mhurhangee/ep-ind-claims huggingface dataset:
A Magnetic Resonance Spectroscopic Imaging (MRSI) system, comprising: a structure identifier that is configured to identify a predetermined segmented structure in segmented MRI image data; a positioning rules bank which is configured to store rules for positioning a volume of interest with respect to the identified predetermined segmented structure of the segmented MRI image data for a Magnetic Resonance Spectroscopic biochemical composition analysis; and a volume of interest generator that is configured to position the volume of interest with respect to the identified predetermined segmented structure based on one or more of the rules for positioning the volume of interest with respect to the identified predetermined segmented structure wherein the MRSI system further comprises a MRS analyzer configured to determine a biochemical composition of the volume of interest positioned in the segmented structure. a structure identifier that is configured to identify a predetermined segmented structure in segmented MRI image data; a positioning rules bank which is configured to store rules for positioning a volume of interest with respect to the identified predetermined segmented structure of the segmented MRI image data for a Magnetic Resonance Spectroscopic biochemical composition analysis; and a volume of interest generator that is configured to position the volume of interest with respect to the identified predetermined segmented structure based on one or more of the rules for positioning the volume of interest with respect to the identified predetermined segmented structure wherein the MRSI system further comprises a MRS analyzer configured to determine a biochemical composition of the volume of interest positioned in the segmented structure.
A user device that has IP Multimedia Subsystem, IMS, subscription information, comprising: control means for searching, based on UPnP technology, a UPnP network for another user device that is equipped with IMS functionality and UPnP functionality, and for sending a control URL to the discovered other user device via a first UPnP command; establishing means for generating an encryption key shared with the other user device in response to a second UPnP command addressed to the control URL from the other user device, and for establishing a session, which is secured using the encryption key, with the other user device; and sending means for sending the IMS subscription information to the other user device via the session in response to a third UPnP command addressed to the control URL from the other user device. control means for searching, based on UPnP technology, a UPnP network for another user device that is equipped with IMS functionality and UPnP functionality, and for sending a control URL to the discovered other user device via a first UPnP command; establishing means for generating an encryption key shared with the other user device in response to a second UPnP command addressed to the control URL from the other user device, and for establishing a session, which is secured using the encryption key, with the other user device; and sending means for sending the IMS subscription information to the other user device via the session in response to a third UPnP command addressed to the control URL from the other user device.
User Equipment, UE, configured to: receive information indicating at least one resilience parameter of an application from a RAN entity, wherein the at least one resilience parameter is based on a tolerance of the application to consecutive transmission failures of application data, set up a survival time counter for the application based on the information or the at least one resilience parameter, wherein the UE is further configured to, if a transmission failure occurs in a semi-persistently scheduled, SPS, transmission of application data to or from the UE: report Channel State Information, CSI, to the RAN entity, report the CSI based on the state of the survival time counter, and receive control information, wherein the control information comprises a dynamic resource allocation to override or extend a configured resource allocation for a subsequent SPS transmission of application data to or from the UE, wherein the dynamic resource allocation provides a higher redundancy for the subsequent transmission than the configured resource allocation. receive information indicating at least one resilience parameter of an application from a RAN entity, wherein the at least one resilience parameter is based on a tolerance of the application to consecutive transmission failures of application data, set up a survival time counter for the application based on the information or the at least one resilience parameter, wherein the UE is further configured to, if a transmission failure occurs in a semi-persistently scheduled, SPS, transmission of application data to or from the UE: report Channel State Information, CSI, to the RAN entity, report the CSI based on the state of the survival time counter, and receive control information, wherein the control information comprises a dynamic resource allocation to override or extend a configured resource allocation for a subsequent SPS transmission of application data to or from the UE, wherein the dynamic resource allocation provides a higher redundancy for the subsequent transmission than the configured resource allocation. report Channel State Information, CSI, to the RAN entity, report the CSI based on the state of the survival time counter, and receive control information, wherein the control information comprises a dynamic resource allocation to override or extend a configured resource allocation for a subsequent SPS transmission of application data to or from the UE, wherein the dynamic resource allocation provides a higher redundancy for the subsequent transmission than the configured resource allocation.
An image analyzation method carried out by an image analyzation device, comprising: obtaining a first image which is an X-ray image, wherein at least a first object and a second object are presented in the first image; characterized by analyzing the first image to detect a first central point between a first endpoint of the first object and a second endpoint of the second object; determining a target region in the first image based on the first central point as a center of the target region; capturing a second image located in the target region from the first image; and analyzing the second image to generate status information, wherein the status information reflects a gap status between the first object and the second object. obtaining a first image which is an X-ray image, wherein at least a first object and a second object are presented in the first image; characterized by analyzing the first image to detect a first central point between a first endpoint of the first object and a second endpoint of the second object; determining a target region in the first image based on the first central point as a center of the target region; capturing a second image located in the target region from the first image; and analyzing the second image to generate status information, wherein the status information reflects a gap status between the first object and the second object.
A temperature measurement probe for use in a magnetic resonance, MR, environment comprising: an elongated substrate; a plurality of electrically conductive, high resistance traces (200, 200a, 200b, 200a', 200b') printed on the substrate; at least one thermistor disposed on the substrate and electrically connected with at least a first one of the traces, the thermistor configured to be placed in thermal communication with a patient in the magnetic resonance environment and to provide a temperature signal indicative of an MR induced noise in the magnetic resonance environment as well as of temperature of the patient; characterized in that the temperature measurement probe further comprises at least one reference element, being a resistor or thermistor, connected with at least a second one of the traces, said at least second one of the traces being different from the at least first one of the traces, wherein the reference element is thermally isolated from the patient or is selected to have a stable resistance across a temperature range of interest, wherein said reference element is further configured to provide a common mode signal indicative of the MR induced noise in the magnetic resonance environment; and a processor and control circuit electrically connected with the plurality of traces, the processor and control circuit comprising a filter configured to provide a corrected temperature signal by subtracting the common mode signal from the temperature signal. an elongated substrate; a plurality of electrically conductive, high resistance traces (200, 200a, 200b, 200a', 200b') printed on the substrate; at least one thermistor disposed on the substrate and electrically connected with at least a first one of the traces, the thermistor configured to be placed in thermal communication with a patient in the magnetic resonance environment and to provide a temperature signal indicative of an MR induced noise in the magnetic resonance environment as well as of temperature of the patient; at least one reference element, being a resistor or thermistor, connected with at least a second one of the traces, said at least second one of the traces being different from the at least first one of the traces, wherein the reference element is thermally isolated from the patient or is selected to have a stable resistance across a temperature range of interest, wherein said reference element is further configured to provide a common mode signal indicative of the MR induced noise in the magnetic resonance environment; and a processor and control circuit electrically connected with the plurality of traces, the processor and control circuit comprising a filter configured to provide a corrected temperature signal by subtracting the common mode signal from the temperature signal.
A luminaire comprising: a light source operable to emit a beam of light; and a radio module operable to emit a radio beam comprising a radio signal, using a frequency band within a range of 30GHz to 300GHz; wherein the light source and radio module are operable to emit the light beam and radio beam so as to be substantially coincident in space; and wherein the light source is configured to use the light beam to provide visual or embedded information about the radio module, the radio beam and/or the radio signal. a light source operable to emit a beam of light; and a radio module operable to emit a radio beam comprising a radio signal, using a frequency band within a range of 30GHz to 300GHz; wherein the light source and radio module are operable to emit the light beam and radio beam so as to be substantially coincident in space; and wherein the light source is configured to use the light beam to provide visual or embedded information about the radio module, the radio beam and/or the radio signal.
A fiber-reinforced thermoplastic resin filament of continuous reinforcing fiber impregnated with a thermoplastic resin, having (a) a volume content of the reinforcing fiber of 30 to 80 vol% and a volume content of the thermoplastic resin filament of 70 to 20 vol%, (b) a thickness of 0.01 to 3mm, and (c) a filament length of 1m or more, wherein the reinforcing fiber has 90% or more of an average value D of a dispersion parameter d calculated by a series of steps (i) to (iv): (i) taking an image of a cross section of the fiber-reinforced thermoplastic resin filament perpendicular to an orientation direction; (ii) dividing the image of the cross section into square units having a side length t within a range of Formula; (iii) calculating the dispersion parameter d by Formula; (iv) calculating the average value D of the dispersion parameter d by repeating a plurality of sets of the steps (i) to (iii), 1.5 a ≤ t ≤ 2.5a, where: a: fiber diameter; and t: side length of unit, Dispersion parameter d = 100×(the number of units including reinforcing fibers within range)/(the number of all units). (a) a volume content of the reinforcing fiber of 30 to 80 vol% and a volume content of the thermoplastic resin filament of 70 to 20 vol%, (b) a thickness of 0.01 to 3mm, and (c) a filament length of 1m or more, wherein the reinforcing fiber has 90% or more of an average value D of a dispersion parameter d calculated by a series of steps (i) to (iv): (i) taking an image of a cross section of the fiber-reinforced thermoplastic resin filament perpendicular to an orientation direction; (ii) dividing the image of the cross section into square units having a side length t within a range of Formula; (iii) calculating the dispersion parameter d by Formula; (iv) calculating the average value D of the dispersion parameter d by repeating a plurality of sets of the steps (i) to (iii), 1.5 a ≤ t ≤ 2.5a, where: a: fiber diameter; and t: side length of unit, Dispersion parameter d = 100×(the number of units including reinforcing fibers within range)/(the number of all units). (i) taking an image of a cross section of the fiber-reinforced thermoplastic resin filament perpendicular to an orientation direction; (ii) dividing the image of the cross section into square units having a side length t within a range of Formula; (iii) calculating the dispersion parameter d by Formula; (iv) calculating the average value D of the dispersion parameter d by repeating a plurality of sets of the steps (i) to (iii), 1.5 a ≤ t ≤ 2.5a, where: a: fiber diameter; and t: side length of unit, Dispersion parameter d = 100×(the number of units including reinforcing fibers within range)/(the number of all units). a: fiber diameter; and t: side length of unit,
An injection molding machine comprising: an operation unit; and a controller, characterized in that the operation unit has a plurality of operation buttons, and the controller has a specific information providing section which provides an operator with specific information that is displayed onto a projected portion for specifying the operation button to be pressed by the operator so that the operator recognizes whether the operation button to be pressed is a desired operation button or a button other than the desired operation button even without visually checking the operation button on the operation unit. an operation unit; and a controller, characterized in that the operation unit has a plurality of operation buttons, and the controller has a specific information providing section which provides an operator with specific information that is displayed onto a projected portion for specifying the operation button to be pressed by the operator so that the operator recognizes whether the operation button to be pressed is a desired operation button or a button other than the desired operation button even without visually checking the operation button on the operation unit.
A surveying instrument comprising: a chassis; an optical system having an optical axis, the optical system being adapted to receive and/or transmit light; an optical component located at, or in proximity to, said optical axis, the received and/or transmitted light passing through said optical component; and a stage attached to said chassis, the stage including an actuating member arranged to act on the optical component for movement thereof; said actuating member being responsive to temperature so as to induce a displacement of the optical component relative to the chassis along the optical axis in response to a temperature change; wherein actuation by the actuating member is caused by a mechanical deformation of the actuating member in response to said temperature change, thereby causing the displacement of said optical component; characterised in that the stage further comprises a movable part, the optical component being attached to the movable part and the actuating member being arranged to act on the movable part for movement thereof; and the stage includes a base with a flexible section securely attached to the base the movable part being an arm arranged to swing on said flexible section upon actuation by said actuating member. a chassis; an optical system having an optical axis, the optical system being adapted to receive and/or transmit light; an optical component located at, or in proximity to, said optical axis, the received and/or transmitted light passing through said optical component; and a stage attached to said chassis, the stage including an actuating member arranged to act on the optical component for movement thereof; said actuating member being responsive to temperature so as to induce a displacement of the optical component relative to the chassis along the optical axis in response to a temperature change; wherein actuation by the actuating member is caused by a mechanical deformation of the actuating member in response to said temperature change, thereby causing the displacement of said optical component; characterised in that the stage further comprises a movable part, the optical component being attached to the movable part and the actuating member being arranged to act on the movable part for movement thereof; and the stage includes a base with a flexible section securely attached to the base the movable part being an arm arranged to swing on said flexible section upon actuation by said actuating member.
An electrical contactor comprising: a first terminal having a fixed member with at least one fixed electrical contact; a second terminal; a busbar in electrical communication with the second terminal; characterised by least two electrically-conductive movable arms (58, 60) connected to the busbar and having a movable electrical contact thereon; whereby a biased-closed said movable arm being preformed and preloaded to be biased towards said at least one fixed electrical contact in the absence of a separating force; a biased-open said movable arm being preformed and preloaded to be biased away from the said at least one fixed electrical contact in the absence of a closing force; and the biased-closed and biased-open movable arms (58, 60) and the busbar being arranged so that, when the contacts close, contra-flowing current urges the movable arms (58, 60) towards the fixed member to increase a force between the contacts (32, 50). a first terminal having a fixed member with at least one fixed electrical contact; a second terminal; a busbar in electrical communication with the second terminal; least two electrically-conductive movable arms (58, 60) connected to the busbar and having a movable electrical contact thereon; whereby a biased-closed said movable arm being preformed and preloaded to be biased towards said at least one fixed electrical contact in the absence of a separating force; a biased-open said movable arm being preformed and preloaded to be biased away from the said at least one fixed electrical contact in the absence of a closing force; and the biased-closed and biased-open movable arms (58, 60) and the busbar being arranged so that, when the contacts close, contra-flowing current urges the movable arms (58, 60) towards the fixed member to increase a force between the contacts (32, 50).
A resin composition comprising: an ethylene-vinyl alcohol copolymer; a styrene thermoplastic elastomer; and a sorbic acid ester; wherein the sorbic acid ester is present in an amount of 0.00001 to 10 ppm based on a weight of the resin composition. an ethylene-vinyl alcohol copolymer; a styrene thermoplastic elastomer; and a sorbic acid ester;
A motor control system comprising: a motor control apparatus including a plurality of motor control units configured to respectively control motors; and a plurality of position detectors connected in series under a control of the motor control apparatus and configured to detect position information of the respective motors, wherein the motor control apparatus is configured: to automatically acquire each identification information of the plurality of position detectors, to store the acquired identification information in association with the plurality of motor control units in a non-volatile memory. a motor control apparatus including a plurality of motor control units configured to respectively control motors; and a plurality of position detectors connected in series under a control of the motor control apparatus and configured to detect position information of the respective motors, wherein the motor control apparatus is configured: to automatically acquire each identification information of the plurality of position detectors, to store the acquired identification information in association with the plurality of motor control units in a non-volatile memory. to automatically acquire each identification information of the plurality of position detectors, to store the acquired identification information in association with the plurality of motor control units in a non-volatile memory.
Child's seat assembly comprising two seats (1 and 2) of different dimensions, each showing two sides, a back and a headrest, the smaller one apt to be fitting first on top of the larger one which has straps (3, 4 and 5) for securing the child, these straps (3, 4 and 5) are used in the smaller seat when it is fitted onto the larger seat, then, when the child has grown, it will be seated on the larger seat after removing the smaller one, the two seats (1 and 2) consisting of single moulded pieces entirely made of spongy and rigid material, absorbing pressure and impact in collisions, characterised in that the smaller seat has two openings (7, 8) laterally on the sides of the back and the headrest, between the back and the headrest and one opening on the lower edge, each opening being formed on the edge of the smaller seat as an open recess for the passage of the straps (3, 4 and 5) fitted to the larger seat and in this larger seat, the headrest is fitted independently, being adjustable in height to adapt to the size of the child when it grows.
A robotic medical system, comprising: a medical instrument comprising an instrument base and an elongated shaft configured for insertion into a patient; a first robotic arm, wherein the instrument base of the medical instrument is attached to the first robotic arm and the first robotic arm is articulable to move the instrument base; a second robotic arm; a drive device attached to the second robotic arm and distal relative to the instrument base, wherein the drive device is engaged with and configured to drive axial motion of the elongated shaft of the medical instrument; characterized in that the robot medical system further comprises a processor configured to, during a first period of axial motion: drive axial motion of the elongated shaft of the medical instrument with the drive device at a first axial motion rate that is greater than a movement rate of the first robotic arm. a medical instrument comprising an instrument base and an elongated shaft configured for insertion into a patient; a first robotic arm, wherein the instrument base of the medical instrument is attached to the first robotic arm and the first robotic arm is articulable to move the instrument base; a second robotic arm; a drive device attached to the second robotic arm and distal relative to the instrument base, wherein the drive device is engaged with and configured to drive axial motion of the elongated shaft of the medical instrument; characterized in that the robot medical system further comprises a processor configured to, during a first period of axial motion: drive axial motion of the elongated shaft of the medical instrument with the drive device at a first axial motion rate that is greater than a movement rate of the first robotic arm.