mhurhangee/patent-ind-claim-en huggingface dataset:
Image processing apparatus for segmenting a region of interest in multi-dimensional image data of an object , comprising: - a control unit for controlling the acquisition of image data via a transducer array of an ultrasound probe , wherein the control unit serves as an interface for receiving the image data of the object including the region of interest to be segmented, - a selection unit for selecting a deformable model of an anatomical structure corresponding to the object in the image data, - a processing unit for segmenting the region of interest by adapting the deformable model on the basis of the image data (x t ) and additional anatomical information of the object, the additional anatomical information comprising known anatomical features of the object, wherein the processing unit is designed to adapt a position of an element of the deformable model on the basis of the image data and a vector (n) or plane derived from a field of view of the ultrasound probe with respect to the position of the ultrasound probe relative to the object. - a control unit for controlling the acquisition of image data via a transducer array of an ultrasound probe , wherein the control unit serves as an interface for receiving the image data of the object including the region of interest to be segmented, - a selection unit for selecting a deformable model of an anatomical structure corresponding to the object in the image data, - a processing unit for segmenting the region of interest by adapting the deformable model on the basis of the image data (x t ) and additional anatomical information of the object, the additional anatomical information comprising known anatomical features of the object,
A cosmetic substrate composed of a silylated amino acid/silane compound copolymer having a structural unit U represented by the following general formula (Ia), (Ib) or (Ic): [wherein, R 2 represents a hydroxyl group, a phenyl group, or an alkyl group having 1 to 20 carbon atoms optionally containing nitrogen, sulfur, a halogen or a phenyl group in the group, and the groups R 2 may be the same or different.] and a structural unit W represented by the following general formula (Id) or (Ie): [wherein, R 1 represents a hydroxyl group or an alkyl group having 1 to 3 carbon atoms, the groups R 1 may be the same or different, A is a divalent group bonding Si and N, and represents at least one group selected from the group consisting of R B , *R B OCH 2 CH(OH)CH 2 , *R B S, *R B NH and *R B OCOCH 2 CH 2 (R B represents an alkyl group having 1 to 5 carbon atoms, and * represents a side bonding to Si), E represents a residue obtained by removing one primary amino group from an α amino acid, wherein 40 mol% or more of the α amino acid are basic amino acids, and when E has an amino group other than the α amino group, N in the above-described other amino group may be bonded to A of the other structural unit W], wherein the molar ratio of structural unit W:structural unit U is in the range of 1:5 to 1:150. [wherein, R 2 represents a hydroxyl group, a phenyl group, or an alkyl group having 1 to 20 carbon atoms optionally containing nitrogen, sulfur, a halogen or a phenyl group in the group, and the groups R 2 may be the same or different.] and a structural unit W represented by the following general formula (Id) or (Ie):
Support for a set of optics , each of which is provided for covering a point illuminant of an luminaire panel, wherein the support has a fixing structure adapted to fix at least one optic to a base member of the luminaire panel adjacent to one of the point illuminants of the luminaire panel, characterised in that the support comprises a holding structure designed to hold the at least one optic in a position aligned for mounting the at least one optic to the base member of the luminaire panel, wherein the support comprises a flat basic body with an upper side and a lower side opposite the upper side, wherein the holding structure is arranged on the upper side of the basic body and the fixing structure is arranged on the lower side of the basic body , wherein, for mounting, the set of optics can be arranged on one side of the base member of the luminaire panel as intended and fixed to the base member by means of a second identical support from the other side of the base member.
A vehicle stabilizer device including a stabilizer extending in a width direction of a vehicle, and a bush unit provided on a support portion of the stabilizer , the bush unit comprising: a bracket formed of metal; a rubber bush comprising a first bush piece and a second bush piece arranged inside the bracket , and including a hole through which the stabilizer passes, said first bush piece and said second bush piece formed of a material having rubber elasticity; and an adhesion layer provided between an inner surface of the hole of the rubber bush and the stabilizer , the adhesion layer being formed of an adhesion member including at least an adhesive formed on the inner surface , and characterized by one bonding display portion formed of a part of the adhesion member , the bonding display portion being provided at a corner (C1, C3) on an end face of the first and second bush pieces near the inner surface , and sticking to the end face , and another bonding display portion formed of a part of the adhesion member , the other bonding display portion being provided at a corner (C2, C4) on the other end face of the first and second bush pieces near the inner surface , and sticking to the other end face . a bracket formed of metal; a rubber bush comprising a first bush piece and a second bush piece arranged inside the bracket , and including a hole through which the stabilizer passes, said first bush piece and said second bush piece formed of a material having rubber elasticity; and an adhesion layer provided between an inner surface of the hole of the rubber bush and the stabilizer , the adhesion layer being formed of an adhesion member including at least an adhesive formed on the inner surface , and characterized by one bonding display portion formed of a part of the adhesion member , the bonding display portion being provided at a corner (C1, C3) on an end face of the first and second bush pieces near the inner surface , and sticking to the end face , and another bonding display portion formed of a part of the adhesion member , the other bonding display portion being provided at a corner (C2, C4) on the other end face of the first and second bush pieces near the inner surface , and sticking to the other end face .
A gear oil comprising: a base oil selected from the group consisting of Group I-IV base oils; silicone oil in an amount of 0.1 to 5 wt%, based on the total weight of the gear oil, said silicone oil having a viscosity of 10-350 cSt at 25 °C, and said gear oil having a viscosity less than 500 cSt at 25 °C. a base oil selected from the group consisting of Group I-IV base oils; silicone oil in an amount of 0.1 to 5 wt%, based on the total weight of the gear oil, said silicone oil having a viscosity of 10-350 cSt at 25 °C, and said gear oil having a viscosity less than 500 cSt at 25 °C.
A sample analyzing apparatus for performing an optical-based measurement on a biological sample supported by a multi-well microplate , the sample analyzing apparatus comprising: a housing ; a first light source disposed in the housing and configured for generating excitation light; excitation optics disposed in the housing and configured for directing the excitation light from the first light source to the biological sample placed in an operating position, wherein the biological sample emits emission light in response to being irradiated by the excitation light; a first light detector disposed in the housing and configured for measuring the emission light; and emission optics disposed in the housing and configured for directing the emission light from the biological sample to the first light detector ; characterized by a monitoring system configured for monitoring inside said housing a movable component (104; 210, 214; 218; 180) disposed in the interior of the housing and movable towards and away from the biological sample in its operating position, the monitoring system comprising: a second light source (330; 334) disposed in the housing and configured for illuminating the movable component (104; 210, 214; 218; 180); and a second light detector disposed in the housing and configured for detecting light reflected from the movable component (104; 210, 214; 218; 180) in response to being illuminated. a housing ; a first light source disposed in the housing and configured for generating excitation light; excitation optics disposed in the housing and configured for directing the excitation light from the first light source to the biological sample placed in an operating position, wherein the biological sample emits emission light in response to being irradiated by the excitation light; a first light detector disposed in the housing and configured for measuring the emission light; and emission optics disposed in the housing and configured for directing the emission light from the biological sample to the first light detector ; characterized by a monitoring system configured for monitoring inside said housing a movable component (104; 210, 214; 218; 180) disposed in the interior of the housing and movable towards and away from the biological sample in its operating position, the monitoring system comprising: a second light source (330; 334) disposed in the housing and configured for illuminating the movable component (104; 210, 214; 218; 180); and a second light detector disposed in the housing and configured for detecting light reflected from the movable component (104; 210, 214; 218; 180) in response to being illuminated. a second light source (330; 334) disposed in the housing and configured for illuminating the movable component (104; 210, 214; 218; 180); and a second light detector disposed in the housing and configured for detecting light reflected from the movable component (104; 210, 214; 218; 180) in response to being illuminated.
A conferencing system comprising: a control unit having a data bus, a power bus, an output port in communication with the power bus, and a sensor in communication with the output port capable of sensing one or more power characteristics at the output port; and a first conferencing unit in communication with the data bus of the control unit, the first conferencing unit having an input port in communication with the power bus via connection to the output port of the control unit, an output port in communication with the power bus, the first conferencing unit further characterized by a sensor in communication with the output port of the first conferencing unit capable of sensing one or more power characteristics of delivered power downstream at the output port of the first conferencing unit; wherein data associated with the sensed power characteristics at the output port of the first conferencing unit is capable of being communicated over the data bus to the control unit. a control unit having a data bus, a power bus, an output port in communication with the power bus, and a sensor in communication with the output port capable of sensing one or more power characteristics at the output port; and a first conferencing unit in communication with the data bus of the control unit, the first conferencing unit having an input port in communication with the power bus via connection to the output port of the control unit, an output port in communication with the power bus, the first conferencing unit further characterized by a sensor in communication with the output port of the first conferencing unit capable of sensing one or more power characteristics of delivered power downstream at the output port of the first conferencing unit; wherein data associated with the sensed power characteristics at the output port of the first conferencing unit is capable of being communicated over the data bus to the control unit.
A method for reducing the number of changes in a designated router, DR, of a protocol independent multicast, PIM, protocol, the method comprising the following steps: after a PIM device joins a shared network, receiving, by an interface of the PIM device, a Hello message sent by other PIM device in the shared network, wherein the Hello message carries a DR address option (S1); and using, by the interface of the PIM device, a currently used DR address carried in the Hello message as a DR address of the interface (S2). after a PIM device joins a shared network, receiving, by an interface of the PIM device, a Hello message sent by other PIM device in the shared network, wherein the Hello message carries a DR address option (S1); and using, by the interface of the PIM device, a currently used DR address carried in the Hello message as a DR address of the interface (S2).
An induction coil system for producing vapor for ablating tissue in medical applications, comprising: a coiled fluid tube configured to carry a fluid; a coiled wire configured to carry electric current, wherein the electric current in the coiled wire generates a magnetizing inductance to inductively heat the fluid tube ; a capsule between the coiled fluid tube and the coiled wire , characterized in that the capsule includes multiple ports facilitating air flow into the capsule or air flow out of the capsule and bores or grooves on an inner surface of the capsule , with the bores or grooves and the ports together forming a plurality of airflow channels through the capsule , and wherein the coiled wire is located inside the capsule and the coiled fluid tube is located outside of the capsule ; a cooling fluid supply configured to force a cooling fluid through the capsule across the coiled wire . a coiled fluid tube configured to carry a fluid; a coiled wire configured to carry electric current, wherein the electric current in the coiled wire generates a magnetizing inductance to inductively heat the fluid tube ; a capsule between the coiled fluid tube and the coiled wire , characterized in that the capsule includes multiple ports facilitating air flow into the capsule or air flow out of the capsule and bores or grooves on an inner surface of the capsule , with the bores or grooves and the ports together forming a plurality of airflow channels through the capsule , and wherein the coiled wire is located inside the capsule and the coiled fluid tube is located outside of the capsule ; a cooling fluid supply configured to force a cooling fluid through the capsule across the coiled wire .
A differential pressure indicator, DPI , for use with a downhole isolation valve, comprising: a tubular mandrel for assembly as part of a casing string and for receiving a tubular string, the mandrel having a stop shoulder and a piston shoulder ; a tubular housing for assembly as part of the casing string and for receiving the tubular string, the housing movable relative to the mandrel between an extended position and a retracted position and having a stop shoulder and a piston shoulder ; a hydraulic chamber formed between the piston shoulders ; and a coupling in communication with the hydraulic chamber and for connection to a sensing line ; wherein the housing is movable relative to the mandrel to the extended position in response to tension exerted on the DPI by the casing string . a tubular mandrel for assembly as part of a casing string and for receiving a tubular string, the mandrel having a stop shoulder and a piston shoulder ; a tubular housing for assembly as part of the casing string and for receiving the tubular string, the housing movable relative to the mandrel between an extended position and a retracted position and having a stop shoulder and a piston shoulder ; a hydraulic chamber formed between the piston shoulders ; and a coupling in communication with the hydraulic chamber and for connection to a sensing line ; wherein the housing is movable relative to the mandrel to the extended position in response to tension exerted on the DPI by the casing string .
A composite structure comprising a foam layer, a textile layer, a cover layer, and a lacquer layer in this order, as a coating for an airbag cover, the foam layer having a density of at most 300 kg/m 3 and containing a polyolefin, the cover layer being thermoplastic and comprising at least two compact sublayers of different composition, each sublayer containing at least one thermoplastic selected from polyolefin and polyvinyl chloride.
Spindle drive for an adjustment element of a motor vehicle, having a drive motor , a spindle/spindle nut transmission , connected downstream of the drive motor , for generating linear drive movements, and having two connections for diverting the drive movements, wherein at least one one-piece helical compression spring , aligned with the spindle longitudinal axis , for preloading the spindle drive, in particular into the extended position, is provided, characterized in that the helical compression spring has spring coils of different diameters for adapting it to the geometric conditions prevailing in the spindle drive.
A method , in a first wireless node , the method comprising: selecting a set of reference signal antenna ports for use in transmitting data to or receiving data from one or more other wireless nodes in a given transmit time interval, from a plurality of sets of reference signal antenna ports that are available for use, wherein the reference signal antenna ports are demodulation reference signal antenna ports and wherein at least two of the sets of the plurality of sets of reference signal antenna ports have different reference signal densities in the frequency dimension, the time dimension, or both; and sending signaling to a second wireless node , wherein the signaling comprises a first part to indicate how the reference signal is densified on a time-frequency grid related to an OFDM-based transmission relative to a DM-RS structure used as a baseline configuration that is already known to the second wireless node, and the signaling further includes a second part to indicate the actual rank and/or choice of transmission ports. selecting a set of reference signal antenna ports for use in transmitting data to or receiving data from one or more other wireless nodes in a given transmit time interval, from a plurality of sets of reference signal antenna ports that are available for use, wherein the reference signal antenna ports are demodulation reference signal antenna ports and wherein at least two of the sets of the plurality of sets of reference signal antenna ports have different reference signal densities in the frequency dimension, the time dimension, or both; and sending signaling to a second wireless node , wherein the signaling comprises a first part to indicate how the reference signal is densified on a time-frequency grid related to an OFDM-based transmission relative to a DM-RS structure used as a baseline configuration that is already known to the second wireless node, and the signaling further includes a second part to indicate the actual rank and/or choice of transmission ports.
An apparatus for use in the treatment of compressed gas, the apparatus comprising:- a housing having at least one inlet for allowing a stream of compressed gas into the housing and at least one outlet for allowing said stream of gas to exit said housing ; at least one drain for collecting and exhausting at least one liquid component contained within said compressed gas; at least one adsorbent material located in said housing between said inlet and said outlet for absorbing at least one component of said stream of compressed gas; and at least one insert , the insert located within said housing between said inlet and said adsorbent material, the insert comprising:- a baffle for interrupting the flow of a stream of compressed air passing from an inlet in the housing of the apparatus for the treatment of compressed gas and causing the stream of compressed gas to change direction; and a plurality of supports extending from said baffle to adjacent an internal surface of the housing of the apparatus , at least one support including a channel to allow liquid deposited in said baffle from said stream of gas to flow towards said internal surface, wherein said baffle is concave on a surface facing the inlet of the apparatus .
A method for measuring psychological stress by determining a stress level (SL) indicative of the psychological stress, the method implemented using a processor and software application stored on a computer-readable medium, and the method comprising: determining R-R intervals from an electrocardiogram (ECG); calculating a standard deviation of the R-R intervals (SDNN); determining a stress feature (SF) using the SDNN; determining a posture state, wherein the posture state includes any of active, sitting, and standing; wherein the psychological stress is not measured if the posture state is active; retrieving a probability mass function (PMF) for the determined posture state; in response to reaching a threshold time period since a last adaptation, performing adaptation to update the probability mass function (PMF); and determining the stress level (SL) using the SF and the updated PMF to periodically measure the psychological stress. determining R-R intervals from an electrocardiogram (ECG); calculating a standard deviation of the R-R intervals (SDNN); determining a stress feature (SF) using the SDNN; determining a posture state, wherein the posture state includes any of active, sitting, and standing; wherein the psychological stress is not measured if the posture state is active; retrieving a probability mass function (PMF) for the determined posture state; in response to reaching a threshold time period since a last adaptation, performing adaptation to update the probability mass function (PMF); and determining the stress level (SL) using the SF and the updated PMF to periodically measure the psychological stress.
An optical system of LED variable-focus imaging lamp, comprising a LED light source module , a light-collecting assembly , a shutter assembly and a zoom lens assembly, which are installed in sequence according to the direction of a light path, geometry centers of the module and assemblies being collinear with a primary optic axis A, a focal point F1 of said light-collecting assembly coinciding with a focal point F2 of the zoom lens assembly for at least two points of operation of the zoom lens, wherein said zoom lens assembly comprises a first zoom lens , a diaphragm with a clear aperture and a second zoom lens , said first zoom lens and the second zoom lens move forward or backward along the direction of the primary optic axis A so that zoom is realized, said diaphragm is disposed between the first zoom lens and the second zoom lens , and the clear aperture of said diaphragm is adjustable, characterized in that said shutter assembly is disposed at the position of the focal point F1 of the light-collecting assembly .
A power generation element , comprising: a first conductive layer (E1); a second conductive layer (E2); a first member including a first crystal and being provided between the first conductive layer (E1) and the second conductive layer (E2), the first crystal having a wurtzite structure; and a second member separated from the first member and provided between the first member and the second conductive layer (E2), a <000-1> direction of the first crystal having a component from the first member toward the second member . a first conductive layer (E1); a second conductive layer (E2); a first member including a first crystal and being provided between the first conductive layer (E1) and the second conductive layer (E2), the first crystal having a wurtzite structure; and a second member separated from the first member and provided between the first member and the second conductive layer (E2), a <000-1> direction of the first crystal having a component from the first member toward the second member .