mhurhangee/ep-ind-claims huggingface dataset:
Cosmetic cleansing preparation comprising a) sodium myreth sulfate; b) at least one amphoteric surfactant comprising a betaine group; c) denatonium benzoate; and d) at least one pearlescent particle selected from the group of PEG-3 distearate and glycol distearate characterized in that the cosmetic cleansing preparation • contains no sodium lauryl ether sulfate and • no polymers are present obtained from homo- or copolymerization with acrylic acid and/or methacrylic acid, and/or no polymers are present which are designated in accordance with the INCI name as polyquaternium-Z, where Z is an integer in the range of 1 to 100. a) sodium myreth sulfate; b) at least one amphoteric surfactant comprising a betaine group; c) denatonium benzoate; and d) at least one pearlescent particle selected from the group of PEG-3 distearate and glycol distearate • contains no sodium lauryl ether sulfate and • no polymers are present obtained from homo- or copolymerization with acrylic acid and/or methacrylic acid, and/or no polymers are present which are designated in accordance with the INCI name as polyquaternium-Z, where Z is an integer in the range of 1 to 100.
A method Performed by a network node of a wireless communication network for aligning discovery reference signal, DRS, occurrences, the method comprising: determining a first DRS occurrence configuration, the first DRS occurrence configuration comprising a schedule for transmission of a first series of DRS occurrences; determining a first discovery measurement timing configuration, DMTC, the first DMTC comprising a schedule for receiving DRS occurrences that is aligned with a first subset of DRS occurrences of the first series of DRS occurrences; determining a second DMTC, the second DMTC comprising a schedule for receiving DRS occurrences that is aligned with a second subset of DRS occurrences of the first series of DRS occurrences, wherein the second subset of DRS occurrences is different than the first subset of DRS occurrences; communicating the first DMTC to a first wireless device; communicating the second DMTC to a second wireless device; and determining a second DRS occurrence configuration, the second DRS occurrence configuration comprising a schedule for transmission of a second series of DRS occurrences, wherein the determined first DMTC comprises a schedule for receiving DRS occurrences that is aligned with a first subset of DRS occurrences of the second series of DRS occurrences. determining a first DRS occurrence configuration, the first DRS occurrence configuration comprising a schedule for transmission of a first series of DRS occurrences; determining a first discovery measurement timing configuration, DMTC, the first DMTC comprising a schedule for receiving DRS occurrences that is aligned with a first subset of DRS occurrences of the first series of DRS occurrences; determining a second DMTC, the second DMTC comprising a schedule for receiving DRS occurrences that is aligned with a second subset of DRS occurrences of the first series of DRS occurrences, wherein the second subset of DRS occurrences is different than the first subset of DRS occurrences; communicating the first DMTC to a first wireless device; communicating the second DMTC to a second wireless device; and determining a second DRS occurrence configuration, the second DRS occurrence configuration comprising a schedule for transmission of a second series of DRS occurrences, wherein the determined first DMTC comprises a schedule for receiving DRS occurrences that is aligned with a first subset of DRS occurrences of the second series of DRS occurrences.
vinyl ether compound represented by the following formula: wherein ring Z is a cyclic group represented by the following formula or: wherein X 7, and X 8 are each a substituent combined with an atom constituting each ring and are each a halogen atom, an alkyl group, a haloalkyl group, an aryl group, a hydroxyl group which may be protected by a protecting group, a hydroxymethyl group which may be protected by a protecting group, an amino group which may be protected by a protecting group, a carboxyl group which may be protected by a protecting group, a sulfo group which may be protected by a protecting group, an oxo group, a nitro group, a cyano group, or an acyl group which may be protected by a protecting group; g, and h are each an integer of 0 or more, wherein, when g or h is 2 or more, the substituents in the parentheses may be the same or different; W is a divalent hydrocarbon group; R 2, R 3, and R 4 are the same or different and are each a hydrogen atom or an organic group; n is 0 or 1; and m is an integer of from 1 to 8, wherein the groups in the parentheses may be the same or different when m is 2 or more.
A nasal mask interface assembly comprising: a seal housing (104, 204); a flexible nasal seal (102, 202) connected or connectable to the seal housing to define a mask cavity that is configured to, in use, receive at least a portion of the user's nose and a supply of breathable gas, the nasal seal (102, 202) extending between a face-contacting side and an outer side, and comprising: a contacting surface comprising an edge that defines a nose-receiving opening into the mask cavity and which is configured to seal about a user's nose; and an under-nose support (124, 224) fixedly connected within the nasal seal (102, 202), the under-nose support (124, 224)being configured to extend within the mask cavity and having a contact surface that is oriented to contact at least a portion of the under-nose surface of the user; headgear (52, 250) comprising single left and right side straps (54, 252) configured to extend over the user's ears; and a yoke (108, 208) configured to be releasably connected to the seal housing (104, 204), and comprising: a pair of opposing distal ends (144, 272) wherein each of the distal ends of the yoke (108, 208) is configured to connect to a respective end of one of the side straps (54, 252), such that the headgear (52, 250) is connected to the yoke (108, 208) to create a closed loop headgear system. a seal housing (104, 204); a flexible nasal seal (102, 202) connected or connectable to the seal housing to define a mask cavity that is configured to, in use, receive at least a portion of the user's nose and a supply of breathable gas, the nasal seal (102, 202) extending between a face-contacting side and an outer side, and comprising: a contacting surface comprising an edge that defines a nose-receiving opening into the mask cavity and which is configured to seal about a user's nose; and an under-nose support (124, 224) fixedly connected within the nasal seal (102, 202), the under-nose support (124, 224)being configured to extend within the mask cavity and having a contact surface that is oriented to contact at least a portion of the under-nose surface of the user; a contacting surface comprising an edge that defines a nose-receiving opening into the mask cavity and which is configured to seal about a user's nose; and an under-nose support (124, 224) fixedly connected within the nasal seal (102, 202), the under-nose support (124, 224)being configured to extend within the mask cavity and having a contact surface that is oriented to contact at least a portion of the under-nose surface of the user; headgear (52, 250) comprising single left and right side straps (54, 252) configured to extend over the user's ears; and a yoke (108, 208) configured to be releasably connected to the seal housing (104, 204), and comprising: a pair of opposing distal ends (144, 272) wherein each of the distal ends of the yoke (108, 208) is configured to connect to a respective end of one of the side straps (54, 252), such that the headgear (52, 250) is connected to the yoke (108, 208) to create a closed loop headgear system.
A stent delivery system comprising: an elongated inner member extending between a distal tip and a proximal end; a stent surrounding a stent receiving region of the elongated inner member, the stent having a collapsed configuration and an expanded configuration; an elongated outer sheath slidably disposed over the inner member, the outer sheath extending between a distal end and a proximal end, a stent sheath surrounding the stent to restrain the stent in the collapsed configuration; a proximal junction detachably coupling the distal end of the outer sheath to a proximal end of the stent sheath, the proximal junction being actuatable to selectively uncouple the distal end of the outer sheath from the proximal end of the stent sheath; a distal junction detachably coupling a distal end of the stent sheath to the distal tip of the inner member, the distal junction being actuatable to selectively uncouple the stent sheath from the distal tip; wherein the proximal junction is actuatable by rotating the inner member relative to the outer sheath in a first direction, and the distal junction is actuatable by rotating the inner member relative to the outer sheath in a second direction that is opposite the first direction; characterised by at least a first stent expanding element attached to at least one of the distal tip or the distal end of the outer sheath, the first stent expanding element having a radially retracted position and a radially elevated position. an elongated inner member extending between a distal tip and a proximal end; a stent surrounding a stent receiving region of the elongated inner member, the stent having a collapsed configuration and an expanded configuration; an elongated outer sheath slidably disposed over the inner member, the outer sheath extending between a distal end and a proximal end, a stent sheath surrounding the stent to restrain the stent in the collapsed configuration; a proximal junction detachably coupling the distal end of the outer sheath to a proximal end of the stent sheath, the proximal junction being actuatable to selectively uncouple the distal end of the outer sheath from the proximal end of the stent sheath; a distal junction detachably coupling a distal end of the stent sheath to the distal tip of the inner member, the distal junction being actuatable to selectively uncouple the stent sheath from the distal tip; wherein the proximal junction is actuatable by rotating the inner member relative to the outer sheath in a first direction, and the distal junction is actuatable by rotating the inner member relative to the outer sheath in a second direction that is opposite the first direction; characterised by at least a first stent expanding element attached to at least one of the distal tip or the distal end of the outer sheath, the first stent expanding element having a radially retracted position and a radially elevated position.
A relay communication method, wherein the method comprises: receiving, by a relay terminal, a first message (S601, S701, S801, S901, S1001, S1101, S1201) sent by an access network device, wherein the first message comprises configuration information of a first bearer; and configuring, by the relay terminal, an adaptation layer logical entity for the first bearer based on the first message, wherein the first bearer is a bearer between the relay terminal and the access network device, and the adaptation layer logical entity is used to distinguish between data of the relay terminal and data of a remote terminal or between data of different remote terminals, wherein the configuration information of the first bearer comprises a first bearer identifier and adaptation function configuration information; or the configuration information of the first bearer comprises a first bearer identifier and bearer release indication information; or the configuration information of the first bearer comprises a first bearer identifier and a bearer type, the bearer type is a relay bearer or a common bearer, the relay bearer is used to transmit the data of the remote terminal or is used to transmit the data of the remote terminal and the data of the relay terminal, and the common bearer is used to transmit the data of the relay terminal. receiving, by a relay terminal, a first message (S601, S701, S801, S901, S1001, S1101, S1201) sent by an access network device, wherein the first message comprises configuration information of a first bearer; and configuring, by the relay terminal, an adaptation layer logical entity for the first bearer based on the first message, wherein the first bearer is a bearer between the relay terminal and the access network device, and the adaptation layer logical entity is used to distinguish between data of the relay terminal and data of a remote terminal or between data of different remote terminals, wherein the configuration information of the first bearer comprises a first bearer identifier and adaptation function configuration information; or the configuration information of the first bearer comprises a first bearer identifier and bearer release indication information; or the configuration information of the first bearer comprises a first bearer identifier and a bearer type, the bearer type is a relay bearer or a common bearer, the relay bearer is used to transmit the data of the remote terminal or is used to transmit the data of the remote terminal and the data of the relay terminal, and the common bearer is used to transmit the data of the relay terminal.
A polymeric matting article comprising: a web of extruded polymer monofilaments, the polymer monofilaments being heat welded at junctions to form a matrix of tangled monofilament; and at least one pair of interlocking formations; wherein the web is configured to be foldable onto itself and secured in a folded position by engaging the pair of interlocking formations. a web of extruded polymer monofilaments, the polymer monofilaments being heat welded at junctions to form a matrix of tangled monofilament; and at least one pair of interlocking formations; wherein the web is configured to be foldable onto itself and secured in a folded position by engaging the pair of interlocking formations.
A medical lighting device for illuminating an operative field, which device comprises a plurality of light-emitting diode light sources that cooperate with collimator optical systems to cause light to converge on the operative field, said LEDs being mounted on a flat printed circuit board in such a manner that their illumination axes passing through the collimator optical systems have different angular orientations, said printed circuit board being cut out to form tongues, each of which is flexible about a respective bending axis, and each of which has a flexible free end carrying an LED, said medical lighting device being characterized in that said collimator optical systems are received in recesses in a rigid support structure, said recesses extending relative to one another in different axial directions that correspond to respective ones of said different angular orientations of said illumination axes, in that each flexible tongue carrying an LED that is associated with a collimator optical system received in a recess in said support structure extends in a certain axial direction that is coplanar with said illumination axis of said collimator optical system and is deformed under bending stress about said bending axis in such a manner that its flexible free end is oriented substantially perpendicularly to said illumination axis, and in that each flexible tongue is held, in the stressed deformed position, against the rigid support structure by screwing, adhesive bonding, thermoplastic staking, or by a catch on said support structure that locks by clipping onto the edge of said tongue.
A biometric information processing apparatus comprising: an auxiliary information extraction unit configured to extract auxiliary information representing the profile of a part of a body being captured together with biometric information from a plurality of images captured by an imaging unit; a trace unit configured to trace the auxiliary information in a time direction; a biometric information extraction unit configured to extract the biometric information from at least one image among the plurality of images; an association generation unit (111, 301) configured to associate the traced auxiliary information with the extracted biometric information in terms of a positional relationship; and an output unit configured to output the auxiliary information having been associated with the biometric information; wherein the trace unit replaces the auxiliary information positioned outside of an imaging range by an estimated value using a model of temporal change of the auxiliary information. an auxiliary information extraction unit configured to extract auxiliary information representing the profile of a part of a body being captured together with biometric information from a plurality of images captured by an imaging unit; a trace unit configured to trace the auxiliary information in a time direction; a biometric information extraction unit configured to extract the biometric information from at least one image among the plurality of images; an association generation unit (111, 301) configured to associate the traced auxiliary information with the extracted biometric information in terms of a positional relationship; and an output unit configured to output the auxiliary information having been associated with the biometric information; wherein the trace unit replaces the auxiliary information positioned outside of an imaging range by an estimated value using a model of temporal change of the auxiliary information.
Method of operating a radio node (10, 100) in a radio access network, the method comprising configuring a user equipment with a Downlink Control Information, DCI, message, the DCI message indicating a parametrisation pertaining to sounding reference signaling, SRS, to be transmitted by the user equipment and to communication signaling on a Physical Downlink Shared Channel, PDSCH, to be received by the user equipment; wherein the parametrisation indicates frequency resources for the SRS and frequency resources for the communication signaling, wherein the frequency resources for the SRS are distributed to cover a frequency range overlapping and/or coinciding with a frequency range associated to the frequency resources for the communication signaling, and wherein the DCI message for the SRS and the PDSCH is jointly encoded in one message.
Elevator, which comprises - an elevator car, which elevator car comprises a frame and an inside space; and - a first and a second car guide rail (2,3), which are on a first and second side of the elevator car, said sides being opposite, and controlled by which car guide rails the elevator car is arranged to move; and - a rigid suspension means (4,4',4",4"'), on which the frame of the elevator car is mounted; and - a first and a second diverting pulley (5,6), which are mounted in a manner that allows rotation on said suspension means (4,4',4",4"'); and - hoisting roping, supported by which the elevator car is suspended; and in which elevator said hoisting roping passes under said first and second diverting pulley (5,6); and which suspension means (4,4',4",4"') crosses the line between the guide rails (2,3); and which first and second diverting pulley (5,6) are mounted on the suspension means (4,4',4",4"') such that they are disposed on a first side and a second side, said sides being opposite of the line between the guide rails, wherein the frame of the elevator car is mounted on a suspension means (4,4',4",4"') for being supported by a first suspension point (8,8',8",8"') and a second suspension point (9,9',9",9"') comprised in the suspension means, which first suspension point (8,8',8",8"') and second suspension point (9,9',9", 9"') are at a horizontal distance from each other and on opposite sides to each other of a line between the first and second diverting pulley (5,6); and in that said first and second suspension point (8,8',8",8"',9,9',9",9"') are on a line between the guide rails (2,3) or on a line parallel with it, characterized in that the first and the second support points (8,8',8",8"',9,9',9",9"') are below the level of the centers of rotation of the diverting pulleys (5,6). - an elevator car, which elevator car comprises a frame and an inside space; and - a first and a second car guide rail (2,3), which are on a first and second side of the elevator car, said sides being opposite, and controlled by which car guide rails the elevator car is arranged to move; and - a rigid suspension means (4,4',4",4"'), on which the frame of the elevator car is mounted; and - a first and a second diverting pulley (5,6), which are mounted in a manner that allows rotation on said suspension means (4,4',4",4"'); and - hoisting roping, supported by which the elevator car is suspended;
A device for bending sheets of glass, comprising an upper bending form and a bending support, said upper bending form and/or said bending support being laterally mobile relative to one another, said bending support comprising a pre-bending mold for the gravity bending of a sheet of glass and a press-bending mold configured for pressing the sheet of glass against said upper form, of these two molds of the bending support one being surrounded by the other when viewed from above, at least one of these two molds of the bending support being able to be given a relative vertical movement with respect to the other.
Solid-state optical receiver driver system, particularly for automotive applications, comprising at least one optical receiver channel, the optical receiver channel being connectable to a respective optical receiver, and at least one test signal generation unit, for providing a test signal to the at least one optical receiver channel, wherein the optical receiver channel comprises a transimpedance amplifier, an analog-to-digital converter and a multiplexer at the input, multiplexing between the signal of the corresponding optical receiver and the signal of the at least one test signal generation unit, wherein the test signal generation unit comprises a current based digital-to-analog converter and a current generation unit for providing a current with a defined amplitude to the digital-to-analog converter, wherein the current is controlled by a reference voltage (Vref), the digital-to-analog converter forwards the current through the multiplexer to the transimpedance amplifier of the optical receiver channel as it is or scale it according to a digital input code, wherein the transimpedance amplifier of the optical receiver channel comprises a feedback resistor and wherein current generation unit comprises a resistor which is a replica of this feedback resistor for gain matching the transimpedance amplifier and the test signal generation unit. at least one test signal generation unit, for providing a test signal to the at least one optical receiver channel, wherein the optical receiver channel comprises a transimpedance amplifier, an analog-to-digital converter and a multiplexer at the input, multiplexing between the signal of the corresponding optical receiver and the signal of the at least one test signal generation unit, wherein the test signal generation unit comprises a current based digital-to-analog converter and a current generation unit for providing a current with a defined amplitude to the digital-to-analog converter, wherein the current is controlled by a reference voltage (Vref), the digital-to-analog converter forwards the current through the multiplexer to the transimpedance amplifier of the optical receiver channel as it is or scale it according to a digital input code, wherein the transimpedance amplifier of the optical receiver channel comprises a feedback resistor and wherein current generation unit comprises a resistor which is a replica of this feedback resistor for gain matching the transimpedance amplifier and the test signal generation unit.