mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: receiving , by a control panel , patient data generated by at least two sensors in a scan room , wherein the at least two sensors are each a camera, the patient data corresponding to dimensions of a body of a patient; receiving , by the control panel, weight data of the patient from a weight sensor , wherein the weight data is the weight of the patient, wherein the scan room comprises a floor, wherein the weight sensor covers a portion of the floor of the scan room; generating , by the control panel, model data as a function of the patient data and the weight data using a parameter library , wherein the parameter library is a table of data from which the patient data and the weight data are referenced to generate the model data, wherein the the model data represents the body of the patient; receiving, by the control panel, a target location on the model data, the target location corresponding to a desired position on the body of the patient for performing an imaging scan with an MRI device ; and determining, by the control panel, an isocenter for the imaging scan as a function of the target location. receiving , by a control panel , patient data generated by at least two sensors in a scan room , wherein the at least two sensors are each a camera, the patient data corresponding to dimensions of a body of a patient; receiving , by the control panel, weight data of the patient from a weight sensor , wherein the weight data is the weight of the patient, wherein the scan room comprises a floor, wherein the weight sensor covers a portion of the floor of the scan room; generating , by the control panel, model data as a function of the patient data and the weight data using a parameter library , wherein the parameter library is a table of data from which the patient data and the weight data are referenced to generate the model data, wherein the the model data represents the body of the patient; receiving, by the control panel, a target location on the model data, the target location corresponding to a desired position on the body of the patient for performing an imaging scan with an MRI device ; and determining, by the control panel, an isocenter for the imaging scan as a function of the target location.
Process for preparing organic isocyanates having carbodiimide and/or uretonimine groups or prepolymers derived therefrom, wherein (i) in a first step, a starting isocyanate which is an organic isocyanate or a mixture of a plurality of organic isocyanates is partially carbodiimidized using a catalyst K of the formula cyclo -C 4 H 6 P(O)R, where the substituent R is a saturated or unsaturated, optionally substituted, organic radical, and subsequently (ii) in a second step, the carbodiimidization reaction is stopped at a temperature of ≤ 80°C by addition of a stopper, where an organic silane S of the general formula H n SiX 4-n , where n is a natural number in the range from 1 to 3 and X is a saturated or unsaturated, optionally substituted, organic radical, is used as stopper. (i) in a first step, a starting isocyanate which is an organic isocyanate or a mixture of a plurality of organic isocyanates is partially carbodiimidized using a catalyst K of the formula cyclo -C 4 H 6 P(O)R, where the substituent R is a saturated or unsaturated, optionally substituted, organic radical, and subsequently (ii) in a second step, the carbodiimidization reaction is stopped at a temperature of ≤ 80°C by addition of a stopper,
A module for a hearing assistance device adapted to be worn on or in an ear of a user, the module comprising: a housing configured to accommodate a microphone and a programming connector, the housing configured to provide external electrical contacts to the microphone and to the programming connector, the housing shaped to be a component of the hearing assistance device, a flexible circuit , and a cover configured to connect to the housing; wherein the housing and the cover form a slit opening configured to receive a flexible tape connector, the programming connector is configured to connect to the flexible tape connector using a plurality of contacts of the flexible circuit that contact the flexible tape connector when inserted into the slit opening, and an elastomeric pad between the cover and the flexible circuit, the pad configured to improve the connection between the flexible circuit and the flexible tape connector. a housing configured to accommodate a microphone and a programming connector, the housing configured to provide external electrical contacts to the microphone and to the programming connector, the housing shaped to be a component of the hearing assistance device, a flexible circuit , and a cover configured to connect to the housing; wherein the housing and the cover form a slit opening configured to receive a flexible tape connector, the programming connector is configured to connect to the flexible tape connector using a plurality of contacts of the flexible circuit that contact the flexible tape connector when inserted into the slit opening, and an elastomeric pad between the cover and the flexible circuit, the pad configured to improve the connection between the flexible circuit and the flexible tape connector.
An in vitro method for detecting α-synuclein aggregates, the method comprising: - administering ginsenoside Rb1 to a sample of tissue and/or biological fluid from a subject; and - detecting the binding of the compound to α-synuclein aggregates by contacting the sample with congo red or thioflavin-T. - administering ginsenoside Rb1 to a sample of tissue and/or biological fluid from a subject; and - detecting the binding of the compound to α-synuclein aggregates by contacting the sample with congo red or thioflavin-T.
Transmission device (G) for a multicopter, having a drive shaft , an output shaft , a planetary gear set (P) and an electric machine (EM), wherein the planetary gear set (P) has a plurality of elements, specifically at least a first element (E1), a second element (E2) and a third element (E3), and wherein the rotor (R) of the electric machine (EM) is connected to the drive shaft , wherein - the drive shaft is furthermore connected rotationally conjointly to the first element (E1), - the output shaft is connected rotationally conjointly to the second element (E2), - the third element (E3) is fixed to a rotationally fixed structural element (GG), - wherein, for the conveyance of a first fluid in a first fluid circuit for the lubrication and/or cooling of the components of the transmission device , a conveying device is provided within the output shaft designed as a hollow shaft, and at least one first fluid line is provided which is designed to provide the first fluid conveyed within the output shaft to the components , characterized in that , for the conveyance of a second fluid in a second fluid circuit for the cooling of components of power electronics and/or for the cooling of the first fluid, a pump is provided, the inner pump impeller of which is connected rotationally conjointly to the output shaft . - the drive shaft is furthermore connected rotationally conjointly to the first element (E1), - the output shaft is connected rotationally conjointly to the second element (E2), - the third element (E3) is fixed to a rotationally fixed structural element (GG), - wherein, for the conveyance of a first fluid in a first fluid circuit for the lubrication and/or cooling of the components of the transmission device , a conveying device is provided within the output shaft designed as a hollow shaft, and at least one first fluid line is provided which is designed to provide the first fluid conveyed within the output shaft to the components ,
Key blank for producing a key for a lock cylinder , wherein the key blank has a shank extending along a longitudinal direction (X), wherein the shank has an, in particular substantially rectangular, cross section perpendicular to the longitudinal direction (X), wherein the cross section has two wider broad side faces and two narrower narrow side faces , wherein the key blank is a reversible key blank, and wherein the shank has a recess with a rectangular base face in each of the broad side faces , characterized in that a thickness of the key blank between the base faces of the recesses is smaller than 1.8 mm, in that at least one first rib extending in the longitudinal direction (X) and a second rib extending in the longitudinal direction (X) are arranged on each of the broad side faces , wherein the first rib is wider than the second rib in a direction parallel to the broad side faces and perpendicular to the longitudinal direction (X), and in that each of the recesses is arranged between the respective first rib and second rib .
A sensor element, wherein the sensor element is an optical sensor configured to sense physiological conditions, the sensor element comprising: a light source configured to emit light to the exterior of the sensor element, and a light detector configured to detect light that enters the sensor element, characterized in that the sensor element comprises walls (204-206) surrounding the light source and the light detector , and a window element in contact with the walls (204-206), wherein the window element covers and protects the light source and the light detector , wherein the window element comprises a plurality of adjacent optical fibers . a light source configured to emit light to the exterior of the sensor element, and a light detector configured to detect light that enters the sensor element, characterized in that the sensor element comprises walls (204-206) surrounding the light source and the light detector , and a window element in contact with the walls (204-206), wherein the window element covers and protects the light source and the light detector , wherein the window element comprises a plurality of adjacent optical fibers .
A circuit topology fabricated onto a printhead die of each printhead of a printing device , comprising: a high voltage power source (V PP , 122) connected to a number of high voltage devices used to fire a number of the printheads ; a power loss detection device to detect a power loss to the printing device; printhead fire control circuitry; and a voltage regulator to regulate an input voltage to produce a power loss protection supply voltage (V DD_ plp), V DD_ plp being provided to the printhead fire control circuitry if the power loss detection device detects a power loss to the printing device, the printhead fire control circuitry being operable to control current in the high voltage devices, wherein the printhead fire control circuitry is operable to control current in the high voltage device by powering all printhead fire control circuitry until V PP is below a discharge threshold. a high voltage power source (V PP , 122) connected to a number of high voltage devices used to fire a number of the printheads ; a power loss detection device to detect a power loss to the printing device; printhead fire control circuitry; and a voltage regulator to regulate an input voltage to produce a power loss protection supply voltage (V DD_ plp), V DD_ plp being provided to the printhead fire control circuitry if the power loss detection device detects a power loss to the printing device, the printhead fire control circuitry being operable to control current in the high voltage devices, wherein the printhead fire control circuitry is operable to control current in the high voltage device by powering all printhead fire control circuitry until V PP is below a discharge threshold.
An industrial hide splitting machine , comprising: - an infeed table for infeeding hide (P) which has an infeed belt with a hide receiving surface for the hide (P) to be cut to be positioned thereupon; - a driving head placed above said infeed table and having a feeding belt wound in a closed-loop around first support roller means and adapted to cooperate with said infeed belt to feed the hide (P) in a predetermined feed direction (D), said feeding belt having a lower surface facing said receiving surface of said infeed belt to define a gap therewith for receiving the hide (P); - a pair of mutually opposed guide rollers , adapted to rotate about respective rotation axes transverse to said feed direction (D) to define an outlet for the hide (P) to be cut; - a cutting device located downstream of said outlet as viewed in said feed direction(D); wherein said infeed belt is wound in a closed-loop configuration around second support roller means and has an outfeed section for outfeeding the hide (P), which is located upstream of said outlet defined by said pair of guide rollers and faces it at such a distance as to be spaced apart from said cutting device and not in contact therewith; wherein said first support roller means comprise a plurality of first return and/or tensioning rollers (15-18) of said feeding belt ; characterized in that said upper guide roller and said plurality of first return and/or tensioning rollers (15-18) are arranged inside and in contact with said feeding belt , to reduce the space occupied by the splitting machine . - an infeed table for infeeding hide (P) which has an infeed belt with a hide receiving surface for the hide (P) to be cut to be positioned thereupon; - a driving head placed above said infeed table and having a feeding belt wound in a closed-loop around first support roller means and adapted to cooperate with said infeed belt to feed the hide (P) in a predetermined feed direction (D), said feeding belt having a lower surface facing said receiving surface of said infeed belt to define a gap therewith for receiving the hide (P); - a pair of mutually opposed guide rollers , adapted to rotate about respective rotation axes transverse to said feed direction (D) to define an outlet for the hide (P) to be cut; - a cutting device located downstream of said outlet as viewed in said feed direction(D); wherein said first support roller means comprise a plurality of first return and/or tensioning rollers (15-18) of said feeding belt ; characterized in that said upper guide roller and said plurality of first return and/or tensioning rollers (15-18) are arranged inside and in contact with said feeding belt , to reduce the space occupied by the splitting machine .
A backlight unit, comprising: a bottom cover ; a protruding portion which vertically protrudes from an upper surface and at a side edge of the bottom cover ; a light guiding plate placed on the bottom cover ; and an LED assembly disposed at a position adjacent to the light guiding plate and arranged to emit light towards the light guiding plate , the LED assembly including: a substrate vertically placed on and perpendicular to the bottom cover , at least one LED light source mounted on the substrate and facing a side surface of the light guiding plate , a support on which the substrate is mounted, the support being placed on the upper surface of the bottom cover and having an opening , characterized in that the support has a bar shape of rectangular cross-section that does not protrude at a lower portion towards the LED light source or the light guiding plate , and in that the protruding portion forms part of the bottom cover and is inserted in the opening of the support placed on the upper surface of the bottom cover . a bottom cover ; a protruding portion which vertically protrudes from an upper surface and at a side edge of the bottom cover ; a light guiding plate placed on the bottom cover ; and an LED assembly disposed at a position adjacent to the light guiding plate and arranged to emit light towards the light guiding plate , the LED assembly including: a substrate vertically placed on and perpendicular to the bottom cover , at least one LED light source mounted on the substrate and facing a side surface of the light guiding plate , a support on which the substrate is mounted, the support being placed on the upper surface of the bottom cover and having an opening , characterized in that the support has a bar shape of rectangular cross-section that does not protrude at a lower portion towards the LED light source or the light guiding plate , and in that the protruding portion forms part of the bottom cover and is inserted in the opening of the support placed on the upper surface of the bottom cover . a substrate vertically placed on and perpendicular to the bottom cover , at least one LED light source mounted on the substrate and facing a side surface of the light guiding plate , a support on which the substrate is mounted, the support being placed on the upper surface of the bottom cover and having an opening , characterized in that the support has a bar shape of rectangular cross-section that does not protrude at a lower portion towards the LED light source or the light guiding plate , and in that the protruding portion forms part of the bottom cover and is inserted in the opening of the support placed on the upper surface of the bottom cover .
A visual display unit , comprising: a first screen in a first focal plane, wherein said first screen displays a first image; a second screen in a second focal plane distinct from said first focal plane, wherein said second screen displays a second image, wherein said second screen overlaps said first screen , and; an at least partially opaque physical object located between said first screen and said second screen , wherein at least one of said first and second images is displayed in response to a placement of said physical object , characterized in that said first image and said second image are configured to create the perception of a three-dimensional image within a 3D volumetric space created by relating said first image and said second image, wherein the physical object is interposed about said 3D volumetric space. a first screen in a first focal plane, wherein said first screen displays a first image; a second screen in a second focal plane distinct from said first focal plane, wherein said second screen displays a second image, wherein said second screen overlaps said first screen , and; an at least partially opaque physical object located between said first screen and said second screen , wherein at least one of said first and second images is displayed in response to a placement of said physical object , characterized in that said first image and said second image are configured to create the perception of a three-dimensional image within a 3D volumetric space created by relating said first image and said second image, wherein the physical object is interposed about said 3D volumetric space.
A process for production of propylene comprising: introducing a hydrocarbon stream comprising 2-butene to an isomerization catalyst zone to isomerize the 2-butene to 1-butene, where the isomerization catalyst zone comprises a silica-alumina catalyst with a ratio by weight of alumina to silica from 1:99 to 20:80; passing the 2-butene and 1-butene to a metathesis catalyst zone to cross-metathesize the 2-butene and 1-butene into a metathesis product stream comprising propylene and C 4 -C 6 olefins, where the metathesis catalyst comprises a mesoporous silica catalyst support impregnated with metal oxide; and cracking the metathesis product stream in a catalyst cracking zone to produce propylene, where the catalyst cracking zone comprises a mordenite framework inverted (MFI) structured silica catalyst; and optionally where the hydrocarbon feed is a Raffinate 2 stream from a fluid catalytic cracker or an ethylene cracker. introducing a hydrocarbon stream comprising 2-butene to an isomerization catalyst zone to isomerize the 2-butene to 1-butene, where the isomerization catalyst zone comprises a silica-alumina catalyst with a ratio by weight of alumina to silica from 1:99 to 20:80; passing the 2-butene and 1-butene to a metathesis catalyst zone to cross-metathesize the 2-butene and 1-butene into a metathesis product stream comprising propylene and C 4 -C 6 olefins, where the metathesis catalyst comprises a mesoporous silica catalyst support impregnated with metal oxide; and cracking the metathesis product stream in a catalyst cracking zone to produce propylene, where the catalyst cracking zone comprises a mordenite framework inverted (MFI) structured silica catalyst; and optionally where the hydrocarbon feed is a Raffinate 2 stream from a fluid catalytic cracker or an ethylene cracker.
A method of pairing in a system comprising a network server and a plurality of network devices , comprising: each network device , in response to receiving a pairing sequence input from a user, generating a signal corresponding to the pairing sequence and transmitting the signal to the network server ; the network server monitoring for any first signal from a first of the network devices and any second signal from a second of the network devices that are simultaneously received within a common timeframe and comparing a first pairing sequence corresponding to the first signal with a second pairing sequence corresponding to the second signal; and pairing the first network device and the second network device when the second pairing sequence correlates to the first pairing sequence. each network device , in response to receiving a pairing sequence input from a user, generating a signal corresponding to the pairing sequence and transmitting the signal to the network server ; the network server monitoring for any first signal from a first of the network devices and any second signal from a second of the network devices that are simultaneously received within a common timeframe and comparing a first pairing sequence corresponding to the first signal with a second pairing sequence corresponding to the second signal; and pairing the first network device and the second network device when the second pairing sequence correlates to the first pairing sequence.