mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a transmissivity of an atmosphere within a chamber, comprising: obtaining, at a light detector, a transmissivity measurement for a test beam that passes through the atmosphere in the chamber and into the light detector; obtaining a transfer standard measurement at the light detector by deflecting the test beam to be received at the light detector without passing through the atmosphere in the chamber; comparing the transfer standard measurement to a measurement of the chamber obtained during a clear air condition within the chamber; and determining the transmissivity of the atmosphere from the transmissivity measurement and the transfer standard measurement. obtaining, at a light detector, a transmissivity measurement for a test beam that passes through the atmosphere in the chamber and into the light detector; obtaining a transfer standard measurement at the light detector by deflecting the test beam to be received at the light detector without passing through the atmosphere in the chamber; comparing the transfer standard measurement to a measurement of the chamber obtained during a clear air condition within the chamber; and determining the transmissivity of the atmosphere from the transmissivity measurement and the transfer standard measurement.
A device comprising: Circuitry configured to acquire detection signals from a touchscreen that detects one or more fingerstrokes drawn across a surface of the touchscreen corresponding to an input operation; determine one or more input characters based on one or more characteristics of the detection signals; activate a timer corresponding to the one or more input characters; and issue a control signal to at least one camera to perform an image capture operation when an amount of remaining time on the timer is equal to zero, Wherein the circuitry is configured to determine the one or more input characters when the number of touch operations simultaneously performed on the touchscreen is one; and a plurality of touch-move events have occurred before a touch-up event which occurs, when a finger on the touchscreen is lifted from a surface of the touchscreen; and the plurality of touch-move events are discrete; and the plurality of touch-move events are not concentrated at one point. Circuitry configured to acquire detection signals from a touchscreen that detects one or more fingerstrokes drawn across a surface of the touchscreen corresponding to an input operation; determine one or more input characters based on one or more characteristics of the detection signals; activate a timer corresponding to the one or more input characters; and issue a control signal to at least one camera to perform an image capture operation when an amount of remaining time on the timer is equal to zero, Wherein the circuitry is configured to determine the one or more input characters when the number of touch operations simultaneously performed on the touchscreen is one; and a plurality of touch-move events have occurred before a touch-up event which occurs, when a finger on the touchscreen is lifted from a surface of the touchscreen; and the plurality of touch-move events are discrete; and the plurality of touch-move events are not concentrated at one point.
An extractor hood for removing dirt particles, in particular fat and oil droplets, from an air flow, comprising: a ventilator unit for generating an exhaust air flow through the extractor hood; and a separating means for removing dirt particles from the exhaust air flow; wherein the separating means defines at least one air guiding channel (25a, 25b), wherein along the at least one air guiding channel (25a, 25b) a baffle element is arranged, characterized in that the baffle element has capillary holes at least section-wise, such that dirt particles carried by the exhaust air flow guided along the at least one air channel (25a, 25b) are removed via the capillary holes, wherein in the at least one air guiding channel (25a, 25b) the baffle element is arranged downstream of a deflection of the deflected flow, such that dirt particles, due to centrifugal forces, are deposited on the baffle element. a ventilator unit for generating an exhaust air flow through the extractor hood; and a separating means for removing dirt particles from the exhaust air flow; wherein the separating means defines at least one air guiding channel (25a, 25b), wherein along the at least one air guiding channel (25a, 25b) a baffle element is arranged, characterized in that the baffle element has capillary holes at least section-wise, such that dirt particles carried by the exhaust air flow guided along the at least one air channel (25a, 25b) are removed via the capillary holes, wherein in the at least one air guiding channel (25a, 25b) the baffle element is arranged downstream of a deflection of the deflected flow, such that dirt particles, due to centrifugal forces, are deposited on the baffle element.
A system for treating tissue, the system comprising: - an introducer assembly comprising a cannula, the cannula defining a lumen; - a medical instrument for accessing tissue at a treatment site through the lumen of the cannula, the medical instrument defining one or more indicia, each indicia for defining a probe ablation zone; and - one or more probes, each probe corresponding to a single indicia of the medical instrument, each probe operable to ablate tissue within a respective probe ablation zone; wherein the medical instrument is a bone drill, and wherein the medical instrument defines a marking located so as to indicate that a distal end of the medical instrument is aligned with a distal end of the cannula when the medical instrument is inserted through the cannula such that the marking is aligned with a cooperating feature of the cannula. - an introducer assembly comprising a cannula, the cannula defining a lumen; - a medical instrument for accessing tissue at a treatment site through the lumen of the cannula, the medical instrument defining one or more indicia, each indicia for defining a probe ablation zone; and - one or more probes, each probe corresponding to a single indicia of the medical instrument, each probe operable to ablate tissue within a respective probe ablation zone; wherein the medical instrument is a bone drill, and wherein the medical instrument defines a marking located so as to indicate that a distal end of the medical instrument is aligned with a distal end of the cannula when the medical instrument is inserted through the cannula such that the marking is aligned with a cooperating feature of the cannula.
A pressure-sensing device comprising a pressed component that has a contact surface to which pressure is applied by contact from a presser; a polymeric piezoelectric element that is disposed at an opposite side from the contact surface of the pressed component and that has a piezoelectric constant d 14 of 1 pC/N or more, as measured at 25°C using a stress-charge method; a curable resin layer that comprises at least one selected from the group consisting of cold-setting resins, thermosetting resins and actinic radiation-curable resins, and that is in contact with at least part of a surface of the polymeric piezoelectric element; and an electrode characterised in that the electrode is in contact with part or all of a surface of the curable resin layer and that the electrode is not disposed in contact with a surface of the polymeric piezoelectric element, wherein the thickness of the curable resin layer is in the range of from 0.01 μm to 10 μm. a polymeric piezoelectric element that is disposed at an opposite side from the contact surface of the pressed component and that has a piezoelectric constant d 14 of 1 pC/N or more, as measured at 25°C using a stress-charge method; a curable resin layer that comprises at least one selected from the group consisting of cold-setting resins, thermosetting resins and actinic radiation-curable resins, and that is in contact with at least part of a surface of the polymeric piezoelectric element; and an electrode characterised in that the electrode is in contact with part or all of a surface of the curable resin layer and that the electrode is not disposed in contact with a surface of the polymeric piezoelectric element, wherein the thickness of the curable resin layer is in the range of from 0.01 μm to 10 μm.
An inkjet ink comprising a phenol resin whose softening point is 70°C or more and is 125°C or less, a tackifier, a colorant, and an organic solvent, wherein the colorant is a dye, and the tackifier is at least one kind selected from the group consisting of a terpene phenol resin and a rosin ester resin whose hydroxyl value is 10 mgKOH/g or more and is 45 mgKOH/g or less.
Transportation unit having at least one installation, having: a simulation system having an interface, via which current status data relating to the installation can be received, and a computing unit, which is designed to acquire simulated status data that is representative of a status of at least one part of the installation, on the basis of simulation data and the current status data, wherein the simulation system comprises a memory unit, in which at least one simulation program that can be executed by the computing unit is stored, wherein the simulation data is provided as a component of the simulation program. a simulation system having an interface, via which current status data relating to the installation can be received, and a computing unit, which is designed to acquire simulated status data that is representative of a status of at least one part of the installation, on the basis of simulation data and the current status data, wherein the simulation system comprises a memory unit, in which at least one simulation program that can be executed by the computing unit is stored, wherein the simulation data is provided as a component of the simulation program.
A method performed by a EUTRAN base station comprising: generating a request for physical resource block usage, PRB, information wherein said request comprises a report characteristics information element for indicating said request for PRB information to be for periodic PRB information; sending the generated request to a neighbouring EUTRAN base station; periodically receiving a resource status update message from the neighbouring EUTRAN base station in response to the request for physical resource block usage information; and performing load balancing operations in dependence upon each received resource status update message. generating a request for physical resource block usage, PRB, information wherein said request comprises a report characteristics information element for indicating said request for PRB information to be for periodic PRB information; sending the generated request to a neighbouring EUTRAN base station; periodically receiving a resource status update message from the neighbouring EUTRAN base station in response to the request for physical resource block usage information; and performing load balancing operations in dependence upon each received resource status update message.
Microfluidic device, comprising at least two layers (1, 3) arranged one above the other, namely a first layer and a second layer; an elastic diaphragm which is arranged between the two layers (1, 3); a cavity which is arranged in a clearance of the first layer and is pneumatically connected to a first displacement volume formed in the clearance of the first layer; and at least one duct in the second layer for applying pressure to the diaphragm, wherein the duct is pneumatically connected to a second displacement volume formed in the second layer, wherein the second displacement volume is pneumatically connected to the diaphragm such that, depending on the application of pressure by the duct into the first displacement volume or into the second displacement volume, the diaphragm can expand to increase or decrease a pressure in the cavity, characterized in that, to limit the pressure variation in the cavity, the diaphragm is connected, via a weld seam or adhesive bond, to the first layer in the region of the duct and to the second layer in the region of the cavity, with the result that the first displacement volume is determined by the clearance and by the extent of the weld seam or adhesive bond on the second layer and the cavity is formed by that part of the clearance in which the diaphragm cannot expand as a result of the weld seam or the adhesive bond with the second layer.
A method for producing a ceramic honeycomb body, comprising the steps of: providing a ceramic honeycomb body having a first cut end face, a second cut end face opposite the first cut end face and plurality of cell channels extending between the first and second cut end faces (18, 20); removing material from the first cut end face to reduce a length of the ceramic honeycomb body, wherein the step of removing material comprises abrasively removing material from the first cut end face with a rotating abrasive grinding tool; characterized in that the step of removing material comprises contacting the first end face with a diamond coated grinding wheel, wherein the grinding tool is rotated at about 1000 rpm to 6000 rpm, the step of removing material provides a surface roughness Ra of less than 5.0 μm, and the length after the step of removing material and a width which is a maximum width of the ceramic honeycomb body exhibits a L/W ratio of greater than 0.75; after the step of removing material plugging with a cement at least some of a plurality of cell channels of the honeycomb body. providing a ceramic honeycomb body having a first cut end face, a second cut end face opposite the first cut end face and plurality of cell channels extending between the first and second cut end faces (18, 20); removing material from the first cut end face to reduce a length of the ceramic honeycomb body, wherein the step of removing material comprises abrasively removing material from the first cut end face with a rotating abrasive grinding tool; characterized in that the step of removing material comprises contacting the first end face with a diamond coated grinding wheel, wherein the grinding tool is rotated at about 1000 rpm to 6000 rpm, the step of removing material provides a surface roughness Ra of less than 5.0 μm, and the length after the step of removing material and a width which is a maximum width of the ceramic honeycomb body exhibits a L/W ratio of greater than 0.75; after the step of removing material plugging with a cement at least some of a plurality of cell channels of the honeycomb body.
A high-strength, high-workability steel sheet for cans consisting of 0.070% to less than 0.080% C, 0.003% to 0.10% Si, 0.51% to 0.60% Mn, 0.001% to 0.100% P, 0.001% to 0.020% S, 0.005% to 0.100% Al, and 0.010% or less N on a mass basis, the remainder being Fe and unavoidable impurities, the sheet having a tensile strength of 500 MPa or more and a yield elongation of 10% or more, wherein the average size and elongation rate of crystal grains are 5 μm or more and 2.0 or less, respectively, in cross section in the rolling direction thereof; the hardness difference obtained by subtracting the average Vickers hardness of a cross section ranging from a surface to a depth equal to one-eighth of the thickness of the sheet from the average Vickers hardness of a cross section ranging from a depth equal to three-eighths of the sheet thickness to a depth equal to four-eighths of the sheet thickness is 10 points or more; and/or the hardness difference obtained by subtracting the maximum Vickers hardness of the cross section ranging from the surface to a depth equal to one-eighth of the sheet thickness from the maximum Vickers hardness of the cross section ranging from a depth equal to three-eighths of the sheet thickness to a depth equal to four-eighths of the sheet thickness is 20 points or more.
A cleaning device (mop) connectable to a handle comprising a head with a substantially circular profile formed by a plurality of non-woven fabric flexible strips overlapped with one another, the profiles thereof being preferably staggered with respect one another, and arranged to cover the circumference of the head and to form a bell, said plurality of overlapped strips including a group of innermost strips, characterized in that the innermost strips of said plurality of overlapped strips are adapted to maintain said bell shape even after wetting of said device, said strips having a greater stiffness than the remaining strips and being formed by a single layer of non-woven felt with high basis weight, preferably deriving from recycled materials.
A communication method for transmitting, by a first communication device, data to a second communication device, the communication method comprising: calculating, by the first communication device, a plurality of data error detection codes for detecting an error of a plurality of data fields using the plurality of data fields; generating, by the first communication device, a packet comprising the plurality of data fields and the plurality of data error detection codes; and transmitting, by the first communication device, the packet to the second communication device, the plurality of data error detection codes are calculated by using a safety unique identifier, SUID, wherein the safety unique identifier, SUID, is generated by combining a source media access control address, a source device identifier, a destination MAC address, and a destination device identifier, without being included in a safety PDU comprising a safety PDU header and a safety PDU payload. calculating, by the first communication device, a plurality of data error detection codes for detecting an error of a plurality of data fields using the plurality of data fields; generating, by the first communication device, a packet comprising the plurality of data fields and the plurality of data error detection codes; and transmitting, by the first communication device, the packet to the second communication device, the plurality of data error detection codes are calculated by using a safety unique identifier, SUID,
A power circuit mount unit, comprising: a substrate on which a power module (51, 52) is mounted; a heat sink for dissipating heat from the power modules (51, 52), which is attached to surfaces of the power modules (51, 52); a detection circuit for detecting predetermined current or voltage, which is mounted near the power modules (51, 52) on the substrate, the power circuit mount unit; and an electromagnetic shielding member for shielding against electromagnetic waves generated from the heat sink to the detection circuit side, characterized in that: the detection circuit is arranged so as to face the heat sink with the substrate being interposed between the detection circuit and the heat sink; and the electromagnetic shielding member is provided between an attachment section of the detection circuit of the substrate and the heat sink. a substrate on which a power module (51, 52) is mounted; a heat sink for dissipating heat from the power modules (51, 52), which is attached to surfaces of the power modules (51, 52); a detection circuit for detecting predetermined current or voltage, which is mounted near the power modules (51, 52) on the substrate, the power circuit mount unit; and an electromagnetic shielding member for shielding against electromagnetic waves generated from the heat sink to the detection circuit side, characterized in that: the detection circuit is arranged so as to face the heat sink with the substrate being interposed between the detection circuit and the heat sink; and the electromagnetic shielding member is provided between an attachment section of the detection circuit of the substrate and the heat sink. the detection circuit is arranged so as to face the heat sink with the substrate being interposed between the detection circuit and the heat sink; and the electromagnetic shielding member is provided between an attachment section of the detection circuit of the substrate and the heat sink.
A household appliance comprising a control panel having a plurality of capacitive touch sensors associated with operational functions to be performed by said household appliance, the household appliance further comprising a control unit in electrical communication with each of said plurality of capacitive touch sensors through a conductive line, said conductive line having a serial resistance in between said control unit and each of the plurality of capacitive touch sensors and the serial resistance is an electronically controllable variable resistance whose resistance value on the conductive line is controllable by the control unit by means of a control signal on an electronic control line wherein the control unit is programmed to sense if a capacitive touch sensor among the plurality of capacitive touch sensors is pressed and if said capacitive touch sensor is pressed, to evaluate an amount of fluctuations in signals received from said capacitive touch sensor and to set a resistance value of a serial resistance associated with said capacitive touch sensor to its maximum value if such fluctuations are not within a predefined limit.
A redundant array of independent disks, RAID, storage device (1150, 1150n, 1250, 1250m) comprising: a memory device including first memory devices configured to store at least one of data chunks and corresponding parity and a second memory device configured to serve as a spare memory region; and a RAID controller including a RAID internal memory configured to store a count table (400, 500) and configured to control performing of a rebuild operation in response to a command received from a host (10, 100), wherein upon identification of a failed first memory device, the RAID controller accesses used regions of non-failed first memory devices based on the count table (400, 500) and rebuilds data of the failed first memory device using the second memory device, wherein the count table (400, 500) stores count table information indicating used regions in at least one of the first memory devices, wherein in response to a RAID operation on the first memory devices, the RAID controller is configured to generate hash values (11, 13) by performing hash modulation based on a logical block address, LBA, at which the at least one of the data chunks and the corresponding parity are stored, and to store counts corresponding to a number of times the hash modulation is performed on the LBA in buckets of the count table (400, 500), wherein the RAID controller does not perform the rebuild operation when count values of all buckets in the count table (400, 500) are zero. a memory device including first memory devices configured to store at least one of data chunks and corresponding parity and a second memory device configured to serve as a spare memory region; and a RAID controller including a RAID internal memory configured to store a count table (400, 500) and configured to control performing of a rebuild operation in response to a command received from a host (10, 100), wherein upon identification of a failed first memory device, the RAID controller accesses used regions of non-failed first memory devices based on the count table (400, 500) and rebuilds data of the failed first memory device using the second memory device, wherein the count table (400, 500) stores count table information indicating used regions in at least one of the first memory devices, wherein in response to a RAID operation on the first memory devices, the RAID controller is configured to generate hash values (11, 13) by performing hash modulation based on a logical block address, LBA, at which the at least one of the data chunks and the corresponding parity are stored, and to store counts corresponding to a number of times the hash modulation is performed on the LBA in buckets of the count table (400, 500), wherein the RAID controller does not perform the rebuild operation when count values of all buckets in the count table (400, 500) are zero.