mhurhangee/patent-ind-claim-en huggingface dataset:
A system for transporting a sample in a clinical analysis system, the system comprising: a sample container holding the sample ; a ferromagnetic base connected to a bottom portion of the sample container ; a puck operable to transport the sample container in the clinical analysis system, wherein the puck comprises an embedded magnet for securing the sample container to the puck using the ferromagnetic base , characterized in that the embedded magnet is an electromagnet and the puck further comprises a battery for powering the electromagnet. a sample container holding the sample ; a ferromagnetic base connected to a bottom portion of the sample container ; a puck operable to transport the sample container in the clinical analysis system, wherein the puck comprises an embedded magnet for securing the sample container to the puck using the ferromagnetic base , characterized in that the embedded magnet is an electromagnet and the puck further comprises a battery for powering the electromagnet.
A method for suppressing interference in a radar transceiver , the method comprising transmitting (S1) a radar signal at a frequency F(t), receiving (S2) a radar signal, monitoring (S3) frequencies adjacent to the frequency F(t) for interference, and, if interference is detected (S4) in the adjacent frequencies, determining (S5) a cross-over time duration for the interference, and re-directing (S6) radar signal transmission power for the cross-over time duration, where the transmitting comprises transmitting (S11) a frequency modulated continuous wave, FMCW, radar signal having the frequency F(t), and wherein determining the cross-over time duration comprises determining (S51) a relative frequency gradient between the transmitted radar signal and an interfering radar signal. transmitting (S1) a radar signal at a frequency F(t), receiving (S2) a radar signal, monitoring (S3) frequencies adjacent to the frequency F(t) for interference, and, if interference is detected (S4) in the adjacent frequencies, determining (S5) a cross-over time duration for the interference, and re-directing (S6) radar signal transmission power for the cross-over time duration, where the transmitting comprises transmitting (S11) a frequency modulated continuous wave, FMCW, radar signal having the frequency F(t), and wherein determining the cross-over time duration comprises determining (S51) a relative frequency gradient between the transmitted radar signal and an interfering radar signal.
An apparatus for melting and refining molten glass that includes: a melting chamber ; a refining chamber downstream of said melting chamber; a throat between said melting chamber and said refining chamber; and a porous body disposed at least partially within at least one of said melting chamber, said refining chamber, and said throat, and being at least partially submerged within the molten glass, said porous body including: an inlet ; and an outlet in fluid communication with said inlet and spaced apart from said inlet in a longitudinal direction; and wherein said porous body is monolithic and has a three-dimensional non-planar shape, and wherein the porous body has a flow-through structure and includes a labyrinth of pores through which molten glass can flow between said inlet and said outlet, wherein said pores are defined by walls having wall surfaces that are configured to interact with molten glass flowing between said inlet and said outlet to help refine the molten glass. a melting chamber ; a refining chamber downstream of said melting chamber; a throat between said melting chamber and said refining chamber; and a porous body disposed at least partially within at least one of said melting chamber, said refining chamber, and said throat, and being at least partially submerged within the molten glass, said porous body including: an inlet ; and an outlet in fluid communication with said inlet and spaced apart from said inlet in a longitudinal direction; and wherein said porous body is monolithic and has a three-dimensional non-planar shape, and wherein the porous body has a flow-through structure and includes a labyrinth of pores through which molten glass can flow between said inlet and said outlet, wherein said pores are defined by walls having wall surfaces that are configured to interact with molten glass flowing between said inlet and said outlet to help refine the molten glass. an inlet ; and an outlet in fluid communication with said inlet and spaced apart from said inlet in a longitudinal direction; and wherein said porous body is monolithic and has a three-dimensional non-planar shape, and wherein the porous body has a flow-through structure and includes a labyrinth of pores through which molten glass can flow between said inlet and said outlet, wherein said pores are defined by walls having wall surfaces that are configured to interact with molten glass flowing between said inlet and said outlet to help refine the molten glass.
A user equipment, UE, configured to transmit a data stream to an Evolved Node B , eNodeB, the UE comprising: at least one antenna port (106A-B), each antenna port being connectable to an antenna (104A-B) capable of transmitting data from the data stream to the eNodeB at one of a plurality of selectable tuning states, the combination of antenna ports and tuning states forming a plurality of selectable antenna states for the UE, wherein the selectable tuning states are associated with at least one of a selectable impedance or a selectable aperture for the antenna; and circuitry configured to: transmit to the eNodeB a first portion of the data stream over a first antenna state of the plurality; sequentially transmit to the eNodeB a test signal over each antenna state in the plurality; receive from the eNodeB an indication that the test signal transmitted on a second antenna state of the plurality is stronger at the eNodeB than the test signal transmitted on the first antenna state; and transmit to the eNodeB a second portion of the data stream over the second antenna state. at least one antenna port (106A-B), each antenna port being connectable to an antenna (104A-B) capable of transmitting data from the data stream to the eNodeB at one of a plurality of selectable tuning states, the combination of antenna ports and tuning states forming a plurality of selectable antenna states for the UE, wherein the selectable tuning states are associated with at least one of a selectable impedance or a selectable aperture for the antenna; and circuitry configured to: transmit to the eNodeB a first portion of the data stream over a first antenna state of the plurality; sequentially transmit to the eNodeB a test signal over each antenna state in the plurality; receive from the eNodeB an indication that the test signal transmitted on a second antenna state of the plurality is stronger at the eNodeB than the test signal transmitted on the first antenna state; and transmit to the eNodeB a second portion of the data stream over the second antenna state. transmit to the eNodeB a first portion of the data stream over a first antenna state of the plurality; sequentially transmit to the eNodeB a test signal over each antenna state in the plurality; receive from the eNodeB an indication that the test signal transmitted on a second antenna state of the plurality is stronger at the eNodeB than the test signal transmitted on the first antenna state; and transmit to the eNodeB a second portion of the data stream over the second antenna state.
A method by a terminal, the method comprising: receiving , from a base station, downlink control information, DCI, including a value of a downlink assignment indicator, DAI; receiving , from the base station, data on first physical downlink shared channel, PDSCH based on the DCI; receiving, from the base station, data on second PDSCH based on a semi-persistent scheduling, SPS; generating first hybrid automatic repeat request-acknowledgement, HARQ-ACK, information for the data received on the first PDSCH based on the value of the DAI; generating second HARQ-ACK information for the data received on the second PDSCH based on the SPS; and transmitting , to a base station, HARQ-ACK bit sequence including the first HARQ-ACK information and the second HARQ-ACK information in a physical uplink control channel, PUCCH, wherein the value of the DAI is associated with a number of at least one pair of a serving cell and a subframe in which the PDSCH transmission is present, and the value of the DAI is indexed first in increasing order of serving cell index and then in increasing order of subframe index, and wherein the second HARQ-ACK information is included at an end of the HARQ-ACK bit sequence. receiving , from a base station, downlink control information, DCI, including a value of a downlink assignment indicator, DAI; receiving , from the base station, data on first physical downlink shared channel, PDSCH based on the DCI; receiving, from the base station, data on second PDSCH based on a semi-persistent scheduling, SPS; generating first hybrid automatic repeat request-acknowledgement, HARQ-ACK, information for the data received on the first PDSCH based on the value of the DAI; generating second HARQ-ACK information for the data received on the second PDSCH based on the SPS; and transmitting , to a base station, HARQ-ACK bit sequence including the first HARQ-ACK information and the second HARQ-ACK information in a physical uplink control channel, PUCCH, wherein the value of the DAI is associated with a number of at least one pair of a serving cell and a subframe in which the PDSCH transmission is present, and the value of the DAI is indexed first in increasing order of serving cell index and then in increasing order of subframe index, and wherein the second HARQ-ACK information is included at an end of the HARQ-ACK bit sequence.
An audio coding method for encoding a variable number of target vectors per time segment, a target vector representing a spectral peak region of a segment of an audio signal, the method being performed by an audio codec, the method comprising: - obtaining an input target vector comprising transform coefficients on both sides of a spectral peak; - comparing the input target vector with four centroids C 0 , C 1 , C 0, flip and C 1, flip , wherein centroid C 0 ,flip is a flipped version of centroid C 0 and centroid C 1, flip is a flipped version of centroid C 1 , wherein elements of centroid C i, flip are defined as C i , flip = [C i ( M ) C i ( M -1) ... C i ], where C i ( m ) are vector elements of the centroid C i , M is a length of the vector and i is an index of the centroid, each centroid representing a respective class of codevectors in a codebook; - determining a starting point for a search based on the result of the comparison; - performing a search in the codebook, starting at the determined starting point, to identify a codevector that best matches the input target vector, wherein a search space is dynamically adjusted such that the size of the search space depends on the number of input target vectors, and wherein the codebook has been created such that the codevectors in the codebook are sorted according to a distortion measure reflecting the distance between each codevector and said centroids C 0 and C 1 ; and - providing an index of the codevector for transmission to a decoder. - obtaining an input target vector comprising transform coefficients on both sides of a spectral peak; - comparing the input target vector with four centroids C 0 , C 1 , C 0, flip and C 1, flip , wherein centroid C 0 ,flip is a flipped version of centroid C 0 and centroid C 1, flip is a flipped version of centroid C 1 , wherein elements of centroid C i, flip are defined as C i , flip = [C i ( M ) C i ( M -1) ... C i ], where C i ( m ) are vector elements of the centroid C i , M is a length of the vector and i is an index of the centroid, each centroid representing a respective class of codevectors in a codebook; - determining a starting point for a search based on the result of the comparison; - performing a search in the codebook, starting at the determined starting point, to identify a codevector that best matches the input target vector, wherein a search space is dynamically adjusted such that the size of the search space depends on the number of input target vectors, and wherein the codebook has been created such that the codevectors in the codebook are sorted according to a distortion measure reflecting the distance between each codevector and said centroids C 0 and C 1 ; and - providing an index of the codevector for transmission to a decoder.
A method, implemented in a network node configured to operate in a wireless network, for adjusting a length of a discovery measurement timing configuration, DMTC, window, in which DMTC window, a wireless communication device served by at least the network node is expected to receive discovery signals from other network nodes, the method comprising the steps of: determining a degree of synchronization of the wireless network, wherein the degree of synchronization of the wireless network comprises a degree of time and frequency synchronization of the network node and the other network nodes, wherein the degree of synchronization refers to a synchronization level in a set of synchronization levels, and wherein the set of synchronization levels comprises: - a first synchronization level representing tight synchronization; - a second synchronization level representing coarse synchronization; and - a third synchronization level representing absence of synchronization; estimating an expected delay to acquire a channel, within the wireless network, by the network node; determining the DMTC window length based on the estimated expected delay to acquire the channel within the wireless network; and informing the wireless communication device of the determined DMTC window length. determining a degree of synchronization of the wireless network, wherein the degree of synchronization of the wireless network comprises a degree of time and frequency synchronization of the network node and the other network nodes, wherein the degree of synchronization refers to a synchronization level in a set of synchronization levels, and wherein the set of synchronization levels comprises: - a first synchronization level representing tight synchronization; - a second synchronization level representing coarse synchronization; and - a third synchronization level representing absence of synchronization; - a first synchronization level representing tight synchronization; - a second synchronization level representing coarse synchronization; and - a third synchronization level representing absence of synchronization; estimating an expected delay to acquire a channel, within the wireless network, by the network node; determining the DMTC window length based on the estimated expected delay to acquire the channel within the wireless network; and informing the wireless communication device of the determined DMTC window length.
A catheter device comprising: a catheter body having a distal end, a first lumen and a second lumen; an elongate member which extends distally from the catheter body, said elongate member having a plurality of spaced-apart heat exchange member-receiving features therein or thereon, wherein the plurality of spaced-apart heat exchange member-receiving features comprises open areas transversing the elongate member along a first transverse axis configured to receive the heat exchange member along a second transverse axis orthogonal to the first axis; and at least one heat exchange member disposed on the elongate member, wherein the at least one heat exchange member is fully or partially positioned within the plurality of spaced-apart heat exchange member-receiving features, wherein the at least one heat exchange member is further connected to said first and second lumens such that fluid may circulate in a distal direction through the first lumen, then through said at least one heat exchange member, then in a proximal direction through the second lumen. a catheter body having a distal end, a first lumen and a second lumen; an elongate member which extends distally from the catheter body, said elongate member having a plurality of spaced-apart heat exchange member-receiving features therein or thereon, wherein the plurality of spaced-apart heat exchange member-receiving features comprises open areas transversing the elongate member along a first transverse axis configured to receive the heat exchange member along a second transverse axis orthogonal to the first axis; and at least one heat exchange member disposed on the elongate member, wherein the at least one heat exchange member is fully or partially positioned within the plurality of spaced-apart heat exchange member-receiving features, wherein the at least one heat exchange member is further connected to said first and second lumens such that fluid may circulate in a distal direction through the first lumen, then through said at least one heat exchange member, then in a proximal direction through the second lumen.
Method for forming package bodies open on one side from package sleeves open on both sides for the manufacture of filled packages , - in the case of which the package sleeves are held ready in a stack for further processing, folded flat along at least two fold edges running in the longitudinal direction of the package sleeves , - in the case of which the flat-folded package sleeves are transferred consecutively from the stack to a moulding station , - in the case of which the package sleeves are unfolded in a moulding station , - in the case of which the unfolded package sleeves are pushed onto a mandrel for closing, in particular sealing, a longitudinal end of the package sleeve , characterised in that the package sleeves are drawn in the moulding station through a channel coming into contact with the two opposing fold edges of the package sleeve and tapering transverse to the package sleeve, wherein the package sleeves engage at the end of the channel into grooves assigned to opposing sides of the channel . - in the case of which the package sleeves are held ready in a stack for further processing, folded flat along at least two fold edges running in the longitudinal direction of the package sleeves , - in the case of which the flat-folded package sleeves are transferred consecutively from the stack to a moulding station , - in the case of which the package sleeves are unfolded in a moulding station , - in the case of which the unfolded package sleeves are pushed onto a mandrel for closing, in particular sealing, a longitudinal end of the package sleeve , characterised in that the package sleeves are drawn in the moulding station through a channel coming into contact with the two opposing fold edges of the package sleeve and tapering transverse to the package sleeve, wherein the package sleeves engage at the end of the channel into grooves assigned to opposing sides of the channel .
A coating apparatus comprising: a coating unit configured by a plurality of rotary atomizing type electrostatic coating machines disposed adjacent to each other; a coating manipulator on which the coating unit is mounted; and a coating control apparatus configured to control the coating unit and the coating manipulator to discharge a coating material, wherein a diameter of an atomizing head of each of the rotary atomizing type electrostatic coating machines is 50 mm or less, wherein the coating control apparatus is configured to control each of the rotary atomizing type electrostatic coating machines to discharge_coating material at a rate of 400 cc/min or less, wherein the coating control apparatus is configured to control the coating unit to keep the atomizing head within a coating distance (Sd) between 50 mm to 150 mm from a surface to be coated of a workpiece (W), wherein the coating control apparatus is configured to control the coating material discharge amounts of the plurality of rotary atomizing type electrostatic coating machines independently from one another thereof, and wherein the coating control apparatus is configured to control each of the rotary atomizing type electrostatic coating machines to include a pause of coating material discharge from the respective rotary atomizing type electrostatic coating machines that perform overspray. a coating unit configured by a plurality of rotary atomizing type electrostatic coating machines disposed adjacent to each other; a coating manipulator on which the coating unit is mounted; and a coating control apparatus configured to control the coating unit and the coating manipulator to discharge a coating material, wherein a diameter of an atomizing head of each of the rotary atomizing type electrostatic coating machines is 50 mm or less, wherein the coating control apparatus is configured to control each of the rotary atomizing type electrostatic coating machines to discharge_coating material at a rate of 400 cc/min or less, wherein the coating control apparatus is configured to control the coating unit to keep the atomizing head within a coating distance (Sd) between 50 mm to 150 mm from a surface to be coated of a workpiece (W), wherein the coating control apparatus is configured to control the coating material discharge amounts of the plurality of rotary atomizing type electrostatic coating machines independently from one another thereof, and wherein the coating control apparatus is configured to control each of the rotary atomizing type electrostatic coating machines to include a pause of coating material discharge from the respective rotary atomizing type electrostatic coating machines that perform overspray.