mhurhangee/ep-ind-claims huggingface dataset:
A depth image acquiring apparatus comprising: a light emitting unit configured to irradiate modulated light toward a detection area; a sensor configured to receive the modulated light upon being reflected by an object positioned in the detection area and output a signal based on the received modulated light so as to generate depth information; a filter unit configured to pass more light having a wavelength in a predetermined pass bandwidth to the sensor than light having a wavelength in a bandwidth other than the predetermined pass bandwidth; an environment sensor configured to acquire environment information at the light emitting unit or the sensor, the environment sensor comprising a temperature sensor for acquiring a temperature of the light emitting unit; and a controller configured to control at least one among the light emitting unit, the sensor, or the filter unit in accordance with the environment information acquired by the environment sensor, and characterized in that the light emitting unit comprises a plurality of light sources (22-1,22-2) for emitting light exhibiting temperature characteristics such that wavelength shifts arise in response to a temperature change, and having respective peaks at different wavelengths, and the controller is configured to select at least one of the plurality of light sources (22-1, 22-2) in accordance with the temperature. a light emitting unit configured to irradiate modulated light toward a detection area; a sensor configured to receive the modulated light upon being reflected by an object positioned in the detection area and output a signal based on the received modulated light so as to generate depth information; a filter unit configured to pass more light having a wavelength in a predetermined pass bandwidth to the sensor than light having a wavelength in a bandwidth other than the predetermined pass bandwidth; an environment sensor configured to acquire environment information at the light emitting unit or the sensor, the environment sensor comprising a temperature sensor for acquiring a temperature of the light emitting unit; and a controller configured to control at least one among the light emitting unit, the sensor, or the filter unit in accordance with the environment information acquired by the environment sensor, and characterized in that the light emitting unit comprises a plurality of light sources (22-1,22-2) for emitting light exhibiting temperature characteristics such that wavelength shifts arise in response to a temperature change, and having respective peaks at different wavelengths, and the controller is configured to select at least one of the plurality of light sources (22-1, 22-2) in accordance with the temperature.
A flash unit capable of being attached to a flash control unit, comprising: a flash firing section, a communication section that is arranged to carry out communication with the flash control unit, a storage section that has stored therein information relating to a light emission time for actual flash corresponding to a difference between an emitted light amount command value for actual flash of the flash light emitting source and an emitted light amount command value for pre-flash, and a control section, including: a light emission time calculation section that is arranged to calculate light emission time corresponding to emitted light amount command value for actual flash based on emitted light amount command value for pre-flash that has been input, emitted light amount command value for actual flash that has been input, and said information relating to a light emission time for actual flash stored in the storage section, wherein said input emitted light amount command value for pre-flash has been acquired via the communication section and input by the control section to the light emission time calculation section, and said input emitted light amount command value for actual flash has been acquired via the communication section and input by the control section to the light emission time calculation section, wherein the control section is arranged to control actual flash of the flash firing section based on the light emission time obtained by the light emission time calculation section. a flash firing section, a communication section that is arranged to carry out communication with the flash control unit, a storage section that has stored therein information relating to a light emission time for actual flash corresponding to a difference between an emitted light amount command value for actual flash of the flash light emitting source and an emitted light amount command value for pre-flash, and a control section, including: a light emission time calculation section that is arranged to calculate light emission time corresponding to emitted light amount command value for actual flash based on emitted light amount command value for pre-flash that has been input, emitted light amount command value for actual flash that has been input, and said information relating to a light emission time for actual flash stored in the storage section, wherein said input emitted light amount command value for pre-flash has been acquired via the communication section and input by the control section to the light emission time calculation section, and said input emitted light amount command value for actual flash has been acquired via the communication section and input by the control section to the light emission time calculation section, wherein the control section is arranged to control actual flash of the flash firing section based on the light emission time obtained by the light emission time calculation section.
An apparatus for obtaining at least one portion of a skin tissue, comprising: at least one hollow tube comprising at least two points provided at a distal end thereof; a conduit configured to facilitate flow of a fluid therethrough, wherein a proximal end of the at least one hollow tube is in communication with the conduit; and a filter arrangement provided at least partially in a path of the fluid, wherein an inner diameter of the at least one tube is less than about 1 mm, wherein a distal portion of the at least hollow tube is sized and structured to be inserted to at least a depth of a subcutaneous fat layer below the skin to remove the at least one portion therefrom when the at least one tube is withdrawn from the biological tissue, and wherein, in operation, the fluid flows through the conduit so as to remove the at least one portion from the at least one hollow tube, and transport the at least one portion to the filter arrangement. at least one hollow tube comprising at least two points provided at a distal end thereof; a conduit configured to facilitate flow of a fluid therethrough, wherein a proximal end of the at least one hollow tube is in communication with the conduit; and a filter arrangement provided at least partially in a path of the fluid, wherein an inner diameter of the at least one tube is less than about 1 mm, wherein a distal portion of the at least hollow tube is sized and structured to be inserted to at least a depth of a subcutaneous fat layer below the skin to remove the at least one portion therefrom when the at least one tube is withdrawn from the biological tissue, and wherein, in operation, the fluid flows through the conduit so as to remove the at least one portion from the at least one hollow tube, and transport the at least one portion to the filter arrangement.
Motor vehicle structure, comprising: - a floor; - an engine cradle with a rear part attached to the floor via attachment means; the rear attachment means being rupture attachment means configured to break in case of front impact, making it possible for said cradle to be moved towards the rear along said floor, characterised in that the rupture attachment means comprise at least one pin rigidly attached to the floor or to a connecting part attached to the floor, said pin comprising a generally circular portion configured to centre the cradle, the portion for centring the pin preferably passing through an orifice in the floor or in a connecting part attached to the floor. - a floor; - an engine cradle with a rear part attached to the floor via attachment means;
A method for diagnosis of ovarian cancer, comprising the steps of (i) determining the level of antibodies against epidermal growth factor in a sample from a subject to be diagnosed, (ii) comparing the determined level in the sample to a control level of EGF antibodies derived from subjects without cancer; wherein a decreased level in the sample from the subject to be diagnosed as compared to the control level is indicative of ovarian cancer in the subject. (i) determining the level of antibodies against epidermal growth factor in a sample from a subject to be diagnosed, (ii) comparing the determined level in the sample to a control level of EGF antibodies derived from subjects without cancer;
Method for improving the combustion in a combustion chamber, in particular of a power plant, wherein a plurality of burners are arranged in a burner layer or in another geometry and wherein a fuel and/or air mass flow ( ṁ B, ṁ L) may be adjusted in at least some of the burners, wherein a local distribution (V R) of a characteristic (λ, T) characterizing the combustion quality is ascertained by metrological means in an overlying ignition/combustion region and wherein at least one area (G1-G4) with an inexpedient characteristic (λ, T) in respect of the combustion quality is identified on the basis of the local distribution (V R), characterized - in that part of the combustion chamber essential for a flow, pyrolysis and combustion simulation is mapped to a numerical simulation model, subdivided into a multiplicity of volume elements (dV), - in that the origin of the fuel and air portions (A B, A L) originating from the respective burners are also considered continuously and separately in the numerical simulation of each volume element (dV), - in that a distribution (V S) of the fuel and air portions (A B, A L) locally corresponding to the local distribution (V R) in the simulation model ascertained by metrological means is ascertained, and - in that the at least one burner which is decisive in respect of the ascertained fuel and air portions (A B, A L) is ascertained for the respectively identified area (G1-G4) in order to improve the combustion by correcting the respective fuel and/or air mass flow ( ṁ B, ṁ L). - in that part of the combustion chamber essential for a flow, pyrolysis and combustion simulation is mapped to a numerical simulation model, subdivided into a multiplicity of volume elements (dV), - in that the origin of the fuel and air portions (A B, A L) originating from the respective burners are also considered continuously and separately in the numerical simulation of each volume element (dV), - in that a distribution (V S) of the fuel and air portions (A B, A L) locally corresponding to the local distribution (V R) in the simulation model ascertained by metrological means is ascertained, and - in that the at least one burner which is decisive in respect of the ascertained fuel and air portions (A B, A L) is ascertained for the respectively identified area (G1-G4) in order to improve the combustion by correcting the respective fuel and/or air mass flow ( ṁ B, ṁ L).
A hand-held machine tool, particularly a hedge shear, which substantially consists of a non-metallic housing for accommodating a drive motor and a transmission with a transmission shaft, via which a tool extending along a longitudinal axis, particularly a cutting tool, can be driven by said drive motor, wherein said transmission consists of a drive pinion, which engages with a spur gearwheel, wherein the portion of a motor shaft that projects from the drive motor is at least in the region of the associated spur gear wheel configured as a drive pinion in the form of a toothed motor shaft, characterized in that its free end is supported in a bearing designed as a ball bearing and disposed in the housing, and a support and slide cylinder is non-rotatably connected to the transmission shaft, wherein additionally a support frame is supported in the housing which is arranged so as to span both the bearing and the support and slide cylinder.
A swimmer posture adjustment method, wherein: the center of mass location (X 1) of a swimmer, and the center of buoyancy location (X 2) and buoyant force of the swimmer maintaining a streamlined gliding posture in a downward-facing floating state in the water are obtained as measured swimmer information by measurement of the swimmer; and a buoyant and detachable balancer is attached to the body of the swimmer on the basis of the measured swimmer information, to adjust the difference between the center of mass location (X 1) and the center of buoyancy location (X 2) of the swimmer.
A data carrier having a security element that exhibits a print image and a laser marking at least partially overlapping the print image, certain register variations existing between the print image and the laser marking, characterized in that the security element exhibits, in addition to the laser marking, at least partially overlapping the print image, a laser modification area that is in register with the laser marking and in whose overlap area with the print image the visual appearance of the print image is modified by the action of a laser beam, wherein the data carrier is not visually changed outside of the overlap area of the laser modification area, wherein the print image and the laser marking and the laser modification area do not coincide, the laser modification area forming a contour of predefined width surrounding the edge of the print image, and where the predefined width of the surrounding contour is matched to the size of the register variations between the print image and the laser marking, such that all typically occurring register variations can be compensated for and when the finished security element is viewed, the visual impression of perfect register of the laser marking and the still visible portion of the print image results.
Removable device for determining the value of at least one local deformation parameter of a liquid storage tank, which device comprises: - a means for attachment to the inside of the tank, for example to a mast positioned inside the tank and in the vicinity of an upper wall of said tank, said attachment means supporting: - a multidirectional laser emitter; - a receiver of the light emitted by the laser; - a photodetector converting the received light into an electric signal; and - a means for detecting a relief inside the tank as a function of signals converted by the photodetector; - a means for determining a topography of at least one wall of the tank as a function of at least one detected relief; and - a means for determining the value of each local deformation parameter as a function of the determined topography. - a means for attachment to the inside of the tank, for example to a mast positioned inside the tank and in the vicinity of an upper wall of said tank, said attachment means supporting: - a multidirectional laser emitter; - a receiver of the light emitted by the laser; - a photodetector converting the received light into an electric signal; and - a multidirectional laser emitter; - a receiver of the light emitted by the laser; - a photodetector converting the received light into an electric signal; and - a means for detecting a relief inside the tank as a function of signals converted by the photodetector; - a means for determining a topography of at least one wall of the tank as a function of at least one detected relief; and - a means for determining the value of each local deformation parameter as a function of the determined topography.
A method of manufacturing a chip card, comprising: - production of a smart card module comprising a substrate having first and second main faces, with contacts on the first face of the substrate, and conductive tracks comprising connection pads on the second face of the substrate, this module also being provided with an electronic chip connected to at least some contacts and to at least two conductive tracks dedicated to an antenna connection, - making an antenna with two ends (216, 218), - laminating the antenna between layers of plastic (205, 220), and - positioning the module in a cavity formed in at least some of the plastic layers, - connection by means of a solder material deposited on a connection portion of each of the ends (216, 218) of the antenna with a connection pad of the module, and heated, once the module is in place in the cavity, characterised by the fact that the connection pads are each produced on a zone covering a surface area smaller than that of a connection portion, formed in a conductive layer and covered with soldering material. - production of a smart card module comprising a substrate having first and second main faces, with contacts on the first face of the substrate, and conductive tracks comprising connection pads on the second face of the substrate, this module also being provided with an electronic chip connected to at least some contacts and to at least two conductive tracks dedicated to an antenna connection, - making an antenna with two ends (216, 218), - laminating the antenna between layers of plastic (205, 220), and - positioning the module in a cavity formed in at least some of the plastic layers, - connection by means of a solder material deposited on a connection portion of each of the ends (216, 218) of the antenna with a connection pad of the module, and heated, once the module is in place in the cavity,
A liquid jet head comprising: a jet hole plate including a jet hole array (130A-D), the jet hole array including a plurality of jet holes (131A-D) each extending in a first direction, the jet holes being arranged side by side in a second direction perpendicular to the first direction; and a head chip disposed at one side in the first direction with respect to the jet hole plate and including channels communicating with the respective jet holes; characterised by further comprising a manifold disposed at one side in a third direction perpendicular to the first direction and the second direction with respect to the head chip, the manifold being configured to support the head chip by a first face facing the third direction and including a liquid flow path communicating with the channels; and a drive board supported on the first face of the manifold and electrically connected to the head chip so as to drive the head chip. a jet hole plate including a jet hole array (130A-D), the jet hole array including a plurality of jet holes (131A-D) each extending in a first direction, the jet holes being arranged side by side in a second direction perpendicular to the first direction; and a head chip disposed at one side in the first direction with respect to the jet hole plate and including channels communicating with the respective jet holes; characterised by further comprising a manifold disposed at one side in a third direction perpendicular to the first direction and the second direction with respect to the head chip, the manifold being configured to support the head chip by a first face facing the third direction and including a liquid flow path communicating with the channels; and a drive board supported on the first face of the manifold and electrically connected to the head chip so as to drive the head chip.
An upper structure of an article of footwear, the upper structure comprising: an upper including an exterior upper member and an interior upper member; a cuff member including a first end coupled to the exterior upper member and a second end coupled to the interior upper member, the cuff member folded over on itself at a fold to define an ankle opening; and a strobel coupled to the upper and cooperating with the upper to at least partially define a foot-receiving void, wherein the first end of the cuff member is secured to the exterior upper member by a first fastener and the second end of the cuff member is secured to the interior upper member by a second fastener, and wherein the upper further includes: an intermediate upper member disposed between the exterior upper member and the interior upper member, the intermediate upper member extending between opposing portions of the cuff member and arranged between the first end of the cuff member and the second end of the cuff member. an upper including an exterior upper member and an interior upper member; a cuff member including a first end coupled to the exterior upper member and a second end coupled to the interior upper member, the cuff member folded over on itself at a fold to define an ankle opening; and a strobel coupled to the upper and cooperating with the upper to at least partially define a foot-receiving void, wherein the first end of the cuff member is secured to the exterior upper member by a first fastener and the second end of the cuff member is secured to the interior upper member by a second fastener, and wherein the upper further includes: an intermediate upper member disposed between the exterior upper member and the interior upper member, the intermediate upper member extending between opposing portions of the cuff member and arranged between the first end of the cuff member and the second end of the cuff member.
A method of forming a weld deposit on a zinc-coated workpiece, comprising: - feeding a tubular welding wire toward a surface of a zinc-coated workpiece; - directing a flow of shielding gas toward the surface of the zinc-coated workpiece near the tubular welding wire, wherein the flow of shielding gas is at least 90% argon (Ar); and wherein the welding wire is a tubular welding wire comprising a granular core disposed inside of a metallic sheath, wherein the granular core comprises a stabilizer component bound to one or more Group I or Group II metals; a carbon component comprising graphite, graphene, carbon black, lamp black, carbon nanotubes, diamond, or a combination thereof; and an agglomerate comprising Group I or Group II metal oxides, titanium oxide, and manganese oxides, characterized in that the welding wire is electrified with pulsed electropositive direct current (DCEP), and wherein the stabilizer component is an organic component comprising one or more organic molecules or organic polymers bound to the one or more Group I or Group II metals; the method further comprises: forming the weld deposit on the zinc-coated workpiece using the tubular welding wire while providing the flow of shielding gas near the weld deposit, wherein less than 10 wt% of the tubular welding wire is converted to spatter while forming the weld deposit on the zinc-coated workpiece. - feeding a tubular welding wire toward a surface of a zinc-coated workpiece; - directing a flow of shielding gas toward the surface of the zinc-coated workpiece near the tubular welding wire, wherein the flow of shielding gas is at least 90% argon (Ar); and wherein the welding wire is a tubular welding wire comprising a granular core disposed inside of a metallic sheath, wherein the granular core comprises a stabilizer component bound to one or more Group I or Group II metals; a carbon component comprising graphite, graphene, carbon black, lamp black, carbon nanotubes, diamond, or a combination thereof; and an agglomerate comprising Group I or Group II metal oxides, titanium oxide, and manganese oxides, characterized in that the welding wire is electrified with pulsed electropositive direct current (DCEP), and wherein the stabilizer component is an organic component comprising one or more organic molecules or organic polymers bound to the one or more Group I or Group II metals; the method further comprises: forming the weld deposit on the zinc-coated workpiece using the tubular welding wire while providing the flow of shielding gas near the weld deposit, wherein less than 10 wt% of the tubular welding wire is converted to spatter while forming the weld deposit on the zinc-coated workpiece.