mhurhangee/patent-ind-claim-en huggingface dataset:
A handheld device for selectively applying a dental care agent (DCA) to an area of a mouth, the device comprising: at least one image generator; and one or more processors that are in communication with the at least one image generator and that are operable to perform the following operations: receiving , by the one or more processors , an image of the area of the mouth; identifying , within the image, a feature of interest; determining , by the one or more processors , an actual reflectance and an actual topology of the feature of interest; determining , by the one or more processors , a desired reflectance and a desired topology of the feature of interest; calculating , by the one or more processors , an amount of DCA to be applied to a portion of the feature of interest based on comparing the actual reflectance to the desired reflectance and the actual topology to the desired topology; and causing , by the one or more processors , the calculated amount of DCA to be applied to the portion of the feature of interest. at least one image generator; and one or more processors that are in communication with the at least one image generator and that are operable to perform the following operations: receiving , by the one or more processors , an image of the area of the mouth; identifying , within the image, a feature of interest; determining , by the one or more processors , an actual reflectance and an actual topology of the feature of interest; determining , by the one or more processors , a desired reflectance and a desired topology of the feature of interest; calculating , by the one or more processors , an amount of DCA to be applied to a portion of the feature of interest based on comparing the actual reflectance to the desired reflectance and the actual topology to the desired topology; and causing , by the one or more processors , the calculated amount of DCA to be applied to the portion of the feature of interest. receiving , by the one or more processors , an image of the area of the mouth; identifying , within the image, a feature of interest; determining , by the one or more processors , an actual reflectance and an actual topology of the feature of interest; determining , by the one or more processors , a desired reflectance and a desired topology of the feature of interest; calculating , by the one or more processors , an amount of DCA to be applied to a portion of the feature of interest based on comparing the actual reflectance to the desired reflectance and the actual topology to the desired topology; and causing , by the one or more processors , the calculated amount of DCA to be applied to the portion of the feature of interest.
Method for operating a floor cleaning device , for example a hand-held vacuum cleaner, comprising at least one electrically driven cleaning motor which can be operated in different operating modes, comprising one or more operating elements (9.0, 9.1, 9.2, 9.3) for manually inputting an operating specification from the user and comprising an electronic control device , in which at least one logical link of the at least one operating specification to one of the operating modes is stored, the at least one logical link being changed by a universal data display and input device connected to the floor cleaning device by means of a data transmission path , characterised in that the operating modes at least comprise: the cleaning quality, an in particular minimum or maximum pushing force for moving the floor cleaning device over a cleaning surface, a suction channel cross section.
A traction assembly for a railway coupling , including: - a shock-absorber assembly including a first portion intended in particular to be secured to a chassis of a railway vehicle , and a second portion , the second portion being configured to move according to a shock-absorption direction relative to the first portion when the shock-absorber assembly is subjected to a force, and - a traction hook mounted, by a pivot connection , secured in translation according to the shock-absorption direction with the second portion of the shock-absorber assembly , the pivot connection being located, according to the shock-absorption direction, between the first portion and the second portion of the shock-absorber assembly or beyond the second portion of the shock-absorber assembly , the traction hook having a front end with a hook and a rear end mounted secured to the second portion of the shock-absorber assembly by the pivot connection , the front end of the traction hook being closer to the first portion of the shock-absorber assembly than the pivot connection , characterized in that the shock-absorber assembly includes two longitudinal shock-absorbing elements mounted parallel between the first portion and the second portion , the traction hook extending longitudinally, at least in part, between the two shock-absorbing elements . - a shock-absorber assembly including a first portion intended in particular to be secured to a chassis of a railway vehicle , and a second portion , the second portion being configured to move according to a shock-absorption direction relative to the first portion when the shock-absorber assembly is subjected to a force, and - a traction hook mounted, by a pivot connection , secured in translation according to the shock-absorption direction with the second portion of the shock-absorber assembly ,
A method of manufacturing a packaging for food, cosmetics or pharma comprising the steps of: - storing on a print validation server a packaging definition comprising an image intent part and a manufacturing intent part including characteristics of a packaging substrate, an inkjet printer and a plurality of inkjet inks including one or more SML-ink components and/or at least 20 wt% based on the total weight of inkjet ink of a vinyl ether acrylate according to Formula (I): wherein, L represents a linking group comprising two to ten carbon atoms; and n and m independently represent a value from 1 to 5; - rendering the image intent part according to characteristics of the manufacturing intent part to obtain a set of colour separations; - forming a set of meta-data including a safety limit of the one or more extractable SML-ink components and/or the extractable vinyl ether acrylate determined from the inkjet ink coverage required for each colour separation; - transmitting one or more files containing the set of colour separations and the set of meta-data to an inkjet print server; and - inkjet printing the set of colour separations on the packaging substrate in the inkjet printer according to the set of meta-data; wherein the SML-ink component is a compound of Section A or B in the Swiss legislation SR 817.023.21 of 23 November 2011 (Status on 1 April 2013). - storing on a print validation server a packaging definition comprising an image intent part and a manufacturing intent part including characteristics of a packaging substrate, an inkjet printer and a plurality of inkjet inks including one or more SML-ink components and/or at least 20 wt% based on the total weight of inkjet ink of a vinyl ether acrylate according to Formula (I): wherein, L represents a linking group comprising two to ten carbon atoms; and n and m independently represent a value from 1 to 5; L represents a linking group comprising two to ten carbon atoms; and n and m independently represent a value from 1 to 5; - rendering the image intent part according to characteristics of the manufacturing intent part to obtain a set of colour separations; - forming a set of meta-data including a safety limit of the one or more extractable SML-ink components and/or the extractable vinyl ether acrylate determined from the inkjet ink coverage required for each colour separation; - transmitting one or more files containing the set of colour separations and the set of meta-data to an inkjet print server; and - inkjet printing the set of colour separations on the packaging substrate in the inkjet printer according to the set of meta-data;
A computer-implemented method of printing on objects , comprising: receiving a trigger indicating a printable object on a conveyor ; characterized by in response to receiving the trigger, copying a bitmap image into a rolling image buffer ; and printing on the printable object using the bitmap image in the rolling image buffer , wherein the rolling buffer rotates at a virtual speed equal to a physical speed at which the conveyor moves the printable object , and wherein receiving a trigger includes storing a buffer position counter value into a hardware latch or FIFO register , and using the stored value to determine a position to copy the bitmap image into the image buffer. receiving a trigger indicating a printable object on a conveyor ; characterized by in response to receiving the trigger, copying a bitmap image into a rolling image buffer ; and printing on the printable object using the bitmap image in the rolling image buffer , wherein the rolling buffer rotates at a virtual speed equal to a physical speed at which the conveyor moves the printable object , and wherein receiving a trigger includes storing a buffer position counter value into a hardware latch or FIFO register , and using the stored value to determine a position to copy the bitmap image into the image buffer. wherein the rolling buffer rotates at a virtual speed equal to a physical speed at which the conveyor moves the printable object , and wherein receiving a trigger includes storing a buffer position counter value into a hardware latch or FIFO register , and using the stored value to determine a position to copy the bitmap image into the image buffer.
Elevator system, comprising - a first elevator car which can be moved in a first elevator shaft in the vertical direction, - a first closed support means which is guided about a lower deflection roller and an upper deflection roller , - a first drive machine which is paired with the support means , and - a first coupling device arranged on the first elevator car , wherein the first support means has a first primary coupling element (44.1a, 144.1a) which can be coupled to the first coupling device , thus producing a drive connection between the first elevator car and the first support means , and the coupled first elevator car can be moved in the first elevator shaft by means of the first support means which is driven by the first drive machine , characterized in that the first primary coupling element (44.1 .a, 144.1a) of the first support means is designed as a connection element which connects two free ends of the first support means together. - a first elevator car which can be moved in a first elevator shaft in the vertical direction, - a first closed support means which is guided about a lower deflection roller and an upper deflection roller , - a first drive machine which is paired with the support means , and - a first coupling device arranged on the first elevator car ,
A prosthesis for a cardiac valve, comprising: - prosthetic leaflets which are intended to functionally replace the native leaflets of a cardiac valve following the implantation of the cardiac prosthesis, - a prosthetic member on which there are mounted the prosthetic leaflets and which is intended to take up a stable, predetermined functional configuration in which the prosthetic member and the prosthetic leaflets reproduce the functionally correct configuration for the purpose of the physiological replacement of the native cardiac valve, characterized in that the prosthetic member is preconfigured so as to be fixed in an altered, temporary functional configuration, in which the prosthetic member is allowed to expand to a greater extent and/or in accordance with a different geometry from that provided for in the said stable, predetermined functional configuration, and so as to move gradually during use from the altered, temporary functional configuration to the stable, predetermined functional configuration. - prosthetic leaflets which are intended to functionally replace the native leaflets of a cardiac valve following the implantation of the cardiac prosthesis, - a prosthetic member on which there are mounted the prosthetic leaflets and which is intended to take up a stable, predetermined functional configuration in which the prosthetic member and the prosthetic leaflets reproduce the functionally correct configuration for the purpose of the physiological replacement of the native cardiac valve, characterized in that the prosthetic member is preconfigured so as to be fixed in an altered, temporary functional configuration, in which the prosthetic member is allowed to expand to a greater extent and/or in accordance with a different geometry from that provided for in the said stable, predetermined functional configuration, and so as to move gradually during use from the altered, temporary functional configuration to the stable, predetermined functional configuration.
A photonic monobit analog-to-digital converter , comprising: an incoherent optical source configured to generate an optical noise signal , the optical noise signal comprising random signal phases that are uniformly distributed over a range of the optical noise signal; an optical modulator configured to modulate an analog input electrical signal onto an input optical signal to generate an optical modulated signal ; a coupler configured to couple the optical modulated signal with the optical noise signal to generate at least one coupled signal ; a photodetector configured to generate a phase difference between the optical modulated signal and the optical noise signal using the at least one coupled signal; a limiter configured to output a decision signal based on the phase difference; and a digital signal processing, DSP, circuit configured to generate a digital signal representative of the analog input electrical signal based on the decision signal. an incoherent optical source configured to generate an optical noise signal , the optical noise signal comprising random signal phases that are uniformly distributed over a range of the optical noise signal; an optical modulator configured to modulate an analog input electrical signal onto an input optical signal to generate an optical modulated signal ; a coupler configured to couple the optical modulated signal with the optical noise signal to generate at least one coupled signal ; a photodetector configured to generate a phase difference between the optical modulated signal and the optical noise signal using the at least one coupled signal; a limiter configured to output a decision signal based on the phase difference; and a digital signal processing, DSP, circuit configured to generate a digital signal representative of the analog input electrical signal based on the decision signal.
Method for manufacturing an ophthalmic lens , comprising a marking step for producing permanent technical marks on said ophthalmic lens , which exhibits a body , a first face and a second face opposite said first face , which first face and second face respectively define a first optical surface and a second optical surface; said method comprising the following steps: - additively manufacturing (110-112) said body and said first and second faces by the deposition of a plurality of first predetermined volume elements of a first material having a first complex refractive index , so as to obtain said first and second optical surfaces; - additively manufacturing said permanent technical marks by the deposition, during said deposition of a plurality of said first volume elements of said first material , of at least one second predetermined volume element of a second material having a second complex refractive index different from said first complex refractive index of said first material ; with said method being configured such that the permanent technical marks are characteristic of an optical reference system to be applied to said ophthalmic lens and located in said ophthalmic lens in a determined position depending on said first and second optical surfaces. - additively manufacturing (110-112) said body and said first and second faces by the deposition of a plurality of first predetermined volume elements of a first material having a first complex refractive index , so as to obtain said first and second optical surfaces; - additively manufacturing said permanent technical marks by the deposition, during said deposition of a plurality of said first volume elements of said first material , of at least one second predetermined volume element of a second material having a second complex refractive index different from said first complex refractive index of said first material ;
A cargo handling system, comprising: a direct current power bus ; a first motor connected to the direct current power bus and having a first flux reference input ; and a first unit controller (C 1 ) connected to the motor and configured to detect a level of regenerative energy on the direct current power bus and to alter the first flux reference input in response to the level of regenerative energy, wherein the first unit controller (C 1 ) is configured to generate a voltage difference between a power bus voltage and a threshold voltage, characterised in that the first unit controller (C 1 ) is configured to combine a voltage output, proportional to the voltage difference, with the first flux reference input to generate a first modified flux reference input, wherein the first modified flux reference input is used to adjust a first stator voltage across a first stator winding of the first motor . a direct current power bus ; a first motor connected to the direct current power bus and having a first flux reference input ; and a first unit controller (C 1 ) connected to the motor and configured to detect a level of regenerative energy on the direct current power bus and to alter the first flux reference input in response to the level of regenerative energy, wherein the first unit controller (C 1 ) is configured to generate a voltage difference between a power bus voltage and a threshold voltage, characterised in that the first unit controller (C 1 ) is configured to combine a voltage output, proportional to the voltage difference, with the first flux reference input to generate a first modified flux reference input, wherein the first modified flux reference input is used to adjust a first stator voltage across a first stator winding of the first motor .
An assembly for retrieving an implantable medical device from an implant site, the assembly comprising: a first snare comprising a first carrier , a first loop that is collapsible from a maximum size to a minimum size, and a first shaft , wherein the first loop is connected to a distal end of the first shaft and extends out of a distal end of the first carrier; a second snare comprising a second carrier , a second loop that is collapsible from a maximum size to a minimum size, and a second shaft , wherein the second loop is connected to a distal end of the second shaft and extends out of a distal end of the second carrier; a support tube that surrounds at least a portion of the first carrier and the second carrier, wherein at least one of the first carrier and the second carrier are in sliding engagement with the support tube, and wherein the support tube provides a friction fit between the first carrier and the second carrier. a first snare comprising a first carrier , a first loop that is collapsible from a maximum size to a minimum size, and a first shaft , wherein the first loop is connected to a distal end of the first shaft and extends out of a distal end of the first carrier; a second snare comprising a second carrier , a second loop that is collapsible from a maximum size to a minimum size, and a second shaft , wherein the second loop is connected to a distal end of the second shaft and extends out of a distal end of the second carrier; a support tube that surrounds at least a portion of the first carrier and the second carrier, wherein at least one of the first carrier and the second carrier are in sliding engagement with the support tube, and wherein the support tube provides a friction fit between the first carrier and the second carrier.
A core-shell structured supported catalyst for the preparation of carbon nanostructures comprising a support and a metal catalyst supported on the support wherein the support comprises core particles and shell particles having a smaller particle diameter than the core particles and coated on the core particles to form a shell layer, wherein the core particles/shell particles are AlO(OH)/gamma-Al 2 O 3 , AIO(OH)/AIO(OH), gamma-Al 2 O 3 /gamma-Al 2 O 3 , gamma-Al 2 O 3 /AlO(OH), or a combination thereof; wherein the metal catalyst comprises a main catalyst selected from Co, Fe, and mixtures thereof and an auxiliary catalyst selected from Mo, V, and mixtures thereof.
Method for operating a silo for a bulk material, wherein the surface of the bulk material in the storage area is detected in a spatially resolved manner, characterised in that a silo with a bulk material feed is selected for the spatially resolved feed of bulk material, wherein at least a first region of the surface of the bulk material is identified, wherein the first region of the surface has a lower level than the mean value of the total surface of the bulk material, wherein the supply of bulk material is directed into the first region by a bulk material feed for spatially resolved supply.
An apparatus, comprising: means for transmitting , to a user equipment, more than one quality of service threshold configuration each comprising at least one quality of service threshold in order to configure the user equipment with multiple levels of quality of service thresholds, wherein each of the quality of service threshold configurations are associated with a quality of service threshold configuration identifier.
A safety automation system for an occupiable structure comprising: a computing management system including a computer processor , and a computer readable storage medium ; and a detection device adapted to detect a hazard condition and output an associated signal to the computing management system, and wherein the computing management system is configured to send a hazard notification signal to a user interface device remotely located from the occupiable structure; wherein the user interface device is mobile and the computing management system includes a wireless communications circuitry capable of receiving and transmitting wireless signals to the user interface device; wherein the wireless signals include a current local weather report received by and transmitted from the computing management system to the user interface device; characterised in that : the wireless signals include a map of the occupiable structure and an expected occupant location from the computer readable storage medium . a computing management system including a computer processor , and a computer readable storage medium ; and a detection device adapted to detect a hazard condition and output an associated signal to the computing management system, and wherein the computing management system is configured to send a hazard notification signal to a user interface device remotely located from the occupiable structure; wherein the user interface device is mobile and the computing management system includes a wireless communications circuitry capable of receiving and transmitting wireless signals to the user interface device; wherein the wireless signals include a current local weather report received by and transmitted from the computing management system to the user interface device; characterised in that : the wireless signals include a map of the occupiable structure and an expected occupant location from the computer readable storage medium .