mhurhangee/ep-ind-claims huggingface dataset:
A method for estimating the density of a crowd using mobile communication devices, implemented by a computing device, said method comprising the use of a multiscale neural network trained to produce a density map (Dm) of the crowd, said trained multiscale neural network comprising at least two neural subnetworks, said method comprising the following steps: - receiving at least one input image generated by an image capturing device, the image comprising the crowd, the density of which is to be estimated; - processing the input image by the at least one neural subnetwork of the trained multiscale neural network, said processing step comprising the use of several filters of different scales so as to obtain at least one matrix (Mx1, Mx2, Mx3) corresponding to the processing of the input image at different scales; - acquiring an identification mask (Mk) comprising identification data of the mobile communication devices, which data are positioned on the basis of spatial coordinates of said mobile communication devices; - processing the identification mask (Mk) by at least one neural subnetwork of the trained multiscale neural network, so as to obtain at least one matrix corresponding to the processing of the identification data of the mobile communication devices; - merging, by the trained multiscale neural network, the at least one matrix (Mx1, Mx2, Mx3) corresponding to the processing of the input image and the at least one matrix corresponding to the processing of the identification data of mobile communication devices so as to obtain a density map (Dm) of the crowd, the density of which is to be estimated. - receiving at least one input image generated by an image capturing device, the image comprising the crowd, the density of which is to be estimated; - processing the input image by the at least one neural subnetwork of the trained multiscale neural network, said processing step comprising the use of several filters of different scales so as to obtain at least one matrix (Mx1, Mx2, Mx3) corresponding to the processing of the input image at different scales; - acquiring an identification mask (Mk) comprising identification data of the mobile communication devices, which data are positioned on the basis of spatial coordinates of said mobile communication devices; - processing the identification mask (Mk) by at least one neural subnetwork of the trained multiscale neural network, so as to obtain at least one matrix corresponding to the processing of the identification data of the mobile communication devices; - merging, by the trained multiscale neural network, the at least one matrix (Mx1, Mx2, Mx3) corresponding to the processing of the input image and the at least one matrix corresponding to the processing of the identification data of mobile communication devices so as to obtain a density map (Dm) of the crowd, the density of which is to be estimated.
Method for controlling a robot for automatic positioning of a geometrically and/or functionally rotationally symmetrical tool in a 5D target pose, wherein the robot has a movable robot arm, which has a robot flange on its end side, on which the tool is held, with the method steps - Specifying 3D space coordinates of a reference point of the tool, of an axis of the tool and of an orientation of this axis as part of the 5D target pose for the tool, - Determining a 6D pose of the robot flange corresponding to the 5D target pose of the tool, - Expanding a predetermined kinematics of the robot by augmenting it with a virtual joint arranged in the tool, which makes possible a virtual restriction-free rotation about the predetermined axis of the tool, - Providing the determined 6D pose of the robot flange and the expanded kinematics to an automatic path planning module, and - Determining by means of the automatic path planning module a path in accordance with which the 6D pose of the robot flange determined can be moved to from a current initial pose of the robot in each case, wherein conflicts occurring during this process with a maximum physical scope of movement of the robot are resolved automatically by means of the path planning module by a rotation of the virtual joint, characterised in that the predetermined axis is an axis of symmetry of the tool, wherein in addition to the virtual joint, a virtual connecting element is predetermined, which connects the virtual joint to the reference point and/or to a tip of the tool facing away from the robot flange. - Specifying 3D space coordinates of a reference point of the tool, of an axis of the tool and of an orientation of this axis as part of the 5D target pose for the tool, - Determining a 6D pose of the robot flange corresponding to the 5D target pose of the tool, - Expanding a predetermined kinematics of the robot by augmenting it with a virtual joint arranged in the tool, which makes possible a virtual restriction-free rotation about the predetermined axis of the tool, - Providing the determined 6D pose of the robot flange and the expanded kinematics to an automatic path planning module, and - Determining by means of the automatic path planning module a path in accordance with which the 6D pose of the robot flange determined can be moved to from a current initial pose of the robot in each case, wherein conflicts occurring during this process with a maximum physical scope of movement of the robot are resolved automatically by means of the path planning module by a rotation of the virtual joint, characterised in that the predetermined axis is an axis of symmetry of the tool, wherein in addition to the virtual joint, a virtual connecting element is predetermined, which connects the virtual joint to the reference point and/or to a tip of the tool facing away from the robot flange.
A method implemented by a wireless transmit/receive unit, WTRU, the method comprising the steps of receiving a first allocation from an evolved Node B, eNB, wherein the first allocation is an allocation of an non-contention based NCB uplink control channel, the first allocation comprises a configuration for transmitting scheduling requests over the NCB uplink control channel, and the configuration indicates a periodicity allocated to the WTRU for transmitting scheduling requests on the NCB uplink control channel and indicates which sub-carrier resource of the NCB uplink control channel are to be used by the WTRU for transmitting the scheduling requests; transmitting a scheduling request over the NCB uplink control channel in accordance with the first allocation, wherein the transmitted scheduling request comprises a transmission burst, and presence of the transmission burst on NCB uplink channel resources assigned to the WTRU by the first allocation is indicative of a request for uplink transmission resources by the WTRU; monitoring a downlink control channel; detecting that a transmission on the downlink control channel is intended for the WTRU based on a WTRU identifier indicated in the transmission on the downlink control channel, wherein the transmission on the downlink control channel comprises a second allocation, the second allocation being an allocation of an uplink shared channel; and transmitting data over the uplink shared channel in accordance with the second allocation.
A picture encoding method that encodes picture information for each block by generating prediction pictures from picture information of frames that have been previously encoded, the method comprising: a motion vector selection step that selects a motion vector from a plurality of motion vectors that have been obtained at the time of encoding another picture and that have been stored in advance using information on a layer to which a frame to be encoded belongs; a prediction picture generation step that generates a prediction picture from a reference picture using the motion vector selected by the motion vector selection step; and a differential encoding step that encodes a difference between the picture information of a present block of the frame to be encoded and the prediction picture. a motion vector selection step that selects a motion vector from a plurality of motion vectors that have been obtained at the time of encoding another picture and that have been stored in advance using information on a layer to which a frame to be encoded belongs; a prediction picture generation step that generates a prediction picture from a reference picture using the motion vector selected by the motion vector selection step; and a differential encoding step that encodes a difference between the picture information of a present block of the frame to be encoded and the prediction picture.
A method of operating a steam compression apparatus comprising a compressor and a drive unit, the method comprising: operating the drive unit to drive the compressor so as to provide a superheated steam flow; characterized by cooling the drive unit with a liquid cooling medium, so that the cooling medium recovers thermal energy from the drive unit; and de-superheating the steam flow from the compressor by injecting the cooling medium into the steam flow downstream of the drive unit. operating the drive unit to drive the compressor so as to provide a superheated steam flow; characterized by cooling the drive unit with a liquid cooling medium, so that the cooling medium recovers thermal energy from the drive unit; and de-superheating the steam flow from the compressor by injecting the cooling medium into the steam flow downstream of the drive unit.
Stabilizer for operations on the heart, with a fastening shaft and a tissue contact component with two substantially parallel, elongated bearing elements (21, 21), which are provided on a base portion and are adapted to be arranged on two opposite sides of a blood vessel, such that at least a portion of the blood vessel extends through between the two bearing elements (21, 21), wherein the base portion of the tissue contact component is attached to one end of the fastening shaft, wherein at least one bearing element has a slit, which extends in the longitudinal direction of the bearing element at least over a portion of the same, wherein the slit passes right through the bearing element and is adapted to have a suction component of a suction device releasably arranged in it, and the fastening shaft has an axially extending channel, which extends at least over a portion of the fastening shaft and, in the area of that end of the fastening shaft to which the base portion is attached, is in connection with at least one connection channel that connects the axially extending channel to the surroundings, wherein the at least one connection channel is arranged radially or obliquely in the fastening shaft and is adapted to be releasably connected by way of a connection component of the suction device to a suction component of the suction device, which is arranged in a slit of the bearing element.
A humanized anti-IFN-α antibody, or an antigen-binding fragment thereof, that comprises the following VH CDR sequences: (a) a CDR H1 sequence consisting of SEQ ID NO: 15; (b) a CDR H2 sequence consisting of SEQ ID NO: 21; and (c) a CDR H3 sequence consisting of SEQ ID NO: 17; and further comprises the following VL CDR sequences: (d) a CDR L1 sequence consisting of SEQ ID NO: 18; (e) a CDR L2 sequence consisting of SEQ ID NO: 19; and (f) a CDR L3 sequence consisting of SEQ ID NO: 20. (a) a CDR H1 sequence consisting of SEQ ID NO: 15; (b) a CDR H2 sequence consisting of SEQ ID NO: 21; and (c) a CDR H3 sequence consisting of SEQ ID NO: 17; and further comprises the following VL CDR sequences: (d) a CDR L1 sequence consisting of SEQ ID NO: 18; (e) a CDR L2 sequence consisting of SEQ ID NO: 19; and (f) a CDR L3 sequence consisting of SEQ ID NO: 20.
An air conditioner comprising: a case comprising a suction part a discharging part disposed in the case to discharge air suctioned through the suction part; a discharge vane disposed at a side of the discharge part, the discharge vane being motionably provided to open or close the discharge part; and an ion generation device disposed inside the discharge vane to generate ions, wherein the ion generation device comprises: a main body comprising an electrode structure; a coupling part disposed on at least one surface of the main body, the coupling part being coupled to the case; and an ion discharge part disposed on the main body to discharge the ions generated when a high voltage is applied to the electrode structure, characterized in that the electrode structure comprises: a ceramic substrate; a discharge electrode disposed on one surface of the ceramic substrate, the discharge electrode comprising a discharge electrode part and at least one discharge tip; and a ground electrode disposed on the other surface of the ceramic substrate, the ground electrode comprising a ground electrode part, wherein the discharge electrode comprises a pattern frame on which a plurality of diagrams are disposed, the pattern frame comprises a closed external diagram and a closed internal diagram connected to the external diagram and disposed within the external diagram, and the discharge tip is disposed on each of the external and internal diagrams (152a, 152b). a ceramic substrate; a discharge electrode disposed on one surface of the ceramic substrate, the discharge electrode comprising a discharge electrode part and at least one discharge tip; and a ground electrode disposed on the other surface of the ceramic substrate, the ground electrode comprising a ground electrode part, wherein the discharge electrode comprises a pattern frame on which a plurality of diagrams are disposed, the pattern frame comprises a closed external diagram and a closed internal diagram connected to the external diagram and disposed within the external diagram, and the discharge tip is disposed on each of the external and internal diagrams (152a, 152b).
A modem device (800, 1200), comprising: a transceiver structure (802, 1202) configured to transmit and receive data; a service request receiver configured to receive a service request requesting a communication service using the transceiver structure (802, 1202); a profile generating circuit configured to generate a profile, the profile comprising information specifying a configuration of the transceiver structure (802, 1202), based on the received service request; and a memory (804, 1208) configured to store the profile; characterized in that: the profile comprises a static portion and a dynamic portion; the profile generating circuit is further configured to generate the dynamic portion of the profile, based on the received service request, and to read the static portion from the memory (804, 1208); and the modem device (800, 1200) is configured to delete the dynamic portion after the requested communication service has ended. a transceiver structure (802, 1202) configured to transmit and receive data; a service request receiver configured to receive a service request requesting a communication service using the transceiver structure (802, 1202); a profile generating circuit configured to generate a profile, the profile comprising information specifying a configuration of the transceiver structure (802, 1202), based on the received service request; and a memory (804, 1208) configured to store the profile; characterized in that: the profile comprises a static portion and a dynamic portion; the profile generating circuit is further configured to generate the dynamic portion of the profile, based on the received service request, and to read the static portion from the memory (804, 1208); and the modem device (800, 1200) is configured to delete the dynamic portion after the requested communication service has ended. the profile comprises a static portion and a dynamic portion; the profile generating circuit is further configured to generate the dynamic portion of the profile, based on the received service request, and to read the static portion from the memory (804, 1208); and the modem device (800, 1200) is configured to delete the dynamic portion after the requested communication service has ended.
A carbonator for carbonating a beverage in a beverage container, wherein the carbonator comprises a beverage container compartment that comprises a first portion and a second portion that is rotatably mounted to the first portion, characterized in that the first portion comprises a first groove and the second portion comprises a second groove, and in that the carbonator comprises a retaining ring that is adapted to be arranged in the grooves (80g, 20g) to rotatably mount the second portion to the first portion. the carbonator comprises a beverage container compartment that comprises a first portion and a second portion that is rotatably mounted to the first portion, characterized in that the first portion comprises a first groove and the second portion comprises a second groove, and in that the carbonator comprises a retaining ring that is adapted to be arranged in the grooves (80g, 20g) to rotatably mount the second portion to the first portion.
A terminal device in Evolved Universal Terrestrial Radio Access, EUTRA, Licensed-Assisted Access, LAA, configured to receive information for configuring reporting of a primary cell and one or more secondary cells to the terminal device, wherein the information comprises one reporting configuration identifier associated with each reporting configuration, and each reporting configuration comprises information indicating a report interval, a measurement RSSI duration and a first threshold and a second threshold which are associated with a Received Signal Strength Indicator, RSSI, report, and configured to periodically report a histogram representing the number of RSSI measurement values lower than the first threshold, the number of RSSI measurement values equal to or more than the first threshold and lower than the second threshold, and the number of RSSI measurement values equal to or more than the second threshold, as a measurement result, wherein when the actual measurement time is less than the measurement RSSI duration, the terminal device is configured to not report the RSSI in the histogram format. configured to receive information for configuring reporting of a primary cell and one or more secondary cells to the terminal device, wherein the information comprises one reporting configuration identifier associated with each reporting configuration, and each reporting configuration comprises information indicating a report interval, a measurement RSSI duration and a first threshold and a second threshold which are associated with a Received Signal Strength Indicator, RSSI, report, and configured to periodically report a histogram representing the number of RSSI measurement values lower than the first threshold, the number of RSSI measurement values equal to or more than the first threshold and lower than the second threshold, and the number of RSSI measurement values equal to or more than the second threshold, as a measurement result, wherein when the actual measurement time is less than the measurement RSSI duration, the terminal device is configured to not report the RSSI in the histogram format.
Element of a container, in particular of a waste container, comprising at least one tub, an analysis device which further comprises at least one sensor (51, 59, 63) configured for measuring the volume of a liquid in the tub of the container, said sensor being in particular an electronic component such as an electrical resistor, characterized in that the at least one sensor (51, 59, 61) is a linear resistor and/or a peripheral resistor, namely a resistor disposed so as to surround the interior of the tub, wherein the linear resistor extends from the border at the bottom of the tub towards the top of the tub and/or several peripheral resistors are disposed in a parallel manner in the tub.
Method for calibrating an infrared spectroscopy apparatus in order to produce spectra with a view to determining the concentration of a component C1 in a fluid F1 of an animal, said method being characterized in that it comprises the following steps: a) obtaining samples of said fluid F1 and of a fluid F2 other than the fluid F1 from each animal belonging to a group of representative animals, the fluid F2 containing detectable amounts of at least one component C2 which is a product or a direct or indirect coproduct of the metabolism of the component C1, b) measuring the concentration of the component C1 in the samples of fluid F1 by means of a reference method, and recording the obtained reference values in a memory of a central unit, c) producing the complete IR absorption spectrum of the sample of fluid F2 in the frequency range from 650 cm -1 to 4000 cm -1, and recording the obtained spectra values in a memory of a central unit, d) calculating the correlation coefficient at each wavelength of the absorption spectra obtained in c), between the absorption values of the samples of fluid F2 and the reference values of the component C1 and identifying the spectral ranges for which the absorption values are correlated with the reference values of the concentration of the component C1 in the samples of fluid F1, and e) calculating, on the basis of at least one of said spectral ranges of the absorption spectra of the samples of fluid F2, a predictive mathematical model of the concentration of the component C1 in the fluid F1. a) obtaining samples of said fluid F1 and of a fluid F2 other than the fluid F1 from each animal belonging to a group of representative animals, the fluid F2 containing detectable amounts of at least one component C2 which is a product or a direct or indirect coproduct of the metabolism of the component C1, b) measuring the concentration of the component C1 in the samples of fluid F1 by means of a reference method, and recording the obtained reference values in a memory of a central unit, c) producing the complete IR absorption spectrum of the sample of fluid F2 in the frequency range from 650 cm -1 to 4000 cm -1, and recording the obtained spectra values in a memory of a central unit, d) calculating the correlation coefficient at each wavelength of the absorption spectra obtained in c), between the absorption values of the samples of fluid F2 and the reference values of the component C1 and identifying the spectral ranges for which the absorption values are correlated with the reference values of the concentration of the component C1 in the samples of fluid F1, and e) calculating, on the basis of at least one of said spectral ranges of the absorption spectra of the samples of fluid F2, a predictive mathematical model of the concentration of the component C1 in the fluid F1.