mhurhangee/ep-ind-claims huggingface dataset:
A cooling system, comprising: a cabinet having an air inlet and an air outlet; an air moving unit disposed in the cabinet; a tandem compressor, a condenser (308, 1208), an electronic expansion valve (306, 1206) and an evaporator (304, 1204) arranged in a direct expansion cooling circuit; the tandem compressor including a variable capacity digital scroll compressor and a fixed capacity compressor; a controller (320, 1220) coupled to the electronic expansion valve (306, 1206) that controls the electronic expansion valve (306, 1206), the controller (320, 1220) selecting which of a plurality of superheat control modes to use in operating the electronic expansion valve (306, 1206) based on control parameters and a current operating status of each of the variable capacity digital scroll compressor and fixed capacity compressor of the tandem compressor. a cabinet having an air inlet and an air outlet; an air moving unit disposed in the cabinet; a tandem compressor, a condenser (308, 1208), an electronic expansion valve (306, 1206) and an evaporator (304, 1204) arranged in a direct expansion cooling circuit; the tandem compressor including a variable capacity digital scroll compressor and a fixed capacity compressor; a controller (320, 1220) coupled to the electronic expansion valve (306, 1206) that controls the electronic expansion valve (306, 1206), the controller (320, 1220) selecting which of a plurality of superheat control modes to use in operating the electronic expansion valve (306, 1206) based on control parameters and a current operating status of each of the variable capacity digital scroll compressor and fixed capacity compressor of the tandem compressor.
A skin patch for releasable attachment to a skin location comprising: a sensor for sensing a body parameter; a communications system coupled to the sensor; an antenna coupled to the communications system for receiving wireless power transmissions for powering the skin patch, the skin patch being couplable to at least one implantable ferromagnetic element (602, 710) configured for subcutaneous implantation below the skin location; at least one magnet (504, 506) in the skin patch for supercutaneous positioning in proximity to and for magnetic coupling with the at least one implantable ferromagnetic element (602, 710), the at least one magnet comprising a central aperture providing an opening for one or more electrodes of the sensor; and longitudinal magnets adjacent to the at least one magnet in the skin patch for use in aligning the skin patch to the skin location by magnetic coupling the longitudinal magnets with further implantable ferromagnetic elements adjacent to the at least one implantable ferromagnetic element, wherein the antenna comprises a coil configured to inductively couple with an external plurality of solenoids in an anti-Helmholtz configuration, the antenna providing at least one of the following: transmitting a wireless data signal corresponding to the sensed body parameter; or receiving wireless commands to affect the body parameter from an external controller. a sensor for sensing a body parameter; a communications system coupled to the sensor; an antenna coupled to the communications system for receiving wireless power transmissions for powering the skin patch, the skin patch being couplable to at least one implantable ferromagnetic element (602, 710) configured for subcutaneous implantation below the skin location; at least one magnet (504, 506) in the skin patch for supercutaneous positioning in proximity to and for magnetic coupling with the at least one implantable ferromagnetic element (602, 710), the at least one magnet comprising a central aperture providing an opening for one or more electrodes of the sensor; and longitudinal magnets adjacent to the at least one magnet in the skin patch for use in aligning the skin patch to the skin location by magnetic coupling the longitudinal magnets with further implantable ferromagnetic elements adjacent to the at least one implantable ferromagnetic element, wherein the antenna comprises a coil configured to inductively couple with an external plurality of solenoids in an anti-Helmholtz configuration, the antenna providing at least one of the following: transmitting a wireless data signal corresponding to the sensed body parameter; or receiving wireless commands to affect the body parameter from an external controller. transmitting a wireless data signal corresponding to the sensed body parameter; or receiving wireless commands to affect the body parameter from an external controller.
A machine tool (100, 100A, 100B) comprising: a jaw exchanger (1, 1A, 1B); a chuck body configured to hold a workpiece via a jaw (C, Cn); a support member rotatably supporting the chuck body; a machining apparatus to which a tool is attachable; and a controller configured to control the jaw exchanger (1, 1A, 1B), wherein the jaw exchanger (1, 1A, 1B) comprises: a stocker in which a jaw (C, Cn) attachable to the chuck body rotatable about a rotation axis is storable, wherein a plurality of jaws (C, Cn) is storable in the stocker; a stocker movement mechanism configured to move the stocker between a first position and a second position; and a jaw transferor configured to transfer the jaw (C, Cn) to the stocker provided at the first position (P 1) from a jaw receiver that is configured to receive the jaw (C, Cn); characterised in that the jaw transferor is configured to transfer the jaw (C, Cn) to the chuck body from the stocker provided at the second position. a jaw exchanger (1, 1A, 1B); a chuck body configured to hold a workpiece via a jaw (C, Cn); a support member rotatably supporting the chuck body; a machining apparatus to which a tool is attachable; and a controller configured to control the jaw exchanger (1, 1A, 1B), wherein the jaw exchanger (1, 1A, 1B) comprises: a stocker in which a jaw (C, Cn) attachable to the chuck body rotatable about a rotation axis is storable, wherein a plurality of jaws (C, Cn) is storable in the stocker; a stocker movement mechanism configured to move the stocker between a first position and a second position; and a jaw transferor configured to transfer the jaw (C, Cn) to the stocker provided at the first position (P 1) from a jaw receiver that is configured to receive the jaw (C, Cn); characterised in that the jaw transferor is configured to transfer the jaw (C, Cn) to the chuck body from the stocker provided at the second position. a stocker in which a jaw (C, Cn) attachable to the chuck body rotatable about a rotation axis is storable, wherein a plurality of jaws (C, Cn) is storable in the stocker; a stocker movement mechanism configured to move the stocker between a first position and a second position; and a jaw transferor configured to transfer the jaw (C, Cn) to the stocker provided at the first position (P 1) from a jaw receiver that is configured to receive the jaw (C, Cn); characterised in that the jaw transferor is configured to transfer the jaw (C, Cn) to the chuck body from the stocker provided at the second position.
A system, comprising: an emissions control system configured to couple to a turbine engine, wherein the emissions control system comprises: an emission control fluid supply having one or more conduits configured to couple to one or more fluid pathways of the system, wherein the one or more fluid pathways are fluidly coupled to a flow path of an exhaust gas from a combustor through a turbine of the turbine engine; at least one sensor configured to obtain a feedback of one or more parameters of the turbine engine, wherein the one or more parameters are indicative of a visibility of emissions of the exhaust gas; at least one valve coupled to the emissions control fluid supply; and a controller communicatively coupled to the at least one sensor and the at least one valve, wherein the controller is responsive to the feedback to adjust the at least one valve to adjust a flow of the emission control fluid to reduce the visibility of the emissions of the exhaust gas, the emission control fluid comprising a reducing agent; characterized in that the at least one sensor comprises a visibility sensor, wherein the visibility sensor includes an opacity sensor, a color sensor, or a combination thereof. an emission control fluid supply having one or more conduits configured to couple to one or more fluid pathways of the system, wherein the one or more fluid pathways are fluidly coupled to a flow path of an exhaust gas from a combustor through a turbine of the turbine engine; at least one sensor configured to obtain a feedback of one or more parameters of the turbine engine, wherein the one or more parameters are indicative of a visibility of emissions of the exhaust gas; at least one valve coupled to the emissions control fluid supply; and a controller communicatively coupled to the at least one sensor and the at least one valve, wherein the controller is responsive to the feedback to adjust the at least one valve to adjust a flow of the emission control fluid to reduce the visibility of the emissions of the exhaust gas, the emission control fluid comprising a reducing agent; characterized in that the at least one sensor comprises a visibility sensor, wherein the visibility sensor includes an opacity sensor, a color sensor, or a combination thereof.
A dc power source for a high voltage power apparatus, the dc power source comprising: - one or more strings (4a-c) including a plurality of dc power source units connected in series, and switches (7, 9, 11, 13) configured to connect and disconnect the strings, characterized in that - said switches (7, 9, 11, 13) are solid-state switches distributed among the power source units of each string (4a-c), - all solid-state switches (7, 9, 11, 13) in the string are arranged so that they are turned on and off simultaneously, - each switch (7, 9, 11, 13) is connected in parallel with a first controllable semiconductor switch in a first direction and connected in parallel with a second controllable semiconductor switch in a second direction which is opposite to the first direction, and - the dc power source comprises a control unit configured to bypass a failed switch (7, 9, 11, 13) by triggering the forward biased of the first or second controllable semiconductor switch connected to the failed switch (7, 9, 11, 13) in case a fault in the switch (7, 9, 11, 13) is detected. - one or more strings (4a-c) including a plurality of dc power source units connected in series, and switches (7, 9, 11, 13) configured to connect and disconnect the strings, characterized in that - said switches (7, 9, 11, 13) are solid-state switches distributed among the power source units of each string (4a-c), - all solid-state switches (7, 9, 11, 13) in the string are arranged so that they are turned on and off simultaneously, - each switch (7, 9, 11, 13) is connected in parallel with a first controllable semiconductor switch in a first direction and connected in parallel with a second controllable semiconductor switch in a second direction which is opposite to the first direction, and - the dc power source comprises a control unit configured to bypass a failed switch (7, 9, 11, 13) by triggering the forward biased of the first or second controllable semiconductor switch connected to the failed switch (7, 9, 11, 13) in case a fault in the switch (7, 9, 11, 13) is detected.
A non-invasive blood glucose level measurement device comprising: a pulse waveform measurement unit for measuring an acceleration pulse wave or a plethysmogram of a test subject; the device being characterised in that it further comprises: a storing part configured for storing a prescribed correlation between acceleration pulse waves, which are measured acceleration pulse waves or calculated acceleration pulse waves calculated from the measured plethysmogram, and blood glucose levels; and a data-processing unit configured for calculating a blood glucose level of the test subject by using the correlation based on waveform data of the measured or calculated acceleration pulse wave; wherein the correlation is a correlation between a first blood glucose level that is a blood glucose level measured with an invasive measurement method from the test subject or a different test subject, and a first acceleration pulse wave that is an acceleration pulse wave measured at the same time that the first blood glucose level was measured; and wherein the correlation is defined by a calibration curve constructed by performing a partial least squares regression analysis, using the first blood glucose level as an objective variable, and the first acceleration pulse wave as an explanatory variable, and the data-processing unit has a data-analyzing unit configured for calculating the blood glucose level by using the calibration curve. a storing part configured for storing a prescribed correlation between acceleration pulse waves, which are measured acceleration pulse waves or calculated acceleration pulse waves calculated from the measured plethysmogram, and blood glucose levels; and a data-processing unit configured for calculating a blood glucose level of the test subject by using the correlation based on waveform data of the measured or calculated acceleration pulse wave; wherein the correlation is a correlation between a first blood glucose level that is a blood glucose level measured with an invasive measurement method from the test subject or a different test subject, and a first acceleration pulse wave that is an acceleration pulse wave measured at the same time that the first blood glucose level was measured; and wherein the correlation is defined by a calibration curve constructed by performing a partial least squares regression analysis, using the first blood glucose level as an objective variable, and the first acceleration pulse wave as an explanatory variable, and the data-processing unit has a data-analyzing unit configured for calculating the blood glucose level by using the calibration curve.
Vertical mill gear unit with a housing, a drive shaft which is mounted in the housing such that it can be rotated about a horizontal first rotational axis and is provided with a bevel pinion at one of its ends, an intermediate shaft which is mounted in the housing such that it can be rotated about a vertical second rotational axis and is provided in the lower region with a bevel gear which is in engagement with the bevel pinion, a sun gear which is driven rotationally via the intermediate shaft, and a first planetary gear carrier which is mounted in the housing such that it can be rotated about the second rotational axis and on which at least one planetary gear is held such that it can be rotated about an associated planetary gear rotational axis, which planetary gear is in engagement firstly with the sun gear and secondly with an internal toothing system of an internal gear which is held on the housing in a stationary manner, characterized in that the intermediate shaft is configured as a hollow shaft, and in that a torsion shaft is plugged into the intermediate shaft, is connected to the said intermediate shaft fixedly so as to rotate with it and such that it can be moved so as to set the angle, the torsion shaft projecting upwards from the intermediate shaft, and the sun gear being fastened to the projecting section of the torsion shaft.
A herbicidal composition comprising: a) a herbicide A which is 3-[5-(difluoromethoxy)-1-methyl-3-(trifluoromethyl)pyrazol-4-ylmethylsulfonyl]-4,5-dihydro-5,5-dimethyl-1,2-oxazole; and b) a herbicide B which is imazapyr; wherein the herbicidal composition contains no further herbicides. a) a herbicide A which is 3-[5-(difluoromethoxy)-1-methyl-3-(trifluoromethyl)pyrazol-4-ylmethylsulfonyl]-4,5-dihydro-5,5-dimethyl-1,2-oxazole; and b) a herbicide B which is imazapyr;
A computer-implemented method for simultaneous communication with multiple wireless communication devices, the method comprising: receiving, using a plurality of antennas (102, 202) at a first wireless station, a plurality of packets, comprising a plurality of orthogonal frequency division multiplexing, OFDM, symbols, transmitted simultaneously from a plurality of other wireless stations wherein each of the simultaneously transmitted symbols includes a plurality of subcarriers; from each antenna of the plurality of antennas, taking a number of continuous samples from within each OFDM symbol to form a sample set, for each antenna (102, 202) of the plurality of antennas, frequency domain transforming the sample sets from that antenna (102, 202) to produce frequency domain outputs for each subcarrier; for each subcarrier, grouping the frequency domain transform outputs into a subcarrier vector specific to that subcarrier; determining a difference between subcarrier vectors formed over different sample sets, and based on the difference, determining a weighting vector for each subcarrier, wherein the weighting vector is selected so as to isolate each received packet from interference sources, and performing a multiplication of the vector specific to that subcarrier and the selected weighting vector so as to enable the first wireless station to at least one of detect or demodulate the received plurality of packets that were simultaneously transmitted by the plurality of other wireless stations. receiving, using a plurality of antennas (102, 202) at a first wireless station, a plurality of packets, comprising a plurality of orthogonal frequency division multiplexing, OFDM, symbols, transmitted simultaneously from a plurality of other wireless stations wherein each of the simultaneously transmitted symbols includes a plurality of subcarriers; from each antenna of the plurality of antennas, taking a number of continuous samples from within each OFDM symbol to form a sample set, for each antenna (102, 202) of the plurality of antennas, frequency domain transforming the sample sets from that antenna (102, 202) to produce frequency domain outputs for each subcarrier; for each subcarrier, grouping the frequency domain transform outputs into a subcarrier vector specific to that subcarrier; determining a difference between subcarrier vectors formed over different sample sets, and based on the difference, determining a weighting vector for each subcarrier, wherein the weighting vector is selected so as to isolate each received packet from interference sources, and performing a multiplication of the vector specific to that subcarrier and the selected weighting vector so as to enable the first wireless station to at least one of detect or demodulate the received plurality of packets that were simultaneously transmitted by the plurality of other wireless stations.
Vehicle ventilation system having a first air guiding duct which has a first air outlet opening, a second air guiding duct which is arranged parallel to the first air guiding duct and has a second air outlet opening, and having a deflection device which is arranged downstream of the air guiding ducts (14, 16) in the flow direction, the deflection device adjoining the first and the second air outlet opening (20, 22) directly in the flow direction, having a plurality of slats and covering the entire region of the air outlet openings (20, 22), characterized in that the first air guiding duct has a plurality of deflection means which are configured as a plurality of slats which are arranged parallel to one another, are coupled to one another and are arranged substantially transversely with respect to the slats of the deflection device.
A method of outputting on-bits and off-bits for driving at least one lamp, comprising: - receiving an input value of a range of input values at a quantizer of a sigma-delta modulator; - generating a plurality of offsets based on the input value; - adding one of the plurality of offsets to a maximum value of the range of input values, to form a compare value; - comparing an integrated value of the sigma-delta modulator to the compare value; and - outputting an on-bit when the integrated value is equal to or greater than the compare value and outputting an off-bit when the integrated value is less than the compare value. - receiving an input value of a range of input values at a quantizer of a sigma-delta modulator; - generating a plurality of offsets based on the input value; - adding one of the plurality of offsets to a maximum value of the range of input values, to form a compare value; - comparing an integrated value of the sigma-delta modulator to the compare value; and - outputting an on-bit when the integrated value is equal to or greater than the compare value and outputting an off-bit when the integrated value is less than the compare value.
A phase change memory, PCM, array, comprising: a plurality of PCM cells, wherein each PCM cell in the plurality of PCM cells comprises a top electrode (122a, 122b), a resistive element (114a, 114b), and a bottom electrode (108a, 108b); a global heater comprising a thermally conductive materia contacting each of the plurality of PCM cells, wherein the global heater is configured to receive an electric signal to heat the plurality of PCM cells simultaneously characterised by the global heater surrounding the plurality of PCM cells. a plurality of PCM cells, wherein each PCM cell in the plurality of PCM cells comprises a top electrode (122a, 122b), a resistive element (114a, 114b), and a bottom electrode (108a, 108b); a global heater comprising a thermally conductive materia contacting each of the plurality of PCM cells, wherein the global heater is configured to receive an electric signal to heat the plurality of PCM cells simultaneously characterised by the global heater surrounding the plurality of PCM cells.
A method of receiving a signal, which is received by a first UE from a second UE in a wireless communication system, comprising the steps of: receiving a PSCCH, physical sidelink control channel, transmitted by the second UE; receiving a PSSCH, physical sidelink shared channel, associated with the PSCCH; and characterized by, determining whether to use QCL, quasi co-located, assumption for demodulating the PSSCH based on a reception timing relation between the PSCCH and the PSSCH, wherein when the PSSCH is received within a predetermined time after the PSCCH is received, the PSSCH is demodulated using the QCL assumption, and wherein the demodulation of the PSSCH using the QCL assumption is performed using channel estimation information corresponding to channel estimation information of the PSCCH. receiving a PSCCH, physical sidelink control channel, transmitted by the second UE; receiving a PSSCH, physical sidelink shared channel, associated with the PSCCH; and characterized by, determining whether to use QCL, quasi co-located, assumption for demodulating the PSSCH based on a reception timing relation between the PSCCH and the PSSCH, wherein when the PSSCH is received within a predetermined time after the PSCCH is received, the PSSCH is demodulated using the QCL assumption, and wherein the demodulation of the PSSCH using the QCL assumption is performed using channel estimation information corresponding to channel estimation information of the PSCCH.