mhurhangee/ep-ind-claims huggingface dataset:
A child restraint system adapted to be mounted within a vehicle, the child restraint system comprising: a child seat configured to receive a child occupant; a first sensor coupled to the child seat, the first sensor configured to output a first signal indicative of positional angle of the child seat relative to a first axis; and a controller coupled to the child seat configured to receive the first signal and to calculate a first angle value based on the first signal, the controller further configured to induce a first device disposed on the child seat to indicate when the first angle value is not within a predetermined angular range (Δθ) from the first axis wherein the child restraint system further comprises a second sensor configured to output a second signal indicative of the weight of child occupant, the controller further configured to receive the second signal and to calculate the predetermined angular range (Δθ) value based on the second signal, wherein the second sensor comprises a pressure sensor disposed on the child seat. a child seat configured to receive a child occupant; a first sensor coupled to the child seat, the first sensor configured to output a first signal indicative of positional angle of the child seat relative to a first axis; and a controller coupled to the child seat configured to receive the first signal and to calculate a first angle value based on the first signal, the controller further configured to induce a first device disposed on the child seat to indicate when the first angle value is not within a predetermined angular range (Δθ) from the first axis wherein the child restraint system further comprises a second sensor configured to output a second signal indicative of the weight of child occupant, the controller further configured to receive the second signal and to calculate the predetermined angular range (Δθ) value based on the second signal, wherein the second sensor comprises a pressure sensor disposed on the child seat.
A neck collar for interfacing with a lower edge of a helmet of a wearer, the collar comprising a shell including a plurality of shell components (14a, 14b, 14c), said collar being characterized by: a closed-cell pad forming a loop to be secured about the neck of the wearer, the pad having an upper face, a lower face, an inner side, and an outer side; wherein said plurality of shell components (14a, 14b, 14c) is secured to portions of the upper face of the pad, the shell being more rigid than the pad to spread the energy of impact with a lower edge of the helmet over a larger region of the pad, and wherein the shell and the pad each includes a chest portion having a split for opening the pad for donning and doffing the collar. a closed-cell pad forming a loop to be secured about the neck of the wearer, the pad having an upper face, a lower face, an inner side, and an outer side;
A method for isolating umbilical cord blood-derived pluripotent or multipotent stem cells expressing ZNF281, comprising the steps of (a) culturing mononuclear cells isolated from umbilical cord blood in a culture vessel coated with fibronectin and containing an EGM-2TM or SNU-1 medium as defined in Table 1 with fetal bovine serum, bFGF, ascorbic acid, EGF, hydrocortisone, IGF-I, VEGF and heparin; and (b) harvesting the cultured stem cells from the culture, wherein the stem cell is in an undifferentiated state. (a) culturing mononuclear cells isolated from umbilical cord blood in a culture vessel coated with fibronectin and containing an EGM-2TM or SNU-1 medium as defined in Table 1 with fetal bovine serum, bFGF, ascorbic acid, EGF, hydrocortisone, IGF-I, VEGF and heparin; and (b) harvesting the cultured stem cells from the culture, wherein the stem cell is in an undifferentiated state.
A magnetically driven centrifugal pump having an axis of impeller rotation, comprising a pump case; an open vane impeller including an impeller hub in the pump case rotatably mounted about the axis of impeller rotation; a stuffing box including a stuffing box outer being fixed relative to the pump case and a stuffing box inner threadedly engaged with the stuffing box outer by threads extending about the axis of impeller rotation; a rotor axially fixed and rotatably mounted about the axis of impeller rotation in the stuffing box inner, the impeller being fixed to rotate with the rotor; a drive fixed relative to the pump case and including a drive output rotatably mounted about the axis of impeller rotation and extending into the stuffing box; a magnetic coupling between the rotor and the drive output; a canister fixed to the stuffing box and extending through the magnetic coupling to isolate the rotor from the drive.
A solid form of a compound of formula characterized by an XRPD pattern comprising at least one XRPD peak in the range of angles of diffraction 2Theta (CuKα) of 10.3° to 13.3° wherein the solid form is crystalline (1,1-dioxo-1λ 6 -thiomorpholin-4-yl)-{6-[3-(4-fluoro-phenyl)-5-methyl-isoxazol-4-ylmethoxy]-pyridin-3-yl}-methanone in anhydrous polymorphic form C, characterized by an XRPD diffraction pattern comprising XRPD peaks at angles of diffraction 2Theta (CuKα) of 17.4°±0.2°, and 23.4°±0.2°.
A system comprising: a first controller area network, CAN, system including: a first CAN chip; and a second CAN chip different from the first CAN chip; and a first common CAN bus coupled to the first CAN system, the first common CAN bus coupling the first CAN chip and the second CAN chip together; wherein the first CAN chip and the second CAN chip are configured to receive a first CAN frame from the first common CAN bus, and the first CAN system is configured to detect a failure of at least the first CAN chip or the second CAN chip, wherein the first CAN system configured to detect the failure of at least the first CAN chip or the second CAN chip comprises: the first CAN system being configured to determine that the first CAN frame as received by the first CAN chip is not identical to the first CAN frame as received by the second CAN chip. a first controller area network, CAN, system including: a first CAN chip; and a second CAN chip different from the first CAN chip; and a first common CAN bus coupled to the first CAN system, the first common CAN bus coupling the first CAN chip and the second CAN chip together; wherein the first CAN chip and the second CAN chip are configured to receive a first CAN frame from the first common CAN bus, and the first CAN system is configured to detect a failure of at least the first CAN chip or the second CAN chip, wherein the first CAN system configured to detect the failure of at least the first CAN chip or the second CAN chip comprises: the first CAN system being configured to determine that the first CAN frame as received by the first CAN chip is not identical to the first CAN frame as received by the second CAN chip. a first CAN chip; and a second CAN chip different from the first CAN chip; and a first common CAN bus coupled to the first CAN system, the first common CAN bus coupling the first CAN chip and the second CAN chip together; wherein the first CAN chip and the second CAN chip are configured to receive a first CAN frame from the first common CAN bus, and the first CAN system is configured to detect a failure of at least the first CAN chip or the second CAN chip, wherein the first CAN system configured to detect the failure of at least the first CAN chip or the second CAN chip comprises: the first CAN system being configured to determine that the first CAN frame as received by the first CAN chip is not identical to the first CAN frame as received by the second CAN chip.
A solid efavirenz composition, comprising nanoparticles of efavirenz dispersed within a mixture of at least one hydrophilic polymer and at least one surfactant; wherein the hydrophilic polymer is PVA and the surfactant is selected from vitamin E polyethylene glycol succinate, polysorbate 80, and sodium deoxycholate.
Distribution system for a signal communication system, said distribution system comprising one or more signal communication system network interfaces (SCS-N-3) to communicatively couple to at least a signal node and a client node of said signal communication system; said distribution system comprising a memory holding a distribution system switching control register (DS-T-45) comprising distribution system signal representation switching parameter records (DS-T-35) each comprising a signal injection label (SG-T-4), associated with a respective signal node, being a handle of a signal and one or more associated signal distribution labels (SG-T-2) each associated with a client node; said distribution system comprises processing means arranged to switch non-addressed signal representations (SG-A-1) of signals from signal nodes to client nodes according to said distribution system signal representation switching parameter records (DS-T-35) by determining on the basis of said associated signal injection labels (SG-T-4) and signal distribution labels (SG-T-2) stored in said distribution system signal representation switching parameter records (DS-T-35) which one or more signal distribution labels (SG-T-2) should be used for transporting said received non-addressed signal representation (SG-A-1) to the client nodes, so that distribution, including node addressing, of said non-addressed signal representations (SG-A-1) is managed by said distribution system and not by said signal nodes and client nodes. said distribution system comprising one or more signal communication system network interfaces (SCS-N-3) to communicatively couple to at least a signal node and a client node of said signal communication system; said distribution system comprising a memory holding a distribution system switching control register (DS-T-45) comprising distribution system signal representation switching parameter records (DS-T-35) each comprising a signal injection label (SG-T-4), associated with a respective signal node, being a handle of a signal and one or more associated signal distribution labels (SG-T-2) each associated with a client node; said distribution system comprises processing means arranged to switch non-addressed signal representations (SG-A-1) of signals from signal nodes to client nodes according to said distribution system signal representation switching parameter records (DS-T-35) by determining on the basis of said associated signal injection labels (SG-T-4) and signal distribution labels (SG-T-2) stored in said distribution system signal representation switching parameter records (DS-T-35) which one or more signal distribution labels (SG-T-2) should be used for transporting said received non-addressed signal representation (SG-A-1) to the client nodes, so that distribution, including node addressing, of said non-addressed signal representations (SG-A-1) is managed by said distribution system and not by said signal nodes and client nodes.
An LED luminaire (200, 300, 400, 500, 600, 700, 800, 900, 1000) comprising: an array (210, 310, 410) of LED elements (215, 216, 315, 415, 515, 516, 615, 616, 715, 716, 815, 816, 915, 916, 1015, 1016), each configured to emit light, disposed in a first plane; and an optical element (220, 320, 420) comprising one or more partially reflective elements (250, 251, 260, 350, 351, 450, 550, 650, 750, 850, 950A, 950B, 1050A, 1050B, 1050C), each partially reflective element being positioned so as to directly receive light emitted by an LED element (215, 315, 415) of the array of LED elements and comprising a light incident surface positioned perpendicularly to the first plane and, wherein each partially reflective element is configured to reflect a first part (281, 394) of received light using at least the light incident surface and transmit a second, different part (282, 395) of the received light, characterized in that at least one partially reflective element (250, 251) is positioned such that the virtual source of the first part of the directly received light, which is reflected using the light incident surface, lies between the LED element from which the partially reflective element directly receives light and an adjacent LED element. an array (210, 310, 410) of LED elements (215, 216, 315, 415, 515, 516, 615, 616, 715, 716, 815, 816, 915, 916, 1015, 1016), each configured to emit light, disposed in a first plane; and an optical element (220, 320, 420) comprising one or more partially reflective elements (250, 251, 260, 350, 351, 450, 550, 650, 750, 850, 950A, 950B, 1050A, 1050B, 1050C), each partially reflective element being positioned so as to directly receive light emitted by an LED element (215, 315, 415) of the array of LED elements and comprising a light incident surface positioned perpendicularly to the first plane and, wherein each partially reflective element is configured to reflect a first part (281, 394) of received light using at least the light incident surface and transmit a second, different part (282, 395) of the received light, characterized in that at least one partially reflective element (250, 251) is positioned such that the virtual source of the first part of the directly received light, which is reflected using the light incident surface, lies between the LED element from which the partially reflective element directly receives light and an adjacent LED element.
A method of providing zero configuration (zeroconf) networking across multiple multicast domains (110, 120, 130), comprising the steps of: at a gateway configured to communicate with both a first multicast domain and a second multicast domain, bridging a zeroconf multicast service between the first multicast domain and the second multicast domain, by receiving a zeroconf multicast service discovery query from a client device in the first multicast domain; re-broadcasting the zeroconf multicast service discovery query in the second multicast domain; and receiving multicast service advertisements of client devices in the second multicast domain in response to the multicast service discovery query; the method characterised by further comprising fencing access to a zeroconf service from the second multicast domain to the first multicast domain by the gateway on the basis of a pre-determined proximity, wherein the pre-determined proximity includes a proximity to an access point. at a gateway configured to communicate with both a first multicast domain and a second multicast domain, bridging a zeroconf multicast service between the first multicast domain and the second multicast domain, by receiving a zeroconf multicast service discovery query from a client device in the first multicast domain; re-broadcasting the zeroconf multicast service discovery query in the second multicast domain; and receiving multicast service advertisements of client devices in the second multicast domain in response to the multicast service discovery query; receiving a zeroconf multicast service discovery query from a client device in the first multicast domain; re-broadcasting the zeroconf multicast service discovery query in the second multicast domain; and receiving multicast service advertisements of client devices in the second multicast domain in response to the multicast service discovery query; the method characterised by further comprising fencing access to a zeroconf service from the second multicast domain to the first multicast domain by the gateway on the basis of a pre-determined proximity, wherein the pre-determined proximity includes a proximity to an access point.
A method for manufacturing a microstructure, the method comprising: (a) preparing a viscous composition on a lower substrate; and (b) applying a centrifugal force to the viscous composition to induce an extension of the viscous composition, thereby manufacturing a microstructure, and characterized in that the method adjusts at least one dimension of the microstructure which is selected from the group consisting of a length, a diameter, and an aspect ratio by adjusting the centrifugal force. (a) preparing a viscous composition on a lower substrate; and (b) applying a centrifugal force to the viscous composition to induce an extension of the viscous composition, thereby manufacturing a microstructure, and characterized in that the method adjusts at least one dimension of the microstructure which is selected from the group consisting of a length, a diameter, and an aspect ratio by adjusting the centrifugal force.
Redox flow battery including an anodic half-cell with manganese in an oxidation state less than or equal to +11 and a cathodic half-cell with manganese in an oxidation state greater than or equal to +II, wherein the oxidation states of the manganese in the anodic half-cell and in the cathodic half-cell differ in the charged state, characterized in that the flow battery comprises an electrolyte comprising at least one salt having the general formula [cat] 2 [MnHal n], wherein [cat] + represents a cation and "Hal" represents oxygen, cyanide, at least one halogen or a mixture thereof, n is equal to 3, 4 or 5, and represents the number of atoms binding to the manganese atom, and at least one organic solvent, wherein the cation [cat] + is selected from a group comprising ammonium cations and/or phosphonium cations and wherein manganese deposits in the anodic half-cell.
A control device for a luminaire, that comprises: - a communications interface, which is configured, in order to receive control data (201, 202, 203) via a data connection, - a control interface for coupling with an emergency battery for at least one lighting means of the luminaire, and - at least one switching circuit, which is coupled with the communications interface and the control interface and which is configured, in order to control a discharge of the emergency battery by means of the control interface depending on the control data (201, 202, 203), characterized in that the communications interface is configured, in order to receive the control data by demodulation of a supply voltage of the luminaire. - a communications interface, which is configured, in order to receive control data (201, 202, 203) via a data connection, - a control interface for coupling with an emergency battery for at least one lighting means of the luminaire, and - at least one switching circuit, which is coupled with the communications interface and the control interface and which is configured, in order to control a discharge of the emergency battery by means of the control interface depending on the control data (201, 202, 203),
An apparatus for assisting a person to move from a seated position on a seat or the like to a standing position and vice versa, said apparatus comprising: a base; an actuator arrangement supported by said base; a torso support (8, 39) configured for supporting the torso and possibly also the underarms of the person to be supported with the chest of the person facing the torso support (8, 39); said torso support (8, 39) having a main engagement surface for engaging the chest of the person to be assisted, said actuator arrangement being configured to be able to move said torso support (8, 39) up and down over a range of vertical positions and said actuator arrangement being configured to be able to move said torso support (8, 39) back and forth over a range of horizontal positions in a direction substantially perpendicular to said main engagement surface; wherein said actuator arrangement is configured to move said torso support (8, 39) in said vertical range of positions independently of the horizontal position of the torso support (8, 39); and wherein said actuator arrangement is configured to move said torso support (8, 39) in said horizontal range of positions independently of the vertical position of the torso support (8, 39); and a rotational actuator operatively connected to said torso support (8, 39) for rotating said torso support (8, 39) about a substantially horizontal pivot axis, characterized in that the actuator arrangement including said rotational actuator is connected to a processor and operated under command of said processor. a base; an actuator arrangement supported by said base; a torso support (8, 39) configured for supporting the torso and possibly also the underarms of the person to be supported with the chest of the person facing the torso support (8, 39); said torso support (8, 39) having a main engagement surface for engaging the chest of the person to be assisted, said actuator arrangement being configured to be able to move said torso support (8, 39) up and down over a range of vertical positions and said actuator arrangement being configured to be able to move said torso support (8, 39) back and forth over a range of horizontal positions in a direction substantially perpendicular to said main engagement surface; wherein said actuator arrangement is configured to move said torso support (8, 39) in said vertical range of positions independently of the horizontal position of the torso support (8, 39); and wherein said actuator arrangement is configured to move said torso support (8, 39) in said horizontal range of positions independently of the vertical position of the torso support (8, 39); and a rotational actuator operatively connected to said torso support (8, 39) for rotating said torso support (8, 39) about a substantially horizontal pivot axis, characterized in that the actuator arrangement including said rotational actuator is connected to a processor and operated under command of said processor.
A network comprising a plurality of interconnected core circuits, wherein each core circuit comprises: - an electronic array (8, 9) comprising a plurality of computing nodes and a plurality of memory circuits, which electronic array (8, 9) is configured to receive incoming events, wherein each computing node of said plurality of computing nodes is configured to generate an event comprising a data packet when incoming events received by the respective computing node satisfy a pre-defined criterion, and - a circuit which is configured to append a destination address and additional source information to the respective data packet, and - a local first router for providing intra-core connectivity and/or delivering events to an intermediate level second router for inter-core connectivity and to a higher level third router for inter-unit connectivity, and - a broadcast driver for broadcasting incoming events to all the memory circuits in the core circuit in parallel, characterized in that the network further comprises an event routing system (R1, R2, R3) interconnecting the core circuits, wherein the event routing system comprises said local first routers and the intermediate level second and the higher level third routers (R2, R3), wherein the entirety of the routers (R1, R2, R3) form a hierarchical structure. - an electronic array (8, 9) comprising a plurality of computing nodes and a plurality of memory circuits, which electronic array (8, 9) is configured to receive incoming events, wherein each computing node of said plurality of computing nodes is configured to generate an event comprising a data packet when incoming events received by the respective computing node satisfy a pre-defined criterion, and - a circuit which is configured to append a destination address and additional source information to the respective data packet, and - a local first router for providing intra-core connectivity and/or delivering events to an intermediate level second router for inter-core connectivity and to a higher level third router for inter-unit connectivity, and - a broadcast driver for broadcasting incoming events to all the memory circuits in the core circuit in parallel,
Method for shaping a plate made of a sintered and restructured polytetrafluoroethylene, which method comprises: - heating the plate to a temperature θ 1 at least equal to the melting temperature of a sintered polytetrafluoroethylene; and - shaping the thereby heated plate by compression in a compression mold. - heating the plate to a temperature θ 1 at least equal to the melting temperature of a sintered polytetrafluoroethylene; and - shaping the thereby heated plate by compression in a compression mold.