mhurhangee/ep-ind-claims huggingface dataset:
An uplink multi-user multi-input multi-output establishment method performed by a network side device, comprising: broadcasting, an uplink data sending announcement, wherein the uplink data sending announcement includes a sending parameter which ensures different terminals simultaneously sending buffer information; simultaneously receiving the buffer information from different terminals that need to send data, wherein the buffer information comprises at least a sending level and a data sending length of to-be-sent data, wherein the sending level indicates an access priority of the to-be-sent data; selecting, from the different terminals that needs to send data, a terminal that is allowed to send data, and sending, to the terminal that is allowed to send data, a clear to send frame that carries the scheduling information for establishing uplink multi-user multi-input multi-output, wherein the scheduling information is determined according to the buffer information and indicates the terminal that is allowed to send data to send the to-be-sent data. broadcasting, an uplink data sending announcement, wherein the uplink data sending announcement includes a sending parameter which ensures different terminals simultaneously sending buffer information; simultaneously receiving the buffer information from different terminals that need to send data, wherein the buffer information comprises at least a sending level and a data sending length of to-be-sent data, wherein the sending level indicates an access priority of the to-be-sent data; selecting, from the different terminals that needs to send data, a terminal that is allowed to send data, and sending, to the terminal that is allowed to send data, a clear to send frame that carries the scheduling information for establishing uplink multi-user multi-input multi-output, wherein the scheduling information is determined according to the buffer information and indicates the terminal that is allowed to send data to send the to-be-sent data.
A lighting strip system for lamps, which has at least one U-shaped support rail as well as power supply and/or signal lines running within the support rail in the longitudinal direction for supplying power as well as, if applicable, for the transmission of control commands for the lamps, and which has at least one lamp connectable to the support rail, wherein the lamp has a support element to be arranged on the support rail for holding light sources, characterized in that the light sources are formed by LEDs, wherein the support element has a plurality of light-emission openings, in which in each case at least one LED or a light-guiding element to be assigned to the LED are arranged.
An impeller comprising: an impeller body that is formed of a resin, forms a disk-like shape, and rotates about a rotation center axis together with a rotating shaft; a plurality of blades provided on a front surface side of the impeller body; and a reinforcing ring that is formed on a back surface of the impeller body is formed of a resin and reinforcing fibers, and forms an annular shape in a circumferential direction of the impeller body, characterized in that the reinforcing ring is fitted to contact a fitting surface of a step section from the outer peripheral side, the step section having the fitting surface facing an outer peripheral side, the step section splits the back surface into a first back surface located on a radial outer side and a second back surface located on a radial inner side, and the fitting surface is disposed between the first back surface and the second back surface, and the second back surface is inclined so as to approach one side of the rotation center axis opposed to a suction port as the second back surface is closer to the radial inner side, while being curved in a concave shape to the other side. an impeller body that is formed of a resin, forms a disk-like shape, and rotates about a rotation center axis together with a rotating shaft; a plurality of blades provided on a front surface side of the impeller body; and a reinforcing ring that is formed on a back surface of the impeller body is formed of a resin and reinforcing fibers, and forms an annular shape in a circumferential direction of the impeller body, characterized in that the reinforcing ring is fitted to contact a fitting surface of a step section from the outer peripheral side, the step section having the fitting surface facing an outer peripheral side, the step section splits the back surface into a first back surface located on a radial outer side and a second back surface located on a radial inner side, and the fitting surface is disposed between the first back surface and the second back surface, and the second back surface is inclined so as to approach one side of the rotation center axis opposed to a suction port as the second back surface is closer to the radial inner side, while being curved in a concave shape to the other side.
A method of creating a weld between a liner (105a, 105b) within a metal host pipe of a section of lined pipe (103a, 103b) and an electrofusion fitting (101, 201, 301, 401) comprising at least one heating element (107a, 107b, 207a, 207b, 307a, 307b, 407a, 407b), the method comprising locating an end of the electrofusion fitting (101, 201, 301, 401) within an end of the section of lined pipe (103a, 103b), locating an induction coil within a bore of the electrofusion fitting (101, 201, 301, 401) in the vicinity of the at least one heating element (107a, 107b, 207a, 207b, 307a, 307b, 407a, 407b), and supplying electrical power to the induction coil to energise the at least one heating element (107a, 107b, 207a, 207b, 307a, 307b, 407a, 407b) by electromagnetic induction.
A method, implemented by a processing device, comprising: identifying, based on a reference image, a full motion range of a target, wherein the full motion range of the target defines a full internal target volume; identifying a non-target object in a motion image or the reference image; performing a volumetric alignment of the ITV and the non-target object; modifying a non-target to target displacement vector based on the volumetric alignment; and tracking the target based on the modified non-target to target displacement vector. identifying, based on a reference image, a full motion range of a target, wherein the full motion range of the target defines a full internal target volume; identifying a non-target object in a motion image or the reference image; performing a volumetric alignment of the ITV and the non-target object; modifying a non-target to target displacement vector based on the volumetric alignment; and tracking the target based on the modified non-target to target displacement vector.
Cooking pot with at least one handle structure, wherein the cooking pot comprises a bottom wall and an upright side wall with an outer side; the at least one handle structure is arranged against the outer side of the upright side wall; the at least one handle structure comprises a gripping part configured to be grippable by a user; characterized in that the at least one handle structure comprises a phase-change material. the cooking pot comprises a bottom wall and an upright side wall with an outer side; the at least one handle structure is arranged against the outer side of the upright side wall; the at least one handle structure comprises a gripping part configured to be grippable by a user; characterized in that the at least one handle structure comprises a phase-change material.
Method for designing at least one addendum of a tool for deep drawing of a component, in particular a sheet metal formed part, having a predefined component geometry, said tool comprising a die, a binder and a punch, whereby the binder is, in application of the tool, used to fix the sheet metal in an edge zone of the die, during the sheet metal is pressed in a drawing direction by the means of the punch into the die, wherein the at least one addendum complements the predefined component geometry along a component edge, characterized by generating a binder surface based on the predefined component geometry, determining initial directions of sectional profiles arranged on the edge of the component by adapting the direction of the sectional profiles to the course of the component geometry, avoiding overlapping of the sectional profiles, the sectional profiles having initial directions and being distanced from one another such that the sectional profiles are arranged along the edge of the component and interconnect the component geometry and the binder surface; parametrising the sectional profiles by profile parameters and of a single type of geometry; and creating a geometry of the at least one addendum by connecting the sectional profiles.
A method of wireless communication by a user equipment, UE, the method comprising: receiving, from a base station, a plurality of repeated physical downlink control channel, PDCCH, candidates for a single random access message 2 during a random access response window, RAR, wherein the RAR window includes a first portion for a legacy procedure without PDCCH repetition for message 2, and a second portion configured for a random access procedure using PDCCH repetition with soft combination over a number of consecutive slots, and wherein each respective repeated PDCCH candidate of the plurality of repeated PDCCH candidates is located within a respective random access search space portion of a control resource set, CORESET, of a respective slot of the number of consecutive slots during the RAR window; transmitting a random access message 3 on resources indicated by the random access message 2, wherein the resources for the random access message 3 are time shifted by an offset based on a strongest of the plurality of repeated PDCCH candidates; and receiving a random access message 4 that is transmitted using a beam selected by the base station based on the offset. receiving, from a base station, a plurality of repeated physical downlink control channel, PDCCH, candidates for a single random access message 2 during a random access response window, RAR, wherein the RAR window includes a first portion for a legacy procedure without PDCCH repetition for message 2, and a second portion configured for a random access procedure using PDCCH repetition with soft combination over a number of consecutive slots, and wherein each respective repeated PDCCH candidate of the plurality of repeated PDCCH candidates is located within a respective random access search space portion of a control resource set, CORESET, of a respective slot of the number of consecutive slots during the RAR window; transmitting a random access message 3 on resources indicated by the random access message 2, wherein the resources for the random access message 3 are time shifted by an offset based on a strongest of the plurality of repeated PDCCH candidates; and receiving a random access message 4 that is transmitted using a beam selected by the base station based on the offset.
An image printing apparatus for printing an image on a print medium by using a plurality of color materials including at least cyan, magenta, and light blue, wherein the color materials of cyan, magenta and light blue satisfy ΔL B ≥ ΔL C − ΔL B > 0 and ΔL B ≥ ΔL M − ΔL B > 0 where ΔL C represents a difference between lightness of the image printed on the print medium with the color material of cyan and lightness of a blank area in the print medium, ΔL M represents a difference between lightness of the image printed on the print medium with the color material of magenta and lightness of the blank area in the print medium, and ΔL B represents a difference between lightness of the image printed on the print medium with the color material of light blue and lightness of the blank area in the print medium; ΔL C < ΔL M and h C + M < h B ≤ h M − h M − h C + M / 2, or ΔL C > ΔL M and h C + h C + M − h C / 2 ≤ h B < h C + M where hc represents a hue angle of color of the image printed on the print medium with the color material of cyan on an a*b* plane, h M represents a hue angle of color of the image printed on the print medium with the color material of magenta on an a*b* plane, h (C+M) represents a hue angle of color of the image printed on the print medium with the color material of cyan and the color material of magenta in the same amount on an a*b* plane, and h B represents a hue angle of color of the image printed on the print medium with the color material of light blue on an a*b* plane. the color materials of cyan, magenta and light blue satisfy ΔL B ≥ ΔL C − ΔL B > 0 and ΔL B ≥ ΔL M − ΔL B > 0 where ΔL C represents a difference between lightness of the image printed on the print medium with the color material of cyan and lightness of a blank area in the print medium, ΔL M represents a difference between lightness of the image printed on the print medium with the color material of magenta and lightness of the blank area in the print medium, and ΔL B represents a difference between lightness of the image printed on the print medium with the color material of light blue and lightness of the blank area in the print medium; ΔL C < ΔL M and h C + M < h B ≤ h M − h M − h C + M / 2, or ΔL C > ΔL M and h C + h C + M − h C / 2 ≤ h B < h C + M where hc represents a hue angle of color of the image printed on the print medium with the color material of cyan on an a*b* plane, h M represents a hue angle of color of the image printed on the print medium with the color material of magenta on an a*b* plane, h (C+M) represents a hue angle of color of the image printed on the print medium with the color material of cyan and the color material of magenta in the same amount on an a*b* plane, and h B represents a hue angle of color of the image printed on the print medium with the color material of light blue on an a*b* plane.
A method for controlling access information of a wireless network by an electronic device, the method comprising the steps of: transmitting, to the wireless network through a modem connected with the electronic device, information on the modem and information on the electronic device to register the modem in the wireless network; obtaining wireless network access information for accessing the wireless network from the wireless network through the modem; and storing the wireless network access information in the modem. transmitting, to the wireless network through a modem connected with the electronic device, information on the modem and information on the electronic device to register the modem in the wireless network; obtaining wireless network access information for accessing the wireless network from the wireless network through the modem; and storing the wireless network access information in the modem.
A system comprising: converter circuitry to convert incoming three-phase power to DC power; inverter circuitry to convert the DC power to three-phase controlled frequency AC power to drive a motor; control circuitry coupled to the inverter circuitry and configured to apply control signals to the inverter circuitry for conversion of the DC power to the controlled frequency AC power; and communications circuitry (34; 58) comprising a bandwidth manager and coupled for data communication between the control circuitry and a plurality of peripheral devices including at least the inverter circuitry, wherein the bandwidth manager of the communications circuitry (34; 58) implements a communications protocol having a plurality of data transfer schemes (66; 86; 88) each having different respective data transfer intervals and data allocations; the system characterized in that the bandwidth manager of the communications circuitry (34; 58) is configured to select the data transfer scheme based upon the capabilities of each peripheral device. converter circuitry to convert incoming three-phase power to DC power; inverter circuitry to convert the DC power to three-phase controlled frequency AC power to drive a motor; control circuitry coupled to the inverter circuitry and configured to apply control signals to the inverter circuitry for conversion of the DC power to the controlled frequency AC power; and communications circuitry (34; 58) comprising a bandwidth manager and coupled for data communication between the control circuitry and a plurality of peripheral devices including at least the inverter circuitry, wherein the bandwidth manager of the communications circuitry (34; 58) implements a communications protocol having a plurality of data transfer schemes (66; 86; 88) each having different respective data transfer intervals and data allocations; the system characterized in that the bandwidth manager of the communications circuitry (34; 58) is configured to select the data transfer scheme based upon the capabilities of each peripheral device.
A retrievable vascular filter, comprising: a filter structure configured to trap embolic matter in a vascular vessel; a retrieval structure connected to the filter structure, for retrieval of the vascular filter from the vessel; a first echogenic marker on the filter; and a second echogenic marker on the filter; characterised in that the first and second echogenic markers are longitudinally spaced a distance (d) from one another to enable visualization with an intravascular ultrasound probe, and wherein said distance is greater than 3mm; wherein the first and second echogenic markers are operable to generate discrete, spaced ultrasound images of the first and second echogenic markers demarking a retrieval structure capture zone between the first and second echogenic markers; and wherein the distance is sufficient to enable the intravascular ultrasound probe to be positioned between the first echogenic marker and the second echogenic marker at a location where neither the first echogenic marker nor the second echogenic marker is visually observed with the intravascular ultrasound probe. a filter structure configured to trap embolic matter in a vascular vessel; a retrieval structure connected to the filter structure, for retrieval of the vascular filter from the vessel; a first echogenic marker on the filter; and a second echogenic marker on the filter; characterised in that the first and second echogenic markers are longitudinally spaced a distance (d) from one another to enable visualization with an intravascular ultrasound probe, and wherein said distance is greater than 3mm; wherein the first and second echogenic markers are operable to generate discrete, spaced ultrasound images of the first and second echogenic markers demarking a retrieval structure capture zone between the first and second echogenic markers; and wherein the distance is sufficient to enable the intravascular ultrasound probe to be positioned between the first echogenic marker and the second echogenic marker at a location where neither the first echogenic marker nor the second echogenic marker is visually observed with the intravascular ultrasound probe.
An immunogenic, pharmaceutical composition comprising: (a) (i) an immunogenic fragment of an HSV-2 polypeptide which is an immunogenic fragment of at least 100 amino acids of UL19 polypeptide comprising residues 451-1054 of SEQ ID NO:4, and lacking at least 75% of amino acids 1-450 of SEQ ID NO:4 and lacking at least 75% of amino acids of 1055-1374 of SEQ ID NO:4; or an immunogenic variant thereof that retains at least 85% amino acid identity over at least 100 contiguous amino acids; (ii) an HSV-2 UL25 protein or an immunogenic fragment thereof; and (iii) an HSV-2 gD2 protein or an immunogenic fragment thereof; (b) a monoacid lipid A (MALA) adjuvant; and (c) a pharmaceutically acceptable carrier. (a) (i) an immunogenic fragment of an HSV-2 polypeptide which is an immunogenic fragment of at least 100 amino acids of UL19 polypeptide comprising residues 451-1054 of SEQ ID NO:4, and lacking at least 75% of amino acids 1-450 of SEQ ID NO:4 and lacking at least 75% of amino acids of 1055-1374 of SEQ ID NO:4; or an immunogenic variant thereof that retains at least 85% amino acid identity over at least 100 contiguous amino acids; (ii) an HSV-2 UL25 protein or an immunogenic fragment thereof; and (iii) an HSV-2 gD2 protein or an immunogenic fragment thereof; (i) an immunogenic fragment of an HSV-2 polypeptide which is an immunogenic fragment of at least 100 amino acids of UL19 polypeptide comprising residues 451-1054 of SEQ ID NO:4, and lacking at least 75% of amino acids 1-450 of SEQ ID NO:4 and lacking at least 75% of amino acids of 1055-1374 of SEQ ID NO:4; or an immunogenic variant thereof that retains at least 85% amino acid identity over at least 100 contiguous amino acids; (ii) an HSV-2 UL25 protein or an immunogenic fragment thereof; and (iii) an HSV-2 gD2 protein or an immunogenic fragment thereof; (b) a monoacid lipid A (MALA) adjuvant; and (c) a pharmaceutically acceptable carrier.
A purification process for obtaining a composition comprising a live virus, comprising: separating an aqueous fluid comprising the live virus on a size separation chromatography column, detecting by quantitative polymerase chain reaction (qPCR) one or more nucleic acid sequences found in the live virus in at least one fraction of the eluate from said size separation column; collecting at least one positive fraction of the eluate from said size separation column containing the one or more nucleic acid sequences found in the live virus; pooling the at least one positive fraction; separating the pooled at least one positive fraction on an anion exchange chromatography column which does not significantly bind to the virus, and collecting in at least one positive fraction of the flow-through eluate from said anion exchange chromatography column containing the live virus wherein the virus is PVS-RIPO, and wherein purification process does not include a step that utilizes as virus-binding CDM resin. separating an aqueous fluid comprising the live virus on a size separation chromatography column, detecting by quantitative polymerase chain reaction (qPCR) one or more nucleic acid sequences found in the live virus in at least one fraction of the eluate from said size separation column; collecting at least one positive fraction of the eluate from said size separation column containing the one or more nucleic acid sequences found in the live virus; pooling the at least one positive fraction; separating the pooled at least one positive fraction on an anion exchange chromatography column which does not significantly bind to the virus, and collecting in at least one positive fraction of the flow-through eluate from said anion exchange chromatography column containing the live virus wherein the virus is PVS-RIPO, and wherein purification process does not include a step that utilizes as virus-binding CDM resin.