mhurhangee/ep-ind-claims huggingface dataset:
A computer-readable storage medium having thereon computer-executable instructions that are structured such that, when executed by one or more processors of a computing system capable of communicating with each of the network nodes in a network cause the computing system to perform the following computer-implemented method using received flow information (400; 512) for each of a plurality of flows in the network, the flow information comprising performance information (402; 515) regarding the corresponding flow, wherein a flow is a set of network communications between any two given end nodes (201, 202. 203. 204) in the network, said network communications having sufficiently common characteristics that the network communications tend to follow the same path of consecutive communication links through a mesh of transit nodes, the common characteristics comprise the Internet Protocol, IP, protocol address and TCP port information for both the source end node and the destination end node of the network communications that are included in the flow: for each one of the plurality of flows for which flow information was received, an act of estimating one or more possible paths (701, 702, 703, 704) that network traffic that belongs to that flow at least likely flows through, wherein estimating the one or more paths comprises iteratively, starting from the source end node, querying transit nodes one at a time using the flow defining characteristics to ask where the node would forward communications having those characteristics and over which link; using the performance information to identify a subset of the plurality of flows that experience problems in performance; and identifying at least one candidate problem network entity that is common amongst the estimated paths of the subset of the plurality of flows that experience problems in performance, wherein the flow information for each of the plurality of flows is received from at least one of the end nodes of the corresponding flow. for each one of the plurality of flows for which flow information was received, an act of estimating one or more possible paths (701, 702, 703, 704) that network traffic that belongs to that flow at least likely flows through, wherein estimating the one or more paths comprises iteratively, starting from the source end node, querying transit nodes one at a time using the flow defining characteristics to ask where the node would forward communications having those characteristics and over which link; using the performance information to identify a subset of the plurality of flows that experience problems in performance; and identifying at least one candidate problem network entity that is common amongst the estimated paths of the subset of the plurality of flows that experience problems in performance, wherein the flow information for each of the plurality of flows is received from at least one of the end nodes of the corresponding flow.
A method of wireless communication at a user equipment, UE, served by a serving cell of a base station, comprising: receiving, from the serving cell, a configuration to perform layer 1, L1, measurements based on one or more reference signals from a non-serving cell; receiving the one or more reference signals from the non-serving cell; and performing the L1 measurements on the one or more reference signals received from the non-serving cell based on the configuration received from the base station, wherein the UE determines to measure a serving cell synchronization signal block, SSB, without measuring a non-serving cell SSB when the UE receives a channel state information, CSI, resource configuration without an associated cell identifier. receiving, from the serving cell, a configuration to perform layer 1, L1, measurements based on one or more reference signals from a non-serving cell; receiving the one or more reference signals from the non-serving cell; and performing the L1 measurements on the one or more reference signals received from the non-serving cell based on the configuration received from the base station,
An illumination optical apparatus for illuminating a pattern on a mask with illumination light, the illumination optical apparatus comprising: an optical integrator arranged in an optical path of the illumination light, the optical integrator being a fly's eye lens or micro fly's eye lens; and a polarization modulating member made of an optical material with optical activity, which is arranged in the optical path on an incidence side of the optical integrator, and which is arranged to change a polarization state of the illumination light, wherein: a thickness of the polarization modulating member in a direction of an optical axis of the illumination optical apparatus varies dependently with respect to azimuthal position about the optical axis, the polarization modulating member is configured to change the polarization state of the illumination light, being incident on the polarization modulating member in a linearly polarized state, so that a polarization direction of the illumination light in a region on a pupil plane of the illumination optical apparatus is substantially coincident with an azimuthal direction about the optical axis, the region being away from the optical axis; and the polarization modulating member is arranged so that a direction of an optic axis of the optical material is substantially coincident with a direction of the optical axis. an optical integrator arranged in an optical path of the illumination light, the optical integrator being a fly's eye lens or micro fly's eye lens; and a polarization modulating member made of an optical material with optical activity, which is arranged in the optical path on an incidence side of the optical integrator, and which is arranged to change a polarization state of the illumination light, wherein: a thickness of the polarization modulating member in a direction of an optical axis of the illumination optical apparatus varies dependently with respect to azimuthal position about the optical axis, the polarization modulating member is configured to change the polarization state of the illumination light, being incident on the polarization modulating member in a linearly polarized state, so that a polarization direction of the illumination light in a region on a pupil plane of the illumination optical apparatus is substantially coincident with an azimuthal direction about the optical axis, the region being away from the optical axis; and the polarization modulating member is arranged so that a direction of an optic axis of the optical material is substantially coincident with a direction of the optical axis.
An electrode array design having: (a) a semiconductor electrode array having a top surface and a plurality of electrodes, wherein each electrode of the plurality of electrodes is separately addressable, wherein each electrode of the plurality of electrodes has a top conducting surface that makes up a part of the top surface of the semiconductor electrode array, and wherein each electrode of the plurality of electrodes is surrounded by insulating material; (b) a continuous or discontinuous circumferential electrode that surrounds each electrode of the plurality of electrodes, wherein the circumferential electrode has a top conducting surface and an inner margin and an outer margin, wherein the inner margin borders with the insulating material that surrounds the electrode and the outer margin is surrounding by insulating material; and (c) a porous reaction layer formed from disaccharide arid monosaccharide material that adsorbs to the surface of the electrodes and contains free hydroxyl groups or free amine groups or sulfhydryl groups (or combinations thereof) for covalent molecular binding, wherein the porous reaction forms a layer over the electrodes. (a) a semiconductor electrode array having a top surface and a plurality of electrodes, wherein each electrode of the plurality of electrodes is separately addressable, wherein each electrode of the plurality of electrodes has a top conducting surface that makes up a part of the top surface of the semiconductor electrode array, and wherein each electrode of the plurality of electrodes is surrounded by insulating material; (b) a continuous or discontinuous circumferential electrode that surrounds each electrode of the plurality of electrodes, wherein the circumferential electrode has a top conducting surface and an inner margin and an outer margin, wherein the inner margin borders with the insulating material that surrounds the electrode and the outer margin is surrounding by insulating material; and (c) a porous reaction layer formed from disaccharide arid monosaccharide material that adsorbs to the surface of the electrodes and contains free hydroxyl groups or free amine groups or sulfhydryl groups (or combinations thereof) for covalent molecular binding, wherein the porous reaction forms a layer over the electrodes.
A thermoplastic polymer composition comprising: a starting base semi-crystalline polymer with a minimal crystalline content of 14% to 25% by weight of the polymer, and a plasticizing compound with a xanthene-based molecular structure in an amount up to 6000 ppm, preferably at 3000 ppm to 5000 ppm, dispersed therein, and said blended composition mixture having a crystalline phase, and an amorphous phase in a ratio range of 0-15:85-100, respectively when solid at ambient room temperature, wherein said plasticizing compound is dispersed within said amorphous phase; wherein said semi-crystalline polymer is a polyalkylcarboxylic acid; and wherein the crystalline content of the polyalkylcarboxylic acid is computed from the crystallinity index: X % = I c I t = ∫ i c ⁢ k 2 ⁢ dk ∫ i t ⁢ k 2 ⁢ dk where I c is the XRD intensity scattered from the crystalline portion of the material, It is the total XRD intensity and k is the scattering vector with a magnitude k=4πsinθ/λ (λ is the wavelength of the X-ray radiation and 6 is the scattering angle).
A compound of formula I, II, III, IV, V or VI: wherein: R 1 is absent; alternatively, R 1 is selected from: (CH 2) 2 O, (CH 2) 2 NH, (CH 2) 3 O, (CH 2) 3 NH, CH 2 C(=O)O, and CH 2 C(=O)NH; and, R 2 is selected from: (CH 2) 2 O, (CH 2) 2 NH, (CH 2) 3 O, (CH 2) 3 NH, CH 2 C(=O)O, CH 2 C(=O)NH, CH 2 OC(=O)O, CH 2 OC(=O)NH, CH 2 NHC(=O)O, and CH 2 NHC(=O)NH; or a pharmaceutically acceptable salt thereof. R 1 is absent; alternatively, R 1 is selected from: (CH 2) 2 O, (CH 2) 2 NH, (CH 2) 3 O, (CH 2) 3 NH, CH 2 C(=O)O, and CH 2 C(=O)NH; and, R 2 is selected from: (CH 2) 2 O, (CH 2) 2 NH, (CH 2) 3 O, (CH 2) 3 NH, CH 2 C(=O)O, CH 2 C(=O)NH, CH 2 OC(=O)O, CH 2 OC(=O)NH, CH 2 NHC(=O)O, and CH 2 NHC(=O)NH; or a pharmaceutically acceptable salt thereof.
A torque sensor for measuring a torque introduced into an upper shaft, wherein the upper shaft, which can be rotated around a longitudinal axis, can be connected to a lower shaft via a torsion rod, characterized in that the torque sensor has two components intermeshing in the longitudinal direction of the longitudinal axis, wherein a first component can be connected to the upper shaft and a second component can be connected to the lower shaft, and wherein the components (13,14) have surfaces protruding in the longitudinal direction, wherein the surfaces of one component (13,14) at least partially overlap associated surfaces of the other component (13,14) in the longitudinal direction, and wherein the torque sensor has at least one pair of sensors, wherein a pair of sensors has a sensor coil which can generate a high-frequency alternating magnetic field arranged on one of the surfaces protruding in the longitudinal direction of one component (13,14), and a metallic element arranged on one of the surfaces protruding in the longitudinal direction of the other component (13,14), and wherein a torque introduced into the upper shaft causes a change in the distance between the sensor coil and the metallic element, wherein the torque sensor comprises a device which is designed to measure a frequency change of the alternating magnetic field caused by the change in distance and to determine from this the torque introduced into the upper shaft.
A product tray comprising a front flap, two sides (1403a, 1403b, 1492), a back, a base and a product pusher, wherein the product pusher is formed from at least one length of elastically stretchable fabric or material, the length having two ends, the product pusher being arranged to apply a resilient bias force to the rear surface of products contained within the tray to push them towards the front of the tray, wherein the sides of the tray comprise inner boards (1403a, 1403b) and outer boards, and the length of fabric or material passes around front ends of the inner boards (1403a, 1403b) of the sides and is attached at or towards the ends of the length to the insides of the outer boards, wherein the outer boards are flaps integral to the front flap of the tray.
A method of distinguishing two tracked instruments, comprising: associating a first tracking device with a first instrument having a first operative portion; associating a second tracking device with a second instrument having a second operative portion, wherein the first operative portion is a first tapping portion and the second operative portion is a second tapping portion; operating a processor system configured for: determining a first tracking device characteristic of the first tracking device, determining a second tracking device characteristic of the second tracking device, and customizing a user interface to visually distinguish a first icon of the first operative portion representing the first instrument and a second icon of the second operative portion representing the second instrument; and operating a display device to display the customized user interface to visually distinguish the first icon and the second icon displayed on the display device. associating a first tracking device with a first instrument having a first operative portion; associating a second tracking device with a second instrument having a second operative portion, wherein the first operative portion is a first tapping portion and the second operative portion is a second tapping portion; operating a processor system configured for: determining a first tracking device characteristic of the first tracking device, determining a second tracking device characteristic of the second tracking device, and customizing a user interface to visually distinguish a first icon of the first operative portion representing the first instrument and a second icon of the second operative portion representing the second instrument; and determining a first tracking device characteristic of the first tracking device, determining a second tracking device characteristic of the second tracking device, and customizing a user interface to visually distinguish a first icon of the first operative portion representing the first instrument and a second icon of the second operative portion representing the second instrument; and operating a display device to display the customized user interface to visually distinguish the first icon and the second icon displayed on the display device.
A temperature system for independently controlling a temperature of each of bus bars (122a and 122b) to improve a thermal profile of a heater tube in a thermal oxidation rig, the temperature system comprising a pair of bus bars (122a, 112b), wherein each bus bar (122a, 122b) comprises: a heat sink adapted to being arranged proximate to a base of the bus bar that secures the bus bar to the thermal oxidation rig, a cooling element that interposes the heat sink and the base of the bus bar, a forced convection device, adapted and close to the heat sink, a thermocouple arranged at an end of the bus bar that is opposite the base and proximate to the heater tube, wherein the thermocouple measures the temperature of the bus bar, and a controller operable to independently control the cooling element and the forced convection device of the bus bar based on temperatures measured by the thermocouple. a heat sink adapted to being arranged proximate to a base of the bus bar that secures the bus bar to the thermal oxidation rig, a cooling element that interposes the heat sink and the base of the bus bar, a forced convection device, adapted and close to the heat sink, a thermocouple arranged at an end of the bus bar that is opposite the base and proximate to the heater tube, wherein the thermocouple measures the temperature of the bus bar, and a controller operable to independently control the cooling element and the forced convection device of the bus bar based on temperatures measured by the thermocouple.
Pressure sensor, having a sensor element for measuring a pressure, a chamber in which the sensor element is arranged, wherein the chamber is closed off from the outside, wherein the chamber is filled with a fluid medium which is designed to transmit a pressure, which is applied to the outside of the chamber, to the sensor element, and having a pressure-sensitive region and a compressible element (6, 7) for protecting the pressure-sensitive region against an overload, wherein the pressure-sensitive region is in the form of a region which bounds the chamber, wherein the distance of the compressible element (6, 7) from the pressure-sensitive region is less than or equal to 1000 μm.
Plastic operating means (1, 1') for vehicle production in a production line, having a abutment part (6, 6') which has a fastening portion for reversibly releasably fastening to a movable vehicle part or a raw body and is configured to hold the movable vehicle part in position relative to the raw body on which the movable vehicle part is arranged, the plastic operating means (1, 1') having an adjusting part (10, 10') which can be locked in various positions relative to the abutment part (6, 6') each position of the adjusting part (10, 10') relative to the abutment part (6, 6') defining (i) a specific position of the movable vehicle part relative to the raw body and/or (ii) a specific retaining force of the movable vehicle part in its position relative to the raw body, characterized in that a guide portion (28, 28') for the adjusting part (10, 10') is arranged on the abutment part (6, 6'), on which guide portion (28, 28') the adjusting part (10, 10') can be fixed in the various locking positions relative to the abutment part (6, 6') by means of a plurality of latchings formed at intervals from one another. (i) a specific position of the movable vehicle part relative to the raw body and/or (ii) a specific retaining force of the movable vehicle part in its position relative to the raw body,
A reduced-emission industrial burner, installable in a combustion chamber; the burner comprising at least: one first tubular discharge element, inside which there are at least one first feeding duct to feed a primary fuel flow configured to develop a flame root; at least one second feeding duct to feed a secondary fuel flow configured to develop a main flame; at least one third feeding duct to feed an oxidizer; the first tubular discharge element being configured to be flown through by the oxidizer and being provided with a first end, which is configured to be installed on the outside of the combustion chamber, and with a second end, which is opposite the first end and is configured to be installed inside the combustion chamber; the burner further comprising a second tubular discharge element extending from the second end, on the opposite side relative to the first end; and a suction element, which is configured to cause at least part of the gases present on the outside of the burner to flow into the second tubular discharge element and comprises at least one opening, which is arranged between the first and the second tubular discharge element and sucks the gases present on the outside of the burner due to a depression generated in the area of the suction element; characterised in that the burner further comprises a partition element for the oxidizer, which is configured to divide the oxidizer into a primary portion (OX') to be mixed with said primary flow and a secondary portion (OX") to be mixed with said secondary flow. the burner comprising at least: one first tubular discharge element, inside which there are at least one first feeding duct to feed a primary fuel flow configured to develop a flame root; at least one second feeding duct to feed a secondary fuel flow configured to develop a main flame; at least one third feeding duct to feed an oxidizer; the first tubular discharge element being configured to be flown through by the oxidizer and being provided with a first end, which is configured to be installed on the outside of the combustion chamber, and with a second end, which is opposite the first end and is configured to be installed inside the combustion chamber; the burner further comprising a second tubular discharge element extending from the second end, on the opposite side relative to the first end; and a suction element, which is configured to cause at least part of the gases present on the outside of the burner to flow into the second tubular discharge element and comprises at least one opening, which is arranged between the first and the second tubular discharge element and sucks the gases present on the outside of the burner due to a depression generated in the area of the suction element; characterised in that the burner further comprises a partition element for the oxidizer, which is configured to divide the oxidizer into a primary portion (OX') to be mixed with said primary flow and a secondary portion (OX") to be mixed with said secondary flow.
Method for operating a network-infrastructure-side network unit of a cell-based wireless communication network (CELL), the method comprising: - determining a validity period for cell-related occupancy information on the basis of a previously ascertained or determined average speed of movement of the roadside network units (UE1, UE2) that are in the cell; - forecasting the cell-related occupancy information, valid for the validity period, relating to sidelink resources of a sidelink channel in an unlicensed frequency range, the occupancy information comprising a probable occupancy of the sidelink resources by non-sidelink communication in the unlicensed frequency range; - receiving a scheduling request message for the sidelink channel from a roadside network unit on an uplink channel; - determining a scheduling grant message (G1; G2; G3) for the roadside network unit on the basis of the valid forecast cell-related occupancy information, the scheduling grant message (G1; G2; G3) comprising an allocation of at least one sidelink resource (PRB, MCS,...) of the sidelink channel to the roadside network unit; and - sending the scheduling grant message (G1; G2; G3) to the roadside network unit on a downlink channel. - determining a validity period for cell-related occupancy information on the basis of a previously ascertained or determined average speed of movement of the roadside network units (UE1, UE2) that are in the cell; - forecasting the cell-related occupancy information, valid for the validity period, relating to sidelink resources of a sidelink channel in an unlicensed frequency range, the occupancy information comprising a probable occupancy of the sidelink resources by non-sidelink communication in the unlicensed frequency range; - receiving a scheduling request message for the sidelink channel from a roadside network unit on an uplink channel; - determining a scheduling grant message (G1; G2; G3) for the roadside network unit on the basis of the valid forecast cell-related occupancy information, the scheduling grant message (G1; G2; G3) comprising an allocation of at least one sidelink resource (PRB, MCS,...) of the sidelink channel to the roadside network unit; and - sending the scheduling grant message (G1; G2; G3) to the roadside network unit on a downlink channel.