mhurhangee/ep-ind-claims huggingface dataset:
An electrosurgical device comprising: a. forceps including: i. a first working arm and ii. a second working arm; iii. a housing connecting the first working arm and the second working arm, wherein the housing includes: 1. a rigid stationary section, 2. a movable section, and 3. a flexible hinge section that includes the one or more hinges; b. a blade electrode; wherein the electrosurgical device is capable of being switched between a first electrical configuration so that the electrosurgical device delivers a first therapy current through the first working arm, the second working arm, or both, and a second electrical configuration so that the electrosurgical device delivers a second therapy current through the blade electrode; and wherein the one or more hinges are a pivot point for the first working arm and the second working arm to rotate about. a. forceps including: i. a first working arm and ii. a second working arm; iii. a housing connecting the first working arm and the second working arm, wherein the housing includes: 1. a rigid stationary section, 2. a movable section, and 3. a flexible hinge section that includes the one or more hinges; i. a first working arm and ii. a second working arm; iii. a housing connecting the first working arm and the second working arm, wherein the housing includes: 1. a rigid stationary section, 2. a movable section, and 3. a flexible hinge section that includes the one or more hinges; 1. a rigid stationary section, 2. a movable section, and 3. a flexible hinge section that includes the one or more hinges; b. a blade electrode;
An electric vehicle (8; 100) comprising: an electric drive unit (10; 110) including an electric motor used as a drive power source, a transaxle including a differential device and coupled to a motor shaft of the electric motor in a power transmittable manner on one end side of the electric motor in a direction of a motor centerline to transmit an output of the electric motor through the differential device to a pair of drive shafts, and a case housing the electric motor and the transaxle, wherein the case includes a first end surface portion located on the other end side of the electric motor in the motor centerline direction and rotatably supporting the motor shaft, and an accessory component (70; 114) of the vehicle is attached to an outside surface of the first end surface portion; characterized in that: the accessory component is attached to the first end surface portion such that the gravity center of the accessory component is located at a position offset from the motor centerline. an electric drive unit (10; 110) including an electric motor used as a drive power source, a transaxle including a differential device and coupled to a motor shaft of the electric motor in a power transmittable manner on one end side of the electric motor in a direction of a motor centerline to transmit an output of the electric motor through the differential device to a pair of drive shafts, and a case housing the electric motor and the transaxle, wherein the case includes a first end surface portion located on the other end side of the electric motor in the motor centerline direction and rotatably supporting the motor shaft, and an accessory component (70; 114) of the vehicle is attached to an outside surface of the first end surface portion; characterized in that: the accessory component is attached to the first end surface portion such that the gravity center of the accessory component is located at a position offset from the motor centerline.
A panel, in particular a wall, ceiling or floor panel, comprising a carrier plate based on polyvinyl chloride and a film attached thereon, wherein the film is a PVC film having a thickness of 0.04 to 0.2 mm and comprises a decorative pattern directly printed thereon, and a cured polymer layer is provided over the PVC film, wherein the ink used for printing the decorative pattern is solvent-containing and is a UV ink, characterized in that the printing ink contains a polymerizable acrylate and N-vinylcaprolactam.
A method for producing an optically active β-amino acid of formula, wherein b is 0 or 1; the symbol * shows that the carbon atom is a chiral carbon; R 1 is a hydrogen atom, an alkyl group, a substituted alkyl group, a cycloalkyl group, a substituted cycloalkyl group, an aralkyl group, a substituted aralkyl group, an aryl group, a substituted aryl group, an aliphatic heterocyclic group, a substituted aliphatic heterocyclic group, an aromatic heterocyclic group, a substituted aromatic heterocyclic group, an alkoxy group, a substituted alkoxy group, an aralkyloxy group, a substituted aralkyloxy group, an aryloxy group or a substituted aryloxy group; R 2 is a hydrogen atom, an alkyl group, a substituted alkyl group, a cycloalkyl group, a substituted cycloalkyl group, an aralkyl group, a substituted aralkyl group, an aryl group, a substituted aryl group, an aliphatic heterocyclic group, a substituted aliphatic heterocyclic group, an aromatic heterocyclic group, a substituted aromatic heterocyclic group, an alkoxy group, a substituted alkoxy group, an aralkyloxy group, a substituted aralkyloxy group, an aryloxy group, a substituted aryloxy group, an alkyloxycarbonyl group or an aralkyloxycarbonyl group; R 3 is an alkoxy group, a substituted alkoxy group, an aralkyloxy group, a substituted aralkyloxy group, an aryloxy group, a substituted aryloxy group, an amino group or a substituted amino group, X' is an acid, and R 1 and R 2 or R 2 and R 3 may be combined together to form a ring provided that R 1 and R 2 are not a hydrogen atom simultaneously, which comprises subjecting an enamine of formula wherein R 1, R 2, R 3 and X' have the same meanings as described above, and a is 0 or 1, to an asymmetric hydrogenation, wherein the asymmetric hydrogenation is carried out in the presence of a catalyst for the asymmetric hydrogenation, the catalyst for the asymmetric hydrogenation is a transition metal complex, the transition metal complex is a complex of a metal which belongs to the group VIII of the periodic table and a chiral ligand, the chiral ligand is a chiral phosphine ligand, and if a = 0, the asymmetric hydrogenation is carried out in the presence of an acid or a fluorine-containing aliphatic alcohol.
A method for controlling a laundry machine, the method comprising the steps of: determining whether to wash an inside of a steam generator or not; discharging remaining water from the steam generator; supplying detergent liquid to the inside of the steam generator; and discharging the detergent liquid from the inside of the steam generator. determining whether to wash an inside of a steam generator or not; discharging remaining water from the steam generator; supplying detergent liquid to the inside of the steam generator; and discharging the detergent liquid from the inside of the steam generator.
A patient support apparatus comprising a frame, an incontinence detection pad supported by the frame and operable to detect incontinence of a patient supported by the frame, an indicator coupled to the frame and operable to provide a first visual indication that 1) the incontinence detection pad is installed on the patient support apparatus or 2) incontinence is not detected by the incontinence detection pad, and a second visual indication that incontinence has been detected by the incontinence detection pad, and a user interface configured to receive a user input to enable and disable the indicator, wherein when the indicator is disabled, no visual indication that incontinence has been detected by the incontinence detection pad is provided by the indicator, characterized in that the user interface is configured to receive a second user input to selectively change an appearance of the indicator when incontinence has been detected to cause the indicator to continue displaying the first visual indication after the incontinence has been detected by the incontinence detection pad and not display the second visual indication. a frame, an incontinence detection pad supported by the frame and operable to detect incontinence of a patient supported by the frame, an indicator coupled to the frame and operable to provide a first visual indication that 1) the incontinence detection pad is installed on the patient support apparatus or 2) incontinence is not detected by the incontinence detection pad, and a second visual indication that incontinence has been detected by the incontinence detection pad, and a user interface configured to receive a user input to enable and disable the indicator, wherein when the indicator is disabled, no visual indication that incontinence has been detected by the incontinence detection pad is provided by the indicator, characterized in that the user interface is configured to receive a second user input to selectively change an appearance of the indicator when incontinence has been detected to cause the indicator to continue displaying the first visual indication after the incontinence has been detected by the incontinence detection pad and not display the second visual indication.
An expandable spinal implant (10, 100), comprising: a body (16, 116) having an upper plate (20, 120) and a lower plate (22, 122) connected together by an elastically deformable hinge (26, 216), each of the plates including an inner ramped surface (34, 36, 134, 136), the implant further having a channel (30, 130) for receiving a lever pin or an actuator pin; and a lever pin or an actuator pin (40, 140) comprising a shaft (46, 146) having at one end a keyed surface (48, 148), characterised in that the lever pin or actuator pin further includes at an opposed end an enlarged, oblong cross-sectional shaped tip, the shaped tip further including an exterior adjustment surface (54, 154) configured to cooperate with the ramped surfaces of the plates upon rotation to urge the plates apart to an expanded position, thereby expanding the implant. a body (16, 116) having an upper plate (20, 120) and a lower plate (22, 122) connected together by an elastically deformable hinge (26, 216), each of the plates including an inner ramped surface (34, 36, 134, 136), the implant further having a channel (30, 130) for receiving a lever pin or an actuator pin; and a lever pin or an actuator pin (40, 140) comprising a shaft (46, 146) having at one end a keyed surface (48, 148), characterised in that the lever pin or actuator pin further includes at an opposed end an enlarged, oblong cross-sectional shaped tip, the shaped tip further including an exterior adjustment surface (54, 154) configured to cooperate with the ramped surfaces of the plates upon rotation to urge the plates apart to an expanded position, thereby expanding the implant.
An article comprising a substrate having at least one main surface coated with a layer A having a refractive index lower than or equal to 1.55, characterized in that said layer A was obtained by deposition of activated species issued from at least one compound C in gaseous form having the following formula: where R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 are independently selected from the group consisting of alkyl, aryl, vinyl, acrylic, methacrylic, alkyl substituted with one or more heteroatoms, and -OSiR a R b R c in which R a, R b and R c independently represent H, alkyl, vinyl, aryl, hydroxyl or a hydrolyzable group, with the proviso that R a, R b and R c are not all selected from H or a hydrolyzable group, the deposition of said layer A being carried out by applying a bombardment with an ion beam to layer A while layer A is being formed.
Method for removing dissolved Cr compounds from spent tanning liquors without addition of a reducing agent other than activated carbon, comprising the steps of: a) adding activated carbon to at least one spent tanning liquor, b) raising the pH of the mixture from step a), with mixing, to a value of 7.0 to 9.0 to precipitate Cr, to form a Cr precipitate/activated carbon conglomerate, and c) separating off the Cr precipitate/activated carbon conglomerate. a) adding activated carbon to at least one spent tanning liquor, b) raising the pH of the mixture from step a), with mixing, to a value of 7.0 to 9.0 to precipitate Cr, to form a Cr precipitate/activated carbon conglomerate, and c) separating off the Cr precipitate/activated carbon conglomerate.
A method for calculating a SOC (State of Charge) of a battery being charged, comprising: obtaining a full charge voltage and a reference charging voltage curve of the battery, wherein the reference charging voltage curve at least comprises an approximately linear ascent stage; taking a voltage value from the approximately linear ascent stage of the reference charging voltage curve as a preset reference voltage, and obtaining a reference SOC corresponding to the preset reference voltage; obtaining a charging voltage curve corresponding to a current charging state of the battery, and acquiring a current charging voltage at which the charging voltage curve enters into an approximately linear ascent stage; determining a compensation factor according to the preset reference voltage, the full charge voltage, and the current charging voltage; and utilizing the compensation factor and the reference SOC to calculate a current SOC corresponding to the current charging state of the battery, wherein the compensation factor is utilized to convert a voltage difference between the current charging voltage and the preset reference voltage into a SOC difference between the current SOC and the reference SOC. obtaining a full charge voltage and a reference charging voltage curve of the battery, wherein the reference charging voltage curve at least comprises an approximately linear ascent stage; taking a voltage value from the approximately linear ascent stage of the reference charging voltage curve as a preset reference voltage, and obtaining a reference SOC corresponding to the preset reference voltage; obtaining a charging voltage curve corresponding to a current charging state of the battery, and acquiring a current charging voltage at which the charging voltage curve enters into an approximately linear ascent stage; determining a compensation factor according to the preset reference voltage, the full charge voltage, and the current charging voltage; and utilizing the compensation factor and the reference SOC to calculate a current SOC corresponding to the current charging state of the battery, wherein the compensation factor is utilized to convert a voltage difference between the current charging voltage and the preset reference voltage into a SOC difference between the current SOC and the reference SOC.
A computer-implemented method for generating images of a subsurface region, the method comprising: obtaining seismic data and an earth model related to the subsurface region; forward propagating, via a computer, a source wavefield through the earth model for a limited time range dependent on a first travel time and a second travel time; backward propagating, via a computer, a receiver wavefield through the earth model for the limited time range dependent on the first travel time and the second travel time; and applying, via a computer, an imaging condition to the forward propagated source wavefield and backward propagated receiver wavefield to generate images related to the subsurface region, wherein the first travel time is a length of time taken by seismic energy to travel from a seismic source to an image point in the subsurface region and the second travel time is a length of time taken by seismic energy to travel from a seismic receiver to the image point in the subsurface region, and wherein said limited time range is between the first travel time and the second travel time subtracted from a maximum travel time recorded at the seismic receiver. obtaining seismic data and an earth model related to the subsurface region; forward propagating, via a computer, a source wavefield through the earth model for a limited time range dependent on a first travel time and a second travel time; backward propagating, via a computer, a receiver wavefield through the earth model for the limited time range dependent on the first travel time and the second travel time; and applying, via a computer, an imaging condition to the forward propagated source wavefield and backward propagated receiver wavefield to generate images related to the subsurface region, wherein the first travel time is a length of time taken by seismic energy to travel from a seismic source to an image point in the subsurface region and the second travel time is a length of time taken by seismic energy to travel from a seismic receiver to the image point in the subsurface region, and wherein said limited time range is between the first travel time and the second travel time subtracted from a maximum travel time recorded at the seismic receiver.
A bearing spring support/damping apparatus (200; 400) comprising: a first end portion; a second end portion; and a flexible portion between the first end portion and the second end portion, wherein the apparatus further comprises: an outer diameter groove in an outer diameter surface of the second end portion; a radially and axially outwardly open rebate in the second end portion; and a first annular seal carried by the groove; characterised in that the apparatus further comprises: a second annular seal carried by the rebate. a first end portion; a second end portion; and a flexible portion between the first end portion and the second end portion, an outer diameter groove in an outer diameter surface of the second end portion; a radially and axially outwardly open rebate in the second end portion; and a first annular seal carried by the groove;
A terminal comprising: a receiving unit that receives downlink control information indicative of allocation of an uplink signal of a first transmission time interval, TTI, or an uplink signal of a second TTI having a shorter TTI length than the first TTI; a transmission power determination unit that determines transmission power of the uplink signal of the first TTI and transmission power of the uplink signal of the second TTI; and a transmitting unit that transmits the uplink signal of the first TTI and the uplink signal of the second TTI by using the determined transmission power on a basis of the downlink control information, wherein the transmission power determination unit reserves desired transmission power for the uplink signal of the second TTI in the first TTI in a case where decoding of the downlink control information indicative of allocation of the uplink signal of the second TTI to be transmitted within the first TTI is completed before start of transmission of the uplink signal of the first TTI. a receiving unit that receives downlink control information indicative of allocation of an uplink signal of a first transmission time interval, TTI, or an uplink signal of a second TTI having a shorter TTI length than the first TTI; a transmission power determination unit that determines transmission power of the uplink signal of the first TTI and transmission power of the uplink signal of the second TTI; and a transmitting unit that transmits the uplink signal of the first TTI and the uplink signal of the second TTI by using the determined transmission power on a basis of the downlink control information, wherein the transmission power determination unit reserves desired transmission power for the uplink signal of the second TTI in the first TTI in a case where decoding of the downlink control information indicative of allocation of the uplink signal of the second TTI to be transmitted within the first TTI is completed before start of transmission of the uplink signal of the first TTI.
A method performed by a radio network node for scheduling a transmission between the radio network node and a user equipment, the method comprising: determining a transport block size scaling factor; determining a time spreading factor based on the transport block size scaling factor, wherein the time spreading factor indicates a number of consecutive transmission time intervals, TTIs, over which the transmission is to be transmitted, or spread; determining a scheduling grant for the transmission based on the transport block size scaling factor, wherein the scheduling grant is a downlink assignment in downlink transmission, and wherein the scheduling grant is an uplink grant in uplink transmission; sending the transport block size scaling factor and the scheduling grant to the user equipment, whereby the scheduling grant schedules the transmission; and sending, in a downlink, the transmission to the user equipment, with a revised transport block size, in the number of consecutive TTIs according to the scheduling grant, wherein the transport block size scaling factor is multiplied with an initial transport block size to determine the revised transport block size for the transmission. determining a transport block size scaling factor; determining a time spreading factor based on the transport block size scaling factor, wherein the time spreading factor indicates a number of consecutive transmission time intervals, TTIs, over which the transmission is to be transmitted, or spread; determining a scheduling grant for the transmission based on the transport block size scaling factor, wherein the scheduling grant is a downlink assignment in downlink transmission, and wherein the scheduling grant is an uplink grant in uplink transmission; sending the transport block size scaling factor and the scheduling grant to the user equipment, whereby the scheduling grant schedules the transmission; and sending, in a downlink, the transmission to the user equipment, with a revised transport block size, in the number of consecutive TTIs according to the scheduling grant, wherein the transport block size scaling factor is multiplied with an initial transport block size to determine the revised transport block size for the transmission.
A method of welding a sample to a microprobe, the method comprising the steps of: • providing the sample; • providing a microprobe with an extremity; • moving the extremity to the sample until contact is made; • locally melt the sample while a part of the sample is kept solidified; and • freezing the locally melted sample to the extremity; characterized in that the local melting is achieved by vibration of the extremity, the locally melted sample freezing to the extremity when the vibration is stopped. • providing the sample; • providing a microprobe with an extremity; • moving the extremity to the sample until contact is made; • locally melt the sample while a part of the sample is kept solidified; and • freezing the locally melted sample to the extremity; the local melting is achieved by vibration of the extremity, the locally melted sample freezing to the extremity when the vibration is stopped.
Sensor for detecting particles in a gas flow, in particular soot particles in an exhaust gas flow, comprising at least two measuring electrodes (12, 13), which are arranged on a substrate of an electrically insulating material, the measuring electrodes (12, 13) being coated by a protective layer and the protective layer being produced from an electrically insulating material, such as alumina Al 2 O 3 or zirconia ZrO 2, characterized in that the electrically insulating material of the protective layer is doped with a conductive material, such as a metal or graphite.