mhurhangee/patent-ind-claim-en huggingface dataset:
A shaving razor system comprising: a. a handle having an elongated gripping portion with a proximal end portion and a distal end portion , a heat delivering element mounted to the proximal end portion of the handle , the heat delivering element comprising a skin contacting surface ; b. a power source positioned within the handle , the power source is in electrical communication with the heat delivering element , the power source having a power from about 4 Watts to about 8 Watts; c. a removable shaving razor cartridge mounted to the proximal end of the handle , the removable shaving razor cartridge having a housing with a guard , a cap and at least one blade mounted to the housing between the guard and the cap , characterized in that the heat delivering element is able to increase the temperature of the skin contacting surface from an initial temperature in air of 25 °C to an elevated temperature in air of 43 °C in less than 5 seconds, the heat delivering element having a thermal mass of from about 0.08 J/°C to about 0.50 J/°C, and the heat delivering element having a mean conductivity of from about 0.10 W/cm-°C to about 0.60 W/cm-°C, and the heat delivering element having a heat conducting distance from about 0.02 cm to about 0.2 cm. a. a handle having an elongated gripping portion with a proximal end portion and a distal end portion , a heat delivering element mounted to the proximal end portion of the handle , the heat delivering element comprising a skin contacting surface ; b. a power source positioned within the handle , the power source is in electrical communication with the heat delivering element , the power source having a power from about 4 Watts to about 8 Watts; c. a removable shaving razor cartridge mounted to the proximal end of the handle , the removable shaving razor cartridge having a housing with a guard , a cap and at least one blade mounted to the housing between the guard and the cap , characterized in that the heat delivering element is able to increase the temperature of the skin contacting surface from an initial temperature in air of 25 °C to an elevated temperature in air of 43 °C in less than 5 seconds, the heat delivering element having a thermal mass of from about 0.08 J/°C to about 0.50 J/°C, and the heat delivering element having a mean conductivity of from about 0.10 W/cm-°C to about 0.60 W/cm-°C, and the heat delivering element having a heat conducting distance from about 0.02 cm to about 0.2 cm.
A device comprising: a plurality of memory devices each having a serial self-repair interface, one of the memory devices acting as a main memory and all other memory devices acting as shadow memories (120a-c); and a sharing structure comprising logic circuitry for inputting a same set of self-repair data to each of the plurality of memory devices and receiving self-repair outputs from the plurality of memory devices, wherein the sharing structure comprises fault identification logic configured to detect mismatches between the self-repair outputs of the plurality of memory devices, the fault identification logic comprises a plurality of XOR gates (132a-b) configured to compare self-repair outputs from respective pairs of the plurality of memory devices, and the fault identification logic comprises an N-input OR gate having a number of inputs equal to the number of XOR gates (132a-b). a plurality of memory devices each having a serial self-repair interface, one of the memory devices acting as a main memory and all other memory devices acting as shadow memories (120a-c); and a sharing structure comprising logic circuitry for inputting a same set of self-repair data to each of the plurality of memory devices and receiving self-repair outputs from the plurality of memory devices, wherein the sharing structure comprises fault identification logic configured to detect mismatches between the self-repair outputs of the plurality of memory devices, the fault identification logic comprises a plurality of XOR gates (132a-b) configured to compare self-repair outputs from respective pairs of the plurality of memory devices, and the fault identification logic comprises an N-input OR gate having a number of inputs equal to the number of XOR gates (132a-b). wherein the sharing structure comprises fault identification logic configured to detect mismatches between the self-repair outputs of the plurality of memory devices, the fault identification logic comprises a plurality of XOR gates (132a-b) configured to compare self-repair outputs from respective pairs of the plurality of memory devices, and the fault identification logic comprises an N-input OR gate having a number of inputs equal to the number of XOR gates (132a-b).
A surgical apparatus, comprising: a rotatable shaft , which comprises a cutter located thereon, wherein the cutter is configured to cut an object when the shaft is rotating about a rotational axis; a turbine assembly, which comprises a turbine and a turbine housing , wherein the turbine is configured to rotate the shaft so as to cut the object by the cutter, and wherein the turbine housing is configured to: receive a fluid that enters the housing parallel to the rotational axis, steer a first portion of the fluid through a first nozzle to impinge on the turbine in a direction that is not parallel to the rotational axis while allowing a portion of the fluid to continue flowing parallel to the rotational axis, and steer a second portion of the fluid through a second nozzle to impinge on the turbine in a direction that is not parallel to the rotational axis; and an exhaust pipe , which is coupled to the cutter and is coaxially disposed in the turbine housing , wherein the exhaust pipe is configured to draw the object away from the surgical apparatus. a rotatable shaft , which comprises a cutter located thereon, wherein the cutter is configured to cut an object when the shaft is rotating about a rotational axis; a turbine assembly, which comprises a turbine and a turbine housing , wherein the turbine is configured to rotate the shaft so as to cut the object by the cutter, and wherein the turbine housing is configured to: receive a fluid that enters the housing parallel to the rotational axis, steer a first portion of the fluid through a first nozzle to impinge on the turbine in a direction that is not parallel to the rotational axis while allowing a portion of the fluid to continue flowing parallel to the rotational axis, and steer a second portion of the fluid through a second nozzle to impinge on the turbine in a direction that is not parallel to the rotational axis; and receive a fluid that enters the housing parallel to the rotational axis, steer a first portion of the fluid through a first nozzle to impinge on the turbine in a direction that is not parallel to the rotational axis while allowing a portion of the fluid to continue flowing parallel to the rotational axis, and steer a second portion of the fluid through a second nozzle to impinge on the turbine in a direction that is not parallel to the rotational axis; and an exhaust pipe , which is coupled to the cutter and is coaxially disposed in the turbine housing , wherein the exhaust pipe is configured to draw the object away from the surgical apparatus.
Sensor apparatus for a vehicle , in particular a motor vehicle, having at least one transmitting unit for emitting a light beam having a predefinable wavelength (λ 1 , λ 2 , λ 3 ), having at least one receiving unit for capturing the at least one light beam of the transmitting unit reflected on an object , and having a unit which determines a property with respect to the object in dependence on the at least one captured reflected light beam, characterized in that the receiving unit comprises a sensor array for capturing wavelengths and/or wavelength changes, and also brightness values as brightness distributions , of the reflected light beams of at least two transmitting units , in that the sensor array comprises 4×4, i.e. a total of 16, receptors arranged in matrix-like fashion and each designed to capture one of the brightness values, and in that the unit is designed to determine at least one surface condition of the object and, by tracking the brightness distributions by way of the sensor array , a relative speed of the sensor apparatus in relation to the object in dependence on the captured wavelengths and/or wavelength changes.
Cable changing device comprising a cable guide for holding a plurality of cables at different heights, and a cable feed device for feeding one of the cables of the cable guide to a cable processing machine, the cable guide being adjustable in its height relative to the cable feed device such that, depending on the height of the cable guide relative to the cable feed device , the cable feed device can feed different cables of the cable guide to the cable processing machine, characterized in that the cable guide has height alignment elements (70-74) and the cable feed device has height determination elements which are complementary to the height alignment elements (70-74), the height alignment elements (70-74) and the height determination elements being designed such that the cable guide is locked at one of a plurality of predetermined heights relative to the cable feed device when the height determination elements are connected to some of the height alignment elements (70-74), the height alignment elements (70-74) of the cable guide having a plurality of recesses (80-84) arranged at different heights, and the height determination elements of the cable feed device comprising two projections, in particular consisting of two projections. a cable guide for holding a plurality of cables at different heights, and a cable feed device for feeding one of the cables of the cable guide to a cable processing machine, the cable guide being adjustable in its height relative to the cable feed device such that, depending on the height of the cable guide relative to the cable feed device , the cable feed device can feed different cables of the cable guide to the cable processing machine, characterized in that the cable guide has height alignment elements (70-74) and the cable feed device has height determination elements which are complementary to the height alignment elements (70-74), the height alignment elements (70-74) and the height determination elements being designed such that the cable guide is locked at one of a plurality of predetermined heights relative to the cable feed device when the height determination elements are connected to some of the height alignment elements (70-74), the height alignment elements (70-74) of the cable guide having a plurality of recesses (80-84) arranged at different heights, and the height determination elements of the cable feed device comprising two projections, in particular consisting of two projections.
A computer-implemented method , comprising: generating a virtual seismic shot record based at least in part on seismic interferometry of passively acquired seismic data; determining a frequency bandwidth of the virtual seismic shot record, wherein the frequency bandwidth comprises a plurality of frequencies; transforming the virtual seismic shot record into a frequency-dependent seismic shot record based on each of the plurality of frequencies; and for each of the plurality of frequencies : applying a phase shift to the frequency-dependent seismic shot record to generate a phase-shifted frequency dependent seismic shot record; generating a first velocity model from the phase shifted frequency-dependent seismic shot record; generating a second velocity model using full-waveform inversion (FWI) based on the first velocity model; identifying a depth slice from the second velocity model; and generating a seismic image based at least in part on the depth slice for use with seismic exploration above a region of subsurface comprising a hydrocarbon reservoir and containing structural features conducive to a presence, migration, or accumulation of hydrocarbons. generating a virtual seismic shot record based at least in part on seismic interferometry of passively acquired seismic data; determining a frequency bandwidth of the virtual seismic shot record, wherein the frequency bandwidth comprises a plurality of frequencies; transforming the virtual seismic shot record into a frequency-dependent seismic shot record based on each of the plurality of frequencies; and for each of the plurality of frequencies : applying a phase shift to the frequency-dependent seismic shot record to generate a phase-shifted frequency dependent seismic shot record; generating a first velocity model from the phase shifted frequency-dependent seismic shot record; generating a second velocity model using full-waveform inversion (FWI) based on the first velocity model; identifying a depth slice from the second velocity model; and generating a seismic image based at least in part on the depth slice for use with seismic exploration above a region of subsurface comprising a hydrocarbon reservoir and containing structural features conducive to a presence, migration, or accumulation of hydrocarbons. applying a phase shift to the frequency-dependent seismic shot record to generate a phase-shifted frequency dependent seismic shot record; generating a first velocity model from the phase shifted frequency-dependent seismic shot record; generating a second velocity model using full-waveform inversion (FWI) based on the first velocity model; identifying a depth slice from the second velocity model; and generating a seismic image based at least in part on the depth slice for use with seismic exploration above a region of subsurface comprising a hydrocarbon reservoir and containing structural features conducive to a presence, migration, or accumulation of hydrocarbons.
A positive electrode for a lithium secondary battery comprising an active material, an electrically conductive material, and a binder, wherein the positive electrode comprises an iron oxide represented by the following Formula 1: [Formula 1] Fe x O 3 wherein 1.7 ≤ x < 1.9.
Anti-theft device for a bicycle , said bicycle comprising a crankset comprising a crank body with a first end connected to a crank axle and a second end connected to an axle of a pedal , said anti-theft device comprising a first anti-theft part intended to be secured to the ground with a housing in which is placed said crankset and a second anti-theft part forming a removable latch which is intended to cover said first anti-theft part so as to lock said crankset in said first anti-theft part , said housing being arranged on a front face of said first anti-theft part , characterized in that said housing is a groove in which said crank body engages flat in abutment when said crankset is oriented upwards, and in that said second anti-theft part is arranged to cover said second end of said crank body and said axle of said pedal when said crank body is engaged in said groove.
Air distribution apparatus for agricultural sprayer machines (A), comprising a tubular casing which: - mainly develops along a first longitudinal direction (Y) and has a plurality of through holes which allow communication between the inner volume of said tubular casing and the outer environment and the treatment, by means of pesticides supplied in spray form, of plantations, orchards or cultures arranged in trees and/or shrubs rows; - is delimited and closed, in its upper part , by a first cover and, in its lower part , by a second cover ; - is provided in said upper part with a shaped plug suitable to receive the application of a connecting sleeve able of conveying said air, coming from a production and displacement device of said air, into said tubular casing , characterized in that it comprises, at each of said through holes of said tubular casing , deflector means stably coupled with the inner wall of said tubular casing and suitable to ensure a homogeneous, uniform and balanced distribution of said air, coming out of said tubular casing , along the entire length, both towards said upper part and towards said lower part , of said tubular casing . - mainly develops along a first longitudinal direction (Y) and has a plurality of through holes which allow communication between the inner volume of said tubular casing and the outer environment and the treatment, by means of pesticides supplied in spray form, of plantations, orchards or cultures arranged in trees and/or shrubs rows; - is delimited and closed, in its upper part , by a first cover and, in its lower part , by a second cover ; - is provided in said upper part with a shaped plug suitable to receive the application of a connecting sleeve able of conveying said air, coming from a production and displacement device of said air, into said tubular casing , characterized in that it comprises, at each of said through holes of said tubular casing , deflector means stably coupled with the inner wall of said tubular casing and suitable to ensure a homogeneous, uniform and balanced distribution of said air, coming out of said tubular casing , along the entire length, both towards said upper part and towards said lower part , of said tubular casing .
A lighting effect directing method performed by a light emitting device (500-502) of a lighting control system, the method comprising: determining first coordinates of the light emitting device (500-502) at a seat based on seat information thus received; characterized by receiving and storing a lighting map predefined to express a direction shape and a masking map predefined to cover at least part of the direction shape; receiving a control packet, which includes object information indicating at least one of a plurality of partial objects included in the lighting map, the control packet further comprising reference coordinates indicating a location of an object origin (OO) of the direction shape, mask information indicating at least one of a plurality of masking layers included in the masking map, and color information indicating a light emission color, and which is broadcast; and emitting light corresponding to the light emission color when it is determined based on the object information and the mask information that the light emitting device (500-502) is included in the indicated partial object, and dynamically expressing the direction shape by omitting light emission when it is determined that the light emitting device (500-502) is also doubly included in the indicated masking layer, and determining a location relationship between the reference coordinates and the first coordinates of the light emitting device itself, and controlling the emitting light based on the location relationship. determining first coordinates of the light emitting device (500-502) at a seat based on seat information thus received; characterized by receiving and storing a lighting map predefined to express a direction shape and a masking map predefined to cover at least part of the direction shape; receiving a control packet, which includes object information indicating at least one of a plurality of partial objects included in the lighting map, the control packet further comprising reference coordinates indicating a location of an object origin (OO) of the direction shape, mask information indicating at least one of a plurality of masking layers included in the masking map, and color information indicating a light emission color, and which is broadcast; and emitting light corresponding to the light emission color when it is determined based on the object information and the mask information that the light emitting device (500-502) is included in the indicated partial object, and dynamically expressing the direction shape by omitting light emission when it is determined that the light emitting device (500-502) is also doubly included in the indicated masking layer, and determining a location relationship between the reference coordinates and the first coordinates of the light emitting device itself, and controlling the emitting light based on the location relationship.
A floor cleaning device comprising a housing , which extends in a working direction (y), in a transverse direction (x), and in a vertical direction (z), and comprising a cleaning chamber , which is arranged in the housing and which is accessible through an underside cleaning opening , wherein a front deflection means and a rear deflection means , which is spaced apart from the front deflection means in the working direction (y), is arranged in the cleaning chamber , and that a flexible cleaning means is guided on the front deflection means and the rear deflection means , characterized in that the front deflection means and/or the rear deflection means is height-adjustable.
A system comprising: a liquid index-matching material having a refractive index that substantially matches a refractive index of an optical fiber ; and a vessel comprising a passage for the optical fiber such that the optical fiber is surrounded by the liquid index-matching material , wherein the vessel further comprises a back plate and a mask , which are separated from each other by a gap that holds liquid index-matching material , the mask forming a part of the vessel wall by being directly integrated into the vessel , the mask for spatially modulating incoming actinic radiation , the mask comprising grooves, the grooves facing the gap ; and a cover plate for covering the grooves, the cover plate being interposed between the grooves and the back plate , the liquid index-matching material being located between the cover plate and the back plate . a liquid index-matching material having a refractive index that substantially matches a refractive index of an optical fiber ; and a vessel comprising a passage for the optical fiber such that the optical fiber is surrounded by the liquid index-matching material , wherein the vessel further comprises a back plate and a mask , which are separated from each other by a gap that holds liquid index-matching material , the mask forming a part of the vessel wall by being directly integrated into the vessel , the mask for spatially modulating incoming actinic radiation , the mask comprising grooves, the grooves facing the gap ; and a cover plate for covering the grooves, the cover plate being interposed between the grooves and the back plate , the liquid index-matching material being located between the cover plate and the back plate .