mhurhangee/patent-ind-claim-en huggingface dataset:
An inverter terminal board , comprising: an electric conductor which has an inverter side connecting terminal connected to an output terminal of an inverter attached to a motor case , a motor side connecting terminal connected to a power receiving terminal of the motor, and a braided wire , wherein the inverter side connecting terminal is connected to one end of the braided wire , and the motor side connecting terminal is connected to the other end of the braided wire , wherein a flat plate-shaped long terminal is used as the motor side connecting terminal and the middle of the flat plate-shaped long terminal is covered with packing . an electric conductor which has an inverter side connecting terminal connected to an output terminal of an inverter attached to a motor case , a motor side connecting terminal connected to a power receiving terminal of the motor, and a braided wire , wherein the inverter side connecting terminal is connected to one end of the braided wire , and the motor side connecting terminal is connected to the other end of the braided wire , wherein a flat plate-shaped long terminal is used as the motor side connecting terminal and the middle of the flat plate-shaped long terminal is covered with packing .
A video decoding method performed by a video decoding device, the method comprising: parsing (S1600) remaining intra prediction mode information for a current block; deriving (S1610) neighboring samples of the current block; deriving (S1620) most probable mode, MPM, list including MPM candidates of the current block; rearranging remaining intra prediction modes excluding the MPM candidates based on a pre-configured order; deriving (S1630) an intra prediction mode of the current block based on the remaining intra prediction mode information and the rearranged remaining intra prediction modes, wherein the intra prediction mode is an intra prediction mode indicated by the remaining intra prediction mode information among the rearranged remaining intra prediction modes; deriving (S1640) a prediction sample of the current block based on the intra prediction mode and the neighboring samples; and deriving (S1650) a reconstructed picture based on the prediction sample, wherein the remaining intra prediction mode information is coded through a truncated binary, TB, binarization process, and wherein a binarization parameter representing a maximum value of the remaining intra prediction information for the TB binarization process is 60, and when a value of the remaining intra prediction mode information is N, an N+1th intra prediction mode among the rearranged remaining intra prediction modes is derived as the intra prediction mode of the current block, and the pre-configured order is as below: . parsing (S1600) remaining intra prediction mode information for a current block; deriving (S1610) neighboring samples of the current block; deriving (S1620) most probable mode, MPM, list including MPM candidates of the current block; rearranging remaining intra prediction modes excluding the MPM candidates based on a pre-configured order; deriving (S1630) an intra prediction mode of the current block based on the remaining intra prediction mode information and the rearranged remaining intra prediction modes, wherein the intra prediction mode is an intra prediction mode indicated by the remaining intra prediction mode information among the rearranged remaining intra prediction modes; deriving (S1640) a prediction sample of the current block based on the intra prediction mode and the neighboring samples; and deriving (S1650) a reconstructed picture based on the prediction sample, wherein the remaining intra prediction mode information is coded through a truncated binary, TB, binarization process, and wherein a binarization parameter representing a maximum value of the remaining intra prediction information for the TB binarization process is 60, and when a value of the remaining intra prediction mode information is N, an N+1th intra prediction mode among the rearranged remaining intra prediction modes is derived as the intra prediction mode of the current block, and the pre-configured order is as below: .
An apparatus comprising: a main body portion ; a first vibration section configured to vibrate in accordance with a first control signal; a second vibration section a certain distance away from the first vibration section and configured to vibrate in accordance with a second control signal different from the first control signal; a first grounded portion which is at least one of portions that are grounded, and is configured to vibrate in accordance with a vibration of at least the first vibration section; and a second grounded portion which is one of the portions that are grounded, and is configured to vibrate in accordance with a vibration of at least the second vibration section, wherein in a state where the apparatus is on a certain surface, the apparatus moves on the certain surface by the vibration of the first grounded portion grounded on the certain surface and/or the vibration of the second grounded portion grounded on the certain surface, the apparatus is characterized in that it further comprises: a first housing comprising the first vibration section; and a second housing comprising the second vibration section, and the main body portion comprises: a first engagement portion (SL) configured to be detachably engaged with the first housing; and a second engagement portion (SR) configured to be detachably engaged with the second housing. a first vibration section configured to vibrate in accordance with a first control signal; a second vibration section a certain distance away from the first vibration section and configured to vibrate in accordance with a second control signal different from the first control signal; a first grounded portion which is at least one of portions that are grounded, and is configured to vibrate in accordance with a vibration of at least the first vibration section; and a second grounded portion which is one of the portions that are grounded, and is configured to vibrate in accordance with a vibration of at least the second vibration section, wherein in a state where the apparatus is on a certain surface, the apparatus moves on the certain surface by the vibration of the first grounded portion grounded on the certain surface and/or the vibration of the second grounded portion grounded on the certain surface, the apparatus is characterized in that it further comprises: a first housing comprising the first vibration section; and a second housing comprising the second vibration section, and a first housing comprising the first vibration section; and a second housing comprising the second vibration section, and the main body portion comprises: a first engagement portion (SL) configured to be detachably engaged with the first housing; and a second engagement portion (SR) configured to be detachably engaged with the second housing. a first engagement portion (SL) configured to be detachably engaged with the first housing; and a second engagement portion (SR) configured to be detachably engaged with the second housing.
A dishwashing appliance , comprising a cabinet with a compartment to receive articles to be washed and a door used to close said compartment, said cabinet and said door being provided with a device for retaining and automatic opening of the door, said device comprises a latch which is arranged on and, respectively, in the cabinet at the side opposite to hinges of the door , and a retaining element which is arranged in the door in order to cooperate with said latch , wherein an actuator arranged in the door , drives said retaining element , characterized in that said latch comprises a pair of holders lying approximately in a horizontal plane, wherein each end thereof that cooperates with a retaining element is provided with a hook , whereas each opposite end of the holders is connected by means of a resilient means , wherein said retaining element is movable in a vertical plane i.e. approximately perpendicularly to the plane in which said holders rest and operate.
Device for determination of a catalyst state in a chemical reactor, comprising: - a reactor comprising a reactor chamber with at least one inlet for introducing a fluid phase into the reactor chamber and at least one outlet for draining off the fluid phase, - a sampling device for collecting a fluid sample inside the reactor chamber , - a temperature-sensitive sensor arranged at the sampling device for detecting a temperature of a fluid phase and/or a solid phase at the site of the sampling device where the fluid sample is collected, characterized in that - a spectroscopic detection unit is arranged outside the reactor , said spectroscopic unit comprising a sample chamber for arranging a catalyst sample therein and a spectroscopic analysis device for obtaining spectroscopic data on the catalyst sample arranged in the sample chamber, - a conduit is provided between the sampling device and the sample chamber of the spectroscopic detection unit for introducing a fluid sample taken at the sampling device into the sample chamber of the spectroscopic detection unit, and - heating and/or cooling means and a temperature control unit are provided in the spectroscopic detection unit for adjustment of a temperature of the sample chamber. - a reactor comprising a reactor chamber with at least one inlet for introducing a fluid phase into the reactor chamber and at least one outlet for draining off the fluid phase, - a sampling device for collecting a fluid sample inside the reactor chamber , - a temperature-sensitive sensor arranged at the sampling device for detecting a temperature of a fluid phase and/or a solid phase at the site of the sampling device where the fluid sample is collected, characterized in that - a spectroscopic detection unit is arranged outside the reactor , said spectroscopic unit comprising a sample chamber for arranging a catalyst sample therein and a spectroscopic analysis device for obtaining spectroscopic data on the catalyst sample arranged in the sample chamber, - a conduit is provided between the sampling device and the sample chamber of the spectroscopic detection unit for introducing a fluid sample taken at the sampling device into the sample chamber of the spectroscopic detection unit, and - heating and/or cooling means and a temperature control unit are provided in the spectroscopic detection unit for adjustment of a temperature of the sample chamber.
Method for the thermal elimination of the germination capacity and/or fertility of plant constituents capable of germination and/or reproduction in material to be treated in the form of excavation material, comprising the following steps: a) producing a radio frequency signal (S) by a generator unit ; b) producing an electric high-frequency field (H) with the radio frequency signal (S) by means of an electrode arrangement ; c) irradiation of the material to be treated with the electric high-frequency field (H), such that specifically the plant constituents capable of germination and/or reproduction are heated to a temperature of 50°C to 80°C, preferably of 65°C to 75°C, wherein the electric high-frequency field (H) has a frequency (f) of 3.5 MHz to 100 MHz, preferably of 10 to 20 MHz, more preferably of 13.56 MHz, and wherein the material to be treated has a density of between 1.0 g/cm 3 to 3.0 g/cm 3 and a water content of 5% to 40%, such that the rest of the material of the material to be treated heats up less than the plant constituents capable of germination and/or reproduction . a) producing a radio frequency signal (S) by a generator unit ; b) producing an electric high-frequency field (H) with the radio frequency signal (S) by means of an electrode arrangement ; c) irradiation of the material to be treated with the electric high-frequency field (H), such that specifically the plant constituents capable of germination and/or reproduction are heated to a temperature of 50°C to 80°C, preferably of 65°C to 75°C, wherein the electric high-frequency field (H) has a frequency (f) of 3.5 MHz to 100 MHz, preferably of 10 to 20 MHz, more preferably of 13.56 MHz, and wherein the material to be treated has a density of between 1.0 g/cm 3 to 3.0 g/cm 3 and a water content of 5% to 40%, such that the rest of the material of the material to be treated heats up less than the plant constituents capable of germination and/or reproduction .
Vibroacoustic device, in particular for treating humans with sound and/or vibrations, preferably a sound mat, with at least one flexible base plate and a sound generating unit having a plurality of structure-borne sound transducers , wherein the respective structure-borne sound transducer is embedded in the base plate in order to couple the generated structure-borne sound directly into at least one body part, wherein further the sound generating unit includes at least one control unit , and wherein in order to control the respective structure-borne sound transducer , the control unit generates a constant and adjustable low-frequency structure-borne sound signal for direct coupling into the body part concerned, wherein individual, selected structure-borne sound transducers and/or groups of structure-borne sound transducer can be controlled differently with the aid of the control unit , characterized in that the low-frequency structure-borne sound signal is overlaid with an audio signal at a higher frequency than said structure-borne sound signal, and that the frequency and amplitude, and the duration of the structure-borne sound signal and of the audio signal of the structure-borne sound transducer are each adjustable with the aid of the control unit . the respective structure-borne sound transducer is embedded in the base plate in order to couple the generated structure-borne sound directly into at least one body part, wherein further the sound generating unit includes at least one control unit , and wherein in order to control the respective structure-borne sound transducer , the control unit generates a constant and adjustable low-frequency structure-borne sound signal for direct coupling into the body part concerned, wherein individual, selected structure-borne sound transducers and/or groups of structure-borne sound transducer can be controlled differently with the aid of the control unit , characterized in that the low-frequency structure-borne sound signal is overlaid with an audio signal at a higher frequency than said structure-borne sound signal, and that the frequency and amplitude, and the duration of the structure-borne sound signal and of the audio signal of the structure-borne sound transducer are each adjustable with the aid of the control unit .
A system for independently routing vehicles and delivering containers and closures to a unit operation station , said system comprising: at least one container for holding a fluent material, said container having an opening ; a closure for selectively sealing the opening of a container ; a track system ; a plurality of unit operation stations disposed along the track system , one of the unit operation stations being configured for applying a closure onto a container ; a plurality of vehicles propellable along the track system , wherein: each container is disposed on a respective vehicle ; and the plurality of vehicles are independently routable along the track system to deliver at least one container and at least one closure to the at least one unit operation station for applying a closure onto a container , characterized in that the system comprises a plurality of first containers wherein each first container has a shape and a volume and a plurality of second containers wherein each of said second containers has a shape and a volume that is different from one or more of a shape and a volume, respectively, of said first containers , and wherein the system is configured so that a container and a closure travel on separate vehicles to the at least one unit operation station . at least one container for holding a fluent material, said container having an opening ; a closure for selectively sealing the opening of a container ; a track system ; a plurality of unit operation stations disposed along the track system , one of the unit operation stations being configured for applying a closure onto a container ; a plurality of vehicles propellable along the track system , wherein: each container is disposed on a respective vehicle ; and the plurality of vehicles are independently routable along the track system to deliver at least one container and at least one closure to the at least one unit operation station for applying a closure onto a container , each container is disposed on a respective vehicle ; and the plurality of vehicles are independently routable along the track system to deliver at least one container and at least one closure to the at least one unit operation station for applying a closure onto a container , characterized in that the system comprises a plurality of first containers wherein each first container has a shape and a volume and a plurality of second containers wherein each of said second containers has a shape and a volume that is different from one or more of a shape and a volume, respectively, of said first containers , and wherein the system is configured so that a container and a closure travel on separate vehicles to the at least one unit operation station .
Method for operating a steer-by-wire steering system of a motor vehicle, wherein at least one steering function requests one or more steering angle changes as target steering angles on at least one vehicle axle, wherein an arbitration unit (AE) weights the steering angle changes as target steering angles (SLw_i) and an overall target steering angle (G_SLw) is determined taking into consideration at least one target steering angle (SLw_i), characterized in that a check is carried out continuously, before the overall target steering angle (G_SLw) is set by an actuator of the steer-by-wire steering system, as to whether the following condition is met: gradient of the overall target steering angle (G_SLw) is less than or equal to the gradient of the at least one target steering angle (SLw_i).
A method of validating a purchase transaction in a game application of a client-server game environment, the method comprising: - receiving a request for the purchase transaction from a user at a client device , wherein the purchase transaction comprises exchanging resources to acquire an asset by the user in the game application on the client device; - executing a command at the client device associated with the request for purchase transaction, based on a state data stored in the client device and corresponding to the user at the client device; - transmitting a request by the client device to a server for execution of the command at the server, upon the command being executed at the client device; characterized in that the method further comprises: - executing the command by the server using a copy of the state data stored on the server, upon receiving the request from the client device, for validating the purchase transaction associated with the request for the purchase transaction at the client device by the server, wherein executing the command at the server upon receiving the request from the client device comprises converting the command associated with the client device to a server command executable at the server based on a logic code of the client device by conversion of the command written in one programming language to another programming language; and - performing one of: allowing the purchase transaction or preventing the purchase transaction, at the client device by the server, based on the execution of the command at the server. - receiving a request for the purchase transaction from a user at a client device , wherein the purchase transaction comprises exchanging resources to acquire an asset by the user in the game application on the client device; - executing a command at the client device associated with the request for purchase transaction, based on a state data stored in the client device and corresponding to the user at the client device; - transmitting a request by the client device to a server for execution of the command at the server, upon the command being executed at the client device; - executing the command by the server using a copy of the state data stored on the server, upon receiving the request from the client device, for validating the purchase transaction associated with the request for the purchase transaction at the client device by the server, wherein executing the command at the server upon receiving the request from the client device comprises converting the command associated with the client device to a server command executable at the server based on a logic code of the client device by conversion of the command written in one programming language to another programming language; and - performing one of: allowing the purchase transaction or preventing the purchase transaction, at the client device by the server, based on the execution of the command at the server.
A method to communicate capabilities of a device, comprising: - generating a message to initiate a data transfer session between a mobile station and a network ; - selecting a code value from a plurality of code values , each of the code values pre-defined to indicate a respective set of radio access capabilities supported by the mobile station , each respective set pertaining to a specific type of use by the mobile station for the data transfer session ; - including the selected code value in the message ; and - sending the message from the mobile station to the network . - generating a message to initiate a data transfer session between a mobile station and a network ; - selecting a code value from a plurality of code values , each of the code values pre-defined to indicate a respective set of radio access capabilities supported by the mobile station , each respective set pertaining to a specific type of use by the mobile station for the data transfer session ; - including the selected code value in the message ; and - sending the message from the mobile station to the network .