mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a trim device that positions a trimmable marine apparatus with respect to a marine vessel having a propulsion system powered by an engine , the method comprising: operating a trim system in one of an automatic mode, in which a controller sends signals to actuate the trim device automatically as a function of one of a speed of the vessel and a speed of the engine , and a manual mode, in which the controller sends signals to actuate the trim device in response to commands from an operator input device ; determining an operating speed of the propulsion system ; and in response to a determination by the controller that the operating speed has crossed a given operating speed threshold, subsequently operating the trim system in one of the automatic and manual modes depending on: whether the operating speed increased or decreased as it crossed the operating speed threshold; and whether the trim system was operating in the automatic or manual mode as the operating speed crossed the operating speed threshold. operating a trim system in one of an automatic mode, in which a controller sends signals to actuate the trim device automatically as a function of one of a speed of the vessel and a speed of the engine , and a manual mode, in which the controller sends signals to actuate the trim device in response to commands from an operator input device ; determining an operating speed of the propulsion system ; and in response to a determination by the controller that the operating speed has crossed a given operating speed threshold, subsequently operating the trim system in one of the automatic and manual modes depending on: whether the operating speed increased or decreased as it crossed the operating speed threshold; and whether the trim system was operating in the automatic or manual mode as the operating speed crossed the operating speed threshold. whether the operating speed increased or decreased as it crossed the operating speed threshold; and whether the trim system was operating in the automatic or manual mode as the operating speed crossed the operating speed threshold.
An abrasion-resistant steel plate, having a chemical composition consisting of, in mass%, C: 0.23 % to 0.34 %, Si: 0.05 % to 1.00 %, Mn: 0.30 % to 2.00 %, P: 0.020 % or less, S: 0.020 % or less, Al: 0.04 % or less, Cr: 0.05 % to 2.00 %, N: 0.0050 % or less, and O: 0.0050 % or less, and optionally one or more selected from the group consisting of Cu: 0.01 % to 2.00 %, Ni: 0.01 % to 2.00 %, Mo: 0.01 % to 1.00 %, V: 0.01 % to 1.00 %, W: 0.01 % to 1.00 %, Co: 0.01 % to 1.00 % Nb: 0.005 % to 0.050 %, Ti: 0.005 % to 0.050 %, B: 0.0001 % to 0.0100 % Ca: 0.0005 % to 0.0050 %, Mg: 0.0005 % to 0.0050 %, and REM: 0.0005 % to 0.0080 %, with the balance being Fe and inevitable impurities, the chemical composition having a DI* value of 120 or more, where the DI* is defined by the following Formula : DI ∗ = 33.85 × 0.1 × C 0.5 × 0.7 × Si + 1 × 3.33 × Mn + 1 × 0.35 × Cu + 1 × 0.36 × Ni + 1 × 2.16 × Cr + 1 × 3 × Mo + 1 × 1.75 × V + 1 × 1.5 × W + 1 where each element symbol in the Formula indicates a content, in mass%, of a corresponding element and is taken to be 0 when the corresponding element is not contained, wherein the abrasion-resistant steel plate has HB 1 of 360 HBW10/3000 to 490 HBW10/3000, the HB 1 being a Brinell hardness at a depth of 1 mm from a surface of the abrasion-resistant steel plate, wherein the abrasion-resistant steel plate has a hardness ratio of 75 % or more, the hardness ratio being defined as a ratio of HB 1/2 to the HB 1 , and the HB 1/2 being a Brinell hardness at a mid-thickness position of the abrasion-resistant steel plate, and wherein the abrasion-resistant steel plate has a plate thickness of 50 mm or more.
A method for enabling management of a subscriber entity , the method being performed by the subscriber entity , the method comprising: obtaining (S106) a message from a subscription server , the message comprising an event record, the event record being addressed to the subscriber entity and comprising a pointer to a primary entity ; and establishing (S108) a connection to the primary entity for management of the subscriber entity . obtaining (S106) a message from a subscription server , the message comprising an event record, the event record being addressed to the subscriber entity and comprising a pointer to a primary entity ; and establishing (S108) a connection to the primary entity for management of the subscriber entity .
A display system for use in a head-mounted display, the display system comprising: a first light source (208-1) configured to provide a first light (212-1) in a first optical path, the first light being a first color channel of a display light; a second light source (208-2) configured to provide a second light (212-2) in a second optical path, the second light being a second color channel of the display light; a combiner positioned in the first optical path and the second optical path to combine the first flight (212-1) and the second light (212-2) such that at least a portion of the second optical path overlaps the first optical path in an overlapping portion of the first optical path and the second optical path; at least one movable mirror movable to deflect the overlapping portion ; a first attenuator (220-1) positioned optically between the first light source and the combiner; and a second attenuator (220-2) positioned optically between the second light source and the combiner. a first light source (208-1) configured to provide a first light (212-1) in a first optical path, the first light being a first color channel of a display light; a second light source (208-2) configured to provide a second light (212-2) in a second optical path, the second light being a second color channel of the display light; a combiner positioned in the first optical path and the second optical path to combine the first flight (212-1) and the second light (212-2) such that at least a portion of the second optical path overlaps the first optical path in an overlapping portion of the first optical path and the second optical path; at least one movable mirror movable to deflect the overlapping portion ; a first attenuator (220-1) positioned optically between the first light source and the combiner; and a second attenuator (220-2) positioned optically between the second light source and the combiner.
Operating unit for a container treatment machine , wherein the operating unit comprises at least one touch-sensitive display device , and the operating unit can be operated in two operating modes, wherein a first operating mode is only executed if the operating unit is connected to an operating station of the container treatment machine, and wherein a second operating mode is only executed if the operating unit is not physically connected to the operating station , wherein the first operating mode and the second operating mode differ at least with regard to one function that can be executed with the operating unit, characterized in that in the second operating mode, at least one of the following functions is available: diagnosis function, parameterization of the container treatment machine, monitoring of the operation of the container treatment machine.
A method of treating the surface a carbon fiber comprising; (i) contacting a carbon fiber surface with an aqueous solution comprised of a non-cyclic aliphatic amine and water soluble inorganic hydroxide and said aqueous solution having a pH of at least 9 (ii) applying a positive electrical bias to the carbon fibers in the aqueous solution relative to another electrode in contact with the aqueous solution, wherein the positive electrical bias is at a voltage above the oxidation potential of water. (i) contacting a carbon fiber surface with an aqueous solution comprised of a non-cyclic aliphatic amine and water soluble inorganic hydroxide and said aqueous solution having a pH of at least 9 (ii) applying a positive electrical bias to the carbon fibers in the aqueous solution relative to another electrode in contact with the aqueous solution, wherein the positive electrical bias is at a voltage above the oxidation potential of water.
A phaco driver system for controlling operation of an ophthalmic surgical phacoemulsification device , comprising: - a resonant output circuit for generating a transducer voltage (TV) for driving an ultrasonic transducer of the ophthalmic surgical phacoemulsification device ; - a control unit for generating: - a frequency command signal having a frequency based on a phase difference between a sensed current signal and a sensed voltage signal in the resonant output circuit , and - an amplitude command signal based on a time averaged product of the sensed current signal and the sensed voltage signal ; - a phase shift unit for generating a first phase signal (PA) and a second phase signal (PB) based on the frequency command signal , the first and second phase signals (PA, PB) having the same frequency and a fixed mutual phase difference; - a bridge unit for generating a bridge output signal (BO) for feeding the resonant output circuit , the bridge output signal (BO) being based on a composition of the first and second phase signals (PA, PB), and - a power supply unit for generating a power supply to the bridge unit , the power supply being controlled by the amplitude command signal . - a resonant output circuit for generating a transducer voltage (TV) for driving an ultrasonic transducer of the ophthalmic surgical phacoemulsification device ; - a control unit for generating: - a frequency command signal having a frequency based on a phase difference between a sensed current signal and a sensed voltage signal in the resonant output circuit , and - an amplitude command signal based on a time averaged product of the sensed current signal and the sensed voltage signal ; - a frequency command signal having a frequency based on a phase difference between a sensed current signal and a sensed voltage signal in the resonant output circuit , and - an amplitude command signal based on a time averaged product of the sensed current signal and the sensed voltage signal ; - a phase shift unit for generating a first phase signal (PA) and a second phase signal (PB) based on the frequency command signal , the first and second phase signals (PA, PB) having the same frequency and a fixed mutual phase difference; - a bridge unit for generating a bridge output signal (BO) for feeding the resonant output circuit , the bridge output signal (BO) being based on a composition of the first and second phase signals (PA, PB), and - a power supply unit for generating a power supply to the bridge unit , the power supply being controlled by the amplitude command signal .
A method of calculating a listener's synthetic outer ear transmission functions, comprising the following steps: a) providing a database of pairs of outer ear transmission functions for a plurality of first source positions, wherein at least one pair of outer ear transmission functions has been determined for each first source position by measurement; b) perceiving each of these pairs of outer ear transmission functions as transmission functions between each respective virtual speaker and each ear of the listener, wherein the virtual speaker is disposed at the respective first source position, c) calculating at least one pair of synthetic outer ear transmission functions for at least one virtual sound sources at a further source position using the virtual speaker by means of a sound field synthesis method, characterised in that the calculation of the at least one pair of synthetic outer ear transmission functions for the at least one virtual sound source at the further source position comprises the following steps: calculating at least one pair of synthetic outer ear transmission functions for low-frequency sound signals using a normal sound field synthesis method and calculating at least one pair of synthetic outer ear transmission functions for sound signals with frequencies different from the low frequencies using local sound field synthesis methods, and wherein each of the at least one pair of synthetic outer ear transmission functions is calculated by weighted superposition of all virtual speaker signals of the virtual speakers filtered with the respective measured pairs of outer ear transmission functions. a) providing a database of pairs of outer ear transmission functions for a plurality of first source positions, wherein at least one pair of outer ear transmission functions has been determined for each first source position by measurement; b) perceiving each of these pairs of outer ear transmission functions as transmission functions between each respective virtual speaker and each ear of the listener, wherein the virtual speaker is disposed at the respective first source position, c) calculating at least one pair of synthetic outer ear transmission functions for at least one virtual sound sources at a further source position using the virtual speaker by means of a sound field synthesis method, calculating at least one pair of synthetic outer ear transmission functions for low-frequency sound signals using a normal sound field synthesis method and calculating at least one pair of synthetic outer ear transmission functions for sound signals with frequencies different from the low frequencies using local sound field synthesis methods, and wherein each of the at least one pair of synthetic outer ear transmission functions is calculated by weighted superposition of all virtual speaker signals of the virtual speakers filtered with the respective measured pairs of outer ear transmission functions.
A door closer , in particular a swing door closer, with a free-swing function, comprising a door closer housing , an output shaft connectable to a door, a piston sub-assembly connected to the output shaft and guided in the door closer housing , a closer spring , a piston rod disposed for the connection of the piston sub-assembly to the closer spring , a hydraulic blocking compartment configured for blocking the closer spring , and a first non-return valve between the blocking compartment and a compartment, which decreases during the opening procedure of the door, in particular a reception compartment for the closer spring , wherein the first non-return valve blocks in the direction of the decreasing compartment, a closer spring tensioning piston , which is guided in the door closer housing and rests against the closer spring , wherein the non-return valve is disposed in the closer spring tensioning piston , and the non-return valve is spring-loaded and disposed such that hydraulic fluid in the decreasing compartment is pre-pressurized by means of the opening procedure and thereby is actively pumped through the non-return valve into the blocking compartment , characterized by a further, in particular spring-loaded non-return valve , which is disposed between the decreasing compartment and the reservoir line (T), wherein the further non-return valve blocks in the direction of the reservoir line (T), wherein the decreasing compartment is closed during the opening procedure, with the exception of the first non-return valve .
A lacing system comprising: a tensioning device ; a tensioning mechanism that is operated via the tensioning device ; and a plurality of tension members (2202a/b, 1748) that are coupled with the tensioning mechanism and tensionable thereby, the plurality of tension members (2202a/b, 1748) being arrangeable longitudinally about an opening of an article and configured to narrow a gap of the opening upon tensioning of the plurality of tension members (2202a/b, 1748) in order to tighten the article , wherein the tensioning mechanism is configured to effect a simultaneous and repeatable tensioning of each tension member of the plurality of tension members (2202a/b, 1748); characterized in that the tensioning mechanism is further configured to equalize the tension in each tension member of the plurality of tension members (2202a/b, 1748) during tensioning of the plurality of tension members (2202a/b, 1748); a lace is coupled with the tensioning mechanism and the tensioning device , the lace being tensionable via operation of the tensioning device to effect movement of the tensioning mechanism ; and the tensioning mechanism includes one or more posts or pulleys about which at least one tension member is slidably positioned so that the at least one tension member is able to adjust and equalize the tension in the at least one tension member . a tensioning device ; a tensioning mechanism that is operated via the tensioning device ; and a plurality of tension members (2202a/b, 1748) that are coupled with the tensioning mechanism and tensionable thereby, the plurality of tension members (2202a/b, 1748) being arrangeable longitudinally about an opening of an article and configured to narrow a gap of the opening upon tensioning of the plurality of tension members (2202a/b, 1748) in order to tighten the article , wherein the tensioning mechanism is configured to effect a simultaneous and repeatable tensioning of each tension member of the plurality of tension members (2202a/b, 1748); characterized in that the tensioning mechanism is further configured to equalize the tension in each tension member of the plurality of tension members (2202a/b, 1748) during tensioning of the plurality of tension members (2202a/b, 1748); a lace is coupled with the tensioning mechanism and the tensioning device , the lace being tensionable via operation of the tensioning device to effect movement of the tensioning mechanism ; and the tensioning mechanism includes one or more posts or pulleys about which at least one tension member is slidably positioned so that the at least one tension member is able to adjust and equalize the tension in the at least one tension member .
Battery module for a vehicle, in particular for a commercial vehicle, having a housing which has a receptacle space , wherein at least one battery cell element is disposed in the receptacle space , and having a cooling and/or heating installation by means of which the battery cell element is able to be cooled and/or heated; wherein the cooling and/or heating installation by a cooling and/or heating module is formed as a separate component which by means of a fixing installation is able to be established on the housing ; wherein the cooling and/or heating module has a cooling and/or heating element by means of which the at least one battery cell element is able to be cooled and/or heated, and wherein the housing has an insertion opening through which the cooling and/or heating module in the manner of a drawer is able to be inserted into the receptacle space of the housing ; wherein the housing has a closure element by means of which the insertion opening is able to be closed; wherein, for adjusting a defined thermal transfer between the housing and the cooling and/or heating element , at least one thermal transfer element having defined thermal transfer properties is disposed as an interlayer between the housing and the cooling and/or heating element ; and wherein the thermal transfer element is assigned to the cooling and/or heating module such that the cooling and/or heating element and the thermal transfer element form one functional unit. wherein the cooling and/or heating installation by a cooling and/or heating module is formed as a separate component which by means of a fixing installation is able to be established on the housing ; wherein the cooling and/or heating module has a cooling and/or heating element by means of which the at least one battery cell element is able to be cooled and/or heated, and wherein the housing has an insertion opening through which the cooling and/or heating module in the manner of a drawer is able to be inserted into the receptacle space of the housing ; wherein the housing has a closure element by means of which the insertion opening is able to be closed; wherein, for adjusting a defined thermal transfer between the housing and the cooling and/or heating element , at least one thermal transfer element having defined thermal transfer properties is disposed as an interlayer between the housing and the cooling and/or heating element ; and wherein the thermal transfer element is assigned to the cooling and/or heating module such that the cooling and/or heating element and the thermal transfer element form one functional unit.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: determining that a time offset between a first monitoring occasion of a first downlink control channel and a second monitoring occasion of a second downlink control channel, which is different from the first downlink control channel, is smaller than a threshold value, wherein the first downlink control channel is associated with a first beam and the second downlink control channel is associated with a second beam which is different from the first beam; and performing a monitoring of the first downlink control channel associated with the first beam only, without monitoring of the second downlink control channel associated with the second beam, based on the determination. determining that a time offset between a first monitoring occasion of a first downlink control channel and a second monitoring occasion of a second downlink control channel, which is different from the first downlink control channel, is smaller than a threshold value, wherein the first downlink control channel is associated with a first beam and the second downlink control channel is associated with a second beam which is different from the first beam; and performing a monitoring of the first downlink control channel associated with the first beam only, without monitoring of the second downlink control channel associated with the second beam, based on the determination.