mhurhangee/patent-ind-claim-en huggingface dataset:
A system for determining a heart rate of a patient having an implanted blood pump including: a controller including a processor , the processor having processing circuitry configured to: apply a voltage to a plurality of coils of a stator of the blood pump to produce an electromagnetic force to rotate a rotor in communication with the plurality of coils ; display a waveform associated with a back electromotive force in the plurality of coils of the blood pump ; determine a time interval between a first alteration in the waveform relative to a baseline and a second alteration in the waveform relative to the baseline ; wherein the baseline is an upper hysteresis band, wherein the first alteration is a first rise in the waveform relative to the baseline and the second alteration is a second rise in the waveform relative to the baseline , and determine the heart rate of the patient based on the determined time interval. apply a voltage to a plurality of coils of a stator of the blood pump to produce an electromagnetic force to rotate a rotor in communication with the plurality of coils ; display a waveform associated with a back electromotive force in the plurality of coils of the blood pump ; determine a time interval between a first alteration in the waveform relative to a baseline and a second alteration in the waveform relative to the baseline ; wherein the baseline is an upper hysteresis band, wherein the first alteration is a first rise in the waveform relative to the baseline and the second alteration is a second rise in the waveform relative to the baseline , and determine the heart rate of the patient based on the determined time interval.
Panel, particularly a panel used for making furnishings such as doors, boards, tables, furniture or the like, which panel on at least one face thereof has at least a three-dimensional structure and which panel is composed of a mechanically rigid base or supporting sheet and an embossed coating sheet for giving the aesthetic appearance to said panel, said coating sheet being superposed on at least one face of the base sheet , wherein the compound of said coating sheet is composed of thermoplastic polymers which polymers are preferably polyolefin polymers and particularly polypropylene or polyethylene or a mixture of said two polymers, being said thermoplastic polymers mixed with a vegetable and/or mineral filler, characterized in that said compound of the coating sheet comprises thermoplastic rubber or thermoplastic elastomers TPEs which compound gives such flexibility properties to the coating sheet that said coating sheet can be wound on itself.
A system for registering a coordinate system associated with a pre-acquired model of an object with a reference coordinate system, the system comprising: a portable unit including: a display; and an optical detection assembly for acquiring at least one image of at least one marker located on said object; a tracking system for tracking said portable unit in said reference coordinate system; and a processor, coupled with said portable unit and with said tracking system, said processor configured to determine a position and orientation of said portable unit in said reference coordinate system, said processor further configured to determine a position of said at least one marker located on said object in said reference coordinate system, according to position related information determined from said at least one image, said processor further configured to display registration related information on said display, at least one of said registration related information and a display location of said registration related information being related to the position and orientation of said portable unit in said reference coordinate system, wherein the position of said at least one marker in said coordinate system associated with a pre-acquired model of said object is predetermined. a portable unit including: a display; and an optical detection assembly for acquiring at least one image of at least one marker located on said object; a display; and an optical detection assembly for acquiring at least one image of at least one marker located on said object; a tracking system for tracking said portable unit in said reference coordinate system; and a processor, coupled with said portable unit and with said tracking system, said processor configured to determine a position and orientation of said portable unit in said reference coordinate system, said processor further configured to determine a position of said at least one marker located on said object in said reference coordinate system, according to position related information determined from said at least one image, said processor further configured to display registration related information on said display, at least one of said registration related information and a display location of said registration related information being related to the position and orientation of said portable unit in said reference coordinate system, wherein the position of said at least one marker in said coordinate system associated with a pre-acquired model of said object is predetermined.
An ultrasound imaging system comprising: a processor circuit in communication with an ultrasound transducer array , the processor circuit configured to: receive, from the ultrasound transducer array, a set of images of a three-dimensional volume of a patient's anatomy including an anatomical feature, wherein the set of images is associated with a plurality of imaging planes across the 3D volume of the patient's anatomy including the anatomical feature; obtain first measurement data of the anatomical feature in a first image of the set of images; generate second measurement data for the anatomical feature in one or more images of the set of images by propagating the first measurement data from the first image to the one or more images based on positional data of the ultrasound transducer array with respect to the plurality of imaging planes; and output, to a display in communication with the processor circuit, the second measurement data for the anatomical feature. receive, from the ultrasound transducer array, a set of images of a three-dimensional volume of a patient's anatomy including an anatomical feature, wherein the set of images is associated with a plurality of imaging planes across the 3D volume of the patient's anatomy including the anatomical feature; obtain first measurement data of the anatomical feature in a first image of the set of images; generate second measurement data for the anatomical feature in one or more images of the set of images by propagating the first measurement data from the first image to the one or more images based on positional data of the ultrasound transducer array with respect to the plurality of imaging planes; and output, to a display in communication with the processor circuit, the second measurement data for the anatomical feature.
A method to program a Media Access Control, MAC, address table, the method comprising: obtaining information identifying one or more Virtual Tunnel End Point, VTEP, Affinity Groups, VAGs, each of the one or more VAGs including an identification of only one VTEP per leaf node comprising one or more VTEPs; generating a unique Filtering Identifier, FID, for each of the one or more VAGs; obtaining information identifying assignment of each Virtual Routing and Forwarding element, VRF, of a plurality of VRFs instantiated on each leaf node to one of the one or more VAGs; based on the obtained information identifying assignment of each VRF of the plurality of VRFs to one of the one or more VAGs, grouping VRFs assigned to each VAG into a different VRF subset, thereby generating one or more VRF subsets; and populating the MAC address table with at least one entry having one of the FIDs, a MAC address of a leaf node, and the one or more VRF subsets. obtaining information identifying one or more Virtual Tunnel End Point, VTEP, Affinity Groups, VAGs, each of the one or more VAGs including an identification of only one VTEP per leaf node comprising one or more VTEPs; generating a unique Filtering Identifier, FID, for each of the one or more VAGs; obtaining information identifying assignment of each Virtual Routing and Forwarding element, VRF, of a plurality of VRFs instantiated on each leaf node to one of the one or more VAGs; based on the obtained information identifying assignment of each VRF of the plurality of VRFs to one of the one or more VAGs, grouping VRFs assigned to each VAG into a different VRF subset, thereby generating one or more VRF subsets; and populating the MAC address table with at least one entry having one of the FIDs, a MAC address of a leaf node, and the one or more VRF subsets.
A method of assembling a wind turbine blade including first and second outer shell portions and an internal web , the method comprising: coupling a bottom end of the internal web with the first outer shell portion ; applying an adhesive material to a top end of the internal web and to edges of the first outer shell portion ; engaging the second outer shell portion with the edges of the first outer shell portion and with the top end of the internal web to enclose the internal web inside the first and second outer shell portions ; characterized by : applying localized heat energy to the adhesive material at the top end of the internal web to pre-cure the adhesive material and thereby bond the top end of the internal web with the second outer shell portion ; and after pre-curing the adhesive material at the top end of the internal web , applying heat energy to the first and second outer shell portions to cure the adhesive material at the edges of the first outer shell portion and thereby bond the first and second outer shell portions together. coupling a bottom end of the internal web with the first outer shell portion ; applying an adhesive material to a top end of the internal web and to edges of the first outer shell portion ; engaging the second outer shell portion with the edges of the first outer shell portion and with the top end of the internal web to enclose the internal web inside the first and second outer shell portions ; characterized by : applying localized heat energy to the adhesive material at the top end of the internal web to pre-cure the adhesive material and thereby bond the top end of the internal web with the second outer shell portion ; and after pre-curing the adhesive material at the top end of the internal web , applying heat energy to the first and second outer shell portions to cure the adhesive material at the edges of the first outer shell portion and thereby bond the first and second outer shell portions together. applying localized heat energy to the adhesive material at the top end of the internal web to pre-cure the adhesive material and thereby bond the top end of the internal web with the second outer shell portion ; and after pre-curing the adhesive material at the top end of the internal web , applying heat energy to the first and second outer shell portions to cure the adhesive material at the edges of the first outer shell portion and thereby bond the first and second outer shell portions together.
An article molded from a bio-based polycarbonate ester having high heat resistance, wherein the highly heat-resistant, bio-based polycarbonate ester comprises a repeat unit 1 represented by the following Formula 1; a repeat unit 2 represented by the following Formula 2; and a repeat unit 3 represented by the following Formula 3: wherein the highly heat-resistant, bio-based polycarbonate ester has a glass transition temperature (Tg) of 160 to 240°C measured as indicated in the specification and a melt flow index (MI) of 5 to 150 g/10 min when measured at 260°C under a load of 2.16 kg.
A computer-implemented method, comprising: obtaining a first reflection pressure signal at a first acoustic sensor device arranged at a first location in a conduit , the first reflection signal being based on a pressure pulse being reflected acoustically from a deposition to the first acoustic sensor device in a first direction; determining by inversion a representation of a first deposition estimation in the conduit from the obtained first reflection signal; obtaining a second reflection pressure signal at a second acoustic sensor device arranged at a second location in the conduit, the second reflection signal being based on the pressure pulse being reflected acoustically from the deposition to the second acoustic sensor device in a second direction opposite the first direction; determining by inversion a representation of a second deposition estimation in the conduit from the obtained second reflection signal, wherein said representations measure the amount of deposition as a function of distance in the conduit; determining an overlap estimation between the representation of the first deposition estimation and the representation of the second deposition estimation; and generating a representation of a deposition in the conduit from the determined overlap estimation, wherein said representation indicates a location of the deposition within the conduit and a thickness of the deposition. obtaining a first reflection pressure signal at a first acoustic sensor device arranged at a first location in a conduit , the first reflection signal being based on a pressure pulse being reflected acoustically from a deposition to the first acoustic sensor device in a first direction; determining by inversion a representation of a first deposition estimation in the conduit from the obtained first reflection signal; obtaining a second reflection pressure signal at a second acoustic sensor device arranged at a second location in the conduit, the second reflection signal being based on the pressure pulse being reflected acoustically from the deposition to the second acoustic sensor device in a second direction opposite the first direction; determining by inversion a representation of a second deposition estimation in the conduit from the obtained second reflection signal, wherein said representations measure the amount of deposition as a function of distance in the conduit; determining an overlap estimation between the representation of the first deposition estimation and the representation of the second deposition estimation; and generating a representation of a deposition in the conduit from the determined overlap estimation, wherein said representation indicates a location of the deposition within the conduit and a thickness of the deposition.
Method for operating an electric machine for a vehicle , wherein a target torque of the electric machine is regulated during a driving event on the basis of a detected, time-dependent rotational speed of the electric machine , wherein the detected rotational speed is differentiated with respect to time by a first high-pass filter , the rotational speed differentiated with respect to time is subsequently restricted to gradients with a positive slope, and these gradients are once again differentiated with respect to time by a second high-pass filter , characterized in that the detected rotational speed is moreover differentiated with respect to time by a third high-pass filter , and in that the rotational speed differentiated with respect to time by the third high-pass filter is integrated with respect to time by a first low-pass filter , wherein the first low-pass filter is operated with a shorter time constant than the third high-pass filter , wherein a damping torque results on the basis of the output values of the second high-pass filter and of the first low-pass filter and is added to the target torque. the detected rotational speed is differentiated with respect to time by a first high-pass filter , the rotational speed differentiated with respect to time is subsequently restricted to gradients with a positive slope, and these gradients are once again differentiated with respect to time by a second high-pass filter , characterized in that the detected rotational speed is moreover differentiated with respect to time by a third high-pass filter , and in that the rotational speed differentiated with respect to time by the third high-pass filter is integrated with respect to time by a first low-pass filter , wherein the first low-pass filter is operated with a shorter time constant than the third high-pass filter , wherein a damping torque results on the basis of the output values of the second high-pass filter and of the first low-pass filter and is added to the target torque.
An information processing device comprising: an interface that is configured to communicate with an electronic device ; and circuitry configured to receive description information regarding the electronic device and an another electronic device , and send an associated operation program that was identified by the circuitry based on the received description information to the electronic device , wherein the associated operation program configures the electronic device to realize an association operation between the electronic device and the another electronic device , characterized in that the description information includes an image of the another electronic device , and the circuitry is configured to determine an identification of the another electronic device based on the image. an interface that is configured to communicate with an electronic device ; and circuitry configured to receive description information regarding the electronic device and an another electronic device , and send an associated operation program that was identified by the circuitry based on the received description information to the electronic device , wherein the associated operation program configures the electronic device to realize an association operation between the electronic device and the another electronic device , characterized in that the description information includes an image of the another electronic device , and the circuitry is configured to determine an identification of the another electronic device based on the image.
Composed element, comprising at least two panel-shaped elements (2-3), which consist of a board material and which are connected together at an angle, wherein the panel-shaped elements (2-3) are connected by means of coupling means (6-7) which comprise a tongue and groove substantially made as profiled parts (8-9) in the board material itself, wherein the tongue has a first side and an opposed second side , and wherein said coupling means (6-7) further also comprise locking elements (15-16) preventing, in coupled condition , the drifting apart of the tongue and groove ; characterized in that the panel-shaped element with the tongue is made of MDF or HDF, whereas the panel-shaped element with the groove is made of particle board.
An optical zoom module , comprising: a module housing ; a plurality of lens assemblies arranged coaxially along an axis; at least one straight guiding rod , which is parallel to the axis and is arranged at a first side (A) of the module housing ; a plurality of carriers, wherein each carrier has a lens assembly mounted therein, and at least two carriers of the plurality of carriers are movable carriers, and the straight guiding rod passes through the at least two movable carriers to enable the at least two movable carriers to move along the straight guiding rod respectively; and characterized by further comprising a second rail located on a second side (B) of the module housing, wherein the second side (B) is opposite to the first side (A), wherein the second rail is parallel to the straight guiding rod , and at least one ball is supported between an upper surface of the second rail and a lower surface of each of the at least two movable carriers. a module housing ; a plurality of lens assemblies arranged coaxially along an axis; at least one straight guiding rod , which is parallel to the axis and is arranged at a first side (A) of the module housing ; a plurality of carriers, wherein each carrier has a lens assembly mounted therein, and at least two carriers of the plurality of carriers are movable carriers, and the straight guiding rod passes through the at least two movable carriers to enable the at least two movable carriers to move along the straight guiding rod respectively; and characterized by further comprising a second rail located on a second side (B) of the module housing, wherein the second side (B) is opposite to the first side (A), wherein the second rail is parallel to the straight guiding rod , and at least one ball is supported between an upper surface of the second rail and a lower surface of each of the at least two movable carriers.
An induction temper system for tempering a component of a turbine, the system comprising: a pliable induction member comprising an induction coil, the induction coil including an insulative sleeve and a conductive member substantially contained within the insulative sleeve, and wherein the pliable induction member having an adjustable length that is modifiable from an original length to an application length that coincides with a length of a component of the turbine that is to undergo induction tempering, the application length of the induction member being further modifiable to coincide with other components of the turbine with differing lengths ; a control system operably connected to the pliable induction member; and a temperature sensor operably connected with the control system, wherein the control system is configured to control an electrical current supplied to the pliable induction member in response to a temperature indicator about the component of the turbine obtained from the temperature sensor . a pliable induction member comprising an induction coil, the induction coil including an insulative sleeve and a conductive member substantially contained within the insulative sleeve, and wherein the pliable induction member having an adjustable length that is modifiable from an original length to an application length that coincides with a length of a component of the turbine that is to undergo induction tempering, the application length of the induction member being further modifiable to coincide with other components of the turbine with differing lengths ; a control system operably connected to the pliable induction member; and a temperature sensor operably connected with the control system, wherein the control system is configured to control an electrical current supplied to the pliable induction member in response to a temperature indicator about the component of the turbine obtained from the temperature sensor .