mhurhangee/ep-ind-claims huggingface dataset:
Assembly system (100, 100') for securing an attachment part to a C-rail, which has two laterally arranged limbs (2, 3) and two surrounding strips (4, 5) which face the attachment part and which are arranged at a distance from each other and which respectively comprise a slanting variation with outer surfaces which is aligned to an inner space of the C-rail, wherein the assembly system (100, 100') comprises: a securing element which is bow-shaped and which comprises two limbs (18, 19) which engage around the two laterally arranged limbs (2, 3) and the two surrounding strips (4, 5) of the C-rail which space apart from each other at least partially at the outer space, and a screw connection (7; 7') which comprises a head screw and a slide nut or a hammer head screw and a nut, wherein the screw connection (7; 7') comprises an intermediate part which is arranged between the slide nut or the screw head of the hammer head screw and the securing element, wherein the intermediate part is pressed by means of the screw connection (7; 7') against the outer surfaces of the both surrounding strips (4, 5) of the C-rail, wherein the slide nut or the screw head of the hammer head screw and the intermediate part have on their sides which face the surrounding strips (4, 5) a contour (12, 13) which matches to the surrounding strips (4, 5), wherein the securing element is connected to the C-rail via the screw connection (7, 7'), and wherein, at the intended use of the assembly system (100; 100'), the securing element is arranged between the attachment part and the surrounding strips (4, 5), so that the both limbs (18, 19) of the bow-shaped securing element are at least partially engaging around the both laterally arranged limbs (2, 3) of the C-rail on the outer side. a securing element which is bow-shaped and which comprises two limbs (18, 19) which engage around the two laterally arranged limbs (2, 3) and the two surrounding strips (4, 5) of the C-rail which space apart from each other at least partially at the outer space, and a screw connection (7; 7') which comprises a head screw and a slide nut or a hammer head screw and a nut, wherein the screw connection (7; 7') comprises an intermediate part which is arranged between the slide nut or the screw head of the hammer head screw and the securing element, wherein the intermediate part is pressed by means of the screw connection (7; 7') against the outer surfaces of the both surrounding strips (4, 5) of the C-rail, wherein the slide nut or the screw head of the hammer head screw and the intermediate part have on their sides which face the surrounding strips (4, 5) a contour (12, 13) which matches to the surrounding strips (4, 5), wherein the securing element is connected to the C-rail via the screw connection (7, 7'), and wherein, at the intended use of the assembly system (100; 100'), the securing element is arranged between the attachment part and the surrounding strips (4, 5), so that the both limbs (18, 19) of the bow-shaped securing element are at least partially engaging around the both laterally arranged limbs (2, 3) of the C-rail on the outer side.
A terminal apparatus which is configured to communicate with a base station apparatus by using a plurality of cells including at least a primary cell and a secondary cell, the terminal apparatus comprising: a reception unit configured to and/or programmed to decode a physical downlink control channel with downlink control information format, the downlink control information format including at least a transmission power control command field; a transmission unit configured to and/or programmed to transmit a physical uplink control channel in the primary cell; and a transmission power control unit configured to and/or programmed to determine transmission power of the physical uplink control channel in the primary cell, based on at least a physical uplink control channel power control adjustment parameter; wherein the physical uplink control channel power control adjustment parameter is calculated based on at least a value indicated by the transmission power control command field; the reception unit is configured to and/or programmed to receive a first random access response message for the primary cell and a second random access response message for the secondary cell; and for the reception of the first random access response message for the primary cell and the reception of the second random access response message for the secondary cell, only in a case where the reception unit receives the first random access response message for the primary cell, the transmission power control unit is configured to and/or programmed to reset the physical uplink control channel power control adjustment parameter. a reception unit configured to and/or programmed to decode a physical downlink control channel with downlink control information format, the downlink control information format including at least a transmission power control command field; a transmission unit configured to and/or programmed to transmit a physical uplink control channel in the primary cell; and a transmission power control unit configured to and/or programmed to determine transmission power of the physical uplink control channel in the primary cell, based on at least a physical uplink control channel power control adjustment parameter; wherein the physical uplink control channel power control adjustment parameter is calculated based on at least a value indicated by the transmission power control command field; the reception unit is configured to and/or programmed to receive a first random access response message for the primary cell and a second random access response message for the secondary cell; and for the reception of the first random access response message for the primary cell and the reception of the second random access response message for the secondary cell, only in a case where the reception unit receives the first random access response message for the primary cell, the transmission power control unit is configured to and/or programmed to reset the physical uplink control channel power control adjustment parameter.
A temperature sensor apparatus for a water storage apparatus in which an amount of hot water stored can be determined by the vertical position of a hot/cold water boundary, the apparatus comprising: a plurality of temperature sensors for installation at different levels in the water storage apparatus, and a control unit, wherein the control unit is arranged to determine the relative locations of the sensors, in use, based on the order in which the sensors detect a temperature change during operation of the water storage apparatus.
A combustor arrangement, comprising: a pilot burner comprising a pilot cone; a plurality of clockwise main swirlers (20, 130) interposed among a plurality of counterclockwise main swirlers (20, 132) and disposed concentrically about the pilot burner; and a base plate transverse to the main swirlers (20, 130, 132); wherein inbound-zones (134', 134) exist where adjacent portions of adjacent flows through main swirlers (20, 130, 132) flow toward the pilot cone, and interposed between the inbound zones (134', 134), outbound zones (136', 136) exist where adjacent portions of adjacent flows flow away from the pilot cone; characterized in that the combustor arrangement is configured to deliver relatively more cooling fluid to the inbound-zones (134', 134) than to the outbound zones (136', 136) via high flow regions (152, 156, 172) disposed upstream of the inbound zones (134', 134) with respect to a longitudinal axis of the combustor arrangement. a pilot burner comprising a pilot cone; a plurality of clockwise main swirlers (20, 130) interposed among a plurality of counterclockwise main swirlers (20, 132) and disposed concentrically about the pilot burner; and a base plate transverse to the main swirlers (20, 130, 132); wherein inbound-zones (134', 134) exist where adjacent portions of adjacent flows through main swirlers (20, 130, 132) flow toward the pilot cone, and interposed between the inbound zones (134', 134), outbound zones (136', 136) exist where adjacent portions of adjacent flows flow away from the pilot cone; characterized in that the combustor arrangement is configured to deliver relatively more cooling fluid to the inbound-zones (134', 134) than to the outbound zones (136', 136) via high flow regions (152, 156, 172) disposed upstream of the inbound zones (134', 134) with respect to a longitudinal axis of the combustor arrangement.
A fan assembly for creating an air current, the fan assembly comprising a nozzle, a base connected to the nozzle, the base comprising an air inlet (24a, 24b), the nozzle comprising an interior passage, a mouth for receiving the air flow from the interior passage, and a Coanda surface, wherein the Coanda surface is located adjacent the mouth and the mouth is arranged to direct the air flow over the Coanda surface, and in that the base comprises an impeller driven by a motor for creating an air flow through the nozzle, and a filter surrounding the base for removing particulates from the air flow.
Composite pane, comprising: - first pane (1.1), at least one intermediate layer, and second pane (1.2), - transparent, electrically conductive first coating between the intermediate layer and the first pane (1.1) and/or between the intermediate layer and the second pane (1.2), - first busbar (4.1) and second busbar (4.2), which are connected to the first coating, wherein the first busbar (4.1) is connected to a ground potential and the second busbar (4.2) is connected to a DC voltage of 75 V to 450 V or an AC voltage of 25 V to 450 V, wherein the area of the first coating and the area of a transparent, electrically conductive second coating are arranged one over another with at least 80% congruence and insulated from each other, and the second coating is connected via at least one third busbar (4.3) to the ground potential. - first pane (1.1), at least one intermediate layer, and second pane (1.2), - transparent, electrically conductive first coating between the intermediate layer and the first pane (1.1) and/or between the intermediate layer and the second pane (1.2), - first busbar (4.1) and second busbar (4.2), which are connected to the first coating, wherein the first busbar (4.1) is connected to a ground potential and the second busbar (4.2) is connected to a DC voltage of 75 V to 450 V or an AC voltage of 25 V to 450 V, wherein the area of the first coating and the area of a transparent, electrically conductive second coating are arranged one over another with at least 80% congruence and insulated from each other, and the second coating is connected via at least one third busbar (4.3) to the ground potential.
A vane assembly (41; 41'; 41") comprising: circumferentially adjacent airfoils (42A,42B) formed of organic matrix composite materials including fiber materials embedded in an organic matrix, the circumferentially adjacent airfoils having identical exterior geometries defined by pressure and suction surfaces (43,44) extending axially from a leading edge to a trailing edge and radially from a root section to a tip section; an inner platform attached to each of the circumferentially adjacent airfoils at the root section; and an outer platform attached to each of circumferentially adjacent airfoils at the tip section; wherein different composite materials are selected for adjacent airfoils, to define a vibration mode (H1,H2,H3,H1',H2',H3') with different vibration frequencies in the circumferentially adjacent airfoils, the different vibration frequencies being separated by more than a full width of the vibration mode at half maximum (FWHM); and wherein the different composite materials differ in at least one of the material composition, the relative amounts, the densities, the orientations and the spanwise distributions of the organic matrix and the fiber materials. circumferentially adjacent airfoils (42A,42B) formed of organic matrix composite materials including fiber materials embedded in an organic matrix, the circumferentially adjacent airfoils having identical exterior geometries defined by pressure and suction surfaces (43,44) extending axially from a leading edge to a trailing edge and radially from a root section to a tip section; an inner platform attached to each of the circumferentially adjacent airfoils at the root section; and an outer platform attached to each of circumferentially adjacent airfoils at the tip section; wherein different composite materials are selected for adjacent airfoils, to define a vibration mode (H1,H2,H3,H1',H2',H3') with different vibration frequencies in the circumferentially adjacent airfoils, the different vibration frequencies being separated by more than a full width of the vibration mode at half maximum (FWHM); and wherein the different composite materials differ in at least one of the material composition, the relative amounts, the densities, the orientations and the spanwise distributions of the organic matrix and the fiber materials.
Apparatus for stitching a leading end of a tire component to a trailing end of the same or another tire component along a splice line above a working surface, which working surface is arranged to support the respective one or two tire components, wherein the apparatus comprises a separator for in a separation position separating the leading end and the trailing end from the working surface to form a separation space, wherein the apparatus comprises a stitcher unit with a stitcher foot that is arranged to support the leading end and the trailing end at the splice line from the separation space and a stitcher head that is arranged for stitching the leading end and the trailing end on the stitcher foot from outside the separation space, wherein the stitcher unit comprises a stitcher drive for driving the stitcher unit in a stitching direction along the splice line while the stitcher unit stitches the leading end to the trailing end and a separator drive that is coupled to the separator for retracting the separator in the stitching direction parallel to the splice line, wherein the apparatus further comprises a control unit that is operationally connected to and arranged to control the separator drive and the stitcher drive simultaneously such that, during the stitching, the separator is retracted in the stitching direction ahead of the stitcher unit.
A recline mechanism comprising: a cylinder and piston assembly couplable to a seatback of a passenger seat, the cylinder and piston assembly configurable between a locked state and an unlocked state, wherein the cylinder and piston assembly is configured to prevent angular adjustment of the seatback when the cylinder and piston assembly is in the locked state and is configured to permit the angular adjustment of the seatback when the cylinder and piston assembly is in the unlocked state; an actuator coupled to the cylinder and piston assembly for causing the locked state and the unlocked state; and a button configured to generate and transmit an electrical signal to the actuator in response to the button becoming depressed; wherein the actuator causes the unlocked state of the cylinder and piston assembly in response to receiving the electrical signal; wherein the button is configured to generate and transmit an additional electrical signal to the actuator in response to the button becoming released; wherein the actuator causes the locked state of the cylinder and piston assembly in response to receiving the additional electrical signal; characterised in that the button generates the electrical signal and the additional electrical signal without the button being connected to an electrical power supply; and in that the button generates the electrical signal by converting mechanical power to electrical power. a cylinder and piston assembly couplable to a seatback of a passenger seat, the cylinder and piston assembly configurable between a locked state and an unlocked state, wherein the cylinder and piston assembly is configured to prevent angular adjustment of the seatback when the cylinder and piston assembly is in the locked state and is configured to permit the angular adjustment of the seatback when the cylinder and piston assembly is in the unlocked state; an actuator coupled to the cylinder and piston assembly for causing the locked state and the unlocked state; and a button configured to generate and transmit an electrical signal to the actuator in response to the button becoming depressed; wherein the actuator causes the unlocked state of the cylinder and piston assembly in response to receiving the electrical signal; wherein the button is configured to generate and transmit an additional electrical signal to the actuator in response to the button becoming released; wherein the actuator causes the locked state of the cylinder and piston assembly in response to receiving the additional electrical signal; characterised in that the button generates the electrical signal and the additional electrical signal without the button being connected to an electrical power supply; and in that the button generates the electrical signal by converting mechanical power to electrical power.
A clamping master track link comprising: a body defining a top surface, a bottom surface, a first side surface and a second side surface defining a thickness therebetween, a proximate end and a distal end; wherein the body defines a first bore adjacent the distal end and a second bore adjacent to the proximate end; the body defines a first aperture disposed between the first bore and the second bore, the first aperture being disposed nearer the first bore than the second bore; the body defines a second aperture disposed between the first aperture and the second bore; the body includes a first strut disposed between the first aperture and the second aperture, the body defining a first gap dividing the first strut into a first upper portion and a first lower portion; the body includes a second strut disposed between the first aperture and the first bore, the body defining a second gap dividing the second strut into a second upper portion and a second lower portion; characterized in that the body includes a bridge disposed between the second aperture and the second bore; and wherein the first bore defines a first diameter, the second bore defines a second diameter, the first diameter is less than the second diameter, the first bore is a blind bore and the second bore is a thru bore. a body defining a top surface, a bottom surface, a first side surface and a second side surface defining a thickness therebetween, a proximate end and a distal end; wherein the body defines a first bore adjacent the distal end and a second bore adjacent to the proximate end; the body defines a first aperture disposed between the first bore and the second bore, the first aperture being disposed nearer the first bore than the second bore; the body defines a second aperture disposed between the first aperture and the second bore; the body includes a first strut disposed between the first aperture and the second aperture, the body defining a first gap dividing the first strut into a first upper portion and a first lower portion; the body includes a second strut disposed between the first aperture and the first bore, the body defining a second gap dividing the second strut into a second upper portion and a second lower portion; characterized in that the body includes a bridge disposed between the second aperture and the second bore; and wherein the first bore defines a first diameter, the second bore defines a second diameter, the first diameter is less than the second diameter, the first bore is a blind bore and the second bore is a thru bore.
A method for transmitting a device-to-device, D2D, discovery signal by a user equipment, UE, (10, 152, 153, 1100) in a wireless communication system, the method comprising: performing synchronization and downlink measurements; and transmitting the D2D discovery signal based on the synchronization and the downlink measurements, wherein when a second frequency on which the D2D discovery signal is to be transmitted is different from a first frequency on which the UE is connected with a base station (20, 151), wherein the first frequency is a primary carrier of the base station and the second frequency is a non-primary carrier of said base station, and when the UE is configured with measurement carrier indication information indicating a third frequency, that is a downlink carrier, to the UE, using, by the UE, the third frequency indicated by the measurement carrier indication information as reference to perform the synchronization and the downlink measurements the D2D discovery signal transmission. performing synchronization and downlink measurements; and transmitting the D2D discovery signal based on the synchronization and the downlink measurements, wherein when a second frequency on which the D2D discovery signal is to be transmitted is different from a first frequency on which the UE is connected with a base station (20, 151), wherein the first frequency is a primary carrier of the base station and the second frequency is a non-primary carrier of said base station, and when the UE is configured with measurement carrier indication information indicating a third frequency, that is a downlink carrier, to the UE, using, by the UE, the third frequency indicated by the measurement carrier indication information as reference to perform the synchronization and the downlink measurements the D2D discovery signal transmission.
A mount for a projector comprising: an interface; a projector positioning head; and an elongate arm operably coupling the interface and the projector positioning head, a first end of the arm coupled to the interface the projector positioning head operably coupled proximate an opposing second end of the arm such that the projector positioning head is shiftable along a longitudinal axis of the arm, the arm further comprising a positioning mechanism arranged to selectively drive shifting of the projector positioning head, wherein the interface is a wall interface for mounting the mount to a wall, wherein the mount is a short throw projector mount for a projector throwing an image to the wall, the positioning mechanism comprises a gear rotatably coupled to the projector positioning head, the gear defining a plurality of teeth, characterized in that the arm defines an elongate slot, an edge of the slot defining a plurality of gear teeth, the teeth of the gear engaged with the gear teeth defined in the edge of the slot, wherein the projector positioning head shifts along the elongate arm as the gear is rotated. an interface; a projector positioning head; and an elongate arm operably coupling the interface and the projector positioning head, a first end of the arm coupled to the interface the projector positioning head operably coupled proximate an opposing second end of the arm such that the projector positioning head is shiftable along a longitudinal axis of the arm, the arm further comprising a positioning mechanism arranged to selectively drive shifting of the projector positioning head, wherein the interface is a wall interface for mounting the mount to a wall, wherein the mount is a short throw projector mount for a projector throwing an image to the wall, the positioning mechanism comprises a gear rotatably coupled to the projector positioning head, the gear defining a plurality of teeth, characterized in that the arm defines an elongate slot, an edge of the slot defining a plurality of gear teeth, the teeth of the gear engaged with the gear teeth defined in the edge of the slot, wherein the projector positioning head shifts along the elongate arm as the gear is rotated.