mhurhangee/ep-ind-claims huggingface dataset:
Non-therapeutic use of a cosmetic formulation comprising (a) particulates having an absorption in the range of 400 to 800nm selected from inorganic colour pigments selected from iron oxide; and (b) particulate organic UV-filter of formula for minimizing and/or masking the whitening effect of a sunscreen composition. (a) particulates having an absorption in the range of 400 to 800nm selected from inorganic colour pigments selected from iron oxide; and (b) particulate organic UV-filter of formula for minimizing and/or masking the whitening effect of a sunscreen composition.
Adhesive composition containing at least the following constituents: a) 3% to 20% by weight of at least one diene rubber; and b) 70% to 94% by weight of at least one organic solvent; and c) 1% to 7% by weight of at least one filler; and d) 0.1% to 2% by weight of at least one hydrocarbon resin and/or polyolefin; and e) 0.2% to 1.5% by weight of at least one activator, preferably a combination of zinc oxide and at least one fatty acid, in particular stearic acid; and f) at least one sulfur vulcanization system. a) 3% to 20% by weight of at least one diene rubber; and b) 70% to 94% by weight of at least one organic solvent; and c) 1% to 7% by weight of at least one filler; and d) 0.1% to 2% by weight of at least one hydrocarbon resin and/or polyolefin; and e) 0.2% to 1.5% by weight of at least one activator, preferably a combination of zinc oxide and at least one fatty acid, in particular stearic acid; and f) at least one sulfur vulcanization system.
Machine for processing printing material including a device for the safe operation of at least two components (2, 4, 17, 18) that are movable relative to one another and are driven by a respective drive motor (6, 7), wherein at least one control unit is provided to monitor the movement of the movable components (2, 4, 17, 18), characterized in that the control unit is equipped in such a way that upon a decrease of the distance between the movable components (2, 3, 17, 18), the movement of at least that movable component (2, 17, 18) that causes the decrease of the distance between the movable components (2, 4, 17, 18) is stopped.
A magnetic bearing assembly for a rotary machine, having a rotor circuit and a stator magnetic circuit secured to a stationary support element having at least one body of ferromagnetic material and at least one coil, both being fitted in a protective annular housing leaving uncovered a surface of revolution of said ferromagnetic body and a surface of revolution of said one coil facing a surface of revolution (16d, 16e) of the rotor circuit, the bearing assembly comprising at least one row of blades (30, 32) secured on the rotor circuit, the rotor circuit comprising an annular thrust collar having an axial portion secured to a rotor shaft and radially extending towards the stator magnetic circuit by a radial portion, said radial portion facing the uncovered surfaces of said ferromagnetic body and said one coil characterized in that the row of blades (30, 32) is secured to the annular thrust collar and extends radially from the annular thrust collar towards the stator magnetic circuit.
A self-diagnosis circuit configured to be coupled to a signal transmission path for a high-frequency signal and to diagnose a high-frequency circuit using a signal that propagates along the signal transmission path, the signal transmission path comprising a switch, the self-diagnosis circuit comprising: a detector configured to detect the high-frequency signal propagating along the signal transmission path from an output part toward an input part, the detector comprises a first pattern formed on the signal transmission path, a second pattern that is electromagnetically coupled to the first pattern and a detection element (31a, 31b); and a diagnosis unit configured to diagnose for an abnormality in a follower stage of the high-frequency circuit disposed between a coupling part of the self-diagnosis circuit with respect to the signal transmission path and the output part, in accordance with a detection result of the detector; wherein the switch is configured to establish a connected state or a disconnected state between an end part in the output part side of the first pattern and the signal transmission path, and wherein, if an abnormality is diagnosed in the follower stage of the high-frequency circuit, the diagnosis unit is configured to control the switch so as to establish the disconnected state between the end part in the output part side of the first pattern and the signal transmission path, to cause the first pattern to function as an antenna that radiates a high-frequency signal propagating along the signal transmission path; the detection element (31a, 31b) being configured to detect the high-frequency signal propagated from the first pattern to the second pattern. a detector configured to detect the high-frequency signal propagating along the signal transmission path from an output part toward an input part, the detector comprises a first pattern formed on the signal transmission path, a second pattern that is electromagnetically coupled to the first pattern and a detection element (31a, 31b); and a diagnosis unit configured to diagnose for an abnormality in a follower stage of the high-frequency circuit disposed between a coupling part of the self-diagnosis circuit with respect to the signal transmission path and the output part, in accordance with a detection result of the detector; wherein the switch is configured to establish a connected state or a disconnected state between an end part in the output part side of the first pattern and the signal transmission path, and wherein, if an abnormality is diagnosed in the follower stage of the high-frequency circuit, the diagnosis unit is configured to control the switch so as to establish the disconnected state between the end part in the output part side of the first pattern and the signal transmission path, to cause the first pattern to function as an antenna that radiates a high-frequency signal propagating along the signal transmission path; the detection element (31a, 31b) being configured to detect the high-frequency signal propagated from the first pattern to the second pattern.
A method for operating a serving base station in a wireless communication system, the method comprising: requesting, to a user equipment, UE, delay tolerance information of the UE in a radio resource control, RRC, connection state; and receiving, from the UE, the delay tolerance information in the RRC connection state as a response to the request; wherein the delay tolerance information indicates whether the UE is a delay tolerant UE, which allows a service delay, or not. requesting, to a user equipment, UE, delay tolerance information of the UE in a radio resource control, RRC, connection state; and receiving, from the UE, the delay tolerance information in the RRC connection state as a response to the request; wherein the delay tolerance information indicates whether the UE is a delay tolerant UE, which allows a service delay, or not.
A fitting, comprising: a main body component comprising an interior surface and an exterior surface, wherein the interior surface defines a cavity extending along an axis through the main body component, wherein the main body component further comprises a first segment having an axially inner portion, an axially intermediate portion and an axially outer portion, with the axially inner portion, axially intermediate portion and axially outer portion of the first segment being integrally formed and each comprising a respective interior radius (R2, R3, R4, R5) from the axis to the interior surface, wherein the interior surface extends at a first acute angle to the axis from a radially innermost point of the interior surface to an axially outer rim of the axially inner portion of the first segment of the main body component, wherein the main body component further comprises a second segment having a second segment axially inner portion, wherein the interior surface extends at a second acute angle to the axis from the radially innermost point of the interior surface to an axially outer rim of the second segment axially inner portion, wherein the first acute angle and the second acute angle are mirrored, wherein the axially outer portion comprises an axially outer rim extending radially inwardly from the interior surface of the main body component, wherein the axially outer rim comprises a radially inner edge having an axially inner edge and an axially outer edge, wherein the axially inner edge of the radially inner edge of the axially outer rim has an internal radius that is substantially the same as the interior radius (R3, R4) of the axially intermediate portion of the first segment of the main body component, wherein the internal radius of the axially inner edge of the radially inner edge of the axially outer rim is less than the internal radius of the axially outer edge of the radially inner edge of the axially outer rim, and wherein the first segment is configured to receive a piping element abutting the radially innermost point of the interior surface, wherein the received piping element has an outer diameter that is larger than an internal diameter of the radially innermost point of the interior surface.
Method for calculating GNSS corrections for transmission to a mobile, using a GNS signal correction system comprising a reference station and a system signal transmitter, wherein the method comprises: - acquiring at the reference station GNSS data comprising pseudo range system observations (Pr) and carrier phase system observations (Φr) from a plurality of GNSS satellites (26a-c) transmitted over multiple epochs; - applying the GNSS data received from the reference station to a dynamic system state model having the pseudo range system observations and carrier phase system observations as measurements; characterized by - dynamically estimating satellite-single-differenced floating value mixed code-and-phase system hardware delays (dr) for distinct carrier phase observations via the dynamic system state model, wherein each satellite-single-differenced floating value mixed code-and-phase system hardware delay is obtained from a mathematical operation between a satellite-single-differenced code system hardware delay and a satellite-single-differenced phase system hardware delay, and - transmitting the mixed code-and-phase system hardware delays to the mobile in real time via the system signal transmitter. - acquiring at the reference station GNSS data comprising pseudo range system observations (Pr) and carrier phase system observations (Φr) from a plurality of GNSS satellites (26a-c) transmitted over multiple epochs; - applying the GNSS data received from the reference station to a dynamic system state model having the pseudo range system observations and carrier phase system observations as measurements; - dynamically estimating satellite-single-differenced floating value mixed code-and-phase system hardware delays (dr) for distinct carrier phase observations via the dynamic system state model, wherein each satellite-single-differenced floating value mixed code-and-phase system hardware delay is obtained from a mathematical operation between a satellite-single-differenced code system hardware delay and a satellite-single-differenced phase system hardware delay, and - transmitting the mixed code-and-phase system hardware delays to the mobile in real time via the system signal transmitter.
Use of branched fatty alcohol-based compounds selected from the group of fatty alcohol alkoxylates:with 12-16 carbon atoms having a degree of branching of 1-3, with a degree of ethoxylation of up to 3 where the molecular formula is R-O- x y zH (l), wherein R is an alkyl or alkenyl group having 12-16 carbon atoms,:and where said alkyl or alkenyl group has a degree of branching of 1-3; PO is a propyleneoxy unit and EO is an ethyleneoxy unit; x is a number 0, y is a number 0-3 and z is a number 0, as secondary collectors for the froth flotation of non-sulfidic ores, in combination with a primary collector selected from the group of amphoteric and anionic surface active compounds.
A method for receiving and processing data of a radio link control layer, comprising: receiving a target radio link control, RLC, protocol data unit, PDU; and when a data field of the target RLC PDU merely comprises a segment of a complete RLC service data unit, SDU, processing the target RLC PDU or discarding the target RLC PDU according to a current operating state of a re-assembly timer corresponding to a value of a sequence number, SN, comprised in the target RLC PDU, wherein the target RLC PDU is one of a plurality of RLC PDUs, the plurality of RLC PDUs has SNs of a same value, and the plurality of RLC PDUs is capable of being re-assembled into the complete RLC SDU, and the current operating state is one of the following operating states: non-activated state, counting state and expired state; wherein the method further comprises: determining the re-assembly timer according to the value of the SN comprised in the target RLC PDU. receiving a target radio link control, RLC, protocol data unit, PDU; and when a data field of the target RLC PDU merely comprises a segment of a complete RLC service data unit, SDU, processing the target RLC PDU or discarding the target RLC PDU according to a current operating state of a re-assembly timer corresponding to a value of a sequence number, SN, comprised in the target RLC PDU, wherein the target RLC PDU is one of a plurality of RLC PDUs, the plurality of RLC PDUs has SNs of a same value, and the plurality of RLC PDUs is capable of being re-assembled into the complete RLC SDU, and the current operating state is one of the following operating states: non-activated state, counting state and expired state; wherein the method further comprises: determining the re-assembly timer according to the value of the SN comprised in the target RLC PDU.
Self-contained trolley for temperature conditioning and distribution of meal trays including two opposite meal tray stacks, a thermochemical system of the type including at least one reactor, containing a solid reactive material and at least one tank associated with an evaporator (27, 27a, 27b) which contains a liquefied gas wherein, when the reactor and the tank are placed in communication, the liquid gas contained in the tank is vaporised, which absorbs a certain quantity of heat, to the extent that cold production takes place on the evaporator side, and this gas is absorbed by the reactive material thus generating an exothermic absorption chemical reaction, to the extent that the reactor is the source of a release of heat, and wherein, once the reaction is complete, when the product contained in the reactor is heated, the gas absorbed by the reactive material is released and it is then condensed in the evaporator (27, 27a, 27b), characterised in that said trolley includes two compartments separated by an insulating wall, namely a compartment for heating, called the hot compartment, and a compartment for chilling, called the cold compartment, in that said meal trays are disposed so that a part of each meal tray is positioned in the hot compartment and the other part thereof is positioned in the cold compartment, in that the heating of the hot compartment and the chilling of the cold compartment are simultaneously obtained by means of said thermochemical system, in that the reactor and the evaporator (27, 27a, 27b) are disposed between said stacks, respectively in the hot compartment and in the cold compartment and in that the reactive material consists of a compacted mixture of manganese chloride and expanded natural graphite, and the gas consists of ammonia.
A method of wireless communication comprising: receiving, by a wireless communication device, an uplink data transmission grant associated with a channel of a shared radio frequency spectrum band that indicates a subframe in the shared radio frequency spectrum band for transmission; performing, by the wireless communication device, a channel readiness procedure associated with the channel; transmitting channel readiness information based at least in part on the channel readiness procedure to a base station, the channel readiness information being transmitted via an uplink channel of a licensed radio frequency spectrum band different from the shared radio frequency band; transmitting data via the channel in the indicated subframe concurrently with the transmission of the channel readiness information to the base station; and receiving a further uplink data transmission grant associated with the channel of the shared radio frequency spectrum band in response to the channel readiness information transmitted to the base station. receiving, by a wireless communication device, an uplink data transmission grant associated with a channel of a shared radio frequency spectrum band that indicates a subframe in the shared radio frequency spectrum band for transmission; performing, by the wireless communication device, a channel readiness procedure associated with the channel; transmitting channel readiness information based at least in part on the channel readiness procedure to a base station, the channel readiness information being transmitted via an uplink channel of a licensed radio frequency spectrum band different from the shared radio frequency band; transmitting data via the channel in the indicated subframe concurrently with the transmission of the channel readiness information to the base station; and receiving a further uplink data transmission grant associated with the channel of the shared radio frequency spectrum band in response to the channel readiness information transmitted to the base station.
Chromatography apparatus for expanded bed adsorption, comprising a column tube, and top and bottom end cells (2,4) which close off the column tube, defining between them an operating volume which in use contains a bed of adsorbent medium particles as stationary phase material; first and second process liquid conduits communicating into the operating volume for liquid to enter and leave the operating volume in use, including a process liquid inlet injection arrangement, and a top outlet opening in the top end cell as a process liquid outlet, wherein in use a process liquid runs up through the bed of particles in an expanded state thereof, characterised in that an outlet structure at the top outlet opening includes a vortex-inhibiting structure beneath the top outlet opening, the vortex-inhibiting structure comprising one or more divider, partition or slot-defining elements to divide flow entering the outlet opening and inhibit rotational movements around an outlet axis. a column tube, and top and bottom end cells (2,4) which close off the column tube, defining between them an operating volume which in use contains a bed of adsorbent medium particles as stationary phase material; first and second process liquid conduits communicating into the operating volume for liquid to enter and leave the operating volume in use, including a process liquid inlet injection arrangement, and a top outlet opening in the top end cell as a process liquid outlet, wherein in use a process liquid runs up through the bed of particles in an expanded state thereof, characterised in that an outlet structure at the top outlet opening includes a vortex-inhibiting structure beneath the top outlet opening, the vortex-inhibiting structure comprising one or more divider, partition or slot-defining elements to divide flow entering the outlet opening and inhibit rotational movements around an outlet axis.
A method for reducing motion judder in a 3D input source, comprising: separating the 3D input source into left and right images; calculating a first motion vector for the left image; calculating a second motion vector for the right image, wherein the second motion vector is calculated separately from the first motion vector; performing (208, 210) frame rate conversion on the left image and the right image, using the respective calculated motion vectors, to produce motion compensated left and right images; and reordering the left and right images and the motion compensated left and right images for display. separating the 3D input source into left and right images; calculating a first motion vector for the left image; calculating a second motion vector for the right image, wherein the second motion vector is calculated separately from the first motion vector; performing (208, 210) frame rate conversion on the left image and the right image, using the respective calculated motion vectors, to produce motion compensated left and right images; and reordering the left and right images and the motion compensated left and right images for display.
A method comprising: decimating, at a decimation ratio by a processing device, a reference video frame to generate a decimated reference video frame; generating, by the processing device executing an edge detector, a first edge map associated with the decimated reference video frame; applying, by the processing device, a Fourier transformation to the first edge map to generate a first frequency domain representation; decimating, at the decimation ratio by the processing device, an incoming video frame to generate a decimated incoming video frame; generating, by the processing device executing the edge detector, a second edge map associated with the decimated incoming video frame; applying, by the processing device, the Fourier transformation to the second edge map to generate a second frequency domain representation; calculating, by the processing device, an offset between the reference video frame and the video frame based on the first frequency domain representation of the first edge map and the second frequency domain representation of the second edge map; translating, by the processing device, locations of a plurality of pixels of the incoming video frame according to the calculated offset to align the incoming video frame with respect to the reference video frame; and transmitting, by the processing device, the aligned video frame to a downstream device. decimating, at a decimation ratio by a processing device, a reference video frame to generate a decimated reference video frame; generating, by the processing device executing an edge detector, a first edge map associated with the decimated reference video frame; applying, by the processing device, a Fourier transformation to the first edge map to generate a first frequency domain representation; decimating, at the decimation ratio by the processing device, an incoming video frame to generate a decimated incoming video frame; generating, by the processing device executing the edge detector, a second edge map associated with the decimated incoming video frame; applying, by the processing device, the Fourier transformation to the second edge map to generate a second frequency domain representation; calculating, by the processing device, an offset between the reference video frame and the video frame based on the first frequency domain representation of the first edge map and the second frequency domain representation of the second edge map; translating, by the processing device, locations of a plurality of pixels of the incoming video frame according to the calculated offset to align the incoming video frame with respect to the reference video frame; and transmitting, by the processing device, the aligned video frame to a downstream device.
Device for supplying coffee beans to a grinding unit, particularly for an automatic coffee machine, with at least one storage container, which is closable relative to the grinding unit by way of a closure element and from which coffee beans can be conveyed to the grinding unit when the closure element is open, with at least one shaft for coffee beans, which shaft leads directly to the grinding unit and is provided for reception of coffee beans for one or two brews, characterised in that at least two sensors (8, 9) for detection of different filling states of coffee beans are provided at the shaft.