mhurhangee/patent-ind-claim-en huggingface dataset:
A mounting system comprising: a device having a base ; a fixture ; and a mounting assembly disposed between the fixture and the base , the mounting assembly having a base adapter coupled to the fixture and a nut member rotationally coupled to the base , the nut member having an inner surface with a plurality of threaded segments thereon, the threaded segments defining first gaps therebetween, the base adapter having a plurality of threaded portions on an outer surface , the threaded portions defining second gaps therebetween, wherein the threaded portions are sized to be received within the first gaps when the device is positioned on the fixture and the threaded portions engage the threaded segments when the nut member is rotated; characterized in that : the mounting system further comprises: a clamping disc disposed within a recess on a top surface of the nut member ; and a mounting plate disposed within a hollow interior of the nut member and coupled to the clamping disc . a device having a base ; a fixture ; and a mounting assembly disposed between the fixture and the base , the mounting assembly having a base adapter coupled to the fixture and a nut member rotationally coupled to the base , the nut member having an inner surface with a plurality of threaded segments thereon, the threaded segments defining first gaps therebetween, the base adapter having a plurality of threaded portions on an outer surface , the threaded portions defining second gaps therebetween, wherein the threaded portions are sized to be received within the first gaps when the device is positioned on the fixture and the threaded portions engage the threaded segments when the nut member is rotated; a clamping disc disposed within a recess on a top surface of the nut member ; and a mounting plate disposed within a hollow interior of the nut member and coupled to the clamping disc .
Disposable incontinence nappy having a longitudinal direction and a transverse direction and a main part , having an absorbent body , comprising a front region with front lateral longitudinal edges and a back region with rear lateral longitudinal edges and a crotch region arranged therebetween which comes to rest between the legs of a user, and comprising rear side sections which are joined on both sides to the back region and which extend in the transverse direction beyond the lateral rear longitudinal edges of the main part , and wherein the rear side sections have a component which is elastic in the transverse direction , wherein the elastic component comprises an elastic composite material , wherein the composite material comprises an elastic film ply and a first nonwoven ply connected to the elastic film ply , wherein the film ply has a single-layer structure, wherein the first nonwoven ply is connected directly to the elastic film ply , wherein the composite material exhibits a restoring force of K140%.1 ≤ 12 N/25 mm when stretched in the transverse direction by 140% for the first time and wherein the composite material exhibits a glyceryl trioleate resistance RGly150% of ≥ 50% and wherein K140%.1 and RGly150% can be ascertained according to the test method outlined in each case in the description.
A circular lid as part of a planting aid having a lower end and an upper end and comprising - a circular projection and an opening in the lid within the circular projection and provided with one or more planes descending from the circular projection towards the opening , - 4 to 10 radially positioned first projections having a flat upper surface defining the upper end of the lid , wherein the circular projection divides the circular lid in an outer circular part and an inner circular part and wherein the outer circular part is provided with one or more planes descending from the circular projection to the circular edge of the lid , and wherein the first radially positioned projections run from a radial position in the outer circular part to a radial position within the inner circular part . - a circular projection and an opening in the lid within the circular projection and provided with one or more planes descending from the circular projection towards the opening , - 4 to 10 radially positioned first projections having a flat upper surface defining the upper end of the lid ,
A nut for fastening on a screw , wherein the nut has a screw intake with a threaded hole for receiving the screw and at least one slot (S) which cuts through the nut wall of the screw intake and divides the screw intake into at least two regions , wherein the regions of the screw intake comprise a plurality of thread grooves, in particular three or four thread grooves, and wherein the regions of the screw intake are arranged on inwardly resilient retaining brackets which are connected to one another in a connecting region remote from the screw intake and are shaped in such a manner that a workpiece to be connected or fastened by means of the nut or an end of a pipe clamp can be encompassed from the outside in such a manner that the regions of the screw intake can be pressed apart, wherein in the case of a radial pressure generated by the external and/or internal thread, the diameter of the threaded hole of the nut can be enlarged to such an extent that the axial hold between nut and screw is temporarily no longer given, characterized in that on both sides of the slot (S) on the regions of the screw intake and/or on the holding brackets , an opening element is arranged in each case, which are in each case formed in the shape of a flat web, wherein the height of the opening elements as viewed in the direction of the longitudinal axis of a screw corresponds to the height of the regions of the screw intake , and wherein an intermediate space , which widens outwardly in the radial direction relative to the screw intake , is formed between the opening elements . wherein the regions of the screw intake comprise a plurality of thread grooves, in particular three or four thread grooves, and wherein the regions of the screw intake are arranged on inwardly resilient retaining brackets which are connected to one another in a connecting region remote from the screw intake and are shaped in such a manner that a workpiece to be connected or fastened by means of the nut or an end of a pipe clamp can be encompassed from the outside in such a manner that the regions of the screw intake can be pressed apart, wherein in the case of a radial pressure generated by the external and/or internal thread, the diameter of the threaded hole of the nut can be enlarged to such an extent that the axial hold between nut and screw is temporarily no longer given, characterized in that on both sides of the slot (S) on the regions of the screw intake and/or on the holding brackets , an opening element is arranged in each case, which are in each case formed in the shape of a flat web, wherein the height of the opening elements as viewed in the direction of the longitudinal axis of a screw corresponds to the height of the regions of the screw intake , and wherein an intermediate space , which widens outwardly in the radial direction relative to the screw intake , is formed between the opening elements .
A tire tread having a circumferential center rib and a circumferential intermediate rib laterally adjacent the center rib , the intermediate rib being separated from the center rib by a first circumferential groove , a second circumferential groove bordering the intermediate rib opposite the first circumferential groove , the tread further including two further circumferential grooves and at least one stiffener element disposed within each of the four circumferential grooves , the stiffener elements having a reduced height relative to a height of the center rib and the intermediate ribs and having a circumferentially oriented cut extending into an upper surface of the stiffener element and toward a bottom of the stiffener element , the cut extending circumferentially through the stiffener element with the cut bounded by opposite laterally inward facing cut sides, wherein a first circumferential array of discrete stiffener elements is disposed within the first circumferential groove with adjacent stiffener elements within the first circumferential array being separated by a first circumferential spacing, wherein a second circumferential array of discrete stiffener elements is disposed within the second circumferential groove , the stiffener elements within the second circumferential array being separated by a second circumferential spacing, and wherein the second circumferential spacing is different from the first circumferential spacing, characterized in that the cut within each of the discrete stiffener elements includes a radially inner cylindrical channel , the channel circumferentially extending through each respective stiffener element and having an axial width dimension greater than an axial width dimension of each cut , and in that the axial width of the first circumferential groove is greater than the axial width of the second circumferential groove .
A method for selective distributed speech recognition comprising: receiving by a dialog manager of a wireless device , a grammar type indicator associated with an information request, the grammar type indicator indicating an expected complexity of a speech input in response to the information request; receiving , at the wireless device , a speech input from a user in response to the information request; encoding the received speech input to generate an encoded audio input , and providing the encoded audio input to the dialog manager ; and limiting , by the dialog manager of the wireless device , speech recognition of the received speech input to one of: a first embedded speech recognition engine and at least one second speech recognition engine , based on the grammar type indicator in comparison to a grammar type capability of the first embedded speech recognition engine , the first speech recognition engine being disposed within the wireless device , and the at least one second speech recognition engine being external to the wireless device . receiving by a dialog manager of a wireless device , a grammar type indicator associated with an information request, the grammar type indicator indicating an expected complexity of a speech input in response to the information request; receiving , at the wireless device , a speech input from a user in response to the information request; encoding the received speech input to generate an encoded audio input , and providing the encoded audio input to the dialog manager ; and limiting , by the dialog manager of the wireless device , speech recognition of the received speech input to one of: a first embedded speech recognition engine and at least one second speech recognition engine , based on the grammar type indicator in comparison to a grammar type capability of the first embedded speech recognition engine , the first speech recognition engine being disposed within the wireless device , and the at least one second speech recognition engine being external to the wireless device .
A portable electrical stimulation system configured to percutaneously block nerve conduction, the system comprising: a modular power source ; a switching circuit coupled to said modular power source and configured to continuously generate at an output of said switching circuit an electrical stimulation output at a plurality of selectable output level that spans over a range of output levels that can block nerve conduction; and a controller coupled to the switching circuit, the switching circuit having one or a programmable output level, wherein the output of the switching circuit is coupled to one or more electrodes , directly or through a cable , located at, or in proximity to, the target site, wherein the one or more electrodes placed in parallel, or substantially in parallel to a long axis of a peripheral nerve over an overlapping nerve region of greater than about 3 millimeters, characterised in that the switching circuit comprises either (i) a switching stage and a filter stage , the switching stage being configured to generate a square-wave amplitude modulated output, the filter stage being configured to shape the square wave amplitude modulated output to a sinusoidal waveform, or (ii) a switching stage and a filter stage, the switching stage being configured to generate a pulse-shaped amplitude modulated output, the filter stage being configured to shape the pulse-shaped amplitude modulated output to a non-sinusoidal waveform to continuously generate the electrical stimulation output at an output efficiency greater than 70%, preferably at an output efficiency greater than 90%. a modular power source ; a switching circuit coupled to said modular power source and configured to continuously generate at an output of said switching circuit an electrical stimulation output at a plurality of selectable output level that spans over a range of output levels that can block nerve conduction; and a controller coupled to the switching circuit, the switching circuit having one or a programmable output level, wherein the output of the switching circuit is coupled to one or more electrodes , directly or through a cable , located at, or in proximity to, the target site, wherein the one or more electrodes placed in parallel, or substantially in parallel to a long axis of a peripheral nerve over an overlapping nerve region of greater than about 3 millimeters, characterised in that the switching circuit comprises either (i) a switching stage and a filter stage , the switching stage being configured to generate a square-wave amplitude modulated output, the filter stage being configured to shape the square wave amplitude modulated output to a sinusoidal waveform, or (ii) a switching stage and a filter stage, the switching stage being configured to generate a pulse-shaped amplitude modulated output, the filter stage being configured to shape the pulse-shaped amplitude modulated output to a non-sinusoidal waveform to continuously generate the electrical stimulation output at an output efficiency greater than 70%, preferably at an output efficiency greater than 90%.
A light emitting diode device having an optical window , said light emitting diode device comprising - a housing made of a thermoset or thermoplastic based material, - a transparent substrate , - a plurality of light emitting diodes , disposed on said transparent substrate and arranged for emitting light through said transparent substrate, - an integrated circuit electrically connected to said light emitting diodes and arranged for controlling said light emitting diodes, - a base , on which at least said transparent substrate with said plurality of light emitting diodes is mounted, said base comprising a first opening to let pass the light emitted through said transparent substrate by said plurality of light emitting diodes, wherein said light is emitted to the outside via said optical window, and wherein said housing is embedding said transparent substrate, said light emitting diodes, said integrated circuit, and at least a portion of said base, such that at least a portion of the transparent substrate through which said light is emitted, is exposed on one side of said housing. - a housing made of a thermoset or thermoplastic based material, - a transparent substrate , - a plurality of light emitting diodes , disposed on said transparent substrate and arranged for emitting light through said transparent substrate, - an integrated circuit electrically connected to said light emitting diodes and arranged for controlling said light emitting diodes, - a base , on which at least said transparent substrate with said plurality of light emitting diodes is mounted, said base comprising a first opening to let pass the light emitted through said transparent substrate by said plurality of light emitting diodes,
A head for an oral care implement , the head having an outer rim and an inner portion , the head comprising at least one tuft of filaments of a first type and at least one tuft of filaments of a second type , the at least one tuft of the first type being arranged at the inner portion of the head , and comprising a plurality of filaments , each filament having a longitudinal axis and a substantially circular cross-sectional area extending in a plane substantially perpendicular to the longitudinal axis, and the at least one tuft of the second type being arranged at the outer rim of the head , and comprising a plurality of filaments , each filament having a longitudinal axis and a substantially cross-shaped cross-sectional area extending in a plane substantially perpendicular to the longitudinal axis, the cross-shaped cross-sectional area having four projections and four channels , the projections and channels being arranged in an alternating manner, characterized in that the at least one tuft of filaments of the second type has a packing factor within a range from 40% to 49%.
A method of detecting stent malapposition in a blood vessel comprising: storing, in one or more memory devices, a stent malapposition threshold; storing, in one or more memory devices, a plurality of cross-sectional images of the blood vessel, the plurality of cross-sectional images generated using data from an imaging probe disposed in the blood vessel; detecting one or more stent struts in the plurality of cross-sectional images using a stent detection image data processing module; detecting a dimension of one or more stent struts; detecting a boundary of a lumen of the blood vessel by processing the image data using a lumen detection image data processing module; correcting for imaging probe position relative to the stent using a projection of the detected dimension of one or more stent struts; determining a stent malapposition distance with respect to one or more stent struts using a stent malapposition detection image data processing module; comparing one or more stent malapposition distances to the stent malapposition threshold; and displaying one or more indicia corresponding to a stent malapposition, the method characterized by the step of correcting further comprising projecting the measured dimension on an ellipse to which the stent struts have been fitted to correct for imaging probe position relative to the stent to obtain the projection. storing, in one or more memory devices, a stent malapposition threshold; storing, in one or more memory devices, a plurality of cross-sectional images of the blood vessel, the plurality of cross-sectional images generated using data from an imaging probe disposed in the blood vessel; detecting one or more stent struts in the plurality of cross-sectional images using a stent detection image data processing module; detecting a dimension of one or more stent struts; detecting a boundary of a lumen of the blood vessel by processing the image data using a lumen detection image data processing module; correcting for imaging probe position relative to the stent using a projection of the detected dimension of one or more stent struts; determining a stent malapposition distance with respect to one or more stent struts using a stent malapposition detection image data processing module; comparing one or more stent malapposition distances to the stent malapposition threshold; and displaying one or more indicia corresponding to a stent malapposition, the method characterized by the step of correcting further comprising projecting the measured dimension on an ellipse to which the stent struts have been fitted to correct for imaging probe position relative to the stent to obtain the projection.
A tire comprising a buttress portion between a tread portion and a sidewall portion thereof, wherein a ridge line portion extending in a tire radial direction through at least one bending point (F, F1, F2) on a surface of the buttress portion and a valley line portion extending parallel to the ridge line portion at a spacing from the ridge line portion in a tire circumferential direction and located inward from the surface of the buttress portion in a normal direction of the surface, the ridge line portion and the valley line portion alternately arranged in the tire circumferential direction, a total number of the ridge line portion and the valley line portion being three or more, and a first slanting line portion connects the bending point (F, F1, F2) of the ridge line portion and a bending point (G, G1, G2) of the valley line portion on a same circumference, and a second slanting line portion connects the ridge line portion and the valley line portion in parallel with the first slanting line portion at each of a position away from the first slanting line portion outward in the tire radial direction and a position away from the first slanting line portion inward in the tire radial direction. a buttress portion between a tread portion and a sidewall portion thereof, wherein a ridge line portion extending in a tire radial direction through at least one bending point (F, F1, F2) on a surface of the buttress portion and a valley line portion extending parallel to the ridge line portion at a spacing from the ridge line portion in a tire circumferential direction and located inward from the surface of the buttress portion in a normal direction of the surface, the ridge line portion and the valley line portion alternately arranged in the tire circumferential direction, a total number of the ridge line portion and the valley line portion being three or more, and a first slanting line portion connects the bending point (F, F1, F2) of the ridge line portion and a bending point (G, G1, G2) of the valley line portion on a same circumference, and a second slanting line portion connects the ridge line portion and the valley line portion in parallel with the first slanting line portion at each of a position away from the first slanting line portion outward in the tire radial direction and a position away from the first slanting line portion inward in the tire radial direction.
Method for adjusting a gas supply system , wherein the method comprises the following steps of: - calibrating a gas sensor at a first calibration time (t1) with a defined concentration of test gas, wherein a first calibration result (S1) is determined during calibration, and characterized in that at least one gas supply measured value (M1) is determined at a gas supply measured value time (t2) preceding the first calibration time (t1), - determining a gas supply reference value (G1) by mathematically relating the at least one gas supply measured value (M1) to the first calibration result (S1) and a calibration result (S0) of the gas sensor that was determined at a time (t0) preceding the first calibration time (t1), - adjusting the gas supply system on the basis of the gas supply reference value (G1), wherein the time (t0) preceding the first calibration time (t1), the gas supply measured value time (t2) and the first calibration time (t1) succeed one another in terms of time. - calibrating a gas sensor at a first calibration time (t1) with a defined concentration of test gas, wherein a first calibration result (S1) is determined during calibration, and characterized in that at least one gas supply measured value (M1) is determined at a gas supply measured value time (t2) preceding the first calibration time (t1), - determining a gas supply reference value (G1) by mathematically relating the at least one gas supply measured value (M1) to the first calibration result (S1) and a calibration result (S0) of the gas sensor that was determined at a time (t0) preceding the first calibration time (t1), - adjusting the gas supply system on the basis of the gas supply reference value (G1), wherein the time (t0) preceding the first calibration time (t1), the gas supply measured value time (t2) and the first calibration time (t1) succeed one another in terms of time.