mhurhangee/ep-ind-claims huggingface dataset:
A radio frequency identification, RFID, transponder (100, 400), comprising a modulator (102, 402) and a controller (104, 404), wherein: the modulator (102, 402) is configured to generate a modulated signal to be transmitted to an external RFID reader; the controller (104, 404) is configured to regulate an input voltage for the modulator (102, 402), resulting in a regulated input voltage, and to feed said regulated input voltage to the modulator (102, 402); characterized in that the controller (104, 404) is configured to regulate the input voltage in dependence on a power indicator, said power indicator being indicative of an amount of power available in the RFID transponder (100, 400). the modulator (102, 402) is configured to generate a modulated signal to be transmitted to an external RFID reader; the controller (104, 404) is configured to regulate an input voltage for the modulator (102, 402), resulting in a regulated input voltage, and to feed said regulated input voltage to the modulator (102, 402); characterized in that the controller (104, 404) is configured to regulate the input voltage in dependence on a power indicator, said power indicator being indicative of an amount of power available in the RFID transponder (100, 400).
An air conditioning system comprising: - an air cleaning unit including a grille having a discharge grille on a side portion, a fan sucking indoor air and/or outdoor air, a filter cleaning the sucked air, and an installation case (17,27) attached to one side of the grille and having a suction hole (173, 273) and an exhaust hole (172, 272); - a ventilation unit operating in association with the air cleaning unit; and - a duct member connecting the air cleaning unit and the ventilation unit, the duct member including a supply duct connected to the suction hole (173, 273) and an exhaust duct connected to the exhaust hole (172, 272); - an air suction hole, wherein the outdoor air is, in the ventilation mode, sucked into the air cleaning unit through the supply duct, passes through the filter and is discharged to an indoor area, and wherein the indoor air is, in the cleaning mode, sucked into the air cleaning unit through the air suction hole, passes through the filter and is discharged to the indoor area, wherein the ventilation unit comprises a heat exchanger placed thereinside, such that the indoor air flowing along the exhaust duct and the outdoor air sucked into the ventilation unit exchange heat, characterized in that the air cleaning unit further comprises a front cover having said air suction hole in a center portion thereof, wherein when the air suction hole is opened, a ventilation mode and a cleaning mode is simultaneously performed. - an air cleaning unit including a grille having a discharge grille on a side portion, a fan sucking indoor air and/or outdoor air, a filter cleaning the sucked air, and an installation case (17,27) attached to one side of the grille and having a suction hole (173, 273) and an exhaust hole (172, 272); - a ventilation unit operating in association with the air cleaning unit; and - a duct member connecting the air cleaning unit and the ventilation unit, the duct member including a supply duct connected to the suction hole (173, 273) and an exhaust duct connected to the exhaust hole (172, 272); - an air suction hole,
Method for the real-time-based transfer, without delays, from at least one verified transmitter to at least one verified receiver, of a plurality of data telegrams by a field bus in an industrial plant, in particular an automation plant or processing plant, comprising the following method steps: (a) each data telegram to be transferred from the transmitter to the receiver is provided with an additional data index by the transmitter; (b) the receiver stores each data telegram received from the transmitter in a memory, along with the associated additional data index; (c) once a defined time interval (Z1, Z2) has elapsed, or once a defined number of data telegrams has been transferred, the transmitter transfers, in a repeated manner, a data telegram that has already been transferred to the receiver, wherein the data telegram that is transferred in a repeated manner has an additional signature, and wherein the data telegram that is transferred in a repeated manner is preferably additionally encrypted by the transmitter; (d) after receiving the signed data telegram that has been transferred in a repeated manner, the receiver carries out a comparison of the signed data telegram that has been transferred in a repeated manner with the corresponding data telegram stored in the memory, for the purpose of verifying the transmitter, using the unambiguous data index. (a) each data telegram to be transferred from the transmitter to the receiver is provided with an additional data index by the transmitter; (b) the receiver stores each data telegram received from the transmitter in a memory, along with the associated additional data index; (c) once a defined time interval (Z1, Z2) has elapsed, or once a defined number of data telegrams has been transferred, the transmitter transfers, in a repeated manner, a data telegram that has already been transferred to the receiver, wherein the data telegram that is transferred in a repeated manner has an additional signature, and wherein the data telegram that is transferred in a repeated manner is preferably additionally encrypted by the transmitter; (d) after receiving the signed data telegram that has been transferred in a repeated manner, the receiver carries out a comparison of the signed data telegram that has been transferred in a repeated manner with the corresponding data telegram stored in the memory, for the purpose of verifying the transmitter, using the unambiguous data index.
A method comprising: allocating a work queue by a kernel mode driver (306,506) to a user mode application (302,702) in response to a request by the application, wherein the work queue is directly accessible by an accelerated processing device such as a graphics processing unit GPU, an accelerated processing unit or a general purpose GPU; and characterized by the steps of: selecting the application for scheduling by an accelerated processing device scheduler, wherein at least non-dependent instructions are processed autonomously from a processor scheduler; and allocating non-pageable memory allocations upon access by the accelerated processing device to support at least page fault handling by the accelerated processing device. allocating a work queue by a kernel mode driver (306,506) to a user mode application (302,702) in response to a request by the application, wherein the work queue is directly accessible by an accelerated processing device such as a graphics processing unit GPU, an accelerated processing unit or a general purpose GPU; and characterized by the steps of: selecting the application for scheduling by an accelerated processing device scheduler, wherein at least non-dependent instructions are processed autonomously from a processor scheduler; and allocating non-pageable memory allocations upon access by the accelerated processing device to support at least page fault handling by the accelerated processing device.
A medical device comprising: a housing including a tubular member for containing a transducer, wherein the tubular member has a chamber defined at least in part by a wall portion of the tubular member; the transducer positioned within the housing, wherein the transducer is rotatable relative to the housing along a rotation path about a rotation axis; a wire guide channel, at least a part of which is positioned substantially parallel to the rotation axis and radially inward of the most radially outer extent of the rotation path, wherein the channel is sized and configured to receive a wire guide; and a motor including a rotatable shaft extending substantially along the rotation axis, wherein operation of the motor rotates the shaft around the rotation axis, the shaft including a conduit, wherein the channel extends through the conduit; wherein the tubular member is a catheter; and characterized in that the motor is a microminiature motor contained within the chamber of the catheter. a housing including a tubular member for containing a transducer, wherein the tubular member has a chamber defined at least in part by a wall portion of the tubular member; the transducer positioned within the housing, wherein the transducer is rotatable relative to the housing along a rotation path about a rotation axis; a wire guide channel, at least a part of which is positioned substantially parallel to the rotation axis and radially inward of the most radially outer extent of the rotation path, wherein the channel is sized and configured to receive a wire guide; and a motor including a rotatable shaft extending substantially along the rotation axis, wherein operation of the motor rotates the shaft around the rotation axis, the shaft including a conduit, wherein the channel extends through the conduit; wherein the tubular member is a catheter; and characterized in that the motor is a microminiature motor contained within the chamber of the catheter.
A hinge, in particular for glass doors, with two hinge parts (10, 20; 10, 40) connected to one another in an articulated manner about a pivot axis by means of a hinge pin and with a lockable detent device for setting a closed or open position, which detent device has a detent body (37A, 37B) assigned to the first hinge part, guided in a linearly movable manner in a guide recess against the action of at least one spring element and a detent roller assigned to the second hinge part with a detent recess interacting with the detent body in a detent position, wherein the detent roller is arranged coaxial to the pivot axis between two hinge webs (21; 41) formed on the second hinge part (20; 40) and can be locked in different angular positions of its detent recess, wherein the first hinge part has a first guide recess for a first detent body and a second guide recess for a second detent body movable relative to the first detent body and both detent bodies (37A, 37B) interact with a detent roller, and wherein the detent recess in the detent roller for the first detent body is arranged angularly offset from the detent recess for the second detent body, characterized in that the detent roller has a detent groove extending over the entire height of the detent roller as the detent recess, wherein the detent groove has a first groove section and a second groove section angularly offset from the first groove section, and that the two detent bodies (37A, 37B) can move independently of one another.
A warming device that heats and agitates a container comprising: a housing having an enclosed chamber and a concentric warming chamber configured to receive a first fluid; a concentric basket configured to be received within the warming chamber and to secure the container partially submerged within the first fluid which is to be warmed therein; at least one heating element configured to heat the first fluid in the warming chamber to warm an exterior surface of the container; a motor configured to agitate and warm a second fluid in the container by rotating the concentric basket at a predetermined rate, wherein the motor operates a pump to re-circulate the first fluid around the container, and wherein the pump provides a directed jet stream of the first fluid from an outlet having a nozzle construction that impacts a flat surface on the concentric basket that is positioned substantially perpendicular to the directed jet stream to uniformly rotate the concentric basket within the warming chamber at a predetermined rate, which in turn agitates and warms the second fluid in the container; and a control panel that provides various signal instructions to the heating element and the motor. a housing having an enclosed chamber and a concentric warming chamber configured to receive a first fluid; a concentric basket configured to be received within the warming chamber and to secure the container partially submerged within the first fluid which is to be warmed therein; at least one heating element configured to heat the first fluid in the warming chamber to warm an exterior surface of the container; a motor configured to agitate and warm a second fluid in the container by rotating the concentric basket at a predetermined rate, wherein the motor operates a pump to re-circulate the first fluid around the container, and wherein the pump provides a directed jet stream of the first fluid from an outlet having a nozzle construction that impacts a flat surface on the concentric basket that is positioned substantially perpendicular to the directed jet stream to uniformly rotate the concentric basket within the warming chamber at a predetermined rate, which in turn agitates and warms the second fluid in the container; and a control panel that provides various signal instructions to the heating element and the motor.
Slewing bearing in a lightweight construction on a plain bearing base with the functional units outer ring, inner ring and gliding elements arranged between them, which contain 2 substantially conical gliding surfaces (2f,2x), an area with a clamping edge and a bridge region as bearing body, characterised in that each gliding element consists of 2 partial elements (2c, 2d), each of which has one substantially conical gliding surface (2f, 2x) and in that each gliding element comprises connecting components (2q, 2l, 21) of a connection system with which the gliding elements are connected to one another and that the partial elements (2c, 2d) are connected to one another by means of prestressing screws or connecting bolts, the prestressing screws or connecting bolts additionally applying a certain prestressing to the gliding surfaces by means of a spring assembly.
A method in a User Equipment, UE for enabling providing reporting Channel Quality Indicator, CQI, on a Physical Uplink Shared Channel, PUSCH, to a base station, comprising the steps of: obtaining information of a resource allocation from the base station, for which the radio resources span over at least two sub frames; obtaining at least an indication of a request for reporting CQI on the PUSCH in a plurality of transmissions for which the allocation is valid; and reporting CQI on the PUSCH in a plurality of transmissions for which the allocation is valid. obtaining information of a resource allocation from the base station, for which the radio resources span over at least two sub frames; obtaining at least an indication of a request for reporting CQI on the PUSCH in a plurality of transmissions for which the allocation is valid; and reporting CQI on the PUSCH in a plurality of transmissions for which the allocation is valid.
Method for metallising a surface of a part for a motor vehicle, the metallisation being non-electrolytic, the method being implemented in a booth comprising at least one spray (18, 20, 22) of activating product and one spray (18, 20, 22) of metal salts, each spray (18, 20, 22) being fixedly mounted in the booth, the part being manipulated by a manipulator robot, the method comprising the following steps: - the robot first positions the part opposite the spray (18, 20, 22) of activating product, moves it with respect to this spray so that the entire surface is covered with activating product, and - the robot then positions the part opposite the spray (18, 20, 22) of metal salts and moves it with respect to this spray so that the entire surface is covered with metal salts. - the robot first positions the part opposite the spray (18, 20, 22) of activating product, moves it with respect to this spray so that the entire surface is covered with activating product, and - the robot then positions the part opposite the spray (18, 20, 22) of metal salts and moves it with respect to this spray so that the entire surface is covered with metal salts.
A computer-implemented method comprising: controlling input of data quantifying damage received by one or more components of a gas turbine engine into a first machine learning algorithm; the method being characterised by further comprising: receiving data quantifying a first operating parameter of the gas turbine engine as an output of the first machine learning algorithm; and determining operability of the gas turbine engine by comparing the received data quantifying the first operating parameter of the gas turbine engine with a threshold. controlling input of data quantifying damage received by one or more components of a gas turbine engine into a first machine learning algorithm; the method being characterised by further comprising: receiving data quantifying a first operating parameter of the gas turbine engine as an output of the first machine learning algorithm; and determining operability of the gas turbine engine by comparing the received data quantifying the first operating parameter of the gas turbine engine with a threshold.
Lock for a closing element, in particular door lock, with a lock latch and/or with a lock bolt and with a drive unit, which has at least one drive motor, for motorised adjustment of the lock latch and/or of the lock bolt in a linear movement with respect to a lock case of the lock between an open position and a closed position, wherein the drive motor is integrated into the lock latch or the lock bolt and, together with the lock latch or with the lock bolt, is movable between the open position and the closed position, characterized in that, for converting a rotational movement of the drive motor into the linear movement of the lock latch or of the lock bolt, the drive unit is mechanically coupled to the lock case.
A positioning apparatus that executes positioning based on signals received by an antenna of a GNSS receiver from a positioning satellite, comprising: a pseudo range measurement unit for measuring a pseudo range between the positioning satellite and the antenna; an ionospheric delay amount calculating unit for calculating an ionospheric delay amount included in the pseudo range; and a pseudo range corrector for executing a positioning calculation by correcting the pseudo range based on the ionospheric delay amount; wherein the ionospheric delay amount calculating unit increases a partition number, which divides the distance between the positioning satellite and the antenna into 2 n regions, and repeats an integration of number of electrons until satisfying | sTEC N - sTEC N-1 | < Th, where sTEC N is the total number of electrons by integrating according to the partition number 2 n, sTEC N-1 is the total number of electrons by integrating according to the partition number 2 n-1, Th is a predetermined threshold value, determines that the total number of electrons is sTEC N-1 in a case of satisfying | sTEC N - sTEC N-1 | < Th, and calculates the ionospheric delay amount based on the determined total number of electrons. a pseudo range measurement unit for measuring a pseudo range between the positioning satellite and the antenna; an ionospheric delay amount calculating unit for calculating an ionospheric delay amount included in the pseudo range; and a pseudo range corrector for executing a positioning calculation by correcting the pseudo range based on the ionospheric delay amount; wherein the ionospheric delay amount calculating unit increases a partition number, which divides the distance between the positioning satellite and the antenna into 2 n regions, and repeats an integration of number of electrons until satisfying | sTEC N - sTEC N-1 | < Th, where sTEC N is the total number of electrons by integrating according to the partition number 2 n, sTEC N-1 is the total number of electrons by integrating according to the partition number 2 n-1, Th is a predetermined threshold value, increases a partition number, which divides the distance between the positioning satellite and the antenna into 2 n regions, and repeats an integration of number of electrons until satisfying | sTEC N - sTEC N-1 | < Th, where sTEC N is the total number of electrons by integrating according to the partition number 2 n, sTEC N-1 is the total number of electrons by integrating according to the partition number 2 n-1, Th is a predetermined threshold value, determines that the total number of electrons is sTEC N-1 in a case of satisfying | sTEC N - sTEC N-1 | < Th, and calculates the ionospheric delay amount based on the determined total number of electrons.
A fuel rail assembly for a fuel injection system for an internal combustion engine, the fuel rail assembly comprising a fuel rail formed of a plastic material and forming a reservoir for fuel, the fuel rail comprising an elongate fuel rail body having an inlet port to which fuel is supplied at pressure to the reservoir, and a plurality of outlet ports spaced along the fuel rail, the outlet ports each incorporating a recess forming an injector cup adapted to receive an associated fuel injector to form the hydraulic connection between the fuel rail and the fuel injector, wherein a discrete reinforcing element is located integrally in the fuel rail body in a predetermined region to strengthen the fuel rail in the predetermined region, wherein a reinforcing element is located in the region of each of the injector cups, wherein the reinforcing element comprises a generally cylindrical sleeve located coaxially with an associated injector cup (14, wherein the reinforcing element has at least one location element passing through a wall of the fuel rail body to lie outside the exterior surface of the fuel rail body, the fuel rail assembly being characterised in that the generally cylindrical sleeve has at its outer end a radially outwardly extending peripheral rim, at least part of which extends outwardly beyond the exterior surface of the fuel rail body to form the location element.
A microcontact printing stamp comprising, in laminate structure, a cured layer of an addition reaction cure silicone rubber composition overlaid with a cured layer of a fluoroelastomer composition which is a curable perfluoropolyether composition comprising a linear perfluoropolyether compound containing at least two aliphatic unsaturated monovalent hydrocarbon groups in a molecule, having a perfluoropolyether structure containing recurring units: -CaF 2a O- wherein a is an integer of 1 to 6 in the backbone, and having a number average molecular weight of 5,000 to 100,000 and a compound having at least two silicon-bonded hydrogen atoms in a molecule.
An electronic endoscope system comprising a light source device for sequentially emitting light having different wave-length bands, an electronic endoscope for receiving reflected light from the light emitted from the light source device and sequentially illuminating with different wave-length bands a subject tissue containing a blood vessel inside a body cavity and sequentially outputting an imaging signal corresponding to the wavelength bands of the received light, an alignment means for aligning images corresponding to imaging signals of light having different wavelength bands outputted from the electronic endoscope, characterized by an image production means for producing oxygen saturation level images each representing a distribution of an oxygen saturation level in a plurality of blood vessels lying in a depth different from the depths corresponding to the other images, from imaging signals of images aligned by the alignment means, and an image displaying means for simultaneously displaying the oxygen saturation level images of the plurality of blood vessels lying in the different depths producted by the image producing means.