mhurhangee/patent-ind-claim-en huggingface dataset:
A compound of Formula (I): wherein Y is N or CH; R 1 is selected from the group consisting of: H, halo, and C 1-6 alkyl; R 2 is selected from the group consisting of: C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy, and C 3- 8 cycloalkyl; R 3 is selected from the group consisting of: H, halo, C 1-6 alkyl, C 1-6 alkoxy, CN, and CF 3 ; R 4 is selected from the group consisting of: C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy, phenyl substituted with F, and pyridyl; and is selected from the group consisting of: -CH=N-, -CH 2 -C(=O)-, and -S-C(=O)-; and pharmaceutically acceptable salts, N-oxides, or solvates thereof. Y is N or CH; R 1 is selected from the group consisting of: H, halo, and C 1-6 alkyl; R 2 is selected from the group consisting of: C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy, and C 3- 8 cycloalkyl; R 3 is selected from the group consisting of: H, halo, C 1-6 alkyl, C 1-6 alkoxy, CN, and CF 3 ; R 4 is selected from the group consisting of: C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy, phenyl substituted with F, and pyridyl; and is selected from the group consisting of: -CH=N-, -CH 2 -C(=O)-, and -S-C(=O)-; and
A gas turbine engine comprising: a control and diagnostic system including: a main transceiver mounted proximate the gas turbine engine, the main transceiver generating and receiving radio frequency waves corresponding to information for control and monitoring of engine operation; a wave guide assembly comprising a tubular housing defining an exterior surface and an internal cavity extending between distal ends, and at least one wave guide within the internal cavity defining a wave propagation passage for at least one wave form signal, at least one conductor within the internal cavity separate from the wave guide , wherein the at least one wave guide within the internal cavity defines a transmission pathway for the at least one wave form signal; and at least one remote transceiver attached to an end of the wave guide assembly and in communication with the main transceiver through a wave form signal communicated through the at least one wave guide . a control and diagnostic system including: a main transceiver mounted proximate the gas turbine engine, the main transceiver generating and receiving radio frequency waves corresponding to information for control and monitoring of engine operation; a wave guide assembly comprising a tubular housing defining an exterior surface and an internal cavity extending between distal ends, and at least one wave guide within the internal cavity defining a wave propagation passage for at least one wave form signal, at least one conductor within the internal cavity separate from the wave guide , wherein the at least one wave guide within the internal cavity defines a transmission pathway for the at least one wave form signal; and a main transceiver mounted proximate the gas turbine engine, the main transceiver generating and receiving radio frequency waves corresponding to information for control and monitoring of engine operation; a wave guide assembly comprising a tubular housing defining an exterior surface and an internal cavity extending between distal ends, and at least one wave guide within the internal cavity defining a wave propagation passage for at least one wave form signal, at least one conductor within the internal cavity separate from the wave guide , wherein the at least one wave guide within the internal cavity defines a transmission pathway for the at least one wave form signal; and at least one remote transceiver attached to an end of the wave guide assembly and in communication with the main transceiver through a wave form signal communicated through the at least one wave guide .
A heatable pump housing part comprising an annular or C-shaped groove or an annular or C-shaped step integrally formed into the housing part , a tubular heating element disposed in the groove or at the step, the tubular heating element having a top side, a bottom side, and longitudinal sides connecting the top side to the bottom side, the bottom side and the radially inner longitudinal side of the tubular heating element being coupled to the housing part in an at least partially heat-conducting manner, and the radially outer longitudinal side extending at least in sections perpendicularly to the bottom side and/or at least in sections from the top side radially outwardly to the bottom side, the radially inner longitudinal side extending from the top side radially outwardly to the bottom side, characterized in that a carrier of a temperature-sensitive circuit element is attached to the tubular heating element , the top side of the tubular heating element including depressions and/or elevations for positioning or fixing the carrier of a temperature-sensitive circuit element .
A shifting device for a change speed gearbox of a motor vehicle, having a shifting shaft which is displaceable along its longitudinal axis in a selective direction and rotatable about its longitudinal axis in a switching direction by means of a shift lever , wherein the shift shaft is divided in the longitudinal direction and has a primary shaft connected to the shift lever and a secondary shaft connected to at least one switching sleeve and/or at least one latching sleeve, characterised in that the primary shaft and the secondary shaft are interconnected such that, between the two shafts , there is a clearance enabling rotation about the longitudinal axis.
Cooling device for a hot-rolling mill for a metal strip , the hot-rolling mill having at least one pair of work rolls each having a work roll surface , the cooling device comprising a shovel-shaped body comprising a plurality of openings arranged to project a cooling fluid on a work roll , and a scraper connected to the shovel-shaped body arranged to prevent the cooling fluid from spilling on the metal strip , and a pressure means for pressing the scraper against said work roll surface , the shovel-shaped body further comprising one or more spacers arranged to contact the work roll surface .
A method for molding a plastic element comprising a body having a surface from which at least one rib extends, and an insert at least partially arranged against said surface and under said rib , the method comprising the following steps: - installing the insert against a wall of an injection cavity , said wall comprising at least one slit extending at least partially opposite at least one part of the insert , said slit being adapted to form the rib of the plastic element , and - injecting molding material into the injection cavity to create the body and the rib of the plastic element , characterized in that a support element is positioned in the slit , against the insert , to support said insert during the injection. - installing the insert against a wall of an injection cavity , said wall comprising at least one slit extending at least partially opposite at least one part of the insert , said slit being adapted to form the rib of the plastic element , and - injecting molding material into the injection cavity to create the body and the rib of the plastic element ,
A pharmaceutical composition comprising compound 1: or pharmaceutically acceptable salt thereof, for use in treating a cysteamine sensitive disorder in a subject, wherein a dose from 50 to 150 milligrams per kilogram of body weight (mg/kg) of compound 1, or a pharmaceutically acceptable salt thereof, is orally administered to the subject one or more times daily, and wherein the cysteamine sensitive disorder is selected from cystinosis; neurodegenerative disease; neurodevelopmental disease; neuropsychiatric disease; mitochondrial disease; fibrotic diseases of the kidney, of the liver, or of the lung; parasitic infection; sickle cell anemia; cancer; ischemic disease including ischemic heart disease or stroke; chronic obstructive pulmonary disease (COPD); cystic fibrosis (CF); bacterial infection; viral infection; non-alcoholic steatohepatitis (NASH); alcoholic steatohepatitis; and non-alcoholic fatty liver disease (NAFLD).
A household appliance comprising a body ; a casing that is disposed into the body and that protects in particular components with heating function; at least one cable harness that is composed of one or more than one cable that enables the energy supplied by the energy source to be delivered to the components in the household appliance ; at least one fixing member that holds the cable harness together characterized by a holder that is mounted to the household appliance and - that is in the form of a wire and - that has one or more than one housing that almost completely surrounds the fixing member disposed thereon and said fixing member comprising - at least one support that is inserted into the housing and a stopper , wherein the housing is disposed between the support and the stopper , - a recess that is arranged between the support and the stopper of said fixing member and wherein the housing is seated in said recess when the fixing member is inserted into said housing - a clamp that is disposed at the other side of the stopper and that surrounds and holds the cable harness. - that is in the form of a wire and - that has one or more than one housing that almost completely surrounds the fixing member disposed thereon - at least one support that is inserted into the housing and a stopper , wherein the housing is disposed between the support and the stopper , - a recess that is arranged between the support and the stopper of said fixing member and wherein the housing is seated in said recess when the fixing member is inserted into said housing - a clamp that is disposed at the other side of the stopper and that surrounds and holds the cable harness.
A manufacturing method for generatively manufacturing a three-dimensional object by layer-by-layer application and selective solidification of a building material , preferably a powder, comprising the steps of: applying a layer of the building material to a build area by means of a recoater , selectively solidifying the applied layer of the building material at points that correspond to a cross-section of the object to be manufactured by means of a solidification device that is moved in a solidification direction across the build area in order to selectively solidify the applied layer, and repeating the steps of applying and solidifying until the three-dimensional object is completed, wherein a heating element that is moved in a movement direction across the build area and that is different from the solidification device locally introduces thermal energy into the newly applied layer of the building material and/or into the layer of the building material which has been already selectively solidified, wherein the movement of the heating element is coordinated, preferably coupled, with the movement of the solidification device , wherein the thermal energy released by the heating element at a point of the build area is adjustable depending on the position of this point in the build area and the heating power is varied depending on the position, and wherein the local heating is performed by means of radiation. applying a layer of the building material to a build area by means of a recoater , selectively solidifying the applied layer of the building material at points that correspond to a cross-section of the object to be manufactured by means of a solidification device that is moved in a solidification direction across the build area in order to selectively solidify the applied layer, and repeating the steps of applying and solidifying until the three-dimensional object is completed, wherein a heating element that is moved in a movement direction across the build area and that is different from the solidification device locally introduces thermal energy into the newly applied layer of the building material and/or into the layer of the building material which has been already selectively solidified, wherein the movement of the heating element is coordinated, preferably coupled, with the movement of the solidification device , wherein the thermal energy released by the heating element at a point of the build area is adjustable depending on the position of this point in the build area and the heating power is varied depending on the position, and wherein the local heating is performed by means of radiation.
Photovoltaic module comprising: - a substrate , and - a plurality of photovoltaic cells encapsulated in the substrate , the module having: - a first part comprising the photovoltaic cells divided into at least two photovoltaic sub-modules (2A, 2B, etc.) that are disjoint from one another, and - a second part free of photovoltaic cells and extending from the first part of the module to form a connecting member joining the photovoltaic sub-modules (2A, 2B, etc.) to one another, the connecting member , at least partially formed by the substrate , being configured to be mounted on a supporting structure and to have a flexibility such that a deformation of the connecting member induces a movement of at least one, preferably of several, potentially of each, of the photovoltaic sub-modules (2A, 2B, etc.), without deforming the photovoltaic sub-modules (2A, 2B, etc.), said movement being a function of the deformation of the connecting member , the module being characterised in that , since the connecting member extends in a determined main direction D, the deformation of the connecting member comprises a twisting of the connecting member with a moment of force acting in said main direction D. - a substrate , and - a plurality of photovoltaic cells encapsulated in the substrate , the module having: - a first part comprising the photovoltaic cells divided into at least two photovoltaic sub-modules (2A, 2B, etc.) that are disjoint from one another, and - a second part free of photovoltaic cells and extending from the first part of the module to form a connecting member joining the photovoltaic sub-modules (2A, 2B, etc.) to one another, - a first part comprising the photovoltaic cells divided into at least two photovoltaic sub-modules (2A, 2B, etc.) that are disjoint from one another, and - a second part free of photovoltaic cells and extending from the first part of the module to form a connecting member joining the photovoltaic sub-modules (2A, 2B, etc.) to one another, the connecting member , at least partially formed by the substrate , being configured to be mounted on a supporting structure and to have a flexibility such that a deformation of the connecting member induces a movement of at least one, preferably of several, potentially of each, of the photovoltaic sub-modules (2A, 2B, etc.), without deforming the photovoltaic sub-modules (2A, 2B, etc.), said movement being a function of the deformation of the connecting member , the module being characterised in that , since the connecting member extends in a determined main direction D, the deformation of the connecting member comprises a twisting of the connecting member with a moment of force acting in said main direction D.
An apparatus for analyzing a gas concentration in a breath of a patient, the apparatus comprising: a gas analyzer configured to measure a gas concentration in the apparatus; an inlet configured to receive the breath of the patient; a breath analyzer configured to determine a breathing parameter frequency of the patient's breath; a database comprising a plurality of coefficients corresponding to a plurality of breathing parameter frequencies; and a processor containing a non-transitory computer readable medium containing executable instructions that when executed perform a method of determining the gas concentration of the patient's breath at the inlet of the apparatus, the method comprising: accessing the database to obtain a first plurality of coefficients based on the patient's breathing parameter frequency; deriving a first plurality of polynomial equations based on the first plurality of coefficients; deriving a second plurality of coefficients by inputting the breathing parameter frequency into each of the first plurality of polynomial equations; deriving a compensation equation using the second plurality of coefficients; and determining the inlet gas concentration by inputting the measured gas concentration into the compensation equation. a gas analyzer configured to measure a gas concentration in the apparatus; an inlet configured to receive the breath of the patient; a breath analyzer configured to determine a breathing parameter frequency of the patient's breath; a database comprising a plurality of coefficients corresponding to a plurality of breathing parameter frequencies; and a processor containing a non-transitory computer readable medium containing executable instructions that when executed perform a method of determining the gas concentration of the patient's breath at the inlet of the apparatus, the method comprising: accessing the database to obtain a first plurality of coefficients based on the patient's breathing parameter frequency; deriving a first plurality of polynomial equations based on the first plurality of coefficients; deriving a second plurality of coefficients by inputting the breathing parameter frequency into each of the first plurality of polynomial equations; deriving a compensation equation using the second plurality of coefficients; and determining the inlet gas concentration by inputting the measured gas concentration into the compensation equation. accessing the database to obtain a first plurality of coefficients based on the patient's breathing parameter frequency; deriving a first plurality of polynomial equations based on the first plurality of coefficients; deriving a second plurality of coefficients by inputting the breathing parameter frequency into each of the first plurality of polynomial equations; deriving a compensation equation using the second plurality of coefficients; and determining the inlet gas concentration by inputting the measured gas concentration into the compensation equation.
An adjusting method of an extrusion rate in which a perforated plate is superimposed on and attached to a forming die for use in extrusion of a honeycomb formed body, to achieve a uniformity of an extrusion rate of a forming material which passes through the forming die at a die surface , the perforated plate comprising a plurality of through hole portions bored at positions of a perforated plate surface which face back holes opened at a die back surface , to introduce the forming material into the forming die , the through hole portions being formed so that a hole diameter (D) of the through hole portion decreases from a circumferential portion of the perforated plate toward a central portion thereof gradually or stepwisely, the adjusting method comprising: a perforated plate group preparation step preparing a plurality of perforated plates which are different in degree of diameter decrease of the hole diameter (D) of the through hole portion , characterised in that the adjusting method further comprises: a trial extrusion step of using the forming die to which the perforated plate is not attached, extruding the forming material from the forming die , and forming a trial honeycomb formed body ; a shape measuring step of measuring a shape of a formed body end face of the trial honeycomb formed body ; and a perforated plate selecting step of selecting one perforated plate to be attached to the forming die from the perforated plate group on the basis of a matching relation between the measured shape of the formed body end face and the degree of the diameter decrease of the hole diameter (D) in the perforated plate . a perforated plate group preparation step preparing a plurality of perforated plates which are different in degree of diameter decrease of the hole diameter (D) of the through hole portion , characterised in that the adjusting method further comprises: a trial extrusion step of using the forming die to which the perforated plate is not attached, extruding the forming material from the forming die , and forming a trial honeycomb formed body ; a shape measuring step of measuring a shape of a formed body end face of the trial honeycomb formed body ; and a perforated plate selecting step of selecting one perforated plate to be attached to the forming die from the perforated plate group on the basis of a matching relation between the measured shape of the formed body end face and the degree of the diameter decrease of the hole diameter (D) in the perforated plate . a trial extrusion step of using the forming die to which the perforated plate is not attached, extruding the forming material from the forming die , and forming a trial honeycomb formed body ; a shape measuring step of measuring a shape of a formed body end face of the trial honeycomb formed body ; and a perforated plate selecting step of selecting one perforated plate to be attached to the forming die from the perforated plate group on the basis of a matching relation between the measured shape of the formed body end face and the degree of the diameter decrease of the hole diameter (D) in the perforated plate .
Separating and joining method for a first contact from/to a line which has an installed shield , wherein the method comprises the following steps: a) moving an actuator and a hold-down device from an open position into a closed position such that the actuator acts on a cutter , and the first contact , which is provided on a contact carrier strip , is separated from the contact carrier strip , and the first contact is fixed by the hold-down device ; b) joining the line in the first contact until the installed shield of the line lies against the actuator and/or cutter ; c) activating a first cylinder such that a stop is moved from an inactive position (P1) into an active position (P2), wherein the first contact can be fixed in the active position (P2) by the stop ; d) moving the actuator and the hold-down device from the closed position into the open position, and simultaneously activating a second cylinder , such that a contact-guiding track and the cutter are moved from a main position into a lowered position; and e) joining the line into a final position in the first contact . a) moving an actuator and a hold-down device from an open position into a closed position such that the actuator acts on a cutter , and the first contact , which is provided on a contact carrier strip , is separated from the contact carrier strip , and the first contact is fixed by the hold-down device ; b) joining the line in the first contact until the installed shield of the line lies against the actuator and/or cutter ; c) activating a first cylinder such that a stop is moved from an inactive position (P1) into an active position (P2), wherein the first contact can be fixed in the active position (P2) by the stop ; d) moving the actuator and the hold-down device from the closed position into the open position, and simultaneously activating a second cylinder , such that a contact-guiding track and the cutter are moved from a main position into a lowered position; and e) joining the line into a final position in the first contact .