mhurhangee/patent-ind-claim-en huggingface dataset:
A method for guiding a voice-packet recording function, comprising: extracting behavior features from seed users in advance to obtain feature vectors of the seed users, and clustering the seed users based on the feature vectors of the seed users to obtain user clusters; extracting behavior features from the historical map usage behaviors of map users to obtain feature vectors of the map users; determining whether the map users are clustered into the existing user clusters based on the feature vectors of the map users; and identifying the map user clustered into the existing user clusters as a target user with a voice-packet recording demand; identifying a scenario where the target user uses a client terminal, and if the scenario conforms to a voice-packet recording scenario, sending first guidance information in the form of one or any combination of a text, a picture, a page component, a link for the voice-packet recording function to the client terminal, the first guidance information being for the access of a voice-packet recording page to record voices; tracking and recording a voice-packet recording state of the target user after acquiring the event of recording the voice packet by the target user on the voice-packet recording page; and sending second guidance information in the form of text information or voice information to the target user according to the voice-packet recording state of the target user. extracting behavior features from seed users in advance to obtain feature vectors of the seed users, and clustering the seed users based on the feature vectors of the seed users to obtain user clusters; extracting behavior features from the historical map usage behaviors of map users to obtain feature vectors of the map users; determining whether the map users are clustered into the existing user clusters based on the feature vectors of the map users; and identifying the map user clustered into the existing user clusters as a target user with a voice-packet recording demand; identifying a scenario where the target user uses a client terminal, and if the scenario conforms to a voice-packet recording scenario, sending first guidance information in the form of one or any combination of a text, a picture, a page component, a link for the voice-packet recording function to the client terminal, the first guidance information being for the access of a voice-packet recording page to record voices; tracking and recording a voice-packet recording state of the target user after acquiring the event of recording the voice packet by the target user on the voice-packet recording page; and sending second guidance information in the form of text information or voice information to the target user according to the voice-packet recording state of the target user.
A core structure for casting a gas turbine engine airfoil , the core structure comprising a trailing edge section for defining a trailing edge of the gas turbine engine airfoil , wherein an axial direction is defined between a leading edge and a trailing edge of the airfoil , at least a portion of the trailing edge section comprising: a plurality of rib-forming apertures defined by a plurality of radially-extending channel elements and axially-extending passage elements , wherein the rib-forming apertures are arranged in radially-aligned columns , the rib-forming apertures of alternating radially-aligned columns forming axially-aligned rows ; and a radially outer low flow framing channel element located adjacent to a radially outer edge of the trailing edge section , wherein the radially outer low flow framing channel element comprises a plurality of notches extending radially inwardly from the radially outer edge ; wherein the rib-forming apertures comprising a first axially-aligned outer row are elongated in a radial direction such that a distal portion of the notches overlaps in an axial direction with the rib-forming apertures comprising the first axially-aligned outer row ; wherein the notches are radially aligned with the rib-forming apertures of a second axially-aligned outer row ; and wherein a radial height (H 1 , H 2 ) of at least one of a first axially-extending passage element and a second axially-extending passage element is greater than a prevalent radial height (H) of axially-extending passage elements within the core structure within each radially-aligned column . a plurality of rib-forming apertures defined by a plurality of radially-extending channel elements and axially-extending passage elements , wherein the rib-forming apertures are arranged in radially-aligned columns , the rib-forming apertures of alternating radially-aligned columns forming axially-aligned rows ; and a radially outer low flow framing channel element located adjacent to a radially outer edge of the trailing edge section , wherein the radially outer low flow framing channel element comprises a plurality of notches extending radially inwardly from the radially outer edge ; wherein the rib-forming apertures comprising a first axially-aligned outer row are elongated in a radial direction such that a distal portion of the notches overlaps in an axial direction with the rib-forming apertures comprising the first axially-aligned outer row ; wherein the notches are radially aligned with the rib-forming apertures of a second axially-aligned outer row ; and wherein a radial height (H 1 , H 2 ) of at least one of a first axially-extending passage element and a second axially-extending passage element is greater than a prevalent radial height (H) of axially-extending passage elements within the core structure within each radially-aligned column .
A user equipment comprising: a higher layer processor configured to acquire a dedicated radio resource control, RRC, configuration for a downlink slot aggregation; a physical downlink control channel, PDCCH, receiving circuitry configured to monitor a PDCCH carrying a downlink control information, DCI, format which schedules a physical downlink shared channel, PDSCH; and a PDSCH receiving circuitry configured to receive the PDSCH; characterized in that whether the PDSCH is a) a PDSCH to which the downlink slot aggregation is applied or b) a PDSCH to which the downlink slot aggregation is not applied is determined based on whether the PDCCH is i) a PDCCH with Cyclic Redundancy Check, CRC, scrambled by a first type of radio network temporary identifier, RNTI, or ii) a PDCCH with CRC scrambled by a second type of RNTI different from the first type of RNTI. a higher layer processor configured to acquire a dedicated radio resource control, RRC, configuration for a downlink slot aggregation; a physical downlink control channel, PDCCH, receiving circuitry configured to monitor a PDCCH carrying a downlink control information, DCI, format which schedules a physical downlink shared channel, PDSCH; and a PDSCH receiving circuitry configured to receive the PDSCH; characterized in that whether the PDSCH is a) a PDSCH to which the downlink slot aggregation is applied or b) a PDSCH to which the downlink slot aggregation is not applied is determined based on whether the PDCCH is i) a PDCCH with Cyclic Redundancy Check, CRC, scrambled by a first type of radio network temporary identifier, RNTI, or ii) a PDCCH with CRC scrambled by a second type of RNTI different from the first type of RNTI.
A method of installing a wind turbine rotor blade comprising the steps: releasably fixing a holding unit at the exterior to the wind turbine rotor blade, in particular without intervention in a surface of the wind turbine rotor blade , fixing a holding cable to the holding unit , installing the rotor blade to a hub of the wind turbine , and releasing the holding unit by turning the wind turbine rotor blade about a rotor blade longitudinal axis, wherein the holding unit has at least one strap which is wound at least once around the wind turbine rotor blade to fix the holding unit at the exterior to the wind turbine rotor blade , and a clamping unit adapted to fix an end of the strap to a trailing edge of the wind turbine rotor blade . releasably fixing a holding unit at the exterior to the wind turbine rotor blade, in particular without intervention in a surface of the wind turbine rotor blade , fixing a holding cable to the holding unit , installing the rotor blade to a hub of the wind turbine , and releasing the holding unit by turning the wind turbine rotor blade about a rotor blade longitudinal axis, wherein the holding unit has at least one strap which is wound at least once around the wind turbine rotor blade to fix the holding unit at the exterior to the wind turbine rotor blade , and a clamping unit adapted to fix an end of the strap to a trailing edge of the wind turbine rotor blade .
A condenser comprising: - a housing , having an accommodating cavity ; - an inlet pipe , the inlet pipe being a round pipe with an internal diameter that gradually increases from an inlet to an outlet , wherein the inlet pipe is configured to pass through an upper part of the housing , and the outlet of the inlet pipe is accommodated in the accommodating cavity ; and - an anti-impact plate , accommodated in the accommodating cavity and located below the outlet of the inlet pipe , and a gap (H) being provided between the anti-impact plate and the outlet , the gap allowing through-flow of a fluid flowing out of the outlet , characterized in that : the anti-impact plate is provided with multiple holes , all of which are located outside a projected region (S) on the anti-impact plate , the projected region (S) corresponding to the outlet of the inlet pipe projected vertically downward along a central axis (K) of the inlet pipe , and the projected region (S) being a hole-free zone. - a housing , having an accommodating cavity ; - an inlet pipe , the inlet pipe being a round pipe with an internal diameter that gradually increases from an inlet to an outlet , wherein the inlet pipe is configured to pass through an upper part of the housing , and the outlet of the inlet pipe is accommodated in the accommodating cavity ; and - an anti-impact plate , accommodated in the accommodating cavity and located below the outlet of the inlet pipe , and a gap (H) being provided between the anti-impact plate and the outlet , the gap allowing through-flow of a fluid flowing out of the outlet ,
A control unit for a rotary evaporator for evaporating a substance contained in an initial substance, wherein the rotary evaporator comprises an evaporation flask for receiving the initial substance, a device for heating the substance, a condenser for condensing the vaporized substance, a collection container for receiving the re-liquefied substance and at least one device for generating a low pressure and/or an excess pressure, wherein the control unit is configured and/or programmed to control the rotary evaporator such that an excess pressure is generated at least within the collection container in order to remove the re-liquefied substance and/or an excess pressure is generated at least within the evaporation flask in order to remove residues of the initial substance, and wherein the initial substance is a substance mixture of different components and at least two first conduit portions of the rotary evaporator are provided for supplying the initial substance in a metered manner, so that the components of the initial substance are introduced separately metered into the evaporation flask, so that the substance mixture is produced in the evaporation flask itself. the rotary evaporator comprises an evaporation flask for receiving the initial substance, a device for heating the substance, a condenser for condensing the vaporized substance, a collection container for receiving the re-liquefied substance and at least one device for generating a low pressure and/or an excess pressure, wherein the control unit is configured and/or programmed to control the rotary evaporator such that an excess pressure is generated at least within the collection container in order to remove the re-liquefied substance and/or an excess pressure is generated at least within the evaporation flask in order to remove residues of the initial substance, and wherein the initial substance is a substance mixture of different components and at least two first conduit portions of the rotary evaporator are provided for supplying the initial substance in a metered manner, so that the components of the initial substance are introduced separately metered into the evaporation flask, so that the substance mixture is produced in the evaporation flask itself.
A method for facilitating multiplexing of a sounding resource signal , SRS, in a wireless communication environment, comprising: detecting presence of a SRS symbol in a slot of a sub-frame ; modifying a channel structure for at least one slot of a sub-frame , said modifying comprising: reducing a number of acknowledgement , ACK, symbols in the slot including the SRS ; determining a length and a type of a time domain orthogonal spreading code to apply to a channel in the slots of the sub-frame as a function of SRS presence; and applying the determined spreading code to the channel in at least one slot in the sub-frame , wherein applying the determined spreading code to the channel in at least one slot in the sub-frame comprises applying a 3-point discrete Fourier transform, DFT, spreading code in the slot. detecting presence of a SRS symbol in a slot of a sub-frame ; modifying a channel structure for at least one slot of a sub-frame , said modifying comprising: reducing a number of acknowledgement , ACK, symbols in the slot including the SRS ; determining a length and a type of a time domain orthogonal spreading code to apply to a channel in the slots of the sub-frame as a function of SRS presence; and applying the determined spreading code to the channel in at least one slot in the sub-frame , wherein applying the determined spreading code to the channel in at least one slot in the sub-frame comprises applying a 3-point discrete Fourier transform, DFT, spreading code in the slot. reducing a number of acknowledgement , ACK, symbols in the slot including the SRS ; determining a length and a type of a time domain orthogonal spreading code to apply to a channel in the slots of the sub-frame as a function of SRS presence; and applying the determined spreading code to the channel in at least one slot in the sub-frame , wherein applying the determined spreading code to the channel in at least one slot in the sub-frame comprises applying a 3-point discrete Fourier transform, DFT, spreading code in the slot.
A method of packaging and preserving comestible mollusk material comprising: placing comestible mollusk material in a product containing space of a storage container atop a platform of a support structure, the storage container comprising an internal compartment having the product containing space, the support structure defining the platform for supporting the comestible mollusk material, the internal compartment further comprising a reservoir below the platform, the reservoir being configured to retain liquid and comprising an absorbent material, the platform and/or support structure being configured to direct liquid exuded from the comestible mollusk material to the reservoir, and the storage container further comprising an oxygen permeable lid enclosing the comestible mollusk material within the product containing space. the storage container comprising an internal compartment having the product containing space, the support structure defining the platform for supporting the comestible mollusk material, the internal compartment further comprising a reservoir below the platform, the reservoir being configured to retain liquid and comprising an absorbent material, the platform and/or support structure being configured to direct liquid exuded from the comestible mollusk material to the reservoir, and the storage container further comprising an oxygen permeable lid enclosing the comestible mollusk material within the product containing space.
An N-alkyl-N-cyanoalkylbenzamide compound of General Formula I: wherein R 1 is selected from halo or C 1 -C 3 alkyl; R 2 is selected from halo or CN; R 3 is selected from halo, C 1 -C 3 haloalkyl; R 4 is selected from halo; R 5 is selected from H or halo; R 6 is selected from C 1 -C 3 alkyl; R 7 is selected from C 1 -C 5 alkyl; and R 8 is selected from hydrogen or C 1 -C 5 alkyl. R 1 is selected from halo or C 1 -C 3 alkyl; R 2 is selected from halo or CN; R 3 is selected from halo, C 1 -C 3 haloalkyl; R 4 is selected from halo; R 5 is selected from H or halo; R 6 is selected from C 1 -C 3 alkyl; R 7 is selected from C 1 -C 5 alkyl; and R 8 is selected from hydrogen or C 1 -C 5 alkyl.
A verification method for distinguishing a man from a machine, comprising: generating at least three random points on a verification interface and connecting all random points in turn with straight line segments as a preset trajectory; displaying the preset trajectory on the verification interface and specifying a starting point and a finishing point; S1: receiving trajectory information input by a terminal; S2: comparing the trajectory information with the preset trajectory; S3: judging whether verification passes at least from dimensionality of a comparison result of the trajectory information and the preset trajectory, wherein the preset trajectory is generated randomly, and is a bent line consisting of at least two line segments. generating at least three random points on a verification interface and connecting all random points in turn with straight line segments as a preset trajectory; displaying the preset trajectory on the verification interface and specifying a starting point and a finishing point; S1: receiving trajectory information input by a terminal; S2: comparing the trajectory information with the preset trajectory; S3: judging whether verification passes at least from dimensionality of a comparison result of the trajectory information and the preset trajectory, wherein the preset trajectory is generated randomly, and is a bent line consisting of at least two line segments.
A method for automatic pressure level adaptation enabling energy saving in a lifting process (W c ) in a vacuum system operating a vacuum lifter for transportation of objects (O), said vacuum system comprises a vacuum generator arrangement driven by a compressed air flow (P), wherein the vacuum generator arrangement via a vacuum chamber being part of the vacuum system is arranged to be brought in flow connection with the vacuum lifter , in order to supply vacuum to the vacuum lifter in result of the compressed air flow (P), wherein a pressure sensor for monitoring a system-pressure p (t) over time is arranged inside the vacuum chamber ; and a vacuum system controller possibly being electrically connected to a main controller , wherein the vacuum system controller is arranged to control and communicate with the vacuum generator arrangement and communicate with the pressure sensor, and the vacuum system controller is arranged to monitor the measured system-pressure p - (t) over a number of monitored points, comprising the step of adjusting a required vacuum level (P - ) during a complete lifting process (W c ) required to hold on to the object (O) for each monitored point (P mon ) during the complete lifting process (Wc), characterized in additionally comprising the step of measuring an acceleration (O acc ) of the object being moved by the vacuum lifter .
A battery module comprising: a housing for accommodating a plurality of battery packs electrically connected to each other; and a high-voltage connector formed on the housing, wherein the high-voltage connector includes: a terminal block including an electrode (E1, E2) through which current flows and a shielding portion formed to surround the electrode; a connection block electrically connected to the shielding portion; and a bracket interposed between the terminal block and the connection block, wherein the bracket includes a first ground hole (H1) for forming an electrical connection with the connection block and a second ground hole (H2) for forming an electrical connection with the housing, and a helical pattern is formed in the first and second ground holes. a housing for accommodating a plurality of battery packs electrically connected to each other; and a high-voltage connector formed on the housing, wherein the high-voltage connector includes: a terminal block including an electrode (E1, E2) through which current flows and a shielding portion formed to surround the electrode; a connection block electrically connected to the shielding portion; and a bracket interposed between the terminal block and the connection block, wherein the bracket includes a first ground hole (H1) for forming an electrical connection with the connection block and a second ground hole (H2) for forming an electrical connection with the housing, and a helical pattern is formed in the first and second ground holes. a terminal block including an electrode (E1, E2) through which current flows and a shielding portion formed to surround the electrode; a connection block electrically connected to the shielding portion; and a bracket interposed between the terminal block and the connection block, wherein the bracket includes a first ground hole (H1) for forming an electrical connection with the connection block and a second ground hole (H2) for forming an electrical connection with the housing, and a helical pattern is formed in the first and second ground holes.