mhurhangee/ep-ind-claims huggingface dataset:
Terminal point (106_1) of a communication system, wherein the communication system wirelessly communicates in a frequency band used for communication by a plurality of communication systems, wherein the terminal point (106_1) is configured to receive a signal, wherein the signal comprises information about a network-specific channel access pattern, wherein the network-specific channel access pattern indicates a frequency hop-based and time hop-based occupancy of resources of the frequency band that is usable for the communication of the communication system, wherein the terminal point (106_1) is configured to transfer data by using a relative channel access pattern, wherein the relative channel access pattern indicates, from the usable frequency hop-based and time hop-based occupancy of resources of the network-specific channel access pattern, an occupancy of resources that is to be used for the transfer, wherein the information describes a state of a numerical sequence generator for generating a numerical sequence, or wherein the information describes a number (143_1, 143_2) of a numerical sequence, wherein the numerical sequence determines the channel access pattern, wherein the occupancy of resources of the relative channel access pattern that is to be used for the transfer is a subset of the usable frequency hop-based and time hop-based occupancy of resources of the network-specific channel access pattern. wherein the communication system wirelessly communicates in a frequency band used for communication by a plurality of communication systems, wherein the terminal point (106_1) is configured to receive a signal, wherein the signal comprises information about a network-specific channel access pattern, wherein the network-specific channel access pattern indicates a frequency hop-based and time hop-based occupancy of resources of the frequency band that is usable for the communication of the communication system, wherein the terminal point (106_1) is configured to transfer data by using a relative channel access pattern, wherein the relative channel access pattern indicates, from the usable frequency hop-based and time hop-based occupancy of resources of the network-specific channel access pattern, an occupancy of resources that is to be used for the transfer, wherein the information describes a state of a numerical sequence generator for generating a numerical sequence, or wherein the information describes a number (143_1, 143_2) of a numerical sequence, wherein the numerical sequence determines the channel access pattern, wherein the occupancy of resources of the relative channel access pattern that is to be used for the transfer is a subset of the usable frequency hop-based and time hop-based occupancy of resources of the network-specific channel access pattern.
An acoustic impedance sensor designed to measure the input acoustic impedance of a waveguide, the said sensor comprising a source coupled to the waveguide by means of an open cavity, called the forward cavity, delimited by the said source and opening onto the said waveguide, and a cavity, called the rear cavity, closed by the said source, the acoustic pressure in each cavity being measured by a microphone (M1, M2), the said sensor is characterised in that the said source is a piezoelectric wafer mounted between the rear cavity which has the form of a straight cylinder, and the forward cavity which has the form of a straight cylinder, the height of the forward cavity and the height of the rear cavity being respectively less than a quarter and less than half the length of the excitation wave emitted by the said piezoelectric wafer and the diameters (d1 and d2) of the two cavities (CAV1 and CAV2) being less than half said wavelength.
A sunlight shielding apparatus comprising: a sunlight shielding material suspended from a head box; a bottom rail disposed at a bottom edge of the sunlight shielding material; a lift cord hung from the head box and configured to support the bottom rail; lift means configured to raise or lower the bottom rail by changing a length of the lift cord between the head box and the bottom rail from the head box side; regulation means configured to regulate a lower-limit position of the bottom rail; and an adjusting apparatus disposed in the bottom rail and configured to adjust the lower-limit position of the bottom rail by changing the amount of the lift cord pulled into the bottom rail in accordance with rotation of a rotating member, wherein the adjusting apparatus comprises: a holding member configured to hold the lift cord; the rotating member relatively rotatably attached to the holding member; and a rotation operation part configured to rotate the rotating member, and the holding member has a first cord housing groove configured to house the lift cord, and wherein the bottom rail has a through hole in a surface having the holding member disposed thereon, said sunlight shielding apparatus being characterized in that the rotating member is attached to the holding member through said through hole. a sunlight shielding material suspended from a head box; a bottom rail disposed at a bottom edge of the sunlight shielding material; a lift cord hung from the head box and configured to support the bottom rail; lift means configured to raise or lower the bottom rail by changing a length of the lift cord between the head box and the bottom rail from the head box side; regulation means configured to regulate a lower-limit position of the bottom rail; and an adjusting apparatus disposed in the bottom rail and configured to adjust the lower-limit position of the bottom rail by changing the amount of the lift cord pulled into the bottom rail in accordance with rotation of a rotating member, wherein the adjusting apparatus comprises: a holding member configured to hold the lift cord; the rotating member relatively rotatably attached to the holding member; and a rotation operation part configured to rotate the rotating member, and a holding member configured to hold the lift cord; the rotating member relatively rotatably attached to the holding member; and a rotation operation part configured to rotate the rotating member, and the holding member has a first cord housing groove configured to house the lift cord, and wherein the bottom rail has a through hole in a surface having the holding member disposed thereon, said sunlight shielding apparatus being characterized in that the rotating member is attached to the holding member through said through hole.
Infrared radiation fire detector, comprising a curved support surface and a plurality of infrared radiation sensors arranged on the support surface, wherein each sensor comprises a planar array of infrared radiation-sensitive elements, having a respective sight direction and a solid angle of view (β) defined around the sight direction, which define a field of view associated to the sensor, wherein the sight directions of the sensors intersect with one another at a central point and the sensors are spaced apart from one another by a given angular distance referred to the central point, the solid angles of view (β) of the sensors having a same narrow width so that the fields of view of the sensors are non-intersecting with one another, characterized in that the fire detector is configured to receive a plurality of sequential series of infrared radiation images of a space, each of said images comprising an array of pixels, each pixel having a value that is representative of a temperature; process successive images of said plurality of sequential series of images to determine a change of at least one thermal parameter (ΔT, k n) that meets predetermined alarm criteria; and detect an event in the space based on the determined change of the thermal parameter (ΔT, k n); wherein each sequential series of images is detected by a respective sensor of the fire detector.
A device for recovering thermal energy from a flow of wastewater from a tray, which device comprises: a. a plate heat exchanger traversed by two different fluid flows: ai. a first exchanger inlet, placed to communicate hydraulically with the waste water flow opening of the tray so as to create a first flow through said exchanger by gravity flow between that first inlet and a first outlet connected to the drain, wherein the exchanger acts as a trap in the flow; aii. a second exchanger inlet, placed to communicate hydraulically with a clean water pipe at the network pressure so as to create a second flow that passes through the exchanger without being mixed with the first flow, between said second inlet and a second outlet of said exchanger; b. connection means, adapted to make a hydraulic connection known as a short circuit connection, between the first exchanger inlet and the drain. c. characterized in that it comprises externally operated connection means (151, 141, 142, 111, 460, 465, 565) to make a temporary hydraulic connection between the supply of domestic cold water at the network pressure and the first exchanger outlet so as to create a flow (240, 540) of domestic cold water known as the cleaning flow, passing through the exchanger, between the supply of clean water and the drain. a. a plate heat exchanger traversed by two different fluid flows: ai. a first exchanger inlet, placed to communicate hydraulically with the waste water flow opening of the tray so as to create a first flow through said exchanger by gravity flow between that first inlet and a first outlet connected to the drain, wherein the exchanger acts as a trap in the flow; aii. a second exchanger inlet, placed to communicate hydraulically with a clean water pipe at the network pressure so as to create a second flow that passes through the exchanger without being mixed with the first flow, between said second inlet and a second outlet of said exchanger; ai. a first exchanger inlet, placed to communicate hydraulically with the waste water flow opening of the tray so as to create a first flow through said exchanger by gravity flow between that first inlet and a first outlet connected to the drain, wherein the exchanger acts as a trap in the flow; aii. a second exchanger inlet, placed to communicate hydraulically with a clean water pipe at the network pressure so as to create a second flow that passes through the exchanger without being mixed with the first flow, between said second inlet and a second outlet of said exchanger; b. connection means, adapted to make a hydraulic connection known as a short circuit connection, between the first exchanger inlet and the drain. c. characterized in that it comprises externally operated connection means (151, 141, 142, 111, 460, 465, 565) to make a temporary hydraulic connection between the supply of domestic cold water at the network pressure and the first exchanger outlet so as to create a flow (240, 540) of domestic cold water known as the cleaning flow, passing through the exchanger, between the supply of clean water and the drain.
A signal transmission method, comprising: obtaining, by a sending end, a frequency domain response of a fiber channel between the sending end and a receiving end, wherein the obtaining comprises: sending, by the sending end, a first test signal to the receiving end, where, after passing through the fiber channel, the first test signal arrives at the receiving end; receiving, by the sending end, the frequency domain response of the fiber channel from the receiving end, wherein the frequency domain response of the fiber channel is obtained by the receiving end according to the received first test signal; determining, by the sending end, a power fading point of the fiber channel according to the frequency domain response, where the power fading point indicates a subcarrier that encounters power decreasing; determining, by the sending end and according to the frequency of the power fading point, a subcarrier that is used to send a data service signal to the receiving end on the fiber channel, wherein a frequency of the determined subcarrier is different from that of the power fading point; and sending, by the sending end, a data service signal to the receiving end by using the determined subcarrier. obtaining, by a sending end, a frequency domain response of a fiber channel between the sending end and a receiving end, wherein the obtaining comprises: sending, by the sending end, a first test signal to the receiving end, where, after passing through the fiber channel, the first test signal arrives at the receiving end; receiving, by the sending end, the frequency domain response of the fiber channel from the receiving end, wherein the frequency domain response of the fiber channel is obtained by the receiving end according to the received first test signal; determining, by the sending end, a power fading point of the fiber channel according to the frequency domain response, where the power fading point indicates a subcarrier that encounters power decreasing; determining, by the sending end and according to the frequency of the power fading point, a subcarrier that is used to send a data service signal to the receiving end on the fiber channel, wherein a frequency of the determined subcarrier is different from that of the power fading point; and sending, by the sending end, a data service signal to the receiving end by using the determined subcarrier.
A glucagon-like peptide-2 (GLP-2) conjugate comprising native GLP-2 or its derivative and an immunoglobulin Fc fragment being covalently linked via a non-peptidyl polymer, wherein the native GLP-2 or its derivative has a thiol group introduced at its C-terminal end, and one end of the non-peptidyl polymer is linked to the thiol group of the GLP-2 or its derivative, wherein the derivative of GLP-2 is prepared by substitution, deletion, or modification of the N-terminal amine group of a native GLP-2 and has a function of binding to a GLP-2 receptor.
An enveloping body for at least partially recording a contour of a limb, wherein the enveloping body has a base body, wherein the enveloping body has at least one sensor that is configured to record measurement data which can be used to determine a distance and/or relative position between two points in or on the base body characterized in that the enveloping body is a prosthetic liner and the base body is made of a liner material.
A probe head of an NMR-MAS assembly comprising a MAS stator for receiving a MAS rotor, which can be set in rotation in a measuring position in which the cylinder axis of the MAS rotor is at the magic angle to a B 0 field of the NMR-MAS assembly, wherein the MAS stator has an opening for inserting a MAS rotor, wherein the MAS stator is arranged in the NMR-MAS probe head in such a way that it can be pivoted between the measuring position and a loading position, in which a MAS rotor can be inserted into the MAS stator, characterized in that the NMR-MAS probe head has a detection device which makes it possible to contactlessly identify from outside whether or not the MAS stator is currently fitted with a MAS rotor, in that the detection device has a light source, from which light can be introduced into a lower end (6") of a light guide, and in that the MAS stator has a first bore, in which a first light guide stump is positioned such that, in the loading position of the MAS stator, it produces an optical connection between a MAS rotor inserted in the MAS stator and an upper end of the light guide opposite the lower end (6").
An air outlet for the temperature control of a room, in particular of a laboratory, having a housing through which flow can pass and which has a length, a width and an air inflow cross-section and at least one air outflow cross-section, there being a connection piece for supplying feed air in a region of the air inflow cross-section, two mutually opposing side walls of the housing each being provided with at least one jet element through which individual feed air jets can be delivered turbulently into the room, there being at least one channel on an underside of the housing, which channel extends in the longitudinal direction of the housing and via which feed air can be delivered to the room, the underside of the housing being closed apart from the at least one channel, characterised in that the side walls of the housing which each have the at least one jet element are perforated, and the at least one channel is situated in an at least partially cylindrical element or in multiple at least partially cylindrical elements arranged in series, wherein the at least one channel is designed such that there is a change in direction as seen in the flow direction of the at least one channel, wherein the at least one element or the multiple elements in series are each mounted rotatably about its or their longitudinal axis, wherein at least one air-guiding element (21, 21' 21'') is arranged inside the housing.
A method performed by a user equipment operating in a mobile communication system that comprises equipment for serving a plurality of geographic cells (0,1, 2, 72, 73, 90) and having an air interface that is divided into sequentially occurring frames, wherein each of the frames consists of a plurality of sub-frames at least two of which are synchronization sub-frames, wherein for each of the cells (0,1, 2, 72, 73, 90) served by the mobile communication system, a respective one of a plurality of cell-related synchronization signals is transmitted to user equipments in the at least two synchronization signal sub-frames of every frame, characterized in that the method comprises: detecting a cell identity of a first cell in the mobile communication system; detecting a cell identity of a second cell in the mobile communication system; using a plurality of weights to control generation of a plurality of weighted handover measurements made from the first cell's synchronization signals received during a plurality of synchronization sub-frames, wherein the plurality of weights are applied to measurements made for the first cell during respective ones of the plurality of synchronization sub-frames, and wherein each of the weights is a function of the cell identity of the first cell, the cell identity of the second cell, and which ones of the first and second cells' (0, 90) cell-related synchronization signals are transmitted in the respective one of the plurality of synchronization sub-frames during which the weight is applied; generating a filtered handover measurement from the weighted handover measurements; and providing the filtered handover measurement to a handover process that uses the filtered handover measurement to control a handover process involving the user equipment. detecting a cell identity of a first cell in the mobile communication system; detecting a cell identity of a second cell in the mobile communication system; using a plurality of weights to control generation of a plurality of weighted handover measurements made from the first cell's synchronization signals received during a plurality of synchronization sub-frames, wherein the plurality of weights are applied to measurements made for the first cell during respective ones of the plurality of synchronization sub-frames, and wherein each of the weights is a function of the cell identity of the first cell, the cell identity of the second cell, and which ones of the first and second cells' (0, 90) cell-related synchronization signals are transmitted in the respective one of the plurality of synchronization sub-frames during which the weight is applied; generating a filtered handover measurement from the weighted handover measurements; and providing the filtered handover measurement to a handover process that uses the filtered handover measurement to control a handover process involving the user equipment.
An accumulating conveyor comprising at least two continuous conveying elements running parallel to each other and each movable along a conveying path, at least one of which is drivable with the aid of a drive, and at least one transport carriage for a conveyed item, the transport carriage contacting via at least one rotatable wheel element the continuous conveying elements and by which is movable along the parallel running conveying paths of the continuous conveying elements, and wherein the conveying paths in a side view of the accumulating conveyor each comprise an upper conveying portion and a lower conveying portion as well as two each curved detour portions interconnecting each conveying portions (7; 8), wherein in the region of at least one of the detour portions intervention means are provided which are arranged on a path which in a side view of the accumulating conveyor runs at least portionally in a constant spacing from the continuous conveying elements and with which the rotatable wheel element of the transport carriage on passing the corresponding detour portions comes into engagement, wherein input intervention means are provided only in the region of one of two detour portions running in parallel, characterized in that said input intervention means in the region of a first of two parallel running detour portions extend over a region which extends further in the direction of a middle of the accumulating conveyor than the region via which the input intervention means extend in the region of the second of the two detour portions running in parallel.
A computer-implemented method for use in a material decomposition procedure for application to a set of dual-energy CT projection data acquired over a CT scan period, the method comprising: obtaining an indication of a variation range of a defined X-ray source parameter over the course of the CT scan period; characterized in that the method further comprises: accessing a datastore storing one or more of sets of first lookup tables (LUTs), each first LUT defining a mapping from CT projection data values to corresponding material data values, and each respective set associated in the datastore with a particular variation range of the X-ray source parameter; performing a selection procedure comprising selecting a set of the LUTs in the datastore, wherein the selection is determined based on the obtained range for the X-ray source parameter; defining a linear combination of the first LUTs selected in the selection procedure, the weightings for each of the LUTs in the linear combination being dependent at least in part on instantaneous values of the X-ray source parameter over the scan period, the linear combination for application to the CT projection data set for performing a material decomposition procedure; generating a data output representative of the defined linear combination. accessing a datastore storing one or more of sets of first lookup tables (LUTs), each first LUT defining a mapping from CT projection data values to corresponding material data values, and each respective set associated in the datastore with a particular variation range of the X-ray source parameter; performing a selection procedure comprising selecting a set of the LUTs in the datastore, wherein the selection is determined based on the obtained range for the X-ray source parameter; defining a linear combination of the first LUTs selected in the selection procedure, the weightings for each of the LUTs in the linear combination being dependent at least in part on instantaneous values of the X-ray source parameter over the scan period, the linear combination for application to the CT projection data set for performing a material decomposition procedure; generating a data output representative of the defined linear combination.