mhurhangee/patent-ind-claim-en huggingface dataset:
A combustion device , comprising: at least one burner having a flame outlet , wherein the at least one burner is for burning gas to generate flame through the flame outlet ; an infrared ray generation mesh corresponding to the flame outlet , the infrared ray generation mesh having a first surface and a second surface positioned back-to-back, wherein the first surface is exposed outside; the infrared ray generation mesh being flame heated by the at least one burner to generate infrared rays; and an infrared reflective plate disposed outside the second surface of the infrared ray generation mesh , the infrared reflective plate having a reflective surface facing to the second surface ; wherein the infrared ray generation mesh includes a mesh body which has a first part and a second part on opposite sides, the mesh body is bent or folded integrally to form a plurality of corrugations , each of which extends from the first part to the second part ; the mesh body is flame heated to generate infrared rays; characterised in that the flame outlet of the at least one burner faces an extending direction of at least part of the corrugations . at least one burner having a flame outlet , wherein the at least one burner is for burning gas to generate flame through the flame outlet ; an infrared ray generation mesh corresponding to the flame outlet , the infrared ray generation mesh having a first surface and a second surface positioned back-to-back, wherein the first surface is exposed outside; the infrared ray generation mesh being flame heated by the at least one burner to generate infrared rays; and an infrared reflective plate disposed outside the second surface of the infrared ray generation mesh , the infrared reflective plate having a reflective surface facing to the second surface ; wherein the infrared ray generation mesh includes a mesh body which has a first part and a second part on opposite sides, the mesh body is bent or folded integrally to form a plurality of corrugations , each of which extends from the first part to the second part ; the mesh body is flame heated to generate infrared rays; characterised in that the flame outlet of the at least one burner faces an extending direction of at least part of the corrugations .
A multilayer film comprising: - an adhesive layer A consisting of an extrudable HMPSA composition (a); - a complexable thin layer B consisting of a PolyPropylene (PP) composition (b) denoted PP(b); and - a heat-sealable and breakable layer C consisting of a PolyPropylene (PP) composition (c) denoted PP(c); layers B and C being bonded together by layer A and said film being characterized in that the melt flow indices: - on the one hand, of the HMPSA composition (a), measured in g/10 minutes at a temperature of 190°C and a total weight of 2.16 kg, and denoted MFI(a), and - on the other hand, of compositions (b) and (c), measured in g/10 minutes at a temperature of 230°C and a total weight of 2.16 kg, and denoted MFI(b) and MFI(c), respectively, are such that the ratios MFI(a)/MFI(b) and MFI(a)/MFI(c) are each between 0.3 and 3.5. - an adhesive layer A consisting of an extrudable HMPSA composition (a); - a complexable thin layer B consisting of a PolyPropylene (PP) composition (b) denoted PP(b); and - a heat-sealable and breakable layer C consisting of a PolyPropylene (PP) composition (c) denoted PP(c); layers B and C being bonded together by layer A and said film being characterized in that the melt flow indices: - on the one hand, of the HMPSA composition (a), measured in g/10 minutes at a temperature of 190°C and a total weight of 2.16 kg, and denoted MFI(a), and - on the other hand, of compositions (b) and (c), measured in g/10 minutes at a temperature of 230°C and a total weight of 2.16 kg, and denoted MFI(b) and MFI(c), respectively, - on the one hand, of the HMPSA composition (a), measured in g/10 minutes at a temperature of 190°C and a total weight of 2.16 kg, and denoted MFI(a), and - on the other hand, of compositions (b) and (c), measured in g/10 minutes at a temperature of 230°C and a total weight of 2.16 kg, and denoted MFI(b) and MFI(c), respectively, are such that the ratios MFI(a)/MFI(b) and MFI(a)/MFI(c) are each between 0.3 and 3.5.
An engineered corticotropin-releasing factor (CRF) binding agent, comprising a polypeptide having CRF-specific binding activity under physiological conditions, coupled to one or more half-life-extending moieties, or a pharmaceutically acceptable salt thereof, wherein the polypeptide is a CRF binding protein (CRF-BP), and wherein the one or more half-life-extending moieties comprises an Fc forming portion of a mammalian immunoglobulin heavy chain, or an Fc region of an antibody, optionally an Fc region of a human antibody.
A steering switch adapted for being provided on a spoke of a steering wheel of vehicle, the steering switch comprising: an approval switch adapted for inputting an approval of a lane change executed by a drive assistance system of the vehicle; the steering switch characterized by further comprising a main switch adapted for inputting an ON/OFF operation of the drive assistance system; wherein the approval switch is arranged adjacent to an upper side of the main switch . an approval switch adapted for inputting an approval of a lane change executed by a drive assistance system of the vehicle; the steering switch characterized by further comprising a main switch adapted for inputting an ON/OFF operation of the drive assistance system; wherein the approval switch is arranged adjacent to an upper side of the main switch .
A web traffic logging system comprising: a log setting unit which performs setting for collecting log from at least one of a web server and a web server operating system; a log gathering unit which creates log information including the log collected in accordance with the setting; and a log transmitting unit which transmits the log information to a cloud server , characterized in that the log setting unit is configured to perform setting for collecting log including data transmitted through Post-Body and Response-Body, and collecting log including one or more of program operation location, program execution information, program execution target type, program execution subject, program full path, and program information. a log setting unit which performs setting for collecting log from at least one of a web server and a web server operating system; a log gathering unit which creates log information including the log collected in accordance with the setting; and a log transmitting unit which transmits the log information to a cloud server , characterized in that the log setting unit is configured to perform setting for collecting log including data transmitted through Post-Body and Response-Body, and collecting log including one or more of program operation location, program execution information, program execution target type, program execution subject, program full path, and program information.
Method for providing result data, which depend on a motor vehicle environment of a receiving motor vehicle , to the receiving motor vehicle by means of an infrastructure device , comprising the steps: - selection by the infrastructure device of at least one selected motor vehicle which has at least one sensor device by means of which at least part of the motor vehicle environment can be captured, - transmitting a request message to the selected motor vehicle by means of the infrastructure device , - capturing sensor data describing at least parts of the motor vehicle environment by means of the sensor device of the selected motor vehicle and transmitting the sensor data, or processing data determined from this by a processing apparatus of the selected motor vehicle , to the infrastructure device by means of the selected motor vehicle upon receipt of the request message by the selected motor vehicle , - making the result data available to the receiving motor vehicle by means of the infrastructure device , wherein the result data comprise the sensor data or the processing data, or are determined from these. - selection by the infrastructure device of at least one selected motor vehicle which has at least one sensor device by means of which at least part of the motor vehicle environment can be captured, - transmitting a request message to the selected motor vehicle by means of the infrastructure device , - capturing sensor data describing at least parts of the motor vehicle environment by means of the sensor device of the selected motor vehicle and transmitting the sensor data, or processing data determined from this by a processing apparatus of the selected motor vehicle , to the infrastructure device by means of the selected motor vehicle upon receipt of the request message by the selected motor vehicle , - making the result data available to the receiving motor vehicle by means of the infrastructure device , wherein the result data comprise the sensor data or the processing data, or are determined from these.
A method for use in a receiver, the method comprising: configuring the receiver to use multi-bit hybrid automatic repeat request, HARQ, feedback per transport block, TB; receiving a transmission comprising a TB that is composed of a plurality of code blocks, CBs, arranged in one or more code block groups, CBGs; sending HARQ ACK or NACK feedback for one or more of the one or more CBGs of the TB, at the first HARQ feedback occasion and based on a decoding status of the TB; receiving a retransmission comprising only a subset of CBs or only a subset of CBGs of the TB for which HARQ NACK feedback was sent; and characterised in determining a set of CBGs of the TB for which to send negative acknowledgement, NACK, feedback at a different HARQ feedback occasion based on at least a decoding time for unsuccessfully decoded information received from previous transmissions and retransmissions. configuring the receiver to use multi-bit hybrid automatic repeat request, HARQ, feedback per transport block, TB; receiving a transmission comprising a TB that is composed of a plurality of code blocks, CBs, arranged in one or more code block groups, CBGs; sending HARQ ACK or NACK feedback for one or more of the one or more CBGs of the TB, at the first HARQ feedback occasion and based on a decoding status of the TB; receiving a retransmission comprising only a subset of CBs or only a subset of CBGs of the TB for which HARQ NACK feedback was sent; and characterised in determining a set of CBGs of the TB for which to send negative acknowledgement, NACK, feedback at a different HARQ feedback occasion based on at least a decoding time for unsuccessfully decoded information received from previous transmissions and retransmissions.
A computer-implemented method, comprising: placing a computing device in a power-saving mode, the power-saving mode comprising saving an operational state of the computing device in connection with limiting power to one or more components of the computing device; monitoring , while in the power-saving mode, a network for activity data associated with a mobile device ; receiving , based on the monitoring for activity data, a first indication that a user of the mobile device intends to use the computing device, the indication being based on a comparison between the activity data and one or more predetermined patterns of user interaction with the computing device; and characterised in that the method further comprises: switching , based on receiving the first indication, the computing device from the power-saving mode to a warming mode, the warming mode comprising restoring power to the one or more components while at least one other of the one or more components, including a display screen, remain in the power-saving mode and initiating loading the operational state of the computing device before the user physically interacts with the computing device and while the at least one other of the one or more components, including the display screen, remain in the power-saving mode. placing a computing device in a power-saving mode, the power-saving mode comprising saving an operational state of the computing device in connection with limiting power to one or more components of the computing device; monitoring , while in the power-saving mode, a network for activity data associated with a mobile device ; receiving , based on the monitoring for activity data, a first indication that a user of the mobile device intends to use the computing device, the indication being based on a comparison between the activity data and one or more predetermined patterns of user interaction with the computing device; and characterised in that the method further comprises: switching , based on receiving the first indication, the computing device from the power-saving mode to a warming mode, the warming mode comprising restoring power to the one or more components while at least one other of the one or more components, including a display screen, remain in the power-saving mode and initiating loading the operational state of the computing device before the user physically interacts with the computing device and while the at least one other of the one or more components, including the display screen, remain in the power-saving mode.
A graphics apparatus for implementing collaborative multi-user virtual reality and supporting multiple viewports to a 360° video and/or 360° twitch, the apparatus comprising: a processor (200, 405-407, 601, 621, 671, 1602, 1608, 1612, 1700, 1708, 1800, 2000, 2300, 2530, 2532, 2715, 2720); memory (104, 222, 270, 272, 346, 362, 401-402, 411, 420-423, 622, 672, 1518, 2550) communicatively coupled to the processor; and a collaboration engine communicatively coupled to the processor to: identify a shared graphics component between two or more users in an environment; and share the shared graphics components with the two or more users in the environment, characterized in that the collaboration engine further includes a multi-port graphics subsystem to support a different user on each port of the multi-port graphics subsystem and a decode sharer to: identify an overlapped region of a shared scene between a first view region of a first user and a second view region of a second user; decode the overlapped region; and share the decoded overlapped region with both the first user and the second user. a processor (200, 405-407, 601, 621, 671, 1602, 1608, 1612, 1700, 1708, 1800, 2000, 2300, 2530, 2532, 2715, 2720); memory (104, 222, 270, 272, 346, 362, 401-402, 411, 420-423, 622, 672, 1518, 2550) communicatively coupled to the processor; and a collaboration engine communicatively coupled to the processor to: identify a shared graphics component between two or more users in an environment; and share the shared graphics components with the two or more users in the environment, identify a shared graphics component between two or more users in an environment; and share the shared graphics components with the two or more users in the environment, identify an overlapped region of a shared scene between a first view region of a first user and a second view region of a second user; decode the overlapped region; and share the decoded overlapped region with both the first user and the second user.
A method of managing a plurality of photovoltaic devices each photovoltaic device comprising one single input electrode, one single output electrode and a p-n junction semiconductor body positioned between the input electrode and the output electrode, wherein the DC current generated by each photovoltaic device flows from the respective input electrode to the respective output electrode through the semiconductor body, said method comprising: applying a first component of a voltage signal generated by a common voltage pulser circuit connected in parallel to all photovoltaic devices to the single input electrode of each of the plurality of photovoltaic devices , the first component including a series of voltage pulses (VApp) and comprising an on state for generating an external electric field across each semiconductor body of said photovoltaic devices ; applying a second component of the voltage signal to said photovoltaic devices, the second component comprising an off cycle between adjacent first components; and superimposing the first component on top of an existing voltage generated by the photovoltaic devices. applying a first component of a voltage signal generated by a common voltage pulser circuit connected in parallel to all photovoltaic devices to the single input electrode of each of the plurality of photovoltaic devices , the first component including a series of voltage pulses (VApp) and comprising an on state for generating an external electric field across each semiconductor body of said photovoltaic devices ; applying a second component of the voltage signal to said photovoltaic devices, the second component comprising an off cycle between adjacent first components; and superimposing the first component on top of an existing voltage generated by the photovoltaic devices.
An aggregate rate control method, comprising: receiving (S202), by a gateway switch, a flow entry and a link table from a software-defined networking, SDN, controller, wherein the flow entry comprises at least a match field and a flow-entry instruction, and the link table comprises at least a packet processing operation; parsing (S203), by the gateway switch, to obtain header information of a received target data packet, and matching the header information with the match field in the flow entry; executing (S204), by the gateway switch, a link instruction in the flow-entry instruction in the flow entry, wherein the link instruction is used to point to the link table; and performing (S205), by the gateway switch, the packet processing operation in the link table, wherein the packet processing operation is used to buffer the target data packet when a bit rate of an aggregate service flow is greater than a specified maximum aggregate rate; wherein when the packet processing operation instructs the gateway switch to buffer the target data packet, the packet processing operation further instructs the gateway switch to: when the bit rate of the aggregate service flow decreases and is less than the specified maximum aggregate rate, retransmit the buffered target data packet. receiving (S202), by a gateway switch, a flow entry and a link table from a software-defined networking, SDN, controller, wherein the flow entry comprises at least a match field and a flow-entry instruction, and the link table comprises at least a packet processing operation; parsing (S203), by the gateway switch, to obtain header information of a received target data packet, and matching the header information with the match field in the flow entry; executing (S204), by the gateway switch, a link instruction in the flow-entry instruction in the flow entry, wherein the link instruction is used to point to the link table; and performing (S205), by the gateway switch, the packet processing operation in the link table, wherein the packet processing operation is used to buffer the target data packet when a bit rate of an aggregate service flow is greater than a specified maximum aggregate rate; wherein when the packet processing operation instructs the gateway switch to buffer the target data packet, the packet processing operation further instructs the gateway switch to: when the bit rate of the aggregate service flow decreases and is less than the specified maximum aggregate rate, retransmit the buffered target data packet.
A gas turbine engine including a fan section , the fan section comprising: a plurality of fan blades ; a plurality of guide vanes positioned aft of the plurality of fan blades; a fan containment case circumferentially surrounding the plurality of fan blades and the plurality of guide vanes, the fan containment case comprising a first casing coupling member located on an outer surface forward of the plurality of fan blades, and a second casing coupling member located on the outer surface aft of the plurality of guide vanes; and a fan nacelle assembly circumferentially surrounding the fan containment case, the fan nacelle assembly comprising: an inner wall including an inner aft end , wherein the inner aft end is operably coupled to the first casing coupling member; an outer wall including an outer wall aft end , wherein the outer wall aft end is positioned aft of the first casing coupling member and wherein the outer wall is monolithic; and wherein the outer wall aft end is operably coupled to the second casing coupling member; or wherein the fan nacelle assembly further comprises a fan compartment cowling panel operably coupled to the outer wall aft end and the second casing coupling member, wherein the fan compartment cowling panel includes a panel axial length . a plurality of fan blades ; a plurality of guide vanes positioned aft of the plurality of fan blades; a fan containment case circumferentially surrounding the plurality of fan blades and the plurality of guide vanes, the fan containment case comprising a first casing coupling member located on an outer surface forward of the plurality of fan blades, and a second casing coupling member located on the outer surface aft of the plurality of guide vanes; and a fan nacelle assembly circumferentially surrounding the fan containment case, the fan nacelle assembly comprising: an inner wall including an inner aft end , wherein the inner aft end is operably coupled to the first casing coupling member; an outer wall including an outer wall aft end , wherein the outer wall aft end is positioned aft of the first casing coupling member and wherein the outer wall is monolithic; and wherein the outer wall aft end is operably coupled to the second casing coupling member; or wherein the fan nacelle assembly further comprises a fan compartment cowling panel operably coupled to the outer wall aft end and the second casing coupling member, wherein the fan compartment cowling panel includes a panel axial length . an inner wall including an inner aft end , wherein the inner aft end is operably coupled to the first casing coupling member; an outer wall including an outer wall aft end , wherein the outer wall aft end is positioned aft of the first casing coupling member and wherein the outer wall is monolithic; and wherein the outer wall aft end is operably coupled to the second casing coupling member; or wherein the fan nacelle assembly further comprises a fan compartment cowling panel operably coupled to the outer wall aft end and the second casing coupling member, wherein the fan compartment cowling panel includes a panel axial length .