mhurhangee/ep-ind-claims huggingface dataset:
An image forming device comprising: a main body which includes a main controller capable of controlling operations of the image forming device; a consumable unit which is mounted on the main body to communicate with the main controller; a CRUM, Customer Replaceable Unit Monitoring, chip, which is provided in the consumable unit and that is operable to store usage information and characteristics information regarding the consumable unit, characterised in that the main controller is operable to: generate first integrity detection data using first data; transmit to the CRUM chip the first data and the first integrity detection data, wherein the CRUM chip is operable: to generate second integrity detection data using both second data to be transmitted to the main controller and the first integrity detection data in response to the first data and the first integrity detection data being received, and to transmit the second data and the second integrity detection data to the main controller. a main body which includes a main controller capable of controlling operations of the image forming device; a consumable unit which is mounted on the main body to communicate with the main controller; a CRUM, Customer Replaceable Unit Monitoring, chip, which is provided in the consumable unit and that is operable to store usage information and characteristics information regarding the consumable unit, characterised in that the main controller is operable to: generate first integrity detection data using first data; transmit to the CRUM chip the first data and the first integrity detection data, generate first integrity detection data using first data; transmit to the CRUM chip the first data and the first integrity detection data, wherein the CRUM chip is operable: to generate second integrity detection data using both second data to be transmitted to the main controller and the first integrity detection data in response to the first data and the first integrity detection data being received, and to transmit the second data and the second integrity detection data to the main controller. to generate second integrity detection data using both second data to be transmitted to the main controller and the first integrity detection data in response to the first data and the first integrity detection data being received, and to transmit the second data and the second integrity detection data to the main controller.
An exterior building material comprising a coated metal sheet, wherein the coated metal sheet comprises: a metal sheet; and an overcoat coating film disposed on the metal sheet, wherein the overcoat coating film comprises fluorine resin, acrylic resin, and particles having micropores as a gloss adjusting agent, a mass ratio between the fluorine resin and the acrylic resin being 50:50 to 85:15, wherein a content of the gloss adjusting agent in the overcoat coating film is from 0.01 to 15vol%, and wherein the coated metal sheet satisfies the following expressions: D 97.5 / T ≤ 0.9 Ru ≤ 1.2 ⁢ T R ≥ 1.0 3 ≤ T ≤ 40 wherein R (μm) is a number average particle diameter of the gloss adjusting agent, T (μm) is a film thickness of the overcoat coating film, D 97.5 (μm) is a 97.5% particle diameter in an accumulated particle size distribution of the gloss adjusting agent based on the number of particles, and Ru (μm) is an upper particle diameter in the number particle size distribution of the gloss adjusting agent. a metal sheet; and an overcoat coating film disposed on the metal sheet, wherein the overcoat coating film comprises fluorine resin, acrylic resin, and particles having micropores as a gloss adjusting agent, a mass ratio between the fluorine resin and the acrylic resin being 50:50 to 85:15, wherein a content of the gloss adjusting agent in the overcoat coating film is from 0.01 to 15vol%, and wherein the coated metal sheet satisfies the following expressions: D 97.5 / T ≤ 0.9 Ru ≤ 1.2 ⁢ T R ≥ 1.0 3 ≤ T ≤ 40 wherein R (μm) is a number average particle diameter of the gloss adjusting agent, T (μm) is a film thickness of the overcoat coating film, D 97.5 (μm) is a 97.5% particle diameter in an accumulated particle size distribution of the gloss adjusting agent based on the number of particles, and Ru (μm) is an upper particle diameter in the number particle size distribution of the gloss adjusting agent.
Planning method for defining a placement position of a stent in an abdominal aorta of a subject, comprising the steps - providing image data representing at least a portion of the abdominal aorta of the subject; - identifying in said image data: a) an abdominal aortic aneurysm portion of the abdominal aorta having an aneurysm sac and an aneurysm neck; b) a distal end of the aneurysm neck; c) a lower renal artery; and d) a first distance between a distal end of an lower renal aortic ostium and the distal end of the aneurysm neck, and a second distance between a proximal end of the lower renal aortic ostium and the distal end of the aneurysm neck; the planning method further including the steps: - comparing the first distance with a minimum stent length and in case the first distance is larger than the minimum stent length, selecting a stent length smaller than the first distance or larger than the second distance; and in case the first distance is smaller than the minimum stent length, selecting a stent length larger than the second distance; and - defining a stent placement position in accordance with the selected stent length with a distal stent end aligned with the distal end of the aneurysm neck. - providing image data representing at least a portion of the abdominal aorta of the subject; - identifying in said image data: a) an abdominal aortic aneurysm portion of the abdominal aorta having an aneurysm sac and an aneurysm neck; b) a distal end of the aneurysm neck; c) a lower renal artery; and d) a first distance between a distal end of an lower renal aortic ostium and the distal end of the aneurysm neck, and a second distance between a proximal end of the lower renal aortic ostium and the distal end of the aneurysm neck; a) an abdominal aortic aneurysm portion of the abdominal aorta having an aneurysm sac and an aneurysm neck; b) a distal end of the aneurysm neck; c) a lower renal artery; and d) a first distance between a distal end of an lower renal aortic ostium and the distal end of the aneurysm neck, and a second distance between a proximal end of the lower renal aortic ostium and the distal end of the aneurysm neck; - comparing the first distance with a minimum stent length and in case the first distance is larger than the minimum stent length, selecting a stent length smaller than the first distance or larger than the second distance; and in case the first distance is smaller than the minimum stent length, selecting a stent length larger than the second distance; and - defining a stent placement position in accordance with the selected stent length with a distal stent end aligned with the distal end of the aneurysm neck.
A construction machine, having mounted thereon a grading attachment having a support beam that is arranged transversely to the working direction of the construction machine and substantially parallel to the grading plane, and a grading blade that is mounted on the support beam, wherein there is provided on the support beam a first pivot axis that is arranged substantially perpendicular to the plane of the grading blade and about which the grading blade is articulated to pivot on the support beam, and the first pivot axis is arranged at a first outer end of the support beam, characterised in that, for the purpose of adjusting the working width, the grading blade and the support beam are constructed to be telescopic, such that the support beam extends over the whole of the respectively adjusted working width of the grading blade.
An electrochemical method for determining the sensitivity of at least one electrolyte based electro-chemical gas sensor comprising: applying at least two electrical pulses to at least two parts of at least two electrodes of a gas sensor, recording a change of parameters over time in a current pattern induced in the at least two electrodes by the at least two pulses over time, characterized in that the current pattern induced by the at least two pulses is described by the parameters comprising an area under curve of the current pattern based on a first pulse, and an area under curve of current pattern based on a second pulse; calculating at least one sensitivity value for the sensor by applying an algorithm generated based on the parameters to the change of the parameters over time in the current pattern induced by the at least two pulses; and comparing the at least one calculated sensitivity value to known gas sensitivity calibration data, wherein the gas sensitivity calibration data are previously obtained from the same gas sensor type. applying at least two electrical pulses to at least two parts of at least two electrodes of a gas sensor, recording a change of parameters over time in a current pattern induced in the at least two electrodes by the at least two pulses over time, characterized in that the current pattern induced by the at least two pulses is described by the parameters comprising an area under curve of the current pattern based on a first pulse, and an area under curve of current pattern based on a second pulse; calculating at least one sensitivity value for the sensor by applying an algorithm generated based on the parameters to the change of the parameters over time in the current pattern induced by the at least two pulses; and comparing the at least one calculated sensitivity value to known gas sensitivity calibration data, wherein the gas sensitivity calibration data are previously obtained from the same gas sensor type.
A method performed by an electronic device of registering a personal cloud apparatus in a registration server, the method comprising: in response to a preset application being executed, displaying a notification User Interface, UI, notifying that Near Field Communication, NFC, is performed with the personal cloud apparatus; in response to the electronic device being positioned within a preset distance from the personal cloud apparatus, receiving pairing information of the personal cloud apparatus from the personal cloud apparatus via the NFC; performing a pairing operation with the personal cloud apparatus based on the pairing information of the personal cloud apparatus; acquiring information of an Access Point, AP, from the AP and transmitting the information of the AP to the personal cloud apparatus for enabling the personal cloud apparatus to connect to a network; and based on the personal cloud apparatus being connected to the network through the AP using the information of the AP, registering the personal cloud apparatus in the registration server by the electronic device. in response to a preset application being executed, displaying a notification User Interface, UI, notifying that Near Field Communication, NFC, is performed with the personal cloud apparatus; in response to the electronic device being positioned within a preset distance from the personal cloud apparatus, receiving pairing information of the personal cloud apparatus from the personal cloud apparatus via the NFC; performing a pairing operation with the personal cloud apparatus based on the pairing information of the personal cloud apparatus; acquiring information of an Access Point, AP, from the AP and transmitting the information of the AP to the personal cloud apparatus for enabling the personal cloud apparatus to connect to a network; and based on the personal cloud apparatus being connected to the network through the AP using the information of the AP, registering the personal cloud apparatus in the registration server by the electronic device.
Circuit arrangement for generating a regulated supply extra-low voltage, for an operational amplifier supplied asymmetrically by two operating voltages (UE, UA) and a regulated reference voltage source, comprising the operational amplifier, the supply extra-low voltage being of the order of one tenth of one of the two operating voltages, the circuit arrangement further comprising the regulated reference voltage source (Q1 + Qref; DR), which is connected between a pole of one of the two operating voltages and an operating voltage input (V-) of the operational amplifier and is provided for regulating a reference voltage (URef), the regulated supply extra-low voltage (Uk) being formed on the basis of the serial superposition of the reference voltage (URef) with that of one of the two operating voltages (UE, UA), the output of the operational amplifier being brought at least to 0 volts or also to a slightly negative voltage. the supply extra-low voltage being of the order of one tenth of one of the two operating voltages, the circuit arrangement further comprising the regulated reference voltage source (Q1 + Qref; DR), which is connected between a pole of one of the two operating voltages and an operating voltage input (V-) of the operational amplifier and is provided for regulating a reference voltage (URef), the regulated supply extra-low voltage (Uk) being formed on the basis of the serial superposition of the reference voltage (URef) with that of one of the two operating voltages (UE, UA), the output of the operational amplifier being brought at least to 0 volts or also to a slightly negative voltage.
A method for fabricating interdigitated back-contact photovoltaic cells by forming a pattern of differently doped regions including a first doped region and a second doped region at the same side of a semiconductor substrate, the method comprising: providing a patterned doped layer on a surface of the semiconductor substrate at predetermined locations where the first doped region is to be formed; and selectively growing the second doped region epitaxially at a temperature in the range of 800°C to 1200°C at the same side of the semiconductor substrate using the patterned doped layer as a mask, thereby driving dopants from the patterned doped layer into the semiconductor substrate and thus forming the first doped region at the predetermined locations, wherein the first doped region and the second doped region form an interdigitated pattern at the rear side of the semiconductor substrate, and wherein one of the first doped region and the second doped region is a Back Surface Field region and the other one of the first doped region and the second doped region is an emitter region. providing a patterned doped layer on a surface of the semiconductor substrate at predetermined locations where the first doped region is to be formed; and selectively growing the second doped region epitaxially at a temperature in the range of 800°C to 1200°C at the same side of the semiconductor substrate using the patterned doped layer as a mask, thereby driving dopants from the patterned doped layer into the semiconductor substrate and thus forming the first doped region at the predetermined locations, wherein the first doped region and the second doped region form an interdigitated pattern at the rear side of the semiconductor substrate, and wherein one of the first doped region and the second doped region is a Back Surface Field region and the other one of the first doped region and the second doped region is an emitter region.
An oral liquid formulation, comprising: (i) lisinopril or a pharmaceutically acceptable salt or solvate thereof; (ii) a sweetener that is xylitol; (iii) a buffer comprising citric acid and sodium citrate; (iv) a preservative that is sodium benzoate; and (v) water; wherein the pH of the formulation is between about 4 and about 5; and wherein the formulation is stable at 25±5 °C for at least 12 months. (i) lisinopril or a pharmaceutically acceptable salt or solvate thereof; (ii) a sweetener that is xylitol; (iii) a buffer comprising citric acid and sodium citrate; (iv) a preservative that is sodium benzoate; and (v) water;
A transport chiller comprising: a compressor that compresses a refrigerant for cooling a transport container provided on a vehicle; a frame; the frame 14 includes a lower wall member 14a that has an upper surface which is a horizontal surface and a vertical wall member 14b that is connected to the lower wall member 14a and is erected upward; a lower anti-vibration support member that supports a part below a centroid of the compressor with respect to the frame and has a lower elastic body that is a rubber vibration isolator; and an upper anti-vibration support member that supports a part above the centroid of the compressor with respect to the frame and has an upper elastic body (22, 24) that is a rubber vibration isolator, wherein a spring constant of the upper elastic body (22, 24) is larger than a spring constant of the lower elastic body. a compressor that compresses a refrigerant for cooling a transport container provided on a vehicle; a frame; the frame 14 includes a lower wall member 14a that has an upper surface which is a horizontal surface and a vertical wall member 14b that is connected to the lower wall member 14a and is erected upward; a lower anti-vibration support member that supports a part below a centroid of the compressor with respect to the frame and has a lower elastic body that is a rubber vibration isolator; and an upper anti-vibration support member that supports a part above the centroid of the compressor with respect to the frame and has an upper elastic body (22, 24) that is a rubber vibration isolator, wherein a spring constant of the upper elastic body (22, 24) is larger than a spring constant of the lower elastic body.
Device for detecting damage of a wind energy turbine and, in particular, of a wind energy turbine rotor blade, due to a lightning strike, characterised by comprising - several magnetic and/or electric field sensors distributed along the length of a rotor blade of the wind energy turbine for measuring the magnetic and/or electric field concentration along the rotor blade, and - an evaluation unit connected to the magnetic and/or electric field sensors for receiving the measured signals thereof, - wherein the evaluation unit is configured to calculate damage of the wind energy turbine and, in particular, of the rotor blade caused by a lightning strike based on the measured concentration of the magnetic and/or electric field along the length of the rotor blade and the magnetic and/or electric field concentration of an undamaged rotor blade. - several magnetic and/or electric field sensors distributed along the length of a rotor blade of the wind energy turbine for measuring the magnetic and/or electric field concentration along the rotor blade, and - an evaluation unit connected to the magnetic and/or electric field sensors for receiving the measured signals thereof, - wherein the evaluation unit is configured to calculate damage of the wind energy turbine and, in particular, of the rotor blade caused by a lightning strike based on the measured concentration of the magnetic and/or electric field along the length of the rotor blade and the magnetic and/or electric field concentration of an undamaged rotor blade.
A method of discharging a capacitance provided at the output of an inverter for feeding electrical power from a generation unit into a grid via a grid connect switch having a generation unit side and a grid side and via AC grid terminals (L1, L2 and L3) on the grid side of the grid connect switch, the capacitance being connected to at least one of the AC grid terminals (L1, L2 and L3), characterized by: - rectifying any voltage applied across the capacitance independently of its polarity to provide a rectified voltage of fixed polarity, - charging a DC voltage link of a switching power supply unit of the inverter with the rectified voltage, and - discharging the DC voltage link via a clocked switch of the switching power supply unit. - rectifying any voltage applied across the capacitance independently of its polarity to provide a rectified voltage of fixed polarity, - charging a DC voltage link of a switching power supply unit of the inverter with the rectified voltage, and - discharging the DC voltage link via a clocked switch of the switching power supply unit.
A method for operating a transmitting device, the method comprising: applying, by the transmitting device, codebook and/or signature hopping to at least one of a plurality of sparse codebooks to generate available combination block sequences of sparse codebooks; and applying phase rotation to these combination block sequences to optimize low peak to average power ratio, PAPR; and selecting the PAPR optimized combination block sequences that have a PAPR being lower than a PAPR threshold to produce a plurality of low PAPR combination block sequences; retrieving, by the transmitting device, a plurality of virtual codebooks, each virtual codebook derived from the plurality of low PAPR combination block sequences having a PAPR lower than the PAPR threshold; determining, by the transmitting device, an assignment of one of the plurality of virtual codebooks for the transmitting device; and transmitting, by the transmitting device, a packet towards a receiving device in accordance with the assigned virtual codebook. applying, by the transmitting device, codebook and/or signature hopping to at least one of a plurality of sparse codebooks to generate available combination block sequences of sparse codebooks; and applying phase rotation to these combination block sequences to optimize low peak to average power ratio, PAPR; and selecting the PAPR optimized combination block sequences that have a PAPR being lower than a PAPR threshold to produce a plurality of low PAPR combination block sequences; retrieving, by the transmitting device, a plurality of virtual codebooks, each virtual codebook derived from the plurality of low PAPR combination block sequences having a PAPR lower than the PAPR threshold; determining, by the transmitting device, an assignment of one of the plurality of virtual codebooks for the transmitting device; and transmitting, by the transmitting device, a packet towards a receiving device in accordance with the assigned virtual codebook.