mhurhangee/ep-ind-claims huggingface dataset:
A system for obtaining medical ultrasound images of a subject, the system comprising: a probe comprising an ultrasound transducer for capturing an ultrasound image; a memory comprising instruction data representing a set of instructions; and a processor configured to communicate with the memory and to execute the set of instructions, wherein the set of instructions, when executed by the processor, cause the processor to: receive an ultrasound image taken by the probe; provide the image as input to a trained model; receive from the model an indication of whether the image comprises an image relevant to a medical diagnostic process; and determine whether to bookmark the image, based on the received indication, characterized in that the processor is further caused to: determine whether the image has been selected by a user as an image to be bookmarked; and determine to bookmark the image if the image has not been selected by the user as an image to be bookmarked and if the received indication from the trained model indicates that the image is relevant to the medical diagnostic process. a probe comprising an ultrasound transducer for capturing an ultrasound image; a memory comprising instruction data representing a set of instructions; and a processor configured to communicate with the memory and to execute the set of instructions, wherein the set of instructions, when executed by the processor, cause the processor to: receive an ultrasound image taken by the probe; provide the image as input to a trained model; receive from the model an indication of whether the image comprises an image relevant to a medical diagnostic process; and determine whether to bookmark the image, based on the received indication, receive an ultrasound image taken by the probe; provide the image as input to a trained model; receive from the model an indication of whether the image comprises an image relevant to a medical diagnostic process; and determine whether to bookmark the image, based on the received indication, characterized in that the processor is further caused to: determine whether the image has been selected by a user as an image to be bookmarked; and determine to bookmark the image if the image has not been selected by the user as an image to be bookmarked and if the received indication from the trained model indicates that the image is relevant to the medical diagnostic process. determine whether the image has been selected by a user as an image to be bookmarked; and determine to bookmark the image if the image has not been selected by the user as an image to be bookmarked and if the received indication from the trained model indicates that the image is relevant to the medical diagnostic process.
Housing with - at least one first housing part (14, 86), having a first inner wall (40, 87), - at least one second housing part (16, 96), having a second inner wall (52, 97), and - at least one locking element (26, 84), wherein the at least one locking element (26, 84) is arranged moveably on the at least one first housing part (14, 86) along at least one path and comprises a plurality of first engaging portions (28, 30, 32, 34, 94) arranged on the first inner wall (40, 87), wherein the at least one second housing part (16, 96) comprises a plurality of second engaging portions (44, 46, 48, 50, 96) on the second inner wall (52, 97), wherein each one of the first engaging portions (28, 30, 32, 34, 94) forms a releasable fit connection with one corresponding second engaging portion (44, 46, 48, 50, 96) that can at least be changed between an engaged and a disengaged state, and wherein the change between these at least two states is realized for all the first engaging portions (28, 30, 32, 34, 94) on a locking element (26, 84) and the corresponding second engaging portions (44, 46, 48, 50, 96) simultaneously by moving the respective locking element (26, 84) along the at least one path, wherein the at least one path leads to a rotational movement of the at least one locking element (26, 84). - at least one first housing part (14, 86), having a first inner wall (40, 87), - at least one second housing part (16, 96), having a second inner wall (52, 97), and - at least one locking element (26, 84), wherein the at least one locking element (26, 84) is arranged moveably on the at least one first housing part (14, 86) along at least one path and comprises a plurality of first engaging portions (28, 30, 32, 34, 94) arranged on the first inner wall (40, 87), wherein the at least one second housing part (16, 96) comprises a plurality of second engaging portions (44, 46, 48, 50, 96) on the second inner wall (52, 97), wherein each one of the first engaging portions (28, 30, 32, 34, 94) forms a releasable fit connection with one corresponding second engaging portion (44, 46, 48, 50, 96) that can at least be changed between an engaged and a disengaged state, and wherein the change between these at least two states is realized for all the first engaging portions (28, 30, 32, 34, 94) on a locking element (26, 84) and the corresponding second engaging portions (44, 46, 48, 50, 96) simultaneously by moving the respective locking element (26, 84) along the at least one path, wherein the at least one path leads to a rotational movement of the at least one locking element (26, 84).
An interbody spinal implant generally oval-shaped in transverse cross section and comprising: a top surface, a bottom surface, opposing lateral sides, and opposing anterior and posterior portions, the posterior portion having a generally blunt nosed profile, characterized in comprising rounded edges defined along the entire lengths between the top surface and the posterior portion, the bottom surface and the posterior portion, the top surface and the lateral sides, and the bottom surface and the lateral sides, and in comprising acute-angled edges between the top and bottom surfaces (10, 20) and the anterior portion to provide secure seating and resist removal, and in that the spinal implant is substantially hollow and has a centrally disposed vertical aperture extending from the top surface to the bottom surface and defines a transverse rim in the top and bottom surfaces (10, 20) having a greater first thickness in the area of the posterior portion than a second thickness in the area of the anterior portion to improve utilization of the vertebrae, and in that at least a portion of the top surface, the bottom surface, or both have a roughened surface topography. a top surface, a bottom surface, opposing lateral sides, and opposing anterior and posterior portions, the posterior portion having a generally blunt nosed profile, characterized in comprising rounded edges defined along the entire lengths between the top surface and the posterior portion, the bottom surface and the posterior portion, the top surface and the lateral sides, and the bottom surface and the lateral sides, and in comprising acute-angled edges between the top and bottom surfaces (10, 20) and the anterior portion to provide secure seating and resist removal, and in that the spinal implant is substantially hollow and has a centrally disposed vertical aperture extending from the top surface to the bottom surface and defines a transverse rim in the top and bottom surfaces (10, 20) having a greater first thickness in the area of the posterior portion than a second thickness in the area of the anterior portion to improve utilization of the vertebrae, and in that at least a portion of the top surface, the bottom surface, or both have a roughened surface topography. rounded edges defined along the entire lengths between the top surface and the posterior portion, the bottom surface and the posterior portion, the top surface and the lateral sides, and the bottom surface and the lateral sides, and in comprising acute-angled edges between the top and bottom surfaces (10, 20) and the anterior portion to provide secure seating and resist removal, and in that the spinal implant is substantially hollow and has a centrally disposed vertical aperture extending from the top surface to the bottom surface and defines a transverse rim in the top and bottom surfaces (10, 20) having a greater first thickness in the area of the posterior portion than a second thickness in the area of the anterior portion to improve utilization of the vertebrae, and in that at least a portion of the top surface, the bottom surface, or both have a roughened surface topography.
A central heating/cooling system and/or sanitary system, comprising: a common source provided for delivering a medium, a plurality of consumer devices connected to the common source through a pipe system via which the medium is distributed, at least one flow control system associated with at least one of the plurality of consumer devices and provided for controlling a flow of the medium passing through a pipe part of the pipe system, the flow control system comprising: - a flow sensor for sensing an actual medium flow through the pipe part and outputting an electrical signal indicative of the sensed actual medium flow, - a controller in communicative connection with the flow sensor and outputting a control signal, and - an orifice adjusting system (3, 4) in communicative connection with the controller, the orifice adjusting system being formed by a two-way or three-way flow control valve with a driving unit, the valve comprising a flow chamber with an adjustable orifice in the pipe part, wherein the flow sensor is arranged outside the flow chamber, wherein the controller is provided for evaluating the electrical signal indicative of the sensed actual medium flow with a value representing a set medium flow and outputting the control signal based on said evaluation and in that the orifice adjusting system is provided for adjusting the adjustable orifice in response to the control signal of the controller, characterized in that a software-wise change of the characteristic curve of the valve is implemented in the flow control system, wherein the characteristic curve is changed from a linear characteristic curve to a non-linear characteristic curve, or vice versa. a common source provided for delivering a medium, a plurality of consumer devices connected to the common source through a pipe system via which the medium is distributed, at least one flow control system associated with at least one of the plurality of consumer devices and provided for controlling a flow of the medium passing through a pipe part of the pipe system, the flow control system comprising: - a flow sensor for sensing an actual medium flow through the pipe part and outputting an electrical signal indicative of the sensed actual medium flow, - a controller in communicative connection with the flow sensor and outputting a control signal, and - an orifice adjusting system (3, 4) in communicative connection with the controller, the orifice adjusting system being formed by a two-way or three-way flow control valve with a driving unit, the valve comprising a flow chamber with an adjustable orifice in the pipe part, - a flow sensor for sensing an actual medium flow through the pipe part and outputting an electrical signal indicative of the sensed actual medium flow, - a controller in communicative connection with the flow sensor and outputting a control signal, and - an orifice adjusting system (3, 4) in communicative connection with the controller, the orifice adjusting system being formed by a two-way or three-way flow control valve with a driving unit, the valve comprising a flow chamber with an adjustable orifice in the pipe part,
A marker, comprising a resin-metal composite with a structure formed by immobilizing metal particles on a resin particle, characterized by having any one of constitution and constitution: the average particle size of the resin-metal composite exceeding 300nm; or the average particle size of the metal particles being in a range of more than 20nm and less than 70nm; wherein the metal particles comprise metal particles completely encased in the resin particle, metal particles having a portion embedded in the resin particle and a portion exposed from the resin particle, and metal particles adsorbed on the surface of the resin particle, and wherein the material of the metal particles is selected from a group consisting of silver, nickel, copper, gold, palladium, and alloys thereof. the average particle size of the resin-metal composite exceeding 300nm; or the average particle size of the metal particles being in a range of more than 20nm and less than 70nm;
A heart rate detection method used in an earphone, wherein said method comprises: providing a cavity inside the earphone, and installing a microphone in said cavity; the position where an opening of said cavity clings to a shell of the earphone is the position where the shell of the earphone clings to an auricle of a wearer when the earphone is worn; the shell of the earphone is provided with a hole at the position where the opening of said cavity clings to, and when the earphone is worn, said cavity and the auricle which said hole clings to form an enclosed space; collecting signals generated by pressure change in said cavity by said microphone when the earphone is worn; taking the signals collected by the microphone as signals related to heart rate; and detecting heart rate according to the signals related to heart rate; wherein said method comprises: providing an acceleration sensor in the earphone; collecting signals generated by body movement of the wearer by said acceleration sensor when the earphone is worn; performing self-adaptive filtering process on the signals collected by said acceleration sensor to obtain estimated signals of the signals generated by body movement of the wearer in the signals collected by the microphone; subtracting said estimated signals from the signals collected by the microphone to obtain signals related to heart rate. providing a cavity inside the earphone, and installing a microphone in said cavity; the position where an opening of said cavity clings to a shell of the earphone is the position where the shell of the earphone clings to an auricle of a wearer when the earphone is worn; the shell of the earphone is provided with a hole at the position where the opening of said cavity clings to, and when the earphone is worn, said cavity and the auricle which said hole clings to form an enclosed space; collecting signals generated by pressure change in said cavity by said microphone when the earphone is worn; taking the signals collected by the microphone as signals related to heart rate; and detecting heart rate according to the signals related to heart rate; wherein said method comprises: providing an acceleration sensor in the earphone; collecting signals generated by body movement of the wearer by said acceleration sensor when the earphone is worn; performing self-adaptive filtering process on the signals collected by said acceleration sensor to obtain estimated signals of the signals generated by body movement of the wearer in the signals collected by the microphone; subtracting said estimated signals from the signals collected by the microphone to obtain signals related to heart rate. providing an acceleration sensor in the earphone; collecting signals generated by body movement of the wearer by said acceleration sensor when the earphone is worn; performing self-adaptive filtering process on the signals collected by said acceleration sensor to obtain estimated signals of the signals generated by body movement of the wearer in the signals collected by the microphone; subtracting said estimated signals from the signals collected by the microphone to obtain signals related to heart rate.
Method for producing a set of characteristic curves of a fluid pump of a pressure-dependent fluid conveying system for an operating range of the fluid pump, the fluid conveying system comprising: - a current-controlled electric motor which is controlled by a motor control unit by way of an actuating current and drives the fluid pump; comprising the steps: - setting of the actuating current to a predefined value; - changing of a throughflow volume of the fluid conveying system after the actuating current is set; - recording of a dataset which describes a pressure in the fluid conveying system in a manner which is dependent on the change of the throughflow volume; - repeating of the steps of setting, changing and recording for a predefined number of repetitions and predefined various actuating currents; and - producing of a set of characteristic curves from the recorded dataset. - a current-controlled electric motor which is controlled by a motor control unit by way of an actuating current and drives the fluid pump; - setting of the actuating current to a predefined value; - changing of a throughflow volume of the fluid conveying system after the actuating current is set; - recording of a dataset which describes a pressure in the fluid conveying system in a manner which is dependent on the change of the throughflow volume; - repeating of the steps of setting, changing and recording for a predefined number of repetitions and predefined various actuating currents; and - producing of a set of characteristic curves from the recorded dataset.
A magnetoresistive sensor, comprising: a substrate in the X-Y plane, wherein the X and Y axes are perpendicular; a plurality of magnetoresistive sensor elements in the XY plane electrically interconnected to form two or four magnetoresistive sensor arms (51,52), wherein at least one magnetoresistive sensor arm senses a magnetic field along the Y-axis, said magnetoresistive sensor elements are TMR or GMR sensor elements; said sensor arm contains magnetoresistive sensor elements that have a long dimension parallel to the Y-axis and the shorter width direction parallel to the X-axis; the magnetoresistive sensor elements have due to internal shape and material anisotropy fields a free layer magnetization having components parallel to the X-axis and to the y-axis, at least one pair of elongated permanent magnet bars on the substrate with edges that are tilted by an angle between 45 and 90 degrees to the x-axis in order to generate a bias magnetic field with at least a component along the X-axis, H cross, that is slightly greater than the net effective uniaxial anisotropy field H k of the free layer, and a component along Y-axis that has a magnitude equal to or less than the H o of the sensor element; wire bond pads on the substrate are electrically interconnected to each side of the sensing arms; and wherein said magnetorestive sensor arms are electrically interconnected in order to form a sensor bridge. characterized in that at least one magnetoresistive sensor element is saturated along the X-axis by the biasing field and the bias magnetic field is set such that the bias magnetic field component along the x axis balances the free layer magnetization component along the x axis and such that low offset results for the component of the magnetic bias field along the y-axis. a substrate in the X-Y plane, wherein the X and Y axes are perpendicular; a plurality of magnetoresistive sensor elements in the XY plane electrically interconnected to form two or four magnetoresistive sensor arms (51,52), wherein at least one magnetoresistive sensor arm senses a magnetic field along the Y-axis, said magnetoresistive sensor elements are TMR or GMR sensor elements; said sensor arm contains magnetoresistive sensor elements that have a long dimension parallel to the Y-axis and the shorter width direction parallel to the X-axis; the magnetoresistive sensor elements have due to internal shape and material anisotropy fields a free layer magnetization having components parallel to the X-axis and to the y-axis, at least one pair of elongated permanent magnet bars on the substrate with edges that are tilted by an angle between 45 and 90 degrees to the x-axis in order to generate a bias magnetic field with at least a component along the X-axis, H cross, that is slightly greater than the net effective uniaxial anisotropy field H k of the free layer, and a component along Y-axis that has a magnitude equal to or less than the H o of the sensor element; wire bond pads on the substrate are electrically interconnected to each side of the sensing arms; and wherein said magnetorestive sensor arms are electrically interconnected in order to form a sensor bridge.
Cardiosphere-derived cells (CDCs) for use in increasing function of a damaged or diseased heart of a mammal, wherein said CDCs are obtained by culturing disaggregated cardiospheres obtained from cardiac tissue on a solid surface to generate said CDCs as a monolayer, and wherein said CDCs are sized for intracoronary administration.
Layered composite material, comprising at least two layers of graphite foil, characterised in that at least two layers of graphite foil are connected to one another by means of at least one connecting pin which at least form-fittingly engages in the two layers,
Optical lens comprising a substrate with a front main face and with a rear main face, at least one of the main faces being coated with an antireflection coating, characterized in that: - the antireflection coating imparts to said at least one main face of the substrate a mean light reflection factor R v (15°) lower than or equal to 2.5 %, - in the range [0°-50°] of angles of incidence θ, the mean light reflection factor R v (θ) on said coated main face presents a minimum value R vmin for an angle of incidence θ min comprised in the range [20°-50°], R v (θ) being the weighted spectral reflection average over the whole visible spectrum between 380 and 780 nm, as defined in the ISO standard 13666:1998, and - R vmin / R v (15°) < 0.95, R v (15°) being the mean light reflection factor for an angle of incidence θ of 15° on said coated main face, wherein said at least one main face coated with said antireflection coating comprises the rear main face. and the mean reflection factor R UV on the rear main face between 280 nm and 380 nm, weighted by the function W(λ) defined in the ISO 13666:1998 standard, is lower than 5 %, for an angle of incidence of 35°. - the antireflection coating imparts to said at least one main face of the substrate a mean light reflection factor R v (15°) lower than or equal to 2.5 %, - in the range [0°-50°] of angles of incidence θ, the mean light reflection factor R v (θ) on said coated main face presents a minimum value R vmin for an angle of incidence θ min comprised in the range [20°-50°], R v (θ) being the weighted spectral reflection average over the whole visible spectrum between 380 and 780 nm, as defined in the ISO standard 13666:1998, and - R vmin / R v (15°) < 0.95, R v (15°) being the mean light reflection factor for an angle of incidence θ of 15° on said coated main face,
A motor vehicle light system - having a motor vehicle light comprising a direction indicator, which light comprises at least one light-emitting diode as light source, and - with a light-emitting-diode control device which is set up in such a way - that the motor vehicle light is alternately switched to active and to inactive, - that the light-emitting diode in an active state of the motor vehicle light is dimmable in the manner of a pulse width modulation, characterised in that - the duty cycle is varied in such a way that the light-emitting diode in the active state of the motor vehicle light emits substantially a constant average luminous flux, and in that the duty cycle in the first active state is smaller than in the second active state. - having a motor vehicle light comprising a direction indicator, which light comprises at least one light-emitting diode as light source, and - with a light-emitting-diode control device which is set up in such a way - that the motor vehicle light is alternately switched to active and to inactive, - that the light-emitting diode in an active state of the motor vehicle light is dimmable in the manner of a pulse width modulation, - the duty cycle is varied in such a way that the light-emitting diode in the active state of the motor vehicle light emits substantially a constant average luminous flux, and in that the duty cycle in the first active state is smaller than in the second active state.