mhurhangee/ep-ind-claims huggingface dataset:
A controller for mobile hydraulic equipment, comprising: a housing mounted on the mobile hydraulic equipment; a receiver mounted at least partly within the housing and configured to wirelessly receive a plurality of transmitted control signals from a remote transmitter; a processor mounted within the housing and operatively connected to the receiver to receive the control signals and generate a plurality of output signals for operating the mobile hydraulic equipment; a memory device mounted within the housing and operatively connected to the processor, the memory device storing at least one parameter corresponding to control of the mobile hydraulic equipment; a display mounted to the housing and operatively connected to the processor, the display configured to provide a visual indication to an operator of at least one parameter corresponding to control of the mobile hydraulic equipment; a plurality of terminals operatively connected to the processor and selectively configured to operate in one of a plurality of modes; a user interface mounted to the housing and configured to receive input from the operator to adjust the parameter on the display and to select one of the plurality of modes of at least one of the plurality of terminals; and a temperature sensor configured to provide a signal to the processor corresponding to an ambient temperature at the controller, wherein a portion of the terminals are configured to provide an output signal compensated as a function of the ambient temperature. a housing mounted on the mobile hydraulic equipment; a receiver mounted at least partly within the housing and configured to wirelessly receive a plurality of transmitted control signals from a remote transmitter; a processor mounted within the housing and operatively connected to the receiver to receive the control signals and generate a plurality of output signals for operating the mobile hydraulic equipment; a memory device mounted within the housing and operatively connected to the processor, the memory device storing at least one parameter corresponding to control of the mobile hydraulic equipment; a display mounted to the housing and operatively connected to the processor, the display configured to provide a visual indication to an operator of at least one parameter corresponding to control of the mobile hydraulic equipment; a plurality of terminals operatively connected to the processor and selectively configured to operate in one of a plurality of modes; a user interface mounted to the housing and configured to receive input from the operator to adjust the parameter on the display and to select one of the plurality of modes of at least one of the plurality of terminals; and a temperature sensor configured to provide a signal to the processor corresponding to an ambient temperature at the controller, wherein a portion of the terminals are configured to provide an output signal compensated as a function of the ambient temperature.
A prosthetic knit comprising at least first monofilament yarns of biocompatible polymer material defining first and second opposite faces, at least the second face including openings, and at least a second biocompatible and heat-fusible monofilament yarn which forms barbs that protrude outward from at least said first face, wherein the openings and the barbs are distributed such that when the knit is rolled upon itself at least some of the barbs present on the first face are caused to be trapped within some of the openings on the second face, wherein the first yarn and the second yarn are knit on a warp knitting machine having at least three guide bars B1, B2, B3, according to ISO 11676 standard, characterised by the first yarn following the chart of bars B1 and B2: - Bar B1: 1.0/0.1// - Bar B2: 1.0/7.7/6.6/7.7// the second yarn following the chart of bar B3 forming inlays linking a pair of barbs in every second course such that when a knit sample of 5 cm x 10 cm, if tested as described in conjunction with Figures 3, 4A and 4B, is unrolled, the trapped barbs will be released from the openings of the second face by applying a maximum force of 3.54 ± 0.85 N. wherein the first yarn and the second yarn are knit on a warp knitting machine having at least three guide bars B1, B2, B3, according to ISO 11676 standard, characterised by the first yarn following the chart of bars B1 and B2: - Bar B1: 1.0/0.1// - Bar B2: 1.0/7.7/6.6/7.7// - Bar B1: 1.0/0.1// - Bar B2: 1.0/7.7/6.6/7.7// the second yarn following the chart of bar B3 forming inlays linking a pair of barbs in every second course such that when a knit sample of 5 cm x 10 cm, if tested as described in conjunction with Figures 3, 4A and 4B, is unrolled, the trapped barbs will be released from the openings of the second face by applying a maximum force of 3.54 ± 0.85 N.
A rinse-off volumizing composition, in the form of a lotion, gel or cream, having a pH of 4 - 5.5, comprising: • From about 0.5% to about 5wt.-% of one or more linear hairstyling polymers, said polymers being a mixture of polyvinylpyrrolidone, polyimide-1, and vinylpyrrolidone vinylacetate (VP/VA); and • From about 0.01% to about 5wt.-% of one or more polycationic hairstyling polymers selected from homopolymers of trimethylaminoethyl methacrylate chloride; copolymers of trimethylaminoethyl methacrylate chloride; homopolymers of dimethyl ethyl aminoethyl methacrylate methosulfate; copolymers of dimethylethyl aminoethyl methacrylate methosulfate; and mixtures thereof. • From about 0.5% to about 5wt.-% of one or more linear hairstyling polymers, said polymers being a mixture of polyvinylpyrrolidone, polyimide-1, and vinylpyrrolidone vinylacetate (VP/VA); and • From about 0.01% to about 5wt.-% of one or more polycationic hairstyling polymers selected from homopolymers of trimethylaminoethyl methacrylate chloride;
A method for rendering an audio signal in a virtual reality rendering environment, the method comprising, - rendering an origin audio signal of an audio source (311, 312, 313) from an origin source position on an origin sphere around an origin listening position of a listener; - determining that the listener moves from the origin listening position to a destination listening position; - determining a destination source position of the audio source (311, 312, 313) on a destination sphere around the destination listening position based on the origin source position by projecting the origin source position from the origin sphere onto the destination sphere; - determining a destination audio signal of the audio source (311, 312, 313) based on the origin audio signal; and - rendering the destination audio signal of the audio source (311, 312, 313) from the destination source position on the destination sphere around the destination listening position, - wherein the origin source position is projected from the origin sphere onto the destination sphere by a perspective projection with respect to the destination listening position; and - wherein the origin sphere and the destination sphere have the same radius. - rendering an origin audio signal of an audio source (311, 312, 313) from an origin source position on an origin sphere around an origin listening position of a listener; - determining that the listener moves from the origin listening position to a destination listening position; - determining a destination source position of the audio source (311, 312, 313) on a destination sphere around the destination listening position based on the origin source position by projecting the origin source position from the origin sphere onto the destination sphere; - determining a destination audio signal of the audio source (311, 312, 313) based on the origin audio signal; and - rendering the destination audio signal of the audio source (311, 312, 313) from the destination source position on the destination sphere around the destination listening position, - wherein the origin source position is projected from the origin sphere onto the destination sphere by a perspective projection with respect to the destination listening position; and - wherein the origin sphere and the destination sphere have the same radius.
Method for separating off tryptophan from an aqueous mixture of matter using simulated countercurrent chromatography or SMB chromatography in which, in a separation section having a column arrangement consisting of more than one series-connected columns packed with an organic polymer suitable as adsorbent, which column arrangement is subdivided into a plurality of functional zones, a) the tryptophan-containing mixture of matter and water as desorbent are continuously fed to the column arrangement at separate points and b) at a point situated between these feeds, the tryptophan-enriched extract stream, and at a further point situated upstream of the feed of tryptophan-containing mixture of matter, a raffinate stream containing further compounds from the mixture of matter used, are taken off separately, the extract stream optionally processed further and preferably c) the columns that are loaded with non-desorbed compounds from the mixture of matter are cleared of said compounds characterized in that a temperature gradient is established between the zone in which the desorbent is introduced and the zone from which the raffinate is conducted. a) the tryptophan-containing mixture of matter and water as desorbent are continuously fed to the column arrangement at separate points and b) at a point situated between these feeds, the tryptophan-enriched extract stream, and at a further point situated upstream of the feed of tryptophan-containing mixture of matter, a raffinate stream containing further compounds from the mixture of matter used, are taken off separately, the extract stream optionally processed further and preferably c) the columns that are loaded with non-desorbed compounds from the mixture of matter are cleared of said compounds characterized in that a temperature gradient is established between the zone in which the desorbent is introduced and the zone from which the raffinate is conducted.
An apparatus comprising: a memory having stored therein historical information from a plurality of patients, and a control circuit operably coupled to the memory and configured to optimize a radiation-treatment plan for a specific patient using the historical information; wherein the historical information comprises information regarding delivered radiation doses to at least one non-targeted patient volume for a plurality of different volume presentations, distance information regarding relative positions of the plurality of different volume presentations, and delivered-dose metrics as correspond to different relative distances within given patients; and wherein the historical information comprises aggregated historical information of the plurality of patients. a memory having stored therein historical information from a plurality of patients, and a control circuit operably coupled to the memory and configured to optimize a radiation-treatment plan for a specific patient using the historical information; wherein the historical information comprises information regarding delivered radiation doses to at least one non-targeted patient volume for a plurality of different volume presentations, distance information regarding relative positions of the plurality of different volume presentations, and delivered-dose metrics as correspond to different relative distances within given patients; and wherein the historical information comprises aggregated historical information of the plurality of patients.
An ultrasound imaging apparatus comprising: - a data interface configured to receive ultrasound data (26, 28) within a field of view and resulting from an ultrasound scan of an object using an ultrasound probe, - a segmentation unit for segmenting anatomical structures of the object in the ultrasound data and arranged to provide segmentation data of the anatomical structures, - a reference determining unit adapted to determine a spatial reference (48, 50, 52, 54) for the ultrasound data on the basis of the segmentation data, wherein the spatial reference comprises a reference frame including at least one reference position and one reference direction of the object, wherein the reference determining unit is adapted to determine a spatial orientation of the object in the field of view of the ultrasound scan on the basis of the spatial reference, and - a confidence determining unit arranged to determine confidence values corresponding to an expected quality and/or reliability of the received ultrasound data which influence a diagnosis based on ultrasound images for different regions of the received ultrasound data, wherein the confidence values are determined on the basis of the spatial orientation of the object in the field of view and hence on the orientation of the ultrasound probe with respect to the anatomical structures of the object. - a data interface configured to receive ultrasound data (26, 28) within a field of view and resulting from an ultrasound scan of an object using an ultrasound probe, - a segmentation unit for segmenting anatomical structures of the object in the ultrasound data and arranged to provide segmentation data of the anatomical structures, - a reference determining unit adapted to determine a spatial reference (48, 50, 52, 54) for the ultrasound data on the basis of the segmentation data, wherein the spatial reference comprises a reference frame including at least one reference position and one reference direction of the object, wherein the reference determining unit is adapted to determine a spatial orientation of the object in the field of view of the ultrasound scan on the basis of the spatial reference, and - a confidence determining unit arranged to determine confidence values corresponding to an expected quality and/or reliability of the received ultrasound data which influence a diagnosis based on ultrasound images for different regions of the received ultrasound data, wherein the confidence values are determined on the basis of the spatial orientation of the object in the field of view and hence on the orientation of the ultrasound probe with respect to the anatomical structures of the object.
Electrical linear machine, having a stator that is fixed to the housing, and having an armature that can be relocated in an axial manner, wherein the stator comprises a first and a second stator yoke (9, 10) that in each case form a stator pole (11 - 14), wherein the stator poles (11 - 14) are arranged distributed radially and uniformly around the armature, and wherein at least one coil that can be energized is allocated to the first stator yoke so as to generate a first magnetic flux through the first stator yoke, characterized in that the armature is fitted with a permanent magnet, wherein a magnetic north pole of the permanent magnet is allocated to a stator pole of the second stator yoke and a magnetic south pole of the permanent magnet is allocated to the other stator pole of the second stator yoke in order to generate a second magnetic flux through the second stator yoke.
A stent delivery system 200, comprising: a core member 160 having an intermediate portion 166 and an elongate, spiral-cut tube 170 extending proximally of the intermediate portion 166, the tube 170 having first and second flex zones, the second flex zone being proximal of the first flex zone, and a transition zone (T3B) between the first and second flex zones; the first flex zone having a bending stiffness of less than 12N ∗ mm 2 so as to be navigable through the internal carotid artery bifurcation, the spiral cut of the tube in the first flex zone having a first pitch; the second flex zone having a bending stiffness of greater than 60 N ∗ mm 2, the spiral cut of the tube in the second flex zone having a second pitch different from the first pitch; wherein the spiral cut of the tube 170 in the transition zone (T3B) changes from the first pitch to the second pitch in a series of pitch transitions, the spiral cut pitch in the transition zone (T3B) increasing by an overall percent increase from the first pitch to the second pitch, such that the average overall percent increase achieved per transition is 15% or less; and a stent carried by the intermediate portion 166. a core member 160 having an intermediate portion 166 and an elongate, spiral-cut tube 170 extending proximally of the intermediate portion 166, the tube 170 having first and second flex zones, the second flex zone being proximal of the first flex zone, and a transition zone (T3B) between the first and second flex zones; the first flex zone having a bending stiffness of less than 12N ∗ mm 2 so as to be navigable through the internal carotid artery bifurcation, the spiral cut of the tube in the first flex zone having a first pitch; the second flex zone having a bending stiffness of greater than 60 N ∗ mm 2, the spiral cut of the tube in the second flex zone having a second pitch different from the first pitch; wherein the spiral cut of the tube 170 in the transition zone (T3B) changes from the first pitch to the second pitch in a series of pitch transitions, the spiral cut pitch in the transition zone (T3B) increasing by an overall percent increase from the first pitch to the second pitch, such that the average overall percent increase achieved per transition is 15% or less; and a stent carried by the intermediate portion 166.
A banknote stacking device, comprising: at least a transmission assembly for clamping and conveying banknotes to be stacked from a banknote conveying passage to the banknote stacking device; a stacking wheel for conveying the banknotes in a way that the banknotes are rotated together at a high speed; and a guide plate for guiding the banknotes to be stacked into the stacking wheel and guiding the banknotes to be stacked and conveyed by the stacking wheel to a banknote stacking frame; characterized in that, the transmission assembly comprises: a ratchet wheel assembly comprising a first transmission wheel, a ratchet wheel and a first conveyor belt tensioned on the first transmission wheel and the ratchet wheel, wherein the ratchet wheel comprises a drum-shaped wheel on which the first conveyor belt is sleeved and a plurality of ratchets distributed on outer peripheral edges at two ends of the drum-shaped wheel; and a clamping and conveying wheel assembly comprising a second transmission wheel, a clamping and conveying wheel and a second conveyor belt tensioned on the second transmission wheel and the clamping and conveying wheel; and wherein, the first conveyor belt and the second conveyor belt form a clamping and conveying passage, and the ratchets can be in contact with the banknotes conveyed out of the clamping and conveying passage. at least a transmission assembly for clamping and conveying banknotes to be stacked from a banknote conveying passage to the banknote stacking device; a stacking wheel for conveying the banknotes in a way that the banknotes are rotated together at a high speed; and a guide plate for guiding the banknotes to be stacked into the stacking wheel and guiding the banknotes to be stacked and conveyed by the stacking wheel to a banknote stacking frame; characterized in that, the transmission assembly comprises: a ratchet wheel assembly comprising a first transmission wheel, a ratchet wheel and a first conveyor belt tensioned on the first transmission wheel and the ratchet wheel, wherein the ratchet wheel comprises a drum-shaped wheel on which the first conveyor belt is sleeved and a plurality of ratchets distributed on outer peripheral edges at two ends of the drum-shaped wheel; and a clamping and conveying wheel assembly comprising a second transmission wheel, a clamping and conveying wheel and a second conveyor belt tensioned on the second transmission wheel and the clamping and conveying wheel; and wherein, the first conveyor belt and the second conveyor belt form a clamping and conveying passage, and the ratchets can be in contact with the banknotes conveyed out of the clamping and conveying passage.
A vane for a gas turbine engine, the vane comprising: an airfoil; and a root portion disposed on a side of the airfoil and including a platform, the platform having a vane forward rail and an extension (208, 210) extending from the platform, the extension (208, 210) defining portions of an outer diameter platform cavity and an airfoil leading edge cavity; wherein the extension (208, 210) extends from the platform such that an upper portion of each of the outer diameter platform cavity and the airfoil leading edge cavity is spaced equidistant from the platform, and such that the outer diameter platform cavity and the airfoil leading edge cavity are oriented substantially parallel with one another; characterized in that: the vane forward rail further defines a first inlet and a first channel for fluidly connecting a core air flow path and the outer diameter platform cavity, the vane forward rail further defining a second inlet and a second channel for fluidly connecting the core air flow path and the airfoil leading edge cavity; and the first channel has a first central axis and the second channel has a second central axis, the first channel and the second channel being arranged with one another such that the first central axis and the second central axis are oriented parallel with one another. an airfoil; and a root portion disposed on a side of the airfoil and including a platform, the platform having a vane forward rail and an extension (208, 210) extending from the platform, the extension (208, 210) defining portions of an outer diameter platform cavity and an airfoil leading edge cavity; wherein the extension (208, 210) extends from the platform such that an upper portion of each of the outer diameter platform cavity and the airfoil leading edge cavity is spaced equidistant from the platform, and such that the outer diameter platform cavity and the airfoil leading edge cavity are oriented substantially parallel with one another; characterized in that: the vane forward rail further defines a first inlet and a first channel for fluidly connecting a core air flow path and the outer diameter platform cavity, the vane forward rail further defining a second inlet and a second channel for fluidly connecting the core air flow path and the airfoil leading edge cavity; and the first channel has a first central axis and the second channel has a second central axis, the first channel and the second channel being arranged with one another such that the first central axis and the second central axis are oriented parallel with one another. the vane forward rail further defines a first inlet and a first channel for fluidly connecting a core air flow path and the outer diameter platform cavity, the vane forward rail further defining a second inlet and a second channel for fluidly connecting the core air flow path and the airfoil leading edge cavity; and the first channel has a first central axis and the second channel has a second central axis, the first channel and the second channel being arranged with one another such that the first central axis and the second central axis are oriented parallel with one another.