mhurhangee/ep-ind-claims huggingface dataset:
A medical balloon having a body section, a first tapered section and a second tapered section, waist sections, and a longitudinal axis, said balloon having a static state, a deflated state and an inflated state, the balloon configured and formed such that in the static state, at least the body section of said balloon having a plurality of concave side regions extending between the first tapered section and the second tapered section, each concave side region curving toward the longitudinal axis of the balloon, the balloon comprising a plurality of atherotomes, each atherotome located centrally in each concave side region, the body section having a circumference which when viewed in radial cross-section, has at least one layer extending around the entire circumference and each said layer is formed from a substantially homogeneous polymer material, and in the expanded state the body section of said balloon is circular in cross-section; wherein the static state is the state of said balloon as formed.
Method of performing acoustic scanning probe microscopy for imaging of one or more embedded structures in a substrate underneath a substrate surface, the method comprising the steps of: applying, using a signal application actuator (12, 18, 38), an acoustic input signal (22, 23) to the substrate, wherein the acoustic input signal (22, 23) has a frequency above 1 gigahertz; detecting, using a probe of a scanning probe microscope, an acoustic return signal from the substrate; and analyzing the return signal for obtaining information on the embedded structures, for enabling imaging thereof; wherein the step of applying the acoustic input signal (22, 23) comprises applying a plurality of acoustic signal components (32a, 32b), wherein each acoustic signal component (32a, 32b) includes a selected frequency above 1 gigahertz, and wherein the step of detecting includes detecting, for each of the plurality of acoustic signal components (32a, 32b) a response signal associated with the respective acoustic signal component (32a, 32b); wherein the frequencies of the acoustic signal components (32a, 32b) are selected such that together the plurality of acoustic signal components (32a, 32b) provide a composite signal, wherein the composite signal is a pulse signal of limited time duration. applying, using a signal application actuator (12, 18, 38), an acoustic input signal (22, 23) to the substrate, wherein the acoustic input signal (22, 23) has a frequency above 1 gigahertz; detecting, using a probe of a scanning probe microscope, an acoustic return signal from the substrate; and analyzing the return signal for obtaining information on the embedded structures, for enabling imaging thereof; wherein the step of applying the acoustic input signal (22, 23) comprises applying a plurality of acoustic signal components (32a, 32b), wherein each acoustic signal component (32a, 32b) includes a selected frequency above 1 gigahertz, and wherein the step of detecting includes detecting, for each of the plurality of acoustic signal components (32a, 32b) a response signal associated with the respective acoustic signal component (32a, 32b); wherein the frequencies of the acoustic signal components (32a, 32b) are selected such that together the plurality of acoustic signal components (32a, 32b) provide a composite signal, wherein the composite signal is a pulse signal of limited time duration.
A projection apparatus capable of projecting an image with a user interface screen superimposed thereon, the projection apparatus comprising: detection means configured to detect a tilt value associated with a configuration of the projection apparatus; calculation means configured to calculate a parameter for correcting the image to be projected based on the tilt value detected by the detection means; determination means configured to determine a size of the user interface screen based on the parameter such that the determined size of the user interface screen is larger than a size of the user interface screen determined when the image to be projected is not corrected; and generation means configured to generate the image to be projected by performing image correction processing on the user interface screen whose size is determined by the determination means. detection means configured to detect a tilt value associated with a configuration of the projection apparatus; calculation means configured to calculate a parameter for correcting the image to be projected based on the tilt value detected by the detection means; determination means configured to determine a size of the user interface screen based on the parameter such that the determined size of the user interface screen is larger than a size of the user interface screen determined when the image to be projected is not corrected; and generation means configured to generate the image to be projected by performing image correction processing on the user interface screen whose size is determined by the determination means.
An elevator sheave assembly, comprising a plurality of polymer rings (40, 50, 60, 80, 90, 100, 100A, 100B) that are secured together, the plurality of polymer rings (40, 50, 60, 80, 90, 100, 100A, 100B) including at least two polymer rings (40, 50) that each have an outer circumferential surface (42, 52) that defines a portion of a belt guiding surface adjacent a flange at a longitudinal end of the sheave assembly, the at least two polymer rings (40, 50) each including a bearing supported inside the ring; wherein the at least two polymer rings are a first polymer end ring and a second polymer end ring; the first polymer end ring is at a first longitudinal end of the sheave assembly; the outer circumferential surface of the first polymer end ring has a first profile that defines a first portion of a first belt-guiding surface; the second polymer end ring is at a second longitudinal end of the sheave assembly; the outer circumferential surface of the second polymer end ring has a second profile that defines a first portion of a second belt-guiding surface; the plurality of polymer rings (40, 50, 60, 80, 90) includes at least one polymer intermediate ring (60, 80, 90, 100, 100A, 100B) situated between and connected to the first and second polymer end rings; and charactenzed in that the at least one polymer intermediate ring (60, 80, 90, 100, 100A, 100B) includes an outer circumferential surface having a profile that defines a second portion of the first belt-guiding surface and a second portion of the second belt-guiding surface. the at least two polymer rings are a first polymer end ring and a second polymer end ring; the first polymer end ring is at a first longitudinal end of the sheave assembly; the outer circumferential surface of the first polymer end ring has a first profile that defines a first portion of a first belt-guiding surface; the second polymer end ring is at a second longitudinal end of the sheave assembly; the outer circumferential surface of the second polymer end ring has a second profile that defines a first portion of a second belt-guiding surface; the plurality of polymer rings (40, 50, 60, 80, 90) includes at least one polymer intermediate ring (60, 80, 90, 100, 100A, 100B) situated between and connected to the first and second polymer end rings; and charactenzed in that the at least one polymer intermediate ring (60, 80, 90, 100, 100A, 100B) includes an outer circumferential surface having a profile that defines a second portion of the first belt-guiding surface and a second portion of the second belt-guiding surface.
A production method of a rubber composition for tire comprising a rubber component comprising at least one selected from the group consisting of a natural rubber and a synthetic diene rubber, silica, carbon black, a coupling agent represented by the following chemical formula, a coupling agent having a sulfide group, and a vulcanizing agent comprising a vulcanizer and a vulcanization accelerator, wherein the coupling agent having a sulfide group is bis(3-triethoxysilylpropyl)tetrasulfide, bis(2-triethoxysilylethyl)tetrasulfide, bis(3-trimethoxysilylpropyl)tetrasulfide, bis(2-trimethoxysilylethyl)tetrasulfide, bis(3-triethoxysilylpropyl)trisulfide, bis(3-trimethoxysilylpropyl)trisulfide, bis(3-triethoxysilylpropyl)disulfide, bis(3-trimethoxysilylpropyl)disulfide, 3-trimethoxysilylpropyl-N,N-dimethylthiocarbamoyl tetrasulfide, 3-triethoxysilylpropyl-N,N-dimethylthiocarbamoyl tetrasulfide, 2-triethoxysilylethyl-N,N-dimethylthiocarbamoyl tetrasulfide, 2-trimethoxysilylethyl-N,N-dimethylthiocarbamoyl tetrasulfide, 3-trimethoxysilylpropylbenzothiazolyl tetrasulfide, 3-triethoxysilylpropylbenzothiazole tetrasulfide, 3-triethoxysilylpropyl methacrylate monosulfide, or 3-trimethoxysilylpropyl methacrylate monosulfide, the method comprising: (step X1) a step X1 of kneading all amount of A, a part of B, D1 and optionally a part of E, (step X2) a step X2 of kneading the kneaded product of step X1, and the remaining amount of B and D2 and optionally a part of E, and (step F) a step F of kneading the kneaded product of step X2 and the remaining amount of E, and the Chemical formula (1 is (C p H 2p+1 O) 3 -Si-(CH 2) q -S-CO-C k H 2k+1 and in the chemical formula, p represents an integer of 1 to 3, q represents an integer of 1 to 5, and k represents an integer of 5 to 12. (step X1) a step X1 of kneading all amount of A, a part of B, D1 and optionally a part of E, (step X2) a step X2 of kneading the kneaded product of step X1, and the remaining amount of B and D2 and optionally a part of E, and (step F) a step F of kneading the kneaded product of step X2 and the remaining amount of E, and the Chemical formula (1 is (C p H 2p+1 O) 3 -Si-(CH 2) q -S-CO-C k H 2k+1 and in the chemical formula, p represents an integer of 1 to 3, q represents an integer of 1 to 5, and k represents an integer of 5 to 12.
A method, carried out by a user equipment UE, for determining a Reference Signal Time Difference, RSTD, measurement interval for a plurality of cells at the user equipment in a wireless communication system, comprising: acquiring a message including Observed Time Difference Of Arrival, OTDOA, related data in a higher layer, wherein the OTDOA related data includes cell identifiers of the plurality of cells and Positioning Reference Signal, PRS, configuration information of the plurality of cells; delivering the OTDOA related data to a physical layer from the higher layer; and determining the RSTD measurement interval for the plurality of cells by the following Equation by using a plurality of cell-specific PRS transmission periods T PRS associated with the plurality of cells obtained using the PRS configuration information of the plurality of cells: T RSTD = T PRS largest × M − 1 + Δ where T RSTD denotes the length of the RSTD measurement interval, T PRS denotes the largest value of the plurality of cell-specific PRS transmission periods T PRS, M denotes the number of PRS positioning occasions in the RSTD measurement interval, and Δ denotes a measurement time for one PRS positioning occasion associated with the largest value T PRS largest reporting RSTD measurements for the plurality of cells using the determined T RSTD to an Enhanced-Serving Mobile Location Center. acquiring a message including Observed Time Difference Of Arrival, OTDOA, related data in a higher layer, wherein the OTDOA related data includes cell identifiers of the plurality of cells and Positioning Reference Signal, PRS, configuration information of the plurality of cells; delivering the OTDOA related data to a physical layer from the higher layer; and determining the RSTD measurement interval for the plurality of cells by the following Equation by using a plurality of cell-specific PRS transmission periods T PRS associated with the plurality of cells obtained using the PRS configuration information of the plurality of cells: T RSTD = T PRS largest × M − 1 + Δ where T RSTD denotes the length of the RSTD measurement interval, T PRS denotes the largest value of the plurality of cell-specific PRS transmission periods T PRS, M denotes the number of PRS positioning occasions in the RSTD measurement interval, and Δ denotes a measurement time for one PRS positioning occasion associated with the largest value T PRS largest reporting RSTD measurements for the plurality of cells using the determined T RSTD to an Enhanced-Serving Mobile Location Center.
Apparatus for contactlessly measuring the weight of a part that is movable in translation along a vertical axis Z, said movable part comprising a permanent magnet APM that is magnetized along said axis Z and means for magnetically levitating said movable part, said levitation means being associated with means for measuring the force exerted between said movable part and said levitation means, characterized in that said levitation means is a permanent magnet APF that is magnetized along said axis Z, opposite to the magnetization of said movable permanent magnet APM, said magnets APM and APF being aligned along said vertical axis Z by means of a nonmagnetic guide that passes through said movable part, said apparatus further including means for applying a vibration displacement of said movable permanent magnet APM with respect to said guide. characterized in that said levitation means is a permanent magnet APF that is magnetized along said axis Z, opposite to the magnetization of said movable permanent magnet APM, said magnets APM and APF being aligned along said vertical axis Z by means of a nonmagnetic guide that passes through said movable part, said apparatus further including means for applying a vibration displacement of said movable permanent magnet APM with respect to said guide.
Plug-in coupling for pressure-medium lines, consisting of two coupling parts (102, 104), a housing part and a plug part, wherein the plug part is able to be plugged in a sealed manner into a receiving opening in the housing part by way of a plug shank and is lockable against detachment via a locking device of the plug-in coupling, wherein the locking device is configured such that a partially plugged-in prelatching position and a fully plugged-in full-latching position are ensured, wherein, in the prelatching position, there is incomplete sealing, allowing a leakage of the pressure medium, of the plug shank in the receiving opening, whereas, in the full-latching position, there is complete sealing, wherein the locking device consists on the one hand of a radial groove-like prelatching recess, bounded by a retaining flank and a transition flank, and of a full-latching step, arranged downstream of the transition flank in the plug-in direction, of the one coupling part (102; 104) and on the other hand of a radially resilient latching element of the other coupling part (104; 102), such that when the plug shank is plugged into the receiving opening, the latching element first of all engages radially in the prelatching recess in the prelatching position by radial movement and in the process engages behind the retaining flank, and with continued plugging in, is displaced radially out of the prelatching recess via the transition flank and is guided into the full-latching position engaging radially behind the full-latching step, characterized in that, at least in the engagement region of the latching element, the full-latching step is offset with respect to the retaining flank of the prelatching recess by a radial offset such that, during the plugging-in movement, in the event of transfer between the pre- and full-latching positions, a radial overlap is ensured between the latching element and the retaining flank of the prelatching recess.
A method for constructing a hepatitis virus infection model capable of recapitulating a viral life cycle, by infecting a liver bud with hepatitis virus, wherein said liver bud is formed by co-culturing liver cells derived from human iPSC with human vascular endothelial cells and human mesenchymal cells.
A method for enrolling a user of an electronic device (100;500) comprising: a biometry sensor for acquiring sensing signals representative of a biometric feature; a processor for computing an enrolment representation based on said sensing signals; a secure module (305; 508) isolated from said processor for computing an encrypted representation of said enrolment representation, wherein said method comprises: - acquiring sensing signals representative of a candidate's biometric feature; - based on said sensing signals, determining (S604; S304) an enrolment representation by said processor; - determining (S606; S308), by said secure module, an encrypted representation of said enrolment representation; - storing (S610; S308), in said secure module, said encrypted representation; - when said encrypted representation has been established, providing (S612; S312) a success signal indicative of successful encryption to said processor, - in response to receiving the success signal, storing (S614; S314), by the processor, the enrolment representation that is accessible for subsequent verification. a biometry sensor for acquiring sensing signals representative of a biometric feature; a processor for computing an enrolment representation based on said sensing signals; a secure module (305; 508) isolated from said processor for computing an encrypted representation of said enrolment representation, wherein said method comprises: - acquiring sensing signals representative of a candidate's biometric feature; - based on said sensing signals, determining (S604; S304) an enrolment representation by said processor; - determining (S606; S308), by said secure module, an encrypted representation of said enrolment representation; - storing (S610; S308), in said secure module, said encrypted representation; - when said encrypted representation has been established, providing (S612; S312) a success signal indicative of successful encryption to said processor, - in response to receiving the success signal, storing (S614; S314), by the processor, the enrolment representation that is accessible for subsequent verification. - acquiring sensing signals representative of a candidate's biometric feature; - based on said sensing signals, determining (S604; S304) an enrolment representation by said processor; - determining (S606; S308), by said secure module, an encrypted representation of said enrolment representation; - storing (S610; S308), in said secure module, said encrypted representation; - when said encrypted representation has been established, providing (S612; S312) a success signal indicative of successful encryption to said processor, - in response to receiving the success signal, storing (S614; S314), by the processor, the enrolment representation that is accessible for subsequent verification.
A comfort item comprising: - a first volume delimited by an outer boundary, where the first volume comprises - a plurality of foam pieces; wherein the foam pieces comprise - a body part; - a plurality of foam arms comprising at least three arms extending away from the body part in different directions, and the foam arms having a first end and a second end, where said first end is attached to said body part and said second end protrudes away from said body part; and - a plurality of contour recesses between said foam arms, - wherein the width of said foam arms is wider that the length of said foam arms characterized in that said foam arms have a stump shape and are either rectangular tongue-shaped or trapezoid-shaped, wherein the foam piece with the rectangular shape foam arms has wide v-shaped recesses. - a first volume delimited by an outer boundary, where the first volume comprises - a plurality of foam pieces; - a body part; - a plurality of foam arms comprising at least three arms extending away from the body part in different directions, and the foam arms having a first end and a second end, where said first end is attached to said body part and said second end protrudes away from said body part; and - a plurality of contour recesses between said foam arms, - wherein the width of said foam arms is wider that the length of said foam arms characterized in that said foam arms have a stump shape and are either rectangular tongue-shaped or trapezoid-shaped, wherein the foam piece with the rectangular shape foam arms has wide v-shaped recesses.
An apparatus comprising: a metal housing comprising a rectangular slot; a printed circuit board comprising a dielectric material; and two electrodes (240, 360) integral to the printed circuit board; wherein a portion of the printed circuit board comprising the dielectric material extends into the rectangular slot in the metal housing such that the electrodes (240, 360) are capacitively coupled with locations on opposite edges of the long dimension of the rectangular slot forming a dielectric slot antenna via the dielectric material and the rectangular slot in the metal housing. a metal housing comprising a rectangular slot; a printed circuit board comprising a dielectric material; and two electrodes (240, 360) integral to the printed circuit board; wherein a portion of the printed circuit board comprising the dielectric material extends into the rectangular slot in the metal housing such that the electrodes (240, 360) are capacitively coupled with locations on opposite edges of the long dimension of the rectangular slot forming a dielectric slot antenna via the dielectric material and the rectangular slot in the metal housing.