mhurhangee/ep-ind-claims huggingface dataset:
A fuel injection control device which injects fuel for learning into a combustion chamber of an engine from a nozzle of a fuel injection valve, to perform injection quantity learning of the fuel injection valve, the fuel injection control device comprising: exposed heat temperature detection means (28, 31) for detecting an exposed heat temperature of the nozzle; exposed heat amount acquisition means for acquiring an exposed heat amount of the nozzle, based on the exposed heat temperature of the nozzle detected by the exposed heat temperature detection means (28, 31) and an operating time of the engine; and learning interval change means for changing an interval of execution of the injection quantity learning, according to the exposed heat amount of the nozzle acquired by the exposed heat amount acquisition means. exposed heat temperature detection means (28, 31) for detecting an exposed heat temperature of the nozzle; exposed heat amount acquisition means for acquiring an exposed heat amount of the nozzle, based on the exposed heat temperature of the nozzle detected by the exposed heat temperature detection means (28, 31) and an operating time of the engine; and learning interval change means for changing an interval of execution of the injection quantity learning, according to the exposed heat amount of the nozzle acquired by the exposed heat amount acquisition means.
A bicycle saddle, comprising a saddle shell, a saddle frame connected with a lower side of the saddle shell, and a saddle pad arranged on an upper side of the saddle shell, the saddle pad comprising at least two pad elements (28, 30; 46, 30), wherein an inner pad element is at least partially surrounded by an outer pad element, in particular is overmolded or foamed, respectively, wherein the inner pad element has lugs contacting the upper side of the saddle shell such that regions are formed below the inner pad element, characterized in that the region are formed as cavities or are filled with the material of the outer pad element. a saddle frame connected with a lower side of the saddle shell, and a saddle pad arranged on an upper side of the saddle shell, the saddle pad comprising at least two pad elements (28, 30; 46, 30), wherein an inner pad element is at least partially surrounded by an outer pad element, in particular is overmolded or foamed, respectively, wherein the inner pad element has lugs contacting the upper side of the saddle shell such that regions are formed below the inner pad element, characterized in that the region are formed as cavities or are filled with the material of the outer pad element.
A lighting apparatus comprising: a plurality of lights arranged in a linear array; a power source connected to the plurality of lights; and a flexible mounting member comprising a channel for receiving the plurality of lights, - wherein the mounting member is comprised of material through which light is able to pass, and wherein the linear array is recessed within the channel and covered in the channel within a transparent cover; and the flexible mounting member is configured to be disposed at a first location on a bicycle. a plurality of lights arranged in a linear array; a power source connected to the plurality of lights; and a flexible mounting member comprising a channel for receiving the plurality of lights, - wherein the mounting member is comprised of material through which light is able to pass, and wherein the linear array is recessed within the channel and covered in the channel within a transparent cover;
Method for the purification or separation of a flow of a feed gas containing at least one impurity, wherein periodically: a) said flow of feed gas is placed in contact with a first adsorbent for removing via adsorption at least said impurity, b) said purified or separated gas is recovered, c) a regeneration gas is heated containing at least hydrogen (H 2) and carbon monoxide by means of a heater of which the surface temperature T 2 is higher than 150°C, d) the adsorbent of the step a) is regenerated using the regeneration gas heated in the step c), e) the circulation of the regeneration gas heated in the step c) is stopped on the adsorbent of the step a), characterised in that after the step e) at least one of the following additional steps is implemented: i) the surface temperature of the heater is decreased by at least 25°C until a surface temperature T 1, ii) a purge of the heater is carried out. a) said flow of feed gas is placed in contact with a first adsorbent for removing via adsorption at least said impurity, b) said purified or separated gas is recovered, c) a regeneration gas is heated containing at least hydrogen (H 2) and carbon monoxide by means of a heater of which the surface temperature T 2 is higher than 150°C, d) the adsorbent of the step a) is regenerated using the regeneration gas heated in the step c), e) the circulation of the regeneration gas heated in the step c) is stopped on the adsorbent of the step a), i) the surface temperature of the heater is decreased by at least 25°C until a surface temperature T 1, ii) a purge of the heater is carried out.
A fuel cell system comprising: a fuel cell stack for generating power, said fuel cell stack comprising an electrolyte configured to pass oxygen ions from a cathode to an anode; an anode recirculation loop; a flowmeter for measuring a fuel flow rate provided into the anode recirculation loop; a current sensor for measuring a current drawn from the fuel cell stack; a processor for determining a steam to carbon ratio in the anode recirculation loop based on the measured fuel flow rate and the measured current; a controller for controlling performance of the system based on the determined steam to carbon ratio; and a power conditioning device, wherein when the determined steam to carbon ratio is close to a steam to carbon ratio limit, the controller sends an adjusting command to the power conditioning device, and the power conditioning device adjusts the current drawn from the fuel cell stack in response to the adjusting command so as to control the steam to carbon ratio. a fuel cell stack for generating power, said fuel cell stack comprising an electrolyte configured to pass oxygen ions from a cathode to an anode; an anode recirculation loop; a flowmeter for measuring a fuel flow rate provided into the anode recirculation loop; a current sensor for measuring a current drawn from the fuel cell stack; a processor for determining a steam to carbon ratio in the anode recirculation loop based on the measured fuel flow rate and the measured current; a controller for controlling performance of the system based on the determined steam to carbon ratio; and a power conditioning device, wherein when the determined steam to carbon ratio is close to a steam to carbon ratio limit, the controller sends an adjusting command to the power conditioning device, and the power conditioning device adjusts the current drawn from the fuel cell stack in response to the adjusting command so as to control the steam to carbon ratio.
A method comprising: by a computing device, detecting an event corresponding to a change in a graphical user interface displayed by a first computing process of the computing device with the event consisting of a scrolling operation or displaying an animation; by the computing device, identifying, for deferred execution, an operation associated with a second computing process different from the first computing process, that, if not deferred, would cause a freezing of the graphical user interface, wherein the identifying is performed in response to the detected event; by the computing device, determining a state of the identified operation, wherein the determined state identifies a relative progress of the identified operation with respect to completing the identified operation; by the computing device, determining whether to defer the identified operation based at least in part on the determined state; and by the computing device, in response to a determination that is positive, interrupting and thereafter resuming execution of the identified operation after a predetermined time period. by a computing device, detecting an event corresponding to a change in a graphical user interface displayed by a first computing process of the computing device with the event consisting of a scrolling operation or displaying an animation; by the computing device, identifying, for deferred execution, an operation associated with a second computing process different from the first computing process, that, if not deferred, would cause a freezing of the graphical user interface, wherein the identifying is performed in response to the detected event; by the computing device, determining a state of the identified operation, wherein the determined state identifies a relative progress of the identified operation with respect to completing the identified operation; by the computing device, determining whether to defer the identified operation based at least in part on the determined state; and by the computing device, in response to a determination that is positive, interrupting and thereafter resuming execution of the identified operation after a predetermined time period.
A test piece analyzer comprising: a transport unit, a drive part and an imaging unit to image a test piece, the transport unit comprising: a transport device that transports a test piece from a first position to a second position wherein the second position is an imaging position of the imaging unit; wherein the transport device comprises a rotating body driven by the drive part, and an endless belt looped around the rotating body, wherein the transport unit includes a plurality of test piece mounting bodies for mounting test pieces attached independently to the endless belt, so that the test piece mounting bodies are not linked to one another, characterized in that: the test piece analyzer further comprises: a casing having a main casing part to house the imaging unit, the drive part and the transport unit; wherein the transport unit is removable relative to the main casing part. a transport device that transports a test piece from a first position to a second position wherein the second position is an imaging position of the imaging unit; wherein the transport device comprises a rotating body driven by the drive part, and an endless belt looped around the rotating body, wherein the transport unit includes a plurality of test piece mounting bodies for mounting test pieces attached independently to the endless belt, so that the test piece mounting bodies are not linked to one another, characterized in that: the test piece analyzer further comprises: a casing having a main casing part to house the imaging unit, the drive part and the transport unit; wherein the transport unit is removable relative to the main casing part.
A wind energy system comprising: (a) a wind turbine comprising a cowling surrounded by a diffuser; (b) a plurality of inner rotor blades located inside of the cowling, wherein the plurality of inner rotor blades rotates about an inner rotor hub; (c) a drive mechanism located within the inner rotor hub; (d) a dynamic telescopic tower; (e) a tower support that connects the wind turbine to the dynamic telescopic tower, wherein energy is generated by wind with a mean direction, and the dynamic telescopic tower comprises an integrated three-dimensional yaw control that aligns the wind turbine with the mean direction of the wind, wherein the three-dimensional yaw control comprises a plurality of yaw horizontal drive motors attached to a horizontal yaw ring gear and a plurality of vertical yaw drives connected to a drive rail on a yaw control platform, wherein the vertical positioning of the wind turbine is controlled by the vertical yaw drives which tilt the yaw control platform up or down by driving the curved yaw tilt rail. (a) a wind turbine comprising a cowling surrounded by a diffuser; (b) a plurality of inner rotor blades located inside of the cowling, wherein the plurality of inner rotor blades rotates about an inner rotor hub; (c) a drive mechanism located within the inner rotor hub; (d) a dynamic telescopic tower; (e) a tower support that connects the wind turbine to the dynamic telescopic tower,
A method implemented at a terminal device, the method comprising: generating a sequence of a demodulation reference signal, DMRS, for a Physical Sidelink Shared Channel, PSSCH; wherein, a set of scheduled resources, for transmission of the PSSCH and a Physical Sidelink Control Channel, PSCCH, associated with the PSSCH, starts from a first starting position, the first starting position being a position in a slot in a time-domain, the PSCCH carries information scheduling the PSSCH, a set of symbols is allocated for the PSCCH, the set of symbols allocated for the PSCCH starting from a second starting position, the second starting position being a position in the set of scheduled resources in the slot, and a set of possible time-domain positions for the DMRS includes the second starting position in the set of scheduled resources; mapping the sequence to a set of one or more symbols identified from the set of possible time-domain positions, wherein each symbol, of the set of one or more symbols identified from the set of possible time-domain positions, has an index that is respectively defined relative to the first starting position; and transmitting the DMRS. generating a sequence of a demodulation reference signal, DMRS, for a Physical Sidelink Shared Channel, PSSCH; wherein, a set of scheduled resources, for transmission of the PSSCH and a Physical Sidelink Control Channel, PSCCH, associated with the PSSCH, starts from a first starting position, the first starting position being a position in a slot in a time-domain, the PSCCH carries information scheduling the PSSCH, a set of symbols is allocated for the PSCCH, the set of symbols allocated for the PSCCH starting from a second starting position, the second starting position being a position in the set of scheduled resources in the slot, and a set of possible time-domain positions for the DMRS includes the second starting position in the set of scheduled resources; mapping the sequence to a set of one or more symbols identified from the set of possible time-domain positions, wherein each symbol, of the set of one or more symbols identified from the set of possible time-domain positions, has an index that is respectively defined relative to the first starting position; and transmitting the DMRS.
Laundry care appliance with an outer tub for accommodating washing liquid, a fill level sensor for detecting a fill level of washing liquid in the outer tub, a laundry drum for accommodating laundry, wherein the laundry drum is arranged in the outer tub, a drum drive for rotating the laundry drum, a temperature sensor for detecting a temperature of the drum drive, a pump for pumping washing liquid out of the outer tub, and a controller, which is connected from a control perspective to the drum drive, the fill level sensor, the temperature sensor and the pump, characterised in that the controller is embodied, during an overheating detection time section, to detect a temperature of the drum drive by means of the temperature sensor and to detect a fill level of washing liquid in the outer tub by means of the fill level sensor, the controller is embodied, during an adaptation time section following the overheating detection time section, to activate the pump to pump washing liquid out of the outer tub if the temperature of the drum drive detected during the overheating detection time section lies above a temperature threshold value and the fill level of washing liquid in the outer tub detected during the overheating detection time section lies above a fill level threshold value, in order to avoid an overheating of the drum drive. the controller is embodied, during an overheating detection time section, to detect a temperature of the drum drive by means of the temperature sensor and to detect a fill level of washing liquid in the outer tub by means of the fill level sensor, the controller is embodied, during an adaptation time section following the overheating detection time section, to activate the pump to pump washing liquid out of the outer tub if the temperature of the drum drive detected during the overheating detection time section lies above a temperature threshold value and the fill level of washing liquid in the outer tub detected during the overheating detection time section lies above a fill level threshold value, in order to avoid an overheating of the drum drive.
A method for determining the vertical position of at least a point of a ground portion using a work machine comprising an implement, said work machine further comprises position determining means adapted to determine at least the vertical position of said implement and force determining means adapted to determine a force applied to said implement, said method comprising: - determining a contact force value indicative of a contact force between said ground portion and said implement using said force determining means; - determining whether or not said contact force value is within a predetermined contact force value range, and - if it is determined that said contact force value is within said predetermined contact force value range, using said position determining means for determining at least the vertical position of a portion of said implement which is in contact with said ground portion. - determining a contact force value indicative of a contact force between said ground portion and said implement using said force determining means; - determining whether or not said contact force value is within a predetermined contact force value range, and - if it is determined that said contact force value is within said predetermined contact force value range, using said position determining means for determining at least the vertical position of a portion of said implement which is in contact with said ground portion.
A method of adjusting a brain functional connectivity correlation value of a subject measured at a plurality of measurement sites, comprising the steps of: for a plurality of traveling subjects defined as subjects that are common objects of functional magnetic resonance imaging (fMRI) measurements at each of the plurality of fMRI measurement sites, measuring brain activities of a predetermined plurality of brain regions of each of said traveling subjects; calculating, for each of said traveling subjects, prescribed elements of a brain functional connectivity matrix representing temporal correlation of brain activities of a set of said plurality of brain regions; using a generalized linear mixed model, calculating measurement bias for each element of said brain functional connectivity matrix, as a fixed effect at each measurement site with respect to an average of the corresponding element across said plurality of measurement sites and across said plurality of traveling subjects; and using said measurement bias, correcting a brain functional connectivity correlation value as the prescribed elements of said brain functional connectivity matrix of a subject measured at each of said measurement sites and thereby obtaining an adjusted value. for a plurality of traveling subjects defined as subjects that are common objects of functional magnetic resonance imaging (fMRI) measurements at each of the plurality of fMRI measurement sites, measuring brain activities of a predetermined plurality of brain regions of each of said traveling subjects; calculating, for each of said traveling subjects, prescribed elements of a brain functional connectivity matrix representing temporal correlation of brain activities of a set of said plurality of brain regions; using a generalized linear mixed model, calculating measurement bias for each element of said brain functional connectivity matrix, as a fixed effect at each measurement site with respect to an average of the corresponding element across said plurality of measurement sites and across said plurality of traveling subjects; and using said measurement bias, correcting a brain functional connectivity correlation value as the prescribed elements of said brain functional connectivity matrix of a subject measured at each of said measurement sites and thereby obtaining an adjusted value.
A method for controlling an induction cooking hob, wherein said method comprises an operation mode for estimating the energy efficiency EE, wherein the energy efficiency EE is given by the relationship EE = EP / EI, wherein EP is the electric energy transferred to a cooking pot arranged on the induction cooking hob and EI is the electric energy provided by the mains supply and wherein the electric energy EI provided by the mains supply EI = EP + ED is composed of the electric energy EP transferred to the cooking pot and a dissipated electric energy ED, and wherein said operation mode includes the steps of: a) estimating the dissipated electric energy ED of the induction cooking hob, b) comparing the dissipated electric energy ED with a threshold value EDthr for said dissipated electric energy ED, c) maintaining the current working parameters of the induction cooking hob, if the dissipated electric energy ED is not bigger than the threshold value EDthr, d) changing the current working parameters in order to decrease the dissipated electric energy, if the dissipated electric energy ED is bigger than the threshold value EDthr, and e) repeating the steps a) and b) and then c) or d), respectively, after a predetermined time period, wherein the dissipated electric energy ED is estimated from detected parameters of the cooling fan, induction generator and induction coil. a) estimating the dissipated electric energy ED of the induction cooking hob, b) comparing the dissipated electric energy ED with a threshold value EDthr for said dissipated electric energy ED, c) maintaining the current working parameters of the induction cooking hob, if the dissipated electric energy ED is not bigger than the threshold value EDthr, d) changing the current working parameters in order to decrease the dissipated electric energy, if the dissipated electric energy ED is bigger than the threshold value EDthr, and e) repeating the steps a) and b) and then c) or d), respectively, after a predetermined time period,