mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for size estimation of in-vivo objects, the method comprising using at least one hardware processor for: displaying a two-dimensional image of in-vivo objects obtained by an in-vivo imaging device; casting a virtual tool (310, 310a, 310b) of a known size onto a three-dimensional space to determine ending points (P1, P2, P3) of the virtual tool, wherein the casting of the virtual tool onto the three-dimensional space comprises: calculating coordinates of a point of interest in the three-dimensional space; and calculating coordinates of a plurality of points located within a predetermined distance, from said point of interest in the three-dimensional space, wherein each of the plurality of points define an ending point of the ending points of the virtual tool; wherein coordinates in the three dimensional space represent real world three dimensional locations of in vivo objects shown in the two dimensional image relative to said in vivo imaging device at the time of capturing said two dimensional image; and projecting the ending points onto the two-dimensional image to generate an on screen indication tool having a two-dimensional shape on the displayed image, the on screen indication tool having multiple lengths or dimensions from a point of interest in different directions, the lengths or dimensions end at the determined ending points projected on the two-dimensional image. displaying a two-dimensional image of in-vivo objects obtained by an in-vivo imaging device; casting a virtual tool (310, 310a, 310b) of a known size onto a three-dimensional space to determine ending points (P1, P2, P3) of the virtual tool, wherein the casting of the virtual tool onto the three-dimensional space comprises: calculating coordinates of a point of interest in the three-dimensional space; and calculating coordinates of a plurality of points located within a predetermined distance, from said point of interest in the three-dimensional space, wherein each of the plurality of points define an ending point of the ending points of the virtual tool; calculating coordinates of a point of interest in the three-dimensional space; and calculating coordinates of a plurality of points located within a predetermined distance, from said point of interest in the three-dimensional space, wherein each of the plurality of points define an ending point of the ending points of the virtual tool; wherein coordinates in the three dimensional space represent real world three dimensional locations of in vivo objects shown in the two dimensional image relative to said in vivo imaging device at the time of capturing said two dimensional image; and projecting the ending points onto the two-dimensional image to generate an on screen indication tool having a two-dimensional shape on the displayed image, the on screen indication tool having multiple lengths or dimensions from a point of interest in different directions, the lengths or dimensions end at the determined ending points projected on the two-dimensional image.
A dart point (1, 9, 15), the dart point (1, 9, 15) having a distal end, a middle portion and a proximal end; wherein: the distal end is tapered to a point; the middle portion is substantially cylindrical; and the proximal end comprises a generally incompressible tapered retaining portion (4, 13, 23) having a substantially continuous tapered retaining surface, being generally frusto-conical, wherein the taper becomes narrower in the direction passing from the distal end to the proximal end of the dart point (1, 9, 15), characterized in that the proximal end further comprises a joining part (5, 32) which, in use, fits into a dart barrel, the joining part (5, 32) further comprising a thread, useable to screw the dart point (1, 9, 15) to a dart barrel, and wherein the tapered retaining surface is between the middle part and the joining part, or the joining part is between the middle part and the tapered retaining surface. the distal end is tapered to a point; the middle portion is substantially cylindrical; and the proximal end comprises a generally incompressible tapered retaining portion (4, 13, 23) having a substantially continuous tapered retaining surface, being generally frusto-conical, wherein the taper becomes narrower in the direction passing from the distal end to the proximal end of the dart point (1, 9, 15), characterized in that the proximal end further comprises a joining part (5, 32) which, in use, fits into a dart barrel, the joining part (5, 32) further comprising a thread, useable to screw the dart point (1, 9, 15) to a dart barrel, and wherein the tapered retaining surface is between the middle part and the joining part, or the joining part is between the middle part and the tapered retaining surface.
A process for making Cu 2 ZnSnS 4 nanoparticles, comprising reacting a copper precursor, a zinc precursor and a tin precursor in the presence of a labile organothiol ligand, wherein the copper precursor, the zinc precursor, the tin precursor and the labile organothiol ligand are stirred in a first solvent at a first temperature below the boiling point of the first solvent to form a mixture, the mixture is heated from the first temperature to a second temperature to distil the first solvent, and the mixture is heated from the second temperature to a third temperature for a time interval to form the Cu 2 ZnSnS 4 nanoparticles.
Lifting platform, capable of moving along a rail, and comprising bearing means (365-a, 365-b) for being installed on said rail, and at least one lifting beam (310, 310-a, 310-b) articulated with the platform, characterised in that said platform comprises: - means (325, 325-a, 325-b) for locking a position of each lifting beam with respect to the platform, and - means (315, 315-a, 315-b) for detecting the position of each lifting beam. - means (325, 325-a, 325-b) for locking a position of each lifting beam with respect to the platform, and - means (315, 315-a, 315-b) for detecting the position of each lifting beam.
An apparatus comprising: a window glass having a film with variable transparency; a pair of electrodes (14, 16) connected to the film; a controller mounted on a vehicle door of a vehicle, the controller controlling a wireless transfer of power for adjusting the transparency of the film; and a wireless power receiver mounted on the window glass, the wireless power receiver wirelessly receiving the power from the controller, wherein the wireless power receiver applies the power wirelessly received from the controller to the pair of electrodes (14, 16); and wherein the controller includes an alternating current inverter circuit converting direct current power supplied from a battery into AC power required for power transmission, a transmitting coil wirelessly transmitting the power to the wireless power receiver by electromagnetic induction, and a power transmission control module controlling an operation of the AC inverter circuit and a power level to be output from the AC inverter circuit according to a transparency control signal, characterized in that the power transmission control module adjusts an amplitude of AC voltage output from the AC inverter circuit according to a transparency control signal to thereby control an output power level of the AC inverter circuit. a window glass having a film with variable transparency; a pair of electrodes (14, 16) connected to the film; a controller mounted on a vehicle door of a vehicle, the controller controlling a wireless transfer of power for adjusting the transparency of the film; and a wireless power receiver mounted on the window glass, the wireless power receiver wirelessly receiving the power from the controller, wherein the wireless power receiver applies the power wirelessly received from the controller to the pair of electrodes (14, 16); and wherein the controller includes an alternating current inverter circuit converting direct current power supplied from a battery into AC power required for power transmission, a transmitting coil wirelessly transmitting the power to the wireless power receiver by electromagnetic induction, and a power transmission control module controlling an operation of the AC inverter circuit and a power level to be output from the AC inverter circuit according to a transparency control signal, characterized in that the power transmission control module adjusts an amplitude of AC voltage output from the AC inverter circuit according to a transparency control signal to thereby control an output power level of the AC inverter circuit.
A truck mixer with a chassis and a mixer body which carries the mixing drum, wherein at least one section is provided, which extends in longitudinal direction of the truck mixer and serves to accommodate one or more components of the truck mixer, characterized in that the section comprises one or more hollow chambers for forming one or more channels for supply lines extending in longitudinal vehicle direction, wherein, in addition to the hollow chamber forming the channels, the section comprises at least one section chamber with reinforced chamber wall for accommodating fastening elements, and wherein the reinforced chamber wall is provided with at least one marker which designates the mounting point for one or more mounting elements, wherein the marker preferably is designed as groove extending in direction of the section.
Analysis system for analysing a sample on an analytical test element, comprising a test element receptacle for receiving and positioning a test element in an analysis position, characterized in that the test element receptacle contains a guide part and a lock part, with the guide part having means for guiding a test element into and out of the analysis position, and the lock part comprising a frame and a bolt element, which frame and bolt element are connected to one another by means of a film hinge, it being possible to pivot the bolt element out of a first position into a second position, which deforms the film hinge, with respect to the frame about the film hinge, and the bolt element comprising a latching lug for engaging in a recess in test element, which is positioned in the analysis position, in the first position of the bolt element, with the bolt element being in the form of a lever, which can rotate about the film hinge, having a first and a second lever arm (10, 11), with the first lever arm having the latching lug, and it being possible to pivot the bolt element out of the first position into the second position by virtue of the action of force on the second lever arm, with the second lever arm containing a pushing element which exerts a pushing force on a test element, which is positioned in the analysis position, in a discharge direction when the bolt element is pivoted out of the first position into the second position.
A method for the secondary recovery of petroleum from a location below a body of sea water by flooding a permeable petroleum-bearing stratum, which method comprises treating sea water from said body at a temperature between 22°C and 75°C to remove at least 99% of all divalent anions and to simultaneously increase the chloride ion content of said sea water by at least 10% by pumping said sea water on a single pass through a semi-permeable nanofiltration membrane formed of a polyamide film created by the condensation reaction of a piperazine and an acyl chloride which film is supported upon a porous film of a different polymeric material, and then pumping said treated sea water under pressure into said permeable stratum.
Valve comprising a housing with a fluid inlet, a fluid outlet, and a cavity positioned between the fluid inlet and the fluid outlet in the housing, wherein a membrane is arranged at an end of the fluid inlet or at an end of the fluid outlet facing the cavity and a movable solid element is in touching contact with the membrane arranged on a side of the membrane facing the cavity, so that the membrane can be deformed by the solid element upon exertion of pressure on the solid element for closing and opening the fluid inlet or the fluid outlet, and characterized by a movable element arranged in the cavity and in touching contact with the solid element, wherein the movable element is held in a first position by a biased spring and a shape-memory-actuator, which are arranged on opposite sides of the movable element, wherein the shape-memory-actuator comprises a shape-memory-alloy which is activatable by applying an electric voltage resulting in a deformation of the shape-memory-actuator and in a movement of the movable element, thereby exerting pressure on the solid element so that the solid element moves, a deformation of the membrane takes place and a fluid passage between the fluid inlet and the fluid outlet can be opened and closed. a housing with a fluid inlet, a fluid outlet, and a cavity positioned between the fluid inlet and the fluid outlet in the housing, wherein a membrane is arranged at an end of the fluid inlet or at an end of the fluid outlet facing the cavity and a movable solid element is in touching contact with the membrane arranged on a side of the membrane facing the cavity, so that the membrane can be deformed by the solid element upon exertion of pressure on the solid element for closing and opening the fluid inlet or the fluid outlet, and characterized by a movable element arranged in the cavity and in touching contact with the solid element, wherein the movable element is held in a first position by a biased spring and a shape-memory-actuator, which are arranged on opposite sides of the movable element, wherein the shape-memory-actuator comprises a shape-memory-alloy which is activatable by applying an electric voltage resulting in a deformation of the shape-memory-actuator and in a movement of the movable element, thereby exerting pressure on the solid element so that the solid element moves, a deformation of the membrane takes place and a fluid passage between the fluid inlet and the fluid outlet can be opened and closed.
System for tracking a bird, comprising a tracker case having a housing and being attachable to the bird, and a monitoring device, wherein the tracker case comprises receiver means for receiving position and time data from a number of positioning system satellites, and transmitter means for sending said position and time data to a receiver of the monitoring device by means of data communication satellites, characterized in that: - the housing is an aerodynamic housing having a leading edge in the direction of flight, an airflow break-away edge to further minimize aerodynamic drag of the tracker case, and a fin section on its top which reduces air resistance, - the housing is of carbon fibres and/or glass fibres and/or aramid fibres, and - the housing comprises a fixing means which is slidably supported on the base of the tracker case and adapted to be in spring-loaded and/or form fit engagement with a corresponding holding means attached to the bird. - the housing is an aerodynamic housing having a leading edge in the direction of flight, an airflow break-away edge to further minimize aerodynamic drag of the tracker case, and a fin section on its top which reduces air resistance, - the housing is of carbon fibres and/or glass fibres and/or aramid fibres, and - the housing comprises a fixing means which is slidably supported on the base of the tracker case and adapted to be in spring-loaded and/or form fit engagement with a corresponding holding means attached to the bird.
A workpiece gripping device attachable to a robot and used for gripping a workpiece, the workpiece including a plate-shaped part (Wp) in at least a part thereof, the device comprising: a gripping member including a pair of extension parts that protrude from a base part and face each other with a space therebetween where the plate-shaped part (Wp) of the workpiece is configured to be inserted, the gripping member configured to be deformed so that at least parts of the extension parts approach each other or are separated from each other; and a holding member including a slit configured to hold the gripping member slidably along a direction in which the extension parts protrude, the holding member configured to make the extension parts approach each other by housing at least parts of the extension parts in the slit, and make the extension parts be separated from each other by projecting at least parts of the extension parts from the slit, wherein the plate-shaped part (Wp) is configured to be gripped between the extension parts that have approached each other. a gripping member including a pair of extension parts that protrude from a base part and face each other with a space therebetween where the plate-shaped part (Wp) of the workpiece is configured to be inserted, the gripping member configured to be deformed so that at least parts of the extension parts approach each other or are separated from each other; and a holding member including a slit configured to hold the gripping member slidably along a direction in which the extension parts protrude, the holding member configured to make the extension parts approach each other by housing at least parts of the extension parts in the slit, and make the extension parts be separated from each other by projecting at least parts of the extension parts from the slit, wherein the plate-shaped part (Wp) is configured to be gripped between the extension parts that have approached each other.
A method of molding a polyolefin-based resin composition, wherein said polyolefin-based resin composition comprises a polyolefin-based resin obtainable by polymerization of an olefin-based monomer with an addition of a phenolic antioxidant represented by the following Formula: (wherein, R represents a C 1 -C 30 alkyl group or C 2 -C 30 alkenyl group which is optionally branched and/or optionally has a cycloalkyl group, a C 3 -C 12 cycloalkyl group which is optionally substituted or a C 6 -C 18 aryl group which is optionally substituted), wherein a hydrogen of a phenolic hydroxyl group of said phenolic antioxidant is substituted by an organic aluminum compound, and a phosphorus-based antioxidant, to a catalyst system or polymerization system before or during said polymerization of said olefin-based monomer, and wherein said phenolic antioxidant represented by said Formula and said phosphorus-based antioxidant are added in an amount of 0.001 to 0.5 parts by mass and 0.001 to 3 parts by mass, respectively, with respect to 100 parts by mass of said olefin-based monomer; said method comprising the step of molding said polyolefin-based resin composition; wherein said polyolefin-based resin composition is molded into a film by a 5 minute pressing using a press machine at 230°C and a load of 11 MPa, and wherein the number of spots where gel is generated per 1 cm 2 of said film is not greater than 2, when measured by using a fringe magnifier having a magnification of x7 and a lens diameter of 19 mm. (wherein, R represents a C 1 -C 30 alkyl group or C 2 -C 30 alkenyl group which is optionally branched and/or optionally has a cycloalkyl group, a C 3 -C 12 cycloalkyl group which is optionally substituted or a C 6 -C 18 aryl group which is optionally substituted), wherein a hydrogen of a phenolic hydroxyl group of said phenolic antioxidant is substituted by an organic aluminum compound, and a phosphorus-based antioxidant, to a catalyst system or polymerization system before or during said polymerization of said olefin-based monomer, and wherein said phenolic antioxidant represented by said Formula and said phosphorus-based antioxidant are added in an amount of 0.001 to 0.5 parts by mass and 0.001 to 3 parts by mass, respectively, with respect to 100 parts by mass of said olefin-based monomer;
A de-mapping method for an Optical Transport Unit frame, characterized by comprising: setting a receiving reference clock and a de-mapping path according to a highest priority of an OTU frame mapping mode of a local device; receiving an OTU frame of an opposite device by using the receiving reference clock and the de-mapping path; determining a de-mapping priority of the OTU frame according to a clock recovery result of the received OTU frame and a customer service alarm instruction; and de-mapping the OTU frame of the opposite device by using a receiving reference clock and a de-mapping path corresponding to the determined de-mapping priority of the OTU frame. setting a receiving reference clock and a de-mapping path according to a highest priority of an OTU frame mapping mode of a local device; receiving an OTU frame of an opposite device by using the receiving reference clock and the de-mapping path; determining a de-mapping priority of the OTU frame according to a clock recovery result of the received OTU frame and a customer service alarm instruction; and de-mapping the OTU frame of the opposite device by using a receiving reference clock and a de-mapping path corresponding to the determined de-mapping priority of the OTU frame.
A vibration signal generation system for generating a vibration signal from a sound signal, the vibration signal generation system comprising: frequency shift means (31, S61-S63) for converting sound pressure information indicated by a sound signal and belonging to a frequency range above an upper limit that enables at least a user to perceive a vibration, into sound pressure information belonging to a frequency range less than or equal to the upper limit, by generating an envelope waveform obtained by taking an envelope of sound pressure in waveform data of the sound signal and converting the sound pressure information belonging to the frequency range above the upper limit into the sound pressure information less than or equal to the upper limit, a low-pass filter (31, S64) configured to, in the converted sound pressure information, diminish a component at a frequency higher than a cutoff frequency set to be less than or equal to a frequency corresponding to the upper limit; and vibration signal generation means (31, S65) for generating a vibration signal using the sound pressure information after the conversion and the low pass filtering by the frequency shift means. frequency shift means (31, S61-S63) for converting sound pressure information indicated by a sound signal and belonging to a frequency range above an upper limit that enables at least a user to perceive a vibration, into sound pressure information belonging to a frequency range less than or equal to the upper limit, by generating an envelope waveform obtained by taking an envelope of sound pressure in waveform data of the sound signal and converting the sound pressure information belonging to the frequency range above the upper limit into the sound pressure information less than or equal to the upper limit, a low-pass filter (31, S64) configured to, in the converted sound pressure information, diminish a component at a frequency higher than a cutoff frequency set to be less than or equal to a frequency corresponding to the upper limit; and vibration signal generation means (31, S65) for generating a vibration signal using the sound pressure information after the conversion and the low pass filtering by the frequency shift means.