedly offending vehicle at the physical location, for measurement of speed of the detected vehicle, for comparison between the measured speed value and a permitted value and respective tolerances, for record of infraction by capturing an image or sequence of images, for pooling of data essential to the characterization of the infraction and storage of the pooled data, and for transmission of the pooled data, said system comprising an unmanned aerial vehicle having at least one detector and speed meter for said detecting of the vehicle and calculating its relative speed and displacement direction at a given point of the roadway below the unmanned aerial vehicle and a base station being provided with at least one control module , at least one storage device of images and/or video and at least one signal transmission and reception device wherein said system is configured to perform a query to a database embedded in the unmanned aerial vehicle itself or available in the base station to: - verify a maximum permitted speed for the roadway below a current position of the unmanned aerial vehicle or for a roadway target of monitoring; and - verify if the unmanned aerial vehicle is at a location near a section having a variation of the maximum permitted speed, wherein the system is configured, once the position of the unmanned aerial vehicle at a location near a section having a variation of the maximum permitted speed is verified, to perform a query to said database to present a maximum speed permitted on the section initially travelled by the vehicle and a maximum speed permitted in the subsequent section, the system is configured to calculate, based on said permitted maximum speed, a perception, reaction and braking distance (Dp), and the system is configured to generate a coordinate of the roadway equivalent to the perception, reaction and braking distance (Dp) from which a possible speeding infraction of a vehicle must be considered. - verify a maximum permitted speed for the roadway below a current position of the unmanned aerial vehicle or for a roadway target of monitoring; and - verify if the unmanned aerial vehicle is at a location near a section having a variation of the maximum permitted speed,