mhurhangee/ep-ind-claims huggingface dataset:
A control system, comprising: an automation controller (14; 102); and a module bay of the automation controller configured to couple with one or more scalable modules (24; 108; 112, 114; 202, 204), the module bay comprising a plurality of bay connectors configured to communicatively couple with module connectors, wherein the automation controller includes a cover and a base that are coupled together to enclose internal components of the automation controller, wherein the cover is configured to form the module bay of the automation controller, and wherein the bay connectors of the module bay include interface slots and/or receptacles, and communication ports configured to receive one or more corresponding coupling features or communication features of the scalable modules. an automation controller (14; 102); and a module bay of the automation controller configured to couple with one or more scalable modules (24; 108; 112, 114; 202, 204), the module bay comprising a plurality of bay connectors configured to communicatively couple with module connectors, wherein the automation controller includes a cover and a base that are coupled together to enclose internal components of the automation controller, wherein the cover is configured to form the module bay of the automation controller, and wherein the bay connectors of the module bay include interface slots and/or receptacles, and communication ports configured to receive one or more corresponding coupling features or communication features of the scalable modules.
A cable installment type charging control device for charging an electric vehicle by using power of a grid-side, the cable installment type charging control device comprising: a first relay delivering power of the grid-side to an EV-side; a second relay delivering power of the grid-side to the EV-side; and a first sub fusion detecting unit comprising a third relay, a first resistor, and a first photo coupler which are connected to each other in series, the first sub fusion detecting unit detecting whether the first relay is fused through the first input terminal connected to the EV-side terminal of the first relay, and a second input terminal connected to the grid-side terminal of the second relay; the cable installment type charging control device further comprising the control unit, wherein the control unit turns off the third relay in a state where the first and second relays RL1 and RL2 are turned off (operation s705) and determines whether the first relay RL1 is fused on the basis of a signal of the collector terminal C of the first photo coupler PH1 while the third relay RL3 is turned on (operation s705). a first relay delivering power of the grid-side to an EV-side; a second relay delivering power of the grid-side to the EV-side; and a first sub fusion detecting unit comprising a third relay, a first resistor, and a first photo coupler which are connected to each other in series, the first sub fusion detecting unit detecting whether the first relay is fused through the first input terminal connected to the EV-side terminal of the first relay, and a second input terminal connected to the grid-side terminal of the second relay; the cable installment type charging control device further comprising the control unit, wherein the control unit turns off the third relay in a state where the first and second relays RL1 and RL2 are turned off (operation s705) and determines whether the first relay RL1 is fused on the basis of a signal of the collector terminal C of the first photo coupler PH1 while the third relay RL3 is turned on (operation s705).
A cap cover of the double-walled type fitted on a cap for closing a bottle and the like, wherein said cap cover is provided with retention means (7, 12) adapted to retain said cap cover with respect to said cap, said retention means comprising a plurality of wings that are arranged inside a lower inner circumferential rim of said cap cover and are adapted to couple by snap action to an end rim of the cap, characterized in that said retention means further comprise a circumferential tab that protrudes from said lower inner circumferential rim of said cap cover, said circumferential tab being bent against the end rim of the cap, once the cap cover has been coupled to the cap, so as to create an undercut.
Filter unit for blood and blood derivatives comprising a body defined by two injection-moulded half-shells (2, 3) of thermoplastic polymer material, there being present between said half-shells (2, 3) a cavity containing a filtering element having two opposing flat faces (5A, 5B), an inlet opening and an outlet opening made on the opposing outside surfaces (2K, 3K) of said body communicating with said cavity, each of said half-shells (2, 3) comprising a projecting perimetral flange, characterised in that the flanges of the overlapping half-shells are in direct contact and are welded together along a single weld line to define a flange of the body of the filter unit and join the two half-shells (2, 3) together, the flanges being welded together over their entire surface without any foreign component placed between them and in particular without the filtering element being present between them, said half-shells (2, 3) having a face (2W, 3W) facing the cavity of said body of the filter unit from which project ribs capable of pressing against the opposing faces (5A, 5B) of the filtering element, said ribs defining channels between them such as to encourage the movement of blood and blood derivative from inlet opening to outlet opening of said body of the filter unit, the filtering element being wholly contained within cavity of such body and pressed by shelves projecting into such cavity from each half-shell (2, 3), the projecting shelves being located close to the edges of said half-shells (2, 3) on their faces (2W, 3W) close to their perimetral edges, the projecting shelves pressing on the two opposing flat faces (5A, 5B) of the filtering element in the vicinity of one of its perimetral edges, said shelves holding said filtering element in a stable position within cavity, so that said filtering element does not interfere with the welding of the half-shells (2, 3), said thermoplastic polymer material being yielding and semi-rigid, the thermoplastic polymer material having a Shore A hardness of between 85 and 95.
Method for balancing a set of blades provided to be arranged on a bare disk of an aircraft engine, the bare disk comprising a determined number of numbered slots (a i) provided to receive the same determined number of blades that can have a dispersion of mass, the blades being sorted by monotonic order of their mass (m i), forming an ordered set of blades, said method being characterised in that it comprises the following steps: - separate the ordered set of blades in a balanced manner into four lobes composed of a first category designated Large lobes, comprising a first large lobe, and a second large lobe, and a second category designated Small lobes, comprising a first small lobe and a second small lobe, the blades being categorised in each lobe in a current placement order, - arrange the four lobes (GL1, GL2, PL1, PL2) on the bare disk making the current placement order of the blades correspond to the numbered slots of the bare disk, and disposing them in a configuration determined as a function of a first out-of-balance vector representative of an out-of-balance inherent to the bare disk, and - reorganise the blades in the different lobes using an iterative permutation process adapted to balance the first out-of-balance vector by a second out-of-balance vector resulting from the mass dispersion of the blades and their arrangements on the disk, said reorganisation defining a final placement order of the blades on the disk slots. - separate the ordered set of blades in a balanced manner into four lobes composed of a first category designated Large lobes, comprising a first large lobe, and a second large lobe, and a second category designated Small lobes, comprising a first small lobe and a second small lobe, the blades being categorised in each lobe in a current placement order, - arrange the four lobes (GL1, GL2, PL1, PL2) on the bare disk making the current placement order of the blades correspond to the numbered slots of the bare disk, and disposing them in a configuration determined as a function of a first out-of-balance vector representative of an out-of-balance inherent to the bare disk, and - reorganise the blades in the different lobes using an iterative permutation process adapted to balance the first out-of-balance vector by a second out-of-balance vector resulting from the mass dispersion of the blades and their arrangements on the disk, said reorganisation defining a final placement order of the blades on the disk slots.
A brushless motor including a rotor arranged concentrically on an axis of a stator and a position detection element which detects a position of a permanent magnet provided to the rotor, wherein pole teeth are provided to a stator core of the stator radially on an inner peripheral surface side along a circumferential direction with a predetermined space, wherein stator covers (8 1, 8 2) for insulating a location for winding of the stator coil from an outside is formed on both ends of each of the pole teeth on a surface thereof except at least an inner surface, wherein stopper walls that axially protrude from a leading edge of a cover portion of the pole tooth of the stator cover (8 1, 8 2) are provided to prevent the coming off of the stator coil wound around the cover portion of the pole teeth, wherein at least one of the stator covers (8 1, 8 2) comprises pedestal parts that extend from an inner surface side of the stopper wall toward a central axis, wherein a sensor substrate to which a position detection element is mounted so as to face the permanent magnet provided to the rotor in an axial direction is arranged on the pedestal parts, wherein locking portions that prevent the coming off of the sensor substrate in the axial direction are provided on the pedestal parts of said stator cover (8 1, 8 2), wherein the locking portions are provided at locations distant from the stopper wall by a predetermined space to form a gap therebetween, wherein positioning pins are provided so as to protrude from the pedestal parts of said stator cover (8 1, 8 2) in the axial direction, wherein recessed portions with which the positioning pins are engaged are provided to the sensor substrate, wherein claw portions that protrude from the pedestal parts in the axial direction are provided as the locking portions, the claw portions engaging with the sensor substrate, wherein a holding member for preventing disengagement of the claw portion is arranged at the back of the claw portion, wherein coil end covers (5 1, 5 2) that cover the stator coil of the stator on both ends thereof are provided, and wherein an inner diameter side cylindrical portion of the coil end cover (5 1, 5 2) is inserted into the gap portion as the holding member.
A method for detackifying organic contaminants in the process of pulping and papermaking comprising adding an effective dose of non-ionic cellulose ether and cationic coagulant into a papermaking pulp, characterized in that the cationic coagulant is an inorganic coagulant selected from the group consisting of aluminum sulfate, aluminum chloride, ferric sulfate, ferric chloride, polyaluminum sulfate, polyaluminum chloride, aluminum chlorohydrate, polyaluminum sulfate chloride, polyaluminum silicate chloride, polyferric chloride, polyferric sulfate, polyferric sulfate chloride, polyferric silicate chloride, and their combination.
An arrangement for guiding belt-shaped ropes (r,R) of an elevator comprising a plurality of belt-shaped ropes (r,R); a rope wheel deck (40,80,90) comprising a frame mounted on a structure of an elevator, a plurality of rope wheels (4,8,9) for guiding ropes of the elevator, and plurality of bearings (10,12), wherein the rope wheels (4,8,9) are mounted coaxially on the frame via the bearings (10,12) such that they are rotatable relative to the frame as well as relative to each other; wherein only one belt-shaped rope (r,R) passes around each of said rope wheels (4,8,9) of the rope wheel deck (40,80,90), characterized in that the rope wheels (4,8,9) are cambered, and the rope wheel deck (40,80,90) comprises a central shaft common to all said rope wheels (4,8,9), and the central shaft is non-rotatable relative to the frame, and the rope wheel deck (40,80,90) comprises a hollow cylinder (c) surrounding the central shaft, the wall of the hollow cylinder (c) being radially between the rope wheels (4,8,9) and the central shaft, and said plurality of bearings (10,12) comprises at least one bearing radially between the shaft and the cylinder (c), and a bearing radially between each of the rope wheels (4,8,9) and the cylinder (c). a plurality of belt-shaped ropes (r,R); a rope wheel deck (40,80,90) comprising a frame mounted on a structure of an elevator, a plurality of rope wheels (4,8,9) for guiding ropes of the elevator, and plurality of bearings (10,12), wherein the rope wheels (4,8,9) are mounted coaxially on the frame via the bearings (10,12) such that they are rotatable relative to the frame as well as relative to each other; wherein only one belt-shaped rope (r,R) passes around each of said rope wheels (4,8,9) of the rope wheel deck (40,80,90), characterized in that the rope wheels (4,8,9) are cambered, and the rope wheel deck (40,80,90) comprises a central shaft common to all said rope wheels (4,8,9), and the central shaft is non-rotatable relative to the frame, and the rope wheel deck (40,80,90) comprises a hollow cylinder (c) surrounding the central shaft, the wall of the hollow cylinder (c) being radially between the rope wheels (4,8,9) and the central shaft, and said plurality of bearings (10,12) comprises at least one bearing radially between the shaft and the cylinder (c), and a bearing radially between each of the rope wheels (4,8,9) and the cylinder (c).
A battery module comprising two or more battery cells (10, 100), wherein the battery module is configured in a structure in which a temperature sensor to measure the temperature of at least one of the battery cells (10, 100) is disposed between the at least one of the battery cells (10, 100) and a corresponding member (50a, 500, 500a) contacting the at least one of the battery cells (10, 100), the corresponding member (50a, 500, 500a) is provided at a region thereof contacting the at least one of the battery cells with a groove (72, 510, 720) formed in a shape corresponding to the temperature sensor, and the temperature sensor (70, 700) is disposed in contact with an outside of the at least one of the battery cells (10, 100) in a state in which the temperature sensor is mounted in the groove (72, 510, 720), and characterized in that the corresponding member comprises a heat dissipation member (50a, 500, 500a) mounted at an interface between the corresponding battery cells (10, 100), the heat dissipation member having an outwardly exposed portion (520, 520a), wherein the heat dissipation member is configured in a cooling fin structure and the heat dissipation member is formed of a metal sheet exhibiting high thermal conductivity.
A moldable earpiece for an in ear device, comprising: an earpiece having an external surface disposed in a first fixed configuration disposable within the outer ear of an ear, said earpiece having a passage which communicates between a first location and a second location on said external surface of said earpiece, said passage adapted for releasable retention of said in ear device to said earpiece, said earpiece heatable to achieve a moldable condition which allows reconfiguration of said external surface by engagement with said outer ear, said earpiece coolable while engaged with said outer ear to dispose said external surface in a second fixed configuration, characterized in that it further comprises: a conduit which communicates between said first location and said second location on said external surface of said earpiece, said conduit having a conduit external surface which engages said earpiece and an conduit internal surface which defines said passage adapted for releasable retention of said in ear device in relation to said earpiece, wherein said passage defined by said conduit communicates with said first location and said second location to align said passage with an ear canal (18, 58) of said ear, and wherein said conduit upon heating and molding of said earpiece maintains configuration of said conduit internal surface which defines said passage adapted for releasable retention of said in ear device. a conduit which communicates between said first location and said second location on said external surface of said earpiece, said conduit having a conduit external surface which engages said earpiece and an conduit internal surface which defines said passage adapted for releasable retention of said in ear device in relation to said earpiece, wherein said passage defined by said conduit communicates with said first location and said second location to align said passage with an ear canal (18, 58) of said ear, and wherein said conduit upon heating and molding of said earpiece maintains configuration of said conduit internal surface which defines said passage adapted for releasable retention of said in ear device.
A method of configuring communication routes in a wireless communications network, the wireless communications network comprising a plurality of nodes which support integrated wireless access and backhaul, IAB, between a core network and user equipment, UE, the method comprising: at an lAB donor node of the plurality of nodes, configuring a first communication route between the donor lAB node and an IAB node of the plurality of nodes to which the UE is attached with a first target quality of service, QoS, and at the lAB donor node, configuring a second communication route between the donor lAB node and the lAB node to which the UE is attached with a second target quality of service, QoS, wherein configuring the first communication route comprises transmitting first route configuration information from the IAB donor node to the downstream lAB nodes which are part of the first communication route, and transmitting second route configuration information from the IAB donor node to the downstream lAB nodes which are part of the second communication route. at an lAB donor node of the plurality of nodes, configuring a first communication route between the donor lAB node and an IAB node of the plurality of nodes to which the UE is attached with a first target quality of service, QoS, and at the lAB donor node, configuring a second communication route between the donor lAB node and the lAB node to which the UE is attached with a second target quality of service, QoS, wherein configuring the first communication route comprises transmitting first route configuration information from the IAB donor node to the downstream lAB nodes which are part of the first communication route, and transmitting second route configuration information from the IAB donor node to the downstream lAB nodes which are part of the second communication route.
A first lamp for use as one of a plurality of wireless-communication enabled components, each respective one of the components being operable in a first mode in which the respective component appears to a commissioning tool as awaiting commissioning and a second mode in which the respective component does not appear to the commissioning tool as awaiting commissioning, and each of the components being configured to begin in the first mode as part of a commissioning process; wherein the first lamp is configured to perform steps of: A) triggering a second one or more of the components (12b, 12c, 12d) to switch to the second mode, so that during the commissioning process the one or more second components will not to appear to the commissioning tool as awaiting commissioning; B) operating the first lamp in the first mode, following said switching of the one or more second components to the second mode, so that the first lamp will appear to the commissioning tool as awaiting commissioning; and C) interacting with the commissioning tool on behalf of said one or more second components, in order for the first lamp and one or more second components to be commissioned as a group. A) triggering a second one or more of the components (12b, 12c, 12d) to switch to the second mode, so that during the commissioning process the one or more second components will not to appear to the commissioning tool as awaiting commissioning; B) operating the first lamp in the first mode, following said switching of the one or more second components to the second mode, so that the first lamp will appear to the commissioning tool as awaiting commissioning; and C) interacting with the commissioning tool on behalf of said one or more second components, in order for the first lamp and one or more second components to be commissioned as a group.
A sensor apparatus comprising: a chirped diffractive element configured to produce a chirped response in an optical signal and support a plurality of guided mode resonances; a housing for supporting the chirped diffractive element; an illuminator configured for illuminating the chirped diffractive element with an incident optical signal so that the incident optical signal is coupled into at least one of the guided mode resonances supported by the chirped diffractive element; and a detector such as an imaging device for detecting an output optical signa which is coupled out of the chirped diffractive element when the incident optical signal is coupled into at least one of the guided mode resonances supported by the chirped diffractive element, at least one of the guided mode resonances comprising a standing wave; wherein the sensor apparatus is arranged such that the angle of incidence of the incident optical signal and the angle of reflection of the output optical signal are perpendicular or angled to the plane of the diffractive element. a chirped diffractive element configured to produce a chirped response in an optical signal and support a plurality of guided mode resonances; a housing for supporting the chirped diffractive element; an illuminator configured for illuminating the chirped diffractive element with an incident optical signal so that the incident optical signal is coupled into at least one of the guided mode resonances supported by the chirped diffractive element; and a detector such as an imaging device for detecting an output optical signa which is coupled out of the chirped diffractive element when the incident optical signal is coupled into at least one of the guided mode resonances supported by the chirped diffractive element, at least one of the guided mode resonances comprising a standing wave; wherein the sensor apparatus is arranged such that the angle of incidence of the incident optical signal and the angle of reflection of the output optical signal are perpendicular or angled to the plane of the diffractive element.