mhurhangee/ep-ind-claims huggingface dataset:
A disposable absorbent article (310, 520, 2100) comprising a longitudinal axis (380, 590) and a lateral axis (390, 592) generally perpendicular to the longitudinal axis, a pair of side edges (326, 328, 550) extending generally parallel to the longitudinal axis and a pair of end edges (322, 324, 552) joining said pair of side edges on opposite ends of the disposable absorbent article, the disposable absorbent article further comprising: a topsheet (314, 524, 2014) comprising a web having a length generally parallel to the longitudinal axis and a width generally parallel to the lateral axis, an array of apertures forming apertured indicia and forming a regular or recognizable shape; wherein the distance between the array and other apertures is at least about 1.5 times the Interaperture distance between apertures in the array according to the Inter-Aperture Distance Measurements disclosed herein; characterized in that the array of apertures comprises: a first plurality of apertures which are oriented in a direction generally parallel to the longitudinal axis; a second plurality of apertures which are oriented at a first Absolute Feret Angle relative to the longitudinal axis according to the Absolute Feret Angle Test disclosed herein; and a third plurality of apertures which are oriented at a second Absolute Feret Angle relative to the longitudinal axis according to the Absolute Feret Angle Test disclosed herein, wherein the first Absolute Feret Angle and the second Absolute Feret Angle are different; a backsheet (316, 526); and an absorbent core (318, 528) disposed between the topsheet and the backsheet. characterized in that the array of apertures comprises: a first plurality of apertures which are oriented in a direction generally parallel to the longitudinal axis; a second plurality of apertures which are oriented at a first Absolute Feret Angle relative to the longitudinal axis according to the Absolute Feret Angle Test disclosed herein; and a third plurality of apertures which are oriented at a second Absolute Feret Angle relative to the longitudinal axis according to the Absolute Feret Angle Test disclosed herein, a first plurality of apertures which are oriented in a direction generally parallel to the longitudinal axis; a second plurality of apertures which are oriented at a first Absolute Feret Angle relative to the longitudinal axis according to the Absolute Feret Angle Test disclosed herein; and a third plurality of apertures which are oriented at a second Absolute Feret Angle relative to the longitudinal axis according to the Absolute Feret Angle Test disclosed herein, wherein the first Absolute Feret Angle and the second Absolute Feret Angle are different; a backsheet (316, 526); and an absorbent core (318, 528) disposed between the topsheet and the backsheet. a backsheet (316, 526); and an absorbent core (318, 528) disposed between the topsheet and the backsheet.
A connector for electrically connecting at least one first superconducting conductor to at least one second superconducting conductor, comprising: - an electrically conductive base element with a first end portion on which the at least one first superconducting conductor can be electrically contacted and a second end portion on which the at least one second superconducting conductor can be electrically contacted, wherein the base element has at least one groove; characterized in that the connector has at least one superconducting additional element that is arranged at least in regions in the groove in the base element and extends from the first end portion to the second end portion of the base element, wherein the at least one superconducting additional element is integrated into the connector independently of the conductors (10, 20) to be connected to each other. - an electrically conductive base element with a first end portion on which the at least one first superconducting conductor can be electrically contacted and a second end portion on which the at least one second superconducting conductor can be electrically contacted, wherein the base element has at least one groove; characterized in that the connector has at least one superconducting additional element that is arranged at least in regions in the groove in the base element and extends from the first end portion to the second end portion of the base element, wherein the at least one superconducting additional element is integrated into the connector independently of the conductors (10, 20) to be connected to each other.
A super hydrophobic coating composition comprising: a hydrophobic agent; and a binder or an etching chemical, and a surface additive comprising a silicone modified polyacrylate. a hydrophobic agent; and a binder or an etching chemical, and a surface additive comprising a silicone modified polyacrylate.
A method of converting an input audio signal forming a two-dimensional sound field into an output audio signal forming a three-dimensional sound field by an audio apparatus having first speakers in a two-dimensional plane and second speakers having different altitudes from the first speakers, the first and second speakers forming a three-dimensional stereoscopic space, the method comprising: receiving the input audio signal, wherein the input audio signal includes a plurality of channels for forming a sound field on a two-dimensional plane formed by the first speakers for outputting the plurality of channels; converting each of the plurality of channels of the input audio signal into a frequency domain; estimating a source position of a source included in the input audio signal within the two-dimensional plane by using energy of each of the channels of the input audio signal converted into the frequency domain; determining a localized 3D position having an elevation component of the source position by projecting the source position of the source onto a surface of the three-dimensional stereoscopic space; converting the plurality of channels of the input audio signal into a plurality of channels of the output audio signal based on the localized 3D position, wherein the plurality of channels of the output audio signal includes the plurality of channels of the input audio signal and at least one channel among the plurality of channels of the output audio signal is a channel corresponding to a speaker of the second speakers; and outputting the output audio signal. receiving the input audio signal, wherein the input audio signal includes a plurality of channels for forming a sound field on a two-dimensional plane formed by the first speakers for outputting the plurality of channels; converting each of the plurality of channels of the input audio signal into a frequency domain; estimating a source position of a source included in the input audio signal within the two-dimensional plane by using energy of each of the channels of the input audio signal converted into the frequency domain; determining a localized 3D position having an elevation component of the source position by projecting the source position of the source onto a surface of the three-dimensional stereoscopic space; converting the plurality of channels of the input audio signal into a plurality of channels of the output audio signal based on the localized 3D position, wherein the plurality of channels of the output audio signal includes the plurality of channels of the input audio signal and at least one channel among the plurality of channels of the output audio signal is a channel corresponding to a speaker of the second speakers; and outputting the output audio signal.
A microminiature monocoil driven latching valve, comprising: an armature assembly, a valve body, a magnetic steel, and coils, wherein the armature assembly is arranged in an inner cavity of the valve body, and the armature assembly comprises an armature and a ball, wherein each of the armature and the valve body is of a revolving body structure, the ball is a spherical ball; portions in a circumference direction close to an end surface of each of two ends of the armature are provided with N grooves uniformly distributed along the circumference direction, one ball is arranged in each of the grooves; each of the grooves has a combination shape of a spherical segment of a hollow structure and a cylinder, the spherical segment has a diameter equal to a diameter of the cylinder, and the ball has a diameter less than the diameter of the spherical segment or the cylinder in the groove and greater than a depth of the groove; the ball is made of a non-magnetic material having a hardness HRC>58, wherein N is a positive integer and N≥3; and the magnetic steel is sleeved on a circumferential surface of the valve body to divide the circumferential surface of the valve body into two areas, and two coils are wound in the two areas respectively and are connected in series into one coil. an armature assembly, a valve body, a magnetic steel, and coils, wherein the armature assembly is arranged in an inner cavity of the valve body, and the armature assembly comprises an armature and a ball, wherein each of the armature and the valve body is of a revolving body structure, the ball is a spherical ball; portions in a circumference direction close to an end surface of each of two ends of the armature are provided with N grooves uniformly distributed along the circumference direction, one ball is arranged in each of the grooves; each of the grooves has a combination shape of a spherical segment of a hollow structure and a cylinder, the spherical segment has a diameter equal to a diameter of the cylinder, and the ball has a diameter less than the diameter of the spherical segment or the cylinder in the groove and greater than a depth of the groove; the ball is made of a non-magnetic material having a hardness HRC>58, wherein N is a positive integer and N≥3; and the magnetic steel is sleeved on a circumferential surface of the valve body to divide the circumferential surface of the valve body into two areas, and two coils are wound in the two areas respectively and are connected in series into one coil.
A process for preparation of a mesalamine composition, wherein the mesalamine composition comprises about 55 to about 65 percent by weight of a mesalamine; about 7 to about 9 percent by weight of a sugar spheres; about 17 to about 19 percent by weight of a binder, wherein the binder is hypromellose; about 0.50 to about 0.80 percent by weight of a surfactant, wherein the surfactant is polysorbate 80; about 1 to about 1.5 percent by weight of an anti foaming agent; about 4 to about 5 percent by weight of a release controlling agent, wherein the release controlling agent is ethyl cellulose; about 2 to about 3 percent by weight of a pore forming agent, wherein the pore forming agent is polyvinyl pyrrolidone.; about 0.5 to about 1 percent by weight of a plasticizer, wherein the plasticizer is dibutyl sebacate; about 1.5 to about 3 percent by weight of a lubricant, wherein the lubricant is purified talc; and about 2.5 to about 3 percent by weight of a colorant comprising: preparing a first drug layering suspension comprising mesalamine; performing a first drug layering in a fluid bed coater by applying the first drug layering suspension on sugar spheres to form first drug layered pellets; preparing a seal coating suspension; performing a seal coating in the fluid bed coater by applying the seal coating suspension on the first drug layered pellets to form seal coated pellets; preparing a second drug layering suspension comprising mesalamine; performing a second drug layering in the fluid bed coater by applying the second drug layering suspension on seal coated pellets to form second drug layered pellets; preparing an extended release coating suspension; performing an extended release coating in the fluid bed coater by applying extended release coating suspension on the second drug layered pellets to form extended release pellets; preparing a color coating suspension; performing a color coating in the fluid bed coater by applying the color coating suspension on the extended release pellets to form color coated pellets; and lubricating the color coated pellets. preparing a first drug layering suspension comprising mesalamine; performing a first drug layering in a fluid bed coater by applying the first drug layering suspension on sugar spheres to form first drug layered pellets; preparing a seal coating suspension; performing a seal coating in the fluid bed coater by applying the seal coating suspension on the first drug layered pellets to form seal coated pellets; preparing a second drug layering suspension comprising mesalamine; performing a second drug layering in the fluid bed coater by applying the second drug layering suspension on seal coated pellets to form second drug layered pellets; preparing an extended release coating suspension; performing an extended release coating in the fluid bed coater by applying extended release coating suspension on the second drug layered pellets to form extended release pellets; preparing a color coating suspension; performing a color coating in the fluid bed coater by applying the color coating suspension on the extended release pellets to form color coated pellets; and lubricating the color coated pellets.
Artificial turf structure comprising a backing sheet with an upper surface provided with fibres of a selected length, the fibres extending upwardly from the upper surface and an infill layer of polymer granules disposed between the fibres, characterized in that the polymer granules have a tubular shape having one or more hollow channels, wherein each hollow channel occupies at least 10% of the total volume of a polymer granule, the polymer granules forming a loose infill layer in the artificial turf structure.
A vascular access port (50, 110) for providing subcutaneous access to a patient, the vascular access port comprising a septum (120, 130) and a housing (60, 160), the septum being configured to be repeatedly punctured with a suitable access mechanism, wherein the housing defines an aperture for capturing the septum (120, 130), and the housing (60, 160) and the septum (120, 130) define a reservoir (66, 166), the access port is configured to accommodate a fluid flow rate of at least 1 ml/s, and the access port includes at least one identification attribute comprising a radiographic marker configured to indicate that the access port is configured for accommodating a particular fluid flow rate.
A communication method of a terminal (208, 309, 408) in a mobile communication system, the method comprising: receiving, on a first cell, control information comprising a channel state information, CSI, request; acquiring aperiodic CSI for the first cell based on the control information; acquiring periodic CSI for a second cell; in case that report timing for the periodic CSI and report timing for the aperiodic CSI are overlapped, determining whether the first cell and the second cell correspond to a same cell group; and if the first cell and the second cell correspond to different cell groups, reporting the aperiodic CSI for the first cell in response to the CSI request and reporting the periodic CSI for the second cell. receiving, on a first cell, control information comprising a channel state information, CSI, request; acquiring aperiodic CSI for the first cell based on the control information; acquiring periodic CSI for a second cell; in case that report timing for the periodic CSI and report timing for the aperiodic CSI are overlapped, determining whether the first cell and the second cell correspond to a same cell group; and if the first cell and the second cell correspond to different cell groups, reporting the aperiodic CSI for the first cell in response to the CSI request and reporting the periodic CSI for the second cell.
An electrosurgical instrument for the treatment of tissue, comprising: a shaft; an electrode assembly, comprising: at least one active electrode; at least one return electrode separated from the active electrode via at least one insulator; and an aspiration system for removing material from a surgical site, the aspiration system including at least one conduit formed by a channel extending through the shaft, and at least one aspiration inlet, characterized in that the at least one active electrode includes a support arm extending from an outer surface of the at least one active electrode inwardly toward a longitudinal axis of the channel of the aspiration system whereby the support arm includes a threaded support orifice configured to be threadably attached to threads at a distal end of the channel of the aspiration system. a shaft; an electrode assembly, comprising: at least one active electrode; at least one return electrode separated from the active electrode via at least one insulator; and an aspiration system for removing material from a surgical site, the aspiration system including at least one conduit formed by a channel extending through the shaft, and at least one aspiration inlet, characterized in that the at least one active electrode includes a support arm extending from an outer surface of the at least one active electrode inwardly toward a longitudinal axis of the channel of the aspiration system whereby the support arm includes a threaded support orifice configured to be threadably attached to threads at a distal end of the channel of the aspiration system. at least one active electrode; at least one return electrode separated from the active electrode via at least one insulator; and an aspiration system for removing material from a surgical site, the aspiration system including at least one conduit formed by a channel extending through the shaft, and at least one aspiration inlet, characterized in that the at least one active electrode includes a support arm extending from an outer surface of the at least one active electrode inwardly toward a longitudinal axis of the channel of the aspiration system whereby the support arm includes a threaded support orifice configured to be threadably attached to threads at a distal end of the channel of the aspiration system.
A power supply system comprising: an AC input configured to be coupled to an AC source; an AC output configured to be coupled to a load; a UPS having an input coupled to the AC input and an output coupled to the AC output; wherein the UPS comprises a rectifier having an input coupled to the AC input, an inverter having an output coupled to the AC output, a DC link (112a, 112b) coupling an output of the rectifier to an input of the inverter, and a battery coupled to the DC link (112a, 112b); a bypass circuit coupled between the AC input and the AC output and configured to open and close a bypass path therebetween; and a controller configured to control the UPS and the bypass circuit such that the UPS operates as an online UPS for a first input voltage magnitude condition at the AC input and as a standby UPS for a second input voltage magnitude condition at the AC input, wherein the controller is configured to operate the UPS as an online UPS by transferring power from the AC input to the AC output via the rectifier and the inverter in a first online UPS operation state and transferring power from the battery to the AC output via the inverter in a second online UPS operation state, and wherein the controller is configured to operate the UPS as a standby UPS by transferring power from the AC input to the AC output via the bypass circuit in a first standby UPS operation state and transferring power from the battery to the AC output via the inverter in a second standby UPS operation state. an AC input configured to be coupled to an AC source; an AC output configured to be coupled to a load; a UPS having an input coupled to the AC input and an output coupled to the AC output; wherein the UPS comprises a rectifier having an input coupled to the AC input, an inverter having an output coupled to the AC output, a DC link (112a, 112b) coupling an output of the rectifier to an input of the inverter, and a battery coupled to the DC link (112a, 112b); a bypass circuit coupled between the AC input and the AC output and configured to open and close a bypass path therebetween; and a controller configured to control the UPS and the bypass circuit such that the UPS operates as an online UPS for a first input voltage magnitude condition at the AC input and as a standby UPS for a second input voltage magnitude condition at the AC input, wherein the controller is configured to operate the UPS as an online UPS by transferring power from the AC input to the AC output via the rectifier and the inverter in a first online UPS operation state and transferring power from the battery to the AC output via the inverter in a second online UPS operation state, and wherein the controller is configured to operate the UPS as a standby UPS by transferring power from the AC input to the AC output via the bypass circuit in a first standby UPS operation state and transferring power from the battery to the AC output via the inverter in a second standby UPS operation state.
A method of analysing an input signal to estimate the frequency of a periodic signal therein comprising the steps of: receiving the input signal; performing spectral analysis on the input signal to detect its spectral components; and outputting an estimate of the frequency of the periodic signal; characterized in that: the detected spectral components constitute frequency domain candidates for the periodic signal; and by: for each frequency domain candidate generating a synthetic signal of the same frequency; calculating in the time domain a measure of the similarity of each synthetic signal with the input signal; and outputting as the estimate of the frequency of the periodic signal the frequency of the synthetic signal with the maximum similarity with the input signal (34, 36). receiving the input signal; performing spectral analysis on the input signal to detect its spectral components; and outputting an estimate of the frequency of the periodic signal; for each frequency domain candidate generating a synthetic signal of the same frequency; calculating in the time domain a measure of the similarity of each synthetic signal with the input signal; and outputting as the estimate of the frequency of the periodic signal the frequency of the synthetic signal with the maximum similarity with the input signal (34, 36).