mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating an electronic device comprising a first processor , a second processor , a non-volatile memory , an internal battery and an internal coil for generating current through electromagnetic induction, wherein a power requirement of the second processor is lower than a power requirement of the first processor , the method comprising: when a charge level of the internal battery is above a threshold charge level: executing, by the first processor , a plurality of tasks; and storing, by the first processor , data concerning at least one of the tasks to the non-volatile memory ; when the charge level of the internal battery is below the threshold charge level: in response to receiving electrical power from the internal coil : i) retrieving, by the second processor , the data concerning the at least one task from the non-volatile memory ; and ii) executing, by the second processor , the at least one task. when a charge level of the internal battery is above a threshold charge level: executing, by the first processor , a plurality of tasks; and storing, by the first processor , data concerning at least one of the tasks to the non-volatile memory ; when the charge level of the internal battery is below the threshold charge level: in response to receiving electrical power from the internal coil : i) retrieving, by the second processor , the data concerning the at least one task from the non-volatile memory ; and ii) executing, by the second processor , the at least one task.
Carrier element for supporting at least one medical or dental instrument in a cleaning or care device in order to clean or care for the at least one medical or dental instrument in the cleaning or care device , wherein a first transmitting and receiving unit is arranged on the medical or dental instrument , which is configured for wireless transmission of electromagnetic radiation comprising data and/or energy with a second transmitting and receiving unit , wherein at least one coupling antenna is provided on the carrier element , which is configured to receive the electromagnetic radiation transmitted wirelessly between the first transmitting and receiving unit and the second transmitting and receiving unit and to emit it again in order to support the wireless transmission of the electromagnetic radiation comprising data and/or energy between the first transmitting and receiving unit and the second transmitting and receiving unit , characterized in that the at least one coupling antenna comprises a flat top antenna which is formed by an opening or aperture or a slot in an outer wall of the carrier element or by a slot in a plate inserted into the carrier element . at least one coupling antenna is provided on the carrier element , which is configured to receive the electromagnetic radiation transmitted wirelessly between the first transmitting and receiving unit and the second transmitting and receiving unit and to emit it again in order to support the wireless transmission of the electromagnetic radiation comprising data and/or energy between the first transmitting and receiving unit and the second transmitting and receiving unit , characterized in that the at least one coupling antenna comprises a flat top antenna which is formed by an opening or aperture or a slot in an outer wall of the carrier element or by a slot in a plate inserted into the carrier element .
A printhead module for an additive manufacturing system , comprising: a frame configured to be removably mounted on a movable printhead support ; a dispenser configured to deliver a layer of particles on a platen that is separate from the frame, or an underlying layer on the platen; a heat source configured to heat the layer of particles to a temperature below a temperature at which the particles fuse, wherein the heat source comprises an array of heat lamps ; and an energy source configured to fuse the particles, wherein the energy source is configured to generate a beam and a spot of impingement of the beam on the layer of particles is movable along a second axis, and the energy source is configured to deflect the beam along the second axis perpendicular to a first axis; wherein the dispenser , heat source and energy source are positioned on the frame in order along the first axis, and wherein the dispenser , heat source and energy source are fixed to the frame such that the frame, dispenser , heat source and energy source can be mounted and dismounted as a single unit from the printhead support . a frame configured to be removably mounted on a movable printhead support ; a dispenser configured to deliver a layer of particles on a platen that is separate from the frame, or an underlying layer on the platen; a heat source configured to heat the layer of particles to a temperature below a temperature at which the particles fuse, wherein the heat source comprises an array of heat lamps ; and an energy source configured to fuse the particles, wherein the energy source is configured to generate a beam and a spot of impingement of the beam on the layer of particles is movable along a second axis, and the energy source is configured to deflect the beam along the second axis perpendicular to a first axis; wherein the dispenser , heat source and energy source are positioned on the frame in order along the first axis, and wherein the dispenser , heat source and energy source are fixed to the frame such that the frame, dispenser , heat source and energy source can be mounted and dismounted as a single unit from the printhead support .
An obturator assembly , comprising: a hub forming a central passage ; a catheter having a distal end and an opposing proximal end , the catheter including a small-bore connector at the proximal end coupled to the hub , the catheter forming a lumen extending between the distal end and the proximal end of the catheter , the lumen in fluid communication with the central passage ; and an obturator movably positioned within the lumen , the obturator movable between a first position and a second position, the obturator including a distal end having a tip portion , wherein, with the obturator in the first position, the distal end of the obturator limits fluid flow through the lumen and, with the obturator in the second position, the distal end of the obturator provides a fluid flow path through the lumen ; further comprising: a locking collar operatively coupled to the hub , the locking collar configurable in a locked configuration to prevent movement of the obturator within the lumen and in an unlocked configuration to allow movement of the obturator within the lumen , wherein, in the locked configuration, the locking collar is configured to prevent movement of the obturator within the lumen whether the obturator is in the first position or in the second position, wherein the locking collar comprises a tab configured to selectively interfere with a depression formed in the obturator with the locking collar in the locked configuration. a hub forming a central passage ; a catheter having a distal end and an opposing proximal end , the catheter including a small-bore connector at the proximal end coupled to the hub , the catheter forming a lumen extending between the distal end and the proximal end of the catheter , the lumen in fluid communication with the central passage ; and an obturator movably positioned within the lumen , the obturator movable between a first position and a second position, the obturator including a distal end having a tip portion , wherein, with the obturator in the first position, the distal end of the obturator limits fluid flow through the lumen and, with the obturator in the second position, the distal end of the obturator provides a fluid flow path through the lumen ; further comprising: a locking collar operatively coupled to the hub , the locking collar configurable in a locked configuration to prevent movement of the obturator within the lumen and in an unlocked configuration to allow movement of the obturator within the lumen , wherein, in the locked configuration, the locking collar is configured to prevent movement of the obturator within the lumen whether the obturator is in the first position or in the second position, wherein the locking collar comprises a tab configured to selectively interfere with a depression formed in the obturator with the locking collar in the locked configuration.
A method for managing radio resources by a radio resource manager, RRM, in a wireless network comprising a plurality of nodes (102-1, ... 102-n), the RRM, and at least one wireless transmit/receive unit, WTRU, , the method comprising: the RRM monitoring performance of wireless backhaul links (112-1, ..., 112-n) associated with the nodes (102-1, ... 102-n) of the wireless network ; and the RRM interacting with at least one of the nodes to change a configuration on a particular one of the wireless backhaul links between two of the nodes if performance on the particular wireless backhaul link falls below an established threshold, whereby when the RRM recognizes that one of said at least one WTRUs is interfering with said particular wireless backhaul link, the RRM interacts with said at least one of the nodes to mitigate the impact of interference caused by the WTRU, whereby the RRM assigns and reassigns timeslots as a function of interference observed by the RRM in particular timeslots. the RRM monitoring performance of wireless backhaul links (112-1, ..., 112-n) associated with the nodes (102-1, ... 102-n) of the wireless network ; and the RRM interacting with at least one of the nodes to change a configuration on a particular one of the wireless backhaul links between two of the nodes if performance on the particular wireless backhaul link falls below an established threshold, whereby when the RRM recognizes that one of said at least one WTRUs is interfering with said particular wireless backhaul link, the RRM interacts with said at least one of the nodes to mitigate the impact of interference caused by the WTRU, whereby the RRM assigns and reassigns timeslots as a function of interference observed by the RRM in particular timeslots.
Method for the wet treatment of items of laundry, combined to form a batch of laundry, in a continuous washing machine having separate treatment zones, wherein the wet treatment of the batches of laundry is performed in a rotationally driveable drum of the washing machine in successive treatment steps in the separate treatment zones in a treatment liquid, characterized in that , for each treatment step and for each batch of laundry, the temperature of the treatment liquid, the duration of the treatment step and movement sequences of the drum are determined and compared in each case with a reference value and, if the temperature of the treatment liquid, the duration of the treatment step and the movement sequences of the drum agree with the reference values, said batch of laundry for which the agreement has been established is released for a next treatment step and, if at least one value deviates from the corresponding reference value, the batch of laundry is not released for the next treatment step.
A measuring circuit connectable to a capacitive touch-sensitive panel, the panel including a plurality of sense electrodes, the circuit being adapted to measure variations in the instantaneous electric capacity of the sense electrodes in response to proximity to conductive bodies, wherein the sense electrodes are biased at a fixed voltage relative to a common floating reference potential, the measuring circuit comprising: a power management circuit comprising a modulated voltage source having a variable frequency generating a modulation voltage that determines said floating reference potential, one or more readout units, operatively arranged for generating signals representing the instantaneous electric capacity of the sense electrodes; synchronous detection means for generating said signals synchronously with the modulation voltage, characterized by being configured for sampling the output signal at a frequency which is synchronized to the frequency of the modulating signal, and to average those samples over an averaging interval, wherein the measuring circuit is operatively arranged for varying the frequency of the modulated voltage source during the averaging interval.
An impact energy sensor comprising: an accelerometer for sensing accelerations greater than 6000g and for withstanding accelerations greater than 10,000 g; an analog signal filter configured to filter signals from the accelerometer ; threshold circuitry configured to output a non-zero threshold bit only in response to filtered signals from the accelerometer only which exceed a specified sensitivity threshold; and a data processor configured to accumulate the non-zero threshold bits from the threshold circuitry over a preset time window of width T to assess impact energy, and configured to transmit an alarm message only if the accumulated non-zero threshold bits exceed a preset number N within said time window T, indicating a sufficiently high energy shock event; further comprising a built-in test processor configured to detect faults in the accelerometer, wherein the built-in test processor is configured to provide simulated built-in test patterns to the analog signal filter to verify that the data processor transmits alarm messages in response to appropriate shock events. an accelerometer for sensing accelerations greater than 6000g and for withstanding accelerations greater than 10,000 g; an analog signal filter configured to filter signals from the accelerometer ; threshold circuitry configured to output a non-zero threshold bit only in response to filtered signals from the accelerometer only which exceed a specified sensitivity threshold; and a data processor configured to accumulate the non-zero threshold bits from the threshold circuitry over a preset time window of width T to assess impact energy, and configured to transmit an alarm message only if the accumulated non-zero threshold bits exceed a preset number N within said time window T, indicating a sufficiently high energy shock event; further comprising a built-in test processor configured to detect faults in the accelerometer, wherein the built-in test processor is configured to provide simulated built-in test patterns to the analog signal filter to verify that the data processor transmits alarm messages in response to appropriate shock events.
Holding device for accommodating articles, in particular for a motor vehicle, having a carrier element , in particular a backrest of a vehicle seat , and having a pocket element , which is arranged on the carrier element and has at least part of its outer edge fastened permanently on the carrier element such that an accommodating pocket which is open on one side is formed between the pocket element and the carrier element , characterized in that at least one releasable connection is formed between the carrier element and the pocket element , and said connection is spaced apart from the outer edge of the pocket element in order to subdivide the accommodating pocket into interconnectable pocket portions , wherein the respective connection is in strip form.
Use of a composition comprising squalane from olive oil for controlling scald in pome fruits, wherein the composition comprises squalane in a concentration of 70% v/v and a vehicle selected from: - oleic acid as emulsifying agent in a concentration of 20% v/v, ammonia in a concentration of 4% v/v, and deionized water in a concentration of 6% v/v; or - palm fatty acid as emulsifying agent in a concentration of 20% v/v, ammonia in a concentration of 4% v/v, and deionized water in a concentration of 6% v/v; or - a primary alcohol having 9 to 15 carbon atoms as emulsifying agent in a concentration of 30% v/v; or - sorbitan ester as emulsifying agent in a concentration of 30% v/v; wherein said composition is diluted for its use to a concentration of 0.1 - 10% v/v. - oleic acid as emulsifying agent in a concentration of 20% v/v, ammonia in a concentration of 4% v/v, and deionized water in a concentration of 6% v/v; or - palm fatty acid as emulsifying agent in a concentration of 20% v/v, ammonia in a concentration of 4% v/v, and deionized water in a concentration of 6% v/v; or - a primary alcohol having 9 to 15 carbon atoms as emulsifying agent in a concentration of 30% v/v; or - sorbitan ester as emulsifying agent in a concentration of 30% v/v;
A method of measuring thickness of a long sheet material (W) wound on to a reel spool while being pressed by a reel drum , comprising the steps of: preparing the position of the reel drum to be fixed, and the reel spool to be movable relative to the reel drum in a machine direction in accordance with the increase in the roll diameter; measuring the amount of movement in the machine direction of the end surface of the reel spool as the amount of increase in the roll diameter of the wound roll (R) formed from the long sheet material (W) by taking an image of an end surface of the reel spool shaft during rotation by a camera, and carrying out image processing based on the image taken by the camera to measure the center position of the end surface of the reel spool shaft during rotation; measuring the number of rotations of the reel spool ; and determining the thickness of the long sheet material (W) by calculation using the measured increase in roll diameter and the number of rotations. preparing the position of the reel drum to be fixed, and the reel spool to be movable relative to the reel drum in a machine direction in accordance with the increase in the roll diameter; measuring the amount of movement in the machine direction of the end surface of the reel spool as the amount of increase in the roll diameter of the wound roll (R) formed from the long sheet material (W) by taking an image of an end surface of the reel spool shaft during rotation by a camera, and carrying out image processing based on the image taken by the camera to measure the center position of the end surface of the reel spool shaft during rotation; measuring the number of rotations of the reel spool ; and determining the thickness of the long sheet material (W) by calculation using the measured increase in roll diameter and the number of rotations.
A method comprising: receiving at a network device , route convergence measurements and traffic demand measurements from a plurality of routers ; wherein said route convergence measurements relate to network convergence events and are associated with route computations at the routers, and wherein said traffic demand measurements comprise demands of a demand matrix associated with the routers, wherein a demand is a cell of the demand matrix specifying an amount of traffic flowing between two edge devices of the network , and the demand matrix describes the aggregation of flows at the edge of the network; and computing network availability at the network device based on said route convergence measurements and said traffic demand measurements, wherein computing network availability comprises, for a given time period: determining an amount of traffic lost due to network convergence events during the time period; determining an amount of traffic ingressing the network over the given time period; and computing network availability based on the amount of traffic lost and the amount of traffic ingressing the network. receiving at a network device , route convergence measurements and traffic demand measurements from a plurality of routers ; wherein said route convergence measurements relate to network convergence events and are associated with route computations at the routers, and wherein said traffic demand measurements comprise demands of a demand matrix associated with the routers, wherein a demand is a cell of the demand matrix specifying an amount of traffic flowing between two edge devices of the network , and the demand matrix describes the aggregation of flows at the edge of the network; and computing network availability at the network device based on said route convergence measurements and said traffic demand measurements, wherein computing network availability comprises, for a given time period: determining an amount of traffic lost due to network convergence events during the time period; determining an amount of traffic ingressing the network over the given time period; and computing network availability based on the amount of traffic lost and the amount of traffic ingressing the network. determining an amount of traffic lost due to network convergence events during the time period; determining an amount of traffic ingressing the network over the given time period; and computing network availability based on the amount of traffic lost and the amount of traffic ingressing the network.
A compact polyurethane having a density of ≥ 850 g/l, obtained or obtainable by reacting at least the components: i) polyisocyanate composition; ii) polyol composition, comprising at least one polyether polyol (ii.1) which is obtained or obtainable by reacting ii.1.1) a polyol starter with a functionality of 3 to 6 with ii.1.2) propylene oxide and/or butylene oxide, in the presence of a boron-based, fluorine-containing Lewis acid catalyst (ii.1.3), wherein the polyether polyol (ii.1) has an equivalent molecular weight of 50 to 150 g/mol, ii.1.4) optionally further auxiliaries and/or additives. i) polyisocyanate composition; ii) polyol composition, comprising at least one polyether polyol (ii.1) which is obtained or obtainable by reacting ii.1.1) a polyol starter with a functionality of 3 to 6 with ii.1.2) propylene oxide and/or butylene oxide, in the presence of a boron-based, fluorine-containing Lewis acid catalyst (ii.1.3), wherein the polyether polyol (ii.1) has an equivalent molecular weight of 50 to 150 g/mol, ii.1.4) optionally further auxiliaries and/or additives. ii.1.1) a polyol starter with a functionality of 3 to 6 with ii.1.2) propylene oxide and/or butylene oxide, in the presence of a boron-based, fluorine-containing Lewis acid catalyst (ii.1.3), wherein the polyether polyol (ii.1) has an equivalent molecular weight of 50 to 150 g/mol, ii.1.4) optionally further auxiliaries and/or additives.
A coating product applicator comprising printing nozzles each including an outlet channel emerging in the downstream direction by a coating product discharge orifice , the printing nozzles being distributed on at least two faces of a body of the applicator , the discharge orifices of these nozzles extending along at least two nonparallel planes (π127, π'127, π"127), the applicator being characterized in that the rigid body is parallelepiped and defines a front face , a rear face parallel to the front face, two parallel longitudinal faces perpendicular to the front and rear faces, and two parallel transverse faces perpendicular to the front, rear and longitudinal faces, the longitudinal and transverse faces being adjacent to the front face and in that the applicator comprises several first printing nozzles , the discharge orifices of which are distributed on the first face of the rigid body , and at least one second printing nozzle , the outlet orifice of which is on a transverse face of the rigid body, and in that the number of first nozzles is different from the number of second nozzle(s).