mhurhangee/patent-ind-claim-en huggingface dataset:
A ground processing tool having a central shaft , built into which is a conducting channel, and having at least one mixing blade , which is attached to the central shaft and almost extends radially outward, wherein at least one mixing blade with an inner cavity is provided, wherein the cavity communicates with the conducting channel in the central shaft , wherein at the mixing blade is provided at least one opening of the cavity to an outside, and on a lower side a removal apparatus is arranged for removing ground material, characterized in that a ring-shaped circumferential wall is mounted on the central shaft and encircles, in a ring-like manner, a mixing area, in which the at least one mixing blade is arranged, and a conveying apparatus for conveying the removed ground material is arranged between the removal apparatus and the at least one mixing blade in the mixing area built by the ring-shaped circumferential wall .
A method for engineering a cast part, the cast part having internal passageways including a slot, the slot being cast over a metallic sheet casting core, wherein: the metallic sheet casting core has: a first face; a second face opposite the first face; and a plurality of holes extending between the first and second faces; the slot includes a first face cast by the core first face, a second face cast by the core second face, and a plurality of posts extending between the slot first and second faces and cast by the holes; and the method comprises selecting a direction for punching the holes so that an asymmetry in hole cross section associated with said direction provides an asymmetry in post cross section associated with one or both of a desired relative heat transfer and a desired relative mechanical strength at said slot second face relative to said slot first face. the metallic sheet casting core has: a first face; a second face opposite the first face; and a plurality of holes extending between the first and second faces; the slot includes a first face cast by the core first face, a second face cast by the core second face, and a plurality of posts extending between the slot first and second faces and cast by the holes; and a first face; a second face opposite the first face; and a plurality of holes extending between the first and second faces; the slot includes a first face cast by the core first face, a second face cast by the core second face, and a plurality of posts extending between the slot first and second faces and cast by the holes; and the method comprises selecting a direction for punching the holes so that an asymmetry in hole cross section associated with said direction provides an asymmetry in post cross section associated with one or both of a desired relative heat transfer and a desired relative mechanical strength at said slot second face relative to said slot first face.
A pointing device for communicating with a computing device, the pointing device comprising: a switch operable to generate a control signal; a motion sensor configured to generate spatial data based on movements of a moveable part of the pointing device ; a controller configured to inhibit transmission of the spatial data to the computing device, during a predetermined time interval immediately following a state change in the control signal; and a memory configured to store the spatial data that is inhibited from being transmitted to the computing device; wherein the memory is further configured to accumulate the stored spatial data; and the controller is further configured to activate transmission of the accumulated stored spatial data to the computing device, if the motion sensor continues to generate spatial data after the predetermined time interval and before a further state change in the control signal. a switch operable to generate a control signal; a motion sensor configured to generate spatial data based on movements of a moveable part of the pointing device ; a controller configured to inhibit transmission of the spatial data to the computing device, during a predetermined time interval immediately following a state change in the control signal; and a memory configured to store the spatial data that is inhibited from being transmitted to the computing device; wherein the memory is further configured to accumulate the stored spatial data; and the controller is further configured to activate transmission of the accumulated stored spatial data to the computing device, if the motion sensor continues to generate spatial data after the predetermined time interval and before a further state change in the control signal.
A method of treating particulates comprising: (a) encapsulating particulates in a first, inner coating comprising a cationically charged material in an amount sufficient to impart a cationic charge in the range of from 0.1 mV to 400 mV to the particulates; and (b) encapsulating the particulates of (a) in a second, outer coating comprising a film former material in an amount sufficient to render the encapsulated particulates hydrophobic, wherein the particulates retain the cationic charge in the range of from 0.1 mV to 400 mV; wherein step (a) comprises introducing particulates to a microfluidizer and subjecting the particulates to at least one spray coating operation with a first composition comprising a water-soluble or water-dispersible cationically-charged material, followed by subjecting the cationically-charged particulates to at least one drying step; wherein the weight ratio of the first composition to the particulates is in the range of from 0.1:1 to 5:1; and wherein step (b) comprises subjecting the cationically-charged particulates of (a) to at least one spray coating operation with a second composition comprising a film former material in an amount sufficient to further render the cationically-charged particulates hydrophobic, followed by at least one drying step. (a) encapsulating particulates in a first, inner coating comprising a cationically charged material in an amount sufficient to impart a cationic charge in the range of from 0.1 mV to 400 mV to the particulates; and (b) encapsulating the particulates of (a) in a second, outer coating comprising a film former material in an amount sufficient to render the encapsulated particulates hydrophobic, wherein the particulates retain the cationic charge in the range of from 0.1 mV to 400 mV; wherein step (a) comprises introducing particulates to a microfluidizer and subjecting the particulates to at least one spray coating operation with a first composition comprising a water-soluble or water-dispersible cationically-charged material, followed by subjecting the cationically-charged particulates to at least one drying step; wherein the weight ratio of the first composition to the particulates is in the range of from 0.1:1 to 5:1; and wherein step (b) comprises subjecting the cationically-charged particulates of (a) to at least one spray coating operation with a second composition comprising a film former material in an amount sufficient to further render the cationically-charged particulates hydrophobic, followed by at least one drying step.
A method for cleaving Fmoc from one or more Fmoc protected amino groups, wherein the method comprises a step of contacting the Fmoc protected amino groups with a solution comprising 3-(diethylamino)propylamine.
A system comprising: a common integrated circuit, IC, package; a die-to-die interconnect ; a first semiconductor die having a first processor , first connectivity circuitry , a first processor bus , and discrete signal lines coupled to peripherals ; and a second semiconductor die having second connectivity circuitry ,the first die and the second die contained in the common integrated circuit, IC, package ; the first processor communicatively coupled to the first connectivity circuitry by the first processor bus and configured to provide first bus transactions via the first processor bus to the second connectivity circuitry ; the discrete signal lines connected to the first connectivity circuitry to provide first discrete signals indicative of discrete events; the first connectivity circuitry configured to store the first discrete signals in a plurality of virtual signal registers and to convert the first bus transactions and the first discrete signals into die-to-die message packets to be communicated to the second connectivity circuitry via the die-to-die interconnect between the first die and the second die, the first discrete signals being converted into the die-to-die message packets on a register-by-register basis, characterized in that the system further comprises destination synchronizers, the destination synchronizers selectively enabled for scalar or Gray-coded vector signaling events of the first discrete signaling events and selectively disabled for qualifier-based vector signaling events of the first discrete signaling events. a common integrated circuit, IC, package; a die-to-die interconnect ; a first semiconductor die having a first processor , first connectivity circuitry , a first processor bus , and discrete signal lines coupled to peripherals ; and a second semiconductor die having second connectivity circuitry ,the first die and the second die contained in the common integrated circuit, IC, package ; the first processor communicatively coupled to the first connectivity circuitry by the first processor bus and configured to provide first bus transactions via the first processor bus to the second connectivity circuitry ; the discrete signal lines connected to the first connectivity circuitry to provide first discrete signals indicative of discrete events; the first connectivity circuitry configured to store the first discrete signals in a plurality of virtual signal registers and to convert the first bus transactions and the first discrete signals into die-to-die message packets to be communicated to the second connectivity circuitry via the die-to-die interconnect between the first die and the second die, the first discrete signals being converted into the die-to-die message packets on a register-by-register basis, characterized in that the system further comprises destination synchronizers, the destination synchronizers selectively enabled for scalar or Gray-coded vector signaling events of the first discrete signaling events and selectively disabled for qualifier-based vector signaling events of the first discrete signaling events.
A pulse estimation device that is configured to estimate a pulse of a subject (H) from information obtained without contact with the subject (H), the device comprising: an image input portion configured to receive time-sequential captured images (P) including at least a portion of the subject (H) as an object from a camera a region extractor that is configured to extract a skin-color region (R) from each of the captured images (P); a pulse estimator that is configured to estimate the pulse of the subject (H) based on the skin-color region (R) of the captured images (P) obtained by imaging with the camera , wherein the pulse estimator is configured to determine whether or not the estimated pulse is stable, characterized by a zoom commander that is configured to transmit a zoom commanc to the camera that has imaged the captured images (P) or a user of the camera in order to adjust a size of the skin-color region (R); further characterized in that the pulse estimator is configured to estimate the pulse of the subject (H) based on the captured images (P) before the zoom command is transmitted, and in that , in a case where the pulse estimator determines that the pulse is not stable, the zoom commander is configured to transmit the zoom command, and the pulse estimator is configured to again estimate the pulse based on the skin-color region (R) extracted from images received from the camera after the zoom command is transmitted. an image input portion configured to receive time-sequential captured images (P) including at least a portion of the subject (H) as an object from a camera a region extractor that is configured to extract a skin-color region (R) from each of the captured images (P); a pulse estimator that is configured to estimate the pulse of the subject (H) based on the skin-color region (R) of the captured images (P) obtained by imaging with the camera , wherein the pulse estimator is configured to determine whether or not the estimated pulse is stable, a zoom commander that is configured to transmit a zoom commanc to the camera that has imaged the captured images (P) or a user of the camera in order to adjust a size of the skin-color region (R); further characterized in that the pulse estimator is configured to estimate the pulse of the subject (H) based on the captured images (P) before the zoom command is transmitted, and in that , in a case where the pulse estimator determines that the pulse is not stable, the zoom commander is configured to transmit the zoom command, and the pulse estimator is configured to again estimate the pulse based on the skin-color region (R) extracted from images received from the camera after the zoom command is transmitted.
Method for producing a sensor element for a pressure or force sensor, comprising the steps of: a) providing a component to be deformed , c) applying to said component a sensor functional and contact layer from a material having a k-factor of between 2 and 10, d) planar removal of the material of the sensor functional and contact layer using a laser in such a way that strain gauges having a meander-shaped resistor structure and contact pads (46.1, 46.2, 46.3, 46.4) are left, wherein for the removal of the material, laser pulses from the group of laser pulses are used which comprises • laser pulses in the sub-ps range, • laser pulses from a broadband laser source having a wavelength bandwidth of 10 nm to 70 nm, • laser pulses from a broadband laser source having a fundamental wave length and a wave length bandwidth of at least 1%, preferably at least 2%, most preferably at least 3% of the fundamental wavelength, • laser pulses compressed by a pulse compression process, and • laser pulses passed through a hollow-core fiber. a) providing a component to be deformed , c) applying to said component a sensor functional and contact layer from a material having a k-factor of between 2 and 10, d) planar removal of the material of the sensor functional and contact layer using a laser in such a way that strain gauges having a meander-shaped resistor structure and contact pads (46.1, 46.2, 46.3, 46.4) are left, wherein for the removal of the material, laser pulses from the group of laser pulses are used which comprises • laser pulses in the sub-ps range, • laser pulses from a broadband laser source having a wavelength bandwidth of 10 nm to 70 nm, • laser pulses from a broadband laser source having a fundamental wave length and a wave length bandwidth of at least 1%, preferably at least 2%, most preferably at least 3% of the fundamental wavelength, • laser pulses compressed by a pulse compression process, and • laser pulses passed through a hollow-core fiber. • laser pulses in the sub-ps range, • laser pulses from a broadband laser source having a wavelength bandwidth of 10 nm to 70 nm, • laser pulses from a broadband laser source having a fundamental wave length and a wave length bandwidth of at least 1%, preferably at least 2%, most preferably at least 3% of the fundamental wavelength, • laser pulses compressed by a pulse compression process, and • laser pulses passed through a hollow-core fiber.
A flattening device, configured to flatten a sheet medium being input, comprising: a holder configured to support the following components; at least one flattening roller set, comprising a first flattening roller and a second flattening roller arranged oppositely at two sides of a sheet medium conveying path; and a power mechanism configured to drive the first flattening roller and the second flattening roller to rotate; wherein a surface of the first flattening roller is distributed with n arc-shaped grooves arranged in parallel with an axis direction of the first flattening roller , wherein n is a natural number greater than or equal to 1, and a surface of the second flattening roller is provided with at least one arc-shaped protruding portion in rolling engagement with the arc-shaped grooves of the first flattening roller ; and wherein, the first flattening roller and the second flattening roller are in rolling engagement to form a conveying passage for the sheet medium; and wherein at least one side of two sides of the flattening roller set is provided with a conveying guiding roller ; characterized in that , a preset differential value is provided between a surface linear velocity of the conveying guiding roller and a surface linear velocity of the first flattening roller .
A wiring harness assembly , comprising: a plurality of separated conductors formed of a first electrically conductive material; a substrate formed of a dielectric material encasing the plurality of separated conductors; a location feature integrally formed with the substrate ; an opening defined in the substrate having a predetermined size and shape, wherein a section of the plurality of separated conductors is exposed within the opening and wherein the opening is precisely located relative to the location feature ; and a connector , wherein the plurality of separated conductors are a plurality of electrically conductive wires formed of the first electrically conductive material, characterized in that the connector has a lower segment disposed within the opening and an upper segment secured to the lower segment, wherein the connector is secured to the substrate , wherein the lower segment includes a cradle feature that is in mechanical contact with a lower portion of the plurality of electrically conductive wires , thereby supporting the plurality of electrically conductive wires . a plurality of separated conductors formed of a first electrically conductive material; a substrate formed of a dielectric material encasing the plurality of separated conductors; a location feature integrally formed with the substrate ; an opening defined in the substrate having a predetermined size and shape, wherein a section of the plurality of separated conductors is exposed within the opening and wherein the opening is precisely located relative to the location feature ; and a connector , wherein the plurality of separated conductors are a plurality of electrically conductive wires formed of the first electrically conductive material, characterized in that the connector has a lower segment disposed within the opening and an upper segment secured to the lower segment, wherein the connector is secured to the substrate , wherein the lower segment includes a cradle feature that is in mechanical contact with a lower portion of the plurality of electrically conductive wires , thereby supporting the plurality of electrically conductive wires .
An aqueous ophthalmic solution comprising: a. 0.1% (w/v) to 4% (w/v) of phentolamine or a pharmaceutically acceptable salt thereof; b. 1% (w/v) to 6% (w/v) of at least one polyol compound having a molecular weight less than 250 g/mol; c. 0.1 mM to 10 mM of at least one buffer; and d. water; wherein the solution has a pH in the range of 4.0 to 7.5 and does not contain an additional component that is a chelating agent. a. 0.1% (w/v) to 4% (w/v) of phentolamine or a pharmaceutically acceptable salt thereof; b. 1% (w/v) to 6% (w/v) of at least one polyol compound having a molecular weight less than 250 g/mol; c. 0.1 mM to 10 mM of at least one buffer; and d. water;
A urinary incontinence device comprising: a body configured to be inserted into a vagina, wherein the body comprises a compressed configuration, an expanded configuration, and a lateral cross-sectional diameter; the body comprising: a proximal insertion portion ; a plurality of legs coupled to and extending distally from the insertion portion , wherein each leg has a length, a width, and a distal end and the distal ends of the plurality of legs are coupled together forming a distal surface; and a distal retrieval portion coupled to the distal surface, wherein, in the expanded configuration, the lateral cross-sectional diameter of the body is largest at a widest point of each of the plurality of legs . a proximal insertion portion ; a plurality of legs coupled to and extending distally from the insertion portion , wherein each leg has a length, a width, and a distal end and the distal ends of the plurality of legs are coupled together forming a distal surface; and a distal retrieval portion coupled to the distal surface, wherein, in the expanded configuration, the lateral cross-sectional diameter of the body is largest at a widest point of each of the plurality of legs .
Microalgal flour granules, wherein said granules have at least one of the following characteristics: a particle size distribution of from 2 to 400 μm; flow grades, determined according to test A as defined in the description, of 0.5 to 60% by weight for the oversize at 2000 μm, 0.5 to 60% by weight for the oversize at 1400 μm, and 0.5 to 95% by weight for the oversize at 800 μm; and a degree of wettability, expressed according to test B as defined in the description, by the height of the product settled in a 600 mL, 125 mm tall beaker, at a value of 0.2 to 4.0 cm, preferably 1.0 to 3.0 cm, wherein said microalgal flour granules comprise lysed and intact microalgal cells and the percentage of intact cells is 25% to 75% and the microalga is of the genus Chlorella. a particle size distribution of from 2 to 400 μm; flow grades, determined according to test A as defined in the description, of 0.5 to 60% by weight for the oversize at 2000 μm, 0.5 to 60% by weight for the oversize at 1400 μm, and 0.5 to 95% by weight for the oversize at 800 μm; and 0.5 to 60% by weight for the oversize at 2000 μm, 0.5 to 60% by weight for the oversize at 1400 μm, and 0.5 to 95% by weight for the oversize at 800 μm; and a degree of wettability, expressed according to test B as defined in the description, by the height of the product settled in a 600 mL, 125 mm tall beaker, at a value of 0.2 to 4.0 cm, preferably 1.0 to 3.0 cm, wherein said microalgal flour granules comprise lysed and intact microalgal cells and the percentage of intact cells is 25% to 75% and the microalga is of the genus Chlorella.
A method for evaluating an audio device, comprising: inputting into an audio device an audio signal having a waveform of recorded sound such as sound of string instruments, wind instruments, percussion instruments, vocal sound or the like which is recorded on a recording medium, comparing the waveform of recorded sound of the audio signal before input in the audio device and a waveform of sound after output from the audio device, and evaluating a performance of the audio device quantitatively based on a degree of conformity of the two waveforms by calculating the peak position deviation of harmonic components contained in the waveforms. inputting into an audio device an audio signal having a waveform of recorded sound such as sound of string instruments, wind instruments, percussion instruments, vocal sound or the like which is recorded on a recording medium, comparing the waveform of recorded sound of the audio signal before input in the audio device and a waveform of sound after output from the audio device, and evaluating a performance of the audio device quantitatively based on a degree of conformity of the two waveforms by calculating the peak position deviation of harmonic components contained in the waveforms.