mhurhangee/patent-ind-claim-en huggingface dataset:
A method for applying material to a bicycle frame, comprising: determining , via a controller, at least one physical dimension of the bicycle frame; determining , via the controller, a distance setting between at least two material applicators; determining , via the controller, a pattern size of material sprayed onto the bicycle frame by each of the at least two material applicators; adjusting , via the controller, a position setting of the at least two material applicators based at least in part on the distance setting and the pattern size, wherein adjusting the position setting of the at least two material applicators is based at least in part on the pattern size through each of the at least two material applicators intersecting one another, wherein the pattern size is an amount of area covered by material sprayed through each of the at least two material applicators; and applying , via the controller, material onto the bicycle frame through the at least two material applicators. determining , via a controller, at least one physical dimension of the bicycle frame; determining , via the controller, a distance setting between at least two material applicators; determining , via the controller, a pattern size of material sprayed onto the bicycle frame by each of the at least two material applicators; adjusting , via the controller, a position setting of the at least two material applicators based at least in part on the distance setting and the pattern size, wherein adjusting the position setting of the at least two material applicators is based at least in part on the pattern size through each of the at least two material applicators intersecting one another, wherein the pattern size is an amount of area covered by material sprayed through each of the at least two material applicators; and applying , via the controller, material onto the bicycle frame through the at least two material applicators.
A bundle trailer for containers comprising : a supporting frame on which a plurality of bundles are located ; a plurality of bundles , each bundle comprising a bundle frame, a plurality of containers containing a chemical, and at least one bundle valve for controlling delivery of the chemical in the containers ; at least one trailer valve ; at least one gas supply valve different from said at least one trailer valve ; at least one fixing means for fixing the bundles; characterized in that the bundle trailer further comprises a trailer gas supply valve suitable for supplying an inert gas, and a closed space surrounding the bundles , so as to allow the creation of an inert atmosphere in said closed space. a supporting frame on which a plurality of bundles are located ; a plurality of bundles , each bundle comprising a bundle frame, a plurality of containers containing a chemical, and at least one bundle valve for controlling delivery of the chemical in the containers ; at least one trailer valve ; at least one gas supply valve different from said at least one trailer valve ; at least one fixing means for fixing the bundles; characterized in that the bundle trailer further comprises a trailer gas supply valve suitable for supplying an inert gas, and a closed space surrounding the bundles , so as to allow the creation of an inert atmosphere in said closed space.
A fluid degassing device , comprising: a shell configured to retain a selectively permeable hollow fiber bundle , wherein the shell defines a first flow port , a second flow port , and at least a third flow port ; a selectively permeable hollow fiber bundle having a plurality of hollow fibers disposed within the shell such that a first flow circuit is defined between the first flow port and the second flow port , and a second flow circuit is defined in fluid communication with at least the third port , wherein second flow circuit is partially fluidly isolated from the first flow circuit such that at least one first fluid cannot pass through a wall of one or more hollow fibers, but such that at least one second fluid can pass through the wall of the one or more hollow fibers, wherein the shell and the fiber bundle include a non-cylindrical shape; wherein the shell and the fiber bundle are curved such that the shell forms a partial arc; and wherein the fiber bundle is parallel to the axis of curvature. a shell configured to retain a selectively permeable hollow fiber bundle , wherein the shell defines a first flow port , a second flow port , and at least a third flow port ; a selectively permeable hollow fiber bundle having a plurality of hollow fibers disposed within the shell such that a first flow circuit is defined between the first flow port and the second flow port , and a second flow circuit is defined in fluid communication with at least the third port , wherein second flow circuit is partially fluidly isolated from the first flow circuit such that at least one first fluid cannot pass through a wall of one or more hollow fibers, but such that at least one second fluid can pass through the wall of the one or more hollow fibers, wherein the shell and the fiber bundle include a non-cylindrical shape; wherein the shell and the fiber bundle are curved such that the shell forms a partial arc; and wherein the fiber bundle is parallel to the axis of curvature.
One or more SGLT2 inhibitors or pharmaceutically acceptable crystalline forms thereof for use in the treatment and/or prevention of a metabolic disorder of an equine animal, wherein the metabolic disorder is laminitis and wherein the one or more SGLT2 inhibitors or pharmaceutically acceptable crystalline forms is 1-cyano-2-(4-cyclopropyl-benzyl)-4-(β-D-glucopyranos-1-yl)-benzene, represented by formula :
A runner for a hydraulic turbine or pump, comprising a plurality of blades , each blade being defined by a pressure surface, an oppositely facing suction surface, a leading edge and a spaced apart trailing edge , at least one of the blades having means for supplying a flow of oxygen containing gas to the trailing edge of the same blade characterized in that said means comprise at least two separate gas inlet apertures (6.1, 6.2, 26.1, 26.2) and at least two separate gas passages (5.1, 5.2, 25.1, 25.2), each extending from one of the separate gas inlet apertures (6.1, 6.2, 26.1, 26.2) to a separate group of orifices (7.1, 7.2, 27.1, 27.2) in the trailing edge of the same blade whereas each of the separate group of orifices (7.1, 7.2, 27.1, 27.2) comprises at least one orifice to admit gas out of the corresponding separate gas passage (5.1, 5.2, 25.1, 25.2) to the passing fluid during operation of the runner.
A method for cell selection performed by a wireless device, the method comprising: receiving broadcast information associated with a cell including a cell reservation indication; responsive to determining that the cell is reserved in accordance with the cell reservation indication, determining that the broadcast information further includes a cell reservation exception indication; and selecting the cell in accordance with determining that the cell reservation exception indication is associated with the wireless device, wherein the cell reservation exception indication identifies a network slice, thereby indicating that the cell is not reserved for wireless devices that aim to attach to communicate using the identified network slice or that the cell is reserved for all wireless devices except wireless devices that aim to attach to communicate using the identified network slice. receiving broadcast information associated with a cell including a cell reservation indication; responsive to determining that the cell is reserved in accordance with the cell reservation indication, determining that the broadcast information further includes a cell reservation exception indication; and selecting the cell in accordance with determining that the cell reservation exception indication is associated with the wireless device, wherein the cell reservation exception indication identifies a network slice, thereby indicating that the cell is not reserved for wireless devices that aim to attach to communicate using the identified network slice or that the cell is reserved for all wireless devices except wireless devices that aim to attach to communicate using the identified network slice.
A voltage source converter comprising first and second DC terminals for connection to a DC network , the voltage source converter further comprising an AC phase terminal for connection to a phase of an AC network , the voltage source converter including a limb connected between the first and second DC terminals , the limb including first and second sub-limbs connected between the first and second DC terminals , each sub-limb including a phase element , each phase element including a plurality of switching elements and at least one AC terminal , the or each AC terminal of each phase element operably connected to the AC phase terminal such that an AC voltage waveform at the AC phase terminal is the vector sum of the AC voltage waveforms at the AC terminals of the phase elements of the first and second sub-limbs , the plurality of switching elements of each phase element configured to be switchable to selectively interconnect a DC side voltage at a DC side of the phase element and an AC side voltage at an AC side of the phase element , each sub-limb further including at least one energy storage device connected at the DC side of the phase element , wherein the voltage source converter further includes a controller programmed to control the switching of the switching elements of the phase elements so as to control each phase element to alternately switch between: a first operating mode to control the configuration of an AC voltage waveform at the or each corresponding AC terminal to have a positive phase shift relative to the AC voltage waveform at the AC phase terminal ; and a second operating mode to control the configuration of an AC voltage waveform at the or each corresponding AC terminal to have a negative phase shift relative to the AC voltage waveform at the AC phase terminal , wherein the controller is programmed to control the switching of the switching elements of the phase elements so that, in use, while each phase element is controlled to switch between the first and second operating modes, one of the phase elements of the first and second sub-limbs is controlled to be in one of the first and second operating modes while the other of the phase elements of the first and second sub-limbs is controlled to be in the other of the first and second operating modes.
Method for treating the surface of a ceramic material comprising the steps of: • heating said ceramic material in a continuous kiln, • applying a laser beam over the surface of the ceramic material in a pendular way over a sweeping line perpendicular to the advancing direction of the ceramic material in the continuous kiln, • heating the material, before and after applying said laser beam, to a first heating temperature which is less than the melting point of the material and which is less than the temperature of the surface of the material during contact with the laser beam, and • cooling the ceramic material , after heating the ceramic material after applying the laser beam, by descending gradually the temperature. • wherein the step of applying the laser beam over the surface of the ceramic material in pendular way over the sweeping line is carried out surpassing the sides of said ceramic material . • heating said ceramic material in a continuous kiln, • applying a laser beam over the surface of the ceramic material in a pendular way over a sweeping line perpendicular to the advancing direction of the ceramic material in the continuous kiln, • heating the material, before and after applying said laser beam, to a first heating temperature which is less than the melting point of the material and which is less than the temperature of the surface of the material during contact with the laser beam, and • cooling the ceramic material , after heating the ceramic material after applying the laser beam, by descending gradually the temperature. • wherein the step of applying the laser beam over the surface of the ceramic material in pendular way over the sweeping line is carried out surpassing the sides of said ceramic material .
Casting mold for the manufacture of hard or soft contact lenses, comprising a male mold half made of highly finished glass having a generally convexly shaped male mold surface shaped by precision glass molding and a female mold half made of highly finished glass having a generally concavely shaped female mold surface shaped by precision glass molding, each of the male and female mold surfaces comprising a lens-forming surface which is encircled by a non-lens-forming annular edge surface , the lens-forming surface comprising a central optical zone and a non-optical peripheral zone surrounding the central optical zone , at least one of the male and female mold halves being provided with at least one permanent marking (10; 12; 110, 111) which is arranged only on the non-lens-forming annular edge surface .
Nozzle check valve, comprising the following features: 1.1 a housing ; 1.2 an insert which is connected to the housing via webs (2.1); 1.3 a flow channel which is formed between the inner face of the housing and the outer face of the insert ; 1.4 the insert has an axial bore ; 1.5 a shaft which is slidably mounted in the axial bore and which carries a valve plate at one end; 1.6 the valve plate and the housing together form a valve seat ; 1.7 the valve plate consists of a main body (7.1) and a coating (7.2); 1.8 a seal is provided between the valve plate and the shaft ; 1.9 the face of the insert that bounds the flow channel is formed of a cup-shaped wall (2.2); 1.10 the cup-shaped wall (2.2) encloses a cavity ; 1.11 the inflow edge of the insert has an open-edged cutout (2.3); characterized by the following features: 1.12 the wall (2.2) of the cavity has a bore which enables the cavity to be flushed through; 1.13 the coating (7.2) fully covers the face of the main body (7.1) that makes contact with the medium. 1.1 a housing ; 1.2 an insert which is connected to the housing via webs (2.1); 1.3 a flow channel which is formed between the inner face of the housing and the outer face of the insert ; 1.4 the insert has an axial bore ; 1.5 a shaft which is slidably mounted in the axial bore and which carries a valve plate at one end; 1.6 the valve plate and the housing together form a valve seat ; 1.7 the valve plate consists of a main body (7.1) and a coating (7.2); 1.8 a seal is provided between the valve plate and the shaft ; 1.9 the face of the insert that bounds the flow channel is formed of a cup-shaped wall (2.2); 1.10 the cup-shaped wall (2.2) encloses a cavity ; 1.11 the inflow edge of the insert has an open-edged cutout (2.3); 1.12 the wall (2.2) of the cavity has a bore which enables the cavity to be flushed through; 1.13 the coating (7.2) fully covers the face of the main body (7.1) that makes contact with the medium.
Variable valve drive , in particular with a sliding cam system , for an internal combustion engine, having: a shaft ; a cam carrier which is arranged rotationally conjointly and axially displaceably on the shaft and which has a first cam , a second cam , a first engagement track , a second engagement track and a third engagement track ; a first actuator which is designed to engage into the first engagement track in order to displace the cam carrier in a first axial direction; and a second actuator which is designed to engage into the second engagement track in order to displace the cam carrier in a second axial direction which is opposite to the first axial direction, and to engage into the third engagement track in order to displace the cam carrier in the first axial direction. a shaft ; a cam carrier which is arranged rotationally conjointly and axially displaceably on the shaft and which has a first cam , a second cam , a first engagement track , a second engagement track and a third engagement track ; a first actuator which is designed to engage into the first engagement track in order to displace the cam carrier in a first axial direction; and a second actuator which is designed to engage into the second engagement track in order to displace the cam carrier in a second axial direction which is opposite to the first axial direction, and to engage into the third engagement track in order to displace the cam carrier in the first axial direction.
A radiation image processing method comprising: obtaining a radiation image using an indirect radiation detector comprising a scintillator panel and a pixel array panel ; determining a parameter value for defining a point spread function (PSF) according to at least any one among a thickness of the scintillator panel , a type of a scintillator , and a pixel size of the pixel array panel ; and correcting the radiation image by deconvoluting the radiation image using the PSF to which the parameter value is applied, wherein, in the determining a parameter value, the parameter value is determined so that a correction image deconvoluting the radiation image using the PSF satisfies an image quality reference, and the image quality reference comprises a condition that a detective quantum efficiency (DQE) value of the correction image deconvoluting the radiation image is maintained in a range of 90% to 110% of a DQE value of the radiation image in a same spatial frequency. obtaining a radiation image using an indirect radiation detector comprising a scintillator panel and a pixel array panel ; determining a parameter value for defining a point spread function (PSF) according to at least any one among a thickness of the scintillator panel , a type of a scintillator , and a pixel size of the pixel array panel ; and correcting the radiation image by deconvoluting the radiation image using the PSF to which the parameter value is applied, wherein, in the determining a parameter value, the parameter value is determined so that a correction image deconvoluting the radiation image using the PSF satisfies an image quality reference, and the image quality reference comprises a condition that a detective quantum efficiency (DQE) value of the correction image deconvoluting the radiation image is maintained in a range of 90% to 110% of a DQE value of the radiation image in a same spatial frequency.
A compound of Formula (I): or a salt thereof, wherein: X is CR 4 ; A is: or Q 2 is -C(O)CH=CH 2 , -C(O)CH=CHCH 2 N(CH 3 ) 2 , -C(O)C≡CR 7 , -C(O)C≡C(C 1-3 hydroxyalkyl), -C(O)C≡C(phenyl), -C(O)C≡CSi(CH 3 ) 3 , or -S(O) 2 CH=CH 2 ; R 1 is H, -CH 3 , -CF 3 , or phenyl substituted with zero or 1 R 12 ; R 2 is H, -CH 3 , cyclopropyl, or phenyl substituted with zero or 1 R 12 , provided that at least one of R 1 and R 2 is -CH 3 ; R 3 is F or Cl; R 4 is H or F; R 6 is H, F, Cl, -CF 3 , or C 1-3 alkoxy; R 7 , at each occurrence, is independently H, C 1-4 alkyl, or cyclopropyl; and R 12 is F, Cl, -CN, -CF 3 , or C 1-3 alkoxy. X is CR 4 ; A is: or Q 2 is -C(O)CH=CH 2 , -C(O)CH=CHCH 2 N(CH 3 ) 2 , -C(O)C≡CR 7 , -C(O)C≡C(C 1-3 hydroxyalkyl), -C(O)C≡C(phenyl), -C(O)C≡CSi(CH 3 ) 3 , or -S(O) 2 CH=CH 2 ; R 1 is H, -CH 3 , -CF 3 , or phenyl substituted with zero or 1 R 12 ; R 2 is H, -CH 3 , cyclopropyl, or phenyl substituted with zero or 1 R 12 , provided that at least one of R 1 and R 2 is -CH 3 ; R 3 is F or Cl; R 4 is H or F; R 6 is H, F, Cl, -CF 3 , or C 1-3 alkoxy; R 7 , at each occurrence, is independently H, C 1-4 alkyl, or cyclopropyl; and R 12 is F, Cl, -CN, -CF 3 , or C 1-3 alkoxy.
A method for wireless communication by a User Equipment, UE, comprising: receiving a command to handover the UE from a source base station, BS, to a target BS, the command including at least an indication to generate at least one key specific to the target BS and a freshness parameter for generating the at least one key, wherein: at least a portion of a control plane, CP, protocol layer is implemented at the target BS and the source BS, wherein the at least the portion of the CP protocol layer implemented at the target BS and the source BS comprises a portion responsible for radio resource control, RRC, signaling and for CP security, and user plane protocol layers are implemented at a Radio Access Network, RAN, network entity controlling at least the source BS; generating the at least one key based at least on the indication to generate the at least one key specific to the target BS, the freshness parameter, and a master key, the master key associated with the RAN network entity controlling at least the source BS; and exchanging control signaling with the target BS based on the CP protocol layer using the at least one key. receiving a command to handover the UE from a source base station, BS, to a target BS, the command including at least an indication to generate at least one key specific to the target BS and a freshness parameter for generating the at least one key, wherein: at least a portion of a control plane, CP, protocol layer is implemented at the target BS and the source BS, wherein the at least the portion of the CP protocol layer implemented at the target BS and the source BS comprises a portion responsible for radio resource control, RRC, signaling and for CP security, and user plane protocol layers are implemented at a Radio Access Network, RAN, network entity controlling at least the source BS; at least a portion of a control plane, CP, protocol layer is implemented at the target BS and the source BS, wherein the at least the portion of the CP protocol layer implemented at the target BS and the source BS comprises a portion responsible for radio resource control, RRC, signaling and for CP security, and user plane protocol layers are implemented at a Radio Access Network, RAN, network entity controlling at least the source BS; generating the at least one key based at least on the indication to generate the at least one key specific to the target BS, the freshness parameter, and a master key, the master key associated with the RAN network entity controlling at least the source BS; and exchanging control signaling with the target BS based on the CP protocol layer using the at least one key.
A method for preparing can end stock , comprising: pre-heating a metal strip to a first temperature below 250°C; laminating a polymer film to a first side of the metal strip to produce a laminated metal strip , wherein a main component of the polymer film has a melting temperature above the first temperature (T 1 ); and annealing the laminated metal strip at an annealing temperature (T 2 ), wherein the annealing temperature (T 2 ) is higher than the melting temperature of the polymer film , characterized in that annealing the laminated metal strip includes raising the temperature of the polymer film for a duration sufficient to melt the polymer film into a surface texture of the metal strip, and in that the method further comprises decreasing a height of the surface roughness of the metal strip to a value lower than a thickness of a contact layer of the polymer film prior to laminating the polymer film to the first side of the metal strip . pre-heating a metal strip to a first temperature below 250°C; laminating a polymer film to a first side of the metal strip to produce a laminated metal strip , wherein a main component of the polymer film has a melting temperature above the first temperature (T 1 ); and annealing the laminated metal strip at an annealing temperature (T 2 ), wherein the annealing temperature (T 2 ) is higher than the melting temperature of the polymer film , characterized in that annealing the laminated metal strip includes raising the temperature of the polymer film for a duration sufficient to melt the polymer film into a surface texture of the metal strip, and in that the method further comprises decreasing a height of the surface roughness of the metal strip to a value lower than a thickness of a contact layer of the polymer film prior to laminating the polymer film to the first side of the metal strip .