mhurhangee/ep-ind-claims huggingface dataset:
A profiler apparatus for use in an electrical measurement system, the profiler apparatus comprising: a profile analyser configured to: obtain a plurality of profiling results each comprising an estimate of a transfer function of a measurement sensor (20, 22) of the electrical measurement system and a corresponding certainty value indicative of the accuracy of the estimate of the transfer function, wherein the plurality of profiling results are based on estimates of the transfer function of the measurement sensor and corresponding certainty values that were determined by a monitor module of the electrical measurement system during a profiling period of time, wherein the measurement sensor is for measuring an electrical property; identify, by analyzing the estimates of the transfer function and the corresponding certainty values in at least some of the plurality of profiling results, a sensor event indicative of a change in the transfer function of the measurement sensor that took place during the profiling period of time; and generate a profiling summary comprising data indicative of whether the sensor event has been identified. obtain a plurality of profiling results each comprising an estimate of a transfer function of a measurement sensor (20, 22) of the electrical measurement system and a corresponding certainty value indicative of the accuracy of the estimate of the transfer function, wherein the plurality of profiling results are based on estimates of the transfer function of the measurement sensor and corresponding certainty values that were determined by a monitor module of the electrical measurement system during a profiling period of time, wherein the measurement sensor is for measuring an electrical property; identify, by analyzing the estimates of the transfer function and the corresponding certainty values in at least some of the plurality of profiling results, a sensor event indicative of a change in the transfer function of the measurement sensor that took place during the profiling period of time; and generate a profiling summary comprising data indicative of whether the sensor event has been identified.
A method comprising: receiving, by a plurality of antenna elements of a traffic collision avoidance system (TCAS) antenna of an aircraft, a plurality of signals carrying a plurality of automatic dependent surveillance-broadcast (ADS-B) messages and one or more signals that do not carry ADS-B messages, wherein each of the plurality of antenna elements correspond to at least one of a plurality of sectors of a sectorized antenna; converting, by a multi-channel radio frequency front end (RFFE) of a receiver in a TCAS unit of the aircraft, the plurality of signals to a plurality of intermediate frequency signals in parallel; converting, by one or more analog to digital converters of the receiver, the plurality of intermediate frequency signals to a plurality of digital signals; processing, by a multi-channel digital back-end of the receiver in the TCAS unit of the aircraft, each of the plurality of digital signals in parallel, including detecting which of the plurality of digital signals carry the plurality of ADS-B messages and decoding the plurality of ADS-B messages from the plurality of digital signals in parallel, wherein the plurality of ADS-B messages indicate at least positions of one or more other neighboring aircraft; and outputting, by the receiver in the TCAS unit of the aircraft, at least one of the plurality of ADS-B messages. receiving, by a plurality of antenna elements of a traffic collision avoidance system (TCAS) antenna of an aircraft, a plurality of signals carrying a plurality of automatic dependent surveillance-broadcast (ADS-B) messages and one or more signals that do not carry ADS-B messages, wherein each of the plurality of antenna elements correspond to at least one of a plurality of sectors of a sectorized antenna; converting, by a multi-channel radio frequency front end (RFFE) of a receiver in a TCAS unit of the aircraft, the plurality of signals to a plurality of intermediate frequency signals in parallel; converting, by one or more analog to digital converters of the receiver, the plurality of intermediate frequency signals to a plurality of digital signals; processing, by a multi-channel digital back-end of the receiver in the TCAS unit of the aircraft, each of the plurality of digital signals in parallel, including detecting which of the plurality of digital signals carry the plurality of ADS-B messages and decoding the plurality of ADS-B messages from the plurality of digital signals in parallel, wherein the plurality of ADS-B messages indicate at least positions of one or more other neighboring aircraft; and outputting, by the receiver in the TCAS unit of the aircraft, at least one of the plurality of ADS-B messages.
A ground compaction machine, particularly a pneumatic-tyred roller, with a plurality of roller wheel pairs, with a machine frame in which, for each roller wheel pair, a wheel suspension with a steering arm pivotable around a steering axis, with a wheel bearing, and with a lifting means for the wheel bearing is mounted, wherein the wheel bearing can be moved up and down by means of a swing arm pivotable around a pivot axis, and the swing arm which is mounted in an articulated manner at one end on the steering arm, and is connected at the free end to the steering arm by means of the lifting means for height adjustment of the wheel bearing, wherein the wheel bearing can perform an oscillating movement around an oscillating axis arranged parallel to the swing arm, characterized in that the wheel bearing is integrated into the swing arm, and the roller wheel pair is mounted in the swing arm, wherein the swing arm is gimbal-mounted or spherically mounted in the steering arm of the wheel suspension, so that the swing arm is pivotable around the pivot axis and around the oscillating axis.
A high voltage transformer comprising: - a magnetic core; - a low voltage winding; - a high voltage winding; - an inner closed sleeve; - an outer sleeve enclosing the inner closed sleeve and the high voltage winding; - a coil bobbin for carrying the high voltage winding, wherein the coil bobbin is arranged inside the inner closed sleeve and attached to the inner closed sleeve at an outer perimeter of the inner closed sleeve; and wherein the coil bobbin comprises at least one field-control electrode, which is adapted to shape an electric field generated by the high voltage winding; characterized by the outer sleeve being attached to the inner sleeve at the outer perimeter of the inner closed sleeve; and by a labyrinth-like structure in joints connecting upper and lower halves of the sleeves. - a magnetic core; - a low voltage winding; - a high voltage winding; - an inner closed sleeve; - an outer sleeve enclosing the inner closed sleeve and the high voltage winding; - a coil bobbin for carrying the high voltage winding,
A wave forming apparatus, comprising: a channel for containing a flow of water, the channel having an inlet end connected to a water supply a base, and spaced side walls, a weir bed form in the base at the inlet end of the channel, and at least one additional bed form in the channel downstream of the weir bed form each bed form (336, 338) having a leading end and a trailing end, an upper portion, and a downwardly inclined downstream face extending from the upper portion to the trailing end, the bed forms (336, 338) extending outwardly to the side walls to define a primary water flow path from the inlet over the bed forms (336, 338); characterized in that said wave forming apparatus further comprises a raised spoiler (344, 348) located adjacent the trailing end of each bed form (336, 338) forming an abrupt rise; and an tail adjuster (356, 358) for adjusting the height of the spoiler (344, 348). a channel for containing a flow of water, the channel having an inlet end connected to a water supply a base, and spaced side walls, a weir bed form in the base at the inlet end of the channel, and at least one additional bed form in the channel downstream of the weir bed form each bed form (336, 338) having a leading end and a trailing end, an upper portion, and a downwardly inclined downstream face extending from the upper portion to the trailing end, the bed forms (336, 338) extending outwardly to the side walls to define a primary water flow path from the inlet over the bed forms (336, 338); characterized in that said wave forming apparatus further comprises a raised spoiler (344, 348) located adjacent the trailing end of each bed form (336, 338) forming an abrupt rise; and an tail adjuster (356, 358) for adjusting the height of the spoiler (344, 348).
Method for sending messages (M1, M2, M3) with integrity protection, in which, in a transmitter provided for sending the messages (M1, M2, M3): - a hash chain of successive values (h1, h2, h3) is generated, wherein the values (h1, h2, h3) are generated from an initially generated value by successively applying a cryptographic hash function to the initially generated value, wherein the most recently generated value is an anchor value that is provided to one or more predetermined receivers of the messages (M1, M2, M3), and the remaining values (h0, h1, h2) are valid in the inverse order of their generation in successive validity periods (I0, I1, I2); - a cryptographic checksum (MIC1, MIC2, MIC3) for a message (M1, M2, M3) to be sent is generated in the validity period (I0, I1, I2) of a respective value (h1, h2, h3) using the respective value (h0, h1, h2) and the checksum is sent together with the message (M1, M2, M3); - the respective value (h0, h1, h2) is sent after expiry of its validity period (I0, I1, I2); characterized in that the checksum (MIC1, MIC2, MIC3) is generated such that, for the message (M1, M2, M3) to be sent, a category (k1, k2, k3) characterizing the message (M1, M2, M3) is ascertained from which, together with the currently valid value (h0, h1, h2), a key (h21, h22, h03) that is used to generate the checksum (MIC1, MIC2, MIC3) for the message (M1, M2, M3) is derived by means of a key derivation function. - a hash chain of successive values (h1, h2, h3) is generated, wherein the values (h1, h2, h3) are generated from an initially generated value by successively applying a cryptographic hash function to the initially generated value, wherein the most recently generated value is an anchor value that is provided to one or more predetermined receivers of the messages (M1, M2, M3), and the remaining values (h0, h1, h2) are valid in the inverse order of their generation in successive validity periods (I0, I1, I2); - a cryptographic checksum (MIC1, MIC2, MIC3) for a message (M1, M2, M3) to be sent is generated in the validity period (I0, I1, I2) of a respective value (h1, h2, h3) using the respective value (h0, h1, h2) and the checksum is sent together with the message (M1, M2, M3); - the respective value (h0, h1, h2) is sent after expiry of its validity period (I0, I1, I2);
Cleaning method for articles, for example in the form of crockery, cutlery or laundry, which cleaning method is performed in at least one first cleaning chamber (13, 113), wherein - in a first step, the articles (19, 20) are cleaned for a first cleaning time, characterized in that - in a second step, marking agents are added, or marking agents are dispensed onto the articles (19, 20) to be cleaned, wherein the marking agents are designed so as to stick to contaminants or make these detectable, - in a third step, by way of a detection device (31, 32), the marking agents are identified in order to determine which of the articles (19, 20) to be cleaned are already adequately clean and which of the articles to be cleaned still have contaminants (34, 35) to be removed, - in a fourth step, those articles which still have contaminants (34, 35) to be removed are cleaned further or again for a further second cleaning time. - in a first step, the articles (19, 20) are cleaned for a first cleaning time, - in a second step, marking agents are added, or marking agents are dispensed onto the articles (19, 20) to be cleaned, wherein the marking agents are designed so as to stick to contaminants or make these detectable, - in a third step, by way of a detection device (31, 32), the marking agents are identified in order to determine which of the articles (19, 20) to be cleaned are already adequately clean and which of the articles to be cleaned still have contaminants (34, 35) to be removed, - in a fourth step, those articles which still have contaminants (34, 35) to be removed are cleaned further or again for a further second cleaning time.
A method for performing an operation on an intelligent wearable device by using a gesture, wherein the method is applied to the intelligent wearable device, and the method comprises: receiving an activation signal from a mobile terminal; displaying an operation interface on a screen of the intelligent wearable device in response to the activation signal; transmitting an infra-red signal in response to the activation signal; and receiving a reflected signal reflected by an operation gesture to the infra-red signal; identifying the operation gesture according to the reflected signal; determining a control instruction according to the identified operation gesture; and controlling, according to the control instruction, the intelligent wearable device to perform a corresponding operation. receiving an activation signal from a mobile terminal; displaying an operation interface on a screen of the intelligent wearable device in response to the activation signal; transmitting an infra-red signal in response to the activation signal; and receiving a reflected signal reflected by an operation gesture to the infra-red signal; identifying the operation gesture according to the reflected signal; determining a control instruction according to the identified operation gesture; and controlling, according to the control instruction, the intelligent wearable device to perform a corresponding operation.
A light (10; 42; 74; 100; 150) with integrated optical and thermal guides, comprising: a light source (14; 48, 50, 66, 68, 70, 72; 120; 160); an optical guide (16; 52; 84; 122; 128; 151) comprising a material having a first surface and a second surface opposite the first surface, wherein the second surface forms an interior volume, the optical guide is in communication to the light source for receiving and distributing light from the light source through the first or second surface, and the light is transported within the optical guide until the light exits from the first or second surface of the optical guide, wherein the optical guide has a bottom edge (124; 130) and a top edge (126; 132), and wherein at least a portion of the optical guide is tapered between the bottom edge and the top edge; and a thermal guide (18; 54; 86; 106; 156; 176) at least partially contained within the interior volume and integrated with the optical guide for providing thermal conduction from the light source for cooling the light, wherein an air gap is formed between at least a portion of the thermal guide and the second surface of the optical guide characterized in that the air gap substantially surrounds the thermal guide between the thermal guide and the second surface of the optical guide. a light source (14; 48, 50, 66, 68, 70, 72; 120; 160); an optical guide (16; 52; 84; 122; 128; 151) comprising a material having a first surface and a second surface opposite the first surface, wherein the second surface forms an interior volume, the optical guide is in communication to the light source for receiving and distributing light from the light source through the first or second surface, and the light is transported within the optical guide until the light exits from the first or second surface of the optical guide, wherein the optical guide has a bottom edge (124; 130) and a top edge (126; 132), and wherein at least a portion of the optical guide is tapered between the bottom edge and the top edge; and a thermal guide (18; 54; 86; 106; 156; 176) at least partially contained within the interior volume and integrated with the optical guide for providing thermal conduction from the light source for cooling the light, wherein an air gap is formed between at least a portion of the thermal guide and the second surface of the optical guide characterized in that the air gap substantially surrounds the thermal guide between the thermal guide and the second surface of the optical guide.
A contact lens applicator which automatically applies and/or removes a contact lens to a user's, or a patient's, eye, the contact lens applicator including: a main tool base for housing a control system; an end effector mounted on an end of a robotic arm for grasping a contact lens for delivery to an eye of the user, characterized in that the robotic arm includes a plurality of articulated arms, mounted on the tool base and in communication with the control system and the robotic arm is mounted on a turntable on the main tool base for movement about at least the z-axis. a main tool base for housing a control system; an end effector mounted on an end of a robotic arm for grasping a contact lens for delivery to an eye of the user,
A sustainable shower apparatus comprising: (i) a housing for an object; and (ii) plurality of shower heads (4a, 4b, 5a, 5b, 6a, 6b, 7a, 7b) positioned at different heights for spraying a mist comprising a pressurised gas and a liquid on said object; wherein each shower head comprises at least one set of nozzles, characterised in that each set of nozzles comprises: (a) a nozzle for spraying said gas; and (b) adjacent thereto, at least one nozzle (20, 21) for spraying said liquid, and wherein in each said set, the tip of each nozzle (20,21) for spraying said liquid is at an acute angle to the tip of each adjacent nozzle for spraying gas. (i) a housing for an object; and (ii) plurality of shower heads (4a, 4b, 5a, 5b, 6a, 6b, 7a, 7b) positioned at different heights for spraying a mist comprising a pressurised gas and a liquid on said object; wherein each shower head comprises at least one set of nozzles, characterised in that each set of nozzles comprises: (a) a nozzle for spraying said gas; and (b) adjacent thereto, at least one nozzle (20, 21) for spraying said liquid, (a) a nozzle for spraying said gas; and (b) adjacent thereto, at least one nozzle (20, 21) for spraying said liquid,
Method for measuring a measured physical quantity with a, in particular inductive, sensor element (2, 21, 31) and for providing a sensor quantity depending on the measured quantity, wherein the sensor element (2, 21, 31) is part of a oscillating circuit (3, 22, 32) which has an attenuation depending on the measured physical quantity, the oscillating circuit (3, 22, 32) being excited to generate a periodic oscillating signal (S, S1, S2) whose amplitude (Ua) depends on the attenuation, wherein the oscillating signal (S, S1, S2) is compared with a comparator threshold value by means of a comparator (5, 25, 33) to obtain a periodic comparator signal having a duty cycle depending on the comparator threshold value; characterized in that the comparator threshold value is adjusted relative to an average value of the oscillation signal (S, S1, S2) such that a duty cycle different from 50% is set; wherein the sensor quantity is provided as a quantity depending on the duty cycle of the comparator signal.
A process for producing a catalyst body, said process comprising the steps of: - providing a carrier comprising magnesium alumina spinel and/or Ca-aluminates - modifying said carrier by a first impregnation with at least one alkaline earth metal in a first metal precursor solution - decomposing the first metal precursor at a temperature of from 300-900 °C, to form at least one metal oxide or metal hydroxide thereby obtaining a modified carrier - carrying out a second impregnation by incipient wetness by a second precursor solution comprising at least one metal Me in a second solution - decomposing the second precursor thereby obtaining a catalyst body having an enrichment of the at least one metal Me in the outer shell of the catalyst body, said at least one metal being present in a concentration having either an egg-shell profile and/or a hammock profile. - providing a carrier comprising magnesium alumina spinel and/or Ca-aluminates - modifying said carrier by a first impregnation with at least one alkaline earth metal in a first metal precursor solution - decomposing the first metal precursor at a temperature of from 300-900 °C, to form at least one metal oxide or metal hydroxide thereby obtaining a modified carrier - carrying out a second impregnation by incipient wetness by a second precursor solution comprising at least one metal Me in a second solution - decomposing the second precursor thereby obtaining a catalyst body having an enrichment of the at least one metal Me in the outer shell of the catalyst body, said at least one metal being present in a concentration having either an egg-shell profile and/or a hammock profile.
A method of increasing oil content, seed yield, growth rate, and/or biomass of a plant as compared to a native plant, comprising expressing within the plant an exogenous polynucleotide comprising a nucleic acid sequence encoding a polypeptide which comprises an amino acid sequence at least 80 % homologous to the amino acid sequence set forth in SEQ ID NO:68, thereby increasing the oil content, seed yield, growth rate, and/or biomass of the plant as compared to the native plant.
A semiconductor device capable of wireless communication comprising: a demodulation signal generation circuit, comprising a first output portion; a first input portion electrically connected to an antenna circuit; a first demodulation circuit having an input portion electrically connected to the first input portion, the first demodulation circuit is configured to demodulate a first electric signal; a second demodulation circuit, which is configured to demodulate a second electric signal having a polarity opposite to the first electric signal, the second demodulation circuit having an input portion electrically connected to the first input portion; characterized by a first bias circuit having an input portion electrically connected to an output portion of the first demodulation circuit; a second bias circuit having an input portion electrically connected to an output portion of the second demodulation circuit; and a comparator having an output portion, a first input portion and a second input portion, wherein an output portion of the first bias circuit is electrically connected to the first input portion of the comparator, wherein an output portion of the second bias circuit is electrically connected to the second input portion of the comparator; and wherein the output portion of the comparator is electrically connected to the first output portion. a demodulation signal generation circuit, comprising a first output portion; a first input portion electrically connected to an antenna circuit; a first demodulation circuit having an input portion electrically connected to the first input portion, the first demodulation circuit is configured to demodulate a first electric signal; a second demodulation circuit, which is configured to demodulate a second electric signal having a polarity opposite to the first electric signal, the second demodulation circuit having an input portion electrically connected to the first input portion;