mhurhangee/ep-ind-claims huggingface dataset:
Transfer device for substrates from the field of manufacturing of electronic components or displays, which is provided for feeding substrates to a process plant, said transfer device being provided with a housing having a first input/output interface to an overhead transport plant for substrate transport boxes characterized in that the housing has a second input/output interface to the process plant, the first input/output interface being arranged above the second input/output interface with respect to a vertical direction, and in that the transfer device further comprises a handling device which is arranged in the transfer device and by means of which the substrates can be removed from the transport boxes and can be introduced into the transfer device free of transport boxes, as well as means with which the substrates can be transported from one interface to the other interface by the handling device arranged in the transfer device free of transport boxes.
A method performed by a terminal which forms part of a wireless communication system, the method comprising: receiving, from a base station, configuration information on a physical resource block, PRB, bundling via higher layer signaling, the configuration information including first information indicating that a precoding resource block group, PRG, size is indicated via downlink control information, DCI, and second information including one or more PRG size values among a set of PRG size values, which includes 2, 4, and an allocated bandwidth for the terminal, wherein one of the one or more PRG size values indicates the allocated bandwidth for the terminal; receiving, from the base station, the DCI including a PRG size indicator on a physical downlink control channel, PDCCH, wherein the PRG size indicator is set as a value corresponding to a PRG size value which is the one of the one or more PRG size values; identifying the PRG size based on the configuration information and the PRG size indicator; and estimating a channel state based on an assumption that a same precoding is applied to PRBs based on the identified PRG size. receiving, from a base station, configuration information on a physical resource block, PRB, bundling via higher layer signaling, the configuration information including first information indicating that a precoding resource block group, PRG, size is indicated via downlink control information, DCI, and second information including one or more PRG size values among a set of PRG size values, which includes 2, 4, and an allocated bandwidth for the terminal, wherein one of the one or more PRG size values indicates the allocated bandwidth for the terminal; receiving, from the base station, the DCI including a PRG size indicator on a physical downlink control channel, PDCCH, wherein the PRG size indicator is set as a value corresponding to a PRG size value which is the one of the one or more PRG size values; identifying the PRG size based on the configuration information and the PRG size indicator; and estimating a channel state based on an assumption that a same precoding is applied to PRBs based on the identified PRG size.
A semi-permeable device comprising - a cell encapsulating chamber comprising a human pancreatic progenitor cell population derived from human pluripotent stem cells, wherein the chamber is comprised of a biocompatible material including polysulfone, nano-fiber mats, polyimide, tetrafluoroethylene/polytetrafluoroethylene (PTFE), expanded polytetrafluoroethylene (ePTFE), polyacrylonitrile, polyethersulfone, acrylic resin, cellulose acetate, cellulose nitrate, polyamide, or hydroxylpropyl methyl cellulose (HPMC); - at least one port for loading the human pancreatic progenitor cell population into the cell encapsulating chamber, and - at least one seal that is within the cell encapsulation chamber, wherein the at least one seal within the cell encapsulation chamber is centrally located and extends down the long axis of the device and it effectively reduces the chamber volume. - a cell encapsulating chamber comprising a human pancreatic progenitor cell population derived from human pluripotent stem cells, wherein the chamber is comprised of a biocompatible material including polysulfone, nano-fiber mats, polyimide, tetrafluoroethylene/polytetrafluoroethylene (PTFE), expanded polytetrafluoroethylene (ePTFE), polyacrylonitrile, polyethersulfone, acrylic resin, cellulose acetate, cellulose nitrate, polyamide, or hydroxylpropyl methyl cellulose (HPMC); - at least one port for loading the human pancreatic progenitor cell population into the cell encapsulating chamber, and - at least one seal that is within the cell encapsulation chamber, wherein the at least one seal within the cell encapsulation chamber is centrally located and extends down the long axis of the device and it effectively reduces the chamber volume.
An antenna with multiple feeds per beam comprising a focal array equipped with a plurality of radiofrequency RF feeds and a beam forming network BFN, each RF feed comprising a radiating horn linked to a RF transmission and reception chain, two transmission ports (Tx1, Tx2) respectively operating in two different polarisations that are orthogonal to one another and two reception ports (Rx1, Rx2) respectively operating in said two different polarisations, the number of RF feeds per beam being equal to four, characterized in that the focal array and the beam forming network are modular, the RF feeds being grouped into subassemblies that are respectively integrated in various cluster sources that are independent of one another, each comprising at least four RF feeds and the beam forming network BFN comprising multiple independent linear partial BFNs (BFN1, BFN2, BFN3), called BFN strips, and in that it further comprises a single structural interface board comprising a front face on which the various cluster sources are mounted, positioned next to one another, and a back face on which the BFN strips are mounted side by side, the structural board comprising a plurality of through waveguides that end on the two front and back faces to which, on the one hand, the various ports of the RF feeds of each cluster source and, on the other hand, corresponding ports of the linear partial BFNs are respectively connected, the corresponding ports of the RF feeds and of the partial BFNs being mutually linked via the through waveguides of the interface board.
A light-emitting unit, comprising: a plurality of side-emission type light-emitting devices disposed two-dimensionally on a mounting surface; a light guide plate that is disposed at a position opposed to each of the light-emitting devices, and has uneven layers (32, 33) on a bottom surface and a top surface, the uneven layers (32, 33) controlling entry and exit of light; and a reflective structure that is fixed to either only the bottom surface or both the mounting surface and the bottom surface, wherein the reflective structure has a reflective section reflecting output light from each of the light-emitting devices toward the bottom surface, wherein the light-emitting devices have a layered structure comprising, in order from the mounting surface: a semiconductor-laminated structure (122, 123, 124) having an electrode on a face that is positioned on a side of the mounting surface, a light-transmissive substrate and a reflection layer, wherein the light-emitting devices are configured to emit high-intensity light in a direction parallel to the mounting surface rather than in a direction perpendicular to the mounting surface. a plurality of side-emission type light-emitting devices disposed two-dimensionally on a mounting surface; a light guide plate that is disposed at a position opposed to each of the light-emitting devices, and has uneven layers (32, 33) on a bottom surface and a top surface, the uneven layers (32, 33) controlling entry and exit of light; and a reflective structure that is fixed to either only the bottom surface or both the mounting surface and the bottom surface, wherein the reflective structure has a reflective section reflecting output light from each of the light-emitting devices toward the bottom surface, wherein the light-emitting devices have a layered structure comprising, in order from the mounting surface: a semiconductor-laminated structure (122, 123, 124) having an electrode on a face that is positioned on a side of the mounting surface, a light-transmissive substrate and a reflection layer, wherein the light-emitting devices are configured to emit high-intensity light in a direction parallel to the mounting surface rather than in a direction perpendicular to the mounting surface.
Wheeled carrying structure with collapsible undercarriage comprising: - a carrying frame; - two supporting wheel axles (5, 8); both provided with at least one wheel (6, 9), said wheel axles (5, 8) with lockable swivelling legs (4, 7) being connected to the carrying frame for moving the supporting wheel axles (5, 8) between a mobile position at a distance from the carrying frame and a collapsed position located near the carrying frame; and characterized by - a third run-in wheel axle provided with at least one wheel, said third run-in wheel axle, with at least one swivelling third leg, also being connected to the carrying frame; wherein the third run-in wheel axle is movable from a folded-out run-in position located essentially in front of the carrying frame to a folded-in position located under the carrying frame. - a carrying frame; - two supporting wheel axles (5, 8); both provided with at least one wheel (6, 9), said wheel axles (5, 8) with lockable swivelling legs (4, 7) being connected to the carrying frame for moving the supporting wheel axles (5, 8) between a mobile position at a distance from the carrying frame and a collapsed position located near the carrying frame; and characterized by - a third run-in wheel axle provided with at least one wheel, said third run-in wheel axle, with at least one swivelling third leg, also being connected to the carrying frame;
A process for the preparation of a substituted N-phenylhydroxylamine of formula I by reduction of the correspondingly substituted nitrobenzene compound of formula II, wherein the reaction is carried out by reacting the substituted nitrobenzene with hydrogen or hydrazine in the presence of a rhodium catalyst.
A hybrid vehicle comprising: an engine; a fuel tank configured to supply fuel to the engine; a motor; a battery configured to supply electric power to the motor; a charger configured to carry out external charging that charges the battery by use of an external power source; and a communication device configured to transmit, to a vehicle external system, a use index indicative of a degree of use of external charging in a predetermined time period, characterized by an electronic control unit configured to use the following as the use index or to calculate the use index based on the following: a ratio of the number of times that the external charging has been carried out in charging chances in which the vehicle is in a state where the external charging is able to be carried out to the number of the charging chances. an engine; a fuel tank configured to supply fuel to the engine; a motor; a battery configured to supply electric power to the motor; a charger configured to carry out external charging that charges the battery by use of an external power source; and a communication device configured to transmit, to a vehicle external system, a use index indicative of a degree of use of external charging in a predetermined time period, characterized by an electronic control unit configured to use the following as the use index or to calculate the use index based on the following: a ratio of the number of times that the external charging has been carried out in charging chances in which the vehicle is in a state where the external charging is able to be carried out to the number of the charging chances.
A method of manufacturing an optical lens (417, 901), comprising: obtaining a transparent thermoplastic carrier (410, 1210) with at least one smooth surface; printing, via a 3-D printer on the side opposite to the at least one smooth surface of the transparent thermoplastic carrier (410, 1210), at least one transparent layer (420, 1220) using a thermoplastic filament, each transparent layer (420, 1220) having a predetermined light filtering property, thereby forming a functional layer (420, 1220); and performing an injection over-molding process to fuse bond the functional layer (420, 1220) to a thermoplastic substrate thereby forming the optical lens, characterized in that the at least one smooth surface of the transparent thermoplastic carrier (410, 1210) is a smooth surface of the manufactured optical lens (417, 901). obtaining a transparent thermoplastic carrier (410, 1210) with at least one smooth surface; printing, via a 3-D printer on the side opposite to the at least one smooth surface of the transparent thermoplastic carrier (410, 1210), at least one transparent layer (420, 1220) using a thermoplastic filament, each transparent layer (420, 1220) having a predetermined light filtering property, thereby forming a functional layer (420, 1220); and performing an injection over-molding process to fuse bond the functional layer (420, 1220) to a thermoplastic substrate thereby forming the optical lens, characterized in that the at least one smooth surface of the transparent thermoplastic carrier (410, 1210) is a smooth surface of the manufactured optical lens (417, 901).
A clamping apparatus for clamping a workpiece, which is toothed or is to be toothed and has an axis of rotation, onto a spindle, which can be rotationally driven and has a spindle axis defining an axial direction, comprising a clamping mechanism, which converts an axial force (F a) transferred via a force transfer device into a clamping force (F s) directed radially to the spindle axis, wherein the force transfer device has a first section movably guided by a guide arrangement in a movement having an axial direction component, a second section which extends at least partially in a direction running radially with respect to the spindle axis and which is coupled to the first section, and a third section coupled to the second section, wherein the first section is segmented into a plurality of transfer elements (12a, 12b, 12c, 12d) spaced apart from each other in a circumferential direction, characterised in that the segmentation of the second section corresponds to the segmentation of the first section and the second section has a force reversing mechanism which reverses a tensile force or compressive force exerted on the third section into a compressive force or tensile force acting on the first section. comprising a clamping mechanism, which converts an axial force (F a) transferred via a force transfer device into a clamping force (F s) directed radially to the spindle axis, wherein the force transfer device has a first section movably guided by a guide arrangement in a movement having an axial direction component, a second section which extends at least partially in a direction running radially with respect to the spindle axis and which is coupled to the first section, and a third section coupled to the second section, wherein the first section is segmented into a plurality of transfer elements (12a, 12b, 12c, 12d) spaced apart from each other in a circumferential direction, characterised in that the segmentation of the second section corresponds to the segmentation of the first section and the second section has a force reversing mechanism which reverses a tensile force or compressive force exerted on the third section into a compressive force or tensile force acting on the first section.
A self-expandable stent (1, 1a, 1b, 1c, 1d) comprising: a plurality of first wires (10, 10a); a plurality of second wires (11, 60) interwoven with the plurality of first wires (10, 10a); and a first anchor member (20, 20a) attached to a distal end (22, 22a) of one wire of the plurality of first wires and the plurality of second wires (11, 60), characterized in that: a distal end (22, 22a) of the first anchor member (20, 20a) is fixed to the one wire, while a proximal end (24, 24a) of the first anchor member (20, 20a) is a free end and not fixed to the one wire. a plurality of first wires (10, 10a); a plurality of second wires (11, 60) interwoven with the plurality of first wires (10, 10a); and a first anchor member (20, 20a) attached to a distal end (22, 22a) of one wire of the plurality of first wires and the plurality of second wires (11, 60), characterized in that: a distal end (22, 22a) of the first anchor member (20, 20a) is fixed to the one wire, while a proximal end (24, 24a) of the first anchor member (20, 20a) is a free end and not fixed to the one wire. a distal end (22, 22a) of the first anchor member (20, 20a) is fixed to the one wire, while a proximal end (24, 24a) of the first anchor member (20, 20a) is a free end and not fixed to the one wire.
Fluidising device for treating particulate material, having a fluidising unit which has a longitudinal axis (X-X) and a perforated inflow base that subdivides the fluidising unit into a distributor chamber and a fluidising chamber that is arranged above the distributor chamber, wherein the fluidising chamber comprises a material inlet for the material to be treated and the distributor chamber comprises a material discharge having a material outlet for the treated material (M'), which outlet has a material outlet area, a bottom edge and a top edge (23a, 23b), wherein the inflow base in an operating position is arranged above the top edge of the material outlet and the distributor chamber comprises a fluid inlet and the fluidising chamber comprises a fluid outlet for a process gas which flows from the fluid inlet through the perforated inflow base to the fluid outlet and fluidises the material in the fluidising chamber, characterised in that the inflow base can be moved relative to the fluidising unit, wherein the inflow base in an emptying position is positioned at least partly below the top edge of the material outlet by moving the inflow base relative to the fluidising unit, so that a fluid connection is formed between the material outlet arranged in the distributor chamber and the fluidising chamber past the inflow base in order to discharge treated material (M') from the fluidising unit.
A working chamber comprising: a box-shaped body case including a work space in an interior thereof and an insertion portion, in a front surface thereof; a supply device configured to supply gas in an exterior of the body case, through a supply filter, into the work space in the body case; a discharge device configured to discharge gas in the work space, through an outlet filter, to the exterior of the body case; a work plate configuring a bottom surface of the work space, the bottom surface having an opening formed therein; a storage chamber provided below the work plate, the storage chamber communicating with the work space through the opening; and an observation device capable of being lifted and lowered so that the whole thereof is disposed in the storage chamber when the device is in a housed state and at least a part thereof is disposed in the work space when the device is in an in-use state, characterized in that the observation device having a receiving portion on a side surface thereof, the receiving portion having a width in a horizontal direction greater than a gap between the work plate and the observation device in the in-use state, the receiving portion being configured to close the gap between the observation device and the work plate, with an upper end portion of the receiving portion and a back surface of the work plate being in contact with or adjacent to each other, in the in-use state of the observation device. a box-shaped body case including a work space in an interior thereof and an insertion portion, in a front surface thereof; a supply device configured to supply gas in an exterior of the body case, through a supply filter, into the work space in the body case; a discharge device configured to discharge gas in the work space, through an outlet filter, to the exterior of the body case; a work plate configuring a bottom surface of the work space, the bottom surface having an opening formed therein; a storage chamber provided below the work plate, the storage chamber communicating with the work space through the opening; and an observation device capable of being lifted and lowered so that the whole thereof is disposed in the storage chamber when the device is in a housed state and at least a part thereof is disposed in the work space when the device is in an in-use state, characterized in that the observation device having a receiving portion on a side surface thereof, the receiving portion having a width in a horizontal direction greater than a gap between the work plate and the observation device in the in-use state, the receiving portion being configured to close the gap between the observation device and the work plate, with an upper end portion of the receiving portion and a back surface of the work plate being in contact with or adjacent to each other, in the in-use state of the observation device.
Method for controlling a multi winding set permanent magnet electrical machine in case of a fault in a first group of the winding sets leaving a second group of the winding sets functional, the multi winding set permanent magnet electrical machine being configured as a generator of a wind turbine, the method comprising: determining a value of a torque generated by all winding sets; and controlling values of currents (155, 156) of the second group of winding sets based on the value of a torque, in order to reduce a damaging torque and/or a torque oscillation occurring and/or to break the machine, wherein controlling values of currents of the second group comprises controlling values of a d-component of the currents of the second group of winding sets based on the value of the torque, characterised by controlling the values of the d-component of the currents of the second group of winding sets comprises setting a fault reference value of the d-component of the currents of the second group of winding sets based on a sign of the value (154, 168) of the torque. determining a value of a torque generated by all winding sets; and controlling values of currents (155, 156) of the second group of winding sets based on the value of a torque, in order to reduce a damaging torque and/or a torque oscillation occurring and/or to break the machine, wherein controlling values of currents of the second group comprises controlling values of a d-component of the currents of the second group of winding sets based on the value of the torque, characterised by controlling the values of the d-component of the currents of the second group of winding sets comprises setting a fault reference value of the d-component of the currents of the second group of winding sets based on a sign of the value (154, 168) of the torque.
A graphene structure comprising: a substrate; and a stack of at least two graphene layers (122, 124, 126, 128) disposed on top of the substrate, the at least two graphene layers (122, 124, 126, 128) comprising a gate voltage tuned layer and an effective graphene layer, the effective graphene layer comprising one or more graphene layers, wherein a magnetoresistance of the graphene structure is determined by a difference in a charge mobility and/or a carrier density between the gate voltage tuned layer and the effective graphene layer, and wherein the charge mobility and/or the carrier density of the gate voltage tuned layer is tunable by a gate voltage applied to the graphene structure. a substrate; and a stack of at least two graphene layers (122, 124, 126, 128) disposed on top of the substrate, the at least two graphene layers (122, 124, 126, 128) comprising a gate voltage tuned layer and an effective graphene layer, the effective graphene layer comprising one or more graphene layers,