mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical robot system comprising: a robot; and an instrument assembly attached to the robot, in particular in a releasable manner, the instrument assembly being in accordance with any one of the claims 2 to 4 or 13 to 14. a robot; and an instrument assembly attached to the robot, in particular in a releasable manner, the instrument assembly being in accordance with any one of the claims 2 to 4 or 13 to 14.
A cleaning pad comprising: a liquid pervious floor sheet , and an absorbent core juxtaposed with said floor sheet and comprising absorbent gelling material (AGM) therein, characterized in that said cleaning pad has an absorbency with water of 0.48 to 1, wherein said absorbency is determined by the method described in the description under the header "Absorbency" in that said cleaning pad comprises from 5 to 50 w% AGM , and in that said cleaning pad has a gradient distribution of AGM , with AGM percentage decreasing as the floor sheet is approached. a liquid pervious floor sheet , and an absorbent core juxtaposed with said floor sheet and comprising absorbent gelling material (AGM) therein, characterized in that said cleaning pad has an absorbency with water of 0.48 to 1, wherein said absorbency is determined by the method described in the description under the header "Absorbency" in that said cleaning pad comprises from 5 to 50 w% AGM , and in that said cleaning pad has a gradient distribution of AGM , with AGM percentage decreasing as the floor sheet is approached.
A system (10; 20; 30) for position determination with an energy guide chain for guiding supply lines, the energy guide chain comprising a first run , which is fixed at the end to a connection point, and a mobile second run , which is fixed at the end to a moving end , the moving end being displaceable back and forth along a route, comprising a guide arrangement with guide components (8A, 8B; 28A, 28B; 38A, 38B) arranged along the route for lateral guidance of the energy guide chain during displacement and a sensor device (12; 22; 32) for position determination which is mounted at the moving end , characterized in that at least some guide components (8A, 8B; 28A, 28B; 38A, 38B) have thereon at least one reference component (14; 23A, 24; 33, 33A) serving as position reference, and in that the sensor device (12; 22; 32) interacts with individual reference components for position determination. a guide arrangement with guide components (8A, 8B; 28A, 28B; 38A, 38B) arranged along the route for lateral guidance of the energy guide chain during displacement and a sensor device (12; 22; 32) for position determination which is mounted at the moving end , characterized in that at least some guide components (8A, 8B; 28A, 28B; 38A, 38B) have thereon at least one reference component (14; 23A, 24; 33, 33A) serving as position reference, and in that the sensor device (12; 22; 32) interacts with individual reference components for position determination.
A method for integrating a light emitting device comprising: picking up a micro LED device from a carrier substrate with a transfer head ; placing the micro LED device within a reflective bank structure formed in a bank opening in a bank layer ; releasing the micro LED device from the transfer head ; applying a passivation layer over the bank layer and laterally around the micro LED device within the reflective bank structure , wherein a conductive line is elevated above the reflective bank structure ; hardening the passivation layer ; etching the passivation layer , such that a top surface of the micro LED device and a top surface of the conductive line are not covered by the passivation layer , and the top surface of the micro LED device and the conductive line protrude above a top surface of the passivation layer after etching the passivation layer ; and forming a top electrode layer over the top surface of the passivation layer and on the top surface of the micro LED device and the conductive line that protrude above the top surface of the passivation layer . picking up a micro LED device from a carrier substrate with a transfer head ; placing the micro LED device within a reflective bank structure formed in a bank opening in a bank layer ; releasing the micro LED device from the transfer head ; applying a passivation layer over the bank layer and laterally around the micro LED device within the reflective bank structure , wherein a conductive line is elevated above the reflective bank structure ; hardening the passivation layer ; etching the passivation layer , such that a top surface of the micro LED device and a top surface of the conductive line are not covered by the passivation layer , and the top surface of the micro LED device and the conductive line protrude above a top surface of the passivation layer after etching the passivation layer ; and forming a top electrode layer over the top surface of the passivation layer and on the top surface of the micro LED device and the conductive line that protrude above the top surface of the passivation layer .
Method for producing semiconductor wafers from a workpiece by processing the workpiece by means of a wire saw, comprising feeding the workpiece through an arrangement of wires which are tensioned between wire guide rollers while being divided into wire groups (25a-d) and move in a running direction; producing kerfs when the wires engage into the workpiece; characterized by the following method steps: for each of the wire groups (25a-d), determining a placement error of the kerfs of the wire group; and for each of the wire groups, inducing compensating movements of the wires of the wire group as a function of the determined placement error of the kerfs of the wire group in a direction perpendicular to the running direction of the wires of the wire group (25a-d) during the feeding of the workpiece through the arrangement of wires by activating at least one drive element (24a-e). feeding the workpiece through an arrangement of wires which are tensioned between wire guide rollers while being divided into wire groups (25a-d) and move in a running direction; producing kerfs when the wires engage into the workpiece; characterized by the following method steps: for each of the wire groups (25a-d), determining a placement error of the kerfs of the wire group; and for each of the wire groups, inducing compensating movements of the wires of the wire group as a function of the determined placement error of the kerfs of the wire group in a direction perpendicular to the running direction of the wires of the wire group (25a-d) during the feeding of the workpiece through the arrangement of wires by activating at least one drive element (24a-e). for each of the wire groups (25a-d), determining a placement error of the kerfs of the wire group; and for each of the wire groups, inducing compensating movements of the wires of the wire group as a function of the determined placement error of the kerfs of the wire group in a direction perpendicular to the running direction of the wires of the wire group (25a-d) during the feeding of the workpiece through the arrangement of wires by activating at least one drive element (24a-e).
A vacuum pump comprising: a rotating body supported and floated in air by an electromagnet ; a position sensor that detects a radial or axial position of the rotating body ; a subtractor that computes a difference between the position detected by the position sensor and a displacement command value; high-rigidity-mode adjusting means provided for a high-rigidity-mode for increasing a control gain and improving response to disturbance, wherein the high-rigidity-mode adjusting means adjusts an output of the subtractor to high rigidity; low-rigidity-mode adjusting means provided for a low-rigidity-mode for performing control during low vibrations with a small control gain or a small steady-state current, wherein the low-rigidity-mode adjusting means adjusts the output of the subtractor to low rigidity; output-signal adding means that adds an output signal of the low-rigidity-mode adjusting means and an output signal of the high-rigidity-mode adjusting means ; amplifying means that amplifies the output signals added by the output signal adding means ; current is passed through a winding of the electromagnet based on the output signal amplified by the amplifying means , and the signal adjusted by the high-rigidity-mode adjusting means and the signal adjusted by the low-rigidity-mode adjusting means are adjusted based on a first ratio. a subtractor that computes a difference between the position detected by the position sensor and a displacement command value; high-rigidity-mode adjusting means provided for a high-rigidity-mode for increasing a control gain and improving response to disturbance, wherein the high-rigidity-mode adjusting means adjusts an output of the subtractor to high rigidity; low-rigidity-mode adjusting means provided for a low-rigidity-mode for performing control during low vibrations with a small control gain or a small steady-state current, wherein the low-rigidity-mode adjusting means adjusts the output of the subtractor to low rigidity; output-signal adding means that adds an output signal of the low-rigidity-mode adjusting means and an output signal of the high-rigidity-mode adjusting means ; amplifying means that amplifies the output signals added by the output signal adding means ; current is passed through a winding of the electromagnet based on the output signal amplified by the amplifying means , and the signal adjusted by the high-rigidity-mode adjusting means and the signal adjusted by the low-rigidity-mode adjusting means are adjusted based on a first ratio.
A first digital subscriber line device to mitigate crosstalk noise on a signal to be transmitted over a transmission line of a network, the device comprising: a transceiver device configured to transmit a reference virtual noise signal that is an estimation of noise on the transmission line to a second digital subscriber line device connected to the transmission line, wherein the transceiver device is configured to receive a bit loading value of the signal from the second digital subscriber line device that mitigates the crosstalk noise based on the reference virtual noise signal, wherein the transceiver device is configured to transmit an update of the reference virtual noise signal at showtime, wherein the transceiver device is configured to receive a measure of noise of the transmission line of the network from the second device, wherein the transceiver device is configured to receive the bit loading value from the second digital subscriber line device based on the reference virtual noise signal for a plurality of modes of communication, and wherein the transceiver device is configured to switch between the modes of communication, wherein at least one of the modes of communication is a power saving mode. a transceiver device configured to transmit a reference virtual noise signal that is an estimation of noise on the transmission line to a second digital subscriber line device connected to the transmission line, wherein the transceiver device is configured to receive a bit loading value of the signal from the second digital subscriber line device that mitigates the crosstalk noise based on the reference virtual noise signal, wherein the transceiver device is configured to transmit an update of the reference virtual noise signal at showtime, wherein the transceiver device is configured to receive a measure of noise of the transmission line of the network from the second device, wherein the transceiver device is configured to receive the bit loading value from the second digital subscriber line device based on the reference virtual noise signal for a plurality of modes of communication, and wherein the transceiver device is configured to switch between the modes of communication, wherein at least one of the modes of communication is a power saving mode.
A system comprising: a first controller operable to assume one of a plurality of respective states, in a first state the first controller being configured automatically to cause a powertrain to develop drive torque and cause a vehicle to operate in accordance with a target speed value, the first controller being configured to receive a door state indicator signal indicative of whether a door is in an open or closed state, and an occupant presence indicator signal indicative of whether an occupant is present in a given seat of a vehicle, the system being configured not to permit operation of the first controller in the first state in dependence on the door state indicator signal and the occupant presence indicator signal; wherein the system is further operational in a second state in which the controller is operable automatically to cause application of a brake to one or more wheels thereby to cause a vehicle to operate in accordance with the target speed value and in which the first controller is not permitted automatically to cause a powertrain to develop drive torque; and wherein if the first controller is in the first state and the controller determines that door state indicator signal indicates the door is not in the closed state or that the occupant presence indicator signal indicates an occupant is not present, the first controller assumes operation in the second state. a first controller operable to assume one of a plurality of respective states, in a first state the first controller being configured automatically to cause a powertrain to develop drive torque and cause a vehicle to operate in accordance with a target speed value, the first controller being configured to receive a door state indicator signal indicative of whether a door is in an open or closed state, and an occupant presence indicator signal indicative of whether an occupant is present in a given seat of a vehicle, the system being configured not to permit operation of the first controller in the first state in dependence on the door state indicator signal and the occupant presence indicator signal; wherein the system is further operational in a second state in which the controller is operable automatically to cause application of a brake to one or more wheels thereby to cause a vehicle to operate in accordance with the target speed value and in which the first controller is not permitted automatically to cause a powertrain to develop drive torque; and wherein if the first controller is in the first state and the controller determines that door state indicator signal indicates the door is not in the closed state or that the occupant presence indicator signal indicates an occupant is not present, the first controller assumes operation in the second state.
An insulated wire comprising: at least one thermosetting resin layer ; and at least one thermoplastic resin layer , provided in this order on a conductor having a rectangular cross-section, a curvature radius r of corner portions at both edges of at least one short side of the conductor being 0.6 mm or less, wherein at least one resin constituting the thermoplastic resin layer is a thermoplastic resin selected from the group consisting of a polyether ether ketone, a modified polyether ether ketone, a thermoplastic polyimide, and an aromatic polyimide; and wherein thickness t1 of the corner portion of the thermosetting resin layer and thickness t2 of the corner portion of the thermoplastic resin layer satisfy a relation expressed by the following Formula 1: t 2 / t 1 < 1 . at least one thermosetting resin layer ; and at least one thermoplastic resin layer , provided in this order on a conductor having a rectangular cross-section, a curvature radius r of corner portions at both edges of at least one short side of the conductor being 0.6 mm or less, wherein at least one resin constituting the thermoplastic resin layer is a thermoplastic resin selected from the group consisting of a polyether ether ketone, a modified polyether ether ketone, a thermoplastic polyimide, and an aromatic polyimide; and wherein thickness t1 of the corner portion of the thermosetting resin layer and thickness t2 of the corner portion of the thermoplastic resin layer satisfy a relation expressed by the following Formula 1: t 2 / t 1 < 1 .
A device manufacturing method comprising transferring a pattern from a patterning device (MA) onto a substrate (W), wherein the method comprises: using a first sensor within a lithographic apparatus (LA) to obtain first calibration vibration data relating to vibration of the lithographic apparatus (LA); using a second sensor to obtain second calibration vibration data, the second calibration vibration data being a component of first parameter data of the lithographic apparatus (LA); using the first calibration vibration data and second calibration vibration data to calculate a filter, the filter being operable such that when applied to the first calibration vibration data, its output correlates closer with the second calibration vibration data, and further comprising, during a lithographic process : measuring the first parameter data of the lithographic apparatus (LA); using the first sensor within the lithographic apparatus (LA) to obtain first process vibration data; and applying the filter to the first process vibration data to obtain an estimate of a vibration component of the first parameter data during the lithographic process . using a first sensor within a lithographic apparatus (LA) to obtain first calibration vibration data relating to vibration of the lithographic apparatus (LA); using a second sensor to obtain second calibration vibration data, the second calibration vibration data being a component of first parameter data of the lithographic apparatus (LA); using the first calibration vibration data and second calibration vibration data to calculate a filter, the filter being operable such that when applied to the first calibration vibration data, its output correlates closer with the second calibration vibration data, and further comprising, during a lithographic process : measuring the first parameter data of the lithographic apparatus (LA); using the first sensor within the lithographic apparatus (LA) to obtain first process vibration data; and applying the filter to the first process vibration data to obtain an estimate of a vibration component of the first parameter data during the lithographic process . measuring the first parameter data of the lithographic apparatus (LA); using the first sensor within the lithographic apparatus (LA) to obtain first process vibration data; and applying the filter to the first process vibration data to obtain an estimate of a vibration component of the first parameter data during the lithographic process .
A lid having an upper side and a lower side for closing a receiving opening of a mixing vessel of a kitchen machine, having an opening which breaks through the lid transversely with respect to a covering plane, and having an insert which is inserted in the opening and is detachably connected to the lid , the insert being provided in the region of the opening with first connecting structures which form a detachable connection with second connecting structures formed on the insert , characterised in that closing the opening , first connecting structures being provided in the region of the opening and forming a releasable connection between the insert and the lid with second connecting structures formed on the insert , wherein the insert has a circumferential side wall with which it projects over the upper side of the lid , and wherein the insert also has a covering surface which closes off the side wall on the end face, wherein the side wall is transparent at least in one region, characterised in that the insert has a light source which is set up to emit light in the direction of the opening and towards the underside of the lid.
Luminous device for an automotive vehicle, comprising at least one luminous module and a housing, said luminous module being movably mounted in said housing by means of a first fastening point (101.1), a second fastening point (101.2) and a third fastening point (101.3), said fastening points being arranged to control an orientation of the luminous module in the housing and defining two axes of rotation (102; 103) of the luminous module in the housing, including a horizontal axis of rotation defined by the second (101.2) and third (101.3) fastening points when the luminous device is mounted in an automotive vehicle, the luminous device further comprising an additional fastening point (101.4) of the luminous module on the housing, said additional fastening point being arranged between the second (101.2) and third (101.3) fastening points, characterized in that the additional fastening point (101.4) is arranged on the horizontal axis of rotation .
An imaging sensor package comprising: an imaging sensor ; and an architected substrate coupled to a bottom surface of the imaging sensor , the architected substrate having local stiffness variations along an in-plane direction of the architected substrate, wherein the imaging sensor and the architected substrate are curved, and characterised in that the imaging sensor is wrinkled, wherein the wrinkles are low-amplitude wrinkles, having an amplitude less than twice of the pixel width, and are imparted by the stiffness variations of the architected substrate. an imaging sensor ; and an architected substrate coupled to a bottom surface of the imaging sensor , the architected substrate having local stiffness variations along an in-plane direction of the architected substrate, wherein the imaging sensor and the architected substrate are curved, and characterised in that the imaging sensor is wrinkled, wherein the wrinkles are low-amplitude wrinkles, having an amplitude less than twice of the pixel width, and are imparted by the stiffness variations of the architected substrate.