mhurhangee/ep-ind-claims huggingface dataset:
Method for battery management, wherein an amount of a current (I V) that can be provided by the battery in a prediction time period (Δt) is determined from an available amount (K R) of a status variable predicted in the prediction time period (Δt), wherein the predicted available amount (K R) of the status variable is determined by means of a difference between a permissible amount (K max) of the status variable determined with respect to a first reference time period (t 1) and an obtained amount of the status variable determined with respect to the first reference time period (t 1), wherein the following applies: K = ∫ t − t 1 t I 2 t ′ dt ′, where K is the obtained amount of the status variable in the first reference time period t 1, I is the current measured in A and t is the time measured in s; K max = I 2 rms T ⋅ t 1, where K max is the permissible amount of the status variable in the first reference time period t 1 and I rms is a temperature-dependent lifetime-optimized upper limit of the current; K R = K max − K, where K R is the predicted maximum available amount of the status variable, characterized in that the predicted available amount (K R) of the status variable is increased by an amount (K N) of an obtained status variable determined with respect to a second reference time period (t 2), wherein the following applies: K R = K max − K + K N, with K N = ∫ t − t 1 t − t 1 + t 2 I 2 t ′ dt ′, where K N is the amount of the obtained status variable determined with respect to the second reference time period t 2; and wherein the amount of the current that can be provided is determined according to I V = K max − K + K N Δt = t 1 I 2 rms T − ∫ t − t 1 t I 2 t ′ dt ′ + ∫ t − t 1 t − t 1 + Δt I 2 t ′ dt ′ Δt
A liquid composition comprising an organic liquid diluent and at least one non-ionic cellulose ether having a viscosity from 1.20 to 2.33 mPa·s, measured as a 2 wt.-% solution in water at 20°C according to Ubbelohde.
Contact-free controlled water armature, comprising an armature body comprising a wall which limits an internal space, wherein the wall comprises a base opening, a sensor opening and an outlet opening, and a presence sensor which is fixedly mounted on a sensor support, wherein in said internal space at least one mounting surface is provided for the mounting of the sensor support, wherein the sensor support is formed in two parts with a mounting part, on which the presence sensor is fastened, and a support part, wherein the mounting part and the support part are connected to each other via a longitudinal guiding and are movable relative to each other from an assembly position to a mounted position along the longitudinal guiding, wherein in the assembly position the mounting part is insertable into the internal space through the base opening and the presence sensor can be positioned partially or entirely in the sensor opening by manipulation of the support part projecting out of the internal space, wherein after the placement of the presence sensor in the sensor opening the support part can be slid into the internal space along the longitudinal guiding and comes to lie on the at least one mounting surface, characterized in that between the mounting part and the support part a latching element is arranged in the region of the longitudinal guiding, such that the relative movement between the mounting part and the support part is already restrained in the assembly position, such that the mounting part and the support part are secured relative to each other by the latching element at all times, wherein only upon expenditure of a corresponding force which overcomes the restraint, the mounting part and the support part can be moved relative to each other.
A cleaning composition for removing plasma etching residues and/or ashing residues formed on a semiconductor substrate, which includes: (Component a) water; (Component b) an amine compound; (Component c) hydroxylamine and/or a salt thereof; (Component d) a quaternary ammonium compound; (Component e) an organic acid; and (Component f) a water-soluble organic solvent; and has a pH of 6 to 9. (Component a) water; (Component b) an amine compound; (Component c) hydroxylamine and/or a salt thereof; (Component d) a quaternary ammonium compound; (Component e) an organic acid; and (Component f) a water-soluble organic solvent; and has a pH of 6 to 9.
Foldable container formed from a polymeric material comprising a bottom wall, a peripheral wall comprising first and second sidewalls hinged to the bottom wall; and a fill level sensor provided in the peripheral wall for measuring a level of a stored material, in particular a liquid filling material, located in the container; wherein the fill level sensor emits radiation for determining the level at an acute angle, relative to the peripheral wall, in a direction to the bottom wall. a bottom wall, a peripheral wall comprising first and second sidewalls hinged to the bottom wall; and a fill level sensor provided in the peripheral wall for measuring a level of a stored material, in particular a liquid filling material, located in the container; wherein the fill level sensor emits radiation for determining the level at an acute angle, relative to the peripheral wall, in a direction to the bottom wall.
A cleaning agent comprising a supporting substrate with an oxidoreductase enzyme immobilized thereon wherein the oxidoreductase enzyme is selected from oxidoreductase enzymes having an enzyme classification number selected from the group consisting of E.C. 1.1 - 1.10 and E.C. 1.12 - 1.99 and wherein the oxidoreductase enzyme is immobilized on the substrate by means of a covalent chemical bond.
A non-destructive inspection system comprising: a positioning system comprising a projector for illuminating a workpiece with one or more markers, a marker indicating a location on the workpiece to be inspected; and a non-destructive inspection apparatus comprising: an ultrasonic sensor configured to be placed in operable contact with the workpiece, wherein the ultrasonic sensor is configured to emit ultrasonic signals into the workpiece and to receive return signals in response to the ultrasonic signals emitted thereby; a grip operably connected to the ultrasonic sensor such that the grip and the ultrasonic sensor are movable in concert, wherein the grip is configured to support an operator's palm such that force applied to the non-destructive inspection apparatus by the operator is transferred via the grip to the ultrasonic sensor, and a communication interface comprising a receiver configured to receive the marker and confirm alignment with the marker as to indicate that the inspection apparatus is properly located relative to the workpiece. a positioning system comprising a projector for illuminating a workpiece with one or more markers, a marker indicating a location on the workpiece to be inspected; and a non-destructive inspection apparatus comprising: an ultrasonic sensor configured to be placed in operable contact with the workpiece, wherein the ultrasonic sensor is configured to emit ultrasonic signals into the workpiece and to receive return signals in response to the ultrasonic signals emitted thereby; a grip operably connected to the ultrasonic sensor such that the grip and the ultrasonic sensor are movable in concert, wherein the grip is configured to support an operator's palm such that force applied to the non-destructive inspection apparatus by the operator is transferred via the grip to the ultrasonic sensor, and a communication interface comprising a receiver configured to receive the marker and confirm alignment with the marker as to indicate that the inspection apparatus is properly located relative to the workpiece. an ultrasonic sensor configured to be placed in operable contact with the workpiece, wherein the ultrasonic sensor is configured to emit ultrasonic signals into the workpiece and to receive return signals in response to the ultrasonic signals emitted thereby; a grip operably connected to the ultrasonic sensor such that the grip and the ultrasonic sensor are movable in concert, wherein the grip is configured to support an operator's palm such that force applied to the non-destructive inspection apparatus by the operator is transferred via the grip to the ultrasonic sensor, and a communication interface comprising a receiver configured to receive the marker and confirm alignment with the marker as to indicate that the inspection apparatus is properly located relative to the workpiece.
A dental care device for detection and removal of plaque automatically and independently, comprising: a. a motion controlled plaque removal head having multiple arrays of bristles (14, 15, 16) placed vertically and horizontally thereon, wherein each array of bristles (14, 15, 16) is controlled separately by a dedicated motor (141, 151, 161); b. a plaque detection unit adapted to capture images of the teeth and gums, wherein said plaque detection unit includes an imaging device and a light source with specific wavelength for illumination of said teeth and gums; and c. a plaque detection engine adapted to process the captured images in order to accurately detect plaque infected areas on said teeth, and accordingly to generate instructions for automatically guiding said motion controlled plaque removal head to reach and focus on said infected areas and avoiding areas which do not need brushing, thereby enabling closing the loop between detecting the plaque residing areas and controlling the plaque removal head to reach them. a. a motion controlled plaque removal head having multiple arrays of bristles (14, 15, 16) placed vertically and horizontally thereon, wherein each array of bristles (14, 15, 16) is controlled separately by a dedicated motor (141, 151, 161); b. a plaque detection unit adapted to capture images of the teeth and gums, wherein said plaque detection unit includes an imaging device and a light source with specific wavelength for illumination of said teeth and gums; and c. a plaque detection engine adapted to process the captured images in order to accurately detect plaque infected areas on said teeth, and accordingly to generate instructions for automatically guiding said motion controlled plaque removal head to reach and focus on said infected areas and avoiding areas which do not need brushing, thereby enabling closing the loop between detecting the plaque residing areas and controlling the plaque removal head to reach them.
Viewing window for insertion into a viewing opening, in particular a viewing opening of a HVAC system and/or a climate chamber, having two pane supports (3, 4) which are insertable into the viewing opening from opposite directions (R 1, R 2) along an assembly axis and are connectable to one another by way of a rotary connection, wherein the rotary connection is formed by relative rotation of the two pane supports (3, 4), characterized in that the rotary connection is secured by way of a latching mechanism against being unintentionally released.
Hand-held power tool having a drive unit and having an output shaft on which is formed a tool holder that has a polygonal socket for connecting to a first insert tool, and a polygonal outer receptacle for connecting to a second insert tool, wherein the tool holder is assigned a locking unit for locking the first insert tool, wherein the locking unit comprises at least one locking element which is designed as a locking ring, and the locking unit has at least one locking member, wherein the locking ring has at least one contact face which is provided for axially supporting the second insert tool, characterized in that the locking ring is provided for locking the locking member, wherein the locking element interacts with the locking member, wherein the locking member is mounted so as to be radially displaceable, and in a locking position the locking element locks the locking member in such a way that the first insert tool is locked via the locking member in the polygonal socket.
A catheter (160, 160') comprising: a tube having a distal end; a balloon (130, 130S) secured to the distal end; a push wire (134, 175, 206) that causes said balloon (130, 130S) to evert from the distal end; and an actuator for said push wire; characterized in that the balloon is configured such that upon deflation a series of wrinkles form on the surface of said balloon (130, 130S) to create multiple edges for collection of cells. a tube having a distal end; a balloon (130, 130S) secured to the distal end; a push wire (134, 175, 206) that causes said balloon (130, 130S) to evert from the distal end; and an actuator for said push wire; characterized in that the balloon is configured such that upon deflation a series of wrinkles form on the surface of said balloon (130, 130S) to create multiple edges for collection of cells.
A method for producing an adaptive sunshade, comprising the following steps: providing a textile material; creating a plurality of scales by cutting through the textile material in portions by means of a laser, characterized by: breaking the edges created by the laser cutting in order for the scales to open up at one side when tensile stress is exerted on the textile material, the edges being broken such that surface regions of the edges on the side where the scales open up when tensile stress is exerted are overstretched. providing a textile material; creating a plurality of scales by cutting through the textile material in portions by means of a laser, characterized by: breaking the edges created by the laser cutting in order for the scales to open up at one side when tensile stress is exerted on the textile material, the edges being broken such that surface regions of the edges on the side where the scales open up when tensile stress is exerted are overstretched.
A method in a first mobile base station for providing backhaul capacity in an ad-hoc mesh network with multiple egress links, comprising: attaching, at the first mobile base station that is a node of an ad-hoc mesh network, to a macro cell; measuring, at the first mobile base station, at least one of a signal quality parameter with the macro cell and a throughput to the macro cell; reporting, from the first mobile base station to a coordinating node, information comprising at least one of the signal quality parameter and the measured throughput, and at least one of a physical position of the first mobile base station and a cell identifier of the macro cell; receiving, at the first mobile base station, an instruction to advertise a backhaul connection from the first mobile base station to the macro cell to other nodes in the ad-hoc mesh network; and receiving, at the first mobile base station, new route information, wherein the new route information is different than the route information sent to a second mobile base station that is part of the ad-hoc mesh network, and the new route information causes the first and the second mobile base station of the ad-hoc mesh network to have different routing information, wherein the first mobile base station is acting as a backhaul node, wherein the first mobile base station is in communication with the second mobile base station and a third mobile base station, and wherein the first mobile base station, the second mobile base station and the third mobile base station create a mesh network, thereby providing an increase in overall backhaul capacity of the ad-hoc mesh network. attaching, at the first mobile base station that is a node of an ad-hoc mesh network, to a macro cell; measuring, at the first mobile base station, at least one of a signal quality parameter with the macro cell and a throughput to the macro cell; reporting, from the first mobile base station to a coordinating node, information comprising at least one of the signal quality parameter and the measured throughput, and at least one of a physical position of the first mobile base station and a cell identifier of the macro cell; receiving, at the first mobile base station, an instruction to advertise a backhaul connection from the first mobile base station to the macro cell to other nodes in the ad-hoc mesh network; and receiving, at the first mobile base station, new route information, wherein the new route information is different than the route information sent to a second mobile base station that is part of the ad-hoc mesh network, and the new route information causes the first and the second mobile base station of the ad-hoc mesh network to have different routing information, wherein the first mobile base station is acting as a backhaul node, wherein the first mobile base station is in communication with the second mobile base station and a third mobile base station, and wherein the first mobile base station, the second mobile base station and the third mobile base station create a mesh network, thereby providing an increase in overall backhaul capacity of the ad-hoc mesh network.
A method for selecting a trajectory, comprising: using at least one twistlock sensor on a machine to sense a location of a twist lock hole on an object; transmitting said sensed location to a processor (32, 34) to calculate a sensed trajectory for a twistlock to engage said twist lock hole; using at least one operator input sensor to sense an input from an operator moving said twist lock to engage said twist lock hole; transmitting said sensed operator input to said processor to calculate an operator trajectory for said twist lock to engage said twist lock hole; characterised in that the method further comprises comparing said sensed trajectory with said operator trajectory; and determining how much of said sensed trajectory and said operator trajectory will be used to locate said twist lock into said twist lock hole in said object. using at least one twistlock sensor on a machine to sense a location of a twist lock hole on an object; transmitting said sensed location to a processor (32, 34) to calculate a sensed trajectory for a twistlock to engage said twist lock hole; using at least one operator input sensor to sense an input from an operator moving said twist lock to engage said twist lock hole; transmitting said sensed operator input to said processor to calculate an operator trajectory for said twist lock to engage said twist lock hole; characterised in that the method further comprises comparing said sensed trajectory with said operator trajectory; and determining how much of said sensed trajectory and said operator trajectory will be used to locate said twist lock into said twist lock hole in said object.
An analog Near Field Communication, NFC, signal demodulation apparatus, comprising: a clock generation device, arranged to generate a clock signal according to an inputting modulated signal (MOD_IN) received by an antenna, wherein the inputting modulated signal is modulated by Amplitude shift keying, ASK, wherein a signal edge of the clock signal aligns to a turning point of the inputting modulated signal MOD_IN), wherein the turning point of the inputting modulated signal MOD_IN) is a peak or a valley of the inputting modulated signal (MOD_IN); and a demodulation device, arranged to demodulate the inputting modulated signal (MOD_IN) to generate a demodulated signal (DEMOD_OUT) according to the clock signal. a clock generation device, arranged to generate a clock signal according to an inputting modulated signal (MOD_IN) received by an antenna, wherein the inputting modulated signal is modulated by Amplitude shift keying, ASK, wherein a signal edge of the clock signal aligns to a turning point of the inputting modulated signal MOD_IN), wherein the turning point of the inputting modulated signal MOD_IN) is a peak or a valley of the inputting modulated signal (MOD_IN); and a demodulation device, arranged to demodulate the inputting modulated signal (MOD_IN) to generate a demodulated signal (DEMOD_OUT) according to the clock signal.
Motion control apparatus including a case including a planar annular disc and an annular wall extending from the planar annular disc and having a free end, an output, a bearing rotatably mounting the output to the case about an axis and within the annular wall extending axially from the planar annular disc, and a drive station mounted to the case and rotating the output, wherein the case further includes an enclosure having a panel integrally connected to the annular wall and extending radially outward opposite to the output, a top integrally formed with the panel, and a lower opening defined by the panel opposite to the top and radially aligned with the planar annular disc, with the panel and the lower opening having cross sections perpendicular to the axis which are U-shaped, with the annular wall including a side opening corresponding to the enclosure, with the planar annular disc including an arcuate cutout corresponding to the enclosure and the side opening, with the drive station extending in the lower opening, the side opening and the arcuate cutout and rotatably engaging with the output, wherein the planar annular disc, the annular wall and the enclosure are integrally formed as a single, inseparable piece part of homogenous material.
Current collector for diverting electrical energy from an overhead contact line to an electrically drivable vehicle, wherein the overhead contact line is fixedly arranged and the current collector is connected to the vehicle, and the sliding element comprises a carrier and at least one carbon sliding piece arranged on the support, and at least one fastening point is formed between the sliding element and the current collector for fastening the sliding element to the current collector, at least one latching means is arranged in each fastening point between the sliding element and the current collector on the side of the sliding element and, on the side of the current collector, to each of the latching means a receptacle associated thereto for this latching means, wherein each latching means and its respective associated receptacle are releasably engaged with each other by inserting and latching the latching means into its associated receptacle, characterised in that the carrier has a compressed air channel for a compressed air indicator or damage or wear indicator of the at least one carbon sliding piece, and the latching means and the receptacle associated therewith each have corresponding lead-throughs (33, 34) forming a continuous passage for compressed air transfer from the current collector into the compressed air channel in the carrier when the latching means and its associated receptacle are releasably engaged with each other. the overhead contact line is fixedly arranged and the current collector is connected to the vehicle, and the sliding element comprises a carrier and at least one carbon sliding piece arranged on the support, and at least one fastening point is formed between the sliding element and the current collector for fastening the sliding element to the current collector, at least one latching means is arranged in each fastening point between the sliding element and the current collector on the side of the sliding element and, on the side of the current collector, to each of the latching means a receptacle associated thereto for this latching means, wherein each latching means and its respective associated receptacle are releasably engaged with each other by inserting and latching the latching means into its associated receptacle,
A method, characterized in comprising: obtaining a bit mask based upon at least one of a number of antennas or a transmission diversity scheme; and scrambling a plurality of cyclic redundancy check bits to be transmitted with the bit mask to thereby impart information regarding at least one of the number of antennas or the transmission diversity scheme. obtaining a bit mask based upon at least one of a number of antennas or a transmission diversity scheme; and scrambling a plurality of cyclic redundancy check bits to be transmitted with the bit mask to thereby impart information regarding at least one of the number of antennas or the transmission diversity scheme.