mhurhangee/ep-ind-claims huggingface dataset:
A bottomed tubular bottle comprising: an annular groove which is formed so as to be circumferentially and radially recessed inward along the outer peripheral surface of a body of the bottle with the bottle axis as a center and which contracts and deforms the body in the axial direction of the bottle axis when the internal pressure is reduced, wherein the annular groove is formed in the shape of the letter V by two facing wall surfaces (20a, 20b), a protrusion is formed on at least one wall surface of the wall surfaces, and characterised in that when the wall surface on which the protusion is formed is seen in plane view, the protusion is formed in the shape of a triangle, one side of which overlaps a vally line of the annular groove, and the triangle has a ridgeline which extends toward the outer peripherical surface of the body while being orthogonal to the circumferential direction of the wall surface. an annular groove which is formed so as to be circumferentially and radially recessed inward along the outer peripheral surface of a body of the bottle with the bottle axis as a center and which contracts and deforms the body in the axial direction of the bottle axis when the internal pressure is reduced, wherein the annular groove is formed in the shape of the letter V by two facing wall surfaces (20a, 20b), a protrusion is formed on at least one wall surface of the wall surfaces, and characterised in that when the wall surface on which the protusion is formed is seen in plane view, the protusion is formed in the shape of a triangle, one side of which overlaps a vally line of the annular groove, and the triangle has a ridgeline which extends toward the outer peripherical surface of the body while being orthogonal to the circumferential direction of the wall surface.
A drawer set comprising the following three different second furniture parts: - a first drawer wall including a first fastening device for fixing a front panel, and at least one second fastening device for fixing the front panel, - a second drawer wall having a lower height than the first drawer wall, the second drawer wall including a first fastening device for fixing a front panel, and including a drawer railing configured to be fixed to the front panel, the drawer railing being arranged above the second drawer wall in a mounted condition and including a second fastening device for fixing the front panel, - a third drawer wall having a lower height than the first drawer wall, wherein a wall element is set onto the third drawer wall, the third drawer wall including a first fastening device for fixing a front panel, and wherein the wall element includes a second fastening device for fixing to the front panel, and with a connecting pin, the connecting pin being configured to be fixed to the front panel and including at least one holding portion, wherein the same holding portion of the connecting pin can be alternatively connected to the second fastening device of at least two of the three different second furniture parts. - a first drawer wall including a first fastening device for fixing a front panel, and at least one second fastening device for fixing the front panel, - a second drawer wall having a lower height than the first drawer wall, the second drawer wall including a first fastening device for fixing a front panel, and including a drawer railing configured to be fixed to the front panel, the drawer railing being arranged above the second drawer wall in a mounted condition and including a second fastening device for fixing the front panel, - a third drawer wall having a lower height than the first drawer wall, wherein a wall element is set onto the third drawer wall, the third drawer wall including a first fastening device for fixing a front panel, and wherein the wall element includes a second fastening device for fixing to the front panel, and with a connecting pin, the connecting pin being configured to be fixed to the front panel and including at least one holding portion, wherein the same holding portion of the connecting pin can be alternatively connected to the second fastening device of at least two of the three different second furniture parts.
A medical instrument system, comprising: an optical fiber, the optical fiber including one or more Bragg gratings; an elongate catheter body comprising a lumen, the optical fiber being disposed in the lumen; a detector operably coupled to a proximal end of the optical fiber and configured to detect respective light signals reflected by the one or more Bragg gratings; and a controller operatively coupled to the detector and configured to determine a geometric configuration of at least a portion of the elongate catheter body based on a spectral analysis of the detected reflected portions of the light signals; characterized in that the optical fiber is coupled in a constrained manner to the elongate catheter body, wherein the system comprises constraints prohibiting axial or longitudinal motion of the optical fiber relative to the lumen at each location of the constraints, and wherein the system comprises further constraints configured to guide the optical fiber and to allow relative longitudinal or axial motion of the optical fiber relative to the lumen at each location of the further constraints. an optical fiber, the optical fiber including one or more Bragg gratings; an elongate catheter body comprising a lumen, the optical fiber being disposed in the lumen; a detector operably coupled to a proximal end of the optical fiber and configured to detect respective light signals reflected by the one or more Bragg gratings; and a controller operatively coupled to the detector and configured to determine a geometric configuration of at least a portion of the elongate catheter body based on a spectral analysis of the detected reflected portions of the light signals; characterized in that the optical fiber is coupled in a constrained manner to the elongate catheter body, wherein the system comprises constraints prohibiting axial or longitudinal motion of the optical fiber relative to the lumen at each location of the constraints, and wherein the system comprises further constraints configured to guide the optical fiber and to allow relative longitudinal or axial motion of the optical fiber relative to the lumen at each location of the further constraints.
Method of protecting the integrity of data comprising the following steps: a) Generating an intended state of data of a web service on a primary, secure computer system; b) Transferring of data through a secure connection to one or more secondary computer systems in a potentially insecure network to provide a web service; c) Checking the integrity of the data in such a way that manipulation of the files and data by an attacker is detected, wherein after a manipulation, the data is placed in quarantine so that it can be analyzed afterwards but no longer executed and thus cannot cause any damage; d) Restoring the intended state of the data at the time before the manipulation. a) Generating an intended state of data of a web service on a primary, secure computer system; b) Transferring of data through a secure connection to one or more secondary computer systems in a potentially insecure network to provide a web service; c) Checking the integrity of the data in such a way that manipulation of the files and data by an attacker is detected, wherein after a manipulation, the data is placed in quarantine so that it can be analyzed afterwards but no longer executed and thus cannot cause any damage; d) Restoring the intended state of the data at the time before the manipulation.
A system for processing manometric measurements carried out by means of an anorectal probe, comprising one or more processing units, characterized in that said processing unit comprises: at least one acquisition module configured for acquiring management parameters of an anorectal manometry by an operator; a basal module configured for processing the manometric measurements acquired during the basal maneuver of the anorectal manometry, according to said management parameters; a squeeze module configured for processing the manometric measurements acquired during the squeeze maneuver according to said management parameters; an endurance module, configured for calculating the time interval between the instant when a maximum pressure value is measured during the squeeze maneuver, and the instant when the pressure measured falls below a squeeze threshold equal to or lower than ninety percent of said maximum value; a strain modulus configured for processing the manometric measurements acquired during the strain maneuver according to said management parameters; and at least one memory module configured for recording functions and/or indexes calculated by said modules (11, 21, 22, 23, 24, 25) upon processing said measurements. at least one acquisition module configured for acquiring management parameters of an anorectal manometry by an operator; a basal module configured for processing the manometric measurements acquired during the basal maneuver of the anorectal manometry, according to said management parameters; a squeeze module configured for processing the manometric measurements acquired during the squeeze maneuver according to said management parameters; an endurance module, configured for calculating the time interval between the instant when a maximum pressure value is measured during the squeeze maneuver, and the instant when the pressure measured falls below a squeeze threshold equal to or lower than ninety percent of said maximum value; a strain modulus configured for processing the manometric measurements acquired during the strain maneuver according to said management parameters; and at least one memory module configured for recording functions and/or indexes calculated by said modules (11, 21, 22, 23, 24, 25) upon processing said measurements.
Microgrid overcurrent protection device (31; 32; 39) to be connected to a microgrid comprising a voltage transformer, a current transformer and a switchgear comprising: a voltage controlled overcurrent detector arranged for detecting an overcurrent above an overcurrent threshold from the current transformer; a phase directional detector arranged for detecting a current direction from the voltage transformer in a downstream direction or an upstream direction; wherein the voltage controlled overcurrent detector is configured to set the overcurrent threshold at an upper overcurrent threshold when a measured voltage Vm is above a threshold voltage Vs and set at a lower overcurrent threshold when the measured voltage Vm is below the threshold voltage Vs; characterized in that the microgrid overcurrent protection device also comprises a timer arranged for generating a trigger signal with a first delay time period when a downstream current direction and an overcurrent are detected and with a second delay time period when an upstream current direction and an overcurrent are detected, wherein the first delay time period is different from the second delay time period and the trigger signal is configured to activate the switchgear of the microgrid. a voltage controlled overcurrent detector arranged for detecting an overcurrent above an overcurrent threshold from the current transformer; a phase directional detector arranged for detecting a current direction from the voltage transformer in a downstream direction or an upstream direction; wherein the voltage controlled overcurrent detector is configured to set the overcurrent threshold at an upper overcurrent threshold when a measured voltage Vm is above a threshold voltage Vs and set at a lower overcurrent threshold when the measured voltage Vm is below the threshold voltage Vs; characterized in that the microgrid overcurrent protection device also comprises a timer arranged for generating a trigger signal with a first delay time period when a downstream current direction and an overcurrent are detected and with a second delay time period when an upstream current direction and an overcurrent are detected, wherein the first delay time period is different from the second delay time period and the trigger signal is configured to activate the switchgear of the microgrid.
An ultrasound imaging system, comprising: a processor circuit (134, 200) configured for communication with an ultrasound probe, the processor circuit configured to: receive, from the ultrasound probe, ultrasound data representative of an ultrasound beam (305, 710, 1210, 1610) imaging an anatomical structure (300, 700, 1005, 1205, 1605); determine, based on the ultrasound data, a measured boundary (430, 740, 1040) of the anatomical structure, wherein the measured boundary includes a plurality of locations; determine a plurality of correction vectors (668, 768) corresponding to the plurality of locations of the measured boundary, wherein a magnitude of a respective correction vector is based on at least one of: a depth of a corresponding location relative to the ultrasound probe; or an orientation of the measured boundary at the corresponding location relative to the ultrasound beam; apply the plurality of correction vectors to the plurality of locations of the measured boundary to determine a corrected boundary (330, 730, 1030); and output, to a display in communication with the processor circuit, an ultrasound image (800, 1000) based on the ultrasound data, wherein the ultrasound image includes the corrected boundary; and being characterized in that the plurality of correction vectors are configured to correct an effect of a point spread function of the ultrasound imaging system. receive, from the ultrasound probe, ultrasound data representative of an ultrasound beam (305, 710, 1210, 1610) imaging an anatomical structure (300, 700, 1005, 1205, 1605); determine, based on the ultrasound data, a measured boundary (430, 740, 1040) of the anatomical structure, wherein the measured boundary includes a plurality of locations; determine a plurality of correction vectors (668, 768) corresponding to the plurality of locations of the measured boundary, wherein a magnitude of a respective correction vector is based on at least one of: a depth of a corresponding location relative to the ultrasound probe; or an orientation of the measured boundary at the corresponding location relative to the ultrasound beam; apply the plurality of correction vectors to the plurality of locations of the measured boundary to determine a corrected boundary (330, 730, 1030); and output, to a display in communication with the processor circuit, an ultrasound image (800, 1000) based on the ultrasound data, wherein the ultrasound image includes the corrected boundary; and a depth of a corresponding location relative to the ultrasound probe; or an orientation of the measured boundary at the corresponding location relative to the ultrasound beam; apply the plurality of correction vectors to the plurality of locations of the measured boundary to determine a corrected boundary (330, 730, 1030); and output, to a display in communication with the processor circuit, an ultrasound image (800, 1000) based on the ultrasound data, wherein the ultrasound image includes the corrected boundary; and
An adhesive stick comprising an adhesive body, a turning handle comprising a spindle, a piston which is engaged with the spindle and is used to push the adhesive body out of a retracted position when the turning handle is turned, the spindle having a pin on a spindle head, which pin extends in the longitudinal axis of the spindle, characterized in that the tip of said pin, when the adhesive stick is first used and the adhesive body is in the retracted position, is at a maximum distance of 15 mm from an upper edge of the adhesive body or projects beyond the upper edge of the adhesive body by a maximum overhang of 1 mm and in that the ratio of a cross-sectional area of the pin to a cross-sectional area of the spindle is less than 20%.
A method performed by one or more computing devices (110, 210, 220, 230, 240), comprising: detecting, by one or more computing devices of a first vehicle, information related to one or more systems of the first vehicle or an environment surrounding the first vehicle using one or more sensors of the first vehicle; determining a local failure at the first vehicle based on the information from the one or more sensors; determining that the first vehicle should pullover before completing a current trip related to transporting one or both of a passenger or good by comparing vehicle requirements for the trip with the local failure; determining a pullover spot by identifying a first area for the first vehicle to park in part based on a second area being available for a second vehicle to pick up the one or both of the passenger or good, wherein the second area is adjacent to the first area, and/or wherein the second area is within a maximum distance of the first area, and/or wherein the second area and the first area are within a geo-fenced area in which the first vehicle is operating; causing the first vehicle to park in the pullover spot; and transmitting a request for a second vehicle based on the pullover spot. detecting, by one or more computing devices of a first vehicle, information related to one or more systems of the first vehicle or an environment surrounding the first vehicle using one or more sensors of the first vehicle; determining a local failure at the first vehicle based on the information from the one or more sensors; determining that the first vehicle should pullover before completing a current trip related to transporting one or both of a passenger or good by comparing vehicle requirements for the trip with the local failure; determining a pullover spot by identifying a first area for the first vehicle to park in part based on a second area being available for a second vehicle to pick up the one or both of the passenger or good, wherein the second area is adjacent to the first area, and/or wherein the second area is within a maximum distance of the first area, and/or wherein the second area and the first area are within a geo-fenced area in which the first vehicle is operating; causing the first vehicle to park in the pullover spot; and transmitting a request for a second vehicle based on the pullover spot.
Switchable cylindrical charge of a warhead, having a tubular holder which comprises two portions (T1, T2) arranged inside one another and relocatable in relation to one another, each of which has a plurality of through-holes whose preferred direction is approximately perpendicular in relation to the inner or outer surface of the holder and which have a width of opening in a range of 3 mm to 10 mm, wherein the holder which is filled with explosive charge is arranged inside a fragmenting sleeve of the warhead, wherein the holder consists of a material damping the detonation front, wherein at least two ignition devices (ZK1, ZK2) are arranged in the charge in the region of the longitudinal axis of the charge, wherein the through-holes are free of explosive charge, and wherein the holder is in form-fitting contact with the inner face of the sleeve.
Multiplate clutch device, in particular wet-running multiplate clutch devices, for a motor vehicle drivetrain for transmitting torque between an output element of a drive unit and a gearbox of the drivetrain, comprising a first multiplate clutch arrangement rotatable about an axis of rotation A, wherein the first multiplate clutch arrangement is assigned an associated first gearbox input shaft with a toothing for transmitting a torque from the first multiplate clutch arrangement to the first gearbox input shaft, wherein the first gearbox input shaft is rotatably mounted by way of a pilot bearing on the output element of the drive unit, wherein the first multiplate clutch arrangement can be actuated by way of an associated first actuation arrangement, and wherein the first multiplate clutch arrangement is connected rotationally conjointly by way of a flange part to the drive unit, wherein the first multiplate clutch arrangement is mounted radially and axially on the first gearbox input shaft by way of a first bearing and a second bearing which are spaced apart from one another axially, characterized in that the first bearing and the second bearing are positioned in an axial direction between the pilot bearing and the toothing of the first gearbox input shaft.
A light configured to be mountable on a hanger of a modular lighting system that includes two parallel rods (640, 642) that are covered with a protective layer, the light comprising: a body having at least one surface supporting a light source; and a first wing and a second wing that are attached to and extend from the body, the first wing including a first cavity that extends along a first axis and at least one first knife that extends transverse to the first axis and into the first cavity and the second wing including a second cavity that extends along a second axis that is different from the first axis and at least one second knife that extends transverse to the second axis and into the second cavity, the first cavity and the second cavity each sized and shaped for selective attachment to a respective one of the rods (640, 642) such that when one of the rods (640, 642) is arranged in the first cavity of the first wing, the at least one first knife is adapted to pierce or cut the protective layer of the one of the rods so as to make electrical contact with a conductor in the one of the rods and when the other one of the rods is arranged in the second cavity of the second wing, the at least one second knife is adapted to pierce or cut the protective layer of the other one of the rods so as to make electrical contact with a conductor in the other one of the rods. a body having at least one surface supporting a light source; and a first wing and a second wing that are attached to and extend from the body, the first wing including a first cavity that extends along a first axis and at least one first knife that extends transverse to the first axis and into the first cavity and the second wing including a second cavity that extends along a second axis that is different from the first axis and at least one second knife that extends transverse to the second axis and into the second cavity, the first cavity and the second cavity each sized and shaped for selective attachment to a respective one of the rods (640, 642) such that when one of the rods (640, 642) is arranged in the first cavity of the first wing, the at least one first knife is adapted to pierce or cut the protective layer of the one of the rods so as to make electrical contact with a conductor in the one of the rods and when the other one of the rods is arranged in the second cavity of the second wing, the at least one second knife is adapted to pierce or cut the protective layer of the other one of the rods so as to make electrical contact with a conductor in the other one of the rods.
A user interface unit (200, 300, 400, 500) for an electronic device, said user interface unit (200, 300, 400, 500) comprising a two-dimensional capacitive sensor structure, wherein the capacitive sensor structure comprises an array of corner sensor elements (202a, 202b, 202c, 202d, 302a, 302b, 302c, 302d) each comprising a capacitor over its area, and wherein the capacitive sensor structure further comprises a central sensor element (202e, 302e) located between the corner sensor elements (202a, 202b, 202c, 202d, 302a, 302b, 302c, 302d) and comprising a capacitor over its area, characterized in that the respective capacitors of neighbouring corner sensor elements (202a, 202b, 202c, 202d, 302a, 302b, 302c, 302d) in each dimension extend towards each other thereby defining at least one intermediate region (304a, 304b, 304c, 304d) therebetween, the area of the or each intermediate region (304a, 304b, 304c, 304d) covered by the respective capacitors being in a respective fixed ratio, and wherein the intermediate regions in both dimensions define a central region therebetween, the area of the central region being covered by the capacitor of the central sensor element (202e, 302e).