mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication, performed by a serving node , comprising: designating one or more transmit antennas of the node assigned to at least one first carrier of the node for use with a second carrier of the node , wherein the at least one first carrier is one of partially or completely inactive for one or more subframes or a fraction of a subframe in which transmit antennas assigned to the at least one first carrier will be idle, and wherein the one or more transmit antennas designated for use with the second carrier are borrowed from transmit antennas assigned to the at least one first carrier being idle; transmitting at least one of a control channel, a data channel, or a reference signal with a set of antenna ports on the second carrier, wherein the set of antenna ports is based, at least in part, on a combination of the one or more transmit antennas assigned to the at least one first carrier and designated for use with the second carrier and one or more transmit antennas of the node assigned to the second carrier; and transmitting one or more channel state information reference signal, CSI-RS configurations to one or more mobile devices , wherein the one or more CSI-RS configurations reflect the combination of the one or more transmit antennas, wherein the one or more CSI-RS configurations indicate, to the one or more mobile devices , a number of antenna ports in the set of antenna ports that will be used by the node to transmit the at least one of a control channel, a data channel, or a reference signal. designating one or more transmit antennas of the node assigned to at least one first carrier of the node for use with a second carrier of the node , wherein the at least one first carrier is one of partially or completely inactive for one or more subframes or a fraction of a subframe in which transmit antennas assigned to the at least one first carrier will be idle, and wherein the one or more transmit antennas designated for use with the second carrier are borrowed from transmit antennas assigned to the at least one first carrier being idle; transmitting at least one of a control channel, a data channel, or a reference signal with a set of antenna ports on the second carrier, wherein the set of antenna ports is based, at least in part, on a combination of the one or more transmit antennas assigned to the at least one first carrier and designated for use with the second carrier and one or more transmit antennas of the node assigned to the second carrier; and transmitting one or more channel state information reference signal, CSI-RS configurations to one or more mobile devices , wherein the one or more CSI-RS configurations reflect the combination of the one or more transmit antennas, wherein the one or more CSI-RS configurations indicate, to the one or more mobile devices , a number of antenna ports in the set of antenna ports that will be used by the node to transmit the at least one of a control channel, a data channel, or a reference signal.
A method for converting a time frame of a multichannel audio signal into output audio content comprising audio objects, metadata comprising a spatial position for each audio object, and bed channels, wherein the multichannel audio signal comprises a plurality of channels in a first configuration, each channel in the first configuration having a predetermined position pertaining to a loudspeaker setup and defined in a predetermined coordinate system, the method comprising the steps of: a) receiving (S1602) the time frame of the multichannel audio signal , characterized in that the method further comprises b) extracting (S1604) at least one audio object from the time frame of the multichannel audio signal , the audio object being extracted from a specific subset of the plurality of channels, and for each audio object of the at least one audio object: c) estimating (S1606) a spatial position of the audio object , d) based on the spatial position of the audio object , estimating (S1608) a risk that a rendered version of the audio object in channels in the first configuration will be rendered in channels with predetermined positions differing from the predetermined positions of the specific subset of the plurality of channels from which the object was extracted, e) determining (S1610) whether the risk exceeds a threshold, and f) upon determining (S1610) that the risk does not exceed the threshold, include the audio object and metadata comprising the spatial position of the audio object in the output audio content . a) receiving (S1602) the time frame of the multichannel audio signal , characterized in that the method further comprises b) extracting (S1604) at least one audio object from the time frame of the multichannel audio signal , the audio object being extracted from a specific subset of the plurality of channels, and for each audio object of the at least one audio object: c) estimating (S1606) a spatial position of the audio object , d) based on the spatial position of the audio object , estimating (S1608) a risk that a rendered version of the audio object in channels in the first configuration will be rendered in channels with predetermined positions differing from the predetermined positions of the specific subset of the plurality of channels from which the object was extracted, e) determining (S1610) whether the risk exceeds a threshold, and f) upon determining (S1610) that the risk does not exceed the threshold, include the audio object and metadata comprising the spatial position of the audio object in the output audio content .
An individual identification device comprising: a biometric information storage unit adapted to store biometric information on a registrant; a biometric information acquisition unit adapted to acquire biometric information on a subject; an identification unit adapted to calculate a similarity of the biometric information on the subject and the biometric information on the registrant and perform identification of the subject according to whether or not the calculated similarity is equal to or higher than an identification threshold; an identification result storage unit adapted to store identification result information constituted by the similarity calculated by the identification unit and a correct identification result in the identification; and a threshold setting unit adapted to set the identification threshold such that at least either one of a false rejection rate and a false acceptance rate fulfils a predetermined condition in the identification result information stored in the identification result storage unit , characterized in that the threshold setting unit sets the identification threshold each time the identification unit performs the identification a predetermined number of times after the previous identification threshold setting has been performed, and the predetermined number of times is variable and determined to be smaller as a variation in a value of the similarity calculated by the identification unit becomes larger. a biometric information storage unit adapted to store biometric information on a registrant; a biometric information acquisition unit adapted to acquire biometric information on a subject; an identification unit adapted to calculate a similarity of the biometric information on the subject and the biometric information on the registrant and perform identification of the subject according to whether or not the calculated similarity is equal to or higher than an identification threshold; an identification result storage unit adapted to store identification result information constituted by the similarity calculated by the identification unit and a correct identification result in the identification; and a threshold setting unit adapted to set the identification threshold such that at least either one of a false rejection rate and a false acceptance rate fulfils a predetermined condition in the identification result information stored in the identification result storage unit , characterized in that the threshold setting unit sets the identification threshold each time the identification unit performs the identification a predetermined number of times after the previous identification threshold setting has been performed, and the predetermined number of times is variable and determined to be smaller as a variation in a value of the similarity calculated by the identification unit becomes larger.
Fat based confectionery material comprising at least 35 % non-fat milk solids on a dry weight basis wherein at least 20 % of the non-fat milk solids are in the form of crystallized or partially crystallized milk powder, wherein at least 50% of the lactose comprised within the crystallized or partially crystallized milk powder is crystalline.
A phosphinimide pre-polymerization catalyst having the following structure: wherein M is Ti, Zr or Hf; P is phosphorus; N is nitrogen; L is a cyclopentadienyl type ligand; each X is independently an activatable ligand; R 1 is independently selected from a hydrogen atom, a hydrocarbyl group which is unsubstituted or substituted with one or more halogen atom, an alkoxy group, an aryl group, an aryloxy group, an amido group, a silyl group, and a germanyl group; G is a guanidinate type group having the following structure: where A 1 , A 2 , A 3 , and A 4 are independently hydrogen, an acyclic or a cyclic hydrocarbyl group, or an acyclic or a cyclic heteroatom containing hydrocarbyl group, and where any of A 1 to A 4 may be part of a cyclic hydrocarbyl group or a cyclic heteroatom containing hydrocarbyl group; x is 0, 1, or 2; y is 3, 2, or 1; and x + y = 3. wherein M is Ti, Zr or Hf; P is phosphorus; N is nitrogen; L is a cyclopentadienyl type ligand; each X is independently an activatable ligand; R 1 is independently selected from a hydrogen atom, a hydrocarbyl group which is unsubstituted or substituted with one or more halogen atom, an alkoxy group, an aryl group, an aryloxy group, an amido group, a silyl group, and a germanyl group; G is a guanidinate type group having the following structure: where A 1 , A 2 , A 3 , and A 4 are independently hydrogen, an acyclic or a cyclic hydrocarbyl group, or an acyclic or a cyclic heteroatom containing hydrocarbyl group, and where any of A 1 to A 4 may be part of a cyclic hydrocarbyl group or a cyclic heteroatom containing hydrocarbyl group; x is 0, 1, or 2; y is 3, 2, or 1; and x + y = 3.
A load handling tool to be attached to a crane boom, the load handling tool comprising: - a carrier head configured for connection to a crane boom; - first and second bucket jaws located opposite each other, the first bucket jaw being pivotally connected to the carrier head via a first pivot arm and the second bucket jaw being pivotally connected to the carrier head via a second pivot arm so as to allow the bucket jaws to be pivoted towards each other in order to grasp a load and away from each other in order to release a grasped load, each pivot arm having a first end facing the carrier head and an opposite second end , wherein each pivot arm at its first end is pivotally connected to the carrier head ; and - an actuating device for pivoting the pivot arms and thereby the bucket jaws in relation to the carrier head , characterized in: - that each pivot arm at its second end is articulately connected to the associated bucket jaw so as to allow the bucket jaw to be pivoted in relation to the pivot arm between a fold-down working position and a fold-up storing position, wherein the bucket jaws are configured to be located between the pivot arms and to rest against each other in the fold-up storing position; and - that the load handling tool comprises a first locking device for locking the first bucket jaw to the first pivot arm in the fold-down working position, and a second locking device for locking the second bucket jaw to the second pivot arm in the fold-down working position. - a carrier head configured for connection to a crane boom; - first and second bucket jaws located opposite each other, the first bucket jaw being pivotally connected to the carrier head via a first pivot arm and the second bucket jaw being pivotally connected to the carrier head via a second pivot arm so as to allow the bucket jaws to be pivoted towards each other in order to grasp a load and away from each other in order to release a grasped load, each pivot arm having a first end facing the carrier head and an opposite second end , wherein each pivot arm at its first end is pivotally connected to the carrier head ; and - an actuating device for pivoting the pivot arms and thereby the bucket jaws in relation to the carrier head , - that each pivot arm at its second end is articulately connected to the associated bucket jaw so as to allow the bucket jaw to be pivoted in relation to the pivot arm between a fold-down working position and a fold-up storing position, wherein the bucket jaws are configured to be located between the pivot arms and to rest against each other in the fold-up storing position; and - that the load handling tool comprises a first locking device for locking the first bucket jaw to the first pivot arm in the fold-down working position, and a second locking device for locking the second bucket jaw to the second pivot arm in the fold-down working position.
A double shell seat comprising a base for resting on a floor, an outer shell supported by the base, and an inner shell movably supported within the outer shell, the inner shell having a seat support , a backrest support , and a hinge between the seat support and the backrest support, the inner shell being movable with respect to the outer shell from an upright condition in which the seat support has a position toward the rear of the outer shell , the backrest support has a position that is relatively vertical, and the hinge is at a first angle, to a reclined condition in which the seat support is forward of its position in the upright condition, the backrest support is less vertical than its position in the upright condition, and the hinge is open at a greater angle than the first angle, wherein the outer shell has a seat with an upper face, and cooperating ramps and rollers that are on the upper face and the bottom of the seat support are located at positions on the upper face and the bottom of the seat support so that the rollers encounter the ramps , whereby a front of the seat support rises as the seat support moves from the upright condition to the reclined condition. a base for resting on a floor, an outer shell supported by the base, and an inner shell movably supported within the outer shell, the inner shell having a seat support , a backrest support , and a hinge between the seat support and the backrest support, the inner shell being movable with respect to the outer shell from an upright condition in which the seat support has a position toward the rear of the outer shell , the backrest support has a position that is relatively vertical, and the hinge is at a first angle, to a reclined condition in which the seat support is forward of its position in the upright condition, the backrest support is less vertical than its position in the upright condition, and the hinge is open at a greater angle than the first angle, wherein the outer shell has a seat with an upper face, and cooperating ramps and rollers that are on the upper face and the bottom of the seat support are located at positions on the upper face and the bottom of the seat support so that the rollers encounter the ramps , whereby a front of the seat support rises as the seat support moves from the upright condition to the reclined condition.
An electromotorically driven pump with control electronics provided for the connection of at least one sensor , characterised in that the control electronics are designed to detect the at least one output signal of the at least one connected sensor in a continuous manner or in temporal intervals, and after completion of a predefined time to automatically set the measurement range of the sensor on the basis of the detected maximal values and minimal values of the output signal and to transmit this measurement range into sensor electronics of the sensor by way of a control signal .
A feeding device for feeding welding filler elements , in particular a wire-shaped and/or rod-shaped welding filler element , for a deposition welding process, comprising - a receiving unit for receiving at least one welding filler element , - a guide unit arranged and configured to feed the welding filler element to a deposition welding process, - characterized by at least one positioning sleeve , wherein the positioning sleeve has a sleeve cavity for arranging the welding filler element , - wherein the at least one welding filler element is arranged in the sleeve cavity and the positioning sleeve is receivable in the receiving unit , - wherein the receiving unit and the guide unit are arranged and configured such that the positioning sleeve is provided discontinuously to the guide unit . - a receiving unit for receiving at least one welding filler element , - a guide unit arranged and configured to feed the welding filler element to a deposition welding process, - characterized by at least one positioning sleeve , wherein the positioning sleeve has a sleeve cavity for arranging the welding filler element , - wherein the at least one welding filler element is arranged in the sleeve cavity and the positioning sleeve is receivable in the receiving unit , - wherein the receiving unit and the guide unit are arranged and configured such that the positioning sleeve is provided discontinuously to the guide unit .
A portable data carrier comprising - one or several sensors which are respectively arranged for detecting via the capture of measurement values a laying open of a surface of the previously covered portable data carrier as a detection event; - one or several output means for outputting signals perceptible by a user; wherein the portable data carrier is arranged for outputting a signal via the one or more output means upon satisfaction of a detection criterion, wherein the detection criterion is satisfied when the detection event is detected by at least a part of the sensors , characterized in that the one or more sensors comprise at least one first sound sensor which is configured such that during operation it captures loudness values which are generated by the surroundings around the first sound sensor and were not generated by the portable data carrier itself as measurement values and that it detects as a detection event that a change of the loudness values satisfies a predetermined condition. - one or several sensors which are respectively arranged for detecting via the capture of measurement values a laying open of a surface of the previously covered portable data carrier as a detection event; - one or several output means for outputting signals perceptible by a user; wherein the portable data carrier is arranged for outputting a signal via the one or more output means upon satisfaction of a detection criterion, wherein the detection criterion is satisfied when the detection event is detected by at least a part of the sensors , characterized in that the one or more sensors comprise at least one first sound sensor which is configured such that during operation it captures loudness values which are generated by the surroundings around the first sound sensor and were not generated by the portable data carrier itself as measurement values and that it detects as a detection event that a change of the loudness values satisfies a predetermined condition.
An analyte collecting device comprising: a case including an opening and an internal space ; and a piston including one or more partition walls dividing the internal space into a plurality of internal spaces (102a-d), the piston being inserted into the internal space through the opening of the case to reciprocate in the internal space , characterized in that the case includes: an exhaust port through which the internal space communicates with an outside and configured such that a sample put in the internal space can be discharged through the exhaust port to the outside of the case ; and a specimen injection port including an injection hole formed at the case to allow the internal space to communicate the outside of the case and configured such that a sample can be injected. a case including an opening and an internal space ; and a piston including one or more partition walls dividing the internal space into a plurality of internal spaces (102a-d), the piston being inserted into the internal space through the opening of the case to reciprocate in the internal space , characterized in that the case includes: an exhaust port through which the internal space communicates with an outside and configured such that a sample put in the internal space can be discharged through the exhaust port to the outside of the case ; and a specimen injection port including an injection hole formed at the case to allow the internal space to communicate the outside of the case and configured such that a sample can be injected. an exhaust port through which the internal space communicates with an outside and configured such that a sample put in the internal space can be discharged through the exhaust port to the outside of the case ; and a specimen injection port including an injection hole formed at the case to allow the internal space to communicate the outside of the case and configured such that a sample can be injected.
Method for transmitting data from an application between nodes of a motor vehicle using an Ethernet transport protocol, wherein the Ethernet transport protocol is operated in a mode in which the transmitters and receivers (PHY) of a node are deactivated in non-use periods, in which no first data need to be transmitted, and are activated again when data are pending transmission, wherein the feature "are deactivated" is defined in that the transmitters and receivers (PHY) are transferred from an operating mode (active) to a quiescent mode (LPI) in a deactivation time (T S ) and wherein the feature "are activated" is defined in that the transmitters and receivers (PHY) are transferred from the quiescent mode (LPI) to an operating mode (active) in an activation time (T W ), and wherein a transmission cycle is defined as the time from one data transmission to a subsequent data transmission in the MAC layer, that is to say as that time in which the application receives and/or transmits new data in the MAC layer, characterized in that a limit value of a transmission frequency is defined by the inverse of the sum of the activation time (T W ), of the deactivation time (T S ) and of a transmission time (T FRM ) for the data to be transmitted by the application within a transmission cycle, and in that a requirement to save energy causes the transmission cycle to be extended by inserting a quiescent mode, so long as the limit value of the transmission frequency is observed, wherein the application checks whether the requirement for the application can be reduced to the content of the data that are to be transmitted, wherein the content of the data that are to be transmitted is reduced by, in the case of video data, reducing the video quality of a data stream that is to be transmitted and, in that in the case of audio data, reducing the audio quality of a data stream that is to be transmitted, wherein content of the data that are to be transmitted is reduced only if the requirement to save energy is not possible without exceeding the limit value of the transmission frequency.