mhurhangee/ep-ind-claims huggingface dataset:
A lighting fixture comprising: a housing having an inner surface and open first and second ends (21, 22) formed by closed-perimeter first and second edges (210, 220), respectively, and defining an end-to-end open space, the first end forming a light opening; and a light-emitting arrangement in the open space, the arrangement including (a) at least one LED positioned for directing light toward the light opening and (b) a heat sink connected to the LED(s) and having a plurality of heat-dissipation surfaces extending away from the light opening, the heat sink configured and positioned in the open space to facilitate fluid-flow therealong and through the open space; characterized in that it further comprises an LED driver spaced from the light-emitting arrangement; and a channel formed through the heat sink of the light-emitting arrangement to provide a wire passage from the LED driver to the LED(s). a housing having an inner surface and open first and second ends (21, 22) formed by closed-perimeter first and second edges (210, 220), respectively, and defining an end-to-end open space, the first end forming a light opening; and a light-emitting arrangement in the open space, the arrangement including (a) at least one LED positioned for directing light toward the light opening and (b) a heat sink connected to the LED(s) and having a plurality of heat-dissipation surfaces extending away from the light opening, the heat sink configured and positioned in the open space to facilitate fluid-flow therealong and through the open space; characterized in that it further comprises an LED driver spaced from the light-emitting arrangement; and a channel formed through the heat sink of the light-emitting arrangement to provide a wire passage from the LED driver to the LED(s).
A noise suppression cable, comprising: an electrical wire (2, 3,4, 7); a first magnetic material comprising a pair of first surfaces (81a, 81b) formed along an axis direction of the electrical wire; and a second magnetic material comprising a pair of second surfaces (82a, 82b) formed along an axis direction of the electrical wire, the pair of the second surfaces brought into contact with the pair of first surfaces by an external force so that a tubular shape is formed around the electrical wire by the first and second magnetic materials, and a convex portion projecting from at least one of the pair of the first surfaces; characterized in that the first surface, from which the convex portion projects, and the opposing second surface of the first and second magnetic material are shaped to generate, due to the external force, a compression stress in the convex portion so as to reduce a relative permeability of the convex portion. an electrical wire (2, 3,4, 7); a first magnetic material comprising a pair of first surfaces (81a, 81b) formed along an axis direction of the electrical wire; and a second magnetic material comprising a pair of second surfaces (82a, 82b) formed along an axis direction of the electrical wire, the pair of the second surfaces brought into contact with the pair of first surfaces by an external force so that a tubular shape is formed around the electrical wire by the first and second magnetic materials, and a convex portion projecting from at least one of the pair of the first surfaces; characterized in that the first surface, from which the convex portion projects, and the opposing second surface of the first and second magnetic material are shaped to generate, due to the external force, a compression stress in the convex portion so as to reduce a relative permeability of the convex portion.
A node operable to support small data communications with a user equipment, UE, the node having computer circuitry configured to: receive a channel condition indication in a radio resource control, RRC, connection request message from the UE, wherein the channel condition indication specifies a channel condition associated with a downlink communication; select a radio bearer, RB, type for receiving a small data set from the UE based on the channel condition indication; and receive the small data set from the UE using the RB type. receive a channel condition indication in a radio resource control, RRC, connection request message from the UE, wherein the channel condition indication specifies a channel condition associated with a downlink communication; select a radio bearer, RB, type for receiving a small data set from the UE based on the channel condition indication; and receive the small data set from the UE using the RB type.
A support device for a barrier system comprising a foot for engaging with the ground; and a connection means arranged for connecting at least one connection post of a respective barrier to said foot, said connection means wherein comprise a first and a second compartment (123, 125), of which at least said first compartment is elongated for providing a preselected play for the mounting position of said at least one connection post when received therein, characterized in that said first and second compartment together form an L or T shape in the horizontal plane. a foot for engaging with the ground; and a connection means arranged for connecting at least one connection post of a respective barrier to said foot, said connection means wherein comprise a first and a second compartment (123, 125), of which at least said first compartment is elongated for providing a preselected play for the mounting position of said at least one connection post when received therein, characterized in that said first and second compartment together form an L or T shape in the horizontal plane.
Method for activating a temporarily inactive network component of a network system for a motor vehicle, wherein a central network device of the network system is connected via signals to the network component via a path inside the network system, which leads at least partially across a network segment of the network system, the network segment connecting via signals the network component and an associated first activation device unbranched to a switch device arranged in the path and to an associated second activation device, and the central network device addressing the first activation device by means of the switch device by sending a network function control signal, characterized in that the central network device supplies the network component or the first activation device additionally with electrical power during the activation, by means of the switch device via at least one signal line of the network segment, and in that the power is supplied simultaneously for the two-way alternate signal transmission between the first and the second activation device (38, 42) via the signal line.
A device for actuating a locking member without spring loading, for a functionally essential, movable component, in particular for a steering unit of a motorcycle, having a locking member without spring loading and having a drive, which is mechanically functionally connected to the locking member, it being possible to bring the locking member into a locking position and into an unlocking position,and vice versa, the locking member being able to prevent movement of the functionally essential component when in the locking position, the locking member being able to allow movement of the functionally essential component when in the unlocking position, an operating element being provided, which is accessible to a user from the outside and can be moved between a rest position and an operating position, it being possible to initiate movement of the locking member into at least one position (1, 2) when the operating element is in the operating position, characterised in that a mechanical position detection unit having a stationary control element is provided, which control element has a three-dimensional contour that interacts with an activation element of the operating element in such a manner that movement of the operating element into the operating position is only allowed when the movable component is in a defined position.
A disposable temporary device for prevention and/or treatment of infections of human limbs, comprising: an outer surface, a surface layer, with an external surface, said surface layer comprising a biologically compatible material in a fluid solidifiable, wherein once the material the surface layer is made of has cured and solidified, the surface layer comprises a solid porous or spongy material, said surface layer comprising pores arbitrarily present in said external surface or inside said surface layer, said pores having a random disposal, wherein said surface layer is strictly tight to and placed in contact with said outer surface of said device and has a continuous and homogeneous arrangement over said outer surface whereon said surface layer is adherent and in contact with and wherein said pores have dimension less than 100 micron. an outer surface, a surface layer, with an external surface, said surface layer comprising a biologically compatible material in a fluid solidifiable, wherein once the material the surface layer is made of has cured and solidified, the surface layer comprises a solid porous or spongy material, said surface layer comprising pores arbitrarily present in said external surface or inside said surface layer, said pores having a random disposal, wherein said surface layer is strictly tight to and placed in contact with said outer surface of said device and has a continuous and homogeneous arrangement over said outer surface whereon said surface layer is adherent and in contact with and wherein said pores have dimension less than 100 micron.
A customized patient-specific orthopaedic surgical system comprising: (a) a first surgical block comprising (i) a first bone-facing surface having a first customized patient-specific negative contour to receive a first corresponding contour of an anterior side of a bone of a patient, and (ii) a first mounting surface, (b) a second surgical block configured to be coupled to the first surgical block, comprising (i) a second bone-facing surface having a second customized patient-specific negative contour to receive a second corresponding contour of a first end of the bone of the patient, and (ii) a second mounting surface which is configured to be mated with the first mounting surface of the first surgical block, and (c) a computer-controlled milling machine configured to be coupled to the first surgical block, characterised in that the milling machine includes a base which has a third mounting surface, the third mounting surface being configured to be mated with the first mounting surface of the first surgical block in place of the second surgical block. (a) a first surgical block comprising (i) a first bone-facing surface having a first customized patient-specific negative contour to receive a first corresponding contour of an anterior side of a bone of a patient, and (ii) a first mounting surface, (b) a second surgical block configured to be coupled to the first surgical block, comprising (i) a second bone-facing surface having a second customized patient-specific negative contour to receive a second corresponding contour of a first end of the bone of the patient, and (ii) a second mounting surface which is configured to be mated with the first mounting surface of the first surgical block, and (c) a computer-controlled milling machine configured to be coupled to the first surgical block, characterised in that the milling machine includes a base which has a third mounting surface, the third mounting surface being configured to be mated with the first mounting surface of the first surgical block in place of the second surgical block.
Method of finishing flexographic digital printing plates comprising the following steps: a. providing a plurality of UV-A LEDs and a plurality of UV-C LEDs, the LEDs being placed so that their radiating surfaces face the surface of the plate to be treated; b. providing means for relative movement between the plate being processed, said plurality of UV-A LEDs and said plurality of UV-C LEDs; c. radiating the surface of the plate to be treated by means of said plurality of UV-A LEDs and said plurality of UV-C LEDs; d. moving the plate being processed or the plurality of UV-A LEDs and the plurality of UV-C LEDs along a feed direction (x), with such a speed (v) that the entire surface to be treated is radiated by the LEDs for a prefixed time. a. providing a plurality of UV-A LEDs and a plurality of UV-C LEDs, the LEDs being placed so that their radiating surfaces face the surface of the plate to be treated; b. providing means for relative movement between the plate being processed, said plurality of UV-A LEDs and said plurality of UV-C LEDs; c. radiating the surface of the plate to be treated by means of said plurality of UV-A LEDs and said plurality of UV-C LEDs; d. moving the plate being processed or the plurality of UV-A LEDs and the plurality of UV-C LEDs along a feed direction (x), with such a speed (v) that the entire surface to be treated is radiated by the LEDs for a prefixed time.
A method for transmitting a preamble in a wireless access system for supporting carrier aggregation, the method performed by a base station, BS, and comprising: transmitting a higher layer signal through a backward compatible carrier, the higher layer signal including a preamble configuration index representing information of a point in time for transmission of the preamble; and transmitting the preamble according to the preamble configuration index to a user equipment, UE, through an extension carrier in order to synchronize timing with the backward compatible carrier, wherein the extension carrier does not operate as a stand-alone carrier but operates only as a part of carrier aggregation, wherein the preamble is generated based on a pseudo-random sequence, wherein a first physical downlink control channel, PDCCH, scheduling the backward compatible carrier and a second PDCCH scheduling the extension carrier are transmitted through the backward compatible carrier. transmitting a higher layer signal through a backward compatible carrier, the higher layer signal including a preamble configuration index representing information of a point in time for transmission of the preamble; and transmitting the preamble according to the preamble configuration index to a user equipment, UE, through an extension carrier in order to synchronize timing with the backward compatible carrier, wherein the extension carrier does not operate as a stand-alone carrier but operates only as a part of carrier aggregation, wherein the preamble is generated based on a pseudo-random sequence, wherein a first physical downlink control channel, PDCCH, scheduling the backward compatible carrier and a second PDCCH scheduling the extension carrier are transmitted through the backward compatible carrier.
A polycarbonate composition comprising the following components, relative to the total weight of the composition: A) 10 - 60 wt. % of a copolycarbonate comprising i) units of formula wherein * indicates the position where formula is connected to the polymer chain, R 1, each independently, is hydrogen or C 1 -C 4 alkyl, R 2, each independently, is C 1 -C 4 alkyl, n is 0, 1, 2 or 3, and ii) units of formula: Wherein * indicates the position where formula is connected to the polymer chain, R 3, each independently, is hydrogen, linear or branched C 1 -C 10 alkyl, and R 4, each independently, is linear or branched C 1 -C 10 alkyl, B) 25 - 75 wt. % of a homopolycarbonate comprising units of formula as defined above, C) 7- 13 wt. % of a phosphorous flame retardant, D) 4 - 9 wt. % of an impact modifier, and E) 2- 14 wt. % of a polyester selected from poly(1,4-butylene terephthalate), poly(1,4-cyclohexylenedimethylene 1,4-cyclohexanedicarboxylate), poly(2,2,4,4-tetramethyl-1,3-cyclobutylene terephthalate) copolyester, and a combination thereof, wherein the content by weight of the unit of formula in the polycarbonate composition is 8-31 wt. %. A) 10 - 60 wt. % of a copolycarbonate comprising i) units of formula wherein * indicates the position where formula is connected to the polymer chain, R 1, each independently, is hydrogen or C 1 -C 4 alkyl, R 2, each independently, is C 1 -C 4 alkyl, n is 0, 1, 2 or 3, and ii) units of formula: Wherein * indicates the position where formula is connected to the polymer chain, R 3, each independently, is hydrogen, linear or branched C 1 -C 10 alkyl, and R 4, each independently, is linear or branched C 1 -C 10 alkyl, i) units of formula wherein * indicates the position where formula is connected to the polymer chain, R 1, each independently, is hydrogen or C 1 -C 4 alkyl, R 2, each independently, is C 1 -C 4 alkyl, n is 0, 1, 2 or 3, and * indicates the position where formula is connected to the polymer chain, R 1, each independently, is hydrogen or C 1 -C 4 alkyl, R 2, each independently, is C 1 -C 4 alkyl, n is 0, 1, 2 or 3, and ii) units of formula: Wherein * indicates the position where formula is connected to the polymer chain, R 3, each independently, is hydrogen, linear or branched C 1 -C 10 alkyl, and R 4, each independently, is linear or branched C 1 -C 10 alkyl, * indicates the position where formula is connected to the polymer chain, R 3, each independently, is hydrogen, linear or branched C 1 -C 10 alkyl, and R 4, each independently, is linear or branched C 1 -C 10 alkyl, B) 25 - 75 wt. % of a homopolycarbonate comprising units of formula as defined above, C) 7- 13 wt. % of a phosphorous flame retardant, D) 4 - 9 wt. % of an impact modifier, and E) 2- 14 wt. % of a polyester selected from poly(1,4-butylene terephthalate), poly(1,4-cyclohexylenedimethylene 1,4-cyclohexanedicarboxylate), poly(2,2,4,4-tetramethyl-1,3-cyclobutylene terephthalate) copolyester, and a combination thereof,
A lawn mower, equipped with a chassis and a cover (12b, 12bl, 12b2) displaceably attached to the chassis through suspension mechanisms, each suspension mechanism comprising: a shaft installed between the chassis and the cover (12b, 12b1, 12b2) so that an axis of the shaft lies in a gravity axis direction, wherein an upper half of the shaft passes through a through hole (12b21) formed in the cover (12b, 12b1, 12b2) to extend upward of the cover (12b, 12b1, 12b2) and wherein a lower half of the shaft extends toward the chassis; the lawn mower being characterised by a guide member having a plate member provided on the lower half of the shaft and multiple plates (84a, 84b) installed above and below the plate member in gravity axis direction to be slidingly contactable with the plate member, and respectively formed at their centers with through holes (84al, 84bl) for passage of the shaft; a compression spring of roughly frustoconical shape for biasing the cover (12b, 12b1, 12b2) toward the chassis, wherein an upper seating edge of the compression spring is attached to the upper half of the shaft and wherein a lower seating edge of the compression spring is attached to a periphery of the through hole (12b21) of the cover (12b, 12b1, 12b2); and an elastic member of roughly frustoconical shape formed at its center with a through hole and installed in gravity axis direction between the cover (12b, 12b1, 12b2) and the guide member to pass the shaft through the through hole (12b21);wherein the cover (12b, 12b2) is configured to be formed in roughly frustoconical shape similar to the elastic member. a shaft installed between the chassis and the cover (12b, 12b1, 12b2) so that an axis of the shaft lies in a gravity axis direction, wherein an upper half of the shaft passes through a through hole (12b21) formed in the cover (12b, 12b1, 12b2) to extend upward of the cover (12b, 12b1, 12b2) and wherein a lower half of the shaft extends toward the chassis; the lawn mower being characterised by a guide member having a plate member provided on the lower half of the shaft and multiple plates (84a, 84b) installed above and below the plate member in gravity axis direction to be slidingly contactable with the plate member, and respectively formed at their centers with through holes (84al, 84bl) for passage of the shaft; a compression spring of roughly frustoconical shape for biasing the cover (12b, 12b1, 12b2) toward the chassis, wherein an upper seating edge of the compression spring is attached to the upper half of the shaft and wherein a lower seating edge of the compression spring is attached to a periphery of the through hole (12b21) of the cover (12b, 12b1, 12b2); and an elastic member of roughly frustoconical shape formed at its center with a through hole and installed in gravity axis direction between the cover (12b, 12b1, 12b2) and the guide member to pass the shaft through the through hole (12b21);wherein the cover (12b, 12b2) is configured to be formed in roughly frustoconical shape similar to the elastic member.
Medical container having a connection nozzle, in particular a container discharge nozzle, in which, with an end-face connection nozzle annular face being formed, a connection sleeve is inserted so as to protrude axially therebeyond, and having a closure cap which is welded to the connection nozzle and/or the connection sleeve in such a manner that it surrounds the connection sleeve in a materially integral manner, characterised by a particle barrier in the form of a particle collection chamber which is for collecting particles which are produced during the production of the weld connection and which extends radially between the connection sleeve and the closure cap and axially between an annular face of the connection sleeve and/or the connection nozzle annular face and a radial projection which is axially spaced apart therefrom and which either protrudes radially outwards from the connection sleeve or protrudes radially inwards from the closure cap.