mhurhangee/ep-ind-claims huggingface dataset:
Switching cartridge (10; 10') for switching on a water path in a tap, a handheld shower or a shower head, at least comprising a changeover button (19; 19') and a housing (11; 11') having at least one water inlet opening (12.1) at one end and at least two water outlet openings (13, 14) at another end, wherein a main flow channel (12.2) is formed between the water inlet opening (12.1) and one of the water outlet openings; - at least one secondary flow channel (12.3) that can be shut off independently of the main flow channel (12.2) is formed between the water inlet opening (12.1) and the other of the water outlet openings, so that when the secondary flow channel (12.3) is shut off, the main flow channel (12.2) remains open; - at least one shut-off unit is provided, which comprises an axially displaceable sealing piston (15.1) for shutting off the secondary flow channel (12.3); and - the actuating direction of a switching element (16.1) of the shut-off unit, which can be actuated by the changeover button (19; 19') and which acts on the sealing piston (15.1), is parallel to the main flow channel (12.2) and to the secondary flow channel (12.3). at least comprising a changeover button (19; 19') and a housing (11; 11') having at least one water inlet opening (12.1) at one end and at least two water outlet openings (13, 14) at another end, wherein a main flow channel (12.2) is formed between the water inlet opening (12.1) and one of the water outlet openings; - at least one secondary flow channel (12.3) that can be shut off independently of the main flow channel (12.2) is formed between the water inlet opening (12.1) and the other of the water outlet openings, so that when the secondary flow channel (12.3) is shut off, the main flow channel (12.2) remains open; - at least one shut-off unit is provided, which comprises an axially displaceable sealing piston (15.1) for shutting off the secondary flow channel (12.3); and - the actuating direction of a switching element (16.1) of the shut-off unit, which can be actuated by the changeover button (19; 19') and which acts on the sealing piston (15.1), is parallel to the main flow channel (12.2) and to the secondary flow channel (12.3). - at least one secondary flow channel (12.3) that can be shut off independently of the main flow channel (12.2) is formed between the water inlet opening (12.1) and the other of the water outlet openings, so that when the secondary flow channel (12.3) is shut off, the main flow channel (12.2) remains open; - at least one shut-off unit is provided, which comprises an axially displaceable sealing piston (15.1) for shutting off the secondary flow channel (12.3); and - the actuating direction of a switching element (16.1) of the shut-off unit, which can be actuated by the changeover button (19; 19') and which acts on the sealing piston (15.1), is parallel to the main flow channel (12.2) and to the secondary flow channel (12.3).
A method of forming a composite article, comprising: arranging, within an environment, a collection of nanostructures between a first substrate comprising a polymer and a second substrate comprising a polymer; and heating the first substrate and/or the second substrate such that polymer within the first substrate and/or polymer within the second substrate softens and/or melts and nanostructures within the collection become at least partially embedded in the first substrate and/or the second substrate to form the composite article; wherein: during at least a portion of the arranging step, the collection of nanostructures is separate from the first substrate and the second substrate; a pressure of the environment does not exceed, during any part of the heating step, 3 bar absolute; and after the heating, the percentage of an interlaminar region of the composite occupied by voids is less than or equal to 10%. arranging, within an environment, a collection of nanostructures between a first substrate comprising a polymer and a second substrate comprising a polymer; and heating the first substrate and/or the second substrate such that polymer within the first substrate and/or polymer within the second substrate softens and/or melts and nanostructures within the collection become at least partially embedded in the first substrate and/or the second substrate to form the composite article; wherein: during at least a portion of the arranging step, the collection of nanostructures is separate from the first substrate and the second substrate; a pressure of the environment does not exceed, during any part of the heating step, 3 bar absolute; and after the heating, the percentage of an interlaminar region of the composite occupied by voids is less than or equal to 10%. during at least a portion of the arranging step, the collection of nanostructures is separate from the first substrate and the second substrate; a pressure of the environment does not exceed, during any part of the heating step, 3 bar absolute; and after the heating, the percentage of an interlaminar region of the composite occupied by voids is less than or equal to 10%.
A photovoltaic module system kit for non-penetrating installation at a substantially flat surface, the kit comprising: first and second photovoltaic modules each including: a photovoltaic device including a photovoltaic laminate, and a frame assembled to and surrounding the photovoltaic laminate to define a unitary structure, the frame including two arms (134, 136) forming a planar support face for placement against a separate installation surface, wherein the kit is configured to provide a storage state of the PV modules stacked in a nested arrangement in which the frame of the first photovoltaic module is placed against the frame of the second photovoltaic module such that the respective photovoltaic laminates are parallel, and that the arms (134, 136) of the first photovoltaic module are transversely off-set from the frame of the second photovoltaic module, wherein the arms (134, 136) have an identical construction forming mirror images of one another each arm (134, 136) includes a shoulder and a foot, each arm (134, 136) is L-shaped, and in the storage state, the shoulder of the second photovoltaic module is slidably received within a trough of the arms of the first photovoltaic module. first and second photovoltaic modules each including: a photovoltaic device including a photovoltaic laminate, and a frame assembled to and surrounding the photovoltaic laminate to define a unitary structure, the frame including two arms (134, 136) forming a planar support face for placement against a separate installation surface, a photovoltaic device including a photovoltaic laminate, and a frame assembled to and surrounding the photovoltaic laminate to define a unitary structure, the frame including two arms (134, 136) forming a planar support face for placement against a separate installation surface, wherein the kit is configured to provide a storage state of the PV modules stacked in a nested arrangement in which the frame of the first photovoltaic module is placed against the frame of the second photovoltaic module such that the respective photovoltaic laminates are parallel, and that the arms (134, 136) of the first photovoltaic module are transversely off-set from the frame of the second photovoltaic module, wherein the arms (134, 136) have an identical construction forming mirror images of one another each arm (134, 136) includes a shoulder and a foot, each arm (134, 136) is L-shaped, and in the storage state, the shoulder of the second photovoltaic module is slidably received within a trough of the arms of the first photovoltaic module.
A method of manufacturing a security device, comprising: providing a transparent support layer having first and second surfaces (2a, 2b); conveying the transparent support layer along a transport path in a machine direction; and during the conveying: (a) forming an array of focussing elements on the first surface of the transparent support layer in at least a first region; and (b) applying an image array to the second surface of the transparent support layer in at least part of the first region; whereby the array of focussing elements and the image array are registered to one another at least in the machine direction; wherein step (a) comprises: (a)(i) applying at least one transparent curable material either to the transparent support layer or to a casting tool, preferably a focussing element cylinder, carrying a surface relief corresponding to the focussing elements, over an area which includes at least the first region; (a)(ii) forming the transparent curable material(s) with the casting tool; and (a)(iii) curing the transparent curable material(s) so as to retain the surface relief in the first region; and wherein step (b) comprises printing the image array on to the transparent support layer; characterised in that steps (a) and (b) are performed simultaneously at the same position along the transport path in the machine direction. providing a transparent support layer having first and second surfaces (2a, 2b); conveying the transparent support layer along a transport path in a machine direction; and during the conveying: (a) forming an array of focussing elements on the first surface of the transparent support layer in at least a first region; and (b) applying an image array to the second surface of the transparent support layer in at least part of the first region; (a) forming an array of focussing elements on the first surface of the transparent support layer in at least a first region; and (b) applying an image array to the second surface of the transparent support layer in at least part of the first region; (a)(i) applying at least one transparent curable material either to the transparent support layer or to a casting tool, preferably a focussing element cylinder, carrying a surface relief corresponding to the focussing elements, over an area which includes at least the first region; (a)(ii) forming the transparent curable material(s) with the casting tool; and (a)(iii) curing the transparent curable material(s) so as to retain the surface relief in the first region; and wherein step (b) comprises printing the image array on to the transparent support layer; characterised in that steps (a) and (b) are performed simultaneously at the same position along the transport path in the machine direction.
A data transmission method, comprising: receiving, by a first device by using a first Ethernet interface, packet data sent by a first packet handling switching, PHS, network device, and receiving, by using a first common public radio interface, CPRI, port, in-phase/quadrature, I/Q, data sent by a first unit, wherein a format of the I/Q data conforms to a CPRI protocol (steps 201, 202); converting, by the first device, the packet data into conversion data whose format conforms to the CPRI protocol, wherein the conversion is performed by adding of a field to the packet data, wherein the field is encapsulated in order to conform to the CPRI protocol (step 203); and carrying, by the first device, the conversion data and the I/Q data in transmission resources on a CPRI channel, and sending the conversion data and the I/Q data carried in the transmission resources to a second device, wherein the first PHS network device is a PHS server device, and the first unit is a baseband unit, BBU; or the first PHS network device is a PHS client device, and the first unit is a remote radio unit, RRU. receiving, by a first device by using a first Ethernet interface, packet data sent by a first packet handling switching, PHS, network device, and receiving, by using a first common public radio interface, CPRI, port, in-phase/quadrature, I/Q, data sent by a first unit, wherein a format of the I/Q data conforms to a CPRI protocol (steps 201, 202); converting, by the first device, the packet data into conversion data whose format conforms to the CPRI protocol, wherein the conversion is performed by adding of a field to the packet data, wherein the field is encapsulated in order to conform to the CPRI protocol (step 203); and carrying, by the first device, the conversion data and the I/Q data in transmission resources on a CPRI channel, and sending the conversion data and the I/Q data carried in the transmission resources to a second device, wherein the first PHS network device is a PHS server device, and the first unit is a baseband unit, BBU; or the first PHS network device is a PHS client device, and the first unit is a remote radio unit, RRU.
A nacelle of a turbojet engine of the type including a lubricant, the nacelle including an outer structure and an inner structure defining an annular flow path for the flowing of a so-called secondary cold air flow, the outer structure including an outer fairing defining an outer aerodynamic surface and an inner fairing defining an inner aerodynamic surface, the outer and inner fairings being connected upstream by a leading edge wall forming an air inlet lip, said nacelle comprising: - a thrust reverser, and - a cooling system including: - a first exchanger, called a hot source exchanger, between a heat transfer fluid and a lubricant for a turbojet engine, - at least one second exchanger, called a cold source exchanger, between a heat transfer fluid and air, - an inlet conduit for heat transfer fluid into the cold source exchanger, - an outlet conduit for heat transfer fluid from the cold source exchanger the inlet and outlet conduits being intended to form a recirculation loop between the cold source exchanger and the hot source exchanger, the cold source exchanger being movable relative to the hot source exchanger and arranged in the thrust reverser, and the heat transfer fluid inlet and outlet conduits being extensible and/or flexible to accommodate the relative movement between the two exchangers (12, 14). - a thrust reverser, and - a cooling system including: - a first exchanger, called a hot source exchanger, between a heat transfer fluid and a lubricant for a turbojet engine, - at least one second exchanger, called a cold source exchanger, between a heat transfer fluid and air, - an inlet conduit for heat transfer fluid into the cold source exchanger, - an outlet conduit for heat transfer fluid from the cold source exchanger the inlet and outlet conduits being intended to form a recirculation loop between the cold source exchanger and the hot source exchanger, the cold source exchanger being movable relative to the hot source exchanger and arranged in the thrust reverser, and the heat transfer fluid inlet and outlet conduits being extensible and/or flexible to accommodate the relative movement between the two exchangers (12, 14). - a first exchanger, called a hot source exchanger, between a heat transfer fluid and a lubricant for a turbojet engine, - at least one second exchanger, called a cold source exchanger, between a heat transfer fluid and air, - an inlet conduit for heat transfer fluid into the cold source exchanger, - an outlet conduit for heat transfer fluid from the cold source exchanger the inlet and outlet conduits being intended to form a recirculation loop between the cold source exchanger and the hot source exchanger, the cold source exchanger being movable relative to the hot source exchanger and arranged in the thrust reverser, and the heat transfer fluid inlet and outlet conduits being extensible and/or flexible to accommodate the relative movement between the two exchangers (12, 14).
A user equipment, UE, of a wireless communication system, the UE comprising: a communication module; and a processor configured to control the communication module, the processor is configured: to receive a radio resource control, RRC, signal including configuration information related to a monitoring period for an uplink, UL, preemption indicator; to detect a common physical downlink control channel, PDCCH, including the UL preemption indicator by performing PDCCH monitoring every monitoring period; the UE being characterized in that the processor is further configured, based on a physical uplink shared channel, PUSCH, transmission being overlapped with at least one resource part indicated by the UL preemption indicator within a reference time-frequency resource, to cancel a portion of the PUSCH transmission based on the at least one resource part, wherein a starting position of the reference time-frequency resource is determined based on an offset from an ending time of a corresponding PDCCH monitoring, and wherein the offset is calculated based on a PUSCH processing time. a communication module; and a processor configured to control the communication module, the processor is configured: to receive a radio resource control, RRC, signal including configuration information related to a monitoring period for an uplink, UL, preemption indicator; to detect a common physical downlink control channel, PDCCH, including the UL preemption indicator by performing PDCCH monitoring every monitoring period; the UE being characterized in that the processor is further configured, based on a physical uplink shared channel, PUSCH, transmission being overlapped with at least one resource part indicated by the UL preemption indicator within a reference time-frequency resource, to cancel a portion of the PUSCH transmission based on the at least one resource part, wherein a starting position of the reference time-frequency resource is determined based on an offset from an ending time of a corresponding PDCCH monitoring, and to receive a radio resource control, RRC, signal including configuration information related to a monitoring period for an uplink, UL, preemption indicator; to detect a common physical downlink control channel, PDCCH, including the UL preemption indicator by performing PDCCH monitoring every monitoring period; the UE being characterized in that the processor is further configured, based on a physical uplink shared channel, PUSCH, transmission being overlapped with at least one resource part indicated by the UL preemption indicator within a reference time-frequency resource, to cancel a portion of the PUSCH transmission based on the at least one resource part, wherein a starting position of the reference time-frequency resource is determined based on an offset from an ending time of a corresponding PDCCH monitoring, and
A protein kinase C modulatory peptide composition comprising: a PKC modulatory peptide linked to an intracellular carrier peptide by a disulfide bond, wherein the PKC modulatory peptide is selected from the group consisting of SEQ ID NOs: 2-162, wherein the intracellular carrier peptide, the PKC modulatory peptide, or both are acylated at the N-terminus, and wherein the composition is a non-linear peptide. a PKC modulatory peptide linked to an intracellular carrier peptide by a disulfide bond, wherein the PKC modulatory peptide is selected from the group consisting of SEQ ID NOs: 2-162, wherein the intracellular carrier peptide, the PKC modulatory peptide, or both are acylated at the N-terminus, and wherein the composition is a non-linear peptide.
A tensioner for threaded members, the tensioner comprising: a base and a piston defining a pressure space therebetween, the base and piston being arranged to be urged apart along an axis upon introduction of a fluid into the pressure space; and a thread-engaging member, comprising a body portion of the form of a sleeve and having a threaded interior for engagement with a threaded member and a piston engaging portion carrying a protrusion; in which the piston bears against the protrusion such that the piston exerts a force on the protrusion when urged apart from the base by the introduction of fluid into the pressure space; characterized in that the tensioner further comprises a displacement sensor arranged to determining the relative position of the body portion of the thread-engaging member and the base, the displacement sensor comprising a first part carried on the base and a second part carried on the body portion. a base and a piston defining a pressure space therebetween, the base and piston being arranged to be urged apart along an axis upon introduction of a fluid into the pressure space; and a thread-engaging member, comprising a body portion of the form of a sleeve and having a threaded interior for engagement with a threaded member and a piston engaging portion carrying a protrusion; in which the piston bears against the protrusion such that the piston exerts a force on the protrusion when urged apart from the base by the introduction of fluid into the pressure space; characterized in that the tensioner further comprises a displacement sensor arranged to determining the relative position of the body portion of the thread-engaging member and the base, the displacement sensor comprising a first part carried on the base and a second part carried on the body portion.
Vehicle having an attachment and a hydraulic actuating unit for regulating the operation of an attachment on the vehicle, wherein the attachment has at least one ploughshare (9a 1 to 9a 4; 9b 1 to 9b 4), and having an apparatus comprising at least one position detection unit with at least one position detection sensor, an evaluation unit and a data-carrying connection to a control unit assigned to the hydraulic actuating unit, wherein the at least one ploughshare (9a 1 to 9a 4; 9b 1 to 9b 4) is assigned at least one force measuring sensor (32; 32a to 32d; 32', 32") such that at least one force acting on the at least one ploughshare (9a 1 to 9a 4; 9b 1 to 9b 4) is directly able to be determined, wherein the evaluation unit is set up to carry out the following steps: a) determining at least one force acting on the at least one ploughshare by means of the at least one force measuring sensor (32; 32a to 32d; 32', 32"); b) comparing the determined force with a predefined average force of all the ploughshares (9a 1 to 9a 4; 9b 1 to 9b 4), c) activating the hydraulic actuating unit when the determined force differs from the average force of all the ploughshares, wherein the determined force is used as a measure for the penetration depth of the at least one ploughshare (9a 1 to 9a 4; 9b 1 to 9b 4), wherein, proceeding from the determined force on the at least one ploughshare (9a 1 to 9a 4; 9b 1 to 9b 4), at least one inclination about a transverse axis of the attachment is determined. a) determining at least one force acting on the at least one ploughshare by means of the at least one force measuring sensor (32; 32a to 32d; 32', 32"); b) comparing the determined force with a predefined average force of all the ploughshares (9a 1 to 9a 4; 9b 1 to 9b 4), c) activating the hydraulic actuating unit when the determined force differs from the average force of all the ploughshares,
Vehicle seat comprising a backrest, a seat part and a seat part upper portion connected to the seat part and displaceable relative to the seat part, the backrest being connected to the seat part in such a manner as to be rotatable about a first axis of rotation, characterised in that the backrest and the seat part upper portion are connected to one another in such a way that, when the backrest is rotated about the first axis of rotation, the seat part upper portion is displaced relative to the seat part, wherein the seat part upper portion is only translationally displaceable in a vehicle seat longitudinal direction and the backrest and the seat part upper portion are connected by means of only one first lever element, which is connected to the backrest in such a manner as to be rotatable about a second axis of rotation and connected to the seat part upper portion in such a manner as to be rotatable about a third axis of rotation.