mhurhangee/ep-ind-claims huggingface dataset:
A method for producing molded parts, in particular dental molded parts from a sinterable mixing compound using a cold casting mold having a cavity that corresponds geometrically to the molded part, in particular dental molded part and at least one first opening opening into the cavity and/or leading out of the cavity, having the following method steps: producing the cold casting mold by means of an additive material construction method, in particular a 3D printing method using a 3D printer, from a starting material, wherein the cavity is created on the basis of a digital data set, in particular based on a three-dimensional model of the oral cavity of a patient, filling the cavity of the cold casting mold via the at least one first opening with the sinterable mixing compound, curing and/or solidifying the sinterable mixing compound in the cavity of the cold casting mold, characterized in that, the cold casting mold has at least one second opening opening into the cavity and/or leading out of the cavity, wherein, in particular during steps and, gases and/or liquids contained and/or enclosed in the sinterable mixing compound are discharged from the cavity via the at least one second opening, thermally and/or thermochemically decomposing the cold casting mold at a temperature in a temperature range from 200°C to 2500°C, sintering the sinterable mixing compound to final hardness at a temperature in a temperature range from 900°C to 2500°C until a molded part, in particular a dental molded part, such as a denture is obtained. producing the cold casting mold by means of an additive material construction method, in particular a 3D printing method using a 3D printer, from a starting material, wherein the cavity is created on the basis of a digital data set, in particular based on a three-dimensional model of the oral cavity of a patient, filling the cavity of the cold casting mold via the at least one first opening with the sinterable mixing compound, curing and/or solidifying the sinterable mixing compound in the cavity of the cold casting mold, thermally and/or thermochemically decomposing the cold casting mold at a temperature in a temperature range from 200°C to 2500°C, sintering the sinterable mixing compound to final hardness at a temperature in a temperature range from 900°C to 2500°C until a molded part, in particular a dental molded part, such as a denture is obtained.
A composition comprising a polypeptide having endoprotease activity specific for O-glycosylated proteins which comprises: (a) an amino acid sequence of SEQ ID NO: 1; (b) an amino acid sequence which is at least 85% identical to the amino acid sequence of SEQ ID NO: 1; or (c) an amino acid sequence which is a fragment of the sequence of SEQ ID NO: 1 or a fragment of an amino acid sequence which is 85% identical to the amino acid sequence of SEQ ID NO: 1, wherein the composition further comprises a sialidase Am1757 or a mixture of Am1757 and Am0707, wherein Am1757 is a polypeptide of any one of SEQ ID NOs: 9 to 11 and Am0707 is a polypeptide of any one of SEQ ID NOs: 12 to 14. (a) an amino acid sequence of SEQ ID NO: 1; (b) an amino acid sequence which is at least 85% identical to the amino acid sequence of SEQ ID NO: 1; or (c) an amino acid sequence which is a fragment of the sequence of SEQ ID NO: 1 or a fragment of an amino acid sequence which is 85% identical to the amino acid sequence of SEQ ID NO: 1,
An audio system configured to receive a microphone time domain signal from a microphone, the audio system comprising: a frequency-transform module configured to receive the microphone time domain signal from the microphone and to transform it into a frequency domain signal, wherein the microphone time domain signal is divided into a set of time-domain frames (202a, 202b, 202M), each including a set of samples of the microphone time domain signal, wherein each time-domain frame is transformed into a frequency domain, so that each time-domain frame is transformed to a frequency-domain frame (206a, 206b) resulting in a time series of the frequency-domain frames; a magnitude squared module configured to receive the frequency domain signal from the frequency-transform module and to output a magnitude-squared frequency-domain noise-reference signal; a noise-estimation filter, configured to receive the magnitude-squared frequency-domain noise-reference signal from the magnitude squared module and to generate a magnitude-squared frequency-domain noise-estimation signal, wherein the noise-estimation filter is configured to operate over the time series of the frequency-domain frames; and a noise-reduction filter configured to receive the microphone time domain signal, the microphone time domain signal including a noise component correlated to an acoustic noise signal, and to suppress the noise component of the microphone time domain signal, based, at least in part, on the magnitude-squared frequency-domain noise-estimation signal, to generate a noise-suppressed signal. a frequency-transform module configured to receive the microphone time domain signal from the microphone and to transform it into a frequency domain signal, wherein the microphone time domain signal is divided into a set of time-domain frames (202a, 202b, 202M), each including a set of samples of the microphone time domain signal, wherein each time-domain frame is transformed into a frequency domain, so that each time-domain frame is transformed to a frequency-domain frame (206a, 206b) resulting in a time series of the frequency-domain frames; a magnitude squared module configured to receive the frequency domain signal from the frequency-transform module and to output a magnitude-squared frequency-domain noise-reference signal; a noise-estimation filter, configured to receive the magnitude-squared frequency-domain noise-reference signal from the magnitude squared module and to generate a magnitude-squared frequency-domain noise-estimation signal, wherein the noise-estimation filter is configured to operate over the time series of the frequency-domain frames; and a noise-reduction filter configured to receive the microphone time domain signal, the microphone time domain signal including a noise component correlated to an acoustic noise signal, and to suppress the noise component of the microphone time domain signal, based, at least in part, on the magnitude-squared frequency-domain noise-estimation signal, to generate a noise-suppressed signal.
A portable terminal, comprising: a motion sensing unit configured to sense a motion pattern ot the portable terminal; a display module configured to display an image; a manipulation unit configured to receive a manual manipulation from a user while the image is displayed on the display module, the manipulation unit comprising a touch pad, said touch pad and display module being combined in a layered manner to form a touch screen, wherein the manual manipulation includes touching an area of the image displayed on the display module the portable terminal further comprising a controller connected to the motion sensing unit and to the manipulation unit, and configured to: interpret a combination of the manual manipulation received from the manipulation unit and of a motion pattern sensed by the motion sensing unit as an enlargement instruction; and enlarge the displayed image about the touched area according to the enlargement instruction. a motion sensing unit configured to sense a motion pattern ot the portable terminal; a display module configured to display an image; a manipulation unit configured to receive a manual manipulation from a user while the image is displayed on the display module, the manipulation unit comprising a touch pad, said touch pad and display module being combined in a layered manner to form a touch screen, wherein the manual manipulation includes touching an area of the image displayed on the display module the portable terminal further comprising a controller connected to the motion sensing unit and to the manipulation unit, and configured to: interpret a combination of the manual manipulation received from the manipulation unit and of a motion pattern sensed by the motion sensing unit as an enlargement instruction; and enlarge the displayed image about the touched area according to the enlargement instruction. interpret a combination of the manual manipulation received from the manipulation unit and of a motion pattern sensed by the motion sensing unit as an enlargement instruction; and enlarge the displayed image about the touched area according to the enlargement instruction.
An oral care mouth wash composition comprising: i) xanthan gum; ii) gellan gum; iii) a zinc salt and iv) a pigment having a hue angle, h, in the CIELAB system of from 220 to 320 degrees, and in which the composition at a temperature of 25°C has a yield stress (stress at which the shear rate is 0.1 1/s) from 0.05 to 1.0 Pa and a viscosity from 0.03 to 0.25 Pa.s (measured at a shear rate of 21 1/s) i) xanthan gum; ii) gellan gum; iii) a zinc salt and iv) a pigment having a hue angle, h, in the CIELAB system of from 220 to 320 degrees, and in which the composition at a temperature of 25°C has a yield stress (stress at which the shear rate is 0.1 1/s) from 0.05 to 1.0 Pa and a viscosity from 0.03 to 0.25 Pa.s (measured at a shear rate of 21 1/s)
A sensory manipulation system (100, 200), comprising: an audio vitiation device (106, 108, 204, 206, 404); an audio vitiation driver that generates audio information for output by the audio output device (106, 108, 204, 206, 404) that cycles from a first audio state to a second audio state, each of which reduces the perceptive value and/or impairs the quality of the environmental noise and wherein the first audio state reduces the perceptive value and/or impairs the quality of the environmental noise more than the second audio state; and an audio vitiation controller that, in response to a sensory manipulation-level input, controls a duty cycle, a duration, or a frequency of the first audio state or the second audio state. an audio vitiation device (106, 108, 204, 206, 404); an audio vitiation driver that generates audio information for output by the audio output device (106, 108, 204, 206, 404) that cycles from a first audio state to a second audio state, each of which reduces the perceptive value and/or impairs the quality of the environmental noise and wherein the first audio state reduces the perceptive value and/or impairs the quality of the environmental noise more than the second audio state; and an audio vitiation controller that, in response to a sensory manipulation-level input, controls a duty cycle, a duration, or a frequency of the first audio state or the second audio state.
A hydraulic device for a rail vehicle, comprising - a fluid container, - a motor with a pump, - a control plate, - a control region, - a ventilation and purging unit for ventilating and purging the fluid container, wherein - the ventilation and purging unit has a valve unit integrated into a wall of a housing of the fluid container, and a channel labyrinth arranged in the fluid container and connected to the valve unit. - a fluid container, - a motor with a pump, - a control plate, - a control region, - a ventilation and purging unit for ventilating and purging the fluid container, - the ventilation and purging unit has a valve unit integrated into a wall of a housing of the fluid container, and a channel labyrinth arranged in the fluid container and connected to the valve unit.
A wireless communication device for avoiding an influence of an electric oven operating with a commercial power supply, the wireless communication device comprising: a transmission data generator for generating a transmission data; a modulator for generating modulated signal according to the transmission signal, the transmission comprising a plurality of slots generated by the transmission data generator; a high frequency processor for converting the modulated signal to a high frequency signal and for converting a received high frequency signal to a modulated signal; demodulator for demodulating the received modulated signal; a data analyzer for analyzing the demodulated signal; a controller for controlling the modulator, the demodulator and the data analyzer; and an antenna for transmitting and receiving the high frequency signal, characterized in that the transmission data generator is configured to generate a plurality of slots, each of the plurality of slots including a predetermined number of subslots, after dividing the transmission data into the plurality of subslots, a sequence of the subslots included in each of the plurality of slots is constant, and the time length T 2 of each of the plurality of slots is T 2 = T 0 / 2 + T 1 or T 2 = T 0 / 2 − T 1, where T 1 is a time length of each of the subslots and the T 0 is a period of the commercial AC power supply T 1 of each of the plurality of subslots is equal to or smaller than an oscillator stopping time which is determined on the basis of a change in voltage of the commercial power supply, and the transmission data in the plurality of slots is the same. a transmission data generator for generating a transmission data; a modulator for generating modulated signal according to the transmission signal, the transmission comprising a plurality of slots generated by the transmission data generator; a high frequency processor for converting the modulated signal to a high frequency signal and for converting a received high frequency signal to a modulated signal; demodulator for demodulating the received modulated signal; a data analyzer for analyzing the demodulated signal; a controller for controlling the modulator, the demodulator and the data analyzer; and an antenna for transmitting and receiving the high frequency signal, characterized in that the transmission data generator is configured to generate a plurality of slots, each of the plurality of slots including a predetermined number of subslots, after dividing the transmission data into the plurality of subslots, a sequence of the subslots included in each of the plurality of slots is constant, and the time length T 2 of each of the plurality of slots is T 2 = T 0 / 2 + T 1 or T 2 = T 0 / 2 − T 1, where T 1 is a time length of each of the subslots and the T 0 is a period of the commercial AC power supply T 1 of each of the plurality of subslots is equal to or smaller than an oscillator stopping time which is determined on the basis of a change in voltage of the commercial power supply, and the transmission data in the plurality of slots is the same.
A flexible reclosable package integrally formed from a single piece of material, the package containing disposable and compressed consumer products, the package having a hexahedral shape with a top panel, a bottom panel, a front panel, a back panel, a left side panel and a right side panel, the right side panel comprising a first right side panel portion adjacent to the front panel and a second right side panel portion adjacent to the back panel, the first and second right side panel portions being joined to each other along first side panel seam, the left side panel comprising a first left side panel portion adjacent to the front panel and a second left side panel portion adjacent to the back panel, the first and second left side panel portions being joined to each other along a second side panel seam, wherein the package has a longitudinal dimension extending from the first side panel seam to the second side panel seam, wherein a third seam extends along the longitudinal dimension of the package; wherein a hooded portion defines the top panel, a portion of the front panel, a portion of the first right side panel portion and a portion of the first left side panel portion, wherein a pleated portion is provided adjacent to the hooded portion and extends along the longitudinal dimension of the package from the first side panel seam to the second side panel seam through the first right side panel portion, the front panel, and the first left side panel portion, wherein a first line of weakness is provided in the pleated portion wherein the flexible reclosable package can be converted from a closed European Patent Application No. 16 196 155.2; The Procter & Gamble Company; 2019-04-29 configuration to an open configuration upon opening the package along the line of weakness, and characterized in that the first line of weakness is not visible from the exterior of the package when the package is in the closed configuration, and further characterized in that a slit or a second line of weakness is provided in the pleated portion adjacent to each of the first and second side panel seam (122, 124) and extends along the first and second side panel seam, respectively.
A stented valve comprising: a stent structure (30, 40) comprising a generally tubular body portion having an interior area, a longitudinal axis, and a plurality of longitudinally extending wires in a central region of the stent structure (30, 40), wherein the plurality of wires includes multiple commissure wires spaced at a first distance from the longitudinal axis and at least one structural wire positioned between each two adjacent commissure wires, wherein the structural wires are spaced at a second distance from the longitudinal axis, wherein the first distance is smaller than the second distance, the stent structure further comprising a first end which is curved outwardly relative to the longitudinal axis, and a second end which is curved inwardly relative to the longitudinal axis; and a valve structure comprising a plurality of leaflets, wherein each leaflet comprises a first end, a second end, and a free edge extending between the first and second ends; wherein a first end of each leaflet is attached to a commissure wire in the central stent region and a second end of each leaflet is attached to an adjacent commissure wire in the central stent region so that the free edge of each leaflet does not contact the structural wires in the central stent region when the valve is in an open position, wherein the first end of the stent structure is an inflow end that comprises an at least slightly inward bend and the second end is an outflow end. a stent structure (30, 40) comprising a generally tubular body portion having an interior area, a longitudinal axis, and a plurality of longitudinally extending wires in a central region of the stent structure (30, 40), wherein the plurality of wires includes multiple commissure wires spaced at a first distance from the longitudinal axis and at least one structural wire positioned between each two adjacent commissure wires, wherein the structural wires are spaced at a second distance from the longitudinal axis, wherein the first distance is smaller than the second distance, the stent structure further comprising a first end which is curved outwardly relative to the longitudinal axis, and a second end which is curved inwardly relative to the longitudinal axis; and a valve structure comprising a plurality of leaflets, wherein each leaflet comprises a first end, a second end, and a free edge extending between the first and second ends; wherein a first end of each leaflet is attached to a commissure wire in the central stent region and a second end of each leaflet is attached to an adjacent commissure wire in the central stent region so that the free edge of each leaflet does not contact the structural wires in the central stent region when the valve is in an open position, wherein the first end of the stent structure is an inflow end that comprises an at least slightly inward bend and the second end is an outflow end.
An anthracene derivative represented by the following formula 1: wherein A and B may be the same as or different from each other, and are each a group selected from the group consisting of a phenyl group, a naphthyl group, an anthracenyl group, a pyrenyl group, a perylenyl group, a pyridyl group, a bipyridyl group, a thiophenyl group, a quinolinyl group and an isoquinolinyl group, and Q is a group selected from the group consisting of the following structural formulae: or wherein A, B and Q are selected from the group consisting of the following structural formulae: Q A B 68 69 70 71 72 76 77 78 79 80 82 83 84 88 92 94 95 96 97 98 99
Bidirectional display having a two-dimensional display array comprising a plurality of light-generating picture elements (1a, 1b) and a two-dimensional camera array comprising a plurality of light-detecting elements (2a, 2b), and means for controlling the display array and the camera array, which are designed for a sequential electrical control of the display array and the camera array, wherein the two arrays (1, 2) are arranged nested in one another and/or superimposed on one another at least section-wise, characterized in that the two arrays (1, 2) can each be electrically controlled at least row-wise, and the means for sequential electrical control of the display array and the camera array are designed so that, during a light generation in a row (1za1) of the display array, a light detection by the row (2zk1) of the camera array next closest to this row (1za1) is deactivated, whereby a row-sequential electrical control of the bidirectional display is realized.
An apparatus, comprising: an implant (100; 200; 300; 600) having a support portion (110; 210; 310; 610) configured to support a portion of a body of a patient and a strap (112; 212; 312; 612) extending from the support portion (110; 210; 310; 610), the strap (112; 212; 312; 612) configured to be inserted into a tissue of the patient; and a sleeve (122; 222; 422; 522; 622) having a distal end portion, a proximal end portion, and a tapered portion (126; 226), the tapered portion (126; 226) being configured to dilate the tissue of the patient when the implant (100; 200; 300; 600) is inserted into the body of the patient, the proximal end portion of the sleeve (122; 222; 422; 522; 622) being releasably coupled to the strap (112; 212; 312; 612), wherein the proximal end portion of the sleeve (122; 222; 422; 522; 622) is coupled to the strap (112; 212; 312; 612) of the implant (100; 200; 300; 600) by a releasable joint (124; 224; 614) configured to break when a force is applied to the strap (112; 212; 312; 612) at a position along the strap (112; 212; 312; 612) and a force is applied to the sleeve (122; 222; 422; 522; 622) in a direction away from the strap (112; 212; 312; 612), wherein the distal end portion of the sleeve (122; 222; 422; 522; 622) defines a lumen configured to receive a leader (130; 230; 630) to couple the leader (130; 230; 630) to the distal end portion of the sleeve (122; 222; 422; 522; 622).
Shaped toilet cleaner block comprising: • 20 to 50 wt% of a surfactant mix consisting of alkyl benzene sulfonate and nonionic surfactant; • filler; and • colorant; wherein the block comprises from 0 to 3 wt% of other surfactants; wherein the weight ratio of alkyl benzene sulfonate to nonionic surfactant is from 9:1 to 3:1; and the colorant is selected from blue, green, red, orange, violet, pink and yellow. • 20 to 50 wt% of a surfactant mix consisting of alkyl benzene sulfonate and nonionic surfactant; • filler; and • colorant; wherein the block comprises from 0 to 3 wt% of other surfactants; wherein the weight ratio of alkyl benzene sulfonate to nonionic surfactant is from 9:1 to 3:1; and the colorant is selected from blue, green, red, orange, violet, pink and yellow.