mhurhangee/patent-ind-claim-en huggingface dataset:
A data transmission method comprising: receiving , by a terminal device, from a network device, first Downlink Control Information, DCI, and second DCI in a Physical Downlink Control Channel, PDCCH, wherein the first DCI and the second DCI have different priorities, the first DCI is configured for scheduling the terminal device to receive a first Physical Downlink Shared Channel, PDSCH, transmitted by using a first Transmission Time Interval, TTI, on a target carrier, the second DCI is configured for scheduling the terminal device to receive a second PDSCH transmitted by using a second TTI on the target carrier, the first TTI is smaller than the second TTI, and time resources of the first PDSCH and the second PDSCH at least partially overlap; determining , by the terminal device, a priority relationship between the first DCI and the second DCI; sending, by the terminal device feedback information to the network device, and receiving , by the terminal device, from the network device, the first PDSCH or the second PDSCH on the target carrier according to the priority relationship between the first DCI and the second DCI. receiving , by a terminal device, from a network device, first Downlink Control Information, DCI, and second DCI in a Physical Downlink Control Channel, PDCCH, wherein the first DCI and the second DCI have different priorities, the first DCI is configured for scheduling the terminal device to receive a first Physical Downlink Shared Channel, PDSCH, transmitted by using a first Transmission Time Interval, TTI, on a target carrier, the second DCI is configured for scheduling the terminal device to receive a second PDSCH transmitted by using a second TTI on the target carrier, the first TTI is smaller than the second TTI, and time resources of the first PDSCH and the second PDSCH at least partially overlap; determining , by the terminal device, a priority relationship between the first DCI and the second DCI; sending, by the terminal device feedback information to the network device, and receiving , by the terminal device, from the network device, the first PDSCH or the second PDSCH on the target carrier according to the priority relationship between the first DCI and the second DCI.
A liquid crystal antenna, including a first substrate and a second substrate which are oppositely arranged and a liquid crystal layer positioned between the first substrate and the second substrate , wherein a first metal film layer is arranged on one side, facing the second substrate, of the first substrate, a second metal film layer is arranged on one side, facing the first substrate, of the second substrate, the first substrate and the second substrate are glass substrates, a seed layer is arranged between the first substrate and the first metal film layer, and between the second substrate and the second metal film layer , wherein the first metal film layer and the second metal film layer are each composed of a chemically deposited layer and a metal layer which are sequentially laminated on the seed layer of the corresponding substrate, characterised in that the metal layer is an electroplated metal layer, the material of the seed layers is metal oxide, and the thickness of the seed layers is less than 50 nm.
A method for implementing non-volatile memory express, NVMe, over fabrics by using a completion queue, CQ, which is set in a terminal and a submission queue, SQ, which is set in a server, wherein the method comprises the following steps: Generating , by the terminal, a NVMe instruction, wherein the NVMe instruction indicates a data read operation or a data write operation; Sending , by the terminal, by using remote direct memory access, RDMA, the NVMe instruction to the SQ which is set in a server; when the NVMe instruction indicates the data read operation, receiving, by the terminal by using the RDMA, to-be-read data sent by the server; or when the NVMe instruction indicates the data write operation, sending, by the terminal, to-be-written data to the server by using the RDMA; receiving , by the terminal, a NVMe completion instruction sent by using the RDMA by the server; and writing , by the terminal, the NVMe completion instruction into the CQ which is set in the terminal, wherein to implement the RDMA, a first RDMA transceiver module is disposed in the terminal, and a second RDMA transceiver module is disposed in the server, and wherein the SQ and the CQ are set separately in the terminal and the server for improving NVMe over fabrics performance, so that here is no need to establish a queue similar to the CQ in the server. Generating , by the terminal, a NVMe instruction, wherein the NVMe instruction indicates a data read operation or a data write operation; Sending , by the terminal, by using remote direct memory access, RDMA, the NVMe instruction to the SQ which is set in a server; when the NVMe instruction indicates the data read operation, receiving, by the terminal by using the RDMA, to-be-read data sent by the server; or when the NVMe instruction indicates the data write operation, sending, by the terminal, to-be-written data to the server by using the RDMA; receiving , by the terminal, a NVMe completion instruction sent by using the RDMA by the server; and writing , by the terminal, the NVMe completion instruction into the CQ which is set in the terminal, wherein to implement the RDMA, a first RDMA transceiver module is disposed in the terminal, and a second RDMA transceiver module is disposed in the server, and wherein the SQ and the CQ are set separately in the terminal and the server for improving NVMe over fabrics performance, so that here is no need to establish a queue similar to the CQ in the server.
A spray gun reservoir connector system comprising: a reservoir including a lid ; a spray gun inlet ; a first connector format provided with the spray gun inlet , the first connector format including a plurality of retention structures each defining a capture region , wherein the retention structures are collectively arranged in a circular pattern and are circumferentially spaced from one another; and a second connector format provided with the lid , the second connector format including a plurality of lock structures each including a shim body configured to selectively interface with the capture region of a respective one of the retention structures , wherein the lock structures are collectively arranged in a circular pattern and are circumferentially spaced from one another; wherein the connector formats are configured to provide wedged engagement between the lock structures and corresponding ones of the retention structures upon rotation of the spray gun inlet relative to the lid . a reservoir including a lid ; a spray gun inlet ; a first connector format provided with the spray gun inlet , the first connector format including a plurality of retention structures each defining a capture region , wherein the retention structures are collectively arranged in a circular pattern and are circumferentially spaced from one another; and a second connector format provided with the lid , the second connector format including a plurality of lock structures each including a shim body configured to selectively interface with the capture region of a respective one of the retention structures , wherein the lock structures are collectively arranged in a circular pattern and are circumferentially spaced from one another; a plurality of lock structures each including a shim body configured to selectively interface with the capture region of a respective one of the retention structures , wherein the lock structures are collectively arranged in a circular pattern and are circumferentially spaced from one another; wherein the connector formats are configured to provide wedged engagement between the lock structures and corresponding ones of the retention structures upon rotation of the spray gun inlet relative to the lid .
A hydrogen gas filling method comprising: receiving, from a vehicle equipped with a tank to be filled with hydrogen gas and powered by the hydrogen gas, a temperature of the tank before a start of filling; calculating a difference between a present maximum temperature and the temperature of the tank ; calculating a filling speed of the hydrogen gas depending on the difference; and filling the hydrogen gas from an accumulator in which the hydrogen gas is accumulated into the tank at the calculated filling speed via a measuring machine , wherein the filling speed is calculated by using a relation expression or a relation table between the difference and the filling speed, characterised in that the relation expression and the relation table depend on a supply temperature of the hydrogen gas supplied via the measuring machine . receiving, from a vehicle equipped with a tank to be filled with hydrogen gas and powered by the hydrogen gas, a temperature of the tank before a start of filling; calculating a difference between a present maximum temperature and the temperature of the tank ; calculating a filling speed of the hydrogen gas depending on the difference; and filling the hydrogen gas from an accumulator in which the hydrogen gas is accumulated into the tank at the calculated filling speed via a measuring machine , wherein the filling speed is calculated by using a relation expression or a relation table between the difference and the filling speed, characterised in that the relation expression and the relation table depend on a supply temperature of the hydrogen gas supplied via the measuring machine .
A computer-implemented method, the method comprising: designing a filter for suppressing the effect of a ghost reflection in a set of stacked, marine seismic data representative of a subterranean formation, the filter compensating for amplitude due to the presence of the ghost reflection separately from the phase due to the presence of the ghost reflection, the designing including: iteratively defining at least one parameter of the filter and applying the defined filter to the seismic data; evaluating each iteration of the filter's application to at least a subset of the seismic data; and selecting a defined filter from one of the evaluated iterations; and applying the filter to the seismic data to suppress the effect of ghost reflection. designing a filter for suppressing the effect of a ghost reflection in a set of stacked, marine seismic data representative of a subterranean formation, the filter compensating for amplitude due to the presence of the ghost reflection separately from the phase due to the presence of the ghost reflection, the designing including: iteratively defining at least one parameter of the filter and applying the defined filter to the seismic data; evaluating each iteration of the filter's application to at least a subset of the seismic data; and selecting a defined filter from one of the evaluated iterations; and iteratively defining at least one parameter of the filter and applying the defined filter to the seismic data; evaluating each iteration of the filter's application to at least a subset of the seismic data; and selecting a defined filter from one of the evaluated iterations; and applying the filter to the seismic data to suppress the effect of ghost reflection.
A saddled electric-powered vehicle configured by including approximately rectangular parallelepiped batteries (B), a battery case in which the batteries (B) are housed, battery-side terminals provided on bottom surfaces of the batteries (B), and case-side terminals engaged with the battery-side terminals , wherein the battery case is arranged below a seat of the saddled electric-powered vehicle , pressing holders that press the batteries (B) housed in the battery case from above are provided, the pressing holders are provided while making a front and rear pair for each battery (B), characterized in that the two batteries (B) are disposed next to each other in a vehicle width direction, wherein an operation lever for moving the case-side terminals up and down to connect or separate the battery-side terminals and the case-side terminals to/from each other by being operated in an up-and-down direction of a vehicle body is provided, and the operation lever is arranged at a position in a middle in the vehicle width direction between the two batteries (B). wherein the battery case is arranged below a seat of the saddled electric-powered vehicle , pressing holders that press the batteries (B) housed in the battery case from above are provided, the pressing holders are provided while making a front and rear pair for each battery (B), characterized in that the two batteries (B) are disposed next to each other in a vehicle width direction, wherein an operation lever for moving the case-side terminals up and down to connect or separate the battery-side terminals and the case-side terminals to/from each other by being operated in an up-and-down direction of a vehicle body is provided, and the operation lever is arranged at a position in a middle in the vehicle width direction between the two batteries (B).
Method for adapting a combustion engine of a hybrid drive system of a motor vehicle to a gaseous fuel with unknown fuel quality, wherein the hybrid drive system comprises an electric machine that can be mechanically coupled to the combustion engine , comprising the following steps: - driving the combustion engine to a crawling speed by means of the electric machine of the hybrid drive system , - introducing the gaseous fuel into the combustion engine by means of a fuel inlet device of the hybrid drive system , - igniting the gaseous fuel by means of an ignition device of the hybrid drive system , - determining an ACTUAL operating torque of the combustion engine by means of the electric machine mechanically coupled to the combustion engine , and - comparing the determined ACTUAL operating torque with a TARGET operating torque of the combustion engine that is to be expected given use of a fuel with a known fuel quality, by means of a comparison device , - defining a corrective value for adapting the ACTUAL operating torque of the combustion engine to the TARGET operating torque by means of an engine control device of the hybrid drive system , and - adapting the ACTUAL operating torque of the combustion engine to the TARGET operating torque on the basis of the corrective value by means of the engine control device of the hybrid drive system , characterized in that the combustion engine is driven to different speeds by means of the electric machine of the hybrid drive system , wherein ACTUAL operating torques are determined for the different rotational speeds and compared with corresponding different TARGET operating torques, wherein the ratios of the ACTUAL operating torques and the associated TARGET operating torques are taken into account in the adaptation of the quantity of the gaseous fuel introduced into the combustion engine, by means of an engine control device of the hybrid drive system . - driving the combustion engine to a crawling speed by means of the electric machine of the hybrid drive system , - introducing the gaseous fuel into the combustion engine by means of a fuel inlet device of the hybrid drive system , - igniting the gaseous fuel by means of an ignition device of the hybrid drive system , - determining an ACTUAL operating torque of the combustion engine by means of the electric machine mechanically coupled to the combustion engine , and - comparing the determined ACTUAL operating torque with a TARGET operating torque of the combustion engine that is to be expected given use of a fuel with a known fuel quality, by means of a comparison device , - defining a corrective value for adapting the ACTUAL operating torque of the combustion engine to the TARGET operating torque by means of an engine control device of the hybrid drive system , and - adapting the ACTUAL operating torque of the combustion engine to the TARGET operating torque on the basis of the corrective value by means of the engine control device of the hybrid drive system ,
A combination therapy comprising GDC-9545 or a pharmaceutically acceptable salt thereof and GDC-0077 or a pharmaceutically acceptable salt thereof.
Method for the core impregnation of a finished part made of plastic material with at least one additive, characterized in that the method includes the following steps: - dissolving the at least one additive in a liquid medium to form a solution; - placing the plastic part at ambient pressure in a pressure enclosure; - hermetically sealing the chamber; - impregnating the plastic part with the solution by means of carbon dioxide at near supercritical conditions in the enclosure at a pressure comprised between 3 MPa and 6 MPa, at a temperature comprised between 40°C and 65°C for a duration comprised between 1 minute and 10 minutes; - releasing the pressure inside the enclosure so that the liquid medium diffuses outside the plastic part and in order to trap the at least one additive inside the plastic part. - dissolving the at least one additive in a liquid medium to form a solution; - placing the plastic part at ambient pressure in a pressure enclosure; - hermetically sealing the chamber; - impregnating the plastic part with the solution by means of carbon dioxide at near supercritical conditions in the enclosure at a pressure comprised between 3 MPa and 6 MPa, at a temperature comprised between 40°C and 65°C for a duration comprised between 1 minute and 10 minutes; - releasing the pressure inside the enclosure so that the liquid medium diffuses outside the plastic part and in order to trap the at least one additive inside the plastic part.
Refrigeration installation for controlling the temperature of air, comprising at least one compressor , at least two expansion elements and at least a first and a second heat exchanger that can each be operated as a condenser or gas cooler, and at least one of these heat exchangers or another heat exchanger that can be operated as an evaporator, wherein a first valve is arranged in the refrigerant line after at least one compressor , at or after a branch and before or at the condenser or gas cooler inlet of the first heat exchanger , and a second valve is arranged at or after the condenser or gas cooler outlet of the first heat exchanger and before an expansion element of the at least two expansion elements or as one of the at least two expansion elements, wherein the refrigeration installation contains a valve controller for the first and second valve at least inter alia for refrigerant displacement, which is designed to control switching between at least a first and a second valve set-up, firstly with an open first valve with at the same time a closed second valve or secondly with a closed first valve with at the same time an open second valve , characterized in that the valve controller comprises the automatic regulator, which, upon overshooting a predefined quantity of refrigerant in the refrigerant circuit through which refrigerant flows, is designed to adjust the first valve set-up for at least one heat exchanger through which refrigerant flows but is not currently operating as a condenser or gas cooler, and/or which, upon overshooting a predefined pressure of the refrigerant after the compressor in the refrigerant circuit through which refrigerant flows, is designed to adjust the first valve set-up for at least one heat exchanger through which refrigerant flows but is currently not operating as a condenser or gas cooler.
Intraocular lens comprising a single optical part and comprising a haptic coupled to the optical part , and having a main optical axis (A) which passes through a front side and a back side of the optical part , the haptic comprising a first haptic part which is in the form of a first ring and encircles the optical part , and at least one second haptic part which is in the form of a second ring and encircles the optical part and which is elastically movable relative to the first haptic part, at least one of the two rings having an uneven form in the circumferential direction about the main optical axis (A), characterized in that at least one of the two rings has exactly two ring valleys and exactly two ring peaks .
A method for managing a container image, the method comprising by executing instructions with a processor : determining a priority level at which a container is to be executed; determining a first expected location for a first set of layers of the container; determining a second expected location for a second set of layers of the container, the first expected location and the second expected location determined based on the determined priority level; mounting the first set of layers from the first expected location; initiating execution of the container based on the first set of layers ; and mounting the second set of layers from the second expected location after the initiation of the execution of the container based on the first set of layers . determining a priority level at which a container is to be executed; determining a first expected location for a first set of layers of the container; determining a second expected location for a second set of layers of the container, the first expected location and the second expected location determined based on the determined priority level; mounting the first set of layers from the first expected location; initiating execution of the container based on the first set of layers ; and mounting the second set of layers from the second expected location after the initiation of the execution of the container based on the first set of layers .