mhurhangee/ep-ind-claims huggingface dataset:
A method for use with a LIght Detection And Ranging, LIDAR, system, the method comprising: receiving a reflected light pulse at a detector of the LIDAR system, wherein the reflected light pulse is reflected off of an object; generating an analog signal in response to the reflected light pulse, wherein the analog signal is representative of the reflected light pulse; generating at least a first time data and a second time data with a time-to-digital converter, TDC, in response to the analog signal; integrating the analog signal with an integrator; sampling an output of the integrator with an analog-to-digital converter, ADC, at one or more sampling times to generate a digital sample representative of the output of the integrator; and processing the first time data, the second time data, and the digital sample to estimate a total reflected energy of the reflected light pulse, wherein processing the first time data, the second time data, and the digital sample comprises: determining a pulse duration of the analog signal based on the first time data and the second time data; determining a pulse energy of the analog signal based on the digital sample; and estimating a maximum value of the analog signal as proportional to a ratio of the pulse energy to the pulse duration. receiving a reflected light pulse at a detector of the LIDAR system, wherein the reflected light pulse is reflected off of an object; generating an analog signal in response to the reflected light pulse, wherein the analog signal is representative of the reflected light pulse; generating at least a first time data and a second time data with a time-to-digital converter, TDC, in response to the analog signal; integrating the analog signal with an integrator; sampling an output of the integrator with an analog-to-digital converter, ADC, at one or more sampling times to generate a digital sample representative of the output of the integrator; and processing the first time data, the second time data, and the digital sample to estimate a total reflected energy of the reflected light pulse, wherein processing the first time data, the second time data, and the digital sample comprises: determining a pulse duration of the analog signal based on the first time data and the second time data; determining a pulse energy of the analog signal based on the digital sample; and estimating a maximum value of the analog signal as proportional to a ratio of the pulse energy to the pulse duration. determining a pulse duration of the analog signal based on the first time data and the second time data; determining a pulse energy of the analog signal based on the digital sample; and estimating a maximum value of the analog signal as proportional to a ratio of the pulse energy to the pulse duration.
A method of installation of a new wireless lamp controller in a lighting control system, the method comprising: reading, by a mobile installation device, setup parameters from a machine readable element of said new wireless lamp controller; determining position data indicating a current position of the mobile installation device; characterized in that: the lighting control system comprises a central server, wireless lamp controllers and a plurality of segment modules (204, 206, 208, 210), each of the segment modules being in communication with a certain number of wireless lamp controllers in its surrounding area, each wireless lamp controller of a segment being in direct wireless communication range or in communication range via one or more other wireless lamp controllers, of its corresponding segment module (204, 206, 208, 210), the segment modules (204, 206, 208, 210) being coupled to the central server; the method further comprising the following steps: transmitting, by the mobile installation device, the setup parameters and the position data to the central server; and receiving, by the new wireless lamp controller via a segment module (204, 206, 208, 210) selected based on the position data, an activation code generated by the central server based at least partially on one or more of the setup parameters. reading, by a mobile installation device, setup parameters from a machine readable element of said new wireless lamp controller; determining position data indicating a current position of the mobile installation device; characterized in that: the lighting control system comprises a central server, wireless lamp controllers and a plurality of segment modules (204, 206, 208, 210), each of the segment modules being in communication with a certain number of wireless lamp controllers in its surrounding area, each wireless lamp controller of a segment being in direct wireless communication range or in communication range via one or more other wireless lamp controllers, of its corresponding segment module (204, 206, 208, 210), the segment modules (204, 206, 208, 210) being coupled to the central server; the method further comprising the following steps: transmitting, by the mobile installation device, the setup parameters and the position data to the central server; and receiving, by the new wireless lamp controller via a segment module (204, 206, 208, 210) selected based on the position data, an activation code generated by the central server based at least partially on one or more of the setup parameters. transmitting, by the mobile installation device, the setup parameters and the position data to the central server; and receiving, by the new wireless lamp controller via a segment module (204, 206, 208, 210) selected based on the position data, an activation code generated by the central server based at least partially on one or more of the setup parameters.
Apparatus for automatic delivery of chest compressions and ventilation to a patient, the apparatus comprising: a chest compressing device configured to deliver compression phases during which pressure is applied to compress the chest and decompression phases during which approximately zero pressure is applied to the chest; a ventilator configured to deliver positive, negative, or approximately zero pressure to the airway; control circuitry and processor, wherein the circuitry and processor are configured to cause the chest compressing device to repeatedly deliver a set containing a plurality of first-type flow cycles configured to improve systolic flow, each first-type flow cycle comprising a first-type decompression phase in which approximately zero pressure is applied to the chest and a first-type compression phase in which chest pressure is applied, and at least one second-type flow cycle configured to increase venous return to the right atrium thereby increasing blood flow during a subsequent compression phase, the at least one second-type flow cycle interspersed between sets of first-type flow cycles, each second-type flow cycle comprising a second-type decompression phase in which approximately zero pressure is applied to the chest, and a second-type compression phase in which chest pressure is applied, wherein the second-type decompression phase is substantially longer than the first-type decompression phase and wherein the control circuitry and processor are configured to cause the ventilator to deliver a negative ventilation pressure during the second-type decompression phase. a chest compressing device configured to deliver compression phases during which pressure is applied to compress the chest and decompression phases during which approximately zero pressure is applied to the chest; a ventilator configured to deliver positive, negative, or approximately zero pressure to the airway; control circuitry and processor, wherein the circuitry and processor are configured to cause the chest compressing device to repeatedly deliver a set containing a plurality of first-type flow cycles configured to improve systolic flow, each first-type flow cycle comprising a first-type decompression phase in which approximately zero pressure is applied to the chest and a first-type compression phase in which chest pressure is applied, and at least one second-type flow cycle configured to increase venous return to the right atrium thereby increasing blood flow during a subsequent compression phase, the at least one second-type flow cycle interspersed between sets of first-type flow cycles, each second-type flow cycle comprising a second-type decompression phase in which approximately zero pressure is applied to the chest, and a second-type compression phase in which chest pressure is applied, wherein the second-type decompression phase is substantially longer than the first-type decompression phase and wherein the control circuitry and processor are configured to cause the ventilator to deliver a negative ventilation pressure during the second-type decompression phase.
A fuel injection valve control device configured to control a plurality of fuel injection devices, each comprising a valve body, a solenoid configured to open the valve, and a set spring for pressing the valve body toward a valve seat, wherein the fuel injection valve control device is adapted to apply a boosting voltage (Vboost) to the solenoid during a boosting voltage application time (Tp) and, after a prescribed gap time from stopping the boosting voltage application, applies a holding current (Ib), the fuel injection valve control device includes a gap time correction unit configured to correct the gap time such as to set a late holding current application time (t5C) for a fuel injection valve having a weak set spring and to set an early holding current application time (t5A) for a fuel injection valve having a strong set spring; and the fuel injection valve control device includes a holding current correction unit which is adapted to set the holding current (Ih) to a small holding current value (IhC) for the fuel injection valve having the weak set spring and adapted to set the holding current (Ih) to a large holding current value (IhA) for the fuel injection valve having the strong set spring.
A fuel cell assembly comprising: a fuel cell having a membrane electrode assembly disposed between an anode fluid flow plate and a cathode fluid flow plate, the cathode flow plate defining a flow channel for conveying oxidant to the membrane electrode assembly, the flow channel having an inlet and an outlet; a plasma discharge fan configured to generate air flow into said inlet, wherein a plurality of said fuel cells are configured in a stack arrangement, the inlets for the plurality of fuel cells in the stack forming an air inlet face of the fuel cell stack, wherein the plasma discharge fan comprises a plate structure disposed over the stack air inlet face or the stack air outlet face. a fuel cell having a membrane electrode assembly disposed between an anode fluid flow plate and a cathode fluid flow plate, the cathode flow plate defining a flow channel for conveying oxidant to the membrane electrode assembly, the flow channel having an inlet and an outlet; a plasma discharge fan configured to generate air flow into said inlet, wherein a plurality of said fuel cells are configured in a stack arrangement, the inlets for the plurality of fuel cells in the stack forming an air inlet face of the fuel cell stack, wherein the plasma discharge fan comprises a plate structure disposed over the stack air inlet face or the stack air outlet face.
A method for manufacturing water treated man-made vitreous fibres (MMVF) comprising: a. providing a mineral melt, b. providing a fiberizing apparatus, c. fiberizing the mineral melt to form man-made vitreous fibres (MMVF), d. collecting the MMVF, and characterised by thereafter e. applying 0.1 wt% to 1 wt% water, based on the weight of MMVF, to the MMVF to form water treated MMVF. a. providing a mineral melt, b. providing a fiberizing apparatus, c. fiberizing the mineral melt to form man-made vitreous fibres (MMVF), d. collecting the MMVF, and characterised by thereafter e. applying 0.1 wt% to 1 wt% water, based on the weight of MMVF, to the MMVF to form water treated MMVF.
A data backup and recovery method for a mobile terminal, comprising: receiving a data backup request; backing up information data by blocks, and generating backup data of each block; scanning the backup data of each block, and generating corresponding statistics information; and storing the backup data and the statistics information of each block; receiving a data recovery request; asking, according to statistics information generated during data backup by blocks, a question for backup data of each block, wherein the backup data of each block is generated during data backup by blocks; and receiving an answer to the question and comparing the answer with corresponding statistics information, and if they match, performing a recovery operation on corresponding backup data. receiving a data backup request; backing up information data by blocks, and generating backup data of each block; scanning the backup data of each block, and generating corresponding statistics information; and storing the backup data and the statistics information of each block; receiving a data recovery request; asking, according to statistics information generated during data backup by blocks, a question for backup data of each block, wherein the backup data of each block is generated during data backup by blocks; and receiving an answer to the question and comparing the answer with corresponding statistics information, and if they match, performing a recovery operation on corresponding backup data.
A nitrile rubber composition containing a carboxyl group-containing nitrile rubber, a reactive silicone oil and at least one cross-linking agent which is selected from the group consisting of an organic peroxide-based cross-linking agent and polyamine-based cross-linking agent; wherein said reactive silicone oil has at least one reactive group which is selected from the group consisting of a hydroxyl group, amino group, mercapto group, epoxy group, carboxyl group, acrylic group, and methacryl group.
An antenna device comprising: an insulating antenna case the lower surface of which is open and in which a housing space is formed; an antenna base that includes an insulation base, made of resin, on which the antenna case is fitted, and a conductive base which is smaller than the insulation base and is fixed to the insulation base; and an umbrella-type element that is provided on the antenna base in such a way that a rear section thereof is located above the insulation base and a front section thereof is located above the conductive base. an insulating antenna case the lower surface of which is open and in which a housing space is formed; an antenna base that includes an insulation base, made of resin, on which the antenna case is fitted, and a conductive base which is smaller than the insulation base and is fixed to the insulation base; and an insulation base, made of resin, on which the antenna case is fitted, and a conductive base which is smaller than the insulation base and is fixed to the insulation base; and an umbrella-type element that is provided on the antenna base in such a way that a rear section thereof is located above the insulation base and a front section thereof is located above the conductive base.
Closure system with sliding leaves comprising: i) several leaves (2, 3, 4) sliding in translation along parallel axes each one comprising a panel fitted with a top support and with a bottom support which is provided with rolling means, and ii) upper and lower guide means (5, 6) for guiding the translational movement of each of the said leaves, the said top support of each panel being equipped with complementary guide means that collaborate with the upper guide means of the said leaf, and the bottom support of each panel being equipped with complementary guide means consisting of the said rolling means collaborating with the lower guide means which are made up of a rail able to support the weight of the said leaf, at least one leaf of the said closure system comprising a panel that can be moved laterally with respect to the position of its upper and lower guide means (5, 6), so as to move from a first vertical position, vertically in line with the said guide means into a second vertical position, in the plane of another leaf, so as to align several leaves in one and the same plane when the system is closed. the said at least one leaf comprising the panel that can be moved laterally comprising a top support and a bottom support each connected to the said panel by an articulation (12, 14) that allows relative rotation of the said support (10, 13) with respect to the said panel about a horizontal axis parallel to the plane of the said panel, the said system being characterized in that the said at least one leaf comprising the panel that can be moved laterally comprises a first stop member for the bottom support and a second stop member for the top support, these members being fixed to the said panel in order to limit the angular excursion between the said panel and the said bottom and top supports respectively, in the second vertical position. i) several leaves (2, 3, 4) sliding in translation along parallel axes each one comprising a panel fitted with a top support and with a bottom support which is provided with rolling means, and ii) upper and lower guide means (5, 6) for guiding the translational movement of each of the said leaves, the said top support of each panel being equipped with complementary guide means that collaborate with the upper guide means of the said leaf, and the bottom support of each panel being equipped with complementary guide means consisting of the said rolling means collaborating with the lower guide means which are made up of a rail able to support the weight of the said leaf,
An environmental control system having parallel compressors comprising: a first compressor driven by a first motor, the first compressor being operable for fluidly directing a first flow at a first flow rate through the first compressor; a second compressor driven by a second motor, the second compressor being operable for fluidly directing a second flow at a second flow rate through the second compressor; and a monitoring component configured to compare the first flow rate to the second flow rate; characterized in that the monitoring component comprises a first motor power sensor and a second motor power sensor. a first compressor driven by a first motor, the first compressor being operable for fluidly directing a first flow at a first flow rate through the first compressor; a second compressor driven by a second motor, the second compressor being operable for fluidly directing a second flow at a second flow rate through the second compressor; and a monitoring component configured to compare the first flow rate to the second flow rate; characterized in that the monitoring component comprises a first motor power sensor and a second motor power sensor.
A solid pharmaceutical composition comprising fine granules having a core and a polymer layer with which a surface of the core is coated, wherein the core comprises 1-(3-(2-(1-benzothiophen-5-yl)ethoxy)propyl)azetidin-3-ol or a salt thereof and a binder, wherein the fine granules comprise a compound having at least one hydrocarbon group having 8 to 18 carbon atoms and a sulfo group or a salt thereof, wherein the average particle size of the fine granules is 100 μm to 1000 μm, and wherein the compound having at least one hydrocarbon group having 8 to 18 carbon atoms and a sulfo group or the salt thereof is sodium lauryl sulfate or dioctyl sulfosuccinate sodium. wherein the core comprises 1-(3-(2-(1-benzothiophen-5-yl)ethoxy)propyl)azetidin-3-ol or a salt thereof and a binder, wherein the fine granules comprise a compound having at least one hydrocarbon group having 8 to 18 carbon atoms and a sulfo group or a salt thereof, wherein the average particle size of the fine granules is 100 μm to 1000 μm, and wherein the compound having at least one hydrocarbon group having 8 to 18 carbon atoms and a sulfo group or the salt thereof is sodium lauryl sulfate or dioctyl sulfosuccinate sodium.
An electrically conductive flexible frame comprising: an electrically conductive hollow cylindrical metallic tube having an outer surface, a circumference and a longitudinal axis (L-L), the metallic tube having a plurality of cuts along the longitudinal axis to form a flexible frame comprising a plurality of parallel conductive wires, each of the plurality of conductive wires being equally spaced apart circumferentially along the longitudinal axis of the tube by a gap to electrically isolate the plurality of wires; a first electrode (40a, 40b, 40c) mounted around the circumference of the flexible frame along the longitudinal axis of the tube and attached to a first wire (32a, 32b, 32c) of the plurality of wires; a second electrode (40a, 40b, 40c) mounted around the circumference of the flexible frame along the longitudinal axis of the tube at a predetermined distance from the first electrode and attached to a second wire (32a, 32b, 32c) of the plurality of wires, the second wire being adjacent to the first wire and not attached to the first wire; and a non-conductive thermoplastic layer secured to the outer surface of the flexible frame between the first and second electrodes, such that the thermoplastic layer circumferentially surrounds the plurality of wires to form an insulation layer between the first and second electrodes. an electrically conductive hollow cylindrical metallic tube having an outer surface, a circumference and a longitudinal axis (L-L), the metallic tube having a plurality of cuts along the longitudinal axis to form a flexible frame comprising a plurality of parallel conductive wires, each of the plurality of conductive wires being equally spaced apart circumferentially along the longitudinal axis of the tube by a gap to electrically isolate the plurality of wires; a first electrode (40a, 40b, 40c) mounted around the circumference of the flexible frame along the longitudinal axis of the tube and attached to a first wire (32a, 32b, 32c) of the plurality of wires; a second electrode (40a, 40b, 40c) mounted around the circumference of the flexible frame along the longitudinal axis of the tube at a predetermined distance from the first electrode and attached to a second wire (32a, 32b, 32c) of the plurality of wires, the second wire being adjacent to the first wire and not attached to the first wire; and a non-conductive thermoplastic layer secured to the outer surface of the flexible frame between the first and second electrodes, such that the thermoplastic layer circumferentially surrounds the plurality of wires to form an insulation layer between the first and second electrodes.
Surface-upgraded steel sheet composed of carbon steel and having a coating which is made up of at least one metallic anticorrosion layer (1.1) and at least one further layer (1.2) which is applied and material bonded to the metallic anticorrosion layer, characterized in that the at least one further layer (1.2) is a metallic layer or is formed from a metallic layer, where the metallic layer (1.2) is based on stainless steel, a chromium- and/or nickel-containing alloy, copper and/or a copper alloy, where the at least one metallic anticorrosion layer (1.1) is an anticorrosion layer based on zinc and/or aluminium and is textured.