mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing individual trays for the positioning of brackets, comprising the steps: a) producing an actual model , wherein the at least one model is a replica of at least portions of at least two tooth crowns of teeth located in a jaw and includes bracket replicas or brackets assigned to the replicas of the tooth crowns; b) producing at least two trays by producing at least one impression of the actual model , wherein the trays are suitable for at least partially receiving at least one of the at least two tooth crowns each as well as an actual bracket corresponding to the bracket assigned to the relevant tooth crown or corresponding to the assigned bracket replica, such that the arrangement of the bracket replica or bracket and the replication of the tooth crown in the model are reproduced in reality by the received bracket and the received tooth crown, wherein the impression of the actual model is realised by means of thermoforming, characterised in that the trays each comprise an impression of only one tooth crown part of the at least two tooth crowns and only one bracket part of the at least two bracket replicas or brackets, wherein the one bracket part extends vertically, as seen from the occlusal surface of the assigned tooth crown, at most as far as the end of a wire guide and/or as far as the end of a first undercut of the bracket or bracket replica that is arranged after the upper wing when viewed from the occlusal surface. a) producing an actual model , wherein the at least one model is a replica of at least portions of at least two tooth crowns of teeth located in a jaw and includes bracket replicas or brackets assigned to the replicas of the tooth crowns; b) producing at least two trays by producing at least one impression of the actual model , wherein the trays are suitable for at least partially receiving at least one of the at least two tooth crowns each as well as an actual bracket corresponding to the bracket assigned to the relevant tooth crown or corresponding to the assigned bracket replica, such that the arrangement of the bracket replica or bracket and the replication of the tooth crown in the model are reproduced in reality by the received bracket and the received tooth crown, wherein the impression of the actual model is realised by means of thermoforming,
A laser module body to be cooled with cooling fluid having a first and a second electrode , comprising: a unitary ceramic base having a bottom; a plurality of ceramic platforms formed in the unitary ceramic base , each one of the plurality of platforms having a width, a length and a height relative to a base plane parallel to the platforms and forming a stepped structure, each platform having a different height relative to the base plane; each platform having a top surface being enabled to hold a laser source and at least one optical component at defined locations on a top surface of the platform; each one of the plurality of ceramic platforms containing a cooling channel running internally along at least part of its length from a first end to a second end at a defined depth under the top surface at least under the defined locations, wherein the cooling channels in the platforms are spatially separated from each other; a fluid inlet and an input manifold connecting the fluid inlet to the first end of each of the cooling channels of the plurality of ceramic platforms to distribute the cooling fluid; and an output manifold connecting the cooling channels from the second end of each of the cooling channels in the plurality of platforms to a fluid outlet that disperses the cooling fluid from the laser module body. a unitary ceramic base having a bottom; a plurality of ceramic platforms formed in the unitary ceramic base , each one of the plurality of platforms having a width, a length and a height relative to a base plane parallel to the platforms and forming a stepped structure, each platform having a different height relative to the base plane; each platform having a top surface being enabled to hold a laser source and at least one optical component at defined locations on a top surface of the platform; each one of the plurality of ceramic platforms containing a cooling channel running internally along at least part of its length from a first end to a second end at a defined depth under the top surface at least under the defined locations, wherein the cooling channels in the platforms are spatially separated from each other; a fluid inlet and an input manifold connecting the fluid inlet to the first end of each of the cooling channels of the plurality of ceramic platforms to distribute the cooling fluid; and an output manifold connecting the cooling channels from the second end of each of the cooling channels in the plurality of platforms to a fluid outlet that disperses the cooling fluid from the laser module body.
Method for large-scale processing of biomass, in which the biomass is subjected to at least one comminution step, wherein the at least one comminution step is carried out by means of a water cutter operated with a liquid, wherein biomass is metered into the water cutter in a feed step by means of a feed apparatus , which has a conveyor spindle or conveyor screw , which, in order to hold together the biomass and to adapt its cross section to the clear width of the cutting device of the water cutter, is enclosed on all sides, at least in its output-side end region , by a guide surface in the form of a cylinder or cone , wherein the water cutter is arranged at the output end of the feed apparatus and cooperates with at least one mating cutter formed at the output end of the feed apparatus , wherein a mixture of comminuted biomass and liquid formed in the comminution step is fed to a washing apparatus and the liquid is separated out mechanically from the mixture of comminuted biomass and liquid, or the biomass is comminuted after the washing and the comminuted biomass or the mixture of comminuted biomass and liquid is processed further, i.e. dewatered mechanically, in particular in a press.
A method for interactive image caricaturing by an electronic device, comprising: detecting multiple facial feature locations of a face image; generating , based on the facial feature locations, an image mesh that comprises a grid of at least one horizontal line and at least one vertical line, such that vertices of the image mesh correspond to the facial feature locations; obtaining at least one gesture input; determining at least one caricature action based on the at least one gesture input, wherein the caricature action provides shifting information for at least one vertex of the image mesh and provides a pixel map that maps an image vertex pixel, at a vertex of the image mesh, from a first location in the face image, to a second location in a caricature image based on the shifting information; and generating the caricature image based on the image mesh, the at least one caricature action and the image. detecting multiple facial feature locations of a face image; generating , based on the facial feature locations, an image mesh that comprises a grid of at least one horizontal line and at least one vertical line, such that vertices of the image mesh correspond to the facial feature locations; obtaining at least one gesture input; determining at least one caricature action based on the at least one gesture input, wherein the caricature action provides shifting information for at least one vertex of the image mesh and provides a pixel map that maps an image vertex pixel, at a vertex of the image mesh, from a first location in the face image, to a second location in a caricature image based on the shifting information; and generating the caricature image based on the image mesh, the at least one caricature action and the image.
Method for the electronic detection of step loss in a stepper motor having an electronic controller , wherein the temporal behaviour of the active power (dP/dt) that the stepper motor draws from a power source is measured and monitored for characteristic behaviour in the event of step loss, and wherein the active power (P) is determined from a common current measurement at an output stage of the electronic controller for all of the phases (A, B).
An intraocular lens comprising: a lens portion ; and a haptics portion , said haptics portion including a scleral engagement portion including an elongate scleratomy transversing portion and a scleral engagement fixation portion , located at an intermediate location along a length of said elongate scleratomy transversing portion configured to prevent disengagement of said scleratomy transversing portion from a sclera, characterized in that : said scleral engagement fixation portion is configured to be bendable in a first direction along a central axis thereof but not to be bendable in a second direction along said central axis, opposite to said first direction . a lens portion ; and a haptics portion , said haptics portion including a scleral engagement portion including an elongate scleratomy transversing portion and a scleral engagement fixation portion , located at an intermediate location along a length of said elongate scleratomy transversing portion configured to prevent disengagement of said scleratomy transversing portion from a sclera, characterized in that : said scleral engagement fixation portion is configured to be bendable in a first direction along a central axis thereof but not to be bendable in a second direction along said central axis, opposite to said first direction .
A vacuum insulating glazing unit extending along a plane, P, defined by a longitudinal axis, X, and a vertical axis, Z, and comprising: a. a first glass pane having a thickness Z1, and a second glass pane having a thickness, Z2, and having an inner pane face and an outer pane face wherein the thicknesses are measured in the direction normal to the pane, P; b. a set of discrete spacers positioned between the first and second glass panes, maintaining a distance between the first and the second glass panes; c. a hermetically bonding seal sealing the distance between the first and second glass panes over a perimeter thereof; d. an internal volume, V, defined by the first and second glass panes and the set of discrete spacers and closed by the hermetically bonding seal and wherein there is an absolute vacuum of pressure of less than 0.1 mbar; and wherein the inner pane face faces the internal volume, V; characterized in that , the thickness of the first glass pane, Z1, is equal to or greater to than 6 mm, (Z1 ≥ 6 mm), in that, a thickness ratio, Z1/Z2, of the thickness of the first glass pane, Z1, to the thickness of the second glass pane, Z2, is equal to or greater than 1.10 (Z1 / Z2 ≥ 1.10), and in that the outer pane face of the second glass pane is laminated to at least one glass sheet by at least one polymer interlayer forming a laminated assembly wherein the at least one glass sheet has a thickness, Zs, equal to or greater than 0.5 mm (Zs ≥ 0.5 mm) wherein the thickness is measured in the direction normal to the plane, P. a. a first glass pane having a thickness Z1, and a second glass pane having a thickness, Z2, and having an inner pane face and an outer pane face wherein the thicknesses are measured in the direction normal to the pane, P; b. a set of discrete spacers positioned between the first and second glass panes, maintaining a distance between the first and the second glass panes; c. a hermetically bonding seal sealing the distance between the first and second glass panes over a perimeter thereof; d. an internal volume, V, defined by the first and second glass panes and the set of discrete spacers and closed by the hermetically bonding seal and wherein there is an absolute vacuum of pressure of less than 0.1 mbar; and wherein the inner pane face faces the internal volume, V; characterized in that , the thickness of the first glass pane, Z1, is equal to or greater to than 6 mm, (Z1 ≥ 6 mm), in that, a thickness ratio, Z1/Z2, of the thickness of the first glass pane, Z1, to the thickness of the second glass pane, Z2, is equal to or greater than 1.10 (Z1 / Z2 ≥ 1.10), and in that the outer pane face of the second glass pane is laminated to at least one glass sheet by at least one polymer interlayer forming a laminated assembly wherein the at least one glass sheet has a thickness, Zs, equal to or greater than 0.5 mm (Zs ≥ 0.5 mm) wherein the thickness is measured in the direction normal to the plane, P.
An adsorption rotor for a dehumidifying air conditioner comprising a honeycomb adsorbent, which can carry out simultaneous removal of carbon dioxide and moisture, in which Ce oxide adsorbent and silica are supported by a fibrous support, wherein the Ce oxide adsorbent is the powder adsorbent made of an oxide of Ce with an average secondary particle diameter of 0.5 μm - 20 μm, as measured with a scanning electron microscope, or laser diffraction and the diameter distribution measuring device of a dispersion type particle, wherein the honeycomb adsorbent comprises, as silica, a silica sol having an average particle diameter of 4 nm - 50 nm.
A method for decision support in a medical therapy system, the method comprising: acquiring a medical scan of a patient from a memory, wherein acquiring comprises acquiring voxel data representing a three-dimensional distribution of locations in a volume of the patient; generating a prediction of outcome of therapy for the patient as output, the outcome of therapy generated by a machine-learned multi-task generator having been trained based with both image feature error and outcome error, wherein the machine-learned multi-task generator comprises an output layer for outcome estimation and an output layer for image feature estimation, wherein generating comprises generating based on input of the voxel data for a segmented three-dimensional region; and displaying an image of the outcome of therapy. acquiring a medical scan of a patient from a memory, wherein acquiring comprises acquiring voxel data representing a three-dimensional distribution of locations in a volume of the patient; generating a prediction of outcome of therapy for the patient as output, the outcome of therapy generated by a machine-learned multi-task generator having been trained based with both image feature error and outcome error, wherein the machine-learned multi-task generator comprises an output layer for outcome estimation and an output layer for image feature estimation, wherein generating comprises generating based on input of the voxel data for a segmented three-dimensional region; and displaying an image of the outcome of therapy.
A method for determining resonance parameters, resonance frequency f and quality factor Q, for a mechanical oscillator in a service fluid environment in the presence of noise produced by the service fluid, the method comprising: a) estimating the resonance parameters, f and Q, for a mechanical oscillator in a service fluid environment based on an excitation of the mechanical oscillator by a flow of the service fluid, the estimate of the resonance parameters being determined from the steps of determining a fast Fourier transform of oscillator amplitude as a function of frequency, wherein said estimate of the resonance parameters is determined from averaging the fast Fourier transform run multiple times; b) exciting the mechanical oscillator in the service fluid environment using a signal generator at one or more excitation frequencies selected based on the estimated resonance parameters, f and Q, the service fluid environment producing noise that causes an excitation; c) determining an amplitude response of the oscillator to said exciting of the oscillator at the one or more excitation frequencies; and d) determining the resonance parameters, f and Q, from said amplitude response with multiple measurements, curve fitting and averaging. a) estimating the resonance parameters, f and Q, for a mechanical oscillator in a service fluid environment based on an excitation of the mechanical oscillator by a flow of the service fluid, the estimate of the resonance parameters being determined from the steps of determining a fast Fourier transform of oscillator amplitude as a function of frequency, wherein said estimate of the resonance parameters is determined from averaging the fast Fourier transform run multiple times; b) exciting the mechanical oscillator in the service fluid environment using a signal generator at one or more excitation frequencies selected based on the estimated resonance parameters, f and Q, the service fluid environment producing noise that causes an excitation; c) determining an amplitude response of the oscillator to said exciting of the oscillator at the one or more excitation frequencies; and d) determining the resonance parameters, f and Q, from said amplitude response with multiple measurements, curve fitting and averaging.
A device for producing components using an injection molding method, said device comprising at least one cavity , each for forming a product, at least one injection nozzle through which material is injected into the cavity , a mold release element , a distribution channel , a media supply , an exhaust air channel or return channel , at least one shut-off needle that is connected to a piston in a force-fitting or form-fitting manner and that is inserted into the injection nozzle , at least one valve for opening the needle , and at least one valve for closing the needle , characterized in that the valve for opening the needle and the valve for closing the needle are arranged directly adjacent to the shut-off needle , and a control unit for the valve for opening the needle and the valve for closing the needle is provided.
A method of operating a communication network, the method comprising determining strong neighbor access points, APs, for each of a plurality of APs, the strong neighbor APs determined as those other APs with signal strength measurements at the respective AP that are above a predetermined signal strength threshold ; determining a difference between a fraction of airtime available for use at an AP of the plurality of APs and a fraction of airtime collectively provided by the strong neighbor APs of the AP ; and inhibiting transmission by the AP based on the difference . determining strong neighbor access points, APs, for each of a plurality of APs, the strong neighbor APs determined as those other APs with signal strength measurements at the respective AP that are above a predetermined signal strength threshold ; determining a difference between a fraction of airtime available for use at an AP of the plurality of APs and a fraction of airtime collectively provided by the strong neighbor APs of the AP ; and inhibiting transmission by the AP based on the difference .
A mechanism for rotating a monitor around an instrument , the mechanism comprising: an extendible arm assembly comprising an outer section attached to the monitor , and an inner section attached to the instrument by means of a rotary bearing , characterized in that the mechanism comprises: a cam fixedly mounted on the instrument in a plane generally parallel to the plane of rotation of the monitor, the outer profile of the cam having at least one lobe directed towards a projecting feature of the instrument, the outer section of the extendible assembly arm being slidingly attached to the inner section of the extendible assembly arm, and having a spring mechanism adapted to apply a tensional force to the outer section in the direction towards the rotary bearing; and a cam follower attached to the outer section of the extendible arm assembly, such that as the extendible arm assembly is rotated, the cam follower traces the outer profile of the cam, thereby causing the outer section of the extendible arm also to trace the outer profile of the cam. an extendible arm assembly comprising an outer section attached to the monitor , and an inner section attached to the instrument by means of a rotary bearing , a cam fixedly mounted on the instrument in a plane generally parallel to the plane of rotation of the monitor, the outer profile of the cam having at least one lobe directed towards a projecting feature of the instrument, the outer section of the extendible assembly arm being slidingly attached to the inner section of the extendible assembly arm, and having a spring mechanism adapted to apply a tensional force to the outer section in the direction towards the rotary bearing; and a cam follower attached to the outer section of the extendible arm assembly, such that as the extendible arm assembly is rotated, the cam follower traces the outer profile of the cam, thereby causing the outer section of the extendible arm also to trace the outer profile of the cam.
A method for processing packets in a datacenter network, comprising: detecting that a Maximum Transmission Unit, MTU, size for packets in a datacenter network is larger than a Maximum Segment Size, MSS, for packets to be sent to a destination host outside the datacenter network through a datacenter network gateway ; receiving, at a Network Virtualization Module , a packet addressed to a virtual address on the datacenter network; creating, at the Network Virtualization Module , an encapsulated packet, the encapsulated packet comprising metadata that identifies the MSS, wherein the packet is not segmented although the packet has a size greater than the MSS; sending, by the Network Virtualization Module , the encapsulated packet comprising the MSS metadata to the datacenter network gateway ; receiving, at the datacenter network gateway , the encapsulated packet with the MSS metadata; extracting the MSS metadata from the encapsulated packet; segmenting the packet into a plurality of smaller packets that comply with the extracted MSS metadata; and sending the plurality of smaller packets to the destination host . detecting that a Maximum Transmission Unit, MTU, size for packets in a datacenter network is larger than a Maximum Segment Size, MSS, for packets to be sent to a destination host outside the datacenter network through a datacenter network gateway ; receiving, at a Network Virtualization Module , a packet addressed to a virtual address on the datacenter network; creating, at the Network Virtualization Module , an encapsulated packet, the encapsulated packet comprising metadata that identifies the MSS, wherein the packet is not segmented although the packet has a size greater than the MSS; sending, by the Network Virtualization Module , the encapsulated packet comprising the MSS metadata to the datacenter network gateway ; receiving, at the datacenter network gateway , the encapsulated packet with the MSS metadata; extracting the MSS metadata from the encapsulated packet; segmenting the packet into a plurality of smaller packets that comply with the extracted MSS metadata; and sending the plurality of smaller packets to the destination host .